def __init__(self, name, project, sources, requirements, default_build,
usage_requirements):
AliasTarget.__init__(self, name, project, sources, requirements, default_build,
usage_requirements)
# On Linux, we build release variant by default, since few users will
# ever want to debug C++ Boost libraries, and there's no ABI
# incompatibility between debug and release variants. We build
# shared and static libraries since that's what most packages
# seem to provide (.so in libfoo and .a in libfoo-dev).
self.minimal_properties = property_set.create([
"<variant>release", "<threading>multi", "<link>shared", "<link>static",
"<runtime-link>shared"])
# On Windows, new IDE projects use:
#
# runtime-link=dynamic, threading=multi, variant=(debug|release)
#
# and in addition, C++ Boost's autolink defaults to static linking.
self.minimal_properties_win = property_set.create([
"<variant>debug", "<variant>release", "<threading>multi", "<link>static",
"<runtime-link>shared"])
self.complete_properties = property_set.create([
"<variant>debug", "<variant>release",
"<threading>single", "<threading>multi"
"<link>shared", "<link>static",
"<runtime-link>shared", "<runtime-link>static"])
def __init__(self, name, project, sources, requirements, default_build,
usage_requirements):
AliasTarget.__init__(self, name, project, sources, requirements,
default_build, usage_requirements)
# On Linux, we build release variant by default, since few users will
# ever want to debug C++ Boost libraries, and there's no ABI
# incompatibility between debug and release variants. We build
# shared and static libraries since that's what most packages
# seem to provide (.so in libfoo and .a in libfoo-dev).
self.minimal_properties = property_set.create([
"<variant>release", "<threading>multi", "<link>shared",
"<link>static", "<runtime-link>shared"
])
# On Windows, new IDE projects use:
#
# runtime-link=dynamic, threading=multi, variant=(debug|release)
#
# and in addition, C++ Boost's autolink defaults to static linking.
self.minimal_properties_win = property_set.create([
"<variant>debug", "<variant>release", "<threading>multi",
"<link>static", "<runtime-link>shared"
])
self.complete_properties = property_set.create([
"<variant>debug", "<variant>release", "<threading>single",
"<threading>multi"
"<link>shared", "<link>static", "<runtime-link>shared",
"<runtime-link>static"
])
def set(self, attribute, specification, exact):
"""Set the named attribute from the specification given by the user.
The value actually set may be different."""
if exact:
self.__dict__[attribute] = specification
elif attribute == "requirements":
self.requirements = property_set.refine_from_user_input(
self.requirements, specification, self.project_module,
self.location)
elif attribute == "usage-requirements":
unconditional = []
for p in specification:
split = property.split_conditional(p)
if split:
unconditional.append(split[1])
else:
unconditional.append(p)
non_free = property.remove("free", unconditional)
if non_free:
pass
# FIXME:
#errors.error "usage-requirements" $(specification) "have non-free properties" $(non-free) ;
t = property.translate_paths(specification, self.location)
existing = self.__dict__.get("usage-requirements")
if existing:
new = property_set.create(existing.raw() + t)
else:
new = property_set.create(t)
self.__dict__["usage-requirements"] = new
elif attribute == "default-build":
self.__dict__["default-build"] = property_set.create(specification)
elif attribute == "source-location":
source_location = []
for path in specification:
source_location += os.path.join(self.location, path)
self.__dict__["source-location"] = source_location
elif attribute == "build-dir":
self.__dict__["build-dir"] = os.path.join(self.location,
specification)
elif not attribute in [
"id", "default-build", "location", "source-location", "parent",
"projects-to-build", "project-root"
]:
self.manager.errors()("""Invalid project attribute '%s' specified
for project at '%s'""" % (attribute, self.location))
else:
self.__dict__[attribute] = specification
def set(self, attribute, specification, exact):
"""Set the named attribute from the specification given by the user.
The value actually set may be different."""
if exact:
self.__dict__[attribute] = specification
elif attribute == "requirements":
self.requirements = property_set.refine_from_user_input(
self.requirements, specification,
self.project_module, self.location)
elif attribute == "usage-requirements":
unconditional = []
for p in specification:
split = property.split_conditional(p)
if split:
unconditional.append(split[1])
else:
unconditional.append(p)
non_free = property.remove("free", unconditional)
if non_free:
pass
# FIXME:
#errors.error "usage-requirements" $(specification) "have non-free properties" $(non-free) ;
t = property.translate_paths(specification, self.location)
existing = self.__dict__.get("usage-requirements")
if existing:
new = property_set.create(existing.raw() + t)
else:
new = property_set.create(t)
self.__dict__["usage-requirements"] = new
elif attribute == "default-build":
self.__dict__["default-build"] = property_set.create(specification)
elif attribute == "source-location":
source_location = []
for path in specification:
source_location += os.path.join(self.location, path)
self.__dict__["source-location"] = source_location
elif attribute == "build-dir":
self.__dict__["build-dir"] = os.path.join(self.location, specification)
elif not attribute in ["id", "default-build", "location",
"source-location", "parent",
"projects-to-build", "project-root"]:
self.manager.errors()(
"""Invalid project attribute '%s' specified
for project at '%s'""" % (attribute, self.location))
else:
self.__dict__[attribute] = specification
def extra_usage_requirements(self, created_targets, prop_set):
result = property_set.empty()
extra = []
# Add appropriate <xdll-path> usage requirements.
raw = prop_set.raw()
if '<link>shared' in raw:
paths = []
# TODO: is it safe to use the current directory? I think we should use
# another mechanism to allow this to be run from anywhere.
pwd = os.getcwd()
for t in created_targets:
if type.is_derived(t.type(), 'SHARED_LIB'):
paths.append(path.root(path.make(t.path()), pwd))
extra += replace_grist(paths, '<xdll-path>')
# We need to pass <xdll-path> features that we've got from sources,
# because if shared library is built, exe which uses it must know paths
# to other shared libraries this one depends on, to be able to find them
# all at runtime.
# Just pass all features in property_set, it's theorically possible
# that we'll propagate <xdll-path> features explicitly specified by
# the user, but then the user's to blaim for using internal feature.
values = prop_set.get('<xdll-path>')
extra += replace_grist(values, '<xdll-path>')
if extra:
result = property_set.create(extra)
return result
def run_pch(self, project, name, prop_set, sources):
# Find the header in sources. Ignore any CPP sources.
header = None
for s in sources:
if type.is_derived(s.type(), 'H'):
header = s
# Error handling: Base header file name should be the same as the base
# precompiled header name.
header_name = header.name()
header_basename = os.path.basename(header_name).rsplit('.', 1)[0]
if header_basename != name:
location = project.project_module
###FIXME:
raise Exception()
### errors.user-error "in" $(location)": pch target name `"$(name)"' should be the same as the base name of header file `"$(header-name)"'" ;
pch_file = Generator.run(self, project, name, prop_set, [header])
# return result of base class and pch-file property as usage-requirements
# FIXME: what about multiple results from generator.run?
return (property_set.create([
Property('pch-file', pch_file[0]),
Property('cflags', '-Winvalid-pch')
]), pch_file)
def convert_command_line_element(e):
result = None
parts = e.split("/")
for p in parts:
m = p.split("=")
if len(m) > 1:
feature = m[0]
values = m[1].split(",")
lresult = [("<%s>%s" % (feature, v)) for v in values]
else:
lresult = p.split(",")
if p.find('-') == -1:
# FIXME: first port property.validate
# property.validate cannot handle subfeatures,
# so we avoid the check here.
#for p in lresult:
# property.validate(p)
pass
if not result:
result = lresult
else:
result = [e1 + "/" + e2 for e1 in result for e2 in lresult]
return [property_set.create(b2.build.feature.split(r)) for r in result]
def convert_command_line_element(e):
assert isinstance(e, basestring)
result = None
parts = e.split("/")
for p in parts:
m = p.split("=")
if len(m) > 1:
feature = m[0]
values = m[1].split(",")
lresult = [("<%s>%s" % (feature, v)) for v in values]
else:
lresult = p.split(",")
if p.find('-') == -1:
# FIXME: first port property.validate
# property.validate cannot handle subfeatures,
# so we avoid the check here.
#for p in lresult:
# property.validate(p)
pass
if not result:
result = lresult
else:
result = [e1 + "/" + e2 for e1 in result for e2 in lresult]
return [property_set.create(b2.build.feature.split(r)) for r in result]
def run(self, project, name, prop_set, sources):
if not name:
