(opts_for_fn (caller->decl)->x_##flag \
!= opts_for_fn (callee->decl)->x_##flag)
- /* Decide if we can inline the edge and possibly update
+/* Decide if we can inline the edge and possibly update
inline_failed reason.
We check whether inlining is possible at all and whether
caller growth limits allow doing so.
- if REPORT is true, output reason to the dump file.
-
- if DISREGARD_LIMITS is true, ignore size limits.*/
+ if REPORT is true, output reason to the dump file. */
static bool
can_inline_edge_p (struct cgraph_edge *e, bool report,
- bool disregard_limits = false, bool early = false)
+ bool early = false)
{
gcc_checking_assert (e->inline_failed);
cgraph_node *caller = e->caller->global.inlined_to
? e->caller->global.inlined_to : e->caller;
cgraph_node *callee = e->callee->ultimate_alias_target (&avail, caller);
- tree caller_tree = DECL_FUNCTION_SPECIFIC_OPTIMIZATION (caller->decl);
- tree callee_tree
- = callee ? DECL_FUNCTION_SPECIFIC_OPTIMIZATION (callee->decl) : NULL;
if (!callee->definition)
{
e->inline_failed = CIF_ATTRIBUTE_MISMATCH;
inlinable = false;
}
+ if (!inlinable && report)
+ report_inline_failed_reason (e);
+ return inlinable;
+}
+
+/* Decide if we can inline the edge and possibly update
+ inline_failed reason.
+ We check whether inlining is possible at all and whether
+ caller growth limits allow doing so.
+
+ if REPORT is true, output reason to the dump file.
+
+ if DISREGARD_LIMITS is true, ignore size limits. */
+
+static bool
+can_inline_edge_by_limits_p (struct cgraph_edge *e, bool report,
+ bool disregard_limits = false, bool early = false)
+{
+ gcc_checking_assert (e->inline_failed);
+
+ if (cgraph_inline_failed_type (e->inline_failed) == CIF_FINAL_ERROR)
+ {
+ if (report)
+ report_inline_failed_reason (e);
+ return false;
+ }
+
+ bool inlinable = true;
+ enum availability avail;
+ cgraph_node *caller = e->caller->global.inlined_to
+ ? e->caller->global.inlined_to : e->caller;
+ cgraph_node *callee = e->callee->ultimate_alias_target (&avail, caller);
+ tree caller_tree = DECL_FUNCTION_SPECIFIC_OPTIMIZATION (caller->decl);
+ tree callee_tree
+ = callee ? DECL_FUNCTION_SPECIFIC_OPTIMIZATION (callee->decl) : NULL;
/* Check if caller growth allows the inlining. */
- else if (!DECL_DISREGARD_INLINE_LIMITS (callee->decl)
- && !disregard_limits
- && !lookup_attribute ("flatten",
- DECL_ATTRIBUTES (caller->decl))
- && !caller_growth_limits (e))
+ if (!DECL_DISREGARD_INLINE_LIMITS (callee->decl)
+ && !disregard_limits
+ && !lookup_attribute ("flatten",
+ DECL_ATTRIBUTES (caller->decl))
+ && !caller_growth_limits (e))
inlinable = false;
/* Don't inline a function with a higher optimization level than the
caller. FIXME: this is really just tip of iceberg of handling
fprintf (dump_file, " edge not inlinable: not in SSA form\n");
return false;
}
- if (!can_inline_edge_p (e, true, false, true))
+ if (!can_inline_edge_p (e, true, true)
+ || !can_inline_edge_by_limits_p (e, true, false, true))
return false;
return true;
}
return true;
if (e->recursive_p ())
return true;
+ if (!can_inline_edge_by_limits_p (e, true))
+ return true;
if (!(*(bool *)has_hot_call) && e->maybe_hot_p ())
*(bool *)has_hot_call = true;
}
if (!check_inlinablity_for
|| check_inlinablity_for == edge)
{
- if (want_inline_small_function_p (edge, false)
- && can_inline_edge_p (edge, false))
+ if (can_inline_edge_p (edge, false)
+ && want_inline_small_function_p (edge, false)
+ && can_inline_edge_by_limits_p (edge, false))
update_edge_key (heap, edge);
else if (edge->aux)
{
&& avail >= AVAIL_AVAILABLE
&& !bitmap_bit_p (updated_nodes, callee->uid))
{
- if (want_inline_small_function_p (e, false)
- && can_inline_edge_p (e, false))
+ if (can_inline_edge_p (e, false)
+ && want_inline_small_function_p (e, false)
+ && can_inline_edge_by_limits_p (e, false))
update_edge_key (heap, e);
else if (e->aux)
{
struct cgraph_edge *curr = heap.extract_min ();
struct cgraph_node *cnode, *dest = curr->callee;
- if (!can_inline_edge_p (curr, true))
+ if (!can_inline_edge_p (curr, true)
+ || can_inline_edge_by_limits_p (curr, true))
continue;
