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The following adds missing checks for a vector type result type
to simplifications that end up creating a vec_cond.
PR middle-end/117086
* match.pd ((op (vec_cond ...) ..) -> (vec_cond ...)): Add
missing checks for VECTOR_TYPE_P (type).
* gcc.dg/torture/pr117086.c: New testcase.
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Form 8:
#define DEF_SAT_S_TRUNC_FMT_8(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_8 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN > x || x >= (WT)NT_MAX \
? x < 0 ? NT_MIN : NT_MAX \
: trunc; \
}
The below test are passed for this patch.
* The rv64gcv fully regression test.
It is test only patch and obvious up to a point, will commit it
directly if no comments in next 48H.
gcc/testsuite/ChangeLog:
* gcc.target/riscv/sat_arith.h: Add test helper macros.
* gcc.target/riscv/sat_s_trunc-8-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-8-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-8-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-8-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-8-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-8-i64-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-8-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-8-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-8-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-8-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-8-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-run-8-i64-to-i8.c: New test.
Signed-off-by: Pan Li <pan2.li@intel.com>
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Form 7:
#define DEF_SAT_S_TRUNC_FMT_7(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_7 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN >= x || x >= (WT)NT_MAX \
? x < 0 ? NT_MIN : NT_MAX \
: trunc; \
}
The below test are passed for this patch.
* The rv64gcv fully regression test.
It is test only patch and obvious up to a point, will commit it
directly if no comments in next 48H.
gcc/testsuite/ChangeLog:
* gcc.target/riscv/sat_arith.h: Add test helper macros.
* gcc.target/riscv/sat_s_trunc-7-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-7-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-7-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-7-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-7-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-7-i64-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-7-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-7-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-7-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-7-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-7-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-run-7-i64-to-i8.c: New test.
Signed-off-by: Pan Li <pan2.li@intel.com>
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Form 6:
#define DEF_SAT_S_TRUNC_FMT_6(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_6 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN >= x || x > (WT)NT_MAX \
? x < 0 ? NT_MIN : NT_MAX \
: trunc; \
}
The below test are passed for this patch.
* The rv64gcv fully regression test.
It is test only patch and obvious up to a point, will commit it
directly if no comments in next 48H.
gcc/testsuite/ChangeLog:
* gcc.target/riscv/sat_arith.h: Add test helper macros.
* gcc.target/riscv/sat_s_trunc-6-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-6-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-6-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-6-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-6-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-6-i64-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-6-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-6-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-6-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-6-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-6-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-run-6-i64-to-i8.c: New test.
Signed-off-by: Pan Li <pan2.li@intel.com>
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Form 5:
#define DEF_SAT_S_TRUNC_FMT_5(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_5 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN > x || x > (WT)NT_MAX \
? x < 0 ? NT_MIN : NT_MAX \
: trunc; \
}
The below test are passed for this patch.
* The rv64gcv fully regression test.
It is test only patch and obvious up to a point, will commit it
directly if no comments in next 48H.
gcc/testsuite/ChangeLog:
* gcc.target/riscv/sat_arith.h: Add test helper macros.
* gcc.target/riscv/sat_s_trunc-5-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-5-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-5-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-5-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-5-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-5-i64-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-5-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-5-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-5-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-5-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-5-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-run-5-i64-to-i8.c: New test.
Signed-off-by: Pan Li <pan2.li@intel.com>
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Form 4:
#define DEF_SAT_S_TRUNC_FMT_4(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_4 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN <= x && x < (WT)NT_MAX \
? trunc \
: x < 0 ? NT_MIN : NT_MAX; \
}
gcc/testsuite/ChangeLog:
* gcc.target/riscv/sat_arith.h: Add test helper macros.
* gcc.target/riscv/sat_s_trunc-4-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-4-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-4-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-4-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-4-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-4-i64-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-4-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-4-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-4-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-4-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-4-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-run-4-i64-to-i8.c: New test.
Signed-off-by: Pan Li <pan2.li@intel.com>
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This patch would like to support the form 4 of the scalar signed
integer SAT_TRUNC. Aka below example:
Form 4:
#define DEF_SAT_S_TRUNC_FMT_4(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_4 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN <= x && x < (WT)NT_MAX \
? trunc \
: x < 0 ? NT_MIN : NT_MAX; \
}
DEF_SAT_S_TRUNC_FMT_4(int8_t, int16_t, INT8_MIN, INT8_MAX)
Before this patch:
4 │ __attribute__((noinline))
5 │ int8_t sat_s_trunc_int16_t_to_int8_t_fmt_4 (int16_t x)
6 │ {
7 │ int8_t trunc;
8 │ unsigned short x.0_1;
9 │ unsigned short _2;
10 │ int8_t _3;
11 │ _Bool _7;
12 │ signed char _8;
13 │ signed char _9;
14 │ signed char _10;
15 │
16 │ ;; basic block 2, loop depth 0
17 │ ;; pred: ENTRY
18 │ x.0_1 = (unsigned short) x_4(D);
19 │ _2 = x.0_1 + 128;
20 │ if (_2 > 254)
21 │ goto <bb 4>; [50.00%]
22 │ else
23 │ goto <bb 3>; [50.00%]
24 │ ;; succ: 4
25 │ ;; 3
26 │
27 │ ;; basic block 3, loop depth 0
28 │ ;; pred: 2
29 │ trunc_5 = (int8_t) x_4(D);
30 │ goto <bb 5>; [100.00%]
31 │ ;; succ: 5
32 │
33 │ ;; basic block 4, loop depth 0
34 │ ;; pred: 2
35 │ _7 = x_4(D) < 0;
36 │ _8 = (signed char) _7;
37 │ _9 = -_8;
38 │ _10 = _9 ^ 127;
39 │ ;; succ: 5
40 │
41 │ ;; basic block 5, loop depth 0
42 │ ;; pred: 3
43 │ ;; 4
44 │ # _3 = PHI <trunc_5(3), _10(4)>
45 │ return _3;
46 │ ;; succ: EXIT
47 │
48 │ }
After this patch:
4 │ __attribute__((noinline))
5 │ int8_t sat_s_trunc_int16_t_to_int8_t_fmt_4 (int16_t x)
6 │ {
7 │ int8_t _3;
8 │
9 │ ;; basic block 2, loop depth 0
10 │ ;; pred: ENTRY
11 │ _3 = .SAT_TRUNC (x_4(D)); [tail call]
12 │ return _3;
13 │ ;; succ: EXIT
14 │
15 │ }
The below test suites are passed for this patch.
