/* MIPS Simulator definition.
- Copyright (C) 1997-2015 Free Software Foundation, Inc.
+ Copyright (C) 1997-2022 Free Software Foundation, Inc.
Contributed by Cygnus Support.
-This file is part of GDB, the GNU debugger.
+This file is part of the MIPS sim.
This program is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
#ifndef SIM_MAIN_H
#define SIM_MAIN_H
-/* This simulator doesn't cache the Current Instruction Address */
-/* #define SIM_ENGINE_HALT_HOOK(SD, LAST_CPU, CIA) */
-/* #define SIM_ENGINE_RESUME_HOOK(SD, LAST_CPU, CIA) */
-
-/* hobble some common features for moment */
-#define WITH_WATCHPOINTS 1
-#define WITH_MODULO_MEMORY 1
-
-
#define SIM_CORE_SIGNAL(SD,CPU,CIA,MAP,NR_BYTES,ADDR,TRANSFER,ERROR) \
mips_core_signal ((SD), (CPU), (CIA), (MAP), (NR_BYTES), (ADDR), (TRANSFER), (ERROR))
#include "sim-basics.h"
-
-typedef struct _sim_cpu SIM_CPU;
-
#include "sim-base.h"
#include "bfd.h"
+#include "elf-bfd.h"
+#include "elf/mips.h"
/* Deprecated macros and types for manipulating 64bit values. Use
../common/sim-bits.h and ../common/sim-endian.h macros instead. */
-typedef signed64 word64;
-typedef unsigned64 uword64;
+typedef int64_t word64;
+typedef uint64_t uword64;
#define WORD64LO(t) (unsigned int)((t)&0xFFFFFFFF)
#define WORD64HI(t) (unsigned int)(((uword64)(t))>>32)
#define NOTHALFWORDVALUE(v) ((((((uword64)(v)>>16) == 0) && !((v) & ((unsigned)1 << 15))) || (((((uword64)(v)>>32) == 0xFFFFFFFF) && ((((uword64)(v)>>16) & 0xFFFF) == 0xFFFF)) && ((v) & ((unsigned)1 << 15)))) ? (1 == 0) : (1 == 1))
+typedef enum {
+ cp0_dmfc0,
+ cp0_dmtc0,
+ cp0_mfc0,
+ cp0_mtc0,
+ cp0_tlbr,
+ cp0_tlbwi,
+ cp0_tlbwr,
+ cp0_tlbp,
+ cp0_cache,
+ cp0_eret,
+ cp0_deret,
+ cp0_rfe
+} CP0_operation;
/* Floating-point operations: */
fmt_word = 4,
fmt_long = 5,
fmt_ps = 6,
+ /* The following is a special case for FP conditions where only
+ the lower 32bits are considered. This is a HACK. */
+ fmt_dc32 = 7,
/* The following are well outside the normal acceptable format
range, and are used in the register status vector. */
fmt_unknown = 0x10000000,
more details. */
typedef struct _hilo_access {
- signed64 timestamp;
+ int64_t timestamp;
address_word cia;
} hilo_access;
#define ALU32_END(ANS) \
if (ALU32_HAD_OVERFLOW) \
SignalExceptionIntegerOverflow (); \
- (ANS) = (signed32) ALU32_OVERFLOW_RESULT
+ (ANS) = (int32_t) ALU32_OVERFLOW_RESULT
#define ALU64_END(ANS) \
int slot_size[PSLOTS];
int slot_bit[PSLOTS];
void *slot_dest[PSLOTS];
- unsigned64 slot_value[PSLOTS];
+ uint64_t slot_value[PSLOTS];
} pending_write_queue;
#ifndef PENDING_TRACE
#define PENDING_TRACE 0
#endif
-#define PENDING_IN ((CPU)->pending.in)
-#define PENDING_OUT ((CPU)->pending.out)
-#define PENDING_TOTAL ((CPU)->pending.total)
-#define PENDING_SLOT_SIZE ((CPU)->pending.slot_size)
-#define PENDING_SLOT_BIT ((CPU)->pending.slot_bit)
-#define PENDING_SLOT_DELAY ((CPU)->pending.slot_delay)
-#define PENDING_SLOT_DEST ((CPU)->pending.slot_dest)
-#define PENDING_SLOT_VALUE ((CPU)->pending.slot_value)
+#define PENDING_IN (MIPS_SIM_CPU (CPU)->pending.in)
+#define PENDING_OUT (MIPS_SIM_CPU (CPU)->pending.out)
+#define PENDING_TOTAL (MIPS_SIM_CPU (CPU)->pending.total)
+#define PENDING_SLOT_SIZE (MIPS_SIM_CPU (CPU)->pending.slot_size)
+#define PENDING_SLOT_BIT (MIPS_SIM_CPU (CPU)->pending.slot_bit)
+#define PENDING_SLOT_DELAY (MIPS_SIM_CPU (CPU)->pending.slot_delay)
+#define PENDING_SLOT_DEST (MIPS_SIM_CPU (CPU)->pending.slot_dest)
+#define PENDING_SLOT_VALUE (MIPS_SIM_CPU (CPU)->pending.slot_value)
/* Invalidate the pending write queue, all pending writes are
discarded. */
#define PENDING_INVALIDATE() \
-memset (&(CPU)->pending, 0, sizeof ((CPU)->pending))
+memset (&MIPS_SIM_CPU (CPU)->pending, 0, sizeof (MIPS_SIM_CPU (CPU)->pending))
/* Schedule a write to DEST for N cycles time. For 64 bit
destinations, schedule two writes. For floating point registers,
};
-/* The internal representation of an MDMX accumulator.
