Artifact f3ec03b8827e91ce189dcd2f6e28e7e3b742d433591eaf8d6721b07ffd2449f8:
- File
psl-1983/3-1/comp/lap-to-asm.red
— part of check-in
[eb17ceb7f6]
at
2020-04-21 19:40:01
on branch master
— Add Reduce 3.0 to the historical section of the archive, and some more
files relating to version sof PSL from the early 1980s. Thanks are due to
Paul McJones and Nelson Beebe for these, as well as to all the original
authors.git-svn-id: https://svn.code.sf.net/p/reduce-algebra/code/historical@5328 2bfe0521-f11c-4a00-b80e-6202646ff360 (user: arthurcnorman@users.sourceforge.net, size: 33275) [annotate] [blame] [check-ins using] [more...]
% % LAP-TO-ASM.RED - LAP to assembler translator % % Author: Eric Benson % Symbolic Computation Group % Computer Science Dept. % University of Utah % Date: 13 August 1981 % Copyright (c) 1981 University of Utah % % 01-Mar-83 Nancy Kendzierski % Changed EVIN to PathIn in ASMOUT to enable search paths to be % used when doing system builds connected to a directory other % than pxx:, where xx=machine (hp, 20, vax, etc.) % Only set InputSymFile!*, OutputSymFile!*, GlobalDataFileName!*, % and InitFileNameFormat!* if they aren't already initialized. % Changed SEMIC!* declaration from global to fluid. % <PSL.COMP>LAP-TO-ASM.RED.5, 30-Apr-82 14:47:52, Edit by BENSON % Removed EVAL and IGNORE processing Imports '(PathIn); fluid '(Semic!* !*Comp !*PLap DfPrint!* CharactersPerWord AddressingUnitsPerItem AddressingUnitsPerFunctionCell InputSymFile!* OutputSymFile!* CodeOut!* DataOut!* InitOut!*; CodeFileNameFormat!* DataFileNameFormat!* InitFileNameFormat!* ModuleName!* UncompiledExpressions!* NextIDNumber!* OrderedIDList!* NilNumber!* !*MainFound !*MAIN !*DeclareBeforeUse MainEntryPointName!* EntryPoints!* LocalLabels!* CodeExternals!* CodeExporteds!* DataExternals!* DataExporteds!* ExternalDeclarationFormat!* ExportedDeclarationFormat!* LabelFormat!* FullWordFormat!* DoubleFloatFormat!* ReserveDataBlockFormat!* ReserveZeroBlockFormat!* UndefinedFunctionCellInstructions!* DefinedFunctionCellFormat!* PrintExpressionForm!* PrintExpressionFormPointer!* CommentFormat!* NumericRegisterNames!* ExpressionCount!* ASMOpenParen!* ASMCloseParen!* ToBeCompiledExpressions!* GlobalDataFileName!* ); % Default values; set up if not already initialized. if null InputSymFile!* then InputSymFile!* := "psl.sym"; if null OutputSymFile!* then OutputSymFile!* := "psl.sym"; if null GlobalDataFileName!* then GlobalDataFileName!* := "global-data.red"; if null InitFileNameFormat!* then InitFileNameFormat!* := "%w.init"; lisp procedure DfPrintASM U; %. Called by TOP-loop, DFPRINT!* begin scalar Nam, Ty, Fn; if atom U then return NIL; Fn := car U; IF FN = 'PUTD THEN GOTO DB2; IF NOT (FN MEMQ '(DE DF DM DN)) THEN GOTO DB1; NAM:=CADR U; U:='LAMBDA . CDDR U; TY:=CDR ASSOC(FN, '((DE . EXPR) (DF . FEXPR) (DM . MACRO) (DN . NEXPR))); DB3: if Ty = 'MACRO then begin scalar !*Comp; PutD(Nam, Ty, U); % Macros get defined now end; if FlagP(Nam, 'Lose) then << ErrorPrintF("*** %r has not been defined, because it is flagged LOSE", Nam); return NIL >>; IF FLAGP(TY,'COMPILE) THEN << PUT(NAM,'CFNTYPE,LIST TY); U := LIST('!*ENTRY,NAM,TY,LENGTH CADR U) . !&COMPROC(U, NAM); if !*PLAP then for each X in U do Print X; if TY neq 'EXPR then DfPrintASM list('put, MkQuote Nam, '(quote TYPE), MkQuote TY); ASMOUTLAP U >> ELSE % should never happen SaveUncompiledExpression LIST('PUTD, MKQUOTE NAM, MKQUOTE TY, MKQUOTE U); RETURN NIL; DB1: % Simple S-EXPRESSION, maybe EVAL it; IF NOT PAIRP U THEN RETURN NIL; if (Fn := get(car U, 'ASMPreEval)) then return Apply(Fn, list U) else if (Fn := GetD car U) and car Fn = 'MACRO then return DFPRINTASM Apply(cdr Fn, list U); SaveUncompiledExpression U; RETURN NIL; DB2: NAM:=CADR U; TY:=CADDR U; FN:=CADDDR U; IF EQCAR(NAM,'QUOTE) THEN << NAM:=CADR NAM; IF EQCAR(TY,'QUOTE) THEN << TY:=CADR TY; IF PAIRP FN AND CAR FN MEMBER '(FUNCTION QUOTE) THEN << FN:=CADR FN; IF TY