* The rv64gcv fully regression test.
* The x86 bootstrap test.
* The x86 fully regression test.
gcc/ChangeLog:
* match.pd: Add case 4 matching pattern for signed SAT_TRUNC.
Signed-off-by: Pan Li <pan2.li@intel.com>
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Form 3:
#define DEF_SAT_S_TRUNC_FMT_3(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_3 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN < x && x <= (WT)NT_MAX \
? trunc \
: x < 0 ? NT_MIN : NT_MAX; \
}
gcc/testsuite/ChangeLog:
* gcc.target/riscv/sat_arith.h: Add test helper macros.
* gcc.target/riscv/sat_s_trunc-3-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-3-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-3-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-3-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-3-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-3-i64-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-3-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-3-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-3-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-3-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-3-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-run-3-i64-to-i8.c: New test.
Signed-off-by: Pan Li <pan2.li@intel.com>
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This patch would like to support the form 3 of the scalar signed
integer SAT_TRUNC. Aka below example:
Form 3:
#define DEF_SAT_S_TRUNC_FMT_3(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_3 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN < x && x <= (WT)NT_MAX \
? trunc \
: x < 0 ? NT_MIN : NT_MAX; \
}
DEF_SAT_S_TRUNC_FMT_3(int8_t, int16_t, INT8_MIN, INT8_MAX)
Before this patch:
4 │ __attribute__((noinline))
5 │ int8_t sat_s_sub_int8_t_fmt_3 (int8_t x, int8_t y)
6 │ {
7 │ signed char _1;
8 │ signed char _2;
9 │ int8_t _3;
10 │ __complex__ signed char _6;
11 │ _Bool _8;
12 │ signed char _9;
13 │ signed char _10;
14 │ signed char _11;
15 │
16 │ ;; basic block 2, loop depth 0
17 │ ;; pred: ENTRY
18 │ _6 = .SUB_OVERFLOW (x_4(D), y_5(D));
19 │ _2 = IMAGPART_EXPR <_6>;
20 │ if (_2 != 0)
21 │ goto <bb 4>; [50.00%]
22 │ else
23 │ goto <bb 3>; [50.00%]
24 │ ;; succ: 4
25 │ ;; 3
26 │
27 │ ;; basic block 3, loop depth 0
28 │ ;; pred: 2
29 │ _1 = REALPART_EXPR <_6>;
30 │ goto <bb 5>; [100.00%]
31 │ ;; succ: 5
32 │
33 │ ;; basic block 4, loop depth 0
34 │ ;; pred: 2
35 │ _8 = x_4(D) < 0;
36 │ _9 = (signed char) _8;
37 │ _10 = -_9;
38 │ _11 = _10 ^ 127;
39 │ ;; succ: 5
40 │
41 │ ;; basic block 5, loop depth 0
42 │ ;; pred: 3
43 │ ;; 4
44 │ # _3 = PHI <_1(3), _11(4)>
45 │ return _3;
46 │ ;; succ: EXIT
47 │
48 │ }
After this patch:
4 │ __attribute__((noinline))
5 │ int8_t sat_s_trunc_int16_t_to_int8_t_fmt_3 (int16_t x)
6 │ {
7 │ int8_t _3;
8 │
9 │ ;; basic block 2, loop depth 0
10 │ ;; pred: ENTRY
11 │ _3 = .SAT_TRUNC (x_4(D)); [tail call]
12 │ return _3;
13 │ ;; succ: EXIT
14 │
15 │ }
The below test suites are passed for this patch.
* The rv64gcv fully regression test.
* The x86 bootstrap test.
* The x86 fully regression test.
gcc/ChangeLog:
* match.pd: Add case 3 matching pattern for signed SAT_TRUNC.
Signed-off-by: Pan Li <pan2.li@intel.com>
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Form 2:
#define DEF_SAT_S_TRUNC_FMT_2(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_2 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN < x && x < (WT)NT_MAX \
? trunc \
: x < 0 ? NT_MIN : NT_MAX; \
}
The below test are passed for this patch.
* The rv64gcv fully regression test.
It is test only patch and obvious up to a point, will commit it
directly if no comments in next 48H.
gcc/testsuite/ChangeLog:
* gcc.target/riscv/sat_arith.h: Add test helper macros.
* gcc.target/riscv/sat_s_trunc-2-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-2-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-2-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-2-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-2-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-2-i64-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-2-i16-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-2-i32-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-2-i32-to-i8.c: New test.
* gcc.target/riscv/sat_s_trunc-run-2-i64-to-i16.c: New test.
* gcc.target/riscv/sat_s_trunc-run-2-i64-to-i32.c: New test.
* gcc.target/riscv/sat_s_trunc-run-2-i64-to-i8.c: New test.