return None
# If name is empty, it means we're called not from top-level.
# In this case, we just fail immediately, because SearchedLibGenerator
# cannot be used to produce intermediate targets.
properties = prop_set.raw ()
shared = '<link>shared' in properties
a = virtual_target.NullAction (project.manager(), prop_set)
real_name = feature.get_values ('<name>', properties)
if real_name:
real_name = real_name[0]
else:
real_name = name
search = feature.get_values('<search>', properties)
usage_requirements = property_set.create(['<xdll-path>' + p for p in search])
t = SearchedLibTarget(real_name, project, shared, search, a)
# We return sources for a simple reason. If there's
# lib png : z : <name>png ;
# the 'z' target should be returned, so that apps linking to
# 'png' will link to 'z', too.
return(usage_requirements, [b2.manager.get_manager().virtual_targets().register(t)] + sources)
def generated_targets (self, sources, prop_set, project, name):
# sources to pass to inherited rule
sources2 = []
# properties to pass to inherited rule
properties2 = []
# sources which are libraries
libraries = []
# Searched libraries are not passed as argument to linker
# but via some option. So, we pass them to the action
# via property.
properties2 = prop_set.raw()
fsa = []
fst = []
for s in sources:
if type.is_derived(s.type(), 'SEARCHED_LIB'):
name = s.real_name()
if s.shared():
fsa.append(name)
else:
fst.append(name)
else:
sources2.append(s)
if fsa:
properties2 += [replace_grist('&&'.join(fsa), '<find-shared-library>')]
if fst:
properties2 += [replace_grist('&&'.join(fst), '<find-static-library>')]
spawn = generators.Generator.generated_targets(self, sources2, property_set.create(properties2), project, name)
return spawn
def run(self, project, name, prop_set, sources):
if not name:
return None
# If name is empty, it means we're called not from top-level.
# In this case, we just fail immediately, because SearchedLibGenerator
# cannot be used to produce intermediate targets.
properties = prop_set.raw()
shared = '<link>shared' in properties
a = virtual_target.NullAction(project.manager(), prop_set)
real_name = feature.get_values('<name>', properties)
if real_name:
real_name = real_name[0]
else:
real_nake = name
search = feature.get_values('<search>', properties)
usage_requirements = property_set.create(
['<xdll-path>' + p for p in search])
t = SearchedLibTarget(name, project, shared, real_name, search, a)
# We return sources for a simple reason. If there's
# lib png : z : <name>png ;
# the 'z' target should be returned, so that apps linking to
# 'png' will link to 'z', too.
return (usage_requirements,
[b2.manager.get_manager().virtual_targets().register(t)] +
sources)
def extra_usage_requirements (self, created_targets, prop_set):
result = property_set.empty ()
extra = []
# Add appropriate <xdll-path> usage requirements.
raw = prop_set.raw ()
if '<link>shared' in raw:
paths = []
# TODO: is it safe to use the current directory? I think we should use
# another mechanism to allow this to be run from anywhere.
pwd = os.getcwd()
for t in created_targets:
if type.is_derived(t.type(), 'SHARED_LIB'):
paths.append(path.root(path.make(t.path()), pwd))
extra += replace_grist(paths, '<xdll-path>')
# We need to pass <xdll-path> features that we've got from sources,
# because if shared library is built, exe which uses it must know paths
# to other shared libraries this one depends on, to be able to find them
# all at runtime.
# Just pass all features in property_set, it's theorically possible
# that we'll propagate <xdll-path> features explicitly specified by
# the user, but then the user's to blaim for using internal feature.
values = prop_set.get('<xdll-path>')
extra += replace_grist(values, '<xdll-path>')
if extra:
result = property_set.create(extra)
return result
def run(self, project, name, prop_set, sources):
assert isinstance(project, targets.ProjectTarget)
assert isinstance(name, basestring) or name is None
assert isinstance(prop_set, property_set.PropertySet)
assert is_iterable_typed(sources, virtual_target.VirtualTarget)
# create a copy since sources is being modified
sources = list(sources)
sources.extend(prop_set.get('<library>'))
# Add <library-path> properties for all searched libraries
extra = []
for s in sources:
if s.type() == 'SEARCHED_LIB':
search = s.search()
extra.extend(
property.Property('<library-path>', sp) for sp in search)
# It's possible that we have libraries in sources which did not came
# from 'lib' target. For example, libraries which are specified
# just as filenames as sources. We don't have xdll-path properties
# for such target, but still need to add proper dll-path properties.
extra_xdll_path = []
for s in sources:
if type.is_derived(s.type(), 'SHARED_LIB') and not s.action():
# Unfortunately, we don't have a good way to find the path
# to a file, so use this nasty approach.
p = s.project()
location = path.root(s.name(), p.get('source-location')[0])
extra_xdll_path.append(os.path.dirname(location))
# Hardcode DLL paths only when linking executables.
# Pros: do not need to relink libraries when installing.
# Cons: "standalone" libraries (plugins, python extensions) can not
# hardcode paths to dependent libraries.
if prop_set.get('<hardcode-dll-paths>') == ['true'] \
and type.is_derived(self.target_types_ [0], 'EXE'):
xdll_path = prop_set.get('<xdll-path>')
extra.extend(property.Property('<dll-path>', sp) \
for sp in extra_xdll_path)
extra.extend(property.Property('<dll-path>', sp) \
for sp in xdll_path)
if extra:
prop_set = prop_set.add_raw(extra)
result = generators.Generator.run(self, project, name, prop_set,
sources)
if result:
ur = self.extra_usage_requirements(result, prop_set)
ur = ur.add(
property_set.create(
['<xdll-path>' + p for p in extra_xdll_path]))
else:
return None
return (ur, result)
def expand_no_defaults (property_sets):
""" Expand the given build request by combining all property_sets which don't
specify conflicting non-free features.
"""
# First make all features and subfeatures explicit
expanded_property_sets = [ps.expand_subfeatures() for ps in property_sets]
# Now combine all of the expanded property_sets
product = __x_product (expanded_property_sets)
return [property_set.create(p) for p in product]
def boost_std(inc=None, lib=None):
# The default definitions for pre-built libraries.
rules.project(['boost'], ['usage-requirements'] +
['<include>{}'.format(i)
for i in inc] + ['<define>BOOST_ALL_NO_LIB'],
['requirements'] + ['<search>{}'.format(l) for l in lib])
# TODO: There should be a better way to add a Python function into a
# project requirements property set.
tag_prop_set = property_set.create([property.Property('<tag>', tag_std)])
attributes = projects.attributes(projects.current().project_module())
attributes.requirements = attributes.requirements.refine(tag_prop_set)
alias('headers')
def boost_lib(lib_name, dyn_link_macro):
if (isinstance(lib_name, str)):
lib_name = [lib_name]
builtin.lib(lib_name,
usage_requirements=[
'<link>shared:<define>{}'.format(dyn_link_macro)
])
boost_lib('container', 'BOOST_CONTAINER_DYN_LINK')
boost_lib('date_time', 'BOOST_DATE_TIME_DYN_LINK')
boost_lib('filesystem', 'BOOST_FILE_SYSTEM_DYN_LINK')
boost_lib('graph', 'BOOST_GRAPH_DYN_LINK')
boost_lib('graph_parallel', 'BOOST_GRAPH_DYN_LINK')
boost_lib('iostreams', 'BOOST_IOSTREAMS_DYN_LINK')
boost_lib('locale', 'BOOST_LOG_DYN_LINK')
boost_lib('log', 'BOOST_LOG_DYN_LINK')
boost_lib('log_setup', 'BOOST_LOG_DYN_LINK')
boost_lib('math_tr1', 'BOOST_MATH_TR1_DYN_LINK')
boost_lib('math_tr1f', 'BOOST_MATH_TR1_DYN_LINK')
boost_lib('math_tr1l', 'BOOST_MATH_TR1_DYN_LINK')
boost_lib('math_c99', 'BOOST_MATH_TR1_DYN_LINK')
boost_lib('math_c99f', 'BOOST_MATH_TR1_DYN_LINK')
boost_lib('math_c99l', 'BOOST_MATH_TR1_DYN_LINK')
boost_lib('mpi', 'BOOST_MPI_DYN_LINK')
boost_lib('program_options', 'BOOST_PROGRAM_OPTIONS_DYN_LINK')
boost_lib('python', 'BOOST_PYTHON_DYN_LINK')
boost_lib('python3', 'BOOST_PYTHON_DYN_LINK')
boost_lib('random', 'BOOST_RANDOM_DYN_LINK')
boost_lib('regex', 'BOOST_REGEX_DYN_LINK')
boost_lib('serialization', 'BOOST_SERIALIZATION_DYN_LINK')
boost_lib('wserialization', 'BOOST_SERIALIZATION_DYN_LINK')
boost_lib('signals', 'BOOST_SIGNALS_DYN_LINK')
boost_lib('system', 'BOOST_SYSTEM_DYN_LINK')
boost_lib('unit_test_framework', 'BOOST_TEST_DYN_LINK')
boost_lib('prg_exec_monitor', 'BOOST_TEST_DYN_LINK')
boost_lib('test_exec_monitor', 'BOOST_TEST_DYN_LINK')
boost_lib('thread', 'BOOST_THREAD_DYN_DLL')
boost_lib('wave', 'BOOST_WAVE_DYN_LINK')
def run (self, project, name, prop_set, sources):
assert isinstance(project, targets.ProjectTarget)
assert isinstance(name, basestring) or name is None
assert isinstance(prop_set, property_set.PropertySet)
assert is_iterable_typed(sources, virtual_target.VirtualTarget)
# create a copy since sources is being modified
sources = list(sources)
sources.extend(prop_set.get('<library>'))
# Add <library-path> properties for all searched libraries
extra = []
for s in sources:
if s.type () == 'SEARCHED_LIB':
search = s.search()
extra.extend(property.Property('<library-path>', sp) for sp in search)
