/*++
Copyright (c) 1993 Digital Equipment Corporation
Module Name:
optable.c
Abstract:
Declaration for -
Table of operations, their names and charactersitics
Used by ntsd, windbg and acc's dissassembler
Author:
Miche Baker-Harvey (mbh) 10-Jan-1993
Revision History:
--*/
#include <windows.h>
#include <stdio.h>
#include <stdlib.h>
#include "alphaops.h"
#define DEFINE_STRINGS
#include "strings.h"
#include "optable.h"
// for strcmp
#include <string.h>
//
// for exit -
#undef min
#undef max
#include <stdlib.h>
// end for exit
#define NOFNCTBL (UCHAR *) 0
#define NOSIZE (ULONG)0
//
// These fields are used to find the beginning of the sections
// containing different "ENTRY_TYPE"s
//
POPTBLENTRY InvalidTab;
POPTBLENTRY NonTerminalTab;
POPTBLENTRY TerminalTab;
POPTBLENTRY FunctionTab;
ULONG InvalidTabSize;
ULONG NonTerminalTabSize;
ULONG TerminalTabSize;
ULONG FunctionTabSize;
//
// THE OPCODE TABLE ITSELF
//
// The opcode table "opTable" describes each opcode and function.
// There is an entry for each opcode, and for each function.
//
// The table is organized as follows:
// invalid-ops,
// non-terminal-ops,
// terminal-ops,
// functions,
//
// This organization is NOT required:
// no assumptions are made on it.
//
// Searches based on opcode must search
// INVALID, TERMINAL and NON_TERMINAL
//
// Searches based on instruction name must search
// TERMINAL and FUNCTION
//
//
OPTBLENTRY AlphaopTable[] = {
//
// First, the INVALID_ETYPE section.
// (opcode searches begin here)
//
{ "?Opc01", 0, _01_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc02", 0, _02_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc03", 0, _03_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc04", 0, _04_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc05", 0, _05_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc06", 0, _06_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc07", 0, _07_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc0A", 0, _0A_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc0C", 0, _0C_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc0D", 0, _0D_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc0E", 0, _0E_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc14", 0, _14_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
{ "?Opc1C", 0, _1C_OP, NO_FUNC, ALPHA_UNKNOWN, INVALID_ETYPE},
//
// This is what hasn't been done yet -
// the EV4 stuff - there are no names for it
// in the alphaops.h header file. Should we
// put them there? Should they be elsewhere?
// Do we want to assemble them?
//
// For the moment, just pretend they are invalid. They never
// come up for all practical purposes, anyway.
//
{ "MFPR", 0, MFPR_OP, NO_FUNC,
ALPHA_EV4_PR, INVALID_ETYPE },
{ "MTPR", 0, MTPR_OP, NO_FUNC,
ALPHA_EV4_PR, INVALID_ETYPE },
//
// Secondly, the NON_TERMINAL_ETYPE section
//
{ NOFNCTBL, NOSIZE, CALLPAL_OP, NO_FUNC,
ALPHA_CALLPAL, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, ARITH_OP, NO_FUNC,
ALPHA_OPERATE, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, BIT_OP, NO_FUNC,
ALPHA_OPERATE, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, BYTE_OP, NO_FUNC,
ALPHA_OPERATE, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, MUL_OP, NO_FUNC,
ALPHA_OPERATE, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, MEMSPC_OP, NO_FUNC,
ALPHA_MEMSPC, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, JMP_OP, NO_FUNC,
ALPHA_JUMP, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, VAXFP_OP, NO_FUNC,
ALPHA_FP_OPERATE, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, IEEEFP_OP, NO_FUNC,
ALPHA_FP_OPERATE, NON_TERMINAL_ETYPE },
{ NOFNCTBL, NOSIZE, FPOP_OP, NO_FUNC,
ALPHA_FP_OPERATE, NON_TERMINAL_ETYPE },
//
// Thirdly, the TERMINAL_ETYPE section
// (everything from here on has an instruction name)
//
{ szAlphaLda, 0, LDA_OP, NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdah, 0, LDAH_OP, NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdl, 0, LDL_OP, NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdq, 0, LDQ_OP, NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdf, 0, LDF_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdg, 0, LDG_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaLds, 0, LDS_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdt, 0, LDT_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdq_u, 0, LDQ_U_OP,NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdl_l, 0, LDL_L_OP,NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaLdq_l, 0, LDQ_L_OP,NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaStl, 0, STL_OP, NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaStq, 0, STQ_OP, NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaStf, 0, STF_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaStg, 0, STG_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaSts, 0, STS_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaStt, 0, STT_OP, NO_FUNC, ALPHA_FP_MEMORY, TERMINAL_ETYPE },
{ szAlphaStq_u, 0, STQ_U_OP,NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaStl_c, 0, STL_C_OP,NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaStq_c, 0, STQ_C_OP,NO_FUNC, ALPHA_MEMORY, TERMINAL_ETYPE },