Signed-off-by: Pan Li <pan2.li@intel.com>
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This patch would like to support the form 2 of the scalar signed
integer SAT_TRUNC. Aka below example:
Form 2:
#define DEF_SAT_S_TRUNC_FMT_2(NT, WT, NT_MIN, NT_MAX) \
NT __attribute__((noinline)) \
sat_s_trunc_##WT##_to_##NT##_fmt_2 (WT x) \
{ \
NT trunc = (NT)x; \
return (WT)NT_MIN < x && x < (WT)NT_MAX \
? trunc \
: x < 0 ? NT_MIN : NT_MAX; \
}
DEF_SAT_S_TRUNC_FMT_2(int8_t, int16_t, INT8_MIN, INT8_MAX)
Before this patch:
4 │ __attribute__((noinline))
5 │ int8_t sat_s_trunc_int16_t_to_int8_t_fmt_2 (int16_t x)
6 │ {
7 │ int8_t trunc;
8 │ unsigned short x.0_1;
9 │ unsigned short _2;
10 │ int8_t _3;
11 │ _Bool _7;
12 │ signed char _8;
13 │ signed char _9;
14 │ signed char _10;
15 │
16 │ ;; basic block 2, loop depth 0
17 │ ;; pred: ENTRY
18 │ x.0_1 = (unsigned short) x_4(D);
19 │ _2 = x.0_1 + 127;
20 │ if (_2 > 253)
21 │ goto <bb 4>; [50.00%]
22 │ else
23 │ goto <bb 3>; [50.00%]
24 │ ;; succ: 4
25 │ ;; 3
26 │
27 │ ;; basic block 3, loop depth 0
28 │ ;; pred: 2
29 │ trunc_5 = (int8_t) x_4(D);
30 │ goto <bb 5>; [100.00%]
31 │ ;; succ: 5
32 │
33 │ ;; basic block 4, loop depth 0
34 │ ;; pred: 2
35 │ _7 = x_4(D) < 0;
36 │ _8 = (signed char) _7;
37 │ _9 = -_8;
38 │ _10 = _9 ^ 127;
39 │ ;; succ: 5
40 │
41 │ ;; basic block 5, loop depth 0
42 │ ;; pred: 3
43 │ ;; 4
44 │ # _3 = PHI <trunc_5(3), _10(4)>
45 │ return _3;
46 │ ;; succ: EXIT
47 │
48 │ }
After this patch:
4 │ __attribute__((noinline))
5 │ int8_t sat_s_trunc_int16_t_to_int8_t_fmt_2 (int16_t x)
6 │ {
7 │ int8_t _3;
8 │
9 │ ;; basic block 2, loop depth 0
10 │ ;; pred: ENTRY
11 │ _3 = .SAT_TRUNC (x_4(D)); [tail call]
12 │ return _3;
13 │ ;; succ: EXIT
14 │
15 │ }
The below test suites are passed for this patch.
* The rv64gcv fully regression test.
* The x86 bootstrap test.
* The x86 fully regression test.
gcc/ChangeLog:
* match.pd: Add case 2 matching pattern for signed SAT_TRUNC.
Signed-off-by: Pan Li <pan2.li@intel.com>
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The adjusted and new spaceship expanders ICE with -mtune=i486 or
-mtune=i586.
The problem is that in that case TARGET_ZERO_EXTEND_WITH_AND is true
and zero_extendqisi2 isn't allowed in that case, and we can't use
the replacement AND, because that clobbers flags and we want to use them
again.
The following patch fixes that by using in those cases roughly what
we want to expand it to after peephole2 optimizations, i.e. xor
before the comparison, *setcc_qi_slp and sbbl $0 (or for signed
int case xoring of 2 regs, two *setcc_qi_slp, subl).
For *setcc_qi_slp, it uses the setcc_si_slp hacks with UNSPEC that
were in use for the floating point jp case (so such code is IMHO
undesirable for the !TARGET_ZERO_EXTEND_WITH_AND case as we want to
give combiner more liberty in that case).
2024-10-11 Jakub Jelinek <jakub@redhat.com>
PR target/117053
* config/i386/i386-expand.cc (ix86_expand_fp_spaceship): Handle
TARGET_ZERO_EXTEND_WITH_AND differently.
(ix86_expand_int_spaceship): Likewise.
* g++.target/i386/pr116896-3.C: New test.
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The following temporarily reverts the support of permuted .MASK_LOAD for the
case of non-grouped accesses.
PR tree-optimization/117050
* tree-vect-slp.cc (vect_build_slp_tree_2): Do not support
permutes of non-grouped .MASK_LOAD.
* gcc.dg/vect/pr117050.c: New testcase.
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When we're doing masked store-lanes one mask element applies to all
loads of one struct element. This requires uniform masks for all
of the SLP lanes, something we already compute into STMT_VINFO_SLP_VECT_ONLY
but fail to check when doing SLP store-lanes. The following corrects
this. The following also adjusts the store-lane heuristic to properly
check for masked or non-masked optab support.
* tree-vect-slp.cc (vect_slp_prefer_store_lanes_p): Allow
passing in of vectype, pass in whether the stores are masked
and query the correct optab.
(vect_build_slp_instance): Guard store-lanes query with
! STMT_VINFO_SLP_VECT_ONLY, guaranteeing an uniform mask.
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Hi, all
This is another patch to modify some pattern's type attr from ssemov to
ssemov2.
Some ssemov pattern's mem attr should be load when their 2 operand is a memory
operand.
Bootstrapped and regtested on x86-64-linux-pc, OK for trunk?
BRs,
Lin
gcc/ChangeLog:
* config/i386/sse.md
(sse_movhlps): Change type attr from ssemov to ssemov2.
(sse_loadhps): Ditto.
(*vec_concat<mode>): Ditto.
(vec_setv2df_0): Ditto.
(sse_loadlps): Change attr from ssemov to ssemov2 except for 2, 3.
(sse2_loadhps): Change attr from ssemov to ssemov2 except for 0, 1.
(sse2_loadlpd): Change attr from ssemov to ssemov2 except for 0, 1,
2.
(sse2_movsd_<mode>): Change attr from ssemov to ssemov2 except for 5.
(vec_concatv2df): Change attr from ssemov to ssemov2 except for 0, 1,
2.
(*vec_concat<mode>): Change attr from ssemov to ssemov2 for 3, 4.
