Trailing-Edge
-
PDP-10 Archives
-
decuslib20-03
-
decus/20-0078/comp/simmac.mac
There are 3 other files named simmac.mac in the archive. Click here to see a list.
;<ENDERIN>SIMMAC.MAC.14, 12-Jan-77 17:30:18, Edit by ENDERIN
; UNIVERSAL SIMMAC MACRO LIBRARY
Comment ;
Authors: Stefan Arnborg
Olof Bjoerner
Claes Wihlborg
Purpose: This file contains definitions common
to the SIMULA system.
Version: 4A [03 10 06,04 07 00,12 20 11,13 00 12,14 22 12,14 22 15,
40,104,136,140,170,217,221,225,247,253,255,260,262,274,275,277,300,306,310]
Contents: 1. Assembly constants ......... 2
2. Macro library .............. 3
Stack macros ............... 3
Queue macros ............... 4
Conditional macros ......... 5
BEGIN, ENDD macros ......... 6
Miscellaneous macros ....... 6-1
Switch (flag) macros ....... 7
Subroutine linkage ......... 8
Record, field macros ....... 9
LF, SF, WLF, WSF, ZF, SETF 9
DF (Define Field) ......... 10
DR (Define Record) ........ 10
Record discrimination ..... 11
REServed WorDs macro ....... 12
SYStem IDentifiers (SYSID) . 13
SYMBOL macro ............... 14
SWAPPA(SS) macro ........... 17
Type codes, declaration fields 18
DF1 and PASS2 fields ....... 19
3. Global switch definitions .. 20
4. Register assignments ....... 25
5. Operator definitions ....... 26
6. Macros for defining versions 28
;
IF2,< PRINTX Update: 310 18-July-1978 12:40/LE
IFDEF .DIRECTIVE,<.DIRECTIVE .NOBIN>;[221]
>
SALL
SUBTTL Assembly constants
; **********************
; * Assembly constants *
; **********************
IFNDEF QSYS,<QSYS==1> ;QSYS == 1 Means version on SYS area
IFNDEF QDEC20,<QDEC20==1> ;[225] QDEC20 == 1 means TOPS-20 version
IFNDEF QDEBUG,<QDEBUG==0> ;QDEBUG == 1 means DEBUG, not production mode
IFNDEF QERIMP,<QERIMP==1> ;QERIMP == 1 means errors implemented
IFNDEF QSADEA,<QSADEA==1> ;SPECIAL DEALLOCATION ON BLOCK EXIT ETC
IFNDEF QSASTE,<QSASTE==1> ;QSASTE == 1 MEANS ALLOCATION IN STEPS
IFNDEF QTIMER,<QTIMER==0> ;QTIMER == 1 MEANS EXPAND TIMER MACRO
IFNDEF QTRACE,<QTRACE==0> ;QTRACE == 1 MEANS INCLUDE TRACE FACILITIES
IFE QSYS,<QSYSDEV==SIXBIT/DSK/>
IFN QSYS,<QSYSDEV==SIXBIT/SYS/>
DEFINE TOPS20<IFN QDEC20>;[247]
DEFINE TOPS10<IFE QDEC20>;[247]
;[247]
IFNDEF QKI10,<
IFNDEF .CPU.,<QKI10==<QKA10==<QKL10==0>>+1>
IFDEF .CPU.,<
QKA10==<QKI10==<QKL10==0>>
IFL <.CPU.-2>,<PRINTX *** Illegal CPU! ***>
IFE <.CPU.-2>,<QKA10==1>
IFG <.CPU.-2>,<QKI10==1>
IFG <.CPU.-3>,<QKL10==1>
>
>
DEFINE KL10<IFN QKL10>;[247]
DEFINE KI10<IFN QKI10>;[247]
DEFINE KA10<IFN QKA10>;[247]
; PROCESSOR CODE WORD IN NAME BLOCK IN REL FILE
; IN THIS INSTALLATION SIMULA = OCTAL 15 DETERMINED
; IN LINK-10 LNKPAR PROCESSORS MACRO
IFNDEF QSIMREL,<IFN QKI10,<QSIMREL==020015,,0>
IFN QKA10,<QSIMREL==010015,,0>
>
;[130012] External classes and procedures:
; Standard library name, system library device (may be changed to SIM later?)
