re PR ipa/68057 (450.soplex in SPEC CPU 2006 failed to build)

PR ipa/68057
	PR ipa/68220
	* ipa-polymorphic-call.c
	(ipa_polymorphic_call_context::restrict_to_inner_type): Fix ordering
	issue when offset is out of range.
	(contains_type_p): Fix out of range check, clear dynamic flag.
	* g++.dg/lto/pr68057_0.C: New testcase.
	* g++.dg/lto/pr68057_1.C: New testcase.
	* g++.dg/torture/pr68220.C: New testcase.

From-SVN: r229859
This commit is contained in:
Jan Hubicka 2015-11-06 17:04:38 +01:00 committed by Jan Hubicka
parent 5634073987
commit 567700fddd
6 changed files with 309 additions and 7 deletions

View file

@ -1,3 +1,12 @@
2015-11-07 Jan Hubicka <hubicka@ucw.cz>
PR ipa/68057
PR ipa/68220
* ipa-polymorphic-call.c
(ipa_polymorphic_call_context::restrict_to_inner_type): Fix ordering
issue when offset is out of range.
(contains_type_p): Fix out of range check, clear dynamic flag.
2015-11-06 Arnout Vandecappelle <arnout@mind.be>
* config.gcc (e6500): Fix cpu_is_64bit typo.

View file

@ -154,6 +154,8 @@ ipa_polymorphic_call_context::restrict_to_inner_class (tree otr_type,
&& tree_to_shwi (TYPE_SIZE (outer_type)) >= 0
&& tree_to_shwi (TYPE_SIZE (outer_type)) <= offset)
{
bool der = maybe_derived_type; /* clear_outer_type will reset it. */
bool dyn = dynamic;
clear_outer_type (otr_type);
type = otr_type;
cur_offset = 0;
@ -162,7 +164,7 @@ ipa_polymorphic_call_context::restrict_to_inner_class (tree otr_type,
For dynamic types, we really do not have information about
size of the memory location. It is possible that completely
different type is stored after outer_type. */
if (!maybe_derived_type && !dynamic)
if (!der && !dyn)
{
clear_speculation ();
invalid = true;
@ -425,8 +427,10 @@ no_useful_type_info:
return true;
}
else
clear_speculation ();
return true;
{
clear_speculation ();
return true;
}
}
else
{
@ -459,15 +463,18 @@ contains_type_p (tree outer_type, HOST_WIDE_INT offset,
if (offset < 0)
return false;
if (TYPE_SIZE (outer_type) && TYPE_SIZE (otr_type)
&& TREE_CODE (outer_type) == INTEGER_CST
&& TREE_CODE (otr_type) == INTEGER_CST
&& wi::ltu_p (wi::to_offset (outer_type), (wi::to_offset (otr_type) + offset)))
&& TREE_CODE (TYPE_SIZE (outer_type)) == INTEGER_CST
&& TREE_CODE (TYPE_SIZE (otr_type)) == INTEGER_CST
&& wi::ltu_p (wi::to_offset (TYPE_SIZE (outer_type)),
(wi::to_offset (TYPE_SIZE (otr_type)) + offset)))
return false;
context.offset = offset;
context.outer_type = TYPE_MAIN_VARIANT (outer_type);
context.maybe_derived_type = false;
return context.restrict_to_inner_class (otr_type, consider_placement_new, consider_bases);
context.dynamic = false;
return context.restrict_to_inner_class (otr_type, consider_placement_new,
consider_bases);
}

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@ -1,3 +1,11 @@
2015-11-07 Jan Hubicka <hubicka@ucw.cz>
PR ipa/68057
PR ipa/68220
* g++.dg/lto/pr68057_0.C: New testcase.
* g++.dg/lto/pr68057_1.C: New testcase.
* g++.dg/torture/pr68220.C: New testcase.
2015-11-06 Christophe Lyon <christophe.lyon@linaro.org>
* gcc.target/aarch64/advsimd-intrinsics/vtbX.c: Fix typos in

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@ -0,0 +1,23 @@
// { dg-lto-do compile }
/* { dg-extra-ld-options { -O2 -Wno-odr -r -nostdlib } } */
struct SPxPricer;
struct SoPlex {
virtual void setPricer(SPxPricer *);
};
struct SPxPricer {
virtual void load(SoPlex *);
};
struct SLUFactor {
SLUFactor();
virtual ~SLUFactor();
};
struct SPxSolver : SoPlex {
SPxPricer pr;
SLUFactor slu;
SPxSolver();
};
struct A : SPxSolver {};
A a;
void SoPlex::setPricer(SPxPricer *p1) { p1->load(this); }

