@copying
@quotation
-libgccjit 5.0.0 (experimental 20150109), January 09, 2015
+libgccjit 5.0.0 (experimental 20150112), January 12, 2015
David Malcolm
@geindex gcc_jit_context_new_global (C function)
@anchor{topics/expressions gcc_jit_context_new_global}@anchor{a4}
-@deffn {C Function} gcc_jit_lvalue * gcc_jit_context_new_global (gcc_jit_context@w{ }*ctxt, gcc_jit_location@w{ }*loc, gcc_jit_type@w{ }*type, const char@w{ }*name)
+@deffn {C Function} gcc_jit_lvalue * gcc_jit_context_new_global (gcc_jit_context@w{ }*ctxt, gcc_jit_location@w{ }*loc, enum gcc_jit_global_kind@w{ }kind, gcc_jit_type@w{ }*type, const char@w{ }*name)
Add a new global variable of the given type and name to the context.
+
+The "kind" parameter determines the visibility of the "global" outside
+of the @pxref{16,,gcc_jit_result}:
+
+@geindex gcc_jit_global_kind (C type)
+@anchor{topics/expressions gcc_jit_global_kind}@anchor{a5}
+@deffn {C Type} enum gcc_jit_global_kind
+@end deffn
+
+@geindex GCC_JIT_GLOBAL_EXPORTED (C macro)
+@anchor{topics/expressions GCC_JIT_GLOBAL_EXPORTED}@anchor{a6}
+@deffn {C Macro} GCC_JIT_GLOBAL_EXPORTED
+
+Global is defined by the client code and is visible
+by name outside of this JIT context via
+@pxref{a7,,gcc_jit_result_get_global()} (and this value is required for
+the global to be accessible via that entrypoint).
+@end deffn
+
+@geindex GCC_JIT_GLOBAL_INTERNAL (C macro)
+@anchor{topics/expressions GCC_JIT_GLOBAL_INTERNAL}@anchor{a8}
+@deffn {C Macro} GCC_JIT_GLOBAL_INTERNAL
+
+Global is defined by the client code, but is invisible
+outside of it. Analogous to a "static" global within a .c file.
+Specifically, the variable will only be visible within this
+context and within child contexts.
+@end deffn
+
+@geindex GCC_JIT_GLOBAL_IMPORTED (C macro)
+@anchor{topics/expressions GCC_JIT_GLOBAL_IMPORTED}@anchor{a9}
+@deffn {C Macro} GCC_JIT_GLOBAL_IMPORTED
+
+Global is not defined by the client code; we're merely
+referring to it. Analogous to using an "extern" global from a
+header file.
+@end deffn
@end deffn
@node Working with pointers structs and unions,,Lvalues,Expressions
-@anchor{topics/expressions working-with-pointers-structs-and-unions}@anchor{a5}
+@anchor{topics/expressions working-with-pointers-structs-and-unions}@anchor{aa}
@subsection Working with pointers, structs and unions
@geindex gcc_jit_rvalue_dereference (C function)
-@anchor{topics/expressions gcc_jit_rvalue_dereference}@anchor{a6}
+@anchor{topics/expressions gcc_jit_rvalue_dereference}@anchor{ab}
@deffn {C Function} gcc_jit_lvalue * gcc_jit_rvalue_dereference (gcc_jit_rvalue@w{ }*rvalue, gcc_jit_location@w{ }*loc)
Given an rvalue of pointer type @code{T *}, dereferencing the pointer,
Field access is provided separately for both lvalues and rvalues.
@geindex gcc_jit_lvalue_access_field (C function)
-@anchor{topics/expressions gcc_jit_lvalue_access_field}@anchor{a7}
+@anchor{topics/expressions gcc_jit_lvalue_access_field}@anchor{ac}
@deffn {C Function} gcc_jit_lvalue * gcc_jit_lvalue_access_field (gcc_jit_lvalue@w{ }*struct_, gcc_jit_location@w{ }*loc, gcc_jit_field@w{ }*field)
Given an lvalue of struct or union type, access the given field,
@end deffn
@geindex gcc_jit_rvalue_access_field (C function)
-@anchor{topics/expressions gcc_jit_rvalue_access_field}@anchor{a8}
+@anchor{topics/expressions gcc_jit_rvalue_access_field}@anchor{ad}
@deffn {C Function} gcc_jit_rvalue * gcc_jit_rvalue_access_field (gcc_jit_rvalue@w{ }*struct_, gcc_jit_location@w{ }*loc, gcc_jit_field@w{ }*field)
Given an rvalue of struct or union type, access the given field
@end deffn
@geindex gcc_jit_rvalue_dereference_field (C function)
-@anchor{topics/expressions gcc_jit_rvalue_dereference_field}@anchor{a9}
+@anchor{topics/expressions gcc_jit_rvalue_dereference_field}@anchor{ae}
@deffn {C Function} gcc_jit_lvalue * gcc_jit_rvalue_dereference_field (gcc_jit_rvalue@w{ }*ptr, gcc_jit_location@w{ }*loc, gcc_jit_field@w{ }*field)
Given an rvalue of pointer type @code{T *} where T is of struct or union
@c <http://www.gnu.org/licenses/>.
@node Creating and using functions,Source Locations,Expressions,Topic Reference
-@anchor{topics/functions doc}@anchor{aa}@anchor{topics/functions creating-and-using-functions}@anchor{ab}
+@anchor{topics/functions doc}@anchor{af}@anchor{topics/functions creating-and-using-functions}@anchor{b0}
@section Creating and using functions
@end menu
@node Params,Functions,,Creating and using functions
-@anchor{topics/functions params}@anchor{ac}
+@anchor{topics/functions params}@anchor{b1}
@subsection Params
following upcasts are available:
@geindex gcc_jit_param_as_lvalue (C function)
-@anchor{topics/functions gcc_jit_param_as_lvalue}@anchor{ad}
+@anchor{topics/functions gcc_jit_param_as_lvalue}@anchor{b2}
@deffn {C Function} gcc_jit_lvalue * gcc_jit_param_as_lvalue (gcc_jit_param@w{ }*param)
Upcasting from param to lvalue.
@end deffn
@geindex gcc_jit_param_as_rvalue (C function)
-@anchor{topics/functions gcc_jit_param_as_rvalue}@anchor{ae}
+@anchor{topics/functions gcc_jit_param_as_rvalue}@anchor{b3}
@deffn {C Function} gcc_jit_rvalue * gcc_jit_param_as_rvalue (gcc_jit_param@w{ }*param)
Upcasting from param to rvalue.
@end deffn
@geindex gcc_jit_param_as_object (C function)
-@anchor{topics/functions gcc_jit_param_as_object}@anchor{af}
+@anchor{topics/functions gcc_jit_param_as_object}@anchor{b4}
@deffn {C Function} gcc_jit_object * gcc_jit_param_as_object (gcc_jit_param@w{ }*param)
Upcasting from param to object.
@end deffn
@node Functions,Blocks,Params,Creating and using functions
-@anchor{topics/functions functions}@anchor{b0}
+@anchor{topics/functions functions}@anchor{b5}
@subsection Functions
Create a gcc_jit_function with the given name and parameters.
@geindex gcc_jit_function_kind (C type)
-@anchor{topics/functions gcc_jit_function_kind}@anchor{b1}
+@anchor{topics/functions gcc_jit_function_kind}@anchor{b6}
@deffn {C Type} enum gcc_jit_function_kind
@end deffn
@quotation
@geindex GCC_JIT_FUNCTION_EXPORTED (C macro)
-@anchor{topics/functions GCC_JIT_FUNCTION_EXPORTED}@anchor{b2}
+@anchor{topics/functions GCC_JIT_FUNCTION_EXPORTED}@anchor{b7}
@deffn {C Macro} GCC_JIT_FUNCTION_EXPORTED
Function is defined by the client code and visible
@end deffn
@geindex GCC_JIT_FUNCTION_INTERNAL (C macro)
-@anchor{topics/functions GCC_JIT_FUNCTION_INTERNAL}@anchor{b3}
+@anchor{topics/functions GCC_JIT_FUNCTION_INTERNAL}@anchor{b8}
@deffn {C Macro} GCC_JIT_FUNCTION_INTERNAL
Function is defined by the client code, but is invisible
@end deffn
@geindex GCC_JIT_FUNCTION_IMPORTED (C macro)
-@anchor{topics/functions GCC_JIT_FUNCTION_IMPORTED}@anchor{b4}
+@anchor{topics/functions GCC_JIT_FUNCTION_IMPORTED}@anchor{b9}
@deffn {C Macro} GCC_JIT_FUNCTION_IMPORTED
Function is not defined by the client code; we're merely
@end deffn
@geindex GCC_JIT_FUNCTION_ALWAYS_INLINE (C macro)
-@anchor{topics/functions GCC_JIT_FUNCTION_ALWAYS_INLINE}@anchor{b5}
+@anchor{topics/functions GCC_JIT_FUNCTION_ALWAYS_INLINE}@anchor{ba}
@deffn {C Macro} GCC_JIT_FUNCTION_ALWAYS_INLINE
Function is only ever inlined into other functions, and is
@end deffn
@geindex gcc_jit_context_get_builtin_function (C function)
-@anchor{topics/functions gcc_jit_context_get_builtin_function}@anchor{b6}
+@anchor{topics/functions gcc_jit_context_get_builtin_function}@anchor{bb}
@deffn {C Function} gcc_jit_function *gcc_jit_context_get_builtin_function (gcc_jit_context@w{ }*ctxt, const char@w{ }*name)
@end deffn
@geindex gcc_jit_function_as_object (C function)
-@anchor{topics/functions gcc_jit_function_as_object}@anchor{b7}
+@anchor{topics/functions gcc_jit_function_as_object}@anchor{bc}
@deffn {C Function} gcc_jit_object * gcc_jit_function_as_object (gcc_jit_function@w{ }*func)
Upcasting from function to object.
@end deffn
@geindex gcc_jit_function_get_param (C function)
-@anchor{topics/functions gcc_jit_function_get_param}@anchor{b8}
+@anchor{topics/functions gcc_jit_function_get_param}@anchor{bd}
@deffn {C Function} gcc_jit_param * gcc_jit_function_get_param (gcc_jit_function@w{ }*func, int@w{ }index)
Get the param of the given index (0-based).
@end deffn
@node Blocks,Statements,Functions,Creating and using functions
-@anchor{topics/functions blocks}@anchor{b9}
+@anchor{topics/functions blocks}@anchor{be}
@subsection Blocks
@end deffn
@geindex gcc_jit_function_new_block (C function)
-@anchor{topics/functions gcc_jit_function_new_block}@anchor{ba}
+@anchor{topics/functions gcc_jit_function_new_block}@anchor{bf}
@deffn {C Function} gcc_jit_block * gcc_jit_function_new_block (gcc_jit_function@w{ }*func, const char@w{ }*name)
Create a basic block of the given name. The name may be NULL, but
@end deffn
@geindex gcc_jit_block_as_object (C function)
-@anchor{topics/functions gcc_jit_block_as_object}@anchor{bb}
+@anchor{topics/functions gcc_jit_block_as_object}@anchor{c0}
@deffn {C Function} gcc_jit_object * gcc_jit_block_as_object (gcc_jit_block@w{ }*block)
Upcast from block to object.
@end deffn
@geindex gcc_jit_block_get_function (C function)
-@anchor{topics/functions gcc_jit_block_get_function}@anchor{bc}
+@anchor{topics/functions gcc_jit_block_get_function}@anchor{c1}
@deffn {C Function} gcc_jit_function * gcc_jit_block_get_function (gcc_jit_block@w{ }*block)
Which function is this block within?
@end deffn
@node Statements,,Blocks,Creating and using functions
-@anchor{topics/functions statements}@anchor{bd}
+@anchor{topics/functions statements}@anchor{c2}
@subsection Statements
@end deffn
@geindex gcc_jit_block_end_with_jump (C function)
-@anchor{topics/functions gcc_jit_block_end_with_jump}@anchor{be}
+@anchor{topics/functions gcc_jit_block_end_with_jump}@anchor{c3}
@deffn {C Function} void gcc_jit_block_end_with_jump (gcc_jit_block@w{ }*block, gcc_jit_location@w{ }*loc, gcc_jit_block@w{ }*target)
Terminate a block by adding a jump to the given target block.
