All properties

fun !=(other: nullable Object): Bool

core :: Object :: !=

Have self and other different values?
fun ==(other: nullable Object): Bool

core :: Object :: ==

Have self and other the same value?
type CLASS: Class[SELF]

core :: Object :: CLASS

The type of the class of self.
type SELF: Object

core :: Object :: SELF

Type of this instance, automatically specialized in every class
private var _depends: nullable Collection[Phase]

nitc :: Phase :: _depends

The explicit dependences, used to initialize in_importation
private var _disabled: Bool

nitc :: Phase :: _disabled

Is the phase globally disabled?
private var _in_hierarchy: POSetElement[Phase]

nitc :: Phase :: _in_hierarchy

The dependence relation of the phase with the other phases
private var _toolcontext: ToolContext

nitc :: Phase :: _toolcontext

The toolcontext instance attached to the phase
protected fun class_factory(name: String): CLASS

core :: Object :: class_factory

Implementation used by get_class to create the specific class.
fun class_name: String

core :: Object :: class_name

The class name of the object.
init defaultinit(toolcontext: ToolContext, depends: nullable Collection[Phase])

nitc :: Phase :: defaultinit

init defaultinit(toolcontext: ToolContext, depends: nullable Collection[Phase])

nitc :: CCompilerOptionsPhase :: defaultinit

fun depends: nullable Collection[Phase]

nitc :: Phase :: depends

The explicit dependences, used to initialize in_importation
protected fun depends=(depends: nullable Collection[Phase])

nitc :: Phase :: depends=

The explicit dependences, used to initialize in_importation
fun disabled: Bool

nitc :: Phase :: disabled

Is the phase globally disabled?
fun disabled=(disabled: Bool)

nitc :: Phase :: disabled=

Is the phase globally disabled?
fun get_class: CLASS

core :: Object :: get_class

The meta-object representing the dynamic type of self.
fun hash: Int

core :: Object :: hash

The hash code of the object.
fun in_hierarchy: POSetElement[Phase]

nitc :: Phase :: in_hierarchy

The dependence relation of the phase with the other phases
protected fun in_hierarchy=(in_hierarchy: POSetElement[Phase])

nitc :: Phase :: in_hierarchy=

The dependence relation of the phase with the other phases
init init

core :: Object :: init

fun inspect: String

core :: Object :: inspect

Developer readable representation of self.
protected fun inspect_head: String

core :: Object :: inspect_head

Return "CLASSNAME:#OBJECTID".
intern fun is_same_instance(other: nullable Object): Bool

core :: Object :: is_same_instance

Return true if self and other are the same instance (i.e. same identity).
fun is_same_serialized(other: nullable Object): Bool

core :: Object :: is_same_serialized

Is self the same as other in a serialization context?
intern fun is_same_type(other: Object): Bool

core :: Object :: is_same_type

Return true if self and other have the same dynamic type.
private intern fun native_class_name: CString

core :: Object :: native_class_name

The class name of the object in CString format.
intern fun object_id: Int

core :: Object :: object_id

An internal hash code for the object based on its identity.
fun output

core :: Object :: output

Display self on stdout (debug only).
intern fun output_class_name

core :: Object :: output_class_name

Display class name on stdout (debug only).
fun process_annotated_node(node: ANode, nat: AAnnotation)

nitc :: Phase :: process_annotated_node

Specific actions to execute on annotated nodes
fun process_mainmodule(mainmodule: MModule, given_mmodules: SequenceRead[MModule])

nitc :: Phase :: process_mainmodule

Specific action to execute on the whole program.
fun process_nclassdef(nclassdef: AClassdef)

nitc :: Phase :: process_nclassdef

Specific actions to execute on the tree of a class definition
fun process_nmodule(nmodule: AModule)

nitc :: Phase :: process_nmodule

Specific actions to execute on the whole tree of a module
fun process_nmodule_after(nmodule: AModule)

nitc :: Phase :: process_nmodule_after

Specific actions to execute on the whole tree of a module
fun process_npropdef(npropdef: APropdef)

nitc :: Phase :: process_npropdef

Specific actions to execute on the tree of a property
fun serialization_hash: Int

core :: Object :: serialization_hash

Hash value use for serialization
intern fun sys: Sys

core :: Object :: sys

Return the global sys object, the only instance of the Sys class.
abstract fun to_jvalue(env: JniEnv): JValue

core :: Object :: to_jvalue

fun to_s: String

core :: Object :: to_s

User readable representation of self.
fun toolcontext: ToolContext

nitc :: Phase :: toolcontext

The toolcontext instance attached to the phase
protected fun toolcontext=(toolcontext: ToolContext)

nitc :: Phase :: toolcontext=

The toolcontext instance attached to the phase
package_diagram nitc::c_compiler_options::CCompilerOptionsPhase CCompilerOptionsPhase nitc::Phase Phase nitc::c_compiler_options::CCompilerOptionsPhase->nitc::Phase core::Object Object nitc::Phase->core::Object ...core::Object ... ...core::Object->core::Object

Ancestors

interface Object

core :: Object

The root of the class hierarchy.