(vec_concatv2di): Change attr from ssemov to ssemov2 except for 0, 1,
2, 3, 4, 5.
|
|
|
|
The test at pr116258.c fails on big endian targets,
this is because the test checks that the index of a floating
point multiply is 0, which is correct only for little endian.
gcc/testsuite/ChangeLog:
PR tree-optimization/116258
* gcc.target/aarch64/pr116258.c:
Alter test to add big-endian support.
|
|
(this came up for m68k vs. LRA, but is a generic problem)
Regrename wants to use new registers for certain def-use chains.
For validity of replacements it needs to check that the selected
candidates are unused up to then. That's done in check_new_reg_p.
But if it so happens that the new register needs more hardregs
than the old register (which happens if the target allows inter-bank
moves and the mode is something like a DFmode that needs to be placed
into a SImode reg-pair), then check_new_reg_p only checks the
first of those registers for free-ness.
This is caused by that function looking up the number of necessary
hardregs only in terms of the old hardreg number. It of course needs
to do that in terms of the new candidate regnumber. The symptom is that
regrename sometimes clobbers the higher numbered registers of such a
regrename target pair. This patch fixes that problem.
(In the particular case of the bug report it was LRA that left over a
inter-bank move instruction that triggers regrename, ultimately causing
the mis-compile. Reload didn't do that, but in general we of course
can't rely on such moves not happening if the target allows them.)
This also shows a general confusion in that function and the target hook
interface here:
for (i = nregs - 1; i >= 0; --)
...
|| ! HARD_REGNO_RENAME_OK (reg + i, new_reg + i))
it uses nregs in a way that requires it to be the same between old and
new register. The problem is that the target hook only gets register
numbers, when it instead should get a mode and register numbers and
would be called only for the first but not for subsequent registers.
I've looked at a number of definitions of that target hook and I think
that this is currently harmless in the sense that it would merely rule
out some potential reg-renames that would in fact be okay to do. So I'm
not changing the target hook interface here and hence that problem
remains unfixed.
PR rtl-optimization/116650
* regrename.cc (check_new_reg_p): Calculate nregs in terms of
the new candidate register.
|
|
After r15-3560-gb081e6c860eb9688d24365d39, the setting of candorest
with the break can just change to a return since this is inside a lambda now.
Bootstrapped and tested on x86_64-linux-gnu.
gcc/ChangeLog:
* tree-ssa-phiopt.cc (pass_phiopt::execute): Remove candorest
and return instead of setting candorest.
Signed-off-by: Andrew Pinski <quic_apinski@quicinc.com>
|
|
From: xuli <xuli1@eswincomputing.com>
Example as follows:
int main()
{
unsigned long arraya[128], arrayb[128], arrayc[128];
for (int i = 0; i < 128; i++)
{
arraya[i] = arrayb[i] + arrayc[i];
}
return 0;
}
Compiled with -march=rv32imafc_zve32f -mabi=ilp32f, it will cause a compilation issue:
riscv_vector.h:40:25: error: ambiguating new declaration of 'vint64m4_t __riscv_vle64(vbool16_t, const long long int*, unsigned int)'
40 | #pragma riscv intrinsic "vector"
| ^~~~~~~~
riscv_vector.h:40:25: note: old declaration 'vint64m1_t __riscv_vle64(vbool64_t, const long long int*, unsigned int)'
With zvl=32b, vbool16_t is registered in init_builtins() with
type_common.precision=0x101 (nunits=2), mode_nunits[E_RVVMF16BI]=[2,2].
Normally, vbool64_t is only valid when TARGET_MIN_VLEN > 32, so vbool64_t
is not registered in init_builtins(), meaning vbool64_t=null.
In order to implement __attribute__((target("arch=+v"))), we must register
all vector types and all RVV intrinsics. Therefore, vbool64_t will be registered
by default with zvl=128b in reinit_builtins(), resulting in
type_common.precision=0x101 (nunits=2) and mode_nunits[E_RVVMF64BI]=[2,2].
We then get TYPE_VECTOR_SUBPARTS(vbool16_t) == TYPE_VECTOR_SUBPARTS(vbool64_t),
calculated using type_common.precision, resulting in 2. Since vbool16_t and
vbool64_t have the same element type (boolean_type), the compiler treats them
as the same type, leading to a re-declaration conflict.
After all types and intrinsics have been registered, processing
__attribute__((target("arch=+v"))) will update the parameters option and
init_adjust_machine_modes. Therefore, to avoid conflicts, we can choose
zvl=4096b for the null type reinit_builtins().
command option zvl=32b
type nunits
vbool64_t => null
vbool32_t=> [1,1]
vbool16_t=> [2,2]
vbool8_t=> [4,4]
vbool4_t=> [8,8]
vbool2_t=> [16,16]
vbool1_t=> [32,32]
reinit zvl=128b
vbool64_t => [2,2] conflict with zvl32b vbool16_t=> [2,2]
reinit zvl=256b
vbool64_t => [4,4] conflict with zvl32b vbool8_t=> [4,4]
reinit zvl=512b
vbool64_t => [8,8] conflict with zvl32b vbool4_t=> [8,8]
reinit zvl=1024b
vbool64_t => [16,16] conflict with zvl32b vbool2_t=> [16,16]
reinit zvl=2048b
vbool64_t => [32,32] conflict with zvl32b vbool1_t=> [32,32]
reinit zvl=4096b
vbool64_t => [64,64] zvl=4096b is ok
Signed-off-by: xuli <xuli1@eswincomputing.com>
PR target/116883
gcc/ChangeLog:
* config/riscv/riscv-c.cc (riscv_pragma_intrinsic_flags_pollute): Choose zvl4096b
to initialize null type.
gcc/testsuite/ChangeLog:
* g++.target/riscv/rvv/base/pr116883.C: New test.