@end deffn
@geindex gcc_jit_block_end_with_return (C function)
-@anchor{topics/functions gcc_jit_block_end_with_return}@anchor{bf}
+@anchor{topics/functions gcc_jit_block_end_with_return}@anchor{c4}
@deffn {C Function} void gcc_jit_block_end_with_return (gcc_jit_block@w{ }*block, gcc_jit_location@w{ }*loc, gcc_jit_rvalue@w{ }*rvalue)
Terminate a block by adding evaluation of an rvalue, returning the value.
@end deffn
@geindex gcc_jit_block_end_with_void_return (C function)
-@anchor{topics/functions gcc_jit_block_end_with_void_return}@anchor{c0}
+@anchor{topics/functions gcc_jit_block_end_with_void_return}@anchor{c5}
@deffn {C Function} void gcc_jit_block_end_with_void_return (gcc_jit_block@w{ }*block, gcc_jit_location@w{ }*loc)
Terminate a block by adding a valueless return, for use within a function
@c <http://www.gnu.org/licenses/>.
@node Source Locations,Compilation results,Creating and using functions,Topic Reference
-@anchor{topics/locations source-locations}@anchor{c1}@anchor{topics/locations doc}@anchor{c2}
+@anchor{topics/locations source-locations}@anchor{c6}@anchor{topics/locations doc}@anchor{c7}
@section Source Locations
@end menu
@node Faking it,,,Source Locations
-@anchor{topics/locations faking-it}@anchor{c3}
+@anchor{topics/locations faking-it}@anchor{c8}
@subsection Faking it
@c <http://www.gnu.org/licenses/>.
@node Compilation results,,Source Locations,Topic Reference
-@anchor{topics/results compilation-results}@anchor{c4}@anchor{topics/results doc}@anchor{c5}
+@anchor{topics/results compilation-results}@anchor{c9}@anchor{topics/results doc}@anchor{ca}
@section Compilation results
@deffn {C Type} gcc_jit_result
A @cite{gcc_jit_result} encapsulates the result of compiling a context,
-and the lifetimes of any machine code functions that are
-returned.
+and the lifetimes of any machine code functions or globals that are
+within it.
@end deffn
@geindex gcc_jit_context_compile (C function)
This calls into GCC and builds the code, returning a
@cite{gcc_jit_result *}.
+
+If this is non-NULL, the caller becomes responsible for
+calling @pxref{39,,gcc_jit_result_release()} on it once they're done
+with it.
@end deffn
@geindex gcc_jit_result_get_code (C function)
with a name matching @cite{funcname} must have been created on
@cite{result}'s context (or a parent context) via a call to
@pxref{11,,gcc_jit_context_new_function()} with @cite{kind}
-@pxref{b2,,GCC_JIT_FUNCTION_EXPORTED}:
+@pxref{b7,,GCC_JIT_FUNCTION_EXPORTED}:
@example
gcc_jit_context_new_function (ctxt,
Note that the resulting machine code becomes invalid after
@pxref{39,,gcc_jit_result_release()} is called on the
-@cite{gcc_jit_result *}; attempting to call it after that may lead
+@pxref{16,,gcc_jit_result *}; attempting to call it after that may lead
+to a segmentation fault.
+@end deffn
+
+@geindex gcc_jit_result_get_global (C function)
+@anchor{topics/results gcc_jit_result_get_global}@anchor{a7}
+@deffn {C Function} void * gcc_jit_result_get_global (gcc_jit_result@w{ }*result, const char@w{ }*name)
+
+Locate a given global within the built machine code.
+
+Globals are looked up by name. For this to succeed, a global
+with a name matching @cite{name} must have been created on
+@cite{result}'s context (or a parent context) via a call to
+@pxref{a4,,gcc_jit_context_new_global()} with @cite{kind}
+@pxref{a6,,GCC_JIT_GLOBAL_EXPORTED}.
+
+If the global is found, the result will need to be cast to a
+pointer of the correct type before it can be called.
+
+This is a @emph{pointer} to the global, so e.g. for an @code{int} this is
+an @code{int *}.
+
+For example, given an @code{int foo;} created this way:
+
+@example
+gcc_jit_lvalue *exported_global =
+ gcc_jit_context_new_global (ctxt,
+ any_location, /* or NULL */
+ GCC_JIT_GLOBAL_EXPORTED,
+ int_type,
+ "foo");
+@end example
+
+@noindent
+
+we can access it like this:
+
+@example
+int *ptr_to_foo =
+ (int *)gcc_jit_result_get_global (result, "foo");
+@end example
+
+@noindent
+
+If such a global is not found (or @cite{result} or @cite{name} are
+@code{NULL}), an error message will be emitted on stderr and
+@code{NULL} will be returned.
+
+Note that the resulting address becomes invalid after
+@pxref{39,,gcc_jit_result_release()} is called on the
+@pxref{16,,gcc_jit_result *}; attempting to use it after that may lead
to a segmentation fault.
@end deffn
Once we're done with the code, this unloads the built .so file.
This cleans up the result; after calling this, it's no longer
-valid to use the result, or any code that was obtained by calling
-@pxref{17,,gcc_jit_result_get_code()} on it.
+valid to use the result, or any code or globals that were obtained
+by calling @pxref{17,,gcc_jit_result_get_code()} or
+@pxref{a7,,gcc_jit_result_get_global()} on it.
@end deffn
@c Copyright (C) 2014 Free Software Foundation, Inc.
@c <http://www.gnu.org/licenses/>.
@node C++ bindings for libgccjit,Internals,Topic Reference,Top
-@anchor{cp/index c-bindings-for-libgccjit}@anchor{c6}@anchor{cp/index doc}@anchor{c7}
+@anchor{cp/index c-bindings-for-libgccjit}@anchor{cb}@anchor{cp/index doc}@anchor{cc}
@chapter C++ bindings for libgccjit
@node Tutorial<2>,Topic Reference<2>,,C++ bindings for libgccjit
-@anchor{cp/intro/index doc}@anchor{c8}@anchor{cp/intro/index tutorial}@anchor{c9}
+@anchor{cp/intro/index doc}@anchor{cd}@anchor{cp/intro/index tutorial}@anchor{ce}
@section Tutorial
@end menu
@node Tutorial part 1 "Hello world"<2>,Tutorial part 2 Creating a trivial machine code function<2>,,Tutorial<2>
-@anchor{cp/intro/tutorial01 doc}@anchor{ca}@anchor{cp/intro/tutorial01 tutorial-part-1-hello-world}@anchor{cb}
+@anchor{cp/intro/tutorial01 doc}@anchor{cf}@anchor{cp/intro/tutorial01 tutorial-part-1-hello-world}@anchor{d0}
@subsection Tutorial part 1: "Hello world"
@c <http://www.gnu.org/licenses/>.
@node Tutorial part 2 Creating a trivial machine code function<2>,Tutorial part 3 Loops and variables<2>,Tutorial part 1 "Hello world"<2>,Tutorial<2>
-@anchor{cp/intro/tutorial02 doc}@anchor{cc}@anchor{cp/intro/tutorial02 tutorial-part-2-creating-a-trivial-machine-code-function}@anchor{cd}
+@anchor{cp/intro/tutorial02 doc}@anchor{d1}@anchor{cp/intro/tutorial02 tutorial-part-2-creating-a-trivial-machine-code-function}@anchor{d2}
@subsection Tutorial part 2: Creating a trivial machine code function
@code{gccjit::context}, which is a thin C++ wrapper around the C API's
@pxref{8,,gcc_jit_context *}.
-Create one using @pxref{ce,,gccjit;;context;;acquire()}:
+Create one using @pxref{d3,,gccjit;;context;;acquire()}:
@example
gccjit::context ctxt;
expression is of a specific type, fixed at compile-time. In our example,
all of the expressions are of the C @cite{int} type, so let's obtain this from
the context, as a @code{gccjit::type}, using
-@pxref{cf,,gccjit;;context;;get_type()}:
+@pxref{d4,,gccjit;;context;;get_type()}:
@example
gccjit::type int_type = ctxt.get_type (GCC_JIT_TYPE_INT);
Memory management is easy: all such "contextual" objects are automatically
cleaned up for you when the context is released, using
-@pxref{d0,,gccjit;;context;;release()}:
+@pxref{d5,,gccjit;;context;;release()}:
@example
ctxt.release ();
One thing you can do with a @code{gccjit::object} is
to ask it for a human-readable description as a @code{std::string}, using
-@pxref{d1,,gccjit;;object;;get_debug_string()}:
+@pxref{d6,,gccjit;;object;;get_debug_string()}:
@example
printf ("obj: %s\n", obj.get_debug_string ().c_str ());
Let's create the function. To do so, we first need to construct
its single parameter, specifying its type and giving it a name,
-using @pxref{d2,,gccjit;;context;;new_param()}:
+using @pxref{d7,,gccjit;;context;;new_param()}:
@example
gccjit::param param_i = ctxt.new_param (int_type, "i");
Our basic block is relatively simple: it immediately terminates by
returning the value of an expression.
-We can build the expression using @pxref{d3,,gccjit;;context;;new_binary_op()}:
+We can build the expression using @pxref{d8,,gccjit;;context;;new_binary_op()}:
@example
gccjit::rvalue expr =
A @code{gccjit::rvalue} is another example of a
@code{gccjit::object} subclass. As before, we can print it with
-@pxref{d1,,gccjit;;object;;get_debug_string()}.
+@pxref{d6,,gccjit;;object;;get_debug_string()}.
@example
printf ("expr: %s\n", expr.get_debug_string ().c_str ());
@noindent
OK, we've populated the context. We can now compile it using
-@pxref{d4,,gccjit;;context;;compile()}:
+@pxref{d9,,gccjit;;context;;compile()}:
@example
gcc_jit_result *result;
@end menu
@node Options<3>,Full example<3>,,Tutorial part 2 Creating a trivial machine code function<2>
-@anchor{cp/intro/tutorial02 options}@anchor{d5}
+@anchor{cp/intro/tutorial02 options}@anchor{da}
@subsubsection Options
To get more information on what's going on, you can set debugging flags
-on the context using @pxref{d6,,gccjit;;context;;set_bool_option()}.
+on the context using @pxref{db,,gccjit;;context;;set_bool_option()}.
@c (I'm deliberately not mentioning
@c :c:macro:`GCC_JIT_BOOL_OPTION_DUMP_INITIAL_TREE` here since I think
By default, no optimizations are performed, the equivalent of GCC's
@cite{-O0} option. We can turn things up to e.g. @cite{-O3} by calling
-@pxref{d7,,gccjit;;context;;set_int_option()} with
+@pxref{dc,,gccjit;;context;;set_int_option()} with
@pxref{1f,,GCC_JIT_INT_OPTION_OPTIMIZATION_LEVEL}:
@example
Naturally this has only a small effect on such a trivial function.
@node Full example<3>,,Options<3>,Tutorial part 2 Creating a trivial machine code function<2>
-@anchor{cp/intro/tutorial02 full-example}@anchor{d8}
+@anchor{cp/intro/tutorial02 full-example}@anchor{dd}
@subsubsection Full example
@c <http://www.gnu.org/licenses/>.
@node Tutorial part 3 Loops and variables<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>,Tutorial part 2 Creating a trivial machine code function<2>,Tutorial<2>
-@anchor{cp/intro/tutorial03 tutorial-part-3-loops-and-variables}@anchor{d9}@anchor{cp/intro/tutorial03 doc}@anchor{da}
+@anchor{cp/intro/tutorial03 tutorial-part-3-loops-and-variables}@anchor{de}@anchor{cp/intro/tutorial03 doc}@anchor{df}
@subsection Tutorial part 3: Loops and variables
@end menu
@node Expressions lvalues and rvalues<2>,Control flow<2>,,Tutorial part 3 Loops and variables<2>
-@anchor{cp/intro/tutorial03 expressions-lvalues-and-rvalues}@anchor{db}
+@anchor{cp/intro/tutorial03 expressions-lvalues-and-rvalues}@anchor{e0}
@subsubsection Expressions: lvalues and rvalues
Our new example has a new kind of expression: we have two local
variables. We create them by calling
-@pxref{dc,,gccjit;;function;;new_local()}, supplying a type and a name:
+@pxref{e1,,gccjit;;function;;new_local()}, supplying a type and a name:
@example
/* Build locals: */
an assignment of @cite{0} to @cite{local_i} at the beginning of the function.
