1#ifndef HALIDE_IR_MATCH_H
2#define HALIDE_IR_MATCH_H
139 typename =
typename std::remove_reference<T>::type::pattern_tag>
146 constexpr static uint32_t mask = std::remove_reference<T>::type::binds;
198 ((a.type == b.type) &&
199 (a.node_type == b.node_type) &&
216 template<u
int32_t bound>
244 template<u
int32_t bound>
246 static_assert(
i >= 0 &&
i <
max_wild,
"Wild with out-of-range index");
249 op = ((
const Broadcast *)op)->value.get();
258 state.get_bound_const(
i, val, type);
261 state.set_bound_const(
i, value, e.type);
265 template<u
int32_t bound>
267 static_assert(
i >= 0 &&
i <
max_wild,
"Wild with out-of-range index");
271 state.get_bound_const(
i, val, type);
272 return type == i64_type && value == val.
u.
i64;
274 state.set_bound_const(
i, value, i64_type);
310 template<u
int32_t bound>
312 static_assert(
i >= 0 &&
i <
max_wild,
"Wild with out-of-range index");
315 op = ((
const Broadcast *)op)->value.get();
324 state.get_bound_const(
i, val, type);
327 state.set_bound_const(
i, value, e.type);
343 state.get_bound_const(
i, val,
ty);
363 template<u
int32_t bound>
365 static_assert(
i >= 0 &&
i <
max_wild,
"Wild with out-of-range index");
368 op = ((
const Broadcast *)op)->value.get();
373 double value = ((
const FloatImm *)op)->value;
377 state.get_bound_const(
i, val, type);
380 state.set_bound_const(
i, value, e.type);
396 state.get_bound_const(
i, val,
ty);
417 template<u
int32_t bound>
419 static_assert(
i >= 0 &&
i <
max_wild,
"Wild with out-of-range index");
422 op = ((
const Broadcast *)op)->value.get();
436 template<u
int32_t bound>
438 static_assert(
i >= 0 &&
i <
max_wild,
"Wild with out-of-range index");
454 state.get_bound_const(
i, val,
ty);
475 template<u
int32_t bound>
478 return equal(*state.get_binding(
i), e);
480 state.set_binding(
i, e);
515 template<u
int32_t bound>
519 op = ((
const Broadcast *)op)->value.get();
527 return ((
const FloatImm *)op)->value == (
double)
v;
533 template<u
int32_t bound>
538 template<u
int32_t bound>
578 typename =
typename std::decay<T>::type::pattern_tag>
589 static_assert(!std::is_same<typename std::decay<T>::type,
Expr>::value || std::is_lvalue_reference<T>::value,
590 "Exprs are captured by reference by IRMatcher objects and so must be lvalues");
601 typename =
typename std::decay<T>::type::pattern_tag,
603 typename =
typename std::enable_if<!std::is_same<typename std::decay<T>::type, SpecificExpr>::value>::type>
639template<
typename Op,
typename A,
typename B>
654 A::canonical && B::canonical && (!
commutative(Op::_node_type) || (A::max_node_type >= B::min_node_type));
656 template<u
int32_t bound>
658 if (e.node_type != Op::_node_type) {
661 const Op &op = (
const Op &)e;
666 template<u
int32_t bound,
typename Op2,
typename A2,
typename B2>
668 return (std::is_same<Op, Op2>::value &&
673 constexpr static bool foldable = A::foldable && B::foldable;
678 if (std::is_same<A, IntLiteral>::value) {
679 b.make_folded_const(
val_b,
ty, state);
680 if ((std::is_same<Op, And>::value &&
val_b.u.u64 == 0) ||
681 (std::is_same<Op, Or>::value &&
val_b.u.u64 == 1)) {
687 a.make_folded_const(
val_a,
ty, state);
690 a.make_folded_const(
val_a,
ty, state);
691 if ((std::is_same<Op, And>::value &&
val_a.u.u64 == 0) ||
692 (std::is_same<Op, Or>::value &&
val_a.u.u64 == 1)) {
698 b.make_folded_const(
val_b,
ty, state);
721 if (std::is_same<A, IntLiteral>::value) {
723 ea =
a.make(state,
eb.type());
726 eb =
b.make(state,
ea.type());
730 if (
ea.type().is_vector() && !
eb.type().is_vector()) {
733 if (
eb.type().is_vector() && !
ea.type().is_vector()) {
736 return Op::make(std::move(
ea), std::move(
eb));
750template<
typename Op,
typename A,
typename B>
762 (!
commutative(Op::_node_type) || A::max_node_type >= B::min_node_type) &&
766 template<u
int32_t bound>
768 if (e.node_type != Op::_node_type) {
771 const Op &op = (
const Op &)e;
776 template<u
int32_t bound,
typename Op2,
typename A2,
typename B2>
778 return (std::is_same<Op, Op2>::value &&
783 constexpr static bool foldable = A::foldable && B::foldable;
789 if (std::is_same<A, IntLiteral>::value) {
790 b.make_folded_const(
val_b,
ty, state);
792 a.make_folded_const(
val_a,
ty, state);
795 a.make_folded_const(
val_a,
ty, state);
797 b.make_folded_const(
val_b,
ty, state);
823 if (std::is_same<A, IntLiteral>::value) {
824 eb =
b.make(state, {});
825 ea =
a.make(state,
eb.type());
827 ea =
a.make(state, {});
828 eb =
b.make(state,
ea.type());
832 if (
ea.type().is_vector() && !
eb.type().is_vector()) {
835 if (
eb.type().is_vector() && !
ea.type().is_vector()) {
838 return Op::make(std::move(
ea), std::move(
eb));
842template<
typename A,
typename B>
844 s <<
"(" << op.
