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2 Commits

Author SHA1 Message Date
ringabout
dd2edf4562 allows foreign functions having forward decls 2024-07-12 22:35:17 +08:00
ringabout
ca7821bea3 fixes 23827; Cyclic proc calls causes infinite memory usage in VM 2024-07-12 22:10:11 +08:00
604 changed files with 6101 additions and 17690 deletions

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@@ -7,16 +7,17 @@ body:
- type: markdown
attributes:
value: |
Please provide a minimal code example that reproduces the bug if possible.
Reports with a reproducible example or detailed information will likely receive fixes faster.
- **Please provide a minimal code example that reproduces the Bug!** :bug:
Reports with a reproducible example and descriptive detailed information will likely receive fixes faster.
- type: textarea
id: description
attributes:
label: Description
description: |
Describe the problem. Code example can be given here.
placeholder: Bug reports with reproducible code or detailed information will be fixed faster.
Use DETAILED DESCRIPTIVE information about the problem.
Here, you go into more details about your Bug report. This section can be a few paragraphs long.
placeholder: Bug reports with reproducible code and detailed information will be fixed faster.
validations:
required: true
@@ -24,9 +25,7 @@ body:
id: nim-version
attributes:
label: Nim Version
description: |
Can be obtained from `nim -v` on the command line along with the OS/architecture.
For development versions, make sure to include the commit hash.
description: Copy and paste the output of `nim -v` on the command line. For development versions, make sure to include the commit hash.
validations:
required: true
@@ -35,7 +34,7 @@ body:
attributes:
label: Current Output
description: Please copy and paste any relevant log output. This will be automatically formatted into code, so no need for backticks.
placeholder: Bug reports with reproducible code or detailed information will be fixed faster.
placeholder: Bug reports with reproducible code and detailed information will be fixed faster.
render: text
- type: textarea
@@ -43,14 +42,14 @@ body:
attributes:
label: Expected Output
description: Please copy and paste any relevant log output. This will be automatically formatted into code, so no need for backticks.
placeholder: Bug reports with reproducible code or detailed information will be fixed faster.
placeholder: Bug reports with reproducible code and detailed information will be fixed faster.
render: text
- type: textarea
id: known-workarounds
id: possible-solution
attributes:
label: Known Workarounds
description: Provide any known workarounds.
label: Possible Solution
description: Propose a possible solution.
validations:
required: false
@@ -65,9 +64,13 @@ body:
- type: markdown
attributes:
value: |
- Please check whether the problem still exists in the devel branch, which can be installed via [choosenim](https://github.com/nim-lang/choosenim/), [nightlies](https://github.com/nim-lang/nightlies/), or by [creating a temporary build of the compiler](https://nim-lang.github.io/Nim/intern.html#debugging-the-compiler-building-an-instrumented-compiler).
- Thanks for your contributions!, your Bug report will receive feedback from the community soon...
- Please check whether the problem still exists in the devel branch, see [rebuilding the compiler](https://nim-lang.github.io/Nim/intern.html#rebuilding-the-compiler).
- Consider writing a PR targetting devel branch after filing this, see [contributing](https://nim-lang.github.io/Nim/contributing.html).
- If it's a pre-existing compiler bug, see [debugging the compiler](https://nim-lang.github.io/Nim/intern.html#debugging-the-compiler) which should give more context on a compiler crash.
- If it's a regression, you can help us by identifying which version introduced the bug by [bisecting](https://nim-lang.github.io/Nim/intern.html#bisecting-for-regressions) or at least trying known past releases (e.g. `choosenim 2.0.0`).
The Nim repo also supports bisecting in issue comments by adding `!nim c`, `!nim js` etc. before a code block, see [nimrun-action](https://github.com/juancarlospaco/nimrun-action).
- If it's a pre-existing compiler bug, see [Debugging the compiler](https://nim-lang.github.io/Nim/intern.html#debugging-the-compiler)
which should give more context on a compiler crash.
- If it's a regression, you can help us by identifying which version introduced the bug,
see [Bisecting for regressions](https://nim-lang.github.io/Nim/intern.html#bisecting-for-regressions),
or at least try known past releases (e.g. `choosenim 2.0.0`). The Nim repo also supports online bisecting
via making a comment, which contains a code block starting by `!nim c`, `!nim js` etc. , see [nimrun-action](https://github.com/juancarlospaco/nimrun-action).
- [Please, consider a Donation for the Nim project.](https://nim-lang.org/donate.html)

View File

@@ -45,7 +45,7 @@ jobs:
- target: windows
os: windows-2019
- target: osx
os: macos-13
os: macos-12
name: ${{ matrix.target }}
runs-on: ${{ matrix.os }}

View File

@@ -4,7 +4,6 @@ on:
push:
branches:
- 'devel'
- 'version-2-2'
- 'version-2-0'
- 'version-1-6'
- 'version-1-2'
@@ -18,7 +17,7 @@ jobs:
strategy:
fail-fast: false
matrix:
os: [ubuntu-20.04, macos-13]
os: [ubuntu-20.04, macos-12]
cpu: [amd64]
batch: ["allowed_failures", "0_3", "1_3", "2_3"] # list of `index_num`
name: '${{ matrix.os }} (batch: ${{ matrix.batch }})'
@@ -49,7 +48,6 @@ jobs:
- name: 'Install dependencies (macOS)'
if: runner.os == 'macOS'
run: brew install boehmgc make sfml gtk+3
# XXX can't find boehm and gtk on macos 13
- name: 'Install dependencies (Windows)'
if: runner.os == 'Windows'
shell: bash

View File

@@ -20,7 +20,7 @@ jobs:
strategy:
matrix:
Linux_amd64:
vmImage: 'ubuntu-24.04'
vmImage: 'ubuntu-20.04'
CPU: amd64
# regularly breaks, refs bug #17325
# Linux_i386:
@@ -29,10 +29,10 @@ jobs:
# vmImage: 'ubuntu-18.04'
# CPU: i386
OSX_amd64:
vmImage: 'macOS-13'
vmImage: 'macOS-12'
CPU: amd64
OSX_amd64_cpp:
vmImage: 'macOS-13'
vmImage: 'macOS-12'
CPU: amd64
NIM_COMPILE_TO_CPP: true
Windows_amd64_batch0_3:
@@ -80,12 +80,10 @@ jobs:
- bash: |
set -e
. ci/funs.sh
echo_run sudo add-apt-repository universe
echo_run sudo apt-get update -qq
echo_run sudo apt-fast update -qq
DEBIAN_FRONTEND='noninteractive' \
echo_run sudo apt-get install --no-install-recommends -yq \
gcc-14 g++-14 libpcre3 liblapack-dev libpcre3 liblapack-dev libcurl4-openssl-dev libgc-dev libsdl1.2-dev libsfml-dev valgrind libc6-dbg
echo_run sudo update-alternatives --install /usr/bin/gcc gcc /usr/bin/gcc-14 60 --slave /usr/bin/g++ g++ /usr/bin/g++-14
echo_run sudo apt-fast install --no-install-recommends -yq \
libcurl4-openssl-dev libgc-dev libsdl1.2-dev libsfml-dev valgrind libc6-dbg
displayName: 'Install dependencies (amd64 Linux)'
condition: and(succeeded(), eq(variables['skipci'], 'false'), eq(variables['Agent.OS'], 'Linux'), eq(variables['CPU'], 'amd64'))
@@ -102,16 +100,15 @@ jobs:
Pin-Priority: 1001
EOF
# echo_run sudo apt-get update -qq
echo_run sudo apt-get update -qq || echo "failed, see bug #17343"
# echo_run sudo apt-fast update -qq
echo_run sudo apt-fast update -qq || echo "failed, see bug #17343"
# `:i386` (e.g. in `libffi-dev:i386`) is needed otherwise you may get:
# `could not load: libffi.so` during dynamic loading.
DEBIAN_FRONTEND='noninteractive' \
echo_run sudo apt-get install --no-install-recommends --allow-downgrades -yq \
echo_run sudo apt-fast install --no-install-recommends --allow-downgrades -yq \
g++-multilib gcc-multilib libcurl4-openssl-dev:i386 libgc-dev:i386 \
libsdl1.2-dev:i386 libsfml-dev:i386 libglib2.0-dev:i386 libffi-dev:i386
cat << EOF > bin/gcc
#!/bin/bash
@@ -133,7 +130,6 @@ jobs:
- bash: brew install boehmgc make sfml
displayName: 'Install dependencies (OSX)'
condition: and(succeeded(), eq(variables['skipci'], 'false'), eq(variables['Agent.OS'], 'Darwin'))
# XXX can't find boehm on macos 13
- bash: |
set -e

View File

@@ -24,6 +24,6 @@ if not exist %nim_csources% (
cd ..
copy /y bin\nim.exe %nim_csources%
)
bin\nim.exe c --noNimblePath --skipUserCfg --skipParentCfg --hints:off koch
koch boot -d:release --skipUserCfg --skipParentCfg --hints:off
koch tools --skipUserCfg --skipParentCfg --hints:off
bin\nim.exe c --noNimblePath --skipUserCfg --skipParentCfg --hints:off koch
koch boot -d:release --skipUserCfg --skipParentCfg --hints:off
koch tools --skipUserCfg --skipParentCfg --hints:off

View File

@@ -1,69 +1,120 @@
# v2.x.x - yyyy-mm-dd
# v2.2.0 - yyyy-mm-dd
## Changes affecting backward compatibility
- `-d:nimPreviewFloatRoundtrip` becomes the default. `system.addFloat` and `system.$` now can produce string representations of
floating point numbers that are minimal in size and possess round-trip and correct
rounding guarantees (via the
[Dragonbox](https://raw.githubusercontent.com/jk-jeon/dragonbox/master/other_files/Dragonbox.pdf) algorithm). Use `-d:nimLegacySprintf` to emulate old behaviors.
- `-d:nimStrictDelete` becomes the default. An index error is produced when the index passed to `system.delete` was out of bounds. Use `-d:nimAuditDelete` to mimic the old behavior for backwards compatibility.
- The default user-agent in `std/httpclient` has been changed to `Nim-httpclient/<version>` instead of `Nim httpclient/<version>` which was incorrect according to the HTTP spec.
- Methods now support implementations based on a VTable by using `--experimental:vtables`. Methods are then confined to be in the same module where their type has been defined.
- With `-d:nimPreviewNonVarDestructor`, non-var destructors become the default.
- A bug where tuple unpacking assignment with a longer tuple on the RHS than the LHS was allowed has been fixed, i.e. code like:
```nim
var a, b: int
(a, b) = (1, 2, 3, 4)
```
will no longer compile.
- `internalNew` is removed from system, use `new` instead.
- The `default` parameter of `tables.getOrDefault` has been renamed to `def` to
avoid conflicts with `system.default`, so named argument usage for this
parameter like `getOrDefault(..., default = ...)` will have to be changed.
- `bindMethod` in `std/jsffi` is deprecated, don't use it with closures.
- With `-d:nimPreviewCheckedClose`, the `close` function in the `std/syncio` module now raises an IO exception in case of an error.
- JS backend now supports lambda lifting for closures. Use `--legacy:jsNoLambdaLifting` to emulate old behavior.
- `owner` in `std/macros` is deprecated.
## Standard library additions and changes
[//]: # "Additions:"
- `setutils.symmetricDifference` along with its operator version
`` setutils.`-+-` `` and in-place version `setutils.toggle` have been added
to more efficiently calculate the symmetric difference of bitsets.
[//]: # "Changes:"
- `std/math` The `^` symbol now supports floating-point as exponent in addition to the Natural type.
- Changed `std/osfiles.copyFile` to allow to specify `bufferSize` instead of a hardcoded one.
- Changed `std/osfiles.copyFile` to use `POSIX_FADV_SEQUENTIAL` hints for kernel-level aggressive sequential read-aheads.
- `std/htmlparser` has been moved to a nimble package, use `nimble` or `atlas` to install it.
[//]: # "Additions:"
- Added `newStringUninit` to system, which creates a new string of length `len` like `newString` but with uninitialized content.
- Added `setLenUninit` to system, which doesn't initialize
slots when enlarging a sequence.
- Added `hasDefaultValue` to `std/typetraits` to check if a type has a valid default value.
- Added Viewport API for the JavaScript targets in the `dom` module.
- Added `toSinglyLinkedRing` and `toDoublyLinkedRing` to `std/lists` to convert from `openArray`s.
- ORC: To be enabled via `nimOrcStats` there is a new API called `GC_orcStats` that can be used to query how many
objects the cyclic collector did free. If the number is zero that is a strong indicator that you can use `--mm:arc`
instead of `--mm:orc`.
- A `$` template is provided for `Path` in `std/paths`.
- `std/hashes.hash(x:string)` changed to produce a 64-bit string `Hash` (based
on Google's Farm Hash) which is also often faster than the present one. Define
`nimStringHash2` to get the old values back. `--jsbigint=off` mode always only
produces the old values. This may impact your automated tests if they depend
on hash order in some obvious or indirect way. Using `sorted` or `OrderedTable`
is often an easy workaround.
[//]: # "Deprecations:"
- Deprecates `system.newSeqUninitialized`, which is replaced by `newSeqUninit`.
[//]: # "Removals:"
## Language changes
- An experimental option `--experimental:typeBoundOps` has been added that
implements the RFC https://github.com/nim-lang/RFCs/issues/380.
This makes the behavior of interfaces like `hash`, `$`, `==` etc. more
reliable for nominal types across indirect/restricted imports.
- `noInit` can be used in types and fields to disable member initializers in the C++ backend.
- C++ custom constructors initializers see https://nim-lang.org/docs/manual_experimental.htm#constructor-initializer
- `member` can be used to attach a procedure to a C++ type.
- C++ `constructor` now reuses `result` instead creating `this`.
- Tuple unpacking changes:
- Tuple unpacking assignment now supports using underscores to discard values.
```nim
var a, c: int
(a, _, c) = (1, 2, 3)
```
- Tuple unpacking variable declarations now support type annotations, but
only for the entire tuple.
```nim
let (a, b): (int, int) = (1, 2)
let (a, (b, c)): (byte, (float, cstring)) = (1, (2, "abc"))
```
- An experimental option `genericsOpenSym` has been added to allow captured
symbols in generic routine bodies to be replaced by symbols injected locally
by templates/macros at instantiation time. `bind` may be used to keep the
captured symbols over the injected ones regardless of enabling the option.
Since this change may affect runtime behavior, the experimental switch
`genericsOpenSym` needs to be enabled, and a warning is given in the case
where an injected symbol would replace a captured symbol not bound by `bind`
and the experimental switch isn't enabled.
```nim
# objs.nim
import std/hashes
const value = "captured"
template foo(x: int, body: untyped) =
let value {.inject.} = "injected"
body
type
Obj* = object
x*, y*: int
z*: string # to be ignored for equality
proc old[T](): string =
foo(123):
return value # warning: a new `value` has been injected, use `bind` or turn on `experimental:genericsOpenSym`
echo old[int]() # "captured"
proc `==`*(a, b: Obj): bool =
a.x == b.x and a.y == b.y
{.experimental: "genericsOpenSym".}
proc hash*(a: Obj): Hash =
$!(hash(a.x) &! hash(a.y))
proc bar[T](): string =
foo(123):
return value
assert bar[int]() == "injected" # previously it would be "captured"
proc baz[T](): string =
bind value
foo(123):
return value
assert baz[int]() == "captured"
```
```nim
# main.nim
{.experimental: "typeBoundOps".}
from objs import Obj # objs.hash, objs.`==` not imported
import std/tables
var t: Table[Obj, int]
t[Obj(x: 3, y: 4, z: "debug")] = 34
echo t[Obj(x: 3, y: 4, z: "ignored")] # 34
```
See the [experimental manual](https://nim-lang.github.io/Nim/manual_experimental.html#typeminusbound-overloads)
for more information.
## Compiler changes
- `--nimcache` using a relative path as the argument in a config file is now relative to the config file instead of the current directory.
## Tool changes
- koch now allows bootstrapping with `-d:nimHasLibFFI`, replacing the older option of building the compiler directly w/ the `libffi` nimble package in tow.

View File

@@ -1,248 +1,12 @@
# v2.2.0 - 2024-10-02
# v2.2.0 - 2023-mm-dd
## Changes affecting backward compatibility
- `-d:nimStrictDelete` becomes the default. An index error is produced when the index passed to `system.delete` is out of bounds. Use `-d:nimAuditDelete` to mimic the old behavior for backward compatibility.
- The default user-agent in `std/httpclient` has been changed to `Nim-httpclient/<version>` instead of `Nim httpclient/<version>` which was incorrect according to the HTTP spec.
- Methods now support implementations based on a VTable by using `--experimental:vtables`. Methods are then confined to the same module where their type has been defined.
- With `-d:nimPreviewNonVarDestructor`, non-var destructors become the default.
- A bug where tuple unpacking assignment with a longer tuple on the RHS than the LHS was allowed has been fixed, i.e. code like:
```nim
var a, b: int
(a, b) = (1, 2, 3, 4)
```
will no longer compile.
- `internalNew` is removed from the `system` module, use `new` instead.
- `bindMethod` in `std/jsffi` is deprecated, don't use it with closures.
- The JS backend now supports lambda lifting for closures. Use `--legacy:jsNoLambdaLifting` to emulate old behaviors.
- The JS backend now supports closure iterators.
- `owner` in `std/macros` is deprecated.
- Ambiguous type symbols in generic procs and templates now generate symchoice nodes.
Previously; in templates they would error immediately at the template definition,
and in generic procs a type symbol would arbitrarily be captured, losing the
information of the other symbols. This means that generic code can now give
errors for ambiguous type symbols, and macros operating on generic proc AST
may encounter symchoice nodes instead of the arbitrarily resolved type symbol nodes.
- Partial generic instantiation of routines is no longer allowed. Previously
it compiled in niche situations due to bugs in the compiler.
```nim
proc foo[T, U](x: T, y: U) = echo (x, y)
proc foo[T, U](x: var T, y: U) = echo "var ", (x, y)
proc bar[T]() =
foo[float](1, "abc")
bar[int]() # before: (1.0, "abc"), now: type mismatch, missing generic parameter
```
- `const` values now open a new scope for each constant, meaning symbols
declared in them can no longer be used outside or in the value of
other constants.
```nim
const foo = (var a = 1; a)
const bar = a # error
let baz = a # error
```
- The following POSIX wrappers have had their types changed from signed to
unsigned types on OSX and FreeBSD/OpenBSD to correct codegen errors:
- `Gid` (was `int32`, is now `uint32`)
- `Uid` (was `int32`, is now `uint32`)
- `Dev` (was `int32`, is now `uint32` on FreeBSD)
- `Nlink` (was `int16`, is now `uint32` on OpenBSD and `uint16` on OSX/other BSD)
- `sin6_flowinfo` and `sin6_scope_id` fields of `Sockaddr_in6`
(were `int32`, are now `uint32`)
- `n_net` field of `Tnetent` (was `int32`, is now `uint32`)
- The `Atomic[T]` type on C++ now uses C11 primitives by default instead of
`std::atomic`. To use `std::atomic` instead, `-d:nimUseCppAtomics` can be defined.
## Standard library additions and changes
[//]: # "Changes:"
- Changed `std/osfiles.copyFile` to allow specifying `bufferSize` instead of a hard-coded one.
- Changed `std/osfiles.copyFile` to use `POSIX_FADV_SEQUENTIAL` hints for kernel-level aggressive sequential read-aheads.
- `std/htmlparser` has been moved to a nimble package, use `nimble` or `atlas` to install it.
- Changed `std/os.copyDir` and `copyDirWithPermissions` to allow skipping special "file" objects like FIFOs, device files, etc on Unix by specifying a `skipSpecial` parameter.
[//]: # "Additions:"
- Added `newStringUninit` to the `system` module, which creates a new string of length `len` like `newString` but with uninitialized content.
- Added `setLenUninit` to the `system` module, which doesn't initialize
slots when enlarging a sequence.
- Added `hasDefaultValue` to `std/typetraits` to check if a type has a valid default value.
- Added `rangeBase` to `std/typetraits` to obtain the base type of a range type or
convert a value with a range type to its base type.
- Added Viewport API for the JavaScript targets in the `dom` module.
- Added `toSinglyLinkedRing` and `toDoublyLinkedRing` to `std/lists` to convert from `openArray`s.
- ORC: To be enabled via `nimOrcStats` there is a new API called `GC_orcStats` that can be used to query how many
objects the cyclic collector did free. If the number is zero that is a strong indicator that you can use `--mm:arc`
instead of `--mm:orc`.
- A `$` template is provided for `Path` in `std/paths`.
- `std/hashes.hash(x:string)` changed to produce a 64-bit string `Hash` (based
on Google's Farm Hash) which is also often faster than the present one. Define
`nimStringHash2` to get the old values back. `--jsbigint=off` mode always only
produces the old values. This may impact your automated tests if they depend
on hash order in some obvious or indirect way. Using `sorted` or `OrderedTable`
is often an easy workaround.
[//]: # "Deprecations:"
- Deprecates `system.newSeqUninitialized`, which is replaced by `newSeqUninit`.
[//]: # "Removals:"
## Language changes
- `noInit` can be used in types and fields to disable member initializers in the C++ backend.
- C++ custom constructors initializers see https://nim-lang.org/docs/manual_experimental.html#constructor-initializer
- `member` can be used to attach a procedure to a C++ type.
- Inside a C++ constructor, `result` can be used to access the created object rather than `this`.
- Tuple unpacking changes:
- Tuple unpacking assignment now supports using underscores to discard values.
```nim
var a, c: int
(a, _, c) = (1, 2, 3)
```
- Tuple unpacking variable declarations now support type annotations, but
only for the entire tuple.
```nim
let (a, b): (int, int) = (1, 2)
let (a, (b, c)): (byte, (float, cstring)) = (1, (2, "abc"))
```
- The experimental option `--experimental:openSym` has been added to allow
captured symbols in generic routine and template bodies respectively to be
replaced by symbols injected locally by templates/macros at instantiation
time. `bind` may be used to keep the captured symbols over the injected ones
regardless of enabling the option, but other methods like renaming the
captured symbols should be used instead so that the code is not affected by
context changes.
Since this change may affect runtime behavior, the experimental switch
`openSym` needs to be enabled; and a warning is given in the case where an
injected symbol would replace a captured symbol not bound by `bind` and
the experimental switch isn't enabled.
```nim
const value = "captured"
template foo(x: int, body: untyped): untyped =
let value {.inject.} = "injected"
body
proc old[T](): string =
foo(123):
return value # warning: a new `value` has been injected, use `bind` or turn on `experimental:openSym`
echo old[int]() # "captured"
template oldTempl(): string =
block:
foo(123):
value # warning: a new `value` has been injected, use `bind` or turn on `experimental:openSym`
echo oldTempl() # "captured"
{.experimental: "openSym".}
proc bar[T](): string =
foo(123):
return value
assert bar[int]() == "injected" # previously it would be "captured"
proc baz[T](): string =
bind value
foo(123):
return value
assert baz[int]() == "captured"
template barTempl(): string =
block:
foo(123):
value
assert barTempl() == "injected" # previously it would be "captured"
template bazTempl(): string =
bind value
block:
foo(123):
value
assert bazTempl() == "captured"
```
This option also generates a new node kind `nnkOpenSym` which contains
exactly 1 `nnkSym` node. In the future this might be merged with a slightly
modified `nnkOpenSymChoice` node but macros that want to support the
experimental feature should still handle `nnkOpenSym`, as the node kind would
simply not be generated as opposed to being removed.
Another experimental switch `genericsOpenSym` exists that enables this behavior
at instantiation time, meaning templates etc can enable it specifically when
they are being called. However this does not generate `nnkOpenSym` nodes
(unless the other switch is enabled) and so doesn't reflect the regular
behavior of the switch.
```nim
const value = "captured"
template foo(x: int, body: untyped): untyped =
let value {.inject.} = "injected"
{.push experimental: "genericsOpenSym".}
body
{.pop.}
proc bar[T](): string =
foo(123):
return value
echo bar[int]() # "injected"
template barTempl(): string =
block:
var res: string
foo(123):
res = value
res
assert barTempl() == "injected"
```
## Compiler changes
- `--nimcache` using a relative path as the argument in a config file is now relative to the config file instead of the current directory.
## Tool changes
- koch now allows bootstrapping with `-d:nimHasLibFFI`, replacing the older option of building the compiler directly w/ the `libffi` nimble package.

View File

@@ -1,4 +1,4 @@
# v2.xx.x - yyyy-mm-dd
# v1.xx.x - yyyy-mm-dd
This is an example file.
The changes should go to changelog.md!

View File

@@ -41,7 +41,7 @@ type
TNodeKinds* = set[TNodeKind]
type
TSymFlag* = enum # 63 flags!
TSymFlag* = enum # 53 flags!
sfUsed, # read access of sym (for warnings) or simply used
sfExported, # symbol is exported from module
sfFromGeneric, # symbol is instantiation of a generic; this is needed
@@ -52,6 +52,7 @@ type
sfForward, # symbol is forward declared
sfWasForwarded, # symbol had a forward declaration
# (implies it's too dangerous to patch its type signature)
sfNosinks, # symbol has a `nosinks` pragma
sfImportc, # symbol is external; imported
sfExportc, # symbol is exported (under a specified name)
sfMangleCpp, # mangle as cpp (combines with `sfExportc`)
@@ -93,7 +94,7 @@ type
sfNamedParamCall, # symbol needs named parameter call syntax in target
# language; for interfacing with Objective C
sfDiscardable, # returned value may be discarded implicitly
sfOverridden, # proc is overridden
sfOverridden, # proc is overridden
sfCallsite # A flag for template symbols to tell the
# compiler it should use line information from
# the calling side of the macro, not from the
@@ -129,22 +130,23 @@ type
sfWasGenSym # symbol was 'gensym'ed
sfForceLift # variable has to be lifted into closure environment
sfDirty # template is not hygienic (old styled template) module,
# compiled from a dirty-buffer
sfCustomPragma # symbol is custom pragma template
sfBase, # a base method
sfGoto # var is used for 'goto' code generation
sfAnon, # symbol name that was generated by the compiler
# the compiler will avoid printing such names
# in user messages.
sfAllUntyped # macro or template is immediately expanded in a generic context
sfTemplateRedefinition # symbol is a redefinition of an earlier template
TSymFlags* = set[TSymFlag]
const
sfNoInit* = sfMainModule # don't generate code to init the variable
sfAllUntyped* = sfVolatile # macro or template is immediately expanded \
# in a generic context
sfDirty* = sfPure
# template is not hygienic (old styled template)
# module, compiled from a dirty-buffer
sfAnon* = sfDiscardable
# symbol name that was generated by the compiler
# the compiler will avoid printing such names
# in user messages.
sfNoForward* = sfRegister
# forward declarations are not required (per module)
sfReorder* = sfForward
@@ -153,8 +155,12 @@ const
sfCompileToCpp* = sfInfixCall # compile the module as C++ code
sfCompileToObjc* = sfNamedParamCall # compile the module as Objective-C code
sfExperimental* = sfOverridden # module uses the .experimental switch
sfGoto* = sfOverridden # var is used for 'goto' code generation
sfWrittenTo* = sfBorrow # param is assigned to
# currently unimplemented
sfBase* = sfDiscriminant
sfCustomPragma* = sfRegister # symbol is custom pragma template
sfTemplateRedefinition* = sfExportc # symbol is a redefinition of an earlier template
sfCppMember* = { sfVirtual, sfMember, sfConstructor } # proc is a C++ member, meaning it will be attached to the type definition
const
@@ -214,8 +220,7 @@ type
tyUncheckedArray
# An array with boundaries [0,+∞]
tyError # used as erroneous type (for idetools)
# as an erroneous node should match everything
tyProxy # used as errornous type (for idetools)
tyBuiltInTypeClass
# Type such as the catch-all object, tuple, seq, etc
@@ -277,9 +282,13 @@ static:
const
tyPureObject* = tyTuple
GcTypeKinds* = {tyRef, tySequence, tyString}
tyError* = tyProxy # as an errornous node should match everything
tyUnknown* = tyFromExpr
tyUnknownTypes* = {tyError, tyFromExpr}
tyTypeClasses* = {tyBuiltInTypeClass, tyCompositeTypeClass,
tyUserTypeClass, tyUserTypeClassInst, tyConcept,
tyUserTypeClass, tyUserTypeClassInst,
tyAnd, tyOr, tyNot, tyAnything}
tyMetaTypes* = {tyGenericParam, tyTypeDesc, tyUntyped} + tyTypeClasses
@@ -322,9 +331,7 @@ type
nfFirstWrite # this node is a first write
nfHasComment # node has a comment
nfSkipFieldChecking # node skips field visable checking
nfDisabledOpenSym # temporary: node should be nkOpenSym but cannot
# because openSym experimental switch is disabled
# gives warning instead
nfOpenSym # node is a captured sym but can be overriden by local symbols
TNodeFlags* = set[TNodeFlag]
TTypeFlag* = enum # keep below 32 for efficiency reasons (now: 47)
@@ -445,10 +452,6 @@ const
tfGcSafe* = tfThread
tfObjHasKids* = tfEnumHasHoles
tfReturnsNew* = tfInheritable
tfNonConstExpr* = tfExplicitCallConv
## tyFromExpr where the expression shouldn't be evaluated as a static value
tfGenericHasDestructor* = tfExplicitCallConv
## tyGenericBody where an instance has a generated destructor
skError* = skUnknown
var
@@ -493,7 +496,7 @@ type
mAnd, mOr,
mImplies, mIff, mExists, mForall, mOld,
mEqStr, mLeStr, mLtStr,
mEqSet, mLeSet, mLtSet, mMulSet, mPlusSet, mMinusSet, mXorSet,
mEqSet, mLeSet, mLtSet, mMulSet, mPlusSet, mMinusSet,
mConStrStr, mSlice,
mDotDot, # this one is only necessary to give nice compile time warnings
mFields, mFieldPairs, mOmpParFor,
@@ -561,7 +564,7 @@ const
mStrToStr, mEnumToStr,
mAnd, mOr,
mEqStr, mLeStr, mLtStr,
mEqSet, mLeSet, mLtSet, mMulSet, mPlusSet, mMinusSet, mXorSet,
mEqSet, mLeSet, mLtSet, mMulSet, mPlusSet, mMinusSet,
mConStrStr, mAppendStrCh, mAppendStrStr, mAppendSeqElem,
mInSet, mRepr, mOpenArrayToSeq}
@@ -593,7 +596,7 @@ type
TNode*{.final, acyclic.} = object # on a 32bit machine, this takes 32 bytes
when defined(useNodeIds):
id*: int
typField: PType
typ*: PType
info*: TLineInfo
flags*: TNodeFlags
case kind*: TNodeKind
@@ -654,7 +657,7 @@ type
storage*: TStorageLoc
flags*: TLocFlags # location's flags
lode*: PNode # Node where the location came from; can be faked
snippet*: Rope # C code snippet of location (code generators)
r*: Rope # rope value of location (code generators)
# ---------------- end of backend information ------------------------------
@@ -708,7 +711,7 @@ type
when defined(nimsuggest):
endInfo*: TLineInfo
hasUserSpecifiedType*: bool # used for determining whether to display inlay type hints
ownerField: PSym
owner*: PSym
flags*: TSymFlags
ast*: PNode # syntax tree of proc, iterator, etc.:
# the whole proc including header; this is used
@@ -777,7 +780,7 @@ type
# formal param list
# for concepts, the concept body
# else: unused
ownerField: PSym # the 'owner' of the type
owner*: PSym # the 'owner' of the type
sym*: PSym # types have the sym associated with them
# it is used for converting types to strings
size*: BiggestInt # the size of the type in bytes
@@ -816,15 +819,6 @@ type
template nodeId(n: PNode): int = cast[int](n)
template typ*(n: PNode): PType =
n.typField
proc owner*(s: PSym|PType): PSym {.inline.} =
result = s.ownerField
proc setOwner*(s: PSym|PType, owner: PSym) {.inline.} =
s.ownerField = owner
type Gconfig = object
# we put comments in a side channel to avoid increasing `sizeof(TNode)`, which
# reduces memory usage given that `PNode` is the most allocated type by far.
@@ -892,7 +886,7 @@ const
nfFromTemplate, nfDefaultRefsParam,
nfExecuteOnReload, nfLastRead,
nfFirstWrite, nfSkipFieldChecking,
nfDisabledOpenSym}
nfOpenSym}
namePos* = 0
patternPos* = 1 # empty except for term rewriting macros
genericParamsPos* = 2
@@ -906,7 +900,7 @@ const
nfAllFieldsSet* = nfBase2
nkIdentKinds* = {nkIdent, nkSym, nkAccQuoted, nkOpenSymChoice,
nkClosedSymChoice, nkOpenSym}
nkClosedSymChoice}
nkPragmaCallKinds* = {nkExprColonExpr, nkCall, nkCallStrLit}
nkLiterals* = {nkCharLit..nkTripleStrLit}
@@ -934,7 +928,6 @@ proc getPIdent*(a: PNode): PIdent {.inline.} =
of nkSym: a.sym.name
of nkIdent: a.ident
of nkOpenSymChoice, nkClosedSymChoice: a.sons[0].sym.name
of nkOpenSym: getPIdent(a.sons[0])
else: nil
const
@@ -1068,11 +1061,8 @@ proc getDeclPragma*(n: PNode): PNode =
proc extractPragma*(s: PSym): PNode =
## gets the pragma node of routine/type/var/let/const symbol `s`
if s.kind in routineKinds: # bug #24167
if s.ast[pragmasPos] != nil and s.ast[pragmasPos].kind != nkEmpty:
result = s.ast[pragmasPos]
else:
result = nil
if s.kind in routineKinds:
result = s.ast[pragmasPos]
elif s.kind in {skType, skVar, skLet, skConst}:
if s.ast != nil and s.ast.len > 0:
if s.ast[0].kind == nkPragmaExpr and s.ast[0].len > 1:
@@ -1143,7 +1133,7 @@ proc newNodeIT*(kind: TNodeKind, info: TLineInfo, typ: PType): PNode =
## new node with line info, type, and no children
result = newNode(kind)
result.info = info
result.typ() = typ
result.typ = typ
proc newNode*(kind: TNodeKind, info: TLineInfo): PNode =
## new node with line info, no type, and no children
@@ -1208,7 +1198,7 @@ proc newSym*(symKind: TSymKind, name: PIdent, idgen: IdGenerator; owner: PSym,
assert not name.isNil
let id = nextSymId idgen
result = PSym(name: name, kind: symKind, flags: {}, info: info, itemId: id,
options: options, ownerField: owner, offset: defaultOffset,
options: options, owner: owner, offset: defaultOffset,
disamb: getOrDefault(idgen.disambTable, name).int32)
idgen.disambTable.inc name
when false:
@@ -1289,18 +1279,15 @@ proc newIdentNode*(ident: PIdent, info: TLineInfo): PNode =
proc newSymNode*(sym: PSym): PNode =
result = newNode(nkSym)
result.sym = sym
result.typ() = sym.typ
result.typ = sym.typ
result.info = sym.info
proc newSymNode*(sym: PSym, info: TLineInfo): PNode =
result = newNode(nkSym)
result.sym = sym
result.typ() = sym.typ
result.typ = sym.typ
result.info = info
proc newOpenSym*(n: PNode): PNode {.inline.} =
result = newTreeI(nkOpenSym, n.info, n)
proc newIntNode*(kind: TNodeKind, intVal: BiggestInt): PNode =
result = newNode(kind)
result.intVal = intVal
@@ -1375,7 +1362,7 @@ proc newIntTypeNode*(intVal: BiggestInt, typ: PType): PNode =
result = newNode(nkIntLit)
else: raiseAssert $kind
result.intVal = intVal
result.typ() = typ
result.typ = typ
proc newIntTypeNode*(intVal: Int128, typ: PType): PNode =
# XXX: introduce range check
@@ -1514,7 +1501,7 @@ iterator signature*(t: PType): PType =
proc newType*(kind: TTypeKind; idgen: IdGenerator; owner: PSym; son: sink PType = nil): PType =
let id = nextTypeId idgen
result = PType(kind: kind, ownerField: owner, size: defaultSize,
result = PType(kind: kind, owner: owner, size: defaultSize,
align: defaultAlignment, itemId: id,
uniqueId: id, sons: @[])
if son != nil: result.sons.add son
@@ -1525,14 +1512,13 @@ proc newType*(kind: TTypeKind; idgen: IdGenerator; owner: PSym; son: sink PType
proc setSons*(dest: PType; sons: sink seq[PType]) {.inline.} = dest.sons = sons
proc setSon*(dest: PType; son: sink PType) {.inline.} = dest.sons = @[son]
proc setSonsLen*(dest: PType; len: int) {.inline.} = setLen(dest.sons, len)
proc mergeLoc(a: var TLoc, b: TLoc) =
if a.k == low(typeof(a.k)): a.k = b.k
if a.storage == low(typeof(a.storage)): a.storage = b.storage
a.flags.incl b.flags
if a.lode == nil: a.lode = b.lode
if a.snippet == "": a.snippet = b.snippet
if a.r == "": a.r = b.r
proc newSons*(father: PNode, length: int) =
setLen(father.sons, length)
@@ -1569,7 +1555,7 @@ proc copyType*(t: PType, idgen: IdGenerator, owner: PSym): PType =
result.sym = t.sym # backend-info should not be copied
proc exactReplica*(t: PType): PType =
result = PType(kind: t.kind, ownerField: t.owner, size: defaultSize,
result = PType(kind: t.kind, owner: t.owner, size: defaultSize,
align: defaultAlignment, itemId: t.itemId,
uniqueId: t.uniqueId)
assignType(result, t)
@@ -1647,7 +1633,7 @@ proc propagateToOwner*(owner, elem: PType; propagateHasAsgn = true) =
if mask != {} and propagateHasAsgn:
let o2 = owner.skipTypes({tyGenericInst, tyAlias, tySink})
if o2.kind in {tyTuple, tyObject, tyArray,
tySequence, tyString, tySet, tyDistinct}:
tySequence, tySet, tyDistinct}:
o2.flags.incl mask
owner.flags.incl mask
@@ -1677,7 +1663,7 @@ proc copyNode*(src: PNode): PNode =
return nil
result = newNode(src.kind)
result.info = src.info
result.typ() = src.typ
result.typ = src.typ
result.flags = src.flags * PersistentNodeFlags
result.comment = src.comment
when defined(useNodeIds):
@@ -1695,7 +1681,7 @@ proc copyNode*(src: PNode): PNode =
template transitionNodeKindCommon(k: TNodeKind) =
let obj {.inject.} = n[]
n[] = TNode(kind: k, typField: n.typ, info: obj.info, flags: obj.flags)
n[] = TNode(kind: k, typ: obj.typ, info: obj.info, flags: obj.flags)
# n.comment = obj.comment # shouldn't be needed, the address doesnt' change
when defined(useNodeIds):
n.id = obj.id
@@ -1718,7 +1704,7 @@ proc transitionNoneToSym*(n: PNode) =
template transitionSymKindCommon*(k: TSymKind) =
let obj {.inject.} = s[]
s[] = TSym(kind: k, itemId: obj.itemId, magic: obj.magic, typ: obj.typ, name: obj.name,
info: obj.info, ownerField: obj.ownerField, flags: obj.flags, ast: obj.ast,
info: obj.info, owner: obj.owner, flags: obj.flags, ast: obj.ast,
options: obj.options, position: obj.position, offset: obj.offset,
loc: obj.loc, annex: obj.annex, constraint: obj.constraint)
when hasFFI:
@@ -1746,7 +1732,7 @@ template copyNodeImpl(dst, src, processSonsStmt) =
dst.info = src.info
when defined(nimsuggest):
result.endInfo = src.endInfo
dst.typ() = src.typ
dst.typ = src.typ
dst.flags = src.flags * PersistentNodeFlags
dst.comment = src.comment
when defined(useNodeIds):

View File

@@ -75,7 +75,7 @@ proc symToYamlAux(res: var string; conf: ConfigRef; n: PSym; marker: var IntSet;
res.addf("\n$1storage: $2", [istr, makeYamlString($n.loc.storage)])
if card(n.loc.flags) > 0:
res.addf("\n$1flags: $2", [istr, makeYamlString($n.loc.flags)])
res.addf("\n$1snippet: $2", [istr, n.loc.snippet])
res.addf("\n$1r: $2", [istr, n.loc.r])
res.addf("\n$1lode: $2", [istr])
res.treeToYamlAux(conf, n.loc.lode, marker, indent + 1, maxRecDepth - 1)

View File

@@ -0,0 +1,25 @@
import pragmas, options, ast, trees
proc pushBackendOption(optionsStack: var seq[TOptions], options: var TOptions) =
optionsStack.add options
proc popBackendOption(optionsStack: var seq[TOptions], options: var TOptions) =
options = optionsStack[^1]
optionsStack.setLen(optionsStack.len-1)
proc processPushBackendOption*(optionsStack: var seq[TOptions], options: var TOptions,
n: PNode, start: int) =
pushBackendOption(optionsStack, options)
for i in start..<n.len:
let it = n[i]
if it.kind in nkPragmaCallKinds and it.len == 2 and it[1].kind == nkIntLit:
let sw = whichPragma(it[0])
let opts = pragmaToOptions(sw)
if opts != {}:
if it[1].intVal != 0:
options.incl opts
else:
options.excl opts
template processPopBackendOption*(optionsStack: var seq[TOptions], options: var TOptions) =
popBackendOption(optionsStack, options)

View File

@@ -1,164 +0,0 @@
import ropes, int128
type
Snippet* = string
Builder* = object
buf*: string
indents*: int
template newBuilder*(s: string): Builder =
Builder(buf: s)
proc extract*(builder: Builder): Snippet =
builder.buf
proc add*(builder: var Builder, s: string) =
builder.buf.add(s)
proc add*(builder: var Builder, s: char) =
builder.buf.add(s)
proc addNewline*(builder: var Builder) =
builder.add('\n')
for i in 0 ..< builder.indents:
builder.add('\t')
proc addLineEnd*(builder: var Builder, s: string) =
builder.add(s)
builder.addNewline()
proc addLineEndIndent*(builder: var Builder, s: string) =
inc builder.indents
builder.add(s)
builder.addNewline()
proc addDedent*(builder: var Builder, s: string) =
if builder.buf.len > 0 and builder.buf[^1] == '\t':
builder.buf.setLen(builder.buf.len - 1)
builder.add(s)
dec builder.indents
proc addLineEndDedent*(builder: var Builder, s: string) =
builder.addDedent(s)
builder.addNewline()
proc addLineComment*(builder: var Builder, comment: string) =
# probably no-op on nifc
builder.add("// ")
builder.add(comment)
builder.addNewline()
proc addIntValue*(builder: var Builder, val: int) =
builder.buf.addInt(val)
proc addIntValue*(builder: var Builder, val: int64) =
builder.buf.addInt(val)
proc addIntValue*(builder: var Builder, val: uint64) =
builder.buf.addInt(val)
proc addIntValue*(builder: var Builder, val: Int128) =
builder.buf.addInt128(val)
template cIntValue*(val: int): Snippet = $val
template cIntValue*(val: int64): Snippet = $val
template cIntValue*(val: uint64): Snippet = $val
template cIntValue*(val: Int128): Snippet = $val
template cUintValue*(val: uint): Snippet = $val & "U"
import std/formatfloat
proc addFloatValue*(builder: var Builder, val: float) =
builder.buf.addFloat(val)
template cFloatValue*(val: float): Snippet = $val
proc addInt64Literal*(result: var Builder; i: BiggestInt) =
if i > low(int64):
result.add "IL64($1)" % [rope(i)]
else:
result.add "(IL64(-9223372036854775807) - IL64(1))"
proc addUint64Literal*(result: var Builder; i: uint64) =
result.add rope($i & "ULL")
proc addIntLiteral*(result: var Builder; i: BiggestInt) =
if i > low(int32) and i <= high(int32):
result.addIntValue(i)
elif i == low(int32):
# Nim has the same bug for the same reasons :-)
result.add "(-2147483647 -1)"
elif i > low(int64):
result.add "IL64($1)" % [rope(i)]
else:
result.add "(IL64(-9223372036854775807) - IL64(1))"
proc addIntLiteral*(result: var Builder; i: Int128) =
addIntLiteral(result, toInt64(i))
proc cInt64Literal*(i: BiggestInt): Snippet =
if i > low(int64):
result = "IL64($1)" % [rope(i)]
else:
result = "(IL64(-9223372036854775807) - IL64(1))"
proc cUint64Literal*(i: uint64): Snippet =
result = $i & "ULL"
proc cIntLiteral*(i: BiggestInt): Snippet =
if i > low(int32) and i <= high(int32):
result = rope(i)
elif i == low(int32):
# Nim has the same bug for the same reasons :-)
result = "(-2147483647 -1)"
elif i > low(int64):
result = "IL64($1)" % [rope(i)]
else:
result = "(IL64(-9223372036854775807) - IL64(1))"
proc cIntLiteral*(i: Int128): Snippet =
result = cIntLiteral(toInt64(i))
const
NimInt* = "NI"
NimInt8* = "NI8"
NimInt16* = "NI16"
NimInt32* = "NI32"
NimInt64* = "NI64"
CInt* = "int"
NimUint* = "NU"
NimUint8* = "NU8"
NimUint16* = "NU16"
NimUint32* = "NU32"
NimUint64* = "NU64"
NimFloat* = "NF"
NimFloat32* = "NF32"
NimFloat64* = "NF64"
NimFloat128* = "NF128" # not actually defined
NimNan* = "NAN"
NimInf* = "INF"
NimBool* = "NIM_BOOL"
NimTrue* = "NIM_TRUE"
NimFalse* = "NIM_FALSE"
NimChar* = "NIM_CHAR"
CChar* = "char"
NimCstring* = "NCSTRING"
NimNil* = "NIM_NIL"
CNil* = "NULL"
NimStrlitFlag* = "NIM_STRLIT_FLAG"
CVoid* = "void"
CPointer* = "void*"
CConstPointer* = "NIM_CONST void*"
proc cIntType*(bits: BiggestInt): Snippet =
"NI" & $bits
proc cUintType*(bits: BiggestInt): Snippet =
"NU" & $bits
type
IfBuilderState* = enum
WaitingIf, WaitingElseIf, InBlock
IfBuilder* = object
state*: IfBuilderState

View File

@@ -1,668 +0,0 @@
type VarKind = enum
Local
Global
Threadvar
Const
AlwaysConst ## const even on C++
proc addVarHeader(builder: var Builder, kind: VarKind) =
## adds modifiers for given var kind:
## Local has no modifier
## Global has `static` modifier
## Const has `static NIM_CONST` modifier
## AlwaysConst has `static const` modifier (NIM_CONST is no-op on C++)
## Threadvar is unimplemented
case kind
of Local: discard
of Global:
builder.add("static ")
of Const:
builder.add("static NIM_CONST ")
of AlwaysConst:
builder.add("static const ")
of Threadvar:
doAssert false, "unimplemented"
proc addVar(builder: var Builder, kind: VarKind = Local, name: string, typ: Snippet, initializer: Snippet = "") =
## adds a variable declaration to the builder
builder.addVarHeader(kind)
builder.add(typ)
builder.add(" ")
builder.add(name)
if initializer.len != 0:
builder.add(" = ")
builder.add(initializer)
builder.addLineEnd(";")
template addVarWithType(builder: var Builder, kind: VarKind = Local, name: string, body: typed) =
## adds a variable declaration to the builder, with the `body` building the type
builder.addVarHeader(kind)
body
builder.add(" ")
builder.add(name)
builder.addLineEnd(";")
template addVarWithInitializer(builder: var Builder, kind: VarKind = Local, name: string,
typ: Snippet, initializerBody: typed) =
## adds a variable declaration to the builder, with
## `initializerBody` building the initializer. initializer must be provided
builder.addVarHeader(kind)
builder.add(typ)
builder.add(" ")
builder.add(name)
builder.add(" = ")
initializerBody
builder.addLineEnd(";")
template addVarWithTypeAndInitializer(builder: var Builder, kind: VarKind = Local, name: string,
typeBody, initializerBody: typed) =
## adds a variable declaration to the builder, with `typeBody` building the type, and
## `initializerBody` building the initializer. initializer must be provided
builder.addVarHeader(kind)
typeBody
builder.add(" ")
builder.add(name)
builder.add(" = ")
initializerBody
builder.addLineEnd(";")
proc addArrayVar(builder: var Builder, kind: VarKind = Local, name: string, elementType: Snippet, len: int, initializer: Snippet = "") =
## adds an array variable declaration to the builder
builder.addVarHeader(kind)
builder.add(elementType)
builder.add(" ")
builder.add(name)
builder.add("[")
builder.addIntValue(len)
builder.add("]")
if initializer.len != 0:
builder.add(" = ")
builder.add(initializer)
builder.addLineEnd(";")
template addArrayVarWithInitializer(builder: var Builder, kind: VarKind = Local, name: string, elementType: Snippet, len: int, body: typed) =
## adds an array variable declaration to the builder with the initializer built according to `body`
builder.addVarHeader(kind)
builder.add(elementType)
builder.add(" ")
builder.add(name)
builder.add("[")
builder.addIntValue(len)
builder.add("] = ")
body
builder.addLineEnd(";")
template addTypedef(builder: var Builder, name: string, typeBody: typed) =
## adds a typedef declaration to the builder with name `name` and type as
## built in `typeBody`
builder.add("typedef ")
typeBody
builder.add(" ")
builder.add(name)
builder.addLineEnd(";")
proc addProcTypedef(builder: var Builder, callConv: TCallingConvention, name: string, rettype, params: Snippet) =
builder.add("typedef ")
builder.add(CallingConvToStr[callConv])
builder.add("_PTR(")
builder.add(rettype)
builder.add(", ")
builder.add(name)
builder.add(")")
builder.add(params)
builder.addLineEnd(";")
template addArrayTypedef(builder: var Builder, name: string, len: BiggestInt, typeBody: typed) =
## adds an array typedef declaration to the builder with name `name`,
## length `len`, and element type as built in `typeBody`
builder.add("typedef ")
typeBody
builder.add(" ")
builder.add(name)
builder.add("[")
builder.addIntValue(len)
builder.addLineEnd("];")
type
StructInitializerKind = enum
siOrderedStruct ## struct constructor, but without named fields on C
siNamedStruct ## struct constructor, with named fields i.e. C99 designated initializer
siArray ## array constructor
siWrapper ## wrapper for a single field, generates it verbatim
StructInitializer = object
## context for building struct initializers, i.e. `{ field1, field2 }`
kind: StructInitializerKind
## if true, fields will not be named, instead values are placed in order
needsComma: bool
proc initStructInitializer(builder: var Builder, kind: StructInitializerKind): StructInitializer =
## starts building a struct initializer, i.e. braced initializer list
result = StructInitializer(kind: kind, needsComma: false)
if kind != siWrapper:
builder.add("{")
template addField(builder: var Builder, constr: var StructInitializer, name: string, valueBody: typed) =
## adds a field to a struct initializer, with the value built in `valueBody`
if constr.needsComma:
assert constr.kind != siWrapper, "wrapper constructor cannot have multiple fields"
builder.add(", ")
else:
constr.needsComma = true
case constr.kind
of siArray, siWrapper:
# no name, can just add value
valueBody
of siOrderedStruct:
# no name, can just add value on C
assert name.len != 0, "name has to be given for struct initializer field"
valueBody
of siNamedStruct:
assert name.len != 0, "name has to be given for struct initializer field"
builder.add(".")
builder.add(name)
builder.add(" = ")
valueBody
proc finishStructInitializer(builder: var Builder, constr: StructInitializer) =
## finishes building a struct initializer
if constr.kind != siWrapper:
builder.add("}")
template addStructInitializer(builder: var Builder, constr: out StructInitializer, kind: StructInitializerKind, body: typed) =
## builds a struct initializer, i.e. `{ field1, field2 }`
## a `var StructInitializer` must be declared and passed as a parameter so
## that it can be used with `addField`
constr = builder.initStructInitializer(kind)
body
builder.finishStructInitializer(constr)
proc addField(obj: var Builder; name, typ: Snippet; isFlexArray: bool = false; initializer: Snippet = "") =
## adds a field inside a struct/union type
obj.add('\t')
obj.add(typ)
obj.add(" ")
obj.add(name)
if isFlexArray:
obj.add("[SEQ_DECL_SIZE]")
if initializer.len != 0:
obj.add(initializer)
obj.add(";\n")
proc addArrayField(obj: var Builder; name, elementType: Snippet; len: int; initializer: Snippet = "") =
## adds an array field inside a struct/union type
obj.add('\t')
obj.add(elementType)
obj.add(" ")
obj.add(name)
obj.add("[")
obj.addIntValue(len)
obj.add("]")
if initializer.len != 0:
obj.add(initializer)
obj.add(";\n")
proc addField(obj: var Builder; field: PSym; name, typ: Snippet; isFlexArray: bool = false; initializer: Snippet = "") =
## adds an field inside a struct/union type, based on an `skField` symbol
obj.add('\t')
if field.alignment > 0:
obj.add("NIM_ALIGN(")
obj.addIntValue(field.alignment)
obj.add(") ")
obj.add(typ)
if sfNoalias in field.flags:
obj.add(" NIM_NOALIAS")
obj.add(" ")
obj.add(name)
if isFlexArray:
obj.add("[SEQ_DECL_SIZE]")
if field.bitsize != 0:
obj.add(":")
obj.addIntValue(field.bitsize)
if initializer.len != 0:
obj.add(initializer)
obj.add(";\n")
proc addProcField(obj: var Builder, callConv: TCallingConvention, name: string, rettype, params: Snippet) =
obj.add(CallingConvToStr[callConv])
obj.add("_PTR(")
obj.add(rettype)
obj.add(", ")
obj.add(name)
obj.add(")")
obj.add(params)
obj.add(";\n")
type
BaseClassKind = enum
## denotes how and whether or not the base class/RTTI should be stored
bcNone, bcCppInherit, bcSupField, bcNoneRtti, bcNoneTinyRtti
StructBuilderInfo = object
## context for building `struct` types
baseKind: BaseClassKind
named: bool
preFieldsLen: int
proc structOrUnion(t: PType): Snippet =
let t = t.skipTypes({tyAlias, tySink})
if tfUnion in t.flags: "union"
else: "struct"
proc startSimpleStruct(obj: var Builder; m: BModule; name: string; baseType: Snippet): StructBuilderInfo =
result = StructBuilderInfo(baseKind: bcNone, named: name.len != 0)
obj.add("struct")
if result.named:
obj.add(" ")
obj.add(name)
if baseType.len != 0:
if m.compileToCpp:
result.baseKind = bcCppInherit
else:
result.baseKind = bcSupField
if result.baseKind == bcCppInherit:
obj.add(" : public ")
obj.add(baseType)
obj.add(" ")
obj.add("{\n")
result.preFieldsLen = obj.buf.len
if result.baseKind == bcSupField:
obj.addField(name = "Sup", typ = baseType)
proc finishSimpleStruct(obj: var Builder; m: BModule; info: StructBuilderInfo) =
if info.baseKind == bcNone and info.preFieldsLen == obj.buf.len:
# no fields were added, add dummy field
obj.addField(name = "dummy", typ = CChar)
if info.named:
obj.add("};\n")
else:
obj.add("}")
template addSimpleStruct(obj: var Builder; m: BModule; name: string; baseType: Snippet; body: typed) =
## builds a struct type not based on a Nim type with fields according to `body`,
## `name` can be empty to build as a type expression and not a statement
let info = startSimpleStruct(obj, m, name, baseType)
body
finishSimpleStruct(obj, m, info)
proc startStruct(obj: var Builder; m: BModule; t: PType; name: string; baseType: Snippet): StructBuilderInfo =
result = StructBuilderInfo(baseKind: bcNone, named: name.len != 0)
if tfPacked in t.flags:
if hasAttribute in CC[m.config.cCompiler].props:
obj.add(structOrUnion(t))
obj.add(" __attribute__((__packed__))")
else:
obj.add("#pragma pack(push, 1)\n")
obj.add(structOrUnion(t))
else:
obj.add(structOrUnion(t))
if result.named:
obj.add(" ")
obj.add(name)
if t.kind == tyObject:
if t.baseClass == nil:
if lacksMTypeField(t):
result.baseKind = bcNone
elif optTinyRtti in m.config.globalOptions:
result.baseKind = bcNoneTinyRtti
else:
result.baseKind = bcNoneRtti
elif m.compileToCpp:
result.baseKind = bcCppInherit
else:
result.baseKind = bcSupField
elif baseType.len != 0:
if m.compileToCpp:
result.baseKind = bcCppInherit
else:
result.baseKind = bcSupField
if result.baseKind == bcCppInherit:
obj.add(" : public ")
obj.add(baseType)
obj.add(" ")
obj.add("{\n")
result.preFieldsLen = obj.buf.len
case result.baseKind
of bcNone:
# rest of the options add a field or don't need it due to inheritance,
# we need to add the dummy field for uncheckedarray ahead of time
# so that it remains trailing
if t.itemId notin m.g.graph.memberProcsPerType and
t.n != nil and t.n.len == 1 and t.n[0].kind == nkSym and
t.n[0].sym.typ.skipTypes(abstractInst).kind == tyUncheckedArray:
# only consists of flexible array field, add *initial* dummy field
obj.addField(name = "dummy", typ = CChar)
of bcCppInherit: discard
of bcNoneRtti:
obj.addField(name = "m_type", typ = ptrType(cgsymValue(m, "TNimType")))
of bcNoneTinyRtti:
obj.addField(name = "m_type", typ = ptrType(cgsymValue(m, "TNimTypeV2")))
of bcSupField:
obj.addField(name = "Sup", typ = baseType)
proc finishStruct(obj: var Builder; m: BModule; t: PType; info: StructBuilderInfo) =
if info.baseKind == bcNone and info.preFieldsLen == obj.buf.len and
t.itemId notin m.g.graph.memberProcsPerType:
# no fields were added, add dummy field
obj.addField(name = "dummy", typ = CChar)
if info.named:
obj.add("};\n")
else:
obj.add("}")
if tfPacked in t.flags and hasAttribute notin CC[m.config.cCompiler].props:
obj.add("#pragma pack(pop)\n")
template addStruct(obj: var Builder; m: BModule; typ: PType; name: string; baseType: Snippet; body: typed) =
## builds a struct type directly based on `typ` with fields according to `body`,
## `name` can be empty to build as a type expression and not a statement
let info = startStruct(obj, m, typ, name, baseType)
body
finishStruct(obj, m, typ, info)
template addFieldWithStructType(obj: var Builder; m: BModule; parentTyp: PType; fieldName: string, body: typed) =
## adds a field with a `struct { ... }` type, building the fields according to `body`
obj.add('\t')
if tfPacked in parentTyp.flags:
if hasAttribute in CC[m.config.cCompiler].props:
obj.add("struct __attribute__((__packed__)) {\n")
else:
obj.add("#pragma pack(push, 1)\nstruct {")
else:
obj.add("struct {\n")
body
obj.add("} ")
obj.add(fieldName)
obj.add(";\n")
if tfPacked in parentTyp.flags and hasAttribute notin CC[m.config.cCompiler].props:
obj.add("#pragma pack(pop)\n")
template addAnonUnion(obj: var Builder; body: typed) =
## adds an anonymous union i.e. `union { ... };` with fields according to `body`
obj.add "union{\n"
body
obj.add("};\n")
template addUnionType(obj: var Builder; body: typed) =
## adds a union type i.e. `union { ... }` with fields according to `body`
obj.add "union{\n"
body
obj.add("}")
type DeclVisibility = enum
None
Extern
ExternC
ImportLib
ExportLib
ExportLibVar
Private
StaticProc
proc addVisibilityPrefix(builder: var Builder, visibility: DeclVisibility) =
# internal proc
case visibility
of None: discard
of Extern:
builder.add("extern ")
of ExternC:
builder.add("NIM_EXTERNC ")
of ImportLib:
builder.add("N_LIB_IMPORT ")
of ExportLib:
builder.add("N_LIB_EXPORT ")
of ExportLibVar:
builder.add("N_LIB_EXPORT_VAR ")
of Private:
builder.add("N_LIB_PRIVATE ")
of StaticProc:
builder.add("static ")
template addDeclWithVisibility(builder: var Builder, visibility: DeclVisibility, declBody: typed) =
## adds a declaration as in `declBody` with the given visibility
builder.addVisibilityPrefix(visibility)
declBody
type ProcParamBuilder = object
needsComma: bool
proc initProcParamBuilder(builder: var Builder): ProcParamBuilder =
result = ProcParamBuilder(needsComma: false)
builder.add("(")
proc finishProcParamBuilder(builder: var Builder, params: ProcParamBuilder) =
if params.needsComma:
builder.add(")")
else:
builder.add("void)")
template cgDeclFrmt*(s: PSym): string =
s.constraint.strVal
proc addParam(builder: var Builder, params: var ProcParamBuilder, name: string, typ: Snippet) =
if params.needsComma:
builder.add(", ")
else:
params.needsComma = true
builder.add(typ)
builder.add(" ")
builder.add(name)
proc addParam(builder: var Builder, params: var ProcParamBuilder, param: PSym, typ: Snippet) =
if params.needsComma:
builder.add(", ")
else:
params.needsComma = true
var modifiedTyp = typ
if sfNoalias in param.flags:
modifiedTyp.add(" NIM_NOALIAS")
if sfCodegenDecl notin param.flags:
builder.add(modifiedTyp)
builder.add(" ")
builder.add(param.loc.snippet)
else:
builder.add runtimeFormat(param.cgDeclFrmt, [modifiedTyp, param.loc.snippet])
proc addUnnamedParam(builder: var Builder, params: var ProcParamBuilder, typ: Snippet) =
if params.needsComma:
builder.add(", ")
else:
params.needsComma = true
builder.add(typ)
proc addProcTypedParam(builder: var Builder, paramBuilder: var ProcParamBuilder, callConv: TCallingConvention, name: string, rettype, params: Snippet) =
if paramBuilder.needsComma:
builder.add(", ")
else:
paramBuilder.needsComma = true
builder.add(CallingConvToStr[callConv])
builder.add("_PTR(")
builder.add(rettype)
builder.add(", ")
builder.add(name)
builder.add(")")
builder.add(params)
proc addVarargsParam(builder: var Builder, params: var ProcParamBuilder) =
# does not exist in NIFC, needs to be proc pragma
if params.needsComma:
builder.add(", ")
else:
params.needsComma = true
builder.add("...")
template addProcParams(builder: var Builder, params: out ProcParamBuilder, body: typed) =
params = initProcParamBuilder(builder)
body
finishProcParamBuilder(builder, params)
type SimpleProcParam = tuple
name, typ: string
proc cProcParams(params: varargs[SimpleProcParam]): Snippet =
if params.len == 0: return "(void)"
result = "("
for i in 0 ..< params.len:
if i != 0: result.add(", ")
result.add(params[i].typ)
if params[i].name.len != 0:
result.add(" ")
result.add(params[i].name)
result.add(")")
template addProcHeaderWithParams(builder: var Builder, callConv: TCallingConvention,
name: string, rettype: Snippet, paramBuilder: typed) =
# on nifc should build something like (proc name params type pragmas
# with no body given
# or enforce this with secondary builder object
builder.add(CallingConvToStr[callConv])
builder.add("(")
builder.add(rettype)
builder.add(", ")
builder.add(name)
builder.add(")")
paramBuilder
proc addProcHeader(builder: var Builder, callConv: TCallingConvention,
name: string, rettype, params: Snippet) =
# on nifc should build something like (proc name params type pragmas
# with no body given
# or enforce this with secondary builder object
addProcHeaderWithParams(builder, callConv, name, rettype):
builder.add(params)
proc addProcHeader(builder: var Builder, name: string, rettype, params: Snippet, isConstructor = false) =
# no callconv
builder.add(rettype)
builder.add(" ")
if isConstructor:
builder.add("__attribute__((constructor)) ")
builder.add(name)
builder.add(params)
proc addProcHeader(builder: var Builder, m: BModule, prc: PSym, name: string, params, rettype: Snippet, addAttributes: bool) =
# on nifc should build something like (proc name params type pragmas
# with no body given
# or enforce this with secondary builder object
let noreturn = isNoReturn(m, prc)
if sfPure in prc.flags and hasDeclspec in extccomp.CC[m.config.cCompiler].props:
builder.add("__declspec(naked) ")
if noreturn and hasDeclspec in extccomp.CC[m.config.cCompiler].props:
builder.add("__declspec(noreturn) ")
builder.add(CallingConvToStr[prc.typ.callConv])
builder.add("(")
builder.add(rettype)
builder.add(", ")
builder.add(name)
builder.add(")")
builder.add(params)
if addAttributes:
if sfPure in prc.flags and hasAttribute in extccomp.CC[m.config.cCompiler].props:
builder.add(" __attribute__((naked))")
if noreturn and hasAttribute in extccomp.CC[m.config.cCompiler].props:
builder.add(" __attribute__((noreturn))")
proc finishProcHeaderAsProto(builder: var Builder) =
builder.addLineEnd(";")
template finishProcHeaderWithBody(builder: var Builder, body: typed) =
builder.addLineEndIndent(" {")
body
builder.addLineEndDedent("}")
builder.addNewline
proc addProcVar(builder: var Builder, m: BModule, prc: PSym, name: string, params, rettype: Snippet,
isStatic = false, ignoreAttributes = false) =
# on nifc, builds full variable
if isStatic:
builder.add("static ")
let noreturn = isNoReturn(m, prc)
if not ignoreAttributes:
if sfPure in prc.flags and hasDeclspec in extccomp.CC[m.config.cCompiler].props:
builder.add("__declspec(naked) ")
if noreturn and hasDeclspec in extccomp.CC[m.config.cCompiler].props:
builder.add("__declspec(noreturn) ")
builder.add(CallingConvToStr[prc.typ.callConv])
builder.add("_PTR(")
builder.add(rettype)
builder.add(", ")
builder.add(name)
builder.add(")")
builder.add(params)
if not ignoreAttributes:
if sfPure in prc.flags and hasAttribute in extccomp.CC[m.config.cCompiler].props:
builder.add(" __attribute__((naked))")
if noreturn and hasAttribute in extccomp.CC[m.config.cCompiler].props:
builder.add(" __attribute__((noreturn))")
# ensure we are just adding a variable:
builder.addLineEnd(";")
proc addProcVar(builder: var Builder, callConv: TCallingConvention,
name: string, params, rettype: Snippet,
isStatic = false, isVolatile = false) =
# on nifc, builds full variable
if isStatic:
builder.add("static ")
builder.add(CallingConvToStr[callConv])
builder.add("_PTR(")
builder.add(rettype)
builder.add(", ")
if isVolatile:
builder.add("volatile ")
builder.add(name)
builder.add(")")
builder.add(params)
# ensure we are just adding a variable:
builder.addLineEnd(";")
proc addProcVar(builder: var Builder,
name: string, params, rettype: Snippet,
isStatic = false, isVolatile = false) =
# no callconv
if isStatic:
builder.add("static ")
builder.add(rettype)
builder.add(" (*")
if isVolatile:
builder.add("volatile ")
builder.add(name)
builder.add(")")
builder.add(params)
# ensure we are just adding a variable:
builder.addLineEnd(";")
type VarInitializerKind = enum
Assignment, CppConstructor
proc addVar(builder: var Builder, m: BModule, s: PSym, name: string, typ: Snippet, kind = Local, visibility: DeclVisibility = None, initializer: Snippet = "", initializerKind: VarInitializerKind = Assignment) =
if sfCodegenDecl in s.flags:
builder.add(runtimeFormat(s.cgDeclFrmt, [typ, name]))
if initializer.len != 0:
if initializerKind == Assignment:
builder.add(" = ")
builder.add(initializer)
builder.addLineEnd(";")
return
if s.kind in {skLet, skVar, skField, skForVar} and s.alignment > 0:
builder.add("NIM_ALIGN(" & $s.alignment & ") ")
builder.addVisibilityPrefix(visibility)
if kind == Threadvar:
if optThreads in m.config.globalOptions:
let sym = s.typ.sym
if sym != nil and sfCppNonPod in sym.flags:
builder.add("NIM_THREAD_LOCAL ")
else: builder.add("NIM_THREADVAR ")
else:
builder.addVarHeader(kind)
builder.add(typ)
if sfRegister in s.flags: builder.add(" register")
if sfVolatile in s.flags: builder.add(" volatile")
if sfNoalias in s.flags: builder.add(" NIM_NOALIAS")
builder.add(" ")
builder.add(name)
if initializer.len != 0:
if initializerKind == Assignment:
builder.add(" = ")
builder.add(initializer)
builder.addLineEnd(";")
proc addInclude(builder: var Builder, value: Snippet) =
builder.addLineEnd("#include " & value)

