broadcast factor. */
struct Broadcast_Operation
{
- /* Type of broadcast: no broadcast, {1to8}, or {1to16}. */
+ /* Type of broadcast: {1to2}, {1to4}, {1to8}, or {1to16}. */
int type;
/* Index of broadcasted operand. */
int operand;
+
+ /* Number of bytes to broadcast. */
+ int bytes;
};
static struct Broadcast_Operation broadcast_op;
invalid_vector_register_set,
unsupported_vector_index_register,
unsupported_broadcast,
- broadcast_not_on_src_operand,
broadcast_needed,
unsupported_masking,
mask_not_on_destination,
/* Flags for operands. */
unsigned int flags[MAX_OPERANDS];
#define Operand_PCrel 1
+#define Operand_Mem 2
/* Relocation type for operand */
enum bfd_reloc_code_real reloc[MAX_OPERANDS];
&& !defined (TE_GNU) \
&& !defined (TE_LINUX) \
&& !defined (TE_NACL) \
- && !defined (TE_NETWARE) \
&& !defined (TE_FreeBSD) \
&& !defined (TE_DragonFly) \
&& !defined (TE_NetBSD)))
CPU_BDVER4_FLAGS, 0 },
{ STRING_COMMA_LEN ("znver1"), PROCESSOR_ZNVER,
CPU_ZNVER1_FLAGS, 0 },
+ { STRING_COMMA_LEN ("znver2"), PROCESSOR_ZNVER,
+ CPU_ZNVER2_FLAGS, 0 },
{ STRING_COMMA_LEN ("btver1"), PROCESSOR_BT,
CPU_BTVER1_FLAGS, 0 },
{ STRING_COMMA_LEN ("btver2"), PROCESSOR_BT,
CPU_WBNOINVD_FLAGS, 0 },
{ STRING_COMMA_LEN (".pconfig"), PROCESSOR_UNKNOWN,
CPU_PCONFIG_FLAGS, 0 },
+ { STRING_COMMA_LEN (".waitpkg"), PROCESSOR_UNKNOWN,
+ CPU_WAITPKG_FLAGS, 0 },
+ { STRING_COMMA_LEN (".cldemote"), PROCESSOR_UNKNOWN,
+ CPU_CLDEMOTE_FLAGS, 0 },
+ { STRING_COMMA_LEN (".movdiri"), PROCESSOR_UNKNOWN,
+ CPU_MOVDIRI_FLAGS, 0 },
+ { STRING_COMMA_LEN (".movdir64b"), PROCESSOR_UNKNOWN,
+ CPU_MOVDIR64B_FLAGS, 0 },
};
static const noarch_entry cpu_noarch[] =
{ STRING_COMMA_LEN ("noavx512_bitalg"), CPU_ANY_AVX512_BITALG_FLAGS },
{ STRING_COMMA_LEN ("noibt"), CPU_ANY_IBT_FLAGS },
{ STRING_COMMA_LEN ("noshstk"), CPU_ANY_SHSTK_FLAGS },
+ { STRING_COMMA_LEN ("nomovdiri"), CPU_ANY_MOVDIRI_FLAGS },
+ { STRING_COMMA_LEN ("nomovdir64b"), CPU_ANY_MOVDIR64B_FLAGS },
};
#ifdef I386COFF
static const i386_operand_type acc32 = OPERAND_TYPE_ACC32;
static const i386_operand_type acc64 = OPERAND_TYPE_ACC64;
-static const i386_operand_type control = OPERAND_TYPE_CONTROL;
-static const i386_operand_type inoutportreg
- = OPERAND_TYPE_INOUTPORTREG;
-static const i386_operand_type reg16_inoutportreg
- = OPERAND_TYPE_REG16_INOUTPORTREG;
static const i386_operand_type disp16 = OPERAND_TYPE_DISP16;
static const i386_operand_type disp32 = OPERAND_TYPE_DISP32;
static const i386_operand_type disp32s = OPERAND_TYPE_DISP32S;
return 0;
}
-/* Return 1 if there is no conflict in 8bit/16bit/32bit/64bit/80bit on
- operand J for instruction template T. */
+/* Return 1 if there is no conflict in 8bit/16bit/32bit/64bit/80bit size
+ between operand GIVEN and opeand WANTED for instruction template T. */
static INLINE int
-match_reg_size (const insn_template *t, unsigned int j)
+match_operand_size (const insn_template *t, unsigned int wanted,
+ unsigned int given)
{
- return !((i.types[j].bitfield.byte
- && !t->operand_types[j].bitfield.byte)
- || (i.types[j].bitfield.word
- && !t->operand_types[j].bitfield.word)
- || (i.types[j].bitfield.dword
- && !t->operand_types[j].bitfield.dword)
- || (i.types[j].bitfield.qword
- && !t->operand_types[j].bitfield.qword)
- || (i.types[j].bitfield.tbyte
- && !t->operand_types[j].bitfield.tbyte));
+ return !((i.types[given].bitfield.byte
+ && !t->operand_types[wanted].bitfield.byte)
+ || (i.types[given].bitfield.word
+ && !t->operand_types[wanted].bitfield.word)
+ || (i.types[given].bitfield.dword
+ && !t->operand_types[wanted].bitfield.dword)
+ || (i.types[given].bitfield.qword
+ && !t->operand_types[wanted].bitfield.qword)
+ || (i.types[given].bitfield.tbyte
+ && !t->operand_types[wanted].bitfield.tbyte));
}
-/* Return 1 if there is no conflict in SIMD register on
- operand J for instruction template T. */
+/* Return 1 if there is no conflict in SIMD register between operand
+ GIVEN and opeand WANTED for instruction template T. */
static INLINE int
-match_simd_size (const insn_template *t, unsigned int j)
+match_simd_size (const insn_template *t, unsigned int wanted,
+ unsigned int given)
{
- return !((i.types[j].bitfield.xmmword
- && !t->operand_types[j].bitfield.xmmword)
- || (i.types[j].bitfield.ymmword
- && !t->operand_types[j].bitfield.ymmword)
- || (i.types[j].bitfield.zmmword
- && !t->operand_types[j].bitfield.zmmword));
+ return !((i.types[given].bitfield.xmmword
+ && !t->operand_types[wanted].bitfield.xmmword)
+ || (i.types[given].bitfield.ymmword
+ && !t->operand_types[wanted].bitfield.ymmword)
+ || (i.types[given].bitfield.zmmword
+ && !t->operand_types[wanted].bitfield.zmmword));
}
-/* Return 1 if there is no conflict in any size on operand J for
- instruction template T. */
+/* Return 1 if there is no conflict in any size between operand GIVEN
+ and opeand WANTED for instruction template T. */
static INLINE int
-match_mem_size (const insn_template *t, unsigned int j)
+match_mem_size (const insn_template *t, unsigned int wanted,
+ unsigned int given)
{
- return (match_reg_size (t, j)
- && !((i.types[j].bitfield.unspecified
+ return (match_operand_size (t, wanted, given)
+ && !((i.types[given].bitfield.unspecified
&& !i.broadcast
- && !t->operand_types[j].bitfield.unspecified)
- || (i.types[j].bitfield.fword
- && !t->operand_types[j].bitfield.fword)
+ && !t->operand_types[wanted].bitfield.unspecified)
+ || (i.types[given].bitfield.fword
+ && !t->operand_types[wanted].bitfield.fword)
/* For scalar opcode templates to allow register and memory
operands at the same time, some special casing is needed
- here. */
- || ((t->operand_types[j].bitfield.regsimd
+ here. Also for v{,p}broadcast*, {,v}pmov{s,z}*, and
+ down-conversion vpmov*. */