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@ -0,0 +1,17 @@
struct SPxPricer;
struct SoPlex {
virtual void setPricer(SPxPricer *);
};
struct SPxPricer {
virtual void load(SoPlex *);
};
struct SLUFactor {
SLUFactor();
virtual ~SLUFactor();
};
struct SPxSolver : SoPlex {
SPxPricer pr;
SLUFactor slu;
SPxSolver();
};
SPxSolver::SPxSolver() { setPricer(&pr); }

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@ -0,0 +1,238 @@
// { dg-do compile }
namespace mpl {
template <typename, typename = int> struct lambda;
template <typename T3> struct if_ { typedef T3 type; };
template <int> struct arg {
template <typename U1, typename> struct apply { typedef U1 type; };
};
template <typename> struct begin_impl;
template <typename Sequence> struct begin {
typedef typename Sequence::tag tag_;
typedef typename begin_impl<tag_>::template apply<Sequence>::type type;
};
template <typename> struct O1_size_impl;
}
template <long N> struct long_ { static const long value = N; };
namespace mpl {
template <typename Sequence>
struct O1_size
: O1_size_impl<typename Sequence::tag>::template apply<Sequence> {};
typedef arg<1> _1;
template <typename T> struct protect : T {};
template <typename F> struct apply_wrap1 : F::template apply<int> {};
template <typename F, typename T1, typename T2>
struct apply_wrap2 : F::template apply<T1, T2> {};
template <typename F> struct apply_wrap5 : F::template apply<int> {};
template <typename, typename, typename, typename, typename, typename>
struct resolve_bind_arg;
template <typename T, typename> struct replace_unnamed_arg { typedef T type; };
template <typename F, typename> struct bind1 {
template <typename> struct apply {
typedef typename apply_wrap1<F>::type type;
};
};
template <typename F, typename T1, typename U1, typename U2, typename U3,
typename U4, typename U5>
struct resolve_bind_arg<bind1<F, T1>, U1, U2, U3, U4, U5> {
typedef typename apply_wrap5<bind1<F, T1>>::type type;
};
template <typename F, typename, typename T2> struct bind2 {
template <typename U1, typename U2> struct apply {
typedef resolve_bind_arg<typename replace_unnamed_arg<T2, arg<1>>::type, U1,
U2, int, int, int> t2;
typedef typename apply_wrap2<F, typename U1::type, typename t2::type>::type
type;
};
};
template <typename T> struct quote_impl { typedef T type; };
template <template <typename> class F> struct quote1 {
template <typename> struct apply : quote_impl<F<int>> {};
};
template <typename T, typename> struct lambda {
typedef T type;
typedef arg<1> result_;
};
template <typename, template <typename> class, typename> struct le_result1;
template <template <typename> class F, typename L1>
struct le_result1<int, F, L1> {
typedef protect<bind1<quote1<F>, typename L1::result_>> type;
};
template <template <typename> class F, typename T1, typename Tag>
struct lambda<F<T1>, Tag> {
typedef typename le_result1<int, F, lambda<T1>>::type type;
};
template <int, typename, typename, typename> struct iter_fold_impl;
template <typename First, typename State, typename ForwardOp>
struct iter_fold_impl<1, First, State, ForwardOp> {
typedef typename apply_wrap2<ForwardOp, State, First>::type state;
};
template <typename Sequence, typename State, typename ForwardOp>
struct iter_fold {
typedef typename iter_fold_impl<O1_size<Sequence>::value,
typename begin<Sequence>::type, State,
ForwardOp>::state type;
};
template <typename> struct deref;
template <typename> struct push_front_impl;
template <typename T> struct l_item {
typedef int tag;
typedef l_item type;
typedef long_<1> size;
typedef T item;
};
struct l_end {
typedef int tag;
typedef l_end type;
};
template <> struct push_front_impl<int> {
template <typename, typename T> struct apply { typedef l_item<T> type; };
};
template <> struct O1_size_impl<int> {
template <typename> struct apply : l_item<int>::size {};
};
template <typename> struct l_iter;
template <typename Node> struct deref<l_iter<Node>> {
typedef typename Node::item type;
};
template <> struct begin_impl<int> {
template <typename List> struct apply {
typedef l_iter<typename List::type> type;
};
};
template <typename> struct list : l_item<int> {};
}
template <typename T> T &cast_storage(void *storage) {
return *static_cast<T *>(storage);
}
struct symbol;
struct visitation_impl_step {
typedef symbol type;
};
template <typename Visitor, typename VoidPtrCV, typename T>