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@@ -1,259 +0,0 @@
proc constType(t: Snippet): Snippet =
# needs manipulation of `t` in nifc
"NIM_CONST " & t
proc constPtrType(t: Snippet): Snippet =
t & "* NIM_CONST"
proc ptrConstType(t: Snippet): Snippet =
"NIM_CONST " & t & "*"
proc ptrType(t: Snippet): Snippet =
t & "*"
proc cppRefType(t: Snippet): Snippet =
t & "&"
const
CallingConvToStr: array[TCallingConvention, string] = ["N_NIMCALL",
"N_STDCALL", "N_CDECL", "N_SAFECALL",
"N_SYSCALL", # this is probably not correct for all platforms,
# but one can #define it to what one wants
"N_INLINE", "N_NOINLINE", "N_FASTCALL", "N_THISCALL", "N_CLOSURE", "N_NOCONV",
"N_NOCONV" #ccMember is N_NOCONV
]
proc procPtrTypeUnnamed(rettype, params: Snippet): Snippet =
rettype & "(*)" & params
proc procPtrTypeUnnamedNimCall(rettype, params: Snippet): Snippet =
rettype & "(N_RAW_NIMCALL*)" & params
proc procPtrTypeUnnamed(callConv: TCallingConvention, rettype, params: Snippet): Snippet =
CallingConvToStr[callConv] & "_PTR(" & rettype & ", )" & params
type CppCaptureKind = enum None, ByReference, ByCopy
template addCppLambda(builder: var Builder, captures: CppCaptureKind, params: Snippet, body: typed) =
builder.add("[")
case captures
of None: discard
of ByReference: builder.add("&")
of ByCopy: builder.add("=")
builder.add("] ")
builder.add(params)
builder.addLineEndIndent(" {")
body
builder.addLineEndDedent("}")
proc cCast(typ, value: Snippet): Snippet =
"((" & typ & ") " & value & ")"
proc wrapPar(value: Snippet): Snippet =
# used for expression group, no-op on sexp
"(" & value & ")"
proc removeSinglePar(value: Snippet): Snippet =
# removes a single paren layer expected to exist, to silence Wparentheses-equality
assert value[0] == '(' and value[^1] == ')'
value[1..^2]
template addCast(builder: var Builder, typ: Snippet, valueBody: typed) =
## adds a cast to `typ` with value built by `valueBody`
builder.add "(("
builder.add typ
builder.add ") "
valueBody
builder.add ")"
proc cAddr(value: Snippet): Snippet =
"(&" & value & ")"
proc cLabelAddr(value: TLabel): Snippet =
"&&" & value
proc cDeref(value: Snippet): Snippet =
"(*" & value & ")"
proc subscript(a, b: Snippet): Snippet =
a & "[" & b & "]"
proc dotField(a, b: Snippet): Snippet =
a & "." & b
proc derefField(a, b: Snippet): Snippet =
a & "->" & b
type CallBuilder = object
needsComma: bool
proc initCallBuilder(builder: var Builder, callee: Snippet): CallBuilder =
result = CallBuilder(needsComma: false)
builder.add(callee)
builder.add("(")
const cArgumentSeparator = ", "
proc addArgumentSeparator(builder: var Builder) =
# no-op on NIFC
# used by "single argument" builders
builder.add(cArgumentSeparator)
template addArgument(builder: var Builder, call: var CallBuilder, valueBody: typed) =
if call.needsComma:
builder.addArgumentSeparator()
else:
call.needsComma = true
valueBody
proc finishCallBuilder(builder: var Builder, call: CallBuilder) =
builder.add(")")
template addCall(builder: var Builder, call: out CallBuilder, callee: Snippet, body: typed) =
call = initCallBuilder(builder, callee)
body
finishCallBuilder(builder, call)
proc addCall(builder: var Builder, callee: Snippet, args: varargs[Snippet]) =
builder.add(callee)
builder.add("(")
if args.len != 0:
builder.add(args[0])
for i in 1 ..< args.len:
builder.add(", ")
builder.add(args[i])
builder.add(")")
proc cCall(callee: Snippet, args: varargs[Snippet]): Snippet =
result = callee
result.add("(")
if args.len != 0:
result.add(args[0])
for i in 1 ..< args.len:
result.add(", ")
result.add(args[i])
result.add(")")
proc addSizeof(builder: var Builder, val: Snippet) =
builder.add("sizeof(")
builder.add(val)
builder.add(")")
proc addAlignof(builder: var Builder, val: Snippet) =
builder.add("NIM_ALIGNOF(")
builder.add(val)
builder.add(")")
proc addOffsetof(builder: var Builder, val, member: Snippet) =
builder.add("offsetof(")
builder.add(val)
builder.add(", ")
builder.add(member)
builder.add(")")
template cSizeof(val: Snippet): Snippet =
"sizeof(" & val & ")"
template cAlignof(val: Snippet): Snippet =
"NIM_ALIGNOF(" & val & ")"
template cOffsetof(val, member: Snippet): Snippet =
"offsetof(" & val & ", " & member & ")"
type TypedBinaryOp = enum
Add, Sub, Mul, Div, Mod
Shr, Shl, BitAnd, BitOr, BitXor
const typedBinaryOperators: array[TypedBinaryOp, string] = [
Add: "+",
Sub: "-",
Mul: "*",
Div: "/",
Mod: "%",
Shr: ">>",
Shl: "<<",
BitAnd: "&",
BitOr: "|",
BitXor: "^"
]
type TypedUnaryOp = enum
Neg, BitNot
const typedUnaryOperators: array[TypedUnaryOp, string] = [
Neg: "-",
BitNot: "~",
]
type UntypedBinaryOp = enum
LessEqual, LessThan, GreaterEqual, GreaterThan, Equal, NotEqual
And, Or
const untypedBinaryOperators: array[UntypedBinaryOp, string] = [
LessEqual: "<=",
LessThan: "<",
GreaterEqual: ">=",
GreaterThan: ">",
Equal: "==",
NotEqual: "!=",
And: "&&",
Or: "||"
]
type UntypedUnaryOp = enum
Not
const untypedUnaryOperators: array[UntypedUnaryOp, string] = [
Not: "!"
]
proc addOp(builder: var Builder, binOp: TypedBinaryOp, t: Snippet, a, b: Snippet) =
builder.add('(')
builder.add(a)
builder.add(' ')
builder.add(typedBinaryOperators[binOp])
builder.add(' ')
builder.add(b)
builder.add(')')
proc addOp(builder: var Builder, unOp: TypedUnaryOp, t: Snippet, a: Snippet) =
builder.add('(')
builder.add(typedUnaryOperators[unOp])
builder.add('(')
builder.add(a)
builder.add("))")
proc addOp(builder: var Builder, binOp: UntypedBinaryOp, a, b: Snippet) =
builder.add('(')
builder.add(a)
builder.add(' ')
builder.add(untypedBinaryOperators[binOp])
builder.add(' ')
builder.add(b)
builder.add(')')
proc addOp(builder: var Builder, unOp: UntypedUnaryOp, a: Snippet) =
builder.add('(')
builder.add(untypedUnaryOperators[unOp])
builder.add('(')
builder.add(a)
builder.add("))")
template cOp(binOp: TypedBinaryOp, t: Snippet, a, b: Snippet): Snippet =
'(' & a & ' ' & typedBinaryOperators[binOp] & ' ' & b & ')'
template cOp(binOp: TypedUnaryOp, t: Snippet, a: Snippet): Snippet =
'(' & typedUnaryOperators[binOp] & '(' & a & "))"
template cOp(binOp: UntypedBinaryOp, a, b: Snippet): Snippet =
'(' & a & ' ' & untypedBinaryOperators[binOp] & ' ' & b & ')'
template cOp(binOp: UntypedUnaryOp, a: Snippet): Snippet =
'(' & untypedUnaryOperators[binOp] & '(' & a & "))"
template cIfExpr(cond, a, b: Snippet): Snippet =
# XXX used for `min` and `max`, maybe add nifc primitives for these
"(" & cond & " ? " & a & " : " & b & ")"
template cUnlikely(val: Snippet): Snippet =
"NIM_UNLIKELY(" & val & ")"

View File

@@ -1,329 +0,0 @@
template addAssignmentWithValue(builder: var Builder, lhs: Snippet, valueBody: typed) =
builder.add(lhs)
builder.add(" = ")
valueBody
builder.addLineEnd(";")
template addFieldAssignmentWithValue(builder: var Builder, lhs: Snippet, name: string, valueBody: typed) =
builder.add(lhs)
builder.add("." & name & " = ")
valueBody
builder.addLineEnd(";")
template addAssignment(builder: var Builder, lhs, rhs: Snippet) =
builder.addAssignmentWithValue(lhs):
builder.add(rhs)
template addFieldAssignment(builder: var Builder, lhs: Snippet, name: string, rhs: Snippet) =
builder.addFieldAssignmentWithValue(lhs, name):
builder.add(rhs)
template addMutualFieldAssignment(builder: var Builder, lhs, rhs: Snippet, name: string) =
builder.addFieldAssignmentWithValue(lhs, name):
builder.add(rhs)
builder.add("." & name)
template addAssignment(builder: var Builder, lhs: Snippet, rhs: int | int64 | uint64 | Int128) =
builder.addAssignmentWithValue(lhs):
builder.addIntValue(rhs)
template addFieldAssignment(builder: var Builder, lhs: Snippet, name: string, rhs: int | int64 | uint64 | Int128) =
builder.addFieldAssignmentWithValue(lhs, name):
builder.addIntValue(rhs)
template addDerefFieldAssignment(builder: var Builder, lhs: Snippet, name: string, rhs: Snippet) =
builder.add(lhs)
builder.add("->" & name & " = ")
builder.add(rhs)
builder.addLineEnd(";")
template addSubscriptAssignment(builder: var Builder, lhs: Snippet, index: Snippet, rhs: Snippet) =
builder.add(lhs)
builder.add("[" & index & "] = ")
builder.add(rhs)
builder.addLineEnd(";")
template addStmt(builder: var Builder, stmtBody: typed) =
## makes an expression built by `stmtBody` into a statement
stmtBody
builder.addLineEnd(";")
proc addCallStmt(builder: var Builder, callee: Snippet, args: varargs[Snippet]) =
builder.addStmt():
builder.addCall(callee, args)
# XXX blocks need indent tracker in `Builder` object
template addSingleIfStmt(builder: var Builder, cond: Snippet, body: typed) =
builder.add("if (")
builder.add(cond)
builder.addLineEndIndent(") {")
body
builder.addLineEndDedent("}")
template addSingleIfStmtWithCond(builder: var Builder, condBody: typed, body: typed) =
builder.add("if (")
condBody
builder.addLineEndIndent(") {")
body
builder.addLineEndDedent("}")
proc initIfStmt(builder: var Builder): IfBuilder =
IfBuilder(state: WaitingIf)
proc finishIfStmt(builder: var Builder, stmt: IfBuilder) =
assert stmt.state != InBlock
builder.addNewline()
template addIfStmt(builder: var Builder, stmt: out IfBuilder, body: typed) =
stmt = initIfStmt(builder)
body
finishIfStmt(builder, stmt)
proc initElifBranch(builder: var Builder, stmt: var IfBuilder, cond: Snippet) =
case stmt.state
of WaitingIf:
builder.add("if (")
of WaitingElseIf:
builder.add(" else if (")
else: assert false, $stmt.state
builder.add(cond)
builder.addLineEndIndent(") {")
stmt.state = InBlock
proc initElseBranch(builder: var Builder, stmt: var IfBuilder) =
assert stmt.state == WaitingElseIf, $stmt.state
builder.addLineEndIndent(" else {")
stmt.state = InBlock
proc finishBranch(builder: var Builder, stmt: var IfBuilder) =
builder.addDedent("}")
stmt.state = WaitingElseIf
template addElifBranch(builder: var Builder, stmt: var IfBuilder, cond: Snippet, body: typed) =
initElifBranch(builder, stmt, cond)
body
finishBranch(builder, stmt)
template addElseBranch(builder: var Builder, stmt: var IfBuilder, body: typed) =
initElseBranch(builder, stmt)
body
finishBranch(builder, stmt)
proc initForRange(builder: var Builder, i, start, bound: Snippet, inclusive: bool = false) =
builder.add("for (")
builder.add(i)
builder.add(" = ")
builder.add(start)
builder.add("; ")
builder.add(i)
if inclusive:
builder.add(" <= ")
else:
builder.add(" < ")
builder.add(bound)
builder.add("; ")
builder.add(i)
builder.addLineEndIndent("++) {")
proc initForStep(builder: var Builder, i, start, bound, step: Snippet, inclusive: bool = false) =
builder.add("for (")
builder.add(i)
builder.add(" = ")
builder.add(start)
builder.add("; ")
builder.add(i)
if inclusive:
builder.add(" <= ")
else:
builder.add(" < ")
builder.add(bound)
builder.add("; ")
builder.add(i)
builder.add(" += ")
builder.add(step)
builder.addLineEndIndent(") {")
proc finishFor(builder: var Builder) {.inline.} =
builder.addLineEndDedent("}")
template addForRangeExclusive(builder: var Builder, i, start, bound: Snippet, body: typed) =
initForRange(builder, i, start, bound, false)
body
finishFor(builder)
template addForRangeInclusive(builder: var Builder, i, start, bound: Snippet, body: typed) =
initForRange(builder, i, start, bound, true)
body
finishFor(builder)
template addSwitchStmt(builder: var Builder, val: Snippet, body: typed) =
builder.add("switch (")
builder.add(val)
builder.addLineEnd(") {") # no indent
body
builder.addLineEnd("}")
template addSingleSwitchCase(builder: var Builder, val: Snippet, body: typed) =
builder.add("case ")
builder.add(val)
builder.addLineEndIndent(":")
body
builder.addLineEndDedent("")
type
SwitchCaseState = enum
None, Of, Else, Finished
SwitchCaseBuilder = object
state: SwitchCaseState
proc addCase(builder: var Builder, info: var SwitchCaseBuilder, val: Snippet) =
if info.state != Of:
assert info.state == None
info.state = Of
builder.add("case ")
builder.add(val)
builder.addLineEndIndent(":")
proc addCaseRange(builder: var Builder, info: var SwitchCaseBuilder, first, last: Snippet) =
if info.state != Of:
assert info.state == None
info.state = Of
builder.add("case ")
builder.add(first)
builder.add(" ... ")
builder.add(last)
builder.addLineEndIndent(":")
proc addCaseElse(builder: var Builder, info: var SwitchCaseBuilder) =
assert info.state == None
info.state = Else
builder.addLineEndIndent("default:")
template addSwitchCase(builder: var Builder, info: out SwitchCaseBuilder, caseBody, body: typed) =
info = SwitchCaseBuilder(state: None)
caseBody
info.state = Finished
body
builder.addLineEndDedent("")
template addSwitchElse(builder: var Builder, body: typed) =
builder.addLineEndIndent("default:")
body
builder.addLineEndDedent("")
proc addBreak(builder: var Builder) =
builder.addLineEnd("break;")
type ScopeBuilder = object
inside: bool
proc initScope(builder: var Builder): ScopeBuilder =
builder.addLineEndIndent("{")
result = ScopeBuilder(inside: true)
proc finishScope(builder: var Builder, scope: var ScopeBuilder) =
assert scope.inside, "scope not inited"
builder.addLineEndDedent("}")
scope.inside = false
template addScope(builder: var Builder, body: typed) =
builder.addLineEndIndent("{")
body
builder.addLineEndDedent("}")
type WhileBuilder = object
inside: bool
proc initWhileStmt(builder: var Builder, cond: Snippet): WhileBuilder =
builder.add("while (")
builder.add(cond)
builder.addLineEndIndent(") {")
result = WhileBuilder(inside: true)
proc finishWhileStmt(builder: var Builder, stmt: var WhileBuilder) =
assert stmt.inside, "while stmt not inited"
builder.addLineEndDedent("}")
stmt.inside = false
template addWhileStmt(builder: var Builder, cond: Snippet, body: typed) =
builder.add("while (")
builder.add(cond)
builder.addLineEndIndent(") {")
body
builder.addLineEndDedent("}")
proc addLabel(builder: var Builder, name: TLabel) =
builder.add(name)
builder.addLineEnd(": ;")
proc addReturn(builder: var Builder) =
builder.addLineEnd("return;")
proc addReturn(builder: var Builder, value: Snippet) =
builder.add("return ")
builder.add(value)
builder.addLineEnd(";")
proc addGoto(builder: var Builder, label: TLabel) =
builder.add("goto ")
builder.add(label)
builder.addLineEnd(";")
proc addComputedGoto(builder: var Builder, value: Snippet) =
builder.add("goto *")
builder.add(value)
builder.addLineEnd(";")
proc addIncr(builder: var Builder, val: Snippet) =
builder.add(val)
builder.addLineEnd("++;")
proc addDecr(builder: var Builder, val: Snippet) =
builder.add(val)
builder.addLineEnd("--;")
proc addInPlaceOp(builder: var Builder, binOp: TypedBinaryOp, t: Snippet, a, b: Snippet) =
builder.add(a)
builder.add(' ')
builder.add(typedBinaryOperators[binOp])
builder.add("= ")
builder.add(b)
builder.addLineEnd(";")
proc addInPlaceOp(builder: var Builder, binOp: UntypedBinaryOp, a, b: Snippet) =
builder.add(a)
builder.add(' ')
builder.add(untypedBinaryOperators[binOp])
builder.add("= ")
builder.add(b)
builder.addLineEnd(";")
proc cInPlaceOp(binOp: TypedBinaryOp, t: Snippet, a, b: Snippet): Snippet =
result = ""
result.add(a)
result.add(' ')
result.add(typedBinaryOperators[binOp])
result.add("= ")
result.add(b)
result.add(";\n")
proc cInPlaceOp(binOp: UntypedBinaryOp, a, b: Snippet): Snippet =
result = ""
result.add(a)
result.add(' ')
result.add(untypedBinaryOperators[binOp])
result.add("= ")
result.add(b)
result.add(";\n")
template addCPragma(builder: var Builder, val: Snippet) =
builder.addNewline()
builder.add("#pragma ")
builder.add(val)
builder.addNewline()
proc addDiscard(builder: var Builder, val: Snippet) =
builder.add("(void)")
builder.add(val)
builder.addLineEnd(";")

View File

@@ -84,21 +84,20 @@ proc cleanupTemp(p: BProc; returnType: PType, tmp: TLoc): bool =
let dtor = getAttachedOp(p.module.g.graph, returnType, attachedDestructor)
var op = initLocExpr(p, newSymNode(dtor))
var callee = rdLoc(op)
let destroyArg =
if dtor.typ.firstParamType.kind == tyVar:
cAddr(rdLoc(tmp))
let destroy = if dtor.typ.firstParamType.kind == tyVar:
callee & "(&" & rdLoc(tmp) & ")"
else:
rdLoc(tmp)
let destroy = cCall(callee, destroyArg)
callee & "(" & rdLoc(tmp) & ")"
raiseExitCleanup(p, destroy)
result = true
else:
result = false
proc fixupCall(p: BProc, le, ri: PNode, d: var TLoc,
result: var Builder, call: var CallBuilder) =
callee, params: Rope) =
let canRaise = p.config.exc == excGoto and canRaiseDisp(p, ri[0])
genLineDir(p, ri)
var pl = callee & "(" & params
# getUniqueType() is too expensive here:
var typ = skipTypes(ri[0].typ, abstractInst)
if typ.returnType != nil:
@@ -107,6 +106,7 @@ proc fixupCall(p: BProc, le, ri: PNode, d: var TLoc,
# perhaps generate no temp if the call doesn't have side effects
flags.incl needTempForOpenArray
if isInvalidReturnType(p.config, typ):
if params.len != 0: pl.add(", ")
# beware of 'result = p(result)'. We may need to allocate a temporary:
if d.k in {locTemp, locNone} or not preventNrvo(p, d.lode, le, ri):
# Great, we can use 'd':
@@ -114,40 +114,34 @@ proc fixupCall(p: BProc, le, ri: PNode, d: var TLoc,
elif d.k notin {locTemp} and not hasNoInit(ri):
# reset before pass as 'result' var:
discard "resetLoc(p, d)"
let rad = addrLoc(p.config, d)
result.addArgument(call):
result.add(rad)
result.finishCallBuilder(call)
p.s(cpsStmts).addStmt():
p.s(cpsStmts).add(extract(result))
pl.add(addrLoc(p.config, d))
pl.add(");\n")
line(p, cpsStmts, pl)
else:
var tmp: TLoc = getTemp(p, typ.returnType, needsInit=true)
let ratmp = addrLoc(p.config, tmp)
result.addArgument(call):
result.add(ratmp)
result.finishCallBuilder(call)
p.s(cpsStmts).addStmt():
p.s(cpsStmts).add(extract(result))
pl.add(addrLoc(p.config, tmp))
pl.add(");\n")
line(p, cpsStmts, pl)
genAssignment(p, d, tmp, {}) # no need for deep copying
if canRaise: raiseExit(p)
else:
result.finishCallBuilder(call)
pl.add(")")
if p.module.compileToCpp:
if lfSingleUse in d.flags:
# do not generate spurious temporaries for C++! For C we're better off
# with them to prevent undefined behaviour and because the codegen
# is free to emit expressions multiple times!
d.k = locCall
d.snippet = extract(result)
d.r = pl
excl d.flags, lfSingleUse
else:
if d.k == locNone and p.splitDecls == 0:
d = getTempCpp(p, typ.returnType, extract(result))
d = getTempCpp(p, typ.returnType, pl)
else:
if d.k == locNone: d = getTemp(p, typ.returnType)
var list = initLoc(locCall, d.lode, OnUnknown)
list.snippet = extract(result)
genAssignment(p, d, list, {needAssignCall}) # no need for deep copying
list.r = pl
genAssignment(p, d, list, {}) # no need for deep copying
if canRaise: raiseExit(p)
elif isHarmlessStore(p, canRaise, d):
@@ -157,24 +151,23 @@ proc fixupCall(p: BProc, le, ri: PNode, d: var TLoc,
d = getTemp(p, typ.returnType)
assert(d.t != nil) # generate an assignment to d:
var list = initLoc(locCall, d.lode, OnUnknown)
list.snippet = extract(result)
genAssignment(p, d, list, flags+{needAssignCall}) # no need for deep copying
list.r = pl
genAssignment(p, d, list, flags) # no need for deep copying
if canRaise:
if not (useTemp and cleanupTemp(p, typ.returnType, d)):
raiseExit(p)
else:
var tmp: TLoc = getTemp(p, typ.returnType, needsInit=true)
var list = initLoc(locCall, d.lode, OnUnknown)
list.snippet = extract(result)
genAssignment(p, tmp, list, flags+{needAssignCall}) # no need for deep copying
list.r = pl
genAssignment(p, tmp, list, flags) # no need for deep copying
if canRaise:
if not cleanupTemp(p, typ.returnType, tmp):
raiseExit(p)
genAssignment(p, d, tmp, {})
else:
finishCallBuilder(result, call)
p.s(cpsStmts).addStmt():
p.s(cpsStmts).add(extract(result))
pl.add(");\n")
line(p, cpsStmts, pl)
if canRaise: raiseExit(p)
proc genBoundsCheck(p: BProc; arr, a, b: TLoc; arrTyp: PType)
@@ -206,49 +199,49 @@ proc genOpenArraySlice(p: BProc; q: PNode; formalType, destType: PType; prepareF
if optBoundsCheck in p.options:
genBoundsCheck(p, a, b, c, ty)
if prepareForMutation:
let bra = byRefLoc(p, a)
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "nimPrepareStrMutationV2"),
bra)
linefmt(p, cpsStmts, "#nimPrepareStrMutationV2($1);$n", [byRefLoc(p, a)])
let dest = getTypeDesc(p.module, destType)
let ra = rdLoc(a)
let rb = rdLoc(b)
let rc = rdLoc(c)
let lengthExpr = cOp(Add, NimInt, cOp(Sub, NimInt, rc, rb), cIntValue(1))
let lengthExpr = "($1)-($2)+1" % [rdLoc(c), rdLoc(b)]
case ty.kind
of tyArray:
let first = toInt64(firstOrd(p.config, ty))
if first == 0:
result = (cCast(ptrType(dest), cOp(Add, NimInt, ra, rb)), lengthExpr)
result = ("($3*)(($1)+($2))" % [rdLoc(a), rdLoc(b), dest],
lengthExpr)
else:
let lit = cIntLiteral(first)
result = (cCast(ptrType(dest), cOp(Add, NimInt, ra, cOp(Sub, NimInt, rb, lit))), lengthExpr)
var lit = newRopeAppender()
intLiteral(first, lit)
result = ("($4*)($1)+(($2)-($3))" %
[rdLoc(a), rdLoc(b), lit, dest],
lengthExpr)
of tyOpenArray, tyVarargs:
let data = if reifiedOpenArray(q[1]): dotField(ra, "Field0") else: ra
result = (cCast(ptrType(dest), cOp(Add, NimInt, data, rb)), lengthExpr)
if reifiedOpenArray(q[1]):
result = ("($3*)($1.Field0)+($2)" % [rdLoc(a), rdLoc(b), dest],
lengthExpr)
else:
result = ("($3*)($1)+($2)" % [rdLoc(a), rdLoc(b), dest],
lengthExpr)
of tyUncheckedArray, tyCstring:
result = (cCast(ptrType(dest), cOp(Add, NimInt, ra, rb)), lengthExpr)
result = ("($3*)($1)+($2)" % [rdLoc(a), rdLoc(b), dest],
lengthExpr)
of tyString, tySequence:
let atyp = skipTypes(a.t, abstractInst)
if formalType.skipTypes(abstractInst).kind in {tyVar} and atyp.kind == tyString and
optSeqDestructors in p.config.globalOptions:
let bra = byRefLoc(p, a)
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "nimPrepareStrMutationV2"),
bra)
var val: Snippet
linefmt(p, cpsStmts, "#nimPrepareStrMutationV2($1);$n", [byRefLoc(p, a)])
if atyp.kind in {tyVar} and not compileToCpp(p.module):
val = cDeref(ra)
result = ("(($5) ? (($4*)(*$1)$3+($2)) : NIM_NIL)" %
[rdLoc(a), rdLoc(b), dataField(p), dest, dataFieldAccessor(p, "*" & rdLoc(a))],
lengthExpr)
else:
val = ra
result = (
cIfExpr(dataFieldAccessor(p, val),
cCast(ptrType(dest), cOp(Add, NimInt, dataField(p, val), rb)),
NimNil),
lengthExpr)
result = ("(($5) ? (($4*)$1$3+($2)) : NIM_NIL)" %
[rdLoc(a), rdLoc(b), dataField(p), dest, dataFieldAccessor(p, rdLoc(a))],
lengthExpr)
else:
result = ("", "")
internalError(p.config, "openArrayLoc: " & typeToString(a.t))
proc openArrayLoc(p: BProc, formalType: PType, n: PNode; result: var Builder) =
proc openArrayLoc(p: BProc, formalType: PType, n: PNode; result: var Rope) =
var q = skipConv(n)
var skipped = false
while q.kind == nkStmtListExpr and q.len > 0:
@@ -263,66 +256,42 @@ proc openArrayLoc(p: BProc, formalType: PType, n: PNode; result: var Builder) =
genStmts(p, q[i])
q = q.lastSon
let (x, y) = genOpenArraySlice(p, q, formalType, n.typ.elementType)
result.add(x)
result.addArgumentSeparator()
result.add(y)
result.add x & ", " & y
else:
var a = initLocExpr(p, if n.kind == nkHiddenStdConv: n[1] else: n)
case skipTypes(a.t, abstractVar+{tyStatic}).kind
of tyOpenArray, tyVarargs:
let ra = rdLoc(a)
if reifiedOpenArray(n):
if a.t.kind in {tyVar, tyLent}:
result.add(derefField(ra, "Field0"))
result.addArgumentSeparator()
result.add(derefField(ra, "Field1"))
result.add "$1->Field0, $1->Field1" % [rdLoc(a)]
else:
result.add(dotField(ra, "Field0"))
result.addArgumentSeparator()
result.add(dotField(ra, "Field1"))
result.add "$1.Field0, $1.Field1" % [rdLoc(a)]
else:
result.add(ra)
result.addArgumentSeparator()
result.add(ra & "Len_0")
result.add "$1, $1Len_0" % [rdLoc(a)]
of tyString, tySequence:
let ntyp = skipTypes(n.typ, abstractInst)
if formalType.skipTypes(abstractInst).kind in {tyVar} and ntyp.kind == tyString and
optSeqDestructors in p.config.globalOptions:
let bra = byRefLoc(p, a)
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "nimPrepareStrMutationV2"),
bra)
linefmt(p, cpsStmts, "#nimPrepareStrMutationV2($1);$n", [byRefLoc(p, a)])
if ntyp.kind in {tyVar} and not compileToCpp(p.module):
let ra = a.rdLoc
var t = TLoc(snippet: cDeref(ra))
let lt = lenExpr(p, t)
result.add(cIfExpr(dataFieldAccessor(p, t.snippet), dataField(p, t.snippet), NimNil))
result.addArgumentSeparator()
result.add(lt)
var t = TLoc(r: "(*$1)" % [a.rdLoc])
result.add "($4) ? ((*$1)$3) : NIM_NIL, $2" %
[a.rdLoc, lenExpr(p, t), dataField(p),
dataFieldAccessor(p, "*" & a.rdLoc)]
else:
let ra = a.rdLoc
let la = lenExpr(p, a)
result.add(cIfExpr(dataFieldAccessor(p, ra), dataField(p, ra), NimNil))
result.addArgumentSeparator()
result.add(la)
result.add "($4) ? ($1$3) : NIM_NIL, $2" %
[a.rdLoc, lenExpr(p, a), dataField(p), dataFieldAccessor(p, a.rdLoc)]
of tyArray:
let ra = rdLoc(a)
result.add(ra)
result.addArgumentSeparator()
result.addIntValue(lengthOrd(p.config, a.t))
result.add "$1, $2" % [rdLoc(a), rope(lengthOrd(p.config, a.t))]
of tyPtr, tyRef:
case elementType(a.t).kind
of tyString, tySequence:
let ra = a.rdLoc
var t = TLoc(snippet: cDeref(ra))
let lt = lenExpr(p, t)
result.add(cIfExpr(dataFieldAccessor(p, t.snippet), dataField(p, t.snippet), NimNil))
result.addArgumentSeparator()
result.add(lt)
var t = TLoc(r: "(*$1)" % [a.rdLoc])
result.add "($4) ? ((*$1)$3) : NIM_NIL, $2" %
[a.rdLoc, lenExpr(p, t), dataField(p),
dataFieldAccessor(p, "*" & a.rdLoc)]
of tyArray:
let ra = rdLoc(a)
result.add(ra)
result.addArgumentSeparator()
result.addIntValue(lengthOrd(p.config, elementType(a.t)))
result.add "$1, $2" % [rdLoc(a), rope(lengthOrd(p.config, elementType(a.t)))]
else:
internalError(p.config, "openArrayLoc: " & typeToString(a.t))
else: internalError(p.config, "openArrayLoc: " & typeToString(a.t))
@@ -342,12 +311,11 @@ proc literalsNeedsTmp(p: BProc, a: TLoc): TLoc =
result = getTemp(p, a.lode.typ, needsInit=false)
genAssignment(p, result, a, {})
proc genArgStringToCString(p: BProc, n: PNode; result: var Builder; needsTmp: bool) {.inline.} =
proc genArgStringToCString(p: BProc, n: PNode; result: var Rope; needsTmp: bool) {.inline.} =
var a = initLocExpr(p, n[0])
let ra = withTmpIfNeeded(p, a, needsTmp).rdLoc
result.addCall(cgsymValue(p.module, "nimToCStringConv"), ra)
appcg(p.module, result, "#nimToCStringConv($1)", [withTmpIfNeeded(p, a, needsTmp).rdLoc])
proc genArg(p: BProc, n: PNode, param: PSym; call: PNode; result: var Builder; needsTmp = false) =
proc genArg(p: BProc, n: PNode, param: PSym; call: PNode; result: var Rope; needsTmp = false) =
var a: TLoc
if n.kind == nkStringToCString:
genArgStringToCString(p, n, result, needsTmp)
@@ -368,7 +336,7 @@ proc genArg(p: BProc, n: PNode, param: PSym; call: PNode; result: var Builder; n
# variable. Thus, we create a temporary pointer variable instead.
let needsIndirect = mapType(p.config, n[0].typ, mapTypeChooser(n[0]) == skParam) != ctArray
if needsIndirect:
n.typ() = n.typ.exactReplica
n.typ = n.typ.exactReplica
n.typ.flags.incl tfVarIsPtr
a = initLocExprSingleUse(p, n)
a = withTmpIfNeeded(p, a, needsTmp)
@@ -385,14 +353,15 @@ proc genArg(p: BProc, n: PNode, param: PSym; call: PNode; result: var Builder; n
addRdLoc(a, result)
else:
a = initLocExprSingleUse(p, n)
if param.typ.kind in {tyVar, tyPtr, tyRef, tySink}:
if param.typ.kind in abstractPtrs:
let typ = skipTypes(param.typ, abstractPtrs)
if not sameBackendTypePickyAliases(typ, n.typ.skipTypes(abstractPtrs)):
a.snippet = cCast(getTypeDesc(p.module, param.typ), rdCharLoc(a))
if typ.sym != nil and sfImportc in typ.sym.flags:
a.r = "(($1) ($2))" %
[getTypeDesc(p.module, param.typ), rdCharLoc(a)]
addRdLoc(withTmpIfNeeded(p, a, needsTmp), result)
#assert result != nil
proc genArgNoParam(p: BProc, n: PNode; result: var Builder; needsTmp = false) =
proc genArgNoParam(p: BProc, n: PNode; result: var Rope; needsTmp = false) =
var a: TLoc
if n.kind == nkStringToCString:
genArgStringToCString(p, n, result, needsTmp)
@@ -455,7 +424,7 @@ proc getPotentialReads(n: PNode; result: var seq[PNode]) =
for s in n:
getPotentialReads(s, result)
proc genParams(p: BProc, ri: PNode, typ: PType; result: var Builder, argBuilder: var CallBuilder) =
proc genParams(p: BProc, ri: PNode, typ: PType; result: var Rope) =
# We must generate temporaries in cases like #14396
# to keep the strict Left-To-Right evaluation
var needTmp = newSeq[bool](ri.len - 1)
@@ -477,22 +446,21 @@ proc genParams(p: BProc, ri: PNode, typ: PType; result: var Builder, argBuilder:
# Optimization: don't use a temp, if we would only take the address anyway
needTmp[i - 1] = false
var oldLen = result.len
for i in 1..<ri.len:
if i < typ.n.len:
assert(typ.n[i].kind == nkSym)
let paramType = typ.n[i]
if not paramType.typ.isCompileTimeOnly:
var arg = newBuilder("")
genArg(p, ri[i], paramType.sym, ri, arg, needTmp[i-1])
if arg.buf.len != 0:
result.addArgument(argBuilder):
result.add(extract(arg))
if oldLen != result.len:
result.add(", ")
oldLen = result.len
genArg(p, ri[i], paramType.sym, ri, result, needTmp[i-1])
else:
var arg = newBuilder("")
genArgNoParam(p, ri[i], arg, needTmp[i-1])
if arg.buf.len != 0:
result.addArgument(argBuilder):
result.add(extract(arg))
if oldLen != result.len:
result.add(", ")
oldLen = result.len
genArgNoParam(p, ri[i], result, needTmp[i-1])
proc addActualSuffixForHCR(res: var Rope, module: PSym, sym: PSym) =
if sym.flags * {sfImportc, sfNonReloadable} == {} and sym.loc.k == locProc and
@@ -506,39 +474,21 @@ proc genPrefixCall(p: BProc, le, ri: PNode, d: var TLoc) =
var typ = skipTypes(ri[0].typ, abstractInstOwned)
assert(typ.kind == tyProc)
var params = newRopeAppender()
genParams(p, ri, typ, params)
var callee = rdLoc(op)
if p.hcrOn and ri[0].kind == nkSym:
callee.addActualSuffixForHCR(p.module.module, ri[0].sym)
var res = newBuilder("")
var call = initCallBuilder(res, callee)
genParams(p, ri, typ, res, call)
fixupCall(p, le, ri, d, res, call)
fixupCall(p, le, ri, d, callee, params)
proc genClosureCall(p: BProc, le, ri: PNode, d: var TLoc) =
template callProc(rp, params, pTyp: Snippet): Snippet =
let e = dotField(rp, "ClE_0")
let p = dotField(rp, "ClP_0")
let eCall =
# note `params` here is actually multiple params
if params.len == 0:
cCall(p, e)
else:
cCall(p, params, e)
cIfExpr(e,
eCall,
cCall(cCast(pTyp, p), params))
proc addComma(r: Rope): Rope =
if r.len == 0: r else: r & ", "
template callIter(rp, params: Snippet): Snippet =
# we know the env exists
let e = dotField(rp, "ClE_0")
let p = dotField(rp, "ClP_0")
# note `params` here is actually multiple params
if params.len == 0:
cCall(p, e)
else:
cCall(p, params, e)
const PatProc = "$1.ClE_0? $1.ClP_0($3$1.ClE_0):(($4)($1.ClP_0))($2)"
const PatIter = "$1.ClP_0($3$1.ClE_0)" # we know the env exists
var op = initLocExpr(p, ri[0])
@@ -546,23 +496,20 @@ proc genClosureCall(p: BProc, le, ri: PNode, d: var TLoc) =
var typ = skipTypes(ri[0].typ, abstractInstOwned)
assert(typ.kind == tyProc)
var params = newBuilder("")
var argBuilder = default(CallBuilder) # not initCallBuilder, we just want the params
genParams(p, ri, typ, params, argBuilder)
var pl = newRopeAppender()
genParams(p, ri, typ, pl)
template genCallPattern {.dirty.} =
let rp = rdLoc(op)
let pars = extract(params)
p.s(cpsStmts).addStmt():
if tfIterator in typ.flags:
p.s(cpsStmts).add(callIter(rp, pars))
else:
p.s(cpsStmts).add(callProc(rp, pars, rawProc))
if tfIterator in typ.flags:
lineF(p, cpsStmts, PatIter & ";$n", [rdLoc(op), pl, pl.addComma, rawProc])
else:
lineF(p, cpsStmts, PatProc & ";$n", [rdLoc(op), pl, pl.addComma, rawProc])
let rawProc = getClosureType(p.module, typ, clHalf)
let canRaise = p.config.exc == excGoto and canRaiseDisp(p, ri[0])
if typ.returnType != nil:
if isInvalidReturnType(p.config, typ):
if ri.len > 1: pl.add(", ")
# beware of 'result = p(result)'. We may need to allocate a temporary:
if d.k in {locTemp, locNone} or not preventNrvo(p, d.lode, le, ri):
# Great, we can use 'd':
@@ -571,14 +518,12 @@ proc genClosureCall(p: BProc, le, ri: PNode, d: var TLoc) =
elif d.k notin {locTemp} and not hasNoInit(ri):
# reset before pass as 'result' var:
discard "resetLoc(p, d)"
params.addArgument(argBuilder):
params.add(addrLoc(p.config, d))
pl.add(addrLoc(p.config, d))
genCallPattern()
if canRaise: raiseExit(p)
else:
var tmp: TLoc = getTemp(p, typ.returnType, needsInit=true)
params.addArgument(argBuilder):
params.add(addrLoc(p.config, tmp))
pl.add(addrLoc(p.config, tmp))
genCallPattern()
if canRaise: raiseExit(p)
genAssignment(p, d, tmp, {}) # no need for deep copying
@@ -586,24 +531,20 @@ proc genClosureCall(p: BProc, le, ri: PNode, d: var TLoc) =
if d.k == locNone: d = getTemp(p, typ.returnType)
assert(d.t != nil) # generate an assignment to d:
var list: TLoc = initLoc(locCall, d.lode, OnUnknown)
let rp = rdLoc(op)
let pars = extract(params)
if tfIterator in typ.flags:
list.snippet = callIter(rp, pars)
list.r = PatIter % [rdLoc(op), pl, pl.addComma, rawProc]
else:
list.snippet = callProc(rp, pars, rawProc)
list.r = PatProc % [rdLoc(op), pl, pl.addComma, rawProc]
genAssignment(p, d, list, {}) # no need for deep copying
if canRaise: raiseExit(p)
else:
var tmp: TLoc = getTemp(p, typ.returnType)
assert(d.t != nil) # generate an assignment to d:
var list: TLoc = initLoc(locCall, d.lode, OnUnknown)
let rp = rdLoc(op)
let pars = extract(params)
if tfIterator in typ.flags:
list.snippet = callIter(rp, pars)
list.r = PatIter % [rdLoc(op), pl, pl.addComma, rawProc]
else:
list.snippet = callProc(rp, pars, rawProc)
list.r = PatProc % [rdLoc(op), pl, pl.addComma, rawProc]
genAssignment(p, tmp, list, {})
if canRaise: raiseExit(p)
genAssignment(p, d, tmp, {})
@@ -611,8 +552,8 @@ proc genClosureCall(p: BProc, le, ri: PNode, d: var TLoc) =
genCallPattern()
if canRaise: raiseExit(p)
proc genOtherArg(p: BProc; ri: PNode; i: int; typ: PType; result: var Builder;
argBuilder: var CallBuilder) =
proc genOtherArg(p: BProc; ri: PNode; i: int; typ: PType; result: var Rope;
argsCounter: var int) =
if i < typ.n.len:
# 'var T' is 'T&' in C++. This means we ignore the request of
# any nkHiddenAddr when it's a 'var T'.
@@ -621,17 +562,20 @@ proc genOtherArg(p: BProc; ri: PNode; i: int; typ: PType; result: var Builder;
if paramType.typ.isCompileTimeOnly:
discard
elif paramType.typ.kind in {tyVar} and ri[i].kind == nkHiddenAddr:
result.addArgument(argBuilder):
genArgNoParam(p, ri[i][0], result)
if argsCounter > 0: result.add ", "
genArgNoParam(p, ri[i][0], result)
inc argsCounter
else:
result.addArgument(argBuilder):
genArgNoParam(p, ri[i], result) #, typ.n[i].sym)
if argsCounter > 0: result.add ", "
genArgNoParam(p, ri[i], result) #, typ.n[i].sym)
inc argsCounter
else:
if tfVarargs notin typ.flags:
localError(p.config, ri.info, "wrong argument count")
else:
result.addArgument(argBuilder):
genArgNoParam(p, ri[i], result)
if argsCounter > 0: result.add ", "
genArgNoParam(p, ri[i], result)
inc argsCounter
discard """
Dot call syntax in C++
@@ -688,7 +632,7 @@ proc skipAddrDeref(node: PNode): PNode =
else:
result = node
proc genThisArg(p: BProc; ri: PNode; i: int; typ: PType; result: var Builder) =
proc genThisArg(p: BProc; ri: PNode; i: int; typ: PType; result: var Rope) =
# for better or worse c2nim translates the 'this' argument to a 'var T'.
# However manual wrappers may also use 'ptr T'. In any case we support both
# for convenience.
@@ -723,15 +667,15 @@ proc genThisArg(p: BProc; ri: PNode; i: int; typ: PType; result: var Builder) =
genArgNoParam(p, ri, result) #, typ.n[i].sym)
result.add(".")
proc genPatternCall(p: BProc; ri: PNode; pat: string; typ: PType; result: var Builder) =
proc genPatternCall(p: BProc; ri: PNode; pat: string; typ: PType; result: var Rope) =
var i = 0
var j = 1
while i < pat.len:
case pat[i]
of '@':
var callBuilder = default(CallBuilder) # not init call builder
var argsCounter = 0
for k in j..<ri.len:
genOtherArg(p, ri, k, typ, result, callBuilder)
genOtherArg(p, ri, k, typ, result, argsCounter)
inc i
of '#':
if i+1 < pat.len and pat[i+1] in {'+', '@'}:
@@ -741,11 +685,11 @@ proc genPatternCall(p: BProc; ri: PNode; pat: string; typ: PType; result: var Bu
if pat[i+1] == '+': genArgNoParam(p, ri[0], result)
result.add("(")
if 1 < ri.len:
var callBuilder: CallBuilder = default(CallBuilder)
genOtherArg(p, ri, 1, typ, result, callBuilder)
var argsCounterB = 0
genOtherArg(p, ri, 1, typ, result, argsCounterB)
for k in j+1..<ri.len:
var callBuilder: CallBuilder = default(CallBuilder)
genOtherArg(p, ri, k, typ, result, callBuilder)
var argsCounterB = 0
genOtherArg(p, ri, k, typ, result, argsCounterB)
result.add(")")
else:
localError(p.config, ri.info, "call expression expected for C++ pattern")
@@ -759,15 +703,15 @@ proc genPatternCall(p: BProc; ri: PNode; pat: string; typ: PType; result: var Bu
genArgNoParam(p, arg, result)
#result.add debugTree(arg, 0, 10)
else:
var callBuilder = default(CallBuilder) # not init call builder
genOtherArg(p, ri, j, typ, result, callBuilder)
var argsCounter = 0
genOtherArg(p, ri, j, typ, result, argsCounter)
inc j
inc i
of '\'':
var idx, stars: int = 0
if scanCppGenericSlot(pat, i, idx, stars):
var t = resolveStarsInCppType(typ, idx, stars)
if t == nil: result.add(CVoid)
if t == nil: result.add("void")
else: result.add(getTypeDesc(p.module, t))
else:
let start = i
@@ -783,10 +727,10 @@ proc genInfixCall(p: BProc, le, ri: PNode, d: var TLoc) =
var typ = skipTypes(ri[0].typ, abstractInst)
assert(typ.kind == tyProc)
# don't call '$' here for efficiency:
let pat = $ri[0].sym.loc.snippet
let pat = $ri[0].sym.loc.r
internalAssert p.config, pat.len > 0
if pat.contains({'#', '(', '@', '\''}):
var pl = newBuilder("")
var pl = newRopeAppender()
genPatternCall(p, ri, pat, typ, pl)
# simpler version of 'fixupCall' that works with the pl+params combination:
var typ = skipTypes(ri[0].typ, abstractInst)
@@ -796,43 +740,43 @@ proc genInfixCall(p: BProc, le, ri: PNode, d: var TLoc) =
# with them to prevent undefined behaviour and because the codegen
# is free to emit expressions multiple times!
d.k = locCall
d.snippet = extract(pl)
d.r = pl
excl d.flags, lfSingleUse
else:
if d.k == locNone: d = getTemp(p, typ.returnType)
assert(d.t != nil) # generate an assignment to d:
var list: TLoc = initLoc(locCall, d.lode, OnUnknown)
list.snippet = extract(pl)
list.r = pl
genAssignment(p, d, list, {}) # no need for deep copying
else:
p.s(cpsStmts).addStmt():
p.s(cpsStmts).add(extract(pl))
pl.add(";\n")
line(p, cpsStmts, pl)
else:
var pl = newBuilder("")
var pl = newRopeAppender()
var argsCounter = 0
if 1 < ri.len:
genThisArg(p, ri, 1, typ, pl)
pl.add(op.snippet)
var res = newBuilder("")
var call = initCallBuilder(res, extract(pl))
pl.add(op.r)
var params = newRopeAppender()
for i in 2..<ri.len:
genOtherArg(p, ri, i, typ, res, call)
fixupCall(p, le, ri, d, res, call)
genOtherArg(p, ri, i, typ, params, argsCounter)
fixupCall(p, le, ri, d, pl, params)
proc genNamedParamCall(p: BProc, ri: PNode, d: var TLoc) =
# generates a crappy ObjC call
var op = initLocExpr(p, ri[0])
var pl = newBuilder("[")
var pl = "["
# getUniqueType() is too expensive here:
var typ = skipTypes(ri[0].typ, abstractInst)
assert(typ.kind == tyProc)
# don't call '$' here for efficiency:
let pat = $ri[0].sym.loc.snippet
let pat = $ri[0].sym.loc.r
internalAssert p.config, pat.len > 0
var start = 3
if ' ' in pat:
start = 1
pl.add(op.snippet)
pl.add(op.r)
if ri.len > 1:
pl.add(": ")
genArg(p, ri[1], typ.n[1].sym, ri, pl)
@@ -841,7 +785,7 @@ proc genNamedParamCall(p: BProc, ri: PNode, d: var TLoc) =
if ri.len > 1:
genArg(p, ri[1], typ.n[1].sym, ri, pl)
pl.add(" ")
pl.add(op.snippet)
pl.add(op.r)
if ri.len > 2:
pl.add(": ")
genArg(p, ri[2], typ.n[2].sym, ri, pl)
@@ -863,27 +807,24 @@ proc genNamedParamCall(p: BProc, ri: PNode, d: var TLoc) =
if d.k == locNone: d = getTemp(p, typ.returnType, needsInit=true)
pl.add("Result: ")
pl.add(addrLoc(p.config, d))
pl.add("]")
p.s(cpsStmts).addStmt():
p.s(cpsStmts).add(extract(pl))
pl.add("];\n")
line(p, cpsStmts, pl)
else:
var tmp: TLoc = getTemp(p, typ.returnType, needsInit=true)
pl.add(addrLoc(p.config, tmp))
pl.add("]")
p.s(cpsStmts).addStmt():
p.s(cpsStmts).add(extract(pl))
pl.add("];\n")
line(p, cpsStmts, pl)
genAssignment(p, d, tmp, {}) # no need for deep copying
else:
pl.add("]")
if d.k == locNone: d = getTemp(p, typ.returnType)
assert(d.t != nil) # generate an assignment to d:
var list: TLoc = initLoc(locCall, ri, OnUnknown)
list.snippet = extract(pl)
list.r = pl
genAssignment(p, d, list, {}) # no need for deep copying
else:
pl.add("]")
p.s(cpsStmts).addStmt():
p.s(cpsStmts).add(extract(pl))
pl.add("];\n")
line(p, cpsStmts, pl)
proc notYetAlive(n: PNode): bool {.inline.} =
let r = getRoot(n)

File diff suppressed because it is too large Load Diff

View File

@@ -36,84 +36,52 @@ proc genStringLiteralDataOnlyV1(m: BModule, s: string; result: var Rope) =
cgsym(m, "TGenericSeq")
let tmp = getTempName(m)
result.add tmp
var res = newBuilder("")
res.addVarWithTypeAndInitializer(AlwaysConst, name = tmp):
res.addSimpleStruct(m, name = "", baseType = ""):
res.addField(name = "Sup", typ = "TGenericSeq")
res.addArrayField(name = "data", elementType = NimChar, len = s.len + 1)
do:
var strInit: StructInitializer
res.addStructInitializer(strInit, kind = siOrderedStruct):
res.addField(strInit, name = "Sup"):
var seqInit: StructInitializer
res.addStructInitializer(seqInit, kind = siOrderedStruct):
res.addField(seqInit, name = "len"):
res.addIntValue(s.len)
res.addField(seqInit, name = "reserved"):
res.add(cCast(NimInt, cOp(BitOr, NimUint, cCast(NimUint, cIntValue(s.len)), NimStrlitFlag)))
res.addField(strInit, name = "data"):
res.add(makeCString(s))
m.s[cfsStrData].add(extract(res))
m.s[cfsStrData].addf("STRING_LITERAL($1, $2, $3);$n",
[tmp, makeCString(s), rope(s.len)])
proc genStringLiteralV1(m: BModule; n: PNode; result: var Builder) =
proc genStringLiteralV1(m: BModule; n: PNode; result: var Rope) =
if s.isNil:
result.add(cCast(ptrType(cgsymValue(m, "NimStringDesc")), NimNil))
appcg(m, result, "((#NimStringDesc*) NIM_NIL)", [])
else:
let id = nodeTableTestOrSet(m.dataCache, n, m.labels)
var name: string = ""
if id == m.labels:
# string literal not found in the cache:
genStringLiteralDataOnlyV1(m, n.strVal, name)
appcg(m, result, "((#NimStringDesc*) &", [])
genStringLiteralDataOnlyV1(m, n.strVal, result)
result.add ")"
else:
name = m.tmpBase & $id
result.add(cCast(ptrType(cgsymValue(m, "NimStringDesc")), cAddr(name)))
appcg(m, result, "((#NimStringDesc*) &$1$2)",
[m.tmpBase, id])
# ------ Version 2: destructor based strings and seqs -----------------------
proc genStringLiteralDataOnlyV2(m: BModule, s: string; result: Rope; isConst: bool) =
var res = newBuilder("")
res.addVarWithTypeAndInitializer(
if isConst: AlwaysConst else: Global,
name = result):
res.addSimpleStruct(m, name = "", baseType = ""):
res.addField(name = "cap", typ = NimInt)
res.addArrayField(name = "data", elementType = NimChar, len = s.len + 1)
do:
var structInit: StructInitializer
res.addStructInitializer(structInit, kind = siOrderedStruct):
res.addField(structInit, name = "cap"):
res.add(cOp(BitOr, NimInt, cIntValue(s.len), NimStrlitFlag))
res.addField(structInit, name = "data"):
res.add(makeCString(s))
m.s[cfsStrData].add(extract(res))
m.s[cfsStrData].addf("static $4 struct {$n" &
" NI cap; NIM_CHAR data[$2+1];$n" &
"} $1 = { $2 | NIM_STRLIT_FLAG, $3 };$n",
[result, rope(s.len), makeCString(s),
rope(if isConst: "const" else: "")])
proc genStringLiteralV2(m: BModule; n: PNode; isConst: bool; result: var Builder) =
proc genStringLiteralV2(m: BModule; n: PNode; isConst: bool; result: var Rope) =
let id = nodeTableTestOrSet(m.dataCache, n, m.labels)
var litName: string
if id == m.labels:
let pureLit = getTempName(m)
genStringLiteralDataOnlyV2(m, n.strVal, pureLit, isConst)
let tmp = getTempName(m)
result.add tmp
cgsym(m, "NimStrPayload")
cgsym(m, "NimStringV2")
# string literal not found in the cache:
litName = getTempName(m)
genStringLiteralDataOnlyV2(m, n.strVal, litName, isConst)
m.s[cfsStrData].addf("static $4 NimStringV2 $1 = {$2, (NimStrPayload*)&$3};$n",
[tmp, rope(n.strVal.len), pureLit, rope(if isConst: "const" else: "")])
else:
litName = m.tmpBase & $id
let tmp = getTempName(m)
result.add tmp
var res = newBuilder("")
res.addVarWithInitializer(
if isConst: AlwaysConst else: Global,
name = tmp,
typ = "NimStringV2"):
var strInit: StructInitializer
res.addStructInitializer(strInit, kind = siOrderedStruct):
res.addField(strInit, name = "len"):
res.addIntValue(n.strVal.len)
res.addField(strInit, name = "p"):
res.add(cCast(ptrType("NimStrPayload"), cAddr(litName)))
m.s[cfsStrData].add(extract(res))
let tmp = getTempName(m)
result.add tmp
m.s[cfsStrData].addf("static $4 NimStringV2 $1 = {$2, (NimStrPayload*)&$3};$n",
[tmp, rope(n.strVal.len), m.tmpBase & rope(id),
rope(if isConst: "const" else: "")])
proc genStringLiteralV2Const(m: BModule; n: PNode; isConst: bool; result: var Builder) =
proc genStringLiteralV2Const(m: BModule; n: PNode; isConst: bool; result: var Rope) =
let id = nodeTableTestOrSet(m.dataCache, n, m.labels)
var pureLit: Rope
if id == m.labels:
@@ -124,12 +92,7 @@ proc genStringLiteralV2Const(m: BModule; n: PNode; isConst: bool; result: var Bu
genStringLiteralDataOnlyV2(m, n.strVal, pureLit, isConst)
else:
pureLit = m.tmpBase & rope(id)
var strInit: StructInitializer
result.addStructInitializer(strInit, kind = siOrderedStruct):
result.addField(strInit, name = "len"):
result.addIntValue(n.strVal.len)
result.addField(strInit, name = "p"):
result.add(cCast(ptrType("NimStrPayload"), cAddr(pureLit)))
result.addf "{$1, (NimStrPayload*)&$2}", [rope(n.strVal.len), pureLit]
# ------ Version selector ---------------------------------------------------
@@ -144,10 +107,10 @@ proc genStringLiteralDataOnly(m: BModule; s: string; info: TLineInfo;
else:
localError(m.config, info, "cannot determine how to produce code for string literal")
proc genNilStringLiteral(m: BModule; info: TLineInfo; result: var Builder) =
result.add(cCast(ptrType(cgsymValue(m, "NimStringDesc")), NimNil))
proc genNilStringLiteral(m: BModule; info: TLineInfo; result: var Rope) =
appcg(m, result, "((#NimStringDesc*) NIM_NIL)", [])
proc genStringLiteral(m: BModule; n: PNode; result: var Builder) =
proc genStringLiteral(m: BModule; n: PNode; result: var Rope) =
case detectStrVersion(m)
of 0, 1: genStringLiteralV1(m, n, result)
of 2: genStringLiteralV2(m, n, isConst = true, result)

View File

@@ -24,31 +24,28 @@ proc specializeResetN(p: BProc, accessor: Rope, n: PNode;
of nkRecCase:
if (n[0].kind != nkSym): internalError(p.config, n.info, "specializeResetN")
let disc = n[0].sym
if disc.loc.snippet == "": fillObjectFields(p.module, typ)
if disc.loc.r == "": fillObjectFields(p.module, typ)
if disc.loc.t == nil:
internalError(p.config, n.info, "specializeResetN()")
let discField = dotField(accessor, disc.loc.snippet)
p.s(cpsStmts).addSwitchStmt(discField):
for i in 1..<n.len:
let branch = n[i]
assert branch.kind in {nkOfBranch, nkElse}
var caseBuilder: SwitchCaseBuilder
p.s(cpsStmts).addSwitchCase(caseBuilder):
if branch.kind == nkOfBranch:
genCaseRange(p, branch, caseBuilder)
else:
p.s(cpsStmts).addCaseElse(caseBuilder)
do:
specializeResetN(p, accessor, lastSon(branch), typ)
p.s(cpsStmts).addBreak()
specializeResetT(p, discField, disc.loc.t)
lineF(p, cpsStmts, "switch ($1.$2) {$n", [accessor, disc.loc.r])
for i in 1..<n.len:
let branch = n[i]
assert branch.kind in {nkOfBranch, nkElse}
if branch.kind == nkOfBranch:
genCaseRange(p, branch)
else:
lineF(p, cpsStmts, "default:$n", [])
specializeResetN(p, accessor, lastSon(branch), typ)
lineF(p, cpsStmts, "break;$n", [])
lineF(p, cpsStmts, "} $n", [])
specializeResetT(p, "$1.$2" % [accessor, disc.loc.r], disc.loc.t)
of nkSym:
let field = n.sym
if field.typ.kind == tyVoid: return
if field.loc.snippet == "": fillObjectFields(p.module, typ)
if field.loc.r == "": fillObjectFields(p.module, typ)
if field.loc.t == nil:
internalError(p.config, n.info, "specializeResetN()")
specializeResetT(p, dotField(accessor, field.loc.snippet), field.loc.t)
specializeResetT(p, "$1.$2" % [accessor, field.loc.r], field.loc.t)
else: internalError(p.config, n.info, "specializeResetN()")
proc specializeResetT(p: BProc, accessor: Rope, typ: PType) =
@@ -61,8 +58,10 @@ proc specializeResetT(p: BProc, accessor: Rope, typ: PType) =
of tyArray:
let arraySize = lengthOrd(p.config, typ.indexType)
var i: TLoc = getTemp(p, getSysType(p.module.g.graph, unknownLineInfo, tyInt))
p.s(cpsStmts).addForRangeExclusive(i.snippet, cIntValue(0), cIntValue(arraySize)):
specializeResetT(p, subscript(accessor, i.snippet), typ.elementType)
linefmt(p, cpsStmts, "for ($1 = 0; $1 < $2; $1++) {$n",
[i.r, arraySize])
specializeResetT(p, ropecg(p.module, "$1[$2]", [accessor, i.r]), typ.elementType)
lineF(p, cpsStmts, "}$n", [])
of tyObject:
var x = typ.baseClass
if x != nil: x = x.skipTypes(skipPtrs)
@@ -71,39 +70,33 @@ proc specializeResetT(p: BProc, accessor: Rope, typ: PType) =
of tyTuple:
let typ = getUniqueType(typ)
for i, a in typ.ikids:
specializeResetT(p, dotField(accessor, "Field" & $i), a)
specializeResetT(p, ropecg(p.module, "$1.Field$2", [accessor, i]), a)
of tyString, tyRef, tySequence:
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "unsureAsgnRef"),
cCast(ptrType(CPointer), cAddr(accessor)),
NimNil)
lineCg(p, cpsStmts, "#unsureAsgnRef((void**)&$1, NIM_NIL);$n", [accessor])
of tyProc:
if typ.callConv == ccClosure:
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "unsureAsgnRef"),
cCast(ptrType(CPointer), cAddr(dotField(accessor, "ClE_0"))),
NimNil)
p.s(cpsStmts).addFieldAssignment(accessor, "ClP_0", NimNil)
lineCg(p, cpsStmts, "#unsureAsgnRef((void**)&$1.ClE_0, NIM_NIL);$n", [accessor])
lineCg(p, cpsStmts, "$1.ClP_0 = NIM_NIL;$n", [accessor])
else:
p.s(cpsStmts).addAssignment(accessor, NimNil)
lineCg(p, cpsStmts, "$1 = NIM_NIL;$n", [accessor])
of tyChar, tyBool, tyEnum, tyRange, tyInt..tyUInt64:
p.s(cpsStmts).addAssignment(accessor, cIntValue(0))
lineCg(p, cpsStmts, "$1 = 0;$n", [accessor])
of tyCstring, tyPointer, tyPtr, tyVar, tyLent:
p.s(cpsStmts).addAssignment(accessor, NimNil)
lineCg(p, cpsStmts, "$1 = NIM_NIL;$n", [accessor])
of tySet:
case mapSetType(p.config, typ)
of ctArray:
let t = getTypeDesc(p.module, typ)
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "nimZeroMem"),
accessor,
cSizeof(t))
lineCg(p, cpsStmts, "#nimZeroMem($1, sizeof($2));$n",
[accessor, getTypeDesc(p.module, typ)])
of ctInt8, ctInt16, ctInt32, ctInt64:
p.s(cpsStmts).addAssignment(accessor, cIntValue(0))
lineCg(p, cpsStmts, "$1 = 0;$n", [accessor])
else:
raiseAssert "unexpected set type kind"
of tyNone, tyEmpty, tyNil, tyUntyped, tyTyped, tyGenericInvocation,
tyGenericParam, tyOrdinal, tyOpenArray, tyForward, tyVarargs,
tyUncheckedArray, tyError, tyBuiltInTypeClass, tyUserTypeClass,
tyUncheckedArray, tyProxy, tyBuiltInTypeClass, tyUserTypeClass,
tyUserTypeClassInst, tyCompositeTypeClass, tyAnd, tyOr, tyNot,
tyAnything, tyStatic, tyFromExpr, tyConcept, tyVoid, tyIterable:
discard

File diff suppressed because it is too large Load Diff

View File

@@ -19,12 +19,9 @@ proc accessThreadLocalVar(p: BProc, s: PSym) =
if emulatedThreadVars(p.config) and threadVarAccessed notin p.flags:
p.flags.incl threadVarAccessed
incl p.module.flags, usesThreadVars
p.procSec(cpsLocals).addVar(kind = Local,
name = "NimTV_",
typ = ptrType("NimThreadVars"))
p.procSec(cpsInit).addAssignment("NimTV_",
cCast(ptrType("NimThreadVars"),
cCall(cgsymValue(p.module, "GetThreadLocalVars"))))
p.procSec(cpsLocals).addf("\tNimThreadVars* NimTV_;$n", [])
p.procSec(cpsInit).add(
ropecg(p.module, "\tNimTV_ = (NimThreadVars*) #GetThreadLocalVars();$n", []))
proc declareThreadVar(m: BModule, s: PSym, isExtern: bool) =
if emulatedThreadVars(m.config):
@@ -33,32 +30,30 @@ proc declareThreadVar(m: BModule, s: PSym, isExtern: bool) =
# allocator for it :-(
if not containsOrIncl(m.g.nimtvDeclared, s.id):
m.g.nimtvDeps.add(s.loc.t)
m.g.nimtv.addField(name = s.loc.snippet, typ = getTypeDesc(m, s.loc.t))
m.g.nimtv.addf("$1 $2;$n", [getTypeDesc(m, s.loc.t), s.loc.r])
else:
let vis =
if isExtern: Extern
elif lfExportLib in s.loc.flags: ExportLibVar
else: Private
m.s[cfsVars].addVar(m, s,
name = s.loc.snippet,
typ = getTypeDesc(m, s.loc.t),
kind = Threadvar,
visibility = vis)
if isExtern: m.s[cfsVars].add("extern ")
elif lfExportLib in s.loc.flags: m.s[cfsVars].add("N_LIB_EXPORT_VAR ")
else: m.s[cfsVars].add("N_LIB_PRIVATE ")
if optThreads in m.config.globalOptions:
let sym = s.typ.sym
if sym != nil and sfCppNonPod in sym.flags:
m.s[cfsVars].add("NIM_THREAD_LOCAL ")
else: m.s[cfsVars].add("NIM_THREADVAR ")
m.s[cfsVars].add(getTypeDesc(m, s.loc.t))
m.s[cfsVars].addf(" $1;$n", [s.loc.r])
proc generateThreadLocalStorage(m: BModule) =
if m.g.nimtv.buf.len != 0 and (usesThreadVars in m.flags or sfMainModule in m.module.flags):
if m.g.nimtv != "" and (usesThreadVars in m.flags or sfMainModule in m.module.flags):
for t in items(m.g.nimtvDeps): discard getTypeDesc(m, t)
finishTypeDescriptions(m)
m.s[cfsSeqTypes].addTypedef(name = "NimThreadVars"):
m.s[cfsSeqTypes].addSimpleStruct(m, name = "", baseType = ""):
m.s[cfsSeqTypes].add(extract(m.g.nimtv))
m.s[cfsSeqTypes].addf("typedef struct {$1} NimThreadVars;$n", [m.g.nimtv])
proc generateThreadVarsSize(m: BModule) =
if m.g.nimtv.buf.len != 0:
if m.g.nimtv != "":
let externc = if m.config.backend == backendCpp or
sfCompileToCpp in m.module.flags: ExternC
else: None
m.s[cfsProcs].addDeclWithVisibility(externc):
m.s[cfsProcs].addProcHeader("NimThreadVarsSize", NimInt, cProcParams())
m.s[cfsProcs].finishProcHeaderWithBody():
m.s[cfsProcs].addReturn(cCast(NimInt, cSizeof("NimThreadVars")))
sfCompileToCpp in m.module.flags: "extern \"C\" "
else: ""
m.s[cfsProcs].addf(
"$#NI NimThreadVarsSize(){return (NI)sizeof(NimThreadVars);}$n",
[externc.rope])

