Current File : //lib/node_modules/npm/node_modules/node-gyp/gyp/pylib/gyp/generator/ninja.py
from __future__ import print_function
# Copyright (c) 2013 Google Inc. All rights reserved.
# Use of this source code is governed by a BSD-style license that can be
# found in the LICENSE file.
import collections
import copy
import hashlib
import json
import multiprocessing
import os.path
import re
import signal
import subprocess
import sys
import gyp
import gyp.common
from gyp.common import OrderedSet
import gyp.msvs_emulation
import gyp.MSVSUtil as MSVSUtil
import gyp.xcode_emulation
try:
from cStringIO import StringIO
except ImportError:
from io import StringIO
from gyp.common import GetEnvironFallback
import gyp.ninja_syntax as ninja_syntax
generator_default_variables = {
'EXECUTABLE_PREFIX': '',
'EXECUTABLE_SUFFIX': '',
'STATIC_LIB_PREFIX': 'lib',
'STATIC_LIB_SUFFIX': '.a',
'SHARED_LIB_PREFIX': 'lib',
# Gyp expects the following variables to be expandable by the build
# system to the appropriate locations. Ninja prefers paths to be
# known at gyp time. To resolve this, introduce special
# variables starting with $! and $| (which begin with a $ so gyp knows it
# should be treated specially, but is otherwise an invalid
# ninja/shell variable) that are passed to gyp here but expanded
# before writing out into the target .ninja files; see
# ExpandSpecial.
# $! is used for variables that represent a path and that can only appear at
# the start of a string, while $| is used for variables that can appear
# anywhere in a string.
'INTERMEDIATE_DIR': '$!INTERMEDIATE_DIR',
'SHARED_INTERMEDIATE_DIR': '$!PRODUCT_DIR/gen',
'PRODUCT_DIR': '$!PRODUCT_DIR',
'CONFIGURATION_NAME': '$|CONFIGURATION_NAME',
# Special variables that may be used by gyp 'rule' targets.
# We generate definitions for these variables on the fly when processing a
# rule.
'RULE_INPUT_ROOT': '${root}',
'RULE_INPUT_DIRNAME': '${dirname}',
'RULE_INPUT_PATH': '${source}',
'RULE_INPUT_EXT': '${ext}',
'RULE_INPUT_NAME': '${name}',
}
# Placates pylint.
generator_additional_non_configuration_keys = []
generator_additional_path_sections = []
generator_extra_sources_for_rules = []
generator_filelist_paths = None
generator_supports_multiple_toolsets = gyp.common.CrossCompileRequested()
def StripPrefix(arg, prefix):
if arg.startswith(prefix):
return arg[len(prefix):]
return arg
def QuoteShellArgument(arg, flavor):
"""Quote a string such that it will be interpreted as a single argument
by the shell."""
# Rather than attempting to enumerate the bad shell characters, just
# whitelist common OK ones and quote anything else.
if re.match(r'^[a-zA-Z0-9_=.\\/-]+$', arg):
return arg # No quoting necessary.
if flavor == 'win':
return gyp.msvs_emulation.QuoteForRspFile(arg)
return "'" + arg.replace("'", "'" + '"\'"' + "'") + "'"
def Define(d, flavor):
"""Takes a preprocessor define and returns a -D parameter that's ninja- and
shell-escaped."""
if flavor == 'win':
# cl.exe replaces literal # characters with = in preprocesor definitions for
# some reason. Octal-encode to work around that.
d = d.replace('#', '\\%03o' % ord('#'))
return QuoteShellArgument(ninja_syntax.escape('-D' + d), flavor)
def AddArch(output, arch):
"""Adds an arch string to an output path."""
output, extension = os.path.splitext(output)
return '%s.%s%s' % (output, arch, extension)
class Target(object):
"""Target represents the paths used within a single gyp target.
Conceptually, building a single target A is a series of steps:
1) actions/rules/copies generates source/resources/etc.
2) compiles generates .o files
3) link generates a binary (library/executable)
4) bundle merges the above in a mac bundle
(Any of these steps can be optional.)
From a build ordering perspective, a dependent target B could just
depend on the last output of this series of steps.
But some dependent commands sometimes need to reach inside the box.
For example, when linking B it needs to get the path to the static
library generated by A.
This object stores those paths. To keep things simple, member
variables only store concrete paths to single files, while methods
compute derived values like "the last output of the target".
"""
def __init__(self, type):
# Gyp type ("static_library", etc.) of this target.
self.type = type
# File representing whether any input dependencies necessary for
# dependent actions have completed.
self.preaction_stamp = None
# File representing whether any input dependencies necessary for
# dependent compiles have completed.
self.precompile_stamp = None
# File representing the completion of actions/rules/copies, if any.
self.actions_stamp = None
# Path to the output of the link step, if any.
self.binary = None
# Path to the file representing the completion of building the bundle,
# if any.
self.bundle = None
# On Windows, incremental linking requires linking against all the .objs
# that compose a .lib (rather than the .lib itself). That list is stored
# here. In this case, we also need to save the compile_deps for the target,
# so that the target that directly depends on the .objs can also depend
# on those.
self.component_objs = None
self.compile_deps = None
# Windows only. The import .lib is the output of a build step, but
# because dependents only link against the lib (not both the lib and the
# dll) we keep track of the import library here.
self.import_lib = None
def Linkable(self):
"""Return true if this is a target that can be linked against."""
return self.type in ('static_library', 'shared_library')
def UsesToc(self, flavor):
"""Return true if the target should produce a restat rule based on a TOC
file."""
# For bundles, the .TOC should be produced for the binary, not for
# FinalOutput(). But the naive approach would put the TOC file into the
# bundle, so don't do this for bundles for now.
if flavor == 'win' or self.bundle:
return False
return self.type in ('shared_library', 'loadable_module')
def PreActionInput(self, flavor):
"""Return the path, if any, that should be used as a dependency of
any dependent action step."""
if self.UsesToc(flavor):
return self.FinalOutput() + '.TOC'
return self.FinalOutput() or self.preaction_stamp
def PreCompileInput(self):
"""Return the path, if any, that should be used as a dependency of
any dependent compile step."""
return self.actions_stamp or self.precompile_stamp
def FinalOutput(self):
"""Return the last output of the target, which depends on all prior
steps."""
return self.bundle or self.binary or self.actions_stamp
# A small discourse on paths as used within the Ninja build:
# All files we produce (both at gyp and at build time) appear in the
# build directory (e.g. out/Debug).
#
# Paths within a given .gyp file are always relative to the directory
# containing the .gyp file. Call these "gyp paths". This includes
# sources as well as the starting directory a given gyp rule/action
# expects to be run from. We call the path from the source root to
# the gyp file the "base directory" within the per-.gyp-file
# NinjaWriter code.
#
# All paths as written into the .ninja files are relative to the build
# directory. Call these paths "ninja paths".
#
# We translate between these two notions of paths with two helper
# functions:
#
# - GypPathToNinja translates a gyp path (i.e. relative to the .gyp file)
# into the equivalent ninja path.
#
# - GypPathToUniqueOutput translates a gyp path into a ninja path to write
# an output file; the result can be namespaced such that it is unique
# to the input file name as well as the output target name.
class NinjaWriter(object):
def __init__(self, hash_for_rules, target_outputs, base_dir, build_dir,
output_file, toplevel_build, output_file_name, flavor,
toplevel_dir=None):
"""
base_dir: path from source root to directory containing this gyp file,
by gyp semantics, all input paths are relative to this
build_dir: path from source root to build output
toplevel_dir: path to the toplevel directory
"""
self.hash_for_rules = hash_for_rules
self.target_outputs = target_outputs
self.base_dir = base_dir
self.build_dir = build_dir
self.ninja = ninja_syntax.Writer(output_file)
self.toplevel_build = toplevel_build
self.output_file_name = output_file_name
self.flavor = flavor
self.abs_build_dir = None
if toplevel_dir is not None:
self.abs_build_dir = os.path.abspath(os.path.join(toplevel_dir,
build_dir))
self.obj_ext = '.obj' if flavor == 'win' else '.o'
if flavor == 'win':
# See docstring of msvs_emulation.GenerateEnvironmentFiles().
self.win_env = {}
for arch in ('x86', 'x64'):
self.win_env[arch] = 'environment.' + arch
# Relative path from build output dir to base dir.
build_to_top = gyp.common.InvertRelativePath(build_dir, toplevel_dir)
self.build_to_base = os.path.join(build_to_top, base_dir)
# Relative path from base dir to build dir.
base_to_top = gyp.common.InvertRelativePath(base_dir, toplevel_dir)
self.base_to_build = os.path.join(base_to_top, build_dir)
def ExpandSpecial(self, path, product_dir=None):
"""Expand specials like $!PRODUCT_DIR in |path|.
If |product_dir| is None, assumes the cwd is already the product
dir. Otherwise, |product_dir| is the relative path to the product
dir.
"""
PRODUCT_DIR = '$!PRODUCT_DIR'
if PRODUCT_DIR in path:
if product_dir:
path = path.replace(PRODUCT_DIR, product_dir)
else:
path = path.replace(PRODUCT_DIR + '/', '')
path = path.replace(PRODUCT_DIR + '\\', '')
path = path.replace(PRODUCT_DIR, '.')
INTERMEDIATE_DIR = '$!INTERMEDIATE_DIR'
if INTERMEDIATE_DIR in path:
int_dir = self.GypPathToUniqueOutput('gen')
# GypPathToUniqueOutput generates a path relative to the product dir,
# so insert product_dir in front if it is provided.
path = path.replace(INTERMEDIATE_DIR,
os.path.join(product_dir or '', int_dir))
CONFIGURATION_NAME = '$|CONFIGURATION_NAME'
path = path.replace(CONFIGURATION_NAME, self.config_name)
return path
def ExpandRuleVariables(self, path, root, dirname, source, ext, name):
if self.flavor == 'win':
path = self.msvs_settings.ConvertVSMacros(
path, config=self.config_name)
path = path.replace(generator_default_variables['RULE_INPUT_ROOT'], root)
path = path.replace(generator_default_variables['RULE_INPUT_DIRNAME'],
dirname)
path = path.replace(generator_default_variables['RULE_INPUT_PATH'], source)
path = path.replace(generator_default_variables['RULE_INPUT_EXT'], ext)
path = path.replace(generator_default_variables['RULE_INPUT_NAME'], name)
return path
def GypPathToNinja(self, path, env=None):
"""Translate a gyp path to a ninja path, optionally expanding environment
variable references in |path| with |env|.
See the above discourse on path conversions."""
if env:
if self.flavor == 'mac':
path = gyp.xcode_emulation.ExpandEnvVars(path, env)
elif self.flavor == 'win':
path = gyp.msvs_emulation.ExpandMacros(path, env)
if path.startswith('$!'):
expanded = self.ExpandSpecial(path)
if self.flavor == 'win':
expanded = os.path.normpath(expanded)
return expanded
if '$|' in path:
path = self.ExpandSpecial(path)
assert '$' not in path, path
return os.path.normpath(os.path.join(self.build_to_base, path))
def GypPathToUniqueOutput(self, path, qualified=True):
"""Translate a gyp path to a ninja path for writing output.
If qualified is True, qualify the resulting filename with the name
of the target. This is necessary when e.g. compiling the same
path twice for two separate output targets.
