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415 lines
24 KiB
TableGen
415 lines
24 KiB
TableGen
//===- AlphaInstrInfo.td - The Alpha Instruction Set -------*- tablegen -*-===//
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//
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// The LLVM Compiler Infrastructure
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//
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// This file was developed by the LLVM research group and is distributed under
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// the University of Illinois Open Source License. See LICENSE.TXT for details.
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//
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//===----------------------------------------------------------------------===//
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//
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//
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//===----------------------------------------------------------------------===//
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include "AlphaInstrFormats.td"
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// //#define FP $15
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// //#define RA $26
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// //#define PV $27
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// //#define GP $29
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// //#define SP $30
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def PHI : PseudoInstAlpha<(ops variable_ops), "#phi">;
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def IDEF : PseudoInstAlpha<(ops GPRC:$RA), "#idef $RA">;
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def WTF : PseudoInstAlpha<(ops variable_ops), "#wtf">;
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def ADJUSTSTACKUP : PseudoInstAlpha<(ops variable_ops), "ADJUP">;
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def ADJUSTSTACKDOWN : PseudoInstAlpha<(ops variable_ops), "ADJDOWN">;
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def ALTENT : PseudoInstAlpha<(ops s64imm:$TARGET), "$TARGET:\n">;
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def PCLABEL : PseudoInstAlpha<(ops s64imm:$num), "PCMARKER_$num:\n">;
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def MEMLABEL : PseudoInstAlpha<(ops s64imm:$i, s64imm:$j, s64imm:$k, s64imm:$m),
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"LSMARKER$$$i$$$j$$$k$$$m:\n">;
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//*****************
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//These are shortcuts, the assembler expands them
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//*****************
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//AT = R28
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//T0-T7 = R1 - R8
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//T8-T11 = R22-R25
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//An even better improvement on the Int = SetCC(FP): SelectCC!
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//These are evil because they hide control flow in a MBB
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//really the ISel should emit multiple MBB
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let isTwoAddress = 1 in {
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//Conditional move of an int based on a FP CC
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def CMOVEQ_FP : PseudoInstAlpha<(ops GPRC:$RDEST, GPRC:$RSRC_F, GPRC:$RSRC_T, FPRC:$RCOND),
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"fbne $RCOND, 42f\n\tbis $RSRC_T,$RSRC_T,$RDEST\n42:\n">;
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def CMOVEQi_FP : PseudoInstAlpha<(ops GPRC:$RDEST, GPRC:$RSRC_F, u8imm:$L, FPRC:$RCOND),
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"fbne $RCOND, 42f\n\taddq $$31,$L,$RDEST\n42:\n">;
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def CMOVNE_FP : PseudoInstAlpha<(ops GPRC:$RDEST, GPRC:$RSRC_F, GPRC:$RSRC_T, FPRC:$RCOND),
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"fbeq $RCOND, 42f\n\tbis $RSRC_T,$RSRC_T,$RDEST\n42:\n">;
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def CMOVNEi_FP : PseudoInstAlpha<(ops GPRC:$RDEST, GPRC:$RSRC_F, u8imm:$L, FPRC:$RCOND),
