#define INSNS_PER_CALL 10
-static void cgraph_expand_functions (void);
+static void cgraph_expand_all_functions (void);
static void cgraph_mark_functions_to_output (void);
static void cgraph_expand_function (struct cgraph_node *);
static tree record_call_1 (tree *, int *, void *);
static void cgraph_optimize_function (struct cgraph_node *);
static bool cgraph_default_inline_p (struct cgraph_node *n);
static void cgraph_analyze_function (struct cgraph_node *node);
+static void cgraph_decide_inlining_incrementally (struct cgraph_node *);
/* Statistics we collect about inlining algorithm. */
static int ncalls_inlined;
/* "extern inline" functions are never output locally. */
if (DECL_EXTERNAL (decl))
return false;
- /* ??? */
- if (node->origin)
+ /* We want to emit COMDAT functions only when absolutely necessary. */
+ if (DECL_COMDAT (decl))
return false;
if (!DECL_INLINE (decl)
|| (!node->local.disregard_inline_limits
/* When declared inline, defer even the uninlinable functions.
- This allows them to be elliminated when unused. */
+ This allows them to be eliminated when unused. */
&& !DECL_DECLARED_INLINE_P (decl)
- && (node->local.inlinable || !cgraph_default_inline_p (node))))
+ && (!node->local.inlinable || !cgraph_default_inline_p (node))))
return true;
return false;
}
-/* Analyze function once it is parsed. Set up the local information
- available - create cgraph edges for function calls via BODY. */
+/* When not doing unit-at-a-time, output all functions enqueued.
+ Return true when such a functions were found. */
+
+bool
+cgraph_assemble_pending_functions (void)
+{
+ bool output = false;
+
+ if (flag_unit_at_a_time)
+ return false;
+
+ while (cgraph_nodes_queue)
+ {
+ struct cgraph_node *n = cgraph_nodes_queue;
+
+ cgraph_nodes_queue = cgraph_nodes_queue->next_needed;
+ if (!n->origin && !DECL_EXTERNAL (n->decl))
+ {
+ cgraph_expand_function (n);
+ output = true;
+ }
+ }
+
+ return output;
+}
+
+/* DECL has been parsed. Take it, queue it, compile it at the whim of the
+ logic in effect. If NESTED is true, then our caller cannot stand to have
+ the garbage collector run at the moment. We would need to either create
+ a new GC context, or just not compile right now. */
void
-cgraph_finalize_function (tree decl, tree body ATTRIBUTE_UNUSED)
+cgraph_finalize_function (tree decl, bool nested)
{
struct cgraph_node *node = cgraph_node (decl);
+ if (node->local.finalized)
+ {
+ /* As an GCC extension we allow redefinition of the function. The
+ semantics when both copies of bodies differ is not well defined.
+ We replace the old body with new body so in unit at a time mode
+ we always use new body, while in normal mode we may end up with
+ old body inlined into some functions and new body expanded and
+ inlined in others.
+
+ ??? It may make more sense to use one body for inlining and other
+ body for expanding the function but this is difficult to do. */
+
+ /* If node->output is set, then this is a unit-at-a-time compilation
+ and we have already begun whole-unit analysis. This is *not*
+ testing for whether we've already emitted the function. That
+ case can be sort-of legitimately seen with real function
+ redefinition errors. I would argue that the front end should
+ never present us with such a case, but don't enforce that for now. */
+ if (node->output)
+ abort ();
+
+ /* Reset our datastructures so we can analyze the function again. */
+ memset (&node->local, 0, sizeof (node->local));
+ memset (&node->global, 0, sizeof (node->global));
+ memset (&node->rtl, 0, sizeof (node->rtl));
+ node->analyzed = false;
+ while (node->callees)
+ cgraph_remove_edge (node, node->callees->callee);
+
