Bool OptIC4(CIntermediateCode *tmpi) { I64 i; CIntermediateCode *tmpil1, *tmpil2; if (tmpi->ic_code < IC_IMM_I64) return FALSE; tmpil1 = tmpi; if (!(tmpil2 = OptLag1(tmpil1))) return FALSE; if (tmpil2->res.type & MDF_STACK && !(tmpil2->ic_flags & ICF_PUSH_RES)) { if (tmpil1->ic_code == IC_ADD_CONST && tmpil1->arg1.type & MDF_STACK) { if ((tmpil2->ic_code == IC_REG || tmpil2->ic_code == IC_MOV) && tmpil2->arg1.type & MDF_REG) { i = tmpil1->ic_data; if (I32_MIN <= i <= I32_MAX && !Bt(&cmp.non_ptr_vars_mask, tmpil2->arg1.reg)) { tmpil1->ic_flags |= tmpil2->ic_flags & ICG_NO_CONVERT_MASK; tmpil1->ic_code = IC_LEA; tmpil1->arg1.type = MDF_DISP + tmpil1->arg1.type.raw_type; tmpil1->arg1.reg = tmpil2->arg1.reg; tmpil1->arg1.disp = i; OptFree(tmpil2); return TRUE; } } else if (tmpil2->ic_code == IC_SHL_CONST && tmpil2->arg1.type & MDF_REG) { i = tmpil1->ic_data; if (I32_MIN <= i <= I32_MAX && tmpil2->arg1.reg != REG_RSP && 1 <= tmpil2->ic_data <= 3) { tmpil1->ic_flags |= tmpil2->ic_flags & ICG_NO_CONVERT_MASK; tmpil1->ic_code = IC_LEA; tmpil1->arg1.type = MDF_SIB + tmpil1->arg1.type.raw_type; tmpil1->arg1.reg = tmpil2->arg1.reg << 8 + REG_NONE; if (tmpil2->ic_data == 1) tmpil1->arg1.reg |= 0x4000; else if (tmpil2->ic_data == 2) tmpil1->arg1.reg |= 0x8000; else tmpil1->arg1.reg |= 0xC000; tmpil1->arg1.disp = i; OptFree(tmpil2); return TRUE; } } } if (tmpil2->ic_code == IC_MOV || tmpil2->ic_code == IC_REG) { if (tmpil1->arg2.type & MDF_STACK) { if (tmpil2->ic_flags & ICF_RES_TO_INT) { if (tmpil2->arg1.type & MDF_IMM) tmpil2->arg1.disp = tmpil2->arg1.disp(F64); else tmpil1->ic_flags |= ICF_ARG2_TO_INT; } else if (tmpil2->ic_flags & ICF_RES_TO_F64) { if (tmpil2->arg1.type & MDF_IMM) tmpil2->arg1.disp(F64) = tmpil2->arg1.disp; else tmpil1->ic_flags |= ICF_ARG2_TO_F64; } tmpil1->arg2.type=tmpil2->arg1.type & MDG_MASK + MinI64(tmpil1->arg2.type.raw_type, MinI64(tmpil2->res.type.raw_type, tmpil2->arg1.type.raw_type)); tmpil1->arg2.reg = tmpil2->arg1.reg; tmpil1->arg2.disp = tmpil2->arg1.disp; tmpil1->ic_flags |= tmpil2->ic_flags & ICG_NO_CONVERT_MASK; OptSetNOP2(tmpil2); return TRUE; } if (tmpil1->arg1.type & MDF_STACK) { if (tmpil2->ic_flags & ICF_RES_TO_INT) { if (tmpil2->arg1.type & MDF_IMM) tmpil2->arg1.disp = tmpil2->arg1.disp(F64); else tmpil1->ic_flags |= ICF_ARG1_TO_INT; } else if (tmpil2->ic_flags & ICF_RES_TO_F64) { if (tmpil2->arg1.type & MDF_IMM) { if (tmpil2->arg1.type & RTF_UNSIGNED) tmpil2->arg1.disp(F64) = tmpil2->arg1.disp(U64); else