MEMQ '(EXPR FEXPR MACRO NEXPR) THEN << U:=FN; GOTO DB3 >> >> >> >>; GOTO DB1; END; lisp procedure ASMPreEvalLoadTime U; DFPrintASM cadr U; % remove LOADTIME put('LoadTime, 'ASMPreEval, 'ASMPreEvalLoadTime); lisp procedure ASMPreEvalStartupTime U; SaveForCompilation cadr U; put('StartupTime, 'ASMPreEval, 'ASMPreEvalStartupTime); lisp procedure ASMPreEvalProgN U; for each X in cdr U do DFPrintASM X; put('ProgN, 'ASMPreEval, 'ASMPreEvalProgN); put('WDeclare, 'ASMPreEval, 'Eval); % do it now lisp procedure ASMPreEvalSetQ U; begin scalar X, Val; X := cadr U; Val := caddr U; return if ConstantP Val or Val = T then << FindIDNumber X; put(X, 'InitialValue, Val); NIL >> else if null Val then << FindIDNumber X; RemProp(X, 'InitialValue); Flag(list X, 'NilInitialValue); NIL >> else if EqCar(Val, 'QUOTE) then << FindIDNumber X; Val := cadr Val; if null Val then << RemProp(X, 'InitialValue); Flag(list X, 'NilInitialValue) >> else put(X, 'InitialValue, Val); NIL >> else if IDP Val and get(Val, 'InitialValue) or FlagP(Val, 'NilInitialValue) then << if (Val := get(Val, 'InitialValue)) then put(X, 'InitialValue, Val) else Flag(list X, 'NilInitialValue) >> else SaveUncompiledExpression U; % just check simple cases, else return end; put('SetQ, 'ASMPreEval, 'ASMPreEvalSetQ); lisp procedure ASMPreEvalPutD U; SaveUncompiledExpression CheckForEasySharedEntryPoints U; lisp procedure CheckForEasySharedEntryPoints U; % % looking for (PUTD (QUOTE name1) xxxx (CDR (GETD (QUOTE name2)))) % begin scalar NU, Nam, Exp; NU := cdr U; Nam := car NU; if car Nam = 'QUOTE then Nam := cadr Nam else return U; NU := cdr NU; Exp := cadr NU; if not (car Exp = 'CDR) then return U; Exp := cadr Exp; if not (car Exp = 'GETD) then return U; Exp := cadr Exp; if not (car Exp = 'QUOTE) then return U; Exp := cadr Exp; FindIDNumber Nam; put(Nam, 'EntryPoint, FindEntryPoint Exp); if not (car NU = '(QUOTE EXPR)) then return list('Put, '(Quote Type), car NU); return NIL; end; put('PutD, 'ASMPreEval, 'ASMPreEvalPutD); lisp procedure ASMPreEvalFluidAndGlobal U; << if EqCar(cadr U, 'QUOTE) then Flag(cadr cadr U, 'NilInitialValue); SaveUncompiledExpression U >>; put('Fluid, 'ASMPreEval, 'ASMPreEvalFluidAndGlobal); put('Global, 'ASMPreEval, 'ASMPreEvalFluidAndGlobal); CommentOutCode << fluid '(NewFluids!* NewGlobals!*); lisp procedure ASMPreEvalFluidAndGlobal U; begin scalar L; L := cadr U; return if car L = 'QUOTE then << L := cadr L; if car U = 'FLUID then NewFluids!* := UnionQ(NewFluids!*, L) % take union else NewGlobals!* := UnionQ(NewGlobals!*, L); Flag(L, 'NilInitialValue); NIL >> else SaveUncompiledExpression U; end; put('Fluid, 'ASMPreEval, 'ASMPreEvalFluidAndGlobal); put('Global, 'ASMPreEval, 'ASMPreEvalFluidAndGlobal); >>; lisp procedure ASMPreEvalLAP U; if EqCar(cadr U, 'QUOTE) then ASMOutLap cadr cadr U else SaveUncompiledExpression U; put('LAP, 'ASMPreEval, 'ASMPreEvalLAP); CommentOutCode << lisp procedure InitialPut(Nam, Ind, Val); begin scalar L, P; FindIDNumber Nam; if (P := Atsoc(Ind, L := get(Nam, 'InitialPropertyList))) then Rplacd(P, Val) else put(Nam, 'InitialPropertyList, (Ind . Val) . L); end; lisp procedure InitialRemprop(Nam, Ind); begin scalar L; if (L := get(Nam, 'InitialPropertyList)) then put(Nam, 'InitialPropertyList, DelAtQIP(Ind, L)); end; lisp procedure InitialFlag1(Nam, Ind); begin scalar L, P; FindIDNumber Nam; if not Ind memq (L := get(Nam, 'InitialPropertyList)) then put(Nam, 'InitialPropertyList, Ind . L); end; lisp procedure InitialRemFlag1(Nam, Ind); begin scalar L; if (L := get(Nam, 'InitialPropertyList)) then put(Nam, 'InitialPropertyList, DelQIP(Ind, L)); end; lisp procedure ASMPreEvalPut U; begin scalar Nam, Ind, Val; Nam := second U; Ind := third U; Val := fourth U; if EqCar(Nam, 'QUOTE) and EqCar(Ind, 'QUOTE) and (ConstantP Val or Val = T or EqCar(Val, 'QUOTE)) then InitialPut(second Nam, second Ind, if EqCar(Val, 'QUOTE) then second Val else Val) else