a <<
" + " << op.
b <<
")";
848template<
typename A,
typename B>
850 s <<
"(" << op.
a <<
" - " << op.
b <<
")";
854template<
typename A,
typename B>
856 s <<
"(" << op.
a <<
" * " << op.
b <<
")";
860template<
typename A,
typename B>
862 s <<
"(" << op.
a <<
" / " << op.
b <<
")";
866template<
typename A,
typename B>
868 s <<
"(" << op.
a <<
" && " << op.
b <<
")";
872template<
typename A,
typename B>
874 s <<
"(" << op.
a <<
" || " << op.
b <<
")";
878template<
typename A,
typename B>
880 s <<
"min(" << op.
a <<
", " << op.
b <<
")";
884template<
typename A,
typename B>
886 s <<
"max(" << op.
a <<
", " << op.
b <<
")";
890template<
typename A,
typename B>
892 s <<
"(" << op.
a <<
" <= " << op.
b <<
")";
896template<
typename A,
typename B>
898 s <<
"(" << op.
a <<
" < " << op.
b <<
")";
902template<
typename A,
typename B>
904 s <<
"(" << op.
a <<
" >= " << op.
b <<
")";
908template<
typename A,
typename B>
910 s <<
"(" << op.
a <<
" > " << op.
b <<
")";
914template<
typename A,
typename B>
916 s <<
"(" << op.
a <<
" == " << op.
b <<
")";
920template<
typename A,
typename B>
922 s <<
"(" << op.
a <<
" != " << op.
b <<
")";
926template<
typename A,
typename B>
928 s <<
"(" << op.
a <<
" % " << op.
b <<
")";
932template<
typename A,
typename B>
939template<
typename A,
typename B>
957 return (a + b) & (
ones >> (64 - t.bits));
965template<
typename A,
typename B>
972template<
typename A,
typename B>
990 return (a - b) & (
ones >> (64 - t.bits));
998template<
typename A,
typename B>
1005template<
typename A,
typename B>
1023 return (a * b) & (
ones >> (64 - t.bits));
1031template<
typename A,
typename B>
1038template<
typename A,
typename B>
1058template<
typename A,
typename B>
1065template<
typename A,
typename B>
1087template<
typename A,
typename B>
1096 return std::min(a, b);
1101 return std::min(a, b);
1106 return std::min(a, b);
1109template<
typename A,
typename B>
1118 return std::max(a, b);
1123 return std::max(a, b);
1128 return std::max(a, b);
1131template<
typename A,
typename B>
1136template<
typename A,
typename B>
1156template<
typename A,
typename B>
1161template<
typename A,
typename B>
1181template<
typename A,
typename B>
1186template<
typename A,
typename B>
1206template<
typename A,
typename B>
1211template<
typename A,
typename B>
1231template<
typename A,
typename B>
1236template<
typename A,
typename B>
1256template<
typename A,
typename B>
1261template<
typename A,
typename B>
1281template<
typename A,
typename B>
1286template<
typename A,
typename B>
1307template<
typename A,
typename B>
1312template<
typename A,
typename B>
1337template<
typename...
Args>
1346template<
typename...
Args>
1353 return a < b ? a : b;
1356template<
typename...
Args>
1374 typename =
typename std::enable_if<(
i <
sizeof...(Args))>::type>
1376 using T =
decltype(std::get<i>(
args));
1381 template<
int i, u
int32_t binds>
1386 template<u
int32_t bound>
1398 typename =
typename std::enable_if<(
i <
sizeof...(Args))>::type>
1401 if (
i + 1 <
sizeof...(
Args)) {
1483 std::get<0>(
args).make_folded_const(val,
ty, state);
1491 if (
arg1.u.i64 < 0) {
1494 val.u.i64 >>= -
arg1.u.i64;
1497 val.u.u64 >>= -
arg1.u.i64;
1500 val.u.u64 <<=
arg1.u.i64;
1503 if (
arg1.u.i64 > 0) {
1506 val.u.i64 >>=
arg1.u.i64;
1509 val.u.u64 >>=
arg1.u.i64;
1512 val.u.u64 <<= -
arg1.u.i64;
1525template<
typename...
Args>
1533template<
typename...
Args>
1538template<
typename A,
typename B>
1542template<
typename A,
typename B>
1546template<
typename A,
typename B>
1551template<
typename A,
typename B>
1555template<
typename A,
typename B>
1559template<
typename A,
typename B>
1563template<
typename A,
typename B>
1567template<
typename A,
typename B>
1577template<
typename A,
typename B>
1581template<
typename A,
typename B>
1585template<
typename A,
typename B>
1589template<
typename A,
typename B>
1593template<
typename A,
typename B>
1597template<
typename A,
typename B>
1601template<
typename A,
typename B>
1605template<
typename A,
typename B,
typename C>
1609template<
typename A,
typename B,
typename C>
1625 template<u
int32_t bound>
1630 const Not &op = (
const Not &)e;
1634 template<u
int32_t bound,
typename A2>
1646 template<
typename A1 = A>
1648 a.make_folded_const(val,
ty, state);
1649 val.u.u64 =
~val.u.u64;
1668 s <<
"!(" << op.
a <<
")";
1672template<
typename C,
typename T,
typename F>
1684 constexpr static bool canonical = C::canonical && T::canonical && F::canonical;
1686 template<u
int32_t bound>
1696 template<u
int32_t bound,
typename C2,
typename T2,
typename F2>
1708 constexpr static bool foldable = C::foldable && T::foldable && F::foldable;
1710 template<
typename C1 = C>
1715 if ((
c_val.u.u64 & 1) == 1) {
1716 t.make_folded_const(val,
ty, state);
1718 f.make_folded_const(val,
ty, state);
1724template<
typename C,
typename T,
typename F>
1726 s <<
"select(" << op.