View File

@@ -16,16 +16,13 @@ type
p: BProc
visitorFrmt: string
const
visitorFrmt = "#nimGCvisit((void*)$1, $2);$n"
proc genTraverseProc(c: TTraversalClosure, accessor: Rope, typ: PType)
proc genCaseRange(p: BProc, branch: PNode, info: var SwitchCaseBuilder)
proc genCaseRange(p: BProc, branch: PNode)
proc getTemp(p: BProc, t: PType, needsInit=false): TLoc
proc visit(p: BProc, data, visitor: Snippet) =
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "nimGCvisit"),
cCast(CPointer, data),
visitor)
proc genTraverseProc(c: TTraversalClosure, accessor: Rope, n: PNode;
typ: PType) =
if n == nil: return
@@ -37,35 +34,32 @@ proc genTraverseProc(c: TTraversalClosure, accessor: Rope, n: PNode;
if (n[0].kind != nkSym): internalError(c.p.config, n.info, "genTraverseProc")
var p = c.p
let disc = n[0].sym
if disc.loc.snippet == "": fillObjectFields(c.p.module, typ)
if disc.loc.r == "": fillObjectFields(c.p.module, typ)
if disc.loc.t == nil:
internalError(c.p.config, n.info, "genTraverseProc()")
let discField = dotField(accessor, disc.loc.snippet)
p.s(cpsStmts).addSwitchStmt(discField):
for i in 1..<n.len:
let branch = n[i]
assert branch.kind in {nkOfBranch, nkElse}
var caseBuilder: SwitchCaseBuilder
p.s(cpsStmts).addSwitchCase(caseBuilder):
if branch.kind == nkOfBranch:
genCaseRange(c.p, branch, caseBuilder)
else:
p.s(cpsStmts).addCaseElse(caseBuilder)
do:
genTraverseProc(c, accessor, lastSon(branch), typ)
p.s(cpsStmts).addBreak()
lineF(p, cpsStmts, "switch ($1.$2) {$n", [accessor, disc.loc.r])
for i in 1..<n.len:
let branch = n[i]
assert branch.kind in {nkOfBranch, nkElse}
if branch.kind == nkOfBranch:
genCaseRange(c.p, branch)
else:
lineF(p, cpsStmts, "default:$n", [])
genTraverseProc(c, accessor, lastSon(branch), typ)
lineF(p, cpsStmts, "break;$n", [])
lineF(p, cpsStmts, "} $n", [])
of nkSym:
let field = n.sym
if field.typ.kind == tyVoid: return
if field.loc.snippet == "": fillObjectFields(c.p.module, typ)
if field.loc.r == "": fillObjectFields(c.p.module, typ)
if field.loc.t == nil:
internalError(c.p.config, n.info, "genTraverseProc()")
genTraverseProc(c, dotField(accessor, field.loc.snippet), field.loc.t)
genTraverseProc(c, "$1.$2" % [accessor, field.loc.r], field.loc.t)
else: internalError(c.p.config, n.info, "genTraverseProc()")
proc parentObj(accessor: Rope; m: BModule): Rope {.inline.} =
if not m.compileToCpp:
result = dotField(accessor, "Sup")
result = "$1.Sup" % [accessor]
else:
result = accessor
@@ -82,14 +76,16 @@ proc genTraverseProc(c: TTraversalClosure, accessor: Rope, typ: PType) =
let arraySize = lengthOrd(c.p.config, typ.indexType)
var i: TLoc = getTemp(p, getSysType(c.p.module.g.graph, unknownLineInfo, tyInt))
var oldCode = p.s(cpsStmts)
var oldLen, newLen: int
p.s(cpsStmts).addForRangeExclusive(i.snippet, cIntValue(0), cIntValue(arraySize)):
oldLen = p.s(cpsStmts).buf.len
genTraverseProc(c, subscript(accessor, i.snippet), typ.elementType)
newLen = p.s(cpsStmts).buf.len
if oldLen == newLen:
freeze oldCode
linefmt(p, cpsStmts, "for ($1 = 0; $1 < $2; $1++) {$n",
[i.r, arraySize])
let oldLen = p.s(cpsStmts).len
genTraverseProc(c, ropecg(c.p.module, "$1[$2]", [accessor, i.r]), typ.elementType)
if p.s(cpsStmts).len == oldLen:
# do not emit dummy long loops for faster debug builds:
p.s(cpsStmts) = oldCode
else:
lineF(p, cpsStmts, "}$n", [])
of tyObject:
var x = typ.baseClass
if x != nil: x = x.skipTypes(skipPtrs)
@@ -98,25 +94,23 @@ proc genTraverseProc(c: TTraversalClosure, accessor: Rope, typ: PType) =
of tyTuple:
let typ = getUniqueType(typ)
for i, a in typ.ikids:
genTraverseProc(c, dotField(accessor, "Field" & $i), a)
genTraverseProc(c, ropecg(c.p.module, "$1.Field$2", [accessor, i]), a)
of tyRef:
visit(p, accessor, c.visitorFrmt)
lineCg(p, cpsStmts, visitorFrmt, [accessor, c.visitorFrmt])
of tySequence:
if optSeqDestructors notin c.p.module.config.globalOptions:
visit(p, accessor, c.visitorFrmt)
lineCg(p, cpsStmts, visitorFrmt, [accessor, c.visitorFrmt])
elif containsGarbageCollectedRef(typ.elementType):
# destructor based seqs are themselves not traced but their data is, if
# they contain a GC'ed type:
p.s(cpsStmts).addCallStmt(cgsymValue(p.module, "nimGCvisitSeq"),
cCast(CPointer, accessor),
c.visitorFrmt)
lineCg(p, cpsStmts, "#nimGCvisitSeq((void*)$1, $2);$n", [accessor, c.visitorFrmt])
#genTraverseProcSeq(c, accessor, typ)
of tyString:
if tfHasAsgn notin typ.flags:
visit(p, accessor, c.visitorFrmt)
lineCg(p, cpsStmts, visitorFrmt, [accessor, c.visitorFrmt])
of tyProc:
if typ.callConv == ccClosure:
visit(p, dotField(accessor, "ClE_0"), c.visitorFrmt)
lineCg(p, cpsStmts, visitorFrmt, [ropecg(c.p.module, "$1.ClE_0", [accessor]), c.visitorFrmt])
else:
discard
@@ -125,17 +119,18 @@ proc genTraverseProcSeq(c: TTraversalClosure, accessor: Rope, typ: PType) =
assert typ.kind == tySequence
var i = getTemp(p, getSysType(c.p.module.g.graph, unknownLineInfo, tyInt))
var oldCode = p.s(cpsStmts)
var oldLen, newLen: int
var a = TLoc(snippet: accessor)
let le = lenExpr(c.p, a)
freeze oldCode
var a = TLoc(r: accessor)
p.s(cpsStmts).addForRangeExclusive(i.snippet, cIntValue(0), le):
oldLen = p.s(cpsStmts).buf.len
genTraverseProc(c, subscript(dataField(c.p, accessor), i.snippet), typ.elementType)
newLen = p.s(cpsStmts).buf.len
if newLen == oldLen:
lineF(p, cpsStmts, "for ($1 = 0; $1 < $2; $1++) {$n",
[i.r, lenExpr(c.p, a)])
let oldLen = p.s(cpsStmts).len
genTraverseProc(c, "$1$3[$2]" % [accessor, i.r, dataField(c.p)], typ.elementType)
if p.s(cpsStmts).len == oldLen:
# do not emit dummy long loops for faster debug builds:
p.s(cpsStmts) = oldCode
else:
lineF(p, cpsStmts, "}$n", [])
proc genTraverseProc(m: BModule, origTyp: PType; sig: SigHash): Rope =
var p = newProc(nil, m)
@@ -144,10 +139,11 @@ proc genTraverseProc(m: BModule, origTyp: PType; sig: SigHash): Rope =
hcrOn = m.hcrOn
typ = origTyp.skipTypes(abstractInstOwned)
markerName = if hcrOn: result & "_actual" else: result
header = "static N_NIMCALL(void, $1)(void* p, NI op)" % [markerName]
t = getTypeDesc(m, typ)
p.s(cpsLocals).addVar(kind = Local, name = "a", typ = t)
p.s(cpsInit).addAssignment("a", cCast(t, "p"))
lineF(p, cpsLocals, "$1 a;$n", [t])
lineF(p, cpsInit, "a = ($1)p;$n", [t])
var c = TTraversalClosure(p: p,
visitorFrmt: "op" # "#nimGCvisit((void*)$1, op);$n"
@@ -161,40 +157,18 @@ proc genTraverseProc(m: BModule, origTyp: PType; sig: SigHash): Rope =
# C's arrays are broken beyond repair:
genTraverseProc(c, "a".rope, typ.elementType)
else:
genTraverseProc(c, cDeref("a"), typ.elementType)
genTraverseProc(c, "(*a)".rope, typ.elementType)
var headerBuilder = newBuilder("")
headerBuilder.addProcHeaderWithParams(ccNimCall, markerName, CVoid):
var paramBuilder: ProcParamBuilder
headerBuilder.addProcParams(paramBuilder):
headerBuilder.addParam(paramBuilder, name = "p", typ = CPointer)
headerBuilder.addParam(paramBuilder, name = "op", typ = NimInt)
let header = extract(headerBuilder)
let generatedProc = "$1 {$n$2$3$4}\n" %
[header, p.s(cpsLocals), p.s(cpsInit), p.s(cpsStmts)]
m.s[cfsProcHeaders].addDeclWithVisibility(StaticProc):
m.s[cfsProcHeaders].add(header)
m.s[cfsProcHeaders].finishProcHeaderAsProto()
m.s[cfsProcs].addDeclWithVisibility(StaticProc):
m.s[cfsProcs].add(header)
m.s[cfsProcs].finishProcHeaderWithBody():
m.s[cfsProcs].add(extract(p.s(cpsLocals)))
m.s[cfsProcs].add(extract(p.s(cpsInit)))
m.s[cfsProcs].add(extract(p.s(cpsStmts)))
m.s[cfsProcHeaders].addf("$1;\n", [header])
m.s[cfsProcs].add(generatedProc)
if hcrOn:
var desc = newBuilder("")
var unnamedParamBuilder: ProcParamBuilder
desc.addProcParams(unnamedParamBuilder):
desc.addUnnamedParam(unnamedParamBuilder, CPointer)
desc.addUnnamedParam(unnamedParamBuilder, NimInt)
let unnamedParams = extract(desc)
m.s[cfsProcHeaders].addProcVar(ccNimCall, result, unnamedParams, CVoid)
m.s[cfsDynLibInit].addAssignmentWithValue(result):
m.s[cfsDynLibInit].addCast(procPtrTypeUnnamed(ccNimCall, CVoid, unnamedParams)):
m.s[cfsDynLibInit].addCall("hcrRegisterProc",
getModuleDllPath(m),
'"' & result & '"',
cCast(CPointer, markerName))
m.s[cfsProcHeaders].addf("N_NIMCALL_PTR(void, $1)(void*, NI);\n", [result])
m.s[cfsDynLibInit].addf("\t$1 = (N_NIMCALL_PTR(void, )(void*, NI)) hcrRegisterProc($3, \"$1\", (void*)$2);\n",
[result, markerName, getModuleDllPath(m)])
proc genTraverseProcForGlobal(m: BModule, s: PSym; info: TLineInfo): Rope =
discard genTypeInfoV1(m, s.loc.t, info)
@@ -205,28 +179,17 @@ proc genTraverseProcForGlobal(m: BModule, s: PSym; info: TLineInfo): Rope =
if sfThread in s.flags and emulatedThreadVars(m.config):
accessThreadLocalVar(p, s)
sLoc = derefField("NimTV_", sLoc)
sLoc = "NimTV_->" & sLoc
var c = TTraversalClosure(p: p,
visitorFrmt: cIntValue(0) # "#nimGCvisit((void*)$1, 0);$n"
visitorFrmt: "0" # "#nimGCvisit((void*)$1, 0);$n"
)
let header = "static N_NIMCALL(void, $1)(void)" % [result]
genTraverseProc(c, sLoc, s.loc.t)
var headerBuilder = newBuilder("")
headerBuilder.addProcHeaderWithParams(ccNimCall, result, CVoid):
var paramBuilder: ProcParamBuilder
headerBuilder.addProcParams(paramBuilder):
# (void)
discard
let header = extract(headerBuilder)
let generatedProc = "$1 {$n$2$3$4}$n" %
[header, p.s(cpsLocals), p.s(cpsInit), p.s(cpsStmts)]
m.s[cfsProcHeaders].addDeclWithVisibility(StaticProc):
m.s[cfsProcHeaders].add(header)
m.s[cfsProcHeaders].finishProcHeaderAsProto()
m.s[cfsProcs].addDeclWithVisibility(StaticProc):
m.s[cfsProcs].add(header)
m.s[cfsProcs].finishProcHeaderWithBody():
m.s[cfsProcs].add(extract(p.s(cpsLocals)))
m.s[cfsProcs].add(extract(p.s(cpsInit)))
m.s[cfsProcs].add(extract(p.s(cpsStmts)))
m.s[cfsProcHeaders].addf("$1;$n", [header])
m.s[cfsProcs].add(generatedProc)

File diff suppressed because it is too large Load Diff

File diff suppressed because it is too large Load Diff

View File

@@ -11,7 +11,7 @@
import
ast, ropes, options,
lineinfos, pathutils, modulegraphs, cbuilderbase
ndi, lineinfos, pathutils, modulegraphs
import std/[intsets, tables, sets]
@@ -43,12 +43,12 @@ type
ctUInt, ctUInt8, ctUInt16, ctUInt32, ctUInt64,
ctArray, ctPtrToArray, ctStruct, ctPtr, ctNimStr, ctNimSeq, ctProc,
ctCString
TCFileSections* = array[TCFileSection, Builder] # represents a generated C file
TCFileSections* = array[TCFileSection, Rope] # represents a generated C file
TCProcSection* = enum # the sections a generated C proc consists of
cpsLocals, # section of local variables for C proc
cpsInit, # section for init of variables for C proc
cpsStmts # section of local statements for C proc
TCProcSections* = array[TCProcSection, Builder] # represents a generated C proc
TCProcSections* = array[TCProcSection, Rope] # represents a generated C proc
BModule* = ref TCGen
BProc* = ref TCProc
TBlock* = object
@@ -88,7 +88,7 @@ type
options*: TOptions # options that should be used for code
# generation; this is the same as prc.options
# unless prc == nil
optionsStack*: seq[(TOptions, TNoteKinds)]
optionsStack*: seq[TOptions]
module*: BModule # used to prevent excessive parameter passing
withinLoop*: int # > 0 if we are within a loop
splitDecls*: int # > 0 if we are in some context for C++ that
@@ -115,7 +115,7 @@ type
# computing alive data on our own.
BModuleList* = ref object of RootObj
mainModProcs*, mainModInit*, otherModsInit*, mainDatInit*: Builder
mainModProcs*, mainModInit*, otherModsInit*, mainDatInit*: Rope
mapping*: Rope # the generated mapping file (if requested)
modules*: seq[BModule] # list of all compiled modules
modulesClosed*: seq[BModule] # list of the same compiled modules, but in the order they were closed
@@ -127,7 +127,7 @@ type
graph*: ModuleGraph
strVersion*, seqVersion*: int # version of the string/seq implementation to use
nimtv*: Builder # Nim thread vars; the struct body
nimtv*: Rope # Nim thread vars; the struct body
nimtvDeps*: seq[PType] # type deps: every module needs whole struct
nimtvDeclared*: IntSet # so that every var/field exists only once
# in the struct
@@ -161,18 +161,18 @@ type
typeInfoMarkerV2*: TypeCache
initProc*: BProc # code for init procedure
preInitProc*: BProc # code executed before the init proc
hcrCreateTypeInfosProc*: Builder # type info globals are in here when HCR=on
hcrCreateTypeInfosProc*: Rope # type info globals are in here when HCR=on
inHcrInitGuard*: bool # We are currently within a HCR reloading guard.
hcrInitGuard*: IfBuilder
typeStack*: TTypeSeq # used for type generation
dataCache*: TNodeTable
typeNodes*, nimTypes*: int # used for type info generation
typeNodesName*, nimTypesName*: Rope # used for type info generation
labels*: Natural # for generating unique module-scope names
extensionLoaders*: array['0'..'9', Builder] # special procs for the
extensionLoaders*: array['0'..'9', Rope] # special procs for the
# OpenGL wrapper
sigConflicts*: CountTable[SigHash]
g*: BModuleList
ndi*: NdiFile
template config*(m: BModule): ConfigRef = m.g.config
template config*(p: BProc): ConfigRef = p.module.g.config
@@ -182,18 +182,18 @@ proc includeHeader*(this: BModule; header: string) =
if not this.headerFiles.contains header:
this.headerFiles.add header
proc s*(p: BProc, s: TCProcSection): var Builder {.inline.} =
proc s*(p: BProc, s: TCProcSection): var Rope {.inline.} =
# section in the current block
result = p.blocks[^1].sections[s]
proc procSec*(p: BProc, s: TCProcSection): var Builder {.inline.} =
proc procSec*(p: BProc, s: TCProcSection): var Rope {.inline.} =
# top level proc sections
result = p.blocks[0].sections[s]
proc initBlock*(): TBlock =
result = TBlock()
for i in low(result.sections)..high(result.sections):
result.sections[i] = newBuilder("")
result.sections[i] = newRopeAppender()
proc newProc*(prc: PSym, module: BModule): BProc =
result = BProc(

View File

@@ -55,7 +55,7 @@ proc methodCall*(n: PNode; conf: ConfigRef): PNode =
# replace ordinary method by dispatcher method:
let disp = getDispatcher(result[0].sym)
if disp != nil:
result[0].typ() = disp.typ
result[0].typ = disp.typ
result[0].sym = disp
# change the arguments to up/downcasts to fit the dispatcher's parameters:
for i in 1..<result.len:
@@ -133,7 +133,7 @@ proc createDispatcher(s: PSym; g: ModuleGraph; idgen: IdGenerator): PSym =
if disp.typ.callConv == ccInline: disp.typ.callConv = ccNimCall
disp.ast = copyTree(s.ast)
disp.ast[bodyPos] = newNodeI(nkEmpty, s.info)
disp.loc.snippet = ""
disp.loc.r = ""
if s.typ.returnType != nil:
if disp.ast.len > resultPos:
disp.ast[resultPos].sym = copySym(s.ast[resultPos].sym, idgen)

View File

@@ -311,12 +311,12 @@ proc newNullifyCurExc(ctx: var Ctx, info: TLineInfo): PNode =
let curExc = ctx.newCurExcAccess()
curExc.info = info
let nilnode = newNode(nkNilLit)
nilnode.typ() = curExc.typ
nilnode.typ = curExc.typ
result = newTree(nkAsgn, curExc, nilnode)
proc newOr(g: ModuleGraph, a, b: PNode): PNode {.inline.} =
result = newTree(nkCall, newSymNode(g.getSysMagic(a.info, "or", mOr)), a, b)
result.typ() = g.getSysType(a.info, tyBool)
result.typ = g.getSysType(a.info, tyBool)
result.info = a.info
proc collectExceptState(ctx: var Ctx, n: PNode): PNode {.inline.} =
@@ -334,7 +334,7 @@ proc collectExceptState(ctx: var Ctx, n: PNode): PNode {.inline.} =
newSymNode(g.getSysMagic(c.info, "of", mOf)),
g.callCodegenProc("getCurrentException"),
c[i])
nextCond.typ() = ctx.g.getSysType(c.info, tyBool)
nextCond.typ = ctx.g.getSysType(c.info, tyBool)
nextCond.info = c.info
if cond.isNil:
@@ -444,11 +444,11 @@ proc convertExprBodyToAsgn(ctx: Ctx, exprBody: PNode, res: PSym): PNode =
proc newNotCall(g: ModuleGraph; e: PNode): PNode =
result = newTree(nkCall, newSymNode(g.getSysMagic(e.info, "not", mNot), e.info), e)
result.typ() = g.getSysType(e.info, tyBool)
result.typ = g.getSysType(e.info, tyBool)
proc boolLit(g: ModuleGraph; info: TLineInfo; value: bool): PNode =
result = newIntLit(g, info, ord value)
result.typ() = getSysType(g, info, tyBool)
result.typ = getSysType(g, info, tyBool)
proc captureVar(c: var Ctx, s: PSym) =
if c.varStates.getOrDefault(s.itemId) != localRequiresLifting:
@@ -486,7 +486,7 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
result = newNodeI(nkStmtListExpr, n.info)
if n.typ.isNil: internalError(ctx.g.config, "lowerStmtListExprs: constr typ.isNil")
result.typ() = n.typ
result.typ = n.typ
for i in 0..<n.len:
case n[i].kind
@@ -513,7 +513,7 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
let isExpr = not isEmptyType(n.typ)
if isExpr:
result = newNodeI(nkStmtListExpr, n.info)
result.typ() = n.typ
result.typ = n.typ
tmp = ctx.newTempVar(n.typ, result)
else:
result = newNodeI(nkStmtList, n.info)
@@ -578,7 +578,7 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
if isExpr:
result = newNodeI(nkStmtListExpr, n.info)
result.typ() = n.typ
result.typ = n.typ
let tmp = ctx.newTempVar(n.typ, result)
n[0] = ctx.convertExprBodyToAsgn(n[0], tmp)
@@ -609,7 +609,7 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
if isExpr:
result = newNodeI(nkStmtListExpr, n.info)
result.typ() = n.typ
result.typ = n.typ
let tmp = ctx.newTempVar(n.typ, result)
if n[0].kind == nkStmtListExpr:
@@ -646,7 +646,7 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
if isExpr:
result = newNodeI(nkStmtListExpr, n.info)
result.typ() = n.typ
result.typ = n.typ
else:
result = newNodeI(nkStmtList, n.info)
@@ -732,7 +732,7 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
if ns:
needsSplit = true
result = newNodeI(nkStmtListExpr, n.info)
result.typ() = n.typ
result.typ = n.typ
let (st, ex) = exprToStmtList(n[^1])
result.add(st)
n[^1] = ex
@@ -802,7 +802,7 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
if ns:
needsSplit = true
result = newNodeI(nkStmtListExpr, n.info)
result.typ() = n.typ
result.typ = n.typ
let (st, ex) = exprToStmtList(n[0])
result.add(st)
n[0] = ex
@@ -814,10 +814,10 @@ proc lowerStmtListExprs(ctx: var Ctx, n: PNode, needsSplit: var bool): PNode =
if ns:
needsSplit = true
result = newNodeI(nkStmtListExpr, n.info)
result.typ() = n.typ
result.typ = n.typ
let (st, ex) = exprToStmtList(n[1])
n.transitionSonsKind(nkBlockStmt)
n.typ() = nil
n.typ = nil
n[1] = st
result.add(n)
result.add(ex)
@@ -838,9 +838,9 @@ proc newEndFinallyNode(ctx: var Ctx, info: TLineInfo): PNode =
# raise
let curExc = ctx.newCurExcAccess()
let nilnode = newNode(nkNilLit)
nilnode.typ() = curExc.typ
nilnode.typ = curExc.typ
let cmp = newTree(nkCall, newSymNode(ctx.g.getSysMagic(info, "==", mEqRef), info), curExc, nilnode)
cmp.typ() = ctx.g.getSysType(info, tyBool)
cmp.typ = ctx.g.getSysType(info, tyBool)
let retStmt =
if ctx.nearestFinally == 0:
@@ -1185,11 +1185,11 @@ proc newArrayType(g: ModuleGraph; n: int, t: PType; idgen: IdGenerator; owner: P
proc createExceptionTable(ctx: var Ctx): PNode {.inline.} =
result = newNodeI(nkBracket, ctx.fn.info)
result.typ() = ctx.g.newArrayType(ctx.exceptionTable.len, ctx.g.getSysType(ctx.fn.info, tyInt16), ctx.idgen, ctx.fn)
result.typ = ctx.g.newArrayType(ctx.exceptionTable.len, ctx.g.getSysType(ctx.fn.info, tyInt16), ctx.idgen, ctx.fn)
for i in ctx.exceptionTable:
let elem = newIntNode(nkIntLit, i)
elem.typ() = ctx.g.getSysType(ctx.fn.info, tyInt16)
elem.typ = ctx.g.getSysType(ctx.fn.info, tyInt16)
result.add(elem)
proc newCatchBody(ctx: var Ctx, info: TLineInfo): PNode {.inline.} =
@@ -1212,7 +1212,7 @@ proc newCatchBody(ctx: var Ctx, info: TLineInfo): PNode {.inline.} =
let getNextState = newTree(nkBracketExpr,
ctx.createExceptionTable(),
ctx.newStateAccess())
getNextState.typ() = intTyp
getNextState.typ = intTyp
# :state = exceptionTable[:state]
result.add(ctx.newStateAssgn(getNextState))
@@ -1223,7 +1223,7 @@ proc newCatchBody(ctx: var Ctx, info: TLineInfo): PNode {.inline.} =
ctx.g.getSysMagic(info, "==", mEqI).newSymNode(),
ctx.newStateAccess(),
newIntTypeNode(0, intTyp))
cond.typ() = boolTyp
cond.typ = boolTyp
let raiseStmt = newTree(nkRaiseStmt, ctx.g.emptyNode)
let ifBranch = newTree(nkElifBranch, cond, raiseStmt)
@@ -1236,7 +1236,7 @@ proc newCatchBody(ctx: var Ctx, info: TLineInfo): PNode {.inline.} =
ctx.g.getSysMagic(info, "<", mLtI).newSymNode,
newIntTypeNode(0, intTyp),
ctx.newStateAccess())
cond.typ() = boolTyp
cond.typ = boolTyp
let asgn = newTree(nkAsgn, ctx.newUnrollFinallyAccess(info), cond)
result.add(asgn)
@@ -1247,12 +1247,12 @@ proc newCatchBody(ctx: var Ctx, info: TLineInfo): PNode {.inline.} =
ctx.g.getSysMagic(info, "<", mLtI).newSymNode,
ctx.newStateAccess(),
newIntTypeNode(0, intTyp))
cond.typ() = boolTyp
cond.typ = boolTyp
let negateState = newTree(nkCall,
ctx.g.getSysMagic(info, "-", mUnaryMinusI).newSymNode,
ctx.newStateAccess())
negateState.typ() = intTyp
negateState.typ = intTyp
let ifBranch = newTree(nkElifBranch, cond, ctx.newStateAssgn(negateState))
let ifStmt = newTree(nkIfStmt, ifBranch)

View File

@@ -24,7 +24,7 @@ bootSwitch(usedMarkAndSweep, defined(gcmarkandsweep), "--gc:markAndSweep")
bootSwitch(usedGoGC, defined(gogc), "--gc:go")
bootSwitch(usedNoGC, defined(nogc), "--gc:none")
import std/[setutils, os, strutils, parseutils, parseopt, sequtils, strtabs, enumutils]
import std/[setutils, os, strutils, parseutils, parseopt, sequtils, strtabs]
import
msgs, options, nversion, condsyms, extccomp, platform,
wordrecg, nimblecmd, lineinfos, pathutils
@@ -248,7 +248,6 @@ const
errNoneSpeedOrSizeExpectedButXFound = "'none', 'speed' or 'size' expected, but '$1' found"
errGuiConsoleOrLibExpectedButXFound = "'gui', 'console', 'lib' or 'staticlib' expected, but '$1' found"
errInvalidExceptionSystem = "'goto', 'setjmp', 'cpp' or 'quirky' expected, but '$1' found"
errInvalidFeatureButXFound = Feature.toSeq.map(proc(val:Feature): string = "'$1'" % $val).join(", ") & " expected, but '$1' found"
template warningOptionNoop(switch: string) =
warningDeprecated(conf, info, "'$#' is deprecated, now a noop" % switch)
@@ -304,12 +303,6 @@ proc testCompileOptionArg*(conf: ConfigRef; switch, arg: string, info: TLineInfo
else:
result = false
localError(conf, info, errInvalidExceptionSystem % arg)
of "experimental":
try:
result = conf.features.contains parseEnum[Feature](arg)
except ValueError:
result = false
localError(conf, info, errInvalidFeatureButXFound % arg)
else:
result = false
invalidCmdLineOption(conf, passCmd1, switch, info)

View File

@@ -11,7 +11,7 @@
## for details. Note this is a first implementation and only the "Concept matching"
## section has been implemented.
import ast, semdata, lookups, lineinfos, idents, msgs, renderer, types, layeredtable
import ast, astalgo, semdata, lookups, lineinfos, idents, msgs, renderer, types
import std/intsets
@@ -88,13 +88,6 @@ proc existingBinding(m: MatchCon; key: PType): PType =
proc conceptMatchNode(c: PContext; n: PNode; m: var MatchCon): bool
proc matchType(c: PContext; f, a: PType; m: var MatchCon): bool
proc matchKids(c: PContext; f, a: PType; m: var MatchCon, start=0): bool=
result = true
for i in start..<f.kidsLen - ord(f.kind == tyGenericInst):
if not matchType(c, f[i], a[i], m): return false
proc matchType(c: PContext; f, a: PType; m: var MatchCon): bool =
## The heart of the concept matching process. 'f' is the formal parameter of some
## routine inside the concept that we're looking for. 'a' is the formal parameter
@@ -124,7 +117,9 @@ proc matchType(c: PContext; f, a: PType; m: var MatchCon): bool =
result = false
if a.kind == tyGenericInst and a.genericHead.kind == tyGenericBody:
if sameType(f.genericHead, a.genericHead) and f.kidsLen == a.kidsLen-1:
result = matchKids(c, f, a, m, start=FirstGenericParamAt)
for i in FirstGenericParamAt ..< f.kidsLen:
if not matchType(c, f[i], a[i], m): return false
return true
of tyGenericParam:
let ak = a.skipTypes({tyVar, tySink, tyLent, tyOwned})
if ak.kind in {tyTypeDesc, tyStatic} and not isSelf(ak):
@@ -156,6 +151,7 @@ proc matchType(c: PContext; f, a: PType; m: var MatchCon): bool =
else:
result = false
#echo "B for ", result, " to ", typeToString(a), " to ", typeToString(m.potentialImplementation)
of tyVar, tySink, tyLent, tyOwned:
# modifiers in the concept must be there in the actual implementation
# too but not vice versa.
@@ -181,20 +177,15 @@ proc matchType(c: PContext; f, a: PType; m: var MatchCon): bool =
m.potentialImplementation = oldPotentialImplementation
if not result:
m.inferred.setLen oldLen
of tyGenericBody:
var ak = a
if a.kind == tyGenericBody:
ak = last(a)
result = matchType(c, last(f), ak, m)
of tyCompositeTypeClass:
result = matchType(c, last(f), a, m)
of tyArray, tyTuple, tyVarargs, tyOpenArray, tyRange, tySequence, tyRef, tyPtr,
tyGenericInst:
# ^ XXX Rewrite this logic, it's more complex than it needs to be.
result = false
let ak = a.skipTypes(ignorableForArgType - {f.kind})
if ak.kind == f.kind and f.kidsLen == ak.kidsLen:
result = matchKids(c, f, ak, m)
for i in 0..<ak.kidsLen:
if not matchType(c, f[i], ak[i], m): return false
return true
of tyOr:
let oldLen = m.inferred.len
if a.kind == tyOr:
@@ -318,7 +309,7 @@ proc conceptMatchNode(c: PContext; n: PNode; m: var MatchCon): bool =
# error was reported earlier.
result = false
proc conceptMatch*(c: PContext; concpt, arg: PType; bindings: var LayeredIdTable; invocation: PType): bool =
proc conceptMatch*(c: PContext; concpt, arg: PType; bindings: var TypeMapping; invocation: PType): bool =
## Entry point from sigmatch. 'concpt' is the concept we try to match (here still a PType but
## we extract its AST via 'concpt.n.lastSon'). 'arg' is the type that might fulfill the
## concept's requirements. If so, we return true and fill the 'bindings' with pairs of
@@ -337,16 +328,16 @@ proc conceptMatch*(c: PContext; concpt, arg: PType; bindings: var LayeredIdTable
dest = existingBinding(m, dest)
if dest == nil or dest.kind != tyGenericParam: break
if dest != nil:
bindings.put(a, dest)
bindings.idTablePut(a, dest)
when logBindings: echo "A bind ", a, " ", dest
else:
bindings.put(a, b)
bindings.idTablePut(a, b)
when logBindings: echo "B bind ", a, " ", b
# we have a match, so bind 'arg' itself to 'concpt':
bindings.put(concpt, arg)
bindings.idTablePut(concpt, arg)
# invocation != nil means we have a non-atomic concept:
if invocation != nil and arg.kind == tyGenericInst and invocation.kidsLen == arg.kidsLen-1:
# bind even more generic parameters
assert invocation.kind == tyGenericInvocation
for i in FirstGenericParamAt ..< invocation.kidsLen:
bindings.put(invocation[i], arg[i])
bindings.idTablePut(invocation[i], arg[i])

View File

@@ -159,17 +159,11 @@ proc initDefines*(symbols: StringTableRef) =
defineSymbol("nimHasEnsureMove")
defineSymbol("nimHasNoReturnError")
defineSymbol("nimUseStrictDefs") # deadcode
defineSymbol("nimUseStrictDefs")
defineSymbol("nimHasNolineTooLong")
defineSymbol("nimHasCastExtendedVm")
defineSymbol("nimHasWarnStdPrefix")
defineSymbol("nimHasVtables")
defineSymbol("nimHasGenericsOpenSym2")
defineSymbol("nimHasGenericsOpenSym3")
defineSymbol("nimHasJsNoLambdaLifting")
defineSymbol("nimHasDefaultFloatRoundtrip")
defineSymbol("nimHasXorSet")
defineSymbol("nimHasLegacyNoStrictDefs")

View File

@@ -115,7 +115,7 @@ proc add(dest: var ItemPre, str: string) = dest.add ItemFragment(isRst: false, s
proc addRstFileIndex(d: PDoc, fileIndex: lineinfos.FileIndex): rstast.FileIndex =
let invalid = rstast.FileIndex(-1)
result = d.nimToRstFid.getOrDefault(fileIndex, invalid)
result = d.nimToRstFid.getOrDefault(fileIndex, default = invalid)
if result == invalid:
let fname = toFullPath(d.conf, fileIndex)
result = addFilename(d.sharedState, fname)
@@ -830,8 +830,8 @@ proc getName(n: PNode): string =
of nkAccQuoted:
result = "`"
for i in 0..<n.len: result.add(getName(n[i]))
result.add('`')
of nkOpenSymChoice, nkClosedSymChoice, nkOpenSym:
result = "`"
of nkOpenSymChoice, nkClosedSymChoice:
result = getName(n[0])
else:
result = ""
@@ -849,7 +849,7 @@ proc getNameIdent(cache: IdentCache; n: PNode): PIdent =
var r = ""
for i in 0..<n.len: r.add(getNameIdent(cache, n[i]).s)
result = getIdent(cache, r)
of nkOpenSymChoice, nkClosedSymChoice, nkOpenSym:
of nkOpenSymChoice, nkClosedSymChoice:
result = getNameIdent(cache, n[0])
else:
result = nil
@@ -863,7 +863,7 @@ proc getRstName(n: PNode): PRstNode =
of nkAccQuoted:
result = getRstName(n[0])
for i in 1..<n.len: result.text.add(getRstName(n[i]).text)
of nkOpenSymChoice, nkClosedSymChoice, nkOpenSym:
of nkOpenSymChoice, nkClosedSymChoice:
result = getRstName(n[0])
else:
result = nil
@@ -1206,7 +1206,7 @@ proc genJsonItem(d: PDoc, n, nameNode: PNode, k: TSymKind, nonExports = false):
var param = %{"name": %($genericParam)}
if genericParam.sym.typ.len > 0:
param["types"] = newJArray()
param["types"] = %($genericParam.sym.typ.elementType)
param["types"].add %($genericParam.sym.typ.elementType)
result.json["signature"]["genericParams"].add param
if optGenIndex in d.conf.globalOptions:
genItem(d, n, nameNode, k, kForceExport)
@@ -1320,7 +1320,7 @@ proc documentEffect(cache: IdentCache; n, x: PNode, effectType: TSpecialWord, id
if t.startsWith("ref "): t = substr(t, 4)
effects[i] = newIdentNode(getIdent(cache, t), n.info)
# set the type so that the following analysis doesn't screw up:
effects[i].typ() = real[i].typ
effects[i].typ = real[i].typ
result = newTreeI(nkExprColonExpr, n.info,
newIdentNode(getIdent(cache, $effectType), n.info), effects)

View File

@@ -275,7 +275,7 @@ proc unpackObject(conf: ConfigRef, x: pointer, typ: PType, n: PNode): PNode =
# the nkPar node:
if n.isNil:
result = newNode(nkTupleConstr)
result.typ() = typ
result.typ = typ
if typ.n.isNil:
internalError(conf, "cannot unpack unnamed tuple")
unpackObjectAdd(conf, x, typ.n, result)
@@ -298,7 +298,7 @@ proc unpackObject(conf: ConfigRef, x: pointer, typ: PType, n: PNode): PNode =
proc unpackArray(conf: ConfigRef, x: pointer, typ: PType, n: PNode): PNode =
if n.isNil:
result = newNode(nkBracket)
result.typ() = typ
result.typ = typ
newSeq(result.sons, lengthOrd(conf, typ).toInt)
else:
result = n
@@ -319,7 +319,7 @@ proc unpack(conf: ConfigRef, x: pointer, typ: PType, n: PNode): PNode =
template aw(k, v, field: untyped): untyped =
if n.isNil:
result = newNode(k)
result.typ() = typ
result.typ = typ
else:
# check we have the right field:
result = n
@@ -333,12 +333,12 @@ proc unpack(conf: ConfigRef, x: pointer, typ: PType, n: PNode): PNode =
template setNil() =
if n.isNil:
result = newNode(nkNilLit)
result.typ() = typ
result.typ = typ
else:
reset n[]
result = n
result[] = TNode(kind: nkNilLit)
result.typ() = typ
result.typ = typ
template awi(kind, v: untyped): untyped = aw(kind, v, intVal)
template awf(kind, v: untyped): untyped = aw(kind, v, floatVal)
@@ -427,7 +427,7 @@ proc fficast*(conf: ConfigRef, x: PNode, destTyp: PType): PNode =
# cast through a pointer needs a new inner object:
let y = if x.kind == nkRefTy: newNodeI(nkRefTy, x.info, 1)
else: x.copyTree
y.typ() = x.typ
y.typ = x.typ
result = unpack(conf, a, destTyp, y)
dealloc a
@@ -481,7 +481,7 @@ proc callForeignFunction*(conf: ConfigRef, fn: PNode, fntyp: PType,
if aTyp.isNil:
internalAssert conf, i+1 < fntyp.len
aTyp = fntyp[i+1]
args[i+start].typ() = aTyp
args[i+start].typ = aTyp
sig[i] = mapType(conf, aTyp)
if sig[i].isNil: globalError(conf, info, "cannot map FFI type")

View File

@@ -33,19 +33,6 @@ proc evalTemplateAux(templ, actual: PNode, c: var TemplCtx, result: PNode) =
let x = param
if x.kind == nkArgList:
for y in items(x): result.add(y)
elif nfDefaultRefsParam in x.flags:
# value of default param needs to be evaluated like template body
# if it contains other template params
var res: PNode
if isAtom(x):
res = newNodeI(nkPar, x.info)
evalTemplateAux(x, actual, c, res)
if res.len == 1: res = res[0]
else:
res = copyNode(x)
for i in 0..<x.safeLen:
evalTemplateAux(x[i], actual, c, res)
result.add res
else:
result.add copyTree(x)
@@ -64,7 +51,7 @@ proc evalTemplateAux(templ, actual: PNode, c: var TemplCtx, result: PNode) =
if x == nil:
x = copySym(s, c.idgen)
# sem'check needs to set the owner properly later, see bug #9476
setOwner(x, nil) # c.genSymOwner
x.owner = nil # c.genSymOwner
#if x.kind == skParam and x.owner.kind == skModule:
# internalAssert c.config, false
idTablePut(c.mapping, s, x)
@@ -182,7 +169,7 @@ proc wrapInComesFrom*(info: TLineInfo; sym: PSym; res: PNode): PNode =
d.add newSymNode(sym, info)
result.add d
result.add res
result.typ() = res.typ
result.typ = res.typ
proc evalTemplate*(n: PNode, tmpl, genSymOwner: PSym;
conf: ConfigRef;

View File

@@ -125,7 +125,7 @@ proc expandDefault(t: PType; info: TLineInfo): PNode =
of tyString:
result = newZero(t, info, nkStrLit)
of tyNone, tyEmpty, tyUntyped, tyTyped, tyTypeDesc,
tyNil, tyGenericInvocation, tyError, tyBuiltInTypeClass,
tyNil, tyGenericInvocation, tyProxy, tyBuiltInTypeClass,
tyUserTypeClass, tyUserTypeClassInst, tyCompositeTypeClass,
tyAnd, tyOr, tyNot, tyAnything, tyConcept, tyIterable, tyForward:
result = newZero(t, info, nkEmpty) # bug indicator

View File

@@ -63,7 +63,7 @@ type
# Configuration settings for various compilers.
# When adding new compilers, the cmake sources could be a good reference:
# https://cmake.org/gitweb?p=cmake.git;a=tree;f=Modules/Platform;
# http://cmake.org/gitweb?p=cmake.git;a=tree;f=Modules/Platform;
template compiler(name, settings: untyped): untyped =
proc name: TInfoCC {.compileTime.} = settings
@@ -162,11 +162,7 @@ compiler vcc:
linkerExe: "cl",
linkTmpl: "$builddll$vccplatform /Fe$exefile $objfiles $buildgui /nologo $options",
includeCmd: " /I",
# HACK: we call `cl` so we have to pass `/link` for linker options,
# but users may still want to pass arguments to `cl` (see #14221)
# to deal with this, we add `/link` before each `/LIBPATH`,
# the linker ignores extra `/link`s since it's an unrecognized argument
linkDirCmd: " /link /LIBPATH:",
linkDirCmd: " /LIBPATH:",
linkLibCmd: " $1.lib",
debug: " /RTC1 /Z7 ",
pic: "",
@@ -781,7 +777,7 @@ proc getLinkCmd(conf: ConfigRef; output: AbsoluteFile,
# https://blog.molecular-matters.com/2017/05/09/deleting-pdb-files-locked-by-visual-studio/
# and a bit about the .pdb format in case that is ever needed:
# https://github.com/crosire/blink
# https://www.debuginfo.com/articles/debuginfomatch.html#pdbfiles
# http://www.debuginfo.com/articles/debuginfomatch.html#pdbfiles
if conf.hcrOn and isVSCompatible(conf):
let t = now()
let pdb = output.string & "." & format(t, "MMMM-yyyy-HH-mm-") & $t.nanosecond & ".pdb"
@@ -1004,11 +1000,10 @@ proc jsonBuildInstructionsFile*(conf: ConfigRef): AbsoluteFile =
# works out of the box with `hashMainCompilationParams`.
result = getNimcacheDir(conf) / conf.outFile.changeFileExt("json")
const cacheVersion = "D20240927T193831" # update when `BuildCache` spec changes
const cacheVersion = "D20210525T193831" # update when `BuildCache` spec changes
type BuildCache = object
cacheVersion: string
outputFile: string
outputLastModificationTime: string
compile: seq[(string, string)]
link: seq[string]
linkcmd: string
@@ -1052,8 +1047,6 @@ proc writeJsonBuildInstructions*(conf: ConfigRef; deps: StringTableRef) =
bcache.depfiles.add (path, $secureHashFile(path))
bcache.nimexe = hashNimExe()
if fileExists(bcache.outputFile):
bcache.outputLastModificationTime = $getLastModificationTime(bcache.outputFile)
conf.jsonBuildFile = conf.jsonBuildInstructionsFile
conf.jsonBuildFile.string.writeFile(bcache.toJson.pretty)
@@ -1074,8 +1067,6 @@ proc changeDetectedViaJsonBuildInstructions*(conf: ConfigRef; jsonFile: Absolute
# xxx optimize by returning false if stdin input was the same
for (file, hash) in bcache.depfiles:
if $secureHashFile(file) != hash: return true
if bcache.outputLastModificationTime != $getLastModificationTime(bcache.outputFile):
return true
proc runJsonBuildInstructions*(conf: ConfigRef; jsonFile: AbsoluteFile) =
var bcache: BuildCache = default(BuildCache)
@@ -1092,7 +1083,7 @@ proc runJsonBuildInstructions*(conf: ConfigRef; jsonFile: AbsoluteFile) =
"jsonscript command outputFile '$1' must match '$2' which was specified during --compileOnly, see \"outputFile\" entry in '$3' " %
[outputCurrent, output, jsonFile.string])
var cmds: TStringSeq = default(TStringSeq)
var prettyCmds: TStringSeq = default(TStringSeq)
var prettyCmds: TStringSeq= default(TStringSeq)
let prettyCb = proc (idx: int) = writePrettyCmdsStderr(prettyCmds[idx])
for (name, cmd) in bcache.compile:
cmds.add cmd

View File

@@ -1104,7 +1104,7 @@ proc settype(n: PNode): PType =
proc buildOf(it, loc: PNode; o: Operators): PNode =
var s = newNodeI(nkCurly, it.info, it.len-1)
s.typ() = settype(loc)
s.typ = settype(loc)
for i in 0..<it.len-1: s[i] = it[i]
result = newNodeI(nkCall, it.info, 3)
result[0] = newSymNode(o.opContains)
@@ -1165,12 +1165,8 @@ proc buildProperFieldCheck(access, check: PNode; o: Operators): PNode =
if check[1].kind == nkCurly:
result = copyTree(check)
if access.kind == nkDotExpr:
# change the access to the discriminator field access
var a = copyTree(access)
# set field name to discriminator field name
a[1] = check[2]
# set discriminator field type: important for `neg`
a.typ() = check[2].typ
result[2] = a
# 'access.kind != nkDotExpr' can happen for object constructors
# which we don't check yet

View File

@@ -414,7 +414,7 @@ proc storeSym*(s: PSym; c: var PackedEncoder; m: var PackedModule): PackedItemId
p.bitsize = s.bitsize
p.alignment = s.alignment
p.externalName = toLitId(s.loc.snippet, m)
p.externalName = toLitId(s.loc.r, m)
p.locFlags = s.loc.flags
c.addMissing s.typ
p.typ = s.typ.storeType(c, m)
@@ -837,8 +837,8 @@ proc loadNodes*(c: var PackedDecoder; g: var PackedModuleGraph; thisModule: int;
result.ident = getIdent(c.cache, g[thisModule].fromDisk.strings[n.litId])
of nkSym:
result.sym = loadSym(c, g, thisModule, PackedItemId(module: LitId(0), item: tree[n].soperand))
if result.typ == nil:
result.typ() = result.sym.typ
if result.typ == nil and nfOpenSym notin result.flags:
result.typ = result.sym.typ
of externIntLit:
result.intVal = g[thisModule].fromDisk.numbers[n.litId]
of nkStrLit..nkTripleStrLit:
@@ -851,8 +851,8 @@ proc loadNodes*(c: var PackedDecoder; g: var PackedModuleGraph; thisModule: int;
assert n2.kind == nkNone
transitionNoneToSym(result)
result.sym = loadSym(c, g, thisModule, PackedItemId(module: n1.litId, item: tree[n2].soperand))
if result.typ == nil:
result.typ() = result.sym.typ
if result.typ == nil and nfOpenSym notin result.flags:
result.typ = result.sym.typ
else:
for n0 in sonsReadonly(tree, n):
result.addAllowNil loadNodes(c, g, thisModule, tree, n0)
@@ -942,10 +942,10 @@ proc symBodyFromPacked(c: var PackedDecoder; g: var PackedModuleGraph;
result.guard = loadSym(c, g, si, s.guard)
result.bitsize = s.bitsize
result.alignment = s.alignment
setOwner(result, loadSym(c, g, si, s.owner))
result.owner = loadSym(c, g, si, s.owner)
let externalName = g[si].fromDisk.strings[s.externalName]
if externalName != "":
result.loc.snippet = externalName
result.loc.r = rope externalName
result.loc.flags = s.locFlags
result.instantiatedFrom = loadSym(c, g, si, s.instantiatedFrom)
@@ -998,7 +998,7 @@ proc typeHeaderFromPacked(c: var PackedDecoder; g: var PackedModuleGraph;
proc typeBodyFromPacked(c: var PackedDecoder; g: var PackedModuleGraph;
t: PackedType; si, item: int32; result: PType) =
result.sym = loadSym(c, g, si, t.sym)
setOwner(result, loadSym(c, g, si, t.owner))
result.owner = loadSym(c, g, si, t.owner)
when false:
for op, item in pairs t.attachedOps:
result.attachedOps[op] = loadSym(c, g, si, item)
@@ -1062,7 +1062,7 @@ proc setupLookupTables(g: var PackedModuleGraph; conf: ConfigRef; cache: IdentCa
name: getIdent(cache, splitFile(filename).name),
info: newLineInfo(fileIdx, 1, 1),
position: int(fileIdx))
setOwner(m.module, getPackage(conf, cache, fileIdx))
m.module.owner = getPackage(conf, cache, fileIdx)
m.module.flags = m.fromDisk.moduleFlags
proc loadToReplayNodes(g: var PackedModuleGraph; conf: ConfigRef; cache: IdentCache;

View File

@@ -246,8 +246,7 @@ proc importModuleAs(c: PContext; n: PNode, realModule: PSym, importHidden: bool)
result = createModuleAliasImpl(realModule.name)
if importHidden:
result.options.incl optImportHidden
let moduleIdent = if n.kind == nkInfix: n[^1] else: n
c.unusedImports.add((result, moduleIdent.info))
c.unusedImports.add((result, n.info))
c.importModuleMap[result.id] = realModule.id
c.importModuleLookup.mgetOrPut(result.name.id, @[]).addUnique realModule.id

View File

@@ -317,9 +317,8 @@ proc isCriticalLink(dest: PNode): bool {.inline.} =
]#
result = dest.kind != nkSym
proc finishCopy(c: var Con; result, dest: PNode; flags: set[MoveOrCopyFlag]; isFromSink: bool) =
if c.graph.config.selectedGC == gcOrc and IsExplicitSink notin flags:
# add cyclic flag, but not to sink calls, which IsExplicitSink generates
proc finishCopy(c: var Con; result, dest: PNode; isFromSink: bool) =
if c.graph.config.selectedGC == gcOrc:
let t = dest.typ.skipTypes(tyUserTypeClasses + {tyGenericInst, tyAlias, tySink, tyDistinct})
if cyclicType(c.graph, t):
result.add boolLit(c.graph, result.info, isFromSink or isCriticalLink(dest))
@@ -332,7 +331,7 @@ proc genMarkCyclic(c: var Con; result, dest: PNode) =
result.add callCodegenProc(c.graph, "nimMarkCyclic", dest.info, dest)
else:
let xenv = genBuiltin(c.graph, c.idgen, mAccessEnv, "accessEnv", dest)
xenv.typ() = getSysType(c.graph, dest.info, tyPointer)
xenv.typ = getSysType(c.graph, dest.info, tyPointer)
result.add callCodegenProc(c.graph, "nimMarkCyclic", dest.info, xenv)
proc genCopyNoCheck(c: var Con; dest, ri: PNode; a: TTypeAttachedOp): PNode =
@@ -408,7 +407,7 @@ proc genWasMoved(c: var Con, n: PNode): PNode =
proc genDefaultCall(t: PType; c: Con; info: TLineInfo): PNode =
result = newNodeI(nkCall, info)
result.add(newSymNode(createMagic(c.graph, c.idgen, "default", mDefault)))
result.typ() = t
result.typ = t
proc destructiveMoveVar(n: PNode; c: var Con; s: var Scope): PNode =
# generate: (let tmp = v; reset(v); tmp)
@@ -465,7 +464,7 @@ proc passCopyToSink(n: PNode; c: var Con; s: var Scope): PNode =
var newCall = newTreeIT(nkCall, src.info, src.typ,
newSymNode(op),
src)
c.finishCopy(newCall, n, {}, isFromSink = true)
c.finishCopy(newCall, n, isFromSink = true)
result.add newTreeI(nkFastAsgn,
src.info, tmp,
newCall
@@ -474,7 +473,7 @@ proc passCopyToSink(n: PNode; c: var Con; s: var Scope): PNode =
result.add c.genWasMoved(tmp)
var m = c.genCopy(tmp, n, {})
m.add p(n, c, s, normal)
c.finishCopy(m, n, {}, isFromSink = true)
c.finishCopy(m, n, isFromSink = true)
result.add m
if isLValue(n) and not isCapturedVar(n) and nTyp.skipTypes(abstractInst).kind != tyRef and c.inSpawn == 0:
message(c.graph.config, n.info, hintPerformance,
@@ -502,7 +501,7 @@ proc containsConstSeq(n: PNode): bool =
return true
result = false
case n.kind
of nkExprEqExpr, nkExprColonExpr, nkHiddenStdConv, nkHiddenSubConv, nkCast:
of nkExprEqExpr, nkExprColonExpr, nkHiddenStdConv, nkHiddenSubConv:
result = containsConstSeq(n[1])
of nkObjConstr, nkClosure:
for i in 1..<n.len:
@@ -762,7 +761,7 @@ proc pRaiseStmt(n: PNode, c: var Con; s: var Scope): PNode =
let tmp = c.getTemp(s, n[0].typ, n.info)
var m = c.genCopyNoCheck(tmp, n[0], attachedAsgn)
m.add p(n[0], c, s, normal)
c.finishCopy(m, n[0], {}, isFromSink = false)
c.finishCopy(m, n[0], isFromSink = false)
result = newTree(nkStmtList, c.genWasMoved(tmp), m)
var toDisarm = n[0]
if toDisarm.kind == nkStmtListExpr: toDisarm = toDisarm.lastSon
@@ -822,17 +821,14 @@ proc p(n: PNode; c: var Con; s: var Scope; mode: ProcessMode; tmpFlags = {sfSing
n[1].typ.skipTypes(abstractInst-{tyOwned}).kind == tyOwned:
# allow conversions from owned to unowned via this little hack:
let nTyp = n[1].typ
n[1].typ() = n.typ
n[1].typ = n.typ
result[1] = p(n[1], c, s, sinkArg)
result[1].typ() = nTyp
result[1].typ = nTyp
else:
result[1] = p(n[1], c, s, sinkArg)
elif n.kind in {nkObjDownConv, nkObjUpConv}:
result = copyTree(n)
result[0] = p(n[0], c, s, sinkArg)
elif n.kind == nkCast and n.typ.skipTypes(abstractInst).kind in {tyString, tySequence}:
result = copyTree(n)
result[1] = p(n[1], c, s, sinkArg)
elif n.typ == nil:
# 'raise X' can be part of a 'case' expression. Deal with it here:
result = p(n, c, s, normal)
@@ -898,8 +894,7 @@ proc p(n: PNode; c: var Con; s: var Scope; mode: ProcessMode; tmpFlags = {sfSing
elif c.inSpawn > 0:
c.inSpawn.dec
# bug #23907; skips tyGenericInst for generic callbacks
let parameters = if n[0].typ != nil: n[0].typ.skipTypes(abstractInst) else: n[0].typ
let parameters = n[0].typ
let L = if parameters != nil: parameters.signatureLen else: 0
when false:
@@ -1022,9 +1017,9 @@ proc p(n: PNode; c: var Con; s: var Scope; mode: ProcessMode; tmpFlags = {sfSing
n[1].typ.skipTypes(abstractInst-{tyOwned}).kind == tyOwned:
# allow conversions from owned to unowned via this little hack:
let nTyp = n[1].typ
n[1].typ() = n.typ
n[1].typ = n.typ
result[1] = p(n[1], c, s, mode)
result[1].typ() = nTyp
result[1].typ = nTyp
else:
result[1] = p(n[1], c, s, mode)
@@ -1174,7 +1169,7 @@ proc moveOrCopy(dest, ri: PNode; c: var Con; s: var Scope, flags: set[MoveOrCopy
result = c.genCopy(dest, ri, flags)
dec c.inEnsureMove, isEnsureMove
result.add p(ri, c, s, consumed)
c.finishCopy(result, dest, flags, isFromSink = false)
c.finishCopy(result, dest, isFromSink = false)
of nkBracket:
# array constructor
if ri.len > 0 and isDangerousSeq(ri.typ):
@@ -1182,7 +1177,7 @@ proc moveOrCopy(dest, ri: PNode; c: var Con; s: var Scope, flags: set[MoveOrCopy
result = c.genCopy(dest, ri, flags)
dec c.inEnsureMove, isEnsureMove
result.add p(ri, c, s, consumed)
c.finishCopy(result, dest, flags, isFromSink = false)
c.finishCopy(result, dest, isFromSink = false)
else:
result = c.genSink(s, dest, p(ri, c, s, consumed), flags)
of nkObjConstr, nkTupleConstr, nkClosure, nkCharLit..nkNilLit:
@@ -1203,7 +1198,7 @@ proc moveOrCopy(dest, ri: PNode; c: var Con; s: var Scope, flags: set[MoveOrCopy
result = c.genCopy(dest, ri, flags)
dec c.inEnsureMove, isEnsureMove
result.add p(ri, c, s, consumed)
c.finishCopy(result, dest, flags, isFromSink = false)
c.finishCopy(result, dest, isFromSink = false)
of nkHiddenSubConv, nkHiddenStdConv, nkConv, nkObjDownConv, nkObjUpConv, nkCast:
result = c.genSink(s, dest, p(ri, c, s, sinkArg), flags)
of nkStmtListExpr, nkBlockExpr, nkIfExpr, nkCaseStmt, nkTryStmt:
@@ -1223,7 +1218,7 @@ proc moveOrCopy(dest, ri: PNode; c: var Con; s: var Scope, flags: set[MoveOrCopy
result = c.genCopy(dest, ri, flags)
dec c.inEnsureMove, isEnsureMove
result.add p(ri, c, s, consumed)
c.finishCopy(result, dest, flags, isFromSink = false)
c.finishCopy(result, dest, isFromSink = false)
when false:
proc computeUninit(c: var Con) =