# It's possible that we have libraries in sources which did not came
# from 'lib' target. For example, libraries which are specified
# just as filenames as sources. We don't have xdll-path properties
# for such target, but still need to add proper dll-path properties.
extra_xdll_path = []
for s in sources:
if type.is_derived (s.type (), 'SHARED_LIB') and not s.action ():
# Unfortunately, we don't have a good way to find the path
# to a file, so use this nasty approach.
p = s.project()
location = path.root(s.name(), p.get('source-location')[0])
extra_xdll_path.append(os.path.dirname(location))
# Hardcode DLL paths only when linking executables.
# Pros: do not need to relink libraries when installing.
# Cons: "standalone" libraries (plugins, python extensions) can not
# hardcode paths to dependent libraries.
if prop_set.get('<hardcode-dll-paths>') == ['true'] \
and type.is_derived(self.target_types_ [0], 'EXE'):
xdll_path = prop_set.get('<xdll-path>')
extra.extend(property.Property('<dll-path>', sp) \
for sp in extra_xdll_path)
extra.extend(property.Property('<dll-path>', sp) \
for sp in xdll_path)
if extra:
prop_set = prop_set.add_raw (extra)
result = generators.Generator.run(self, project, name, prop_set, sources)
if result:
ur = self.extra_usage_requirements(result, prop_set)
ur = ur.add(property_set.create(['<xdll-path>' + p for p in extra_xdll_path]))
else:
return None
return (ur, result)
def adjust_properties(self, target, build_ps):
a = target.action()
properties = []
if a:
ps = a.properties()
properties = ps.all()
# Unless <hardcode-dll-paths>true is in properties, which can happen
# only if the user has explicitly requested it, nuke all <dll-path>
# properties.
if build_ps.get('hardcode-dll-paths') != ['true']:
properties = [
p for p in properties if p.feature().name() != 'dll-path'
]
# If any <dll-path> properties were specified for installing, add
# them.
properties.extend(build_ps.get_properties('dll-path'))
# Also copy <linkflags> feature from current build set, to be used
# for relinking.
properties.extend(build_ps.get_properties('linkflags'))
# Remove the <tag> feature on original targets.
# And <location>. If stage target has another stage target in
# sources, then we shall get virtual targets with the <location>
# property set.
properties = [
p for p in properties
if not p.feature().name() in ['tag', 'location']
]
properties.extend(build_ps.get_properties('dependency'))
properties.extend(build_ps.get_properties('location'))
properties.extend(
build_ps.get_properties('install-no-version-symlinks'))
d = build_ps.get_properties('install-source-root')
# Make the path absolute: we shall use it to compute relative paths and
# making the path absolute will help.
if d:
p = d[0]
properties.append(
property.Property(p.feature(), os.path.abspath(p.value())))
return property_set.create(properties)
def boost_std(inc = None, lib = None):
# The default definitions for pre-built libraries.
rules.project(
['boost'],
['usage-requirements'] + ['<include>{}'.format(i) for i in inc] + ['<define>BOOST_ALL_NO_LIB'],
['requirements'] + ['<search>{}'.format(l) for l in lib])
# TODO: There should be a better way to add a Python function into a
# project requirements property set.
tag_prop_set = property_set.create([property.Property('<tag>', tag_std)])
attributes = projects.attributes(projects.current().project_module())
attributes.requirements = attributes.requirements.refine(tag_prop_set)
alias('headers')
def boost_lib(lib_name, dyn_link_macro):
if (isinstance(lib_name,str)):
lib_name = [lib_name]
builtin.lib(lib_name, usage_requirements=['<link>shared:<define>{}'.format(dyn_link_macro)])
boost_lib('container' , 'BOOST_CONTAINER_DYN_LINK' )
boost_lib('date_time' , 'BOOST_DATE_TIME_DYN_LINK' )
boost_lib('filesystem' , 'BOOST_FILE_SYSTEM_DYN_LINK' )
boost_lib('graph' , 'BOOST_GRAPH_DYN_LINK' )
boost_lib('graph_parallel' , 'BOOST_GRAPH_DYN_LINK' )
boost_lib('iostreams' , 'BOOST_IOSTREAMS_DYN_LINK' )
boost_lib('locale' , 'BOOST_LOG_DYN_LINK' )
boost_lib('log' , 'BOOST_LOG_DYN_LINK' )
boost_lib('log_setup' , 'BOOST_LOG_DYN_LINK' )
boost_lib('math_tr1' , 'BOOST_MATH_TR1_DYN_LINK' )
boost_lib('math_tr1f' , 'BOOST_MATH_TR1_DYN_LINK' )
boost_lib('math_tr1l' , 'BOOST_MATH_TR1_DYN_LINK' )
boost_lib('math_c99' , 'BOOST_MATH_TR1_DYN_LINK' )
boost_lib('math_c99f' , 'BOOST_MATH_TR1_DYN_LINK' )
boost_lib('math_c99l' , 'BOOST_MATH_TR1_DYN_LINK' )
boost_lib('mpi' , 'BOOST_MPI_DYN_LINK' )
boost_lib('program_options' , 'BOOST_PROGRAM_OPTIONS_DYN_LINK')
boost_lib('python' , 'BOOST_PYTHON_DYN_LINK' )
boost_lib('python3' , 'BOOST_PYTHON_DYN_LINK' )
boost_lib('random' , 'BOOST_RANDOM_DYN_LINK' )
boost_lib('regex' , 'BOOST_REGEX_DYN_LINK' )
boost_lib('serialization' , 'BOOST_SERIALIZATION_DYN_LINK' )
boost_lib('wserialization' , 'BOOST_SERIALIZATION_DYN_LINK' )
boost_lib('signals' , 'BOOST_SIGNALS_DYN_LINK' )
boost_lib('system' , 'BOOST_SYSTEM_DYN_LINK' )
boost_lib('unit_test_framework' , 'BOOST_TEST_DYN_LINK' )
boost_lib('prg_exec_monitor' , 'BOOST_TEST_DYN_LINK' )
boost_lib('test_exec_monitor' , 'BOOST_TEST_DYN_LINK' )
boost_lib('thread' , 'BOOST_THREAD_DYN_DLL' )
boost_lib('wave' , 'BOOST_WAVE_DYN_LINK' )
def boost_std(inc=None, lib=None):
# The default definitions for pre-built libraries.
rules.project(
["boost"],
["usage-requirements"] + ["<include>{}".format(i) for i in inc] + ["<define>BOOST_ALL_NO_LIB"],
["requirements"] + ["<search>{}".format(l) for l in lib],
)