/* MASTER_CLONE is produced in the case we already started modified
gcc_assert (!edge->aux);
if (edge->inline_failed
&& can_inline_edge_p (edge, true)
- && want_inline_small_function_p (edge, true))
+ && want_inline_small_function_p (edge, true)
+ && can_inline_edge_by_limits_p (edge, true))
edge->aux = heap->insert (edge_badness (edge, false), edge);
}
}
if (!anticipate_inlining && e->inline_failed && !target->local.local)
return false;
/* For overwritable targets there is not much to do. */
- if (e->inline_failed && !can_inline_edge_p (e, false, true))
+ if (e->inline_failed
+ && (!can_inline_edge_p (e, false)
+ || !can_inline_edge_by_limits_p (e, false, true)))
return false;
/* OK, speculation seems interesting. */
return true;
&& !edge->aux
&& can_inline_edge_p (edge, true)
&& want_inline_small_function_p (edge, true)
+ && can_inline_edge_by_limits_p (edge, true)
&& edge->inline_failed)
{
gcc_assert (!edge->aux);
badness = current_badness;
}
- if (!can_inline_edge_p (edge, true))
+ if (!can_inline_edge_p (edge, true)
+ || !can_inline_edge_by_limits_p (edge, true))
{
resolve_noninline_speculation (&edge_heap, edge);
continue;
too. */
if (!early
? !can_inline_edge_p (e, true)
+ && !can_inline_edge_by_limits_p (e, true)
: !can_early_inline_edge_p (e))
continue;
struct cgraph_node *caller = node->callers->caller;
if (!can_inline_edge_p (node->callers, true)
+ || !can_inline_edge_by_limits_p (node->callers, true)
|| node->callers->recursive_p ())
{
if (dump_file)
--- /dev/null
+/* { dg-do compile } */
+/* { dg-options "-O2 -fno-early-inlining" } */
+
+template <int dim> class B;
+template <int, int dim> class TriaObjectAccessor;
+template <int, typename Accessor> class A;
+template <int dim> class TriaDimensionInfo {
+public:
+ typedef A<3, TriaObjectAccessor<2, 3> > raw_quad_iterator;
+ typedef A<3, B<3> > raw_hex_iterator;
+ typedef raw_hex_iterator raw_cell_iterator;
+};
+template <int dim> class Triangulation : public TriaDimensionInfo<1> {
+ public:
+ typedef typename TriaDimensionInfo<dim>::raw_quad_iterator raw_quad_iterator;
+ TriaDimensionInfo::raw_cell_iterator end() const;
+ raw_quad_iterator end_quad() const {
+ return raw_quad_iterator(const_cast<Triangulation *>(this), 0, 0);
+ }
+};
+template <int dim> class TriaAccessor {
+public:
+ typedef void AccessorData;
+ TriaAccessor(const Triangulation<dim> * = 0);
+ Triangulation<1> *tria;
+
+ int a, b, c;
+};
+template <int dim> class TriaObjectAccessor<2, dim> : public TriaAccessor<dim> {
+public:
+ typedef typename TriaAccessor<dim>::AccessorData AccessorData;
+ TriaObjectAccessor(const Triangulation<dim> * = 0);
+};
+template <int dim> class TriaObjectAccessor<3, dim> : public TriaAccessor<dim> {
+public:
+ typedef typename TriaAccessor<dim>::AccessorData AccessorData;
+ TriaObjectAccessor(const Triangulation<dim> * = 0);
+};
+template <int dim> class B : public TriaObjectAccessor<dim, dim> {
+public:
+ typedef typename TriaObjectAccessor<dim, dim>::AccessorData AccessorData;
+ B(const Triangulation<dim> * = 0);
+};
+template <int dim, typename Accessor> class A {
+public:
+ A(const A &);
+ A(const Triangulation<dim> *, int, int);
+ Accessor accessor;
+};
+template class Triangulation<3>;
+template <int dim, typename Accessor>
+A<dim, Accessor>::A(const Triangulation<dim> *, int, int) {}
+template <int dim>
+TriaAccessor<dim>::TriaAccessor(const Triangulation<dim> *)
+ : tria(), a(-1), b(-2), c(-3) {}
+template <int dim>
+TriaObjectAccessor<2, dim>::TriaObjectAccessor(const Triangulation<dim> *) {}
+template <int dim>
+TriaObjectAccessor<3, dim>::TriaObjectAccessor(const Triangulation<dim> *) {}
+template <int dim> B<dim>::B(const Triangulation<dim> *) {}
+template <>
+TriaDimensionInfo<3>::raw_cell_iterator Triangulation<3>::end() const {
+ return raw_hex_iterator(const_cast<Triangulation *>(this), 0, 0);
+}
+
+#pragma GCC optimize ("-O0")
+int main()
+{
+ Triangulation <3> t;
+ Triangulation<3>::raw_quad_iterator i1 = t.end_quad();
+ TriaDimensionInfo<3>::raw_cell_iterator i2 = t.end();
+
+ if(i2.accessor.c != -3)
+ return 1;
+
+ return 0;
+}
+
+/* { dg-final { scan-ipa-dump "Equal symbols: 0" "icf" } } */