+ || ((t->operand_types[wanted].bitfield.regsimd
&& !t->opcode_modifier.broadcast
- && (t->operand_types[j].bitfield.dword
- || t->operand_types[j].bitfield.qword))
- ? (i.types[j].bitfield.xmmword
- || i.types[j].bitfield.ymmword
- || i.types[j].bitfield.zmmword)
- : !match_simd_size(t, j))));
+ && (t->operand_types[wanted].bitfield.byte
+ || t->operand_types[wanted].bitfield.word
+ || t->operand_types[wanted].bitfield.dword
+ || t->operand_types[wanted].bitfield.qword))
+ ? (i.types[given].bitfield.xmmword
+ || i.types[given].bitfield.ymmword
+ || i.types[given].bitfield.zmmword)
+ : !match_simd_size(t, wanted, given))));
}
-/* Return 1 if there is no size conflict on any operands for
- instruction template T. */
+/* Return value has MATCH_STRAIGHT set if there is no size conflict on any
+ operands for instruction template T, and it has MATCH_REVERSE set if there
+ is no size conflict on any operands for the template with operands reversed
+ (and the template allows for reversing in the first place). */
-static INLINE int
+#define MATCH_STRAIGHT 1
+#define MATCH_REVERSE 2
+
+static INLINE unsigned int
operand_size_match (const insn_template *t)
{
- unsigned int j;
- int match = 1;
+ unsigned int j, match = MATCH_STRAIGHT;
/* Don't check jump instructions. */
if (t->opcode_modifier.jump
continue;
if (t->operand_types[j].bitfield.reg
- && !match_reg_size (t, j))
+ && !match_operand_size (t, j, j))
{
match = 0;
break;
}
if (t->operand_types[j].bitfield.regsimd
- && !match_simd_size (t, j))
+ && !match_simd_size (t, j, j))
{
match = 0;
break;
}
if (t->operand_types[j].bitfield.acc
- && (!match_reg_size (t, j) || !match_simd_size (t, j)))
+ && (!match_operand_size (t, j, j) || !match_simd_size (t, j, j)))
{
match = 0;
break;
}
- if (i.types[j].bitfield.mem && !match_mem_size (t, j))
+ if ((i.flags[j] & Operand_Mem) && !match_mem_size (t, j, j))
{
match = 0;
break;
}
}
- if (match)
- return match;
- else if (!t->opcode_modifier.d)
+ if (!t->opcode_modifier.d)
{
mismatch:
- i.error = operand_size_mismatch;
- return 0;
+ if (!match)
+ i.error = operand_size_mismatch;
+ return match;
}
/* Check reverse. */
gas_assert (i.operands == 2);
- match = 1;
for (j = 0; j < 2; j++)
{
if ((t->operand_types[j].bitfield.reg
|| t->operand_types[j].bitfield.acc)
- && !match_reg_size (t, j ? 0 : 1))
+ && !match_operand_size (t, j, !j))
goto mismatch;
- if (i.types[j].bitfield.mem
- && !match_mem_size (t, j ? 0 : 1))
+ if ((i.flags[!j] & Operand_Mem) && !match_mem_size (t, j, !j))
goto mismatch;
}
- return match;
+ return match | MATCH_REVERSE;
}
static INLINE int
&& flag_code == CODE_64BIT)
{
if ((i.prefix[REX_PREFIX] & prefix & REX_W)
- || ((i.prefix[REX_PREFIX] & (REX_R | REX_X | REX_B))
- && (prefix & (REX_R | REX_X | REX_B))))
+ || (i.prefix[REX_PREFIX] & prefix & REX_R)
+ || (i.prefix[REX_PREFIX] & prefix & REX_X)
+ || (i.prefix[REX_PREFIX] & prefix & REX_B))
ret = PREFIX_EXIST;
q = REX_PREFIX;
}
cpu_arch_flags = flags;
cpu_arch_isa_flags = flags;
}
+ else
+ cpu_arch_isa_flags
+ = cpu_flags_or (cpu_arch_isa_flags,
+ cpu_arch[j].flags);
(void) restore_line_pointer (e);
demand_empty_rest_of_line ();
return;
{
unsigned int op;
+ /* Determine vector length from the last multi-length vector
+ operand. */
vector_length = 0;
- for (op = 0; op < t->operands; ++op)
+ for (op = t->operands; op--;)
if (t->operand_types[op].bitfield.xmmword
&& t->operand_types[op].bitfield.ymmword
&& i.types[op].bitfield.ymmword)
static INLINE bfd_boolean
is_evex_encoding (const insn_template *t)
{
- return t->opcode_modifier.evex
+ return t->opcode_modifier.evex || t->opcode_modifier.disp8memshift
|| t->opcode_modifier.broadcast || t->opcode_modifier.masking
|| t->opcode_modifier.staticrounding || t->opcode_modifier.sae;
}
+static INLINE bfd_boolean
+is_any_vex_encoding (const insn_template *t)
+{
+ return t->opcode_modifier.vex || t->opcode_modifier.vexopcode
+ || is_evex_encoding (t);
+}
+
/* Build the EVEX prefix. */
static void
{
unsigned int op;
+ /* Determine vector length from the last multi-length vector
+ operand. */
vec_length = 0;
- for (op = 0; op < i.tm.operands; ++op)
+ for (op = i.operands; op--;)
if (i.tm.operand_types[op].bitfield.xmmword
+ i.tm.operand_types[op].bitfield.ymmword
+ i.tm.operand_types[op].bitfield.zmmword > 1)
{
if (i.types[op].bitfield.zmmword)
- i.tm.opcode_modifier.evex = EVEX512;
+ {
+ i.tm.opcode_modifier.evex = EVEX512;
+ break;
+ }
else if (i.types[op].bitfield.ymmword)
- i.tm.opcode_modifier.evex = EVEX256;
+ {
+ i.tm.opcode_modifier.evex = EVEX256;
+ break;
+ }
else if (i.types[op].bitfield.xmmword)
- i.tm.opcode_modifier.evex = EVEX128;
- else
- continue;
- break;
+ {
+ i.tm.opcode_modifier.evex = EVEX128;
+ break;
+ }
+ else if (i.broadcast && (int) op == i.broadcast->operand)
+ {
+ switch (i.broadcast->bytes)
+ {
+ case 64:
+ i.tm.opcode_modifier.evex = EVEX512;
+ break;
+ case 32:
+ i.tm.opcode_modifier.evex = EVEX256;
+ break;
+ case 16:
+ i.tm.opcode_modifier.evex = EVEX128;
+ break;
+ default:
+ abort ();
+ }
+ break;
+ }
}
+
+ if (op >= MAX_OPERANDS)
+ abort ();
}
switch (i.tm.opcode_modifier.evex)
gas_assert (i.imm_operands <= 1
&& (i.operands <= 2
- || ((i.tm.opcode_modifier.vex
- || i.tm.opcode_modifier.vexopcode
- || is_evex_encoding (&i.tm))
+ || (is_any_vex_encoding (&i.tm)
&& i.operands <= 4)));
exp = &im_expressions[i.imm_operands++];
&& i.op[0].regs == i.op[1].regs
&& !i.types[2].bitfield.xmmword
&& (i.tm.opcode_modifier.vex
- || (!i.mask
+ || ((!i.mask || i.mask->zeroing)
&& !i.rounding
&& is_evex_encoding (&i.tm)
- && cpu_arch_flags.bitfield.cpuavx512vl))
+ && (i.vec_encoding != vex_encoding_evex
+ || i.tm.cpu_flags.bitfield.cpuavx512vl
+ || (i.tm.operand_types[2].bitfield.zmmword