tmpil2->arg1.disp(F64) = tmpil2->arg1.disp(I64); } else tmpil1->ic_flags |= ICF_ARG1_TO_F64; } tmpil1->arg1.type = tmpil2->arg1.type & MDG_MASK + MinI64(tmpil1->arg1.type.raw_type, MinI64(tmpil2->res.type.raw_type, tmpil2->arg1.type.raw_type)); CompMinTypePointed(tmpil1, tmpil2->arg1_type_pointed_to); tmpil1->arg1.reg = tmpil2->arg1.reg; tmpil1->arg1.disp = tmpil2->arg1.disp; tmpil1->ic_flags |= tmpil2->ic_flags & ICG_NO_CONVERT_MASK; OptSetNOP2(tmpil2); return TRUE; } } if (tmpil1->ic_code == IC_DEREF) { if (tmpil2->ic_code == IC_ADD_CONST && tmpil2->arg1.type & MDF_REG && tmpil1->arg1.type & MDF_STACK) { i = tmpil2->ic_data; if (I32_MIN <= i <= I32_MAX && !Bt(&cmp.non_ptr_vars_mask, tmpil2->arg1.reg)) { tmpil1->ic_flags |= tmpil2->ic_flags; tmpil1->ic_code = IC_MOV; tmpil1->arg1.type = MDF_DISP +tmpil1->arg1_type_pointed_to; tmpil1->arg1.reg = tmpil2->arg1.reg; tmpil1->arg1.disp = i; OptSetNOP2(tmpil2, -1); return TRUE; } } if (tmpil2->ic_code == IC_LEA && tmpil1->arg1.type & MDF_STACK) { tmpil1->ic_flags |= tmpil2->ic_flags; tmpil1->ic_code = IC_MOV; tmpil1->arg1.type = tmpil2->arg1.type & MDG_MASK + tmpil1->arg1_type_pointed_to; tmpil1->arg1.reg = tmpil2->arg1.reg; tmpil1->arg1.disp = tmpil2->arg1.disp; OptFree(tmpil2); return TRUE; } } } if (tmpil1->ic_code == IC_DEREF) { if (tmpil1->arg1.type & MDF_REG) { tmpil1->arg1.type = MDF_DISP + tmpil1->arg1_type_pointed_to; tmpil1->arg1.disp = 0; tmpil1->ic_code = IC_MOV; return TRUE; } } return FALSE; } U0 OptPass4(CCompCtrl *cc, COptReg *reg_offsets, I64 *_type) { CHashClass *tmpc, *tmpc1, *tmpc2; CIntermediateCode *tmpi, *tmpi1, *tmpi2, *tmpil1, *tmpil2, *tmpil3, *tmpi_next; I64 code, i; Bool dead_code = FALSE; CCodeMisc *lb; CParseStack *ps = cc->ps; ps->ptr = 0; ps->ptr2 = 0; if (_type) *_type = RT_I64; tmpi = cc->coc.coc_head.next; while (code = tmpi->ic_code) { tmpi_next = tmpi->next; if (dead_code && code != IC_LABEL) { if (code == IC_JMP || code == IC_SUB_CALL) { lb = OptLabelFwd(tmpi->ic_data); if (lb->use_count > 0) lb->use_count--; } tmpi = OptFree(tmpi); } else { tmpc = tmpi->ic_class; tmpi1 = tmpi2 = &cmp.ic_nop; if (tmpil1 = OptLag2(tmpi)) { if (tmpil2 = OptLag2(tmpil1)) { if (!