{ szAlphaBeq, 0, BEQ_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBne, 0, BNE_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBlt, 0, BLT_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBle, 0, BLE_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBgt, 0, BGT_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBge, 0, BGE_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBlbc, 0, BLBC_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBlbs, 0, BLBS_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBr, 0, BR_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaBsr, 0, BSR_OP, NO_FUNC, ALPHA_BRANCH, TERMINAL_ETYPE },
{ szAlphaFbeq, 0, FBEQ_OP, NO_FUNC, ALPHA_FP_BRANCH, TERMINAL_ETYPE },
{ szAlphaFbne, 0, FBNE_OP, NO_FUNC, ALPHA_FP_BRANCH, TERMINAL_ETYPE },
{ szAlphaFblt, 0, FBLT_OP, NO_FUNC, ALPHA_FP_BRANCH, TERMINAL_ETYPE },
{ szAlphaFble, 0, FBLE_OP, NO_FUNC, ALPHA_FP_BRANCH, TERMINAL_ETYPE },
{ szAlphaFbgt, 0, FBGT_OP, NO_FUNC, ALPHA_FP_BRANCH, TERMINAL_ETYPE },
{ szAlphaFbge, 0, FBGE_OP, NO_FUNC, ALPHA_FP_BRANCH, TERMINAL_ETYPE },
{ "REI", 0, PAL1B_OP, NO_FUNC, ALPHA_EV4_REI, TERMINAL_ETYPE},
{ "HW_LD", 0, PAL1E_OP, NO_FUNC, ALPHA_EV4_MEM, TERMINAL_ETYPE},
{ "HW_ST", 0, PAL1F_OP, NO_FUNC, ALPHA_EV4_MEM, TERMINAL_ETYPE},
//
// Fourthly, (and finally) the FUNCTION_ETYPE section
// (opcode searches needn't include this section)
//
//
// The memory-special functions
//
{ szAlphaExcb, 0, MEMSPC_OP, EXCB_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaMb, 0, MEMSPC_OP, MB_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaWmb, 0, MEMSPC_OP, WMB_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaMb2, 0, MEMSPC_OP, MB2_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaMb3, 0, MEMSPC_OP, MB3_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaFetch,0, MEMSPC_OP, FETCH_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaFetch_m,0,MEMSPC_OP,FETCH_M_FUNC,ALPHA_MEMSPC,FUNCTION_ETYPE },
{ szAlphaRs, 0, MEMSPC_OP, RS_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaTrapb,0, MEMSPC_OP, TRAPB_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaRpcc, 0, MEMSPC_OP, RPCC_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
{ szAlphaRc, 0, MEMSPC_OP, RC_FUNC, ALPHA_MEMSPC, FUNCTION_ETYPE },
//
// The jump functions
//
{ szAlphaJmp, 0, JMP_OP, JMP_FUNC, ALPHA_JUMP, FUNCTION_ETYPE },
{ szAlphaJsr, 0, JMP_OP, JSR_FUNC, ALPHA_JUMP, FUNCTION_ETYPE },
{ szAlphaRet, 0, JMP_OP, RET_FUNC, ALPHA_JUMP, FUNCTION_ETYPE },
{ szAlphaJsr_co, 0, JMP_OP, JSR_CO_FUNC, ALPHA_JUMP, FUNCTION_ETYPE },
//
// The arithmetic ops, which are ALPHA_OPERATE
//
{ szAlphaAddl, 0, ARITH_OP, ADDL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaAddlv, 0, ARITH_OP, ADDLV_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaAddq, 0, ARITH_OP, ADDQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaAddqv, 0, ARITH_OP, ADDQV_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaSubl, 0, ARITH_OP, SUBL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaSublv, 0, ARITH_OP, SUBLV_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaSubq, 0, ARITH_OP, SUBQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaSubqv, 0, ARITH_OP, SUBQV_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpeq, 0, ARITH_OP, CMPEQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmplt, 0, ARITH_OP, CMPLT_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmple, 0, ARITH_OP, CMPLE_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpult, 0, ARITH_OP, CMPULT_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpule, 0, ARITH_OP, CMPULE_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpbge, 0, ARITH_OP, CMPBGE_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS4addl, 0, ARITH_OP, S4ADDL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS4addq, 0, ARITH_OP, S4ADDQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS4subl, 0, ARITH_OP, S4SUBL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS4subq, 0, ARITH_OP, S4SUBQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS8addl, 0, ARITH_OP, S8ADDL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS8addq, 0, ARITH_OP, S8ADDQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS8subl, 0, ARITH_OP, S8SUBL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaS8subq, 0, ARITH_OP, S8SUBQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
//
// The bit ops, which are ALPHA_OPERATE
//
{ szAlphaAnd, 0, BIT_OP, AND_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaBic, 0, BIT_OP, BIC_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaBis, 0, BIT_OP, BIS_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaOrnot, 0, BIT_OP, ORNOT_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaXor, 0, BIT_OP, XOR_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaEqv, 0, BIT_OP, EQV_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmoveq, 0, BIT_OP, CMOVEQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmovne, 0, BIT_OP, CMOVNE_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmovlbs, 0, BIT_OP, CMOVLBS_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmovlt, 0, BIT_OP, CMOVLT_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmovge, 0, BIT_OP, CMOVGE_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmovlbc, 0, BIT_OP, CMOVLBC_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmovle, 0, BIT_OP, CMOVLE_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmovgt, 0, BIT_OP, CMOVGT_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