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"fbeq $RCOND, 42f\n\taddq $$31,$L,$RDEST\n42:\n">;
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//Conditional move of an FP based on a Int CC
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def FCMOVEQ_INT : PseudoInstAlpha<(ops GPRC:$RDEST, GPRC:$RSRC_F, GPRC:$RSRC_T, FPRC:$RCOND),
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"bne $RCOND, 42f\n\tcpys $RSRC_T,$RSRC_T,$RDEST\n42:\n">;
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def FCMOVNE_INT : PseudoInstAlpha<(ops GPRC:$RDEST, GPRC:$RSRC_F, GPRC:$RSRC_T, FPRC:$RCOND),
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"beq $RCOND, 42f\n\tcpys $RSRC_T,$RSRC_T,$RDEST\n42:\n">;
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}
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//***********************
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//Real instructions
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//***********************
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//Operation Form:
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let isTwoAddress = 1 in {
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//conditional moves, int
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def CMOVEQ : OcmForm< 0x11, 0x24, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmoveq $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND = zero
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def CMOVEQi : OcmFormL< 0x11, 0x24, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmoveq $RCOND,$L,$RDEST">; //CMOVE if RCOND = zero
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def CMOVGE : OcmForm< 0x11, 0x46, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmovge $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND >= zero
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def CMOVGEi : OcmFormL< 0x11, 0x46, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmovge $RCOND,$L,$RDEST">; //CMOVE if RCOND >= zero
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def CMOVGT : OcmForm< 0x11, 0x66, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmovgt $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND > zero
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def CMOVGTi : OcmFormL< 0x11, 0x66, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmovgt $RCOND,$L,$RDEST">; //CMOVE if RCOND > zero
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def CMOVLBC : OcmForm< 0x11, 0x16, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmovlbc $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND low bit clear
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def CMOVLBCi : OcmFormL< 0x11, 0x16, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmovlbc $RCOND,$L,$RDEST">; //CMOVE if RCOND low bit clear
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def CMOVLBS : OcmForm< 0x11, 0x14, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmovlbs $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND low bit set
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def CMOVLBSi : OcmFormL< 0x11, 0x14, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmovlbs $RCOND,$L,$RDEST">; //CMOVE if RCOND low bit set
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def CMOVLE : OcmForm< 0x11, 0x64, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmovle $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND <= zero
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def CMOVLEi : OcmFormL< 0x11, 0x64, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmovle $RCOND,$L,$RDEST">; //CMOVE if RCOND <= zero
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def CMOVLT : OcmForm< 0x11, 0x44, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmovlt $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND < zero
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def CMOVLTi : OcmFormL< 0x11, 0x44, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmovlt $RCOND,$L,$RDEST">; //CMOVE if RCOND < zero
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def CMOVNE : OcmForm< 0x11, 0x26, (ops GPRC:$RDEST, GPRC:$RSRC2, GPRC:$RSRC, GPRC:$RCOND),
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"cmovne $RCOND,$RSRC,$RDEST">; //CMOVE if RCOND != zero