See the above discourse on path conversions."""
path = self.ExpandSpecial(path)
assert not path.startswith('$'), path
# Translate the path following this scheme:
# Input: foo/bar.gyp, target targ, references baz/out.o
# Output: obj/foo/baz/targ.out.o (if qualified)
# obj/foo/baz/out.o (otherwise)
# (and obj.host instead of obj for cross-compiles)
#
# Why this scheme and not some other one?
# 1) for a given input, you can compute all derived outputs by matching
# its path, even if the input is brought via a gyp file with '..'.
# 2) simple files like libraries and stamps have a simple filename.
obj = 'obj'
if self.toolset != 'target':
obj += '.' + self.toolset
path_dir, path_basename = os.path.split(path)
assert not os.path.isabs(path_dir), (
"'%s' can not be absolute path (see crbug.com/462153)." % path_dir)
if qualified:
path_basename = self.name + '.' + path_basename
return os.path.normpath(os.path.join(obj, self.base_dir, path_dir,
path_basename))
def WriteCollapsedDependencies(self, name, targets, order_only=None):
"""Given a list of targets, return a path for a single file
representing the result of building all the targets or None.
Uses a stamp file if necessary."""
assert targets == filter(None, targets), targets
if len(targets) == 0:
assert not order_only
return None
if len(targets) > 1 or order_only:
stamp = self.GypPathToUniqueOutput(name + '.stamp')
targets = self.ninja.build(stamp, 'stamp', targets, order_only=order_only)
self.ninja.newline()
return targets[0]
def _SubninjaNameForArch(self, arch):
output_file_base = os.path.splitext(self.output_file_name)[0]
return '%s.%s.ninja' % (output_file_base, arch)
def WriteSpec(self, spec, config_name, generator_flags):
"""The main entry point for NinjaWriter: write the build rules for a spec.
Returns a Target object, which represents the output paths for this spec.
Returns None if there are no outputs (e.g. a settings-only 'none' type
target)."""
self.config_name = config_name
self.name = spec['target_name']
self.toolset = spec['toolset']
config = spec['configurations'][config_name]
self.target = Target(spec['type'])
self.is_standalone_static_library = bool(
spec.get('standalone_static_library', 0))
# Track if this target contains any C++ files, to decide if gcc or g++
# should be used for linking.
self.uses_cpp = False
self.is_mac_bundle = gyp.xcode_emulation.IsMacBundle(self.flavor, spec)
self.xcode_settings = self.msvs_settings = None
if self.flavor == 'mac':
self.xcode_settings = gyp.xcode_emulation.XcodeSettings(spec)
if self.flavor == 'win':
self.msvs_settings = gyp.msvs_emulation.MsvsSettings(spec,
generator_flags)
arch = self.msvs_settings.GetArch(config_name)
self.ninja.variable('arch', self.win_env[arch])
self.ninja.variable('cc', '$cl_' + arch)
self.ninja.variable('cxx', '$cl_' + arch)
self.ninja.variable('cc_host', '$cl_' + arch)
self.ninja.variable('cxx_host', '$cl_' + arch)
self.ninja.variable('asm', '$ml_' + arch)
if self.flavor == 'mac':
self.archs = self.xcode_settings.GetActiveArchs(config_name)
if len(self.archs) > 1:
self.arch_subninjas = dict(
(arch, ninja_syntax.Writer(
OpenOutput(os.path.join(self.toplevel_build,
self._SubninjaNameForArch(arch)),
'w')))
for arch in self.archs)
# Compute predepends for all rules.
# actions_depends is the dependencies this target depends on before running
# any of its action/rule/copy steps.
# compile_depends is the dependencies this target depends on before running
# any of its compile steps.
actions_depends = []
compile_depends = []
# TODO(evan): it is rather confusing which things are lists and which
# are strings. Fix these.
if 'dependencies' in spec:
for dep in spec['dependencies']:
if dep in self.target_outputs:
target = self.target_outputs[dep]
actions_depends.append(target.PreActionInput(self.flavor))
compile_depends.append(target.PreCompileInput())
actions_depends = filter(None, actions_depends)
compile_depends = filter(None, compile_depends)
actions_depends = self.WriteCollapsedDependencies('actions_depends',
actions_depends)
compile_depends = self.WriteCollapsedDependencies('compile_depends',
compile_depends)
self.target.preaction_stamp = actions_depends
self.target.precompile_stamp = compile_depends
# Write out actions, rules, and copies. These must happen before we
# compile any sources, so compute a list of predependencies for sources
# while we do it.
extra_sources = []
mac_bundle_depends = []
self.target.actions_stamp = self.WriteActionsRulesCopies(
spec, extra_sources, actions_depends, mac_bundle_depends)
# If we have actions/rules/copies, we depend directly on those, but
# otherwise we depend on dependent target's actions/rules/copies etc.
# We never need to explicitly depend on previous target's link steps,
# because no compile ever depends on them.
compile_depends_stamp = (self.target.actions_stamp or compile_depends)
# Write out the compilation steps, if any.
link_deps = []
sources = extra_sources + spec.get('sources', [])
if sources:
if self.flavor == 'mac' and len(self.archs) > 1:
# Write subninja file containing compile and link commands scoped to
# a single arch if a fat binary is being built.
for arch in self.archs:
self.ninja.subninja(self._SubninjaNameForArch(arch))
pch = None
if self.flavor == 'win':
gyp.msvs_emulation.VerifyMissingSources(
sources, self.abs_build_dir, generator_flags, self.GypPathToNinja)
pch = gyp.msvs_emulation.PrecompiledHeader(
self.msvs_settings, config_name, self.GypPathToNinja,
self.GypPathToUniqueOutput, self.obj_ext)
else:
pch = gyp.xcode_emulation.MacPrefixHeader(
self.xcode_settings, self.GypPathToNinja,
lambda path, lang: self.GypPathToUniqueOutput(path + '-' + lang))
link_deps = self.WriteSources(
self.ninja, config_name, config, sources, compile_depends_stamp, pch,
spec)
# Some actions/rules output 'sources' that are already object files.
obj_outputs = [f for f in sources if f.endswith(self.obj_ext)]
if obj_outputs:
if self.flavor != 'mac' or len(self.archs) == 1:
link_deps += [self.GypPathToNinja(o) for o in obj_outputs]
else:
print("Warning: Actions/rules writing object files don't work with " \
"multiarch targets, dropping. (target %s)" % spec['target_name'])
elif self.flavor == 'mac' and len(self.archs) > 1:
link_deps = collections.defaultdict(list)
compile_deps = self.target.actions_stamp or actions_depends
if self.flavor == 'win' and self.target.type == 'static_library':
self.target.component_objs = link_deps
self.target.compile_deps = compile_deps
# Write out a link step, if needed.
output = None
is_empty_bundle = not link_deps and not mac_bundle_depends
if link_deps or self.target.actions_stamp or actions_depends:
output = self.WriteTarget(spec, config_name, config, link_deps,
compile_deps)
if self.is_mac_bundle:
mac_bundle_depends.append(output)
# Bundle all of the above together, if needed.
if self.is_mac_bundle:
output = self.WriteMacBundle(spec, mac_bundle_depends, is_empty_bundle)
if not output:
return None
assert self.target.FinalOutput(), output
return self.target
def _WinIdlRule(self, source, prebuild, outputs):
"""Handle the implicit VS .idl rule for one source file. Fills |outputs|
with files that are generated."""
outdir, output, vars, flags = self.msvs_settings.GetIdlBuildData(
source, self.config_name)
outdir = self.GypPathToNinja(outdir)
def fix_path(path, rel=None):
path = os.path.join(outdir, path)
dirname, basename = os.path.split(source)
root, ext = os.path.splitext(basename)
path = self.ExpandRuleVariables(
path, root, dirname, source, ext, basename)
if rel:
path = os.path.relpath(path, rel)
return path
vars = [(name, fix_path(value, outdir)) for name, value in vars]
output = [fix_path(p) for p in output]
vars.append(('outdir', outdir))
vars.append(('idlflags', flags))
input = self.GypPathToNinja(source)
self.ninja.build(output, 'idl', input,
variables=vars, order_only=prebuild)
outputs.extend(output)
def WriteWinIdlFiles(self, spec, prebuild):
"""Writes rules to match MSVS's implicit idl handling."""
assert self.flavor == 'win'
if self.msvs_settings.HasExplicitIdlRulesOrActions(spec):
return []
outputs = []
for source in filter(lambda x: x.endswith('.idl'), spec['sources']):
self._WinIdlRule(source, prebuild, outputs)
return outputs
def WriteActionsRulesCopies(self, spec, extra_sources, prebuild,
mac_bundle_depends):
"""Write out the Actions, Rules, and Copies steps. Return a path
representing the outputs of these steps."""
outputs = []
if self.is_mac_bundle:
mac_bundle_resources = spec.get('mac_bundle_resources', [])[:]
else:
mac_bundle_resources = []
extra_mac_bundle_resources = []
if 'actions' in spec:
outputs += self.WriteActions(spec['actions'], extra_sources, prebuild,
extra_mac_bundle_resources)
if 'rules' in spec:
outputs += self.WriteRules(spec['rules'], extra_sources, prebuild,
mac_bundle_resources,
extra_mac_bundle_resources)
if 'copies' in spec:
outputs += self.WriteCopies(spec['copies'], prebuild, mac_bundle_depends)
if 'sources' in spec and self.flavor == 'win':
outputs += self.WriteWinIdlFiles(spec, prebuild)
stamp = self.WriteCollapsedDependencies('actions_rules_copies', outputs)
if self.is_mac_bundle:
xcassets = self.WriteMacBundleResources(
extra_mac_bundle_resources + mac_bundle_resources, mac_bundle_depends)
partial_info_plist = self.WriteMacXCassets(xcassets, mac_bundle_depends)
self.WriteMacInfoPlist(partial_info_plist, mac_bundle_depends)
return stamp
def GenerateDescription(self, verb, message, fallback):
"""Generate and return a description of a build step.
|verb| is the short summary, e.g. ACTION or RULE.
|message| is a hand-written description, or None if not available.
|fallback| is the gyp-level name of the step, usable as a fallback.
"""
if self.toolset != 'target':
verb += '(%s)' % self.toolset
if message:
return '%s %s' % (verb, self.ExpandSpecial(message))
else:
return '%s %s: %s' % (verb, self.name, fallback)
def WriteActions(self, actions, extra_sources, prebuild,
extra_mac_bundle_resources):
# Actions cd into the base directory.
env = self.GetToolchainEnv()
all_outputs = []
for action in actions:
# First write out a rule for the action.
name = '%s_%s' % (action['action_name'], self.hash_for_rules)
description = self.GenerateDescription('ACTION',
action.get('message', None),
name)
is_cygwin = (self.msvs_settings.IsRuleRunUnderCygwin(action)
if self.flavor == 'win' else False)
args = action['action']
depfile = action.get('depfile', None)
if depfile:
depfile = self.ExpandSpecial(depfile, self.base_to_build)
pool = 'console' if int(action.get('ninja_use_console', 0)) else None
rule_name, _ = self.WriteNewNinjaRule(name, args, description,
is_cygwin, env, pool,
depfile=depfile)
inputs = [self.GypPathToNinja(i, env) for i in action['inputs']]
if int(action.get('process_outputs_as_sources', False)):
extra_sources += action['outputs']
if int(action.get('process_outputs_as_mac_bundle_resources', False)):
extra_mac_bundle_resources += action['outputs']
outputs = [self.GypPathToNinja(o, env) for o in action['outputs']]
# Then write out an edge using the rule.
self.ninja.build(outputs, rule_name, inputs,
order_only=prebuild)
all_outputs += outputs
self.ninja.newline()
return all_outputs
def WriteRules(self, rules, extra_sources, prebuild,
mac_bundle_resources, extra_mac_bundle_resources):
env = self.GetToolchainEnv()
all_outputs = []
for rule in rules:
# Skip a rule with no action and no inputs.
if 'action' not in rule and not rule.get('rule_sources', []):
continue
# First write out a rule for the rule action.
name = '%s_%s' % (rule['rule_name'], self.hash_for_rules)
args = rule['action']
description = self.GenerateDescription(
'RULE',
rule.get('message', None),
('%s ' + generator_default_variables['RULE_INPUT_PATH']) % name)
is_cygwin = (self.msvs_settings.IsRuleRunUnderCygwin(rule)
if self.flavor == 'win' else False)
pool = 'console' if int(rule.get('ninja_use_console', 0)) else None
rule_name, args = self.WriteNewNinjaRule(
name, args, description, is_cygwin, env, pool)