SaveUncompiledExpression U; end; put('put, 'ASMPreEval, 'ASMPreEvalPut); lisp procedure ASMPreEvalRemProp U; begin scalar Nam, Ind; Nam := second U; Ind := third U; if EqCar(Nam, 'QUOTE) and EqCar(Ind, 'QUOTE) then InitialRemProp(second Nam, second Ind) else SaveUncompiledExpression U; end; put('RemProp, 'ASMPreEval, 'ASMPreEvalRemProp); lisp procedure ASMPreEvalDefList U; begin scalar DList, Ind; DList := second U; Ind := third U; if EqCar(DList, 'QUOTE) and EqCar(Ind, 'QUOTE) then << DList := second DList; Ind := second Ind; for each X in Dlist do InitialPut(first X, Ind, second X) >> else SaveUncompiledExpression U; end; put('DefList, 'ASMPreEval, 'ASMPreEvalDefList); lisp procedure ASMPreEvalFlag U; begin scalar NameList, Ind; NameList := second U; Ind := third U; if EqCar(NameList, 'QUOTE) and EqCar(Ind, 'QUOTE) then << Ind := second Ind; for each X in second NameList do InitialFlag1(X, Ind) >> else SaveUncompiledExpression U; end; put('flag, 'ASMPreEval, 'ASMPreEvalFlag); lisp procedure ASMPreEvalRemFlag U; begin scalar NameList, Ind; NameList := second U; Ind := third U; if EqCar(NameList, 'QUOTE) and EqCar(Ind, 'QUOTE) then << Ind := second Ind; for each X in second NameList do InitialRemFlag1(X, Ind) >> else SaveUncompiledExpression U; end; put('RemFlag, 'ASMPreEval, 'ASMPreEvalRemFlag); lisp procedure ASMPreEvalGlobal U; begin scalar NameList; NameList := second U; if EqCar(NameList, 'QUOTE) then for each X in second NameList do InitialPut(X, 'TYPE, 'Global) else SaveUncompiledExpression U; end; put('Global, 'ASMPreEval, 'ASMPreEvalGlobal); lisp procedure ASMPreEvalFluid U; begin scalar NameList; NameList := second U; if EqCar(NameList, 'QUOTE) then for each X in second NameList do InitialPut(X, 'TYPE, 'FLUID) else SaveUncompiledExpression U; end; put('Fluid, 'ASMPreEval, 'ASMPreEvalFluid); lisp procedure ASMPreEvalUnFluid U; begin scalar NameList; NameList := second U; if EqCar(NameList, 'QUOTE) then for each X in second NameList do InitialRemProp(X, 'TYPE) else SaveUncompiledExpression U; end; put('UnFluid, 'ASMPreEval, 'ASMPreEvalUnFluid); >>; lisp procedure SaveUncompiledExpression U; if PairP U then begin scalar OldOut; OldOut := WRS InitOut!*; Print U; WRS OldOut; end; ToBeCompiledExpressions!* := NIL . NIL; lisp procedure SaveForCompilation U; if atom U or U member car ToBeCompiledExpressions!* then NIL else if car U = 'progn then for each X in cdr U do SaveForCompilation X else TConc(ToBeCompiledExpressions!*, U); SYMBOLIC PROCEDURE ASMOUT FIL; begin scalar OldOut; ModuleName!* := FIL; Prin2T "ASMOUT: IN files; or type in expressions"; Prin2T "When all done execute ASMEND;"; CodeOut!* := Open(BldMsg(CodeFileNameFormat!*, ModuleName!*), 'OUTPUT); OldOut := WRS CodeOut!*; LineLength 1000; WRS OldOut; CodeFileHeader(); DataOut!* := Open(BldMsg(DataFileNameFormat!*, ModuleName!*), 'OUTPUT); OldOut := WRS DataOut!*; LineLength 1000; WRS OldOut; DataFileHeader(); InitOut!* := Open(BldMsg(InitFileNameFormat!*, ModuleName!*), 'OUTPUT); ReadSYMFile(); DFPRINT!* := 'DFPRINTASM; RemD 'OldLap; PutD('OldLap, 'EXPR, cdr RemD 'Lap); PutD('Lap, 'EXPR, cdr GetD 'ASMOutLap); !*DEFN := T; SEMIC!* := '!$ ; % to turn echo off for IN if not ((ModuleName!* = "main") or !*Main) then PathIn GlobalDataFileName!* else !*Main := T; end; lisp procedure ASMEnd; << off SysLisp; if !*MainFound then << CompileUncompiledExpressions(); % WriteInitFile(); InitializeSymbolTable() >> else WriteSymFile(); CodeFileTrailer(); Close CodeOut!*; DataFileTrailer(); Close DataOut!*; Close InitOut!*; RemD 'Lap; PutD('Lap, 'EXPR, cdr GetD 'OldLap); DFPRINT!* := NIL; !*DEFN := NIL >>; FLAG('(ASMEND), 'IGNORE); DEFINEROP('ASMEND,NIL,ESTAT('ASMEND)); lisp procedure CompileUncompiledExpressions(); << CommentOutCode << AddFluidAndGlobalDecls(); >>; DFPRINTASM list('DE, 'INITCODE, '(), 'PROGN . car ToBeCompiledExpressions!*) >>; CommentOutCode << lisp procedure AddFluidAndGlobalDecls(); << SaveUncompiledExpression list('GLOBAL, MkQuote NewGlobals!