(tmpil3 = OptLag2(tmpil2))) tmpil3 = &cmp.ic_nop; } else tmpil2 = tmpil3 = &cmp.ic_nop; } else tmpil1 = tmpil2 = tmpil3 = &cmp.ic_nop; switch [intermediate_code_table[code].arg_count] { case IS_V_ARG: ps->ptr -= tmpi->ic_data >> 3; break; case IS_2_ARG: tmpi2 = ParsePop(ps); tmpc2 = tmpi2->ic_class; case IS_1_ARG: tmpi1 = ParsePop(ps); tmpc1 = tmpi1->ic_class; break; case IS_0_ARG: //nobound switch break; } switch [code] { case IC_IMM_I64: case IC_TYPE: tmpi->arg1.type = MDF_IMM + RT_I64; tmpi->arg1.disp = tmpi->ic_data; tmpi->ic_code = IC_MOV; break; case IC_IMM_F64: tmpi->arg1.type = MDF_IMM + RT_I64; tmpi->arg1.disp = tmpi->ic_data; tmpi->arg1_type_pointed_to = RT_F64; tmpi->ic_code = IC_MOV; break; case IC_MOV: if (tmpi->arg1.type & MDF_DISP && tmpi->arg1.reg == REG_RBP) { i = CompOffset2Reg(tmpi->arg1.disp, reg_offsets); if (i >= 0) { tmpi->arg1.type = MDF_REG + tmpi->arg1.type.raw_type; tmpi->arg1.reg = i; tmpi->arg1.disp = 0; } } break; case IC_DEREF: if (tmpi1->ic_code == IC_LEA) { if (tmpi1->arg1.type & MDF_DISP && tmpi1->arg1.reg == REG_RBP) { i = CompOffset2Reg(tmpi1->arg1.disp, reg_offsets); if (i >= 0) { tmpi->ic_flags |= tmpi1->ic_flags; tmpi->ic_code = IC_REG; tmpi->arg1.type = MDF_REG + tmpi->arg1.type.raw_type; tmpi->arg1.reg = i; tmpi->arg1.disp = 0; OptFree(tmpi1); } } } else if ((tmpi1->ic_code == IC_ABS_ADDR || tmpi1->ic_code == IC_MOV && tmpi1->arg1.type == MDF_IMM + RT_I64 && 0 <= tmpi1->arg1.disp <= I32_MAX) && !(tmpi1->ic_flags & ICF_NO_RIP)) { if (tmpi1->ic_code == IC_ABS_ADDR) tmpi->arg1.disp = tmpi1->ic_data; else tmpi->arg1.disp = tmpi1->arg1.disp; tmpi->ic_flags |= tmpi1->ic_flags; tmpi->ic_code = IC_MOV; tmpi->arg1.type = MDF_RIP_DISP32 + tmpi->arg1_type_pointed_to; tmpi->arg1.reg = REG_RIP; OptFree(tmpi1); } break; case IC_BR_MM_ZERO: case IC_BR_MM_NOT_ZERO: //(branch ++ to zero is unlikely) case IC_DEREF_PP: case IC_DEREF_MM: case IC__PP: case IC__MM: case IC_PP_: case IC_MM_: if (tmpi1->ic_code == IC_LEA) { if (tmpi1->arg1.type & MDF_DISP && tmpi1->arg1.reg == REG_RBP) { i = CompOffset2Reg(tmpi1->arg1.disp, reg_offsets); if (i >= 0) { tmpi->ic_flags |= tmpi1->ic_flags; tmpi->arg1.type = MDF_REG + tmpi->arg1.type.raw_type; tmpi->arg1.reg = i; tmpi->arg1.disp = 0; tmpi->ic_flags |= ICF_BY_VAL; OptSetNOP2(tmpi1); } else goto p4_lea_gone; } else { p4_lea_gone: tmpi->ic_flags |= tmpi1->ic_flags; tmpi->arg1.type = tmpi1->arg1.type; tmpi->arg1.reg = tmpi1->arg1.reg; tmpi->arg1.disp = tmpi1->arg1.disp; tmpi->ic_flags |= ICF_BY_VAL; OptSetNOP2(tmpi1); } } else if ((tmpi1->ic_code == IC_ABS_ADDR || tmpi1->ic_code == IC_MOV && tmpi1->arg1.type==MDF_IMM + RT_I64 && 0 <= tmpi1->arg1.disp <= I32_MAX)&& !