View File

@@ -33,7 +33,7 @@ import
nversion, msgs, idents, types,
ropes, wordrecg, renderer,
cgmeth, lowerings, sighashes, modulegraphs, lineinfos,
transf, injectdestructors, sourcemap, astmsgs, pushpoppragmas,
transf, injectdestructors, sourcemap, astmsgs, backendpragmas,
mangleutils
import pipelineutils
@@ -103,7 +103,7 @@ type
prc: PSym
globals, locals, body: Rope
options: TOptions
optionsStack: seq[(TOptions, TNoteKinds)]
optionsStack: seq[TOptions]
module: BModule
g: PGlobals
beforeRetNeeded: bool
@@ -195,7 +195,7 @@ proc mapType(typ: PType): TJSTypeKind =
of tyPointer:
# treat a tyPointer like a typed pointer to an array of bytes
result = etyBaseIndex
of tyRange, tyDistinct, tyOrdinal, tyError, tyLent:
of tyRange, tyDistinct, tyOrdinal, tyProxy, tyLent:
# tyLent is no-op as JS has pass-by-reference semantics
result = mapType(skipModifier t)
of tyInt..tyInt64, tyUInt..tyUInt64, tyEnum, tyChar: result = etyInt
@@ -246,7 +246,7 @@ proc mangleName(m: BModule, s: PSym): Rope =
for chr in name:
if chr notin {'A'..'Z','a'..'z','_','$','0'..'9'}:
return false
result = s.loc.snippet
result = s.loc.r
if result == "":
if s.kind == skField and s.name.s.validJsName:
result = rope(s.name.s)
@@ -277,7 +277,7 @@ proc mangleName(m: BModule, s: PSym): Rope =
else:
result.add("_")
result.add(rope(s.id))
s.loc.snippet = result
s.loc.r = result
proc escapeJSString(s: string): string =
result = newStringOfCap(s.len + s.len shr 2)
@@ -611,17 +611,6 @@ template unaryExpr(p: PProc, n: PNode, r: var TCompRes, magic, frmt: string) =
r.res = frmt % [a, tmp]
r.kind = resExpr
proc genBreakState(p: PProc, n: PNode, r: var TCompRes) =
var a: TCompRes = default(TCompRes)
# mangle `:state` properly somehow
if n.kind == nkClosure:
gen(p, n[1], a)
r.res = "(($1).HEX3Astate < 0)" % [rdLoc(a)]
else:
gen(p, n, a)
r.res = "((($1.ClE_0).HEX3Astate) < 0)" % [rdLoc(a)]
r.kind = resExpr
proc arithAux(p: PProc, n: PNode, r: var TCompRes, op: TMagic) =
var
x, y: TCompRes = default(TCompRes)
@@ -992,7 +981,7 @@ proc genTry(p: PProc, n: PNode, r: var TCompRes) =
# if isJsObject(throwObj.typ):
if isImportedException(throwObj.typ, p.config):
orExpr.addf("lastJSError instanceof $1",
[throwObj.typ.sym.loc.snippet])
[throwObj.typ.sym.loc.r])
else:
orExpr.addf("isObj(lastJSError.m_type, $1)",
[genTypeInfo(p, throwObj.typ)])
@@ -1002,8 +991,8 @@ proc genTry(p: PProc, n: PNode, r: var TCompRes) =
# If some branch requires a local alias introduce it here. This is needed
# since JS cannot do ``catch x as y``.
if excAlias != nil:
excAlias.sym.loc.snippet = mangleName(p.module, excAlias.sym)
lineF(p, "var $1 = lastJSError;$n", excAlias.sym.loc.snippet)
excAlias.sym.loc.r = mangleName(p.module, excAlias.sym)
lineF(p, "var $1 = lastJSError;$n", excAlias.sym.loc.r)
gen(p, n[i][^1], a)
moveInto(p, a, r)
lineF(p, "}$n", [])
@@ -1109,19 +1098,14 @@ proc genCaseJS(p: PProc, n: PNode, r: var TCompRes) =
lineF(p, "break;$n", [])
of nkElse:
if transferRange:
if n.len == 2: # a dangling else for a case statement
transferRange = false
lineF(p, "switch ($1) {$n", [cond.rdLoc])
lineF(p, "default: $n", [])
else:
lineF(p, "else{$n", [])
lineF(p, "else{$n", [])
else:
lineF(p, "default: $n", [])
p.nested:
gen(p, it[0], stmt)
moveInto(p, stmt, r)
if transferRange:
lineF(p, "}$n", [])
lineF(p, "}$n", [])
else:
lineF(p, "break;$n", [])
else: internalError(p.config, it.info, "jsgen.genCaseStmt")
@@ -1234,7 +1218,7 @@ proc generateHeader(p: PProc, prc: PSym): Rope =
# to keep it simple
let env = prc.ast[paramsPos].lastSon
assert env.kind == nkSym, "env is missing"
env.sym.loc.snippet = "this"
env.sym.loc.r = "this"
for i in 1..<typ.n.len:
assert(typ.n[i].kind == nkSym)
@@ -1376,8 +1360,8 @@ proc genFieldAddr(p: PProc, n: PNode, r: var TCompRes) =
else:
if b[1].kind != nkSym: internalError(p.config, b[1].info, "genFieldAddr")
var f = b[1].sym
if f.loc.snippet == "": f.loc.snippet = mangleName(p.module, f)
r.res = makeJSString($f.loc.snippet)
if f.loc.r == "": f.loc.r = mangleName(p.module, f)
r.res = makeJSString($f.loc.r)
internalAssert p.config, a.typ != etyBaseIndex
r.address = a.res
r.kind = resExpr
@@ -1404,8 +1388,8 @@ proc genFieldAccess(p: PProc, n: PNode, r: var TCompRes) =
else:
if n[1].kind != nkSym: internalError(p.config, n[1].info, "genFieldAccess")
var f = n[1].sym
if f.loc.snippet == "": f.loc.snippet = mangleName(p.module, f)
r.res = "$1.$2" % [r.res, f.loc.snippet]
if f.loc.r == "": f.loc.r = mangleName(p.module, f)
r.res = "$1.$2" % [r.res, f.loc.r]
mkTemp(1)
r.kind = resExpr
@@ -1425,11 +1409,11 @@ proc genCheckedFieldOp(p: PProc, n: PNode, addrTyp: PType, r: var TCompRes) =
# Field symbol
var field = accessExpr[1].sym
internalAssert p.config, field.kind == skField
if field.loc.snippet == "": field.loc.snippet = mangleName(p.module, field)
if field.loc.r == "": field.loc.r = mangleName(p.module, field)
# Discriminant symbol
let disc = checkExpr[2].sym
internalAssert p.config, disc.kind == skField
if disc.loc.snippet == "": disc.loc.snippet = mangleName(p.module, disc)
if disc.loc.r == "": disc.loc.r = mangleName(p.module, disc)
var setx: TCompRes = default(TCompRes)
gen(p, checkExpr[1], setx)
@@ -1446,16 +1430,16 @@ proc genCheckedFieldOp(p: PProc, n: PNode, addrTyp: PType, r: var TCompRes) =
useMagic(p, "reprDiscriminant") # no need to offset by firstOrd unlike for cgen
let msg = genFieldDefect(p.config, field.name.s, disc)
lineF(p, "if ($1[$2.$3]$4undefined) { raiseFieldError2(makeNimstrLit($5), reprDiscriminant($2.$3, $6)); }$n",
setx.res, tmp, disc.loc.snippet, if negCheck: "!==" else: "===",
setx.res, tmp, disc.loc.r, if negCheck: "!==" else: "===",
makeJSString(msg), genTypeInfo(p, disc.typ))
if addrTyp != nil and mapType(p, addrTyp) == etyBaseIndex:
r.typ = etyBaseIndex
r.res = makeJSString($field.loc.snippet)
r.res = makeJSString($field.loc.r)
r.address = tmp
else:
r.typ = etyNone
r.res = "$1.$2" % [tmp, field.loc.snippet]
r.res = "$1.$2" % [tmp, field.loc.r]
r.kind = resExpr
proc genArrayAddr(p: PProc, n: PNode, r: var TCompRes) =
@@ -1522,10 +1506,10 @@ template isIndirect(x: PSym): bool =
proc genSymAddr(p: PProc, n: PNode, typ: PType, r: var TCompRes) =
let s = n.sym
if s.loc.snippet == "": internalError(p.config, n.info, "genAddr: 3")
if s.loc.r == "": internalError(p.config, n.info, "genAddr: 3")
case s.kind
of skParam:
r.res = s.loc.snippet
r.res = s.loc.r
r.address = ""
r.typ = etyNone
of skVar, skLet, skResult:
@@ -1539,15 +1523,15 @@ proc genSymAddr(p: PProc, n: PNode, typ: PType, r: var TCompRes) =
# make addr() a no-op:
r.typ = etyNone
if isIndirect(s):
r.res = s.loc.snippet & "[0]"
r.res = s.loc.r & "[0]"
else:
r.res = s.loc.snippet
r.res = s.loc.r
r.address = ""
elif {sfGlobal, sfAddrTaken} * s.flags != {} or jsType == etyBaseIndex:
# for ease of code generation, we do not distinguish between
# sfAddrTaken and sfGlobal.
r.typ = etyBaseIndex
r.address = s.loc.snippet
r.address = s.loc.r
r.res = rope("0")
else:
# 'var openArray' for instance produces an 'addr' but this is harmless:
@@ -1585,8 +1569,15 @@ proc genAddr(p: PProc, n: PNode, r: var TCompRes) =
else: internalError(p.config, n[0].info, "expr(nkBracketExpr, " & $kindOfIndexedExpr & ')')
of nkObjDownConv:
gen(p, n[0], r)
of nkHiddenDeref, nkDerefExpr:
of nkHiddenDeref:
gen(p, n[0], r)
of nkDerefExpr:
var x = n[0]
if n.kind == nkHiddenAddr:
x = n[0][0]
if n.typ.skipTypes(abstractVar).kind != tyOpenArray:
x.typ = n.typ
gen(p, x, r)
of nkHiddenAddr:
gen(p, n[0], r)
of nkConv:
@@ -1633,7 +1624,7 @@ proc genCopyForParamIfNeeded(p: PProc, n: PNode) =
internalError(p.config, n.info, "couldn't find the owner proc of the closed over param: " & s.name.s)
if owner.prc == s.owner:
if not owner.generatedParamCopies.containsOrIncl(s.id):
let copy = "$1 = nimCopy(null, $1, $2);$n" % [s.loc.snippet, genTypeInfo(p, s.typ)]
let copy = "$1 = nimCopy(null, $1, $2);$n" % [s.loc.r, genTypeInfo(p, s.typ)]
owner.locals.add(owner.indentLine(copy))
return
owner = owner.up
@@ -1644,7 +1635,7 @@ proc genSym(p: PProc, n: PNode, r: var TCompRes) =
var s = n.sym
case s.kind
of skVar, skLet, skParam, skTemp, skResult, skForVar:
if s.loc.snippet == "":
if s.loc.r == "":
internalError(p.config, n.info, "symbol has no generated name: " & s.name.s)
if sfCompileTime in s.flags:
genVarInit(p, s, if s.astdef != nil: s.astdef else: newNodeI(nkEmpty, s.info))
@@ -1655,29 +1646,29 @@ proc genSym(p: PProc, n: PNode, r: var TCompRes) =
r.typ = etyBaseIndex
if {sfAddrTaken, sfGlobal} * s.flags != {}:
if isIndirect(s):
r.address = "$1[0][0]" % [s.loc.snippet]
r.res = "$1[0][1]" % [s.loc.snippet]
r.address = "$1[0][0]" % [s.loc.r]
r.res = "$1[0][1]" % [s.loc.r]
else:
r.address = "$1[0]" % [s.loc.snippet]
r.res = "$1[1]" % [s.loc.snippet]
r.address = "$1[0]" % [s.loc.r]
r.res = "$1[1]" % [s.loc.r]
else:
r.address = s.loc.snippet
r.res = s.loc.snippet & "_Idx"
r.address = s.loc.r
r.res = s.loc.r & "_Idx"
elif isIndirect(s):
r.res = "$1[0]" % [s.loc.snippet]
r.res = "$1[0]" % [s.loc.r]
else:
r.res = s.loc.snippet
r.res = s.loc.r
of skConst:
genConstant(p, s)
if s.loc.snippet == "":
if s.loc.r == "":
internalError(p.config, n.info, "symbol has no generated name: " & s.name.s)
r.res = s.loc.snippet
r.res = s.loc.r
of skProc, skFunc, skConverter, skMethod, skIterator:
if sfCompileTime in s.flags:
localError(p.config, n.info, "request to generate code for .compileTime proc: " &
s.name.s)
discard mangleName(p.module, s)
r.res = s.loc.snippet
r.res = s.loc.r
if lfNoDecl in s.loc.flags or s.magic notin generatedMagics or
{sfImportc, sfInfixCall} * s.flags != {}:
discard
@@ -1689,13 +1680,13 @@ proc genSym(p: PProc, n: PNode, r: var TCompRes) =
else:
genProcForSymIfNeeded(p, s)
else:
if s.loc.snippet == "":
if s.loc.r == "":
internalError(p.config, n.info, "symbol has no generated name: " & s.name.s)
if mapType(p, s.typ) == etyBaseIndex:
r.address = s.loc.snippet
r.res = s.loc.snippet & "_Idx"
r.address = s.loc.r
r.res = s.loc.r & "_Idx"
else:
r.res = s.loc.snippet
r.res = s.loc.r
r.kind = resVal
proc genDeref(p: PProc, n: PNode, r: var TCompRes) =
@@ -1837,9 +1828,9 @@ proc genPatternCall(p: PProc; n: PNode; pat: string; typ: PType;
proc genInfixCall(p: PProc, n: PNode, r: var TCompRes) =
# don't call '$' here for efficiency:
let f = n[0].sym
if f.loc.snippet == "": f.loc.snippet = mangleName(p.module, f)
if f.loc.r == "": f.loc.r = mangleName(p.module, f)
if sfInfixCall in f.flags:
let pat = $n[0].sym.loc.snippet
let pat = $n[0].sym.loc.r
internalAssert p.config, pat.len > 0
if pat.contains({'#', '(', '@'}):
var typ = skipTypes(n[0].typ, abstractInst)
@@ -1954,7 +1945,7 @@ proc createVar(p: PProc, typ: PType, indirect: bool): Rope =
of tyInt8..tyInt32, tyUInt8..tyUInt32, tyEnum, tyChar:
result = putToSeq("0", indirect)
of tyInt, tyUInt:
if $t.sym.loc.snippet == "bigint":
if $t.sym.loc.r == "bigint":
result = putToSeq("0n", indirect)
else:
result = putToSeq("0", indirect)
@@ -2076,28 +2067,28 @@ proc genVarInit(p: PProc, v: PSym, n: PNode) =
if a.typ == etyBaseIndex:
if targetBaseIndex:
line(p, runtimeFormat(varCode & " = $3, $2_Idx = $4;$n",
[returnType, v.loc.snippet, a.address, a.res]))
[returnType, v.loc.r, a.address, a.res]))
else:
if isIndirect(v):
line(p, runtimeFormat(varCode & " = [[$3, $4]];$n",
[returnType, v.loc.snippet, a.address, a.res]))
[returnType, v.loc.r, a.address, a.res]))
else:
line(p, runtimeFormat(varCode & " = [$3, $4];$n",
[returnType, v.loc.snippet, a.address, a.res]))
[returnType, v.loc.r, a.address, a.res]))
else:
if targetBaseIndex:
let tmp = p.getTemp
lineF(p, "var $1 = $2, $3 = $1[0], $3_Idx = $1[1];$n",
[tmp, a.res, v.loc.snippet])
[tmp, a.res, v.loc.r])
else:
line(p, runtimeFormat(varCode & " = $3;$n", [returnType, v.loc.snippet, a.res]))
line(p, runtimeFormat(varCode & " = $3;$n", [returnType, v.loc.r, a.res]))
return
else:
s = a.res
if isIndirect(v):
line(p, runtimeFormat(varCode & " = [$3];$n", [returnType, v.loc.snippet, s]))
line(p, runtimeFormat(varCode & " = [$3];$n", [returnType, v.loc.r, s]))
else:
line(p, runtimeFormat(varCode & " = $3;$n", [returnType, v.loc.snippet, s]))
line(p, runtimeFormat(varCode & " = $3;$n", [returnType, v.loc.r, s]))
if useReloadingGuard or useGlobalPragmas:
dec p.extraIndent
@@ -2451,7 +2442,6 @@ proc genMagic(p: PProc, n: PNode, r: var TCompRes) =
of mMulSet: binaryExpr(p, n, r, "SetMul", "SetMul($1, $2)")
of mPlusSet: binaryExpr(p, n, r, "SetPlus", "SetPlus($1, $2)")
of mMinusSet: binaryExpr(p, n, r, "SetMinus", "SetMinus($1, $2)")
of mXorSet: binaryExpr(p, n, r, "SetXor", "SetXor($1, $2)")
of mIncl: binaryExpr(p, n, r, "", "$1[$2] = true")
of mExcl: binaryExpr(p, n, r, "", "delete $1[$2]")
of mInSet:
@@ -2573,17 +2563,17 @@ proc genObjConstr(p: PProc, n: PNode, r: var TCompRes) =
let val = it[1]
gen(p, val, a)
var f = it[0].sym
if f.loc.snippet == "": f.loc.snippet = mangleName(p.module, f)
if f.loc.r == "": f.loc.r = mangleName(p.module, f)
fieldIDs.incl(lookupFieldAgain(n.typ.skipTypes({tyDistinct}), f).id)
let typ = val.typ.skipTypes(abstractInst)
if a.typ == etyBaseIndex:
initList.addf("$#: [$#, $#]", [f.loc.snippet, a.address, a.res])
initList.addf("$#: [$#, $#]", [f.loc.r, a.address, a.res])
else:
if not needsNoCopy(p, val):
useMagic(p, "nimCopy")
a.res = "nimCopy(null, $1, $2)" % [a.rdLoc, genTypeInfo(p, typ)]
initList.addf("$#: $#", [f.loc.snippet, a.res])
initList.addf("$#: $#", [f.loc.r, a.res])
let t = skipTypes(n.typ, abstractInst + skipPtrs)
createObjInitList(p, t, fieldIDs, initList)
r.res = ("{$1}") % [initList]
@@ -2642,13 +2632,7 @@ proc genRangeChck(p: PProc, n: PNode, r: var TCompRes, magic: string) =
let src = skipTypes(n[0].typ, abstractVarRange)
let dest = skipTypes(n.typ, abstractVarRange)
if optRangeCheck notin p.options:
if optJsBigInt64 in p.config.globalOptions and
dest.kind in {tyUInt..tyUInt32, tyInt..tyInt32} and
src.kind in {tyInt64, tyUInt64}:
# conversions to Number are kept
r.res = "Number($1)" % [r.res]
else:
discard
return
elif dest.kind in {tyUInt..tyUInt64} and checkUnsignedConversions notin p.config.legacyFeatures:
if src.kind in {tyInt64, tyUInt64} and optJsBigInt64 in p.config.globalOptions:
r.res = "BigInt.asUintN($1, $2)" % [$(dest.size * 8), r.res]
@@ -2829,9 +2813,9 @@ proc genPragma(p: PProc, n: PNode) =
case whichPragma(it)
of wEmit: genAsmOrEmitStmt(p, it[1])
of wPush:
processPushBackendOption(p.config, p.optionsStack, p.options, n, i+1)
processPushBackendOption(p.optionsStack, p.options, n, i+1)
of wPop:
processPopBackendOption(p.config, p.optionsStack, p.options)
processPopBackendOption(p.optionsStack, p.options)
else: discard
proc genCast(p: PProc, n: PNode, r: var TCompRes) =
@@ -3008,7 +2992,7 @@ proc gen(p: PProc, n: PNode, r: var TCompRes) =
of nkLambdaKinds:
let s = n[namePos].sym
discard mangleName(p.module, s)
r.res = s.loc.snippet
r.res = s.loc.r
if lfNoDecl in s.loc.flags or s.magic notin generatedMagics: discard
elif not p.g.generatedSyms.containsOrIncl(s.id):
p.locals.add(genProc(p, s))
@@ -3059,7 +3043,16 @@ proc gen(p: PProc, n: PNode, r: var TCompRes) =
of nkGotoState, nkState:
globalError(p.config, n.info, "not implemented")
of nkBreakState:
genBreakState(p, n[0], r)
var a: TCompRes = default(TCompRes)
if n[0].kind == nkClosure:
gen(p, n[0][1], a)
let sym = n[0][1].typ[0].n[0].sym
r.res = "(($1).$2 < 0)" % [rdLoc(a), mangleName(p.module, sym)]
else:
gen(p, n[0], a)
let sym = n[0].typ[0].n[0].sym
r.res = "((($1.ClE_0).$2) < 0)" % [rdLoc(a), mangleName(p.module, sym)]
r.kind = resExpr
of nkPragmaBlock: gen(p, n.lastSon, r)
of nkComesFrom:
discard "XXX to implement for better stack traces"

View File

@@ -175,7 +175,6 @@ proc addHiddenParam(routine: PSym, param: PSym) =
#echo "produced environment: ", param.id, " for ", routine.id
proc getEnvParam*(routine: PSym): PSym =
if routine.ast.isNil: return nil
let params = routine.ast[paramsPos]
let hidden = lastSon(params)
if hidden.kind == nkSym and hidden.sym.kind == skParam and hidden.sym.name.s == paramName:
@@ -284,8 +283,8 @@ proc markAsClosure(g: ModuleGraph; owner: PSym; n: PNode) =
localError(g.config, n.info,
("'$1' is of type <$2> which cannot be captured as it would violate memory" &
" safety, declared here: $3; using '-d:nimNoLentIterators' helps in some cases." &
" Consider using a <ref T> which can be captured.") %
[s.name.s, typeToString(s.typ.skipTypes({tyVar})), g.config$s.info])
" Consider using a <ref $2> which can be captured.") %
[s.name.s, typeToString(s.typ), g.config$s.info])
elif not (owner.typ.isClosure or owner.isNimcall and not owner.isExplicitCallConv or isEnv):
localError(g.config, n.info, "illegal capture '$1' because '$2' has the calling convention: <$3>" %
[s.name.s, owner.name.s, $owner.typ.callConv])
@@ -420,12 +419,6 @@ proc addClosureParam(c: var DetectionPass; fn: PSym; info: TLineInfo) =
localError(c.graph.config, fn.info, "internal error: inconsistent environment type")
#echo "adding closure to ", fn.name.s
proc iterEnvHasUpField(g: ModuleGraph, iter: PSym): bool =
let cp = getEnvParam(iter)
doAssert(cp != nil, "Env param not present in iter")
let upField = lookupInRecord(cp.typ.skipTypes({tyOwned, tyRef, tyPtr}).n, getIdent(g.cache, upName))
upField != nil
proc detectCapturedVars(n: PNode; owner: PSym; c: var DetectionPass) =
case n.kind
of nkSym:
@@ -444,7 +437,7 @@ proc detectCapturedVars(n: PNode; owner: PSym; c: var DetectionPass) =
let body = transformBody(c.graph, c.idgen, s, {useCache})
detectCapturedVars(body, s, c)
let ow = s.skipGenericOwner
let innerClosure = innerProc and s.typ.callConv == ccClosure and (not s.isIterator or iterEnvHasUpField(c.graph, s))
let innerClosure = innerProc and s.typ.callConv == ccClosure and not s.isIterator
let interested = interestingVar(s)
if ow == owner:
if owner.isIterator:
@@ -609,7 +602,7 @@ proc rawClosureCreation(owner: PSym;
let unowned = c.unownedEnvVars[owner.id]
assert unowned != nil
let env2 = copyTree(env)
env2.typ() = unowned.typ
env2.typ = unowned.typ
result.add newAsgnStmt(unowned, env2, env.info)
createTypeBoundOpsLL(d.graph, unowned.typ, env.info, d.idgen, owner)
@@ -649,27 +642,16 @@ proc finishClosureCreation(owner: PSym; d: var DetectionPass; c: LiftingPass;
res.add newAsgnStmt(unowned, nilLit, info)
createTypeBoundOpsLL(d.graph, unowned.typ, info, d.idgen, owner)
proc getUpForIter(g: ModuleGraph; owner, iterOwner: PSym, expectedUpTyp: PType): PNode =
var p = getHiddenParam(g, owner)
var res = p.newSymNode
while res.typ.skipTypes({tyOwned, tyRef, tyPtr}) != expectedUpTyp:
let upField = lookupInRecord(p.typ.skipTypes({tyOwned, tyRef, tyPtr}).n, getIdent(g.cache, upName))
if upField == nil:
return nil
p = upField
res = rawIndirectAccess(res, upField, p.info)
res
proc closureCreationForIter(owner: PSym, iter: PNode;
proc closureCreationForIter(iter: PNode;
d: var DetectionPass; c: var LiftingPass): PNode =
result = newNodeIT(nkStmtListExpr, iter.info, iter.sym.typ)
let iterOwner = iter.sym.skipGenericOwner
var v = newSym(skVar, getIdent(d.graph.cache, envName), d.idgen, iterOwner, iter.info)
let owner = iter.sym.skipGenericOwner
var v = newSym(skVar, getIdent(d.graph.cache, envName), d.idgen, owner, iter.info)
incl(v.flags, sfShadowed)
v.typ = asOwnedRef(d, getHiddenParam(d.graph, iter.sym).typ)
var vnode: PNode
if iterOwner.isIterator:
let it = getHiddenParam(d.graph, iterOwner)
if owner.isIterator:
let it = getHiddenParam(d.graph, owner)
addUniqueField(it.typ.skipTypes({tyOwned, tyRef, tyPtr}), v, d.graph.cache, d.idgen)
vnode = indirectAccess(newSymNode(it), v, v.info)
else:
@@ -678,14 +660,12 @@ proc closureCreationForIter(owner: PSym, iter: PNode;
addVar(vs, vnode)
result.add(vs)
result.add genCreateEnv(vnode)
createTypeBoundOpsLL(d.graph, vnode.typ, iter.info, d.idgen, iterOwner)
createTypeBoundOpsLL(d.graph, vnode.typ, iter.info, d.idgen, owner)
let upField = lookupInRecord(v.typ.skipTypes({tyOwned, tyRef, tyPtr}).n, getIdent(d.graph.cache, upName))
if upField != nil:
let expectedUpTyp = upField.typ.skipTypes({tyOwned, tyRef, tyPtr})
let u = if iterOwner == owner: setupEnvVar(iterOwner, d, c, iter.info)
else: getUpForIter(d.graph, owner, iterOwner, expectedUpTyp)
if u != nil and u.typ.skipTypes({tyOwned, tyRef, tyPtr}) == expectedUpTyp:
let u = setupEnvVar(owner, d, c, iter.info)
if u.typ.skipTypes({tyOwned, tyRef, tyPtr}) == upField.typ.skipTypes({tyOwned, tyRef, tyPtr}):
result.add(newAsgnStmt(rawIndirectAccess(vnode, upField, iter.info),
u, iter.info))
else:
@@ -719,7 +699,7 @@ proc symToClosure(n: PNode; owner: PSym; d: var DetectionPass;
let available = getHiddenParam(d.graph, owner)
result = makeClosure(d.graph, d.idgen, s, available.newSymNode, n.info)
elif s.isIterator:
result = closureCreationForIter(owner, n, d, c)
result = closureCreationForIter(n, d, c)
elif s.skipGenericOwner == owner:
# direct dependency, so use the outer's env variable:
result = makeClosure(d.graph, d.idgen, s, setupEnvVar(owner, d, c, n.info), n.info)
@@ -786,7 +766,7 @@ proc liftCapturedVars(n: PNode; owner: PSym; d: var DetectionPass;
let oldInContainer = c.inContainer
c.inContainer = 0
let m = newSymNode(n[namePos].sym)
m.typ() = n.typ
m.typ = n.typ
result = liftCapturedVars(m, owner, d, c)
c.inContainer = oldInContainer
of nkHiddenStdConv:

View File

@@ -1,82 +0,0 @@
import std/tables
import ast
type
LayeredIdTableObj* {.acyclic.} = object
## stack of type binding contexts implemented as a linked list
topLayer*: TypeMapping
## the mappings on the current layer
nextLayer*: ref LayeredIdTableObj
## the parent type binding context, possibly `nil`
previousLen*: int
## total length of the bindings up to the parent layer,
## used to track if new bindings were added
const useRef = not defined(gcDestructors)
# implementation detail, only arc/orc doesn't cause issues when
# using LayeredIdTable as an object and not a ref
when useRef:
type LayeredIdTable* = ref LayeredIdTableObj
else:
type LayeredIdTable* = LayeredIdTableObj
proc initLayeredTypeMap*(pt: sink TypeMapping = initTypeMapping()): LayeredIdTable =
result = LayeredIdTable(topLayer: pt, nextLayer: nil)
proc shallowCopy*(pt: LayeredIdTable): LayeredIdTable {.inline.} =
## copies only the type bindings of the current layer, but not any parent layers,
## useful for write-only bindings
result = LayeredIdTable(topLayer: pt.topLayer, nextLayer: pt.nextLayer, previousLen: pt.previousLen)
proc currentLen*(pt: LayeredIdTable): int =
## the sum of the cached total binding count of the parents and
## the current binding count, just used to track if bindings were added
pt.previousLen + pt.topLayer.len
proc newTypeMapLayer*(pt: LayeredIdTable): LayeredIdTable =
result = LayeredIdTable(topLayer: initTable[ItemId, PType](), previousLen: pt.currentLen)
when useRef:
result.nextLayer = pt
else:
new(result.nextLayer)
result.nextLayer[] = pt
proc setToPreviousLayer*(pt: var LayeredIdTable) {.inline.} =
when useRef:
pt = pt.nextLayer
else:
when defined(gcDestructors):
pt = pt.nextLayer[]
else:
# workaround refc
let tmp = pt.nextLayer[]
pt = tmp
proc lookup(typeMap: ref LayeredIdTableObj, key: ItemId): PType =
result = nil
var tm = typeMap
while tm != nil:
result = getOrDefault(tm.topLayer, key)
if result != nil: return
tm = tm.nextLayer
template lookup*(typeMap: ref LayeredIdTableObj, key: PType): PType =
## recursively looks up binding of `key` in all parent layers
lookup(typeMap, key.itemId)
when not useRef:
proc lookup(typeMap: LayeredIdTableObj, key: ItemId): PType {.inline.} =
result = getOrDefault(typeMap.topLayer, key)
if result == nil and typeMap.nextLayer != nil:
result = lookup(typeMap.nextLayer, key)
template lookup*(typeMap: LayeredIdTableObj, key: PType): PType =
lookup(typeMap, key.itemId)
proc put(typeMap: var LayeredIdTable, key: ItemId, value: PType) {.inline.} =
typeMap.topLayer[key] = value
template put*(typeMap: var LayeredIdTable, key, value: PType) =
## binds `key` to `value` only in current layer
put(typeMap, key.itemId, value)

View File

@@ -49,7 +49,7 @@ proc at(a, i: PNode, elemType: PType): PNode =
result = newNodeI(nkBracketExpr, a.info, 2)
result[0] = a
result[1] = i
result.typ() = elemType
result.typ = elemType
proc destructorOverridden(g: ModuleGraph; t: PType): bool =
let op = getAttachedOp(g, t, attachedDestructor)
@@ -68,7 +68,7 @@ proc dotField(x: PNode, f: PSym): PNode =
else:
result[0] = x
result[1] = newSymNode(f, x.info)
result.typ() = f.typ
result.typ = f.typ
proc newAsgnStmt(le, ri: PNode): PNode =
result = newNodeI(nkAsgn, le.info, 2)
@@ -88,7 +88,7 @@ proc defaultOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
body.add newAsgnStmt(x, y)
elif c.kind == attachedDestructor and c.addMemReset:
let call = genBuiltin(c, mDefault, "default", x)
call.typ() = t
call.typ = t
body.add newAsgnStmt(x, call)
elif c.kind == attachedWasMoved:
body.add genBuiltin(c, mWasMoved, "`=wasMoved`", x)
@@ -105,7 +105,7 @@ proc genWhileLoop(c: var TLiftCtx; i, dest: PNode): PNode =
result = newNodeI(nkWhileStmt, c.info, 2)
let cmp = genBuiltin(c, mLtI, "<", i)
cmp.add genLen(c.g, dest)
cmp.typ() = getSysType(c.g, c.info, tyBool)
cmp.typ = getSysType(c.g, c.info, tyBool)
result[0] = cmp
result[1] = newNodeI(nkStmtList, c.info)
@@ -127,10 +127,10 @@ proc genContainerOf(c: var TLiftCtx; objType: PType, field, x: PSym): PNode =
dotExpr.add newSymNode(field)
let offsetOf = genBuiltin(c, mOffsetOf, "offsetof", dotExpr)
offsetOf.typ() = intType
offsetOf.typ = intType
let minusExpr = genBuiltin(c, mSubI, "-", castExpr1)
minusExpr.typ() = intType
minusExpr.typ = intType
minusExpr.add offsetOf
let objPtr = makePtrType(objType.owner, objType, c.idgen)
@@ -224,16 +224,10 @@ proc fillBodyObj(c: var TLiftCtx; n, body, x, y: PNode; enforceDefaultOp: bool,
proc fillBodyObjTImpl(c: var TLiftCtx; t: PType, body, x, y: PNode) =
if t.baseClass != nil:
let dest = newNodeIT(nkHiddenSubConv, c.info, t.baseClass)
dest.add newNodeI(nkEmpty, c.info)
dest.add x
var src = y
if c.kind in {attachedAsgn, attachedDeepCopy, attachedSink}:
src = newNodeIT(nkHiddenSubConv, c.info, t.baseClass)
src.add newNodeI(nkEmpty, c.info)
src.add y
fillBody(c, skipTypes(t.baseClass, abstractPtrs), body, dest, src)
let obj = newNodeIT(nkHiddenSubConv, c.info, t.baseClass)
obj.add newNodeI(nkEmpty, c.info)
obj.add x
fillBody(c, skipTypes(t.baseClass, abstractPtrs), body, obj, y)
fillBodyObj(c, t.n, body, x, y, enforceDefaultOp = false)
proc fillBodyObjT(c: var TLiftCtx; t: PType, body, x, y: PNode) =
@@ -265,7 +259,7 @@ proc fillBodyObjT(c: var TLiftCtx; t: PType, body, x, y: PNode) =
# because the wasMoved(dest) call would zero out src, if dest aliases src.
var cond = newTree(nkCall, newSymNode(c.g.getSysMagic(c.info, "==", mEqRef)),
newTreeIT(nkAddr, c.info, makePtrType(c.fn, x.typ, c.idgen), x), newTreeIT(nkAddr, c.info, makePtrType(c.fn, y.typ, c.idgen), y))
cond.typ() = getSysType(c.g, x.info, tyBool)
cond.typ = getSysType(c.g, x.info, tyBool)
body.add genIf(c, cond, newTreeI(nkReturnStmt, c.info, newNodeI(nkEmpty, c.info)))
var temp = newSym(skTemp, getIdent(c.g.cache, lowerings.genPrefix), c.idgen, c.fn, c.info)
temp.typ = x.typ
@@ -296,7 +290,7 @@ proc fillBodyObjT(c: var TLiftCtx; t: PType, body, x, y: PNode) =
proc boolLit*(g: ModuleGraph; info: TLineInfo; value: bool): PNode =
result = newIntLit(g, info, ord value)
result.typ() = getSysType(g, info, tyBool)
result.typ = getSysType(g, info, tyBool)
proc getCycleParam(c: TLiftCtx): PNode =
assert c.kind in {attachedAsgn, attachedDup}
@@ -545,18 +539,18 @@ proc newSeqCall(c: var TLiftCtx; x, y: PNode): PNode =
# don't call genAddr(c, x) here:
result = genBuiltin(c, mNewSeq, "newSeq", x)
let lenCall = genBuiltin(c, mLengthSeq, "len", y)
lenCall.typ() = getSysType(c.g, x.info, tyInt)
lenCall.typ = getSysType(c.g, x.info, tyInt)
result.add lenCall
proc setLenStrCall(c: var TLiftCtx; x, y: PNode): PNode =
let lenCall = genBuiltin(c, mLengthStr, "len", y)
lenCall.typ() = getSysType(c.g, x.info, tyInt)
lenCall.typ = getSysType(c.g, x.info, tyInt)
result = genBuiltin(c, mSetLengthStr, "setLen", x) # genAddr(g, x))
result.add lenCall
proc setLenSeqCall(c: var TLiftCtx; t: PType; x, y: PNode): PNode =
let lenCall = genBuiltin(c, mLengthSeq, "len", y)
lenCall.typ() = getSysType(c.g, x.info, tyInt)
lenCall.typ = getSysType(c.g, x.info, tyInt)
var op = getSysMagic(c.g, x.info, "setLen", mSetLengthSeq)
op = instantiateGeneric(c, op, t, t)
result = newTree(nkCall, newSymNode(op, x.info), x, lenCall)
@@ -579,7 +573,7 @@ proc checkSelfAssignment(c: var TLiftCtx; t: PType; body, x, y: PNode) =
newTreeIT(nkAddr, c.info, makePtrType(c.fn, x.typ, c.idgen), x),
newTreeIT(nkAddr, c.info, makePtrType(c.fn, y.typ, c.idgen), y)
)
cond.typ() = getSysType(c.g, c.info, tyBool)
cond.typ = getSysType(c.g, c.info, tyBool)
body.add genIf(c, cond, newTreeI(nkReturnStmt, c.info, newNodeI(nkEmpty, c.info)))
proc fillSeqOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
@@ -720,7 +714,7 @@ proc atomicRefOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
if isFinal(elemType):
addDestructorCall(c, elemType, actions, genDeref(tmp, nkDerefExpr))
var alignOf = genBuiltin(c, mAlignOf, "alignof", newNodeIT(nkType, c.info, elemType))
alignOf.typ() = getSysType(c.g, c.info, tyInt)
alignOf.typ = getSysType(c.g, c.info, tyInt)
actions.add callCodegenProc(c.g, "nimRawDispose", c.info, tmp, alignOf)
else:
addDestructorCall(c, elemType, newNodeI(nkStmtList, c.info), genDeref(tmp, nkDerefExpr))
@@ -730,7 +724,7 @@ proc atomicRefOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
if isCyclic:
if isFinal(elemType):
let typInfo = genBuiltin(c, mGetTypeInfoV2, "getTypeInfoV2", newNodeIT(nkType, x.info, elemType))
typInfo.typ() = getSysType(c.g, c.info, tyPointer)
typInfo.typ = getSysType(c.g, c.info, tyPointer)
cond = callCodegenProc(c.g, "nimDecRefIsLastCyclicStatic", c.info, tmp, typInfo)
else:
cond = callCodegenProc(c.g, "nimDecRefIsLastCyclicDyn", c.info, tmp)
@@ -738,7 +732,7 @@ proc atomicRefOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
cond = callCodegenProc(c.g, "nimDecRefIsLastDyn", c.info, x)
else:
cond = callCodegenProc(c.g, "nimDecRefIsLast", c.info, x)
cond.typ() = getSysType(c.g, x.info, tyBool)
cond.typ = getSysType(c.g, x.info, tyBool)
case c.kind
of attachedSink:
@@ -765,7 +759,7 @@ proc atomicRefOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
if isCyclic:
if isFinal(elemType):
let typInfo = genBuiltin(c, mGetTypeInfoV2, "getTypeInfoV2", newNodeIT(nkType, x.info, elemType))
typInfo.typ() = getSysType(c.g, c.info, tyPointer)
typInfo.typ = getSysType(c.g, c.info, tyPointer)
body.add callCodegenProc(c.g, "nimTraceRef", c.info, genAddrOf(x, c.idgen), typInfo, y)
else:
# If the ref is polymorphic we have to account for this
@@ -786,7 +780,7 @@ proc atomicClosureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
## Closures are really like refs except they always use a virtual destructor
## and we need to do the refcounting only on the ref field which we call 'xenv':
let xenv = genBuiltin(c, mAccessEnv, "accessEnv", x)
xenv.typ() = getSysType(c.g, c.info, tyPointer)
xenv.typ = getSysType(c.g, c.info, tyPointer)
let isCyclic = c.g.config.selectedGC == gcOrc
let tmp =
@@ -802,7 +796,7 @@ proc atomicClosureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
if isCyclic: "nimDecRefIsLastCyclicDyn"
else: "nimDecRefIsLast"
let cond = callCodegenProc(c.g, decRefProc, c.info, tmp)
cond.typ() = getSysType(c.g, x.info, tyBool)
cond.typ = getSysType(c.g, x.info, tyBool)
case c.kind
of attachedSink:
@@ -814,7 +808,7 @@ proc atomicClosureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
body.add newAsgnStmt(x, y)
of attachedAsgn:
let yenv = genBuiltin(c, mAccessEnv, "accessEnv", y)
yenv.typ() = getSysType(c.g, c.info, tyPointer)
yenv.typ = getSysType(c.g, c.info, tyPointer)
if isCyclic:
body.add genIf(c, yenv, callCodegenProc(c.g, "nimIncRefCyclic", c.info, yenv, getCycleParam(c)))
body.add newAsgnStmt(x, y)
@@ -826,7 +820,7 @@ proc atomicClosureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
body.add newAsgnStmt(x, y)
of attachedDup:
let yenv = genBuiltin(c, mAccessEnv, "accessEnv", y)
yenv.typ() = getSysType(c.g, c.info, tyPointer)
yenv.typ = getSysType(c.g, c.info, tyPointer)
if isCyclic:
body.add newAsgnStmt(x, y)
body.add genIf(c, yenv, callCodegenProc(c.g, "nimIncRefCyclic", c.info, yenv, getCycleParam(c)))
@@ -878,7 +872,7 @@ proc ownedRefOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
if isFinal(elemType):
addDestructorCall(c, elemType, actions, genDeref(x, nkDerefExpr))
var alignOf = genBuiltin(c, mAlignOf, "alignof", newNodeIT(nkType, c.info, elemType))
alignOf.typ() = getSysType(c.g, c.info, tyInt)
alignOf.typ = getSysType(c.g, c.info, tyInt)
actions.add callCodegenProc(c.g, "nimRawDispose", c.info, x, alignOf)
else:
addDestructorCall(c, elemType, newNodeI(nkStmtList, c.info), genDeref(x, nkDerefExpr))
@@ -901,14 +895,14 @@ proc closureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
# a big problem is that we don't know the environment's type here, so we
# have to go through some indirection; we delegate this to the codegen:
let call = newNodeI(nkCall, c.info, 2)
call.typ() = t
call.typ = t
call[0] = newSymNode(createMagic(c.g, c.idgen, "deepCopy", mDeepCopy))
call[1] = y
body.add newAsgnStmt(x, call)
elif (optOwnedRefs in c.g.config.globalOptions and
optRefCheck in c.g.config.options) or c.g.config.selectedGC in {gcArc, gcAtomicArc, gcOrc}:
let xx = genBuiltin(c, mAccessEnv, "accessEnv", x)
xx.typ() = getSysType(c.g, c.info, tyPointer)
xx.typ = getSysType(c.g, c.info, tyPointer)
case c.kind
of attachedSink:
# we 'nil' y out afterwards so we *need* to take over its reference
@@ -917,13 +911,13 @@ proc closureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
body.add newAsgnStmt(x, y)
of attachedAsgn:
let yy = genBuiltin(c, mAccessEnv, "accessEnv", y)
yy.typ() = getSysType(c.g, c.info, tyPointer)
yy.typ = getSysType(c.g, c.info, tyPointer)
body.add genIf(c, yy, callCodegenProc(c.g, "nimIncRef", c.info, yy))
body.add genIf(c, xx, callCodegenProc(c.g, "nimDecWeakRef", c.info, xx))
body.add newAsgnStmt(x, y)
of attachedDup:
let yy = genBuiltin(c, mAccessEnv, "accessEnv", y)
yy.typ() = getSysType(c.g, c.info, tyPointer)
yy.typ = getSysType(c.g, c.info, tyPointer)
body.add newAsgnStmt(x, y)
body.add genIf(c, yy, callCodegenProc(c.g, "nimIncRef", c.info, yy))
of attachedDestructor:
@@ -938,7 +932,7 @@ proc closureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
proc ownedClosureOp(c: var TLiftCtx; t: PType; body, x, y: PNode) =
let xx = genBuiltin(c, mAccessEnv, "accessEnv", x)
xx.typ() = getSysType(c.g, c.info, tyPointer)
xx.typ = getSysType(c.g, c.info, tyPointer)
var actions = newNodeI(nkStmtList, c.info)
#discard addDestructorCall(c, elemType, newNodeI(nkStmtList, c.info), genDeref(xx))
actions.add callCodegenProc(c.g, "nimDestroyAndDispose", c.info, xx)
@@ -1046,7 +1040,7 @@ proc fillBody(c: var TLiftCtx; t: PType; body, x, y: PNode) =
else:
discard "cannot copy openArray"
of tyFromExpr, tyError, tyBuiltInTypeClass, tyUserTypeClass,
of tyFromExpr, tyProxy, tyBuiltInTypeClass, tyUserTypeClass,
tyUserTypeClassInst, tyCompositeTypeClass, tyAnd, tyOr, tyNot, tyAnything,
tyGenericParam, tyGenericBody, tyNil, tyUntyped, tyTyped,
tyTypeDesc, tyGenericInvocation, tyForward, tyStatic:
@@ -1152,8 +1146,8 @@ proc symPrototype(g: ModuleGraph; typ: PType; owner: PSym; kind: TTypeAttachedOp
proc genTypeFieldCopy(c: var TLiftCtx; t: PType; body, x, y: PNode) =
let xx = genBuiltin(c, mAccessTypeField, "accessTypeField", x)
let yy = genBuiltin(c, mAccessTypeField, "accessTypeField", y)
xx.typ() = getSysType(c.g, c.info, tyPointer)
yy.typ() = xx.typ
xx.typ = getSysType(c.g, c.info, tyPointer)
yy.typ = xx.typ
body.add newAsgnStmt(xx, yy)
proc produceSym(g: ModuleGraph; c: PContext; typ: PType; kind: TTypeAttachedOp;
@@ -1276,10 +1270,6 @@ proc createTypeBoundOps(g: ModuleGraph; c: PContext; orig: PType; info: TLineInf
## The later 'injectdestructors' pass depends on it.
if orig == nil or {tfCheckedForDestructor, tfHasMeta} * orig.flags != {}: return
incl orig.flags, tfCheckedForDestructor
# for user defined generic destructors:
let origRoot = genericRoot(orig)
if origRoot != nil:
incl origRoot.flags, tfGenericHasDestructor
let skipped = orig.skipTypes({tyGenericInst, tyAlias, tySink})
if isEmptyContainer(skipped) or skipped.kind == tyStatic: return

View File

@@ -32,12 +32,12 @@ proc interestingVar(s: PSym): bool {.inline.} =
proc lookupOrAdd(c: var Ctx; s: PSym; info: TLineInfo): PNode =
let field = addUniqueField(c.objType, s, c.cache, c.idgen)
var deref = newNodeI(nkHiddenDeref, info)
deref.typ() = c.objType
deref.typ = c.objType
deref.add(newSymNode(c.partialParam, info))
result = newNodeI(nkDotExpr, info)
result.add(deref)
result.add(newSymNode(field))
result.typ() = field.typ
result.typ = field.typ
proc liftLocals(n: PNode; i: int; c: var Ctx) =
let it = n[i]

View File

@@ -92,7 +92,7 @@ type
warnStmtListLambda = "StmtListLambda",
warnBareExcept = "BareExcept",
warnImplicitDefaultValue = "ImplicitDefaultValue",
warnIgnoredSymbolInjection = "IgnoredSymbolInjection",
warnGenericsIgnoredInjection = "GenericsIgnoredInjection",
warnStdPrefix = "StdPrefix"
warnUser = "User",
warnGlobalVarConstructorTemporary = "GlobalVarConstructorTemporary",
@@ -198,7 +198,7 @@ const
warnStmtListLambda: "statement list expression assumed to be anonymous proc; this is deprecated, use `do (): ...` or `proc () = ...` instead",
warnBareExcept: "$1",
warnImplicitDefaultValue: "$1",
warnIgnoredSymbolInjection: "$1",
warnGenericsIgnoredInjection: "$1",
warnStdPrefix: "$1 needs the 'std' prefix",
warnUser: "$1",
warnGlobalVarConstructorTemporary: "global variable '$1' initialization requires a temporary variable",
@@ -268,7 +268,6 @@ const
NotesVerbosity* = computeNotesVerbosity()
errXMustBeCompileTime* = "'$1' can only be used in compile-time context"
errArgsNeedRunOption* = "arguments can only be given if the '--run' option is selected"
errFloatToString* = "cannot convert '$1' to '$2'"
type
TFileInfo* = object

View File

@@ -12,7 +12,7 @@
import std/strutils
from std/sugar import dup
import options, ast, msgs, idents, lineinfos, wordrecg, astmsgs, semdata, packages, modulegraphs
import options, ast, msgs, idents, lineinfos, wordrecg, astmsgs, semdata, packages
export packages
const
@@ -97,7 +97,7 @@ template styleCheckDef*(ctx: PContext; info: TLineInfo; sym: PSym; k: TSymKind)
if optStyleCheck in ctx.config.options and # ignore if styleChecks are off
{optStyleHint, optStyleError} * ctx.config.globalOptions != {} and # check only if hint/error is enabled
hintName in ctx.config.notes and # ignore if name checks are not requested
ctx.config.belongsToProjectPackageMaybeNil(getModule(ctx.graph, info.fileIndex)) and # ignore foreign packages
ctx.config.belongsToProjectPackage(sym) and # ignore foreign packages
optStyleUsages notin ctx.config.globalOptions and # ignore if requested to only check name usage
sym.kind != skResult and # ignore `result`
sym.kind != skTemp and # ignore temporary variables created by the compiler
@@ -138,7 +138,7 @@ template styleCheckUse*(ctx: PContext; info: TLineInfo; sym: PSym) =
## Check symbol uses match their definition's style.
if {optStyleHint, optStyleError} * ctx.config.globalOptions != {} and # ignore if styleChecks are off
hintName in ctx.config.notes and # ignore if name checks are not requested
ctx.config.belongsToProjectPackageMaybeNil(getModule(ctx.graph, info.fileIndex)) and # ignore foreign packages
ctx.config.belongsToProjectPackage(sym) and # ignore foreign packages
sym.kind != skTemp and # ignore temporary variables created by the compiler
sym.name.s[0] in Letters and # ignore operators TODO: what about unicode symbols???
sfAnon notin sym.flags: # ignore temporary variables created by the compiler
@@ -154,5 +154,5 @@ template checkPragmaUse*(ctx: PContext; info: TLineInfo; w: TSpecialWord; pragma
## Note: This only applies to builtin pragmas, not user pragmas.
if {optStyleHint, optStyleError} * ctx.config.globalOptions != {} and # ignore if styleChecks are off
hintName in ctx.config.notes and # ignore if name checks are not requested
ctx.config.belongsToProjectPackageMaybeNil(getModule(ctx.graph, info.fileIndex)): # ignore foreign packages
(sym != nil and ctx.config.belongsToProjectPackage(sym)): # ignore foreign packages
checkPragmaUseImpl(ctx.config, info, w, pragmaName)

View File

@@ -68,7 +68,6 @@ when not declared(readLineFromStdin):
# fallback implementation:
proc readLineFromStdin(prompt: string, line: var string): bool =
stdout.write(prompt)
stdout.flushFile()
result = readLine(stdin, line)
if not result:
stdout.write("\n")

View File

@@ -50,7 +50,7 @@ proc considerQuotedIdent*(c: PContext; n: PNode, origin: PNode = nil): PIdent =
case x.kind
of nkIdent: id.add(x.ident.s)
of nkSym: id.add(x.sym.name.s)
of nkSymChoices, nkOpenSym:
of nkSymChoices:
if x[0].kind == nkSym:
id.add(x[0].sym.name.s)
else:
@@ -63,8 +63,6 @@ proc considerQuotedIdent*(c: PContext; n: PNode, origin: PNode = nil): PIdent =
result = n[0].sym.name
else:
handleError(n, origin)
of nkOpenSym:
result = considerQuotedIdent(c, n[0], origin)
else:
handleError(n, origin)
@@ -563,33 +561,23 @@ proc errorUseQualifier*(c: PContext; info: TLineInfo; s: PSym) =
var amb: bool = false
discard errorUseQualifier(c, info, s, amb)
proc ambiguousIdentifierMsg*(candidates: seq[PSym], prefix = "use one of", indent = 0): string =
result = ""
for i in 0 ..< indent:
result.add(' ')
result.add "ambiguous identifier: '" & candidates[0].name.s & "'"
proc errorUseQualifier*(c: PContext; info: TLineInfo; candidates: seq[PSym]; prefix = "use one of") =
var err = "ambiguous identifier: '" & candidates[0].name.s & "'"
var i = 0
for candidate in candidates:
if i == 0: result.add " -- $1 the following:\n" % prefix
else: result.add "\n"
for i in 0 ..< indent:
result.add(' ')
result.add " " & candidate.owner.name.s & "." & candidate.name.s
result.add ": " & typeToString(candidate.typ)
if i == 0: err.add " -- $1 the following:\n" % prefix
else: err.add "\n"
err.add " " & candidate.owner.name.s & "." & candidate.name.s
err.add ": " & typeToString(candidate.typ)
inc i
localError(c.config, info, errGenerated, err)
proc errorUseQualifier*(c: PContext; info: TLineInfo; candidates: seq[PSym]) =
localError(c.config, info, errGenerated, ambiguousIdentifierMsg(candidates))
proc ambiguousIdentifierMsg*(choices: PNode, indent = 0): string =
proc errorUseQualifier*(c: PContext; info:TLineInfo; choices: PNode) =
var candidates = newSeq[PSym](choices.len)
let prefix = if choices[0].typ.kind != tyProc: "use one of" else: "you need a helper proc to disambiguate"
for i, n in choices:
candidates[i] = n.sym
result = ambiguousIdentifierMsg(candidates, prefix, indent)
proc errorUseQualifier*(c: PContext; info:TLineInfo; choices: PNode) =
localError(c.config, info, errGenerated, ambiguousIdentifierMsg(choices))
errorUseQualifier(c, info, candidates, prefix)
proc errorUndeclaredIdentifier*(c: PContext; info: TLineInfo; name: string, extra = "") =
var err: string
@@ -642,10 +630,9 @@ type
const allExceptModule = {low(TSymKind)..high(TSymKind)} - {skModule, skPackage}
proc lookUpCandidates*(c: PContext, ident: PIdent, filter: set[TSymKind],
includePureEnum = false): seq[PSym] =
proc lookUpCandidates*(c: PContext, ident: PIdent, filter: set[TSymKind]): seq[PSym] =
result = searchInScopesFilterBy(c, ident, filter)
if skEnumField in filter and (result.len == 0 or includePureEnum):
if result.len == 0:
result.add allPureEnumFields(c, ident)
proc qualifiedLookUp*(c: PContext, n: PNode, flags: set[TLookupFlag]): PSym =
@@ -678,33 +665,24 @@ proc qualifiedLookUp*(c: PContext, n: PNode, flags: set[TLookupFlag]): PSym =
c.isAmbiguous = amb
of nkSym:
result = n.sym
of nkOpenSym:
result = qualifiedLookUp(c, n[0], flags)
of nkDotExpr:
result = nil
var m = qualifiedLookUp(c, n[0], (flags * {checkUndeclared}) + {checkModule})
if m != nil and m.kind == skModule:
var ident: PIdent = nil
if n[1].kind == nkAccQuoted:
if n[1].kind == nkIdent:
ident = n[1].ident
elif n[1].kind == nkAccQuoted:
ident = considerQuotedIdent(c, n[1])
else:
# this includes sym and symchoice nodes, but since we are looking in
# a module, it shouldn't matter what was captured
ident = n[1].getPIdent
if ident != nil:
if m == c.module:
var ti: TIdentIter = default(TIdentIter)
result = initIdentIter(ti, c.topLevelScope.symbols, ident)
if result != nil and nextIdentIter(ti, c.topLevelScope.symbols) != nil:
# another symbol exists with same name
c.isAmbiguous = true
result = strTableGet(c.topLevelScope.symbols, ident)
else:
var amb: bool = false
if c.importModuleLookup.getOrDefault(m.name.id).len > 1:
var amb: bool = false
result = errorUseQualifier(c, n.info, m, amb)
else:
result = someSymAmb(c.graph, m, ident, amb)
if amb: c.isAmbiguous = true
result = someSym(c.graph, m, ident)
if result == nil and checkUndeclared in flags:
result = errorUndeclaredIdentifierHint(c, ident, n[1].info)
elif n[1].kind == nkSym:
@@ -723,10 +701,6 @@ proc qualifiedLookUp*(c: PContext, n: PNode, flags: set[TLookupFlag]): PSym =
if result != nil and result.kind == skStub: loadStub(result)
proc initOverloadIter*(o: var TOverloadIter, c: PContext, n: PNode): PSym =
if n.kind == nkOpenSym:
# maybe the logic in semexprs should be mirrored here instead
# for now it only seems this is called for `pickSym` in `getTypeIdent`
return initOverloadIter(o, c, n[0])
o.importIdx = -1
o.marked = initIntSet()
case n.kind

View File

@@ -174,12 +174,12 @@ proc rawIndirectAccess*(a: PNode; field: PSym; info: TLineInfo): PNode =
# returns a[].field as a node
assert field.kind == skField
var deref = newNodeI(nkHiddenDeref, info)
deref.typ() = a.typ.skipTypes(abstractInst)[0]
deref.typ = a.typ.skipTypes(abstractInst)[0]
deref.add a
result = newNodeI(nkDotExpr, info)
result.add deref
result.add newSymNode(field)
result.typ() = field.typ
result.typ = field.typ
proc rawDirectAccess*(obj, field: PSym): PNode =
# returns a.field as a node
@@ -187,7 +187,7 @@ proc rawDirectAccess*(obj, field: PSym): PNode =
result = newNodeI(nkDotExpr, field.info)
result.add newSymNode(obj)
result.add newSymNode(field)
result.typ() = field.typ
result.typ = field.typ
proc lookupInRecord(n: PNode, id: ItemId): PSym =
result = nil
@@ -250,12 +250,12 @@ proc newDotExpr*(obj, b: PSym): PNode =
assert field != nil, b.name.s
result.add newSymNode(obj)
result.add newSymNode(field)
result.typ() = field.typ
result.typ = field.typ
proc indirectAccess*(a: PNode, b: ItemId, info: TLineInfo): PNode =
# returns a[].b as a node
var deref = newNodeI(nkHiddenDeref, info)
deref.typ() = a.typ.skipTypes(abstractInst).elementType
deref.typ = a.typ.skipTypes(abstractInst).elementType
var t = deref.typ.skipTypes(abstractInst)
var field: PSym
while true:
@@ -273,12 +273,12 @@ proc indirectAccess*(a: PNode, b: ItemId, info: TLineInfo): PNode =
result = newNodeI(nkDotExpr, info)
result.add deref
result.add newSymNode(field)
result.typ() = field.typ
result.typ = field.typ
proc indirectAccess*(a: PNode, b: string, info: TLineInfo; cache: IdentCache): PNode =
# returns a[].b as a node
var deref = newNodeI(nkHiddenDeref, info)
deref.typ() = a.typ.skipTypes(abstractInst).elementType
deref.typ = a.typ.skipTypes(abstractInst).elementType
var t = deref.typ.skipTypes(abstractInst)
var field: PSym
let bb = getIdent(cache, b)
@@ -297,7 +297,7 @@ proc indirectAccess*(a: PNode, b: string, info: TLineInfo; cache: IdentCache): P
result = newNodeI(nkDotExpr, info)
result.add deref
result.add newSymNode(field)
result.typ() = field.typ
result.typ = field.typ
proc getFieldFromObj*(t: PType; v: PSym): PSym =
assert v.kind != skField
@@ -320,7 +320,7 @@ proc indirectAccess*(a, b: PSym, info: TLineInfo): PNode =
proc genAddrOf*(n: PNode; idgen: IdGenerator; typeKind = tyPtr): PNode =
result = newNodeI(nkAddr, n.info, 1)
result[0] = n
result.typ() = newType(typeKind, idgen, n.typ.owner)
result.typ = newType(typeKind, idgen, n.typ.owner)
result.typ.rawAddSon(n.typ)
proc genDeref*(n: PNode; k = nkHiddenDeref): PNode =
@@ -344,18 +344,18 @@ proc callCodegenProc*(g: ModuleGraph; name: string;
if optionalArgs != nil:
for i in 1..<optionalArgs.len-2:
result.add optionalArgs[i]
result.typ() = sym.typ.returnType
result.typ = sym.typ.returnType
proc newIntLit*(g: ModuleGraph; info: TLineInfo; value: BiggestInt): PNode =
result = nkIntLit.newIntNode(value)
result.typ() = getSysType(g, info, tyInt)
result.typ = getSysType(g, info, tyInt)
proc genHigh*(g: ModuleGraph; n: PNode): PNode =
if skipTypes(n.typ, abstractVar).kind == tyArray:
result = newIntLit(g, n.info, toInt64(lastOrd(g.config, skipTypes(n.typ, abstractVar))))
else:
result = newNodeI(nkCall, n.info, 2)
result.typ() = getSysType(g, n.info, tyInt)
result.typ = getSysType(g, n.info, tyInt)
result[0] = newSymNode(getSysMagic(g, n.info, "high", mHigh))
result[1] = n
@@ -364,7 +364,7 @@ proc genLen*(g: ModuleGraph; n: PNode): PNode =
result = newIntLit(g, n.info, toInt64(lastOrd(g.config, skipTypes(n.typ, abstractVar)) + 1))
else:
result = newNodeI(nkCall, n.info, 2)
result.typ() = getSysType(g, n.info, tyInt)
result.typ = getSysType(g, n.info, tyInt)
result[0] = newSymNode(getSysMagic(g, n.info, "len", mLengthSeq))
result[1] = n

View File

@@ -166,4 +166,4 @@ proc makeAddr*(n: PNode; idgen: IdGenerator): PNode =
result = n
else:
result = newTree(nkHiddenAddr, n)
result.typ() = makePtrType(n.typ, idgen)
result.typ = makePtrType(n.typ, idgen)

View File

@@ -11,7 +11,7 @@
## represents a complete Nim project. Single modules can either be kept in RAM
## or stored in a rod-file.
import std/[intsets, tables, hashes, strtabs, algorithm, os, strutils, parseutils]
import std/[intsets, tables, hashes, strtabs, algorithm]
import ../dist/checksums/src/checksums/md5
import ast, astalgo, options, lineinfos,idents, btrees, ropes, msgs, pathutils, packages, suggestsymdb
import ic / [packed_ast, ic]
@@ -88,7 +88,6 @@ type
suggestMode*: bool # whether we are in nimsuggest mode or not.
invalidTransitiveClosure: bool
interactive*: bool
withinSystem*: bool # in system.nim or a module imported by system.nim
inclToMod*: Table[FileIndex, FileIndex] # mapping of include file to the
# first module that included it
importStack*: seq[FileIndex] # The current import stack. Used for detecting recursive
@@ -275,25 +274,6 @@ proc someSym*(g: ModuleGraph; m: PSym; name: PIdent): PSym =
else:
result = strTableGet(g.ifaces[m.position].interfSelect(importHidden), name)
proc someSymAmb*(g: ModuleGraph; m: PSym; name: PIdent; amb: var bool): PSym =
let importHidden = optImportHidden in m.options
if isCachedModule(g, m):
result = nil
for s in interfaceSymbols(g.config, g.cache, g.packed, FileIndex(m.position), name, importHidden):
if result == nil:
# set result to the first symbol
result = s
else:
# another symbol found
amb = true
break
else:
var ti: TIdentIter = default(TIdentIter)
result = initIdentIter(ti, g.ifaces[m.position].interfSelect(importHidden), name)
if result != nil and nextIdentIter(ti, g.ifaces[m.position].interfSelect(importHidden)) != nil:
# another symbol exists with same name
amb = true
proc systemModuleSym*(g: ModuleGraph; name: PIdent): PSym =
result = someSym(g, g.systemModule, name)
@@ -329,7 +309,7 @@ proc resolveInst(g: ModuleGraph; t: var LazyInstantiation): PInstantiation =
t.inst = result
assert result != nil
proc resolveAttachedOp*(g: ModuleGraph; t: var LazySym): PSym =
proc resolveAttachedOp(g: ModuleGraph; t: var LazySym): PSym =
result = t.sym
if result == nil:
result = loadSymFromId(g.config, g.cache, g.packed, t.id.module, t.id.packed)
@@ -472,49 +452,6 @@ proc createMagic*(g: ModuleGraph; idgen: IdGenerator; name: string, m: TMagic):
proc createMagic(g: ModuleGraph; name: string, m: TMagic): PSym =
result = createMagic(g, g.idgen, name, m)
proc uniqueModuleName*(conf: ConfigRef; m: PSym): string =
## The unique module name is guaranteed to only contain {'A'..'Z', 'a'..'z', '0'..'9', '_'}
## so that it is useful as a C identifier snippet.
let fid = FileIndex(m.position)
let path = AbsoluteFile toFullPath(conf, fid)
var isLib = false
var rel = ""
if path.string.startsWith(conf.libpath.string):
isLib = true
rel = relativeTo(path, conf.libpath).string
else:
rel = relativeTo(path, conf.projectPath).string
if not isLib and not belongsToProjectPackage(conf, m):
# special handlings for nimble packages
when DirSep == '\\':
let rel2 = replace(rel, '\\', '/')
else:
let rel2 = rel
const pkgs2 = "pkgs2/"
var start = rel2.find(pkgs2)
if start >= 0:
start += pkgs2.len
start += skipUntil(rel2, {'/'}, start)
if start+1 < rel2.len:
rel = "pkg/" & rel2[start+1..<rel.len] # strips paths
let trunc = if rel.endsWith(".nim"): rel.len - len(".nim") else: rel.len
result = newStringOfCap(trunc)
for i in 0..<trunc:
let c = rel[i]
case c
of 'a'..'z', '0'..'9':
result.add c
of {os.DirSep, os.AltSep}:
result.add 'Z' # because it looks a bit like '/'
of '.':
result.add 'O' # a circle
else:
# We mangle upper letters too so that there cannot
# be clashes with our special meanings of 'Z' and 'O'
result.addInt ord(c)
proc registerModule*(g: ModuleGraph; m: PSym) =
assert m != nil
assert m.kind == skModule
@@ -526,7 +463,7 @@ proc registerModule*(g: ModuleGraph; m: PSym) =
setLen(g.packed.pm, m.position + 1)
g.ifaces[m.position] = Iface(module: m, converters: @[], patterns: @[],
uniqueName: rope(uniqueModuleName(g.config, m)))
uniqueName: rope(uniqueModuleName(g.config, FileIndex(m.position))))
initStrTables(g, m)
proc registerModuleById*(g: ModuleGraph; m: FileIndex) =
@@ -678,6 +615,7 @@ proc markDirty*(g: ModuleGraph; fileIdx: FileIndex) =
if m != nil:
g.suggestSymbols.del(fileIdx)
g.suggestErrors.del(fileIdx)
g.resetForBackend
incl m.flags, sfDirty
proc unmarkAllDirty*(g: ModuleGraph) =
@@ -740,6 +678,8 @@ proc moduleFromRodFile*(g: ModuleGraph; fileIdx: FileIndex;
proc configComplete*(g: ModuleGraph) =
rememberStartupConfig(g.startupPackedConfig, g.config)
from std/strutils import repeat, `%`
proc onProcessing*(graph: ModuleGraph, fileIdx: FileIndex, moduleStatus: string, fromModule: PSym, ) =
let conf = graph.config
let isNimscript = conf.isDefined("nimscript")

View File

@@ -25,7 +25,7 @@ template getModuleIdent(graph: ModuleGraph, filename: AbsoluteFile): PIdent =
proc partialInitModule*(result: PSym; graph: ModuleGraph; fileIdx: FileIndex; filename: AbsoluteFile) =
let packSym = getPackage(graph, fileIdx)
setOwner(result, packSym)
result.owner = packSym
result.position = int fileIdx
proc newModule*(graph: ModuleGraph; fileIdx: FileIndex): PSym =

View File

@@ -629,7 +629,7 @@ proc warningDeprecated*(conf: ConfigRef, info: TLineInfo = gCmdLineInfo, msg = "
message(conf, info, warnDeprecated, msg)
proc internalErrorImpl(conf: ConfigRef; info: TLineInfo, errMsg: string, info2: InstantiationInfo) =
if conf.cmd in {cmdIdeTools, cmdCheck} and conf.structuredErrorHook.isNil: return
if conf.cmd == cmdIdeTools and conf.structuredErrorHook.isNil: return
writeContext(conf, info)
liMessage(conf, info, errInternal, errMsg, doAbort, info2)
@@ -669,6 +669,31 @@ template listMsg(title, r) =
proc listWarnings*(conf: ConfigRef) = listMsg("Warnings:", warnMin..warnMax)
proc listHints*(conf: ConfigRef) = listMsg("Hints:", hintMin..hintMax)
proc uniqueModuleName*(conf: ConfigRef; fid: FileIndex): string =
## The unique module name is guaranteed to only contain {'A'..'Z', 'a'..'z', '0'..'9', '_'}
## so that it is useful as a C identifier snippet.
let path = AbsoluteFile toFullPath(conf, fid)
let rel =
if path.string.startsWith(conf.libpath.string):
relativeTo(path, conf.libpath).string
else:
relativeTo(path, conf.projectPath).string
let trunc = if rel.endsWith(".nim"): rel.len - len(".nim") else: rel.len
result = newStringOfCap(trunc)
for i in 0..<trunc:
let c = rel[i]
case c
of 'a'..'z':
result.add c
of {os.DirSep, os.AltSep}:
result.add 'Z' # because it looks a bit like '/'
of '.':
result.add 'O' # a circle
else:
# We mangle upper letters and digits too so that there cannot
# be clashes with our special meanings of 'Z' and 'O'
result.addInt ord(c)
proc genSuccessX*(conf: ConfigRef) =
let mem =
when declared(system.getMaxMem): formatSize(getMaxMem()) & " peakmem"

52
compiler/ndi.nim Normal file
View File

@@ -0,0 +1,52 @@
#
#
# The Nim Compiler
# (c) Copyright 2017 Andreas Rumpf
#
# See the file "copying.txt", included in this
# distribution, for details about the copyright.
#
## This module implements the generation of ``.ndi`` files for better debugging
## support of Nim code. "ndi" stands for "Nim debug info".
import ast, msgs, ropes, options, pathutils
when defined(nimPreviewSlimSystem):
import std/[syncio, assertions]
type
NdiFile* = object
enabled: bool
f: File
buf: string
filename: AbsoluteFile
syms: seq[PSym]
proc doWrite(f: var NdiFile; s: PSym; conf: ConfigRef) =
f.buf.setLen 0
f.buf.addInt s.info.line.int
f.buf.add "\t"
f.buf.addInt s.info.col.int
f.f.write(s.name.s, "\t")
f.f.writeRope(s.loc.r)
f.f.writeLine("\t", toFullPath(conf, s.info), "\t", f.buf)
template writeMangledName*(f: NdiFile; s: PSym; conf: ConfigRef) =
if f.enabled: f.syms.add s
proc open*(f: var NdiFile; filename: AbsoluteFile; conf: ConfigRef) =
f.enabled = not filename.isEmpty
if f.enabled:
f.filename = filename
f.buf = newStringOfCap(20)
proc close*(f: var NdiFile, conf: ConfigRef) =
if f.enabled:
f.f = open(f.filename.string, fmWrite, 8000)
doAssert f.f != nil, f.filename.string
for s in f.syms:
doWrite(f, s, conf)
close(f.f)
f.syms.reset
f.filename.reset

View File

@@ -919,7 +919,7 @@ proc infix(ctx: NilCheckerContext, l: PNode, r: PNode, magic: TMagic): PNode =
newSymNode(op, r.info),
l,
r)
result.typ() = newType(tyBool, ctx.idgen, nil)
result.typ = newType(tyBool, ctx.idgen, nil)
proc prefixNot(ctx: NilCheckerContext, node: PNode): PNode =
var cache = newIdentCache()
@@ -929,7 +929,7 @@ proc prefixNot(ctx: NilCheckerContext, node: PNode): PNode =
result = nkPrefix.newTree(
newSymNode(op, node.info),
node)
result.typ() = newType(tyBool, ctx.idgen, nil)
result.typ = newType(tyBool, ctx.idgen, nil)
proc infixEq(ctx: NilCheckerContext, l: PNode, r: PNode): PNode =
infix(ctx, l, r, mEqRef)

View File

@@ -4,12 +4,12 @@ hint[XDeclaredButNotUsed]:off
define:booting
define:nimcore
define:nimPreviewFloatRoundtrip
define:nimPreviewSlimSystem
define:nimPreviewCstringConversion
define:nimPreviewProcConversion
define:nimPreviewRangeDefault
define:nimPreviewNonVarDestructor
define:nimPreviewCheckedClose
threads:off
#import:"$projectpath/testability"
@@ -48,7 +48,7 @@ define:useStdoutAsStdmsg
@if nimUseStrictDefs:
experimental:strictDefs # deadcode
experimental:strictDefs
warningAsError[Uninit]:on
warningAsError[ProveInit]:on
@end

View File

@@ -117,8 +117,7 @@ proc handleCmdLine(cache: IdentCache; conf: ConfigRef) =
if conf.selectedGC == gcUnselected:
if conf.backend in {backendC, backendCpp, backendObjc} or
(conf.cmd in cmdDocLike and conf.backend != backendJs) or
conf.cmd == cmdGendepend:
(conf.cmd in cmdDocLike and conf.backend != backendJs):
initOrcDefines(conf)
mainCommand(graph)

View File

@@ -84,7 +84,7 @@ proc toTreeSet*(conf: ConfigRef; s: TBitSet, settype: PType, info: TLineInfo): P
elemType = settype[0]
first = firstOrd(conf, elemType).toInt64
result = newNodeI(nkCurly, info)
result.typ() = settype
result.typ = settype
result.info = info
e = 0
while e < s.len * ElemSize:
@@ -101,7 +101,7 @@ proc toTreeSet*(conf: ConfigRef; s: TBitSet, settype: PType, info: TLineInfo): P
result.add aa
else:
n = newNodeI(nkRange, info)
n.typ() = elemType
n.typ = elemType
n.add aa
let bb = newIntTypeNode(b + first, elemType)
bb.info = info

View File

@@ -204,7 +204,6 @@ type
nkModuleRef # for .rod file support: A (moduleId, itemId) pair
nkReplayAction # for .rod file support: A replay action
nkNilRodNode # for .rod file support: a 'nil' PNode
nkOpenSym # container for captured sym that can be overriden by local symbols
const
nkCallKinds* = {nkCall, nkInfix, nkPrefix, nkPostfix,

View File

@@ -179,6 +179,7 @@ const
cmdCtags, cmdBuildindex}
type
NimVer* = tuple[major: int, minor: int, patch: int]
TStringSeq* = seq[string]
TGCMode* = enum # the selected GC
gcUnselected = "unselected"
@@ -222,14 +223,11 @@ type
strictEffects,
unicodeOperators, # deadcode
flexibleOptionalParams,
strictDefs, # deadcode
strictDefs,
strictCaseObjects,
inferGenericTypes,
openSym, # remove nfDisabledOpenSym when this is default
# alternative to above:
genericsOpenSym
genericsOpenSym,
vtables
typeBoundOps
LegacyFeature* = enum
allowSemcheckedAstModification,
@@ -248,8 +246,6 @@ type
## Useful for libraries that rely on local passC
jsNoLambdaLifting
## Old transformation for closures in JS backend
noStrictDefs
## disable "strictdefs"
SymbolFilesOption* = enum
disabledSf, writeOnlySf, readOnlySf, v2Sf, stressTest
@@ -372,6 +368,7 @@ type
arguments*: string ## the arguments to be passed to the program that
## should be run
ideCmd*: IdeCmd
oldNewlines*: bool
cCompiler*: TSystemCC # the used compiler
modifiedyNotes*: TNoteKinds # notes that have been set/unset from either cmdline/configs
cmdlineNotes*: TNoteKinds # notes that have been set/unset from cmdline
@@ -398,7 +395,8 @@ type
outDir*: AbsoluteDir
jsonBuildFile*: AbsoluteFile
prefixDir*, libpath*, nimcacheDir*: AbsoluteDir
dllOverrides*, moduleOverrides*, cfileSpecificOptions*: StringTableRef
nimStdlibVersion*: NimVer
dllOverrides, moduleOverrides*, cfileSpecificOptions*: StringTableRef
projectName*: string # holds a name like 'nim'
projectPath*: AbsoluteDir # holds a path like /home/alice/projects/nim/compiler/
projectFull*: AbsoluteFile # projectPath/projectName
@@ -410,6 +408,7 @@ type
commandArgs*: seq[string] # any arguments after the main command
commandLine*: string
extraCmds*: seq[string] # for writeJsonBuildInstructions
keepComments*: bool # whether the parser needs to keep comments
implicitImports*: seq[string] # modules that are to be implicitly imported
implicitIncludes*: seq[string] # modules that are to be implicitly included
docSeeSrcUrl*: string # if empty, no seeSrc will be generated. \
@@ -450,6 +449,16 @@ type
clientProcessId*: int
proc parseNimVersion*(a: string): NimVer =
# could be moved somewhere reusable
result = default(NimVer)
if a.len > 0:
let b = a.split(".")
assert b.len == 3, a
template fn(i) = result[i] = b[i].parseInt # could be optimized if needed
fn(0)
fn(1)
fn(2)
proc assignIfDefault*[T](result: var T, val: T, def = default(T)) =
## if `result` was already assigned to a value (that wasn't `def`), this is a noop.
@@ -583,6 +592,7 @@ proc newConfigRef*(): ConfigRef =
command: "", # the main command (e.g. cc, check, scan, etc)
commandArgs: @[], # any arguments after the main command
commandLine: "",
keepComments: true, # whether the parser needs to keep comments
implicitImports: @[], # modules that are to be implicitly imported
implicitIncludes: @[], # modules that are to be implicitly included
docSeeSrcUrl: "",
@@ -623,6 +633,12 @@ proc newPartialConfigRef*(): ConfigRef =
proc cppDefine*(c: ConfigRef; define: string) =
c.cppDefines.incl define
proc getStdlibVersion*(conf: ConfigRef): NimVer =
if conf.nimStdlibVersion == (0,0,0):
let s = conf.symbols.getOrDefault("nimVersion", "")
conf.nimStdlibVersion = s.parseNimVersion
result = conf.nimStdlibVersion
proc isDefined*(conf: ConfigRef; symbol: string): bool =
if conf.symbols.hasKey(symbol):
result = true