*); SaveUncompiledExpression list('FLUID, MkQuote NewFluids!*) >>; >>; lisp procedure ReadSymFile(); LapIN InputSymFile!*; lisp procedure WriteSymFile(); begin scalar NewOut, OldOut; OldOut := WRS(NewOut := Open(OutputSymFile!*, 'OUTPUT)); print list('SaveForCompilation, MkQuote('progn . car ToBeCompiledExpressions!*)); SaveIDList(); SetqPrint 'NextIDNumber!*; SetqPrint 'StringGenSym!*; MapObl function PutPrintEntryAndSym; WRS OldOut; Close NewOut; end; CommentOutCode << lisp procedure WriteInitFile(); begin scalar OldOut, NewOut; NewOut := Open(InitFileName!*, 'OUTPUT); OldOut := WRS NewOut; for each X in car UncompiledExpressions!* do PrintInit X; Close NewOut; WRS OldOut; end; lisp procedure PrintInit X; if EqCar(X, 'progn) then for each Y in cdr X do PrintInit Y else Print X; >>; lisp procedure SaveIDList(); << Print list('setq, 'OrderedIDList!*, MkQuote car OrderedIDList!*); Print quote(OrderedIDList!* := OrderedIDList!* . LastPair OrderedIDList!*) >>; lisp procedure SetqPrint U; print list('SETQ, U, MkQuote Eval U); lisp procedure PutPrint(X, Y, Z); print list('PUT, MkQuote X, MkQuote Y, MkQuote Z); lisp procedure PutPrintEntryAndSym X; begin scalar Y; if (Y := get(X, 'EntryPoint)) then PutPrint(X, 'EntryPoint, Y); if (Y := get(X, 'IDNumber)) then PutPrint(X, 'IDNumber, Y); CommentOutCode << if (Y := get(X, 'InitialPropertyList)) then PutPrint(X, 'InitialPropertyList, Y); >>; if (Y := get(X, 'InitialValue)) then PutPrint(X, 'InitialValue, Y) else if FlagP(X, 'NilInitialValue) then print list('flag, MkQuote list X, '(quote NilInitialValue)); if get(X, 'SCOPE) = 'EXTERNAL then << PutPrint(X, 'SCOPE, 'EXTERNAL); PutPrint(X, 'ASMSymbol, get(X, 'ASMSymbol)); if get(X, 'WVar) then PutPrint(X, 'WVar, X) else if get(X, 'WArray) then PutPrint(X, 'WArray, X) else if get(X, 'WString) then PutPrint(X, 'WString, X) else if (Y := get(X, 'WConst)) then PutPrint(X, 'WConst, Y) >>; end; lisp procedure FindIDNumber U; begin scalar I; return if (I := ID2Int U) <= 128 then I else if (I := get(U, 'IDNumber)) then I else << put(U, 'IDNumber, I := NextIDNumber!*); OrderedIDList!* := TConc(OrderedIDList!*, U); NextIDNumber!* := NextIDNumber!* + 1; I >>; end; OrderedIDList!* := NIL . NIL; NextIDNumber!* := 129; lisp procedure InitializeSymbolTable(); begin scalar MaxSymbol; MaxSymbol := get('MaxSymbols, 'WConst); if MaxSymbol < NextIDNumber!* then << ErrorPrintF("*** MaxSymbols %r is too small; at least %r is needed", MaxSymbol, NextIDNumber!*); MaxSymbol := NextIDNumber!* + 100 >>; Flag('(NIL), 'NilInitialValue); put('T, 'InitialValue, 'T); put('!$EOF!$, 'InitialValue, Int2ID get('EOF, 'CharConst)); put('!$EOL!$, 'InitialValue, '! ); NilNumber!* := CompileConstant NIL; DataAlignFullWord(); %/ This is a BUG? M.L. G. %/ for I := NextIDNumber!* step 1 until MaxSymbol do %/ DataPrintFullWord NilNumber!*; InitializeSymVal(); DataReserveBlock((MaxSymbol - NextIDNumber!*) + 1); InitializeSymPrp(); DataReserveBlock((MaxSymbol - NextIDNumber!*) + 1); %/ This is a BUG? M.L. G. %/ for I := NextIDNumber!* step 1 until MaxSymbol do %/ DataPrintFullWord NilNumber!*; InitializeSymNam MaxSymbol; InitializeSymFnc(); DataReserveFunctionCellBlock((MaxSymbol - NextIDNumber!*) + 1); DataAlignFullWord(); DataPrintGlobalLabel FindGlobalLabel 'NextSymbol; DataPrintFullWord NextIDNumber!*; end; lisp procedure InitializeSymPrp(); << CommentOutCode << InitializeHeap(); >>; % init prop lists DataPrintGlobalLabel FindGlobalLabel 'SymPrp; for I := 0 step 1 until 128 do InitSymPrp1 Int2ID I; for each X in car OrderedIDList!* do InitSymPrp1 X >>; lisp procedure InitSymPrp1 X; << CommentOutCode << DataPrintFullWord(if (X := get(X, 'InitialPropertyList)) then X else NilNumber!*); >>; DataPrintFullWord NilNumber!* >>; CommentOutCode << lisp procedure InitializeHeap(); begin scalar L; DataPrintGlobalLabel FindGlobalLabel 'Heap; for I := 0 step 1 until 128 do PrintPropertyList Int2ID I; for each X in car OrderedIDList!