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def CMOVNEi : OcmFormL< 0x11, 0x26, (ops GPRC:$RDEST, GPRC:$RSRC2, u8imm:$L, GPRC:$RCOND),
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"cmovne $RCOND,$L,$RDEST">; //CMOVE if RCOND != zero
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//conditional moves, fp
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def FCMOVEQ : FPFormCM<0x17, 0x02A, (ops FPRC:$RDEST, FPRC:$RSRC2, FPRC:$RSRC, FPRC:$RCOND),
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"fcmoveq $RCOND,$RSRC,$RDEST">; //FCMOVE if = zero
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def FCMOVGE : FPFormCM<0x17, 0x02D, (ops FPRC:$RDEST, FPRC:$RSRC2, FPRC:$RSRC, FPRC:$RCOND),
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"fcmovge $RCOND,$RSRC,$RDEST">; //FCMOVE if >= zero
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def FCMOVGT : FPFormCM<0x17, 0x02F, (ops FPRC:$RDEST, FPRC:$RSRC2, FPRC:$RSRC, FPRC:$RCOND),
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"fcmovgt $RCOND,$RSRC,$RDEST">; //FCMOVE if > zero
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def FCMOVLE : FPFormCM<0x17, 0x02E, (ops FPRC:$RDEST, FPRC:$RSRC2, FPRC:$RSRC, FPRC:$RCOND),
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"fcmovle $RCOND,$RSRC,$RDEST">; //FCMOVE if <= zero
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def FCMOVLT : FPFormCM<0x17, 0x02, (ops FPRC:$RDEST, FPRC:$RSRC2, FPRC:$RSRC, FPRC:$RCOND),
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"fcmovlt $RCOND,$RSRC,$RDEST">; // FCMOVE if < zero
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def FCMOVNE : FPFormCM<0x17, 0x02B, (ops FPRC:$RDEST, FPRC:$RSRC2, FPRC:$RSRC, FPRC:$RCOND),
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"fcmovne $RCOND,$RSRC,$RDEST">; //FCMOVE if != zero
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}
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def ADDL : OForm< 0x10, 0x00, "addl $RA,$RB,$RC">; //Add longword
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def ADDLi : OFormL<0x10, 0x00, "addl $RA,$L,$RC">; //Add longword
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def ADDQ : OForm< 0x10, 0x20, "addq $RA,$RB,$RC">; //Add quadword
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def ADDQi : OFormL<0x10, 0x20, "addq $RA,$L,$RC">; //Add quadword
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def AMASK : OForm< 0x11, 0x61, "AMASK $RA,$RB,$RC">; //Architecture mask
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def AMASKi : OFormL<0x11, 0x61, "AMASK $RA,$L,$RC">; //Architecture mask
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def AND : OForm< 0x11, 0x00, "and $RA,$RB,$RC">; //Logical product
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def ANDi : OFormL<0x11, 0x00, "and $RA,$L,$RC">; //Logical product
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def BIC : OForm< 0x11, 0x08, "bic $RA,$RB,$RC">; //Bit clear
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def BICi : OFormL<0x11, 0x08, "bic $RA,$L,$RC">; //Bit clear
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def BIS : OForm< 0x11, 0x20, "bis $RA,$RB,$RC">; //Logical sum
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def BISi : OFormL<0x11, 0x20, "bis $RA,$L,$RC">; //Logical sum
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def CTLZ : OForm< 0x1C, 0x32, "CTLZ $RB,$RC">; //Count leading zero
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def CTPOP : OForm< 0x1C, 0x30, "CTPOP $RB,$RC">; //Count population
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def CTTZ : OForm< 0x1C, 0x33, "CTTZ $RB,$RC">; //Count trailing zero
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def EQV : OForm< 0x11, 0x48, "eqv $RA,$RB,$RC">; //Logical equivalence
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def EQVi : OFormL<0x11, 0x48, "eqv $RA,$L,$RC">; //Logical equivalence
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def EXTBL : OForm< 0x12, 0x06, "EXTBL $RA,$RB,$RC">; //Extract byte low
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def EXTBLi : OFormL<0x12, 0x06, "EXTBL $RA,$L,$RC">; //Extract byte low
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def EXTLH : OForm< 0x12, 0x6A, "EXTLH $RA,$RB,$RC">; //Extract longword high
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def EXTLHi : OFormL<0x12, 0x6A, "EXTLH $RA,$L,$RC">; //Extract longword high