//
// The byte ops, which are ALPHA_OPERATE
//
{ szAlphaSll, 0, BYTE_OP, SLL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaSra, 0, BYTE_OP, SRA_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaSrl, 0, BYTE_OP, SRL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaExtbl, 0, BYTE_OP, EXTBL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaExtwl, 0, BYTE_OP, EXTWL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaExtll, 0, BYTE_OP, EXTLL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaExtql, 0, BYTE_OP, EXTQL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaExtwh, 0, BYTE_OP, EXTWH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaExtlh, 0, BYTE_OP, EXTLH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaExtqh, 0, BYTE_OP, EXTQH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaInsbl, 0, BYTE_OP, INSBL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaInswl, 0, BYTE_OP, INSWL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaInsll, 0, BYTE_OP, INSLL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaInsql, 0, BYTE_OP, INSQL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaInswh, 0, BYTE_OP, INSWH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaInslh, 0, BYTE_OP, INSLH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaInsqh, 0, BYTE_OP, INSQH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMskbl, 0, BYTE_OP, MSKBL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMskwl, 0, BYTE_OP, MSKWL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMskll, 0, BYTE_OP, MSKLL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMskql, 0, BYTE_OP, MSKQL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMskwh, 0, BYTE_OP, MSKWH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMsklh, 0, BYTE_OP, MSKLH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMskqh, 0, BYTE_OP, MSKQH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaZap, 0, BYTE_OP, ZAP_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaZapnot, 0, BYTE_OP, ZAPNOT_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
//
// The multiply ops, which are ALPHA_OPERATE
//
{ szAlphaMull, 0, MUL_OP, MULL_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMulqv, 0, MUL_OP, MULQV_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMullv, 0, MUL_OP, MULLV_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaUmulh, 0, MUL_OP, UMULH_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
{ szAlphaMulq, 0, MUL_OP, MULQ_FUNC, ALPHA_OPERATE, FUNCTION_ETYPE },
//
// The call pal functions
//
{ szAlphaBpt, 0, CALLPAL_OP, BPT_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaCallsys, 0, CALLPAL_OP, CALLSYS_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaImb, 0, CALLPAL_OP, IMB_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdteb, 0, CALLPAL_OP, RDTEB_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaGentrap, 0, CALLPAL_OP, GENTRAP_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaKbpt, 0, CALLPAL_OP, KBPT_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaCallKD, 0, CALLPAL_OP, CALLKD_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaHalt, 0, CALLPAL_OP, HALT_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRestart, 0, CALLPAL_OP, RESTART_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaDraina, 0, CALLPAL_OP, DRAINA_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaInitpal, 0, CALLPAL_OP, INITPAL_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaWrentry, 0, CALLPAL_OP, WRENTRY_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaSwpirql, 0, CALLPAL_OP, SWPIRQL_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdirql, 0, CALLPAL_OP, RDIRQL_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaDi, 0, CALLPAL_OP, DI_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaEi, 0, CALLPAL_OP, EI_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaSwppal, 0, CALLPAL_OP, SWPPAL_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaSsir, 0, CALLPAL_OP, SSIR_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaCsir, 0, CALLPAL_OP, CSIR_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRfe, 0, CALLPAL_OP, RFE_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRetsys, 0, CALLPAL_OP, RETSYS_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaSwpctx, 0, CALLPAL_OP, SWPCTX_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaSwpprocess, 0, CALLPAL_OP, SWPPROCESS_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdmces, 0, CALLPAL_OP, RDMCES_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaWrmces, 0, CALLPAL_OP, WRMCES_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaTbia, 0, CALLPAL_OP, TBIA_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaTbis, 0, CALLPAL_OP, TBIS_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaDtbis, 0, CALLPAL_OP, DTBIS_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdksp, 