|
|
My recent VLA SLP patches caused a regression with cross compilers
in gcc.dg/torture/neon-sve-bridge.c. There we have a VEC_PERM_EXPR
created from two BIT_FIELD_REFs, with the child node being an
external VLA vector:
note: node 0x3704a70 (max_nunits=1, refcnt=2) vector(2) long int
note: op: VEC_PERM_EXPR
note: stmt 0 val1Return_9 = BIT_FIELD_REF <sveReturn_8, 64, 0>;
note: stmt 1 val2Return_10 = BIT_FIELD_REF <sveReturn_8, 64, 64>;
note: lane permutation { 0[0] 0[1] }
note: children 0x3704b08
note: node (external) 0x3704b08 (max_nunits=1, refcnt=1) svint64_t
note: { }
For this kind of external node, the SLP_TREE_LANES is normally
the total number of lanes in the vector, but it is zero if the
vector has variable length:
auto nunits = TYPE_VECTOR_SUBPARTS (SLP_TREE_VECTYPE (vnode));
unsigned HOST_WIDE_INT const_nunits;
if (nunits.is_constant (&const_nunits))
SLP_TREE_LANES (vnode) = const_nunits;
This led to division by zero in:
/* Check whether the output has N times as many lanes per vector. */
else if (constant_multiple_p (SLP_TREE_LANES (node) * op_nunits,
SLP_TREE_LANES (child) * nunits,
&this_unpack_factor)
&& (i == 0 || unpack_factor == this_unpack_factor))
unpack_factor = this_unpack_factor;
No repetition takes place for this kind of external node, so this
patch goes with Richard's suggestion to check for external nodes
that have no scalar statements.
This didn't show up for my native testing since division by zero
doesn't trap on AArch64.
gcc/
* tree-vect-slp.cc (vectorizable_slp_permutation_1): Set repeating_p
to false if we have an external node for a pre-existing vector.
|
|
We are failing to match call vs. non-call when dealing with matching
loads or stores.
PR tree-optimization/117060
* tree-vect-slp.cc (vect_build_slp_tree_1): When comparing
calls also fail if the first isn't a call.
* gfortran.dg/pr117060.f90: New testcase.
|
|
This patch guards the simplification x / y * y == x -> x % y == 0 in
match.pd by a check for:
1) Non-vector mode of x OR
2) Lack of support for vector division OR
3) Support of vector modulo
The patch was bootstrapped and tested with no regression on
aarch64-linux-gnu and x86_64-linux-gnu.
OK for mainline?
Signed-off-by: Jennifer Schmitz <jschmitz@nvidia.com>
gcc/
PR tree-optimization/116831
* match.pd: Guard simplification to trunc_mod with check for
mod optab support.
gcc/testsuite/
PR tree-optimization/116831
* gcc.dg/torture/pr116831.c: New test.
|
|
vect_build_slp_tree_1 rejected this during SLP discovery because it
ran into the rhs code comparison code for stores. The following
skips that completely for loads and stores as those are handled
later anyway.
This needs a heuristic adjustment in vect_get_and_check_slp_defs
to avoid fallout with regard to BB vectorization and splitting
of a store group vs. demoting one operand to external.
gcc.dg/Wstringop-overflow-47.c needs adjustment given we now have
vast improvements for code generation. gcc.dg/strlenopt-32.c
needs adjustment because the strlen pass doesn't handle
_11 = {0, b_6(D)};
__builtin_memcpy (&a, "foo.bar", 8);
MEM <vector(2) char> [(char *)&a + 3B] = _11;
_9 = strlen (&a);
I have opened PR117057 for this.
* tree-vect-slp.cc (vect_build_slp_tree_1): Do not compare
RHS codes for loads or stores.
(vect_get_and_check_slp_defs): Only demote operand to external
in case there is more than one operand.
* gcc.dg/vect/slp-57.c: New testcase.
* gcc.dg/Wstringop-overflow-47.c: Adjust.
* gcc.dg/strlenopt-32.c: XFAIL parts.
|
|
According to Intel SOM[1], For Crestmont, most 256-bit Intel AVX2
instructions can be decomposed into two independent 128-bit
micro-operations, except for a subset of Intel AVX2 instructions,
known as cross-lane operations, can only compute the result for an
element by utilizing one or more sources belonging to other elements.
The 256-bit instructions listed below use more operand sources than
can be natively supported by a single reservation station within these
microarchitectures. They are decomposed into two μops, where the first
μop resolves a subset of operand dependencies across two cycles. The
dependent second μop executes the 256-bit operation by using a single
128-bit execution port for two consecutive cycles with a five-cycle
latency for a total latency of seven cycles.
VPERM2I128 ymm1, ymm2, ymm3/m256, imm8
VPERM2F128 ymm1, ymm2, ymm3/m256, imm8
VPERMPD ymm1, ymm2/m256, imm8
VPERMPS ymm1, ymm2, ymm3/m256
VPERMD ymm1, ymm2, ymm3/m256
VPERMQ ymm1, ymm2/m256, imm8
Instead of setting tune avx128_optimal for SRF, the patch add a new
tune avx256_avoid_vec_perm for it. so by default, vectorizer still
uses 256-bit VF if cost is profitable, but lowers to 128-bit whenever
256-bit vec_perm is needed for auto-vectorization. w/o vec_perm,
performance of 256-bit vectorization should be similar as 128-bit
ones(some benchmark results show it's even better than 128-bit
vectorization since it enables more parallelism for convert cases.)
[1] https://www.intel.com/content/www/us/en/content-details/814198/intel-64-and-ia-32-architectures-optimization-reference-manual-volume-1.html
gcc/ChangeLog:
* config/i386/i386.cc (ix86_vector_costs::ix86_vector_costs):
Add new member m_num_avx256_vec_perm.
(ix86_vector_costs::add_stmt_cost): Record 256-bit vec_perm.