+/* The internal representation of an MDMX accumulator.
Note that 24 and 48 bit accumulator elements are represented in
32 or 64 bits. Since the accumulators are 2's complement with
overflow suppressed, high-order bits can be ignored in most contexts. */
-typedef signed32 signed24;
-typedef signed64 signed48;
+typedef int32_t signed24;
+typedef int64_t signed48;
-typedef union {
+typedef union {
signed24 ob[8];
- signed48 qh[4];
+ signed48 qh[4];
} MDMX_accumulator;
-/* Conventional system arguments. */
+/* Conventional system arguments. */
#define SIM_STATE sim_cpu *cpu, address_word cia
#define SIM_ARGS CPU, cia
-struct _sim_cpu {
-
+struct mips_sim_cpu {
/* The following are internal simulator state variables: */
address_word dspc; /* delay-slot PC */
-#define DSPC ((CPU)->dspc)
+#define DSPC (MIPS_SIM_CPU (CPU)->dspc)
#define DELAY_SLOT(TARGET) NIA = delayslot32 (SD_, (TARGET))
+#define FORBIDDEN_SLOT() { NIA = forbiddenslot32 (SD_); }
#define NULLIFY_NEXT_INSTRUCTION() NIA = nullify_next_insn32 (SD_)
/* State of the simulator */
unsigned int state;
unsigned int dsstate;
-#define STATE ((CPU)->state)
-#define DSSTATE ((CPU)->dsstate)
+#define STATE (MIPS_SIM_CPU (CPU)->state)
+#define DSSTATE (MIPS_SIM_CPU (CPU)->dsstate)
/* Flags in the "state" variable: */
-#define simHALTEX (1 << 2) /* 0 = run; 1 = halt on exception */
-#define simHALTIN (1 << 3) /* 0 = run; 1 = halt on interrupt */
-#define simTRACE (1 << 8) /* 0 = do nothing; 1 = trace address activity */
-#define simPCOC0 (1 << 17) /* COC[1] from current */
-#define simPCOC1 (1 << 18) /* COC[1] from previous */
-#define simDELAYSLOT (1 << 24) /* 0 = do nothing; 1 = delay slot entry exists */
-#define simSKIPNEXT (1 << 25) /* 0 = do nothing; 1 = skip instruction */
-#define simSIGINT (1 << 28) /* 0 = do nothing; 1 = SIGINT has occured */
-#define simJALDELAYSLOT (1 << 29) /* 1 = in jal delay slot */
+#define simHALTEX (1 << 2) /* 0 = run; 1 = halt on exception */
+#define simHALTIN (1 << 3) /* 0 = run; 1 = halt on interrupt */
+#define simTRACE (1 << 8) /* 1 = trace address activity */
+#define simPCOC0 (1 << 17) /* COC[1] from current */
+#define simPCOC1 (1 << 18) /* COC[1] from previous */
+#define simDELAYSLOT (1 << 24) /* 1 = delay slot entry exists */
+#define simSKIPNEXT (1 << 25) /* 0 = do nothing; 1 = skip instruction */
+#define simSIGINT (1 << 28) /* 0 = do nothing; 1 = SIGINT has occured */
+#define simJALDELAYSLOT (1 << 29) /* 1 = in jal delay slot */
+#define simFORBIDDENSLOT (1 << 30) /* 1 = n forbidden slot */
#ifndef ENGINE_ISSUE_PREFIX_HOOK
#define ENGINE_ISSUE_PREFIX_HOOK() \
unsigned_word registers[LAST_EMBED_REGNUM + 1];
int register_widths[NUM_REGS];
-#define REGISTERS ((CPU)->registers)
+#define REGISTERS (MIPS_SIM_CPU (CPU)->registers)
#define GPR (®ISTERS[0])
#define GPR_SET(N,VAL) (REGISTERS[(N)] = (VAL))
#define SIM_CPU_EXCEPTION_RESUME(SD,CPU,EXC) mips_cpu_exception_resume(SD,CPU,EXC)
unsigned_word c0_config_reg;
-#define C0_CONFIG ((CPU)->c0_config_reg)
+#define C0_CONFIG (MIPS_SIM_CPU (CPU)->c0_config_reg)
/* The following are pseudonyms for standard registers */
#define ZERO (REGISTERS[0])
#define NR_COP0_GPR 32
unsigned_word cop0_gpr[NR_COP0_GPR];