@node Control flow<2>,Visualizing the control flow graph<2>,Expressions lvalues and rvalues<2>,Tutorial part 3 Loops and variables<2>
-@anchor{cp/intro/tutorial03 control-flow}@anchor{dd}
+@anchor{cp/intro/tutorial03 control-flow}@anchor{e2}
@subsubsection Control flow
The entry block @cite{b_initial} consists of initializations followed by a jump
to the conditional. We assign @cite{0} to @cite{i} and to @cite{sum}, using
-@pxref{de,,gccjit;;block;;add_assignment()} to add
-an assignment statement, and using @pxref{df,,gccjit;;context;;zero()} to get
+@pxref{e3,,gccjit;;block;;add_assignment()} to add
+an assignment statement, and using @pxref{e4,,gccjit;;context;;zero()} to get
the constant value @cite{0} for the relevant type for the right-hand side of
the assignment:
one of two destination blocks depending on a boolean
@code{gccjit::rvalue}, in this case the comparison of @cite{i} and @cite{n}.
-We could build the comparison using @pxref{e0,,gccjit;;context;;new_comparison()}:
+We could build the comparison using @pxref{e5,,gccjit;;context;;new_comparison()}:
@example
gccjit::rvalue guard =
@noindent
and can then use this to add @cite{b_loop_cond}'s sole statement, via
-@pxref{e1,,gccjit;;block;;end_with_conditional()}:
+@pxref{e6,,gccjit;;block;;end_with_conditional()}:
@example
b_loop_cond.end_with_conditional (guard);
The C statement @cite{sum += i * i;} is an assignment operation, where an
lvalue is modified "in-place". We use
-@pxref{e2,,gccjit;;block;;add_assignment_op()} to handle these operations:
+@pxref{e7,,gccjit;;block;;add_assignment_op()} to handle these operations:
@example
/* sum += i * i */
@cartouche
@quotation Note
For numeric constants other than 0 or 1, we could use
-@pxref{e3,,gccjit;;context;;new_rvalue()}, which has overloads
+@pxref{e8,,gccjit;;context;;new_rvalue()}, which has overloads
for both @code{int} and @code{double}.
@end quotation
@end cartouche
@noindent
@node Visualizing the control flow graph<2>,Full example<4>,Control flow<2>,Tutorial part 3 Loops and variables<2>
-@anchor{cp/intro/tutorial03 visualizing-the-control-flow-graph}@anchor{e4}
+@anchor{cp/intro/tutorial03 visualizing-the-control-flow-graph}@anchor{e9}
@subsubsection Visualizing the control flow graph
You can see the control flow graph of a function using
-@pxref{e5,,gccjit;;function;;dump_to_dot()}:
+@pxref{ea,,gccjit;;function;;dump_to_dot()}:
@example
func.dump_to_dot ("/tmp/sum-of-squares.dot");
@end quotation
@node Full example<4>,,Visualizing the control flow graph<2>,Tutorial part 3 Loops and variables<2>
-@anchor{cp/intro/tutorial03 full-example}@anchor{e6}
+@anchor{cp/intro/tutorial03 full-example}@anchor{eb}
@subsubsection Full example
@c <http://www.gnu.org/licenses/>.
@node Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>,,Tutorial part 3 Loops and variables<2>,Tutorial<2>
-@anchor{cp/intro/tutorial04 tutorial-part-4-adding-jit-compilation-to-a-toy-interpreter}@anchor{e7}@anchor{cp/intro/tutorial04 doc}@anchor{e8}
+@anchor{cp/intro/tutorial04 tutorial-part-4-adding-jit-compilation-to-a-toy-interpreter}@anchor{ec}@anchor{cp/intro/tutorial04 doc}@anchor{ed}
@subsection Tutorial part 4: Adding JIT-compilation to a toy interpreter
@end menu
@node Our toy interpreter<2>,Compiling to machine code<2>,,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 our-toy-interpreter}@anchor{e9}
+@anchor{cp/intro/tutorial04 our-toy-interpreter}@anchor{ee}
@subsubsection Our toy interpreter
@end quotation
@node Compiling to machine code<2>,Setting things up<2>,Our toy interpreter<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 compiling-to-machine-code}@anchor{ea}
+@anchor{cp/intro/tutorial04 compiling-to-machine-code}@anchor{ef}
@subsubsection Compiling to machine code
@end quotation
@node Setting things up<2>,Populating the function<2>,Compiling to machine code<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 setting-things-up}@anchor{eb}
+@anchor{cp/intro/tutorial04 setting-things-up}@anchor{f0}
@subsubsection Setting things up
@end quotation
@node Populating the function<2>,Verifying the control flow graph<2>,Setting things up<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 populating-the-function}@anchor{ec}
+@anchor{cp/intro/tutorial04 populating-the-function}@anchor{f1}
@subsubsection Populating the function
uninitialized.
To track this kind of thing down, we can use
-@pxref{ed,,gccjit;;block;;add_comment()} to add descriptive comments
+@pxref{f2,,gccjit;;block;;add_comment()} to add descriptive comments
to the internal representation. This is invaluable when looking through
the generated IR for, say @code{factorial}:
This is analogous to simply incrementing the program counter.
@node Verifying the control flow graph<2>,Compiling the context<2>,Populating the function<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 verifying-the-control-flow-graph}@anchor{ee}
+@anchor{cp/intro/tutorial04 verifying-the-control-flow-graph}@anchor{f3}
@subsubsection Verifying the control flow graph
Having finished looping over the blocks, the context is complete.
As before, we can verify that the control flow and statements are sane by
-using @pxref{e5,,gccjit;;function;;dump_to_dot()}:
+using @pxref{ea,,gccjit;;function;;dump_to_dot()}:
@example
fn.dump_to_dot ("/tmp/factorial.dot");
@end quotation
@node Compiling the context<2>,Single-stepping through the generated code<2>,Verifying the control flow graph<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 compiling-the-context}@anchor{ef}
+@anchor{cp/intro/tutorial04 compiling-the-context}@anchor{f4}
@subsubsection Compiling the context
@end quotation
@node Single-stepping through the generated code<2>,Examining the generated code<2>,Compiling the context<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 single-stepping-through-the-generated-code}@anchor{f0}
+@anchor{cp/intro/tutorial04 single-stepping-through-the-generated-code}@anchor{f5}
@subsubsection Single-stepping through the generated code
@item
Set up source code locations for our statements, so that we can
meaningfully step through the code. We did this above by
-calling @pxref{f1,,gccjit;;context;;new_location()} and using the
+calling @pxref{f6,,gccjit;;context;;new_location()} and using the
results.
@item
Enable the generation of debugging information, by setting
@pxref{42,,GCC_JIT_BOOL_OPTION_DEBUGINFO} on the
@code{gccjit::context} via
-@pxref{d6,,gccjit;;context;;set_bool_option()}:
+@pxref{db,,gccjit;;context;;set_bool_option()}:
@example
ctxt.set_bool_option (GCC_JIT_BOOL_OPTION_DEBUGINFO, 1);
@end cartouche
@node Examining the generated code<2>,Putting it all together<2>,Single-stepping through the generated code<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 examining-the-generated-code}@anchor{f2}
+@anchor{cp/intro/tutorial04 examining-the-generated-code}@anchor{f7}
@subsubsection Examining the generated code
How good is the optimized code?
We can turn up optimizations, by calling
-@pxref{d7,,gccjit;;context;;set_int_option()} with
+@pxref{dc,,gccjit;;context;;set_int_option()} with
@pxref{1f,,GCC_JIT_INT_OPTION_OPTIMIZATION_LEVEL}:
@example
recursive call (in favor of an iteration).
@node Putting it all together<2>,Behind the curtain How does our code get optimized?<2>,Examining the generated code<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 putting-it-all-together}@anchor{f3}
+@anchor{cp/intro/tutorial04 putting-it-all-together}@anchor{f8}
@subsubsection Putting it all together
@noindent
@node Behind the curtain How does our code get optimized?<2>,,Putting it all together<2>,Tutorial part 4 Adding JIT-compilation to a toy interpreter<2>
-@anchor{cp/intro/tutorial04 behind-the-curtain-how-does-our-code-get-optimized}@anchor{f4}
+@anchor{cp/intro/tutorial04 behind-the-curtain-how-does-our-code-get-optimized}@anchor{f9}
@subsubsection Behind the curtain: How does our code get optimized?
@end menu
@node Optimizing away stack manipulation<2>,Elimination of tail recursion<2>,,Behind the curtain How does our code get optimized?<2>
-@anchor{cp/intro/tutorial04 optimizing-away-stack-manipulation}@anchor{f5}
+@anchor{cp/intro/tutorial04 optimizing-away-stack-manipulation}@anchor{fa}
@subsubsection Optimizing away stack manipulation
@noindent
@node Elimination of tail recursion<2>,,Optimizing away stack manipulation<2>,Behind the curtain How does our code get optimized?<2>
-@anchor{cp/intro/tutorial04 elimination-of-tail-recursion}@anchor{f6}
+@anchor{cp/intro/tutorial04 elimination-of-tail-recursion}@anchor{fb}
@subsubsection Elimination of tail recursion
@c <http://www.gnu.org/licenses/>.
@node Topic Reference<2>,,Tutorial<2>,C++ bindings for libgccjit
-@anchor{cp/topics/index doc}@anchor{f7}@anchor{cp/topics/index topic-reference}@anchor{f8}
+@anchor{cp/topics/index doc}@anchor{fc}@anchor{cp/topics/index topic-reference}@anchor{fd}
@section Topic Reference
@node Compilation contexts<2>,Objects<2>,,Topic Reference<2>
-@anchor{cp/topics/contexts compilation-contexts}@anchor{f9}@anchor{cp/topics/contexts doc}@anchor{fa}
+@anchor{cp/topics/contexts compilation-contexts}@anchor{fe}@anchor{cp/topics/contexts doc}@anchor{ff}
@subsection Compilation contexts
@geindex gccjit;;context (C++ class)
-@anchor{cp/topics/contexts gccjit context}@anchor{fb}
+@anchor{cp/topics/contexts gccjit context}@anchor{100}
@deffn {C++ Class} gccjit::context
@end deffn
-The top-level of the C++ API is the @pxref{fb,,gccjit;;context} type.
+The top-level of the C++ API is the @pxref{100,,gccjit;;context} type.
-A @pxref{fb,,gccjit;;context} instance encapsulates the state of a
+A @pxref{100,,gccjit;;context} instance encapsulates the state of a
compilation.
You can set up options on it, and add types, functions and code.
-Invoking @pxref{d4,,gccjit;;context;;compile()} on it gives you a
+Invoking @pxref{d9,,gccjit;;context;;compile()} on it gives you a
@pxref{16,,gcc_jit_result *}.
It is a thin wrapper around the C API's @pxref{8,,gcc_jit_context *}.
@end menu
@node Lifetime-management<2>,Thread-safety<2>,,Compilation contexts<2>
-@anchor{cp/topics/contexts lifetime-management}@anchor{fc}
+@anchor{cp/topics/contexts lifetime-management}@anchor{101}
@subsubsection Lifetime-management
cleanup of such objects is done for you when the context is released.
@geindex gccjit;;context;;acquire (C++ function)
-@anchor{cp/topics/contexts gccjit context acquire}@anchor{ce}
+@anchor{cp/topics/contexts gccjit context acquire}@anchor{d3}
@deffn {C++ Function} gccjit::context gccjit::context::acquire ()
-This function acquires a new @pxref{fb,,gccjit;;context} instance,
+This function acquires a new @pxref{100,,gccjit;;context} instance,
which is independent of any others that may be present within this
process.