* do PrintPropertyList X; L := get('HeapSize, 'WConst); end; >>; lisp procedure InitializeSymNam MaxSymbol; << DataPrintGlobalLabel FindGlobalLabel 'SymNam; for I := 0 step 1 until 128 do DataPrintFullWord CompileConstant ID2String Int2ID I; for each IDName in car OrderedIDList!* do DataPrintFullWord CompileConstant ID2String IDName; MaxSymbol := MaxSymbol - 1; for I := NextIDNumber!* step 1 until MaxSymbol do DataPrintFullWord(I + 1); DataPrintFullWord 0 >>; lisp procedure InitializeSymVal(); << DataPrintGlobalLabel FindGlobalLabel 'SymVal; for I := 0 step 1 until 128 do InitSymVal1 Int2ID I; for each X in car OrderedIDList!* do InitSymVal1 X >>; lisp procedure InitSymVal1 X; begin scalar Val; return DataPrintFullWord(if (Val := get(X, 'InitialValue)) then CompileConstant Val else if FlagP(X, 'NilInitialValue) then NilNumber!* else list('MkItem, get('Unbound, 'WConst), FindIDNumber X)); end; lisp procedure InitializeSymFnc(); << DataPrintGlobalLabel FindGlobalLabel 'SymFnc; for I := 0 step 1 until 128 do InitSymFnc1 Int2ID I; for each X in car OrderedIDList!* do InitSymFnc1 X >>; lisp procedure InitSymFnc1 X; begin scalar EP; EP := get(X, 'EntryPoint); if null EP then DataPrintUndefinedFunctionCell() else DataPrintDefinedFunctionCell EP; end; lisp procedure ASMOutLap U; begin scalar LocalLabels!*, OldOut; U := Pass1Lap U; % Expand cmacros, quoted expressions CodeBlockHeader(); OldOut := WRS CodeOut!*; for each X in U do ASMOutLap1 X; WRS OldOut; CodeBlockTrailer(); end; lisp procedure ASMOutLap1 X; begin scalar Fn; return if StringP X then PrintLabel X else if atom X then PrintLabel FindLocalLabel X else if (Fn := get(car X, 'ASMPseudoOp)) then Apply(Fn, list X) else % instruction output form is: % "space" <opcode> [ "space" <operand> { "comma" <operand> } ] "newline" << Prin2 '! ; % Space PrintOpcode car X; X := cdr X; if not null X then << Prin2 '! ; % SPACE PrintOperand car X; for each U in cdr X do << Prin2 '!,; % COMMA PrintOperand U >> >>; Prin2 !$EOL!$ >>; % NEWLINE end; put('!*Entry, 'ASMPseudoOp, 'ASMPrintEntry); lisp procedure ASMPrintEntry X; begin scalar Y; PrintComment X; X := cadr X; Y := FindEntryPoint X; if not FlagP(X, 'InternalFunction) then FindIDNumber X; if X eq MainEntryPointName!* then << !*MainFound := T; SpecialActionForMainEntryPoint() >> else CodeDeclareExportedUse Y; end; Procedure CodeDeclareExportedUse Y; if !*DeclareBeforeUse then << CodeDeclareExported Y; PrintLabel Y >> else << PrintLabel Y; CodeDeclareExported Y >>; lisp procedure FindEntryPoint X; begin scalar E; return if (E := get(X, 'EntryPoint)) then E else if ASMSymbolP X and not get(X, 'ASMSymbol) then << put(X, 'EntryPoint, X); X >> else << E := StringGenSym(); put(X, 'EntryPoint, E); E >>; end; lisp procedure ASMPseudoPrintFloat X; PrintF(DoubleFloatFormat!*, cadr X); put('Float, 'ASMPseudoOp, 'ASMPseudoPrintFloat); lisp procedure ASMPseudoPrintFullWord X; for each Y in cdr X do PrintFullWord Y; put('FullWord, 'ASMPseudoOp, 'ASMPseudoPrintFullWord); lisp procedure ASMPseudoPrintByte X; PrintByteList cdr X; put('Byte, 'ASMPseudoOp, 'ASMPseudoPrintByte); lisp procedure ASMPseudoPrintHalfWord X; PrintHalfWordList cdr X; put('HalfWord, 'ASMPseudoOp, 'ASMPseudoPrintHalfWord); lisp procedure ASMPseudoPrintString X; PrintString cadr X; put('String, 'ASMPseudoOp, 'ASMPseudoPrintString); lisp procedure PrintOperand X; if StringP X then Prin2 X else if NumberP X then PrintNumericOperand X else if IDP X then Prin2 FindLabel X else begin scalar Hd, Fn; Hd := car X; if (Fn := get(Hd, 'OperandPrintFunction)) then Apply(Fn, list X) else if (Fn := GetD Hd) and car Fn = 'MACRO then PrintOperand Apply(cdr Fn, list X) else if (Fn := WConstEvaluable X) then PrintOperand Fn else PrintExpression X; end; put('REG, 'OperandPrintFunction, 'PrintRegister); lisp procedure PrintRegister X; begin scalar Nam; X := cadr X; if StringP X then Prin2 X else if NumberP X then Prin2 GetV(NumericRegisterNames!