# TODO: if the command references the outputs directly, we should
# simplify it to just use $out.
# Rules can potentially make use of some special variables which
# must vary per source file.
# Compute the list of variables we'll need to provide.
special_locals = ('source', 'root', 'dirname', 'ext', 'name')
needed_variables = set(['source'])
for argument in args:
for var in special_locals:
if '${%s}' % var in argument:
needed_variables.add(var)
def cygwin_munge(path):
# pylint: disable=cell-var-from-loop
if is_cygwin:
return path.replace('\\', '/')
return path
inputs = [self.GypPathToNinja(i, env) for i in rule.get('inputs', [])]
# If there are n source files matching the rule, and m additional rule
# inputs, then adding 'inputs' to each build edge written below will
# write m * n inputs. Collapsing reduces this to m + n.
sources = rule.get('rule_sources', [])
num_inputs = len(inputs)
if prebuild:
num_inputs += 1
if num_inputs > 2 and len(sources) > 2:
inputs = [self.WriteCollapsedDependencies(
rule['rule_name'], inputs, order_only=prebuild)]
prebuild = []
# For each source file, write an edge that generates all the outputs.
for source in sources:
source = os.path.normpath(source)
dirname, basename = os.path.split(source)
root, ext = os.path.splitext(basename)
# Gather the list of inputs and outputs, expanding $vars if possible.
outputs = [self.ExpandRuleVariables(o, root, dirname,
source, ext, basename)
for o in rule['outputs']]
if int(rule.get('process_outputs_as_sources', False)):
extra_sources += outputs
was_mac_bundle_resource = source in mac_bundle_resources
if was_mac_bundle_resource or \
int(rule.get('process_outputs_as_mac_bundle_resources', False)):
extra_mac_bundle_resources += outputs
# Note: This is n_resources * n_outputs_in_rule. Put to-be-removed
# items in a set and remove them all in a single pass if this becomes
# a performance issue.
if was_mac_bundle_resource:
mac_bundle_resources.remove(source)
extra_bindings = []
for var in needed_variables:
if var == 'root':
extra_bindings.append(('root', cygwin_munge(root)))
elif var == 'dirname':
# '$dirname' is a parameter to the rule action, which means
# it shouldn't be converted to a Ninja path. But we don't
# want $!PRODUCT_DIR in there either.
dirname_expanded = self.ExpandSpecial(dirname, self.base_to_build)
extra_bindings.append(('dirname', cygwin_munge(dirname_expanded)))
elif var == 'source':
# '$source' is a parameter to the rule action, which means
# it shouldn't be converted to a Ninja path. But we don't
# want $!PRODUCT_DIR in there either.
source_expanded = self.ExpandSpecial(source, self.base_to_build)
extra_bindings.append(('source', cygwin_munge(source_expanded)))
elif var == 'ext':
extra_bindings.append(('ext', ext))
elif var == 'name':
extra_bindings.append(('name', cygwin_munge(basename)))
else:
assert var is None, repr(var)
outputs = [self.GypPathToNinja(o, env) for o in outputs]
if self.flavor == 'win':
# WriteNewNinjaRule uses unique_name for creating an rsp file on win.
extra_bindings.append(('unique_name',
hashlib.md5(outputs[0]).hexdigest()))
self.ninja.build(outputs, rule_name, self.GypPathToNinja(source),
implicit=inputs,
order_only=prebuild,
variables=extra_bindings)
all_outputs.extend(outputs)
return all_outputs
def WriteCopies(self, copies, prebuild, mac_bundle_depends):
outputs = []
env = self.GetToolchainEnv()
for copy in copies:
for path in copy['files']:
# Normalize the path so trailing slashes don't confuse us.
path = os.path.normpath(path)
basename = os.path.split(path)[1]
src = self.GypPathToNinja(path, env)
dst = self.GypPathToNinja(os.path.join(copy['destination'], basename),
env)
outputs += self.ninja.build(dst, 'copy', src, order_only=prebuild)
if self.is_mac_bundle:
# gyp has mac_bundle_resources to copy things into a bundle's
# Resources folder, but there's no built-in way to copy files to other
# places in the bundle. Hence, some targets use copies for this. Check
# if this file is copied into the current bundle, and if so add it to
# the bundle depends so that dependent targets get rebuilt if the copy
# input changes.
if dst.startswith(self.xcode_settings.GetBundleContentsFolderPath()):
mac_bundle_depends.append(dst)
return outputs
def WriteMacBundleResources(self, resources, bundle_depends):
"""Writes ninja edges for 'mac_bundle_resources'."""
xcassets = []
for output, res in gyp.xcode_emulation.GetMacBundleResources(
generator_default_variables['PRODUCT_DIR'],
self.xcode_settings, map(self.GypPathToNinja, resources)):
output = self.ExpandSpecial(output)
if os.path.splitext(output)[-1] != '.xcassets':
isBinary = self.xcode_settings.IsBinaryOutputFormat(self.config_name)
self.ninja.build(output, 'mac_tool', res,
variables=[('mactool_cmd', 'copy-bundle-resource'), \
('binary', isBinary)])
bundle_depends.append(output)
else:
xcassets.append(res)
return xcassets
def WriteMacXCassets(self, xcassets, bundle_depends):
"""Writes ninja edges for 'mac_bundle_resources' .xcassets files.
This add an invocation of 'actool' via the 'mac_tool.py' helper script.
It assumes that the assets catalogs define at least one imageset and
thus an Assets.car file will be generated in the application resources
directory. If this is not the case, then the build will probably be done
at each invocation of ninja."""
if not xcassets:
return
extra_arguments = {}
settings_to_arg = {
'XCASSETS_APP_ICON': 'app-icon',
'XCASSETS_LAUNCH_IMAGE': 'launch-image',
}
settings = self.xcode_settings.xcode_settings[self.config_name]
for settings_key, arg_name in settings_to_arg.items():
value = settings.get(settings_key)
if value:
extra_arguments[arg_name] = value
partial_info_plist = None
if extra_arguments:
partial_info_plist = self.GypPathToUniqueOutput(
'assetcatalog_generated_info.plist')
extra_arguments['output-partial-info-plist'] = partial_info_plist
outputs = []
outputs.append(
os.path.join(
self.xcode_settings.GetBundleResourceFolder(),
'Assets.car'))
if partial_info_plist:
outputs.append(partial_info_plist)
keys = QuoteShellArgument(json.dumps(extra_arguments), self.flavor)
extra_env = self.xcode_settings.GetPerTargetSettings()
env = self.GetSortedXcodeEnv(additional_settings=extra_env)
env = self.ComputeExportEnvString(env)
bundle_depends.extend(self.ninja.build(
outputs, 'compile_xcassets', xcassets,
variables=[('env', env), ('keys', keys)]))
return partial_info_plist
def WriteMacInfoPlist(self, partial_info_plist, bundle_depends):
"""Write build rules for bundle Info.plist files."""
info_plist, out, defines, extra_env = gyp.xcode_emulation.GetMacInfoPlist(
generator_default_variables['PRODUCT_DIR'],
self.xcode_settings, self.GypPathToNinja)
if not info_plist:
return
out = self.ExpandSpecial(out)
if defines:
# Create an intermediate file to store preprocessed results.
intermediate_plist = self.GypPathToUniqueOutput(
os.path.basename(info_plist))
defines = ' '.join([Define(d, self.flavor) for d in defines])
info_plist = self.ninja.build(
intermediate_plist, 'preprocess_infoplist', info_plist,
variables=[('defines',defines)])
env = self.GetSortedXcodeEnv(additional_settings=extra_env)
env = self.ComputeExportEnvString(env)
if partial_info_plist:
intermediate_plist = self.GypPathToUniqueOutput('merged_info.plist')
info_plist = self.ninja.build(
intermediate_plist, 'merge_infoplist',
[partial_info_plist, info_plist])
keys = self.xcode_settings.GetExtraPlistItems(self.config_name)
keys = QuoteShellArgument(json.dumps(keys), self.flavor)
isBinary = self.xcode_settings.IsBinaryOutputFormat(self.config_name)
self.ninja.build(out, 'copy_infoplist', info_plist,
variables=[('env', env), ('keys', keys),
('binary', isBinary)])
bundle_depends.append(out)
def WriteSources(self, ninja_file, config_name, config, sources, predepends,
precompiled_header, spec):
"""Write build rules to compile all of |sources|."""
if self.toolset == 'host':
self.ninja.variable('ar', '$ar_host')
self.ninja.variable('cc', '$cc_host')
self.ninja.variable('cxx', '$cxx_host')
self.ninja.variable('ld', '$ld_host')
self.ninja.variable('ldxx', '$ldxx_host')
self.ninja.variable('nm', '$nm_host')
self.ninja.variable('readelf', '$readelf_host')
if self.flavor != 'mac' or len(self.archs) == 1:
return self.WriteSourcesForArch(
self.ninja, config_name, config, sources, predepends,
precompiled_header, spec)
else:
return dict((arch, self.WriteSourcesForArch(
self.arch_subninjas[arch], config_name, config, sources, predepends,
precompiled_header, spec, arch=arch))
for arch in self.archs)
def WriteSourcesForArch(self, ninja_file, config_name, config, sources,
predepends, precompiled_header, spec, arch=None):
"""Write build rules to compile all of |sources|."""
extra_defines = []
if self.flavor == 'mac':
cflags = self.xcode_settings.GetCflags(config_name, arch=arch)
cflags_c = self.xcode_settings.GetCflagsC(config_name)
cflags_cc = self.xcode_settings.GetCflagsCC(config_name)
cflags_objc = ['$cflags_c'] + \
self.xcode_settings.GetCflagsObjC(config_name)
cflags_objcc = ['$cflags_cc'] + \
self.xcode_settings.GetCflagsObjCC(config_name)
elif self.flavor == 'win':
asmflags = self.msvs_settings.GetAsmflags(config_name)
cflags = self.msvs_settings.GetCflags(config_name)
cflags_c = self.msvs_settings.GetCflagsC(config_name)
cflags_cc = self.msvs_settings.GetCflagsCC(config_name)
extra_defines = self.msvs_settings.GetComputedDefines(config_name)
# See comment at cc_command for why there's two .pdb files.
pdbpath_c = pdbpath_cc = self.msvs_settings.GetCompilerPdbName(
config_name, self.ExpandSpecial)
if not pdbpath_c:
obj = 'obj'
if self.toolset != 'target':
obj += '.' + self.toolset
pdbpath = os.path.normpath(os.path.join(obj, self.base_dir, self.name))
pdbpath_c = pdbpath + '.c.pdb'
pdbpath_cc = pdbpath + '.cc.pdb'
self.WriteVariableList(ninja_file, 'pdbname_c', [pdbpath_c])
self.WriteVariableList(ninja_file, 'pdbname_cc', [pdbpath_cc])
self.WriteVariableList(ninja_file, 'pchprefix', [self.name])
else:
cflags = config.get('cflags', [])
cflags_c = config.get('cflags_c', [])
cflags_cc = config.get('cflags_cc', [])