0, CALLPAL_OP, RDKSP_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaSwpksp, 0, CALLPAL_OP, SWPKSP_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdpsr, 0, CALLPAL_OP, RDPSR_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdpcr, 0, CALLPAL_OP, RDPCR_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdthread, 0, CALLPAL_OP, RDTHREAD_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdcounters, 0, CALLPAL_OP, RDCOUNTERS_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRdstate, 0, CALLPAL_OP, RDSTATE_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaInitpcr, 0, CALLPAL_OP, INITPCR_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaWrperfmon, 0, CALLPAL_OP, WRPERFMON_FUNC,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaMt, 0, CALLPAL_OP, MTPR_OP,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaMf, 0, CALLPAL_OP, MFPR_OP,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaHwld, 0, CALLPAL_OP, HWLD_OP,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaHwst, 0, CALLPAL_OP, HWST_OP,
ALPHA_CALLPAL, FUNCTION_ETYPE },
{ szAlphaRei, 0, CALLPAL_OP, REI_OP,
ALPHA_CALLPAL, FUNCTION_ETYPE },
//
// The VAX Floating point functions
//
{ szAlphaAddf, 0, VAXFP_OP, ADDF_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtdg, 0, VAXFP_OP, CVTDG_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaAddg, 0, VAXFP_OP, ADDG_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpgeq, 0, VAXFP_OP, CMPGEQ_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpglt, 0, VAXFP_OP, CMPGLT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpgle, 0, VAXFP_OP, CMPGLE_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtgf, 0, VAXFP_OP, CVTGF_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtgd, 0, VAXFP_OP, CVTGD_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtqf, 0, VAXFP_OP, CVTQF_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtqg, 0, VAXFP_OP, CVTQG_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaDivf, 0, VAXFP_OP, DIVF_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaDivg, 0, VAXFP_OP, DIVG_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaMulf, 0, VAXFP_OP, MULF_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaMulg, 0, VAXFP_OP, MULG_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaSubf, 0, VAXFP_OP, SUBF_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaSubg, 0, VAXFP_OP, SUBG_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtgq, 0, VAXFP_OP, CVTGQ_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
//
// The IEEE Floating point functions
//
{ szAlphaAdds, 0, IEEEFP_OP, ADDS_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaSubs, 0, IEEEFP_OP, SUBS_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaMuls, 0, IEEEFP_OP, MULS_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaDivs, 0, IEEEFP_OP, DIVS_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaAddt, 0, IEEEFP_OP, ADDT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaSubt, 0, IEEEFP_OP, SUBT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaMult, 0, IEEEFP_OP, MULT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaDivt, 0, IEEEFP_OP, DIVT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmptun, 0, IEEEFP_OP, CMPTUN_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmpteq, 0, IEEEFP_OP, CMPTEQ_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmptlt, 0, IEEEFP_OP, CMPTLT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCmptle, 0, IEEEFP_OP, CMPTLE_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtts, 0, IEEEFP_OP, CVTTS_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvttq, 0, IEEEFP_OP, CVTTQ_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtqs, 0, IEEEFP_OP, CVTQS_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtqt, 0, IEEEFP_OP, CVTQT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
//
// The Common Floating point functions
//
{ szAlphaCvtlq, 0, FPOP_OP, CVTLQ_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCpys, 0, FPOP_OP, CPYS_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCpysn, 0, FPOP_OP, CPYSN_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCpyse, 0, FPOP_OP, CPYSE_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaMt_fpcr, 0, FPOP_OP, MT_FPCR_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaMf_fpcr, 0, FPOP_OP, MF_FPCR_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaFcmoveq, 0, FPOP_OP, FCMOVEQ_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaFcmovne, 0, FPOP_OP, FCMOVNE_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaFcmovlt, 0, FPOP_OP, FCMOVLT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaFcmovge, 0, FPOP_OP, FCMOVGE_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaFcmovle, 0, FPOP_OP, FCMOVLE_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaFcmovgt, 0, FPOP_OP, FCMOVGT_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtql, 0, FPOP_OP, CVTQL_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtqlv, 0, FPOP_OP, CVTQLV_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
{ szAlphaCvtqlsv, 0, FPOP_OP, CVTQLSV_FUNC,
ALPHA_FP_OPERATE, FUNCTION_ETYPE },
}; // end of AlphaopTable
#define SEARCHNUM sizeof(AlphaopTable) / sizeof(OPTBLENTRY)
//
// Here are the tables of Floating Point flags.