c <<
", " << op.
t <<
", " << op.
f <<
")";
1730template<
typename C,
typename T,
typename F>
1738template<
typename A,
typename B>
1749 constexpr static bool canonical = A::canonical && B::canonical;
1751 template<u
int32_t bound>
1763 template<u
int32_t bound,
typename A2,
typename B2>
1786 template<
typename A1 = A>
1792 a.make_folded_const(val,
ty, state);
1797template<
typename A,
typename B>
1799 s <<
"broadcast(" << op.
a <<
", " << op.
lanes <<
")";
1803template<
typename A,
typename B>
1809template<
typename A,
typename B,
typename C>
1821 constexpr static bool canonical = A::canonical && B::canonical && C::canonical;
1823 template<u
int32_t bound>
1838 template<u
int32_t bound,
typename A2,
typename B2,
typename C2>
1854 ea =
a.make(state,
eb.type());
1861template<
typename A,
typename B,
typename C>
1863 s <<
"ramp(" << op.
a <<
", " << op.
b <<
", " << op.
lanes <<
")";
1867template<
typename A,
typename B,
typename C>
1875template<
typename A,
typename B, VectorReduce::Operator reduce_op>
1887 template<u
int32_t bound>
1900 template<u
int32_t bound,
typename A2,
typename B2, VectorReduce::Operator reduce_op_2>
1919template<
typename A,
typename B, VectorReduce::Operator reduce_op>
1921 s <<
"vector_reduce(" <<
reduce_op <<
", " << op.
a <<
", " << op.
lanes <<
")";
1925template<
typename A,
typename B>
1931template<
typename A,
typename B>
1937template<
typename A,
typename B>
1943template<
typename A,
typename B>
1949template<
typename A,
typename B>
1967 template<u
int32_t bound>
1972 const Sub &op = (
const Sub &)e;
1977 template<u
int32_t bound,
typename A2>
1991 template<
typename A1 = A>
1993 a.make_folded_const(val,
ty, state);
1997 if (
ty.bits >= 32 && val.u.u64 && (val.u.u64 << (65 -
ty.bits)) == 0) {
2010 val.u.f64 = -val.u.f64;
2049 template<u
int32_t bound>
2055 return (e.type ==
t &&
2058 template<u
int32_t bound,
typename A2>
2065 return cast(
t,
a.make(state, {}));
2073 s <<
"cast(" << op.
t <<
", " << op.
a <<
")";
2083template<
typename Vec,
typename Base,
typename Str
ide,
typename Lanes>
2091 static constexpr uint32_t binds = Vec::binds | Base::binds | Stride::binds | Lanes::binds;
2095 constexpr static bool canonical = Vec::canonical && Base::canonical && Stride::canonical && Lanes::canonical;
2097 template<u
int32_t bound>
2103 return v.
vectors.size() == 1 &&
2128 static_assert(Base::foldable,
"Base of slice should consist only of operations that constant-fold");
2129 static_assert(Stride::foldable,
"Stride of slice should consist only of operations that constant-fold");
2130 static_assert(Lanes::foldable,
"Lanes of slice should consist only of operations that constant-fold");
2134template<
typename Vec,
typename Base,
typename Str
ide,
typename Lanes>
2136 s <<
"slice(" << op.
vec <<
", " << op.
base <<
", " << op.
stride <<
", " << op.
lanes <<
")";
2140template<
typename Vec,
typename Base,
typename Str
ide,
typename Lanes>
2161 a.make_folded_const(c,
ty, state);
2183 template<
typename A1 = A>
2185 a.make_folded_const(val,
ty, state);
2197 s <<
"fold(" << op.
a <<
")";
2216 template<
typename A1 = A>
2218 a.make_folded_const(val,
ty, state);
2234 s <<
"overflows(" << op.
a <<
")";
2248 template<u
int32_t bound>
2294 template<
typename A1 = A>
2296 Expr e =
a.make(state, {});
2323 s <<
"is_const(" << op.
a <<
")";
2325 s <<
"is_const(" << op.
a <<
", " << op.
v <<
")";
2330template<
typename A,
typename Prover>
2347 Expr condition =
a.make(state, {});
2348 condition =
prover->mutate(condition,
nullptr);
2356template<
typename A,
typename Prover>
2362template<
typename A,
typename Prover>
2364 s <<
"can_prove(" << op.
a <<
")";
2385 Type t =
a.make(state, {}).type();
2401 s <<
"is_float(" << op.
a <<
")";
2423 Type t =
a.make(state, {}).type();
2439 s <<
"is_int(" << op.
a;
2441 s <<
", " << op.
bits;
2468 Type t =
a.make(state, {}).type();
2484 s <<
"is_uint(" << op.
a;
2486 s <<
", " << op.
bits;
2512 Type t =
a.make(state, {}).type();
2528 s <<
"is_scalar(" << op.
a <<
")";
2549 a.make_folded_const(val,
ty, state);
2569 s <<
"is_max_value(" << op.
a <<
")";
2590 a.make_folded_const(val,
ty, state);
2612 s <<
"is_min_value(" << op.
a <<
")";
2633 Type t =
a.make(state, {}).type();
2649 s <<
"lanes_of(" << op.
a <<
")";
2657 typename =
typename std::enable_if<std::decay<Before>::type::foldable &&
2658 std::decay<After>::type::foldable>::type>
2663 wildcard_type.lanes = output_type.lanes = 1;
2666 static std::set<uint32_t>
tested;
2673 debug(0) <<
"validate('" <<
before <<
"', '" <<
after <<
"', '" <<
pred <<
"', " <<
Type(wildcard_type) <<
", " <<
Type(output_type) <<
")\n";
2678 static std::mt19937_64 rng(0);
2687 int shift = (
int)(rng() & (wildcard_type.bits - 1));
2691 switch (wildcard_type.code) {
2711 double val = ((
int64_t)(rng() & 15) - 8) / 2.0;
2713 val = ((
int64_t)(rng() & 15) - 8) / 2.0;
2730 lanes |= type.