QEXLIB==SIXBIT/LIBSIM/
QEXDEV==SIXBIT/SYS/
; SET INSTALLATION DEPENDENT PPN TO 0 IN SYS VERSION
; OR IF NOT DEFINED IN TEST VERSION (I.E. OWN AS DEFAULT)
IFNDEF QERPPN,< QERPPN==0> ;;SIMERR.ERR
IFNDEF QHEPPN,< QHEPPN==0> ;;HELP FILES SIMCOM AND SIMRTS
IFNDEF QP1PPN,< QP1PPN==0> ;;SIMULA (PASS1)
IFNDEF QP2PPN,< QP2PPN==0> ;;SIMP2 (PASS2)
IFNDEF QP3PPN,< QP3PPN==0> ;;SIMP3 (PASS3)
IFNDEF QRTPPN,< QRTPPN==0> ;;SIMRTS (RUN TIME SYSTEM)
IFNDEF QDEPPN,< QDEPPN==0> ;;SIMDDT (DEBUG SYSTEM)
; STANDARD CHANNEL NAMES
; THE CHANNEL NUMBER MUST NOT BE CHANGED WITHOUT CHANGING
; THE MACRO CALL DCHSW IN SIMMAC AND CONSTANT TABLE T3FINA IN MODULE T3(PASS 3)
QCHTTY==0
QCHSRC==1
QCHEXT==2
QCHLS1==3
QCHIC1==4
QCHDF1==5
QCHZSE==6
QCHREL==7
QCHATR==10
QCHXRF==11
QCHIC2==12
QCHLST==13
QCHDEB==14
QCHERR==15
QCHIC3==QCHREL
QCHLS3==QCHLST
QCHTRC==16
QCHCOM==17
; NON-PRINTABLE CHARACTERS:
QNUL==000 ;NULL
QEOT==004 ;END-OF-FILE SYMBOL
QHT==011 ;HORIZONTAL TAB
QLF==012 ;LINE FEED
QVT==013 ;VERTICAL TAB
QFF==014 ;FORM FEED
QCR==015 ;CARRIAGE RETURN
QALTMODE==033 ;ALTMODE
QDEL==177 ;DELETE
; BUFFER SIZES:
QBUFS==203 ;DISK BUFFER SIZE
QSTSIZ==1200 ;NO OF WORDS IN PUSH DOWN STACK
QSTLL==7 ;LENGTH OF YDPD-LEVEL
QZSELE==6000 ;INITIAL SIZE OF ZSE
QDC1LE==1000 ;INITIAL SIZE OF DC1
;IF QE3D OR QE3M IS CHANGED DO
; -RECOMPILE LOWSEG
; -RECOMPILE O3.MAC DEBUG VERSION
; -CHANGE VALUE OF QE3D AND QE3M AND LENGTH OF CORRESPONDING LIST IN SUTERR.CBL
QE3D==700 ;LENGTH OF YE3D
QE3M==700 ;LENGTH OF YE3M
QBEG==120 ;LENGTH OF PUSHDOWN STACK BEGIN NUMBER
QLDM==^D150 ;LENGTH OF ZDM
QMAXDIS=^D32 ;MAX DISPLAY SIZE ;[12 20 11]
; ACCUMULATORS FOR RTS
; THESE ARE ALLOCATED BY THE COMPILER
XWAC1==3
XWAC2==XWAC1+1
XWAC3==XWAC2+1
XWAC4==XWAC3+1
XWAC5==XWAC4+1
XWAC6==XWAC5+1
XWAC7==XWAC6+1
XWACL==14
IFL <XWAC7-XWACL>,<XWAC10==XWAC7+1>
IFL <XWAC10-XWACL>,<XWAC11==XWAC10+1>
; QNAC IS NUMBER OF ACCUMULATORS AND ALSO SIZE OF PSEUDOREGISTER STACK
QNAC==<XWACL-XWAC1+1>
QHASHM==13045647327
IFN QDEC20,<;[225]
DEFINE DIRST%<XEC DIRST.##>
DEFINE PPNST%<XEC PPNST.##>
DEFINE STPPN%<XEC STPPN.##>
>
SUBTTL STACK MACROS
; *****************
; * MACRO LIBRARY *
; *****************
; STACK HANDLING
; ==============
;
;
; Stack creation: GETSTACK a,h
; a=stackname, one letter
; h=halfword if given, otherwise full word
; This macro defines one stack, the operations on the stack
; and the assembly-time variables necessary
;
; Insertion in stack: aPUSH W or aPUSH LH,RH
;
; deletion from stack: aPOP W or aPOP LH,RH
; Arguments are optional
;
; Valuable assembly-time variables:
; aSSIZE (Number of elements in stack
; aTOP (Top element in stack
; aTOPL (Top left halfword in stack
; aTOPR (Top right halfword in stack
;
;
;
IF2,<
DEFINE GETSTACK (A,H)<
.XCREF
X=-1
IRPC A,<
X=X+1>
IFN X,<$$E(<Stack name a not one letter>)>
IFE X,<