(tmpi1->ic_flags & ICF_NO_RIP)) { tmpi->ic_flags |= tmpi1->ic_flags; if (tmpi1->ic_code == IC_ABS_ADDR) tmpi->arg1.disp = tmpi1->ic_data; else tmpi->arg1.disp = tmpi1->arg1.disp; tmpi->arg1.type = MDF_RIP_DISP32 + tmpi->arg1_type_pointed_to; tmpi->arg1.reg = REG_RIP; tmpi->ic_flags |= ICF_BY_VAL; OptFree(tmpi1); } break; case IC_ADD: if (tmpi1->ic_code == IC_MOV && tmpi1->arg1.type == MDF_REG + RT_I64 || tmpi1->ic_code == IC_REG) { if (tmpi2->ic_code == IC_MOV && tmpi2->arg1.type == MDF_REG + RT_I64 || tmpi2->ic_code == IC_REG) { if (tmpi2->arg1.reg != REG_RSP) { tmpi->arg1.disp = 0; tmpi->arg1.reg = tmpi1->arg1.reg + tmpi2->arg1.reg << 8; goto p4_sib; } else if (tmpi1->arg1.reg != REG_RSP) { tmpi->arg1.disp = 0; tmpi->arg1.reg = tmpi2->arg1.reg + tmpi1->arg1.reg << 8; p4_sib: tmpi->ic_flags |= (tmpi1->ic_flags | tmpi2->ic_flags) & ICG_NO_CONVERT_MASK; OptSetNOP2(tmpi1); OptFree(tmpi2); tmpi->ic_code = IC_LEA; tmpi->arg1.type = MDF_SIB+RT_I64; tmpi->arg1_type_pointed_to = RT_I64; tmpi->arg2.type = MDF_NULL + tmpi->arg2.type.raw_type; } } else if (tmpi2->ic_code == IC_SHL_CONST && tmpi2->arg1.type == MDF_REG + RT_I64 && tmpi2->ic_data <= 3) { if (tmpi2->arg1.reg != REG_RSP) { tmpi->arg1.disp = 0; tmpi->arg1.reg = tmpi1->arg1.reg + tmpi2->arg1.reg << 8; if (tmpi2->ic_data == 1) tmpi->arg1.reg |= 0x4000; else if (tmpi2->ic_data == 2) tmpi->arg1.reg |= 0x8000; else tmpi->arg1.reg |= 0xC000; goto p4_sib; } } } else if (tmpi1->ic_code == IC_LEA && tmpi1->arg1.type & MDF_DISP) { if (tmpi1->arg1.reg == REG_RBP && CompOffset2Reg(tmpi1->arg1.disp, reg_offsets) >= 0) break; if (tmpi2->ic_code == IC_MOV && tmpi2->arg1.type == MDF_REG + RT_I64 || tmpi2->ic_code == IC_REG) { if (tmpi2->arg1.reg != REG_RSP) { tmpi->arg1.disp = tmpi1->arg1.disp; tmpi->arg1.reg = tmpi1->arg1.reg + tmpi2->arg1.reg << 8; goto p4_sib; } else if (tmpi1->arg1.reg != REG_RSP) { tmpi->arg1.disp = tmpi1->arg1.disp; tmpi->arg1.reg = tmpi2->arg1.reg + tmpi1->arg1.reg << 8; goto p4_sib; } } else if (tmpi2->ic_code == IC_SHL_CONST && tmpi2->arg1.type == MDF_REG + RT_I64 && tmpi2->ic_data <= 3) { if (tmpi2->arg1.reg != REG_RSP) { tmpi->arg1.disp = tmpi1->arg1.disp; tmpi->arg1.reg = tmpi1->arg1.reg + tmpi2->arg1.reg << 8; if (tmpi2->ic_data == 1) tmpi->arg1.reg |= 0x4000; else if (tmpi2->ic_data == 2) tmpi->arg1.reg |= 0x8000; else tmpi->arg1.reg |= 0xC000; goto p4_sib; } } } break; case IC_ASSIGN_PP: case IC_ASSIGN_MM: //this value was stashed during pass012 for pointer arithmetic tmpi->ic_class2 = tmpi->t.class2; //See ic_class2 case IC_ASSIGN: case IC_SHL_EQU: case IC_SHR_EQU: case IC_MUL_EQU: case IC_DIV_EQU: case IC_MOD_EQU: case IC_AND_EQU: case IC_OR_EQU: case IC_XOR_EQU: case IC_ADD_EQU: case IC_SUB_EQU: if (tmpi1->ic_code == IC_LEA) { if (tmpi1->arg1.type & (MDF_DISP | MDF_SIB)) { tmpi2 = tmpi->next; if (tmpi1->arg1.type & MDF_DISP && tmpi1->arg1.reg == REG_RBP) { i = CompOffset2Reg(tmpi1->arg1.disp, reg_offsets); if (i >= 0) { tmpi->ic_flags |= tmpi1->ic_flags; tmpi->arg1.type = MDF_REG + tmpi->arg1.type.raw_type; tmpi->arg1.reg = i; tmpi->arg1.disp = 0; OptSetNOP2(tmpi1); } else { tmpi->ic_flags |= tmpi1->ic_flags; tmpi->arg1.type = MDF_DISP + tmpi->arg1.type.raw_type; tmpi->arg1.reg = REG_RBP; tmpi->arg1.disp = tmpi1->arg1.disp; OptSetNOP2(tmpi1); } } else { tmpi->ic_flags |= tmpi1->ic_flags; tmpi->arg1.type = tmpi1->arg1.type & MDG_MASK + tmpi->arg1.type.raw_type; tmpi->arg1.reg = tmpi1->arg1.reg; tmpi->arg1.disp = tmpi1->arg1.disp; OptSetNOP2(tmpi1); } if (tmpi->res.type & MDF_STACK && tmpi2->arg2.type & MDF_STACK && code != IC_ASSIGN_PP && code != IC_ASSIGN_MM) { tmpi->res.type = tmpi->arg1.type; tmpi->res.reg = tmpi->arg1.reg; tmpi->res.disp = tmpi->arg1.disp; tmpi2->arg2.type = tmpi->arg1.type; tmpi2->arg2.reg = tmpi->arg1.reg; tmpi2->arg2.disp = tmpi->arg1.disp; CompMinTypePointed(tmpi2, tmpi->arg1_type_pointed_to); } tmpi->ic_flags |= ICF_BY_VAL; } } else if ((tmpi1->ic_code == IC_ABS_ADDR || tmpi1->ic_code == IC_MOV && tmpi1->arg1.type == MDF_IMM + RT_I64 && 0 <= tmpi1->arg1.disp <= I32_MAX) && !(tmpi1->ic_flags & ICF_NO_RIP)) { tmpi->ic_flags |= tmpi1->ic_flags; if (tmpi1->ic_code == IC_ABS_ADDR) tmpi->arg1.disp = tmpi1->ic_data; else tmpi->arg1.disp = tmpi1->arg1.disp; tmpi->arg1.type = MDF_RIP_DISP32 + tmpi->arg1.type.raw_type; tmpi->arg1.reg = REG_RIP; tmpi->ic_flags |= ICF_BY_VAL; OptSetNOP2(tmpi1); } break; case IC_RETURN_VAL: case IC_RETURN_VAL2: if (!tmpi->ic_class) { if (_type) { tmpil1 = tmpi; while (tmpil1 = OptLag1(tmpil1)) if (tmpil1->ic_class) { if (tmpil1->ic_flags & ICF_RES_TO_F64) *_type = RT_F64; else if (tmpil1->ic_flags & ICF_RES_TO_INT) *_type = RT_I64; else *_type = tmpil1->ic_class->raw_type; break; } } tmpi->ic_class = cmp.internal_types[RT_I64]; } else if (_type) *_type = tmpi->ic_class->raw_type; break; case IC_NOP1: tmpi = OptFree(tmpi); break; case IC_BR_BT: case IC_BR_BTS: case IC_BR_BTR: case IC_BR_BTC: case IC_BR_NOT_BT: case IC_BR_NOT_BTS: case IC_BR_NOT_BTR: case IC_BR_NOT_BTC: case IC_BT: case IC_BTS: case IC_BTR: case IC_BTC: case IC_LBTS: case IC_LBTR: case IC_LBTC: if (!