*, X) else if Nam := RegisterNameP X then Prin2 Nam else << ErrorPrintF("***** Unknown register %r", X); Prin2 X >>; end; lisp procedure RegisterNameP X; get(X, 'RegisterName); lisp procedure ASMEntry X; PrintExpression list('plus2, 'SymFnc, list('times2, AddressingUnitsPerFunctionCell, list('IDLoc, cadr X))); put('Entry, 'OperandPrintFunction, 'ASMEntry); lisp procedure ASMInternalEntry X; Prin2 FindEntryPoint cadr X; put('InternalEntry, 'OperandPrintFunction, 'ASMInternalEntry); put('InternalEntry, 'ASMExpressionFunction, 'ASMInternalEntry); macro procedure ExtraReg U; list('plus2, '(WArray ArgumentBlock), (cadr U - (LastActualReg!& + 1)) * AddressingUnitsPerItem); lisp procedure ASMSyslispVarsPrint X; Prin2 FindGlobalLabel cadr X; DefList('((WVar ASMSyslispVarsPrint) (WArray ASMSyslispVarsPrint) (WString ASMSyslispVarsPrint)), 'OperandPrintFunction); DefList('((WVar ASMSyslispVarsPrint) (WArray ASMSyslispVarsPrint) (WString ASMSyslispVarsPrint)), 'ASMExpressionFunction); lisp procedure ASMPrintValueCell X; PrintExpression list('plus2, 'SymVal, list('times, AddressingUnitsPerItem, list('IDLoc, cadr X))); DefList('((fluid ASMPrintValueCell) (!$fluid ASMPrintValueCell) (global ASMPrintValueCell) (!$global ASMPrintValueCell)), 'OperandPrintFunction); % Redefinition of WDeclare for output to assembler file % if either UpperBound or Initializer are NIL, they are considered to be % unspecified. fexpr procedure WDeclare U; for each X in cddr U do WDeclare1(car X, car U, cadr U, cadr X, caddr X); flag('(WDeclare), 'IGNORE); lisp procedure WDeclare1(Name, Scope, Typ, UpperBound, Initializer); if Typ = 'WCONST then if Scope = 'EXTERNAL and not get(Name, 'WCONST) then ErrorPrintF("*** A value has not been defined for WConst %r", Name) else << put(Name, 'SCOPE, if Scope = 'EXPORTED then 'EXTERNAL else Scope); put(Name, 'WCONST, WConstReform Initializer) >> else << put(Name, Typ, Name); if Scope = 'EXTERNAL then << put(Name, 'SCOPE, 'EXTERNAL); if not RegisterNameP Name then % kludge to avoid declaring << Name := LookupOrAddASMSymbol Name; DataDeclareExternal Name; % registers as variables CodeDeclareExternal Name >> >> else << put(Name, 'SCOPE, if Scope = 'EXPORTED then 'EXTERNAL else Scope); Name := LookupOrAddASMSymbol Name; if !*DeclareBeforeUse then DataDeclareExported Name; DataInit(Name, Typ, UpperBound, Initializer); if not !*DeclareBeforeUse then DataDeclareExported Name; CodeDeclareExternal Name >> >>; lisp procedure DataInit(ASMSymbol, Typ, UpperBound, Initializer); << DataAlignFullWord(); if Typ = 'WVAR then << if UpperBound then ErrorPrintF "*** An UpperBound may not be specified for a WVar"; Initializer := if Initializer then WConstReform Initializer else 0; DataPrintVar(ASMSymbol, Initializer) >> else << if UpperBound and Initializer then ErrorPrintF "*** Can't have both UpperBound and initializer" else if not (UpperBound or Initializer) then ErrorPrintF "*** Must have either UpperBound or initializer" else if UpperBound then DataPrintBlock(ASMSymbol, WConstReform UpperBound, Typ) else << Initializer := if StringP Initializer then Initializer else WConstReformLis Initializer; DataPrintList(ASMSymbol, Initializer, Typ) >> >> >>; lisp procedure WConstReform U; begin scalar X; return if FixP U or StringP U then U else if IDP U then if get(U, 'WARRAY) or get(U, 'WSTRING) then U else if get(U,'WVAR) then list('GETMEM,U) else if (X := get(U, 'WCONST)) then X else ErrorPrintF("*** Unknown symbol %r in WConstReform", U) else if PairP U then if (X := get(car U, 'WConstReformPseudo)) then Apply(X, list U) else if (X := get(car U, 'DOFN)) then X . WConstReformLis cdr U else if MacroP car U then WConstReform Apply(cdr GetD car U, list U) else car U . WConstReformLis cdr U else ErrorPrintF("*** Illegal expression %r in WConstReform", U); end; lisp procedure WConstReformIdent