+ /* We may need to re-queue the node for assembling in case
+ we already proceeded it and ignored as not needed. */
+ if (node->reachable && !flag_unit_at_a_time)
+ {
+ struct cgraph_node *n;
+
+ for (n = cgraph_nodes_queue; n; n = n->next_needed)
+ if (n == node)
+ break;
+ if (!n)
+ node->reachable = 0;
+ }
+ }
+
+ notice_global_symbol (decl);
node->decl = decl;
node->local.finalized = true;
/* If not unit at a time, then we need to create the call graph
now, so that called functions can be queued and emitted now. */
if (!flag_unit_at_a_time)
- cgraph_analyze_function (node);
+ {
+ cgraph_analyze_function (node);
+ cgraph_decide_inlining_incrementally (node);
+ }
if (decide_is_function_needed (node, decl))
cgraph_mark_needed_node (node);
- /* If not unit at a time, go ahead and emit everything we've
- found to be reachable at this time. */
- if (!flag_unit_at_a_time)
- while (cgraph_nodes_queue)
- {
- struct cgraph_node *n = cgraph_nodes_queue;
- cgraph_nodes_queue = cgraph_nodes_queue->next_needed;
- if (!n->origin)
- cgraph_expand_function (n);
- }
+ /* If not unit at a time, go ahead and emit everything we've found
+ to be reachable at this time. */
+ if (!nested)
+ cgraph_assemble_pending_functions ();
/* If we've not yet emitted decl, tell the debug info about it. */
- if (flag_unit_at_a_time || !node->reachable)
+ if (!TREE_ASM_WRITTEN (decl))
(*debug_hooks->deferred_inline_function) (decl);
}
static tree
record_call_1 (tree *tp, int *walk_subtrees, void *data)
{
- if (TREE_CODE (*tp) == VAR_DECL && TREE_STATIC (*tp))
- cgraph_varpool_mark_needed_node (cgraph_varpool_node (*tp));
- /* Record dereferences to the functions. This makes the functions
- reachable unconditionally. */
- else if (TREE_CODE (*tp) == ADDR_EXPR)
- {
- tree decl = TREE_OPERAND (*tp, 0);
- if (TREE_CODE (decl) == FUNCTION_DECL)
- cgraph_mark_needed_node (cgraph_node (decl));
- }
- else if (TREE_CODE (*tp) == CALL_EXPR)
+ tree t = *tp;
+
+ switch (TREE_CODE (t))
{
- tree decl = get_callee_fndecl (*tp);
- if (decl && TREE_CODE (decl) == FUNCTION_DECL)
+ case VAR_DECL:
+ /* ??? Really, we should mark this decl as *potentially* referenced
+ by this function and re-examine whether the decl is actually used
+ after rtl has been generated. */
+ if (TREE_STATIC (t))
+ cgraph_varpool_mark_needed_node (cgraph_varpool_node (t));
+ break;
+
+ case ADDR_EXPR:
+ if (flag_unit_at_a_time)
+ {
+ /* Record dereferences to the functions. This makes the
+ functions reachable unconditionally. */
+ tree decl = TREE_OPERAND (*tp, 0);
+ if (TREE_CODE (decl) == FUNCTION_DECL)
+ cgraph_mark_needed_node (cgraph_node (decl));
+ }
+ break;
+
+ case CALL_EXPR:
+ {
+ tree decl = get_callee_fndecl (*tp);
+ if (decl && TREE_CODE (decl) == FUNCTION_DECL)
+ {
+ if (DECL_BUILT_IN (decl))
+ return NULL;
+ cgraph_record_call (data, decl);
+
+ /* When we see a function call, we don't want to look at the
+ function reference in the ADDR_EXPR that is hanging from
+ the CALL_EXPR we're examining here, because we would
+ conclude incorrectly that the function's address could be
+ taken by something that is not a function call. So only
+ walk the function parameter list, skip the other subtrees. */
+
+ walk_tree (&TREE_OPERAND (*tp, 1), record_call_1, data,
+ visited_nodes);
+ *walk_subtrees = 0;
+ }
+ break;
+ }
+
+ default:
+ /* Save some cycles by not walking types and declaration as we
+ won't find anything useful there anyway. */
+ if (DECL_P (*tp) || TYPE_P (*tp))
{
- if (DECL_BUILT_IN (decl))
- return NULL;
- cgraph_record_call (data, decl);
-
- /* When we see a function call, we don't want to look at the
- function reference in the ADDR_EXPR that is hanging from