@end deffn
@geindex gccjit;;context;;release (C++ function)
-@anchor{cp/topics/contexts gccjit context release}@anchor{d0}
+@anchor{cp/topics/contexts gccjit context release}@anchor{d5}
@deffn {C++ Function} void gccjit::context::release ()
This function releases all resources associated with the given context.
@end deffn
@geindex gccjit;;context;;new_child_context (C++ function)
-@anchor{cp/topics/contexts gccjit context new_child_context}@anchor{fd}
+@anchor{cp/topics/contexts gccjit context new_child_context}@anchor{102}
@deffn {C++ Function} gccjit::context gccjit::context::new_child_context ()
Given an existing JIT context, create a child context.
@end deffn
@node Thread-safety<2>,Error-handling<3>,Lifetime-management<2>,Compilation contexts<2>
-@anchor{cp/topics/contexts thread-safety}@anchor{fe}
+@anchor{cp/topics/contexts thread-safety}@anchor{103}
@subsubsection Thread-safety
-Instances of @pxref{fb,,gccjit;;context} created via
-@pxref{ce,,gccjit;;context;;acquire()} are independent from each other:
+Instances of @pxref{100,,gccjit;;context} created via
+@pxref{d3,,gccjit;;context;;acquire()} are independent from each other:
only one thread may use a given context at once, but multiple threads
could each have their own contexts without needing locks.
-Contexts created via @pxref{fd,,gccjit;;context;;new_child_context()} are
+Contexts created via @pxref{102,,gccjit;;context;;new_child_context()} are
related to their parent context. They can be partitioned by their
ultimate ancestor into independent "family trees". Only one thread
within a process may use a given "family tree" of such contexts at once,
around entire such context partitions.
@node Error-handling<3>,Debugging<2>,Thread-safety<2>,Compilation contexts<2>
-@anchor{cp/topics/contexts error-handling}@anchor{ff}
+@anchor{cp/topics/contexts error-handling}@anchor{104}
@subsubsection Error-handling
API gracefully handles a NULL being passed in for any argument.
Errors are printed on stderr and can be queried using
-@pxref{100,,gccjit;;context;;get_first_error()}.
+@pxref{105,,gccjit;;context;;get_first_error()}.
@geindex gccjit;;context;;get_first_error (C++ function)
-@anchor{cp/topics/contexts gccjit context get_first_error__gccjit contextP}@anchor{100}
+@anchor{cp/topics/contexts gccjit context get_first_error__gccjit contextP}@anchor{105}
@deffn {C++ Function} const char* gccjit::context::get_first_error (gccjit::context* ctxt)
Returns the first error message that occurred on the context.
@end deffn
@node Debugging<2>,Options<4>,Error-handling<3>,Compilation contexts<2>
-@anchor{cp/topics/contexts debugging}@anchor{101}
+@anchor{cp/topics/contexts debugging}@anchor{106}
@subsubsection Debugging
@geindex gccjit;;context;;dump_to_file (C++ function)
-@anchor{cp/topics/contexts gccjit context dump_to_file__ssCR i}@anchor{102}
+@anchor{cp/topics/contexts gccjit context dump_to_file__ssCR i}@anchor{107}
@deffn {C++ Function} void gccjit::context::dump_to_file (const std::string& path, int update_locations)
To help with debugging: dump a C-like representation to the given path,
describing what's been set up on the context.
-If "update_locations" is true, then also set up @pxref{103,,gccjit;;location}
+If "update_locations" is true, then also set up @pxref{108,,gccjit;;location}
information throughout the context, pointing at the dump file as if it
were a source file. This may be of use in conjunction with
@code{GCCJIT::BOOL_OPTION_DEBUGINFO} to allow stepping through the
@end deffn
@node Options<4>,,Debugging<2>,Compilation contexts<2>
-@anchor{cp/topics/contexts options}@anchor{104}
+@anchor{cp/topics/contexts options}@anchor{109}
@subsubsection Options
@end menu
@node String Options<2>,Boolean options<2>,,Options<4>
-@anchor{cp/topics/contexts string-options}@anchor{105}
+@anchor{cp/topics/contexts string-options}@anchor{10a}
@subsubsection String Options
@geindex gccjit;;context;;set_str_option (C++ function)
-@anchor{cp/topics/contexts gccjit context set_str_option__enum cCP}@anchor{106}
+@anchor{cp/topics/contexts gccjit context set_str_option__enum cCP}@anchor{10b}
@deffn {C++ Function} void gccjit::context::set_str_option (enum gcc_jit_str_option, const char* value)
Set a string option of the context.
@end deffn
@node Boolean options<2>,Integer options<2>,String Options<2>,Options<4>
-@anchor{cp/topics/contexts boolean-options}@anchor{107}
+@anchor{cp/topics/contexts boolean-options}@anchor{10c}
@subsubsection Boolean options
@geindex gccjit;;context;;set_bool_option (C++ function)
-@anchor{cp/topics/contexts gccjit context set_bool_option__enum i}@anchor{d6}
+@anchor{cp/topics/contexts gccjit context set_bool_option__enum i}@anchor{db}
@deffn {C++ Function} void gccjit::context::set_bool_option (enum gcc_jit_bool_option, int value)
Set a boolean option of the context.
@end deffn
@node Integer options<2>,,Boolean options<2>,Options<4>
-@anchor{cp/topics/contexts integer-options}@anchor{108}
+@anchor{cp/topics/contexts integer-options}@anchor{10d}
@subsubsection Integer options
@geindex gccjit;;context;;set_int_option (C++ function)
-@anchor{cp/topics/contexts gccjit context set_int_option__enum i}@anchor{d7}
+@anchor{cp/topics/contexts gccjit context set_int_option__enum i}@anchor{dc}
@deffn {C++ Function} void gccjit::context::set_int_option (enum gcc_jit_int_option, int value)
Set an integer option of the context.
@c <http://www.gnu.org/licenses/>.
@node Objects<2>,Types<2>,Compilation contexts<2>,Topic Reference<2>
-@anchor{cp/topics/objects objects}@anchor{109}@anchor{cp/topics/objects doc}@anchor{10a}
+@anchor{cp/topics/objects objects}@anchor{10e}@anchor{cp/topics/objects doc}@anchor{10f}
@subsection Objects
@geindex gccjit;;object (C++ class)
-@anchor{cp/topics/objects gccjit object}@anchor{10b}
+@anchor{cp/topics/objects gccjit object}@anchor{110}
@deffn {C++ Class} gccjit::object
@end deffn
Almost every entity in the API (with the exception of
-@pxref{fb,,gccjit;;context} and @pxref{16,,gcc_jit_result *}) is a
-"contextual" object, a @pxref{10b,,gccjit;;object}.
+@pxref{100,,gccjit;;context} and @pxref{16,,gcc_jit_result *}) is a
+"contextual" object, a @pxref{110,,gccjit;;object}.
A JIT object:
@itemize *
@item
-is associated with a @pxref{fb,,gccjit;;context}.
+is associated with a @pxref{100,,gccjit;;context}.
@item
is automatically cleaned up for you when its context is released so
@noindent
-The @pxref{10b,,gccjit;;object} base class has the following operations:
+The @pxref{110,,gccjit;;object} base class has the following operations:
@geindex gccjit;;object;;get_context (C++ function)
-@anchor{cp/topics/objects gccjit object get_contextC}@anchor{10c}
+@anchor{cp/topics/objects gccjit object get_contextC}@anchor{111}
@deffn {C++ Function} gccjit::context gccjit::object::get_context () const
Which context is the obj within?
@end deffn
@geindex gccjit;;object;;get_debug_string (C++ function)
-@anchor{cp/topics/objects gccjit object get_debug_stringC}@anchor{d1}
+@anchor{cp/topics/objects gccjit object get_debug_stringC}@anchor{d6}
@deffn {C++ Function} std::string gccjit::object::get_debug_string () const
Generate a human-readable description for the given object.
@c <http://www.gnu.org/licenses/>.
@node Types<2>,Expressions<2>,Objects<2>,Topic Reference<2>
-@anchor{cp/topics/types doc}@anchor{10d}@anchor{cp/topics/types types}@anchor{10e}
+@anchor{cp/topics/types doc}@anchor{112}@anchor{cp/topics/types types}@anchor{113}
@subsection Types
@geindex gccjit;;type (C++ class)
-@anchor{cp/topics/types gccjit type}@anchor{10f}
+@anchor{cp/topics/types gccjit type}@anchor{114}
@deffn {C++ Class} gccjit::type
gccjit::type represents a type within the library. It is a subclass
-of @pxref{10b,,gccjit;;object}.
+of @pxref{110,,gccjit;;object}.
@end deffn
Types can be created in several ways:
@item
fundamental types can be accessed using
-@pxref{cf,,gccjit;;context;;get_type()}:
+@pxref{d4,,gccjit;;context;;get_type()}:
@example
gccjit::type int_type = ctxt.get_type (GCC_JIT_TYPE_INT);
@item
derived types can be accessed by using functions such as
-@pxref{110,,gccjit;;type;;get_pointer()} and @pxref{111,,gccjit;;type;;get_const()}:
+@pxref{115,,gccjit;;type;;get_pointer()} and @pxref{116,,gccjit;;type;;get_const()}:
@example
gccjit::type const_int_star = int_type.get_const ().get_pointer ();
@end menu
@node Standard types<2>,Pointers const and volatile<2>,,Types<2>
-@anchor{cp/topics/types standard-types}@anchor{112}
+@anchor{cp/topics/types standard-types}@anchor{117}
@subsubsection Standard types
@geindex gccjit;;context;;get_type (C++ function)
-@anchor{cp/topics/types gccjit context get_type__enum}@anchor{cf}
+@anchor{cp/topics/types gccjit context get_type__enum}@anchor{d4}
@deffn {C++ Function} gccjit::type gccjit::context::get_type (enum gcc_jit_types)
Access a specific type. This is a thin wrapper around
@end deffn
@geindex gccjit;;context;;get_int_type (C++ function)
-@anchor{cp/topics/types gccjit context get_int_type__s i}@anchor{113}
+@anchor{cp/topics/types gccjit context get_int_type__s i}@anchor{118}
@deffn {C++ Function} gccjit::type gccjit::context::get_int_type (size_t num_bytes, int is_signed)
Access the integer type of the given size.
@end deffn
@geindex gccjit;;context;;get_int_type<T> (C++ function)
-@anchor{cp/topics/types gccjit context get_int_type T}@anchor{114}
+@anchor{cp/topics/types gccjit context get_int_type T}@anchor{119}
@deffn {C++ Function} gccjit::type gccjit::context::get_int_type<T> ()
Access the given integer type. For example, you could map the
@end deffn
@node Pointers const and volatile<2>,Structures and unions<2>,Standard types<2>,Types<2>
-@anchor{cp/topics/types pointers-const-and-volatile}@anchor{115}
+@anchor{cp/topics/types pointers-const-and-volatile}@anchor{11a}
@subsubsection Pointers, @cite{const}, and @cite{volatile}
@geindex gccjit;;type;;get_pointer (C++ function)
-@anchor{cp/topics/types gccjit type get_pointer}@anchor{110}
+@anchor{cp/topics/types gccjit type get_pointer}@anchor{115}
@deffn {C++ Function} gccjit::type gccjit::type::get_pointer ()
Given type "T", get type "T*".
@c FIXME: get_const doesn't seem to exist
@geindex gccjit;;type;;get_const (C++ function)
-@anchor{cp/topics/types gccjit type get_const}@anchor{111}
+@anchor{cp/topics/types gccjit type get_const}@anchor{116}
@deffn {C++ Function} gccjit::type gccjit::type::get_const ()
Given type "T", get type "const T".
@end deffn
@geindex gccjit;;type;;get_volatile (C++ function)
-@anchor{cp/topics/types gccjit type get_volatile}@anchor{116}
+@anchor{cp/topics/types gccjit type get_volatile}@anchor{11b}
@deffn {C++ Function} gccjit::type gccjit::type::get_volatile ()
Given type "T", get type "volatile T".