//
FPFLAGS ConvertFlags[] = {
{ NONE_FLAGS, NONE_FLAGS_STR },
{ C_FLAGS, C_FLAGS_STR },
{ V_FLAGS, V_FLAGS_STR },
{ VC_FLAGS, VC_FLAGS_STR },
{ SV_FLAGS, SV_FLAGS_STR },
{ SVC_FLAGS, SVC_FLAGS_STR },
{ SVI_FLAGS, SVI_FLAGS_STR },
{ SVIC_FLAGS, SVIC_FLAGS_STR },
{ D_FLAGS, D_FLAGS_STR },
{ VD_FLAGS, VD_FLAGS_STR },
{ SVD_FLAGS, SVD_FLAGS_STR },
{ SVID_FLAGS, SVID_FLAGS_STR },
{ M_FLAGS, M_FLAGS_STR },
{ VM_FLAGS, VM_FLAGS_STR },
{ SVM_FLAGS, SVM_FLAGS_STR },
{ SVIM_FLAGS, SVIM_FLAGS_STR },
{ S_FLAGS, S_FLAGS_STR },
{ SC_FLAGS, SC_FLAGS_STR },
{ FPFLAGS_NOT_AN_ENTRY, "" }
};
FPFLAGS FloatOpFlags[] = {
{ C_FLAGS, C_FLAGS_STR },
{ M_FLAGS, M_FLAGS_STR },
{ NONE_FLAGS, NONE_FLAGS_STR },
{ D_FLAGS, D_FLAGS_STR },
{ UC_FLAGS, UC_FLAGS_STR },
{ UM_FLAGS, UM_FLAGS_STR },
{ U_FLAGS, U_FLAGS_STR },
{ UD_FLAGS, UD_FLAGS_STR },
{ SC_FLAGS, SC_FLAGS_STR },
{ S_FLAGS, S_FLAGS_STR },
{ SUC_FLAGS, SUC_FLAGS_STR },
{ SUM_FLAGS, SUM_FLAGS_STR },
{ SU_FLAGS, SU_FLAGS_STR },
{ SUD_FLAGS, SUD_FLAGS_STR },
{ SUIC_FLAGS, SUIC_FLAGS_STR },
{ SUIM_FLAGS, SUIM_FLAGS_STR },
{ SUI_FLAGS, SUI_FLAGS_STR },
{ SUID_FLAGS, SUID_FLAGS_STR },
{ FPFLAGS_NOT_AN_ENTRY, "" }
};
/*** findNameEntry - find POPTBLENTRY based on name
*
* Purpose:
* Search the opTable for a match with the token
* pointed by *pszAlphaOp. Must search through the
* TERMINAL and the FUNCTION tables
*
* Input:
* *pszAlphaOp - string to search as mnemonic
*
* Returns:
* Pointer to entry in the opTable
*
*************************************************************************/
POPTBLENTRY
findStringEntry (PUCHAR pszAlphaOp)
{
POPTBLENTRY pEntry;
for (pEntry = TerminalTab;
pEntry < &TerminalTab[TerminalTabSize];
pEntry++) {
if (!strcmp(pszAlphaOp, pEntry->pszAlphaName))
return(pEntry);
}
for (pEntry = FunctionTab;
pEntry < &FunctionTab[FunctionTabSize];
pEntry++) {
if (!strcmp(pszAlphaOp, pEntry->pszAlphaName))
return(pEntry);
}
return((POPTBLENTRY)-1);
}
/* findOpCodeEntry - find POPTBLENTRY based on opcode
*
* Purpose:
* Search the opTable for a match with the token
* pointed by *pszAlphaOp. Must search through the
* INVALID, TERMINAL and NON_TERMINAL tables
*
* Input:
* pOpEntry - pointer to NON_TERMINAL_ETYPE in opTable
* function - the function value to be looked up
*
* Output:
* pointer to string mnemonic for the function
*
***********************************************************************/
POPTBLENTRY
findOpCodeEntry(ULONG opcode)
{
POPTBLENTRY pEntry;
for (pEntry = TerminalTab;
pEntry < &TerminalTab[TerminalTabSize];
pEntry++) {
if (pEntry->opCode == opcode)
return(pEntry);
}
for (pEntry = NonTerminalTab;
pEntry < &NonTerminalTab[NonTerminalTabSize];
pEntry++) {
if (pEntry->opCode == opcode)
return(pEntry);
}
for (pEntry = InvalidTab;
pEntry < &InvalidTab[InvalidTabSize];
pEntry++) {
if (pEntry->opCode == opcode)
return(pEntry);
}
return((POPTBLENTRY)-1);