U; U; put('InternalEntry, 'WConstReformPseudo, 'WConstReformIdent); lisp procedure WConstReformQuote U; CompileConstant cadr U; put('QUOTE, 'WConstReformPseudo, 'WConstReformQuote); lisp procedure WConstReformLis U; for each X in U collect WConstReform X; lisp procedure WConstReformLoc U; %. To handle &Foo[23] << U := WConstReform cadr U; if car U neq 'GETMEM then ErrorPrintF("*** Illegal constant addressing expression %r", list('LOC, U)) else cadr U >>; put('LOC, 'WConstReformPseudo, 'WConstReformLoc); lisp procedure WConstReformIDLoc U; FindIDNumber cadr U; put('IDLoc, 'WConstReformPseudo, 'WConstReformIDLoc); lisp procedure LookupOrAddASMSymbol U; begin scalar X; if not (X := get(U, 'ASMSymbol)) then X := AddASMSymbol U; return X; end; lisp procedure AddASMSymbol U; begin scalar X; X := if ASMSymbolP U and not get(U, 'EntryPoint) then U else StringGensym(); put(U, 'ASMSymbol, X); return X; end; lisp procedure DataPrintVar(Name, Init); begin scalar OldOut; DataPrintLabel Name; OldOut := WRS DataOut!*; PrintFullWord Init; WRS OldOut; end; lisp procedure DataPrintBlock(Name, Siz, Typ); << if Typ = 'WSTRING then Siz := list('quotient, list('plus2, Siz, CharactersPerWord + 1), CharactersPerWord) else Siz := list('plus2, Siz, 1); DataReserveZeroBlock(Name, Siz) >>; lisp procedure DataPrintList(Nam, Init, Typ); begin scalar OldOut; DataPrintLabel Nam; OldOut := WRS DataOut!*; if Typ = 'WSTRING then if StringP Init then << PrintFullWord Size Init; PrintString Init >> else << PrintFullWord(Length Init - 1); PrintByteList Append(Init, '(0)) >> else if StringP Init then begin scalar S; S := Size Init; for I := 0 step 1 until S do PrintFullWord Indx(Init, I); end else for each X in Init do PrintFullWord X; WRS OldOut; end; lisp procedure DataPrintGlobalLabel X; << if !*DeclareBeforeUse then DataDeclareExported X; DataPrintLabel X; if not !*DeclareBeforeUse then DataDeclareExported X; CodeDeclareExternal X >>; lisp procedure DataDeclareExternal X; if not (X member DataExternals!* or X member DataExporteds!*) then << DataExternals!* := X . DataExternals!*; DataPrintF(ExternalDeclarationFormat!*, X, X) >>; lisp procedure CodeDeclareExternal X; if not (X member CodeExternals!* or X member CodeExporteds!*) then << CodeExternals!* := X . CodeExternals!*; CodePrintF(ExternalDeclarationFormat!*, X, X) >>; lisp procedure DataDeclareExported X; << if X member DataExternals!* or X member DataExporteds!* then ErrorPrintF("***** %r multiply defined", X); DataExporteds!* := X . DataExporteds!*; DataPrintF(ExportedDeclarationFormat!*, X, X) >>; lisp procedure CodeDeclareExported X; << if X member CodeExternals!* or X member CodeExporteds!* then ErrorPrintF("***** %r multiply defined", X); CodeExporteds!* := X . CodeExporteds!*; CodePrintF(ExportedDeclarationFormat!*, X, X) >>; lisp procedure PrintLabel X; PrintF(LabelFormat!*, X,X); lisp procedure DataPrintLabel X; DataPrintF(LabelFormat!*, X,X); lisp procedure CodePrintLabel X; CodePrintF(LabelFormat!*, X,X); lisp procedure PrintComment X; PrintF(CommentFormat!*, X); PrintExpressionForm!* := list('PrintExpression, MkQuote NIL); PrintExpressionFormPointer!* := cdadr PrintExpressionForm!*; % Save some consing % instead of list('PrintExpression, MkQuote X), reuse the same list structure lisp procedure PrintFullWord X; << RplacA(PrintExpressionFormPointer!*, X); PrintF(FullWordFormat!*, PrintExpressionForm!*) >>; lisp procedure DataPrintFullWord X; << RplacA(PrintExpressionFormPointer!*, X); DataPrintF(FullWordFormat!*, PrintExpressionForm!*) >>; lisp procedure CodePrintFullWord X; << RplacA(PrintExpressionFormPointer!*, X); CodePrintF(FullWordFormat!*, PrintExpressionForm!*) >>; lisp procedure DataReserveZeroBlock(Nam, X); << RplacA(PrintExpressionFormPointer!*, list('Times2, AddressingUnitsPerItem, X)); DataPrintF(ReserveZeroBlockFormat!*, Nam, PrintExpressionForm!*) >>; lisp procedure DataReserveBlock X; << RplacA(PrintExpressionFormPointer!