-#define COP0_GPR ((CPU)->cop0_gpr)
+#define COP0_GPR (MIPS_SIM_CPU (CPU)->cop0_gpr)
#define COP0_BADVADDR (COP0_GPR[8])
/* While space is allocated for the floating point registers in the
#define NR_FGR (32)
#define FGR_BASE FP0_REGNUM
fp_word fgr[NR_FGR];
-#define FGR ((CPU)->fgr)
+#define FGR (MIPS_SIM_CPU (CPU)->fgr)
/* Keep the current format state for each register: */
FP_formats fpr_state[32];
-#define FPR_STATE ((CPU)->fpr_state)
+#define FPR_STATE (MIPS_SIM_CPU (CPU)->fpr_state)
pending_write_queue pending;
/* The MDMX accumulator (used only for MDMX ASE). */
- MDMX_accumulator acc;
-#define ACC ((CPU)->acc)
+ MDMX_accumulator acc;
+#define ACC (MIPS_SIM_CPU (CPU)->acc)
/* LLBIT = Load-Linked bit. A bit of "virtual" state used by atomic
read-write instructions. It is set when a linked load occurs. It
no longer be atomic. In particular, it is cleared by exception
return instructions. */
int llbit;
-#define LLBIT ((CPU)->llbit)
+#define LLBIT (MIPS_SIM_CPU (CPU)->llbit)
/* The HIHISTORY and LOHISTORY timestamps are used to ensure that
following operation is spotted. See mips.igen for more details. */
hilo_history hi_history;
-#define HIHISTORY (&(CPU)->hi_history)
+#define HIHISTORY (&MIPS_SIM_CPU (CPU)->hi_history)
hilo_history lo_history;
-#define LOHISTORY (&(CPU)->lo_history)
-
-
- sim_cpu_base base;
-};
-
-
-/* MIPS specific simulator watch config */
-
-void watch_options_install (SIM_DESC sd);
-
-struct swatch {
- sim_event *pc;
- sim_event *clock;
- sim_event *cycles;
+#define LOHISTORY (&MIPS_SIM_CPU (CPU)->lo_history)
};
+#define MIPS_SIM_CPU(cpu) ((struct mips_sim_cpu *) CPU_ARCH_DATA (cpu))
+extern void mips_sim_close (SIM_DESC sd, int quitting);
+#define SIM_CLOSE_HOOK(...) mips_sim_close (__VA_ARGS__)
/* FIXME: At present much of the simulator is still static */
-struct sim_state {
-
- struct swatch watch;
-
- sim_cpu *cpu[MAX_NR_PROCESSORS];
-
- sim_state_base base;
+struct mips_sim_state {
+ /* microMIPS ISA mode. */
+ int isa_mode;
};
-
+#define MIPS_SIM_STATE(sd) ((struct mips_sim_state *) STATE_ARCH_DATA (sd))
/* Status information: */
/* Bits reserved for implementations: */
#define status_SBX (1 << 16) /* Enable SiByte SB-1 extensions. */
+/* From R6 onwards, some instructions (e.g. ADDIUPC) change behaviour based
+ * on the Status.UX bits to either sign extend, or act as full 64 bit. */
+#define status_optional_EXTEND32(x) ((SR & status_UX) ? x : EXTEND32(x))
+
#define cause_BD ((unsigned)1 << 31) /* L1 Exception in branch delay slot */
#define cause_BD2 (1 << 30) /* L2 Exception in branch delay slot */
#define cause_CE_mask 0x30000000 /* Coprocessor exception */
/* Hardware configuration. Affects endianness of LoadMemory and
StoreMemory and the endianness of Kernel and Supervisor mode
execution. The value is 0 for little-endian; 1 for big-endian. */
-#define BigEndianMem (CURRENT_TARGET_BYTE_ORDER == BIG_ENDIAN)
+#define BigEndianMem (CURRENT_TARGET_BYTE_ORDER == BFD_ENDIAN_BIG)
/*(state & simBE) ? 1 : 0)*/
/* ReverseEndian */
/* The following break instructions are reserved for use by the
simulator. The first is used to halt the simulation. The second
- is used by gdb for break-points. NOTE: Care must be taken, since