}
/*** findNonTerminalEntry - find pointer to set of functions
*
* Purpose:
* This routine finds the entry in the table which the is
* nonterminal entry for an opcode.
*
* Input:
* The type of function that is interesting
*
* Output:
* Pointer to the nonterminal entry in opTable
*
* Errors:
* If the entry is not found, a message is printed, and the
* routine exits.
*
* Exceptions:
* None.
*
* Note:
* This routine is called BEFORE NonTerminalTable is established!
* (it's used to set up these tables, in fact).
*
*************************************************************************/
POPTBLENTRY
findNonTerminalEntry(ULONG opCode)
{
ULONG index;
for ( index = 0 ; index < SEARCHNUM; index++ ) {
if ( ( AlphaopTable[index].eType == NON_TERMINAL_ETYPE ) &&
( AlphaopTable[index].opCode == opCode ) ) {
return(&AlphaopTable[index]);
}
}
fprintf(stderr, "NonTerminalEntry for opCode %d\n not found in opTable\n",
opCode);
exit(1);
}
/* findFuncName - get string name for a function
*
* Purpose:
* to get function name, given the function number, and a
* pointer to the opTable entry for the NON_TERMINAL_ETYPE
* opcode associated with the function
*
* Input:
* pOpEntry - pointer to NON_TERMINAL_ETYPE in opTable
* function - the function value to be looked up
*
* Output:
* pointer to string mnemonic for the function
*
***********************************************************************/
char *
findFuncName(POPTBLENTRY pEntry, ULONG function)
{
int cIndex;
POPTBLENTRY pFncEntry;
pFncEntry = pEntry->funcTable;
cIndex = (int)pEntry->funcTableSize;
//
// make sure that this entry pts to a function table
//
if (pEntry->eType != NON_TERMINAL_ETYPE) {
return("???");
}
while(cIndex-- > 0) {
if (function == pFncEntry->funcCode)
return(pFncEntry->pszAlphaName);
pFncEntry++;
};
return("???");
}
/** findFlagName - get the string associated with a flag
*
* Purpose - return a string associated with the flags for a
* floating point instruction
*
* Input:
* flag - the flags on the opcode
* opcode - the opcode; if it's Cvt*, we use different flags
*
* Output:
* pointer to string describing flags, or "/???"
*
***************/
char *
findFlagName(ULONG flag, ULONG function)
{
PFPFLAGS table;
if ((function == CVTTQ_FUNC) || (function == CVTGQ_FUNC)) {
table = ConvertFlags;
} else {
table = FloatOpFlags;
}
while (table->flags != FPFLAGS_NOT_AN_ENTRY) {
if (table->flags == flag) {
return(table->flagname);
}
table++;
}
// no match found
//
return("/???");
}
/*** opTableInit - initialize fields used in and with the opTable
*
* Purpose:
* This routine is called once, and sets up pointers to the
* subtables embedded in the opTable, such as AddOpTab, and
* sizes for these subtables. It also checks that all like
* instructions are grouped together in the table, which is
* the only requirement on it.
*
* Input:
* None.
*
* Output:
* None.