(tmpi->ic_flags & ICF_BY_VAL)) { if (tmpi2->ic_code == IC_ADDR) { if (tmpi2->arg1.type & MDF_STACK && tmpi2->res.type & MDF_STACK) { if (tmpil2 = OptLag1(tmpi2)) { if (tmpil2->ic_code == IC_LEA) { if (tmpil2->arg1.type & (MDF_IMM | MDG_REG_DISP_SIB_RIP)) { if (tmpi2) { tmpi->ic_flags |= tmpi2->ic_flags; OptFree(tmpi2); } tmpi->ic_flags |= tmpil2->ic_flags | ICF_BY_VAL; tmpi->arg2.type = tmpil2->arg1.type; tmpi->arg2.reg = tmpil2->arg1.reg; tmpi->arg2.disp = tmpil2->arg1.disp; OptFree(tmpil2); } break; } else if (tmpil2->ic_code != IC_ABS_ADDR && !(tmpil2->ic_code == IC_MOV && tmpil2->arg1.type == MDF_IMM + RT_I64 && 0 <= tmpil2->arg1.disp <= I32_MAX) || tmpil2->ic_flags & ICF_NO_RIP) tmpil2 = NULL; else { if (tmpil2->ic_code == IC_ABS_ADDR) tmpi->arg2.disp = tmpil2->ic_data; else tmpi->arg2.disp = tmpil2->arg1.disp; } } } else { if (tmpi2->arg1.type == MDF_IMM + RT_I64 && 0 <= tmpi2->arg1.disp <= I32_MAX && !(tmpi2->ic_flags & ICF_NO_RIP)) { tmpil2 = tmpi2; tmpi2 = NULL; tmpi->arg2.disp = tmpil2->arg1.disp; } else tmpil2 = NULL; } if (tmpil2) { if (tmpi2) { tmpi->ic_flags |= tmpi2->ic_flags; OptFree(tmpi2); } tmpi->ic_flags |= tmpil2->ic_flags | ICF_BY_VAL; tmpi->arg2.type = MDF_RIP_DISP32 + tmpi->arg2.type.raw_type; tmpi->arg2.reg = REG_RIP; OptFree(tmpil2); } } else if (tmpi2->ic_code == IC_MOV && tmpi2->res.type & MDF_STACK && tmpi2->arg1.type == MDF_IMM + RT_I64 && 0 <= tmpi2->arg1.disp <= I32_MAX && !(tmpi2->ic_flags & ICF_NO_RIP)) { tmpi->arg2.disp = tmpi2->arg1.disp; tmpi->ic_flags |= tmpi2->ic_flags | ICF_BY_VAL; tmpi->arg2.type = MDF_RIP_DISP32 + tmpi->arg2.type.raw_type; tmpi->arg2.reg = REG_RIP; OptFree(tmpi2); } } break; case IC_BR_EQU_EQU ...IC_BR_LESS_EQU: case IC_BR_EQU_EQU2...IC_BR_LESS_EQU2: case IC_BR_CARRY: case IC_BR_NOT_CARRY: case IC_BR_ZERO: case IC_BR_NOT_ZERO: lb = tmpi->ic_data; if (tmpi->ic_flags & ICF_PUSH_CMP) { lb->flags |= CMF_POP_CMP; lb->forward = NULL; } break; case IC_LABEL: lb = tmpi->ic_data; if (lb->use_count) dead_code = FALSE; break; case IC_JMP: case IC_RET: dead_code = TRUE; break; case IC_NOP2: ps->ptr += tmpi->ic_data; break; case IC_CALL_END: case IC_END_EXP: if (!