+ is used by gdb for break-points. NOTE: Care must be taken, since
this value may be used in later revisions of the MIPS ISA. */
#define HALT_INSTRUCTION_MASK (0x03FFFFC0)
cop_sd (SD, CPU, cia, coproc_num, coproc_reg)
-void decode_coproc (SIM_DESC sd, sim_cpu *cpu, address_word cia, unsigned int instruction);
-#define DecodeCoproc(instruction) \
-decode_coproc (SD, CPU, cia, (instruction))
+void decode_coproc (SIM_DESC sd, sim_cpu *cpu, address_word cia,
+ unsigned int instruction, int coprocnum, CP0_operation op,
+ int rt, int rd, int sel);
+#define DecodeCoproc(instruction,coprocnum,op,rt,rd,sel) \
+ decode_coproc (SD, CPU, cia, (instruction), (coprocnum), (op), \
+ (rt), (rd), (sel))
int sim_monitor (SIM_DESC sd, sim_cpu *cpu, address_word cia, unsigned int arg);
-
+
/* FPR access. */
-unsigned64 value_fpr (SIM_STATE, int fpr, FP_formats);
+uint64_t value_fpr (SIM_STATE, int fpr, FP_formats);
#define ValueFPR(FPR,FMT) value_fpr (SIM_ARGS, (FPR), (FMT))
-void store_fpr (SIM_STATE, int fpr, FP_formats fmt, unsigned64 value);
+void store_fpr (SIM_STATE, int fpr, FP_formats fmt, uint64_t value);
#define StoreFPR(FPR,FMT,VALUE) store_fpr (SIM_ARGS, (FPR), (FMT), (VALUE))
-unsigned64 ps_lower (SIM_STATE, unsigned64 op);
+uint64_t ps_lower (SIM_STATE, uint64_t op);
#define PSLower(op) ps_lower (SIM_ARGS, op)
-unsigned64 ps_upper (SIM_STATE, unsigned64 op);
+uint64_t ps_upper (SIM_STATE, uint64_t op);
#define PSUpper(op) ps_upper (SIM_ARGS, op)
-unsigned64 pack_ps (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats from);
+uint64_t pack_ps (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats from);
#define PackPS(op1,op2) pack_ps (SIM_ARGS, op1, op2, fmt_single)
/* FPU operations. */
-void fp_cmp (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt, int abs, int cond, int cc);
-#define Compare(op1,op2,fmt,cond,cc) fp_cmp(SIM_ARGS, op1, op2, fmt, 0, cond, cc)
-unsigned64 fp_abs (SIM_STATE, unsigned64 op, FP_formats fmt);
+/* Non-signalling */
+#define FP_R6CMP_AF 0x0
+#define FP_R6CMP_EQ 0x2
+#define FP_R6CMP_LE 0x6
+#define FP_R6CMP_LT 0x4
+#define FP_R6CMP_NE 0x13
+#define FP_R6CMP_OR 0x11
+#define FP_R6CMP_UEQ 0x3
+#define FP_R6CMP_ULE 0x7
+#define FP_R6CMP_ULT 0x5
+#define FP_R6CMP_UN 0x1
+#define FP_R6CMP_UNE 0x12
+
+/* Signalling */
+#define FP_R6CMP_SAF 0x8
+#define FP_R6CMP_SEQ 0xa
+#define FP_R6CMP_SLE 0xe
+#define FP_R6CMP_SLT 0xc
+#define FP_R6CMP_SNE 0x1b
+#define FP_R6CMP_SOR 0x19
+#define FP_R6CMP_SUEQ 0xb
+#define FP_R6CMP_SULE 0xf
+#define FP_R6CMP_SULT 0xd
+#define FP_R6CMP_SUN 0x9
+#define FP_R6CMP_SUNE 0x1a
+
+/* FPU Class */
+#define FP_R6CLASS_SNAN (1<<0)
+#define FP_R6CLASS_QNAN (1<<1)
+#define FP_R6CLASS_NEGINF (1<<2)
+#define FP_R6CLASS_NEGNORM (1<<3)
+#define FP_R6CLASS_NEGSUB (1<<4)
+#define FP_R6CLASS_NEGZERO (1<<5)
+#define FP_R6CLASS_POSINF (1<<6)
+#define FP_R6CLASS_POSNORM (1<<7)
+#define FP_R6CLASS_POSSUB (1<<8)
+#define FP_R6CLASS_POSZERO (1<<9)
+
+void fp_cmp (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt,
+ int abs, int cond, int cc);
+#define Compare(op1,op2,fmt,cond,cc) \
+ fp_cmp(SIM_ARGS, op1, op2, fmt, 0, cond, cc)