(ix86_vector_costs::finish_cost): Prevent vectorization for
TAREGT_AVX256_AVOID_VEC_PERM when there's 256-bit vec_perm
instruction.
* config/i386/i386.h (TARGET_AVX256_AVOID_VEC_PERM): New
Macro.
* config/i386/x86-tune.def (X86_TUNE_AVX256_SPLIT_REGS): Add
m_CORE_ATOM.
(X86_TUNE_AVX256_AVOID_VEC_PERM): New tune.
gcc/testsuite/ChangeLog:
* gcc.target/i386/avx256_avoid_vec_perm.c: New test.
|
|
For Crestmont, 4-operand vex blendv instructions come from MSROM and
is slower than 3-instructions sequence (op1 & mask) | (op2 & ~mask).
legacy blendv instruction can still be handled by the decoder.
The patch add a new tune which is enabled for all processors except
for SRF/CWF. It will use vpand + vpandn + vpor instead of
vpblendvb(similar for vblendvps/vblendvpd) for SRF/CWF.
gcc/ChangeLog:
* config/i386/i386-expand.cc (ix86_expand_sse_movcc): Guard
instruction blendv generation under new tune.
* config/i386/i386.h (TARGET_SSE_MOVCC_USE_BLENDV): New Macro.
* config/i386/x86-tune.def (X86_TUNE_SSE_MOVCC_USE_BLENDV):
New tune.
|
|
gcc/ChangeLog:
* config/i386/i386.md: Rewrite insn truncsfbf2.
gcc/testsuite/ChangeLog:
* gcc.target/i386/truncsfbf-1.c: New test.
* gcc.target/i386/truncsfbf-2.c: New test.
|
|
No functional change intended.
gcc/ChangeLog:
* diagnostic-format-text.cc
(diagnostic_text_output_format::after_diagnostic): Replace call to
show_any_path with body, taken from diagnostic.cc.
(diagnostic_text_output_format::build_prefix): Move here from
diagnostic.cc, updating to use get_diagnostic_kind_text and
diagnostic_get_color_for_kind.
(diagnostic_text_output_format::file_name_as_prefix): Move here
from diagnostic.cc
(diagnostic_text_output_format::append_note): Likewise.
* diagnostic-format-text.h
(diagnostic_text_output_format::show_any_path): Drop decl.
* diagnostic.cc
(diagnostic_text_output_format::file_name_as_prefix): Move to
diagnostic-format-text.cc.
(diagnostic_text_output_format::build_prefix): Likewise.
(diagnostic_text_output_format::show_any_path): Move to body of
diagnostic_text_output_format::after_diagnostic.
(diagnostic_text_output_format::append_note): Move to
diagnostic-format-text.cc.
Signed-off-by: David Malcolm <dmalcolm@redhat.com>
|
|
The bulk of the documentation for -fdiagnostics-format= is taken up
by a description of the "json" format added in r9-4156-g478dd60ddcf177.
I don't plan to add any extra features to the "json" format; all my
future work on machine-readable GCC diagnostics is likely to be on the
SARIF output format (https://gcc.gnu.org/wiki/SARIF).
Hence users seeking machine-readable output from GCC should use SARIF.
This patch removes the long documentation of the format and describes it
as deprecated.
gcc/ChangeLog:
* doc/invoke.texi (fdiagnostics-format): Describe "json" et al as
deprecated, and remove the long description of the output format.
Signed-off-by: David Malcolm <dmalcolm@redhat.com>
|
|
gcc/ChangeLog:
PR other/116613
* lto-wrapper.cc (print_lto_docs_link): Use a format string rather
than building the string manually. Fix memory leak of "url" by
using label_text.
Signed-off-by: David Malcolm <dmalcolm@redhat.com>
|
|
|
|
gcc/testsuite/ChangeLog:
* gcc.dg/fstack-protector-strong.c: Adjust
scan-assembler-times.
* gcc.dg/graphite/scop-6.c: Refine the testcase to avoid array
out of bounds.
* gcc.dg/graphite/scop-9.c: Ditto.
* gcc.dg/tree-ssa/ivopts-lt-2.c: Add -fno-tree-vectorize.
* gcc.dg/tree-ssa/ivopts-lt.c: Ditto.
* gcc.dg/tree-ssa/loop-16.c: Ditto.
* gcc.dg/tree-ssa/loop-28.c: Ditto.
* gcc.dg/tree-ssa/loop-bound-2.c: Ditto.
* gcc.dg/tree-ssa/loop-bound-4.c: Ditto.
* gcc.dg/tree-ssa/loop-bound-6.c: Ditto.
* gcc.dg/tree-ssa/predcom-4.c: Ditto.
* gcc.dg/tree-ssa/predcom-5.c: Ditto.
* gcc.dg/tree-ssa/scev-11.c: Ditto.
* gcc.dg/tree-ssa/scev-9.c: Ditto.
* gcc.dg/tree-ssa/split-path-11.c: Ditto.
* gcc.dg/unroll-8.c: Ditto.
* gcc.dg/var-expand1.c: Ditto.
* gcc.dg/vect/vect-cost-model-6.c: Removed.
* gcc.target/i386/pr86270.c: Ditto.
* gcc.target/i386/pr86722.c: Ditto.
* gcc.target/x86_64/abi/callabi/leaf-2.c: Ditto.
|
|
disable epilog vectorization.
gcc/ChangeLog:
* tree-vect-loop.cc (vect_analyze_loop_costing): Enable
vectorization for LOOP_VINFO_PEELING_FOR_NITER in very cheap
cost model.
(vect_analyze_loop): Disable epilogue vectorization in very
cheap cost model.
* doc/invoke.texi: Adjust documents for very-cheap cost model.
|
|
After the valuable feedback I received, it’s clear to me that the
oversight was in the tests showing the benefits of the patch. In the
test file, I added functions f5 and f6, which now generate more
efficient code with fewer instructions.