@end deffn
@geindex gccjit;;context;;new_array_type (C++ function)
-@anchor{cp/topics/types gccjit context new_array_type__gccjit type i gccjit location}@anchor{117}
+@anchor{cp/topics/types gccjit context new_array_type__gccjit type i gccjit location}@anchor{11c}
@deffn {C++ Function} gccjit::type gccjit::context::new_array_type (gccjit::type element_type, int num_elements, gccjit::location loc)
Given type "T", get type "T[N]" (for a constant N).
@end deffn
@node Structures and unions<2>,,Pointers const and volatile<2>,Types<2>
-@anchor{cp/topics/types structures-and-unions}@anchor{118}
+@anchor{cp/topics/types structures-and-unions}@anchor{11d}
@subsubsection Structures and unions
@geindex gccjit;;struct_ (C++ class)
-@anchor{cp/topics/types gccjit struct_}@anchor{119}
+@anchor{cp/topics/types gccjit struct_}@anchor{11e}
@deffn {C++ Class} gccjit::struct_
@end deffn
A compound type analagous to a C @cite{struct}.
-@pxref{119,,gccjit;;struct_} is a subclass of @pxref{10f,,gccjit;;type} (and thus
-of @pxref{10b,,gccjit;;object} in turn).
+@pxref{11e,,gccjit;;struct_} is a subclass of @pxref{114,,gccjit;;type} (and thus
+of @pxref{110,,gccjit;;object} in turn).
@geindex gccjit;;field (C++ class)
-@anchor{cp/topics/types gccjit field}@anchor{11a}
+@anchor{cp/topics/types gccjit field}@anchor{11f}
@deffn {C++ Class} gccjit::field
@end deffn
-A field within a @pxref{119,,gccjit;;struct_}.
+A field within a @pxref{11e,,gccjit;;struct_}.
-@pxref{11a,,gccjit;;field} is a subclass of @pxref{10b,,gccjit;;object}.
+@pxref{11f,,gccjit;;field} is a subclass of @pxref{110,,gccjit;;object}.
-You can model C @cite{struct} types by creating @pxref{119,,gccjit;;struct_} and
-@pxref{11a,,gccjit;;field} instances, in either order:
+You can model C @cite{struct} types by creating @pxref{11e,,gccjit;;struct_} and
+@pxref{11f,,gccjit;;field} instances, in either order:
@itemize *
@c FIXME: the above API doesn't seem to exist yet
@geindex gccjit;;context;;new_field (C++ function)
-@anchor{cp/topics/types gccjit context new_field__gccjit type cCP gccjit location}@anchor{11b}
+@anchor{cp/topics/types gccjit context new_field__gccjit type cCP gccjit location}@anchor{120}
@deffn {C++ Function} gccjit::field gccjit::context::new_field (gccjit::type type, const char* name, gccjit::location loc)
Construct a new field, with the given type and name.
@end deffn
@geindex gccjit;;context;;new_struct_type (C++ function)
-@anchor{cp/topics/types gccjit context new_struct_type__ssCR std vector field R gccjit location}@anchor{11c}
+@anchor{cp/topics/types gccjit context new_struct_type__ssCR std vector field R gccjit location}@anchor{121}
@deffn {C++ Function} gccjit::struct_ gccjit::context::new_struct_type (const std::string& name, std::vector<field>& fields, gccjit::location loc)
@quotation
@end deffn
@geindex gccjit;;context;;new_opaque_struct (C++ function)
-@anchor{cp/topics/types gccjit context new_opaque_struct__ssCR gccjit location}@anchor{11d}
+@anchor{cp/topics/types gccjit context new_opaque_struct__ssCR gccjit location}@anchor{122}
@deffn {C++ Function} gccjit::struct_ gccjit::context::new_opaque_struct (const std::string& name, gccjit::location loc)
Construct a new struct type, with the given name, but without
@c <http://www.gnu.org/licenses/>.
@node Expressions<2>,Creating and using functions<2>,Types<2>,Topic Reference<2>
-@anchor{cp/topics/expressions expressions}@anchor{11e}@anchor{cp/topics/expressions doc}@anchor{11f}
+@anchor{cp/topics/expressions expressions}@anchor{123}@anchor{cp/topics/expressions doc}@anchor{124}
@subsection Expressions
@node Rvalues<2>,Lvalues<2>,,Expressions<2>
-@anchor{cp/topics/expressions rvalues}@anchor{120}
+@anchor{cp/topics/expressions rvalues}@anchor{125}
@subsubsection Rvalues
@geindex gccjit;;rvalue (C++ class)
-@anchor{cp/topics/expressions gccjit rvalue}@anchor{121}
+@anchor{cp/topics/expressions gccjit rvalue}@anchor{126}
@deffn {C++ Class} gccjit::rvalue
@end deffn
-A @pxref{121,,gccjit;;rvalue} is an expression that can be computed. It is a
-subclass of @pxref{10b,,gccjit;;object}, and is a thin wrapper around
+A @pxref{126,,gccjit;;rvalue} is an expression that can be computed. It is a
+subclass of @pxref{110,,gccjit;;object}, and is a thin wrapper around
@pxref{13,,gcc_jit_rvalue *} from the C API.
It can be simple, e.g.:
that types match up correctly (otherwise the context will emit an error).
@geindex gccjit;;rvalue;;get_type (C++ function)
-@anchor{cp/topics/expressions gccjit rvalue get_type}@anchor{122}
+@anchor{cp/topics/expressions gccjit rvalue get_type}@anchor{127}
@deffn {C++ Function} gccjit::type gccjit::rvalue::get_type ()
Get the type of this rvalue.
@end menu
@node Simple expressions<2>,Unary Operations<2>,,Rvalues<2>
-@anchor{cp/topics/expressions simple-expressions}@anchor{123}
+@anchor{cp/topics/expressions simple-expressions}@anchor{128}
@subsubsection Simple expressions
@geindex gccjit;;context;;new_rvalue (C++ function)
-@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type iC}@anchor{e3}
+@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type iC}@anchor{e8}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_rvalue (gccjit::type numeric_type, int value) const
Given a numeric type (integer or floating point), build an rvalue for
@end deffn
@geindex gccjit;;context;;new_rvalue (C++ function)
-@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type lC}@anchor{124}
+@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type lC}@anchor{129}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_rvalue (gccjit::type numeric_type, long value) const
Given a numeric type (integer or floating point), build an rvalue for
@end deffn
@geindex gccjit;;context;;zero (C++ function)
-@anchor{cp/topics/expressions gccjit context zero__gccjit typeC}@anchor{df}
+@anchor{cp/topics/expressions gccjit context zero__gccjit typeC}@anchor{e4}
@deffn {C++ Function} gccjit::rvalue gccjit::context::zero (gccjit::type numeric_type) const
Given a numeric type (integer or floating point), get the rvalue for
@end deffn
@geindex gccjit;;context;;one (C++ function)
-@anchor{cp/topics/expressions gccjit context one__gccjit typeC}@anchor{125}
+@anchor{cp/topics/expressions gccjit context one__gccjit typeC}@anchor{12a}
@deffn {C++ Function} gccjit::rvalue gccjit::context::one (gccjit::type numeric_type) const
Given a numeric type (integer or floating point), get the rvalue for
@end deffn
@geindex gccjit;;context;;new_rvalue (C++ function)
-@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type doubleC}@anchor{126}
+@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type doubleC}@anchor{12b}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_rvalue (gccjit::type numeric_type, double value) const
Given a numeric type (integer or floating point), build an rvalue for
@end deffn
@geindex gccjit;;context;;new_rvalue (C++ function)
-@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type voidPC}@anchor{127}
+@anchor{cp/topics/expressions gccjit context new_rvalue__gccjit type voidPC}@anchor{12c}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_rvalue (gccjit::type pointer_type, void* value) const
Given a pointer type, build an rvalue for the given address.
@end deffn
@geindex gccjit;;context;;new_rvalue (C++ function)
-@anchor{cp/topics/expressions gccjit context new_rvalue__ssCRC}@anchor{128}
+@anchor{cp/topics/expressions gccjit context new_rvalue__ssCRC}@anchor{12d}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_rvalue (const std::string& value) const
Generate an rvalue of type @code{GCC_JIT_TYPE_CONST_CHAR_PTR} for
@end deffn
@node Unary Operations<2>,Binary Operations<2>,Simple expressions<2>,Rvalues<2>
-@anchor{cp/topics/expressions unary-operations}@anchor{129}
+@anchor{cp/topics/expressions unary-operations}@anchor{12e}
@subsubsection Unary Operations
@geindex gccjit;;context;;new_unary_op (C++ function)
-@anchor{cp/topics/expressions gccjit context new_unary_op__enum gccjit type gccjit rvalue gccjit location}@anchor{12a}
+@anchor{cp/topics/expressions gccjit context new_unary_op__enum gccjit type gccjit rvalue gccjit location}@anchor{12f}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_unary_op (enum gcc_jit_unary_op, gccjit::type result_type, gccjit::rvalue rvalue, gccjit::location loc)
Build a unary operation out of an input rvalue.
operation:
@geindex gccjit;;context;;new_minus (C++ function)
-@anchor{cp/topics/expressions gccjit context new_minus__gccjit type gccjit rvalue gccjit location}@anchor{12b}
+@anchor{cp/topics/expressions gccjit context new_minus__gccjit type gccjit rvalue gccjit location}@anchor{130}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_minus (gccjit::type result_type, gccjit::rvalue a, gccjit::location loc)
Negate an arithmetic value; for example:
@end deffn
@geindex new_bitwise_negate (C++ function)
-@anchor{cp/topics/expressions new_bitwise_negate__gccjit type gccjit rvalue gccjit location}@anchor{12c}
+@anchor{cp/topics/expressions new_bitwise_negate__gccjit type gccjit rvalue gccjit location}@anchor{131}
@deffn {C++ Function} gccjit::rvalue new_bitwise_negate (gccjit::type result_type, gccjit::rvalue a, gccjit::location loc)
Bitwise negation of an integer value (one's complement); for example:
@end deffn
@geindex new_logical_negate (C++ function)
-@anchor{cp/topics/expressions new_logical_negate__gccjit type gccjit rvalue gccjit location}@anchor{12d}
+@anchor{cp/topics/expressions new_logical_negate__gccjit type gccjit rvalue gccjit location}@anchor{132}
@deffn {C++ Function} gccjit::rvalue new_logical_negate (gccjit::type result_type, gccjit::rvalue a, gccjit::location loc)
Logical negation of an arithmetic or pointer value; for example:
The most concise way to spell them is with overloaded operators:
@geindex operator- (C++ function)
-@anchor{cp/topics/expressions sub-operator__gccjit rvalue}@anchor{12e}
+@anchor{cp/topics/expressions sub-operator__gccjit rvalue}@anchor{133}
@deffn {C++ Function} gccjit::rvalue operator- (gccjit::rvalue a)
@example
@end deffn
@geindex operator~ (C++ function)
-@anchor{cp/topics/expressions inv-operator__gccjit rvalue}@anchor{12f}
+@anchor{cp/topics/expressions inv-operator__gccjit rvalue}@anchor{134}
@deffn {C++ Function} gccjit::rvalue operator~ (gccjit::rvalue a)
@example
@end deffn
@geindex operator! (C++ function)
-@anchor{cp/topics/expressions not-operator__gccjit rvalue}@anchor{130}
+@anchor{cp/topics/expressions not-operator__gccjit rvalue}@anchor{135}
@deffn {C++ Function} gccjit::rvalue operator! (gccjit::rvalue a)
@example
@end deffn
@node Binary Operations<2>,Comparisons<2>,Unary Operations<2>,Rvalues<2>
-@anchor{cp/topics/expressions binary-operations}@anchor{131}
+@anchor{cp/topics/expressions binary-operations}@anchor{136}
@subsubsection Binary Operations
@geindex gccjit;;context;;new_binary_op (C++ function)
-@anchor{cp/topics/expressions gccjit context new_binary_op__enum gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{d3}
+@anchor{cp/topics/expressions gccjit context new_binary_op__enum gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{d8}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_binary_op (enum gcc_jit_binary_op, gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
Build a binary operation out of two constituent rvalues.