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def EXTLL : OForm< 0x12, 0x26, "EXTLL $RA,$RB,$RC">; //Extract longword low
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def EXTLLi : OFormL<0x12, 0x26, "EXTLL $RA,$L,$RC">; //Extract longword low
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def EXTQH : OForm< 0x12, 0x7A, "EXTQH $RA,$RB,$RC">; //Extract quadword high
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def EXTQHi : OFormL<0x12, 0x7A, "EXTQH $RA,$L,$RC">; //Extract quadword high
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def EXTQ : OForm< 0x12, 0x36, "EXTQ $RA,$RB,$RC">; //Extract quadword low
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def EXTQi : OFormL<0x12, 0x36, "EXTQ $RA,$L,$RC">; //Extract quadword low
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def EXTWH : OForm< 0x12, 0x5A, "EXTWH $RA,$RB,$RC">; //Extract word high
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def EXTWHi : OFormL<0x12, 0x5A, "EXTWH $RA,$L,$RC">; //Extract word high
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def EXTWL : OForm< 0x12, 0x16, "EXTWL $RA,$RB,$RC">; //Extract word low
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def EXTWLi : OFormL<0x12, 0x16, "EXTWL $RA,$L,$RC">; //Extract word low
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def IMPLVER : OForm< 0x11, 0x6C, "IMPLVER $RA,$RB,$RC">; //Implementation version
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def IMPLVERi : OFormL<0x11, 0x6C, "IMPLVER $RA,$L,$RC">; //Implementation version
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def INSBL : OForm< 0x12, 0x0B, "INSBL $RA,$RB,$RC">; //Insert byte low
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def INSBLi : OFormL<0x12, 0x0B, "INSBL $RA,$L,$RC">; //Insert byte low
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def INSLH : OForm< 0x12, 0x67, "INSLH $RA,$RB,$RC">; //Insert longword high
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def INSLHi : OFormL<0x12, 0x67, "INSLH $RA,$L,$RC">; //Insert longword high
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def INSLL : OForm< 0x12, 0x2B, "INSLL $RA,$RB,$RC">; //Insert longword low
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def INSLLi : OFormL<0x12, 0x2B, "INSLL $RA,$L,$RC">; //Insert longword low
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def INSQH : OForm< 0x12, 0x77, "INSQH $RA,$RB,$RC">; //Insert quadword high
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def INSQHi : OFormL<0x12, 0x77, "INSQH $RA,$L,$RC">; //Insert quadword high
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def INSQL : OForm< 0x12, 0x3B, "INSQL $RA,$RB,$RC">; //Insert quadword low
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def INSQLi : OFormL<0x12, 0x3B, "INSQL $RA,$L,$RC">; //Insert quadword low
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def INSWH : OForm< 0x12, 0x57, "INSWH $RA,$RB,$RC">; //Insert word high
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def INSWHi : OFormL<0x12, 0x57, "INSWH $RA,$L,$RC">; //Insert word high
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def INSWL : OForm< 0x12, 0x1B, "INSWL $RA,$RB,$RC">; //Insert word low
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def INSWLi : OFormL<0x12, 0x1B, "INSWL $RA,$L,$RC">; //Insert word low
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def MSKBL : OForm< 0x12, 0x02, "MSKBL $RA,$RB,$RC">; //Mask byte low
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def MSKBLi : OFormL<0x12, 0x02, "MSKBL $RA,$L,$RC">; //Mask byte low
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def MSKLH : OForm< 0x12, 0x62, "MSKLH $RA,$RB,$RC">; //Mask longword high
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def MSKLHi : OFormL<0x12, 0x62, "MSKLH $RA,$L,$RC">; //Mask longword high
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def MSKLL : OForm< 0x12, 0x22, "MSKLL $RA,$RB,$RC">; //Mask longword low
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def MSKLLi : OFormL<0x12, 0x22, "MSKLL $RA,$L,$RC">; //Mask longword low
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def MSKQH : OForm< 0x12, 0x72, "MSKQH $RA,$RB,$RC">; //Mask quadword high
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def MSKQHi : OFormL<0x12, 0x72, "MSKQH $RA,$L,$RC">; //Mask quadword high
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def MSKQL : OForm< 0x12, 0x32, "MSKQL $RA,$RB,$RC">; //Mask quadword low