lanes;
2737 switch (output_type.code) {
2752 ok &= (error < 0.01 ||
2762 debug(0) <<
"Fails with values:\n";
2782 typename =
typename std::enable_if<!(std::decay<Before>::type::foldable &&
2783 std::decay<After>::type::foldable)>::type>
2795 typename =
typename enable_if_pattern<Pattern>::type>
2799 p.make_folded_const(c,
ty, state);
2807#define HALIDE_DEBUG_MATCHED_RULES 0
2808#define HALIDE_DEBUG_UNMATCHED_RULES 0
2814#define HALIDE_FUZZ_TEST_RULES 0
2816template<
typename Instance>
2829 template<
typename After>
2834 template<
typename Before,
2839 static_assert((Before::binds & After::binds) == After::binds,
"Rule result uses unbound values");
2840 static_assert(Before::canonical,
"LHS of rewrite rule should be in canonical form");
2841 static_assert(After::canonical,
"RHS of rewrite rule should be in canonical form");
2842#if HALIDE_FUZZ_TEST_RULES
2847#if HALIDE_DEBUG_MATCHED_RULES
2852#if HALIDE_DEBUG_UNMATCHED_RULES
2859 template<
typename Before,
2862 static_assert(Before::canonical,
"LHS of rewrite rule should be in canonical form");
2865#if HALIDE_DEBUG_MATCHED_RULES
2870#if HALIDE_DEBUG_UNMATCHED_RULES
2877 template<
typename Before,
2880 static_assert(Before::canonical,
"LHS of rewrite rule should be in canonical form");
2881#if HALIDE_FUZZ_TEST_RULES
2886#if HALIDE_DEBUG_MATCHED_RULES
2891#if HALIDE_DEBUG_UNMATCHED_RULES
2898 template<
typename Before,
2905 static_assert(Predicate::foldable,
"Predicates must consist only of operations that can constant-fold");
2906 static_assert((Before::binds & After::binds) == After::binds,
"Rule result uses unbound values");
2907 static_assert((Before::binds & Predicate::binds) == Predicate::binds,
"Rule predicate uses unbound values");
2908 static_assert(Before::canonical,
"LHS of rewrite rule should be in canonical form");
2909 static_assert(After::canonical,
"RHS of rewrite rule should be in canonical form");
2911#if HALIDE_FUZZ_TEST_RULES
2917#if HALIDE_DEBUG_MATCHED_RULES
2922#if HALIDE_DEBUG_UNMATCHED_RULES
2929 template<
typename Before,
2934 static_assert(Predicate::foldable,
"Predicates must consist only of operations that can constant-fold");
2935 static_assert(Before::canonical,
"LHS of rewrite rule should be in canonical form");
2940#if HALIDE_DEBUG_MATCHED_RULES
2945#if HALIDE_DEBUG_UNMATCHED_RULES
2952 template<
typename Before,
2957 static_assert(Predicate::foldable,
"Predicates must consist only of operations that can constant-fold");
2958 static_assert(Before::canonical,
"LHS of rewrite rule should be in canonical form");
2959#if HALIDE_FUZZ_TEST_RULES
2965#if HALIDE_DEBUG_MATCHED_RULES
2970#if HALIDE_DEBUG_UNMATCHED_RULES
2996 typename =
typename enable_if_pattern<Instance>::type>
2998 return {
pattern_arg(instance), output_type, wildcard_type};
3002 typename =
typename enable_if_pattern<Instance>::type>
3004 return {
pattern_arg(instance), output_type, output_type};
@ halide_type_float
IEEE floating point numbers.
@ halide_type_bfloat
floating point numbers in the bfloat format
@ halide_type_int
signed integers
@ halide_type_uint
unsigned integers
#define HALIDE_NEVER_INLINE
#define HALIDE_ALWAYS_INLINE
Subtypes for Halide expressions (Halide::Expr) and statements (Halide::Internal::Stmt)
Methods to test Exprs and Stmts for equality of value.
Defines various operator overloads and utility functions that make it more pleasant to work with Hali...
For optional debugging during codegen, use the debug class as follows:
auto rounding_shift_left(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
auto shift_left(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto rewriter(Instance instance, halide_type_t output_type, halide_type_t wildcard_type) noexcept -> Rewriter< decltype(pattern_arg(instance))>
Construct a rewriter for the given instance, which may be a pattern with concrete expressions as leav...