View File

@@ -51,11 +51,3 @@ func belongsToProjectPackage*(conf: ConfigRef, sym: PSym): bool =
## See Also:
## * `modulegraphs.belongsToStdlib`
conf.mainPackageId == sym.getPackageId
func belongsToProjectPackageMaybeNil*(conf: ConfigRef, sym: PSym): bool =
## Return whether the symbol belongs to the project's package.
## Returns `false` if `sym` is nil.
##
## See Also:
## * `modulegraphs.belongsToStdlib`
sym != nil and conf.mainPackageId == sym.getPackageId

View File

@@ -266,7 +266,7 @@ proc isAssignable*(owner: PSym, n: PNode): TAssignableResult =
if skipTypes(n.typ, abstractPtrs-{tyTypeDesc}).kind in
{tyOpenArray, tyTuple, tyObject}:
result = isAssignable(owner, n[1])
elif compareTypes(n.typ, n[1].typ, dcEqIgnoreDistinct, {IgnoreRangeShallow}):
elif compareTypes(n.typ, n[1].typ, dcEqIgnoreDistinct):
# types that are equal modulo distinction preserve l-value:
result = isAssignable(owner, n[1])
of nkHiddenDeref:
@@ -283,15 +283,8 @@ proc isAssignable*(owner: PSym, n: PNode): TAssignableResult =
of nkObjUpConv, nkObjDownConv, nkCheckedFieldExpr:
result = isAssignable(owner, n[0])
of nkCallKinds:
let m = getMagic(n)
if m == mSlice:
# builtin slice keeps l-value-ness
# except for pointers because slice dereferences
if n[1].typ.kind == tyPtr:
result = arLValue
else:
result = isAssignable(owner, n[1])
elif m == mArrGet:
# builtin slice keeps lvalue-ness:
if getMagic(n) in {mArrGet, mSlice}:
result = isAssignable(owner, n[1])
elif n.typ != nil:
case n.typ.kind

View File

@@ -1401,7 +1401,7 @@ proc primary(p: var Parser, mode: PrimaryMode): PNode =
result = primarySuffix(p, result, baseInd, mode)
proc binaryNot(p: var Parser; a: PNode): PNode =
if p.tok.tokType == tkNot and p.tok.indent < 0:
if p.tok.tokType == tkNot:
let notOpr = newIdentNodeP(p.tok.ident, p)
getTok(p)
optInd(p, notOpr)

View File

@@ -42,7 +42,10 @@ proc makePass*(open: TPassOpen = nil,
process: TPassProcess = nil,
close: TPassClose = nil,
isFrontend = false): TPass =
result = (open, process, close, isFrontend)
result.open = open
result.close = close
result.process = process
result.isFrontend = isFrontend
const
maxPasses = 10
@@ -97,8 +100,8 @@ proc processModule*(graph: ModuleGraph; module: PSym; idgen: IdGenerator;
stream: PLLStream): bool {.discardable.} =
if graph.stopCompile(): return true
var
p: Parser = default(Parser)
a: TPassContextArray = default(TPassContextArray)
p: Parser
a: TPassContextArray
s: PLLStream
fileIdx = module.fileIdx
prepareConfigNotes(graph, module)

View File

@@ -47,8 +47,9 @@ proc processPipeline(graph: ModuleGraph; semNode: PNode; bModule: PPassContext):
of NonePass:
raiseAssert "use setPipeLinePass to set a proper PipelinePass"
proc processImplicitImports*(graph: ModuleGraph; implicits: seq[string], nodeKind: TNodeKind,
m: PSym, ctx: PContext, bModule: PPassContext, idgen: IdGenerator) =
proc processImplicitImports(graph: ModuleGraph; implicits: seq[string], nodeKind: TNodeKind,
m: PSym, ctx: PContext, bModule: PPassContext, idgen: IdGenerator,
) =
# XXX fixme this should actually be relative to the config file!
let relativeTo = toFullPath(graph.config, m.info)
for module in items(implicits):
@@ -63,7 +64,7 @@ proc processImplicitImports*(graph: ModuleGraph; implicits: seq[string], nodeKin
if semNode == nil or processPipeline(graph, semNode, bModule) == nil:
break
proc prePass*(c: PContext; n: PNode) =
proc prePass(c: PContext; n: PNode) =
for son in n:
if son.kind == nkPragma:
for s in son:

View File

@@ -156,16 +156,16 @@ proc pragmaEnsures(c: PContext, n: PNode) =
proc setExternName(c: PContext; s: PSym, extname: string, info: TLineInfo) =
# special cases to improve performance:
if extname == "$1":
s.loc.snippet = rope(s.name.s)
s.loc.r = rope(s.name.s)
elif '$' notin extname:
s.loc.snippet = rope(extname)
s.loc.r = rope(extname)
else:
try:
s.loc.snippet = rope(extname % s.name.s)
s.loc.r = rope(extname % s.name.s)
except ValueError:
localError(c.config, info, "invalid extern name: '" & extname & "'. (Forgot to escape '$'?)")
when hasFFI:
s.cname = $s.loc.snippet
s.cname = $s.loc.r
proc makeExternImport(c: PContext; s: PSym, extname: string, info: TLineInfo) =
@@ -370,7 +370,7 @@ proc processDynLib(c: PContext, n: PNode, sym: PSym) =
proc processNote(c: PContext, n: PNode) =
template handleNote(enumVals, notes) =
let x = findStr(enumVals.a, enumVals.b, n[0][1].ident.s, errUnknown)
if x != errUnknown:
if x != errUnknown:
nk = TNoteKind(x)
let x = c.semConstBoolExpr(c, n[1])
n[1] = x
@@ -722,12 +722,12 @@ proc processPragma(c: PContext, n: PNode, i: int) =
proc pragmaRaisesOrTags(c: PContext, n: PNode) =
proc processExc(c: PContext, x: PNode) =
if c.hasUnresolvedArgs(c, x):
x.typ() = makeTypeFromExpr(c, x)
x.typ = makeTypeFromExpr(c, x)
else:
var t = skipTypes(c.semTypeNode(c, x, nil), skipPtrs)
if t.kind notin {tyObject, tyOr}:
localError(c.config, x.info, errGenerated, "invalid type for raises/tags list")
x.typ() = t
x.typ = t
if n.kind in nkPragmaCallKinds and n.len == 2:
let it = n[1]
@@ -800,14 +800,13 @@ proc pragmaGuard(c: PContext; it: PNode; kind: TSymKind): PSym =
proc semCustomPragma(c: PContext, n: PNode, sym: PSym): PNode =
var callNode: PNode
case n.kind
of nkIdentKinds:
if n.kind in {nkIdent, nkSym}:
# pragma -> pragma()
callNode = newTree(nkCall, n)
of nkExprColonExpr:
elif n.kind == nkExprColonExpr:
# pragma: arg -> pragma(arg)
callNode = newTree(nkCall, n[0], n[1])
of nkPragmaCallKinds - {nkExprColonExpr}:
elif n.kind in nkPragmaCallKinds:
callNode = n
else:
invalidPragma(c, n)
@@ -1015,7 +1014,7 @@ proc singlePragma(c: PContext, sym: PSym, n: PNode, i: var int,
incl(sym.loc.flags, lfHeader)
incl(sym.loc.flags, lfNoDecl)
# implies nodecl, because otherwise header would not make sense
if sym.loc.snippet == "": sym.loc.snippet = rope(sym.name.s)
if sym.loc.r == "": sym.loc.r = rope(sym.name.s)
of wNoSideEffect:
noVal(c, it)
if sym != nil:
@@ -1037,7 +1036,7 @@ proc singlePragma(c: PContext, sym: PSym, n: PNode, i: var int,
incl(sym.flags, sfGeneratedOp)
of wNosinks:
noVal(c, it)
incl(sym.flags, sfWasForwarded)
incl(sym.flags, sfNosinks)
of wDynlib:
processDynLib(c, it, sym)
of wCompilerProc, wCore:
@@ -1344,16 +1343,6 @@ proc mergePragmas(n, pragmas: PNode) =
else:
for p in pragmas: n[pragmasPos].add p
proc mergeValidPragmas(n, pragmas: PNode, validPragmas: TSpecialWords) =
if n[pragmasPos].kind == nkEmpty:
n[pragmasPos] = newNodeI(nkPragma, n.info)
for p in pragmas:
let prag = whichPragma(p)
if prag in validPragmas:
let copy = copyTree(p)
overwriteLineInfo copy, n.info
n[pragmasPos].add copy
proc implicitPragmas*(c: PContext, sym: PSym, info: TLineInfo,
validPragmas: TSpecialWords) =
if sym != nil and sym.kind != skModule:
@@ -1367,8 +1356,7 @@ proc implicitPragmas*(c: PContext, sym: PSym, info: TLineInfo,
internalError(c.config, info, "implicitPragmas")
inc i
popInfoContext(c.config)
if sym.kind in routineKinds and sym.ast != nil:
mergeValidPragmas(sym.ast, o, validPragmas)
if sym.kind in routineKinds and sym.ast != nil: mergePragmas(sym.ast, o)
if lfExportLib in sym.loc.flags and sfExportc notin sym.flags:
localError(c.config, info, ".dynlib requires .exportc")
@@ -1377,7 +1365,7 @@ proc implicitPragmas*(c: PContext, sym: PSym, info: TLineInfo,
sfImportc in sym.flags and lib != nil:
incl(sym.loc.flags, lfDynamicLib)
addToLib(lib, sym)
if sym.loc.snippet == "": sym.loc.snippet = rope(sym.name.s)
if sym.loc.r == "": sym.loc.r = rope(sym.name.s)
proc hasPragma*(n: PNode, pragma: TSpecialWord): bool =
if n == nil: return false

View File

@@ -1,54 +0,0 @@
import pragmas, options, ast, trees, lineinfos, idents, wordrecg
import std/assertions
import renderer
proc processNote(config: ConfigRef, n: PNode) =
template handleNote(enumVals, notes) =
let x = findStr(enumVals.a, enumVals.b, n[0][1].ident.s, errUnknown)
assert x != errUnknown
assert n[1].kind == nkIntLit
nk = TNoteKind(x)
if n[1].intVal != 0: incl(notes, nk)
else: excl(notes, nk)
var nk: TNoteKind
case whichKeyword(n[0][0].ident)
of wHint: handleNote(hintMin .. hintMax, config.notes)
of wWarning: handleNote(warnMin .. warnMax, config.notes)
of wWarningAsError: handleNote(warnMin .. warnMax, config.warningAsErrors)
of wHintAsError: handleNote(hintMin .. hintMax, config.warningAsErrors)
else: discard
proc pushBackendOption(optionsStack: var seq[(TOptions, TNoteKinds)], options: TOptions, notes: TNoteKinds) =
optionsStack.add (options, notes)
proc popBackendOption(config: ConfigRef, optionsStack: var seq[(TOptions, TNoteKinds)], options: var TOptions) =
let entry = optionsStack[^1]
options = entry[0]
config.notes = entry[1]
optionsStack.setLen(optionsStack.len-1)
proc processPushBackendOption*(config: ConfigRef, optionsStack: var seq[(TOptions, TNoteKinds)], options: var TOptions,
n: PNode, start: int) =
pushBackendOption(optionsStack, options, config.notes)
for i in start..<n.len:
let it = n[i]
if it.kind in nkPragmaCallKinds and it.len == 2:
if it[0].kind == nkBracketExpr and
it[0].len == 2 and
it[0][1].kind == nkIdent and it[0][0].kind == nkIdent:
processNote(config, it)
elif it[1].kind == nkIntLit:
let sw = whichPragma(it[0])
let opts = pragmaToOptions(sw)
if opts != {}:
if it[1].intVal != 0:
options.incl opts
else:
options.excl opts
template processPopBackendOption*(config: ConfigRef, optionsStack: var seq[(TOptions, TNoteKinds)], options: var TOptions) =
popBackendOption(config, optionsStack, options)

View File

@@ -442,11 +442,6 @@ proc atom(g: TSrcGen; n: PNode): string =
result = $n.floatVal & "\'f64"
else:
result = litAux(g, n, (cast[ptr int64](addr(n.floatVal)))[], 8) & "\'f64"
of nkFloat128Lit:
if n.flags * {nfBase2, nfBase8, nfBase16} == {}:
result = $n.floatVal & "\'f128"
else:
result = litAux(g, n, (cast[ptr int64](addr(n.floatVal)))[], 8) & "\'f128"
of nkNilLit: result = "nil"
of nkType:
if (n.typ != nil) and (n.typ.sym != nil): result = n.typ.sym.name.s
@@ -519,7 +514,6 @@ proc lsub(g: TSrcGen; n: PNode): int =
result = if n.len > 0: lcomma(g, n) + 2 else: len("{:}")
of nkClosedSymChoice, nkOpenSymChoice:
if n.len > 0: result += lsub(g, n[0])
of nkOpenSym: result = lsub(g, n[0])
of nkTupleTy: result = lcomma(g, n) + len("tuple[]")
of nkTupleClassTy: result = len("tuple")
of nkDotExpr: result = lsons(g, n) + 1
@@ -1019,7 +1013,7 @@ proc bracketKind*(g: TSrcGen, n: PNode): BracketKind =
proc skipHiddenNodes(n: PNode): PNode =
result = n
while result != nil:
if result.kind in {nkHiddenStdConv, nkHiddenSubConv, nkHiddenCallConv, nkOpenSym} and result.len > 1:
if result.kind in {nkHiddenStdConv, nkHiddenSubConv, nkHiddenCallConv} and result.len > 1:
result = result[1]
elif result.kind in {nkCheckedFieldExpr, nkHiddenAddr, nkHiddenDeref, nkStringToCString, nkCStringToString} and
result.len > 0:
@@ -1281,7 +1275,6 @@ proc gsub(g: var TSrcGen, n: PNode, c: TContext, fromStmtList = false) =
put(g, tkParRi, if n.kind == nkOpenSymChoice: "|...)" else: ")")
else:
gsub(g, n, 0)
of nkOpenSym: gsub(g, n, 0)
of nkPar, nkClosure:
put(g, tkParLe, "(")
gcomma(g, n, c)
@@ -1311,11 +1304,10 @@ proc gsub(g: var TSrcGen, n: PNode, c: TContext, fromStmtList = false) =
put(g, tkCustomLit, n[0].strVal)
gsub(g, n, 1)
else:
for i in 0..<n.len-1:
gsub(g, n, i)
gsub(g, n, 0)
put(g, tkDot, ".")
if n.len > 1:
accentedName(g, n[^1])
assert n.len == 2, $n.len
accentedName(g, n[1])
of nkBind:
putWithSpace(g, tkBind, "bind")
gsub(g, n, 0)

View File

@@ -322,14 +322,6 @@ proc intersects(s1, s2: IntSet): bool =
if s2.contains(a):
return true
proc hasPushOrPopPragma(n: DepN): bool =
# Checks if the tree node has some pragmas that do not
# play well with reordering, like the push/pop pragma
# no crossing for push/pop barrier
let a = n.pnode
result = a.kind == nkPragma and a[0].kind == nkIdent and
(a[0].ident.s == "push" or a[0].ident.s == "pop")
proc buildGraph(n: PNode, deps: seq[(IntSet, IntSet)]): DepG =
# Build a dependency graph
result = newSeqOfCap[DepN](deps.len)
@@ -371,13 +363,6 @@ proc buildGraph(n: PNode, deps: seq[(IntSet, IntSet)]): DepG =
for dep in deps[i][0]:
if dep in declares:
ni.expls.add "one declares \"" & idNames[dep] & "\" and the other defines it"
elif hasPushOrPopPragma(nj):
# Every node that comes after a push/pop pragma must
# depend on it; vice versa
if j < i:
ni.kids.add nj
else:
nj.kids.add ni
else:
for d in declares:
if uses.contains(d):
@@ -418,7 +403,18 @@ proc getStrongComponents(g: var DepG): seq[seq[DepN]] =
if v.idx < 0:
strongConnect(v, idx, s, result)
proc hasForbiddenPragma(n: PNode): bool =
# Checks if the tree node has some pragmas that do not
# play well with reordering, like the push/pop pragma
result = false
for a in n:
if a.kind == nkPragma and a[0].kind == nkIdent and
a[0].ident.s == "push":
return true
proc reorder*(graph: ModuleGraph, n: PNode, module: PSym): PNode =
if n.hasForbiddenPragma:
return n
var includedFiles = initIntSet()
let mpath = toFullPath(graph.config, module.fileIdx)
let n = expandIncludes(graph, module, n, mpath,

View File

@@ -18,7 +18,7 @@ import
evaltempl, patterns, parampatterns, sempass2, linter, semmacrosanity,
lowerings, plugins/active, lineinfos, int128,
isolation_check, typeallowed, modulegraphs, enumtostr, concepts, astmsgs,
extccomp, layeredtable
extccomp
import vtables
import std/[strtabs, math, tables, intsets, strutils, packedsets]
@@ -89,11 +89,6 @@ proc fitNodePostMatch(c: PContext, formal: PType, arg: PNode): PNode =
changeType(c, x, formal, check=true)
result = arg
result = skipHiddenSubConv(result, c.graph, c.idgen)
# mark inserted converter as used:
var a = result
if a.kind == nkHiddenDeref: a = a[0]
if a.kind == nkHiddenCallConv and a[0].kind == nkSym:
markUsed(c, a.info, a[0].sym)
proc fitNode(c: PContext, formal: PType, arg: PNode; info: TLineInfo): PNode =
@@ -102,13 +97,13 @@ proc fitNode(c: PContext, formal: PType, arg: PNode; info: TLineInfo): PNode =
renderTree(arg, {renderNoComments}))
# error correction:
result = copyTree(arg)
result.typ() = formal
result.typ = formal
elif arg.kind in nkSymChoices and formal.skipTypes(abstractInst).kind == tyEnum:
# Pick the right 'sym' from the sym choice by looking at 'formal' type:
result = nil
for ch in arg:
if sameType(ch.typ, formal):
return ch
return getConstExpr(c.module, ch, c.idgen, c.graph)
typeMismatch(c.config, info, formal, arg.typ, arg)
else:
result = indexTypesMatch(c, formal, arg.typ, arg)
@@ -116,7 +111,7 @@ proc fitNode(c: PContext, formal: PType, arg: PNode; info: TLineInfo): PNode =
typeMismatch(c.config, info, formal, arg.typ, arg)
# error correction:
result = copyTree(arg)
result.typ() = formal
result.typ = formal
else:
result = fitNodePostMatch(c, formal, result)
@@ -256,7 +251,7 @@ proc newSymG*(kind: TSymKind, n: PNode, c: PContext): PSym =
# when there is a nested proc inside a template, semtmpl
# will assign a wrong owner during the first pass over the
# template; we must fix it here: see #909
setOwner(result, getCurrOwner(c))
result.owner = getCurrOwner(c)
else:
result = newSym(kind, considerQuotedIdent(c, n), c.idgen, getCurrOwner(c), n.info)
if find(result.name.s, '`') >= 0:
@@ -470,7 +465,7 @@ proc semAfterMacroCall(c: PContext, call, macroResult: PNode,
renderTree(result, {renderNoComments}))
result = newSymNode(errorSym(c, result))
else:
result.typ() = makeTypeDesc(c, typ)
result.typ = makeTypeDesc(c, typ)
#result = symNodeFromType(c, typ, n.info)
else:
if s.ast[genericParamsPos] != nil and retType.isMetaType:
@@ -478,7 +473,7 @@ proc semAfterMacroCall(c: PContext, call, macroResult: PNode,
# e.g. template foo(T: typedesc): seq[T]
# We will instantiate the return type here, because
# we now know the supplied arguments
var paramTypes = initLayeredTypeMap()
var paramTypes = initTypeMapping()
for param, value in genericParamsInMacroCall(s, call):
var givenType = value.typ
# the sym nodes used for the supplied generic arguments for
@@ -486,7 +481,7 @@ proc semAfterMacroCall(c: PContext, call, macroResult: PNode,
# in this case, get the type directly from the sym
if givenType == nil and value.kind == nkSym and value.sym.typ != nil:
givenType = value.sym.typ
put(paramTypes, param.typ, givenType)
idTablePut(paramTypes, param.typ, givenType)
retType = generateTypeInstance(c, paramTypes,
macroResult.info, retType)
@@ -494,7 +489,7 @@ proc semAfterMacroCall(c: PContext, call, macroResult: PNode,
if retType.kind == tyVoid:
result = semStmt(c, result, flags)
else:
result = semExpr(c, result, flags)
result = semExpr(c, result, flags, expectedType)
result = fitNode(c, retType, result, result.info)
#globalError(s.info, errInvalidParamKindX, typeToString(s.typ.returnType))
dec(c.config.evalTemplateCounter)
@@ -502,6 +497,7 @@ proc semAfterMacroCall(c: PContext, call, macroResult: PNode,
const
errMissingGenericParamsForTemplate = "'$1' has unspecified generic parameters"
errFloatToString = "cannot convert '$1' to '$2'"
proc semMacroExpr(c: PContext, n, nOrig: PNode, sym: PSym,
flags: TExprFlags = {}; expectedType: PType = nil): PNode =
@@ -612,7 +608,7 @@ proc defaultFieldsForTuple(c: PContext, recNode: PNode, hasDefault: var bool, ch
newNodeIT(nkType, recNode.info, asgnType)
)
asgnExpr.flags.incl nfSkipFieldChecking
asgnExpr.typ() = recNode.typ
asgnExpr.typ = recNode.typ
result.add newTree(nkExprColonExpr, recNode, asgnExpr)
else:
raiseAssert "unreachable"
@@ -634,7 +630,7 @@ proc defaultFieldsForTheUninitialized(c: PContext, recNode: PNode, checkDefault:
if checkDefault: # don't add defaults when checking whether a case branch has default fields
return
defaultValue = newIntNode(nkIntLit#[c.graph]#, 0)
defaultValue.typ() = discriminator.typ
defaultValue.typ = discriminator.typ
selectedBranch = recNode.pickCaseBranchIndex defaultValue
defaultValue.flags.incl nfSkipFieldChecking
result.add newTree(nkExprColonExpr, discriminator, defaultValue)
@@ -647,7 +643,7 @@ proc defaultFieldsForTheUninitialized(c: PContext, recNode: PNode, checkDefault:
elif recType.kind in {tyObject, tyArray, tyTuple}:
let asgnExpr = defaultNodeField(c, recNode, recNode.typ, checkDefault)
if asgnExpr != nil:
asgnExpr.typ() = recNode.typ
asgnExpr.typ = recNode.typ
asgnExpr.flags.incl nfSkipFieldChecking
result.add newTree(nkExprColonExpr, recNode, asgnExpr)
else:
@@ -655,48 +651,41 @@ proc defaultFieldsForTheUninitialized(c: PContext, recNode: PNode, checkDefault:
proc defaultNodeField(c: PContext, a: PNode, aTyp: PType, checkDefault: bool): PNode =
let aTypSkip = aTyp.skipTypes(defaultFieldsSkipTypes)
case aTypSkip.kind
of tyObject:
if aTypSkip.kind == tyObject:
let child = defaultFieldsForTheUninitialized(c, aTypSkip.n, checkDefault)
if child.len > 0:
var asgnExpr = newTree(nkObjConstr, newNodeIT(nkType, a.info, aTyp))
asgnExpr.typ() = aTyp
asgnExpr.typ = aTyp
asgnExpr.sons.add child
result = semExpr(c, asgnExpr)
else:
result = nil
of tyArray:
elif aTypSkip.kind == tyArray:
let child = defaultNodeField(c, a, aTypSkip[1], checkDefault)
if child != nil:
let node = newNode(nkIntLit)
node.intVal = toInt64(lengthOrd(c.graph.config, aTypSkip))
let typeNode = newNode(nkType)
typeNode.typ() = makeTypeDesc(c, aTypSkip[1])
result = semExpr(c, newTree(nkCall, newTree(nkBracketExpr, newSymNode(getSysSym(c.graph, a.info, "arrayWithDefault"), a.info), typeNode),
result = semExpr(c, newTree(nkCall, newSymNode(getSysSym(c.graph, a.info, "arrayWith"), a.info),
semExprWithType(c, child),
node
))
result.typ() = aTyp
result.typ = aTyp
else:
result = nil
of tyTuple:
elif aTypSkip.kind == tyTuple:
var hasDefault = false
if aTypSkip.n != nil:
let children = defaultFieldsForTuple(c, aTypSkip.n, hasDefault, checkDefault)
if hasDefault and children.len > 0:
result = newNodeI(nkTupleConstr, a.info)
result.typ() = aTyp
result.typ = aTyp
result.sons.add children
result = semExpr(c, result)
else:
result = nil
else:
result = nil
of tyRange:
if c.graph.config.isDefined("nimPreviewRangeDefault"):
result = firstRange(c.config, aTypSkip)
else:
result = nil
else:
result = nil
@@ -733,8 +722,6 @@ proc preparePContext*(graph: ModuleGraph; module: PSym; idgen: IdGenerator): PCo
result.semOverloadedCall = semOverloadedCall
result.semInferredLambda = semInferredLambda
result.semGenerateInstance = generateInstance
result.instantiateOnlyProcType = instantiateOnlyProcType
result.fitDefaultNode = fitDefaultNode
result.semTypeNode = semTypeNode
result.instTypeBoundOp = sigmatch.instTypeBoundOp
result.hasUnresolvedArgs = hasUnresolvedArgs

View File

@@ -69,39 +69,6 @@ proc initCandidateSymbols(c: PContext, headSymbol: PNode,
result[0].scope, diagnostics)
best.state = csNoMatch
proc isAttachableRoutineTo(prc: PSym, arg: PType): bool =
result = false
if arg.owner != prc.owner: return false
for i in 1 ..< prc.typ.len:
if prc.typ.n[i].kind == nkSym and prc.typ.n[i].sym.ast != nil:
# has default value, parameter is not considered in type attachment
continue
let t = nominalRoot(prc.typ[i])
if t != nil and t.itemId == arg.itemId:
# parameter `i` is a nominal type in this module
# attachable if the nominal root `t` has the same id as `arg`
return true
proc addTypeBoundSymbols(graph: ModuleGraph, arg: PType, name: PIdent,
filter: TSymKinds, marker: var IntSet,
syms: var seq[tuple[s: PSym, scope: int]]) =
# add type bound ops for `name` based on the argument type `arg`
if arg != nil:
# argument must be typed first, meaning arguments always
# matching `untyped` are ignored
let t = nominalRoot(arg)
if t != nil and t.owner.kind == skModule:
# search module for routines attachable to `t`
let module = t.owner
var iter = default(ModuleIter)
var s = initModuleIter(iter, graph, module, name)
while s != nil:
if s.kind in filter and s.isAttachableRoutineTo(t) and
not containsOrIncl(marker, s.id):
# least priority scope, less than explicit imports:
syms.add((s, -2))
s = nextModuleIter(iter, graph)
proc pickBestCandidate(c: PContext, headSymbol: PNode,
n, orig: PNode,
initialBinding: PNode,
@@ -121,23 +88,10 @@ proc pickBestCandidate(c: PContext, headSymbol: PNode,
best, alt, o, diagnosticsFlag)
if len(syms) == 0:
return
let allowTypeBoundOps = typeBoundOps in c.features and
# qualified or bound symbols cannot refer to type bound ops
headSymbol.kind in {nkIdent, nkAccQuoted, nkOpenSymChoice, nkOpenSym}
var symMarker = initIntSet()
for s in syms:
symMarker.incl(s.s.id)
# current overload being considered
var sym = syms[0].s
let name = sym.name
var scope = syms[0].scope
if allowTypeBoundOps:
for a in 1 ..< n.len:
# for every already typed argument, add type bound ops
let arg = n[a]
addTypeBoundSymbols(c.graph, arg.typ, name, filter, symMarker, syms)
# starts at 1 because 0 is already done with setup, only needs checking
var nextSymIndex = 1
var z: TCandidate # current candidate
@@ -152,14 +106,6 @@ proc pickBestCandidate(c: PContext, headSymbol: PNode,
# may introduce new symbols with caveats described in recalc branch
matches(c, n, orig, z)
if allowTypeBoundOps:
# this match may have given some arguments new types,
# in which case add their type bound ops as well
# type bound ops of arguments always matching `untyped` are not considered
for x in z.newlyTypedOperands:
let arg = n[x]
addTypeBoundSymbols(c.graph, arg.typ, name, filter, symMarker, syms)
if z.state == csMatch:
# little hack so that iterators are preferred over everything else:
if sym.kind == skIterator:
@@ -190,14 +136,7 @@ proc pickBestCandidate(c: PContext, headSymbol: PNode,
# before any further candidate init and compare. SLOW, but rare case.
syms = initCandidateSymbols(c, headSymbol, initialBinding, filter,
best, alt, o, diagnosticsFlag)
symMarker = initIntSet()
for s in syms:
symMarker.incl(s.s.id)
if allowTypeBoundOps:
for a in 1 ..< n.len:
# for every already typed argument, add type bound ops
let arg = n[a]
addTypeBoundSymbols(c.graph, arg.typ, name, filter, symMarker, syms)
# reset counter because syms may be in a new order
symCount = c.currentScope.symbols.counter
nextSymIndex = 0
@@ -307,16 +246,7 @@ proc presentFailedCandidates(c: PContext, n: PNode, errors: CandidateErrors):
candidates.add(getProcHeader(c.config, err.sym, prefer))
candidates.addDeclaredLocMaybe(c.config, err.sym)
candidates.add("\n")
const genericParamMismatches = {kGenericParamTypeMismatch, kExtraGenericParam, kMissingGenericParam}
let isGenericMismatch = err.firstMismatch.kind in genericParamMismatches
var argList = n
if isGenericMismatch and n[0].kind == nkBracketExpr:
argList = n[0]
let nArg =
if err.firstMismatch.arg < argList.len:
argList[err.firstMismatch.arg]
else:
nil
let nArg = if err.firstMismatch.arg < n.len: n[err.firstMismatch.arg] else: nil
let nameParam = if err.firstMismatch.formal != nil: err.firstMismatch.formal.name.s else: ""
if n.len > 1:
if verboseTypeMismatch notin c.config.legacyFeatures:
@@ -339,12 +269,6 @@ proc presentFailedCandidates(c: PContext, n: PNode, errors: CandidateErrors):
of kMissingParam:
candidates.add(" missing parameter: " & nameParam)
candidates.add "\n"
of kExtraGenericParam:
candidates.add(" extra generic param given")
candidates.add "\n"
of kMissingGenericParam:
candidates.add(" missing generic parameter: " & nameParam)
candidates.add "\n"
of kVarNeeded:
doAssert nArg != nil
doAssert err.firstMismatch.formal != nil
@@ -354,8 +278,6 @@ proc presentFailedCandidates(c: PContext, n: PNode, errors: CandidateErrors):
candidates.add "\n"
of kTypeMismatch:
doAssert nArg != nil
if nArg.kind in nkSymChoices:
candidates.add ambiguousIdentifierMsg(nArg, indent = 2)
let wanted = err.firstMismatch.formal.typ
doAssert err.firstMismatch.formal != nil
doAssert wanted != nil
@@ -370,39 +292,9 @@ proc presentFailedCandidates(c: PContext, n: PNode, errors: CandidateErrors):
candidates.addPragmaAndCallConvMismatch(wanted, got, c.config)
effectProblem(wanted, got, candidates, c)
candidates.add "\n"
of kGenericParamTypeMismatch:
let pos = err.firstMismatch.arg
doAssert n[0].kind == nkBracketExpr and pos < n[0].len
let arg = n[0][pos]
doAssert arg != nil
var wanted = err.firstMismatch.formal.typ
if wanted.kind == tyGenericParam and wanted.genericParamHasConstraints:
wanted = wanted.genericConstraint
let got = arg.typ.skipTypes({tyTypeDesc})
doAssert err.firstMismatch.formal != nil
doAssert wanted != nil
doAssert got != nil
candidates.add " generic parameter mismatch, expected "
candidates.addTypeDeclVerboseMaybe(c.config, wanted)
candidates.add " but got '"
candidates.add renderTree(arg)
candidates.add "' of type: "
candidates.addTypeDeclVerboseMaybe(c.config, got)
if nArg.kind in nkSymChoices:
candidates.add "\n"
candidates.add ambiguousIdentifierMsg(nArg, indent = 2)
if got != nil and got.kind == tyProc and wanted.kind == tyProc:
# These are proc mismatches so,
# add the extra explict detail of the mismatch
candidates.addPragmaAndCallConvMismatch(wanted, got, c.config)
if got != nil:
effectProblem(wanted, got, candidates, c)
candidates.add "\n"
of kUnknown: discard "do not break 'nim check'"
else:
candidates.add(" first type mismatch at position: " & $err.firstMismatch.arg)
if err.firstMismatch.kind in genericParamMismatches:
candidates.add(" in generic parameters")
# candidates.add "\n reason: " & $err.firstMismatch.kind # for debugging
case err.firstMismatch.kind
of kUnknownNamedParam:
@@ -414,16 +306,9 @@ proc presentFailedCandidates(c: PContext, n: PNode, errors: CandidateErrors):
of kPositionalAlreadyGiven: candidates.add("\n positional param was already given as named param")
of kExtraArg: candidates.add("\n extra argument given")
of kMissingParam: candidates.add("\n missing parameter: " & nameParam)
of kExtraGenericParam:
candidates.add("\n extra generic param given")
of kMissingGenericParam:
candidates.add("\n missing generic parameter: " & nameParam)
of kTypeMismatch, kGenericParamTypeMismatch, kVarNeeded:
of kTypeMismatch, kVarNeeded:
doAssert nArg != nil
var wanted = err.firstMismatch.formal.typ
if isGenericMismatch and wanted.kind == tyGenericParam and
wanted.genericParamHasConstraints:
wanted = wanted.genericConstraint
let wanted = err.firstMismatch.formal.typ
doAssert err.firstMismatch.formal != nil
candidates.add("\n required type for " & nameParam & ": ")
candidates.addTypeDeclVerboseMaybe(c.config, wanted)
@@ -434,12 +319,8 @@ proc presentFailedCandidates(c: PContext, n: PNode, errors: CandidateErrors):
else:
candidates.add renderTree(nArg)
candidates.add "' is of type: "
var got = nArg.typ
if isGenericMismatch: got = got.skipTypes({tyTypeDesc})
let got = nArg.typ
candidates.addTypeDeclVerboseMaybe(c.config, got)
if nArg.kind in nkSymChoices:
candidates.add "\n"
candidates.add ambiguousIdentifierMsg(nArg, indent = 2)
doAssert wanted != nil
if got != nil:
if got.kind == tyProc and wanted.kind == tyProc:
@@ -450,8 +331,8 @@ proc presentFailedCandidates(c: PContext, n: PNode, errors: CandidateErrors):
of kUnknown: discard "do not break 'nim check'"
candidates.add "\n"
if err.firstMismatch.arg == 1 and nArg != nil and
nArg.kind == nkTupleConstr and n.kind == nkCommand:
if err.firstMismatch.arg == 1 and nArg.kind == nkTupleConstr and
n.kind == nkCommand:
maybeWrongSpace = true
for diag in err.diagnostics:
candidates.add(diag & "\n")
@@ -528,6 +409,23 @@ proc notFoundError*(c: PContext, n: PNode, errors: CandidateErrors) =
result.add("\n" & errExpectedPosition & "\n" & candidates)
localError(c.config, n.info, result)
proc bracketNotFoundError(c: PContext; n: PNode) =
var errors: CandidateErrors = @[]
var o: TOverloadIter = default(TOverloadIter)
let headSymbol = n[0]
var symx = initOverloadIter(o, c, headSymbol)
while symx != nil:
if symx.kind in routineKinds:
errors.add(CandidateError(sym: symx,
firstMismatch: MismatchInfo(),
diagnostics: @[],
enabled: false))
symx = nextOverloadIter(o, c, headSymbol)
if errors.len == 0:
localError(c.config, n.info, "could not resolve: " & $n)
else:
notFoundError(c, n, errors)
proc getMsgDiagnostic(c: PContext, flags: TExprFlags, n, f: PNode): string =
result = ""
if c.compilesContextId > 0:
@@ -620,8 +518,7 @@ proc resolveOverloads(c: PContext, n, orig: PNode,
if overloadsState == csEmpty and result.state == csEmpty:
if efNoUndeclared notin flags: # for tests/pragmas/tcustom_pragma.nim
result.state = csNoMatch
if c.inGenericContext > 0 and nfExprCall in n.flags:
# untyped expression calls end up here, see #24099
if efNoDiagnostics in flags:
return
# xxx adapt/use errorUndeclaredIdentifierHint(c, n, f.ident)
localError(c.config, n.info, getMsgDiagnostic(c, flags, n, f))
@@ -657,39 +554,6 @@ proc resolveOverloads(c: PContext, n, orig: PNode,
getProcHeader(c.config, alt.calleeSym),
args])
proc bracketNotFoundError(c: PContext; n: PNode; flags: TExprFlags) =
var errors: CandidateErrors = @[]
let headSymbol = n[0]
block:
# we build a closed symchoice of all `[]` overloads for their errors,
# except add a custom error for the magics which always match
var choice = newNodeIT(nkClosedSymChoice, headSymbol.info, newTypeS(tyNone, c))
var o: TOverloadIter = default(TOverloadIter)
var symx = initOverloadIter(o, c, headSymbol)
while symx != nil:
if symx.kind in routineKinds:
if symx.magic in {mArrGet, mArrPut}:
errors.add(CandidateError(sym: symx,
firstMismatch: MismatchInfo(),
diagnostics: @[],
enabled: false))
else:
choice.add newSymNode(symx, headSymbol.info)
symx = nextOverloadIter(o, c, headSymbol)
n[0] = choice
# copied from semOverloadedCallAnalyzeEffects, might be overkill:
const baseFilter = {skProc, skFunc, skMethod, skConverter, skMacro, skTemplate}
let filter =
if flags*{efInTypeof, efWantIterator, efWantIterable} != {}:
baseFilter + {skIterator}
else: baseFilter
# this will add the errors:
var r = resolveOverloads(c, n, n, filter, flags, errors, true)
if errors.len == 0:
localError(c.config, n.info, "could not resolve: " & $n)
else:
notFoundError(c, n, errors)
proc instGenericConvertersArg*(c: PContext, a: PNode, x: TCandidate) =
let a = if a.kind == nkHiddenDeref: a[0] else: a
if a.kind == nkHiddenCallConv and a[0].kind == nkSym:
@@ -697,7 +561,7 @@ proc instGenericConvertersArg*(c: PContext, a: PNode, x: TCandidate) =
if s.isGenericRoutineStrict:
let finalCallee = generateInstance(c, s, x.bindings, a.info)
a[0].sym = finalCallee
a[0].typ() = finalCallee.typ
a[0].typ = finalCallee.typ
#a.typ = finalCallee.typ.returnType
proc instGenericConvertersSons*(c: PContext, n: PNode, x: TCandidate) =
@@ -706,15 +570,6 @@ proc instGenericConvertersSons*(c: PContext, n: PNode, x: TCandidate) =
for i in 1..<n.len:
instGenericConvertersArg(c, n[i], x)
proc markConvertersUsed*(c: PContext, n: PNode) =
assert n.kind in nkCallKinds
for i in 1..<n.len:
var a = n[i]
if a == nil: continue
if a.kind == nkHiddenDeref: a = a[0]
if a.kind == nkHiddenCallConv and a[0].kind == nkSym:
markUsed(c, a.info, a[0].sym)
proc indexTypesMatch(c: PContext, f, a: PType, arg: PNode): PNode =
var m = newCandidate(c, f)
result = paramTypesMatch(m, f, a, arg, nil)
@@ -732,15 +587,15 @@ proc inferWithMetatype(c: PContext, formal: PType,
# This almost exactly replicates the steps taken by the compiler during
# param matching. It performs an embarrassing amount of back-and-forth
# type jugling, but it's the price to pay for consistency and correctness
result.typ() = generateTypeInstance(c, m.bindings, arg.info,
result.typ = generateTypeInstance(c, m.bindings, arg.info,
formal.skipTypes({tyCompositeTypeClass}))
else:
typeMismatch(c.config, arg.info, formal, arg.typ, arg)
# error correction:
result = copyTree(arg)
result.typ() = formal
result.typ = formal
proc updateDefaultParams(c: PContext, call: PNode) =
proc updateDefaultParams(call: PNode) =
# In generic procs, the default parameter may be unique for each
# instantiation (see tlateboundgenericparams).
# After a call is resolved, we need to re-assign any default value
@@ -750,18 +605,8 @@ proc updateDefaultParams(c: PContext, call: PNode) =
let calleeParams = call[0].sym.typ.n
for i in 1..<call.len:
if nfDefaultParam in call[i].flags:
let formal = calleeParams[i].sym
let def = formal.ast
let def = calleeParams[i].sym.ast
if nfDefaultRefsParam in def.flags: call.flags.incl nfDefaultRefsParam
# mirrored with sigmatch:
if def.kind == nkEmpty:
# The default param value is set to empty in `instantiateProcType`
# when the type of the default expression doesn't match the type
# of the instantiated proc param:
pushInfoContext(c.config, call.info, call[0].sym.detailedInfo)
typeMismatch(c.config, def.info, formal.typ, def.typ, formal.ast)
popInfoContext(c.config)
def.typ() = errorType(c)
call[i] = def
proc getCallLineInfo(n: PNode): TLineInfo =
@@ -818,7 +663,7 @@ proc inheritBindings(c: PContext, x: var TCandidate, expectedType: PType) =
if t[i] == nil or u[i] == nil: return
stackPut(t[i], u[i])
of tyGenericParam:
let prebound = x.bindings.lookup(t)
let prebound = x.bindings.idTableGet(t)
if prebound != nil:
continue # Skip param, already bound
@@ -830,7 +675,7 @@ proc inheritBindings(c: PContext, x: var TCandidate, expectedType: PType) =
discard
# update bindings
for i in 0 ..< flatUnbound.len():
x.bindings.put(flatUnbound[i], flatBound[i])
x.bindings.idTablePut(flatUnbound[i], flatBound[i])
proc semResolvedCall(c: PContext, x: var TCandidate,
n: PNode, flags: TExprFlags;
@@ -841,12 +686,12 @@ proc semResolvedCall(c: PContext, x: var TCandidate,
markUsed(c, info, finalCallee)
onUse(info, finalCallee)
assert finalCallee.ast != nil
if x.matchedErrorType:
if x.hasFauxMatch:
result = x.call
result[0] = newSymNode(finalCallee, getCallLineInfo(result[0]))
if containsGenericType(result.typ):
result.typ() = newTypeS(tyError, c)
incl result.typ.flags, tfCheckedForDestructor
if containsGenericType(result.typ) or x.fauxMatch == tyUnknown:
result.typ = newTypeS(x.fauxMatch, c)
if result.typ.kind == tyError: incl result.typ.flags, tfCheckedForDestructor
return
let gp = finalCallee.ast[genericParamsPos]
if gp.isGenericParams:
@@ -872,18 +717,16 @@ proc semResolvedCall(c: PContext, x: var TCandidate,
# this node will be used in template substitution,
# pretend this is an untyped node and let regular sem handle the type
# to prevent problems where a generic parameter is treated as a value
tn.typ() = nil
tn.typ = nil
x.call.add tn
else:
internalAssert c.config, false
result = x.call
instGenericConvertersSons(c, result, x)
markConvertersUsed(c, result)
result[0] = newSymNode(finalCallee, getCallLineInfo(result[0]))
if finalCallee.magic notin {mArrGet, mArrPut}:
result.typ() = finalCallee.typ.returnType
updateDefaultParams(c, result)
result.typ = finalCallee.typ.returnType
updateDefaultParams(result)
proc canDeref(n: PNode): bool {.inline.} =
result = n.len >= 2 and (let t = n[1].typ;
@@ -891,7 +734,7 @@ proc canDeref(n: PNode): bool {.inline.} =
proc tryDeref(n: PNode): PNode =
result = newNodeI(nkHiddenDeref, n.info)
result.typ() = n.typ.skipTypes(abstractInst)[0]
result.typ = n.typ.skipTypes(abstractInst)[0]
result.add n
proc semOverloadedCall(c: PContext, n, nOrig: PNode,
@@ -908,9 +751,9 @@ proc semOverloadedCall(c: PContext, n, nOrig: PNode,
candidates)
result = semResolvedCall(c, r, n, flags, expectedType)
else:
if c.inGenericContext > 0 and c.matchedConcept == nil:
if efDetermineType in flags and c.inGenericContext > 0 and c.matchedConcept == nil:
result = semGenericStmt(c, n)
result.typ() = makeTypeFromExpr(c, result.copyTree)
result.typ = makeTypeFromExpr(c, result.copyTree)
elif efExplain notin flags:
# repeat the overload resolution,
# this time enabling all the diagnostic output (this should fail again)
@@ -925,22 +768,22 @@ proc explicitGenericInstError(c: PContext; n: PNode): PNode =
localError(c.config, getCallLineInfo(n), errCannotInstantiateX % renderTree(n))
result = n
proc explicitGenericSym(c: PContext, n: PNode, s: PSym, errors: var CandidateErrors, doError: bool): PNode =
if s.kind in {skTemplate, skMacro}:
internalError c.config, n.info, "cannot get explicitly instantiated symbol of " &
(if s.kind == skTemplate: "template" else: "macro")
proc explicitGenericSym(c: PContext, n: PNode, s: PSym): PNode =
# binding has to stay 'nil' for this to work!
var m = newCandidate(c, s, nil)
matchGenericParams(m, n, s)
if m.state != csMatch:
# state is csMatch only if *all* generic params were matched,
# including implicit parameters
if doError:
errors.add(CandidateError(
sym: s,
firstMismatch: m.firstMismatch,
diagnostics: m.diagnostics))
return nil
for i in 1..<n.len:
let formal = s.ast[genericParamsPos][i-1].typ
var arg = n[i].typ
# try transforming the argument into a static one before feeding it into
# typeRel
if formal.kind == tyStatic and arg.kind != tyStatic:
let evaluated = c.semTryConstExpr(c, n[i], n[i].typ)
if evaluated != nil:
arg = newTypeS(tyStatic, c, son = evaluated.typ)
arg.n = evaluated
let tm = typeRel(m, formal, arg)
if tm in {isNone, isConvertible}: return nil
var newInst = generateInstance(c, s, m.bindings, n.info)
newInst.typ.flags.excl tfUnresolved
let info = getCallLineInfo(n)
@@ -959,57 +802,46 @@ proc setGenericParams(c: PContext, n, expectedParams: PNode) =
nil
e = semExprWithType(c, n[i], expectedType = constraint)
if e.typ == nil:
n[i].typ() = errorType(c)
n[i].typ = errorType(c)
else:
n[i].typ() = e.typ.skipTypes({tyTypeDesc})
n[i].typ = e.typ.skipTypes({tyTypeDesc})
proc explicitGenericInstantiation(c: PContext, n: PNode, s: PSym, doError: bool): PNode =
proc explicitGenericInstantiation(c: PContext, n: PNode, s: PSym): PNode =
assert n.kind == nkBracketExpr
setGenericParams(c, n, s.ast[genericParamsPos])
var s = s
var a = n[0]
var errors: CandidateErrors = @[]
if a.kind == nkSym:
# common case; check the only candidate has the right
# number of generic type parameters:
result = explicitGenericSym(c, n, s, errors, doError)
if result == nil:
if c.inGenericContext > 0:
# same as in semOverloadedCall, make expression untyped,
# may have failed match due to unresolved types
result = semGenericStmt(c, n)
result.typ() = makeTypeFromExpr(c, result.copyTree)
elif doError:
notFoundError(c, n, errors)
if s.ast[genericParamsPos].safeLen != n.len-1:
let expected = s.ast[genericParamsPos].safeLen
localError(c.config, getCallLineInfo(n), errGenerated, "cannot instantiate: '" & renderTree(n) &
"'; got " & $(n.len-1) & " typeof(s) but expected " & $expected)
return n
result = explicitGenericSym(c, n, s)
if result == nil: result = explicitGenericInstError(c, n)
elif a.kind in {nkClosedSymChoice, nkOpenSymChoice}:
# choose the generic proc with the proper number of type parameters.
# XXX I think this could be improved by reusing sigmatch.paramTypesMatch.
# It's good enough for now.
result = newNodeI(a.kind, getCallLineInfo(n))
for i in 0..<a.len:
var candidate = a[i].sym
if candidate.kind in {skProc, skMethod, skConverter,
skFunc, skIterator}:
let x = explicitGenericSym(c, n, candidate, errors, doError)
if x != nil: result.add(x)
elif c.inGenericContext > 0:
# same as in semOverloadedCall, make expression untyped,
# may have failed match due to unresolved types
# any failing match stops building the symchoice for correctness,
# can also make it untyped from the start
result = semGenericStmt(c, n)
result.typ() = makeTypeFromExpr(c, result.copyTree)
return
# it suffices that the candidate has the proper number of generic
# type parameters:
if candidate.ast[genericParamsPos].safeLen == n.len-1:
let x = explicitGenericSym(c, n, candidate)
if x != nil: result.add(x)
# get rid of nkClosedSymChoice if not ambiguous:
if result.len == 0:
result = nil
if doError:
notFoundError(c, n, errors)
if result.len == 1 and a.kind == nkClosedSymChoice:
result = result[0]
elif result.len == 0: result = explicitGenericInstError(c, n)
# candidateCount != 1: return explicitGenericInstError(c, n)
else:
# probably unreachable: we are trying to instantiate `a` which is not
# a sym/symchoice
if doError:
result = explicitGenericInstError(c, n)
else:
result = nil
result = explicitGenericInstError(c, n)
proc searchForBorrowProc(c: PContext, startScope: PScope, fn: PSym): tuple[s: PSym, state: TBorrowState] =
# Searches for the fn in the symbol table. If the parameter lists are suitable

View File

@@ -15,8 +15,8 @@ when defined(nimPreviewSlimSystem):
import std/assertions
import
options, ast, msgs, idents, renderer,
magicsys, vmdef, modulegraphs, lineinfos, pathutils, layeredtable
options, ast, astalgo, msgs, idents, renderer,
magicsys, vmdef, modulegraphs, lineinfos, pathutils
import ic / ic
@@ -73,9 +73,9 @@ type
efNoUndeclared, efIsDotCall, efCannotBeDotCall,
# Use this if undeclared identifiers should not raise an error during
# overload resolution.
efNoDiagnostics,
efTypeAllowed # typeAllowed will be called after
efWantNoDefaults
efIgnoreDefaults # var statements without initialization
efAllowSymChoice # symchoice node should not be resolved
TExprFlags* = set[TExprFlag]
@@ -136,13 +136,9 @@ type
semOverloadedCall*: proc (c: PContext, n, nOrig: PNode,
filter: TSymKinds, flags: TExprFlags, expectedType: PType = nil): PNode {.nimcall.}
semTypeNode*: proc(c: PContext, n: PNode, prev: PType): PType {.nimcall.}
semInferredLambda*: proc(c: PContext, pt: LayeredIdTable, n: PNode): PNode
semGenerateInstance*: proc (c: PContext, fn: PSym, pt: LayeredIdTable,
semInferredLambda*: proc(c: PContext, pt: Table[ItemId, PType], n: PNode): PNode
semGenerateInstance*: proc (c: PContext, fn: PSym, pt: Table[ItemId, PType],
info: TLineInfo): PSym
instantiateOnlyProcType*: proc (c: PContext, pt: LayeredIdTable,
prc: PSym, info: TLineInfo): PType
# used by sigmatch for explicit generic instantiations
fitDefaultNode*: proc (c: PContext, n: var PNode, expectedType: PType)
includedFiles*: IntSet # used to detect recursive include files
pureEnumFields*: TStrTable # pure enum fields that can be used unambiguously
userPragmas*: TStrTable
@@ -172,7 +168,6 @@ type
inUncheckedAssignSection*: int
importModuleLookup*: Table[int, seq[int]] # (module.ident.id, [module.id])
skipTypes*: seq[PNode] # used to skip types between passes in type section. So far only used for inheritance, sets and generic bodies.
inTypeofContext*: int
TBorrowState* = enum
bsNone, bsReturnNotMatch, bsNoDistinct, bsGeneric, bsNotSupported, bsMatch
@@ -196,29 +191,29 @@ proc getIntLitType*(c: PContext; literal: PNode): PType =
proc setIntLitType*(c: PContext; result: PNode) =
let i = result.intVal
case c.config.target.intSize
of 8: result.typ() = getIntLitType(c, result)
of 8: result.typ = getIntLitType(c, result)
of 4:
if i >= low(int32) and i <= high(int32):
result.typ() = getIntLitType(c, result)
result.typ = getIntLitType(c, result)
else:
result.typ() = getSysType(c.graph, result.info, tyInt64)
result.typ = getSysType(c.graph, result.info, tyInt64)
of 2:
if i >= low(int16) and i <= high(int16):
result.typ() = getIntLitType(c, result)
result.typ = getIntLitType(c, result)
elif i >= low(int32) and i <= high(int32):
result.typ() = getSysType(c.graph, result.info, tyInt32)
result.typ = getSysType(c.graph, result.info, tyInt32)
else:
result.typ() = getSysType(c.graph, result.info, tyInt64)
result.typ = getSysType(c.graph, result.info, tyInt64)
of 1:
# 8 bit CPUs are insane ...
if i >= low(int8) and i <= high(int8):
result.typ() = getIntLitType(c, result)
result.typ = getIntLitType(c, result)
elif i >= low(int16) and i <= high(int16):
result.typ() = getSysType(c.graph, result.info, tyInt16)
result.typ = getSysType(c.graph, result.info, tyInt16)
elif i >= low(int32) and i <= high(int32):
result.typ() = getSysType(c.graph, result.info, tyInt32)
result.typ = getSysType(c.graph, result.info, tyInt32)
else:
result.typ() = getSysType(c.graph, result.info, tyInt64)
result.typ = getSysType(c.graph, result.info, tyInt64)
else:
internalError(c.config, result.info, "invalid int size")
@@ -450,7 +445,7 @@ when false:
proc makeStaticExpr*(c: PContext, n: PNode): PNode =
result = newNodeI(nkStaticExpr, n.info)
result.sons = @[n]
result.typ() = if n.typ != nil and n.typ.kind == tyStatic: n.typ
result.typ = if n.typ != nil and n.typ.kind == tyStatic: n.typ
else: newTypeS(tyStatic, c, n.typ)
proc makeAndType*(c: PContext, t1, t2: PType): PType =
@@ -509,7 +504,7 @@ proc errorType*(c: PContext): PType =
proc errorNode*(c: PContext, n: PNode): PNode =
result = newNodeI(nkEmpty, n.info)
result.typ() = errorType(c)
result.typ = errorType(c)
# These mimic localError
template localErrorNode*(c: PContext, n: PNode, info: TLineInfo, msg: TMsgKind, arg: string): PNode =
@@ -530,11 +525,10 @@ template localErrorNode*(c: PContext, n: PNode, arg: string): PNode =
liMessage(c.config, n2.info, errGenerated, arg, doNothing, instLoc())
errorNode(c, n2)
when false:
proc fillTypeS*(dest: PType, kind: TTypeKind, c: PContext) =
dest.kind = kind
dest.owner = getCurrOwner(c)
dest.size = - 1
proc fillTypeS*(dest: PType, kind: TTypeKind, c: PContext) =
dest.kind = kind
dest.owner = getCurrOwner(c)
dest.size = - 1
proc makeRangeType*(c: PContext; first, last: BiggestInt;
info: TLineInfo; intType: PType = nil): PType =
@@ -565,7 +559,7 @@ proc symFromType*(c: PContext; t: PType, info: TLineInfo): PSym =
proc symNodeFromType*(c: PContext, t: PType, info: TLineInfo): PNode =
result = newSymNode(symFromType(c, t, info), info)
result.typ() = makeTypeDesc(c, t)
result.typ = makeTypeDesc(c, t)
proc markIndirect*(c: PContext, s: PSym) {.inline.} =
if s.kind in {skProc, skFunc, skConverter, skMethod, skIterator}:

File diff suppressed because it is too large Load Diff

View File

@@ -18,15 +18,6 @@ type
replaceByFieldName: bool
c: PContext
proc wrapNewScope(c: PContext, n: PNode): PNode {.inline.} =
# use `if true` to not interfere with `break`
# just opening scope via `openScope(c)` isn't enough,
# a scope has to be opened in the codegen as well for reused
# template instantiations
let trueLit = newIntLit(c.graph, n.info, 1)
trueLit.typ() = getSysType(c.graph, n.info, tyBool)
result = newTreeI(nkIfStmt, n.info, newTreeI(nkElifBranch, n.info, trueLit, n))
proc instFieldLoopBody(c: TFieldInstCtx, n: PNode, forLoop: PNode): PNode =
if c.field != nil and isEmptyType(c.field.typ):
result = newNode(nkEmpty)
@@ -81,9 +72,7 @@ proc semForObjectFields(c: TFieldsCtx, typ, forLoop, father: PNode) =
)
openScope(c.c)
inc c.c.inUnrolledContext
var body = instFieldLoopBody(fc, lastSon(forLoop), forLoop)
# new scope for each field that codegen should know about:
body = wrapNewScope(c.c, body)
let body = instFieldLoopBody(fc, lastSon(forLoop), forLoop)
father.add(semStmt(c.c, body, {}))
dec c.c.inUnrolledContext
closeScope(c.c)
@@ -159,8 +148,6 @@ proc semForFields(c: PContext, n: PNode, m: TMagic): PNode =
replaceByFieldName: m == mFieldPairs
)
var body = instFieldLoopBody(fc, loopBody, n)
# new scope for each field that codegen should know about:
body = wrapNewScope(c, body)
inc c.inUnrolledContext
stmts.add(semStmt(c, body, {}))
dec c.inUnrolledContext

View File

@@ -38,7 +38,7 @@ proc newIntNodeT*(intVal: Int128, n: PNode; idgen: IdGenerator; g: ModuleGraph):
# original type was 'int', not a distinct int etc.
if n.typ.kind == tyInt:
# access cache for the int lit type
result.typ() = getIntLitTypeG(g, result, idgen)
result.typ = getIntLitTypeG(g, result, idgen)
result.info = n.info
proc newFloatNodeT*(floatVal: BiggestFloat, n: PNode; g: ModuleGraph): PNode =
@@ -46,12 +46,12 @@ proc newFloatNodeT*(floatVal: BiggestFloat, n: PNode; g: ModuleGraph): PNode =
result = newFloatNode(nkFloat32Lit, floatVal)
else:
result = newFloatNode(nkFloatLit, floatVal)
result.typ() = n.typ
result.typ = n.typ
result.info = n.info
proc newStrNodeT*(strVal: string, n: PNode; g: ModuleGraph): PNode =
result = newStrNode(nkStrLit, strVal)
result.typ() = n.typ
result.typ = n.typ
result.info = n.info
proc getConstExpr*(m: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode
@@ -302,9 +302,6 @@ proc evalOp(m: TMagic, n, a, b, c: PNode; idgen: IdGenerator; g: ModuleGraph): P
of mMinusSet:
result = nimsets.diffSets(g.config, a, b)
result.info = n.info
of mXorSet:
result = nimsets.symdiffSets(g.config, a, b)
result.info = n.info
of mConStrStr: result = newStrNodeT(getStrOrChar(a) & getStrOrChar(b), n, g)
of mInSet: result = newIntNodeT(toInt128(ord(inSet(a, b))), n, idgen, g)
of mRepr:
@@ -319,7 +316,7 @@ proc evalOp(m: TMagic, n, a, b, c: PNode; idgen: IdGenerator; g: ModuleGraph): P
of mEnumToStr: result = newStrNodeT(ordinalValToString(a, g), n, g)
of mArrToSeq:
result = copyTree(a)
result.typ() = n.typ
result.typ = n.typ
of mCompileOption:
result = newIntNodeT(toInt128(ord(commands.testCompileOption(g.config, a.getStr, n.info))), n, idgen, g)
of mCompileOptionArg:
@@ -414,7 +411,7 @@ proc foldConv(n, a: PNode; idgen: IdGenerator; g: ModuleGraph; check = false): P
result = newIntNodeT(toInt128(a.getOrdValue != 0), n, idgen, g)
of tyBool, tyEnum: # xxx shouldn't we disallow `tyEnum`?
result = a
result.typ() = n.typ
result.typ = n.typ
else:
raiseAssert $srcTyp.kind
of tyInt..tyInt64, tyUInt..tyUInt64:
@@ -423,17 +420,14 @@ proc foldConv(n, a: PNode; idgen: IdGenerator; g: ModuleGraph; check = false): P
result = newIntNodeT(toInt128(getFloat(a)), n, idgen, g)
of tyChar, tyUInt..tyUInt64, tyInt..tyInt64:
var val = a.getOrdValue
if check: rangeCheck(n, val, g)
result = newIntNodeT(val, n, idgen, g)
if dstTyp.kind in {tyUInt..tyUInt64}:
result = newIntNodeT(maskBytes(val, int getSize(g.config, dstTyp)), n, idgen, g)
result.transitionIntKind(nkUIntLit)
else:
if check: rangeCheck(n, val, g)
result = newIntNodeT(val, n, idgen, g)
else:
result = a
result.typ() = n.typ
if check and result.kind in {nkCharLit..nkUInt64Lit} and
dstTyp.kind notin {tyUInt..tyUInt64}:
result.typ = n.typ
if check and result.kind in {nkCharLit..nkUInt64Lit}:
rangeCheck(n, getInt(result), g)
of tyFloat..tyFloat64:
case srcTyp.kind
@@ -441,12 +435,12 @@ proc foldConv(n, a: PNode; idgen: IdGenerator; g: ModuleGraph; check = false): P
result = newFloatNodeT(toFloat64(getOrdValue(a)), n, g)
else:
result = a
result.typ() = n.typ
result.typ = n.typ
of tyOpenArray, tyVarargs, tyProc, tyPointer:
result = nil
else:
result = a
result.typ() = n.typ
result.typ = n.typ
proc getArrayConstr(m: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode =
if n.kind == nkBracket:
@@ -517,10 +511,10 @@ proc foldConStrStr(m: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode
proc newSymNodeTypeDesc*(s: PSym; idgen: IdGenerator; info: TLineInfo): PNode =
result = newSymNode(s, info)
if s.typ.kind != tyTypeDesc:
result.typ() = newType(tyTypeDesc, idgen, s.owner)
result.typ = newType(tyTypeDesc, idgen, s.owner)
result.typ.addSonSkipIntLit(s.typ, idgen)
else:
result.typ() = s.typ
result.typ = s.typ
proc foldDefine(m, s: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode =
result = nil
@@ -639,7 +633,7 @@ proc getConstExpr(m: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode
if s.typ.kind == tyStatic:
if s.typ.n != nil and tfUnresolved notin s.typ.flags:
result = s.typ.n
result.typ() = s.typ.base
result.typ = s.typ.base
elif s.typ.isIntLit:
result = s.typ.n
else:
@@ -752,9 +746,7 @@ proc getConstExpr(m: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode
if a == nil: return
if leValueConv(n[1], a) and leValueConv(a, n[2]):
result = a # a <= x and x <= b
result.typ() = n.typ
elif n.typ.kind in {tyUInt..tyUInt64}:
discard "don't check uints"
result.typ = n.typ
else:
localError(g.config, n.info,
"conversion from $1 to $2 is invalid" %
@@ -763,7 +755,7 @@ proc getConstExpr(m: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode
var a = getConstExpr(m, n[0], idgen, g)
if a == nil: return
result = a
result.typ() = n.typ
result.typ = n.typ
of nkHiddenStdConv, nkHiddenSubConv, nkConv:
var a = getConstExpr(m, n[1], idgen, g)
if a == nil: return
@@ -777,11 +769,10 @@ proc getConstExpr(m: PSym, n: PNode; idgen: IdGenerator; g: ModuleGraph): PNode
var a = getConstExpr(m, n[1], idgen, g)
if a == nil: return
if n.typ != nil and n.typ.kind in NilableTypes and
(n.typ.kind != tyProc or a.typ.kind != tyProc or
sameBackendType(n.typ, a.typ)):
not (n.typ.kind == tyProc and a.typ.kind == tyProc):
# we allow compile-time 'cast' for pointer types:
result = a
result.typ() = n.typ
result.typ = n.typ
of nkBracketExpr: result = foldArrayAccess(m, n, idgen, g)
of nkDotExpr: result = foldFieldAccess(m, n, idgen, g)
of nkCheckedFieldExpr:

View File

@@ -61,7 +61,6 @@ template canOpenSym(s): bool =
proc semGenericStmtSymbol(c: PContext, n: PNode, s: PSym,
ctx: var GenericCtx; flags: TSemGenericFlags,
isAmbiguous: bool,
fromDotExpr=false): PNode =
result = nil
semIdeForTemplateOrGenericCheck(c.config, n, ctx.cursorInBody)
@@ -73,15 +72,9 @@ proc semGenericStmtSymbol(c: PContext, n: PNode, s: PSym,
result.transitionSonsKind(nkClosedSymChoice)
else:
result = symChoice(c, n, s, scOpen)
if canOpenSym(s):
if openSym in c.features:
if result.kind == nkSym:
result = newOpenSym(result)
else:
result.typ() = nil
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
if result.kind == nkSym and canOpenSym(result.sym):
result.flags.incl nfOpenSym
result.typ = nil
case s.kind
of skUnknown:
# Introduced in this pass! Leave it as an identifier.
@@ -105,28 +98,13 @@ proc semGenericStmtSymbol(c: PContext, n: PNode, s: PSym,
if s.typ != nil and s.typ.kind == tyStatic:
if s.typ.n != nil:
result = s.typ.n
elif c.inGenericContext > 0 and withinConcept notin flags:
# don't leave generic param as identifier node in generic type,
# sigmatch will try to instantiate generic type AST without all params
# fine to give a symbol node a generic type here since
# we are in a generic context and `prepareNode` will be called
result = newSymNodeTypeDesc(s, c.idgen, n.info)
if canOpenSym(result.sym):
if openSym in c.features:
result = newOpenSym(result)
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
else:
result = n
else:
result = newSymNodeTypeDesc(s, c.idgen, n.info)
if canOpenSym(result.sym):
if openSym in c.features:
result = newOpenSym(result)
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
result.flags.incl nfOpenSym
result.typ = nil
onUse(n.info, s)
of skParam:
result = n
@@ -134,41 +112,18 @@ proc semGenericStmtSymbol(c: PContext, n: PNode, s: PSym,
of skType:
if (s.typ != nil) and
(s.typ.flags * {tfGenericTypeParam, tfImplicitTypeParam} == {}):
if isAmbiguous:
# ambiguous types should be symchoices since lookup behaves
# differently for them in regular expressions
maybeDotChoice(c, n, s, fromDotExpr)
return
result = newSymNodeTypeDesc(s, c.idgen, n.info)
if canOpenSym(result.sym):
if openSym in c.features:
result = newOpenSym(result)
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
elif c.inGenericContext > 0 and withinConcept notin flags:
# don't leave generic param as identifier node in generic type,
# sigmatch will try to instantiate generic type AST without all params
# fine to give a symbol node a generic type here since
# we are in a generic context and `prepareNode` will be called
result = newSymNodeTypeDesc(s, c.idgen, n.info)
if canOpenSym(result.sym):
if openSym in c.features:
result = newOpenSym(result)
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
result.flags.incl nfOpenSym
result.typ = nil
else:
result = n
onUse(n.info, s)
else:
result = newSymNode(s, n.info)
if canOpenSym(result.sym):
if openSym in c.features:
result = newOpenSym(result)
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
result.flags.incl nfOpenSym
result.typ = nil
onUse(n.info, s)
proc lookup(c: PContext, n: PNode, flags: TSemGenericFlags,
@@ -190,7 +145,7 @@ proc lookup(c: PContext, n: PNode, flags: TSemGenericFlags,
elif s.isMixedIn:
result = symChoice(c, n, s, scForceOpen)
else:
result = semGenericStmtSymbol(c, n, s, ctx, flags, amb)
result = semGenericStmtSymbol(c, n, s, ctx, flags)
# else: leave as nkIdent
proc newDot(n, b: PNode): PNode =
@@ -206,11 +161,10 @@ proc fuzzyLookup(c: PContext, n: PNode, flags: TSemGenericFlags,
let luf = if withinMixin notin flags: {checkUndeclared, checkModule} else: {checkModule}
c.isAmbiguous = false
var s = qualifiedLookUp(c, n, luf)
if s != nil:
isMacro = s.kind in {skTemplate, skMacro}
result = semGenericStmtSymbol(c, n, s, ctx, flags, c.isAmbiguous)
result = semGenericStmtSymbol(c, n, s, ctx, flags)
else:
n[0] = semGenericStmt(c, n[0], flags, ctx)
result = n
@@ -224,21 +178,24 @@ proc fuzzyLookup(c: PContext, n: PNode, flags: TSemGenericFlags,
isMacro = s.kind in {skTemplate, skMacro}
if withinBind in flags or s.id in ctx.toBind:
if s.kind == skType: # don't put types in sym choice
var ambig = false
if candidates.len > 1:
let s2 = searchInScopes(c, ident, ambig)
result = newDot(result, semGenericStmtSymbol(c, n, s, ctx, flags,
isAmbiguous = ambig, fromDotExpr = true))
result = newDot(result, semGenericStmtSymbol(c, n, s, ctx, flags, fromDotExpr=true))
else:
result = newDot(result, symChoice(c, n, s, scClosed))
elif s.isMixedIn:
result = newDot(result, symChoice(c, n, s, scForceOpen))
else:
var ambig = false
if s.kind == skType and candidates.len > 1:
discard searchInScopes(c, ident, ambig)
let syms = semGenericStmtSymbol(c, n, s, ctx, flags,
isAmbiguous = ambig, fromDotExpr = true)
var ambig = false
let s2 = searchInScopes(c, ident, ambig)
if ambig:
# this is a type conversion like a.T where T is ambiguous with
# other types or routines
# in regular code, this never considers a type conversion and
# skips to routine overloading
# so symchoices are used which behave similarly with type symbols
result = newDot(result, symChoice(c, n, s, scForceOpen))
return
let syms = semGenericStmtSymbol(c, n, s, ctx, flags, fromDotExpr=true)
result = newDot(result, syms)
proc addTempDecl(c: PContext; n: PNode; kind: TSymKind) =
@@ -305,9 +262,7 @@ proc semGenericStmt(c: PContext, n: PNode,
# check if it is an expression macro:
checkMinSonsLen(n, 1, c.config)
let fn = n[0]
c.isAmbiguous = false
var s = qualifiedLookUp(c, fn, {})
let ambig = c.isAmbiguous
if s == nil and
{withinMixin, withinConcept}*flags == {} and
fn.kind in {nkIdent, nkAccQuoted} and
@@ -360,12 +315,7 @@ proc semGenericStmt(c: PContext, n: PNode,
of skType:
# bad hack for generics:
if (s.typ != nil) and (s.typ.kind != tyGenericParam):
if ambig:
# ambiguous types should be symchoices since lookup behaves
# differently for them in regular expressions
result[0] = sc
else:
result[0] = newSymNodeTypeDesc(s, c.idgen, fn.info)
result[0] = newSymNodeTypeDesc(s, c.idgen, fn.info)
onUse(fn.info, s)
first = 1
else:
@@ -613,27 +563,9 @@ proc semGenericStmt(c: PContext, n: PNode,
else:
body = getBody(c.graph, s)
else: body = n[bodyPos]
let bodyFlags = if n.kind == nkTemplateDef: flags + {withinMixin} else: flags
n[bodyPos] = semGenericStmtScope(c, body, bodyFlags, ctx)
n[bodyPos] = semGenericStmtScope(c, body, flags, ctx)
closeScope(c)
of nkPragmaExpr:
result[1] = semGenericStmt(c, n[1], flags, ctx)
of nkPragma:
for i in 0 ..< n.len:
let x = n[i]
let prag = whichPragma(x)
if x.kind in nkPragmaCallKinds:
# process each child individually to prevent untyped macros/templates
# from instantiating
# if pragma is language-level pragma, skip name node:
let start = ord(prag != wInvalid)
for j in start ..< x.len:
# treat as mixin context for user pragmas & macro args
x[j] = semGenericStmt(c, x[j], flags+{withinMixin}, ctx)
elif prag == wInvalid:
# only sem if not a language-level pragma
# treat as mixin context for user pragmas & macro args
result[i] = semGenericStmt(c, x, flags+{withinMixin}, ctx)
of nkPragma, nkPragmaExpr: discard
of nkExprColonExpr, nkExprEqExpr:
checkMinSonsLen(n, 2, c.config)
result[1] = semGenericStmt(c, n[1], flags, ctx)

View File

@@ -34,7 +34,7 @@ proc pushProcCon*(c: PContext; owner: PSym) =
const
errCannotInstantiateX = "cannot instantiate: '$1'"
iterator instantiateGenericParamList(c: PContext, n: PNode, pt: LayeredIdTable): PSym =
iterator instantiateGenericParamList(c: PContext, n: PNode, pt: TypeMapping): PSym =
internalAssert c.config, n.kind == nkGenericParams
for a in n.items:
internalAssert c.config, a.kind == nkSym
@@ -43,7 +43,7 @@ iterator instantiateGenericParamList(c: PContext, n: PNode, pt: LayeredIdTable):
let symKind = if q.typ.kind == tyStatic: skConst else: skType
var s = newSym(symKind, q.name, c.idgen, getCurrOwner(c), q.info)
s.flags.incl {sfUsed, sfFromGeneric}
var t = lookup(pt, q.typ)
var t = idTableGet(pt, q.typ)
if t == nil:
if tfRetType in q.typ.flags:
# keep the generic type and allow the return type to be bound
@@ -53,9 +53,7 @@ iterator instantiateGenericParamList(c: PContext, n: PNode, pt: LayeredIdTable):
if q.typ.kind != tyCompositeTypeClass:
localError(c.config, a.info, errCannotInstantiateX % s.name.s)
t = errorType(c)
elif t.kind in {tyGenericParam, tyConcept, tyFromExpr} or
# generic body types are accepted as typedesc arguments
(t.kind == tyGenericBody and q.typ.kind != tyTypeDesc):
elif t.kind in {tyGenericParam, tyConcept}:
localError(c.config, a.info, errCannotInstantiateX % q.name.s)
t = errorType(c)
elif isUnresolvedStatic(t) and (q.typ.kind == tyStatic or
@@ -111,7 +109,7 @@ proc freshGenSyms(c: PContext; n: PNode, owner, orig: PSym, symMap: var SymMappi
elif s.owner == nil or s.owner.kind == skPackage:
#echo "copied this ", s.name.s
x = copySym(s, c.idgen)
setOwner(x, owner)
x.owner = owner
idTablePut(symMap, s, x)
n.sym = x
else:
@@ -222,7 +220,7 @@ proc referencesAnotherParam(n: PNode, p: PSym): bool =
if referencesAnotherParam(n[i], p): return true
return false
proc instantiateProcType(c: PContext, pt: LayeredIdTable,
proc instantiateProcType(c: PContext, pt: TypeMapping,
prc: PSym, info: TLineInfo) =
# XXX: Instantiates a generic proc signature, while at the same
# time adding the instantiated proc params into the current scope.
@@ -239,7 +237,7 @@ proc instantiateProcType(c: PContext, pt: LayeredIdTable,
# will need to use openScope, addDecl, etc.
#addDecl(c, prc)
pushInfoContext(c.config, info)
var typeMap = shallowCopy(pt) # use previous bindings without writing to them
var typeMap = initLayeredTypeMap(pt)
var cl = initTypeVars(c, typeMap, info, nil)
var result = instCopyType(cl, prc.typ)
let originalParams = result.n
@@ -255,15 +253,9 @@ proc instantiateProcType(c: PContext, pt: LayeredIdTable,
var typeToFit = resulti
let needsStaticSkipping = resulti.kind == tyFromExpr
let needsTypeDescSkipping = resulti.kind == tyTypeDesc and tfUnresolved in resulti.flags
if resulti.kind == tyFromExpr:
resulti.flags.incl tfNonConstExpr
result[i] = replaceTypeVarsT(cl, resulti)
if needsStaticSkipping:
result[i] = result[i].skipTypes({tyStatic})
if needsTypeDescSkipping:
result[i] = result[i].skipTypes({tyTypeDesc})
typeToFit = result[i]
# ...otherwise, we use the instantiated type in `fitNode`
if (typeToFit.kind != tyTypeDesc or typeToFit.base.kind != tyNone) and
@@ -273,7 +265,7 @@ proc instantiateProcType(c: PContext, pt: LayeredIdTable,
internalAssert c.config, originalParams[i].kind == nkSym
let oldParam = originalParams[i].sym
let param = copySym(oldParam, c.idgen)
setOwner(param, prc)
param.owner = prc
param.typ = result[i]
# The default value is instantiated and fitted against the final
@@ -281,10 +273,9 @@ proc instantiateProcType(c: PContext, pt: LayeredIdTable,
# call head symbol, because this leads to infinite recursion.
if oldParam.ast != nil:
var def = oldParam.ast.copyTree
if def.typ.kind == tyFromExpr:
def.typ.flags.incl tfNonConstExpr
if not isIntLit(def.typ):
def = prepareNode(cl, def)
if def.kind in nkCallKinds:
for i in 1..<def.len:
def[i] = replaceTypeVarsN(cl, def[i], 1)
# allow symchoice since node will be fit later
# although expectedType should cover it
@@ -301,8 +292,6 @@ proc instantiateProcType(c: PContext, pt: LayeredIdTable,
# the user calls an explicit instantiation of the proc (this is
# the only way the default value might be inserted).
param.ast = errorNode(c, def)
# we know the node is empty, we need the actual type for error message
param.ast.typ() = def.typ
else:
param.ast = fitNodePostMatch(c, typeToFit, converted)
param.typ = result[i]
@@ -326,22 +315,6 @@ proc instantiateProcType(c: PContext, pt: LayeredIdTable,
prc.typ = result
popInfoContext(c.config)
proc instantiateOnlyProcType(c: PContext, pt: LayeredIdTable, prc: PSym, info: TLineInfo): PType =
# instantiates only the type of a given proc symbol
# used by sigmatch for explicit generics
# wouldn't be needed if sigmatch could handle complex cases,
# examples are in texplicitgenerics
# might be buggy, see rest of generateInstance if problems occur
let fakeSym = copySym(prc, c.idgen)
incl(fakeSym.flags, sfFromGeneric)
fakeSym.instantiatedFrom = prc
openScope(c)
for s in instantiateGenericParamList(c, prc.ast[genericParamsPos], pt):
addDecl(c, s)
instantiateProcType(c, pt, fakeSym, info)
closeScope(c)
result = fakeSym.typ
proc fillMixinScope(c: PContext) =
var p = c.p
while p != nil:
@@ -362,7 +335,7 @@ proc getLocalPassC(c: PContext, s: PSym): string =
for p in n:
extractPassc(p)
proc generateInstance(c: PContext, fn: PSym, pt: LayeredIdTable,
proc generateInstance(c: PContext, fn: PSym, pt: TypeMapping,
info: TLineInfo): PSym =
## Generates a new instance of a generic procedure.
## The `pt` parameter is a type-unsafe mapping table used to link generic
@@ -373,11 +346,7 @@ proc generateInstance(c: PContext, fn: PSym, pt: LayeredIdTable,
if c.instCounter > 50:
globalError(c.config, info, "generic instantiation too nested")
inc c.instCounter
let currentTypeofContext = c.inTypeofContext
c.inTypeofContext = 0
defer:
dec c.instCounter
c.inTypeofContext = currentTypeofContext
defer: dec c.instCounter
# careful! we copy the whole AST including the possibly nil body!
var n = copyTree(fn.ast)
# NOTE: for access of private fields within generics from a different module
@@ -395,9 +364,9 @@ proc generateInstance(c: PContext, fn: PSym, pt: LayeredIdTable,
let passc = getLocalPassC(c, producer)
if passc != "": #pass the local compiler options to the consumer module too
extccomp.addLocalCompileOption(c.config, passc, toFullPathConsiderDirty(c.config, c.module.info.fileIndex))
setOwner(result, c.module)
result.owner = c.module
else:
setOwner(result, fn)
result.owner = fn
result.ast = n
pushOwner(c, result)

View File

@@ -10,28 +10,9 @@
## Implements type sanity checking for ASTs resulting from macros. Lots of
## room for improvement here.
import ast, msgs, types, options, trees, nimsets
import ast, msgs, types, options
type
FieldTracker = object
index: int
remaining: int
constr: PNode
delete: bool # to delete fields from inactive case branches
FieldInfo = ref object
sym: PSym
delete: bool
proc caseBranchMatchesExpr(branch, matched: PNode): bool =
# copied from sem
result = false
for i in 0 ..< branch.len-1:
if branch[i].kind == nkRange:
if overlap(branch[i], matched): return true
elif exprStructuralEquivalent(branch[i], matched):
return true
proc ithField(n: PNode, field: var FieldTracker): FieldInfo =
proc ithField(n: PNode, field: var int): PSym =
result = nil
case n.kind
of nkRecList:
@@ -42,42 +23,18 @@ proc ithField(n: PNode, field: var FieldTracker): FieldInfo =
if n[0].kind != nkSym: return
result = ithField(n[0], field)
if result != nil: return
# value of the discriminator field, from (index - remaining - 1 + 1):
# - 1 because the `ithField` call above decreased it by 1,
# + 1 because the constructor node has an initial type child
let val = field.constr[field.index - field.remaining][1]
var branchFound = false
for i in 1..<n.len:
let previousDelete = field.delete
case n[i].kind
of nkOfBranch:
if branchFound or previousDelete or
not caseBranchMatchesExpr(n[i], val):
# if this is not the active case branch,
# mark all fields inside as deleted
field.delete = true
else:
branchFound = true
of nkOfBranch, nkElse:
result = ithField(lastSon(n[i]), field)
if result != nil: return
field.delete = previousDelete
of nkElse:
if branchFound:
# if this is not the active case branch,
# mark all fields inside as deleted
field.delete = true
result = ithField(lastSon(n[i]), field)
if result != nil: return
field.delete = previousDelete
else: discard
of nkSym:
if field.remaining == 0:
result = FieldInfo(sym: n.sym, delete: field.delete)
else:
dec(field.remaining)
if field == 0: result = n.sym
else: dec(field)
else: discard
proc ithField(t: PType, field: var FieldTracker): FieldInfo =
proc ithField(t: PType, field: var int): PSym =
var base = t.baseClass
while base != nil:
let b = skipTypes(base, skipPtrs)
@@ -93,27 +50,23 @@ proc annotateType*(n: PNode, t: PType; conf: ConfigRef) =
case n.kind
of nkObjConstr:
let x = t.skipTypes(abstractPtrs)
n.typ() = t
n[0].typ() = t
n.typ = t
for i in 1..<n.len:
var tracker = FieldTracker(index: i-1, remaining: i-1, constr: n, delete: false)
let field = x.ithField(tracker)
var j = i-1
let field = x.ithField(j)
if field.isNil:
globalError conf, n.info, "invalid field at index " & $i
else:
internalAssert(conf, n[i].kind == nkExprColonExpr)
annotateType(n[i][1], field.sym.typ, conf)
if field.delete:
# only codegen fields from active case branches
incl(n[i].flags, nfPreventCg)
annotateType(n[i][1], field.typ, conf)
of nkPar, nkTupleConstr:
if x.kind == tyTuple:
n.typ() = t
n.typ = t
for i in 0..<n.len:
if i >= x.kidsLen: globalError conf, n.info, "invalid field at index " & $i
else: annotateType(n[i], x[i], conf)
elif x.kind == tyProc and x.callConv == ccClosure:
n.typ() = t
n.typ = t
elif x.kind == tyOpenArray: # `opcSlice` transforms slices into tuples
if n.kind == nkTupleConstr:
let
@@ -134,39 +87,39 @@ proc annotateType*(n: PNode, t: PType; conf: ConfigRef) =
globalError(conf, n.info, "Incorrectly generated tuple constr")
n[] = bracketExpr[]
n.typ() = t
n.typ = t
else:
globalError(conf, n.info, "() must have a tuple type")
of nkBracket:
if x.kind in {tyArray, tySequence, tyOpenArray}:
n.typ() = t
n.typ = t
for m in n: annotateType(m, x.elemType, conf)
else:
globalError(conf, n.info, "[] must have some form of array type")
of nkCurly:
if x.kind in {tySet}:
n.typ() = t
n.typ = t
for m in n: annotateType(m, x.elemType, conf)
else:
globalError(conf, n.info, "{} must have the set type")
of nkFloatLit..nkFloat128Lit:
if x.kind in {tyFloat..tyFloat128}:
n.typ() = t
n.typ = t
else:
globalError(conf, n.info, "float literal must have some float type")
of nkCharLit..nkUInt64Lit:
if x.kind in {tyInt..tyUInt64, tyBool, tyChar, tyEnum}:
n.typ() = t
n.typ = t
else:
globalError(conf, n.info, "integer literal must have some int type")
of nkStrLit..nkTripleStrLit:
if x.kind in {tyString, tyCstring}:
n.typ() = t
n.typ = t
else:
globalError(conf, n.info, "string literal must be of some string type")
of nkNilLit:
if x.kind in NilableTypes+{tyString, tySequence}:
n.typ() = t
n.typ = t
else:
globalError(conf, n.info, "nil literal must be of some pointer type")
else: discard

View File

@@ -18,7 +18,7 @@ proc addDefaultFieldForNew(c: PContext, n: PNode): PNode =
let typ = result[1].typ # new(x)
if typ.skipTypes({tyGenericInst, tyAlias, tySink}).kind == tyRef and typ.skipTypes({tyGenericInst, tyAlias, tySink})[0].kind == tyObject:
var asgnExpr = newTree(nkObjConstr, newNodeIT(nkType, result[1].info, typ))
asgnExpr.typ() = typ
asgnExpr.typ = typ
var t = typ.skipTypes({tyGenericInst, tyAlias, tySink})[0]
while true:
asgnExpr.sons.add defaultFieldsForTheUninitialized(c, t.n, false)
@@ -38,7 +38,7 @@ proc semAddr(c: PContext; n: PNode): PNode =
if isAssignable(c, x) notin {arLValue, arLocalLValue, arAddressableConst, arLentValue}:
localError(c.config, n.info, errExprHasNoAddress)
result.add x
result.typ() = makePtrType(c, x.typ)
result.typ = makePtrType(c, x.typ)
proc semTypeOf(c: PContext; n: PNode): PNode =
var m = BiggestInt 1 # typeOfIter
@@ -49,50 +49,26 @@ proc semTypeOf(c: PContext; n: PNode): PNode =
else:
m = mode.intVal
result = newNodeI(nkTypeOfExpr, n.info)
inc c.inTypeofContext
defer: dec c.inTypeofContext # compiles can raise an exception
let typExpr = semExprWithType(c, n[1], if m == 1: {efInTypeof} else: {})
result.add typExpr
if typExpr.typ.kind == tyFromExpr:
typExpr.typ.flags.incl tfNonConstExpr
result.typ() = makeTypeDesc(c, typExpr.typ)
result.typ = makeTypeDesc(c, typExpr.typ)
type
SemAsgnMode = enum asgnNormal, noOverloadedSubscript, noOverloadedAsgn
proc semAsgn(c: PContext, n: PNode; mode=asgnNormal): PNode
proc semSubscript(c: PContext, n: PNode, flags: TExprFlags, afterOverloading = false): PNode
proc semSubscript(c: PContext, n: PNode, flags: TExprFlags): PNode
proc semArrGet(c: PContext; n: PNode; flags: TExprFlags): PNode =
result = newNodeI(nkBracketExpr, n.info)
for i in 1..<n.len: result.add(n[i])
result = semSubscript(c, result, flags, afterOverloading = true)
result = semSubscript(c, result, flags)
if result.isNil:
let x = copyTree(n)
x[0] = newIdentNode(getIdent(c.cache, "[]"), n.info)
if c.inGenericContext > 0:
for i in 0..<n.len:
let a = n[i]
if a.typ != nil and a.typ.kind in {tyGenericParam, tyFromExpr}:
# expression is compiled early in a generic body
result = semGenericStmt(c, x)
result.typ() = makeTypeFromExpr(c, copyTree(result))
result.typ.flags.incl tfNonConstExpr
return
let s = # extract sym from first arg
if n.len > 1:
if n[1].kind == nkSym: n[1].sym
elif n[1].kind in nkSymChoices + {nkOpenSym} and n[1].len != 0:
n[1][0].sym
else: nil
else: nil
if s != nil and s.kind in routineKinds:
# this is a failed generic instantiation
# semSubscript should already error but this is better for cascading errors
result = explicitGenericInstError(c, n)
else:
bracketNotFoundError(c, x, flags)
result = errorNode(c, n)
bracketNotFoundError(c, x)
#localError(c.config, n.info, "could not resolve: " & $n)
result = errorNode(c, n)
proc semArrPut(c: PContext; n: PNode; flags: TExprFlags): PNode =
# rewrite `[]=`(a, i, x) back to ``a[i] = x``.
@@ -200,15 +176,15 @@ proc evalTypeTrait(c: PContext; traitCall: PNode, operand: PType, context: PSym)
let preferStr = traitCall[2].strVal
prefer = parseEnum[TPreferedDesc](preferStr)
result = newStrNode(nkStrLit, operand.typeToString(prefer))
result.typ() = getSysType(c.graph, traitCall[1].info, tyString)
result.typ = getSysType(c.graph, traitCall[1].info, tyString)
result.info = traitCall.info
of "name", "$":
result = newStrNode(nkStrLit, operand.typeToString(preferTypeName))
result.typ() = getSysType(c.graph, traitCall[1].info, tyString)
result.typ = getSysType(c.graph, traitCall[1].info, tyString)
result.info = traitCall.info
of "arity":
result = newIntNode(nkIntLit, operand.len - ord(operand.kind==tyProc))
result.typ() = newType(tyInt, c.idgen, context)
result.typ = newType(tyInt, c.idgen, context)
result.info = traitCall.info
of "genericHead":
var arg = operand
@@ -248,9 +224,8 @@ proc evalTypeTrait(c: PContext; traitCall: PNode, operand: PType, context: PSym)
of "rangeBase":
# return the base type of a range type
var arg = operand.skipTypes({tyGenericInst})
if arg.kind == tyRange:
arg = arg.base
result = getTypeDescNode(c, arg, operand.owner, traitCall.info)
assert arg.kind == tyRange
result = getTypeDescNode(c, arg.base, operand.owner, traitCall.info)
of "isCyclic":
var operand = operand.skipTypes({tyGenericInst})
let isCyclic = canFormAcycle(c.graph, operand)
@@ -278,7 +253,7 @@ proc semOrd(c: PContext, n: PNode): PNode =
discard
else:
localError(c.config, n.info, errOrdinalTypeExpected % typeToString(parType, preferDesc))
result.typ() = errorType(c)
result.typ = errorType(c)
proc semBindSym(c: PContext, n: PNode): PNode =
result = copyNode(n)
@@ -394,7 +369,7 @@ proc semOf(c: PContext, n: PNode): PNode =
message(c.config, n.info, hintConditionAlwaysTrue, renderTree(n))
result = newIntNode(nkIntLit, 1)
result.info = n.info
result.typ() = getSysType(c.graph, n.info, tyBool)
result.typ = getSysType(c.graph, n.info, tyBool)
return result
elif diff == high(int):
if commonSuperclass(a, b) == nil:
@@ -403,10 +378,10 @@ proc semOf(c: PContext, n: PNode): PNode =
message(c.config, n.info, hintConditionAlwaysFalse, renderTree(n))
result = newIntNode(nkIntLit, 0)
result.info = n.info
result.typ() = getSysType(c.graph, n.info, tyBool)
result.typ = getSysType(c.graph, n.info, tyBool)
else:
localError(c.config, n.info, "'of' takes 2 arguments")
n.typ() = getSysType(c.graph, n.info, tyBool)
n.typ = getSysType(c.graph, n.info, tyBool)
result = n
proc semUnown(c: PContext; n: PNode): PNode =
@@ -441,9 +416,9 @@ proc semUnown(c: PContext; n: PNode): PNode =
result = t
result = copyTree(n[1])
result.typ() = unownedType(c, result.typ)
result.typ = unownedType(c, result.typ)
# little hack for injectdestructors.nim (see bug #11350):
#result[0].typ() = nil
#result[0].typ = nil
proc turnFinalizerIntoDestructor(c: PContext; orig: PSym; info: TLineInfo): PSym =
# We need to do 2 things: Replace n.typ which is a 'ref T' by a 'var T' type.
@@ -453,7 +428,7 @@ proc turnFinalizerIntoDestructor(c: PContext; orig: PSym; info: TLineInfo): PSym
proc transform(c: PContext; n: PNode; old, fresh: PType; oldParam, newParam: PSym): PNode =
result = shallowCopy(n)
if sameTypeOrNil(n.typ, old):
result.typ() = fresh
result.typ = fresh
if n.kind == nkSym and n.sym == oldParam:
result.sym = newParam
for i in 0 ..< safeLen(n):
@@ -464,7 +439,7 @@ proc turnFinalizerIntoDestructor(c: PContext; orig: PSym; info: TLineInfo): PSym
result = copySym(orig, c.idgen)
result.info = info
result.flags.incl sfFromGeneric
setOwner(result, orig)
result.owner = orig
let origParamType = orig.typ.firstParamType
let newParamType = makeVarType(result, origParamType.skipTypes(abstractPtrs), c.idgen)
let oldParam = orig.typ.n[1].sym
@@ -535,34 +510,32 @@ proc semNewFinalize(c: PContext; n: PNode): PNode =
discard "already turned this one into a finalizer"
else:
if fin.instantiatedFrom != nil and fin.instantiatedFrom != fin.owner: #undo move
setOwner(fin, fin.instantiatedFrom)
fin.owner = fin.instantiatedFrom
let wrapperSym = newSym(skProc, getIdent(c.graph.cache, fin.name.s & "FinalizerWrapper"), c.idgen, fin.owner, fin.info)
let selfSymNode = newSymNode(copySym(fin.ast[paramsPos][1][0].sym, c.idgen))
selfSymNode.typ = fin.typ.firstParamType
wrapperSym.flags.incl sfUsed
if fin.typ[1].skipTypes(abstractInst).kind != tyRef:
bindTypeHook(c, fin, n, attachedDestructor)
else:
let wrapperSym = newSym(skProc, getIdent(c.graph.cache, fin.name.s & "FinalizerWrapper"), c.idgen, fin.owner, fin.info)
let selfSymNode = newSymNode(copySym(fin.ast[paramsPos][1][0].sym, c.idgen))
selfSymNode.typ() = fin.typ.firstParamType
wrapperSym.flags.incl sfUsed
let wrapper = c.semExpr(c, newProcNode(nkProcDef, fin.info, body = newTree(nkCall, newSymNode(fin), selfSymNode),
params = nkFormalParams.newTree(c.graph.emptyNode,
newTree(nkIdentDefs, selfSymNode, newNodeIT(nkType,
fin.ast[paramsPos][1][1].info, fin.typ.firstParamType), c.graph.emptyNode)
),
name = newSymNode(wrapperSym), pattern = fin.ast[patternPos],
genericParams = fin.ast[genericParamsPos], pragmas = fin.ast[pragmasPos], exceptions = fin.ast[miscPos]), {})
let wrapper = c.semExpr(c, newProcNode(nkProcDef, fin.info, body = newTree(nkCall, newSymNode(fin), selfSymNode),
params = nkFormalParams.newTree(c.graph.emptyNode,
newTree(nkIdentDefs, selfSymNode, newNodeIT(nkType,
fin.ast[paramsPos][1][1].info, fin.typ.firstParamType), c.graph.emptyNode)
),
name = newSymNode(wrapperSym), pattern = fin.ast[patternPos],
genericParams = fin.ast[genericParamsPos], pragmas = fin.ast[pragmasPos], exceptions = fin.ast[miscPos]), {})
var transFormedSym = turnFinalizerIntoDestructor(c, wrapperSym, wrapper.info)
setOwner(transFormedSym, fin)
if c.config.backend == backendCpp or sfCompileToCpp in c.module.flags:
let origParamType = transFormedSym.ast[bodyPos][1].typ
let selfSymbolType = makePtrType(c, origParamType.skipTypes(abstractPtrs))
let selfPtr = newNodeI(nkHiddenAddr, transFormedSym.ast[bodyPos][1].info)
selfPtr.add transFormedSym.ast[bodyPos][1]
selfPtr.typ() = selfSymbolType
transFormedSym.ast[bodyPos][1] = c.semExpr(c, selfPtr)
bindTypeHook(c, transFormedSym, n, attachedDestructor)
var transFormedSym = turnFinalizerIntoDestructor(c, wrapperSym, wrapper.info)
transFormedSym.owner = fin
if c.config.backend == backendCpp or sfCompileToCpp in c.module.flags:
let origParamType = transFormedSym.ast[bodyPos][1].typ
let selfSymbolType = makePtrType(c, origParamType.skipTypes(abstractPtrs))
let selfPtr = newNodeI(nkHiddenAddr, transFormedSym.ast[bodyPos][1].info)
selfPtr.add transFormedSym.ast[bodyPos][1]
selfPtr.typ = selfSymbolType
transFormedSym.ast[bodyPos][1] = c.semExpr(c, selfPtr)
# TODO: suppress var destructor warnings; if newFinalizer is not
# TODO: deprecated, try to implement plain T destructor
bindTypeHook(c, transFormedSym, n, attachedDestructor, suppressVarDestructorWarning = true)
result = addDefaultFieldForNew(c, n)
proc semPrivateAccess(c: PContext, n: PNode): PNode =
@@ -614,7 +587,7 @@ proc magicsAfterOverloadResolution(c: PContext, n: PNode,
of mTypeTrait: result = semTypeTraits(c, n)
of mAstToStr:
result = newStrNodeT(renderTree(n[1], {renderNoComments}), n, c.graph)
result.typ() = getSysType(c.graph, n.info, tyString)
result.typ = getSysType(c.graph, n.info, tyString)
of mInstantiationInfo: result = semInstantiationInfo(c, n)
of mOrd: result = semOrd(c, n)
of mOf: result = semOf(c, n)
@@ -627,7 +600,7 @@ proc magicsAfterOverloadResolution(c: PContext, n: PNode,
result = semDynamicBindSym(c, n)
of mProcCall:
result = n
result.typ() = n[1].typ
result.typ = n[1].typ
of mDotDot:
result = n
of mPlugin:
@@ -670,7 +643,7 @@ proc magicsAfterOverloadResolution(c: PContext, n: PNode,
result[0] = newSymNode(op)
if op.typ.len == 3:
let boolLit = newIntLit(c.graph, n.info, 1)
boolLit.typ() = getSysType(c.graph, n.info, tyBool)
boolLit.typ = getSysType(c.graph, n.info, tyBool)
result.add boolLit
of mWasMoved:
result = n
@@ -712,7 +685,7 @@ proc magicsAfterOverloadResolution(c: PContext, n: PNode,
result = n
if result.typ != nil and expectedType != nil and result.typ.kind == tySequence and
expectedType.kind == tySequence and result.typ.elementType.kind == tyEmpty:
result.typ() = expectedType # type inference for empty sequence # bug #21377
result.typ = expectedType # type inference for empty sequence # bug #21377
of mEnsureMove:
result = n
if n[1].kind in {nkStmtListExpr, nkBlockExpr,

View File

@@ -188,7 +188,7 @@ proc collectOrAddMissingCaseFields(c: PContext, branchNode: PNode,
newNodeIT(nkType, constrCtx.initExpr.info, asgnType)
)
asgnExpr.flags.incl nfSkipFieldChecking
asgnExpr.typ() = recTyp
asgnExpr.typ = recTyp
defaults.add newTree(nkExprColonExpr, newSymNode(sym), asgnExpr)
proc collectBranchFields(c: PContext, n: PNode, discriminatorVal: PNode,
@@ -387,13 +387,10 @@ proc semConstructFields(c: PContext, n: PNode, constrCtx: var ObjConstrContext,
if e != nil:
result.status = initFull
elif field.ast != nil:
if efIgnoreDefaults notin flags:
result.status = initUnknown
result.defaults.add newTree(nkExprColonExpr, n, field.ast)
else:
result.status = initNone
result.status = initUnknown
result.defaults.add newTree(nkExprColonExpr, n, field.ast)
else:
if {efWantNoDefaults, efIgnoreDefaults} * flags == {}: # cannot compute defaults at the typeRightPass
if efWantNoDefaults notin flags: # cannot compute defaults at the typeRightPass
let defaultExpr = defaultNodeField(c, n, constrCtx.checkDefault)
if defaultExpr != nil:
result.status = initUnknown
@@ -446,7 +443,7 @@ proc defaultConstructionError(c: PContext, t: PType, info: TLineInfo) =
assert objType != nil
if objType.kind == tyObject:
var constrCtx = initConstrContext(objType, newNodeI(nkObjConstr, info))
let initResult = semConstructTypeAux(c, constrCtx, {efIgnoreDefaults})
let initResult = semConstructTypeAux(c, constrCtx, {efWantNoDefaults})
if constrCtx.missingFields.len > 0:
localError(c.config, info,
"The $1 type doesn't have a default value. The following fields must be initialized: $2." % [typeToString(t), listSymbolNames(constrCtx.missingFields)])
@@ -465,20 +462,17 @@ proc semObjConstr(c: PContext, n: PNode, flags: TExprFlags; expectedType: PType
if t == nil:
return localErrorNode(c, result, "object constructor needs an object type")
when false:
# attempted type inference for generic object types,
# doesn't work since n[0] isn't set and seems underspecified
if t.skipTypes({tyGenericInst,
tyAlias, tySink, tyOwned, tyRef}).kind != tyObject and
expectedType != nil and expectedType.skipTypes({tyGenericInst,
tyAlias, tySink, tyOwned, tyRef}).kind == tyObject:
t = expectedType
if t.skipTypes({tyGenericInst,
tyAlias, tySink, tyOwned, tyRef}).kind != tyObject and
expectedType != nil and expectedType.skipTypes({tyGenericInst,
tyAlias, tySink, tyOwned, tyRef}).kind == tyObject:
t = expectedType
t = skipTypes(t, {tyGenericInst, tyAlias, tySink, tyOwned})
if t.kind == tyRef:
t = skipTypes(t.elementType, {tyGenericInst, tyAlias, tySink, tyOwned})
if optOwnedRefs in c.config.globalOptions:
result.typ() = makeVarType(c, result.typ, tyOwned)
result.typ = makeVarType(c, result.typ, tyOwned)
# we have to watch out, there are also 'owned proc' types that can be used
# multiple times as long as they don't have closures.
result.typ.flags.incl tfHasOwned

View File

@@ -407,9 +407,9 @@ proc transformSlices(g: ModuleGraph; idgen: IdGenerator; n: PNode): PNode =
result = copyNode(n)
var typ = newType(tyOpenArray, idgen, result.typ.owner)
typ.add result.typ.elementType
result.typ() = typ
result.typ = typ
let opSlice = newSymNode(createMagic(g, idgen, "slice", mSlice))
opSlice.typ() = getSysType(g, n.info, tyInt)
opSlice.typ = getSysType(g, n.info, tyInt)
result.add opSlice
result.add n[1]
let slice = n[2].skipStmtList

View File

@@ -11,7 +11,7 @@ import
ast, astalgo, msgs, renderer, magicsys, types, idents, trees,
wordrecg, options, guards, lineinfos, semfold, semdata,
modulegraphs, varpartitions, typeallowed, nilcheck, errorhandling,
semstrictfuncs, suggestsymdb, pushpoppragmas
semstrictfuncs, suggestsymdb
import std/[tables, intsets, strutils, sequtils]
@@ -85,7 +85,6 @@ type
isInnerProc: bool
inEnforcedNoSideEffects: bool
currOptions: TOptions
optionsStack: seq[(TOptions, TNoteKinds)]
config: ConfigRef
graph: ModuleGraph
c: PContext
@@ -193,7 +192,7 @@ proc guardDotAccess(a: PEffects; n: PNode) =
let dot = newNodeI(nkDotExpr, n.info, 2)
dot[0] = n[0]
dot[1] = newSymNode(g)
dot.typ() = g.typ
dot.typ = g.typ
for L in a.locked:
#if a.guards.sameSubexprs(dot, L): return
if guards.sameTree(dot, L): return
@@ -212,7 +211,6 @@ proc varDecl(a: PEffects; n: PNode) {.inline.} =
proc skipHiddenDeref(n: PNode): PNode {.inline.} =
result = if n.kind == nkHiddenDeref: n[0] else: n
proc initVar(a: PEffects, n: PNode; volatileCheck: bool) =
let n = skipHiddenDeref(n)
if n.kind != nkSym: return
@@ -221,7 +219,7 @@ proc initVar(a: PEffects, n: PNode; volatileCheck: bool) =
if volatileCheck: makeVolatile(a, s)
for x in a.init:
if x == s.id:
if noStrictDefs notin a.c.config.legacyFeatures and s.kind == skLet:
if strictDefs in a.c.features and s.kind == skLet:
localError(a.config, n.info, errXCannotBeAssignedTo %
renderTree(n, {renderNoComments}
))
@@ -379,7 +377,7 @@ proc useVar(a: PEffects, n: PNode) =
if s.typ.requiresInit:
message(a.config, n.info, warnProveInit, s.name.s)
elif a.leftPartOfAsgn <= 0:
if noStrictDefs notin a.c.config.legacyFeatures:
if strictDefs in a.c.features:
if s.kind == skLet:
localError(a.config, n.info, errLetNeedsInit)
else:
@@ -412,7 +410,7 @@ proc throws(tracked, n, orig: PNode) =
if n.typ == nil or n.typ.kind != tyError:
if orig != nil:
let x = copyTree(orig)
x.typ() = n.typ
x.typ = n.typ
tracked.add x
else:
tracked.add n
@@ -427,12 +425,12 @@ proc excType(g: ModuleGraph; n: PNode): PType =
proc createRaise(g: ModuleGraph; n: PNode): PNode =
result = newNode(nkType)
result.typ() = getEbase(g, n.info)
result.typ = getEbase(g, n.info)
if not n.isNil: result.info = n.info
proc createTag(g: ModuleGraph; n: PNode): PNode =
result = newNode(nkType)
result.typ() = g.sysTypeFromName(n.info, "RootEffect")
result.typ = g.sysTypeFromName(n.info, "RootEffect")
if not n.isNil: result.info = n.info
proc addRaiseEffect(a: PEffects, e, comesFrom: PNode) =
@@ -617,16 +615,9 @@ proc trackPragmaStmt(tracked: PEffects, n: PNode) =
for i in 0..<n.len:
var it = n[i]
let pragma = whichPragma(it)
case pragma
of wEffects:
if pragma == wEffects:
# list the computed effects up to here:
listEffects(tracked)
of wPush:
processPushBackendOption(tracked.c.config, tracked.optionsStack, tracked.currOptions, n, i+1)
of wPop:
processPopBackendOption(tracked.c.config, tracked.optionsStack, tracked.currOptions)
else:
discard
template notGcSafe(t): untyped = {tfGcSafe, tfNoSideEffect} * t.flags == {}
@@ -1211,7 +1202,7 @@ proc track(tracked: PEffects, n: PNode) =
if n.sym.typ != nil and tfHasAsgn in n.sym.typ.flags:
tracked.owner.flags.incl sfInjectDestructors
# bug #15038: ensure consistency
if n.typ == nil or (not hasDestructor(n.typ) and sameType(n.typ, n.sym.typ)): n.typ() = n.sym.typ
if not hasDestructor(n.typ) and sameType(n.typ, n.sym.typ): n.typ = n.sym.typ
of nkHiddenAddr, nkAddr:
if n[0].kind == nkSym and isLocalSym(tracked, n[0].sym) and
n.typ.kind notin {tyVar, tyLent}:
@@ -1302,12 +1293,7 @@ proc track(tracked: PEffects, n: PNode) =
let last = lastSon(child)
track(tracked, last)
of nkCaseStmt: trackCase(tracked, n)
of nkWhen: # This should be a "when nimvm" node.
let oldState = tracked.init.len
track(tracked, n[0][1])
tracked.init.setLen(oldState)
track(tracked, n[1][0])
of nkIfStmt, nkIfExpr: trackIf(tracked, n)
of nkWhen, nkIfStmt, nkIfExpr: trackIf(tracked, n)
of nkBlockStmt, nkBlockExpr: trackBlock(tracked, n[1])
of nkWhileStmt:
# 'while true' loop?
@@ -1608,7 +1594,7 @@ proc initEffects(g: ModuleGraph; effects: PNode; s: PSym; c: PContext): TEffects
result = TEffects(exc: effects[exceptionEffects], tags: effects[tagEffects],
forbids: effects[forbiddenEffects], owner: s, ownerModule: s.getModule,
init: @[], locked: @[], graph: g, config: g.config, c: c,
currentBlock: 1, optionsStack: @[(g.config.options, g.config.notes)]
currentBlock: 1
)
result.guards.s = @[]
result.guards.g = g
@@ -1661,7 +1647,7 @@ proc trackProc*(c: PContext; s: PSym, body: PNode) =
if not isEmptyType(s.typ.returnType) and
(s.typ.returnType.requiresInit or s.typ.returnType.skipTypes(abstractInst).kind == tyVar or
noStrictDefs notin c.config.legacyFeatures) and
strictDefs in c.features) and
s.kind in {skProc, skFunc, skConverter, skMethod} and s.magic == mNone:
var res = s.ast[resultPos].sym # get result symbol
if res.id notin t.init and breaksBlock(body) != bsNoReturn:

View File

@@ -112,11 +112,11 @@ proc semWhile(c: PContext, n: PNode; flags: TExprFlags): PNode =
dec(c.p.nestedLoopCounter)
closeScope(c)
if n[1].typ == c.enforceVoidContext:
result.typ() = c.enforceVoidContext
result.typ = c.enforceVoidContext
elif efInTypeof in flags:
result.typ() = n[1].typ
result.typ = n[1].typ
elif implicitlyDiscardable(n[1]):
result[1].typ() = c.enforceVoidContext
result[1].typ = c.enforceVoidContext
proc semProc(c: PContext, n: PNode): PNode
@@ -135,7 +135,7 @@ const
skipForDiscardable = {nkStmtList, nkStmtListExpr,
nkOfBranch, nkElse, nkFinally, nkExceptBranch,
nkElifBranch, nkElifExpr, nkElseExpr, nkBlockStmt, nkBlockExpr,
nkHiddenStdConv, nkHiddenSubConv, nkHiddenDeref}
nkHiddenStdConv, nkHiddenDeref}
proc implicitlyDiscardable(n: PNode): bool =
# same traversal as endsInNoReturn
@@ -172,7 +172,7 @@ proc implicitlyDiscardable(n: PNode): bool =
of nkElse:
branch[0]
else:
raiseAssert "Malformed `case` statement in implicitlyDiscardable"
raiseAssert "Malformed `case` statement in endsInNoReturn"
# all branches are discardable
result = true
of nkTryStmt:
@@ -190,19 +190,18 @@ proc implicitlyDiscardable(n: PNode): bool =
else:
result = false
proc endsInNoReturn(n: PNode, returningNode: var PNode; discardableCheck = false): bool =
proc endsInNoReturn(n: PNode, returningNode: var PNode): bool =
## check if expr ends the block like raising or call of noreturn procs do
result = false # assume it does return
template checkBranch(branch) =
if not endsInNoReturn(branch, returningNode, discardableCheck):
if not endsInNoReturn(branch, returningNode):
# proved a branch returns
return false
var it = n
# skip these beforehand, no special handling needed
let skips = if discardableCheck: skipForDiscardable else: skipForDiscardable-{nkBlockExpr, nkBlockStmt}
while it.kind in skips and it.len > 0:
while it.kind in skipForDiscardable and it.len > 0:
it = it.lastSon
case it.kind
@@ -246,7 +245,7 @@ proc endsInNoReturn(n: PNode, returningNode: var PNode; discardableCheck = false
var lastIndex = it.len - 1
if it[lastIndex].kind == nkFinally:
# if finally is noreturn, then the entire statement is noreturn
if endsInNoReturn(it[lastIndex][^1], returningNode, discardableCheck):
if endsInNoReturn(it[lastIndex][^1], returningNode):
return true
dec lastIndex
for i in 1 .. lastIndex:
@@ -275,7 +274,7 @@ proc fixNilType(c: PContext; n: PNode) =
elif n.kind in {nkStmtList, nkStmtListExpr}:
n.transitionSonsKind(nkStmtList)
for it in n: fixNilType(c, it)
n.typ() = nil
n.typ = nil
proc discardCheck(c: PContext, result: PNode, flags: TExprFlags) =
if c.matchedConcept != nil or efInTypeof in flags: return
@@ -292,7 +291,7 @@ proc discardCheck(c: PContext, result: PNode, flags: TExprFlags) =
else:
# Ignore noreturn procs since they don't have a type
var n = result
if result.endsInNoReturn(n, discardableCheck = true):
if result.endsInNoReturn(n):
return
var s = "expression '" & $n & "' is of type '" &
@@ -331,14 +330,14 @@ proc semIf(c: PContext, n: PNode; flags: TExprFlags; expectedType: PType = nil):
for it in n: discardCheck(c, it.lastSon, flags)
result.transitionSonsKind(nkIfStmt)
# propagate any enforced VoidContext:
if typ == c.enforceVoidContext: result.typ() = c.enforceVoidContext
if typ == c.enforceVoidContext: result.typ = c.enforceVoidContext
else:
for it in n:
let j = it.len-1
if not endsInNoReturn(it[j]):
it[j] = fitNode(c, typ, it[j], it[j].info)
result.transitionSonsKind(nkIfExpr)
result.typ() = typ
result.typ = typ
proc semTry(c: PContext, n: PNode; flags: TExprFlags; expectedType: PType = nil): PNode =
var check = initIntSet()
@@ -438,7 +437,7 @@ proc semTry(c: PContext, n: PNode; flags: TExprFlags; expectedType: PType = nil)
discardCheck(c, n[0], flags)
for i in 1..<n.len: discardCheck(c, n[i].lastSon, flags)
if typ == c.enforceVoidContext:
result.typ() = c.enforceVoidContext
result.typ = c.enforceVoidContext
else:
if n.lastSon.kind == nkFinally: discardCheck(c, n.lastSon.lastSon, flags)
if not endsInNoReturn(n[0]):
@@ -448,7 +447,7 @@ proc semTry(c: PContext, n: PNode; flags: TExprFlags; expectedType: PType = nil)
let j = it.len-1
if not endsInNoReturn(it[j]):
it[j] = fitNode(c, typ, it[j], it[j].info)
result.typ() = typ
result.typ = typ
proc fitRemoveHiddenConv(c: PContext, typ: PType, n: PNode): PNode =
result = fitNode(c, typ, n, n.info)
@@ -457,7 +456,7 @@ proc fitRemoveHiddenConv(c: PContext, typ: PType, n: PNode): PNode =
if r1.kind in {nkCharLit..nkUInt64Lit} and typ.skipTypes(abstractRange).kind in {tyFloat..tyFloat128}:
result = newFloatNode(nkFloatLit, BiggestFloat r1.intVal)
result.info = n.info
result.typ() = typ
result.typ = typ
if not floatRangeCheck(result.floatVal, typ):
localError(c.config, n.info, errFloatToString % [$result.floatVal, typeToString(typ)])
elif r1.kind == nkSym and typ.skipTypes(abstractRange).kind == tyCstring:
@@ -605,7 +604,7 @@ proc fillPartialObject(c: PContext; n: PNode; typ: PType) =
obj.n.add newSymNode(field)
n[0] = makeDeref x
n[1] = newSymNode(field)
n.typ() = field.typ
n.typ = field.typ
else:
localError(c.config, n.info, "implicit object field construction " &
"requires a .partial object, but got " & typeToString(obj))
@@ -622,15 +621,15 @@ proc setVarType(c: PContext; v: PSym, typ: PType) =
proc isPossibleMacroPragma(c: PContext, it: PNode, key: PNode): bool =
# make sure it's not a normal pragma, and calls an identifier
# considerQuotedIdent below will fail on non-identifiers
result = whichPragma(it) == wInvalid and key.kind in nkIdentKinds+{nkDotExpr}
result = whichPragma(it) == wInvalid and key.kind in nkIdentKinds
if result:
# make sure it's not a user pragma
if key.kind != nkDotExpr:
let ident = considerQuotedIdent(c, key)
result = strTableGet(c.userPragmas, ident) == nil
let ident = considerQuotedIdent(c, key)
result = strTableGet(c.userPragmas, ident) == nil
if result:
# make sure it's not a custom pragma
let sym = qualifiedLookUp(c, key, {})
var amb = false
let sym = searchInScopes(c, ident, amb)
result = sym == nil or sfCustomPragma notin sym.flags
proc copyExcept(n: PNode, i: int): PNode =
@@ -829,11 +828,6 @@ proc semVarOrLet(c: PContext, n: PNode, symkind: TSymKind): PNode =
var typFlags: TTypeAllowedFlags = {}
var def: PNode = c.graph.emptyNode
if typ != nil and typ.kind == tyRange and
c.graph.config.isDefined("nimPreviewRangeDefault") and
a[^1].kind == nkEmpty:
a[^1] = firstRange(c.config, typ)
if a[^1].kind != nkEmpty:
def = semExprWithType(c, a[^1], {efTypeAllowed}, typ)
@@ -908,7 +902,7 @@ proc semVarOrLet(c: PContext, n: PNode, symkind: TSymKind): PNode =
if sfGenSym notin v.flags:
if not isDiscardUnderscore(v): addInterfaceDecl(c, v)
else:
if v.owner == nil: setOwner(v, c.p.owner)
if v.owner == nil: v.owner = c.p.owner
when oKeepVariableNames:
if c.inUnrolledContext > 0: v.flags.incl(sfShadowed)
else:
@@ -948,7 +942,7 @@ proc semVarOrLet(c: PContext, n: PNode, symkind: TSymKind): PNode =
else:
checkNilable(c, v)
# allow let to not be initialised if imported from C:
if v.kind == skLet and sfImportc notin v.flags and (noStrictDefs in c.config.legacyFeatures or not isLocalSym(v)):
if v.kind == skLet and sfImportc notin v.flags and (strictDefs notin c.features or not isLocalSym(v)):
localError(c.config, a.info, errLetNeedsInit)
if sfCompileTime in v.flags:
var x = newNodeI(result.kind, v.info)
@@ -985,7 +979,6 @@ proc semConst(c: PContext, n: PNode): PNode =
var typFlags: TTypeAllowedFlags = {}
# don't evaluate here since the type compatibility check below may add a converter
openScope(c)
var def = semExprWithType(c, a[^1], {efTypeAllowed}, typ)
if def.kind == nkSym and def.sym.kind in {skTemplate, skMacro}:
@@ -1012,7 +1005,6 @@ proc semConst(c: PContext, n: PNode): PNode =
if c.matchedConcept != nil:
typFlags.incl taConcept
typeAllowedCheck(c, a.info, typ, skConst, typFlags)
closeScope(c)
if a.kind == nkVarTuple:
# generate new section from tuple unpacking and embed it into this one
@@ -1026,7 +1018,7 @@ proc semConst(c: PContext, n: PNode): PNode =
when defined(nimsuggest):
v.hasUserSpecifiedType = hasUserSpecifiedType
if sfGenSym notin v.flags: addInterfaceDecl(c, v)
elif v.owner == nil: setOwner(v, getCurrOwner(c))
elif v.owner == nil: v.owner = getCurrOwner(c)
styleCheckDef(c, v)
onDef(a[j].info, v)
@@ -1097,7 +1089,7 @@ proc semForVars(c: PContext, n: PNode; flags: TExprFlags): PNode =
v.typ = iter[i]
n[0][i] = newSymNode(v)
if sfGenSym notin v.flags and not isDiscardUnderscore(v): addDecl(c, v)
elif v.owner == nil: setOwner(v, getCurrOwner(c))
elif v.owner == nil: v.owner = getCurrOwner(c)
else:
var v = symForVar(c, n[0])
if getCurrOwner(c).kind == skModule: incl(v.flags, sfGlobal)
@@ -1107,7 +1099,7 @@ proc semForVars(c: PContext, n: PNode; flags: TExprFlags): PNode =
v.typ = iterBase
n[0] = newSymNode(v)
if sfGenSym notin v.flags and not isDiscardUnderscore(v): addDecl(c, v)
elif v.owner == nil: setOwner(v, getCurrOwner(c))
elif v.owner == nil: v.owner = getCurrOwner(c)
else:
localError(c.config, n.info, errWrongNumberOfVariables)
elif n.len-2 != iterAfterVarLent.len:
@@ -1141,7 +1133,7 @@ proc semForVars(c: PContext, n: PNode; flags: TExprFlags): PNode =
v.typ = iter[i][j]
n[i][j] = newSymNode(v)
if not isDiscardUnderscore(v): addDecl(c, v)
elif v.owner == nil: setOwner(v, getCurrOwner(c))
elif v.owner == nil: v.owner = getCurrOwner(c)
else:
var v = symForVar(c, n[i])
if getCurrOwner(c).kind == skModule: incl(v.flags, sfGlobal)
@@ -1156,7 +1148,7 @@ proc semForVars(c: PContext, n: PNode; flags: TExprFlags): PNode =
n[i] = newSymNode(v)
if sfGenSym notin v.flags:
if not isDiscardUnderscore(v): addDecl(c, v)
elif v.owner == nil: setOwner(v, getCurrOwner(c))
elif v.owner == nil: v.owner = getCurrOwner(c)
inc(c.p.nestedLoopCounter)
let oldBreakInLoop = c.p.breakInLoop
c.p.breakInLoop = true
@@ -1231,7 +1223,7 @@ proc handleCaseStmtMacro(c: PContext; n: PNode; flags: TExprFlags): PNode =
toResolve.add n[0]
var errors: CandidateErrors = @[]
var r = resolveOverloads(c, toResolve, toResolve, {skTemplate, skMacro}, {efNoUndeclared},
var r = resolveOverloads(c, toResolve, toResolve, {skTemplate, skMacro}, {efNoDiagnostics},
errors, false)
if r.state == csMatch:
var match = r.calleeSym
@@ -1245,6 +1237,8 @@ proc handleCaseStmtMacro(c: PContext; n: PNode; flags: TExprFlags): PNode =
of skMacro: result = semMacroExpr(c, toExpand, toExpand, match, flags)
of skTemplate: result = semTemplateExpr(c, toExpand, match, flags)
else: result = errorNode(c, n[0])
elif r.state == csNoMatch:
result = errorNode(c, n[0])
else:
result = errorNode(c, n[0])
if result.kind == nkEmpty:
@@ -1291,9 +1285,9 @@ proc semFor(c: PContext, n: PNode; flags: TExprFlags): PNode =
result = semForVars(c, n, flags)
# propagate any enforced VoidContext:
if n[^1].typ == c.enforceVoidContext:
result.typ() = c.enforceVoidContext
result.typ = c.enforceVoidContext
elif efInTypeof in flags:
result.typ() = result.lastSon.typ
result.typ = result.lastSon.typ
closeScope(c)
proc semCase(c: PContext, n: PNode; flags: TExprFlags; expectedType: PType = nil): PNode =
@@ -1373,14 +1367,14 @@ proc semCase(c: PContext, n: PNode; flags: TExprFlags; expectedType: PType = nil
for i in 1..<n.len: discardCheck(c, n[i].lastSon, flags)
# propagate any enforced VoidContext:
if typ == c.enforceVoidContext:
result.typ() = c.enforceVoidContext
result.typ = c.enforceVoidContext
else:
for i in 1..<n.len:
var it = n[i]
let j = it.len-1
if not endsInNoReturn(it[j]):
it[j] = fitNode(c, typ, it[j], it[j].info)
result.typ() = typ
result.typ = typ
proc semRaise(c: PContext, n: PNode): PNode =
result = n
@@ -1475,7 +1469,7 @@ proc typeDefLeftSidePass(c: PContext, typeSection: PNode, i: int) =
s = typsym
# add it here, so that recursive types are possible:
if sfGenSym notin s.flags: addInterfaceDecl(c, s)
elif s.owner == nil: setOwner(s, getCurrOwner(c))
elif s.owner == nil: s.owner = getCurrOwner(c)
if name.kind == nkPragmaExpr:
if name[0].kind == nkPostfix:
@@ -1790,6 +1784,10 @@ proc typeSectionFinalPass(c: PContext, n: PNode) =
checkForMetaFields(c, baseType.n, hasError)
if not hasError:
checkConstructedType(c.config, s.info, s.typ)
# fix bug #5170, bug #17162, bug #15526: ensure locally scoped types get a unique name:
if s.typ.kind in {tyEnum, tyRef, tyObject} and not isTopLevel(c):
incl(s.flags, sfGenSym)
#instAllTypeBoundOp(c, n.info)
@@ -1969,13 +1967,13 @@ proc semProcAnnotation(c: PContext, prc: PNode;
return result
proc semInferredLambda(c: PContext, pt: LayeredIdTable, n: PNode): PNode =
proc semInferredLambda(c: PContext, pt: TypeMapping, n: PNode): PNode =
## used for resolving 'auto' in lambdas based on their callsite
var n = n
let original = n[namePos].sym
let s = original #copySym(original, false)
#incl(s.flags, sfFromGeneric)
#s.owner() = original
#s.owner = original
n = replaceTypesInBody(c, pt, n, original)
result = n
@@ -1990,7 +1988,7 @@ proc semInferredLambda(c: PContext, pt: LayeredIdTable, n: PNode): PNode =
tyFromExpr}+tyTypeClasses:
localError(c.config, params[i].info, "cannot infer type of parameter: " &
params[i].sym.name.s)
#params[i].sym.owner() = s
#params[i].sym.owner = s
openScope(c)
pushOwner(c, s)
addParams(c, params, skProc)
@@ -2002,7 +2000,7 @@ proc semInferredLambda(c: PContext, pt: LayeredIdTable, n: PNode): PNode =
popOwner(c)
closeScope(c)
if optOwnedRefs in c.config.globalOptions and result.typ != nil:
result.typ() = makeVarType(c, result.typ, tyOwned)
result.typ = makeVarType(c, result.typ, tyOwned)
# alternative variant (not quite working):
# var prc = arg[0].sym
# let inferred = c.semGenerateInstance(c, prc, m.bindings, arg.info)
@@ -2035,27 +2033,14 @@ proc canonType(c: PContext, t: PType): PType =
else:
result = t
proc prevDestructor(c: PContext; op: TTypeAttachedOp; prevOp: PSym; obj: PType; info: TLineInfo) =
var msg = "cannot bind another '" & AttachedOpToStr[op] & "' to: " & typeToString(obj)
if prevOp == nil:
# happens if the destructor was implicitly constructed for a specific instance,
# not the entire generic type
msg.add "; previous declaration was constructed implicitly"
elif sfOverridden notin prevOp.flags:
proc prevDestructor(c: PContext; prevOp: PSym; obj: PType; info: TLineInfo) =
var msg = "cannot bind another '" & prevOp.name.s & "' to: " & typeToString(obj)
if sfOverridden notin prevOp.flags:
msg.add "; previous declaration was constructed here implicitly: " & (c.config $ prevOp.info)
else:
msg.add "; previous declaration was here: " & (c.config $ prevOp.info)
localError(c.config, info, errGenerated, msg)
proc checkedForDestructor(t: PType): bool =
if tfCheckedForDestructor in t.flags:
return true
# maybe another instance was instantiated, marking the generic root:
let root = genericRoot(t)
if root != nil and tfGenericHasDestructor in root.flags:
return true
result = false
proc whereToBindTypeHook(c: PContext; t: PType): PType =
result = t
while true:
@@ -2089,10 +2074,10 @@ proc bindDupHook(c: PContext; s: PSym; n: PNode; op: TTypeAttachedOp) =
let ao = getAttachedOp(c.graph, obj, op)
if ao == s:
discard "forward declared destructor"
elif ao.isNil and not checkedForDestructor(obj):
elif ao.isNil and tfCheckedForDestructor notin obj.flags:
setAttachedOp(c.graph, c.module.position, obj, op, s)
else:
prevDestructor(c, op, ao, obj, n.info)
prevDestructor(c, ao, obj, n.info)
noError = true
if obj.owner.getModule != s.getModule:
localError(c.config, n.info, errGenerated,
@@ -2105,7 +2090,7 @@ proc bindDupHook(c: PContext; s: PSym; n: PNode; op: TTypeAttachedOp) =
incl(s.flags, sfUsed)
incl(s.flags, sfOverridden)
proc bindTypeHook(c: PContext; s: PSym; n: PNode; op: TTypeAttachedOp) =
proc bindTypeHook(c: PContext; s: PSym; n: PNode; op: TTypeAttachedOp; suppressVarDestructorWarning = false) =
let t = s.typ
var noError = false
let cond = case op
@@ -2129,17 +2114,17 @@ proc bindTypeHook(c: PContext; s: PSym; n: PNode; op: TTypeAttachedOp) =
elif obj.kind == tyGenericInvocation: obj = obj.genericHead
else: break
if obj.kind in {tyObject, tyDistinct, tySequence, tyString}:
if op == attachedDestructor and t.firstParamType.kind == tyVar and
if (not suppressVarDestructorWarning) and op == attachedDestructor and t.firstParamType.kind == tyVar and
c.config.selectedGC in {gcArc, gcAtomicArc, gcOrc}:
message(c.config, n.info, warnDeprecated, "A custom '=destroy' hook which takes a 'var T' parameter is deprecated; it should take a 'T' parameter")
obj = canonType(c, obj)
let ao = getAttachedOp(c.graph, obj, op)
if ao == s:
discard "forward declared destructor"
elif ao.isNil and not checkedForDestructor(obj):
elif ao.isNil and tfCheckedForDestructor notin obj.flags:
setAttachedOp(c.graph, c.module.position, obj, op, s)
else:
prevDestructor(c, op, ao, obj, n.info)
prevDestructor(c, ao, obj, n.info)
noError = true
if obj.owner.getModule != s.getModule:
localError(c.config, n.info, errGenerated,
@@ -2230,10 +2215,10 @@ proc semOverride(c: PContext, s: PSym, n: PNode) =
let ao = getAttachedOp(c.graph, obj, k)
if ao == s:
discard "forward declared op"
elif ao.isNil and not checkedForDestructor(obj):
elif ao.isNil and tfCheckedForDestructor notin obj.flags:
setAttachedOp(c.graph, c.module.position, obj, k, s)
else:
prevDestructor(c, k, ao, obj, n.info)
prevDestructor(c, ao, obj, n.info)
if obj.owner.getModule != s.getModule:
localError(c.config, n.info, errGenerated,
"type bound operation `" & name & "` can be defined only in the same module with its type (" & obj.typeToString() & ")")
@@ -2372,11 +2357,10 @@ proc semProcAux(c: PContext, n: PNode, kind: TSymKind,
of nkEmpty:
s = newSym(kind, c.cache.idAnon, c.idgen, c.getCurrOwner, n.info)
s.flags.incl sfUsed
s.flags.incl sfGenSym
n[namePos] = newSymNode(s)
of nkSym:
s = n[namePos].sym
setOwner(s, c.getCurrOwner)
s.owner = c.getCurrOwner
else:
# Highlighting needs to be done early so the position for
# name isn't changed (see taccent_highlight). We don't want to check if this is the
@@ -2622,9 +2606,9 @@ proc semProcAux(c: PContext, n: PNode, kind: TSymKind,
c.patterns.add(s)
if isAnon:
n.transitionSonsKind(nkLambda)
result.typ() = s.typ
result.typ = s.typ
if optOwnedRefs in c.config.globalOptions:
result.typ() = makeVarType(c, result.typ, tyOwned)
result.typ = makeVarType(c, result.typ, tyOwned)
elif isTopLevel(c) and s.kind != skIterator and s.typ.callConv == ccClosure:
localError(c.config, s.info, "'.closure' calling convention for top level routines is invalid")
@@ -2643,7 +2627,7 @@ proc semIterator(c: PContext, n: PNode): PNode =
# gensym'ed iterator?
if n[namePos].kind == nkSym:
# gensym'ed iterators might need to become closure iterators:
setOwner(n[namePos].sym, getCurrOwner(c))
n[namePos].sym.owner = getCurrOwner(c)
n[namePos].sym.transitionRoutineSymKind(skIterator)
result = semProcAux(c, n, skIterator, iteratorPragmas)
# bug #7093: if after a macro transformation we don't have an
@@ -2661,10 +2645,10 @@ proc semIterator(c: PContext, n: PNode): PNode =
incl(s.typ.flags, tfCapturesEnv)
else:
s.typ.callConv = ccInline
if result[bodyPos].kind == nkEmpty and s.magic == mNone and c.inConceptDecl == 0:
if n[bodyPos].kind == nkEmpty and s.magic == mNone and c.inConceptDecl == 0:
localError(c.config, n.info, errImplOfXexpected % s.name.s)
if optOwnedRefs in c.config.globalOptions and result.typ != nil:
result.typ() = makeVarType(c, result.typ, tyOwned)
result.typ = makeVarType(c, result.typ, tyOwned)
result.typ.callConv = ccClosure
proc semProc(c: PContext, n: PNode): PNode =
@@ -2749,23 +2733,20 @@ proc incMod(c: PContext, n: PNode, it: PNode, includeStmtResult: PNode) =
proc evalInclude(c: PContext, n: PNode): PNode =
result = newNodeI(nkStmtList, n.info)
result.add n
template checkAs(it: PNode) =
if it.kind == nkInfix and it.len == 3:
let op = it[0].getPIdent
if op != nil and op.id == ord(wAs):
localError(c.config, it.info, "Cannot use '" & it[0].renderTree & "' in 'include'.")
for i in 0..<n.len:
var imp: PNode
let it = n[i]
checkAs(it)
if it.kind in {nkInfix, nkPrefix} and it[^1].kind == nkBracket:
let lastPos = it.len - 1
var imp = copyNode(it)
newSons(imp, it.len)
for i in 0 ..< lastPos: imp[i] = it[i]
imp[lastPos] = imp[0] # dummy entry, replaced in the loop
for x in it[lastPos]:
checkAs(x)
imp[lastPos] = x
if it.kind == nkInfix and it.len == 3 and it[0].ident.s != "/":
localError(c.config, it.info, "Cannot use '" & it[0].ident.s & "' in 'include'.")
if it.kind == nkInfix and it.len == 3 and it[2].kind == nkBracket:
let sep = it[0]
let dir = it[1]
imp = newNodeI(nkInfix, it.info)
imp.add sep
imp.add dir
imp.add sep # dummy entry, replaced in the loop
for x in it[2]:
imp[2] = x
incMod(c, n, imp, result)
else:
incMod(c, n, it, result)
@@ -2795,7 +2776,7 @@ proc semPragmaBlock(c: PContext, n: PNode; expectedType: PType = nil): PNode =
n[1] = semExpr(c, n[1], expectedType = expectedType)
dec c.inUncheckedAssignSection, inUncheckedAssignSection
result = n
result.typ() = n[1].typ
result.typ = n[1].typ
for i in 0..<pragmaList.len:
case whichPragma(pragmaList[i])
of wLine: setInfoRecursive(result, pragmaList[i].info)
@@ -2876,18 +2857,18 @@ proc semStmtList(c: PContext, n: PNode, flags: TExprFlags, expectedType: PType =
let verdict = semConstExpr(c, n[i])
if verdict == nil or verdict.kind != nkIntLit or verdict.intVal == 0:
localError(c.config, result.info, "concept predicate failed")
of tyFromExpr: continue
of tyUnknown: continue
else: discard
if n[i].typ == c.enforceVoidContext: #or usesResult(n[i]):
voidContext = true
n.typ() = c.enforceVoidContext
n.typ = c.enforceVoidContext
if i == last and (n.len == 1 or ({efWantValue, efInTypeof} * flags != {})):
n.typ() = n[i].typ
n.typ = n[i].typ
if not isEmptyType(n.typ): n.transitionSonsKind(nkStmtListExpr)
elif i != last or voidContext:
discardCheck(c, n[i], flags)
else:
n.typ() = n[i].typ
n.typ = n[i].typ
if not isEmptyType(n.typ): n.transitionSonsKind(nkStmtListExpr)
var m = n[i]
while m.kind in {nkStmtListExpr, nkStmtList} and m.len > 0: # from templates