operation:
@geindex gccjit;;context;;new_plus (C++ function)
-@anchor{cp/topics/expressions gccjit context new_plus__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{132}
+@anchor{cp/topics/expressions gccjit context new_plus__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{137}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_plus (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_minus (C++ function)
-@anchor{cp/topics/expressions gccjit context new_minus__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{133}
+@anchor{cp/topics/expressions gccjit context new_minus__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{138}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_minus (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_mult (C++ function)
-@anchor{cp/topics/expressions gccjit context new_mult__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{134}
+@anchor{cp/topics/expressions gccjit context new_mult__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{139}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_mult (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_divide (C++ function)
-@anchor{cp/topics/expressions gccjit context new_divide__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{135}
+@anchor{cp/topics/expressions gccjit context new_divide__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13a}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_divide (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_modulo (C++ function)
-@anchor{cp/topics/expressions gccjit context new_modulo__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{136}
+@anchor{cp/topics/expressions gccjit context new_modulo__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13b}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_modulo (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_bitwise_and (C++ function)
-@anchor{cp/topics/expressions gccjit context new_bitwise_and__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{137}
+@anchor{cp/topics/expressions gccjit context new_bitwise_and__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13c}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_bitwise_and (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_bitwise_xor (C++ function)
-@anchor{cp/topics/expressions gccjit context new_bitwise_xor__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{138}
+@anchor{cp/topics/expressions gccjit context new_bitwise_xor__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13d}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_bitwise_xor (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_bitwise_or (C++ function)
-@anchor{cp/topics/expressions gccjit context new_bitwise_or__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{139}
+@anchor{cp/topics/expressions gccjit context new_bitwise_or__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13e}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_bitwise_or (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_logical_and (C++ function)
-@anchor{cp/topics/expressions gccjit context new_logical_and__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13a}
+@anchor{cp/topics/expressions gccjit context new_logical_and__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13f}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_logical_and (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_logical_or (C++ function)
-@anchor{cp/topics/expressions gccjit context new_logical_or__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{13b}
+@anchor{cp/topics/expressions gccjit context new_logical_or__gccjit type gccjit rvalue gccjit rvalue gccjit location}@anchor{140}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_logical_or (gccjit::type result_type, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
The most concise way to spell them is with overloaded operators:
@geindex operator+ (C++ function)
-@anchor{cp/topics/expressions add-operator__gccjit rvalue gccjit rvalue}@anchor{13c}
+@anchor{cp/topics/expressions add-operator__gccjit rvalue gccjit rvalue}@anchor{141}
@deffn {C++ Function} gccjit::rvalue operator+ (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator- (C++ function)
-@anchor{cp/topics/expressions sub-operator__gccjit rvalue gccjit rvalue}@anchor{13d}
+@anchor{cp/topics/expressions sub-operator__gccjit rvalue gccjit rvalue}@anchor{142}
@deffn {C++ Function} gccjit::rvalue operator- (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator* (C++ function)
-@anchor{cp/topics/expressions mul-operator__gccjit rvalue gccjit rvalue}@anchor{13e}
+@anchor{cp/topics/expressions mul-operator__gccjit rvalue gccjit rvalue}@anchor{143}
@deffn {C++ Function} gccjit::rvalue operator* (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator/ (C++ function)
-@anchor{cp/topics/expressions div-operator__gccjit rvalue gccjit rvalue}@anchor{13f}
+@anchor{cp/topics/expressions div-operator__gccjit rvalue gccjit rvalue}@anchor{144}
@deffn {C++ Function} gccjit::rvalue operator/ (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator% (C++ function)
-@anchor{cp/topics/expressions mod-operator__gccjit rvalue gccjit rvalue}@anchor{140}
+@anchor{cp/topics/expressions mod-operator__gccjit rvalue gccjit rvalue}@anchor{145}
@deffn {C++ Function} gccjit::rvalue operator% (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator& (C++ function)
-@anchor{cp/topics/expressions and-operator__gccjit rvalue gccjit rvalue}@anchor{141}
+@anchor{cp/topics/expressions and-operator__gccjit rvalue gccjit rvalue}@anchor{146}
@deffn {C++ Function} gccjit::rvalue operator& (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator^ (C++ function)
-@anchor{cp/topics/expressions xor-operator__gccjit rvalue gccjit rvalue}@anchor{142}
+@anchor{cp/topics/expressions xor-operator__gccjit rvalue gccjit rvalue}@anchor{147}
@deffn {C++ Function} gccjit::rvalue operator^ (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator| (C++ function)
-@anchor{cp/topics/expressions or-operator__gccjit rvalue gccjit rvalue}@anchor{143}
+@anchor{cp/topics/expressions or-operator__gccjit rvalue gccjit rvalue}@anchor{148}
@deffn {C++ Function} gccjit::rvalue operator| (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator&& (C++ function)
-@anchor{cp/topics/expressions sand-operator__gccjit rvalue gccjit rvalue}@anchor{144}
+@anchor{cp/topics/expressions sand-operator__gccjit rvalue gccjit rvalue}@anchor{149}
@deffn {C++ Function} gccjit::rvalue operator&& (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator|| (C++ function)
-@anchor{cp/topics/expressions sor-operator__gccjit rvalue gccjit rvalue}@anchor{145}
+@anchor{cp/topics/expressions sor-operator__gccjit rvalue gccjit rvalue}@anchor{14a}
@deffn {C++ Function} gccjit::rvalue operator|| (gccjit::rvalue a, gccjit::rvalue b)
@example
@end quotation
@node Comparisons<2>,Function calls<2>,Binary Operations<2>,Rvalues<2>
-@anchor{cp/topics/expressions comparisons}@anchor{146}
+@anchor{cp/topics/expressions comparisons}@anchor{14b}
@subsubsection Comparisons
@geindex gccjit;;context;;new_comparison (C++ function)
-@anchor{cp/topics/expressions gccjit context new_comparison__enum gccjit rvalue gccjit rvalue gccjit location}@anchor{e0}
+@anchor{cp/topics/expressions gccjit context new_comparison__enum gccjit rvalue gccjit rvalue gccjit location}@anchor{e5}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_comparison (enum gcc_jit_comparison, gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
Build a boolean rvalue out of the comparison of two other rvalues.
operation:
@geindex gccjit;;context;;new_eq (C++ function)
-@anchor{cp/topics/expressions gccjit context new_eq__gccjit rvalue gccjit rvalue gccjit location}@anchor{147}
+@anchor{cp/topics/expressions gccjit context new_eq__gccjit rvalue gccjit rvalue gccjit location}@anchor{14c}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_eq (gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_ne (C++ function)
-@anchor{cp/topics/expressions gccjit context new_ne__gccjit rvalue gccjit rvalue gccjit location}@anchor{148}
+@anchor{cp/topics/expressions gccjit context new_ne__gccjit rvalue gccjit rvalue gccjit location}@anchor{14d}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_ne (gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_lt (C++ function)
-@anchor{cp/topics/expressions gccjit context new_lt__gccjit rvalue gccjit rvalue gccjit location}@anchor{149}
+@anchor{cp/topics/expressions gccjit context new_lt__gccjit rvalue gccjit rvalue gccjit location}@anchor{14e}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_lt (gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_le (C++ function)
-@anchor{cp/topics/expressions gccjit context new_le__gccjit rvalue gccjit rvalue gccjit location}@anchor{14a}
+@anchor{cp/topics/expressions gccjit context new_le__gccjit rvalue gccjit rvalue gccjit location}@anchor{14f}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_le (gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_gt (C++ function)
-@anchor{cp/topics/expressions gccjit context new_gt__gccjit rvalue gccjit rvalue gccjit location}@anchor{14b}
+@anchor{cp/topics/expressions gccjit context new_gt__gccjit rvalue gccjit rvalue gccjit location}@anchor{150}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_gt (gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
@geindex gccjit;;context;;new_ge (C++ function)
-@anchor{cp/topics/expressions gccjit context new_ge__gccjit rvalue gccjit rvalue gccjit location}@anchor{14c}
+@anchor{cp/topics/expressions gccjit context new_ge__gccjit rvalue gccjit rvalue gccjit location}@anchor{151}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_ge (gccjit::rvalue a, gccjit::rvalue b, gccjit::location loc)
@end deffn
The most concise way to spell them is with overloaded operators:
@geindex operator== (C++ function)
-@anchor{cp/topics/expressions eq-operator__gccjit rvalue gccjit rvalue}@anchor{14d}
+@anchor{cp/topics/expressions eq-operator__gccjit rvalue gccjit rvalue}@anchor{152}
@deffn {C++ Function} gccjit::rvalue operator== (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator!= (C++ function)
-@anchor{cp/topics/expressions neq-operator__gccjit rvalue gccjit rvalue}@anchor{14e}
+@anchor{cp/topics/expressions neq-operator__gccjit rvalue gccjit rvalue}@anchor{153}
@deffn {C++ Function} gccjit::rvalue operator!= (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator< (C++ function)
-@anchor{cp/topics/expressions lt-operator__gccjit rvalue gccjit rvalue}@anchor{14f}
+@anchor{cp/topics/expressions lt-operator__gccjit rvalue gccjit rvalue}@anchor{154}
@deffn {C++ Function} gccjit::rvalue operator< (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator<= (C++ function)
-@anchor{cp/topics/expressions lte-operator__gccjit rvalue gccjit rvalue}@anchor{150}
+@anchor{cp/topics/expressions lte-operator__gccjit rvalue gccjit rvalue}@anchor{155}
@deffn {C++ Function} gccjit::rvalue operator<= (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator> (C++ function)
-@anchor{cp/topics/expressions gt-operator__gccjit rvalue gccjit rvalue}@anchor{151}
+@anchor{cp/topics/expressions gt-operator__gccjit rvalue gccjit rvalue}@anchor{156}
@deffn {C++ Function} gccjit::rvalue operator> (gccjit::rvalue a, gccjit::rvalue b)
@example
@end deffn
@geindex operator>= (C++ function)
-@anchor{cp/topics/expressions gte-operator__gccjit rvalue gccjit rvalue}@anchor{152}
+@anchor{cp/topics/expressions gte-operator__gccjit rvalue gccjit rvalue}@anchor{157}
@deffn {C++ Function} gccjit::rvalue operator>= (gccjit::rvalue a, gccjit::rvalue b)
@example
@c TODO: beyond this point
@node Function calls<2>,Type-coercion<2>,Comparisons<2>,Rvalues<2>
-@anchor{cp/topics/expressions function-calls}@anchor{153}
+@anchor{cp/topics/expressions function-calls}@anchor{158}
@subsubsection Function calls
@geindex gcc_jit_context_new_call (C++ function)
-@anchor{cp/topics/expressions gcc_jit_context_new_call__gcc_jit_contextP gcc_jit_locationP gcc_jit_functionP i gcc_jit_rvaluePP}@anchor{154}
+@anchor{cp/topics/expressions gcc_jit_context_new_call__gcc_jit_contextP gcc_jit_locationP gcc_jit_functionP i gcc_jit_rvaluePP}@anchor{159}
@deffn {C++ Function} gcc_jit_rvalue* gcc_jit_context_new_call (gcc_jit_context* ctxt, gcc_jit_location* loc, gcc_jit_function* func, int numargs, gcc_jit_rvalue** args)
Given a function and the given table of argument rvalues, construct a
@cartouche
@quotation Note
@code{gccjit::context::new_call()} merely builds a
-@pxref{121,,gccjit;;rvalue} i.e. an expression that can be evaluated,
+@pxref{126,,gccjit;;rvalue} i.e. an expression that can be evaluated,
perhaps as part of a more complicated expression.
The call @emph{won't} happen unless you add a statement to a function
that evaluates the expression.