HALIDE_ALWAYS_INLINE T pattern_arg(T t)
auto widen_right_add(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto or_op(A &&a, B &&b) -> decltype(IRMatcher::operator||(a, b))
HALIDE_ALWAYS_INLINE auto operator!(A &&a) noexcept -> NotOp< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE bool evaluate_predicate(bool x, MatcherState &) noexcept
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Div >(halide_type_t &t, int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE auto ne(A &&a, B &&b) -> decltype(IRMatcher::operator!=(a, b))
HALIDE_ALWAYS_INLINE auto negate(A &&a) -> decltype(IRMatcher::operator-(a))
uint64_t constant_fold_cmp_op(int64_t, int64_t) noexcept
HALIDE_ALWAYS_INLINE auto operator<=(A &&a, B &&b) noexcept -> CmpOp< LE, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto operator+(A &&a, B &&b) noexcept -> BinOp< Add, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto is_max_value(A &&a) noexcept -> IsMaxValue< decltype(pattern_arg(a))>
std::ostream & operator<<(std::ostream &s, const SpecificExpr &e)
HALIDE_ALWAYS_INLINE auto and_op(A &&a, B &&b) -> decltype(IRMatcher::operator&&(a, b))
HALIDE_ALWAYS_INLINE auto h_and(A &&a, B lanes) noexcept -> VectorReduceOp< decltype(pattern_arg(a)), decltype(pattern_arg(lanes)), VectorReduce::And >
HALIDE_ALWAYS_INLINE auto gt(A &&a, B &&b) -> decltype(IRMatcher::operator>(a, b))
HALIDE_ALWAYS_INLINE auto is_const(A &&a) noexcept -> IsConst< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE auto intrin(Call::IntrinsicOp intrinsic_op, Args... args) noexcept -> Intrin< decltype(pattern_arg(args))... >
HALIDE_ALWAYS_INLINE uint64_t constant_fold_cmp_op< LE >(int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE auto operator*(A &&a, B &&b) noexcept -> BinOp< Mul, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
auto rounding_halving_add(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
auto rounding_shift_right(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
auto widen_right_sub(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto add(A &&a, B &&b) -> decltype(IRMatcher::operator+(a, b))
HALIDE_ALWAYS_INLINE auto div(A &&a, B &&b) -> decltype(IRMatcher::operator/(a, b))
auto saturating_add(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto mul(A &&a, B &&b) -> decltype(IRMatcher::operator*(a, b))
HALIDE_ALWAYS_INLINE auto slice(Vec vec, Base base, Stride stride, Lanes lanes) noexcept -> SliceOp< decltype(pattern_arg(vec)), decltype(pattern_arg(base)), decltype(pattern_arg(stride)), decltype(pattern_arg(lanes))>
HALIDE_ALWAYS_INLINE auto ramp(A &&a, B &&b, C &&c) noexcept -> RampOp< decltype(pattern_arg(a)), decltype(pattern_arg(b)), decltype(pattern_arg(c))>
HALIDE_ALWAYS_INLINE auto operator/(A &&a, B &&b) noexcept -> BinOp< Div, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
auto widening_mul(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Mod >(halide_type_t &t, int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< And >(halide_type_t &t, int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE int64_t unwrap(IntLiteral t)
HALIDE_ALWAYS_INLINE auto operator>(A &&a, B &&b) noexcept -> CmpOp< GT, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto cast(halide_type_t t, A &&a) noexcept -> CastOp< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE auto overflows(A &&a) noexcept -> Overflows< decltype(pattern_arg(a))>
auto widening_add(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE void assert_is_lvalue_if_expr()
HALIDE_ALWAYS_INLINE auto operator%(A &&a, B &&b) noexcept -> BinOp< Mod, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Sub >(halide_type_t &t, int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE auto is_scalar(A &&a) noexcept -> IsScalar< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE auto fold(A &&a) noexcept -> Fold< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE auto not_op(A &&a) -> decltype(IRMatcher::operator!(a))
auto halving_add(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Max >(halide_type_t &t, int64_t a, int64_t b) noexcept
constexpr bool and_reduce()
HALIDE_ALWAYS_INLINE auto operator||(A &&a, B &&b) noexcept -> BinOp< Or, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
auto widening_sub(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto operator!=(A &&a, B &&b) noexcept -> CmpOp< NE, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE bool equal(const BaseExprNode &a, const BaseExprNode &b) noexcept
HALIDE_ALWAYS_INLINE auto is_float(A &&a) noexcept -> IsFloat< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE auto operator>=(A &&a, B &&b) noexcept -> CmpOp< GE, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
bool equal_helper(const BaseExprNode &a, const BaseExprNode &b) noexcept
HALIDE_ALWAYS_INLINE auto operator<(A &&a, B &&b) noexcept -> CmpOp< LT, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto operator&&(A &&a, B &&b) noexcept -> BinOp< And, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto is_uint(A &&a, int bits=0, int lanes=0) noexcept -> IsUInt< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE auto h_or(A &&a, B lanes) noexcept -> VectorReduceOp< decltype(pattern_arg(a)), decltype(pattern_arg(lanes)), VectorReduce::Or >
constexpr bool commutative(IRNodeType t)
auto widen_right_mul(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto sub(A &&a, B &&b) -> decltype(IRMatcher::operator-(a, b))
HALIDE_ALWAYS_INLINE auto h_max(A &&a, B lanes) noexcept -> VectorReduceOp< decltype(pattern_arg(a)), decltype(pattern_arg(lanes)), VectorReduce::Max >
HALIDE_ALWAYS_INLINE auto broadcast(A &&a, B lanes) noexcept -> BroadcastOp< decltype(pattern_arg(a)), decltype(pattern_arg(lanes))>
HALIDE_ALWAYS_INLINE auto is_int(A &&a, int bits=0, int lanes=0) noexcept -> IsInt< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE auto select(C &&c, T &&t, F &&f) noexcept -> SelectOp< decltype(pattern_arg(c)), decltype(pattern_arg(t)), decltype(pattern_arg(f))>
