v850-opc.c
来自「基于4个mips核的noc设计」· C语言 代码 · 共 787 行 · 第 1/2 页
C
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#define I5 (R2_NOTR0 + 1) { 5, 0, NULL, NULL, V850_OPERAND_SIGNED }, /* The unsigned imm5 field in a format 2 insn. */#define I5U (I5 + 1) { 5, 0, NULL, NULL, 0 },/* The imm16 field in a format 6 insn. */#define I16 (I5U + 1) { 16, 16, NULL, NULL, V850_OPERAND_SIGNED }, /* The signed disp7 field in a format 4 insn. */#define D7 (I16 + 1) { 7, 0, NULL, NULL, 0},/* The disp16 field in a format 6 insn. */#define D16_15 (D7 + 1) { 15, 17, insert_d16_15, extract_d16_15, V850_OPERAND_SIGNED }, /* The 3 bit immediate field in format 8 insn. */#define B3 (D16_15 + 1) { 3, 11, NULL, NULL, 0 },/* The 4 bit condition code in a setf instruction */#define CCCC (B3 + 1) { 4, 0, NULL, NULL, V850_OPERAND_CC },/* The unsigned DISP8 field in a format 4 insn. */#define D8_7 (CCCC + 1) { 7, 0, insert_d8_7, extract_d8_7, 0 },/* The unsigned DISP8 field in a format 4 insn. */#define D8_6 (D8_7 + 1) { 6, 1, insert_d8_6, extract_d8_6, 0 },/* System register operands. */#define SR1 (D8_6 + 1) { 5, 0, NULL, NULL, V850_OPERAND_SRG },/* EP Register. */#define EP (SR1 + 1) { 0, 0, NULL, NULL, V850_OPERAND_EP },/* The imm16 field (unsigned) in a format 6 insn. */#define I16U (EP + 1) { 16, 16, NULL, NULL, 0}, /* The R2 field as a system register. */#define SR2 (I16U + 1) { 5, 11, NULL, NULL, V850_OPERAND_SRG },/* The disp16 field in a format 8 insn. */#define D16 (SR2 + 1) { 16, 16, NULL, NULL, V850_OPERAND_SIGNED }, /* The DISP9 field in a format 3 insn, relaxable. */#define D9_RELAX (D16 + 1) { 9, 0, insert_d9, extract_d9, V850_OPERAND_RELAX | V850_OPERAND_SIGNED | V850_OPERAND_DISP },/* The DISP22 field in a format 4 insn, relaxable. This _must_ follow D9_RELAX; the assembler assumes that the longer version immediately follows the shorter version for relaxing. */#define D22 (D9_RELAX + 1) { 22, 0, insert_d22, extract_d22, V850_OPERAND_SIGNED | V850_OPERAND_DISP },/* The signed disp4 field in a format 4 insn. */#define D4 (D22 + 1) { 4, 0, NULL, NULL, 0},/* The unsigned disp5 field in a format 4 insn. */#define D5_4 (D4 + 1) { 4, 0, insert_d5_4, extract_d5_4, 0 },/* The disp16 field in an format 7 unsigned byte load insn. */#define D16_16 (D5_4 + 1) { -1, 0xfffe0020, insert_d16_16, extract_d16_16, 0 }, /* Third register in conditional moves. */#define R3 (D16_16 + 1) { 5, 27, NULL, NULL, V850_OPERAND_REG },/* Condition code in conditional moves. */#define MOVCC (R3 + 1) { 4, 17, NULL, NULL, V850_OPERAND_CC },/* The imm9 field in a multiply word. */#define I9 (MOVCC + 1) { 9, 0, insert_i9, extract_i9, V850_OPERAND_SIGNED }, /* The unsigned imm9 field in a multiply word. */#define U9 (I9 + 1) { 9, 0, insert_u9, extract_u9, 0 }, /* A list of registers in a prepare/dispose instruction. */#define LIST12 (U9 + 1) { -1, 0xffe00001, NULL, NULL, V850E_PUSH_POP }, /* The IMM6 field in a call instruction. */#define I6 (LIST12 + 1) { 6, 0, NULL, NULL, 0 }, /* The 16 bit immediate following a 32 bit instruction. */#define IMM16 (I6 + 1) { 16, 16, NULL, NULL, V850_OPERAND_SIGNED | V850E_IMMEDIATE16 }, /* The 32 bit immediate following a 32 bit instruction. */#define IMM32 (IMM16 + 1) { 0, 0, NULL, NULL, V850E_IMMEDIATE32 }, /* The imm5 field in a push/pop instruction. */#define IMM5 (IMM32 + 1) { 5, 1, NULL, NULL, 0 }, /* Reg2 in dispose instruction. */#define R2DISPOSE (IMM5 + 1) { 5, 16, NULL, NULL, V850_OPERAND_REG | V850_NOT_R0 },/* Stack pointer in prepare instruction. */#define SP (R2DISPOSE + 1) { 2, 19, insert_spe, extract_spe, V850_OPERAND_REG },/* The IMM5 field in a divide N step instruction. */#define I5DIV (SP + 1) { 9, 0, insert_i5div, extract_i5div, V850_OPERAND_SIGNED }, /* The list of registers in a PUSHMH/POPMH instruction. */#define LIST18_H (I5DIV + 1) { -1, 0xfff8000f, NULL, NULL, V850E_PUSH_POP }, /* The list of registers in a PUSHML/POPML instruction. */#define LIST18_L (LIST18_H + 1) { -1, 0xfff8001f, NULL, NULL, V850E_PUSH_POP }, /* The setting of the 4th bit is a flag to disassmble() in v850-dis.c */} ; /* reg-reg instruction format (Format I) */#define IF1 {R1, R2}/* imm-reg instruction format (Format II) */#define IF2 {I5, R2}/* conditional branch instruction format (Format III) */#define IF3 {D9_RELAX}/* 3 operand instruction (Format VI) */#define IF6 {I16, R1, R2}/* 3 operand instruction (Format VI) */#define IF6U {I16U, R1, R2}/* The opcode table. The format of the opcode table is: NAME OPCODE MASK { OPERANDS } MEMOP PROCESSOR NAME is the name of the instruction. OPCODE is the instruction opcode. MASK is the opcode mask; this is used to tell the disassembler which bits in the actual opcode must match OPCODE. OPERANDS is the list of operands. MEMOP specifies which operand (if any) is a memory operand. PROCESSORS specifies which CPU(s) support the opcode. The disassembler reads the table in order and prints the first instruction which matches, so this table is sorted to put more specific instructions before more general instructions. It is also sorted by major opcode. The table is also sorted by name. This is used by the assembler. When parsing an instruction the assembler finds the first occurance of the name of the instruciton in this table and then attempts to match the instruction's arguments with description of the operands associated with the entry it has just found in this table. If the match fails the assembler looks at the next entry in this table. If that entry has the same name as the previous entry, then it tries to match the instruction against that entry and so on. This is how the assembler copes with multiple, different formats of the same instruction. */const struct v850_opcode v850_opcodes[] ={{ "breakpoint", 0xffff, 0xffff, {UNUSED}, 0, PROCESSOR_ALL },{ "jmp", one (0x0060), one (0xffe0), {R1}, 1, PROCESSOR_ALL }, /* load/store instructions */{ "sld.bu", one (0x0300), one (0x0780), {D7, EP, R2_NOTR0}, 1, PROCESSOR_V850EA },{ "sld.bu", one (0x0060), one (0x07f0), {D4, EP, R2_NOTR0}, 1, PROCESSOR_V850E },{ "sld.hu", one (0x0400), one (0x0780), {D8_7, EP, R2_NOTR0}, 1, PROCESSOR_V850EA },{ "sld.hu", one (0x0070), one (0x07f0), {D5_4, EP, R2_NOTR0}, 1, PROCESSOR_V850E },{ "sld.b", one (0x0060), one (0x07f0), {D4, EP, R2}, 