# TODO: There should be a better way to add a Python function into a
# project requirements property set.
tag_prop_set = property_set.create([property.Property("<tag>", tag_std)])
attributes = projects.attributes(projects.current().project_module())
attributes.requirements = attributes.requirements.refine(tag_prop_set)
alias("headers")
def boost_lib(lib_name, dyn_link_macro):
if isinstance(lib_name, str):
lib_name = [lib_name]
builtin.lib(lib_name, usage_requirements=["<link>shared:<define>{}".format(dyn_link_macro)])
boost_lib("date_time", "BOOST_DATE_TIME_DYN_LINK")
boost_lib("filesystem", "BOOST_FILE_SYSTEM_DYN_LINK")
boost_lib("graph", "BOOST_GRAPH_DYN_LINK")
boost_lib("graph_parallel", "BOOST_GRAPH_DYN_LINK")
boost_lib("iostreams", "BOOST_IOSTREAMS_DYN_LINK")
boost_lib("locale", "BOOST_LOG_DYN_LINK")
boost_lib("log", "BOOST_LOG_DYN_LINK")
boost_lib("log_setup", "BOOST_LOG_DYN_LINK")
boost_lib("math_tr1", "BOOST_MATH_TR1_DYN_LINK")
boost_lib("math_tr1f", "BOOST_MATH_TR1_DYN_LINK")
boost_lib("math_tr1l", "BOOST_MATH_TR1_DYN_LINK")
boost_lib("math_c99", "BOOST_MATH_TR1_DYN_LINK")
boost_lib("math_c99f", "BOOST_MATH_TR1_DYN_LINK")
boost_lib("math_c99l", "BOOST_MATH_TR1_DYN_LINK")
boost_lib("mpi", "BOOST_MPI_DYN_LINK")
boost_lib("program_options", "BOOST_PROGRAM_OPTIONS_DYN_LINK")
boost_lib("python", "BOOST_PYTHON_DYN_LINK")
boost_lib("python3", "BOOST_PYTHON_DYN_LINK")
boost_lib("random", "BOOST_RANDOM_DYN_LINK")
boost_lib("regex", "BOOST_REGEX_DYN_LINK")
boost_lib("serialization", "BOOST_SERIALIZATION_DYN_LINK")
boost_lib("wserialization", "BOOST_SERIALIZATION_DYN_LINK")
boost_lib("signals", "BOOST_SIGNALS_DYN_LINK")
boost_lib("system", "BOOST_SYSTEM_DYN_LINK")
boost_lib("unit_test_framework", "BOOST_TEST_DYN_LINK")
boost_lib("prg_exec_monitor", "BOOST_TEST_DYN_LINK")
boost_lib("test_exec_monitor", "BOOST_TEST_DYN_LINK")
boost_lib("thread", "BOOST_THREAD_DYN_DLL")
boost_lib("wave", "BOOST_WAVE_DYN_LINK")
def run(self, project, name, prop_set, sources):
lib_sources = prop_set.get('<library>')
sources.extend(lib_sources)
# Add <library-path> properties for all searched libraries
extra = []
for s in sources:
if s.type() == 'SEARCHED_LIB':
search = s.search()
extra.extend(
property.Property('<library-path>', sp) for sp in search)
orig_xdll_path = []
if prop_set.get('<hardcode-dll-paths>') == ['true'] \
and type.is_derived(self.target_types_ [0], 'EXE'):
xdll_path = prop_set.get('<xdll-path>')
orig_xdll_path = [
replace_grist(x, '<dll-path>') for x in xdll_path
]
# It's possible that we have libraries in sources which did not came
# from 'lib' target. For example, libraries which are specified
# just as filenames as sources. We don't have xdll-path properties
# for such target, but still need to add proper dll-path properties.
for s in sources:
if type.is_derived(s.type(), 'SHARED_LIB') and not s.action():
# Unfortunately, we don't have a good way to find the path
# to a file, so use this nasty approach.
p = s.project()
location = path.root(s.name(), p.get('source-location'))
xdll_path.append(path.parent(location))
extra.extend(
property.Property('<dll-path>', sp) for sp in xdll_path)
if extra:
prop_set = prop_set.add_raw(extra)
result = generators.Generator.run(self, project, name, prop_set,
sources)
if result:
ur = self.extra_usage_requirements(result, prop_set)
ur = ur.add(property_set.create(orig_xdll_path))
else:
return None
return (ur, result)
def adjust_properties(self, target, build_ps):
a = target.action()
properties = []
if a:
ps = a.properties()
properties = ps.all()
# Unless <hardcode-dll-paths>true is in properties, which can happen
# only if the user has explicitly requested it, nuke all <dll-path>
# properties.
if build_ps.get('hardcode-dll-paths') != ['true']:
properties = [p for p in properties if p.feature.name != 'dll-path']
# If any <dll-path> properties were specified for installing, add
# them.
properties.extend(build_ps.get_properties('dll-path'))
# Also copy <linkflags> feature from current build set, to be used
# for relinking.
properties.extend(build_ps.get_properties('linkflags'))
# Remove the <tag> feature on original targets.
# And <location>. If stage target has another stage target in
# sources, then we shall get virtual targets with the <location>
# property set.
properties = [p for p in properties
if not p.feature.name in ['tag', 'location']]
properties.extend(build_ps.get_properties('dependency'))
properties.extend(build_ps.get_properties('location'))
properties.extend(build_ps.get_properties('install-no-version-symlinks'))
d = build_ps.get_properties('install-source-root')
# Make the path absolute: we shall use it to compute relative paths and
# making the path absolute will help.
if d:
p = d[0]
properties.append(property.Property(p.feature, os.path.abspath(p.value)))
return property_set.create(properties)
def run (self, project, name, prop_set, sources):
lib_sources = prop_set.get('<library>')
sources.extend(lib_sources)
# Add <library-path> properties for all searched libraries
extra = []
for s in sources:
if s.type () == 'SEARCHED_LIB':
search = s.search()
extra.extend(property.Property('<library-path>', sp) for sp in search)
orig_xdll_path = []
if prop_set.get('<hardcode-dll-paths>') == ['true'] \
and type.is_derived(self.target_types_ [0], 'EXE'):
xdll_path = prop_set.get('<xdll-path>')
orig_xdll_path = [ replace_grist(x, '<dll-path>') for x in xdll_path ]
# It's possible that we have libraries in sources which did not came
# from 'lib' target. For example, libraries which are specified
# just as filenames as sources. We don't have xdll-path properties
# for such target, but still need to add proper dll-path properties.
for s in sources:
if type.is_derived (s.type (), 'SHARED_LIB') and not s.action ():
# Unfortunately, we don't have a good way to find the path
# to a file, so use this nasty approach.
p = s.project()
location = path.root(s.name(), p.get('source-location'))
xdll_path.append(path.parent(location))
extra.extend(property.Property('<dll-path>', sp) for sp in xdll_path)
if extra:
prop_set = prop_set.add_raw (extra)
result = generators.Generator.run(self, project, name, prop_set, sources)
if result:
ur = self.extra_usage_requirements(result, prop_set)
ur = ur.add(property_set.create(orig_xdll_path))
else:
return None
return(ur, result)
def check(self, ps):
assert isinstance(ps, property_set.PropertySet)
# FIXME: this should not be hardcoded. Other checks might
# want to consider different set of features as relevant.
toolset = ps.get('toolset')[0]
toolset_version_property = "<toolset-" + toolset + ":version>"
relevant = ps.get_properties('target-os') + \
ps.get_properties("toolset") + \
ps.get_properties(toolset_version_property) + \
ps.get_properties("address-model") + \
ps.get_properties("architecture")
rps = property_set.create(relevant)
t = get_manager().targets().current()
p = t.project()
if builds(self.target, p, rps, "%s builds" % self.target):
choosen = self.true_properties
else:
choosen = self.false_properties
return property.evaluate_conditionals_in_context(choosen, ps)
def check(self, ps):
assert isinstance(ps, property_set.PropertySet)
# FIXME: this should not be hardcoded. Other checks might
# want to consider different set of features as relevant.
toolset = ps.get('toolset')[0]
toolset_version_property = "<toolset-" + toolset + ":version>" ;
relevant = ps.get_properties('target-os') + \
ps.get_properties("toolset") + \
ps.get_properties(toolset_version_property) + \
ps.get_properties("address-model") + \
ps.get_properties("architecture")
rps = property_set.create(relevant)
t = get_manager().targets().current()
p = t.project()
if builds(self.target, p, rps, "%s builds" % self.target):
choosen = self.true_properties
else:
choosen = self.false_properties
return property.evaluate_conditionals_in_context(choosen, ps)
def run(self, project, name, prop_set, sources):
sources.extend(prop_set.get("<library>"))
# Add <library-path> properties for all searched libraries
extra = []
for s in sources:
if s.type() == "SEARCHED_LIB":
search = s.search()
extra.extend(property.Property("<library-path>", sp) for sp in search)
# It's possible that we have libraries in sources which did not came
# from 'lib' target. For example, libraries which are specified
# just as filenames as sources. We don't have xdll-path properties
# for such target, but still need to add proper dll-path properties.
extra_xdll_path = []
for s in sources:
if type.is_derived(s.type(), "SHARED_LIB") and not s.action():
# Unfortunately, we don't have a good way to find the path
# to a file, so use this nasty approach.
p = s.project()
location = path.root(s.name(), p.get("source-location")[0])
extra_xdll_path.append(os.path.dirname(location))