+uint64_t fp_r6_cmp (SIM_STATE, uint64_t op1, uint64_t op2,
+ FP_formats fmt, int cond);
+#define R6Compare(op1,op2,fmt,cond) fp_r6_cmp(SIM_ARGS, op1, op2, fmt, cond)
+uint64_t fp_classify(SIM_STATE, uint64_t op, FP_formats fmt);
+#define Classify(op, fmt) fp_classify(SIM_ARGS, op, fmt)
+int fp_rint(SIM_STATE, uint64_t op, uint64_t *ans, FP_formats fmt);
+#define RoundToIntegralExact(op, ans, fmt) fp_rint(SIM_ARGS, op, ans, fmt)
+uint64_t fp_abs (SIM_STATE, uint64_t op, FP_formats fmt);
#define AbsoluteValue(op,fmt) fp_abs(SIM_ARGS, op, fmt)
-unsigned64 fp_neg (SIM_STATE, unsigned64 op, FP_formats fmt);
+uint64_t fp_neg (SIM_STATE, uint64_t op, FP_formats fmt);
#define Negate(op,fmt) fp_neg(SIM_ARGS, op, fmt)
-unsigned64 fp_add (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_add (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define Add(op1,op2,fmt) fp_add(SIM_ARGS, op1, op2, fmt)
-unsigned64 fp_sub (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_sub (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define Sub(op1,op2,fmt) fp_sub(SIM_ARGS, op1, op2, fmt)
-unsigned64 fp_mul (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_mul (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define Multiply(op1,op2,fmt) fp_mul(SIM_ARGS, op1, op2, fmt)
-unsigned64 fp_div (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_div (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define Divide(op1,op2,fmt) fp_div(SIM_ARGS, op1, op2, fmt)
-unsigned64 fp_recip (SIM_STATE, unsigned64 op, FP_formats fmt);
+uint64_t fp_min (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
+#define Min(op1,op2,fmt) fp_min(SIM_ARGS, op1, op2, fmt)
+uint64_t fp_max (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
+#define Max(op1,op2,fmt) fp_max(SIM_ARGS, op1, op2, fmt)
+uint64_t fp_mina (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
+#define MinA(op1,op2,fmt) fp_mina(SIM_ARGS, op1, op2, fmt)
+uint64_t fp_maxa (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
+#define MaxA(op1,op2,fmt) fp_maxa(SIM_ARGS, op1, op2, fmt)
+uint64_t fp_recip (SIM_STATE, uint64_t op, FP_formats fmt);
#define Recip(op,fmt) fp_recip(SIM_ARGS, op, fmt)
-unsigned64 fp_sqrt (SIM_STATE, unsigned64 op, FP_formats fmt);
+uint64_t fp_sqrt (SIM_STATE, uint64_t op, FP_formats fmt);
#define SquareRoot(op,fmt) fp_sqrt(SIM_ARGS, op, fmt)
-unsigned64 fp_rsqrt (SIM_STATE, unsigned64 op, FP_formats fmt);
+uint64_t fp_rsqrt (SIM_STATE, uint64_t op, FP_formats fmt);
#define RSquareRoot(op,fmt) fp_rsqrt(SIM_ARGS, op, fmt)
-unsigned64 fp_madd (SIM_STATE, unsigned64 op1, unsigned64 op2,
- unsigned64 op3, FP_formats fmt);
+uint64_t fp_madd (SIM_STATE, uint64_t op1, uint64_t op2,
+ uint64_t op3, FP_formats fmt);
+#define FusedMultiplyAdd(op1,op2,op3,fmt) fp_fmadd(SIM_ARGS, op1, op2, op3, fmt)
+uint64_t fp_fmadd (SIM_STATE, uint64_t op1, uint64_t op2,
+ uint64_t op3, FP_formats fmt);
+#define FusedMultiplySub(op1,op2,op3,fmt) fp_fmsub(SIM_ARGS, op1, op2, op3, fmt)
+uint64_t fp_fmsub (SIM_STATE, uint64_t op1, uint64_t op2,
+ uint64_t op3, FP_formats fmt);
#define MultiplyAdd(op1,op2,op3,fmt) fp_madd(SIM_ARGS, op1, op2, op3, fmt)
-unsigned64 fp_msub (SIM_STATE, unsigned64 op1, unsigned64 op2,