*, list('Times2, AddressingUnitsPerItem, X)); DataPrintF(ReserveDataBlockFormat!*, PrintExpressionForm!*) >>; lisp procedure DataReserveFunctionCellBlock X; << RplacA(PrintExpressionFormPointer!*, list('Times2, AddressingUnitsPerFunctionCell, X)); DataPrintF(ReserveDataBlockFormat!*, PrintExpressionForm!*) >>; lisp procedure DataPrintUndefinedFunctionCell(); begin scalar OldOut; OldOut := WRS DataOut!*; for each X in UndefinedFunctionCellInstructions!* do ASMOutLap1 X; WRS OldOut; end; lisp procedure DataPrintDefinedFunctionCell X; <<DataDeclareExternal X; DataPrintF(DefinedFunctionCellFormat!*, X, X)>>; % in case it's needed twice lisp procedure DataPrintByteList X; begin scalar OldOut; OldOut := WRS DataOut!*; PrintByteList X; WRS OldOut; end; lisp procedure DataPrintExpression X; begin scalar OldOut; OldOut := WRS DataOut!*; PrintExpression X; WRS OldOut; end; lisp procedure CodePrintExpression X; begin scalar OldOut; OldOut := WRS CodeOut!*; PrintExpression X; WRS OldOut; end; ExpressionCount!* := -1; lisp procedure PrintExpression X; (lambda(ExpressionCount!*); begin scalar Hd, Tl, Fn; X := ResolveWConstExpression X; if NumberP X or StringP X then Prin2 X else if IDP X then Prin2 FindLabel X else if atom X then << ErrorPrintF("***** Oddity in expression %r", X); Prin2 X >> else << Hd := car X; Tl := cdr X; if (Fn := get(Hd, 'BinaryASMOp)) then << if ExpressionCount!* > 0 then Prin2 ASMOpenParen!*; PrintExpression car Tl; Prin2 Fn; PrintExpression cadr Tl; if ExpressionCount!* > 0 then Prin2 ASMCloseParen!* >> else if (Fn := get(Hd, 'UnaryASMOp)) then << Prin2 Fn; PrintExpression car Tl >> else if (Fn := get(Hd, 'ASMExpressionFormat)) then Apply('PrintF, Fn . for each Y in Tl collect list('PrintExpression, MkQuote Y)) else if (Fn := GetD Hd) and car Fn = 'MACRO then PrintExpression Apply(cdr Fn, list X) else if (Fn := get(Hd, 'ASMExpressionFunction)) then Apply(Fn, list X) else << ErrorPrintF("***** Unknown expression %r", X); PrintF("*** Expression error %r ***", X) >> >>; end)(ExpressionCount!* + 1); lisp procedure ASMPrintWConst U; PrintExpression cadr U; put('WConst, 'ASMExpressionFunction, 'ASMPrintWConst); DefList('((Plus2 !+) (WPlus2 !+) (Difference !-) (WDifference !-) (Times2 !*) (WTimes2 !*) (Quotient !/) (WQuotient !/)), 'BinaryASMOp); DefList('((Minus !-) (WMinus !-)), 'UnaryASMOp); lisp procedure CompileConstant X; << X := BuildConstant X; if null cdr X then car X else << If !*DeclareBeforeUse then CodeDeclareExported cadr X; ASMOutLap cdr X; DataDeclareExternal cadr X; If Not !*DeclareBeforeUse then CodeDeclareExported cadr X; car X >> >>; CommentOutCode << lisp procedure CompileHeapData X; begin scalar Y; X := BuildConstant X; return if null cdr X then car X else << Y := WRS DataOut!*; for each Z in cdr X do ASMOutLap1 Z; DataDeclareExported cadr X; WRS Y; car X >>; end; >>; lisp procedure DataPrintString X; begin scalar OldOut; OldOut := WRS DataOut!*; PrintString X; WRS OldOut; end; lisp procedure FindLabel X; begin scalar Y; return if (Y := Atsoc(X, LocalLabels!*)) then cdr Y else if (Y := get(X, 'ASMSymbol)) then Y else if (Y := get(X, 'WConst)) then Y else FindLocalLabel X; end; lisp procedure FindLocalLabel X; begin scalar Y; return if (Y := Atsoc(X, LocalLabels!*)) then cdr Y else << LocalLabels!* := (X . (Y := StringGensym())) . LocalLabels!*; Y >>; end; lisp procedure FindGlobalLabel X; get(X, 'ASMSymbol) or ErrorPrintF("***** Undefined symbol %r", X); lisp procedure CodePrintF(Fmt, A1, A2, A3, A4); begin scalar OldOut; OldOut := WRS CodeOut!*; PrintF(Fmt, A1, A2, A3, A4); WRS OldOut; end; lisp procedure DataPrintF(Fmt, A1, A2, A3, A4); begin scalar OldOut; OldOut := WRS DataOut!*; PrintF(Fmt, A1, A2, A3, A4); WRS OldOut; end; % Kludge of the year, just to avoid having IDLOC defined during compilation CompileTime fluid '(MACRO); MACRO := 'MACRO; PutD('IDLoc, MACRO, function lambda X; FindIDNumber cadr X); END;