# Hardcode DLL paths only when linking executables.
# Pros: do not need to relink libraries when installing.
# Cons: "standalone" libraries (plugins, python extensions) can not
# hardcode paths to dependent libraries.
if prop_set.get("<hardcode-dll-paths>") == ["true"] and type.is_derived(self.target_types_[0], "EXE"):
xdll_path = prop_set.get("<xdll-path>")
extra.extend(property.Property("<dll-path>", sp) for sp in extra_xdll_path)
extra.extend(property.Property("<dll-path>", sp) for sp in xdll_path)
if extra:
prop_set = prop_set.add_raw(extra)
result = generators.Generator.run(self, project, name, prop_set, sources)
if result:
ur = self.extra_usage_requirements(result, prop_set)
ur = ur.add(property_set.create(["<xdll-path>" + p for p in extra_xdll_path]))
else:
return None
return (ur, result)
def generated_targets(self, sources, prop_set, project, name):
# sources to pass to inherited rule
sources2 = []
# properties to pass to inherited rule
properties2 = []
# sources which are libraries
libraries = []
# Searched libraries are not passed as argument to linker
# but via some option. So, we pass them to the action
# via property.
properties2 = prop_set.raw()
fsa = []
fst = []
for s in sources:
if type.is_derived(s.type(), 'SEARCHED_LIB'):
name = s.real_name()
if s.shared():
fsa.append(name)
else:
fst.append(name)
else:
sources2.append(s)
if fsa:
properties2 += [
replace_grist('&&'.join(fsa), '<find-shared-library>')
]
if fst:
properties2 += [
replace_grist('&&'.join(fst), '<find-static-library>')
]
spawn = generators.Generator.generated_targets(
self, sources2, property_set.create(properties2), project, name)
return spawn
def run (self, project, name, prop_set, sources):
assert isinstance(project, targets.ProjectTarget)
assert isinstance(name, basestring) or name is None
assert isinstance(prop_set, property_set.PropertySet)
assert is_iterable_typed(sources, virtual_target.VirtualTarget)
# create a copy since this modifies the sources list
sources = list(sources)
sources.extend(prop_set.get('<library>'))
result = generators.Generator.run (self, project, name, prop_set, sources)
usage_requirements = []
link = prop_set.get('<link>')
if 'static' in link:
for t in sources:
if type.is_derived(t.type(), 'LIB'):
usage_requirements.append(property.Property('<library>', t))
usage_requirements = property_set.create(usage_requirements)
return usage_requirements, result
def run(self, project, name, prop_set, sources):
assert isinstance(project, targets.ProjectTarget)
assert isinstance(name, basestring) or name is None
assert isinstance(prop_set, property_set.PropertySet)
assert is_iterable_typed(sources, virtual_target.VirtualTarget)
# create a copy since this modifies the sources list
sources = list(sources)
sources.extend(prop_set.get("<library>"))
result = generators.Generator.run(self, project, name, prop_set, sources)
usage_requirements = []
link = prop_set.get("<link>")
if "static" in link:
for t in sources:
if type.is_derived(t.type(), "LIB"):
usage_requirements.append(property.Property("<library>", t))
usage_requirements = property_set.create(usage_requirements)
return usage_requirements, result
def run_pch(self, project, name, prop_set, sources):
# Find the header in sources. Ignore any CPP sources.
header = None
for s in sources:
if type.is_derived(s.type(), 'H'):
header = s
# Error handling: Base header file name should be the same as the base
# precompiled header name.
header_name = header.name()
header_basename = os.path.basename(header_name).rsplit('.', 1)[0]
if header_basename != name:
location = project.project_module
###FIXME:
raise Exception()
### errors.user-error "in" $(location)": pch target name `"$(name)"' should be the same as the base name of header file `"$(header-name)"'" ;
pch_file = Generator.run(self, project, name, prop_set, [header])
# return result of base class and pch-file property as usage-requirements
# FIXME: what about multiple results from generator.run?
return (property_set.create([Property('pch-file', pch_file[0]),
Property('cflags', '-Winvalid-pch')]),
pch_file)
import bjam
from b2.build import alias, property, property_set, feature
from b2.manager import get_manager
from b2.tools import builtin, common
from b2.util import bjam_signature, regex
# TODO: This is currently necessary in Python Port, but was not in Jam.
feature.feature("layout", ["system", "versioned", "tag"], ["optional"])
feature.feature("root", [], ["optional", "free"])
feature.feature("build-id", [], ["optional", "free"])
__initialized = None
__boost_auto_config = property_set.create([property.Property("layout", "system")])
__boost_configured = {}
__boost_default = None
__build_id = None
__debug = None
def debug():
global __debug
if __debug is None:
__debug = "--debug-configuration" in bjam.variable("ARGV")
return __debug
# Configuration of the boost library to use.
def main_real():
global debug_config, out_xml
debug_config = "--debug-configuration" in sys.argv
out_xml = any(re.match("^--out-xml=(.*)$", a) for a in sys.argv)
engine = Engine()
global_build_dir = option.get("build-dir")
manager = Manager(engine, global_build_dir)
import b2.build.configure as configure
if "--version" in sys.argv:
version.report()
return
# This module defines types and generator and what not,
# and depends on manager's existence
import b2.tools.builtin
b2.tools.common.init(manager)
load_configuration_files()
# Load explicitly specified toolset modules.
extra_properties = process_explicit_toolset_requests()
# Load the actual project build script modules. We always load the project
# in the current folder so 'use-project' directives have any chance of
# being seen. Otherwise, we would not be able to refer to subprojects using
# target ids.
current_project = None
projects = get_manager().projects()
if projects.find(".", "."):
current_project = projects.target(projects.load("."))
# Load the default toolset module if no other has already been specified.
if not feature.values("toolset"):
dt = default_toolset
dtv = None
if default_toolset:
dtv = default_toolset_version
else:
dt = "gcc"
if os.name == 'nt':
dt = "msvc"
# FIXME:
# else if [ os.name ] = MACOSX
# {
# default-toolset = darwin ;
# }
print "warning: No toolsets are configured."
print "warning: Configuring default toolset '%s'." % dt
print "warning: If the default is wrong, your build may not work correctly."
print "warning: Use the \"toolset=xxxxx\" option to override our guess."
print "warning: For more configuration options, please consult"
print "warning: http://boost.org/boost-build2/doc/html/bbv2/advanced/configuration.html"
using(dt, dtv)
# Parse command line for targets and properties. Note that this requires
# that all project files already be loaded.
(target_ids,
properties) = build_request.from_command_line(sys.argv[1:] +
extra_properties)
# Expand properties specified on the command line into multiple property
# sets consisting of all legal property combinations. Each expanded property
# set will be used for a single build run. E.g. if multiple toolsets are
# specified then requested targets will be built with each of them.
if properties:
expanded = build_request.expand_no_defaults(properties)
else:
expanded = [property_set.empty()]
# Check that we actually found something to build.
if not current_project and not target_ids:
get_manager().errors(
)("no Jamfile in current directory found, and no target references specified."