- the CALL_EXPR we're examining here, because we would
- conclude incorrectly that the function's address could be
- taken by something that is not a function call. So only
- walk the function parameter list, skip the other subtrees. */
-
- walk_tree (&TREE_OPERAND (*tp, 1), record_call_1, data,
- visited_nodes);
*walk_subtrees = 0;
+ break;
}
+
+ if ((unsigned int) TREE_CODE (t) >= LAST_AND_UNUSED_TREE_CODE)
+ return (*lang_hooks.callgraph.analyze_expr) (tp, walk_subtrees, data);
+ break;
}
- /* Save some cycles by not walking types and declaration as we won't find anything
- usefull there anyway. */
- if (DECL_P (*tp) || TYPE_P (*tp))
- *walk_subtrees = 0;
+
return NULL;
}
{
tree decl = node->decl;
- if (lang_hooks.callgraph.lower_function)
- (*lang_hooks.callgraph.lower_function) (decl);
-
- current_function_decl = node->decl;
+ current_function_decl = decl;
/* First kill forward declaration so reverse inlining works properly. */
cgraph_create_edges (decl, DECL_SAVED_TREE (decl));
/* Inlining characteristics are maintained by the cgraph_mark_inline. */
node->global.insns = node->local.self_insns;
- if (!DECL_EXTERNAL (node->decl))
+ if (!DECL_EXTERNAL (decl))
{
node->global.cloned_times = 1;
node->global.will_be_output = true;
}
- node->lowered = true;
+ node->analyzed = true;
+ current_function_decl = NULL;
}
/* Analyze the whole compilation unit once it is parsed completely. */
struct cgraph_node *node;
if (!flag_unit_at_a_time)
- return;
+ {
+ cgraph_assemble_pending_functions ();
+ return;
+ }
cgraph_varpool_assemble_pending_decls ();
if (!quiet_flag)
timevar_push (TV_CGRAPH);
if (cgraph_dump_file)
{
- fprintf (cgraph_dump_file, "\nInitial entry points:");
+ fprintf (cgraph_dump_file, "Initial entry points:");
for (node = cgraph_nodes; node; node = node->next)
if (node->needed && DECL_SAVED_TREE (node->decl))
fprintf (cgraph_dump_file, " %s", cgraph_node_name (node));
node = cgraph_nodes_queue;
cgraph_nodes_queue = cgraph_nodes_queue->next_needed;
- if (node->lowered || !node->reachable || !DECL_SAVED_TREE (decl))
+ /* ??? It is possible to create extern inline function and later using
+ weak alas attribute to kill it's body. See
+ gcc.c-torture/compile/20011119-1.c */
+ if (!DECL_SAVED_TREE (decl))
+ continue;
+
+ if (node->analyzed || !node->reachable || !DECL_SAVED_TREE (decl))
abort ();
cgraph_analyze_function (node);
if (cgraph_dump_file)
{
- fprintf (cgraph_dump_file, "\nUnit entry points:");
+ fprintf (cgraph_dump_file, "Unit entry points:");
for (node = cgraph_nodes; node; node = node->next)
if (node->needed && DECL_SAVED_TREE (node->decl))
fprintf (cgraph_dump_file, " %s", cgraph_node_name (node));
- fprintf (cgraph_dump_file, "\n");
+ fprintf (cgraph_dump_file, "\n\nInitial ");
dump_cgraph (cgraph_dump_file);
}
}
}
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "\n");
+ {
+ fprintf (cgraph_dump_file, "\n\nReclaimed ");
+ dump_cgraph (cgraph_dump_file);
+ }
ggc_collect ();
timevar_pop (TV_CGRAPH);
}
cgraph_expand_function (struct cgraph_node *node)
{
tree decl = node->decl;
- struct cgraph_edge *e;
- announce_function (decl);
+ if (flag_unit_at_a_time)
+ announce_function (decl);
cgraph_optimize_function (node);
via lang_expand_decl_stmt. */
(*lang_hooks.callgraph.expand_function) (decl);
- if (!flag_unit_at_a_time)
- {
- if (!node->local.inlinable
- || (!node->local.disregard_inline_limits
- && !cgraph_default_inline_p (node)))
- DECL_SAVED_TREE (node->decl) = NULL;
- }
- else
- {
- for (e = node->callers; e; e = e->next_caller)
- if (e->inline_call)
- break;
- if (!e)
- DECL_SAVED_TREE (decl) = NULL;
- }
+ if (!cgraph_function_possibly_inlined_p (decl))
+ DECL_SAVED_TREE (decl) = NULL;
