Lines Matching defs:which

134    instructions for o32, for which the stack alignment is 8 bytes.)
268 of this instruction is the result of the comparison, which has mode
1984 R_MIPS_GOT16 relocation. We must correctly predict which of
2217 relocation. Use mips_split_p to determine which. 32-bit
2321 hard frame pointer, both of which are usually valid base registers.
2383 for o64, which has historically only guaranteed 64-bit alignment
2528 for LW and SW, and so on. An exception is LWSP and SWSP, which have
2898 instruction itself (which is not necessarily the last instruction
2972 /* If OP is an UNSPEC address, return the address to which it refers,
3018 for which $gp itself is not a valid base register or addition operand. */
3557 a LO_SUM. CONTEXT is the context in which X appears. */
3568 guarantee about which symbolic constants are acceptable as asm operands
3569 versus which must be forced into a GPR. */
3594 relocations. CONTEXT is the context in which *LOC appears. */
4147 /* If it's an add + mult (which is equivalent to shift left) and
4523 SPLIT_TYPE is the condition under which moves should be split. */
4615 which order to do them. */
5366 say, which is OK because they are not covered by the standard ABI. */
5617 either the o32 or the o64 ABI, both of which pass at most 2 arguments
5772 list them in FIELDS (which should have two elements). Return 0
6121 Two pointers are to the overflow area, which starts at the CFA.
6130 We also keep two one-byte offsets, which are to be subtracted
6223 /* Emit code to initialize OVFL, which points to the next varargs
6710 /* A chained list of functions for which mips16_build_call_stub has already
6795 general registers. FP_CODE is the code describing which arguments
6836 for functions which take arguments in the floating-point registers.
6917 function, it will associate the symbol with the stub (which,
7266 stub which does not expect one, then we're in trouble. We can't
7269 which stub to use for the various calls in this object file.
7281 /* If we are calling a stub which handles a floating-point return
7677 /* Expand a movmemsi instruction, which copies LENGTH bytes from
8218 /* Print symbolic operand OP, which is part of a HIGH or LO_SUM
8858 adjustment. So, we do the adjustment here. The arg pointer (which
8860 pointer (which may be eliminated) points to the stack pointer after
8981 64-bit registers which means that dwarf information cannot be precise
9292 such as GDB. Do the same for o64, which is sometimes used with
9443 /* Return the index of the lowest X in the range [0, SIZE) for which
9627 /* Return RTL for a MIPS16e SAVE or RESTORE instruction; RESTORE_P says which.
9645 registers in the memory immediately below *OFFSET_PTR, which is a
9858 /* Save or restore registers in the range $s2...$s8, which
9935 One example of this (and one which needs several checks) is that
9956 /* FUNCTION_PROFILER includes a JAL to _mcount, which again
10056 the usual case in which all branches are short.
10281 needed for the case when MIN_FPRS_PER_FMT == 1, which allows the odd
10429 /* Find out which GPRs we need to save. */
10464 /* Find out which FPRs we need to save. This loop must iterate over
10712 predict which applies to a given function, so let's keep things
10731 LOAD_P says which. */
11217 /* Tell the assembler which register we're using as the global
11867 says which. */
11898 /* Work out which register holds the frame address. */
12483 /* Handle cases in which only one class deviates from the ideal. */
12543 copying between one of the registers in RCLASS and value X, which
12890 /* Return the assembly code for INSN, which has the operands given by
12891 OPERANDS, and which branches to OPERANDS[0] if some condition is true.
12973 /* Return the assembly code for INSN, which branches to OPERANDS[0]
13306 /* Output and/or return the asm template for sync loop INSN, which has
13334 which has the operands given by OPERANDS. */
13347 /* Return the assembly code for DIV or DDIV instruction DIVISION, which has
13392 miss (both primary and secondary) and the line which is
13531 which causes the default routine to abort. We just return false
13831 /* A TUNE_MACC_CHAINS helper function. Search ready queue READY, which
13892 in which INSN1 and INSN2 can probably issue in parallel, but for
13893 which (INSN2, INSN1) should be less sensitive to instruction
14258 /* Define __builtin_mips_<INSN>, which is a MIPS_BUILTIN_DIRECT function
14264 /* Define __builtin_mips_<INSN>_<COND>_{s,d} functions, both of which
14319 /* Define __builtin_mips_<INSN>, which is a MIPS_BUILTIN_DIRECT_NO_TARGET
14882 HAS_TARGET_P says which. EXP is the CALL_EXPR that calls the function
14908 function; TYPE says which. EXP is the CALL_EXPR that calls the
15382 virtual_incoming_args_rtx (which should never occur in X otherwise). */
15561 /* A note_stores callback for which DATA points to an instruction pointer.
15698 clear which position is better performance-wise,
15961 LAST_SET[X].TIME is the time at which that instruction was issued.
16213 Prefer MULT -- which is shorter -- in the event of a tie. */
16281 (which is usually the "rt" field).
16480 /* Look up symbolic constant X in HTAB, which is a hash table of
16551 /* Check for local %gots (and %got_pages, which is redundant but OK). */
16947 /* Restore the BLOCK_FOR_INSN pointers, which are needed by DF. Also during
17060 /* Find out which register contains the "this" pointer. */
17153 which is either MASK_MIPS16 or MASK_MICROMIPS. */
17427 "which specify a %s processor",
17553 /* Decide which rtx_costs structure to use. */
17772 ILP32 mode, which is selected by -mlong32. The problem is that the
17906 /* Swap the register information for registers I and I + 1, which
18278 register into (from) which the contents of MEM1 will be loaded
18322 in an LWP or SWP instruction; LOAD_P says which. */
18353 /* Return the assembly instruction for a microMIPS LWP or SWP in which
18671 setting should be irrelevant. The question then is: which setting
18944 int i, nelt, which;
18959 for (i = which = 0; i < nelt; ++i)
18963 which |= (ei < nelt ? 1 : 2);
18968 switch (which)
18994 /* If we were given a two-vector permutation which just happened to
19001 if (!ok && which == 3)
19020 unsigned int i, nelt, which;
19029 for (i = which = 0; i < nelt; ++i)
19033 which |= (e < nelt ? 1 : 2);
19037 if (which == 2)
19042 d.one_vector_p = (which != 3);