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def MSKQLi : OFormL<0x12, 0x32, "MSKQL $RA,$L,$RC">; //Mask quadword low
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def MSKWH : OForm< 0x12, 0x52, "MSKWH $RA,$RB,$RC">; //Mask word high
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def MSKWHi : OFormL<0x12, 0x52, "MSKWH $RA,$L,$RC">; //Mask word high
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def MSKWL : OForm< 0x12, 0x12, "MSKWL $RA,$RB,$RC">; //Mask word low
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def MSKWLi : OFormL<0x12, 0x12, "MSKWL $RA,$L,$RC">; //Mask word low
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def MULL : OForm< 0x13, 0x00, "mull $RA,$RB,$RC">; //Multiply longword
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def MULLi : OFormL<0x13, 0x00, "mull $RA,$L,$RC">; //Multiply longword
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def MULQ : OForm< 0x13, 0x20, "mulq $RA,$RB,$RC">; //Multiply quadword
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def MULQi : OFormL<0x13, 0x20, "mulq $RA,$L,$RC">; //Multiply quadword
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def ORNOT : OForm< 0x11, 0x28, "ornot $RA,$RB,$RC">; //Logical sum with complement
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def ORNOTi : OFormL<0x11, 0x28, "ornot $RA,$L,$RC">; //Logical sum with complement
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def S4ADDL : OForm< 0x10, 0x02, "s4addl $RA,$RB,$RC">; //Scaled add longword by 4
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def S4ADDLi : OFormL<0x10, 0x02, "s4addl $RA,$L,$RC">; //Scaled add longword by 4
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def S4ADDQ : OForm< 0x10, 0x22, "s4addq $RA,$RB,$RC">; //Scaled add quadword by 4
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def S4ADDQi : OFormL<0x10, 0x22, "s4addq $RA,$L,$RC">; //Scaled add quadword by 4
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def S4SUBL : OForm< 0x10, 0x0B, "s4subl $RA,$RB,$RC">; //Scaled subtract longword by 4
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def S4SUBLi : OFormL<0x10, 0x0B, "s4subl $RA,$L,$RC">; //Scaled subtract longword by 4
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def S4SUBQ : OForm< 0x10, 0x2B, "s4subq $RA,$RB,$RC">; //Scaled subtract quadword by 4
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def S4SUBQi : OFormL<0x10, 0x2B, "s4subq $RA,$L,$RC">; //Scaled subtract quadword by 4
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def S8ADDL : OForm< 0x10, 0x12, "s8addl $RA,$RB,$RC">; //Scaled add longword by 8
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def S8ADDLi : OFormL<0x10, 0x12, "s8addl $RA,$L,$RC">; //Scaled add longword by 8
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def S8ADDQ : OForm< 0x10, 0x32, "s8addq $RA,$RB,$RC">; //Scaled add quadword by 8
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def S8ADDQi : OFormL<0x10, 0x32, "s8addq $RA,$L,$RC">; //Scaled add quadword by 8
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def S8SUBL : OForm< 0x10, 0x1B, "s8subl $RA,$RB,$RC">; //Scaled subtract longword by 8
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def S8SUBLi : OFormL<0x10, 0x1B, "s8subl $RA,$L,$RC">; //Scaled subtract longword by 8
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def S8SUBQ : OForm< 0x10, 0x3B, "s8subq $RA,$RB,$RC">; //Scaled subtract quadword by 8
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def S8SUBQi : OFormL<0x10, 0x3B, "s8subq $RA,$L,$RC">; //Scaled subtract quadword by 8
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def SEXTB : OForm< 0x1C, 0x00, "sextb $RB,$RC">; //Sign extend byte
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def SEXTW : OForm< 0x1C, 0x01, "sextw $RB,$RC">; //Sign extend word
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def SL : OForm< 0x12, 0x39, "sll $RA,$RB,$RC">; //Shift left logical
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def SLi : OFormL<0x12, 0x39, "sll $RA,$L,$RC">; //Shift left logical
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def SRA : OForm< 0x12, 0x3C, "sra $RA,$RB,$RC">; //Shift right arithmetic
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def SRAi : OFormL<0x12, 0x3C, "sra $RA,$L,$RC">; //Shift right arithmetic