current_function_decl = NULL;
}
if (cgraph_dump_file)
{
- fprintf (cgraph_dump_file, "Found inline predecesors of %s:",
+ fprintf (cgraph_dump_file, " Found inline predecesors of %s:",
cgraph_node_name (node));
for (i = 0; i < nfound; i++)
{
if (cgraph_dump_file)
{
- fprintf (cgraph_dump_file, "Found inline successors of %s:",
+ fprintf (cgraph_dump_file, " Found inline successors of %s:",
cgraph_node_name (node));
for (i = 0; i < nfound; i++)
{
cgraph_estimate_size_after_inlining (int times, struct cgraph_node *to,
struct cgraph_node *what)
{
- return (what->global.insns - INSNS_PER_CALL) *times + to->global.insns;
+ return (what->global.insns - INSNS_PER_CALL) * times + to->global.insns;
}
/* Estimate the growth caused by inlining NODE into all callees. */
bool called = false;
int new_insns;
+ what->global.inlined = 1;
for (e = what->callers; e; e = e->next_caller)
{
if (e->caller == to)
to->global.insns = new_insns;
if (!called && !what->needed && !what->origin
+ && flag_unit_at_a_time
&& !DECL_EXTERNAL (what->decl))
{
if (!what->global.will_be_output)
return true;
}
-/* Return true when function N is small enought to be inlined. */
+/* Return true when function N is small enough to be inlined. */
static bool
cgraph_default_inline_p (struct cgraph_node *n)
All inline candidates are put into prioritized heap based on estimated
growth of the overall number of instructions and then update the estimates.
- INLINED and INLINED_CALEES are just pointers to arrays large enought
+ INLINED and INLINED_CALEES are just pointers to arrays large enough
to be passed to cgraph_inlined_into and cgraph_inlined_callees. */
static void
}
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "\n\nDeciding on inlining: ");
+ fprintf (cgraph_dump_file, "\nDeciding on smaller functions:\n");
while ((node = fibheap_extract_min (heap)) && overall_insns <= max_insns)
{
struct cgraph_edge *e;
heap_node[node->uid] = NULL;
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "Considering %s %i insns, growth %i.\n",
+ fprintf (cgraph_dump_file,
+ "\nConsidering %s with %i insns\n"
+ " Estimated growth is %+i insns.\n",
cgraph_node_name (node), node->global.insns,
cgraph_estimate_growth (node));
if (!cgraph_default_inline_p (node))
{
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "Function too large.\n");
+ fprintf (cgraph_dump_file, " Function too large.\n");
continue;
}
ninlined_callees = cgraph_inlined_callees (node, inlined_callees);
for (i = 0; i < ninlined; i++)
inlined[i]->output = 0, node->aux = 0;
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "Not inlining into %s\n",
+ fprintf (cgraph_dump_file, " Not inlining into %s.\n",
cgraph_node_name (e->caller));
continue;
}
fibheap_replace_key (heap, heap_node[inlined[i]->uid],
cgraph_estimate_growth (inlined[i]));
}
+ if (cgraph_dump_file)
+ fprintf (cgraph_dump_file,
+ " Inlined into %s which now has %i insns.\n",
+ cgraph_node_name (e->caller),
+ e->caller->global.insns);
+
}
- /* Similarly all functions called by function we just inlined
+ /* Similarly all functions called by the function we just inlined
are now called more times; update keys. */
for (e = node->callees; e; e = e->next_callee)
inlined_callees[i]->output = 0, node->aux = 0;
}
if (cgraph_dump_file)
- fprintf (cgraph_dump_file,
- "Created %i clones, Num insns:%i (%+i), %.2f%%.\n\n",
- node->global.cloned_times - 1,
- overall_insns, overall_insns - old_insns,
- overall_insns * 100.0 / initial_insns);
+ fprintf (cgraph_dump_file,
+ " Inlined %i times for a net change of %+i insns.\n",
+ node->global.cloned_times, overall_insns - old_insns);
}
if (cgraph_dump_file && !fibheap_empty (heap))