# Respect environment variables related to build, but target-specific
# flags can still override them.
if self.toolset == 'target':
cflags_c = (os.environ.get('CPPFLAGS', '').split() +
os.environ.get('CFLAGS', '').split() + cflags_c)
cflags_cc = (os.environ.get('CPPFLAGS', '').split() +
os.environ.get('CXXFLAGS', '').split() + cflags_cc)
elif self.toolset == 'host':
cflags_c = (os.environ.get('CPPFLAGS_host', '').split() +
os.environ.get('CFLAGS_host', '').split() + cflags_c)
cflags_cc = (os.environ.get('CPPFLAGS_host', '').split() +
os.environ.get('CXXFLAGS_host', '').split() + cflags_cc)
defines = config.get('defines', []) + extra_defines
self.WriteVariableList(ninja_file, 'defines',
[Define(d, self.flavor) for d in defines])
if self.flavor == 'win':
self.WriteVariableList(ninja_file, 'asmflags',
map(self.ExpandSpecial, asmflags))
self.WriteVariableList(ninja_file, 'rcflags',
[QuoteShellArgument(self.ExpandSpecial(f), self.flavor)
for f in self.msvs_settings.GetRcflags(config_name,
self.GypPathToNinja)])
include_dirs = config.get('include_dirs', [])
env = self.GetToolchainEnv()
if self.flavor == 'win':
include_dirs = self.msvs_settings.AdjustIncludeDirs(include_dirs,
config_name)
self.WriteVariableList(ninja_file, 'includes',
[QuoteShellArgument('-I' + self.GypPathToNinja(i, env), self.flavor)
for i in include_dirs])
if self.flavor == 'win':
midl_include_dirs = config.get('midl_include_dirs', [])
midl_include_dirs = self.msvs_settings.AdjustMidlIncludeDirs(
midl_include_dirs, config_name)
self.WriteVariableList(ninja_file, 'midl_includes',
[QuoteShellArgument('-I' + self.GypPathToNinja(i, env), self.flavor)
for i in midl_include_dirs])
pch_commands = precompiled_header.GetPchBuildCommands(arch)
if self.flavor == 'mac':
# Most targets use no precompiled headers, so only write these if needed.
for ext, var in [('c', 'cflags_pch_c'), ('cc', 'cflags_pch_cc'),
('m', 'cflags_pch_objc'), ('mm', 'cflags_pch_objcc')]:
include = precompiled_header.GetInclude(ext, arch)
if include: ninja_file.variable(var, include)
arflags = config.get('arflags', [])
self.WriteVariableList(ninja_file, 'cflags',
map(self.ExpandSpecial, cflags))
self.WriteVariableList(ninja_file, 'cflags_c',
map(self.ExpandSpecial, cflags_c))
self.WriteVariableList(ninja_file, 'cflags_cc',
map(self.ExpandSpecial, cflags_cc))
if self.flavor == 'mac':
self.WriteVariableList(ninja_file, 'cflags_objc',
map(self.ExpandSpecial, cflags_objc))
self.WriteVariableList(ninja_file, 'cflags_objcc',
map(self.ExpandSpecial, cflags_objcc))
self.WriteVariableList(ninja_file, 'arflags',
map(self.ExpandSpecial, arflags))
ninja_file.newline()
outputs = []
has_rc_source = False
for source in sources:
filename, ext = os.path.splitext(source)
ext = ext[1:]
obj_ext = self.obj_ext
if ext in ('cc', 'cpp', 'cxx'):
command = 'cxx'
self.uses_cpp = True
elif ext == 'c' or (ext == 'S' and self.flavor != 'win'):
command = 'cc'
elif ext == 's' and self.flavor != 'win': # Doesn't generate .o.d files.
command = 'cc_s'
elif (self.flavor == 'win' and ext == 'asm' and
not self.msvs_settings.HasExplicitAsmRules(spec)):
command = 'asm'
# Add the _asm suffix as msvs is capable of handling .cc and
# .asm files of the same name without collision.
obj_ext = '_asm.obj'
elif self.flavor == 'mac' and ext == 'm':
command = 'objc'
elif self.flavor == 'mac' and ext == 'mm':
command = 'objcxx'
self.uses_cpp = True
elif self.flavor == 'win' and ext == 'rc':
command = 'rc'
obj_ext = '.res'
has_rc_source = True
else:
# Ignore unhandled extensions.
continue
input = self.GypPathToNinja(source)
output = self.GypPathToUniqueOutput(filename + obj_ext)
if arch is not None:
output = AddArch(output, arch)
implicit = precompiled_header.GetObjDependencies([input], [output], arch)
variables = []
if self.flavor == 'win':
variables, output, implicit = precompiled_header.GetFlagsModifications(
input, output, implicit, command, cflags_c, cflags_cc,
self.ExpandSpecial)
ninja_file.build(output, command, input,
implicit=[gch for _, _, gch in implicit],
order_only=predepends, variables=variables)
outputs.append(output)
if has_rc_source:
resource_include_dirs = config.get('resource_include_dirs', include_dirs)
self.WriteVariableList(ninja_file, 'resource_includes',
[QuoteShellArgument('-I' + self.GypPathToNinja(i, env), self.flavor)
for i in resource_include_dirs])
self.WritePchTargets(ninja_file, pch_commands)
ninja_file.newline()
return outputs
def WritePchTargets(self, ninja_file, pch_commands):
"""Writes ninja rules to compile prefix headers."""
if not pch_commands:
return
for gch, lang_flag, lang, input in pch_commands:
var_name = {
'c': 'cflags_pch_c',
'cc': 'cflags_pch_cc',
'm': 'cflags_pch_objc',
'mm': 'cflags_pch_objcc',
}[lang]
map = { 'c': 'cc', 'cc': 'cxx', 'm': 'objc', 'mm': 'objcxx', }
cmd = map.get(lang)
ninja_file.build(gch, cmd, input, variables=[(var_name, lang_flag)])
def WriteLink(self, spec, config_name, config, link_deps):
"""Write out a link step. Fills out target.binary. """
if self.flavor != 'mac' or len(self.archs) == 1:
return self.WriteLinkForArch(
self.ninja, spec, config_name, config, link_deps)
else:
output = self.ComputeOutput(spec)
inputs = [self.WriteLinkForArch(self.arch_subninjas[arch], spec,
config_name, config, link_deps[arch],
arch=arch)
for arch in self.archs]
extra_bindings = []
build_output = output
if not self.is_mac_bundle:
self.AppendPostbuildVariable(extra_bindings, spec, output, output)
# TODO(yyanagisawa): more work needed to fix:
# https://code.google.com/p/gyp/issues/detail?id=411
if (spec['type'] in ('shared_library', 'loadable_module') and
not self.is_mac_bundle):
extra_bindings.append(('lib', output))
self.ninja.build([output, output + '.TOC'], 'solipo', inputs,
variables=extra_bindings)
else:
self.ninja.build(build_output, 'lipo', inputs, variables=extra_bindings)
return output
def WriteLinkForArch(self, ninja_file, spec, config_name, config,
link_deps, arch=None):
"""Write out a link step. Fills out target.binary. """
command = {
'executable': 'link',
'loadable_module': 'solink_module',
'shared_library': 'solink',
}[spec['type']]
command_suffix = ''
implicit_deps = set()
solibs = set()
order_deps = set()
if 'dependencies' in spec:
# Two kinds of dependencies:
# - Linkable dependencies (like a .a or a .so): add them to the link line.
# - Non-linkable dependencies (like a rule that generates a file
# and writes a stamp file): add them to implicit_deps
extra_link_deps = set()
for dep in spec['dependencies']:
target = self.target_outputs.get(dep)
if not target:
continue
linkable = target.Linkable()
if linkable:
new_deps = []
if (self.flavor == 'win' and
target.component_objs and
self.msvs_settings.IsUseLibraryDependencyInputs(config_name)):
new_deps = target.component_objs
if target.compile_deps:
order_deps.add(target.compile_deps)
elif self.flavor == 'win' and target.import_lib:
new_deps = [target.import_lib]
elif target.UsesToc(self.flavor):
solibs.add(target.binary)
implicit_deps.add(target.binary + '.TOC')
else:
new_deps = [target.binary]
for new_dep in new_deps:
if new_dep not in extra_link_deps:
extra_link_deps.add(new_dep)
link_deps.append(new_dep)
final_output = target.FinalOutput()
if not linkable or final_output != target.binary:
implicit_deps.add(final_output)
extra_bindings = []
if self.uses_cpp and self.flavor != 'win':
extra_bindings.append(('ld', '$ldxx'))
output = self.ComputeOutput(spec, arch)
if arch is None and not self.is_mac_bundle:
self.AppendPostbuildVariable(extra_bindings, spec, output, output)
is_executable = spec['type'] == 'executable'
# The ldflags config key is not used on mac or win. On those platforms
# linker flags are set via xcode_settings and msvs_settings, respectively.
env_ldflags = os.environ.get('LDFLAGS', '').split()
if self.flavor == 'mac':
ldflags = self.xcode_settings.GetLdflags(config_name,
self.ExpandSpecial(generator_default_variables['PRODUCT_DIR']),
self.GypPathToNinja, arch)
ldflags = env_ldflags + ldflags
elif self.flavor == 'win':
manifest_base_name = self.GypPathToUniqueOutput(
self.ComputeOutputFileName(spec))
ldflags, intermediate_manifest, manifest_files = \
self.msvs_settings.GetLdflags(config_name, self.GypPathToNinja,
self.ExpandSpecial, manifest_base_name,
output, is_executable,
self.toplevel_build)
ldflags = env_ldflags + ldflags
self.WriteVariableList(ninja_file, 'manifests', manifest_files)
implicit_deps = implicit_deps.union(manifest_files)
if intermediate_manifest:
self.WriteVariableList(
ninja_file, 'intermediatemanifest', [intermediate_manifest])
command_suffix = _GetWinLinkRuleNameSuffix(
self.msvs_settings.IsEmbedManifest(config_name))
def_file = self.msvs_settings.GetDefFile(self.GypPathToNinja)
if def_file:
implicit_deps.add(def_file)
else:
# Respect environment variables related to build, but target-specific
# flags can still override them.
ldflags = env_ldflags + config.get('ldflags', [])
if is_executable and len(solibs):
rpath = 'lib/'
if self.toolset != 'target':
rpath += self.toolset
ldflags.append(r'-Wl,-rpath=\$$ORIGIN/%s' % rpath)
ldflags.append('-Wl,-rpath-link=%s' % rpath)
self.WriteVariableList(ninja_file, 'ldflags',
map(self.ExpandSpecial, ldflags))
library_dirs = config.get('library_dirs', [])
if self.flavor == 'win':
library_dirs = [self.msvs_settings.ConvertVSMacros(l, config_name)
for l in library_dirs]
library_dirs = ['/LIBPATH:' + QuoteShellArgument(self.GypPathToNinja(l),
self.flavor)
for l in library_dirs]
else:
library_dirs = [QuoteShellArgument('-L' + self.GypPathToNinja(l),
self.flavor)
for l in library_dirs]
libraries = gyp.common.uniquer(map(self.ExpandSpecial,
spec.get('libraries', [])))
if self.flavor == 'mac':
libraries = self.xcode_settings.AdjustLibraries(libraries, config_name)
elif self.flavor == 'win':
libraries = self.msvs_settings.AdjustLibraries(libraries)
self.WriteVariableList(ninja_file, 'libs', library_dirs + libraries)
linked_binary = output
if command in ('solink', 'solink_module'):
extra_bindings.append(('soname', os.path.split(output)[1]))
extra_bindings.append(('lib',
gyp.common.EncodePOSIXShellArgument(output)))
if self.flavor != 'win':
link_file_list = output
if self.is_mac_bundle:
# 'Dependency Framework.framework/Versions/A/Dependency Framework' ->
# 'Dependency Framework.framework.rsp'
link_file_list = self.xcode_settings.GetWrapperName()
if arch:
link_file_list += '.' + arch
link_file_list += '.rsp'
# If an rspfile contains spaces, ninja surrounds the filename with
# quotes around it and then passes it to open(), creating a file with
# quotes in its name (and when looking for the rsp file, the name
# makes it through bash which strips the quotes) :-/
link_file_list = link_file_list.replace(' ', '_')
extra_bindings.append(
('link_file_list',
gyp.common.EncodePOSIXShellArgument(link_file_list)))
if self.flavor == 'win':
extra_bindings.append(('binary', output))
if ('/NOENTRY' not in ldflags and
not self.msvs_settings.GetNoImportLibrary(config_name)):
self.target.import_lib = output + '.lib'
extra_bindings.append(('implibflag',
'/IMPLIB:%s' % self.target.import_lib))
pdbname = self.msvs_settings.GetPDBName(
config_name, self.ExpandSpecial, output + '.pdb')
output = [output, self.target.import_lib]
if pdbname:
output.append(pdbname)
elif not self.is_mac_bundle:
output = [output, output + '.TOC']
else:
command = command + '_notoc'
elif self.flavor == 'win':
extra_bindings.append(('binary', output))
pdbname = self.msvs_settings.GetPDBName(
config_name, self.ExpandSpecial, output + '.pdb')
if pdbname:
output = [output, pdbname]
if len(solibs):
extra_bindings.append(('solibs', gyp.common.EncodePOSIXShellList(solibs)))
ninja_file.build(output, command + command_suffix, link_deps,
implicit=list(implicit_deps),
order_only=list(order_deps),
variables=extra_bindings)
return linked_binary
def WriteTarget(self, spec, config_name, config, link_deps, compile_deps):
extra_link_deps = any(self.target_outputs.get(dep).Linkable()
for dep in spec.get('dependencies', [])
if dep in self.target_outputs)
if spec['type'] == 'none' or (not link_deps and not extra_link_deps):
# TODO(evan): don't call this function for 'none' target types, as
# it doesn't do anything, and we fake out a 'binary' with a stamp file.
self.target.binary = compile_deps
self.target.type = 'none'
elif spec['type'] == 'static_library':
self.target.binary = self.ComputeOutput(spec)
if (self.flavor not in ('mac', 'openbsd', 'netbsd', 'win') and not
self.is_standalone_static_library):
self.ninja.build(self.target.binary, 'alink_thin', link_deps,
order_only=compile_deps)
else:
variables = []
if self.xcode_settings:
libtool_flags = self.xcode_settings.GetLibtoolflags(config_name)
if libtool_flags:
variables.append(('libtool_flags', libtool_flags))
if self.msvs_settings:
libflags = self.msvs_settings.GetLibFlags(config_name,
self.GypPathToNinja)
variables.append(('libflags', libflags))
if self.flavor != 'mac' or len(self.archs) == 1:
self.AppendPostbuildVariable(variables, spec,
self.target.binary, self.target.binary)
self.ninja.build(self.target.binary, 'alink', link_deps,
order_only=compile_deps, variables=variables)
else:
inputs = []
for arch in self.archs:
output = self.ComputeOutput(spec, arch)
self.arch_subninjas[arch].build(output, 'alink', link_deps[arch],
order_only=compile_deps,
variables=variables)
inputs.append(output)
# TODO: It's not clear if libtool_flags should be passed to the alink
# call that combines single-arch .a files into a fat .a file.
self.AppendPostbuildVariable(variables, spec,
self.target.binary, self.target.binary)
self.ninja.build(self.target.binary, 'alink', inputs,
# FIXME: test proving order_only=compile_deps isn't
# needed.
variables=variables)
else:
self.target.binary = self.WriteLink(spec, config_name, config, link_deps)
return self.target.binary
def WriteMacBundle(self, spec, mac_bundle_depends, is_empty):
assert self.is_mac_bundle
package_framework = spec['type'] in ('shared_library', 'loadable_module')
output = self.ComputeMacBundleOutput()
if is_empty:
output += '.stamp'
variables = []
self.AppendPostbuildVariable(variables, spec, output, self.target.binary,
is_command_start=not package_framework)
if package_framework and not is_empty:
variables.append(('version', self.xcode_settings.GetFrameworkVersion()))
self.ninja.build(output, 'package_framework', mac_bundle_depends,
variables=variables)
else:
self.ninja.build(output, 'stamp', mac_bundle_depends,
variables=variables)
self.target.bundle = output
return output
def GetToolchainEnv(self, additional_settings=None):
"""Returns the variables toolchain would set for build steps."""
env = self.GetSortedXcodeEnv(additional_settings=additional_settings)
if self.flavor == 'win':
env = self.GetMsvsToolchainEnv(
additional_settings=additional_settings)
return env
def GetMsvsToolchainEnv(self, additional_settings=None):
"""Returns the variables Visual Studio would set for build steps."""
return self.msvs_settings.GetVSMacroEnv('$!PRODUCT_DIR',
config=self.config_name)
def GetSortedXcodeEnv(self, additional_settings=None):
"""Returns the variables Xcode would set for build steps."""
assert self.abs_build_dir
abs_build_dir = self.abs_build_dir
return gyp.xcode_emulation.GetSortedXcodeEnv(
self.xcode_settings, abs_build_dir,
os.path.join(abs_build_dir, self.build_to_base), self.config_name,
additional_settings)
def GetSortedXcodePostbuildEnv(self):
"""Returns the variables Xcode would set for postbuild steps."""
postbuild_settings = {}
# CHROMIUM_STRIP_SAVE_FILE is a chromium-specific hack.
# TODO(thakis): It would be nice to have some general mechanism instead.
strip_save_file = self.xcode_settings.GetPerTargetSetting(
'CHROMIUM_STRIP_SAVE_FILE')
if strip_save_file:
postbuild_settings['CHROMIUM_STRIP_SAVE_FILE'] = strip_save_file
return self.GetSortedXcodeEnv(additional_settings=postbuild_settings)
def AppendPostbuildVariable(self, variables, spec, output, binary,
is_command_start=False):
"""Adds a 'postbuild' variable if there is a postbuild for |output|."""
postbuild = self.GetPostbuildCommand(spec, output, binary, is_command_start)
if postbuild:
variables.append(('postbuilds', postbuild))
def GetPostbuildCommand(self, spec, output, output_binary, is_command_start):
"""Returns a shell command that runs all the postbuilds, and removes
|output| if any of them fails. If |is_command_start| is False, then the
returned string will start with ' && '."""
if not self.xcode_settings or spec['type'] == 'none' or not output:
return ''
output = QuoteShellArgument(output, self.flavor)
postbuilds = gyp.xcode_emulation.GetSpecPostbuildCommands(spec, quiet=True)
if output_binary is not None:
postbuilds = self.xcode_settings.AddImplicitPostbuilds(
self.config_name,
os.path.normpath(os.path.join(self.base_to_build, output)),
QuoteShellArgument(
os.path.normpath(os.path.join(self.base_to_build, output_binary)),
self.flavor),
postbuilds, quiet=True)
if not postbuilds:
return ''
# Postbuilds expect to be run in the gyp file's directory, so insert an
# implicit postbuild to cd to there.
postbuilds.insert(0, gyp.common.EncodePOSIXShellList(
['cd', self.build_to_base]))
env = self.ComputeExportEnvString(self.GetSortedXcodePostbuildEnv())
# G will be non-null if any postbuild fails. Run all postbuilds in a
# subshell.
commands = env + ' (' + \
' && '.join([ninja_syntax.escape(command) for command in postbuilds])
command_string = (commands + '); G=$$?; '
# Remove the final output if any postbuild failed.
'((exit $$G) || rm -rf %s) ' % output + '&& exit $$G)')
if is_command_start:
return '(' + command_string + ' && '
else:
return '$ && (' + command_string
def ComputeExportEnvString(self, env):
"""Given an environment, returns a string looking like
'export FOO=foo; export BAR="${FOO} bar;'
that exports |env| to the shell."""
export_str = []
for k, v in env:
export_str.append('export %s=%s;' %
(k, ninja_syntax.escape(gyp.common.EncodePOSIXShellArgument(v))))
return ' '.join(export_str)
def ComputeMacBundleOutput(self):
"""Return the 'output' (full output path) to a bundle output directory."""
assert self.is_mac_bundle
path = generator_default_variables['PRODUCT_DIR']
return self.ExpandSpecial(
os.path.join(path, self.xcode_settings.GetWrapperName()))
def ComputeOutputFileName(self, spec, type=None):
"""Compute the filename of the final output for the current target."""
if not type:
type = spec['type']
default_variables = copy.copy(generator_default_variables)
CalculateVariables(default_variables, {'flavor': self.flavor})
# Compute filename prefix: the product prefix, or a default for
# the product type.
DEFAULT_PREFIX = {
'loadable_module': default_variables['SHARED_LIB_PREFIX'],
'shared_library': default_variables['SHARED_LIB_PREFIX'],
'static_library': default_variables['STATIC_LIB_PREFIX'],
'executable': default_variables['EXECUTABLE_PREFIX'],
}
prefix = spec.get('product_prefix', DEFAULT_PREFIX.get(type, ''))
# Compute filename extension: the product extension, or a default
# for the product type.
DEFAULT_EXTENSION = {
'loadable_module': default_variables['SHARED_LIB_SUFFIX'],
'shared_library': default_variables['SHARED_LIB_SUFFIX'],
'static_library': default_variables['STATIC_LIB_SUFFIX'],
'executable': default_variables['EXECUTABLE_SUFFIX'],
}
extension = spec.get('product_extension')
if extension:
extension = '.' + extension
else:
extension = DEFAULT_EXTENSION.get(type, '')
if 'product_name' in spec:
# If we were given an explicit name, use that.
target = spec['product_name']
else:
# Otherwise, derive a name from the target name.
target = spec['target_name']
if prefix == 'lib':
# Snip out an extra 'lib' from libs if appropriate.
target = StripPrefix(target, 'lib')
if type in ('static_library', 'loadable_module', 'shared_library',
'executable'):
return '%s%s%s' % (prefix, target, extension)
elif type == 'none':
return '%s.stamp' % target
else:
raise Exception('Unhandled output type %s' % type)
def ComputeOutput(self, spec, arch=None):
"""Compute the path for the final output of the spec."""
type = spec['type']
if self.flavor == 'win':
override = self.msvs_settings.GetOutputName(self.config_name,
self.ExpandSpecial)
if override:
return override
if arch is None and self.flavor == 'mac' and type in (
'static_library', 'executable', 'shared_library', 'loadable_module'):
filename = self.xcode_settings.GetExecutablePath()
else:
filename = self.ComputeOutputFileName(spec, type)
if arch is None and 'product_dir' in spec:
path = os.path.join(spec['product_dir'], filename)
return self.ExpandSpecial(path)
# Some products go into the output root, libraries go into shared library
# dir, and everything else goes into the normal place.
type_in_output_root = ['executable', 'loadable_module']
if self.flavor == 'mac' and self.toolset == 'target':
type_in_output_root += ['shared_library', 'static_library']
elif self.flavor == 'win' and self.toolset == 'target':
type_in_output_root += ['shared_library']
if arch is not None:
# Make sure partial executables don't end up in a bundle or the regular
# output directory.
archdir = 'arch'
if self.toolset != 'target':
archdir = os.path.join('arch', '%s' % self.toolset)
return os.path.join(archdir, AddArch(filename, arch))
elif type in type_in_output_root or self.is_standalone_static_library:
return filename
elif type == 'shared_library':
libdir = 'lib'
if self.toolset != 'target':
libdir = os.path.join('lib', '%s' % self.toolset)
return os.path.join(libdir, filename)
else:
return self.GypPathToUniqueOutput(filename, qualified=False)
def WriteVariableList(self, ninja_file, var, values):
assert not isinstance(values, str)
if values is None:
values = []
ninja_file.variable(var, ' '.join(values))
def WriteNewNinjaRule(self, name, args, description, is_cygwin, env, pool,
depfile=None):
"""Write out a new ninja "rule" statement for a given command.