1, PROCESSOR_V850EA },{ "sld.b", one (0x0300), one (0x0780), {D7, EP, R2}, 1, PROCESSOR_V850E },{ "sld.b", one (0x0300), one (0x0780), {D7, EP, R2}, 1, PROCESSOR_V850 },{ "sld.h", one (0x0070), one (0x07f0), {D5_4, EP, R2}, 1, PROCESSOR_V850EA },{ "sld.h", one (0x0400), one (0x0780), {D8_7, EP, R2}, 1, PROCESSOR_V850E },{ "sld.h", one (0x0400), one (0x0780), {D8_7, EP, R2}, 1, PROCESSOR_V850 },{ "sld.w", one (0x0500), one (0x0781), {D8_6, EP, R2}, 1, PROCESSOR_ALL },{ "sst.b", one (0x0380), one (0x0780), {R2, D7, EP}, 2, PROCESSOR_ALL },{ "sst.h", one (0x0480), one (0x0780), {R2, D8_7, EP}, 2, PROCESSOR_ALL },{ "sst.w", one (0x0501), one (0x0781), {R2, D8_6, EP}, 2, PROCESSOR_ALL },{ "pushml", two (0x07e0, 0x0001), two (0xfff0, 0x0007), {LIST18_L}, 0, PROCESSOR_V850EA },{ "pushmh", two (0x07e0, 0x0003), two (0xfff0, 0x0007), {LIST18_H}, 0, PROCESSOR_V850EA },{ "popml", two (0x07f0, 0x0001), two (0xfff0, 0x0007), {LIST18_L}, 0, PROCESSOR_V850EA },{ "popmh", two (0x07f0, 0x0003), two (0xfff0, 0x0007), {LIST18_H}, 0, PROCESSOR_V850EA },{ "prepare", two (0x0780, 0x0003), two (0xffc0, 0x001f), {LIST12, IMM5, SP}, 0, PROCESSOR_NOT_V850 },{ "prepare", two (0x0780, 0x000b), two (0xffc0, 0x001f), {LIST12, IMM5, IMM16}, 0, PROCESSOR_NOT_V850 },{ "prepare", two (0x0780, 0x0013), two (0xffc0, 0x001f), {LIST12, IMM5, IMM16}, 0, PROCESSOR_NOT_V850 },{ "prepare", two (0x0780, 0x001b), two (0xffc0, 0x001f), {LIST12, IMM5, IMM32}, 0, PROCESSOR_NOT_V850 },{ "prepare", two (0x0780, 0x0001), two (0xffc0, 0x001f), {LIST12, IMM5}, 0, PROCESSOR_NOT_V850 },{ "dispose", one (0x0640), one (0xffc0), {IMM5, LIST12, R2DISPOSE},0, PROCESSOR_NOT_V850 },{ "dispose", two (0x0640, 0x0000), two (0xffc0, 0x001f), {IMM5, LIST12}, 0, PROCESSOR_NOT_V850 },{ "ld.b", two (0x0700, 0x0000), two (0x07e0, 0x0000), {D16, R1, R2}, 1, PROCESSOR_ALL },{ "ld.h", two (0x0720, 0x0000), two (0x07e0, 0x0001), {D16_15, R1, R2}, 1, PROCESSOR_ALL },{ "ld.w", two (0x0720, 0x0001), two (0x07e0, 0x0001), {D16_15, R1, R2}, 1, PROCESSOR_ALL },{ "ld.bu", two (0x0780, 0x0001), two (0x07c0, 0x0001), {D16_16, R1, R2_NOTR0}, 1, PROCESSOR_NOT_V850 },{ "ld.hu", two (0x07e0, 0x0001), two (0x07e0, 0x0001), {D16_15, R1, R2_NOTR0}, 1, PROCESSOR_NOT_V850 }, { "st.b", two (0x0740, 0x0000), two (0x07e0, 0x0000), {R2, D16, R1}, 2, PROCESSOR_ALL },{ "st.h", two (0x0760, 0x0000), two (0x07e0, 0x0001), {R2, D16_15, R1}, 2, PROCESSOR_ALL },{ "st.w", two (0x0760, 0x0001), two (0x07e0, 0x0001), {R2, D16_15, R1}, 2, PROCESSOR_ALL },/* byte swap/extend instructions */{ "zxb", one (0x0080), one (0xffe0), {R1_NOTR0}, 0, PROCESSOR_NOT_V850 },{ "zxh", one (0x00c0), one (0xffe0), {R1_NOTR0}, 0, PROCESSOR_NOT_V850 },{ "sxb", one (0x00a0), one (0xffe0), {R1_NOTR0}, 0, PROCESSOR_NOT_V850 },{ "sxh", one (0x00e0), one (0xffe0), {R1_NOTR0}, 0, PROCESSOR_NOT_V850 },{ "bsh", two (0x07e0, 0x0342), two (0x07ff, 0x07ff), {R2, R3}, 0, PROCESSOR_NOT_V850 },{ "bsw", two (0x07e0, 0x0340), two (0x07ff, 0x07ff), {R2, R3}, 0, PROCESSOR_NOT_V850 },{ "hsw", two (0x07e0, 0x0344), two (0x07ff, 0x07ff), {R2, R3}, 0, PROCESSOR_NOT_V850 },/* jump table instructions */{ "switch", one (0x0040), one (0xffe0), {R1}, 1, PROCESSOR_NOT_V850 },{ "callt", one (0x0200), one (0xffc0), {I6}, 0, PROCESSOR_NOT_V850 },{ "ctret", two (0x07e0, 0x0144), two (0xffff, 0xffff), {0}, 0, PROCESSOR_NOT_V850 },/* arithmetic operation instructions */{ "setf", two (0x07e0, 0x0000), two (0x07f0, 0xffff), {CCCC, R2}, 0, PROCESSOR_ALL },{ "cmov", two (0x07e0, 0x0320), two (0x07e0, 0x07e1), {MOVCC, R1, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "cmov", two (0x07e0, 0x0300), two (0x07e0, 0x07e1), {MOVCC, I5, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "mul", two (0x07e0, 0x0220), two (0x07e0, 0x07ff), {R1, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "mul", two (0x07e0, 0x0240), two (0x07e0, 0x07c3), {I9, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "mulu", two (0x07e0, 0x0222), two (0x07e0, 0x07ff), {R1, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "mulu", two (0x07e0, 0x0242), two (0x07e0, 0x07c3), {U9, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "div", two (0x07e0, 0x02c0), two (0x07e0, 0x07ff), {R1, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "divu", two (0x07e0, 0x02c2), two (0x07e0, 0x07ff), {R1, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "divhu", two (0x07e0, 0x0282), two (0x07e0, 0x07ff), {R1, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "divh", two (0x07e0, 0x0280), two (0x07e0, 0x07ff), {R1, R2, R3}, 0, PROCESSOR_NOT_V850 },{ "divh", OP (0x02), OP_MASK, {R1, R2_NOTR0}, 0, PROCESSOR_ALL }, { "divhn", two (0x07e0, 0x0280), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA },{ "divhun", two (0x07e0, 0x0282), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA },{ "divn", two (0x07e0, 0x02c0), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA },{ "divun", two (0x07e0, 0x02c2), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA },{ "sdivhn", two (0x07e0, 0x0180), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA },{ "sdivhun", two (0x07e0, 0x0182), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA },{ "sdivn", two (0x07e0, 0x01c0), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA },{ "sdivun", two (0x07e0, 0x01c2), two (0x07e0, 0x07c3), {I5DIV, R1, R2, R3}, 0, PROCESSOR_V850EA }, { "nop", one (0x00), one (0xffff), {0}, 0, PROCESSOR_ALL },{ "mov", OP (0x10), OP_MASK, {I5, R2_NOTR0}, 0, PROCESSOR_ALL },{ "mov", one (0x0620), one (0xffe0), {IMM32, R1_NOTR0}, 0, PROCESSOR_NOT_V850 },{ "mov", OP (0x00), OP_MASK, {R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "movea", OP (0x31), OP_MASK, {I16, R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "movhi", OP (0x32), OP_MASK, {I16U, R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "add", OP (0x0e), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "add", OP (0x12), OP_MASK, IF2, 0, PROCESSOR_ALL },{ "addi", OP (0x30), OP_MASK, IF6, 0, PROCESSOR_ALL },{ "sub", OP (0x0d), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "subr", OP (0x0c), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "mulh", OP (0x17), OP_MASK, {I5, R2_NOTR0}, 0, PROCESSOR_ALL },{ "mulh", OP (0x07), OP_MASK, {R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "mulhi", OP (0x37), OP_MASK, {I16, R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "cmp", OP (0x0f), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "cmp", OP (0x13), OP_MASK, IF2, 0, PROCESSOR_ALL }, /* saturated operation instructions */{ "satadd", OP (0x11), OP_MASK, {I5, R2_NOTR0}, 0, PROCESSOR_ALL },{ "satadd", OP (0x06), OP_MASK, {R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "satsub", OP (0x05), OP_MASK, {R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "satsubi", OP (0x33), OP_MASK, {I16, R1, R2_NOTR0}, 0, PROCESSOR_ALL },{ "satsubr", OP (0x04), OP_MASK, {R1, R2_NOTR0}, 0, PROCESSOR_ALL },/* logical operation instructions */{ "tst", OP (0x0b), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "or", OP (0x08), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "ori", OP (0x34), OP_MASK, IF6U, 0, PROCESSOR_ALL },{ "and", OP (0x0a), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "andi", OP (0x36), OP_MASK, IF6U, 0, PROCESSOR_ALL },{ "xor", OP (0x09), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "xori", OP (0x35), OP_MASK, IF6U, 0, PROCESSOR_ALL },{ "not", OP (0x01), OP_MASK, IF1, 0, PROCESSOR_ALL },{ "sar", OP (0x15), OP_MASK, {I5U, R2}, 0, PROCESSOR_ALL },{ "sar", two (0x07e0, 0x00a0), two (0x07e0, 0xffff), {R1, R2}, 0, PROCESSOR_ALL },{ "shl", OP (0x16), OP_MASK, {I5U, R2}, 0, PROCESSOR_ALL },{ "shl", two (0x07e0, 0x00c0), two (0x07e0, 0xffff), {R1, R2}, 0, PROCESSOR_ALL },{ "shr", OP (0x14), OP_MASK, {I5U, R2}, 0, PROCESSOR_ALL },{ "shr", two (0x07e0, 0x0080), two (0x07e0, 0xffff), {R1, R2}, 0, PROCESSOR_ALL },{ "sasf", two (0x07e0, 0x0200), two (0x07f0, 0xffff), {CCCC, R2}, 0, PROCESSOR_NOT_V850 },/* branch instructions */ /* signed integer */{ "bgt", BOP (0xf), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bge", BOP (0xe), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "blt", BOP (0x6), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "ble", BOP (0x7), BOP_MASK, IF3, 0, PROCESSOR_ALL }, /* unsigned integer */{ "bh", BOP (0xb), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bnh", BOP (0x3), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bl", BOP (0x1), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bnl", BOP (0x9), BOP_MASK, IF3, 0, PROCESSOR_ALL }, /* common */{ "be", BOP (0x2), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bne", BOP (0xa), BOP_MASK, IF3, 0, PROCESSOR_ALL }, /* others */{ "bv", BOP (0x0), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bnv", BOP (0x8), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bn", BOP (0x4), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bp", BOP (0xc), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bc", BOP (0x1), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bnc", BOP (0x9), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bz", BOP (0x2), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bnz", BOP (0xa), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "br", BOP (0x5), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "bsa", BOP (0xd), BOP_MASK, IF3, 0, PROCESSOR_ALL },/* Branch