*
* Errors:
* If the table is not properly organized (four types separated,
* and the functions for a single opcode grouped), this prints a
* messages and fails
*
* Exceptions:
* None.
*
*************************************************************************/
VOID opTableInit()
{
ULONG typesDone[4] = {0,0,0,0};
ULONG palDone, arithDone, bitDone, byteDone, jmpDone;
ULONG fpopDone, vaxDone, IEEEDone, mulDone, memSpcDone;
ULONG index;
POPTBLENTRY entry;
ENTRY_TYPE curType = NOT_AN_ETYPE;
ULONG curFunc = NO_FUNC; // OPCODE field in func entry
//
// To set the end of the table, and its size, without having
// nested case statements, maintain pointers to the entry and
// function tables we are currently walking through
//
PULONG curTypeSize, curFuncSize;
POPTBLENTRY * curTypeTable, * curFuncTable;
//
// these will be reset before they are needed, but not before
// they are used.
//
curTypeTable = (POPTBLENTRY *)&curTypeTable;
curTypeSize = (PULONG)&curTypeSize;
curFuncTable = (POPTBLENTRY *)&curFuncTable;
curFuncSize = (PULONG)&curFuncSize;
palDone = arithDone = bitDone = byteDone = jmpDone = 0;
fpopDone = vaxDone = IEEEDone = mulDone = memSpcDone = 0;
for (index = 0 ; index < SEARCHNUM; index++) {
entry = &AlphaopTable[index];
switch(entry->eType) {
case INVALID_ETYPE:
if (curType == entry->eType)
continue;
//
// The entries must be together; if this is a
// new type, we must never have seen it before
//
if (typesDone[INVALID_ETYPE]) {
printf("Invalid table format: duplicate start of ");
printf("INVALID_ETYPE at index %d\n", index);
exit(1);
}
//
// Finish off the old tables
//
*curTypeSize = entry - *curTypeTable;
if (curType == FUNCTION_ETYPE) {
*curFuncSize = entry - *curFuncTable;
}
//
// Set up the new table
//
InvalidTab = entry;
curTypeSize = &InvalidTabSize;
curTypeTable = &InvalidTab;
curType = INVALID_ETYPE;
typesDone[INVALID_ETYPE] = 1;
break;
case NON_TERMINAL_ETYPE:
if (curType == entry->eType)
continue;
if (typesDone[NON_TERMINAL_ETYPE]) {
printf("Invalid table format: duplicate start of ");
printf("NON_TERMINAL_ETYPE at index %d\n", index);
exit(1);
}
*curTypeSize = entry - *curTypeTable;
if (curType == FUNCTION_ETYPE) {
*curFuncSize = entry - *curFuncTable;
}
NonTerminalTab = entry;
curTypeSize = &NonTerminalTabSize;
curTypeTable = &NonTerminalTab;
curType = NON_TERMINAL_ETYPE;
typesDone[NON_TERMINAL_ETYPE] = 1;
break;
case TERMINAL_ETYPE:
if (curType == entry->eType)
continue;
if (typesDone[TERMINAL_ETYPE]) {
printf("Invalid table format: duplicate start of ");
printf("TERMINAL_ETYPE at index %d\n", index);
exit(1);
}
*curTypeSize = entry - *curTypeTable;
if (curType == FUNCTION_ETYPE) {
*curFuncSize = entry - *curFuncTable;
}
TerminalTab = entry;
curTypeSize = &TerminalTabSize;
curTypeTable = &TerminalTab;
curType = TERMINAL_ETYPE;
typesDone[TERMINAL_ETYPE] = 1;
break;
case FUNCTION_ETYPE:
if (entry->opCode == curFunc)
continue;
//
// Take care of a new eType table; this exactly
// parallels the three cases above (*_ETYPE)
//
if (curType != FUNCTION_ETYPE) {
if (typesDone[FUNCTION_ETYPE]) {
printf("Invalid table format: duplicate start of ");
printf("FUNCTION_ETYPE at index %d\n", index);
exit(1);
}
*curTypeSize = entry - *curTypeTable;
FunctionTab = entry;
curTypeSize = &FunctionTabSize;
curTypeTable = &FunctionTab;
curType = FUNCTION_ETYPE;
typesDone[FUNCTION_ETYPE] = 1;
}
//
// Next, handle a new function table when this is a new
// function (==> when this is the first entry in the
// FunctionTab)
//
switch(entry->opCode) {
POPTBLENTRY e;
case CALLPAL_OP:
if (palDone) {
printf("Invalid table format: duplicate start of ");
printf("CALLPAL_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(CALLPAL_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = CALLPAL_OP;
palDone = 1;
break;
case ARITH_OP:
if (arithDone) {