HALIDE_ALWAYS_INLINE auto is_min_value(A &&a) noexcept -> IsMinValue< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Min >(halide_type_t &t, int64_t a, int64_t b) noexcept
HALIDE_NEVER_INLINE void fuzz_test_rule(Before &&before, After &&after, Predicate &&pred, halide_type_t wildcard_type, halide_type_t output_type) noexcept
HALIDE_ALWAYS_INLINE uint64_t constant_fold_cmp_op< GT >(int64_t a, int64_t b) noexcept
auto halving_sub(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
auto saturating_sub(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Mul >(halide_type_t &t, int64_t a, int64_t b) noexcept
auto mul_shift_right(A &&a, B &&b, C &&c) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b)), decltype(pattern_arg(c))>
auto shift_right(A &&a, B &&b) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE uint64_t constant_fold_cmp_op< GE >(int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE auto operator-(A &&a, B &&b) noexcept -> BinOp< Sub, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE auto le(A &&a, B &&b) -> decltype(IRMatcher::operator<=(a, b))
HALIDE_ALWAYS_INLINE auto lt(A &&a, B &&b) -> decltype(IRMatcher::operator<(a, b))
HALIDE_ALWAYS_INLINE auto lanes_of(A &&a) noexcept -> LanesOf< decltype(pattern_arg(a))>
HALIDE_ALWAYS_INLINE uint64_t constant_fold_cmp_op< LT >(int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE auto h_min(A &&a, B lanes) noexcept -> VectorReduceOp< decltype(pattern_arg(a)), decltype(pattern_arg(lanes)), VectorReduce::Min >
HALIDE_ALWAYS_INLINE auto h_add(A &&a, B lanes) noexcept -> VectorReduceOp< decltype(pattern_arg(a)), decltype(pattern_arg(lanes)), VectorReduce::Add >
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Or >(halide_type_t &t, int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE Expr make_const_expr(halide_scalar_value_t val, halide_type_t ty)
constexpr uint32_t bitwise_or_reduce()
auto rounding_mul_shift_right(A &&a, B &&b, C &&c) noexcept -> Intrin< decltype(pattern_arg(a)), decltype(pattern_arg(b)), decltype(pattern_arg(c))>
int64_t constant_fold_bin_op(halide_type_t &, int64_t, int64_t) noexcept
HALIDE_ALWAYS_INLINE uint64_t constant_fold_cmp_op< EQ >(int64_t a, int64_t b) noexcept
HALIDE_NEVER_INLINE Expr make_const_special_expr(halide_type_t ty)
HALIDE_ALWAYS_INLINE auto ge(A &&a, B &&b) -> decltype(IRMatcher::operator>=(a, b))
auto saturating_cast(const Type &t, A &&a) noexcept -> Intrin< decltype(pattern_arg(a))>
constexpr int const_min(int a, int b)
HALIDE_ALWAYS_INLINE uint64_t constant_fold_cmp_op< NE >(int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE auto mod(A &&a, B &&b) -> decltype(IRMatcher::operator%(a, b))
HALIDE_ALWAYS_INLINE auto operator==(A &&a, B &&b) noexcept -> CmpOp< EQ, decltype(pattern_arg(a)), decltype(pattern_arg(b))>
HALIDE_ALWAYS_INLINE int64_t constant_fold_bin_op< Add >(halide_type_t &t, int64_t a, int64_t b) noexcept
HALIDE_ALWAYS_INLINE auto can_prove(A &&a, Prover *p) noexcept -> CanProve< decltype(pattern_arg(a)), Prover >
HALIDE_ALWAYS_INLINE auto eq(A &&a, B &&b) -> decltype(IRMatcher::operator==(a, b))
bool is_const_zero(const Expr &e)
Is the expression a const (as defined by is_const), and also equal to zero (in all lanes,...
Expr make_zero(Type t)
Construct the representation of zero in the given type.
bool is_const_one(const Expr &e)
Is the expression a const (as defined by is_const), and also equal to one (in all lanes,...
constexpr IRNodeType StrongestExprNodeType
Expr make_const(Type t, int64_t val)
Construct an immediate of the given type from any numeric C++ type.
T mod_imp(T a, T b)
Implementations of division and mod that are specific to Halide.
bool sub_would_overflow(int bits, int64_t a, int64_t b)
bool add_would_overflow(int bits, int64_t a, int64_t b)
Routines to test if math would overflow for signed integers with the given number of bits.
bool mul_would_overflow(int bits, int64_t a, int64_t b)
Expr with_lanes(const Expr &x, int lanes)
Rewrite the expression x to have lanes lanes.
bool expr_match(const Expr &pattern, const Expr &expr, std::vector< Expr > &result)
Does the first expression have the same structure as the second? Variables in the first expression wi...
Expr make_signed_integer_overflow(Type type)
Construct a unique signed_integer_overflow Expr.
IRNodeType
All our IR node types get unique IDs for the purposes of RTTI.
bool is_const(const Expr &e)
Is the expression either an IntImm, a FloatImm, a StringImm, or a Cast of the same,...
This file defines the class FunctionDAG, which is our representation of a Halide pipeline,...
@ Internal
Not visible externally, similar to 'static' linkage in C.
@ Predicate
Guard the loads and stores in the loop with an if statement that prevents evaluation beyond the origi...
Expr min(const FuncRef &a, const FuncRef &b)
Explicit overloads of min and max for FuncRef.
Expr absd(Expr a, Expr b)
Return the absolute difference between two values.
Expr likely_if_innermost(Expr e)
Equivalent to likely, but only triggers a loop partitioning if found in an innermost loop.
Expr abs(Expr a)
Returns the absolute value of a signed integer or floating-point expression.
Expr max(const FuncRef &a, const FuncRef &b)
Expr likely(Expr e)
Expressions tagged with this intrinsic are considered to be part of the steady state of some loop wit...
unsigned __INT64_TYPE__ uint64_t
signed __INT64_TYPE__ int64_t
signed __INT32_TYPE__ int32_t
unsigned __INT16_TYPE__ uint16_t
unsigned __INT32_TYPE__ uint32_t
A fragment of Halide syntax.
HALIDE_ALWAYS_INLINE Type type() const
Get the type of this expression node.
HALIDE_ALWAYS_INLINE const Internal::BaseExprNode * get() const
Override get() to return a BaseExprNode * instead of an IRNode *.