+ && i.types[2].bitfield.ymmword)
+ || cpu_arch_isa_flags.bitfield.cpuavx512vl)))
&& ((i.tm.base_opcode == 0x55
|| i.tm.base_opcode == 0x6655
|| i.tm.base_opcode == 0x66df
|| i.tm.base_opcode == 0x66f8
|| i.tm.base_opcode == 0x66f9
|| i.tm.base_opcode == 0x66fa
- || i.tm.base_opcode == 0x66fb)
+ || i.tm.base_opcode == 0x66fb
+ || i.tm.base_opcode == 0x42
+ || i.tm.base_opcode == 0x6642
+ || i.tm.base_opcode == 0x47
+ || i.tm.base_opcode == 0x6647)
&& i.tm.extension_opcode == None))
{
/* Optimize: -O2:
EVEX VOP %ymmM, %ymmM, %ymmN
-> VEX vpxor %xmmM, %xmmM, %xmmN (M and N < 16)
-> EVEX VOP %xmmM, %xmmM, %xmmN (M || N >= 16)
+ VOP, one of kxord and kxorq:
+ VEX VOP %kM, %kM, %kN
+ -> VEX kxorw %kM, %kM, %kN
+ VOP, one of kandnd and kandnq:
+ VEX VOP %kM, %kM, %kN
+ -> VEX kandnw %kM, %kM, %kN
*/
if (is_evex_encoding (&i.tm))
{
- /* If only lower 16 vector registers are used, we can use
- VEX encoding. */
- for (j = 0; j < 3; j++)
- if (register_number (i.op[j].regs) > 15)
- break;
-
- if (j < 3)
+ if (i.vec_encoding == vex_encoding_evex)
i.tm.opcode_modifier.evex = EVEX128;
else
{
i.tm.opcode_modifier.evex = 0;
}
}
+ else if (i.tm.operand_types[0].bitfield.regmask)
+ {
+ i.tm.base_opcode &= 0xff;
+ i.tm.opcode_modifier.vexw = VEXW0;
+ }
else
i.tm.opcode_modifier.vex = VEX128;
return;
}
+ /* Check for data size prefix on VEX/XOP/EVEX encoded insns. */
+ if (i.prefix[DATA_PREFIX] && is_any_vex_encoding (&i.tm))
+ {
+ as_bad (_("data size prefix invalid with `%s'"), i.tm.name);
+ return;
+ }
+
/* Check if HLE prefix is OK. */
if (i.hle_prefix && !check_hle ())
return;
}
/* Insert BND prefix. */
- if (add_bnd_prefix
- && i.tm.opcode_modifier.bndprefixok
- && !i.prefix[BND_PREFIX])
- add_prefix (BND_PREFIX_OPCODE);
+ if (add_bnd_prefix && i.tm.opcode_modifier.bndprefixok)
+ {
+ if (!i.prefix[BND_PREFIX])
+ add_prefix (BND_PREFIX_OPCODE);
+ else if (i.prefix[BND_PREFIX] != BND_PREFIX_OPCODE)
+ {
+ as_warn (_("replacing `rep'/`repe' prefix by `bnd'"));
+ i.prefix[BND_PREFIX] = BND_PREFIX_OPCODE;
+ }
+ }
/* Check string instruction segment overrides. */
if (i.tm.opcode_modifier.isstring && i.mem_operands != 0)
as_warn (_("translating to `%sp'"), i.tm.name);
}
- if (i.tm.opcode_modifier.vex || i.tm.opcode_modifier.vexopcode
- || is_evex_encoding (&i.tm))
+ if (is_any_vex_encoding (&i.tm))
{
if (flag_code == CODE_16BIT)
{
/* Now parse operand adding info to 'i' as we go along. */
END_STRING_AND_SAVE (l);
+ if (i.mem_operands > 1)
+ {
+ as_bad (_("too many memory references for `%s'"),
+ mnemonic);
+ return 0;
+ }
+
if (intel_syntax)
operand_ok =
i386_intel_operand (token_start,
{
union i386_op temp_op;
i386_operand_type temp_type;
+ unsigned int temp_flags;
enum bfd_reloc_code_real temp_reloc;
temp_type = i.types[xchg2];
i.types[xchg2] = i.types[xchg1];
i.types[xchg1] = temp_type;
+
+ temp_flags = i.flags[xchg2];
+ i.flags[xchg2] = i.flags[xchg1];
+ i.flags[xchg1] = temp_flags;
+
temp_op = i.op[xchg2];
i.op[xchg2] = i.op[xchg1];
i.op[xchg1] = temp_op;
+
temp_reloc = i.reloc[xchg2];
i.reloc[xchg2] = i.reloc[xchg1];
i.reloc[xchg1] = temp_reloc;
}
}
+/* Return 1 if there is a match in broadcast bytes between operand
+ GIVEN and instruction template T. */
+
+static INLINE int
+match_broadcast_size (const insn_template *t, unsigned int given)
+{
+ return ((t->opcode_modifier.broadcast == BYTE_BROADCAST
+ && i.types[given].bitfield.byte)
+ || (t->opcode_modifier.broadcast == WORD_BROADCAST
+ && i.types[given].bitfield.word)
+ || (t->opcode_modifier.broadcast == DWORD_BROADCAST
+ && i.types[given].bitfield.dword)
+ || (t->opcode_modifier.broadcast == QWORD_BROADCAST
+ && i.types[given].bitfield.qword));
+}
+
/* Check if operands are valid for the instruction. */
static int
check_VecOperands (const insn_template *t)
{
unsigned int op;
+ i386_cpu_flags cpu;
+ static const i386_cpu_flags avx512 = CPU_ANY_AVX512F_FLAGS;
+
+ /* Templates allowing for ZMMword as well as YMMword and/or XMMword for
+ any one operand are implicity requiring AVX512VL support if the actual
+ operand size is YMMword or XMMword. Since this function runs after
+ template matching, there's no need to check for YMMword/XMMword in
+ the template. */
+ cpu = cpu_flags_and (t->cpu_flags, avx512);
+ if (!cpu_flags_all_zero (&cpu)
+ && !t->cpu_flags.bitfield.cpuavx512vl
+ && !cpu_arch_flags.bitfield.cpuavx512vl)
+ {
+ for (op = 0; op < t->operands; ++op)
+ {
+ if (t->operand_types[op].bitfield.zmmword
+ && (i.types[op].bitfield.ymmword
+ || i.types[op].bitfield.xmmword))
+ {
+ i.error = unsupported;
+ return 1;
+ }
+ }
+ }
/* Without VSIB byte, we can't have a vector register for index. */
if (!t->opcode_modifier.vecsib
to the memory operand. */
if (i.broadcast)
{
- int broadcasted_opnd_size;
+ i386_operand_type type, overlap;
/* Check if specified broadcast is supported in this instruction,
- and it's applied to memory operand of DWORD or QWORD type,
- depending on VecESize. */
- if (i.broadcast->type != t->opcode_modifier.broadcast
- || !i.types[i.broadcast->operand].bitfield.mem
- || (t->opcode_modifier.vecesize == 0
- && !i.types[i.broadcast->operand].bitfield.dword
- && !i.types[i.broadcast->operand].bitfield.unspecified)
- || (t->opcode_modifier.vecesize == 1
- && !i.types[i.broadcast->operand].bitfield.qword
- && !i.types[i.broadcast->operand].bitfield.unspecified))
- goto bad_broadcast;
-
- broadcasted_opnd_size = t->opcode_modifier.vecesize ? 64 : 32;
- if (i.broadcast->type == BROADCAST_1TO16)
- broadcasted_opnd_size <<= 4; /* Broadcast 1to16. */
- else if (i.broadcast->type == BROADCAST_1TO8)
- broadcasted_opnd_size <<= 3; /* Broadcast 1to8. */
- else if (i.broadcast->type == BROADCAST_1TO4)
- broadcasted_opnd_size <<= 2; /* Broadcast 1to4. */