View File

@@ -218,98 +218,63 @@ proc addLocalDecl(c: var TemplCtx, n: var PNode, k: TSymKind) =
if k == skParam and c.inTemplateHeader > 0:
local.flags.incl sfTemplateParam
proc semTemplSymbol(c: var TemplCtx, n: PNode, s: PSym; isField, isAmbiguous: bool): PNode =
proc semTemplSymbol(c: PContext, n: PNode, s: PSym; isField: bool): PNode =
incl(s.flags, sfUsed)
# bug #12885; ideally sem'checking is performed again afterwards marking
# the symbol as used properly, but the nfSem mechanism currently prevents
# that from happening, so we mark the module as used here already:
markOwnerModuleAsUsed(c.c, s)
markOwnerModuleAsUsed(c, s)
# we do not call onUse here, as the identifier is not really
# resolved here. We will fixup the used identifiers later.
case s.kind
of skUnknown:
# Introduced in this pass! Leave it as an identifier.
result = n
of OverloadableSyms:
result = symChoice(c.c, n, s, scOpen, isField)
if not isField and result.kind in {nkSym, nkOpenSymChoice}:
if openSym in c.c.features:
if result.kind == nkSym:
result = newOpenSym(result)
else:
result.typ() = nil
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
of OverloadableSyms-{skTemplate,skMacro}:
result = symChoice(c, n, s, scOpen, isField)
of skTemplate, skMacro:
result = symChoice(c, n, s, scOpen, isField)
if result.kind == nkSym:
# template/macro symbols might need to be semchecked again
# prepareOperand etc don't do this without setting the type to nil
result.typ = nil
of skGenericParam:
if isField and sfGenSym in s.flags: result = n
else:
result = newSymNodeTypeDesc(s, c.c.idgen, n.info)
if not isField and s.owner != c.owner:
if openSym in c.c.features:
result = newOpenSym(result)
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
else: result = newSymNodeTypeDesc(s, c.idgen, n.info)
of skParam:
result = n
of skType:
if isField and sfGenSym in s.flags: result = n
else:
if isAmbiguous:
# ambiguous types should be symchoices since lookup behaves
# differently for them in regular expressions
result = symChoice(c.c, n, s, scOpen, isField)
else: result = newSymNodeTypeDesc(s, c.c.idgen, n.info)
if not isField and not (s.owner == c.owner and
s.typ != nil and s.typ.kind == tyGenericParam) and
result.kind in {nkSym, nkOpenSymChoice}:
if openSym in c.c.features:
if result.kind == nkSym:
result = newOpenSym(result)
else:
result.typ() = nil
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
else: result = newSymNodeTypeDesc(s, c.idgen, n.info)
else:
if isField and sfGenSym in s.flags: result = n
else:
result = newSymNode(s, n.info)
if not isField:
if openSym in c.c.features:
result = newOpenSym(result)
else:
result.flags.incl nfDisabledOpenSym
result.typ() = nil
else: result = newSymNode(s, n.info)
# Issue #12832
when defined(nimsuggest):
suggestSym(c.c.graph, n.info, s, c.c.graph.usageSym, false)
suggestSym(c.graph, n.info, s, c.graph.usageSym, false)
# field access (dot expr) will be handled by builtinFieldAccess
if not isField:
styleCheckUse(c.c, n.info, s)
styleCheckUse(c, n.info, s)
proc semRoutineInTemplName(c: var TemplCtx, n: PNode, explicitInject: bool): PNode =
proc semRoutineInTemplName(c: var TemplCtx, n: PNode): PNode =
result = n
if n.kind == nkIdent:
let s = qualifiedLookUp(c.c, n, {})
if s != nil:
if s.owner == c.owner and (s.kind == skParam or
(sfGenSym in s.flags and not explicitInject)):
if s.owner == c.owner and s.kind == skParam:
incl(s.flags, sfUsed)
result = newSymNode(s, n.info)
onUse(n.info, s)
else:
for i in 0..<n.safeLen:
result[i] = semRoutineInTemplName(c, n[i], explicitInject)
result[i] = semRoutineInTemplName(c, n[i])
proc semRoutineInTemplBody(c: var TemplCtx, n: PNode, k: TSymKind): PNode =
result = n
checkSonsLen(n, bodyPos + 1, c.c.config)
if n.kind notin nkLambdaKinds:
# routines default to 'inject':
let binding = symBinding(n[pragmasPos])
if binding == spGenSym:
if symBinding(n[pragmasPos]) == spGenSym:
let (ident, hasParam) = getIdentReplaceParams(c, n[namePos])
if not hasParam:
var s = newGenSym(k, ident, c)
@@ -321,7 +286,7 @@ proc semRoutineInTemplBody(c: var TemplCtx, n: PNode, k: TSymKind): PNode =
else:
n[namePos] = ident
else:
n[namePos] = semRoutineInTemplName(c, n[namePos], binding == spInject)
n[namePos] = semRoutineInTemplName(c, n[namePos])
# open scope for parameters
openScope(c)
for i in patternPos..paramsPos-1:
@@ -378,7 +343,6 @@ proc semTemplBody(c: var TemplCtx, n: PNode): PNode =
case n.kind
of nkIdent:
if n.ident.id in c.toInject: return n
c.c.isAmbiguous = false
let s = qualifiedLookUp(c.c, n, {})
if s != nil:
if s.owner == c.owner and s.kind == skParam and sfTemplateParam in s.flags:
@@ -396,9 +360,9 @@ proc semTemplBody(c: var TemplCtx, n: PNode): PNode =
result = newSymNode(s, n.info)
onUse(n.info, s)
else:
if s.kind in {skVar, skLet, skConst}:
if s.kind in {skType, skVar, skLet, skConst}:
discard qualifiedLookUp(c.c, n, {checkAmbiguity, checkModule})
result = semTemplSymbol(c, n, s, c.noGenSym > 0, c.c.isAmbiguous)
result = semTemplSymbol(c.c, n, s, c.noGenSym > 0)
of nkBind:
result = semTemplBody(c, n[0])
of nkBindStmt:
@@ -535,20 +499,13 @@ proc semTemplBody(c: var TemplCtx, n: PNode): PNode =
of nkConverterDef:
result = semRoutineInTemplBody(c, n, skConverter)
of nkPragmaExpr:
result = semTemplBodySons(c, n)
result[0] = semTemplBody(c, n[0])
of nkPostfix:
result[1] = semTemplBody(c, n[1])
of nkPragma:
for i in 0 ..< n.len:
let x = n[i]
let prag = whichPragma(x)
if prag == wInvalid:
# only sem if not a language-level pragma
result[i] = semTemplBody(c, x)
elif x.kind in nkPragmaCallKinds:
# is pragma, but value still needs to be checked
for j in 1 ..< x.len:
x[j] = semTemplBody(c, x[j])
for x in n:
if x.kind == nkExprColonExpr:
x[1] = semTemplBody(c, x[1])
of nkBracketExpr:
if n.typ == nil:
# if a[b] is nested inside a typed expression, don't convert it
@@ -599,7 +556,6 @@ proc semTemplBody(c: var TemplCtx, n: PNode): PNode =
of nkDotExpr, nkAccQuoted:
# dotExpr is ambiguous: note that we explicitly allow 'x.TemplateParam',
# so we use the generic code for nkDotExpr too
c.c.isAmbiguous = false
let s = qualifiedLookUp(c.c, n, {})
if s != nil:
# mirror the nkIdent case
@@ -614,9 +570,9 @@ proc semTemplBody(c: var TemplCtx, n: PNode): PNode =
elif contains(c.toMixin, s.name.id):
return symChoice(c.c, n, s, scForceOpen, c.noGenSym > 0)
else:
if s.kind in {skVar, skLet, skConst}:
if s.kind in {skType, skVar, skLet, skConst}:
discard qualifiedLookUp(c.c, n, {checkAmbiguity, checkModule})
return semTemplSymbol(c, n, s, c.noGenSym > 0, c.c.isAmbiguous)
return semTemplSymbol(c.c, n, s, c.noGenSym > 0)
if n.kind == nkDotExpr:
result = n
result[0] = semTemplBody(c, n[0])
@@ -700,7 +656,6 @@ proc semTemplateDef(c: PContext, n: PNode): PNode =
pushOwner(c, s)
openScope(c)
n[namePos] = newSymNode(s)
s.ast = n # for implicitPragmas to use
pragmaCallable(c, s, n, templatePragmas)
implicitPragmas(c, s, n.info, templatePragmas)
@@ -751,17 +706,6 @@ proc semTemplateDef(c: PContext, n: PNode): PNode =
c: c,
owner: s
)
# handle default params:
for i in 1..<s.typ.n.len:
let param = s.typ.n[i].sym
if param.ast != nil:
# param default values need to be treated like template body:
if sfDirty in s.flags:
param.ast = semTemplBodyDirty(ctx, param.ast)
else:
param.ast = semTemplBody(ctx, param.ast)
if param.ast.referencesAnotherParam(s):
param.ast.flags.incl nfDefaultRefsParam
if sfDirty in s.flags:
n[bodyPos] = semTemplBodyDirty(ctx, n[bodyPos])
else:
@@ -771,6 +715,11 @@ proc semTemplateDef(c: PContext, n: PNode): PNode =
closeScope(c)
popOwner(c)
# set the symbol AST after pragmas, at least. This stops pragma that have
# been pushed (implicit) to be explicitly added to the template definition
# and misapplied to the body. see #18113
s.ast = n
if sfCustomPragma in s.flags:
if n[bodyPos].kind != nkEmpty:
localError(c.config, n[bodyPos].info, errImplOfXNotAllowed % s.name.s)

View File

@@ -84,7 +84,6 @@ proc semEnum(c: PContext, n: PNode, prev: PType): PType =
let isPure = result.sym != nil and sfPure in result.sym.flags
var symbols: TStrTable = initStrTable()
var hasNull = false
var needsReorder = false
for i in 1..<n.len:
if n[i].kind == nkEmpty: continue
var useAutoCounter = false
@@ -123,9 +122,7 @@ proc semEnum(c: PContext, n: PNode, prev: PType): PType =
else:
localError(c.config, v.info, errOrdinalTypeExpected % typeToString(v.typ, preferDesc))
if i != 1:
if x != counter:
needsReorder = true
incl(result.flags, tfEnumHasHoles)
if x != counter: incl(result.flags, tfEnumHasHoles)
e.ast = strVal # might be nil
counter = x
of nkSym:
@@ -176,13 +173,6 @@ proc semEnum(c: PContext, n: PNode, prev: PType): PType =
localError(c.config, n[i].info, errOverflowInEnumX % [e.name.s, $high(typeof(counter))])
else:
inc(counter)
if needsReorder:
result.n.sons.sort(
proc (x, y: PNode): int =
result = cmp(x.sym.position, y.sym.position)
)
if isPure and sfExported in result.sym.flags:
addPureEnum(c, LazySym(sym: result.sym))
if tfNotNil in e.typ.flags and not hasNull:
@@ -257,39 +247,27 @@ proc isRecursiveType(t: PType, cycleDetector: var IntSet): bool =
else:
return false
proc annotateClosureConv(n: PNode) =
case n.kind
of {nkNone..nkNilLit}:
discard
of nkTupleConstr:
if n.typ.kind == tyProc and n.typ.callConv == ccClosure and
n[0].typ.kind == tyProc and n[0].typ.callConv != ccClosure:
# restores `transf.generateThunk`
n[0] = newTreeIT(nkHiddenSubConv, n[0].info, n.typ,
newNodeI(nkEmpty, n[0].info), n[0])
n.transitionSonsKind(nkClosure)
n.flags.incl nfTransf
else:
for i in 0..<n.len:
annotateClosureConv(n[i])
proc fitDefaultNode(c: PContext, n: var PNode, expectedType: PType) =
proc fitDefaultNode(c: PContext, n: PNode): PType =
inc c.inStaticContext
n = semConstExpr(c, n, expectedType = expectedType)
let oldType = n.typ
n.flags.incl nfSem
if expectedType != nil and oldType != expectedType:
n = fitNodeConsiderViewType(c, expectedType, n, n.info)
changeType(c, n, expectedType, true) # infer types for default fields value
# bug #22926; be cautious that it uses `semConstExpr` to
# evaulate the default fields; it's only natural to use
# `changeType` to infer types for constant values
# that's also the reason why we don't use `semExpr` to check
# the type since two overlapping error messages might be produced
annotateClosureConv(n)
let expectedType = if n[^2].kind != nkEmpty: semTypeNode(c, n[^2], nil) else: nil
n[^1] = semConstExpr(c, n[^1], expectedType = expectedType)
let oldType = n[^1].typ
n[^1].flags.incl nfSem
if n[^2].kind != nkEmpty:
if expectedType != nil and oldType != expectedType:
n[^1] = fitNodeConsiderViewType(c, expectedType, n[^1], n[^1].info)
changeType(c, n[^1], expectedType, true) # infer types for default fields value
# bug #22926; be cautious that it uses `semConstExpr` to
# evaulate the default fields; it's only natural to use
# `changeType` to infer types for constant values
# that's also the reason why we don't use `semExpr` to check
# the type since two overlapping error messages might be produced
result = n[^1].typ
else:
result = n[^1].typ
# xxx any troubles related to defaults fields, consult `semConst` for a potential answer
if n.kind != nkNilLit:
typeAllowedCheck(c, n.info, n.typ, skConst, {taProcContextIsNotMacro, taIsDefaultField})
if n[^1].kind != nkNilLit:
typeAllowedCheck(c, n.info, result, skConst, {taProcContextIsNotMacro, taIsDefaultField})
dec c.inStaticContext
proc isRecursiveType*(t: PType): bool =
@@ -497,13 +475,6 @@ proc semAnonTuple(c: PContext, n: PNode, prev: PType): PType =
let t = semTypeNode(c, it, nil)
addSonSkipIntLitChecked(c, result, t, it, c.idgen)
proc firstRange(config: ConfigRef, t: PType): PNode =
if t.skipModifier().kind in tyFloat..tyFloat64:
result = newFloatNode(nkFloatLit, firstFloat(t))
else:
result = newIntNode(nkIntLit, firstOrd(config, t))
result.typ() = t
proc semTuple(c: PContext, n: PNode, prev: PType): PType =
var typ: PType
result = newOrPrevType(tyTuple, prev, c)
@@ -516,18 +487,12 @@ proc semTuple(c: PContext, n: PNode, prev: PType): PType =
checkMinSonsLen(a, 3, c.config)
var hasDefaultField = a[^1].kind != nkEmpty
if hasDefaultField:
typ = if a[^2].kind != nkEmpty: semTypeNode(c, a[^2], nil) else: nil
if c.inGenericContext > 0:
a[^1] = semExprWithType(c, a[^1], {efDetermineType, efAllowSymChoice}, typ)
if typ == nil:
typ = a[^1].typ
else:
fitDefaultNode(c, a[^1], typ)
typ = a[^1].typ
typ = fitDefaultNode(c, a)
elif a[^2].kind != nkEmpty:
typ = semTypeNode(c, a[^2], nil)
if c.graph.config.isDefined("nimPreviewRangeDefault") and typ.skipTypes(abstractInst).kind == tyRange:
a[^1] = firstRange(c.config, typ)
a[^1] = newIntNode(nkIntLit, firstOrd(c.config, typ))
a[^1].typ = typ
hasDefaultField = true
else:
localError(c.config, a.info, errTypeExpected)
@@ -615,14 +580,9 @@ proc semBranchRange(c: PContext, n, a, b: PNode, covered: var Int128): PNode =
let bc = semConstExpr(c, b)
if ac.kind in {nkStrLit..nkTripleStrLit} or bc.kind in {nkStrLit..nkTripleStrLit}:
localError(c.config, b.info, "range of string is invalid")
var at = fitNode(c, n[0].typ, ac, ac.info).skipConvTakeType
var bt = fitNode(c, n[0].typ, bc, bc.info).skipConvTakeType
# the calls to fitNode may introduce calls to converters
# mirrored with semCaseBranch for single elements
if at.kind in {nkHiddenCallConv, nkHiddenStdConv, nkHiddenSubConv}:
at = semConstExpr(c, at)
if bt.kind in {nkHiddenCallConv, nkHiddenStdConv, nkHiddenSubConv}:
bt = semConstExpr(c, bt)
let at = fitNode(c, n[0].typ, ac, ac.info).skipConvTakeType
let bt = fitNode(c, n[0].typ, bc, bc.info).skipConvTakeType
result = newNodeI(nkRange, a.info)
result.add(at)
result.add(bt)
@@ -653,8 +613,6 @@ proc semCaseBranch(c: PContext, n, branch: PNode, branchIndex: int,
var b = branch[i]
if b.kind == nkRange:
branch[i] = b
# same check as in semBranchRange for exhaustiveness
covered = covered + getOrdValue(b[1]) + 1 - getOrdValue(b[0])
elif isRange(b):
branch[i] = semCaseBranchRange(c, n, b, covered)
else:
@@ -670,8 +628,8 @@ proc semCaseBranch(c: PContext, n, branch: PNode, branchIndex: int,
checkMinSonsLen(n, 1, c.config)
var tmp = fitNode(c, n[0].typ, r, r.info)
# the call to fitNode may introduce a call to a converter
# mirrored with semBranchRange
if tmp.kind in {nkHiddenCallConv, nkHiddenStdConv, nkHiddenSubConv}:
if tmp.kind == nkHiddenCallConv or
(tmp.kind == nkHiddenStdConv and n[0].typ.kind == tyCstring):
tmp = semConstExpr(c, tmp)
branch[i] = skipConv(tmp)
inc(covered)
@@ -825,7 +783,6 @@ proc semRecordNodeAux(c: PContext, n: PNode, check: var IntSet, pos: var int,
of nkRecWhen:
var a = copyTree(n)
var branch: PNode = nil # the branch to take
var cannotResolve = false # no branch should be taken
for i in 0..<a.len:
var it = a[i]
if it == nil: illFormedAst(n, c.config)
@@ -843,30 +800,24 @@ proc semRecordNodeAux(c: PContext, n: PNode, check: var IntSet, pos: var int,
let e = semExprWithType(c, it[0], {efDetermineType})
if e.typ.kind == tyFromExpr:
it[0] = makeStaticExpr(c, e)
cannotResolve = true
else:
it[0] = forceBool(c, e)
let val = getConstExpr(c.module, it[0], c.idgen, c.graph)
if val == nil or val.kind != nkIntLit:
cannotResolve = true
elif not cannotResolve and val.intVal != 0 and branch == nil:
branch = it[1]
of nkElse:
checkSonsLen(it, 1, c.config)
if branch == nil and not cannotResolve: branch = it[0]
if branch == nil: branch = it[0]
idx = 0
else: illFormedAst(n, c.config)
if c.inGenericContext > 0 and cannotResolve:
if c.inGenericContext > 0:
# use a new check intset here for each branch:
var newCheck: IntSet = check
var newPos = pos
var newf = newNodeI(nkRecList, n.info)
semRecordNodeAux(c, it[idx], newCheck, newPos, newf, rectype, hasCaseFields)
it[idx] = if newf.len == 1: newf[0] else: newf
if branch != nil:
semRecordNodeAux(c, branch, check, pos, father, rectype, hasCaseFields)
elif cannotResolve:
if c.inGenericContext > 0:
father.add a
elif branch != nil:
semRecordNodeAux(c, branch, check, pos, father, rectype, hasCaseFields)
elif father.kind in {nkElse, nkOfBranch}:
father.add newNodeI(nkRecList, n.info)
of nkRecCase:
@@ -887,22 +838,16 @@ proc semRecordNodeAux(c: PContext, n: PNode, check: var IntSet, pos: var int,
var typ: PType
var hasDefaultField = n[^1].kind != nkEmpty
if hasDefaultField:
typ = if n[^2].kind != nkEmpty: semTypeNode(c, n[^2], nil) else: nil
if c.inGenericContext > 0:
n[^1] = semExprWithType(c, n[^1], {efDetermineType, efAllowSymChoice}, typ)
if typ == nil:
typ = n[^1].typ
else:
fitDefaultNode(c, n[^1], typ)
typ = n[^1].typ
propagateToOwner(rectype, typ)
typ = fitDefaultNode(c, n)
propagateToOwner(rectype, typ)
elif n[^2].kind == nkEmpty:
localError(c.config, n.info, errTypeExpected)
typ = errorType(c)
else:
typ = semTypeNode(c, n[^2], nil)
if c.graph.config.isDefined("nimPreviewRangeDefault") and typ.skipTypes(abstractInst).kind == tyRange:
n[^1] = firstRange(c.config, typ)
n[^1] = newIntNode(nkIntLit, firstOrd(c.config, typ))
n[^1].typ = typ
hasDefaultField = true
propagateToOwner(rectype, typ)
var fieldOwner = if c.inGenericContext > 0: c.getCurrOwner
@@ -919,8 +864,8 @@ proc semRecordNodeAux(c: PContext, n: PNode, check: var IntSet, pos: var int,
f.options = c.config.options
if fieldOwner != nil and
{sfImportc, sfExportc} * fieldOwner.flags != {} and
not hasCaseFields and f.loc.snippet == "":
f.loc.snippet = rope(f.name.s)
not hasCaseFields and f.loc.r == "":
f.loc.r = rope(f.name.s)
f.flags.incl {sfImportc, sfExportc} * fieldOwner.flags
inc(pos)
if containsOrIncl(check, f.name.id):
@@ -1132,7 +1077,7 @@ proc addParamOrResult(c: PContext, param: PSym, kind: TSymKind) =
if sfGenSym in param.flags:
# bug #XXX, fix the gensym'ed parameters owner:
if param.owner == nil:
setOwner(param, getCurrOwner(c))
param.owner = getCurrOwner(c)
else: addDecl(c, param)
template shouldHaveMeta(t) =
@@ -1221,11 +1166,11 @@ proc liftParamType(c: PContext, procKind: TSymKind, genericParams: PNode,
paramType[i] = t
result = paramType
of tyAlias, tyOwned:
of tyAlias, tyOwned, tySink:
result = recurse(paramType.base)
of tySequence, tySet, tyArray, tyOpenArray,
tyVar, tyLent, tyPtr, tyRef, tyProc, tySink:
tyVar, tyLent, tyPtr, tyRef, tyProc:
# XXX: this is a bit strange, but proc(s: seq)
# produces tySequence(tyGenericParam, tyNone).
# This also seems to be true when creating aliases
@@ -1332,7 +1277,7 @@ proc semParamType(c: PContext, n: PNode, constraint: var PNode): PType =
result = semTypeNode(c, n[0], nil)
constraint = semNodeKindConstraints(n, c.config, 1)
elif n.kind == nkCall and
n[0].kind in {nkIdent, nkSym, nkOpenSymChoice, nkClosedSymChoice, nkOpenSym} and
n[0].kind in {nkIdent, nkSym, nkOpenSymChoice, nkClosedSymChoice} and
considerQuotedIdent(c, n[0]).s == "{}":
result = semTypeNode(c, n[1], nil)
constraint = semNodeKindConstraints(n, c.config, 2)
@@ -1362,9 +1307,6 @@ proc semProcTypeNode(c: PContext, n, genericParams: PNode,
result = newProcType(c, n.info, prev)
var check = initIntSet()
var counter = 0
template isCurrentlyGeneric: bool =
# genericParams might update as implicit generic params are added
genericParams != nil and genericParams.len > 0
for i in 1..<n.len:
var a = n[i]
@@ -1385,10 +1327,7 @@ proc semProcTypeNode(c: PContext, n, genericParams: PNode,
hasDefault = a[^1].kind != nkEmpty
if hasType:
let isGeneric = isCurrentlyGeneric()
inc c.inGenericContext, ord(isGeneric)
typ = semParamType(c, a[^2], constraint)
dec c.inGenericContext, ord(isGeneric)
# TODO: Disallow typed/untyped in procs in the compiler/stdlib
if kind in {skProc, skFunc} and (typ.kind == tyTyped or typ.kind == tyUntyped):
if not isMagic(getCurrOwner(c)):
@@ -1408,26 +1347,15 @@ proc semProcTypeNode(c: PContext, n, genericParams: PNode,
"either use ';' (semicolon) or explicitly write each default value")
message(c.config, a.info, warnImplicitDefaultValue, msg)
block determineType:
var canBeVoid = false
if kind == skTemplate:
if typ != nil and typ.kind == tyUntyped:
# don't do any typechecking or assign a type for
# `untyped` parameter default value
var defTyp = typ
if genericParams != nil and genericParams.len > 0:
defTyp = nil
def = semGenericStmt(c, def)
if hasUnresolvedArgs(c, def):
def.typ = makeTypeFromExpr(c, def.copyTree)
break determineType
elif hasUnresolvedArgs(c, def):
# template default value depends on other parameter
# don't do any typechecking
def.typ() = makeTypeFromExpr(c, def.copyTree)
break determineType
elif typ != nil and typ.kind == tyTyped:
canBeVoid = true
let isGeneric = isCurrentlyGeneric()
inc c.inGenericContext, ord(isGeneric)
if canBeVoid:
def = semExpr(c, def, {efDetermineType, efAllowSymChoice}, typ)
else:
def = semExprWithType(c, def, {efDetermineType, efAllowSymChoice}, typ)
dec c.inGenericContext, ord(isGeneric)
def = semExprWithType(c, def, {efDetermineType, efAllowSymChoice}, defTyp)
if def.referencesAnotherParam(getCurrOwner(c)):
def.flags.incl nfDefaultRefsParam
@@ -1446,7 +1374,7 @@ proc semProcTypeNode(c: PContext, n, genericParams: PNode,
typ = newTypeS(tyTypeDesc, c, newTypeS(tyNone, c))
typ.flags.incl tfCheckedForDestructor
elif def.typ != nil and def.typ.kind != tyFromExpr: # def.typ can be void
else:
# if def.typ != nil and def.typ.kind != tyNone:
# example code that triggers it:
# proc sort[T](cmp: proc(a, b: T): int = cmp)
@@ -1499,12 +1427,11 @@ proc semProcTypeNode(c: PContext, n, genericParams: PNode,
onDef(a[j].info, arg)
a[j] = newSymNode(arg)
var r: PType = nil
if n[0].kind != nkEmpty:
let isGeneric = isCurrentlyGeneric()
inc c.inGenericContext, ord(isGeneric)
r = semTypeNode(c, n[0], nil)
dec c.inGenericContext, ord(isGeneric)
var r: PType =
if n[0].kind != nkEmpty:
semTypeNode(c, n[0], nil)
else:
nil
if r != nil and kind in {skMacro, skTemplate} and r.kind == tyTyped:
# XXX: To implement the proposed change in the warning, just
@@ -1555,9 +1482,9 @@ proc semProcTypeNode(c: PContext, n, genericParams: PNode,
# XXX This rather hacky way keeps 'tflatmap' compiling:
if tfHasMeta notin oldFlags:
result.flags.excl tfHasMeta
result.n.typ() = r
result.n.typ = r
if isCurrentlyGeneric():
if genericParams != nil and genericParams.len > 0:
for n in genericParams:
if {sfUsed, sfAnon} * n.sym.flags == {}:
result.flags.incl tfUnresolved
@@ -1572,8 +1499,8 @@ proc semStmtListType(c: PContext, n: PNode, prev: PType): PType =
n[i] = semStmt(c, n[i], {})
if n.len > 0:
result = semTypeNode(c, n[^1], prev)
n.typ() = result
n[^1].typ() = result
n.typ = result
n[^1].typ = result
else:
result = nil
@@ -1586,15 +1513,15 @@ proc semBlockType(c: PContext, n: PNode, prev: PType): PType =
if n[0].kind notin {nkEmpty, nkSym}:
addDecl(c, newSymS(skLabel, n[0], c))
result = semStmtListType(c, n[1], prev)
n[1].typ() = result
n.typ() = result
n[1].typ = result
n.typ = result
closeScope(c)
c.p.breakInLoop = oldBreakInLoop
dec(c.p.nestedBlockCounter)
proc semGenericParamInInvocation(c: PContext, n: PNode): PType =
result = semTypeNode(c, n, nil)
n.typ() = makeTypeDesc(c, result)
n.typ = makeTypeDesc(c, result)
proc trySemObjectTypeForInheritedGenericInst(c: PContext, n: PNode, t: PType): bool =
var
@@ -1714,8 +1641,7 @@ proc semGeneric(c: PContext, n: PNode, s: PSym, prev: PType): PType =
recomputeFieldPositions(tx, tx.n, position)
proc maybeAliasType(c: PContext; typeExpr, prev: PType): PType =
if prev != nil and (prev.kind == tyGenericBody or
typeExpr.kind in {tyObject, tyEnum, tyDistinct, tyForward, tyGenericBody}):
if typeExpr.kind in {tyObject, tyEnum, tyDistinct, tyForward, tyGenericBody} and prev != nil:
result = newTypeS(tyAlias, c)
result.rawAddSon typeExpr
result.sym = prev.sym
@@ -1753,10 +1679,6 @@ proc semTypeExpr(c: PContext, n: PNode; prev: PType): PType =
# unnecessary new type creation
let alias = maybeAliasType(c, result, prev)
if alias != nil: result = alias
elif n.typ.kind == tyFromExpr and c.inGenericContext > 0:
# sometimes not possible to distinguish type from value in generic body,
# for example `T.Foo`, so both are handled under `tyFromExpr`
result = n.typ
else:
localError(c.config, n.info, "expected type, but got: " & n.renderTree)
result = errorType(c)
@@ -1842,15 +1764,12 @@ proc applyTypeSectionPragmas(c: PContext; pragmas, operand: PNode): PNode =
discard "builtin pragma"
else:
trySuggestPragmas(c, key)
let ident =
if key.kind in nkIdentKinds:
considerQuotedIdent(c, key)
else:
nil
if ident != nil and strTableGet(c.userPragmas, ident) != nil:
let ident = considerQuotedIdent(c, key)
if strTableGet(c.userPragmas, ident) != nil:
discard "User-defined pragma"
else:
let sym = qualifiedLookUp(c, key, {})
var amb = false
let sym = searchInScopes(c, ident, amb)
# XXX: What to do here if amb is true?
if sym != nil and sfCustomPragma in sym.flags:
discard "Custom user pragma"
@@ -1917,14 +1836,10 @@ proc semStaticType(c: PContext, childNode: PNode, prev: PType): PType =
proc semTypeOf(c: PContext; n: PNode; prev: PType): PType =
openScope(c)
inc c.inTypeofContext
defer: dec c.inTypeofContext # compiles can raise an exception
let t = semExprWithType(c, n, {efInTypeof})
closeScope(c)
fixupTypeOf(c, prev, t)
result = t.typ
if result.kind == tyFromExpr:
result.flags.incl tfNonConstExpr
proc semTypeOf2(c: PContext; n: PNode; prev: PType): PType =
openScope(c)
@@ -1935,14 +1850,10 @@ proc semTypeOf2(c: PContext; n: PNode; prev: PType): PType =
localError(c.config, n.info, "typeof: cannot evaluate 'mode' parameter at compile-time")
else:
m = mode.intVal
inc c.inTypeofContext
defer: dec c.inTypeofContext # compiles can raise an exception
let t = semExprWithType(c, n[1], if m == 1: {efInTypeof} else: {})
closeScope(c)
fixupTypeOf(c, prev, t)
result = t.typ
if result.kind == tyFromExpr:
result.flags.incl tfNonConstExpr
proc semTypeIdent(c: PContext, n: PNode): PSym =
if n.kind == nkSym:
@@ -2006,7 +1917,7 @@ proc semTypeIdent(c: PContext, n: PNode): PSym =
n.transitionNoneToSym()
n.sym = result
n.info = oldInfo
n.typ() = result.typ
n.typ = result.typ
else:
localError(c.config, n.info, "identifier expected")
result = errorSym(c, n)
@@ -2030,7 +1941,11 @@ proc semTypeNode(c: PContext, n: PNode, prev: PType): PType =
of nkTupleConstr: result = semAnonTuple(c, n, prev)
of nkCallKinds:
let x = n[0]
let ident = x.getPIdent
let ident = case x.kind
of nkIdent: x.ident
of nkSym: x.sym.name
of nkClosedSymChoice, nkOpenSymChoice: x[0].sym.name
else: nil
if ident != nil and ident.s == "[]":
let b = newNodeI(nkBracketExpr, n.info)
for i in 1..<n.len: b.add(n[i])
@@ -2120,21 +2035,20 @@ proc semTypeNode(c: PContext, n: PNode, prev: PType): PType =
elif op.id == ord(wType):
checkSonsLen(n, 2, c.config)
result = semTypeOf(c, n[1], prev)
elif op.s == "typeof" and (
(n[0].kind == nkSym and n[0].sym.magic == mTypeOf) or
(n[0].kind == nkOpenSym and n[0][0].sym.magic == mTypeOf)):
elif op.s == "typeof" and n[0].kind == nkSym and n[0].sym.magic == mTypeOf:
result = semTypeOf2(c, n, prev)
elif op.s == "owned" and optOwnedRefs notin c.config.globalOptions and n.len == 2:
result = semTypeExpr(c, n[1], prev)
else:
result = semTypeExpr(c, n, prev)
if c.inGenericContext > 0 and n.kind == nkCall:
let n = semGenericStmt(c, n)
result = makeTypeFromExpr(c, n.copyTree)
else:
result = semTypeExpr(c, n, prev)
of nkWhenStmt:
var whenResult = semWhen(c, n, false)
if whenResult.kind == nkStmtList: whenResult.transitionSonsKind(nkStmtListType)
if whenResult.kind == nkWhenStmt:
result = whenResult.typ
else:
result = semTypeNode(c, whenResult, prev)
result = semTypeNode(c, whenResult, prev)
of nkBracketExpr:
checkMinSonsLen(n, 2, c.config)
var head = n[0]
@@ -2179,12 +2093,6 @@ proc semTypeNode(c: PContext, n: PNode, prev: PType): PType =
of mRef: result = semAnyRef(c, n, tyRef, prev)
of mPtr: result = semAnyRef(c, n, tyPtr, prev)
of mTuple: result = semTuple(c, n, prev)
of mBuiltinType:
case s.name.s
of "lent": result = semAnyRef(c, n, tyLent, prev)
of "sink": result = semAnyRef(c, n, tySink, prev)
of "owned": result = semAnyRef(c, n, tyOwned, prev)
else: result = semGeneric(c, n, s, prev)
else: result = semGeneric(c, n, s, prev)
of nkDotExpr:
let typeExpr = semExpr(c, n)
@@ -2214,7 +2122,7 @@ proc semTypeNode(c: PContext, n: PNode, prev: PType): PType =
if s.kind != skError: localError(c.config, n.info, errTypeExpected)
result = newOrPrevType(tyError, prev, c)
elif s.kind == skParam and s.typ.kind == tyTypeDesc:
internalAssert c.config, s.typ.base.kind != tyNone
internalAssert c.config, s.typ.base.kind != tyNone and prev == nil
result = s.typ.base
elif prev == nil:
result = s.typ
@@ -2238,7 +2146,7 @@ proc semTypeNode(c: PContext, n: PNode, prev: PType): PType =
if s.kind == skType:
s.typ
else:
internalAssert c.config, s.typ.base.kind != tyNone
internalAssert c.config, s.typ.base.kind != tyNone and prev == nil
s.typ.base
let alias = maybeAliasType(c, t, prev)
if alias != nil:
@@ -2299,13 +2207,12 @@ proc semTypeNode(c: PContext, n: PNode, prev: PType): PType =
of nkType: result = n.typ
of nkStmtListType: result = semStmtListType(c, n, prev)
of nkBlockType: result = semBlockType(c, n, prev)
of nkOpenSym: result = semTypeNode(c, n[0], prev)
else:
result = semTypeExpr(c, n, prev)
when false:
localError(c.config, n.info, "type expected, but got: " & renderTree(n))
result = newOrPrevType(tyError, prev, c)
n.typ() = result
n.typ = result
dec c.inTypeContext
proc setMagicType(conf: ConfigRef; m: PSym, kind: TTypeKind, size: int) =
@@ -2452,7 +2359,7 @@ proc semGenericParamList(c: PContext, n: PNode, father: PType = nil): PNode =
else:
# the following line fixes ``TV2*[T:SomeNumber=TR] = array[0..1, T]``
# from manyloc/named_argument_bug/triengine:
def.typ() = def.typ.skipTypes({tyTypeDesc})
def.typ = def.typ.skipTypes({tyTypeDesc})
if not containsGenericType(def.typ):
def = fitNode(c, typ, def, def.info)

View File

@@ -12,7 +12,7 @@
import std / tables
import ast, astalgo, msgs, types, magicsys, semdata, renderer, options,
lineinfos, modulegraphs, layeredtable
lineinfos, modulegraphs
when defined(nimPreviewSlimSystem):
import std/assertions
@@ -65,6 +65,10 @@ proc cacheTypeInst(c: PContext; inst: PType) =
addToGenericCache(c, gt.sym, inst)
type
LayeredIdTable* {.acyclic.} = ref object
topLayer*: TypeMapping
nextLayer*: LayeredIdTable
TReplTypeVars* = object
c*: PContext
typeMap*: LayeredIdTable # map PType to PType
@@ -80,12 +84,27 @@ type
owner*: PSym # where this instantiation comes from
recursionLimit: int
proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType, isInstValue = false): PType
proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType): PType
proc replaceTypeVarsS(cl: var TReplTypeVars, s: PSym, t: PType): PSym
proc replaceTypeVarsN*(cl: var TReplTypeVars, n: PNode; start=0; expectedType: PType = nil): PNode
proc initLayeredTypeMap*(pt: sink TypeMapping): LayeredIdTable =
result = LayeredIdTable()
result.topLayer = pt
proc newTypeMapLayer*(cl: var TReplTypeVars): LayeredIdTable =
result = newTypeMapLayer(cl.typeMap)
result = LayeredIdTable(nextLayer: cl.typeMap, topLayer: initTable[ItemId, PType]())
proc lookup(typeMap: LayeredIdTable, key: PType): PType =
result = nil
var tm = typeMap
while tm != nil:
result = getOrDefault(tm.topLayer, key.itemId)
if result != nil: return
tm = tm.nextLayer
template put(typeMap: LayeredIdTable, key, value: PType) =
typeMap.topLayer[key.itemId] = value
template checkMetaInvariants(cl: TReplTypeVars, t: PType) = # noop code
when false:
@@ -95,90 +114,28 @@ template checkMetaInvariants(cl: TReplTypeVars, t: PType) = # noop code
debug t
writeStackTrace()
proc replaceTypeVarsT*(cl: var TReplTypeVars, t: PType, isInstValue = false): PType =
result = replaceTypeVarsTAux(cl, t, isInstValue)
proc replaceTypeVarsT*(cl: var TReplTypeVars, t: PType): PType =
result = replaceTypeVarsTAux(cl, t)
checkMetaInvariants(cl, result)
proc prepareNode*(cl: var TReplTypeVars, n: PNode): PNode =
## instantiates a given generic expression, not a type node
if n.kind == nkSym and n.sym.kind == skType and
n.sym.typ != nil and n.sym.typ.kind == tyGenericBody:
# generic body types are allowed as user expressions, see #24090
return n
proc prepareNode(cl: var TReplTypeVars, n: PNode): PNode =
let t = replaceTypeVarsT(cl, n.typ)
if t != nil and t.kind == tyStatic and t.n != nil:
return if tfUnresolved in t.flags: prepareNode(cl, t.n)
else: t.n
result = copyNode(n)
result.typ() = t
result.typ = t
if result.kind == nkSym:
result.sym =
if n.typ != nil and n.typ == n.sym.typ:
replaceTypeVarsS(cl, n.sym, result.typ)
else:
replaceTypeVarsS(cl, n.sym, replaceTypeVarsT(cl, n.sym.typ))
# we need to avoid trying to instantiate nodes that can have uninstantiated
# types, like generic proc symbols or raw generic type symbols
case n.kind
of nkSymChoices:
# don't try to instantiate symchoice symbols, they can be
# generic procs which the compiler will think are uninstantiated
# because their type will contain uninstantiated params
for i in 0..<n.len:
result.add(n[i])
of nkCallKinds:
# don't try to instantiate call names since they may be generic proc syms
# also bracket expressions can turn into calls with symchoice [] and
# we need to not instantiate the Generic in Generic[int]
# exception exists for the call name being a dot expression since
# dot expressions need their LHS instantiated
assert n.len != 0
# avoid instantiating generic proc symbols, refine condition if needed:
let ignoreFirst = n[0].kind notin {nkDotExpr, nkBracketExpr} + nkCallKinds
let name = n[0].getPIdent
let ignoreSecond = name != nil and name.s == "[]" and n.len > 1 and
# generic type instantiation:
((n[1].typ != nil and n[1].typ.kind == tyTypeDesc) or
# generic proc instantiation:
(n[1].kind == nkSym and n[1].sym.isGenericRoutineStrict))
if ignoreFirst:
result.add(n[0])
else:
result.add(prepareNode(cl, n[0]))
if n.len > 1:
if ignoreSecond:
result.add(n[1])
else:
result.add(prepareNode(cl, n[1]))
for i in 2..<n.len:
result.add(prepareNode(cl, n[i]))
of nkBracketExpr:
# don't instantiate Generic body type in expression like Generic[T]
# exception exists for the call name being a dot expression since
# dot expressions need their LHS instantiated
assert n.len != 0
let ignoreFirst = n[0].kind != nkDotExpr and
# generic type instantiation:
((n[0].typ != nil and n[0].typ.kind == tyTypeDesc) or
# generic proc instantiation:
(n[0].kind == nkSym and n[0].sym.isGenericRoutineStrict))
if ignoreFirst:
result.add(n[0])
else:
result.add(prepareNode(cl, n[0]))
for i in 1..<n.len:
result.add(prepareNode(cl, n[i]))
of nkDotExpr:
# don't try to instantiate RHS of dot expression, it can outright be
# undeclared, but definitely instantiate LHS
assert n.len >= 2
result.add(prepareNode(cl, n[0]))
result.add(n[1])
for i in 2..<n.len:
result.add(prepareNode(cl, n[i]))
else:
for i in 0..<n.safeLen:
result.add(prepareNode(cl, n[i]))
let isCall = result.kind in nkCallKinds
for i in 0..<n.safeLen:
# XXX HACK: ``f(a, b)``, avoid to instantiate `f`
if isCall and i == 0: result.add(n[i])
else: result.add(prepareNode(cl, n[i]))
proc isTypeParam(n: PNode): bool =
# XXX: generic params should use skGenericParam instead of skType
@@ -261,10 +218,7 @@ proc replaceTypeVarsN(cl: var TReplTypeVars, n: PNode; start=0; expectedType: PT
if n == nil: return
result = copyNode(n)
if n.typ != nil:
if n.typ.kind == tyFromExpr:
# type of node should not be evaluated as a static value
n.typ.flags.incl tfNonConstExpr
result.typ() = replaceTypeVarsT(cl, n.typ)
result.typ = replaceTypeVarsT(cl, n.typ)
checkMetaInvariants(cl, result.typ)
case n.kind
of nkNone..pred(nkSym), succ(nkSym)..nkNilLit:
@@ -276,13 +230,7 @@ proc replaceTypeVarsN(cl: var TReplTypeVars, n: PNode; start=0; expectedType: PT
replaceTypeVarsS(cl, n.sym, result.typ)
else:
replaceTypeVarsS(cl, n.sym, replaceTypeVarsT(cl, n.sym.typ))
if result.sym.kind == skField and result.sym.ast != nil and
(cl.owner == nil or result.sym.owner == cl.owner):
# instantiate default value of object/tuple field
cl.c.fitDefaultNode(cl.c, result.sym.ast, result.sym.typ)
result.sym.typ = result.sym.ast.typ
# sym type can be nil if was gensym created by macro, see #24048
if result.sym.typ != nil and result.sym.typ.kind == tyVoid:
if result.sym.typ.kind == tyVoid:
# don't add the 'void' field
result = newNodeI(nkRecList, n.info)
of nkRecWhen:
@@ -363,7 +311,7 @@ proc replaceTypeVarsS(cl: var TReplTypeVars, s: PSym, t: PType): PSym =
result = copySym(s, cl.c.idgen)
incl(result.flags, sfFromGeneric)
#idTablePut(cl.symMap, s, result)
setOwner(result, s.owner)
result.owner = s.owner
result.typ = t
if result.kind != skType:
result.ast = replaceTypeVarsN(cl, s.ast)
@@ -481,12 +429,12 @@ proc handleGenericInvocation(cl: var TReplTypeVars, t: PType): PType =
return
let bbody = last body
var newbody = replaceTypeVarsT(cl, bbody, isInstValue = true)
var newbody = replaceTypeVarsT(cl, bbody)
cl.skipTypedesc = oldSkipTypedesc
newbody.flags = newbody.flags + (t.flags + body.flags - tfInstClearedFlags)
result.flags = result.flags + newbody.flags - tfInstClearedFlags
setToPreviousLayer(cl.typeMap)
cl.typeMap = cl.typeMap.nextLayer
# This is actually wrong: tgeneric_closure fails with this line:
#newbody.callConv = body.callConv
@@ -578,7 +526,7 @@ proc propagateFieldFlags(t: PType, n: PNode) =
propagateFieldFlags(t, son)
else: discard
proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType, isInstValue = false): PType =
proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType): PType =
template bailout =
if (t.sym == nil) or (t.sym != nil and sfGeneratedType in t.sym.flags):
# In the first case 't.sym' can be 'nil' if the type is a ref/ptr, see
@@ -621,7 +569,6 @@ proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType, isInstValue = false):
result.kind = tyUserTypeClassInst
of tyGenericBody:
if cl.allowMetaTypes: return
localError(
cl.c.config,
cl.info,
@@ -640,18 +587,13 @@ proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType, isInstValue = false):
assert t.n.typ != t
var n = prepareNode(cl, t.n)
if n.kind != nkEmpty:
if tfNonConstExpr in t.flags:
n = cl.c.semExprWithType(cl.c, n, flags = {efInTypeof})
else:
n = cl.c.semConstExpr(cl.c, n)
n = cl.c.semConstExpr(cl.c, n)
if n.typ.kind == tyTypeDesc:
# XXX: sometimes, chained typedescs enter here.
# It may be worth investigating why this is happening,
# because it may cause other bugs elsewhere.
result = n.typ.skipTypes({tyTypeDesc})
# result = n.typ.base
elif tfNonConstExpr in t.flags:
result = n.typ
else:
if n.typ.kind != tyStatic and n.kind != nkType:
# XXX: In the future, semConstExpr should
@@ -677,31 +619,8 @@ proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType, isInstValue = false):
elif t.elementType.kind != tyNone:
result = makeTypeDesc(cl.c, replaceTypeVarsT(cl, t.elementType))
of tyUserTypeClass:
of tyUserTypeClass, tyStatic:
result = t
of tyStatic:
if cl.c.matchedConcept != nil:
# allow concepts to not instantiate statics for now
# they can't always infer them
return
if not containsGenericType(t) and (t.n == nil or t.n.kind in nkLiterals):
# no need to instantiate
return
bailout()
result = instCopyType(cl, t)
cl.localCache[t.itemId] = result
for i in FirstGenericParamAt..<result.kidsLen:
var r = result[i]
if r != nil:
r = replaceTypeVarsT(cl, r)
result[i] = r
propagateToOwner(result, r)
result.n = replaceTypeVarsN(cl, result.n)
if not cl.allowMetaTypes and result.n != nil and
result.base.kind != tyNone:
result.n = cl.c.semConstExpr(cl.c, result.n)
result.n.typ() = result.base
of tyGenericInst, tyUserTypeClassInst:
bailout()
@@ -712,27 +631,23 @@ proc replaceTypeVarsTAux(cl: var TReplTypeVars, t: PType, isInstValue = false):
propagateToOwner(result, result.last)
else:
if containsGenericType(t) or
# nominal types as direct generic instantiation values
# are re-instantiated even if they don't contain generic fields
(isInstValue and (t.kind in {tyDistinct, tyObject} or isRefPtrObject(t))):
if containsGenericType(t):
#if not cl.allowMetaTypes:
bailout()
result = instCopyType(cl, t)
result.size = -1 # needs to be recomputed
#if not cl.allowMetaTypes:
cl.localCache[t.itemId] = result
let propagateInstValue = isInstValue and isRefPtrObject(t)
for i, resulti in result.ikids:
if resulti != nil:
if resulti.kind == tyGenericBody and not cl.allowMetaTypes:
if resulti.kind == tyGenericBody:
localError(cl.c.config, if t.sym != nil: t.sym.info else: cl.info,
"cannot instantiate '" &
typeToString(result[i], preferDesc) &
"' inside of type definition: '" &
t.owner.name.s & "'; Maybe generic arguments are missing?")
var r = replaceTypeVarsT(cl, resulti, isInstValue = propagateInstValue)
var r = replaceTypeVarsT(cl, resulti)
if result.kind == tyObject:
# carefully coded to not skip the precious tyGenericInst:
let r2 = r.skipTypes({tyAlias, tySink, tyOwned})
@@ -781,24 +696,16 @@ proc initTypeVars*(p: PContext, typeMap: LayeredIdTable, info: TLineInfo;
localCache: initTypeMapping(), typeMap: typeMap,
info: info, c: p, owner: owner)
proc replaceTypesInBody*(p: PContext, pt: LayeredIdTable, n: PNode;
proc replaceTypesInBody*(p: PContext, pt: TypeMapping, n: PNode;
owner: PSym, allowMetaTypes = false,
fromStaticExpr = false, expectedType: PType = nil): PNode =
var typeMap = shallowCopy(pt) # use previous bindings without writing to them
var typeMap = initLayeredTypeMap(pt)
var cl = initTypeVars(p, typeMap, n.info, owner)
cl.allowMetaTypes = allowMetaTypes
pushInfoContext(p.config, n.info)
result = replaceTypeVarsN(cl, n, expectedType = expectedType)
popInfoContext(p.config)
proc prepareTypesInBody*(p: PContext, pt: LayeredIdTable, n: PNode;
owner: PSym = nil): PNode =
var typeMap = shallowCopy(pt) # use previous bindings without writing to them
var cl = initTypeVars(p, typeMap, n.info, owner)
pushInfoContext(p.config, n.info)
result = prepareNode(cl, n)
popInfoContext(p.config)
when false:
# deadcode
proc replaceTypesForLambda*(p: PContext, pt: TIdTable, n: PNode;
@@ -826,13 +733,13 @@ proc recomputeFieldPositions*(t: PType; obj: PNode; currPosition: var int) =
inc currPosition
else: discard "cannot happen"
proc generateTypeInstance*(p: PContext, pt: LayeredIdTable, info: TLineInfo,
proc generateTypeInstance*(p: PContext, pt: TypeMapping, info: TLineInfo,
t: PType): PType =
# Given `t` like Foo[T]
# pt: Table with type mappings: T -> int
# Desired result: Foo[int]
# proc (x: T = 0); T -> int ----> proc (x: int = 0)
var typeMap = shallowCopy(pt) # use previous bindings without writing to them
var typeMap = initLayeredTypeMap(pt)
var cl = initTypeVars(p, typeMap, info, nil)
pushInfoContext(p.config, info)
result = replaceTypeVarsT(cl, t)
@@ -842,15 +749,15 @@ proc generateTypeInstance*(p: PContext, pt: LayeredIdTable, info: TLineInfo,
var position = 0
recomputeFieldPositions(objType, objType.n, position)
proc prepareMetatypeForSigmatch*(p: PContext, pt: LayeredIdTable, info: TLineInfo,
proc prepareMetatypeForSigmatch*(p: PContext, pt: TypeMapping, info: TLineInfo,
t: PType): PType =
var typeMap = shallowCopy(pt) # use previous bindings without writing to them
var typeMap = initLayeredTypeMap(pt)
var cl = initTypeVars(p, typeMap, info, nil)
cl.allowMetaTypes = true
pushInfoContext(p.config, info)
result = replaceTypeVarsT(cl, t)
popInfoContext(p.config)
template generateTypeInstance*(p: PContext, pt: LayeredIdTable, arg: PNode,
template generateTypeInstance*(p: PContext, pt: TypeMapping, arg: PNode,
t: PType): untyped =
generateTypeInstance(p, pt, arg.info, t)

View File

@@ -55,8 +55,6 @@ proc hashSym(c: var MD5Context, s: PSym) =
c &= it.name.s
c &= "."
it = it.owner
c &= "#"
c &= s.disamb
proc hashTypeSym(c: var MD5Context, s: PSym; conf: ConfigRef) =
if sfAnon in s.flags or s.kind == skGenericParam:
@@ -71,8 +69,6 @@ proc hashTypeSym(c: var MD5Context, s: PSym; conf: ConfigRef) =
c &= it.name.s
c &= "."
it = it.owner
c &= "#"
c &= s.disamb
proc hashTree(c: var MD5Context, n: PNode; flags: set[ConsiderFlag]; conf: ConfigRef) =
if n == nil:
@@ -158,9 +154,9 @@ proc hashType(c: var MD5Context, t: PType; flags: set[ConsiderFlag]; conf: Confi
# is actually safe without an infinite recursion check:
if t.sym != nil:
if {sfCompilerProc} * t.sym.flags != {}:
doAssert t.sym.loc.snippet != ""
doAssert t.sym.loc.r != ""
# The user has set a specific name for this type
c &= t.sym.loc.snippet
c &= t.sym.loc.r
elif CoOwnerSig in flags:
c.hashTypeSym(t.sym, conf)
else:

File diff suppressed because it is too large Load Diff

View File

@@ -28,7 +28,7 @@ proc checkForSink*(config: ConfigRef; idgen: IdGenerator; owner: PSym; arg: PNod
arg.sym.typ.kind notin {tyVar, tySink, tyOwned}:
# Watch out: cannot do this inference for procs with forward
# declarations.
if sfWasForwarded notin owner.flags:
if {sfWasForwarded, sfNosinks} * owner.flags == {}:
let argType = arg.sym.typ
let sinkType = newType(tySink, idgen, owner)
@@ -43,9 +43,9 @@ proc checkForSink*(config: ConfigRef; idgen: IdGenerator; owner: PSym; arg: PNod
#message(config, arg.info, warnUser,
# ("turned '$1' to a sink parameter") % [$arg])
#echo config $ arg.info, " turned into a sink parameter ", arg.sym.name.s
elif sfWasForwarded notin arg.sym.flags:
elif {sfWasForwarded, sfNosinks} * arg.sym.flags == {}:
# we only report every potential 'sink' parameter only once:
incl arg.sym.flags, sfWasForwarded
incl arg.sym.flags, sfNosinks
message(config, arg.info, hintPerformance,
"could not turn '$1' to a sink parameter" % [arg.sym.name.s])
#echo config $ arg.info, " candidate for a sink parameter here"

View File

@@ -385,13 +385,6 @@ proc computeSizeAlign(conf: ConfigRef; typ: PType) =
accum.maxAlign = 1
computeObjectOffsetsFoldFunction(conf, typ.n, true, accum)
else:
if typ.baseClass == nil and lacksMTypeField(typ) and typ.n.len == 1 and
typ.n[0].kind == nkSym and
typ.n[0].sym.typ.skipTypes(abstractInst).kind == tyUncheckedArray:
# a dummy field is generated for an object with a single field
# with an UncheckedArray type
assert accum.offset == 0
accum.offset = 1
computeObjectOffsetsFoldFunction(conf, typ.n, false, accum)
let paddingAtEnd = int16(accum.finish())
if typ.sym != nil and
@@ -477,7 +470,7 @@ template foldSizeOf*(conf: ConfigRef; n: PNode; fallback: PNode): PNode =
if size >= 0:
let res = newIntNode(nkIntLit, size)
res.info = node.info
res.typ() = node.typ
res.typ = node.typ
res
else:
fallback
@@ -491,7 +484,7 @@ template foldAlignOf*(conf: ConfigRef; n: PNode; fallback: PNode): PNode =
if align >= 0:
let res = newIntNode(nkIntLit, align)
res.info = node.info
res.typ() = node.typ
res.typ = node.typ
res
else:
fallback
@@ -519,7 +512,7 @@ template foldOffsetOf*(conf: ConfigRef; n: PNode; fallback: PNode): PNode =
if offset >= 0:
let tmp = newIntNode(nkIntLit, offset)
tmp.info = node.info
tmp.typ() = node.typ
tmp.typ = node.typ
tmp
else:
fallback

View File

@@ -16,7 +16,7 @@ from trees import getMagic, getRoot
proc callProc(a: PNode): PNode =
result = newNodeI(nkCall, a.info)
result.add a
result.typ() = a.typ.returnType
result.typ = a.typ.returnType
# we have 4 cases to consider:
# - a void proc --> nothing to do
@@ -117,7 +117,7 @@ proc castToVoidPointer(g: ModuleGraph, n: PNode, fvField: PNode): PNode =
result = newNodeI(nkCast, fvField.info)
result.add newNodeI(nkEmpty, fvField.info)
result.add fvField
result.typ() = ptrType
result.typ = ptrType
proc createWrapperProc(g: ModuleGraph; f: PNode; threadParam, argsParam: PSym;
varSection, varInit, call, barrier, fv: PNode;
@@ -200,7 +200,7 @@ proc createCastExpr(argsParam: PSym; objType: PType; idgen: IdGenerator): PNode
result = newNodeI(nkCast, argsParam.info)
result.add newNodeI(nkEmpty, argsParam.info)
result.add newSymNode(argsParam)
result.typ() = newType(tyPtr, idgen, objType.owner)
result.typ = newType(tyPtr, idgen, objType.owner)
result.typ.rawAddSon(objType)
template checkMagicProcs(g: ModuleGraph, n: PNode, formal: PNode) =
@@ -266,9 +266,9 @@ proc setupArgsForParallelism(g: ModuleGraph; n: PNode; objType: PType;
if argType.kind in {tyVarargs, tyOpenArray}:
# important special case: we always create a zero-copy slice:
let slice = newNodeI(nkCall, n.info, 4)
slice.typ() = n.typ
slice.typ = n.typ
slice[0] = newSymNode(createMagic(g, idgen, "slice", mSlice))
slice[0].typ() = getSysType(g, n.info, tyInt) # fake type
slice[0].typ = getSysType(g, n.info, tyInt) # fake type
var fieldB = newSym(skField, tmpName, idgen, objType.owner, n.info, g.config.options)
fieldB.typ = getSysType(g, n.info, tyInt)
discard objType.addField(fieldB, g.cache, idgen)

View File

@@ -56,6 +56,7 @@ type
contSyms, breakSyms: seq[PSym] # to transform 'continue' and 'break'
deferDetected, tooEarly: bool
isIntroducingNewLocalVars: bool # true if we are in `introducingNewLocalVars` (don't transform yields)
inAddr: bool
flags: TransformFlags
graph: ModuleGraph
idgen: IdGenerator
@@ -99,12 +100,12 @@ proc newTemp(c: PTransf, typ: PType, info: TLineInfo): PNode =
let owner = getCurrOwner(c)
result = newSymNode(r)
proc transform(c: PTransf, n: PNode, noConstFold = false): PNode
proc transform(c: PTransf, n: PNode): PNode
proc transformSons(c: PTransf, n: PNode, noConstFold = false): PNode =
proc transformSons(c: PTransf, n: PNode): PNode =
result = newTransNode(n)
for i in 0..<n.len:
result[i] = transform(c, n[i], noConstFold)
result[i] = transform(c, n[i])
proc newAsgnStmt(c: PTransf, kind: TNodeKind, le: PNode, ri: PNode; isFirstWrite: bool): PNode =
result = newTransNode(kind, ri.info, 2)
@@ -175,7 +176,7 @@ proc freshVar(c: PTransf; v: PSym): PNode =
let owner = getCurrOwner(c)
var newVar = copySym(v, c.idgen)
incl(newVar.flags, sfFromGeneric)
setOwner(newVar, owner)
newVar.owner = owner
result = newSymNode(newVar)
proc transformVarSection(c: PTransf, v: PNode): PNode =
@@ -356,7 +357,7 @@ proc transformAsgn(c: PTransf, n: PNode): PNode =
# given tuple type
newTupleConstr[i] = def[0]
newTupleConstr.typ() = rhs.typ
newTupleConstr.typ = rhs.typ
let asgnNode = newTransNode(nkAsgn, n.info, 2)
asgnNode[0] = transform(c, n[0])
@@ -366,19 +367,6 @@ proc transformAsgn(c: PTransf, n: PNode): PNode =
result[0] = letSection
result[1] = asgnNode
template assignTupleUnpacking(c: PTransf, e: PNode) =
for i in 0..<c.transCon.forStmt.len - 2:
if c.transCon.forStmt[i].kind == nkVarTuple:
for j in 0..<c.transCon.forStmt[i].len-1:
let lhs = c.transCon.forStmt[i][j]
let rhs = transform(c, newTupleAccess(c.graph, newTupleAccess(c.graph, e, i), j))
result.add(asgnTo(lhs, rhs))
else:
let lhs = c.transCon.forStmt[i]
let rhs = transform(c, newTupleAccess(c.graph, e, i))
result.add(asgnTo(lhs, rhs))
proc transformYield(c: PTransf, n: PNode): PNode =
proc asgnTo(lhs: PNode, rhs: PNode): PNode =
# Choose the right assignment instruction according to the given ``lhs``
@@ -413,8 +401,7 @@ proc transformYield(c: PTransf, n: PNode): PNode =
let lhs = c.transCon.forStmt[i]
let rhs = transform(c, v)
result.add(asgnTo(lhs, rhs))
elif e.kind notin {nkAddr, nkHiddenAddr} and e.kind != nkSym:
# no need to generate temp for address operation + nodes without sideeffects
elif e.kind notin {nkAddr, nkHiddenAddr}: # no need to generate temp for address operation
# TODO do not use temp for nodes which cannot have side-effects
var tmp = newTemp(c, e.typ, e.info)
let v = newNodeI(nkVarSection, e.info)
@@ -422,9 +409,15 @@ proc transformYield(c: PTransf, n: PNode): PNode =
result.add transform(c, v)
assignTupleUnpacking(c, tmp)
for i in 0..<c.transCon.forStmt.len - 2:
let lhs = c.transCon.forStmt[i]
let rhs = transform(c, newTupleAccess(c.graph, tmp, i))
result.add(asgnTo(lhs, rhs))
else:
assignTupleUnpacking(c, e)
for i in 0..<c.transCon.forStmt.len - 2:
let lhs = c.transCon.forStmt[i]
let rhs = transform(c, newTupleAccess(c.graph, e, i))
result.add(asgnTo(lhs, rhs))
else:
if c.transCon.forStmt[0].kind == nkVarTuple:
var notLiteralTuple = false # we don't generate temp for tuples with const value: (1, 2, 3)
@@ -437,8 +430,7 @@ proc transformYield(c: PTransf, n: PNode): PNode =
else:
notLiteralTuple = true
if e.kind notin {nkAddr, nkHiddenAddr} and notLiteralTuple and e.kind != nkSym:
# no need to generate temp for address operation + nodes without sideeffects
if e.kind notin {nkAddr, nkHiddenAddr} and notLiteralTuple:
# TODO do not use temp for nodes which cannot have side-effects
var tmp = newTemp(c, e.typ, e.info)
let v = newNodeI(nkVarSection, e.info)
@@ -477,8 +469,8 @@ proc transformYield(c: PTransf, n: PNode): PNode =
result.add(introduceNewLocalVars(c, c.transCon.forLoopBody))
c.isIntroducingNewLocalVars = false
proc transformAddrDeref(c: PTransf, n: PNode, kinds: TNodeKinds, isAddr = false): PNode =
result = transformSons(c, n, noConstFold = isAddr)
proc transformAddrDeref(c: PTransf, n: PNode, kinds: TNodeKinds): PNode =
result = transformSons(c, n)
# inlining of 'var openarray' iterators; bug #19977
if n.typ.kind != tyOpenArray and (c.graph.config.backend == backendCpp or sfCompileToCpp in c.module.flags): return
var n = result
@@ -490,9 +482,9 @@ proc transformAddrDeref(c: PTransf, n: PNode, kinds: TNodeKinds, isAddr = false)
n[0][0] = m[0]
result = n[0]
if n.typ.skipTypes(abstractVar).kind != tyOpenArray:
result.typ() = n.typ
result.typ = n.typ
elif n.typ.skipTypes(abstractInst).kind in {tyVar}:
result.typ() = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, c.idgen)
result.typ = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, c.idgen)
of nkHiddenStdConv, nkHiddenSubConv, nkConv:
var m = n[0][1]
if m.kind in kinds:
@@ -500,25 +492,15 @@ proc transformAddrDeref(c: PTransf, n: PNode, kinds: TNodeKinds, isAddr = false)
n[0][1] = m[0]
result = n[0]
if n.typ.skipTypes(abstractVar).kind != tyOpenArray:
result.typ() = n.typ
result.typ = n.typ
elif n.typ.skipTypes(abstractInst).kind in {tyVar}:
result.typ() = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, c.idgen)
result.typ = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, c.idgen)
else:
if n[0].kind in kinds and
not (n[0][0].kind == nkSym and n[0][0].sym.kind == skForVar and
n[0][0].typ.skipTypes(abstractVar).kind == tyTuple
) and not (n[0][0].kind == nkSym and n[0][0].sym.kind == skParam and
n.typ.kind == tyVar and
n.typ.skipTypes(abstractVar).kind == tyOpenArray and
n[0][0].typ.skipTypes(abstractVar).kind == tyString) and
not (isAddr and n.typ.kind == tyVar and n[0][0].typ.kind == tyRef and
n[0][0].kind == nkObjConstr)
: # elimination is harmful to `for tuple unpack` because of newTupleAccess
# it is also harmful to openArrayLoc (var openArray) for strings
if n[0].kind in kinds:
# addr ( deref ( x )) --> x
result = n[0][0]
if n.typ.skipTypes(abstractVar).kind != tyOpenArray:
result.typ() = n.typ
result.typ = n.typ
proc generateThunk(c: PTransf; prc: PNode, dest: PType): PNode =
## Converts 'prc' into '(thunk, nil)' so that it's compatible with
@@ -577,7 +559,7 @@ proc transformConv(c: PTransf, n: PNode): PNode =
else:
result = transform(c, n[1])
#result = transformSons(c, n)
result.typ() = takeType(n.typ, n[1].typ, c.graph, c.idgen)
result.typ = takeType(n.typ, n[1].typ, c.graph, c.idgen)
#echo n.info, " came here and produced ", typeToString(result.typ),
# " from ", typeToString(n.typ), " and ", typeToString(n[1].typ)
of tyCstring:
@@ -605,7 +587,7 @@ proc transformConv(c: PTransf, n: PNode): PNode =
result[0] = transform(c, n[1])
else:
result = transform(c, n[1])
result.typ() = n.typ
result.typ = n.typ
else:
result = transformSons(c, n)
of tyObject:
@@ -618,7 +600,7 @@ proc transformConv(c: PTransf, n: PNode): PNode =
result[0] = transform(c, n[1])
else:
result = transform(c, n[1])
result.typ() = n.typ
result.typ = n.typ
of tyGenericParam, tyOrdinal:
result = transform(c, n[1])
# happens sometimes for generated assignments, etc.
@@ -642,12 +624,6 @@ proc putArgInto(arg: PNode, formal: PType): TPutArgInto =
case arg.kind
of nkStmtListExpr:
return paComplexOpenarray
of nkCall:
if skipTypes(arg.typ, abstractInst).kind in {tyOpenArray, tyVarargs}:
# XXX incorrect, causes #13417 when `arg` has side effects.
return paDirectMapping
else:
return paComplexOpenarray
of nkBracket:
return paFastAsgnTakeTypeFromArg
else:
@@ -656,11 +632,9 @@ proc putArgInto(arg: PNode, formal: PType): TPutArgInto =
case arg.kind
of nkEmpty..nkNilLit:
result = paDirectMapping
of nkDotExpr, nkDerefExpr, nkHiddenDeref:
of nkDotExpr, nkDerefExpr, nkHiddenDeref, nkAddr, nkHiddenAddr:
result = putArgInto(arg[0], formal)
of nkAddr, nkHiddenAddr:
result = putArgInto(arg[0], formal)
if result == paViaIndirection: result = paFastAsgn
#if result == paViaIndirection: result = paFastAsgn
of nkCurly, nkBracket:
for i in 0..<arg.len:
if putArgInto(arg[i], formal) != paDirectMapping:
@@ -814,7 +788,7 @@ proc transformFor(c: PTransf, n: PNode): PNode =
stmtList.add(newAsgnStmt(c, nkFastAsgn, temp, addrExp, true))
newC.mapping[formal.itemId] = newDeref(temp)
of paComplexOpenarray:
# XXX arrays will deep copy here (pretty bad).
# arrays will deep copy here (pretty bad).
var temp = newTemp(c, arg.typ, formal.info)
addVar(v, temp)
stmtList.add(newAsgnStmt(c, nkFastAsgn, temp, arg, true))
@@ -844,7 +818,7 @@ proc transformCase(c: PTransf, n: PNode): PNode =
# as an expr
let kind = if n.typ != nil: nkIfExpr else: nkIfStmt
ifs = newTransNode(kind, it.info, 0)
ifs.typ() = n.typ
ifs.typ = n.typ
ifs.add(e)
of nkElse:
if ifs == nil: result.add(e)
@@ -868,18 +842,9 @@ proc transformArrayAccess(c: PTransf, n: PNode): PNode =
if n[0].kind == nkSym and n[0].sym.kind == skType:
result = n
else:
result = transformSons(c, n)
if n.len >= 2 and result[1].kind in {nkChckRange, nkChckRange64} and
n[1].kind in {nkHiddenStdConv, nkHiddenSubConv}:
# implicit conversion, was transformed into range check
# remove in favor of index check if conversion to array index type
# has to be done here because the array index type needs to be relaxed
# i.e. a uint32 index can implicitly convert to range[0..3] but not int
let arr = skipTypes(n[0].typ, abstractVarRange)
if arr.kind == tyArray and
firstOrd(c.graph.config, arr) == getOrdValue(result[1][1]) and
lastOrd(c.graph.config, arr) == getOrdValue(result[1][2]):
result[1] = result[1].skipConv
result = newTransNode(n)
for i in 0..<n.len:
result[i] = transform(c, skipConv(n[i]))
proc getMergeOp(n: PNode): PSym =
case n.kind
@@ -961,7 +926,7 @@ proc transformExceptBranch(c: PTransf, n: PNode): PNode =
let convNode = newTransNode(nkHiddenSubConv, n[1].info, 2)
convNode[0] = newNodeI(nkEmpty, n.info)
convNode[1] = excCall
convNode.typ() = excTypeNode.typ.toRef(c.idgen)
convNode.typ = excTypeNode.typ.toRef(c.idgen)
# -> let exc = ...
let identDefs = newTransNode(nkIdentDefs, n[1].info, 3)
identDefs[0] = n[0][2]
@@ -1018,12 +983,12 @@ proc transformDerefBlock(c: PTransf, n: PNode): PNode =
# We transform (block: x)[] to (block: x[])
let e0 = n[0]
result = shallowCopy(e0)
result.typ() = n.typ
result.typ = n.typ
for i in 0 ..< e0.len - 1:
result[i] = e0[i]
result[e0.len-1] = newTreeIT(nkHiddenDeref, n.info, n.typ, e0[e0.len-1])
proc transform(c: PTransf, n: PNode, noConstFold = false): PNode =
proc transform(c: PTransf, n: PNode): PNode =
when false:
var oldDeferAnchor: PNode
if n.kind in {nkElifBranch, nkOfBranch, nkExceptBranch, nkElifExpr,
@@ -1089,8 +1054,13 @@ proc transform(c: PTransf, n: PNode, noConstFold = false): PNode =
of nkBreakStmt: result = transformBreak(c, n)
of nkCallKinds:
result = transformCall(c, n)
of nkAddr, nkHiddenAddr:
result = transformAddrDeref(c, n, {nkDerefExpr, nkHiddenDeref}, isAddr = true)
of nkHiddenAddr:
result = transformAddrDeref(c, n, {nkHiddenDeref})
of nkAddr:
let oldInAddr = c.inAddr
c.inAddr = true
result = transformAddrDeref(c, n, {nkDerefExpr, nkHiddenDeref})
c.inAddr = oldInAddr
of nkDerefExpr:
result = transformAddrDeref(c, n, {nkAddr, nkHiddenAddr})
of nkHiddenDeref:
@@ -1170,7 +1140,7 @@ proc transform(c: PTransf, n: PNode, noConstFold = false): PNode =
let exprIsPointerCast = n.kind in {nkCast, nkConv, nkHiddenStdConv} and
n.typ != nil and
n.typ.kind == tyPointer
if not exprIsPointerCast and not noConstFold:
if not exprIsPointerCast and not c.inAddr:
var cnst = getConstExpr(c.module, result, c.idgen, c.graph)
# we inline constants if they are not complex constants:
if cnst != nil and not dontInlineConstant(n, cnst):
@@ -1220,7 +1190,7 @@ proc liftDeferAux(n: PNode) =
tryStmt.add deferPart
n[i] = tryStmt
n.sons.setLen(i+1)
n.typ() = tryStmt.typ
n.typ = tryStmt.typ
goOn = true
break
for i in 0..n.safeLen-1:

View File

@@ -147,13 +147,6 @@ proc whichPragma*(n: PNode): TSpecialWord =
of nkCast: return wCast
of nkClosedSymChoice, nkOpenSymChoice:
return whichPragma(key[0])
of nkBracketExpr:
if n.kind notin nkPragmaCallKinds: return wInvalid
result = whichPragma(key[0])
if result notin {wHint, wHintAsError, wWarning, wWarningAsError}:
# note bracket pragmas, see processNote
result = wInvalid
return
else: return wInvalid
if result in nonPragmaWordsLow..nonPragmaWordsHigh:
result = wInvalid

View File

@@ -200,7 +200,7 @@ proc typeAllowedAux(marker: var IntSet, typ: PType, kind: TSymKind,
result = typeAllowedNode(marker, t.n, kind, c, flags)
of tyEmpty:
if kind in {skVar, skLet}: result = t
of tyError:
of tyProxy:
# for now same as error node; we say it's a valid type as it should
# prevent cascading errors:
result = nil
@@ -209,6 +209,9 @@ proc typeAllowedAux(marker: var IntSet, typ: PType, kind: TSymKind,
result = typeAllowedAux(marker, t.skipModifier, kind, c, flags+{taHeap})
else:
result = t
of tyConcept:
if kind != skParam: result = t
else: result = nil
proc typeAllowed*(t: PType, kind: TSymKind; c: PContext; flags: TTypeAllowedFlags = {}): PType =
# returns 'nil' on success and otherwise the part of the type that is

View File

@@ -232,11 +232,7 @@ proc iterOverTypeAux(marker: var IntSet, t: PType, iter: TTypeIter,
if result: return
if not containsOrIncl(marker, t.id):
case t.kind
of tyGenericBody:
# treat as atomic, containsUnresolvedType wants always false,
# containsGenericType always gives true
discard
of tyGenericInst, tyAlias, tySink, tyInferred:
of tyGenericInst, tyGenericBody, tyAlias, tySink, tyInferred:
result = iterOverTypeAux(marker, skipModifier(t), iter, closure)
else:
for a in t.kids:
@@ -752,16 +748,6 @@ proc typeToString(typ: PType, prefer: TPreferedDesc = preferName): string =
if tfThread in t.flags:
addSep(prag)
prag.add("gcsafe")
var effectsOfStr = ""
for i, a in t.paramTypes:
let j = paramTypeToNodeIndex(i)
if t.n != nil and j < t.n.len and t.n[j].kind == nkSym and t.n[j].sym.kind == skParam and sfEffectsDelayed in t.n[j].sym.flags:
addSep(effectsOfStr)
effectsOfStr.add(t.n[j].sym.name.s)
if effectsOfStr != "":
addSep(prag)
prag.add("effectsOf: ")
prag.add(effectsOfStr)
if not hasImplicitRaises and prefer == preferInferredEffects and not isNil(t.owner) and not isNil(t.owner.typ) and not isNil(t.owner.typ.n) and (t.owner.typ.n.len > 0):
let effects = t.owner.typ.n[0]
if effects.kind == nkEffectList and effects.len == effectListLen:
@@ -790,7 +776,7 @@ proc typeToString(typ: PType, prefer: TPreferedDesc = preferName): string =
proc firstOrd*(conf: ConfigRef; t: PType): Int128 =
case t.kind
of tyBool, tyChar, tySequence, tyOpenArray, tyString, tyVarargs, tyError:
of tyBool, tyChar, tySequence, tyOpenArray, tyString, tyVarargs, tyProxy:
result = Zero
of tySet, tyVar: result = firstOrd(conf, t.elementType)
of tyArray: result = firstOrd(conf, t.indexType)
@@ -923,7 +909,7 @@ proc lastOrd*(conf: ConfigRef; t: PType): Int128 =
result = lastOrd(conf, skipModifier(t))
of tyUserTypeClasses:
result = lastOrd(conf, last(t))
of tyError: result = Zero
of tyProxy: result = Zero
of tyOrdinal:
if t.hasElementType: result = lastOrd(conf, skipModifier(t))
else:
@@ -998,8 +984,6 @@ type
AllowCommonBase
PickyCAliases # be picky about the distinction between 'cint' and 'int32'
IgnoreFlags # used for borrowed functions and methods; ignores the tfVarIsPtr flag
PickyBackendAliases # be picky about different aliases
IgnoreRangeShallow
TTypeCmpFlags* = set[TTypeCmpFlag]
@@ -1201,19 +1185,17 @@ proc sameChildrenAux(a, b: PType, c: var TSameTypeClosure): bool =
if not result: return
proc isGenericAlias*(t: PType): bool =
return t.kind == tyGenericInst and t.skipModifier.skipTypes({tyAlias}).kind == tyGenericInst
return t.kind == tyGenericInst and t.skipModifier.kind == tyGenericInst
proc genericAliasDepth*(t: PType): int =
result = 0
var it = t.skipTypes({tyAlias})
var it = t
while it.isGenericAlias:
it = it.skipModifier.skipTypes({tyAlias})
it = it.skipModifier
inc result
proc skipGenericAlias*(t: PType): PType =
result = t.skipTypes({tyAlias})
if result.isGenericAlias:
result = result.skipModifier.skipTypes({tyAlias})
return if t.isGenericAlias: t.skipModifier else: t
proc sameFlags*(a, b: PType): bool {.inline.} =
result = eqTypeFlags*a.flags == eqTypeFlags*b.flags
@@ -1230,40 +1212,26 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
inc c.recCheck
else:
if containsOrIncl(c, a, b): return true
template maybeSkipRange(x: set[TTypeKind]): set[TTypeKind] =
if IgnoreRangeShallow in c.flags:
x + {tyRange}
else:
x
template withoutShallowFlags(body) =
let oldFlags = c.flags
c.flags.excl IgnoreRangeShallow
body
c.flags = oldFlags
if x == y: return true
let aliasSkipSet = maybeSkipRange({tyAlias})
var a = skipTypes(x, aliasSkipSet)
var a = skipTypes(x, {tyAlias})
while a.kind == tyUserTypeClass and tfResolved in a.flags:
a = skipTypes(a.last, aliasSkipSet)
var b = skipTypes(y, aliasSkipSet)
a = skipTypes(a.last, {tyAlias})
var b = skipTypes(y, {tyAlias})
while b.kind == tyUserTypeClass and tfResolved in b.flags:
b = skipTypes(b.last, aliasSkipSet)
b = skipTypes(b.last, {tyAlias})
assert(a != nil)
assert(b != nil)
case c.cmp
of dcEq:
if a.kind != b.kind: return false
of dcEqIgnoreDistinct:
let distinctSkipSet = maybeSkipRange({tyDistinct, tyGenericInst})
a = a.skipTypes(distinctSkipSet)
b = b.skipTypes(distinctSkipSet)
if a.kind != b.kind: return false
of dcEqOrDistinctOf:
let distinctSkipSet = maybeSkipRange({tyDistinct, tyGenericInst})
a = a.skipTypes(distinctSkipSet)
if a.kind != b.kind: return false
if a.kind != b.kind:
case c.cmp
of dcEq: return false
of dcEqIgnoreDistinct:
a = a.skipTypes({tyDistinct, tyGenericInst})
b = b.skipTypes({tyDistinct, tyGenericInst})
if a.kind != b.kind: return false
of dcEqOrDistinctOf:
a = a.skipTypes({tyDistinct, tyGenericInst})
if a.kind != b.kind: return false
#[
The following code should not run in the case either side is an generic alias,
@@ -1271,16 +1239,14 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
objects ie `type A[T] = SomeObject`
]#
# this is required by tunique_type but makes no sense really:
if c.cmp == dcEq and x.kind == tyGenericInst and
IgnoreTupleFields notin c.flags and tyDistinct != y.kind:
if x.kind == tyGenericInst and IgnoreTupleFields notin c.flags and tyDistinct != y.kind:
let
lhs = x.skipGenericAlias
rhs = y.skipGenericAlias
if rhs.kind != tyGenericInst or lhs.base != rhs.base or rhs.kidsLen != lhs.kidsLen:
return false
withoutShallowFlags:
for ff, aa in underspecifiedPairs(rhs, lhs, 1, -1):
if not sameTypeAux(ff, aa, c): return false
for ff, aa in underspecifiedPairs(rhs, lhs, 1, -1):
if not sameTypeAux(ff, aa, c): return false
return true
case a.kind
@@ -1294,11 +1260,6 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
let symFlagsB = if b.sym != nil: b.sym.flags else: {}
if (symFlagsA+symFlagsB) * {sfImportc, sfExportc} != {}:
result = symFlagsA == symFlagsB
elif result and PickyBackendAliases in c.flags:
let symFlagsA = if a.sym != nil: a.sym.flags else: {}
let symFlagsB = if b.sym != nil: b.sym.flags else: {}
if (symFlagsA+symFlagsB) * {sfImportc, sfExportc} != {}:
result = a.id == b.id
of tyStatic, tyFromExpr:
result = exprStructuralEquivalent(a.n, b.n) and sameFlags(a, b)
@@ -1306,34 +1267,15 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
cycleCheck()
result = sameTypeAux(a.skipModifier, b.skipModifier, c)
of tyObject:
result = sameFlags(a, b)
if result:
ifFastObjectTypeCheckFailed(a, b):
cycleCheck()
# should be generic, and belong to the same generic head type:
assert a.typeInst != nil, "generic object " & $a & " has no typeInst"
assert b.typeInst != nil, "generic object " & $b & " has no typeInst"
if result:
withoutShallowFlags:
# this is required because of generic `ref object`s,
# the value of their dereferences are not wrapped in `tyGenericInst`,
# so we need to check the generic parameters here
for ff, aa in underspecifiedPairs(a.typeInst, b.typeInst, 1, -1):
if not sameTypeAux(ff, aa, c): return false
ifFastObjectTypeCheckFailed(a, b):
cycleCheck()
result = sameObjectStructures(a, b, c) and sameFlags(a, b)
of tyDistinct:
cycleCheck()
if c.cmp == dcEq:
result = sameFlags(a, b)
if result:
if sameFlags(a, b):
ifFastObjectTypeCheckFailed(a, b):
# should be generic, and belong to the same generic head type:
assert a.typeInst != nil, "generic distinct type " & $a & " has no typeInst"
assert b.typeInst != nil, "generic distinct type " & $b & " has no typeInst"
withoutShallowFlags:
# just in case `tyGenericInst` was skipped at some point,
# we need to check the generic parameters here
for ff, aa in underspecifiedPairs(a.typeInst, b.typeInst, 1, -1):
if not sameTypeAux(ff, aa, c): return false
result = sameTypeAux(a.elementType, b.elementType, c)
else:
result = sameTypeAux(a.elementType, b.elementType, c) and sameFlags(a, b)
of tyEnum, tyForward:
@@ -1342,9 +1284,8 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
of tyError:
result = b.kind == tyError
of tyTuple:
withoutShallowFlags:
cycleCheck()
result = sameTuple(a, b, c) and sameFlags(a, b)
cycleCheck()
result = sameTuple(a, b, c) and sameFlags(a, b)
of tyTypeDesc:
if c.cmp == dcEqIgnoreDistinct: result = false
elif ExactTypeDescValues in c.flags:
@@ -1368,8 +1309,7 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
tyAnd, tyOr, tyNot, tyAnything, tyOwned:
cycleCheck()
if a.kind == tyUserTypeClass and a.n != nil: return a.n == b.n
withoutShallowFlags:
result = sameChildrenAux(a, b, c)
result = sameChildrenAux(a, b, c)
if result and IgnoreFlags notin c.flags:
if IgnoreTupleFields in c.flags:
result = a.flags * {tfVarIsPtr, tfIsOutParam} == b.flags * {tfVarIsPtr, tfIsOutParam}
@@ -1382,9 +1322,8 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
((ExactConstraints notin c.flags) or sameConstraints(a.n, b.n))
of tyRange:
cycleCheck()
result = sameTypeOrNilAux(a.elementType, b.elementType, c)
if result and IgnoreRangeShallow notin c.flags:
result = sameValue(a.n[0], b.n[0]) and
result = sameTypeOrNilAux(a.elementType, b.elementType, c) and
sameValue(a.n[0], b.n[0]) and
sameValue(a.n[1], b.n[1])
of tyAlias, tyInferred, tyIterable:
cycleCheck()
@@ -1394,9 +1333,8 @@ proc sameTypeAux(x, y: PType, c: var TSameTypeClosure): bool =
# The type system must distinguish between `T[int] = object #[empty]#`
# and `T[float] = object #[empty]#`!
cycleCheck()
withoutShallowFlags:
for ff, aa in underspecifiedPairs(a, b, 1, -1):
if not sameTypeAux(ff, aa, c): return false
for ff, aa in underspecifiedPairs(a, b, 1, -1):
if not sameTypeAux(ff, aa, c): return false
result = sameTypeAux(a.skipModifier, b.skipModifier, c)
of tyNone: result = false
of tyConcept:
@@ -1408,19 +1346,6 @@ proc sameBackendType*(x, y: PType): bool =
c.cmp = dcEqIgnoreDistinct
result = sameTypeAux(x, y, c)
proc sameBackendTypeIgnoreRange*(x, y: PType): bool =
var c = initSameTypeClosure()
c.flags.incl IgnoreTupleFields
c.flags.incl IgnoreRangeShallow
c.cmp = dcEqIgnoreDistinct
result = sameTypeAux(x, y, c)
proc sameBackendTypePickyAliases*(x, y: PType): bool =
var c = initSameTypeClosure()
c.flags.incl {IgnoreTupleFields, PickyCAliases, PickyBackendAliases}
c.cmp = dcEqIgnoreDistinct
result = sameTypeAux(x, y, c)
proc compareTypes*(x, y: PType,
cmp: TDistinctCompare = dcEq,
flags: TTypeCmpFlags = {}): bool =
@@ -1481,8 +1406,6 @@ proc commonSuperclass*(a, b: PType): PType =
return t
y = y.baseClass
proc lacksMTypeField*(typ: PType): bool {.inline.} =
(typ.sym != nil and sfPure in typ.sym.flags) or tfFinal in typ.flags
include sizealignoffsetimpl
@@ -1519,23 +1442,6 @@ proc containsGenericTypeIter(t: PType, closure: RootRef): bool =
proc containsGenericType*(t: PType): bool =
result = iterOverType(t, containsGenericTypeIter, nil)
proc containsUnresolvedTypeIter(t: PType, closure: RootRef): bool =
if tfUnresolved in t.flags: return true
case t.kind
of tyStatic:
return t.n == nil
of tyTypeDesc:
if t.base.kind == tyNone: return true
if containsUnresolvedTypeIter(t.base, closure): return true
return false
of tyGenericInvocation, tyGenericParam, tyFromExpr, tyAnything:
return true
else:
return false
proc containsUnresolvedType*(t: PType): bool =
result = iterOverType(t, containsUnresolvedTypeIter, nil)
proc baseOfDistinct*(t: PType; g: ModuleGraph; idgen: IdGenerator): PType =
if t.kind == tyDistinct:
result = t.elementType
@@ -1705,7 +1611,7 @@ proc skipHidden*(n: PNode): PNode =
proc skipConvTakeType*(n: PNode): PNode =
result = n.skipConv
result.typ() = n.typ
result.typ = n.typ
proc isEmptyContainer*(t: PType): bool =
case t.kind
@@ -1745,7 +1651,7 @@ proc skipHiddenSubConv*(n: PNode; g: ModuleGraph; idgen: IdGenerator): PNode =
result = n
else:
result = copyTree(result)
result.typ() = dest
result.typ = dest
else:
result = n
@@ -1819,13 +1725,6 @@ proc processPragmaAndCallConvMismatch(msg: var string, formal, actual: PType, co
of efTagsIllegal:
msg.add "\n.notTag catched an illegal effect"
proc typeNameAndDesc*(t: PType): string =
result = typeToString(t)
let desc = typeToString(t, preferDesc)
if result != desc:
result.add(" = ")
result.add(desc)
proc typeMismatch*(conf: ConfigRef; info: TLineInfo, formal, actual: PType, n: PNode) =
if formal.kind != tyError and actual.kind != tyError:
let actualStr = typeToString(actual)
@@ -1956,85 +1855,5 @@ proc isCharArrayPtr*(t: PType; allowPointerToChar: bool): bool =
else:
result = false
proc isRefPtrObject*(t: PType): bool =
t.kind in {tyRef, tyPtr} and tfRefsAnonObj in t.flags
proc nominalRoot*(t: PType): PType =
## the "name" type of a given instance of a nominal type,
## i.e. the type directly associated with the symbol where the root
## nominal type of `t` was defined, skipping things like generic instances,
## aliases, `var`/`sink`/`typedesc` modifiers
##
## instead of returning the uninstantiated body of a generic type,
## returns the type of the symbol instead (with tyGenericBody type)
result = nil
case t.kind
of tyAlias, tyVar, tySink:
# varargs?
result = nominalRoot(t.skipModifier)
of tyTypeDesc:
# for proc foo(_: type T)
result = nominalRoot(t.skipModifier)
of tyGenericInvocation, tyGenericInst:
result = t
# skip aliases, so this works in the same module but not in another module:
# type Foo[T] = object
# type Bar[T] = Foo[T]
# proc foo[T](x: Bar[T]) = ... # attached to type
while result.skipModifier.kind in {tyGenericInvocation, tyGenericInst}:
result = result.skipModifier
result = nominalRoot(result[0])
of tyGenericBody:
result = t
# this time skip the aliases but take the generic body
while result.skipModifier.kind in {tyGenericInvocation, tyGenericInst}:
result = result.skipModifier[0]
let val = result.skipModifier
if val.kind in {tyDistinct, tyEnum, tyObject} or
isRefPtrObject(val):
# atomic nominal types, this generic body is attached to them
discard
else:
result = nominalRoot(val)
of tyCompositeTypeClass:
# parameter with type Foo
result = nominalRoot(t.skipModifier)
of tyGenericParam:
if t.genericParamHasConstraints:
# T: Foo
result = nominalRoot(t.genericConstraint)
else:
result = nil
of tyDistinct, tyEnum, tyObject:
result = t
of tyPtr, tyRef:
if tfRefsAnonObj in t.flags:
# in the case that we have `type Foo = ref object` etc
result = t
else:
# we could allow this in general, but there's things like `seq[Foo]`
#result = nominalRoot(t.skipModifier)
result = nil
of tyStatic:
result = nominalRoot(t.base)
else:
# skips all typeclasses
# is this correct for `concept`?
result = nil
proc genericRoot*(t: PType): PType =
## gets the root generic type (`tyGenericBody`) from `t`,
## if `t` is a generic type or the body of a generic instantiation
case t.kind
of tyGenericBody:
result = t
of tyGenericInst, tyGenericInvocation:
result = t.genericHead
else:
if t.typeInst != nil:
result = t.typeInst.genericHead
elif t.sym != nil and t.sym.typ.kind == tyGenericBody:
# can happen if `t` is the last child (body) of the generic body
result = t.sym.typ
else:
result = nil
proc lacksMTypeField*(typ: PType): bool {.inline.} =
(typ.sym != nil and sfPure in typ.sym.flags) or tfFinal in typ.flags

View File

@@ -106,7 +106,6 @@ type
unanalysableMutation: bool
inAsgnSource, inConstructor, inNoSideEffectSection: int
inConditional, inLoop: int
inConvHasDestructor: int
owner: PSym
g: ModuleGraph
@@ -428,28 +427,16 @@ proc destMightOwn(c: var Partitions; dest: var VarIndex; n: PNode) =
# primitive literals including the empty are harmless:
discard
of nkExprEqExpr, nkExprColonExpr, nkHiddenStdConv, nkHiddenSubConv, nkCast:
of nkExprEqExpr, nkExprColonExpr, nkHiddenStdConv, nkHiddenSubConv, nkCast, nkConv:
destMightOwn(c, dest, n[1])
of nkConv:
if hasDestructor(n.typ):
inc c.inConvHasDestructor
destMightOwn(c, dest, n[1])
dec c.inConvHasDestructor
else:
destMightOwn(c, dest, n[1])
of nkIfStmt, nkIfExpr:
for i in 0..<n.len:
inc c.inConditional
destMightOwn(c, dest, n[i].lastSon)
dec c.inConditional
of nkCaseStmt:
for i in 1..<n.len:
inc c.inConditional
destMightOwn(c, dest, n[i].lastSon)
dec c.inConditional
of nkStmtList, nkStmtListExpr:
if n.len > 0:
@@ -494,7 +481,7 @@ proc destMightOwn(c: var Partitions; dest: var VarIndex; n: PNode) =
of nkCallKinds:
if n.typ != nil:
if hasDestructor(n.typ) or c.inConvHasDestructor > 0:
if hasDestructor(n.typ):
# calls do construct, what we construct must be destroyed,
# so dest cannot be a cursor:
dest.flags.incl ownsData
@@ -502,17 +489,8 @@ proc destMightOwn(c: var Partitions; dest: var VarIndex; n: PNode) =
# we know the result is derived from the first argument:
var roots: seq[(PSym, int)] = @[]
allRoots(n[1], roots, RootEscapes)
if roots.len == 0 and c.inConditional > 0:
# when in a conditional expression,
# to ensure that the first argument isn't outlived
# by the lvalue, we need find the root, otherwise
# it is probably a local temporary
# (e.g. a return value from a call),
# we should prevent cursorfication
dest.flags.incl preventCursor
else:
for r in roots:
connect(c, dest.sym, r[0], n[1].info)
for r in roots:
connect(c, dest.sym, r[0], n[1].info)
else:
let magic = if n[0].kind == nkSym: n[0].sym.magic else: mNone

View File

@@ -202,7 +202,7 @@ proc copyValue(src: PNode): PNode =
return src
result = newNode(src.kind)
result.info = src.info
result.typ() = src.typ
result.typ = src.typ
result.flags = src.flags * PersistentNodeFlags
result.comment = src.comment
when defined(useNodeIds):
@@ -507,7 +507,7 @@ proc setLenSeq(c: PCtx; node: PNode; newLen: int; info: TLineInfo) =
setLen(node.sons, newLen)
if oldLen < newLen:
for i in oldLen..<newLen:
node[i] = getNullValue(c, typ.elementType, info, c.config)
node[i] = getNullValue(typ.elementType, info, c.config)
const
errNilAccess = "attempt to access a nil address"
@@ -609,10 +609,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
of opcYldVal: assert false
of opcAsgnInt:
decodeB(rkInt)
if regs[rb].kind == rkInt:
regs[ra].intVal = regs[rb].intVal
else:
stackTrace(c, tos, pc, "opcAsgnInt: got " & $regs[rb].kind)
regs[ra].intVal = regs[rb].intVal
of opcAsgnFloat:
decodeB(rkFloat)
regs[ra].floatVal = regs[rb].floatVal
@@ -642,8 +639,6 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
regs[ra].intVal = cast[int](regs[rb].node.intVal)
of rkNodeAddr:
regs[ra].intVal = cast[int](regs[rb].nodeAddr)
of rkRegisterAddr:
regs[ra].intVal = cast[int](regs[rb].regAddr)
of rkInt:
regs[ra].intVal = regs[rb].intVal
else:
@@ -679,19 +674,16 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
else:
assert regs[rb].kind == rkNode
let nb = regs[rb].node
if nb == nil:
stackTrace(c, tos, pc, errNilAccess)
case nb.kind
of nkCharLit..nkUInt64Lit:
ensureKind(rkInt)
regs[ra].intVal = nb.intVal
of nkFloatLit..nkFloat64Lit:
ensureKind(rkFloat)
regs[ra].floatVal = nb.floatVal
else:
case nb.kind
of nkCharLit..nkUInt64Lit:
ensureKind(rkInt)
regs[ra].intVal = nb.intVal
of nkFloatLit..nkFloat64Lit:
ensureKind(rkFloat)
regs[ra].floatVal = nb.floatVal
else:
ensureKind(rkNode)
regs[ra].node = nb
ensureKind(rkNode)
regs[ra].node = nb
of opcSlice:
# A bodge, but this takes in `toOpenArray(rb, rc, rc)` and emits
# nkTupleConstr(x, y, z) into the `regs[ra]`. These can later be used for calculating the slice we have taken.
@@ -856,30 +848,25 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
of opcLdObj:
# a = b.c
decodeBC(rkNode)
if rb >= regs.len or regs[rb].kind == rkNone or
(regs[rb].kind == rkNode and regs[rb].node == nil) or
(regs[rb].kind == rkNodeAddr and regs[rb].nodeAddr[] == nil):
stackTrace(c, tos, pc, errNilAccess)
let src = if regs[rb].kind == rkNode: regs[rb].node else: regs[rb].nodeAddr[]
case src.kind
of nkEmpty..nkNilLit:
# for nkPtrLit, this could be supported in the future, use something like:
# derefPtrToReg(src.intVal + offsetof(src.typ, rc), typ_field, regs[ra], isAssign = false)
# where we compute the offset in bytes for field rc
stackTrace(c, tos, pc, errNilAccess & " " & $("kind", src.kind, "typ", typeToString(src.typ), "rc", rc))
of nkObjConstr:
let n = src[rc + 1].skipColon
regs[ra].node = n
of nkTupleConstr:
let n = if src.typ != nil and tfTriggersCompileTime in src.typ.flags:
src[rc]
else:
src[rc].skipColon
regs[ra].node = n
else:
let src = if regs[rb].kind == rkNode: regs[rb].node else: regs[rb].nodeAddr[]
case src.kind
of nkEmpty..nkNilLit:
# for nkPtrLit, this could be supported in the future, use something like:
# derefPtrToReg(src.intVal + offsetof(src.typ, rc), typ_field, regs[ra], isAssign = false)
# where we compute the offset in bytes for field rc
stackTrace(c, tos, pc, errNilAccess & " " & $("kind", src.kind, "typ", typeToString(src.typ), "rc", rc))
of nkObjConstr:
let n = src[rc + 1].skipColon
regs[ra].node = n
of nkTupleConstr:
let n = if src.typ != nil and tfTriggersCompileTime in src.typ.flags:
src[rc]
else:
src[rc].skipColon
regs[ra].node = n
else:
let n = src[rc]
regs[ra].node = n
let n = src[rc]
regs[ra].node = n
of opcLdObjAddr:
# a = addr(b.c)
decodeBC(rkNodeAddr)
@@ -905,10 +892,8 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
stackTrace(c, tos, pc, errNilAccess)
elif dest[shiftedRb].kind == nkExprColonExpr:
writeField(dest[shiftedRb][1], regs[rc])
dest[shiftedRb][1].flags.incl nfSkipFieldChecking
else:
writeField(dest[shiftedRb], regs[rc])
dest[shiftedRb].flags.incl nfSkipFieldChecking
of opcWrStrIdx:
decodeBC(rkNode)
let idx = regs[rb].intVal.int
@@ -1276,11 +1261,6 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
createSet(regs[ra])
move(regs[ra].node.sons,
nimsets.diffSets(c.config, regs[rb].node, regs[rc].node).sons)
of opcXorSet:
decodeBC(rkNode)
createSet(regs[ra])
move(regs[ra].node.sons,
nimsets.symdiffSets(c.config, regs[rb].node, regs[rc].node).sons)
of opcConcatStr:
decodeBC(rkNode)
createStr regs[ra]
@@ -1381,7 +1361,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
else:
internalError(c.config, c.debug[pc], "opcParseFloat: Incorrectly created openarray")
else:
regs[ra].intVal = parseBiggestFloat(regs[rb].node.strVal, rcAddr.floatVal)
regs[ra].intVal = parseBiggestFloat(regs[ra].node.strVal, rcAddr.floatVal)
of opcRangeChck:
let rb = instr.regB
@@ -1396,11 +1376,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
let rb = instr.regB
let rc = instr.regC
let bb = regs[rb].node
if bb.kind == nkNilLit:
stackTrace(c, tos, pc, "attempt to call nil closure")
let isClosure = bb.kind == nkTupleConstr
if isClosure and bb[0].kind == nkNilLit:
stackTrace(c, tos, pc, "attempt to call nil closure")
let prc = if not isClosure: bb.sym else: bb[0].sym
if prc.offset < -1:
# it's a callback:
@@ -1440,7 +1416,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
var newFrame = PStackFrame(prc: prc, comesFrom: pc, next: tos)
newSeq(newFrame.slots, prc.offset+ord(isClosure))
if not isEmptyType(prc.typ.returnType):
putIntoReg(newFrame.slots[0], getNullValue(c, prc.typ.returnType, prc.info, c.config))
putIntoReg(newFrame.slots[0], getNullValue(prc.typ.returnType, prc.info, c.config))
for i in 1..rc-1:
newFrame.slots[i] = regs[rb+i]
if isClosure:
@@ -1537,10 +1513,10 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
# Set the `name` field of the exception
var exceptionNameNode = newStrNode(nkStrLit, c.currentExceptionA.typ.sym.name.s)
if c.currentExceptionA[2].kind == nkExprColonExpr:
exceptionNameNode.typ() = c.currentExceptionA[2][1].typ
exceptionNameNode.typ = c.currentExceptionA[2][1].typ
c.currentExceptionA[2][1] = exceptionNameNode
else:
exceptionNameNode.typ() = c.currentExceptionA[2].typ
exceptionNameNode.typ = c.currentExceptionA[2].typ
c.currentExceptionA[2] = exceptionNameNode
c.exceptionInstr = pc
@@ -1573,7 +1549,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
of opcNew:
ensureKind(rkNode)
let typ = c.types[instr.regBx - wordExcess]
regs[ra].node = getNullValue(c, typ, c.debug[pc], c.config)
regs[ra].node = getNullValue(typ, c.debug[pc], c.config)
regs[ra].node.flags.incl nfIsRef
of opcNewSeq:
let typ = c.types[instr.regBx - wordExcess]
@@ -1582,10 +1558,10 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
let instr2 = c.code[pc]
let count = regs[instr2.regA].intVal.int
regs[ra].node = newNodeI(nkBracket, c.debug[pc])
regs[ra].node.typ() = typ
regs[ra].node.typ = typ
newSeq(regs[ra].node.sons, count)
for i in 0..<count:
regs[ra].node[i] = getNullValue(c, typ.elementType, c.debug[pc], c.config)
regs[ra].node[i] = getNullValue(typ.elementType, c.debug[pc], c.config)
of opcNewStr:
decodeB(rkNode)
regs[ra].node = newNodeI(nkStrLit, c.debug[pc])
@@ -1597,7 +1573,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
of opcLdNull:
ensureKind(rkNode)
let typ = c.types[instr.regBx - wordExcess]
regs[ra].node = getNullValue(c, typ, c.debug[pc], c.config)
regs[ra].node = getNullValue(typ, c.debug[pc], c.config)
# opcLdNull really is the gist of the VM's problems: should it load
# a fresh null to regs[ra].node or to regs[ra].node[]? This really
# depends on whether regs[ra] represents the variable itself or whether
@@ -1997,7 +1973,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
else:
internalAssert c.config, false
regs[ra].node.info = n.info
regs[ra].node.typ() = n.typ
regs[ra].node.typ = n.typ
of opcNCopyLineInfo:
decodeB(rkNode)
regs[ra].node.info = regs[rb].node.info
@@ -2077,7 +2053,7 @@ proc rawExecute(c: PCtx, start: int, tos: PStackFrame): TFullReg =
ensureKind(rkNode)
regs[ra].node = temp
regs[ra].node.info = c.debug[pc]
regs[ra].node.typ() = typ
regs[ra].node.typ = typ
of opcConv:
let rb = instr.regB
inc pc
@@ -2326,7 +2302,7 @@ proc execProc*(c: PCtx; sym: PSym; args: openArray[PNode]): PNode =
# setup parameters:
if not isEmptyType(sym.typ.returnType) or sym.kind == skMacro:
putIntoReg(tos.slots[0], getNullValue(c, sym.typ.returnType, sym.info, c.config))
putIntoReg(tos.slots[0], getNullValue(sym.typ.returnType, sym.info, c.config))
# XXX We could perform some type checking here.
for i in 0..<sym.typ.paramsLen:
putIntoReg(tos.slots[i+1], args[i])
@@ -2337,17 +2313,9 @@ proc execProc*(c: PCtx; sym: PSym; args: openArray[PNode]): PNode =
localError(c.config, sym.info,
"NimScript: attempt to call non-routine: " & sym.name.s)
proc errorNode(idgen: IdGenerator; owner: PSym, n: PNode): PNode =
result = newNodeI(nkEmpty, n.info)
result.typ() = newType(tyError, idgen, owner)
result.typ.flags.incl tfCheckedForDestructor
proc evalStmt*(c: PCtx, n: PNode) =
let n = transformExpr(c.graph, c.idgen, c.module, n)
let start = genStmt(c, n)
if c.cannotEval:
c.cannotEval = false
return
# execute new instructions; this redundant opcEof check saves us lots
# of allocations in 'execute':
if c.code[start].opcode != opcEof:
@@ -2358,10 +2326,7 @@ proc evalExpr*(c: PCtx, n: PNode): PNode =
# `nim --eval:"expr"` might've used it at some point for idetools; could
# be revived for nimsuggest
let n = transformExpr(c.graph, c.idgen, c.module, n)
c.cannotEval = false
let start = genExpr(c, n)
if c.cannotEval:
return errorNode(c.idgen, c.module, n)
assert c.code[start].opcode != opcEof
result = execute(c, start)
@@ -2414,10 +2379,7 @@ proc evalConstExprAux(module: PSym; idgen: IdGenerator;
var c = PCtx g.vm
let oldMode = c.mode
c.mode = mode
c.cannotEval = false
let start = genExpr(c, n, requiresValue = mode!=emStaticStmt)
if c.cannotEval:
return errorNode(idgen, prc, n)
if c.code[start].opcode == opcEof: return newNodeI(nkEmpty, n.info)
assert c.code[start].opcode != opcEof
when debugEchoCode: c.echoCode start
@@ -2474,7 +2436,7 @@ proc setupMacroParam(x: PNode, typ: PType): TFullReg =
var n = x
if n.kind in {nkHiddenSubConv, nkHiddenStdConv}: n = n[1]
n.flags.incl nfIsRef
n.typ() = x.typ
n.typ = x.typ
result = TFullReg(kind: rkNode, node: n)
iterator genericParamsInMacroCall*(macroSym: PSym, call: PNode): (PSym, PNode) =
@@ -2488,6 +2450,11 @@ iterator genericParamsInMacroCall*(macroSym: PSym, call: PNode): (PSym, PNode) =
# to prevent endless recursion in macro instantiation
const evalMacroLimit = 1000
#proc errorNode(idgen: IdGenerator; owner: PSym, n: PNode): PNode =
# result = newNodeI(nkEmpty, n.info)
# result.typ = newType(tyError, idgen, owner)
# result.typ.flags.incl tfCheckedForDestructor
proc evalMacroCall*(module: PSym; idgen: IdGenerator; g: ModuleGraph; templInstCounter: ref int;
n, nOrig: PNode, sym: PSym): PNode =
#if g.config.errorCounter > 0: return errorNode(idgen, module, n)
@@ -2511,10 +2478,7 @@ proc evalMacroCall*(module: PSym; idgen: IdGenerator; g: ModuleGraph; templInstC
c.comesFromHeuristic.line = 0'u16
c.callsite = nOrig
c.templInstCounter = templInstCounter
c.cannotEval = false
let start = genProc(c, sym)
if c.cannotEval:
return errorNode(idgen, module, n)
var tos = PStackFrame(prc: sym, comesFrom: 0, next: nil)
let maxSlots = sym.offset

View File

@@ -100,7 +100,7 @@ type
opcEqRef, opcEqNimNode, opcSameNodeType,
opcXor, opcNot, opcUnaryMinusInt, opcUnaryMinusFloat, opcBitnotInt,
opcEqStr, opcEqCString, opcLeStr, opcLtStr, opcEqSet, opcLeSet, opcLtSet,
opcMulSet, opcPlusSet, opcMinusSet, opcXorSet, opcConcatStr,
opcMulSet, opcPlusSet, opcMinusSet, opcConcatStr,
opcContainsSet, opcRepr, opcSetLenStr, opcSetLenSeq,
opcIsNil, opcOf, opcIs,
opcParseFloat, opcConv, opcCast,
@@ -270,7 +270,6 @@ type
templInstCounter*: ref int # gives every template instantiation a unique ID, needed here for getAst
vmstateDiff*: seq[(PSym, PNode)] # we remember the "diff" to global state here (feature for IC)
procToCodePos*: Table[int, int]
cannotEval*: bool
PStackFrame* = ref TStackFrame
TStackFrame* {.acyclic.} = object

View File

@@ -35,7 +35,7 @@ proc atomicTypeX(cache: IdentCache; name: string; m: TMagic; t: PType; info: TLi
sym.magic = m
sym.typ = t
result = newSymNode(sym)
result.typ() = t
result.typ = t
proc atomicTypeX(s: PSym; info: TLineInfo): PNode =
result = newSymNode(s)
@@ -52,7 +52,7 @@ proc mapTypeToBracketX(cache: IdentCache; name: string; m: TMagic; t: PType; inf
for a in t.kids:
if a == nil:
let voidt = atomicTypeX(cache, "void", mVoid, t, info, idgen)
voidt.typ() = newType(tyVoid, idgen, t.owner)
voidt.typ = newType(tyVoid, idgen, t.owner)
result.add voidt
else:
result.add mapTypeToAstX(cache, a, info, idgen, inst)
@@ -136,7 +136,7 @@ proc mapTypeToAstX(cache: IdentCache; t: PType; info: TLineInfo;
if allowRecursion:
result = mapTypeToAstR(t.skipModifier, info)
# keep original type info for getType calls on the output node:
result.typ() = t
result.typ = t
else:
result = newNodeX(nkBracketExpr)
#result.add mapTypeToAst(t.last, info)
@@ -146,7 +146,7 @@ proc mapTypeToAstX(cache: IdentCache; t: PType; info: TLineInfo;
else:
result = mapTypeToAstX(cache, t.skipModifier, info, idgen, inst, allowRecursion)
# keep original type info for getType calls on the output node:
result.typ() = t
result.typ = t
of tyGenericBody:
if inst:
result = mapTypeToAstR(t.typeBodyImpl, info)
@@ -237,7 +237,7 @@ proc mapTypeToAstX(cache: IdentCache; t: PType; info: TLineInfo;
of tySequence: result = mapTypeToBracket("seq", mSeq, t, info)
of tyProc:
if inst:
result = newNodeX(if tfIterator in t.flags: nkIteratorTy else: nkProcTy)
result = newNodeX(nkProcTy)
var fp = newNodeX(nkFormalParams)
if t.returnType == nil:
fp.add newNodeI(nkEmpty, info)
@@ -246,15 +246,8 @@ proc mapTypeToAstX(cache: IdentCache; t: PType; info: TLineInfo;
for i in FirstParamAt..<t.kidsLen:
fp.add newIdentDefs(t.n[i], t[i])
result.add fp
var prag =
if t.n[0].len > 0:
t.n[0][pragmasEffects].copyTree
else:
newNodeI(nkEmpty, info)
if t.callConv != ccClosure or tfExplicitCallConv in t.flags:
if prag.kind == nkEmpty: prag = newNodeI(nkPragma, info)
prag.add newIdentNode(getIdent(cache, $t.callConv), info)
result.add prag
result.add if t.n[0].len > 0: t.n[0][pragmasEffects].copyTree
else: newNodeI(nkEmpty, info)
else:
result = mapTypeToBracket("proc", mNone, t, info)
of tyOpenArray: result = mapTypeToBracket("openArray", mOpenArray, t, info)
@@ -289,7 +282,7 @@ proc mapTypeToAstX(cache: IdentCache; t: PType; info: TLineInfo;
of tyUInt32: result = atomicType("uint32", mUInt32)
of tyUInt64: result = atomicType("uint64", mUInt64)
of tyVarargs: result = mapTypeToBracket("varargs", mVarargs, t, info)
of tyError: result = atomicType("error", mNone)
of tyProxy: result = atomicType("error", mNone)
of tyBuiltInTypeClass:
result = mapTypeToBracket("builtinTypeClass", mNone, t, info)
of tyUserTypeClass, tyUserTypeClassInst:

View File

@@ -53,7 +53,6 @@ type
gfNode # Affects how variables are loaded - always loads as rkNode
gfNodeAddr # Affects how variables are loaded - always loads as rkNodeAddr
gfIsParam # do not deepcopy parameters, they are immutable
gfIsSinkParam # deepcopy sink parameters
TGenFlags = set[TGenFlag]
proc debugInfo(c: PCtx; info: TLineInfo): string =
@@ -246,7 +245,7 @@ proc getTemp(cc: PCtx; tt: PType): TRegister =
proc freeTemp(c: PCtx; r: TRegister) =
let c = c.prc
if r < c.regInfo.len and c.regInfo[r].kind in {slotSomeTemp..slotTempComplex}:
if c.regInfo[r].kind in {slotSomeTemp..slotTempComplex}:
# this seems to cause https://github.com/nim-lang/Nim/issues/10647
c.regInfo[r].inUse = false
@@ -358,13 +357,12 @@ proc genBlock(c: PCtx; n: PNode; dest: var TDest) =
#if c.prc.regInfo[i].kind in {slotFixedVar, slotFixedLet}:
if i != dest:
when not defined(release):
if c.config.cmd != cmdCheck:
if c.prc.regInfo[i].inUse and c.prc.regInfo[i].kind in {slotTempUnknown,
slotTempInt,
slotTempFloat,
slotTempStr,
slotTempComplex}:
raiseAssert "leaking temporary " & $i & " " & $c.prc.regInfo[i].kind
if c.prc.regInfo[i].inUse and c.prc.regInfo[i].kind in {slotTempUnknown,
slotTempInt,
slotTempFloat,
slotTempStr,
slotTempComplex}:
raiseAssert "leaking temporary " & $i & " " & $c.prc.regInfo[i].kind
c.prc.regInfo[i] = (inUse: false, kind: slotEmpty)
c.clearDest(n, dest)
@@ -621,17 +619,10 @@ proc genCall(c: PCtx; n: PNode; dest: var TDest) =
let fntyp = skipTypes(n[0].typ, abstractInst)
for i in 0..<n.len:
var r: TRegister = x+i
c.gen(n[i], r, {gfIsParam})
if i >= fntyp.signatureLen:
c.gen(n[i], r, {gfIsParam})
internalAssert c.config, tfVarargs in fntyp.flags
c.gABx(n, opcSetType, r, c.genType(n[i].typ))
else:
if fntyp[i] != nil and fntyp[i].kind == tySink and
fntyp[i].skipTypes({tySink}).kind in {tyObject, tyString, tySequence}:
c.gen(n[i], r, {gfIsSinkParam})
else:
c.gen(n[i], r, {gfIsParam})
if dest < 0:
c.gABC(n, opcIndCall, 0, x, n.len)
else:
@@ -705,9 +696,6 @@ proc genAsgnPatch(c: PCtx; le: PNode, value: TRegister) =
let dest = c.genx(le, {gfNodeAddr})
c.gABC(le, opcWrDeref, dest, 0, value)
c.freeTemp(dest)
of nkHiddenStdConv, nkHiddenSubConv, nkConv:
if sameBackendType(le.typ, le[1].typ):
genAsgnPatch(c, le[1], value)
else:
discard
@@ -880,7 +868,7 @@ proc genAddSubInt(c: PCtx; n: PNode; dest: var TDest; opc: TOpcode) =
genBinaryABC(c, n, dest, opc)
c.genNarrow(n, dest)
proc genConv(c: PCtx; n, arg: PNode; dest: var TDest, flags: TGenFlags = {}; opc=opcConv) =
proc genConv(c: PCtx; n, arg: PNode; dest: var TDest; opc=opcConv) =
let t2 = n.typ.skipTypes({tyDistinct})
let targ2 = arg.typ.skipTypes({tyDistinct})
@@ -894,7 +882,7 @@ proc genConv(c: PCtx; n, arg: PNode; dest: var TDest, flags: TGenFlags = {}; opc
result = false
if implicitConv():
gen(c, arg, dest, flags)
gen(c, arg, dest)
return
let tmp = c.genx(arg)
@@ -912,15 +900,9 @@ proc genCard(c: PCtx; n: PNode; dest: var TDest) =
c.freeTemp(tmp)
proc genCastIntFloat(c: PCtx; n: PNode; dest: var TDest) =
template isSigned(typ: PType): bool {.dirty.} =
typ.kind == tyEnum and firstOrd(c.config, typ) < 0 or
typ.kind in {tyInt..tyInt64}
template isUnsigned(typ: PType): bool {.dirty.} =
typ.kind == tyEnum and firstOrd(c.config, typ) >= 0 or
typ.kind in {tyUInt..tyUInt64, tyChar, tyBool}
const allowedIntegers = {tyInt..tyInt64, tyUInt..tyUInt64, tyChar, tyEnum, tyBool}
var signedIntegers = {tyInt..tyInt64}
var unsignedIntegers = {tyUInt..tyUInt64, tyChar, tyEnum, tyBool}
let src = n[1].typ.skipTypes(abstractRange)#.kind
let dst = n[0].typ.skipTypes(abstractRange)#.kind
let srcSize = getSize(c.config, src)
@@ -932,12 +914,12 @@ proc genCastIntFloat(c: PCtx; n: PNode; dest: var TDest) =
if dest < 0: dest = c.getTemp(n[0].typ)
c.gABC(n, opcAsgnInt, dest, tmp)
if dstSize != sizeof(BiggestInt): # don't do anything on biggest int types
if isSigned(dst): # we need to do sign extensions
if dst.kind in signedIntegers: # we need to do sign extensions
if dstSize <= srcSize:
# Sign extension can be omitted when the size increases.
c.gABC(n, opcSignExtend, dest, TRegister(dstSize*8))
elif isUnsigned(dst):
if isSigned(src) or dstSize < srcSize:
elif dst.kind in unsignedIntegers:
if src.kind in signedIntegers or dstSize < srcSize:
# Cast from signed to unsigned always needs narrowing. Cast
# from unsigned to unsigned only needs narrowing when target
# is smaller than source.
@@ -965,7 +947,7 @@ proc genCastIntFloat(c: PCtx; n: PNode; dest: var TDest) =
if dest < 0: dest = c.getTemp(n[0].typ)
if src.kind == tyFloat32:
c.gABC(n, opcCastFloatToInt32, dest, tmp)
if isUnsigned(dst):
if dst.kind in unsignedIntegers:
# integers are sign extended by default.
# since there is no opcCastFloatToUInt32, narrowing should do the trick.
c.gABC(n, opcNarrowU, dest, TRegister(32))
@@ -1062,7 +1044,7 @@ proc whichAsgnOpc(n: PNode; requiresCopy = true): TOpcode =
else:
(if requiresCopy: opcAsgnComplex else: opcFastAsgnComplex)
proc genMagic(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}, m: TMagic) =
proc genMagic(c: PCtx; n: PNode; dest: var TDest; m: TMagic) =
case m
of mAnd: c.genAndOr(n, opcFJmp, dest)
of mOr: c.genAndOr(n, opcTJmp, dest)
@@ -1201,7 +1183,7 @@ proc genMagic(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}, m: TMag
if t.kind in {tyUInt8..tyUInt32} or (t.kind == tyUInt and size < 8):
c.gABC(n, opcNarrowU, dest, TRegister(size*8))
of mCharToStr, mBoolToStr, mCStrToStr, mStrToStr, mEnumToStr:
genConv(c, n, n[1], dest, flags)
genConv(c, n, n[1], dest)
of mEqStr: genBinaryABC(c, n, dest, opcEqStr)
of mEqCString: genBinaryABC(c, n, dest, opcEqCString)
of mLeStr: genBinaryABC(c, n, dest, opcLeStr)
@@ -1212,7 +1194,6 @@ proc genMagic(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}, m: TMag
of mMulSet: genBinarySet(c, n, dest, opcMulSet)
of mPlusSet: genBinarySet(c, n, dest, opcPlusSet)
of mMinusSet: genBinarySet(c, n, dest, opcMinusSet)
of mXorSet: genBinarySet(c, n, dest, opcXorSet)
of mConStrStr: genVarargsABC(c, n, dest, opcConcatStr)
of mInSet: genBinarySet(c, n, dest, opcContainsSet)
of mRepr: genUnaryABC(c, n, dest, opcRepr)
@@ -1474,9 +1455,9 @@ proc canElimAddr(n: PNode; idgen: IdGenerator): PNode =
result = copyNode(n[0])
result.add m[0]
if n.typ.skipTypes(abstractVar).kind != tyOpenArray:
result.typ() = n.typ
result.typ = n.typ
elif n.typ.skipTypes(abstractInst).kind in {tyVar}:
result.typ() = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, idgen)
result.typ = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, idgen)
of nkHiddenStdConv, nkHiddenSubConv, nkConv:
var m = n[0][1]
if m.kind in {nkDerefExpr, nkHiddenDeref}:
@@ -1485,9 +1466,9 @@ proc canElimAddr(n: PNode; idgen: IdGenerator): PNode =
result.add n[0][0]
result.add m[0]
if n.typ.skipTypes(abstractVar).kind != tyOpenArray:
result.typ() = n.typ
result.typ = n.typ
elif n.typ.skipTypes(abstractInst).kind in {tyVar}:
result.typ() = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, idgen)
result.typ = toVar(result.typ, n.typ.skipTypes(abstractInst).kind, idgen)
else:
if n[0].kind in {nkDerefExpr, nkHiddenDeref}:
# addr ( deref ( x )) --> x
@@ -1542,14 +1523,7 @@ proc setSlot(c: PCtx; v: PSym) =
if v.position == 0:
v.position = getFreeRegister(c, if v.kind == skLet: slotFixedLet else: slotFixedVar, start = 1)
template cannotEval(c: PCtx; n: PNode) =
if c.config.cmd == cmdCheck and c.config.m.errorOutputs != {}:
# nim check command with no error outputs doesn't need to cascade here,
# includes `tryConstExpr` case which should not continue generating code
localError(c.config, n.info, "cannot evaluate at compile time: " &
n.renderTree)
c.cannotEval = true
return
proc cannotEval(c: PCtx; n: PNode) {.noinline.} =
globalError(c.config, n.info, "cannot evaluate at compile time: " &
n.renderTree)
@@ -1585,7 +1559,8 @@ proc checkCanEval(c: PCtx; n: PNode) =
elif s.kind == skParam and s.typ.kind == tyTypeDesc: discard
else: cannotEval(c, n)
elif s.kind in {skProc, skFunc, skConverter, skMethod,
skIterator} and sfForward in s.flags:
skIterator} and sfWasForwarded in s.flags and
s.originatingModule == c.module: # forbides recursive calls from the same module
cannotEval(c, n)
template needsAdditionalCopy(n): untyped =
@@ -1672,9 +1647,6 @@ proc genAsgn(c: PCtx; le, ri: PNode; requiresCopy: bool) =
c.freeTemp(cc)
else:
gen(c, ri, dest)
of nkHiddenStdConv, nkHiddenSubConv, nkConv:
if sameBackendType(le.typ, le[1].typ):
genAsgn(c, le[1], ri, requiresCopy)
else:
let dest = c.genx(le, {gfNodeAddr})
genAsgn(c, dest, ri, requiresCopy)
@@ -1682,7 +1654,7 @@ proc genAsgn(c: PCtx; le, ri: PNode; requiresCopy: bool) =
proc genTypeLit(c: PCtx; t: PType; dest: var TDest) =
var n = newNode(nkType)
n.typ() = t
n.typ = t
genLit(c, n, dest)
proc isEmptyBody(n: PNode): bool =
@@ -1713,10 +1685,10 @@ proc importcSym(c: PCtx; info: TLineInfo; s: PSym) =
localError(c.config, info,
"cannot 'importc' variable at compile time; " & s.name.s)
proc getNullValue*(c: PCtx; typ: PType, info: TLineInfo; conf: ConfigRef): PNode
proc getNullValue*(typ: PType, info: TLineInfo; conf: ConfigRef): PNode
proc genGlobalInit(c: PCtx; n: PNode; s: PSym) =
c.globals.add(getNullValue(c, s.typ, n.info, c.config))
c.globals.add(getNullValue(s.typ, n.info, c.config))
s.position = c.globals.len
# This is rather hard to support, due to the laziness of the VM code
# generator. See tests/compile/tmacro2 for why this is necessary:
@@ -1752,8 +1724,6 @@ proc genRdVar(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags) =
c.gABx(n, opcLdGlobalAddr, dest, s.position)
elif isImportcVar:
c.gABx(n, opcLdGlobalDerefFFI, dest, s.position)
elif gfIsSinkParam in flags:
genAsgn(c, dest, n, requiresCopy = true)
elif fitsRegister(s.typ) and gfNode notin flags:
var cc = c.getTemp(n.typ)
c.gABx(n, opcLdGlobal, cc, s.position)
@@ -1767,7 +1737,7 @@ proc genRdVar(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags) =
s.kind in {skParam, skResult}):
if dest < 0:
dest = s.position + ord(s.kind == skParam)
internalAssert(c.config, c.prc.regInfo.len > dest and c.prc.regInfo[dest].kind < slotSomeTemp)
internalAssert(c.config, c.prc.regInfo[dest].kind < slotSomeTemp)
else:
# we need to generate an assignment:
let requiresCopy = c.prc.regInfo[dest].kind >= slotSomeTemp and
@@ -1851,7 +1821,7 @@ proc genCheckedObjAccessAux(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags
let fieldName = $accessExpr[1]
let msg = genFieldDefect(c.config, fieldName, disc.sym)
let strLit = newStrNode(msg, accessExpr[1].info)
strLit.typ() = strType
strLit.typ = strType
c.genLit(strLit, msgReg)
c.gABC(n, opcInvalidField, msgReg, discVal)
c.freeTemp(discVal)
@@ -1897,21 +1867,21 @@ proc genArrAccess(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags) =
let opc = if gfNodeAddr in flags: opcLdArrAddr else: opcLdArr
genArrAccessOpcode(c, n, dest, opc, flags)
proc getNullValueAux(c: PCtx; t: PType; obj: PNode, result: PNode; conf: ConfigRef; currPosition: var int) =
proc getNullValueAux(t: PType; obj: PNode, result: PNode; conf: ConfigRef; currPosition: var int) =
if t != nil and t.baseClass != nil:
let b = skipTypes(t.baseClass, skipPtrs)
getNullValueAux(c, b, b.n, result, conf, currPosition)
getNullValueAux(b, b.n, result, conf, currPosition)
case obj.kind
of nkRecList:
for i in 0..<obj.len: getNullValueAux(c, nil, obj[i], result, conf, currPosition)
for i in 0..<obj.len: getNullValueAux(nil, obj[i], result, conf, currPosition)
of nkRecCase:
getNullValueAux(c, nil, obj[0], result, conf, currPosition)
getNullValueAux(nil, obj[0], result, conf, currPosition)
for i in 1..<obj.len:
getNullValueAux(c, nil, lastSon(obj[i]), result, conf, currPosition)
getNullValueAux(nil, lastSon(obj[i]), result, conf, currPosition)
of nkSym:
let field = newNodeI(nkExprColonExpr, result.info)
field.add(obj)
let value = getNullValue(c, obj.sym.typ, result.info, conf)
let value = getNullValue(obj.sym.typ, result.info, conf)
value.flags.incl nfSkipFieldChecking
field.add(value)
result.add field
@@ -1919,7 +1889,7 @@ proc getNullValueAux(c: PCtx; t: PType; obj: PNode, result: PNode; conf: ConfigR
inc currPosition
else: globalError(conf, result.info, "cannot create null element for: " & $obj)
proc getNullValue(c: PCtx; typ: PType, info: TLineInfo; conf: ConfigRef): PNode =
proc getNullValue(typ: PType, info: TLineInfo; conf: ConfigRef): PNode =
var t = skipTypes(typ, abstractRange+{tyStatic, tyOwned}-{tyTypeDesc})
case t.kind
of tyBool, tyEnum, tyChar, tyInt..tyInt64:
@@ -1939,22 +1909,22 @@ proc getNullValue(c: PCtx; typ: PType, info: TLineInfo; conf: ConfigRef): PNode
result = newNodeIT(nkNilLit, info, t)
else:
result = newNodeIT(nkTupleConstr, info, t)
result.add(newNodeIT(nkNilLit, info, getSysType(c.graph, info, tyPointer)))
result.add(newNodeIT(nkNilLit, info, getSysType(c.graph, info, tyPointer)))
result.add(newNodeIT(nkNilLit, info, t))
result.add(newNodeIT(nkNilLit, info, t))
of tyObject:
result = newNodeIT(nkObjConstr, info, t)
result.add(newNodeIT(nkEmpty, info, t))
# initialize inherited fields, and all in the correct order:
var currPosition = 0
getNullValueAux(c, t, t.n, result, conf, currPosition)
getNullValueAux(t, t.n, result, conf, currPosition)
of tyArray:
result = newNodeIT(nkBracket, info, t)
for i in 0..<toInt(lengthOrd(conf, t)):
result.add getNullValue(c, elemType(t), info, conf)
result.add getNullValue(elemType(t), info, conf)
of tyTuple:
result = newNodeIT(nkTupleConstr, info, t)
for a in t.kids:
result.add getNullValue(c, a, info, conf)
result.add getNullValue(a, info, conf)
of tySet:
result = newNodeIT(nkCurly, info, t)
of tySequence, tyOpenArray:
@@ -1982,7 +1952,7 @@ proc genVarSection(c: PCtx; n: PNode) =
if s.position == 0:
if importcCond(c, s): c.importcSym(a.info, s)
else:
let sa = getNullValue(c, s.typ, a.info, c.config)
let sa = getNullValue(s.typ, a.info, c.config)
#if s.ast.isNil: getNullValue(s.typ, a.info)
#else: s.ast
assert sa.kind != nkCall
@@ -2004,7 +1974,7 @@ proc genVarSection(c: PCtx; n: PNode) =
# the problem is that closure types are tuples in VM, but the types of its children
# shouldn't have the same type as closure types.
let tmp = c.genx(a[0], {gfNodeAddr})
let sa = getNullValue(c, s.typ, a.info, c.config)
let sa = getNullValue(s.typ, a.info, c.config)
let val = c.genx(sa)
c.genAdditionalCopy(sa, opcWrDeref, tmp, 0, val)
c.freeTemp(val)
@@ -2189,7 +2159,7 @@ proc gen(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}) =
if n[0].kind == nkSym:
let s = n[0].sym
if s.magic != mNone:
genMagic(c, n, dest, flags, s.magic)
genMagic(c, n, dest, s.magic)
elif s.kind == skMethod:
localError(c.config, n.info, "cannot call method " & s.name.s &
" at compile time")
@@ -2207,7 +2177,7 @@ proc gen(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}) =
genLit(c, n, dest)
of nkUIntLit..pred(nkNilLit): genLit(c, n, dest)
of nkNilLit:
if not n.typ.isEmptyType: genLit(c, getNullValue(c, n.typ, n.info, c.config), dest)
if not n.typ.isEmptyType: genLit(c, getNullValue(n.typ, n.info, c.config), dest)
else: unused(c, n, dest)
of nkAsgn, nkFastAsgn, nkSinkAsgn:
unused(c, n, dest)
@@ -2246,11 +2216,11 @@ proc gen(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}) =
unused(c, n, dest)
gen(c, n[0])
of nkHiddenStdConv, nkHiddenSubConv, nkConv:
genConv(c, n, n[1], dest, flags)
genConv(c, n, n[1], dest)
of nkObjDownConv:
genConv(c, n, n[0], dest, flags)
genConv(c, n, n[0], dest)
of nkObjUpConv:
genConv(c, n, n[0], dest, flags)
genConv(c, n, n[0], dest)
of nkVarSection, nkLetSection:
unused(c, n, dest)
genVarSection(c, n)
@@ -2259,21 +2229,18 @@ proc gen(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}) =
#discard genProc(c, s)
genLit(c, newSymNode(n[namePos].sym), dest)
of nkChckRangeF, nkChckRange64, nkChckRange:
if skipTypes(n.typ, abstractVar).kind in {tyUInt..tyUInt64}:
genConv(c, n, n[0], dest, flags)
let
tmp0 = c.genx(n[0])
tmp1 = c.genx(n[1])
tmp2 = c.genx(n[2])
c.gABC(n, opcRangeChck, tmp0, tmp1, tmp2)
c.freeTemp(tmp1)
c.freeTemp(tmp2)
if dest >= 0:
gABC(c, n, whichAsgnOpc(n), dest, tmp0)
c.freeTemp(tmp0)
else:
let
tmp0 = c.genx(n[0])
tmp1 = c.genx(n[1])
tmp2 = c.genx(n[2])
c.gABC(n, opcRangeChck, tmp0, tmp1, tmp2)
c.freeTemp(tmp1)
c.freeTemp(tmp2)
if dest >= 0:
gABC(c, n, whichAsgnOpc(n), dest, tmp0)
c.freeTemp(tmp0)
else:
dest = tmp0
dest = tmp0
of nkEmpty, nkCommentStmt, nkTypeSection, nkConstSection, nkPragma,
nkTemplateDef, nkIncludeStmt, nkImportStmt, nkFromStmt, nkExportStmt,
nkMixinStmt, nkBindStmt, declarativeDefs, nkMacroDef:
@@ -2286,7 +2253,7 @@ proc gen(c: PCtx; n: PNode; dest: var TDest; flags: TGenFlags = {}) =
of nkPar, nkClosure, nkTupleConstr: genTupleConstr(c, n, dest)
of nkCast:
if allowCast in c.features:
genConv(c, n, n[1], dest, flags, opcCast)
genConv(c, n, n[1], dest, opcCast)
else:
genCastIntFloat(c, n, dest)
of nkTypeOfExpr:

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