- unsigned64 op3, FP_formats fmt);
+uint64_t fp_msub (SIM_STATE, uint64_t op1, uint64_t op2,
+ uint64_t op3, FP_formats fmt);
#define MultiplySub(op1,op2,op3,fmt) fp_msub(SIM_ARGS, op1, op2, op3, fmt)
-unsigned64 fp_nmadd (SIM_STATE, unsigned64 op1, unsigned64 op2,
- unsigned64 op3, FP_formats fmt);
+uint64_t fp_nmadd (SIM_STATE, uint64_t op1, uint64_t op2,
+ uint64_t op3, FP_formats fmt);
#define NegMultiplyAdd(op1,op2,op3,fmt) fp_nmadd(SIM_ARGS, op1, op2, op3, fmt)
-unsigned64 fp_nmsub (SIM_STATE, unsigned64 op1, unsigned64 op2,
- unsigned64 op3, FP_formats fmt);
+uint64_t fp_nmsub (SIM_STATE, uint64_t op1, uint64_t op2,
+ uint64_t op3, FP_formats fmt);
#define NegMultiplySub(op1,op2,op3,fmt) fp_nmsub(SIM_ARGS, op1, op2, op3, fmt)
-unsigned64 convert (SIM_STATE, int rm, unsigned64 op, FP_formats from, FP_formats to);
+uint64_t convert (SIM_STATE, int rm, uint64_t op, FP_formats from, FP_formats to);
#define Convert(rm,op,from,to) convert (SIM_ARGS, rm, op, from, to)
-unsigned64 convert_ps (SIM_STATE, int rm, unsigned64 op, FP_formats from,
+uint64_t convert_ps (SIM_STATE, int rm, uint64_t op, FP_formats from,
FP_formats to);
#define ConvertPS(rm,op,from,to) convert_ps (SIM_ARGS, rm, op, from, to)
/* MIPS-3D ASE operations. */
#define CompareAbs(op1,op2,fmt,cond,cc) \
fp_cmp(SIM_ARGS, op1, op2, fmt, 1, cond, cc)
-unsigned64 fp_add_r (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_add_r (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define AddR(op1,op2,fmt) fp_add_r(SIM_ARGS, op1, op2, fmt)
-unsigned64 fp_mul_r (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_mul_r (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define MultiplyR(op1,op2,fmt) fp_mul_r(SIM_ARGS, op1, op2, fmt)
-unsigned64 fp_recip1 (SIM_STATE, unsigned64 op, FP_formats fmt);
+uint64_t fp_recip1 (SIM_STATE, uint64_t op, FP_formats fmt);
#define Recip1(op,fmt) fp_recip1(SIM_ARGS, op, fmt)
-unsigned64 fp_recip2 (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_recip2 (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define Recip2(op1,op2,fmt) fp_recip2(SIM_ARGS, op1, op2, fmt)
-unsigned64 fp_rsqrt1 (SIM_STATE, unsigned64 op, FP_formats fmt);
+uint64_t fp_rsqrt1 (SIM_STATE, uint64_t op, FP_formats fmt);
#define RSquareRoot1(op,fmt) fp_rsqrt1(SIM_ARGS, op, fmt)
-unsigned64 fp_rsqrt2 (SIM_STATE, unsigned64 op1, unsigned64 op2, FP_formats fmt);
+uint64_t fp_rsqrt2 (SIM_STATE, uint64_t op1, uint64_t op2, FP_formats fmt);
#define RSquareRoot2(op1,op2,fmt) fp_rsqrt2(SIM_ARGS, op1, op2, fmt)
#define MX_VECT_ABSD (13) /* SB-1 only. */
#define MX_VECT_AVG (14) /* SB-1 only. */
-unsigned64 mdmx_cpr_op (SIM_STATE, int op, unsigned64 op1, int vt, MX_fmtsel fmtsel);
+uint64_t mdmx_cpr_op (SIM_STATE, int op, uint64_t op1, int vt, MX_fmtsel fmtsel);
#define MX_Add(op1,vt,fmtsel) mdmx_cpr_op(SIM_ARGS, MX_VECT_ADD, op1, vt, fmtsel)
#define MX_And(op1,vt,fmtsel) mdmx_cpr_op(SIM_ARGS, MX_VECT_AND, op1, vt, fmtsel)
#define MX_Max(op1,vt,fmtsel) mdmx_cpr_op(SIM_ARGS, MX_VECT_MAX, op1, vt, fmtsel)
#define MX_C_EQ 0x1
#define MX_C_LT 0x4
-void mdmx_cc_op (SIM_STATE, int cond, unsigned64 op1, int vt, MX_fmtsel fmtsel);