- else if (i.broadcast->type == BROADCAST_1TO2)
- broadcasted_opnd_size <<= 1; /* Broadcast 1to2. */
- else
- goto bad_broadcast;
-
- if ((broadcasted_opnd_size == 256
- && !t->operand_types[i.broadcast->operand].bitfield.ymmword)
- || (broadcasted_opnd_size == 512
- && !t->operand_types[i.broadcast->operand].bitfield.zmmword))
+ and its broadcast bytes match the memory operand. */
+ op = i.broadcast->operand;
+ if (!t->opcode_modifier.broadcast
+ || !(i.flags[op] & Operand_Mem)
+ || (!i.types[op].bitfield.unspecified
+ && !match_broadcast_size (t, op)))
{
bad_broadcast:
i.error = unsupported_broadcast;
return 1;
}
+
+ i.broadcast->bytes = ((1 << (t->opcode_modifier.broadcast - 1))
+ * i.broadcast->type);
+ operand_type_set (&type, 0);
+ switch (i.broadcast->bytes)
+ {
+ case 2:
+ type.bitfield.word = 1;
+ break;
+ case 4:
+ type.bitfield.dword = 1;
+ break;
+ case 8:
+ type.bitfield.qword = 1;
+ break;
+ case 16:
+ type.bitfield.xmmword = 1;
+ break;
+ case 32:
+ type.bitfield.ymmword = 1;
+ break;
+ case 64:
+ type.bitfield.zmmword = 1;
+ break;
+ default:
+ goto bad_broadcast;
+ }
+
+ overlap = operand_type_and (type, t->operand_types[op]);
+ if (operand_type_all_zero (&overlap))
+ goto bad_broadcast;
+
+ if (t->opcode_modifier.checkregsize)
+ {
+ unsigned int j;
+
+ type.bitfield.baseindex = 1;
+ for (j = 0; j < i.operands; ++j)
+ {
+ if (j != op
+ && !operand_type_register_match(i.types[j],
+ t->operand_types[j],
+ type,
+ t->operand_types[op]))
+ goto bad_broadcast;
+ }
+ }
}
/* If broadcast is supported in this instruction, we need to check if
operand of one-element size isn't specified without broadcast. */
break;
gas_assert (op < i.operands);
/* Check size of the memory operand. */
- if ((t->opcode_modifier.vecesize == 0
- && i.types[op].bitfield.dword)
- || (t->opcode_modifier.vecesize == 1
- && i.types[op].bitfield.qword))
+ if (match_broadcast_size (t, op))
{
i.error = broadcast_needed;
return 1;
}
}
+ else
+ op = MAX_OPERANDS - 1; /* Avoid uninitialized variable warning. */
/* Check if requested masking is supported. */
- if (i.mask
- && (!t->opcode_modifier.masking
- || (i.mask->zeroing
- && t->opcode_modifier.masking == MERGING_MASKING)))
+ if (i.mask)
{
- i.error = unsupported_masking;
- return 1;
+ switch (t->opcode_modifier.masking)
+ {
+ case BOTH_MASKING:
+ break;
+ case MERGING_MASKING:
+ if (i.mask->zeroing)
+ {
+ case 0:
+ i.error = unsupported_masking;
+ return 1;
+ }
+ break;
+ case DYNAMIC_MASKING:
+ /* Memory destinations allow only merging masking. */
+ if (i.mask->zeroing && i.mem_operands)
+ {
+ /* Find memory operand. */
+ for (op = 0; op < i.operands; op++)
+ if (i.flags[op] & Operand_Mem)
+ break;
+ gas_assert (op < i.operands);
+ if (op == i.operands - 1)
+ {
+ i.error = unsupported_masking;
+ return 1;
+ }
+ }
+ break;
+ default:
+ abort ();
+ }
}
/* Check if masking is applied to dest operand. */
&& i.disp_encoding != disp_encoding_32bit)
{
if (i.broadcast)
- i.memshift = t->opcode_modifier.vecesize ? 3 : 2;
- else
+ i.memshift = t->opcode_modifier.broadcast - 1;
+ else if (t->opcode_modifier.disp8memshift != DISP8_SHIFT_VL)
i.memshift = t->opcode_modifier.disp8memshift;
+ else
+ {
+ const i386_operand_type *type = NULL;
+
+ i.memshift = 0;
+ for (op = 0; op < i.operands; op++)
+ if (operand_type_check (i.types[op], anymem))
+ {
+ if (t->opcode_modifier.evex == EVEXLIG)
+ i.memshift = 2 + (i.suffix == QWORD_MNEM_SUFFIX);
+ else if (t->operand_types[op].bitfield.xmmword
+ + t->operand_types[op].bitfield.ymmword
+ + t->operand_types[op].bitfield.zmmword <= 1)
+ type = &t->operand_types[op];
+ else if (!i.types[op].bitfield.unspecified)
+ type = &i.types[op];
+ }
+ else if (i.types[op].bitfield.regsimd
+ && t->opcode_modifier.evex != EVEXLIG)
+ {
+ if (i.types[op].bitfield.zmmword)
+ i.memshift = 6;
+ else if (i.types[op].bitfield.ymmword && i.memshift < 5)
+ i.memshift = 5;
+ else if (i.types[op].bitfield.xmmword && i.memshift < 4)
+ i.memshift = 4;
+ }
+
+ if (type)
+ {
+ if (type->bitfield.zmmword)
+ i.memshift = 6;
+ else if (type->bitfield.ymmword)
+ i.memshift = 5;
+ else if (type->bitfield.xmmword)
+ i.memshift = 4;
+ }
+
+ /* For the check in fits_in_disp8(). */
+ if (i.memshift == 0)
+ i.memshift = -1;
+ }
for (op = 0; op < i.operands; op++)
if (operand_type_check (i.types[op], disp)
i386_operand_type operand_types [MAX_OPERANDS];
int addr_prefix_disp;
unsigned int j;
- unsigned int found_cpu_match;
+ unsigned int found_cpu_match, size_match;
unsigned int check_register;
enum i386_error specific_error = 0;
addr_prefix_disp = -1;
memset (&suffix_check, 0, sizeof (suffix_check));
- if (i.suffix == BYTE_MNEM_SUFFIX)
+ if (intel_syntax && i.broadcast)
+ /* nothing */;
+ else if (i.suffix == BYTE_MNEM_SUFFIX)
suffix_check.no_bsuf = 1;
else if (i.suffix == WORD_MNEM_SUFFIX)
suffix_check.no_wsuf = 1;
|| (t->opcode_modifier.no_ldsuf && mnemsuf_check.no_ldsuf))
continue;
- if (!operand_size_match (t))
+ size_match = operand_size_match (t);
+ if (!size_match)
continue;
for (j = 0; j < MAX_OPERANDS; j++)
&& flag_code != CODE_64BIT
&& (intel_syntax
? (!t->opcode_modifier.ignoresize
+ && !t->opcode_modifier.broadcast
&& !intel_float_operand (t->name))
: intel_float_operand (t->name) != 2)
&& ((!operand_types[0].bitfield.regmmx
continue;
/* We check register size if needed. */
- check_register = t->opcode_modifier.checkregsize;
+ if (t->opcode_modifier.checkregsize)
+ {
+ check_register = (1 << t->operands) - 1;
+ if (i.broadcast)
+ check_register &= ~(1 << i.broadcast->operand);
+ }
+ else
+ check_register = 0;
+
overlap0 = operand_type_and (i.types[0], operand_types[0]);
switch (t->operands)
{
&& operand_type_equal (&i.types [0], &acc32)
&& operand_type_equal (&i.types [1], &acc32))