The sum of two expressions.
Logical and - are both expressions true.
A base class for expression nodes.
A vector with 'lanes' elements, in which every element is 'value'.
static Expr make(Expr value, int lanes)
static const IRNodeType _node_type
@ signed_integer_overflow
@ rounding_mul_shift_right
bool is_intrinsic() const
static const IRNodeType _node_type
The actual IR nodes begin here.
static const IRNodeType _node_type
The ratio of two expressions.
Is the first expression equal to the second.
Floating point constants.
static const FloatImm * make(Type t, double value)
Is the first expression greater than or equal to the second.
Is the first expression greater than the second.
static constexpr bool canonical
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr bool foldable
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const noexcept
HALIDE_ALWAYS_INLINE bool match(const BinOp< Op2, A2, B2 > &op, MatcherState &state) const noexcept
static constexpr IRNodeType max_node_type
static constexpr IRNodeType min_node_type
static constexpr IRNodeType min_node_type
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
HALIDE_ALWAYS_INLINE bool match(const BroadcastOp< A2, B2 > &op, MatcherState &state) const noexcept
static constexpr bool foldable
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr bool canonical
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
HALIDE_NEVER_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr uint32_t binds
static constexpr IRNodeType min_node_type
static constexpr IRNodeType max_node_type
static constexpr bool foldable
static constexpr bool canonical
static constexpr IRNodeType max_node_type
static constexpr bool foldable
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
static constexpr uint32_t binds
static constexpr bool canonical
HALIDE_ALWAYS_INLINE bool match(const CastOp< A2 > &op, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr IRNodeType max_node_type
static constexpr uint32_t binds
static constexpr bool canonical
static constexpr bool foldable
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE bool match(const CmpOp< Op2, A2, B2 > &op, MatcherState &state) const noexcept
static constexpr IRNodeType max_node_type
static constexpr uint32_t binds
static constexpr IRNodeType min_node_type
static constexpr bool canonical
static constexpr bool foldable
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const noexcept
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE IntLiteral(int64_t v)
HALIDE_ALWAYS_INLINE bool match(const IntLiteral &b, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
static constexpr bool canonical
static constexpr bool foldable
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
HALIDE_ALWAYS_INLINE bool match(int64_t val, MatcherState &state) const noexcept
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE bool match_args(double, const Call &c, MatcherState &state) const noexcept
static constexpr IRNodeType max_node_type
static constexpr bool canonical
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
HALIDE_ALWAYS_INLINE void print_args(std::ostream &s) const
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr uint32_t binds
static constexpr bool foldable
HALIDE_ALWAYS_INLINE bool match_args(int, const Call &c, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE void print_args(int, std::ostream &s) const
std::tuple< Args... > args
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE void print_args(double, std::ostream &s) const
HALIDE_ALWAYS_INLINE Intrin(Call::IntrinsicOp intrin, Args... args) noexcept
static constexpr IRNodeType min_node_type
static constexpr IRNodeType min_node_type
static constexpr bool canonical
static constexpr bool foldable
static constexpr IRNodeType max_node_type
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr bool foldable
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr bool canonical
static constexpr IRNodeType min_node_type
static constexpr IRNodeType max_node_type
static constexpr uint32_t binds
static constexpr IRNodeType max_node_type
static constexpr bool foldable
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr IRNodeType min_node_type
static constexpr bool canonical
static constexpr bool foldable
static constexpr IRNodeType min_node_type
static constexpr bool canonical
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr uint32_t binds
static constexpr IRNodeType min_node_type
static constexpr bool canonical
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr bool foldable
static constexpr IRNodeType max_node_type
static constexpr uint32_t binds
static constexpr IRNodeType max_node_type
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr IRNodeType min_node_type
static constexpr bool foldable
static constexpr bool canonical
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr bool foldable
static constexpr IRNodeType min_node_type
static constexpr bool canonical
static constexpr uint32_t binds
static constexpr IRNodeType max_node_type
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
static constexpr IRNodeType min_node_type
static constexpr bool foldable
static constexpr uint32_t binds
static constexpr bool canonical
To save stack space, the matcher objects are largely stateless and immutable.