+void mdmx_cc_op (SIM_STATE, int cond, uint64_t op1, int vt, MX_fmtsel fmtsel);
#define MX_Comp(op1,cond,vt,fmtsel) mdmx_cc_op(SIM_ARGS, cond, op1, vt, fmtsel)
-unsigned64 mdmx_pick_op (SIM_STATE, int tf, unsigned64 op1, int vt, MX_fmtsel fmtsel);
+uint64_t mdmx_pick_op (SIM_STATE, int tf, uint64_t op1, int vt, MX_fmtsel fmtsel);
#define MX_Pick(tf,op1,vt,fmtsel) mdmx_pick_op(SIM_ARGS, tf, op1, vt, fmtsel)
#define MX_VECT_ADDA (0)
#define MX_VECT_SUBL (7)
#define MX_VECT_ABSDA (8) /* SB-1 only. */
-void mdmx_acc_op (SIM_STATE, int op, unsigned64 op1, int vt, MX_fmtsel fmtsel);
+void mdmx_acc_op (SIM_STATE, int op, uint64_t op1, int vt, MX_fmtsel fmtsel);
#define MX_AddA(op1,vt,fmtsel) mdmx_acc_op(SIM_ARGS, MX_VECT_ADDA, op1, vt, fmtsel)
#define MX_AddL(op1,vt,fmtsel) mdmx_acc_op(SIM_ARGS, MX_VECT_ADDL, op1, vt, fmtsel)
#define MX_MulA(op1,vt,fmtsel) mdmx_acc_op(SIM_ARGS, MX_VECT_MULA, op1, vt, fmtsel)
#define MX_RAC_M (1)
#define MX_RAC_H (2)
-unsigned64 mdmx_rac_op (SIM_STATE, int, int);
+uint64_t mdmx_rac_op (SIM_STATE, int, int);
#define MX_RAC(op,fmt) mdmx_rac_op(SIM_ARGS, op, fmt)
-void mdmx_wacl (SIM_STATE, int, unsigned64, unsigned64);
+void mdmx_wacl (SIM_STATE, int, uint64_t, uint64_t);
#define MX_WACL(fmt,vs,vt) mdmx_wacl(SIM_ARGS, fmt, vs, vt)
-void mdmx_wach (SIM_STATE, int, unsigned64);
+void mdmx_wach (SIM_STATE, int, uint64_t);
#define MX_WACH(fmt,vs) mdmx_wach(SIM_ARGS, fmt, vs)
#define MX_RND_AS (0)
#define MX_RND_ZS (4)
#define MX_RND_ZU (5)
-unsigned64 mdmx_round_op (SIM_STATE, int, int, MX_fmtsel);
+uint64_t mdmx_round_op (SIM_STATE, int, int, MX_fmtsel);
#define MX_RNAS(vt,fmt) mdmx_round_op(SIM_ARGS, MX_RND_AS, vt, fmt)
#define MX_RNAU(vt,fmt) mdmx_round_op(SIM_ARGS, MX_RND_AU, vt, fmt)
#define MX_RNES(vt,fmt) mdmx_round_op(SIM_ARGS, MX_RND_ES, vt, fmt)
#define MX_RZS(vt,fmt) mdmx_round_op(SIM_ARGS, MX_RND_ZS, vt, fmt)
#define MX_RZU(vt,fmt) mdmx_round_op(SIM_ARGS, MX_RND_ZU, vt, fmt)
-unsigned64 mdmx_shuffle (SIM_STATE, int, unsigned64, unsigned64);
+uint64_t mdmx_shuffle (SIM_STATE, int, uint64_t, uint64_t);
#define MX_SHFL(shop,op1,op2) mdmx_shuffle(SIM_ARGS, shop, op1, op2)
/* The following are generic to all versions of the MIPS architecture
to date: */
-/* Memory Access Types (for CCA): */
-#define Uncached (0)
-#define CachedNoncoherent (1)
-#define CachedCoherent (2)
-#define Cached (3)
-
#define isINSTRUCTION (1 == 0) /* FALSE */
#define isDATA (1 == 1) /* TRUE */
#define isLOAD (1 == 0) /* FALSE */
#define LOADDRMASK (WITH_TARGET_WORD_BITSIZE == 64 \
? AccessLength_DOUBLEWORD /*7*/ \
: AccessLength_WORD /*3*/)
-#define PSIZE (WITH_TARGET_ADDRESS_BITSIZE)
-
-
-INLINE_SIM_MAIN (int) address_translation (SIM_DESC sd, sim_cpu *, address_word cia, address_word vAddr, int IorD, int LorS, address_word *pAddr, int *CCA, int raw);
-#define AddressTranslation(vAddr,IorD,LorS,pAddr,CCA,host,raw) \
-address_translation (SD, CPU, cia, vAddr, IorD, LorS, pAddr, CCA, raw)
INLINE_SIM_MAIN (void) load_memory (SIM_DESC sd, sim_cpu *cpu, address_word cia, uword64* memvalp, uword64* memval1p, int CCA, unsigned int AccessLength, address_word pAddr, address_word vAddr, int IorD);
-#define LoadMemory(memvalp,memval1p,CCA,AccessLength,pAddr,vAddr,IorD,raw) \