(tmpil1->ic_flags & ICF_PUSH_RES)) { if (tmpi->ic_flags & ICF_RES_NOT_USED) { tmpil1->ic_flags |= ICF_RES_NOT_USED; tmpil1->res.type = MDF_NULL + tmpil1->res.type.raw_type; } else if (tmpi->arg1.type & MDF_STACK && tmpil1->res.type & MDF_STACK) { tmpi->arg1.type = MDF_REG + tmpi->arg1.type.raw_type; tmpi->arg1.disp = 0; tmpil1->res.type = MDF_REG + tmpil1->res.type.raw_type; tmpil1->res.disp = 0; if (intermediate_code_table[tmpi->ic_code].arg_count == IS_2_ARG) { tmpi->arg1.reg = REG_R8; tmpil1->res.reg = REG_R8; } else { tmpi->arg1.reg = REG_RAX; tmpil1->res.reg = REG_RAX; } } } break; case IC_STR_CONST: case IC_FS: case IC_GS: case IC_MOV_FS: case IC_MOV_GS: case IC_RIP: case IC_RBP: case IC_REG: case IC_COM: case IC_POSTFIX_TYPECAST: case IC_NOT: case IC_UNARY_MINUS: case IC_PUSH_CMP: case IC_ADD_CONST: case IC_SUB_CONST: case IC_ENTER: case IC_ADD_RSP: case IC_ADD_RSP1: case IC_CALL: case IC_CALL_INDIRECT: case IC_CALL_INDIRECT2: case IC_CALL_EXTERN: case IC_CALL_IMPORT: case IC_PUSH: case IC_POP: case IC_INVLPG: case IC_CLFLUSH: case IC_RFLAGS_GET: case IC_CARRY: case IC_RDTSC: case IC_RFLAGS_SET: case IC_RBP_GET: case IC_RBP_SET: case IC_RSP_GET: case IC_RAX_GET: case IC_RSP_SET: case IC_RAX_SET: case IC_SHL_CONST: case IC_LEA: case IC_SHR_CONST: case IC_POWER: case IC_SHL: case IC_SHR: case IC_MUL: case IC_DIV: case IC_MOD: case IC_AND: case IC_OR: case IC_XOR: case IC_SUB: case IC_EQU_EQU...IC_LESS_EQU: case IC_AND_AND: case IC_OR_OR: case IC_XOR_XOR: case IC_GET_LABEL: case IC_ABS_ADDR: case IC_HEAP_GLOBAL: case IC_ADDR_IMPORT: case IC_BSF: case IC_BSR: case IC_POPCNT: case IC_SIGN_I64: case IC_TOUPPER: case IC_TO_I64: case IC_TO_F64: case IC_TO_BOOL: case IC_SQR: case IC_ABS: case IC_SQRT: case IC_SIN: case IC_COS: case IC_TAN: case IC_ATAN: case IC_ABS_I64: case IC_MIN_I64: case IC_MAX_I64: case IC_MIN_U64: case IC_MAX_U64: case IC_MOD_U64: case IC_SQR_I64: case IC_SQR_U64: case IC_SWAP_U8: case IC_SWAP_U16: case IC_SWAP_U32: case IC_SWAP_I64: case IC_QUEUE_INIT: case IC_QUEUE_INSERT: case IC_QUEUE_INSERT_REV: case IC_QUEUE_REMOVE: case IC_IN_U32: case IC_IN_U16: case IC_IN_U8: case IC_STRLEN: case IC_OUT_U32: case IC_OUT_U16: case IC_OUT_U8: case IC_NOBOUND_SWITCH: case IC_SWITCH: case IC_END: case IC_ADDR: case IC_CALL_START: case IC_LEAVE: case IC_PUSH_REGS: case IC_POP_REGS: case IC_ASM: case IC_BR_AND_NOT_ZERO: case IC_BR_AND_ZERO: case IC_SUB_CALL: case IC_CALL_END2: break; default: "Pass:%d Missing IC handler\n", cc->pass; ICPut(cc, tmpi); LexExcept(cc, "Compiler Optimization Error at "); } if (tmpi) { while (OptIC4(tmpi)); code = tmpi->ic_code; if (intermediate_code_table[code].res_count) ParsePush(ps, tmpi); } } tmpi = tmpi_next; } if (ps->ptr > 2) { "Pass:%d Stack:%08X\n", cc->pass, ps->ptr; LexExcept(cc, "Compiler Optimization Error at "); } }