Before the patch:
f5:
li a4,2097152
addi a4,a4,-2048
li a5,1167360
and a0,a0,a4
addi a5,a5,-2048
beq a0,a5,.L4
f6:
li a5,3407872
addi a5,a5,-2048
and a0,a0,a5
li a5,1114112
beq a0,a5,.L7
After the patch:
f5:
srli a5,a0,11
andi a5,a5,1023
li a4,569
beq a5,a4,.L5
f6:
srli a5,a0,11
andi a5,a5,1663
li a4,544
beq a5,a4,.L9
PR target/115921
gcc/ChangeLog:
* config/riscv/iterators.md (any_eq): New code iterator.
* config/riscv/riscv.h (COMMON_TRAILING_ZEROS): New macro.
(SMALL_AFTER_COMMON_TRAILING_SHIFT): Ditto.
* config/riscv/riscv.md (*branch<ANYI:mode>_shiftedarith_<optab>_shifted):
New pattern.
gcc/testsuite/ChangeLog:
* gcc.target/riscv/branch-1.c: Additional tests.
|
|
This reverts commit 0a193466f2e87acef9b86e0d086bc6f6017518b0.
|
|
This reverts commit 2990f5802a727cbd717587c3a345fa940193049f.
|
|
In GNAT's implementation model, using convention C (or C_Pass_By_Copy) has
no effect on the internal representation of types since the representation
is identical to that of C by default. It's even counter-productive given
the implementation advice listed in B.3(63-71) so the interface between the
front-end and gigi does not use it and instead uses structurally identical
types on both sides.
gcc/ada
PR ada/117038
* fe.h (struct c_array): Add 'const' to declaration of pointer.
(C_Source_Buffer): Use consistent formatting.
* par-ch3.adb (P_Component_Items): Properly set Aliased_Present on
access definition.
* sinput.ads: Remove clause for Interfaces.C.
(C_Array): Change type of Length to Integer and make both components
aliased. Remove Convention aspect.
(C_Source_Buffer): Remove all aspects.
* sinput.adb (C_Source_Buffer): Adjust to above change.
|
|
gcc/ada
* Makefile.rtl: Remove HP-UX 10 section.
* libgnarl/s-osinte__hpux-dce.ads: Delete.
* libgnarl/s-osinte__hpux-dce.adb: Likewise.
* libgnarl/s-taprop__hpux-dce.adb: Likewise.
* libgnarl/s-taspri__hpux-dce.ads: Likewise.
* libgnat/s-oslock__hpux-dce.ads: Likewise.
|
|
In r15-4119-gc877a27f04f648 I told preprocess_file to use the
directives-only scan with modules, but it seems that I also need to set the
cpp_option so that communication between _cpp_handle_directive and
scan_translation_unit_directives_only works properly in
c-c++-common/cpp/embed-6.c.
gcc/c-family/ChangeLog:
* c-ppoutput.cc (preprocess_file): Set directives_only flag.
|
|
This fixes a typo introduced in r15-4200-gcf08dd297ca that was reported
at https://linaro.atlassian.net/browse/GNU-1369.
gcc/testsuite/ChangeLog
* gcc.target/arm/mod_2.c: Corrected effective-target to
arm_cpu_cortex_a57_ok.
* gcc.target/arm/mod_256.c: Likewise.
Signed-off-by: Torbjörn SVENSSON <torbjorn.svensson@foss.st.com>
|
|
The SVE ACLE code has two ways of handling overloaded functions.
One, used by C, is to define a single dummy function for each unique
overloaded name, with resolve_overloaded_builtin then resolving calls
to real non-overloaded functions. The other, used by C++, is to
define a separate function for each individual overload.
The builtins harness assigns integer function codes programmatically.
However, LTO requires it to use the same assignment for every
translation unit, regardless of language. This means that C++ TUs
need to create (unused) slots for the C overloads and that C TUs
need to create (unused) slots for the C++ overloads.
In many ways, it doesn't matter whether the LTO frontend itself
uses the C approach or the C++ approach to defining overloaded
functions, since the LTO frontend never has to resolve source-level
overloading. However, the C++ approach of defining a separate
function for each overload means that C++ calls never need to
be redirected to a different function. Calls to an overload
can appear in the LTO dump and survive until expand. In contrast,
calls to C's dummy overload functions are resolved by the front
end and never survive to LTO (or expand).
Some optimisations work by moving between sibling functions, such as _m
to _x. If the source function is an overload, the expected destination
function is too. The LTO frontend needs to define C++ overloads if it
wants to do this optimisation properly for C++.
The PR is about a tree checking failure caused by trying to use a
stubbed-out C++ overload in LTO. Dealing with that by detecting the
stub (rather than changing which overloads are defined) would have
turned this from an ice-on-valid to a missed optimisation.
In future, it would probably make sense to redirect overloads to
non-overloaded functions during gimple folding, in case that exposes
more CSE opportunities. But it'd probably be of limited benefit, since
it should be rare for code to mix overloaded and non-overloaded uses of
the same operation. It also wouldn't be suitable for backports.
gcc/
PR target/116629
* config/aarch64/aarch64-sve-builtins.cc
(function_builder::function_builder): Use direct overloads for LTO.
gcc/testsuite/
PR target/116629
* gcc.target/aarch64/sve/acle/general/pr106326_2.c: New test.
|
|
This patch tries to make check-function-bodies automatically
choose between reading the regular assembly file and reading the
LTO assembly file. There should only ever be one right answer,
since check-function-bodies doesn't make sense on slim LTO output.
Maybe this will turn out to be impossible to get right, but I'd like
to try at least.
gcc/testsuite/
* lib/scanasm.exp (check-function-bodies): Look in ltrans0.ltrans.s
if the test appears to be using LTO.
|
|
The issue was approved at the recent St. Louis meeting, requiring
support for bounded arrays, but only without arguments to initialize the
array elements.
libstdc++-v3/ChangeLog:
* include/bits/stl_construct.h (construct_at): Support array
types (LWG 3436).