)
# FIXME:
# EXIT
# Flags indicating that this build system run has been started in order to
# clean existing instead of create new targets. Note that these are not the
# final flag values as they may get changed later on due to some special
# targets being specified on the command line.
clean = "--clean" in sys.argv
cleanall = "--clean-all" in sys.argv
# List of explicitly requested files to build. Any target references read
# from the command line parameter not recognized as one of the targets
# defined in the loaded Jamfiles will be interpreted as an explicitly
# requested file to build. If any such files are explicitly requested then
# only those files and the targets they depend on will be built and they
# will be searched for among targets that would have been built had there
# been no explicitly requested files.
explicitly_requested_files = []
# List of Boost Build meta-targets, virtual-targets and actual Jam targets
# constructed in this build system run.
targets = []
virtual_targets = []
actual_targets = []
explicitly_requested_files = []
# Process each target specified on the command-line and convert it into
# internal Boost Build target objects. Detect special clean target. If no
# main Boost Build targets were explictly requested use the current project
# as the target.
for id in target_ids:
if id == "clean":
clean = 1
else:
t = None
if current_project:
t = current_project.find(id, no_error=1)
else:
t = find_target(id)
if not t:
print "notice: could not find main target '%s'" % id
print "notice: assuming it's a name of file to create "
explicitly_requested_files.append(id)
else:
targets.append(t)
if not targets:
targets = [projects.target(projects.module_name("."))]
# FIXME: put this BACK.
## if [ option.get dump-generators : : true ]
## {
## generators.dump ;
## }
# We wish to put config.log in the build directory corresponding
# to Jamroot, so that the location does not differ depending on
# directory where we do build. The amount of indirection necessary
# here is scary.
first_project = targets[0].project()
first_project_root_location = first_project.get('project-root')
first_project_root_module = manager.projects().load(
first_project_root_location)
first_project_root = manager.projects().target(first_project_root_module)
first_build_build_dir = first_project_root.build_dir()
configure.set_log_file(os.path.join(first_build_build_dir, "config.log"))
virtual_targets = []
global results_of_main_targets
# Now that we have a set of targets to build and a set of property sets to
# build the targets with, we can start the main build process by using each
# property set to generate virtual targets from all of our listed targets
# and any of their dependants.
for p in expanded:
manager.set_command_line_free_features(property_set.create(p.free()))
for t in targets:
try:
g = t.generate(p)
if not isinstance(t, ProjectTarget):
results_of_main_targets.extend(g.targets())
virtual_targets.extend(g.targets())
except ExceptionWithUserContext, e:
e.report()
except Exception:
raise
import bjam
from b2.build import alias, property, property_set, feature
from b2.manager import get_manager
from b2.tools import builtin, common
from b2.util import bjam_signature, regex
# TODO: This is currently necessary in Python Port, but was not in Jam.
feature.feature('layout', ['system', 'versioned', 'tag'], ['optional'])
feature.feature('root', [], ['optional', 'free'])
feature.feature('build-id', [], ['optional', 'free'])
__initialized = None
__boost_auto_config = property_set.create([property.Property('layout', 'system')])
__boost_configured = {}
__boost_default = None
__build_id = None
__debug = None
def debug():
global __debug
if __debug is None:
__debug = "--debug-configuration" in bjam.variable("ARGV")
return __debug
# Configuration of the boost library to use.
#
def main_real():
global debug_config, out_xml
debug_config = "--debug-configuration" in sys.argv
out_xml = any(re.match("^--out-xml=(.*)$", a) for a in sys.argv)
engine = Engine()
global_build_dir = option.get("build-dir")
manager = Manager(engine, global_build_dir)
import b2.build.configure as configure
if "--version" in sys.argv:
from b2.build import version
version.report()
return
# This module defines types and generator and what not,
# and depends on manager's existence
import b2.tools.builtin
b2.tools.common.init(manager)
load_configuration_files()
# Load explicitly specified toolset modules.
extra_properties = process_explicit_toolset_requests()
# Load the actual project build script modules. We always load the project
# in the current folder so 'use-project' directives have any chance of
# being seen. Otherwise, we would not be able to refer to subprojects using
# target ids.
current_project = None
projects = get_manager().projects()
if projects.find(".", "."):
current_project = projects.target(projects.load("."))
# Load the default toolset module if no other has already been specified.
if not feature.values("toolset"):
dt = default_toolset
dtv = None
if default_toolset:
dtv = default_toolset_version
else:
dt = "gcc"
if os.name == 'nt':
dt = "msvc"
# FIXME:
#else if [ os.name ] = MACOSX
#{
# default-toolset = darwin ;
#}
print "warning: No toolsets are configured."
print "warning: Configuring default toolset '%s'." % dt
print "warning: If the default is wrong, your build may not work correctly."
print "warning: Use the \"toolset=xxxxx\" option to override our guess."
print "warning: For more configuration options, please consult"
print "warning: http://boost.org/boost-build2/doc/html/bbv2/advanced/configuration.html"
using(dt, dtv)
# Parse command line for targets and properties. Note that this requires
# that all project files already be loaded.
(target_ids, properties) = build_request.from_command_line(sys.argv[1:] + extra_properties)
# Expand properties specified on the command line into multiple property
# sets consisting of all legal property combinations. Each expanded property
# set will be used for a single build run. E.g. if multiple toolsets are
# specified then requested targets will be built with each of them.
if properties:
expanded = build_request.expand_no_defaults(properties)
else:
expanded = [property_set.empty()]
# Check that we actually found something to build.
if not current_project and not target_ids:
get_manager().errors()("no Jamfile in current directory found, and no target references specified.")
# FIXME:
# EXIT
# Flags indicating that this build system run has been started in order to
# clean existing instead of create new targets. Note that these are not the
# final flag values as they may get changed later on due to some special
# targets being specified on the command line.
clean = "--clean" in sys.argv
cleanall = "--clean-all" in sys.argv
# List of explicitly requested files to build. Any target references read
# from the command line parameter not recognized as one of the targets
# defined in the loaded Jamfiles will be interpreted as an explicitly
# requested file to build. If any such files are explicitly requested then
# only those files and the targets they depend on will be built and they
# will be searched for among targets that would have been built had there
# been no explicitly requested files.
explicitly_requested_files = []
# List of Boost Build meta-targets, virtual-targets and actual Jam targets
# constructed in this build system run.
targets = []
virtual_targets = []
actual_targets = []
explicitly_requested_files = []
# Process each target specified on the command-line and convert it into
# internal Boost Build target objects. Detect special clean target. If no
# main Boost Build targets were explictly requested use the current project
# as the target.
for id in target_ids:
if id == "clean":
clean = 1
else:
t = None
if current_project:
t = current_project.find(id, no_error=1)
else:
t = find_target(id)
if not t:
print "notice: could not find main target '%s'" % id
print "notice: assuming it's a name of file to create " ;
explicitly_requested_files.append(id)
else:
targets.append(t)
if not targets:
targets = [projects.target(projects.module_name("."))]
# FIXME: put this BACK.
## if [ option.get dump-generators : : true ]
## {
## generators.dump ;
## }
# We wish to put config.log in the build directory corresponding
# to Jamroot, so that the location does not differ depending on
# directory where we do build. The amount of indirection necessary
# here is scary.
first_project = targets[0].project()
first_project_root_location = first_project.get('project-root')
first_project_root_module = manager.projects().load(first_project_root_location)
first_project_root = manager.projects().target(first_project_root_module)
first_build_build_dir = first_project_root.build_dir()
configure.set_log_file(os.path.join(first_build_build_dir, "config.log"))
virtual_targets = []
global results_of_main_targets
# Now that we have a set of targets to build and a set of property sets to
# build the targets with, we can start the main build process by using each
# property set to generate virtual targets from all of our listed targets
# and any of their dependants.
for p in expanded:
manager.set_command_line_free_features(property_set.create(p.free()))
for t in targets:
try:
g = t.generate(p)
if not isinstance(t, ProjectTarget):
results_of_main_targets.extend(g.targets())
virtual_targets.extend(g.targets())
except ExceptionWithUserContext, e:
e.report()
except Exception:
raise
import bjam
from b2.build import alias, property, property_set, feature
from b2.manager import get_manager
from b2.tools import builtin, common
from b2.util import bjam_signature, regex
# TODO: This is currently necessary in Python Port, but was not in Jam.
feature.feature('layout', ['system', 'versioned', 'tag'], ['optional'])
feature.feature('root', [], ['optional', 'free'])
feature.feature('build-id', [], ['optional', 'free'])
__initialized = None
__boost_auto_config = property_set.create([property.Property('layout', 'system')])
__boost_configured = {}
__boost_default = None
__build_id = None
__debug = None
def debug():
global __debug
if __debug is None:
__debug = "--debug-configuration" in bjam.variable("ARGV")
return __debug
# Configuration of the boost library to use.
#
def set(self, attribute, specification, exact=False):
"""Set the named attribute from the specification given by the user.