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def SRL : OForm< 0x12, 0x34, "srl $RA,$RB,$RC">; //Shift right logical
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def SRLi : OFormL<0x12, 0x34, "srl $RA,$L,$RC">; //Shift right logical
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def SUBL : OForm< 0x10, 0x09, "subl $RA,$RB,$RC">; //Subtract longword
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def SUBLi : OFormL<0x10, 0x09, "subl $RA,$L,$RC">; //Subtract longword
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def SUBQ : OForm< 0x10, 0x29, "subq $RA,$RB,$RC">; //Subtract quadword
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def SUBQi : OFormL<0x10, 0x29, "subq $RA,$L,$RC">; //Subtract quadword
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def UMULH : OForm< 0x13, 0x30, "umulh $RA,$RB,$RC">; //Unsigned multiply quadword high
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def UMULHi : OFormL<0x13, 0x30, "umulh $RA,$L,$RC">; //Unsigned multiply quadword high
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def XOR : OForm< 0x11, 0x40, "xor $RA,$RB,$RC">; //Logical difference
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def XORi : OFormL<0x11, 0x40, "xor $RA,$L,$RC">; //Logical difference
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def ZAP : OForm< 0x12, 0x30, "zap $RA,$RB,$RC">; //Zero bytes
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def ZAPi : OFormL<0x12, 0x30, "zap $RA,$L,$RC">; //Zero bytes
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def ZAPNOT : OForm< 0x12, 0x31, "zapnot $RA,$RB,$RC">; //Zero bytes not
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def ZAPNOTi : OFormL<0x12, 0x31, "zapnot $RA,$L,$RC">; //Zero bytes not
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//Comparison, int
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def CMPBGE : OForm< 0x10, 0x0F, "cmpbge $RA,$RB,$RC">; //Compare byte
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def CMPBGEi : OFormL<0x10, 0x0F, "cmpbge $RA,$L,$RC">; //Compare byte
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def CMPEQ : OForm< 0x10, 0x2D, "cmpeq $RA,$RB,$RC">; //Compare signed quadword equal
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def CMPEQi : OFormL<0x10, 0x2D, "cmpeq $RA,$L,$RC">; //Compare signed quadword equal
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def CMPLE : OForm< 0x10, 0x6D, "cmple $RA,$RB,$RC">; //Compare signed quadword less than or equal
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def CMPLEi : OFormL<0x10, 0x6D, "cmple $RA,$L,$RC">; //Compare signed quadword less than or equal
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def CMPLT : OForm< 0x10, 0x4D, "cmplt $RA,$RB,$RC">; //Compare signed quadword less than
|
||
def CMPLTi : OFormL<0x10, 0x4D, "cmplt $RA,$L,$RC">; //Compare signed quadword less than
|
||
def CMPULE : OForm< 0x10, 0x3D, "cmpule $RA,$RB,$RC">; //Compare unsigned quadword less than or equal
|
||
def CMPULEi : OFormL<0x10, 0x3D, "cmpule $RA,$L,$RC">; //Compare unsigned quadword less than or equal
|
||
def CMPULT : OForm< 0x10, 0x1D, "cmpult $RA,$RB,$RC">; //Compare unsigned quadword less than
|
||
def CMPULTi : OFormL<0x10, 0x1D, "cmpult $RA,$L,$RC">; //Compare unsigned quadword less than
|
||
|
||
//Comparison, FP
|
||
def CMPTEQ : FPForm<0x16, 0x0A5, "cmpteq/su $RA,$RB,$RC">; //Compare T_floating equal
|
||
def CMPTLE : FPForm<0x16, 0x0A7, "cmptle/su $RA,$RB,$RC">; //Compare T_floating less than or equal
|
||
def CMPTLT : FPForm<0x16, 0x0A6, "cmptlt/su $RA,$RB,$RC">; //Compare T_floating less than
|
||
def CMPTUN : FPForm<0x16, 0x0A4, "cmptun/su $RA,$RB,$RC">; //Compare T_floating unordered
|
||
|
||
//There are in the Multimedia extentions, so let's not use them yet
|
||
def MAXSB8 : OForm<0x1C, 0x3E, "MAXSB8 $RA,$RB,$RC">; //Vector signed byte maximum
|
||
def MAXSW4 : OForm< 0x1C, 0x3F, "MAXSW4 $RA,$RB,$RC">; //Vector signed word maximum
|
||
def MAXUB8 : OForm<0x1C, 0x3C, "MAXUB8 $RA,$RB,$RC">; //Vector unsigned byte maximum
|
||
def MAXUW4 : OForm< 0x1C, 0x3D, "MAXUW4 $RA,$RB,$RC">; //Vector unsigned word maximum
|
||
def MINSB8 : OForm< 0x1C, 0x38, "MINSB8 $RA,$RB,$RC">; //Vector signed byte minimum
|
||
def MINSW4 : OForm< 0x1C, 0x39, "MINSW4 $RA,$RB,$RC">; //Vector signed word minimum
|
||
def MINUB8 : OForm< 0x1C, 0x3A, "MINUB8 $RA,$RB,$RC">; //Vector unsigned byte minimum