Parents

abstract class Phase

nitc :: Phase

Abstraction of steps in the analysis/processing of Nit programs

Class definitions

nitc $ CCompilerOptionsPhase
private class CCompilerOptionsPhase
	super Phase

	fun compiler_annotation_name: String do return "cflags"
	fun linker_annotation_name: String do return "ldflags"
	fun cpp_compiler_annotation_name: String do return "cppflags"

	redef fun process_annotated_node(nmoduledecl, nat)
	do
		# Skip if we are not interested
		var annotation_name = nat.name
		if annotation_name != compiler_annotation_name and
		   annotation_name != linker_annotation_name and
		   annotation_name != cpp_compiler_annotation_name then return

		# Do some validity checks and print errors if the annotation is used incorrectly
		var modelbuilder = toolcontext.modelbuilder

		if not nmoduledecl isa AModuledecl then
			modelbuilder.error(nat, "Syntax Error: only the declaration of modules may use `{annotation_name}`.")
			return
		end

		var args = nat.n_args
		if args.is_empty then
			modelbuilder.error(nat, "Syntax Error: `{annotation_name}` expects at least one argument.")
			return
		end

		var options = new Array[CCompilerOption]
		for expr in args do
			if expr isa AStringFormExpr then
				var text = expr.collect_text
				text = text.substring(1, text.length-2)
				var opt = new DirectCCompilerOption(text)
				options.add(opt)
			else if expr isa ACallExpr then
				# We support calls to "exec" only
				var exec_args = expr.n_args.to_a
				if expr.n_qid.n_id.text != "exec" or exec_args.is_empty then
					modelbuilder.error(nat, "Syntax Error: `{annotation_name}` accepts only calls to `exec` with the command as arguments.")
					return
				end

				var exec_args_as_strings = new Array[String]
				for exec_arg in exec_args do
					if not exec_arg isa AStringFormExpr then
						modelbuilder.error(nat, "Syntax Error: calls to `exec` expects the arguments to be String literals.")
						return
					else
						var arg_string = exec_arg.collect_text
						arg_string = arg_string.substring(1, arg_string.length-2)
						exec_args_as_strings.add(arg_string)
					end
				end

				var opt = new ExecCCompilerOption(exec_args_as_strings, expr)
				options.add(opt)
			else
				modelbuilder.error(nat, "Syntax Error: `{annotation_name}` expects its arguments to be the name of the package as String literals.")
				return
			end
		end

		# process calls to external command
		var simplified_options = new Array[DirectCCompilerOption]
		for opt in options do
			if opt isa ExecCCompilerOption then
				# prepare to execute command
				var cmd_args = opt.command
				var proc
				if cmd_args.length == 1 then
					proc = new ProcessReader.from_a(cmd_args[0], new Array[String])
				else if cmd_args.length > 1 then
					var rest_args = cmd_args.subarray(1, cmd_args.length-1)
					proc = new ProcessReader.from_a(cmd_args[0], rest_args)
				else abort

				# wait for its completion
				proc.wait

				# check result
				var status = proc.status
				if status != 0 then
					modelbuilder.error(opt.exec_node, "Error: something went wrong when executing the argument of `{annotation_name}`, make sure the command is valid.")
					return
				end

				# process result
				var result = proc.read_all.replace("\n", " ")
				if result.is_empty then
					modelbuilder.error(opt.exec_node, "Error: got no result from the command, make sure it is valid.")
					return
				end
				simplified_options.add(new DirectCCompilerOption(result))
			else
				assert opt isa DirectCCompilerOption
				simplified_options.add(opt)
			end
		end

		# Retrieve module
		var mmodule = nmoduledecl.parent.as(AModule).mmodule.as(not null)

		# Get target platform from annotation on annotation
		var platform = ""

		## Is there an imported platform?
		var target_platform = mmodule.target_platform
		if target_platform != null then
			platform = target_platform.name or else ""
		end

		## Is the platform declared explicitly?
		var annots = nat.n_annotations
		if annots != null then
			var items = annots.n_items
			if items.length > 1 then
				modelbuilder.error(annots, "Syntax Error: `{annotation_name}` accepts only a single annotation, the platform name.")
				return
			end
			assert items.length == 1

			var item = items.first
			platform = item.name
		end

		# Store the flags in the module
		for opt in simplified_options do
			var arg = opt.option
			if annotation_name == compiler_annotation_name then
				mmodule.cflags.add_one(platform, arg)
			else if annotation_name == linker_annotation_name then
				mmodule.ldflags.add_one(platform, arg)
			else if annotation_name == cpp_compiler_annotation_name then
				mmodule.cppflags.add_one(platform, arg)
			else abort
		end
	end

end
src/ffi/c_compiler_options.nit:32,1--172,3