Returns the name of the new rule, and a copy of |args| with variables
expanded."""
if self.flavor == 'win':
args = [self.msvs_settings.ConvertVSMacros(
arg, self.base_to_build, config=self.config_name)
for arg in args]
description = self.msvs_settings.ConvertVSMacros(
description, config=self.config_name)
elif self.flavor == 'mac':
# |env| is an empty list on non-mac.
args = [gyp.xcode_emulation.ExpandEnvVars(arg, env) for arg in args]
description = gyp.xcode_emulation.ExpandEnvVars(description, env)
# TODO: we shouldn't need to qualify names; we do it because
# currently the ninja rule namespace is global, but it really
# should be scoped to the subninja.
rule_name = self.name
if self.toolset == 'target':
rule_name += '.' + self.toolset
rule_name += '.' + name
rule_name = re.sub('[^a-zA-Z0-9_]', '_', rule_name)
# Remove variable references, but not if they refer to the magic rule
# variables. This is not quite right, as it also protects these for
# actions, not just for rules where they are valid. Good enough.
protect = [ '${root}', '${dirname}', '${source}', '${ext}', '${name}' ]
protect = '(?!' + '|'.join(map(re.escape, protect)) + ')'
description = re.sub(protect + r'\$', '_', description)
# gyp dictates that commands are run from the base directory.
# cd into the directory before running, and adjust paths in
# the arguments to point to the proper locations.
rspfile = None
rspfile_content = None
args = [self.ExpandSpecial(arg, self.base_to_build) for arg in args]
if self.flavor == 'win':
rspfile = rule_name + '.$unique_name.rsp'
# The cygwin case handles this inside the bash sub-shell.
run_in = '' if is_cygwin else ' ' + self.build_to_base
if is_cygwin:
rspfile_content = self.msvs_settings.BuildCygwinBashCommandLine(
args, self.build_to_base)
else:
rspfile_content = gyp.msvs_emulation.EncodeRspFileList(args)
command = ('%s gyp-win-tool action-wrapper $arch ' % sys.executable +
rspfile + run_in)
else:
env = self.ComputeExportEnvString(env)
command = gyp.common.EncodePOSIXShellList(args)
command = 'cd %s; ' % self.build_to_base + env + command
# GYP rules/actions express being no-ops by not touching their outputs.
# Avoid executing downstream dependencies in this case by specifying
# restat=1 to ninja.
self.ninja.rule(rule_name, command, description, depfile=depfile,
restat=True, pool=pool,
rspfile=rspfile, rspfile_content=rspfile_content)
self.ninja.newline()
return rule_name, args
def CalculateVariables(default_variables, params):
"""Calculate additional variables for use in the build (called by gyp)."""
global generator_additional_non_configuration_keys
global generator_additional_path_sections
flavor = gyp.common.GetFlavor(params)
if flavor == 'mac':
default_variables.setdefault('OS', 'mac')
default_variables.setdefault('SHARED_LIB_SUFFIX', '.dylib')
default_variables.setdefault('SHARED_LIB_DIR',
generator_default_variables['PRODUCT_DIR'])
default_variables.setdefault('LIB_DIR',
generator_default_variables['PRODUCT_DIR'])
# Copy additional generator configuration data from Xcode, which is shared
# by the Mac Ninja generator.
import gyp.generator.xcode as xcode_generator
generator_additional_non_configuration_keys = getattr(xcode_generator,
'generator_additional_non_configuration_keys', [])
generator_additional_path_sections = getattr(xcode_generator,
'generator_additional_path_sections', [])
global generator_extra_sources_for_rules
generator_extra_sources_for_rules = getattr(xcode_generator,
'generator_extra_sources_for_rules', [])
elif flavor == 'win':
exts = gyp.MSVSUtil.TARGET_TYPE_EXT
default_variables.setdefault('OS', 'win')
default_variables['EXECUTABLE_SUFFIX'] = '.' + exts['executable']
default_variables['STATIC_LIB_PREFIX'] = ''
default_variables['STATIC_LIB_SUFFIX'] = '.' + exts['static_library']
default_variables['SHARED_LIB_PREFIX'] = ''
default_variables['SHARED_LIB_SUFFIX'] = '.' + exts['shared_library']
# Copy additional generator configuration data from VS, which is shared
# by the Windows Ninja generator.
import gyp.generator.msvs as msvs_generator
generator_additional_non_configuration_keys = getattr(msvs_generator,
'generator_additional_non_configuration_keys', [])
generator_additional_path_sections = getattr(msvs_generator,
'generator_additional_path_sections', [])
gyp.msvs_emulation.CalculateCommonVariables(default_variables, params)
else:
operating_system = flavor
if flavor == 'android':
operating_system = 'linux' # Keep this legacy behavior for now.
default_variables.setdefault('OS', operating_system)
default_variables.setdefault('SHARED_LIB_SUFFIX', '.so')
default_variables.setdefault('SHARED_LIB_DIR',
os.path.join('$!PRODUCT_DIR', 'lib'))
default_variables.setdefault('LIB_DIR',
os.path.join('$!PRODUCT_DIR', 'obj'))
def ComputeOutputDir(params):
"""Returns the path from the toplevel_dir to the build output directory."""
# generator_dir: relative path from pwd to where make puts build files.
# Makes migrating from make to ninja easier, ninja doesn't put anything here.
generator_dir = os.path.relpath(params['options'].generator_output or '.')
# output_dir: relative path from generator_dir to the build directory.
output_dir = params.get('generator_flags', {}).get('output_dir', 'out')
# Relative path from source root to our output files. e.g. "out"
return os.path.normpath(os.path.join(generator_dir, output_dir))
def CalculateGeneratorInputInfo(params):
"""Called by __init__ to initialize generator values based on params."""
# E.g. "out/gypfiles"
toplevel = params['options'].toplevel_dir
qualified_out_dir = os.path.normpath(os.path.join(
toplevel, ComputeOutputDir(params), 'gypfiles'))
global generator_filelist_paths
generator_filelist_paths = {
'toplevel': toplevel,
'qualified_out_dir': qualified_out_dir,
}
def OpenOutput(path, mode='w'):
"""Open |path| for writing, creating directories if necessary."""
gyp.common.EnsureDirExists(path)
return open(path, mode)
def CommandWithWrapper(cmd, wrappers, prog):
wrapper = wrappers.get(cmd, '')
if wrapper:
return wrapper + ' ' + prog
return prog
def GetDefaultConcurrentLinks():
"""Returns a best-guess for a number of concurrent links."""
pool_size = int(os.environ.get('GYP_LINK_CONCURRENCY', 0))
if pool_size:
return pool_size
if sys.platform in ('win32', 'cygwin'):
import ctypes
class MEMORYSTATUSEX(ctypes.Structure):
_fields_ = [
("dwLength", ctypes.c_ulong),
("dwMemoryLoad", ctypes.c_ulong),
("ullTotalPhys", ctypes.c_ulonglong),
("ullAvailPhys", ctypes.c_ulonglong),
("ullTotalPageFile", ctypes.c_ulonglong),
("ullAvailPageFile", ctypes.c_ulonglong),
("ullTotalVirtual", ctypes.c_ulonglong),
("ullAvailVirtual", ctypes.c_ulonglong),
("sullAvailExtendedVirtual", ctypes.c_ulonglong),
]
stat = MEMORYSTATUSEX()
stat.dwLength = ctypes.sizeof(stat)
ctypes.windll.kernel32.GlobalMemoryStatusEx(ctypes.byref(stat))
# VS 2015 uses 20% more working set than VS 2013 and can consume all RAM
# on a 64 GB machine.
mem_limit = max(1, stat.ullTotalPhys / (5 * (2 ** 30))) # total / 5GB
hard_cap = max(1, int(os.environ.get('GYP_LINK_CONCURRENCY_MAX', 2**32)))
return min(mem_limit, hard_cap)
elif sys.platform.startswith('linux'):
if os.path.exists("/proc/meminfo"):
with open("/proc/meminfo") as meminfo:
memtotal_re = re.compile(r'^MemTotal:\s*(\d*)\s*kB')
for line in meminfo:
match = memtotal_re.match(line)
if not match:
continue
# Allow 8Gb per link on Linux because Gold is quite memory hungry
return max(1, int(match.group(1)) / (8 * (2 ** 20)))
return 1
elif sys.platform == 'darwin':
try:
avail_bytes = int(subprocess.check_output(['sysctl', '-n', 'hw.memsize']))
# A static library debug build of Chromium's unit_tests takes ~2.7GB, so
# 4GB per ld process allows for some more bloat.
return max(1, avail_bytes / (4 * (2 ** 30))) # total / 4GB
except:
return 1
else:
# TODO(scottmg): Implement this for other platforms.
return 1
def _GetWinLinkRuleNameSuffix(embed_manifest):
"""Returns the suffix used to select an appropriate linking rule depending on
whether the manifest embedding is enabled."""
return '_embed' if embed_manifest else ''
def _AddWinLinkRules(master_ninja, embed_manifest):
"""Adds link rules for Windows platform to |master_ninja|."""
def FullLinkCommand(ldcmd, out, binary_type):
resource_name = {
'exe': '1',
'dll': '2',
}[binary_type]
return '%(python)s gyp-win-tool link-with-manifests $arch %(embed)s ' \
'%(out)s "%(ldcmd)s" %(resname)s $mt $rc "$intermediatemanifest" ' \
'$manifests' % {
'python': sys.executable,
'out': out,
'ldcmd': ldcmd,
'resname': resource_name,
'embed': embed_manifest }
rule_name_suffix = _GetWinLinkRuleNameSuffix(embed_manifest)
use_separate_mspdbsrv = (
int(os.environ.get('GYP_USE_SEPARATE_MSPDBSRV', '0')) != 0)
dlldesc = 'LINK%s(DLL) $binary' % rule_name_suffix.upper()
dllcmd = ('%s gyp-win-tool link-wrapper $arch %s '
'$ld /nologo $implibflag /DLL /OUT:$binary '
'@$binary.rsp' % (sys.executable, use_separate_mspdbsrv))
dllcmd = FullLinkCommand(dllcmd, '$binary', 'dll')
master_ninja.rule('solink' + rule_name_suffix,
description=dlldesc, command=dllcmd,
rspfile='$binary.rsp',
rspfile_content='$libs $in_newline $ldflags',
restat=True,
pool='link_pool')
master_ninja.rule('solink_module' + rule_name_suffix,
description=dlldesc, command=dllcmd,
rspfile='$binary.rsp',
rspfile_content='$libs $in_newline $ldflags',
restat=True,
pool='link_pool')
# Note that ldflags goes at the end so that it has the option of
# overriding default settings earlier in the command line.
exe_cmd = ('%s gyp-win-tool link-wrapper $arch %s '
'$ld /nologo /OUT:$binary @$binary.rsp' %
(sys.executable, use_separate_mspdbsrv))
exe_cmd = FullLinkCommand(exe_cmd, '$binary', 'exe')
master_ninja.rule('link' + rule_name_suffix,
description='LINK%s $binary' % rule_name_suffix.upper(),
command=exe_cmd,
rspfile='$binary.rsp',
rspfile_content='$in_newline $libs $ldflags',
pool='link_pool')
def GenerateOutputForConfig(target_list, target_dicts, data, params,
config_name):
options = params['options']
flavor = gyp.common.GetFlavor(params)
generator_flags = params.get('generator_flags', {})