continue;
+ /* xrelease mov %eax, <disp> is another special case. It must not
+ match the accumulator-only encoding of mov. */
+ if (flag_code != CODE_64BIT
+ && i.hle_prefix
+ && t->base_opcode == 0xa0
+ && i.types[0].bitfield.acc
+ && operand_type_check (i.types[1], anymem))
+ continue;
+ if (!(size_match & MATCH_STRAIGHT))
+ goto check_reverse;
/* If we want store form, we reverse direction of operands. */
if (i.dir_encoding == dir_encoding_store
&& t->opcode_modifier.d)
overlap1 = operand_type_and (i.types[1], operand_types[1]);
if (!operand_type_match (overlap0, i.types[0])
|| !operand_type_match (overlap1, i.types[1])
- || (check_register
+ || ((check_register & 3) == 3
&& !operand_type_register_match (i.types[0],
operand_types[0],
i.types[1],
continue;
check_reverse:
+ if (!(size_match & MATCH_REVERSE))
+ continue;
/* Try reversing direction of operands. */
overlap0 = operand_type_and (i.types[0], operand_types[1]);
overlap1 = operand_type_and (i.types[1], operand_types[0]);
/* Fall through. */
case 4:
if (!operand_type_match (overlap3, i.types[3])
- || (check_register
+ || ((check_register & 0xa) == 0xa
+ && !operand_type_register_match (i.types[1],
+ operand_types[1],
+ i.types[3],
+ operand_types[3]))
+ || ((check_register & 0xc) == 0xc
&& !operand_type_register_match (i.types[2],
- operand_types[2],
- i.types[3],
- operand_types[3])))
+ operand_types[2],
+ i.types[3],
+ operand_types[3])))
continue;
/* Fall through. */
case 3:
/* Here we make use of the fact that there are no
reverse match 3 operand instructions. */
if (!operand_type_match (overlap2, i.types[2])
- || (check_register
- && (!operand_type_register_match (i.types[0],
+ || ((check_register & 5) == 5
+ && !operand_type_register_match (i.types[0],
operand_types[0],
i.types[2],
- operand_types[2])
- || !operand_type_register_match (i.types[1],
- operand_types[1],
- i.types[2],
- operand_types[2]))))
+ operand_types[2]))
+ || ((check_register & 6) == 6
+ && !operand_type_register_match (i.types[1],
+ operand_types[1],
+ i.types[2],
+ operand_types[2])))
continue;
break;
}
case unsupported_broadcast:
err_msg = _("unsupported broadcast");
break;
- case broadcast_not_on_src_operand:
- err_msg = _("broadcast not on source memory operand");
- break;
case broadcast_needed:
err_msg = _("broadcast is needed for operand of such type");
break;
{
if (intel_syntax
&& i.tm.opcode_modifier.ignoresize
- && i.tm.opcode_modifier.no_lsuf)
+ && i.tm.opcode_modifier.no_lsuf
+ && !i.tm.opcode_modifier.todword
+ && !i.tm.opcode_modifier.toqword)
i.suffix = 0;
else if (!check_long_reg ())
return 0;
{
if (intel_syntax
&& i.tm.opcode_modifier.ignoresize
- && i.tm.opcode_modifier.no_qsuf)
+ && i.tm.opcode_modifier.no_qsuf
+ && !i.tm.opcode_modifier.todword
+ && !i.tm.opcode_modifier.toqword)
i.suffix = 0;
else if (!check_qword_reg ())
return 0;
/* Now select between word & dword operations via the operand
size prefix, except for instructions that will ignore this
prefix anyway. */
- if (i.tm.opcode_modifier.addrprefixop0)
+ if (i.reg_operands > 0
+ && i.types[0].bitfield.reg
+ && i.tm.opcode_modifier.addrprefixopreg
+ && (i.tm.opcode_modifier.immext
+ || i.operands == 1))
{
/* The address size override prefix changes the size of the
first operand. */
if ((flag_code == CODE_32BIT
- && i.op->regs[0].reg_type.bitfield.word)
+ && i.op[0].regs->reg_type.bitfield.word)
|| (flag_code != CODE_32BIT
- && i.op->regs[0].reg_type.bitfield.dword))
+ && i.op[0].regs->reg_type.bitfield.dword))
if (!add_prefix (ADDR_PREFIX_OPCODE))
return 0;
}
else if (i.suffix != QWORD_MNEM_SUFFIX
&& !i.tm.opcode_modifier.ignoresize
&& !i.tm.opcode_modifier.floatmf
+ && !i.tm.opcode_modifier.vex
+ && !i.tm.opcode_modifier.vexopcode
+ && !is_evex_encoding (&i.tm)
&& ((i.suffix == LONG_MNEM_SUFFIX) == (flag_code == CODE_16BIT)
|| (flag_code == CODE_64BIT
&& i.tm.opcode_modifier.jumpbyte)))
break;
}
+ if (i.reg_operands != 0
+ && i.operands > 1
+ && i.tm.opcode_modifier.addrprefixopreg
+ && !i.tm.opcode_modifier.immext)
+ {
+ /* Check invalid register operand when the address size override
+ prefix changes the size of register operands. */
+ unsigned int op;
+ enum { need_word, need_dword, need_qword } need;
+
+ if (flag_code == CODE_32BIT)
+ need = i.prefix[ADDR_PREFIX] ? need_word : need_dword;
+ else
+ {
+ if (i.prefix[ADDR_PREFIX])
+ need = need_dword;
+ else
+ need = flag_code == CODE_64BIT ? need_qword : need_word;
+ }
+
+ for (op = 0; op < i.operands; op++)
+ if (i.types[op].bitfield.reg
+ && ((need == need_word
+ && !i.op[op].regs->reg_type.bitfield.word)
+ || (need == need_dword
+ && !i.op[op].regs->reg_type.bitfield.dword)
+ || (need == need_qword
+ && !i.op[op].regs->reg_type.bitfield.qword)))
+ {
+ as_bad (_("invalid register operand size for `%s'"),
+ i.tm.name);
+ return 0;
+ }
+ }
+
return 1;
}
unsigned int source, dest;
int vex_3_sources;
- /* The first operand of instructions with VEX prefix and 3 sources
- must be VEX_Imm4. */
vex_3_sources = i.tm.opcode_modifier.vexsources == VEX3SOURCES;
if (vex_3_sources)
{
unsigned int nds, reg_slot;
expressionS *exp;
- if (i.tm.opcode_modifier.veximmext
- && i.tm.opcode_modifier.immext)
- {
- dest = i.operands - 2;
- gas_assert (dest == 3);
- }
- else
- dest = i.operands - 1;
+ dest = i.operands - 1;
nds = dest - 1;
/* There are 2 kinds of instructions:
- 1. 5 operands: 4 register operands or 3 register operands
- plus 1 memory operand plus one Vec_Imm4 operand, VexXDS, and
- VexW0 or VexW1. The destination must be either XMM, YMM or
+ 1. 5 operands: 4 register operands or 3 register operands
+ plus 1 memory operand plus one Vec_Imm4 operand, VexXDS, and
+ VexW0 or VexW1. The destination must be either XMM, YMM or
ZMM register.