|
||
def MINUW4 : OForm< 0x1C, 0x3B, "MINUW4 $RA,$RB,$RC">; //Vector unsigned word minimum
|
||
def PERR : OForm< 0x1C, 0x31, "PERR $RA,$RB,$RC">; //Pixel error
|
||
def PKLB : OForm< 0x1C, 0x37, "PKLB $RA,$RB,$RC">; //Pack longwords to bytes
|
||
def PKWB : OForm<0x1C, 0x36, "PKWB $RA,$RB,$RC">; //Pack words to bytes
|
||
def UNPKBL : OForm< 0x1C, 0x35, "UNPKBL $RA,$RB,$RC">; //Unpack bytes to longwords
|
||
def UNPKBW : OForm< 0x1C, 0x34, "UNPKBW $RA,$RB,$RC">; //Unpack bytes to words
|
||
|
||
//End operate
|
||
|
||
let isReturn = 1, isTerminator = 1 in
|
||
def RET : MbrForm< 0x1A, 0x02, (ops GPRC:$RD, GPRC:$RS, s64imm:$DISP), "ret $RD,($RS),$DISP">; //Return from subroutine
|
||
|
||
def JMP : MbrForm< 0x1A, 0x00, (ops GPRC:$RD, GPRC:$RS, GPRC:$DISP), "jmp $RD,($RS),$DISP">; //Jump
|
||
let isCall = 1,
|
||
Defs = [R0, R1, R2, R3, R4, R5, R6, R7, R8, R16, R17, R18, R19,
|
||
R20, R21, R22, R23, R24, R25, R27, R28, R29,
|
||
F0, F1,
|
||
F10, F11, F12, F13, F14, F15, F16, F17, F18, F19,
|
||
F20, F21, F22, F23, F24, F25, F26, F27, F28, F29, F30], Uses = [R29] in {
|
||
def JSR : MbrForm< 0x1A, 0x01, (ops GPRC:$RD, GPRC:$RS, s14imm:$DISP), "jsr $RD,($RS),$DISP">; //Jump to subroutine
|
||
def BSR : BForm<0x34, "bsr $RA,$DISP">; //Branch to subroutine
|
||
}
|
||
let isCall = 1, Defs = [R24, R25, R27, R28], Uses = [R24, R25] in
|
||
def JSRs : MbrForm< 0x1A, 0x01, (ops GPRC:$RD, GPRC:$RS, s14imm:$DISP), "jsr $RD,($RS),$DISP">; //Jump to div or rem
|
||
|
||
def JSR_COROUTINE : MbrForm< 0x1A, 0x03, (ops GPRC:$RD, GPRC:$RS, s14imm:$DISP), "jsr_coroutine $RD,($RS),$DISP">; //Jump to subroutine return
|
||
def BR : BForm<0x30, "br $RA,$DISP">; //Branch
|
||
|
||
//Stores, int
|
||
def STB : MForm<0x0E, "stb $RA,$DISP($RB)">; // Store byte
|
||
def STW : MForm<0x0D, "stw $RA,$DISP($RB)">; // Store word
|
||
def STL : MForm<0x2C, "stl $RA,$DISP($RB)">; // Store longword
|
||
def STQ : MForm<0x2D, "stq $RA,$DISP($RB)">; //Store quadword
|
||
|
||
//Loads, int
|
||
def LDL : MForm<0x28, "ldl $RA,$DISP($RB)">; // Load sign-extended longword
|
||
def LDQ : MForm<0x29, "ldq $RA,$DISP($RB)">; //Load quadword
|
||
def LDBU : MForm<0x0A, "ldbu $RA,$DISP($RB)">; //Load zero-extended byte
|
||
def LDWU : MForm<0x0C, "ldwu $RA,$DISP($RB)">; //Load zero-extended word
|
||
|
||
//Stores, float
|
||
def STS : MForm<0x26, "sts $RA,$DISP($RB)">; //Store S_floating
|
||
def STT : MForm<0x27, "stt $RA,$DISP($RB)">; //Store T_floating
|
||
|
||
//Loads, float
|
||
def LDS : MForm<0x22, "lds $RA,$DISP($RB)">; //Load S_floating
|
||
def LDT : MForm<0x23, "ldt $RA,$DISP($RB)">; //Load T_floating
|
||
|
||
//Load address
|
||
def LDA : MForm<0x08, "lda $RA,$DISP($RB)">; //Load address
|
||
def LDAH : MForm<0x09, "ldah $RA,$DISP($RB)">; //Load address high
|
||
|
||
|
||
//Loads, int, Rellocated Low form
|
||
def LDLr : MForm<0x28, "ldl $RA,$DISP($RB)\t\t!gprellow">; // Load sign-extended longword
|
||
def LDQr : MForm<0x29, "ldq $RA,$DISP($RB)\t\t!gprellow">; //Load quadword
|
||
def LDBUr : MForm<0x0A, "ldbu $RA,$DISP($RB)\t\t!gprellow">; //Load zero-extended byte
|
||
def LDWUr : MForm<0x0C, "ldwu $RA,$DISP($RB)\t\t!gprellow">; //Load zero-extended word
|
||
|
||
//Loads, float, Rellocated Low form
|
||
def LDSr : MForm<0x22, "lds $RA,$DISP($RB)\t\t!gprellow">; //Load S_floating
|
||
def LDTr : MForm<0x23, "ldt $RA,$DISP($RB)\t\t!gprellow">; //Load T_floating
|
||
|
||
//Load address, rellocated low and high form
|
||
def LDAr : MForm<0x08, "lda $RA,$DISP($RB)\t\t!gprellow">; //Load address
|
||
def LDAHr : MForm<0x09, "ldah $RA,$DISP($RB)\t\t!gprelhigh">; //Load address high
|
||
|
||
//load address, rellocated gpdist form
|
||
def LDAg : MgForm<0x08, "lda $RA,0($RB)\t\t!gpdisp!$NUM">; //Load address
|
||
def LDAHg : MgForm<0x09, "ldah $RA,0($RB)\t\t!gpdisp!$NUM">; //Load address
|
||
|
||
|
||
//Load quad, rellocated literal form
|
||
def LDQl : MForm<0x29, "ldq $RA,$DISP($RB)\t\t!literal">; //Load quadword
|
||
|
||
//Stores, int
|
||
def STBr : MForm<0x0E, "stb $RA,$DISP($RB)\t\t!gprellow">; // Store byte
|
||
def STWr : MForm<0x0D, "stw $RA,$DISP($RB)\t\t!gprellow">; // Store word
|
||
def STLr : MForm<0x2C, "stl $RA,$DISP($RB)\t\t!gprellow">; // Store longword
|
||
def STQr : MForm<0x2D, "stq $RA,$DISP($RB)\t\t!gprellow">; //Store quadword
|
||
|
||
//Stores, float
|
||
def STSr : MForm<0x26, "sts $RA,$DISP($RB)\t\t!gprellow">; //Store S_floating