# build_dir: relative path from source root to our output files.
# e.g. "out/Debug"
build_dir = os.path.normpath(
os.path.join(ComputeOutputDir(params), config_name))
toplevel_build = os.path.join(options.toplevel_dir, build_dir)
master_ninja_file = OpenOutput(os.path.join(toplevel_build, 'build.ninja'))
master_ninja = ninja_syntax.Writer(master_ninja_file, width=120)
# Put build-time support tools in out/{config_name}.
gyp.common.CopyTool(flavor, toplevel_build)
# Grab make settings for CC/CXX.
# The rules are
# - The priority from low to high is gcc/g++, the 'make_global_settings' in
# gyp, the environment variable.
# - If there is no 'make_global_settings' for CC.host/CXX.host or
# 'CC_host'/'CXX_host' environment variable, cc_host/cxx_host should be set
# to cc/cxx.
if flavor == 'win':
ar = 'lib.exe'
# cc and cxx must be set to the correct architecture by overriding with one
# of cl_x86 or cl_x64 below.
cc = 'UNSET'
cxx = 'UNSET'
ld = 'link.exe'
ld_host = '$ld'
else:
ar = 'ar'
cc = 'cc'
cxx = 'c++'
ld = '$cc'
ldxx = '$cxx'
ld_host = '$cc_host'
ldxx_host = '$cxx_host'
ar_host = 'ar'
cc_host = None
cxx_host = None
cc_host_global_setting = None
cxx_host_global_setting = None
clang_cl = None
nm = 'nm'
nm_host = 'nm'
readelf = 'readelf'
readelf_host = 'readelf'
build_file, _, _ = gyp.common.ParseQualifiedTarget(target_list[0])
make_global_settings = data[build_file].get('make_global_settings', [])
build_to_root = gyp.common.InvertRelativePath(build_dir,
options.toplevel_dir)
wrappers = {}
for key, value in make_global_settings:
if key == 'AR':
ar = os.path.join(build_to_root, value)
if key == 'AR.host':
ar_host = os.path.join(build_to_root, value)
if key == 'CC':
cc = os.path.join(build_to_root, value)
if cc.endswith('clang-cl'):
clang_cl = cc
if key == 'CXX':
cxx = os.path.join(build_to_root, value)
if key == 'CC.host':
cc_host = os.path.join(build_to_root, value)
cc_host_global_setting = value
if key == 'CXX.host':
cxx_host = os.path.join(build_to_root, value)
cxx_host_global_setting = value
if key == 'LD':
ld = os.path.join(build_to_root, value)
if key == 'LD.host':
ld_host = os.path.join(build_to_root, value)
if key == 'LDXX':
ldxx = os.path.join(build_to_root, value)
if key == 'LDXX.host':
ldxx_host = os.path.join(build_to_root, value)
if key == 'NM':
nm = os.path.join(build_to_root, value)
if key == 'NM.host':
nm_host = os.path.join(build_to_root, value)
if key == 'READELF':
readelf = os.path.join(build_to_root, value)
if key == 'READELF.host':
readelf_host = os.path.join(build_to_root, value)
if key.endswith('_wrapper'):
wrappers[key[:-len('_wrapper')]] = os.path.join(build_to_root, value)
# Support wrappers from environment variables too.
for key, value in os.environ.items():
if key.lower().endswith('_wrapper'):
key_prefix = key[:-len('_wrapper')]
key_prefix = re.sub(r'\.HOST$', '.host', key_prefix)
wrappers[key_prefix] = os.path.join(build_to_root, value)
if flavor == 'win':
configs = [target_dicts[qualified_target]['configurations'][config_name]
for qualified_target in target_list]
shared_system_includes = None
if not generator_flags.get('ninja_use_custom_environment_files', 0):
shared_system_includes = \
gyp.msvs_emulation.ExtractSharedMSVSSystemIncludes(
configs, generator_flags)
cl_paths = gyp.msvs_emulation.GenerateEnvironmentFiles(
toplevel_build, generator_flags, shared_system_includes, OpenOutput)
for arch, path in cl_paths.items():
if clang_cl:
# If we have selected clang-cl, use that instead.
path = clang_cl
command = CommandWithWrapper('CC', wrappers,
QuoteShellArgument(path, 'win'))
if clang_cl:
# Use clang-cl to cross-compile for x86 or x86_64.
command += (' -m32' if arch == 'x86' else ' -m64')
master_ninja.variable('cl_' + arch, command)
cc = GetEnvironFallback(['CC_target', 'CC'], cc)
master_ninja.variable('cc', CommandWithWrapper('CC', wrappers, cc))
cxx = GetEnvironFallback(['CXX_target', 'CXX'], cxx)
master_ninja.variable('cxx', CommandWithWrapper('CXX', wrappers, cxx))
if flavor == 'win':
master_ninja.variable('ld', ld)
master_ninja.variable('idl', 'midl.exe')
master_ninja.variable('ar', ar)
master_ninja.variable('rc', 'rc.exe')
master_ninja.variable('ml_x86', 'ml.exe')
master_ninja.variable('ml_x64', 'ml64.exe')
master_ninja.variable('mt', 'mt.exe')
else:
master_ninja.variable('ld', CommandWithWrapper('LINK', wrappers, ld))
master_ninja.variable('ldxx', CommandWithWrapper('LINK', wrappers, ldxx))
master_ninja.variable('ar', GetEnvironFallback(['AR_target', 'AR'], ar))
if flavor != 'mac':
# Mac does not use readelf/nm for .TOC generation, so avoiding polluting
# the master ninja with extra unused variables.
master_ninja.variable(
'nm', GetEnvironFallback(['NM_target', 'NM'], nm))
master_ninja.variable(
'readelf', GetEnvironFallback(['READELF_target', 'READELF'], readelf))
if generator_supports_multiple_toolsets:
if not cc_host:
cc_host = cc
if not cxx_host:
cxx_host = cxx
master_ninja.variable('ar_host', GetEnvironFallback(['AR_host'], ar_host))
master_ninja.variable('nm_host', GetEnvironFallback(['NM_host'], nm_host))
master_ninja.variable('readelf_host',
GetEnvironFallback(['READELF_host'], readelf_host))
cc_host = GetEnvironFallback(['CC_host'], cc_host)
cxx_host = GetEnvironFallback(['CXX_host'], cxx_host)
# The environment variable could be used in 'make_global_settings', like
# ['CC.host', '$(CC)'] or ['CXX.host', '$(CXX)'], transform them here.
if '$(CC)' in cc_host and cc_host_global_setting:
cc_host = cc_host_global_setting.replace('$(CC)', cc)
if '$(CXX)' in cxx_host and cxx_host_global_setting:
cxx_host = cxx_host_global_setting.replace('$(CXX)', cxx)
master_ninja.variable('cc_host',
CommandWithWrapper('CC.host', wrappers, cc_host))
master_ninja.variable('cxx_host',
CommandWithWrapper('CXX.host', wrappers, cxx_host))
if flavor == 'win':
master_ninja.variable('ld_host', ld_host)
master_ninja.variable('ldxx_host', ldxx_host)
else:
master_ninja.variable('ld_host', CommandWithWrapper(
'LINK', wrappers, ld_host))
master_ninja.variable('ldxx_host', CommandWithWrapper(
'LINK', wrappers, ldxx_host))
master_ninja.newline()
master_ninja.pool('link_pool', depth=GetDefaultConcurrentLinks())
master_ninja.newline()
deps = 'msvc' if flavor == 'win' else 'gcc'
if flavor != 'win':
master_ninja.rule(
'cc',
description='CC $out',
command=('$cc -MMD -MF $out.d $defines $includes $cflags $cflags_c '
'$cflags_pch_c -c $in -o $out'),
depfile='$out.d',
deps=deps)
master_ninja.rule(
'cc_s',
description='CC $out',
command=('$cc $defines $includes $cflags $cflags_c '
'$cflags_pch_c -c $in -o $out'))
master_ninja.rule(
'cxx',
description='CXX $out',
command=('$cxx -MMD -MF $out.d $defines $includes $cflags $cflags_cc '
'$cflags_pch_cc -c $in -o $out'),
depfile='$out.d',
deps=deps)
else:
# TODO(scottmg) Separate pdb names is a test to see if it works around
# http://crbug.com/142362. It seems there's a race between the creation of
# the .pdb by the precompiled header step for .cc and the compilation of
# .c files. This should be handled by mspdbsrv, but rarely errors out with
# c1xx : fatal error C1033: cannot open program database
# By making the rules target separate pdb files this might be avoided.
cc_command = ('ninja -t msvc -e $arch ' +
'-- '
'$cc /nologo /showIncludes /FC '
'@$out.rsp /c $in /Fo$out /Fd$pdbname_c ')
cxx_command = ('ninja -t msvc -e $arch ' +
'-- '
'$cxx /nologo /showIncludes /FC '
'@$out.rsp /c $in /Fo$out /Fd$pdbname_cc ')
master_ninja.rule(
'cc',
description='CC $out',
command=cc_command,
rspfile='$out.rsp',
rspfile_content='$defines $includes $cflags $cflags_c',
deps=deps)
master_ninja.rule(
'cxx',
description='CXX $out',
command=cxx_command,
rspfile='$out.rsp',
rspfile_content='$defines $includes $cflags $cflags_cc',
deps=deps)
master_ninja.rule(
'idl',
description='IDL $in',
command=('%s gyp-win-tool midl-wrapper $arch $outdir '
'$tlb $h $dlldata $iid $proxy $in '
'$midl_includes $idlflags' % sys.executable))
master_ninja.rule(
'rc',
description='RC $in',
# Note: $in must be last otherwise rc.exe complains.
command=('%s gyp-win-tool rc-wrapper '
'$arch $rc $defines $resource_includes $rcflags /fo$out $in' %
sys.executable))
master_ninja.rule(
'asm',
description='ASM $out',
command=('%s gyp-win-tool asm-wrapper '
'$arch $asm $defines $includes $asmflags /c /Fo $out $in' %
sys.executable))
if flavor != 'mac' and flavor != 'win':
master_ninja.rule(
'alink',
description='AR $out',
command='rm -f $out && $ar rcs $arflags $out $in')
master_ninja.rule(
'alink_thin',
description='AR $out',
command='rm -f $out && $ar rcsT $arflags $out $in')