* testsuite/20_util/specialized_algorithms/construct_at/array.cc:
New test.
* testsuite/20_util/specialized_algorithms/construct_at/array_neg.cc:
New test.
gcc/testsuite/ChangeLog:
* g++.dg/cpp0x/initlist-opt1.C: Adjust for different diagnostics
from std::construct_at by adding -fconcepts-diagnostics-depth=2.
|
|
I've tried to sanitize DR_GROUP_NEXT_ELEMENT accesses but there are too
many so the following instead makes sure DR_GROUP_NEXT_ELEMENT is never
non-NULL for !STMT_VINFO_GROUPED_ACCESS.
* tree-vect-data-refs.cc (vect_analyze_data_ref_access): When
cancelling a DR group also clear DR_GROUP_NEXT_ELEMENT.
|
|
When we first detect a grouped load but later dis-associate it we
only set DR_GROUP_FIRST_ELEMENT to NULL, indicating it is not a
STMT_VINFO_GROUPED_ACCESS but leave DR_GROUP_NEXT_ELEMENT set. This
causes a stray DR_GROUP_NEXT_ELEMENT access in get_group_load_store_type
to go wrong, indicating a load isn't single_element_p when it actually
is, leading to wrong classification and an ICE.
PR tree-optimization/117041
* tree-vect-stmts.cc (get_group_load_store_type): Only
check DR_GROUP_NEXT_ELEMENT for STMT_VINFO_GROUPED_ACCESS.
* gcc.dg/torture/pr117041.c: New testcase.
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Update test cases to use -mcpu=unset/-march=unset feature introduced in
r15-3606-g7d6c6a0d15c.
gcc/testsuite/ChangeLog
* gcc.target/arm/pr65647.c: Use effective-target arm_arch_v6m.
Removed unneeded dg-skip-if.
* gcc.target/arm/mod_2.c: Use effective-target arm_cpu_cortex_a57.
* gcc.target/arm/mod_256.c: Likewise.
* gcc.target/arm/vseleqdf.c: Likewise.
* gcc.target/arm/vseleqsf.c: Likewise.
* gcc.target/arm/vselgedf.c: Likewise.
* gcc.target/arm/vselgesf.c: Likewise.
* gcc.target/arm/vselgtdf.c: Likewise.
* gcc.target/arm/vselgtsf.c: Likewise.
* gcc.target/arm/vselledf.c: Likewise.
* gcc.target/arm/vsellesf.c: Likewise.
* gcc.target/arm/vselltdf.c: Likewise.
* gcc.target/arm/vselltsf.c: Likewise.
* gcc.target/arm/vselnedf.c: Likewise.
* gcc.target/arm/vselnesf.c: Likewise.
* gcc.target/arm/vselvcdf.c: Likewise.
* gcc.target/arm/vselvcsf.c: Likewise.
* gcc.target/arm/vselvsdf.c: Likewise.
* gcc.target/arm/vselvssf.c: Likewise.
* lib/target-supports.exp: Define effective-target arm_cpu_cortex_a57.
Update effective-target arm_v8_1_lob_ok to use -mcpu=unset.
Signed-off-by: Torbjörn SVENSSON <torbjorn.svensson@foss.st.com>
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This was tested by bootstrapping GCC natively on ia64-t2-linux-gnu and
running the testsuite (based on
236116068151bbc72aaaf53d0f223fe06f7e3bac):
https://gcc.gnu.org/pipermail/gcc-testresults/2024-June/817268.html
For comparison, the same with just
236116068151bbc72aaaf53d0f223fe06f7e3bac:
https://gcc.gnu.org/pipermail/gcc-testresults/2024-June/817267.html
gcc/
* config/ia64/ia64.cc: Enable LRA for ia64.
* config/ia64/ia64.md: Likewise.
* config/ia64/predicates.md: Likewise.
Signed-off-by: René Rebe <rene@exactcode.de>
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The following un-deprecates ia64*-*-linux for GCC 15. Since we plan to
support this for some years to come.
gcc/
* config.gcc: Only list ia64*-*-(hpux|vms|elf) in the list of
obsoleted targets.
contrib/
* config-list.mk (LIST): no --enable-obsolete for ia64-linux.
Signed-off-by: René Rebe <rene@exactcode.de>
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The following massages the GIMPLE matching way of handling scan
stores to work with single-lane SLP. I do not fully understand all
the cases that can happen and the stmt matching at vectorizable_store
time is less than ideal - but the following gets me all the testcases
to pass with and without forced SLP.
Long term we want to perform the matching at SLP discovery time,
properly chaining the various SLP instances the current state ends
up with.
PR tree-optimization/116974
* tree-vect-stmts.cc (check_scan_store): Pass in the SLP node
instead of just a flag. Allow single-lane scan stores.
(vectorizable_store): Adjust.
* tree-vect-loop.cc (vect_analyze_loop_2): Empty scan_map
before re-trying.
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The following handles SLP discovery of permuted masked loads which
was prohibited (because wrongly handled) for PR114375. In particular
with single-lane SLP at the moment all masked group loads appear
permuted and we fail to use masked load lanes as well. The following
addresses parts of the issues, starting with doing correct basic
discovery - namely discover an unpermuted mask load followed by
a permute node. In particular groups with gaps do not support masking
yet (and didn't before w/o SLP IIRC). There's still issues with
how we represent masked load/store-lanes I think, but I first have to
get my hands on a good testcase.
PR tree-optimization/116575
PR tree-optimization/114375
* tree-vect-slp.cc (vect_build_slp_tree_2): Do not reject
permuted mask loads without gaps but instead discover a
node for the full unpermuted load and permute that with
a VEC_PERM node.
* gcc.dg/vect/vect-pr114375.c: Expect vectorization now with avx2.
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