- fprintf (cgraph_dump_file, "inline-unit-growth limit reached.\n");
+ fprintf (cgraph_dump_file, "\nReached the inline-unit-growth limit.\n");
fibheap_delete (heap);
free (heap_node);
}
xcalloc (cgraph_n_nodes, sizeof (struct cgraph_node *));
int ninlined;
int ninlined_callees;
+ int old_insns = 0;
int i, y;
for (node = cgraph_nodes; node; node = node->next)
nnodes = cgraph_postorder (order);
+ if (cgraph_dump_file)
+ fprintf (cgraph_dump_file,
+ "\nDeciding on inlining. Starting with %i insns.\n",
+ initial_insns);
+
for (node = cgraph_nodes; node; node = node->next)
node->aux = 0;
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "\n\nDeciding on always_inline functions:\n");
+ fprintf (cgraph_dump_file, "\nInlining always_inline functions:\n");
/* In the first pass mark all always_inline edges. Do this with a priority
- so no our decisions makes this impossible. */
+ so none of our later choices will make this impossible. */
for (i = nnodes - 1; i >= 0; i--)
{
struct cgraph_edge *e;
continue;
if (cgraph_dump_file)
fprintf (cgraph_dump_file,
- "Considering %s %i insns (always inline)\n",
- cgraph_node_name (node), node->global.insns);
+ "\nConsidering %s %i insns (always inline)\n",
+ cgraph_node_name (e->callee), e->callee->global.insns);
ninlined = cgraph_inlined_into (order[i], inlined);
for (; e; e = e->next_callee)
{
+ old_insns = overall_insns;
if (e->inline_call || !e->callee->local.disregard_inline_limits)
continue;
if (e->callee->output || e->callee == node)
for (y = 0; y < ninlined_callees; y++)
inlined_callees[y]->output = 0, node->aux = 0;
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "Inlined %i times. Now %i insns\n\n",
- node->global.cloned_times, overall_insns);
+ fprintf (cgraph_dump_file,
+ " Inlined into %s which now has %i insns.\n",
+ cgraph_node_name (node->callees->caller),
+ node->callees->caller->global.insns);
}
+ if (cgraph_dump_file && node->global.cloned_times > 0)
+ fprintf (cgraph_dump_file,
+ " Inlined %i times for a net change of %+i insns.\n",
+ node->global.cloned_times, overall_insns - old_insns);
for (y = 0; y < ninlined; y++)
inlined[y]->output = 0, node->aux = 0;
}
cgraph_decide_inlining_of_small_functions (inlined, inlined_callees);
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "\n\nFunctions to inline once:\n");
+ fprintf (cgraph_dump_file, "\nDeciding on functions called once:\n");
/* And finally decide what functions are called once. */
{
if (cgraph_dump_file)
fprintf (cgraph_dump_file,
- "Considering %s %i insns (called once)\n",
- cgraph_node_name (node), node->global.insns);
+ "\nConsidering %s %i insns.\n"
+ " Called once from %s %i insns.\n",
+ cgraph_node_name (node), node->global.insns,
+ cgraph_node_name (node->callers->caller),
+ node->callers->caller->global.insns);
ninlined = cgraph_inlined_into (node->callers->caller, inlined);
+ old_insns = overall_insns;
if (cgraph_check_inline_limits
(node->callers->caller, node, inlined, ninlined))
{
for (y = 0; y < ninlined_callees; y++)
inlined_callees[y]->output = 0, node->aux = 0;
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "Inlined. Now %i insns\n\n", overall_insns);
+ fprintf (cgraph_dump_file,
+ " Inlined into %s which now has %i insns"
+ " for a net change of %+i insns.\n",
+ cgraph_node_name (node->callers->caller),
+ node->callers->caller->global.insns,
+ overall_insns - old_insns);
}
+ else
+ {
+ if (cgraph_dump_file)
+ fprintf (cgraph_dump_file,
+ " Inline limit reached, not inlined.\n");
+ }
for (y = 0; y < ninlined; y++)
inlined[y]->output = 0, node->aux = 0;
}
if (cgraph_dump_file)
fprintf (cgraph_dump_file,
- "\nInlined %i calls, elliminated %i functions, %i insns turned to %i insns.\n",