void visitation_impl_invoke_impl(int, Visitor visitor, VoidPtrCV storage, T *) {
visitor.internal_visit(cast_storage<T>(storage), 1);
}
int visitation_impl_invoke_internal_which, visitation_impl_logical_which;
template <typename Visitor, typename VoidPtrCV, typename T,
typename NoBackupFlag>
void visitation_impl_invoke(Visitor visitor, VoidPtrCV storage, T t,
NoBackupFlag, int) {
visitation_impl_invoke_impl(visitation_impl_invoke_internal_which, visitor,
storage, t);
}
template <typename Which, typename step0, typename Visitor, typename VoidPtrCV,
typename NoBackupFlag>
void visitation_impl(int, Visitor visitor, VoidPtrCV storage, int,
NoBackupFlag no_backup_flag, Which, step0 *) {
switch (visitation_impl_logical_which)
case 0:
visitation_impl_invoke(visitor, storage,
static_cast<typename step0::type *>(0), no_backup_flag,
1);
}
template <long N> struct size_t { static const long value = N; };
struct aligned_storage_imp {};
template <long> class aligned_storage : aligned_storage_imp {
public:
void *address() { return static_cast<aligned_storage_imp *>(this); }
};
namespace mpl {
template <typename> struct less;
template <typename> struct select_max {
template <typename OldIterator, typename> struct apply {
typedef OldIterator type;
};
};
template <typename Sequence, typename Predicate = less<arg<11>>>
struct max_element : iter_fold<Sequence, typename begin<Sequence>::type,
protect<select_max<Predicate>>> {};
template <typename Sequence = int, typename T = int>
struct push_front
: push_front_impl<typename Sequence::tag>::template apply<Sequence, T> {};
template <> struct push_front<> {
template <typename T1, typename T2> struct apply : push_front<T1, T2> {};
};
template <typename> struct sizeof_ : size_t<sizeof(int)> {};
template <long, typename, typename, typename, typename>
struct reverse_fold_impl;
template <typename First, typename State, typename BackwardOp,
typename ForwardOp>
struct reverse_fold_impl<1, First, State, BackwardOp, ForwardOp> {
typedef First iter0;
typedef typename apply_wrap2<
BackwardOp,
typename apply_wrap2<ForwardOp, State, typename deref<iter0>::type>::type,
typename deref<iter0>::type>::type state;
};
template <typename Sequence, typename State, typename BackwardOp,
typename ForwardOp = arg<1>>
struct reverse_fold {
typedef typename reverse_fold_impl<O1_size<Sequence>::value,
typename begin<Sequence>::type, State,
BackwardOp, ForwardOp>::state type;
};
template <typename> struct inserter {
typedef mpl::l_end state;
typedef mpl::push_front<> operation;
};
template <typename Seq, typename Op, typename In>
struct reverse_transform1_impl
: reverse_fold<Seq, typename In::state,
bind2<typename lambda<typename In::operation>::type, _1,
bind1<typename lambda<Op>::type, arg<2>>>> {};
template <typename P1, typename P2>
struct transform1
: if_<reverse_transform1_impl<P1, P2, inserter<push_front<>>>>::type {};
}
template <typename, typename> struct max_value {
typedef mpl::transform1<mpl::list<symbol>, mpl::sizeof_<mpl::arg<1>>>::type
transformed_;
typedef mpl::max_element<transformed_>::type max_it;
typedef mpl::deref<max_it>::type type;
};
template <typename> struct make_storage {
typedef max_value<int, mpl::sizeof_<int>>::type max_size;
typedef aligned_storage<max_size::value> type;
};
struct destroyer {
template <typename T> void internal_visit(T &operand, int) { operand.~T(); }
};
template <typename, typename...> class variant {
typedef int internal_types;
int which_;
make_storage<internal_types>::type storage_;
public:
~variant() {
destroyer visitor;
internal_apply_visitor(visitor);
}
template <typename Visitor, typename VoidPtrCV>
void internal_apply_visitor_impl(int internal_which, int, Visitor visitor,
VoidPtrCV storage) {
visitation_impl(internal_which, visitor, storage, int(), int(),
static_cast<int>(0),
static_cast<visitation_impl_step *>(0));
}
int internal_apply_visitor___trans_tmp_1;
template <typename Visitor> void internal_apply_visitor(Visitor visitor) {
internal_apply_visitor_impl(which_, internal_apply_visitor___trans_tmp_1,
visitor, storage_.address());
}
};
struct symbol {
virtual ~symbol();
};
using Identifier = variant<int>;
struct Fragment {
virtual void foo() const = 0;
virtual ~Fragment();
};
struct ProcFrag : Fragment {
~ProcFrag() {}
void foo() const;
Identifier id;
};
struct Fragments {
~Fragments() { delete x; }
Fragment *x;
} fragments;