|
||
def STTr : MForm<0x27, "stt $RA,$DISP($RB)\t\t!gprellow">; //Store T_floating
|
||
|
||
|
||
//Branches, int
|
||
def BEQ : BForm<0x39, "beq $RA,$DISP">; //Branch if = zero
|
||
def BGE : BForm<0x3E, "bge $RA,$DISP">; //Branch if >= zero
|
||
def BGT : BForm<0x3F, "bgt $RA,$DISP">; //Branch if > zero
|
||
def BLBC : BForm<0x38, "blbc $RA,$DISP">; //Branch if low bit clear
|
||
def BLBS : BForm<0x3C, "blbs $RA,$DISP">; //Branch if low bit set
|
||
def BLE : BForm<0x3B, "ble $RA,$DISP">; //Branch if <= zero
|
||
def BLT : BForm<0x3A, "blt $RA,$DISP">; //Branch if < zero
|
||
def BNE : BForm<0x3D, "bne $RA,$DISP">; //Branch if != zero
|
||
|
||
//Branches, float
|
||
def FBEQ : FBForm<0x31, "fbeq $RA,$DISP">; //Floating branch if = zero
|
||
def FBGE : FBForm<0x36, "fbge $RA,$DISP">; //Floating branch if >= zero
|
||
def FBGT : FBForm<0x37, "fbgt $RA,$DISP">; //Floating branch if > zero
|
||
def FBLE : FBForm<0x33, "fble $RA,$DISP">; //Floating branch if <= zero
|
||
def FBLT : FBForm<0x32, "fblt $RA,$DISP">; //Floating branch if < zero
|
||
def FBNE : FBForm<0x35, "fbne $RA,$DISP">; //Floating branch if != zero
|
||
|
||
//Funky Floating point ops
|
||
def CPYS : FPForm<0x17, 0x020, "cpys $RA,$RB,$RC">; //Copy sign
|
||
def CPYSE : FPForm<0x17, 0x022, "cpyse $RA,$RB,$RC">; //Copy sign and exponent
|
||
def CPYSN : FPForm<0x17, 0x021, "cpysn $RA,$RB,$RC">; //Copy sign negate
|
||
|
||
//Basic Floating point ops
|
||
def ADDS : FPForm<0x16, 0x580, "adds/su $RA,$RB,$RC">; //Add S_floating
|
||
def ADDT : FPForm<0x16, 0x5A0, "addt/su $RA,$RB,$RC">; //Add T_floating
|
||
def SUBS : FPForm<0x16, 0x581, "subs/su $RA,$RB,$RC">; //Subtract S_floating
|
||
def SUBT : FPForm<0x16, 0x5A1, "subt/su $RA,$RB,$RC">; //Subtract T_floating
|
||
def DIVS : FPForm<0x16, 0x583, "divs/su $RA,$RB,$RC">; //Divide S_floating
|
||
def DIVT : FPForm<0x16, 0x5A3, "divt/su $RA,$RB,$RC">; //Divide T_floating
|
||
def MULS : FPForm<0x16, 0x582, "muls/su $RA,$RB,$RC">; //Multiply S_floating
|
||
def MULT : FPForm<0x16, 0x5A2, "mult/su $RA,$RB,$RC">; //Multiply T_floating
|
||
def SQRTS : FPForm<0x14, 0x58B, "sqrts/su $RA,$RB,$RC">; //Square root S_floating
|
||
def SQRTT : FPForm<0x14, 0x5AB, "sqrtt/su $RA,$RB,$RC">; //Square root T_floating
|
||
|
||
//INT reg to FP reg and back again
|
||
//not supported on 21164
|
||
def FTOIS : FPForm<0x1C, 0x078, "ftois $RA,$RC">; //Floating to integer move, S_floating
|
||
def FTOIT : FPForm<0x1C, 0x070, "ftoit $RA,$RC">; //Floating to integer move, T_floating
|
||
def ITOFS : FPForm<0x14, 0x004, "itofs $RA,$RC">; //Integer to floating move, S_floating
|
||
def ITOFT : FPForm<0x14, 0x024, "itoft $RA,$RC">; //Integer to floating move, T_floating
|
||
|
||
//CVTLQ F-P 17.010 Convert longword to quadword
|
||
//CVTQL F-P 17.030 Convert quadword to longword
|
||
//These use SW completion, may not have function code for that set right (matters for JIT)
|
||
def CVTQS : FPForm<0x16, 0x0BC, "cvtqs $RB,$RC">; //Convert quadword to S_floating
|
||
def CVTQT : FPForm<0x16, 0x0BE, "cvtqt $RB,$RC">; //Convert quadword to T_floating
|
||
def CVTST : FPForm<0x16, 0x2AC, "cvtsts $RB,$RC">; //Convert S_floating to T_floating
|
||
def CVTTQ : FPForm<0x16, 0x52F, "cvttq/svc $RB,$RC">; //Convert T_floating to quadword
|
||
def CVTTS : FPForm<0x16, 0x5AC, "cvtts/su $RB,$RC">; //Convert T_floating to S_floating
|
||
|
||
//S_floating : IEEE Single
|
||
//T_floating : IEEE Double
|
||
|
||
//Mnemonic Format Opcode Description
|
||
|
||
//CALL_PAL Pcd 00 Trap to PALcode
|
||
//ECB Mfc 18.E800 Evict cache block
|
||
//EXCB Mfc 18.0400 Exception barrier
|
||
//FETCH Mfc 18.8000 Prefetch data
|
||
//FETCH_M Mfc 18.A000 Prefetch data, modify intent
|
||
|
||
//LDL_L Mem 2A Load sign-extended longword locked
|
||
//LDQ_L Mem 2B Load quadword locked
|
||
//LDQ_U Mem 0B Load unaligned quadword
|
||
//MB Mfc 18.4000 Memory barrier
|
||
//RC Mfc 18.E000 Read and clear
|
||
//RPCC Mfc 18.C000 Read process cycle counter
|
||
//RS Mfc 18.F000 Read and set
|
||
|
||
//STL_C Mem 2E Store longword conditional
|
||
//STQ_C Mem 2F Store quadword conditional
|
||
//STQ_U Mem 0F Store unaligned quadword
|
||
|
||
//TRAPB Mfc 18.0000 Trap barrier
|
||
//WH64 Mfc 18.F800 Write hint 64 bytes
|
||
//WMB Mfc 18.4400 Write memory barrier
|
||
|
||
|
||
//MF_FPCR F-P 17.025 Move from FPCR
|
||
//MT_FPCR F-P 17.024 Move to FPCR
|