+ "\nInlined %i calls, eliminated %i functions, "
+ "%i insns turned to %i insns.\n\n",
ncalls_inlined, nfunctions_inlined, initial_insns,
overall_insns);
free (order);
free (inlined_callees);
}
+/* Decide on the inlining. We do so in the topological order to avoid
+ expenses on updating datastructures. */
+
+static void
+cgraph_decide_inlining_incrementally (struct cgraph_node *node)
+{
+ struct cgraph_edge *e;
+ struct cgraph_node **inlined =
+ xmalloc (sizeof (struct cgraph_node *) * cgraph_n_nodes);
+ struct cgraph_node **inlined_callees =
+ xmalloc (sizeof (struct cgraph_node *) * cgraph_n_nodes);
+ int ninlined;
+ int ninlined_callees;
+ int y;
+
+ ninlined = cgraph_inlined_into (node, inlined);
+
+ /* First of all look for always inline functions. */
+ for (e = node->callees; e; e = e->next_callee)
+ if (e->callee->local.disregard_inline_limits && !e->callee->output
+ && e->callee != node && !e->inline_call)
+ {
+ ninlined_callees = cgraph_inlined_callees (e->callee, inlined_callees);
+ cgraph_mark_inline (node, e->callee, inlined, ninlined,
+ inlined_callees, ninlined_callees);
+ for (y = 0; y < ninlined_callees; y++)
+ inlined_callees[y]->output = 0, node->aux = 0;
+ }
+
+ /* Now do the automatic inlining. */
+ for (e = node->callees; e; e = e->next_callee)
+ if (e->callee->local.inlinable && !e->callee->output
+ && e->callee != node && !e->inline_call
+ && cgraph_default_inline_p (e->callee)
+ && cgraph_check_inline_limits (node, e->callee, inlined,
+ ninlined))
+ {
+ ninlined_callees = cgraph_inlined_callees (e->callee, inlined_callees);
+ cgraph_mark_inline (node, e->callee, inlined, ninlined,
+ inlined_callees, ninlined_callees);
+ for (y = 0; y < ninlined_callees; y++)
+ inlined_callees[y]->output = 0, node->aux = 0;
+ }
+
+ /* Clear the flags set by cgraph_inlined_into. */
+ for (y = 0; y < ninlined; y++)
+ inlined[y]->output = 0, node->aux = 0;
+
+ free (inlined);
+ free (inlined_callees);
+}
+
+
/* Return true when CALLER_DECL should be inlined into CALLEE_DECL. */
bool
order). */
static void
-cgraph_expand_functions (void)
+cgraph_expand_all_functions (void)
{
struct cgraph_node *node;
struct cgraph_node **order =
struct cgraph_node *node;
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "Marking local functions:");
+ fprintf (cgraph_dump_file, "\nMarking local functions:");
/* Figure out functions we want to assemble. */
for (node = cgraph_nodes; node; node = node->next)
fprintf (cgraph_dump_file, " %s", cgraph_node_name (node));
}
if (cgraph_dump_file)
- fprintf (cgraph_dump_file, "\n");
+ fprintf (cgraph_dump_file, "\n\n");
}
/* Perform simple optimizations based on callgraph. */
timevar_push (TV_CGRAPHOPT);
if (!quiet_flag)
fprintf (stderr, "Performing intraprocedural optimizations\n");
+
+ cgraph_mark_local_functions ();
if (cgraph_dump_file)
{
- fprintf (cgraph_dump_file, "Initial callgraph:");
+ fprintf (cgraph_dump_file, "Marked ");
dump_cgraph (cgraph_dump_file);
}
- cgraph_mark_local_functions ();
cgraph_decide_inlining ();
-
cgraph_global_info_ready = true;
if (cgraph_dump_file)
{
- fprintf (cgraph_dump_file, "Optimized callgraph:");
+ fprintf (cgraph_dump_file, "Optimized ");
dump_cgraph (cgraph_dump_file);
}
timevar_pop (TV_CGRAPHOPT);
- if (!quiet_flag)
- fprintf (stderr, "Assembling functions:");
/* Output everything. */
- cgraph_expand_functions ();
+ if (!quiet_flag)
+ fprintf (stderr, "Assembling functions:\n");
+ cgraph_expand_all_functions ();
if (cgraph_dump_file)
{
- fprintf (cgraph_dump_file, "Final callgraph:");
+ fprintf (cgraph_dump_file, "\nFinal ");
dump_cgraph (cgraph_dump_file);
}
}
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