- 2. 4 operands: 4 register operands or 3 register operands
- plus 1 memory operand, VexXDS, and VexImmExt */
+ 2. 4 operands: 4 register operands or 3 register operands
+ plus 1 memory operand, with VexXDS. */
gas_assert ((i.reg_operands == 4
- || (i.reg_operands == 3 && i.mem_operands == 1))
- && i.tm.opcode_modifier.vexvvvv == VEXXDS
- && (i.tm.opcode_modifier.veximmext
- || (i.imm_operands == 1
- && i.types[0].bitfield.vec_imm4
- && (i.tm.opcode_modifier.vexw == VEXW0
- || i.tm.opcode_modifier.vexw == VEXW1)
- && i.tm.operand_types[dest].bitfield.regsimd)));
+ || (i.reg_operands == 3 && i.mem_operands == 1))
+ && i.tm.opcode_modifier.vexvvvv == VEXXDS
+ && i.tm.opcode_modifier.vexw
+ && i.tm.operand_types[dest].bitfield.regsimd);
+
+ /* If VexW1 is set, the first non-immediate operand is the source and
+ the second non-immediate one is encoded in the immediate operand. */
+ if (i.tm.opcode_modifier.vexw == VEXW1)
+ {
+ source = i.imm_operands;
+ reg_slot = i.imm_operands + 1;
+ }
+ else
+ {
+ source = i.imm_operands + 1;
+ reg_slot = i.imm_operands;
+ }
if (i.imm_operands == 0)
- {
- /* When there is no immediate operand, generate an 8bit
- immediate operand to encode the first operand. */
- exp = &im_expressions[i.imm_operands++];
- i.op[i.operands].imms = exp;
- i.types[i.operands] = imm8;
- i.operands++;
- /* If VexW1 is set, the first operand is the source and
- the second operand is encoded in the immediate operand. */
- if (i.tm.opcode_modifier.vexw == VEXW1)
- {
- source = 0;
- reg_slot = 1;
- }
- else
- {
- source = 1;
- reg_slot = 0;
- }
-
- /* FMA swaps REG and NDS. */
- if (i.tm.cpu_flags.bitfield.cpufma)
- {
- unsigned int tmp;
- tmp = reg_slot;
- reg_slot = nds;
- nds = tmp;
- }
-
- gas_assert (i.tm.operand_types[reg_slot].bitfield.regsimd);
- exp->X_op = O_constant;
- exp->X_add_number = register_number (i.op[reg_slot].regs) << 4;
+ {
+ /* When there is no immediate operand, generate an 8bit
+ immediate operand to encode the first operand. */
+ exp = &im_expressions[i.imm_operands++];
+ i.op[i.operands].imms = exp;
+ i.types[i.operands] = imm8;
+ i.operands++;
+
+ gas_assert (i.tm.operand_types[reg_slot].bitfield.regsimd);
+ exp->X_op = O_constant;
+ exp->X_add_number = register_number (i.op[reg_slot].regs) << 4;
gas_assert ((i.op[reg_slot].regs->reg_flags & RegVRex) == 0);
}
else
- {
- unsigned int imm_slot;
-
- if (i.tm.opcode_modifier.vexw == VEXW0)
- {
- /* If VexW0 is set, the third operand is the source and
- the second operand is encoded in the immediate
- operand. */
- source = 2;
- reg_slot = 1;
- }
- else
- {
- /* VexW1 is set, the second operand is the source and
- the third operand is encoded in the immediate
- operand. */
- source = 1;
- reg_slot = 2;
- }
-
- if (i.tm.opcode_modifier.immext)
- {
- /* When ImmExt is set, the immediate byte is the last
- operand. */
- imm_slot = i.operands - 1;
- source--;
- reg_slot--;
- }
- else
- {
- imm_slot = 0;
-
- /* Turn on Imm8 so that output_imm will generate it. */
- i.types[imm_slot].bitfield.imm8 = 1;
- }
-
- gas_assert (i.tm.operand_types[reg_slot].bitfield.regsimd);
- i.op[imm_slot].imms->X_add_number
- |= register_number (i.op[reg_slot].regs) << 4;
+ {
+ unsigned int imm_slot;
+
+ gas_assert (i.imm_operands == 1 && i.types[0].bitfield.vec_imm4);
+
+ if (i.tm.opcode_modifier.immext)
+ {
+ /* When ImmExt is set, the immediate byte is the last
+ operand. */
+ imm_slot = i.operands - 1;
+ source--;
+ reg_slot--;
+ }
+ else
+ {
+ imm_slot = 0;
+
+ /* Turn on Imm8 so that output_imm will generate it. */
+ i.types[imm_slot].bitfield.imm8 = 1;
+ }
+
+ gas_assert (i.tm.operand_types[reg_slot].bitfield.regsimd);
+ i.op[imm_slot].imms->X_add_number
+ |= register_number (i.op[reg_slot].regs) << 4;
gas_assert ((i.op[reg_slot].regs->reg_flags & RegVRex) == 0);
- }
+ }
gas_assert (i.tm.operand_types[nds].bitfield.regsimd);
i.vex.register_specifier = i.op[nds].regs;
if ((i.op[source].regs->reg_flags & RegVRex) != 0)
i.vrex |= REX_R;
}
- if (flag_code != CODE_64BIT && (i.rex & (REX_R | REX_B)))
+ if (flag_code != CODE_64BIT && (i.rex & REX_R))
{
- if (!i.types[0].bitfield.control
- && !i.types[1].bitfield.control)
+ if (!i.types[i.tm.operand_types[0].bitfield.regmem].bitfield.control)
abort ();
- i.rex &= ~(REX_R | REX_B);
+ i.rex &= ~REX_R;
add_prefix (LOCK_PREFIX_OPCODE);
}
}
if (i.tm.opcode_modifier.vecsib)
{
- if (i.index_reg->reg_num == RegEiz
- || i.index_reg->reg_num == RegRiz)
+ if (i.index_reg->reg_num == RegIZ)
abort ();
i.rm.regmem = ESCAPE_TO_TWO_BYTE_ADDRESSING;
else if (!i.tm.opcode_modifier.vecsib)
{
/* !i.base_reg && i.index_reg */
- if (i.index_reg->reg_num == RegEiz
- || i.index_reg->reg_num == RegRiz)
+ if (i.index_reg->reg_num == RegIZ)
i.sib.index = NO_INDEX_REGISTER;
else
i.sib.index = i.index_reg->reg_num;
}
}
/* RIP addressing for 64bit mode. */
- else if (i.base_reg->reg_num == RegRip ||
- i.base_reg->reg_num == RegEip)