For example, if you want to call a function and discard the result
(or to call a function with @code{void} return type), use
-@pxref{155,,gccjit;;block;;add_eval()}:
+@pxref{15a,,gccjit;;block;;add_eval()}:
@example
/* Add "(void)printf (arg0, arg1);". */
@end deffn
@node Type-coercion<2>,,Function calls<2>,Rvalues<2>
-@anchor{cp/topics/expressions type-coercion}@anchor{156}
+@anchor{cp/topics/expressions type-coercion}@anchor{15b}
@subsubsection Type-coercion
@geindex gccjit;;context;;new_cast (C++ function)
-@anchor{cp/topics/expressions gccjit context new_cast__gccjit rvalue gccjit type gccjit location}@anchor{157}
+@anchor{cp/topics/expressions gccjit context new_cast__gccjit rvalue gccjit type gccjit location}@anchor{15c}
@deffn {C++ Function} gccjit::rvalue gccjit::context::new_cast (gccjit::rvalue rvalue, gccjit::type type, gccjit::location loc)
Given an rvalue of T, construct another rvalue of another type.
@end deffn
@node Lvalues<2>,Working with pointers structs and unions<2>,Rvalues<2>,Expressions<2>
-@anchor{cp/topics/expressions lvalues}@anchor{158}
+@anchor{cp/topics/expressions lvalues}@anchor{15d}
@subsubsection Lvalues
@geindex gccjit;;lvalue (C++ class)
-@anchor{cp/topics/expressions gccjit lvalue}@anchor{159}
+@anchor{cp/topics/expressions gccjit lvalue}@anchor{15e}
@deffn {C++ Class} gccjit::lvalue
@end deffn
An lvalue is something that can of the @emph{left}-hand side of an assignment:
a storage area (such as a variable). It is a subclass of
-@pxref{121,,gccjit;;rvalue}, where the rvalue is computed by reading from the
+@pxref{126,,gccjit;;rvalue}, where the rvalue is computed by reading from the
storage area.
It iss a thin wrapper around @pxref{24,,gcc_jit_lvalue *} from the C API.
@geindex gccjit;;lvalue;;get_address (C++ function)
-@anchor{cp/topics/expressions gccjit lvalue get_address__gccjit location}@anchor{15a}
+@anchor{cp/topics/expressions gccjit lvalue get_address__gccjit location}@anchor{15f}
@deffn {C++ Function} gccjit::rvalue gccjit::lvalue::get_address (gccjit::location loc)
Take the address of an lvalue; analogous to:
@end menu
@node Global variables<2>,,,Lvalues<2>
-@anchor{cp/topics/expressions global-variables}@anchor{15b}
+@anchor{cp/topics/expressions global-variables}@anchor{160}
@subsubsection Global variables
@geindex gccjit;;context;;new_global (C++ function)
-@anchor{cp/topics/expressions gccjit context new_global__gccjit type cCP gccjit location}@anchor{15c}
-@deffn {C++ Function} gccjit::lvalue gccjit::context::new_global (gccjit::type type, const char* name, gccjit::location loc)
+@anchor{cp/topics/expressions gccjit context new_global__enum gccjit type cCP gccjit location}@anchor{161}
+@deffn {C++ Function} gccjit::lvalue gccjit::context::new_global (enum gcc_jit_global_kind, gccjit::type type, const char* name, gccjit::location loc)
Add a new global variable of the given type and name to the context.
+
+This is a thin wrapper around @pxref{a4,,gcc_jit_context_new_global()} from
+the C API; the "kind" parameter has the same meaning as there.
@end deffn
@node Working with pointers structs and unions<2>,,Lvalues<2>,Expressions<2>
-@anchor{cp/topics/expressions working-with-pointers-structs-and-unions}@anchor{15d}
+@anchor{cp/topics/expressions working-with-pointers-structs-and-unions}@anchor{162}
@subsubsection Working with pointers, structs and unions
@geindex gccjit;;rvalue;;dereference (C++ function)
-@anchor{cp/topics/expressions gccjit rvalue dereference__gccjit location}@anchor{15e}
+@anchor{cp/topics/expressions gccjit rvalue dereference__gccjit location}@anchor{163}
@deffn {C++ Function} gccjit::lvalue gccjit::rvalue::dereference (gccjit::location loc)
Given an rvalue of pointer type @code{T *}, dereferencing the pointer,
Field access is provided separately for both lvalues and rvalues:
@geindex gccjit;;lvalue;;access_field (C++ function)
-@anchor{cp/topics/expressions gccjit lvalue access_field__gccjit field gccjit location}@anchor{15f}
+@anchor{cp/topics/expressions gccjit lvalue access_field__gccjit field gccjit location}@anchor{164}
@deffn {C++ Function} gccjit::lvalue gccjit::lvalue::access_field (gccjit::field field, gccjit::location loc)
Given an lvalue of struct or union type, access the given field,
@end deffn
@geindex gccjit;;rvalue;;access_field (C++ function)
-@anchor{cp/topics/expressions gccjit rvalue access_field__gccjit field gccjit location}@anchor{160}
+@anchor{cp/topics/expressions gccjit rvalue access_field__gccjit field gccjit location}@anchor{165}
@deffn {C++ Function} gccjit::rvalue gccjit::rvalue::access_field (gccjit::field field, gccjit::location loc)
Given an rvalue of struct or union type, access the given field
@end deffn
@geindex gccjit;;rvalue;;dereference_field (C++ function)
-@anchor{cp/topics/expressions gccjit rvalue dereference_field__gccjit field gccjit location}@anchor{161}
+@anchor{cp/topics/expressions gccjit rvalue dereference_field__gccjit field gccjit location}@anchor{166}
@deffn {C++ Function} gccjit::lvalue gccjit::rvalue::dereference_field (gccjit::field field, gccjit::location loc)
Given an rvalue of pointer type @code{T *} where T is of struct or union
@end deffn
@geindex gccjit;;context;;new_array_access (C++ function)
-@anchor{cp/topics/expressions gccjit context new_array_access__gccjit rvalue gccjit rvalue gccjit location}@anchor{162}
+@anchor{cp/topics/expressions gccjit context new_array_access__gccjit rvalue gccjit rvalue gccjit location}@anchor{167}
@deffn {C++ Function} gccjit::lvalue gccjit::context::new_array_access (gccjit::rvalue ptr, gccjit::rvalue index, gccjit::location loc)
Given an rvalue of pointer type @code{T *}, get at the element @cite{T} at
Parameter "loc" is optional.
@end deffn
-For array accesses where you don't need to specify a @pxref{103,,gccjit;;location},
+For array accesses where you don't need to specify a @pxref{108,,gccjit;;location},
two overloaded operators are available:
@quotation
@c <http://www.gnu.org/licenses/>.
@node Creating and using functions<2>,Source Locations<2>,Expressions<2>,Topic Reference<2>
-@anchor{cp/topics/functions doc}@anchor{163}@anchor{cp/topics/functions creating-and-using-functions}@anchor{164}
+@anchor{cp/topics/functions doc}@anchor{168}@anchor{cp/topics/functions creating-and-using-functions}@anchor{169}
@subsection Creating and using functions
@end menu
@node Params<2>,Functions<2>,,Creating and using functions<2>
-@anchor{cp/topics/functions params}@anchor{165}
+@anchor{cp/topics/functions params}@anchor{16a}
@subsubsection Params
@geindex gccjit;;param (C++ class)
-@anchor{cp/topics/functions gccjit param}@anchor{166}
+@anchor{cp/topics/functions gccjit param}@anchor{16b}
@deffn {C++ Class} gccjit::param
A @cite{gccjit::param} represents a parameter to a function.
@end deffn
@geindex gccjit;;context;;new_param (C++ function)
-@anchor{cp/topics/functions gccjit context new_param__gccjit type cCP gccjit location}@anchor{d2}
+@anchor{cp/topics/functions gccjit context new_param__gccjit type cCP gccjit location}@anchor{d7}
@deffn {C++ Function} gccjit::param gccjit::context::new_param (gccjit::type type, const char* name, gccjit::location loc)
In preparation for creating a function, create a new parameter of the
given type and name.
@end deffn
-@pxref{166,,gccjit;;param} is a subclass of @pxref{159,,gccjit;;lvalue} (and thus
-of @pxref{121,,gccjit;;rvalue} and @pxref{10b,,gccjit;;object}). It is a thin
+@pxref{16b,,gccjit;;param} is a subclass of @pxref{15e,,gccjit;;lvalue} (and thus
+of @pxref{126,,gccjit;;rvalue} and @pxref{110,,gccjit;;object}). It is a thin
wrapper around the C API's @pxref{25,,gcc_jit_param *}.
@node Functions<2>,Blocks<2>,Params<2>,Creating and using functions<2>
-@anchor{cp/topics/functions functions}@anchor{167}
+@anchor{cp/topics/functions functions}@anchor{16c}
@subsubsection Functions
@geindex gccjit;;function (C++ class)
-@anchor{cp/topics/functions gccjit function}@anchor{168}
+@anchor{cp/topics/functions gccjit function}@anchor{16d}
@deffn {C++ Class} gccjit::function
A @cite{gccjit::function} represents a function - either one that we're
@end deffn
@geindex gccjit;;context;;get_builtin_function (C++ function)
-@anchor{cp/topics/functions gccjit context get_builtin_function__cCP}@anchor{169}
+@anchor{cp/topics/functions gccjit context get_builtin_function__cCP}@anchor{16e}
@deffn {C++ Function} gccjit::function gccjit::context::get_builtin_function (const char* name)
This is a wrapper around the C API's
-@pxref{b6,,gcc_jit_context_get_builtin_function()}.
+@pxref{bb,,gcc_jit_context_get_builtin_function()}.
@end deffn
@geindex gccjit;;function;;get_param (C++ function)
-@anchor{cp/topics/functions gccjit function get_param__iC}@anchor{16a}
+@anchor{cp/topics/functions gccjit function get_param__iC}@anchor{16f}
@deffn {C++ Function} gccjit::param gccjit::function::get_param (int index) const
Get the param of the given index (0-based).
@end deffn
@geindex gccjit;;function;;dump_to_dot (C++ function)
-@anchor{cp/topics/functions gccjit function dump_to_dot__cCP}@anchor{e5}
+@anchor{cp/topics/functions gccjit function dump_to_dot__cCP}@anchor{ea}
@deffn {C++ Function} void gccjit::function::dump_to_dot (const char* path)
Emit the function in graphviz format to the given path.
@end deffn
@geindex gccjit;;function;;new_local (C++ function)
-@anchor{cp/topics/functions gccjit function new_local__gccjit type cCP gccjit location}@anchor{dc}
+@anchor{cp/topics/functions gccjit function new_local__gccjit type cCP gccjit location}@anchor{e1}
@deffn {C++ Function} gccjit::lvalue gccjit::function::new_local (gccjit::type type, const char* name, gccjit::location loc)
Create a new local variable within the function, of the given type and
@end deffn
@node Blocks<2>,Statements<2>,Functions<2>,Creating and using functions<2>
-@anchor{cp/topics/functions blocks}@anchor{16b}
+@anchor{cp/topics/functions blocks}@anchor{170}
@subsubsection Blocks
@geindex gccjit;;block (C++ class)
-@anchor{cp/topics/functions gccjit block}@anchor{16c}
+@anchor{cp/topics/functions gccjit block}@anchor{171}
@deffn {C++ Class} gccjit::block
A @cite{gccjit::block} represents a basic block within a function i.e. a
sequence of statements with a single entry point and a single exit
point.
-@pxref{16c,,gccjit;;block} is a subclass of @pxref{10b,,gccjit;;object}.
+@pxref{171,,gccjit;;block} is a subclass of @pxref{110,,gccjit;;object}.
The first basic block that you create within a function will
be the entrypoint.