printf("Invalid table format: duplicate start of ");
printf("ARITH_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(ARITH_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = ARITH_OP;
arithDone = 1;
break;
case BIT_OP:
if (bitDone) {
printf("Invalid table format: duplicate start of ");
printf("BIT_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(BIT_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = BIT_OP;
bitDone = 1;
break;
case BYTE_OP:
if (byteDone) {
printf("Invalid table format: duplicate start of ");
printf("BYTE_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(BYTE_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = BYTE_OP;
byteDone = 1;
break;
case MUL_OP:
if (mulDone) {
printf("Invalid table format: duplicate start of ");
printf("MUL_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(MUL_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = MUL_OP;
mulDone = 1;
break;
case MEMSPC_OP:
if (memSpcDone) {
printf("Invalid table format: duplicate start of ");
printf("MEMSPC_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(MEMSPC_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = MEMSPC_OP;
memSpcDone = 1;
break;
case JMP_OP:
if (jmpDone) {
printf("Invalid table format: duplicate start of ");
printf("JMP_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(JMP_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = JMP_OP;
jmpDone = 1;
break;
case VAXFP_OP:
if (vaxDone) {
printf("Invalid table format: duplicate start of ");
printf("VAXFP_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(VAXFP_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = VAXFP_OP;
vaxDone = 1;
break;
case IEEEFP_OP:
if (IEEEDone) {
printf("Invalid table format: duplicate start of ");
printf("IEEEFP_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(IEEEFP_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = IEEEFP_OP;
IEEEDone = 1;
break;
case FPOP_OP:
if (fpopDone) {
printf("Invalid table format: duplicate start of ");
printf("FPOP_OP at index %d\n", index);
}
*curFuncSize = entry - *curFuncTable;
e = findNonTerminalEntry(FPOP_OP);
e->funcTable = entry;
curFuncSize = &(e->funcTableSize);
curFuncTable = &(e->funcTable);
curFunc = FPOP_OP;
fpopDone = 1;
break;
default:
printf("Unexpected function type %d at %08x for %s\n",
entry->eType, entry, entry->pszAlphaName);
exit(1);
break;
} // end of Function table switch
break;
default:
printf("Unexpected entry type %d at %08x for %s\n",
entry->eType, entry, entry->pszAlphaName);
exit(1);
break;
} // end of etype table switch
} // end of For switch
//
// close out the size of the last tables
//
if (curType == FUNCTION_ETYPE) {
*curFuncSize = &AlphaopTable[SEARCHNUM] - *curFuncTable;
}
*curTypeSize = &AlphaopTable[SEARCHNUM] - *curTypeTable;
} // end of opTableInit
VOID printTable()
{
ULONG i;
POPTBLENTRY e;
for (i = 0 ; i < SEARCHNUM; i++) {
e = &AlphaopTable[i];
switch (e->eType) {
case INVALID_ETYPE:
printf("%12s %08x op: %4d %8d %2d INVALID\n",
e->pszAlphaName, e->parsFunc, e->opCode, e->funcCode, e->iType);
break;
case TERMINAL_ETYPE:
printf("%12s %08x op: %4d %8d %2d TERMINAL\n",
e->pszAlphaName, e->parsFunc, e->opCode, e->funcCode, e->iType);
break;
case FUNCTION_ETYPE:
printf("%12s %08x op: %4d %8d %2d FUNCTION\n",
e->pszAlphaName, e->parsFunc, e->opCode, e->funcCode, e->iType);
break;
case NON_TERMINAL_ETYPE:
printf("%12x %08x op: %4d %8d %2d NON_TERMINAL\n",
e->funcTable, e->funcTableSize,
e->opCode, e->funcCode, e->iType);
break;
}
}
printf("InvalidTab %08x InvalidTabSize %03x\n",
InvalidTab, InvalidTabSize);
printf("TerminalTab %08x TerminalTabSize %03x\n",
TerminalTab, TerminalTabSize);
printf("NonTerminalTab %08x NonTerminalTabSize %03x\n",
NonTerminalTab, NonTerminalTabSize);
printf("FunctionTab %08x FunctionTabSize %03x\n",
FunctionTab, FunctionTabSize);
}