+ else if (i.base_reg->reg_num == RegIP)
{
gas_assert (!i.tm.opcode_modifier.vecsib);
i.rm.regmem = NO_BASE_REGISTER;
}
else if (!i.tm.opcode_modifier.vecsib)
{
- if (i.index_reg->reg_num == RegEiz
- || i.index_reg->reg_num == RegRiz)
+ if (i.index_reg->reg_num == RegIZ)
i.sib.index = NO_INDEX_REGISTER;
else
i.sib.index = i.index_reg->reg_num;
if (i.tm.base_opcode & 0xff000000)
{
prefix = (i.tm.base_opcode >> 24) & 0xff;
- goto check_prefix;
+ add_prefix (prefix);
}
break;
case 2:
if ((i.tm.base_opcode & 0xff0000) != 0)
{
prefix = (i.tm.base_opcode >> 16) & 0xff;
- if (i.tm.cpu_flags.bitfield.cpupadlock)
- {
-check_prefix:
- if (prefix != REPE_PREFIX_OPCODE
- || (i.prefix[REP_PREFIX]
- != REPE_PREFIX_OPCODE))
- add_prefix (prefix);
- }
- else
+ if (!i.tm.cpu_flags.bitfield.cpupadlock
+ || prefix != REPE_PREFIX_OPCODE
+ || (i.prefix[REP_PREFIX] != REPE_PREFIX_OPCODE))
add_prefix (prefix);
}
break;
int size = disp_size (n);
offsetT val = i.op[n].disps->X_add_number;
- val = offset_in_range (val >> i.memshift, size);
+ val = offset_in_range (val >> (size == 1 ? i.memshift : 0),
+ size);
p = frag_more (size);
md_number_to_chars (p, val, size);
}
{
fixP->fx_tcbit = i.rex != 0;
if (i.base_reg
- && (i.base_reg->reg_num == RegRip
- || i.base_reg->reg_num == RegEip))
+ && (i.base_reg->reg_num == RegIP))
fixP->fx_tcbit2 = 1;
}
else
op_string += 3;
if (*op_string == '8')
- bcst_type = BROADCAST_1TO8;
+ bcst_type = 8;
else if (*op_string == '4')
- bcst_type = BROADCAST_1TO4;
+ bcst_type = 4;
else if (*op_string == '2')
- bcst_type = BROADCAST_1TO2;
+ bcst_type = 2;
else if (*op_string == '1'
&& *(op_string+1) == '6')
{
- bcst_type = BROADCAST_1TO16;
+ bcst_type = 16;
op_string++;
}
else
broadcast_op.type = bcst_type;
broadcast_op.operand = this_operand;
+ broadcast_op.bytes = 0;
i.broadcast = &broadcast_op;
}
/* Check masking operation. */
return NULL;
}
op_string++;
+
+ /* Strip whitespace since the addition of pseudo prefixes
+ changed how the scrubber treats '{'. */
+ if (is_space_char (*op_string))
+ ++op_string;
+
continue;
}
unknown_vec_op:
if (addr_reg)
{
- if (addr_reg->reg_num == RegEip
- || addr_reg->reg_num == RegEiz
- || addr_reg->reg_type.bitfield.dword)
+ if (addr_reg->reg_type.bitfield.dword)
addr_mode = CODE_32BIT;
else if (flag_code != CODE_64BIT
&& addr_reg->reg_type.bitfield.word)
{
/* 32-bit/64-bit checks. */
if ((i.base_reg
- && (addr_mode == CODE_64BIT
- ? !i.base_reg->reg_type.bitfield.qword
- : !i.base_reg->reg_type.bitfield.dword)
- && (i.index_reg
- || (i.base_reg->reg_num
- != (addr_mode == CODE_64BIT ? RegRip : RegEip))))
+ && ((addr_mode == CODE_64BIT
+ ? !i.base_reg->reg_type.bitfield.qword
+ : !i.base_reg->reg_type.bitfield.dword)
+ || (i.index_reg && i.base_reg->reg_num == RegIP)
+ || i.base_reg->reg_num == RegIZ))
|| (i.index_reg
&& !i.index_reg->reg_type.bitfield.xmmword
&& !i.index_reg->reg_type.bitfield.ymmword
&& !i.index_reg->reg_type.bitfield.zmmword
&& ((addr_mode == CODE_64BIT
- ? !(i.index_reg->reg_type.bitfield.qword
- || i.index_reg->reg_num == RegRiz)
- : !(i.index_reg->reg_type.bitfield.dword
- || i.index_reg->reg_num == RegEiz))
+ ? !i.index_reg->reg_type.bitfield.qword
+ : !i.index_reg->reg_type.bitfield.dword)
|| !i.index_reg->reg_type.bitfield.baseindex)))
goto bad_address;
|| (current_templates->start->base_opcode & ~1) == 0x0f1a)
{
/* They cannot use RIP-relative addressing. */
- if (i.base_reg && i.base_reg->reg_num == RegRip)
+ if (i.base_reg && i.base_reg->reg_num == RegIP)
{
as_bad (_("`%s' cannot be used here"), operand_string);
return 0;
/* Special case for (%dx) while doing input/output op. */
if (i.base_reg
- && operand_type_equal (&i.base_reg->reg_type,
- ®16_inoutportreg)
+ && i.base_reg->reg_type.bitfield.inoutportreg
&& i.index_reg == 0
&& i.log2_scale_factor == 0
&& i.seg[i.mem_operands] == 0
&& !operand_type_check (i.types[this_operand], disp))
{
- i.types[this_operand] = inoutportreg;
+ i.types[this_operand] = i.base_reg->reg_type;
return 1;
}
if (i386_index_check (operand_string) == 0)
return 0;
- i.types[this_operand].bitfield.mem = 1;
+ i.flags[this_operand] |= Operand_Mem;
if (i.mem_operands == 0)
i.memop1_string = xstrdup (operand_string);
i.mem_operands++;
/* Handle floating point regs, allowing spaces in the (i) part. */
if (r == i386_regtab /* %st is first entry of table */)
{
+ if (!cpu_arch_flags.bitfield.cpu8087
+ && !cpu_arch_flags.bitfield.cpu287
+ && !cpu_arch_flags.bitfield.cpu387)
+ return (const reg_entry *) NULL;
+
if (is_space_char (*s))
++s;
if (*s == '(')
&& !cpu_arch_flags.bitfield.cpui386)
return (const reg_entry *) NULL;
- if (r->reg_type.bitfield.tbyte
- && !cpu_arch_flags.bitfield.cpu8087
- && !cpu_arch_flags.bitfield.cpu287
- && !cpu_arch_flags.bitfield.cpu387)
+ if (r->reg_type.bitfield.regmmx && !cpu_arch_flags.bitfield.cpummx)
return (const reg_entry *) NULL;
- if (r->reg_type.bitfield.regmmx && !cpu_arch_flags.bitfield.cpuregmmx)