The value actually set may be different."""
if exact:
self.__dict__[attribute] = specification
elif attribute == "requirements":
self.requirements = property_set.refine_from_user_input(
self.requirements, specification, self.project_module,
self.location)
elif attribute == "usage-requirements":
unconditional = []
for p in specification:
split = property.split_conditional(p)
if split:
unconditional.append(split[1])
else:
unconditional.append(p)
non_free = property.remove("free", unconditional)
if non_free:
get_manager().errors()("usage-requirements %s have non-free properties %s" \
% (specification, non_free))
t = property.translate_paths(
property.create_from_strings(specification,
allow_condition=True),
self.location)
existing = self.__dict__.get("usage-requirements")
if existing:
new = property_set.create(existing.all() + t)
else:
new = property_set.create(t)
self.__dict__["usage-requirements"] = new
elif attribute == "default-build":
self.__dict__["default-build"] = property_set.create(specification)
elif attribute == "source-location":
source_location = []
for path in specification:
source_location.append(os.path.join(self.location, path))
self.__dict__["source-location"] = source_location
elif attribute == "build-dir":
self.__dict__["build-dir"] = os.path.join(self.location,
specification[0])
elif attribute == "id":
id = specification[0]
if id[0] != '/':
id = "/" + id
self.manager.projects().register_id(id, self.project_module)
self.__dict__["id"] = id
elif not attribute in [
"default-build", "location", "source-location", "parent",
"projects-to-build", "project-root"
]:
self.manager.errors()("""Invalid project attribute '%s' specified
for project at '%s'""" % (attribute, self.location))
else:
self.__dict__[attribute] = specification
def set(self, attribute, specification, exact=False):
"""Set the named attribute from the specification given by the user.
The value actually set may be different."""
if exact:
self.__dict__[attribute] = specification
elif attribute == "requirements":
self.requirements = property_set.refine_from_user_input(
self.requirements, specification,
self.project_module, self.location)
elif attribute == "usage-requirements":
unconditional = []
for p in specification:
split = property.split_conditional(p)
if split:
unconditional.append(split[1])
else:
unconditional.append(p)
non_free = property.remove("free", unconditional)
if non_free:
get_manager().errors()("usage-requirements %s have non-free properties %s" \
% (specification, non_free))
t = property.translate_paths(
property.create_from_strings(specification, allow_condition=True),
self.location)
existing = self.__dict__.get("usage-requirements")
if existing:
new = property_set.create(existing.all() + t)
else:
new = property_set.create(t)
self.__dict__["usage-requirements"] = new
elif attribute == "default-build":
self.__dict__["default-build"] = property_set.create(specification)
elif attribute == "source-location":
source_location = []
for path in specification:
source_location.append(os.path.join(self.location, path))
self.__dict__["source-location"] = source_location
elif attribute == "build-dir":
self.__dict__["build-dir"] = os.path.join(self.location, specification[0])
elif attribute == "id":
id = specification[0]
if id[0] != '/':
id = "/" + id
self.manager.projects().register_id(id, self.project_module)
self.__dict__["id"] = id
elif not attribute in ["default-build", "location",
"source-location", "parent",
"projects-to-build", "project-root"]:
self.manager.errors()(
"""Invalid project attribute '%s' specified
for project at '%s'""" % (attribute, self.location))
else:
self.__dict__[attribute] = specification
def main_real():
global ignore_config
global debug_config
boost_build_path = bjam.variable("BOOST_BUILD_PATH")
engine = Engine()
global_build_dir = get_string_option("build-dir")
debug_config = get_boolean_option("debug-configuration")
manager = Manager(engine, global_build_dir)
# This module defines types and generator and what not,
# and depends on manager's existence
import b2.tools.builtin
# Check if we can load 'test-config.jam'. If we can, load it and
# ignore user configs.
test_config = glob(boost_build_path, ["test-config.jam"])
if test_config:
test_config = test_config[0]
if test_config:
if debug_config:
print "notice: loading testing-config.jam from '%s'" % test_config
print "notice: user-config.jam and site-config.jam will be ignored"
manager.projects().load_standalone("test-config", test_config)
ignore_config = test_config or get_boolean_option("ignore-config")
user_path = home_directories() + boost_build_path
site_path = ["/etc"] + user_path
if bjam.variable("OS") in ["NT", "CYGWIN"]:
site_path = [os.environ("SystemRoot")] + user_path
load_config(manager, "site-config", site_path)
user_config_path = get_string_option("user-config")
if not user_config_path:
user_config_path = os.environ.get("BOOST_BUILD_USER_CONFIG")
if user_config_path:
if debug_config:
print "Loading explicitly specifier user configuration file:"
print " %s" % user_config_path
manager.projects().load_standalone("user-config", user_config_path)
else:
load_config(manager, "user-config", user_path)
# FIXME:
## #
## # Autoconfigure toolsets based on any instances of --toolset=xx,yy,...zz or
## # toolset=xx,yy,...zz in the command line
## #
## local option-toolsets = [ regex.split-list [ MATCH ^--toolset=(.*) : $(argv) ] : "," ] ;
## local feature-toolsets = [ regex.split-list [ MATCH ^toolset=(.*) : $(argv) ] : "," ] ;
## # if the user specified --toolset=..., we need to add toolset=... to
## # the build request
## local extra-build-request ;
extra_build_request = []
## if ! $(ignore-config)
## {
## for local t in $(option-toolsets) $(feature-toolsets)
## {
## # Parse toolset-version/properties
## local (t-v,t,v) = [ MATCH (([^-/]+)-?([^/]+)?)/?.* : $(t) ] ;
## local toolset-version = $((t-v,t,v)[1]) ;
## local toolset = $((t-v,t,v)[2]) ;
## local version = $((t-v,t,v)[3]) ;
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] Detected command-line request for
## $(toolset-version): toolset= \"$(toolset)\" "version= \""$(version)\" ;
## }
## local known ;
## # if the toolset isn't known, configure it now.
## if $(toolset) in [ feature.values <toolset> ]
## {
## known = true ;
## }
## if $(known) && $(version)
## && ! [ feature.is-subvalue toolset : $(toolset) : version : $(version) ]
## {
## known = ;
## }
## if ! $(known)
## {
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] toolset $(toolset-version)
## not previously configured; configuring now ;
## }
## toolset.using $(toolset) : $(version) ;
## }
## else
## {
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] toolset $(toolset-version) already configured ;
## }
## }
## # make sure we get an appropriate property into the build request in
## # case the user used the "--toolset=..." form
## if ! $(t) in $(argv)
## && ! $(t) in $(feature-toolsets)
## {
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] adding toolset=$(t) "to build request." ;
## }
## extra-build-request += toolset=$(t) ;
## }
## }
## }
# FIXME:
## if USER_MODULE in [ RULENAMES ]
## {
## USER_MODULE site-config user-config ;
## }
if get_boolean_option("version"):
# FIXME: Move to a separate module. Include bjam
# verision.
print "Boost.Build M15 (Python port in development)"
sys.exit(0)
b2.tools.common.init(manager)
# We always load project in "." so that 'use-project' directives has
# any chance of been seen. Otherwise, we won't be able to refer to
# subprojects using target ids.
current_project = None
projects = manager.projects()
if projects.find(".", "."):
current_project = projects.target(projects.load("."))