@end deffn
@geindex gccjit;;function;;new_block (C++ function)
-@anchor{cp/topics/functions gccjit function new_block__cCP}@anchor{16d}
+@anchor{cp/topics/functions gccjit function new_block__cCP}@anchor{172}
@deffn {C++ Function} gccjit::block gccjit::function::new_block (const char* name)
Create a basic block of the given name. The name may be NULL, but
@end deffn
@node Statements<2>,,Blocks<2>,Creating and using functions<2>
-@anchor{cp/topics/functions statements}@anchor{16e}
+@anchor{cp/topics/functions statements}@anchor{173}
@subsubsection Statements
@geindex gccjit;;block;;add_eval (C++ function)
-@anchor{cp/topics/functions gccjit block add_eval__gccjit rvalue gccjit location}@anchor{155}
+@anchor{cp/topics/functions gccjit block add_eval__gccjit rvalue gccjit location}@anchor{15a}
@deffn {C++ Function} void gccjit::block::add_eval (gccjit::rvalue rvalue, gccjit::location loc)
Add evaluation of an rvalue, discarding the result
@end deffn
@geindex gccjit;;block;;add_assignment (C++ function)
-@anchor{cp/topics/functions gccjit block add_assignment__gccjit lvalue gccjit rvalue gccjit location}@anchor{de}
+@anchor{cp/topics/functions gccjit block add_assignment__gccjit lvalue gccjit rvalue gccjit location}@anchor{e3}
@deffn {C++ Function} void gccjit::block::add_assignment (gccjit::lvalue lvalue, gccjit::rvalue rvalue, gccjit::location loc)
Add evaluation of an rvalue, assigning the result to the given
@end deffn
@geindex gccjit;;block;;add_assignment_op (C++ function)
-@anchor{cp/topics/functions gccjit block add_assignment_op__gccjit lvalue enum gccjit rvalue gccjit location}@anchor{e2}
+@anchor{cp/topics/functions gccjit block add_assignment_op__gccjit lvalue enum gccjit rvalue gccjit location}@anchor{e7}
@deffn {C++ Function} void gccjit::block::add_assignment_op (gccjit::lvalue lvalue, enum gcc_jit_binary_op, gccjit::rvalue rvalue, gccjit::location loc)
Add evaluation of an rvalue, using the result to modify an
@end deffn
@geindex gccjit;;block;;add_comment (C++ function)
-@anchor{cp/topics/functions gccjit block add_comment__cCP gccjit location}@anchor{ed}
+@anchor{cp/topics/functions gccjit block add_comment__cCP gccjit location}@anchor{f2}
@deffn {C++ Function} void gccjit::block::add_comment (const char* text, gccjit::location loc)
Add a no-op textual comment to the internal representation of the
@end deffn
@geindex gccjit;;block;;end_with_conditional (C++ function)
-@anchor{cp/topics/functions gccjit block end_with_conditional__gccjit rvalue gccjit block gccjit block gccjit location}@anchor{e1}
+@anchor{cp/topics/functions gccjit block end_with_conditional__gccjit rvalue gccjit block gccjit block gccjit location}@anchor{e6}
@deffn {C++ Function} void gccjit::block::end_with_conditional (gccjit::rvalue boolval, gccjit::block on_true, gccjit::block on_false, gccjit::location loc)
Terminate a block by adding evaluation of an rvalue, branching on the
@end deffn
@geindex gccjit;;block;;end_with_jump (C++ function)
-@anchor{cp/topics/functions gccjit block end_with_jump__gccjit block gccjit location}@anchor{16f}
+@anchor{cp/topics/functions gccjit block end_with_jump__gccjit block gccjit location}@anchor{174}
@deffn {C++ Function} void gccjit::block::end_with_jump (gccjit::block target, gccjit::location loc)
Terminate a block by adding a jump to the given target block.
@end deffn
@geindex gccjit;;block;;end_with_return (C++ function)
-@anchor{cp/topics/functions gccjit block end_with_return__gccjit rvalue gccjit location}@anchor{170}
+@anchor{cp/topics/functions gccjit block end_with_return__gccjit rvalue gccjit location}@anchor{175}
@deffn {C++ Function} void gccjit::block::end_with_return (gccjit::rvalue rvalue, gccjit::location loc)
Terminate a block.
@c <http://www.gnu.org/licenses/>.
@node Source Locations<2>,Compilation results<2>,Creating and using functions<2>,Topic Reference<2>
-@anchor{cp/topics/locations source-locations}@anchor{171}@anchor{cp/topics/locations doc}@anchor{172}
+@anchor{cp/topics/locations source-locations}@anchor{176}@anchor{cp/topics/locations doc}@anchor{177}
@subsection Source Locations
@geindex gccjit;;location (C++ class)
-@anchor{cp/topics/locations gccjit location}@anchor{103}
+@anchor{cp/topics/locations gccjit location}@anchor{108}
@deffn {C++ Class} gccjit::location
A @cite{gccjit::location} encapsulates a source code location, so that
@cite{gccjit::location} instances are optional: you can always omit them
from any C++ API entrypoint accepting one.
-You can construct them using @pxref{f1,,gccjit;;context;;new_location()}.
+You can construct them using @pxref{f6,,gccjit;;context;;new_location()}.
You need to enable @pxref{42,,GCC_JIT_BOOL_OPTION_DEBUGINFO} on the
-@pxref{fb,,gccjit;;context} for these locations to actually be usable by
+@pxref{100,,gccjit;;context} for these locations to actually be usable by
the debugger:
@example
@end deffn
@geindex gccjit;;context;;new_location (C++ function)
-@anchor{cp/topics/locations gccjit context new_location__cCP i i}@anchor{f1}
+@anchor{cp/topics/locations gccjit context new_location__cCP i i}@anchor{f6}
@deffn {C++ Function} gccjit::location gccjit::context::new_location (const char* filename, int line, int column)
Create a @cite{gccjit::location} instance representing the given source
@end menu
@node Faking it<2>,,,Source Locations<2>
-@anchor{cp/topics/locations faking-it}@anchor{173}
+@anchor{cp/topics/locations faking-it}@anchor{178}
@subsubsection Faking it
If you don't have source code for your internal representation, but need
to debug, you can generate a C-like representation of the functions in
-your context using @pxref{102,,gccjit;;context;;dump_to_file()}:
+your context using @pxref{107,,gccjit;;context;;dump_to_file()}:
@example
ctxt.dump_to_file ("/tmp/something.c",
@c <http://www.gnu.org/licenses/>.
@node Compilation results<2>,,Source Locations<2>,Topic Reference<2>
-@anchor{cp/topics/results compilation-results}@anchor{174}@anchor{cp/topics/results doc}@anchor{175}
+@anchor{cp/topics/results compilation-results}@anchor{179}@anchor{cp/topics/results doc}@anchor{17a}
@subsection Compilation results
@geindex gcc_jit_result (C++ type)
-@anchor{cp/topics/results gcc_jit_result}@anchor{176}
+@anchor{cp/topics/results gcc_jit_result}@anchor{17b}
@deffn {C++ Type} gcc_jit_result
A @cite{gcc_jit_result} encapsulates the result of compiling a context.
@end deffn
@geindex gccjit;;context;;compile (C++ function)
-@anchor{cp/topics/results gccjit context compile}@anchor{d4}
-@deffn {C++ Function} @pxref{176,,gcc_jit_result*} gccjit::context::compile ()
+@anchor{cp/topics/results gccjit context compile}@anchor{d9}
+@deffn {C++ Function} @pxref{17b,,gcc_jit_result*} gccjit::context::compile ()
This calls into GCC and builds the code, returning a
@cite{gcc_jit_result *}.
@end deffn
@geindex gcc_jit_result_get_code (C++ function)
-@anchor{cp/topics/results gcc_jit_result_get_code__gcc_jit_resultP cCP}@anchor{177}
+@anchor{cp/topics/results gcc_jit_result_get_code__gcc_jit_resultP cCP}@anchor{17c}
@deffn {C++ Function} void* gcc_jit_result_get_code (gcc_jit_result* result, const char* funcname)
Locate a given function within the built machine code.
@end deffn
@geindex gcc_jit_result_release (C++ function)
-@anchor{cp/topics/results gcc_jit_result_release__gcc_jit_resultP}@anchor{178}
+@anchor{cp/topics/results gcc_jit_result_release__gcc_jit_resultP}@anchor{17d}
@deffn {C++ Function} void gcc_jit_result_release (gcc_jit_result* result)
Once we're done with the code, this unloads the built .so file.
@c <http://www.gnu.org/licenses/>.
@node Internals,Indices and tables,C++ bindings for libgccjit,Top
-@anchor{internals/index internals}@anchor{179}@anchor{internals/index doc}@anchor{17a}
+@anchor{internals/index internals}@anchor{17e}@anchor{internals/index doc}@anchor{17f}
@chapter Internals
@end menu
@node Working on the JIT library,Running the test suite,,Internals
-@anchor{internals/index working-on-the-jit-library}@anchor{17b}
+@anchor{internals/index working-on-the-jit-library}@anchor{180}
@section Working on the JIT library
Here's what those configuration options mean:
@geindex command line option; --enable-host-shared
-@anchor{internals/index cmdoption--enable-host-shared}@anchor{17c}
+@anchor{internals/index cmdoption--enable-host-shared}@anchor{181}
@deffn {Option} --enable-host-shared
Configuring with this option means that the compiler is built as
@end deffn
@geindex command line option; --enable-languages=jit@comma{}c++
-@anchor{internals/index cmdoption--enable-languages}@anchor{17d}
+@anchor{internals/index cmdoption--enable-languages}@anchor{182}
@deffn {Option} --enable-languages=jit,c++
This specifies which frontends to build. The JIT library looks like
@end deffn
@geindex command line option; --disable-bootstrap
-@anchor{internals/index cmdoption--disable-bootstrap}@anchor{17e}
+@anchor{internals/index cmdoption--disable-bootstrap}@anchor{183}
@deffn {Option} --disable-bootstrap
For hacking on the "jit" subdirectory, performing a full
@end deffn
@geindex command line option; --enable-checking=release
-@anchor{internals/index cmdoption--enable-checking}@anchor{17f}
+@anchor{internals/index cmdoption--enable-checking}@anchor{184}
@deffn {Option} --enable-checking=release
The compile can perform extensive self-checking as it runs, useful when
@end deffn
@node Running the test suite,Environment variables,Working on the JIT library,Internals
-@anchor{internals/index running-the-test-suite}@anchor{180}
+@anchor{internals/index running-the-test-suite}@anchor{185}
@section Running the test suite
@end menu
@node Running under valgrind,,,Running the test suite
-@anchor{internals/index running-under-valgrind}@anchor{181}
+@anchor{internals/index running-under-valgrind}@anchor{186}
@subsection Running under valgrind
various known false positives.
@node Environment variables,Overview of code structure,Running the test suite,Internals
-@anchor{internals/index environment-variables}@anchor{182}
+@anchor{internals/index environment-variables}@anchor{187}
@section Environment variables
environment variables need to be set up:
@geindex environment variable; LD_LIBRARY_PATH
-@anchor{internals/index envvar-LD_LIBRARY_PATH}@anchor{183}
+@anchor{internals/index envvar-LD_LIBRARY_PATH}@anchor{188}
@deffn {Environment Variable} LD_LIBRARY_PATH
@quotation
@end deffn
@geindex environment variable; PATH
-@anchor{internals/index envvar-PATH}@anchor{184}
+@anchor{internals/index envvar-PATH}@anchor{189}
@deffn {Environment Variable} PATH
The library uses a driver executable for converting from .s assembler
@end deffn
@geindex environment variable; LIBRARY_PATH
-@anchor{internals/index envvar-LIBRARY_PATH}@anchor{185}
+@anchor{internals/index envvar-LIBRARY_PATH}@anchor{18a}
@deffn {Environment Variable} LIBRARY_PATH
The driver executable invokes the linker, and the latter needs to locate
@noindent
@node Overview of code structure,,Environment variables,Internals
-@anchor{internals/index overview-of-code-structure}@anchor{186}
+@anchor{internals/index overview-of-code-structure}@anchor{18b}
@section Overview of code structure
@noindent
@node Indices and tables,Index,Internals,Top
-@anchor{index indices-and-tables}@anchor{187}
+@anchor{index indices-and-tables}@anchor{18c}
@unnumbered Indices and tables
projects / gcc.git / commitdiff