-load_memory (SD, CPU, cia, memvalp, memval1p, CCA, AccessLength, pAddr, vAddr, IorD)
+#define LoadMemory(memvalp,memval1p,AccessLength,pAddr,vAddr,IorD,raw) \
+load_memory (SD, CPU, cia, memvalp, memval1p, 0, AccessLength, pAddr, vAddr, IorD)
INLINE_SIM_MAIN (void) store_memory (SIM_DESC sd, sim_cpu *cpu, address_word cia, int CCA, unsigned int AccessLength, uword64 MemElem, uword64 MemElem1, address_word pAddr, address_word vAddr);
-#define StoreMemory(CCA,AccessLength,MemElem,MemElem1,pAddr,vAddr,raw) \
-store_memory (SD, CPU, cia, CCA, AccessLength, MemElem, MemElem1, pAddr, vAddr)
+#define StoreMemory(AccessLength,MemElem,MemElem1,pAddr,vAddr,raw) \
+store_memory (SD, CPU, cia, 0, AccessLength, MemElem, MemElem1, pAddr, vAddr)
INLINE_SIM_MAIN (void) cache_op (SIM_DESC sd, sim_cpu *cpu, address_word cia, int op, address_word pAddr, address_word vAddr, unsigned int instruction);
#define CacheOp(op,pAddr,vAddr,instruction) \
#define SyncOperation(stype) \
sync_operation (SD, CPU, cia, (stype))
-INLINE_SIM_MAIN (void) prefetch (SIM_DESC sd, sim_cpu *cpu, address_word cia, int CCA, address_word pAddr, address_word vAddr, int DATA, int hint);
-#define Prefetch(CCA,pAddr,vAddr,DATA,hint) \
-prefetch (SD, CPU, cia, CCA, pAddr, vAddr, DATA, hint)
-
void unpredictable_action (sim_cpu *cpu, address_word cia);
#define NotWordValue(val) not_word_value (SD_, (val))
#define Unpredictable() unpredictable (SD_)
#define UnpredictableResult() /* For now, do nothing. */
-INLINE_SIM_MAIN (unsigned32) ifetch32 (SIM_DESC sd, sim_cpu *cpu, address_word cia, address_word vaddr);
+INLINE_SIM_MAIN (uint32_t) ifetch32 (SIM_DESC sd, sim_cpu *cpu, address_word cia, address_word vaddr);
#define IMEM32(CIA) ifetch32 (SD, CPU, (CIA), (CIA))
-INLINE_SIM_MAIN (unsigned16) ifetch16 (SIM_DESC sd, sim_cpu *cpu, address_word cia, address_word vaddr);
+INLINE_SIM_MAIN (uint16_t) ifetch16 (SIM_DESC sd, sim_cpu *cpu, address_word cia, address_word vaddr);
#define IMEM16(CIA) ifetch16 (SD, CPU, (CIA), ((CIA) & ~1))
#define IMEM16_IMMED(CIA,NR) ifetch16 (SD, CPU, (CIA), ((CIA) & ~1) + 2 * (NR))
+#define IMEM32_MICROMIPS(CIA) \
+ (ifetch16 (SD, CPU, (CIA), (CIA)) << 16 | ifetch16 (SD, CPU, (CIA + 2), \
+ (CIA + 2)))
+#define IMEM16_MICROMIPS(CIA) ifetch16 (SD, CPU, (CIA), ((CIA)))
-void dotrace (SIM_DESC sd, sim_cpu *cpu, FILE *tracefh, int type, SIM_ADDR address, int width, char *comment, ...);
+#define MICROMIPS_MINOR_OPCODE(INSN) ((INSN & 0x1C00) >> 10)
+
+#define MICROMIPS_DELAYSLOT_SIZE_ANY 0
+#define MICROMIPS_DELAYSLOT_SIZE_16 2
+#define MICROMIPS_DELAYSLOT_SIZE_32 4
+
+extern int isa_mode;
+
+#define ISA_MODE_MIPS32 0
+#define ISA_MODE_MICROMIPS 1
+
+address_word micromips_instruction_decode (SIM_DESC sd, sim_cpu * cpu,
+ address_word cia,
+ int instruction_size);
+
+#if WITH_TRACE_ANY_P
+void dotrace (SIM_DESC sd, sim_cpu *cpu, FILE *tracefh, int type, SIM_ADDR address, int width, const char *comment, ...) ATTRIBUTE_PRINTF (7, 8);
extern FILE *tracefh;
+#else
+#define dotrace(sd, cpu, tracefh, type, address, width, comment, ...)
+#endif
extern int DSPLO_REGNUM[4];
extern int DSPHI_REGNUM[4];
projects / thirdparty / binutils-gdb.git / blobdiff