HALIDE_ALWAYS_INLINE void get_bound_const(int i, halide_scalar_value_t &val, halide_type_t &type) const noexcept
HALIDE_ALWAYS_INLINE void set_bound_const(int i, int64_t s, halide_type_t t) noexcept
HALIDE_ALWAYS_INLINE void set_bound_const(int i, double f, halide_type_t t) noexcept
static constexpr uint16_t special_values_mask
HALIDE_ALWAYS_INLINE void set_bound_const(int i, halide_scalar_value_t val, halide_type_t t) noexcept
halide_type_t bound_const_type[max_wild]
HALIDE_ALWAYS_INLINE void set_binding(int i, const BaseExprNode &n) noexcept
HALIDE_ALWAYS_INLINE MatcherState() noexcept
HALIDE_ALWAYS_INLINE const BaseExprNode * get_binding(int i) const noexcept
halide_scalar_value_t bound_const[max_wild]
HALIDE_ALWAYS_INLINE void set_bound_const(int i, uint64_t u, halide_type_t t) noexcept
static constexpr uint16_t signed_integer_overflow
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
HALIDE_ALWAYS_INLINE bool match(NegateOp< A2 > &&p, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr uint32_t binds
static constexpr bool canonical
static constexpr bool foldable
static constexpr IRNodeType max_node_type
static constexpr IRNodeType min_node_type
static constexpr uint32_t binds
static constexpr bool foldable
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr IRNodeType max_node_type
static constexpr bool canonical
HALIDE_ALWAYS_INLINE bool match(const NotOp< A2 > &op, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
static constexpr uint32_t binds
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr bool canonical
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr bool foldable
static constexpr IRNodeType min_node_type
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
static constexpr uint32_t binds
static constexpr bool canonical
static constexpr IRNodeType max_node_type
static constexpr bool foldable
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr bool canonical
static constexpr IRNodeType max_node_type
static constexpr IRNodeType min_node_type
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE bool match(const RampOp< A2, B2, C2 > &op, MatcherState &state) const noexcept
static constexpr bool foldable
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_NEVER_INLINE void build_replacement(After after)
HALIDE_ALWAYS_INLINE bool operator()(Before before, After after, Predicate pred)
HALIDE_ALWAYS_INLINE bool operator()(Before before, int64_t after) noexcept
HALIDE_ALWAYS_INLINE Rewriter(Instance instance, halide_type_t ot, halide_type_t wt)
HALIDE_ALWAYS_INLINE bool operator()(Before before, const Expr &after, Predicate pred)
HALIDE_ALWAYS_INLINE bool operator()(Before before, const Expr &after) noexcept
HALIDE_ALWAYS_INLINE bool operator()(Before before, int64_t after, Predicate pred)
HALIDE_ALWAYS_INLINE bool operator()(Before before, After after)
halide_type_t wildcard_type
halide_type_t output_type
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr bool foldable
static constexpr bool canonical
HALIDE_ALWAYS_INLINE bool match(const SelectOp< C2, T2, F2 > &instance, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr IRNodeType max_node_type
static constexpr IRNodeType min_node_type
static constexpr bool canonical
static constexpr IRNodeType max_node_type
static constexpr bool foldable
HALIDE_ALWAYS_INLINE SliceOp(Vec v, Base b, Stride s, Lanes l)
static constexpr IRNodeType min_node_type
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr IRNodeType min_node_type
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr bool canonical
static constexpr IRNodeType max_node_type
const BaseExprNode & expr
static constexpr uint32_t binds
static constexpr bool foldable
static constexpr bool canonical
HALIDE_ALWAYS_INLINE bool match(const VectorReduceOp< A2, B2, reduce_op_2 > &op, MatcherState &state) const noexcept
static constexpr uint32_t binds
static constexpr IRNodeType min_node_type
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr bool foldable
static constexpr bool canonical
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr IRNodeType max_node_type
static constexpr IRNodeType min_node_type
static constexpr uint32_t binds
static constexpr bool foldable
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr bool canonical
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE bool match(int64_t e, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
static constexpr bool foldable
static constexpr bool canonical
static constexpr bool foldable
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr uint32_t binds
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE bool match(int64_t value, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
static constexpr IRNodeType max_node_type
static constexpr uint32_t binds
static constexpr bool foldable
static constexpr IRNodeType max_node_type
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
HALIDE_ALWAYS_INLINE void make_folded_const(halide_scalar_value_t &val, halide_type_t &ty, MatcherState &state) const noexcept
static constexpr IRNodeType min_node_type
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr bool canonical
static constexpr IRNodeType min_node_type
static constexpr uint32_t binds
static constexpr IRNodeType max_node_type
static constexpr bool canonical
HALIDE_ALWAYS_INLINE Expr make(MatcherState &state, halide_type_t type_hint) const
static constexpr bool foldable
HALIDE_ALWAYS_INLINE bool match(const BaseExprNode &e, MatcherState &state) const noexcept
static constexpr uint32_t mask
IRNodeType node_type
Each IR node subclass has a unique identifier.
static const IntImm * make(Type t, int64_t value)
Is the first expression less than or equal to the second.
Is the first expression less than the second.
The greater of two values.
The lesser of two values.
The product of two expressions.
Is the first expression not equal to the second.
Logical not - true if the expression false.
Logical or - is at least one of the expression true.
A linear ramp vector node.
static const IRNodeType _node_type
static Expr make(Expr base, Expr stride, int lanes)
static Expr make(Expr condition, Expr true_value, Expr false_value)
static const IRNodeType _node_type
Construct a new vector by taking elements from another sequence of vectors.
static Expr make_slice(Expr vector, int begin, int stride, int size)
Convenience constructor for making a shuffle representing a contiguous subset of a vector.
std::vector< Expr > vectors
int slice_stride() const
Check if this shuffle is a contiguous strict subset of the vector arguments, and if so,...
int slice_begin() const
Check if this shuffle is a contiguous strict subset of the vector arguments, and if so,...
The difference of two expressions.
static const IRNodeType _node_type
static Expr make(Expr a, Expr b)
Unsigned integer constants.
static const UIntImm * make(Type t, uint64_t value)
Horizontally reduce a vector to a scalar or narrower vector using the given commutative and associati...
static const IRNodeType _node_type
static Expr make(Operator op, Expr vec, int lanes)
Types in the halide type system.
HALIDE_ALWAYS_INLINE bool is_int() const
Is this type a signed integer type?
HALIDE_ALWAYS_INLINE int lanes() const
Return the number of vector elements in this type.
HALIDE_ALWAYS_INLINE bool is_uint() const
Is this type an unsigned integer type?
HALIDE_ALWAYS_INLINE int bits() const
Return the bit size of a single element of this type.
HALIDE_ALWAYS_INLINE bool is_scalar() const
Is this type a scalar type? (lanes() == 1).
HALIDE_ALWAYS_INLINE bool is_float() const
Is this type a floating point type (float or double).
halide_scalar_value_t is a simple union able to represent all the well-known scalar values in a filte...
union halide_scalar_value_t::@4 u
A runtime tag for a type in the halide type system.
uint16_t lanes
How many elements in a vector.
uint8_t code
The basic type code: signed integer, unsigned integer, or floating point.