macros. We use the short form in the opcode/mask fields. The assembler will twiddle bits as necessary if the long form is needed. */ /* signed integer */{ "jgt", BOP (0xf), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jge", BOP (0xe), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jlt", BOP (0x6), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jle", BOP (0x7), BOP_MASK, IF3, 0, PROCESSOR_ALL }, /* unsigned integer */{ "jh", BOP (0xb), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jnh", BOP (0x3), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jl", BOP (0x1), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jnl", BOP (0x9), BOP_MASK, IF3, 0, PROCESSOR_ALL }, /* common */{ "je", BOP (0x2), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jne", BOP (0xa), BOP_MASK, IF3, 0, PROCESSOR_ALL }, /* others */{ "jv", BOP (0x0), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jnv", BOP (0x8), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jn", BOP (0x4), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jp", BOP (0xc), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jc", BOP (0x1), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jnc", BOP (0x9), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jz", BOP (0x2), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jnz", BOP (0xa), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jsa", BOP (0xd), BOP_MASK, IF3, 0, PROCESSOR_ALL },{ "jbr", BOP (0x5), BOP_MASK, IF3, 0, PROCESSOR_ALL }, { "jr", one (0x0780), two (0xffc0, 0x0001), {D22}, 0, PROCESSOR_ALL },{ "jarl", one (0x0780), two (0x07c0, 0x0001), {D22, R2}, 0, PROCESSOR_ALL}, /* bit manipulation instructions */{ "set1", two (0x07c0, 0x0000), two (0xc7e0, 0x0000), {B3, D16, R1}, 2, PROCESSOR_ALL },{ "set1", two (0x07e0, 0x00e0), two (0x07e0, 0xffff), {R2, R1}, 2, PROCESSOR_NOT_V850 },{ "not1", two (0x47c0, 0x0000), two (0xc7e0, 0x0000), {B3, D16, R1}, 2, PROCESSOR_ALL },{ "not1", two (0x07e0, 0x00e2), two (0x07e0, 0xffff), {R2, R1}, 2, PROCESSOR_NOT_V850 },{ "clr1", two (0x87c0, 0x0000), two (0xc7e0, 0x0000), {B3, D16, R1}, 2, PROCESSOR_ALL },{ "clr1", two (0x07e0, 0x00e4), two (0x07e0, 0xffff), {R2, R1}, 2, PROCESSOR_NOT_V850 },{ "tst1", two (0xc7c0, 0x0000), two (0xc7e0, 0x0000), {B3, D16, R1}, 2, PROCESSOR_ALL },{ "tst1", two (0x07e0, 0x00e6), two (0x07e0, 0xffff), {R2, R1}, 2, PROCESSOR_NOT_V850 },/* special instructions */{ "di", two (0x07e0, 0x0160), two (0xffff, 0xffff), {0}, 0, PROCESSOR_ALL },{ "ei", two (0x87e0, 0x0160), two (0xffff, 0xffff), {0}, 0, PROCESSOR_ALL },{ "halt", two (0x07e0, 0x0120), two (0xffff, 0xffff), {0}, 0, PROCESSOR_ALL },{ "reti", two (0x07e0, 0x0140), two (0xffff, 0xffff), {0}, 0, PROCESSOR_ALL },{ "trap", two (0x07e0, 0x0100), two (0xffe0, 0xffff), {I5U}, 0, PROCESSOR_ALL },{ "ldsr", two (0x07e0, 0x0020), two (0x07e0, 0xffff), {R1, SR2}, 0, PROCESSOR_ALL },{ "stsr", two (0x07e0, 0x0040), two (0x07e0, 0xffff), {SR1, R2}, 0, PROCESSOR_ALL },{ 0, 0, 0, {0}, 0, 0 },} ;const int v850_num_opcodes = sizeof (v850_opcodes) / sizeof (v850_opcodes[0]);
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