# This allows targets that only need to depend on $lib's API to declare an
# order-only dependency on $lib.TOC and avoid relinking such downstream
# dependencies when $lib changes only in non-public ways.
# The resulting string leaves an uninterpolated %{suffix} which
# is used in the final substitution below.
mtime_preserving_solink_base = (
'if [ ! -e $lib -o ! -e $lib.TOC ]; then '
'%(solink)s && %(extract_toc)s > $lib.TOC; else '
'%(solink)s && %(extract_toc)s > $lib.tmp && '
'if ! cmp -s $lib.tmp $lib.TOC; then mv $lib.tmp $lib.TOC ; '
'fi; fi'
% { 'solink':
'$ld -shared $ldflags -o $lib -Wl,-soname=$soname %(suffix)s',
'extract_toc':
('{ $readelf -d $lib | grep SONAME ; '
'$nm -gD -f p $lib | cut -f1-2 -d\' \'; }')})
master_ninja.rule(
'solink',
description='SOLINK $lib',
restat=True,
command=mtime_preserving_solink_base % {'suffix': '@$link_file_list'},
rspfile='$link_file_list',
rspfile_content=
'-Wl,--whole-archive $in $solibs -Wl,--no-whole-archive $libs',
pool='link_pool')
master_ninja.rule(
'solink_module',
description='SOLINK(module) $lib',
restat=True,
command=mtime_preserving_solink_base % {'suffix': '@$link_file_list'},
rspfile='$link_file_list',
rspfile_content='-Wl,--start-group $in $solibs $libs -Wl,--end-group',
pool='link_pool')
master_ninja.rule(
'link',
description='LINK $out',
command=('$ld $ldflags -o $out '
'-Wl,--start-group $in $solibs $libs -Wl,--end-group'),
pool='link_pool')
elif flavor == 'win':
master_ninja.rule(
'alink',
description='LIB $out',
command=('%s gyp-win-tool link-wrapper $arch False '
'$ar /nologo /ignore:4221 /OUT:$out @$out.rsp' %
sys.executable),
rspfile='$out.rsp',
rspfile_content='$in_newline $libflags')
_AddWinLinkRules(master_ninja, embed_manifest=True)
_AddWinLinkRules(master_ninja, embed_manifest=False)
else:
master_ninja.rule(
'objc',
description='OBJC $out',
command=('$cc -MMD -MF $out.d $defines $includes $cflags $cflags_objc '
'$cflags_pch_objc -c $in -o $out'),
depfile='$out.d',
deps=deps)
master_ninja.rule(
'objcxx',
description='OBJCXX $out',
command=('$cxx -MMD -MF $out.d $defines $includes $cflags $cflags_objcc '
'$cflags_pch_objcc -c $in -o $out'),
depfile='$out.d',
deps=deps)
master_ninja.rule(
'alink',
description='LIBTOOL-STATIC $out, POSTBUILDS',
command='rm -f $out && '
'./gyp-mac-tool filter-libtool libtool $libtool_flags '
'-static -o $out $in'
'$postbuilds')
master_ninja.rule(
'lipo',
description='LIPO $out, POSTBUILDS',
command='rm -f $out && lipo -create $in -output $out$postbuilds')
master_ninja.rule(
'solipo',
description='SOLIPO $out, POSTBUILDS',
command=(
'rm -f $lib $lib.TOC && lipo -create $in -output $lib$postbuilds &&'
'%(extract_toc)s > $lib.TOC'
% { 'extract_toc':
'{ otool -l $lib | grep LC_ID_DYLIB -A 5; '
'nm -gP $lib | cut -f1-2 -d\' \' | grep -v U$$; true; }'}))
# Record the public interface of $lib in $lib.TOC. See the corresponding
# comment in the posix section above for details.
solink_base = '$ld %(type)s $ldflags -o $lib %(suffix)s'
mtime_preserving_solink_base = (
'if [ ! -e $lib -o ! -e $lib.TOC ] || '
# Always force dependent targets to relink if this library
# reexports something. Handling this correctly would require
# recursive TOC dumping but this is rare in practice, so punt.
'otool -l $lib | grep -q LC_REEXPORT_DYLIB ; then '
'%(solink)s && %(extract_toc)s > $lib.TOC; '
'else '
'%(solink)s && %(extract_toc)s > $lib.tmp && '
'if ! cmp -s $lib.tmp $lib.TOC; then '
'mv $lib.tmp $lib.TOC ; '
'fi; '
'fi'
% { 'solink': solink_base,
'extract_toc':
'{ otool -l $lib | grep LC_ID_DYLIB -A 5; '
'nm -gP $lib | cut -f1-2 -d\' \' | grep -v U$$; true; }'})
solink_suffix = '@$link_file_list$postbuilds'
master_ninja.rule(
'solink',
description='SOLINK $lib, POSTBUILDS',
restat=True,
command=mtime_preserving_solink_base % {'suffix': solink_suffix,
'type': '-shared'},
rspfile='$link_file_list',
rspfile_content='$in $solibs $libs',
pool='link_pool')
master_ninja.rule(
'solink_notoc',
description='SOLINK $lib, POSTBUILDS',
restat=True,
command=solink_base % {'suffix':solink_suffix, 'type': '-shared'},
rspfile='$link_file_list',
rspfile_content='$in $solibs $libs',
pool='link_pool')
master_ninja.rule(
'solink_module',
description='SOLINK(module) $lib, POSTBUILDS',
restat=True,
command=mtime_preserving_solink_base % {'suffix': solink_suffix,
'type': '-bundle'},
rspfile='$link_file_list',
rspfile_content='$in $solibs $libs',
pool='link_pool')
master_ninja.rule(
'solink_module_notoc',
description='SOLINK(module) $lib, POSTBUILDS',
restat=True,
command=solink_base % {'suffix': solink_suffix, 'type': '-bundle'},
rspfile='$link_file_list',
rspfile_content='$in $solibs $libs',
pool='link_pool')
master_ninja.rule(
'link',
description='LINK $out, POSTBUILDS',
command=('$ld $ldflags -o $out '
'$in $solibs $libs$postbuilds'),
pool='link_pool')
master_ninja.rule(
'preprocess_infoplist',
description='PREPROCESS INFOPLIST $out',
command=('$cc -E -P -Wno-trigraphs -x c $defines $in -o $out && '
'plutil -convert xml1 $out $out'))
master_ninja.rule(
'copy_infoplist',
description='COPY INFOPLIST $in',
command='$env ./gyp-mac-tool copy-info-plist $in $out $binary $keys')
master_ninja.rule(
'merge_infoplist',
description='MERGE INFOPLISTS $in',
command='$env ./gyp-mac-tool merge-info-plist $out $in')
master_ninja.rule(
'compile_xcassets',
description='COMPILE XCASSETS $in',
command='$env ./gyp-mac-tool compile-xcassets $keys $in')
master_ninja.rule(
'mac_tool',
description='MACTOOL $mactool_cmd $in',
command='$env ./gyp-mac-tool $mactool_cmd $in $out $binary')
master_ninja.rule(
'package_framework',
description='PACKAGE FRAMEWORK $out, POSTBUILDS',
command='./gyp-mac-tool package-framework $out $version$postbuilds '
'&& touch $out')
if flavor == 'win':
master_ninja.rule(
'stamp',
description='STAMP $out',
command='%s gyp-win-tool stamp $out' % sys.executable)
else:
master_ninja.rule(
'stamp',
description='STAMP $out',
command='${postbuilds}touch $out')
if flavor == 'win':
master_ninja.rule(
'copy',
description='COPY $in $out',
command='%s gyp-win-tool recursive-mirror $in $out' % sys.executable)
elif flavor == 'zos':
master_ninja.rule(
'copy',
description='COPY $in $out',
command='rm -rf $out && cp -fRP $in $out')
else:
master_ninja.rule(
'copy',
description='COPY $in $out',
command='rm -rf $out && cp -af $in $out')
master_ninja.newline()
all_targets = set()
for build_file in params['build_files']:
for target in gyp.common.AllTargets(target_list,
target_dicts,
os.path.normpath(build_file)):
all_targets.add(target)
all_outputs = set()
# target_outputs is a map from qualified target name to a Target object.
target_outputs = {}
# target_short_names is a map from target short name to a list of Target
# objects.
target_short_names = {}
# short name of targets that were skipped because they didn't contain anything
# interesting.
# NOTE: there may be overlap between this an non_empty_target_names.
empty_target_names = set()
# Set of non-empty short target names.
# NOTE: there may be overlap between this an empty_target_names.
non_empty_target_names = set()
for qualified_target in target_list:
# qualified_target is like: third_party/icu/icu.gyp:icui18n#target
build_file, name, toolset = \
gyp.common.ParseQualifiedTarget(qualified_target)
this_make_global_settings = data[build_file].get('make_global_settings', [])
assert make_global_settings == this_make_global_settings, (
"make_global_settings needs to be the same for all targets. %s vs. %s" %
(this_make_global_settings, make_global_settings))
spec = target_dicts[qualified_target]
if flavor == 'mac':
gyp.xcode_emulation.MergeGlobalXcodeSettingsToSpec(data[build_file], spec)
# If build_file is a symlink, we must not follow it because there's a chance
# it could point to a path above toplevel_dir, and we cannot correctly deal
# with that case at the moment.
build_file = gyp.common.RelativePath(build_file, options.toplevel_dir,
False)
qualified_target_for_hash = gyp.common.QualifiedTarget(build_file, name,
toolset)
hash_for_rules = hashlib.md5(qualified_target_for_hash).hexdigest()
base_path = os.path.dirname(build_file)
obj = 'obj'
if toolset != 'target':
obj += '.' + toolset
output_file = os.path.join(obj, base_path, name + '.ninja')
ninja_output = StringIO()
writer = NinjaWriter(hash_for_rules, target_outputs, base_path, build_dir,
ninja_output,
toplevel_build, output_file,
flavor, toplevel_dir=options.toplevel_dir)
target = writer.WriteSpec(spec, config_name, generator_flags)
if ninja_output.tell() > 0:
# Only create files for ninja files that actually have contents.
with OpenOutput(os.path.join(toplevel_build, output_file)) as ninja_file:
ninja_file.write(ninja_output.getvalue())
ninja_output.close()
master_ninja.subninja(output_file)
if target:
if name != target.FinalOutput() and spec['toolset'] == 'target':
target_short_names.setdefault(name, []).append(target)
target_outputs[qualified_target] = target
if qualified_target in all_targets:
all_outputs.add(target.FinalOutput())
non_empty_target_names.add(name)
else:
empty_target_names.add(name)
if target_short_names:
# Write a short name to build this target. This benefits both the
# "build chrome" case as well as the gyp tests, which expect to be
# able to run actions and build libraries by their short name.
master_ninja.newline()
master_ninja.comment('Short names for targets.')
for short_name in target_short_names:
master_ninja.build(short_name, 'phony', [x.FinalOutput() for x in
target_short_names[short_name]])
# Write phony targets for any empty targets that weren't written yet. As
# short names are not necessarily unique only do this for short names that
# haven't already been output for another target.
empty_target_names = empty_target_names - non_empty_target_names
if empty_target_names:
master_ninja.newline()
master_ninja.comment('Empty targets (output for completeness).')
for name in sorted(empty_target_names):
master_ninja.build(name, 'phony')
if all_outputs:
master_ninja.newline()
master_ninja.build('all', 'phony', list(all_outputs))
master_ninja.default(generator_flags.get('default_target', 'all'))
master_ninja_file.close()
def PerformBuild(data, configurations, params):
options = params['options']
for config in configurations:
builddir = os.path.join(options.toplevel_dir, 'out', config)
arguments = ['ninja', '-C', builddir]
print('Building [%s]: %s' % (config, arguments))
subprocess.check_call(arguments)
def CallGenerateOutputForConfig(arglist):
# Ignore the interrupt signal so that the parent process catches it and
# kills all multiprocessing children.
signal.signal(signal.SIGINT, signal.SIG_IGN)
(target_list, target_dicts, data, params, config_name) = arglist
GenerateOutputForConfig(target_list, target_dicts, data, params, config_name)
def GenerateOutput(target_list, target_dicts, data, params):
# Update target_dicts for iOS device builds.
target_dicts = gyp.xcode_emulation.CloneConfigurationForDeviceAndEmulator(
target_dicts)
user_config = params.get('generator_flags', {}).get('config', None)
if gyp.common.GetFlavor(params) == 'win':
target_list, target_dicts = MSVSUtil.ShardTargets(target_list, target_dicts)
target_list, target_dicts = MSVSUtil.InsertLargePdbShims(
target_list, target_dicts, generator_default_variables)
if user_config:
GenerateOutputForConfig(target_list, target_dicts, data, params,
user_config)
else:
config_names = target_dicts[target_list[0]]['configurations'].keys()
if params['parallel']:
try:
pool = multiprocessing.Pool(len(config_names))
arglists = []
for config_name in config_names:
arglists.append(
(target_list, target_dicts, data, params, config_name))
pool.map(CallGenerateOutputForConfig, arglists)
except KeyboardInterrupt as e:
pool.terminate()
raise e
else:
for config_name in config_names:
GenerateOutputForConfig(target_list, target_dicts, data, params,
config_name)
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