# FIXME: revive this logic, when loading of gcc works
if not feature.values("<toolset>") and not ignore_config and 0:
default_toolset = "gcc"
if bjam.variable("OS") == "NT":
default_toolset = "msvc"
print "warning: No toolsets are configured."
print "warning: Configuring default toolset '%s'" % default_toolset
print "warning: If the default is wrong, you may not be able to build C++ programs."
print "warning: Use the \"--toolset=xxxxx\" option to override our guess."
print "warning: For more configuration options, please consult"
print "warning: http://boost.org/boost-build2/doc/html/bbv2/advanced/configuration.html"
projects.project_rules().using([default_toolset])
(target_ids, properties
) = b2.build.build_request.from_command_line(argv[1:] +
extra_build_request)
if properties:
expanded = b2.build.build_request.expand_no_defaults(properties)
xexpanded = []
for e in expanded:
xexpanded.append(property_set.create(feature.split(e)))
expanded = xexpanded
else:
expanded = [property_set.empty()]
targets = []
clean = get_boolean_option("clean")
clean_all = get_boolean_option("clean-all")
bjam_targets = []
# Given a target id, try to find and return corresponding target.
# This is only invoked when there's no Jamfile in "."
# This code somewhat duplicates code in project-target.find but we can't reuse
# that code without project-targets instance.
def find_target(target_id):
split = target_id.split("//")
pm = None
if len(split) > 1:
pm = projects.find(split[0], ".")
else:
pm = projects.find(target_id, ".")
result = None
if pm:
result = projects.target(pm)
if len(split) > 1:
result = result.find(split[1])
if not current_project and not target_ids:
print "error: no Jamfile in current directory found, and no target references specified."
sys.exit(1)
for id in target_ids:
if id == "clean":
clean = 1
else:
t = None
if current_project:
t = current_project.find(id, no_error=1)
else:
t = find_target(id)
if not t:
print "notice: could not find main target '%s'" % id
print "notice: assuming it's a name of file to create "
bjam_targets.append(id)
else:
targets.append(t)
if not targets:
targets = [projects.target(projects.module_name("."))]
virtual_targets = []
# Virtual targets obtained when building main targets references on
# the command line. When running
#
# bjam --clean main_target
#
# we want to clean the files that belong only to that main target,
# so we need to record which targets are produced.
results_of_main_targets = []
for p in expanded:
manager.set_command_line_free_features(property_set.create(p.free()))
for t in targets:
try:
g = t.generate(p)
if not isinstance(t, ProjectTarget):
results_of_main_targets.extend(g.targets())
virtual_targets.extend(g.targets())
except ExceptionWithUserContext, e:
e.report()
except Exception:
raise
def main_real():
global ignore_config
global debug_config
boost_build_path = bjam.variable("BOOST_BUILD_PATH")
engine = Engine()
global_build_dir = get_string_option("build-dir")
debug_config = get_boolean_option("debug-configuration")
manager = Manager(engine, global_build_dir)
# This module defines types and generator and what not,
# and depends on manager's existence
import b2.tools.builtin
# Check if we can load 'test-config.jam'. If we can, load it and
# ignore user configs.
test_config = glob(boost_build_path, ["test-config.jam"])
if test_config:
test_config = test_config[0]
if test_config:
if debug_config:
print "notice: loading testing-config.jam from '%s'" % test_config
print "notice: user-config.jam and site-config.jam will be ignored"
manager.projects().load_standalone("test-config", test_config)
ignore_config = test_config or get_boolean_option("ignore-config")
user_path = home_directories() + boost_build_path
site_path = ["/etc"] + user_path
if bjam.variable("OS") in ["NT", "CYGWIN"]:
site_path = [os.environ("SystemRoot")] + user_path
load_config(manager, "site-config", site_path)
user_config_path = get_string_option("user-config")
if not user_config_path:
user_config_path = os.environ.get("BOOST_BUILD_USER_CONFIG")
if user_config_path:
if debug_config:
print "Loading explicitly specifier user configuration file:"
print " %s" % user_config_path
manager.projects().load_standalone("user-config", user_config_path)
else:
load_config(manager, "user-config", user_path)
# FIXME:
## #
## # Autoconfigure toolsets based on any instances of --toolset=xx,yy,...zz or
## # toolset=xx,yy,...zz in the command line
## #
## local option-toolsets = [ regex.split-list [ MATCH ^--toolset=(.*) : $(argv) ] : "," ] ;
## local feature-toolsets = [ regex.split-list [ MATCH ^toolset=(.*) : $(argv) ] : "," ] ;
## # if the user specified --toolset=..., we need to add toolset=... to
## # the build request
## local extra-build-request ;
extra_build_request = []
## if ! $(ignore-config)
## {
## for local t in $(option-toolsets) $(feature-toolsets)
## {
## # Parse toolset-version/properties
## local (t-v,t,v) = [ MATCH (([^-/]+)-?([^/]+)?)/?.* : $(t) ] ;
## local toolset-version = $((t-v,t,v)[1]) ;
## local toolset = $((t-v,t,v)[2]) ;
## local version = $((t-v,t,v)[3]) ;
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] Detected command-line request for
## $(toolset-version): toolset= \"$(toolset)\" "version= \""$(version)\" ;
## }
## local known ;
## # if the toolset isn't known, configure it now.
## if $(toolset) in [ feature.values <toolset> ]
## {
## known = true ;
## }
## if $(known) && $(version)
## && ! [ feature.is-subvalue toolset : $(toolset) : version : $(version) ]
## {
## known = ;
## }
## if ! $(known)
## {
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] toolset $(toolset-version)
## not previously configured; configuring now ;
## }
## toolset.using $(toolset) : $(version) ;
## }
## else
## {
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] toolset $(toolset-version) already configured ;
## }
## }
## # make sure we get an appropriate property into the build request in
## # case the user used the "--toolset=..." form
## if ! $(t) in $(argv)
## && ! $(t) in $(feature-toolsets)
## {
## if $(debug-config)
## {
## ECHO notice: [cmdline-cfg] adding toolset=$(t) "to build request." ;
## }
## extra-build-request += toolset=$(t) ;
## }
## }
## }
# FIXME:
## if USER_MODULE in [ RULENAMES ]
## {
## USER_MODULE site-config user-config ;
## }
if get_boolean_option("version"):
# FIXME: Move to a separate module. Include bjam
# verision.
print "Boost.Build M15 (Python port in development)"
sys.exit(0)
b2.tools.common.init(manager)
# We always load project in "." so that 'use-project' directives has
# any chance of been seen. Otherwise, we won't be able to refer to
# subprojects using target ids.
current_project = None
projects = manager.projects()
if projects.find(".", "."):
current_project = projects.target(projects.load("."))
# FIXME: revive this logic, when loading of gcc works
if not feature.values("<toolset>") and not ignore_config and 0:
default_toolset = "gcc" ;
if bjam.variable("OS") == "NT":
default_toolset = "msvc"
print "warning: No toolsets are configured." ;
print "warning: Configuring default toolset '%s'" % default_toolset
print "warning: If the default is wrong, you may not be able to build C++ programs."
print "warning: Use the \"--toolset=xxxxx\" option to override our guess."
print "warning: For more configuration options, please consult"
print "warning: http://boost.org/boost-build2/doc/html/bbv2/advanced/configuration.html"
projects.project_rules().using([default_toolset])
(target_ids, properties) = b2.build.build_request.from_command_line(
argv[1:] + extra_build_request)
if properties:
expanded = b2.build.build_request.expand_no_defaults(properties)
xexpanded = []
for e in expanded:
xexpanded.append(property_set.create(feature.split(e)))
expanded = xexpanded
else:
expanded = [property_set.empty()]
targets = []
clean = get_boolean_option("clean")
clean_all = get_boolean_option("clean-all")
bjam_targets = []
# Given a target id, try to find and return corresponding target.
# This is only invoked when there's no Jamfile in "."
# This code somewhat duplicates code in project-target.find but we can't reuse
# that code without project-targets instance.
def find_target (target_id):
split = target_id.split("//")
pm = None
if len(split) > 1:
pm = projects.find(split[0], ".")
else:
pm = projects.find(target_id, ".")
result = None
if pm:
result = projects.target(pm)
if len(split) > 1:
result = result.find(split[1])
if not current_project and not target_ids:
print "error: no Jamfile in current directory found, and no target references specified."
sys.exit(1)
for id in target_ids:
if id == "clean":
clean = 1
else:
t = None
if current_project:
t = current_project.find(id, no_error=1)
else:
t = find_target(id)
if not t:
print "notice: could not find main target '%s'" % id
print "notice: assuming it's a name of file to create " ;
bjam_targets.append(id)
else:
targets.append(t)
if not targets:
targets = [projects.target(projects.module_name("."))]
virtual_targets = []
# Virtual targets obtained when building main targets references on
# the command line. When running
#
# bjam --clean main_target
#
# we want to clean the files that belong only to that main target,
# so we need to record which targets are produced.
results_of_main_targets = []
for p in expanded:
manager.set_command_line_free_features(property_set.create(p.free()))
for t in targets:
try:
g = t.generate(p)
if not isinstance(t, ProjectTarget):
results_of_main_targets.extend(g.targets())
virtual_targets.extend(g.targets())
except ExceptionWithUserContext, e:
e.report()
except Exception:
raise