- return (const reg_entry *) NULL;
-
- if (r->reg_type.bitfield.xmmword && !cpu_arch_flags.bitfield.cpuregxmm)
- return (const reg_entry *) NULL;
+ if (!cpu_arch_flags.bitfield.cpuavx512f)
+ {
+ if (r->reg_type.bitfield.zmmword || r->reg_type.bitfield.regmask)
+ return (const reg_entry *) NULL;
- if (r->reg_type.bitfield.ymmword && !cpu_arch_flags.bitfield.cpuregymm)
- return (const reg_entry *) NULL;
+ if (!cpu_arch_flags.bitfield.cpuavx)
+ {
+ if (r->reg_type.bitfield.ymmword)
+ return (const reg_entry *) NULL;
- if (r->reg_type.bitfield.zmmword && !cpu_arch_flags.bitfield.cpuregzmm)
- return (const reg_entry *) NULL;
+ if (!cpu_arch_flags.bitfield.cpusse && r->reg_type.bitfield.xmmword)
+ return (const reg_entry *) NULL;
+ }
+ }
- if (r->reg_type.bitfield.regmask
- && !cpu_arch_flags.bitfield.cpuregmask)
+ if (r->reg_type.bitfield.regbnd && !cpu_arch_flags.bitfield.cpumpx)
return (const reg_entry *) NULL;
/* Don't allow fake index register unless allow_index_reg isn't 0. */
- if (!allow_index_reg
- && (r->reg_num == RegEiz || r->reg_num == RegRiz))
+ if (!allow_index_reg && r->reg_num == RegIZ)
return (const reg_entry *) NULL;
- /* Upper 16 vector register is only available with VREX in 64bit
- mode. */
- if ((r->reg_flags & RegVRex))
+ /* Upper 16 vector registers are only available with VREX in 64bit
+ mode, and require EVEX encoding. */
+ if (r->reg_flags & RegVRex)
{
- if (i.vec_encoding == vex_encoding_default)
- i.vec_encoding = vex_encoding_evex;
-
- if (!cpu_arch_flags.bitfield.cpuvrex
- || i.vec_encoding != vex_encoding_evex
+ if (!cpu_arch_flags.bitfield.cpuavx512f
|| flag_code != CODE_64BIT)
return (const reg_entry *) NULL;
+
+ i.vec_encoding = vex_encoding_evex;
}
- if (((r->reg_flags & (RegRex64 | RegRex))
- || r->reg_type.bitfield.qword)
- && (!cpu_arch_flags.bitfield.cpulm
- || !operand_type_equal (&r->reg_type, &control))
+ if (((r->reg_flags & (RegRex64 | RegRex)) || r->reg_type.bitfield.qword)
+ && (!cpu_arch_flags.bitfield.cpulm || !r->reg_type.bitfield.control)
&& flag_code != CODE_64BIT)
return (const reg_entry *) NULL;
cpu_arch_flags = flags;
cpu_arch_isa_flags = flags;
}
+ else
+ cpu_arch_isa_flags
+ = cpu_flags_or (cpu_arch_isa_flags,
+ cpu_arch[j].flags);
break;
}
}
fprintf (stream, _("\
-msse2avx encode SSE instructions with VEX prefix\n"));
fprintf (stream, _("\
- -msse-check=[none|error|warning]\n\
+ -msse-check=[none|error|warning] (default: warning)\n\
check SSE instructions\n"));
fprintf (stream, _("\
- -moperand-check=[none|error|warning]\n\
+ -moperand-check=[none|error|warning] (default: warning)\n\
check operand combinations for validity\n"));
fprintf (stream, _("\
- -mavxscalar=[128|256] encode scalar AVX instructions with specific vector\n\
+ -mavxscalar=[128|256] (default: 128)\n\
+ encode scalar AVX instructions with specific vector\n\
length\n"));
fprintf (stream, _("\
- -mevexlig=[128|256|512] encode scalar EVEX instructions with specific vector\n\
+ -mevexlig=[128|256|512] (default: 128)\n\
+ encode scalar EVEX instructions with specific vector\n\
length\n"));
fprintf (stream, _("\
- -mevexwig=[0|1] encode EVEX instructions with specific EVEX.W value\n\
+ -mevexwig=[0|1] (default: 0)\n\
+ encode EVEX instructions with specific EVEX.W value\n\
for EVEX.W bit ignored instructions\n"));
fprintf (stream, _("\
- -mevexrcig=[rne|rd|ru|rz]\n\
+ -mevexrcig=[rne|rd|ru|rz] (default: rne)\n\
encode EVEX instructions with specific EVEX.RC value\n\
for SAE-only ignored instructions\n"));
fprintf (stream, _("\
- -mmnemonic=[att|intel] use AT&T/Intel mnemonic\n"));
+ -mmnemonic=[att|intel] "));
+ if (SYSV386_COMPAT)
+ fprintf (stream, _("(default: att)\n"));
+ else
+ fprintf (stream, _("(default: intel)\n"));
+ fprintf (stream, _("\
+ use AT&T/Intel mnemonic\n"));
fprintf (stream, _("\
- -msyntax=[att|intel] use AT&T/Intel syntax\n"));
+ -msyntax=[att|intel] (default: att)\n\
+ use AT&T/Intel syntax\n"));
fprintf (stream, _("\
-mindex-reg support pseudo index registers\n"));
fprintf (stream, _("\
-mbig-obj generate big object files\n"));
#endif
fprintf (stream, _("\
- -momit-lock-prefix=[no|yes]\n\
+ -momit-lock-prefix=[no|yes] (default: no)\n\
strip all lock prefixes\n"));
fprintf (stream, _("\
- -mfence-as-lock-add=[no|yes]\n\
+ -mfence-as-lock-add=[no|yes] (default: no)\n\
encode lfence, mfence and sfence as\n\
lock addl $0x0, (%%{re}sp)\n"));
fprintf (stream, _("\
- -mrelax-relocations=[no|yes]\n\
+ -mrelax-relocations=[no|yes] "));
+ if (DEFAULT_GENERATE_X86_RELAX_RELOCATIONS)
+ fprintf (stream, _("(default: yes)\n"));
+ else
+ fprintf (stream, _("(default: no)\n"));
+ fprintf (stream, _("\
generate relax relocations\n"));
fprintf (stream, _("\
- -mamd64 accept only AMD64 ISA\n"));
+ -mamd64 accept only AMD64 ISA [default]\n"));
fprintf (stream, _("\
-mintel64 accept only Intel64 ISA\n"));
}
projects / binutils-gdb.git / blobdiff