IF1,< IFDEF A'SSIZE,<$$E(<Double decl. of stack a>)>>
A'SSIZE=0
IFB <H>,<A'TOP=0>
IFNB <H>,<A'TOPL=0
A'TOPR=0>
IFB <H>,<
DEFINE A'PUSH (D)<
IFE A'SSIZE -7777,<$$E(<Overflow in stack a>)>
A'SSIZE=A'SSIZE+1
$$C(A,\A'SSIZE,$)=A'TOP
A'TOP=D
>>
IFNB <H>,<
DEFINE A'PUSH (D,E)<
IFE A'SSIZE-7777,<$$E(<Overflow in stack a>)>
A'SSIZE=A'SSIZE+1
$$C(A,\A'SSIZE,$)=A'TOPL*1000000+A'TOPR
A'TOPL=D
A'TOPR=E
>>
IFB <H>,<
DEFINE A'POP(D)<
IFE A'SSIZE,<$$E(<Underflow in stack a>)>
IFG A'SSIZE,<
IFNB <D>,<D=A'TOP>
A'TOP=$$C(A,\A'SSIZE,$)
$$$P(A,\A'SSIZE,$)
A'SSIZE=A'SSIZE-1
>>>
IFNB <H>,<
DEFINE A'POP (D,E)<
IFE A'SSIZE,<$$E(<Underflow in stack a>)>
IFG A'SSIZE,<
IFNB <D>,<D=A'TOPL>
IFNB <E>,<E=A'TOPR>
A'TOPL=$$C(A,\A'SSIZE,$)/1000000
A'TOPR=$$C(A,\A'SSIZE,$)&777777
$$$P(A,\A'SSIZE,$)
A'SSIZE=A'SSIZE-1
>>>
>
.CREF
>
SUBTTL QUEUE MACROS
;
; QUEUE HANDLING
; ==============
;
;
; Queue creation: GETQUE a,h
; a=queuename, one letter
; h=halfword if given, otherwise full word
; This macro defines one queue, the operations on the queue
; and the assembly time variables necessary
;
; Insertion in queue: aINQ W or aINQ LH,RH
;
; Deletion from queue: aOUTQ W or aOUTQ LH,RH
; Arguments are optional
;
; Valuable assembly time variables:
; aQSIZE (Number of elements in queue
; aHEAD (First element in queue
; aHEADL (First left halfword in queue
; aHEADR (First right halfword in queue
;
;
;
DEFINE GETQUE (A,H)<
.XCREF
X=-1
IRPC A,<
X=X+1>
IFN X,<$$E(<Queue name a not one letter>)>
IF1,< IFDEF A'QSIZE,<$$E(<Double decl. of queue a>)>>
$$Q'A'H=0
$$Q'A'T=0
A'QSIZE=0
IFB <H>,<
DEFINE A'OUTQ(W)<
IFE A'QSIZE,<$$E(<Underflow in queue a>)>
IFNB <W>,<W=A'HEAD>
A'QSIZE=A'QSIZE-1
$$$P(A,\$$Q'A'H,%)
$$Q'A'H=<$$Q'A'H+1>&7777
IFN A'QSIZE,<A'HEAD=$$C(A,\$$Q'A'H,%)>
>
DEFINE A'INQ(W)<
IFE A'QSIZE-7777,<$$E(<Overflow in queue a>)>
$$C(A,\$$Q'A'T,%)=W
IFE A'QSIZE,<A'HEAD=W>
A'QSIZE=A'QSIZE+1
$$Q'A'T=<$$Q'A'T+1>&7777
>
>
IFNB <H>,<
DEFINE A'OUTQ(L,R)<
IFE A'QSIZE,<$$E(<Underflow in queue a>)>
IFNB <L>,<L=A'HEADL>
IFNB <R>,<R=A'HEADR>
A'QSIZE=A'QSIZE-1
$$$P(A,\$$Q'A'H,%)
$$Q'A'H=<$$Q'A'H+1>&7777
IFN A'QSIZE,<A'HEADL=$$C(A,\$$Q'A'H,%)/1000000
A'HEADR=$$C(A,\$$Q'A'H,%)&777777>
>
DEFINE A'INQ(L,R)<
IFE A'QSIZE-7777,<$$E(<Overflow in queue a>)>
$$C(A,\$$Q'A'T,%)=L*1000000+R
IFE A'QSIZE,<A'HEADL=L
A'HEADR=R>
A'QSIZE=A'QSIZE+1
$$Q'A'T=<$$Q'A'T+1>&7777
>
>
.CREF
>
SUBTTL COND MACROS
;
; CONDITIONAL STATEMENTS
; ======================
;
;
DEFINE IF<
.XCREF
$$C($$,\<$$BSP>)==$$BST
$$C($$,\<$$BSP+1>)==$$LT
$$C($$,\<$$BSP+2>)==$$LF
$$C($$,\<$$BSP+3>)==$$LE
$$BSP==$$BSP+4
$$BST==1
$$LT==$$L
$$LF==$$L+1
$$L==$$L+2
$$$IF
.CREF
>
DEFINE THEN<
.XCREF
IFN $$BST-1,<$$E(<Illegal then>)>
$$$THEN
$$C(L,\$$LT):$$BST==5
.CREF
>
DEFINE ELSE<
.XCREF
IFN $$BST-5,<$$E(<Illegal else>)>
$$LE==$$L
$$L==$$L+1
GOTO $$C(L,\$$LE)-$$RELO($$BAS)
$$C(L,\$$LF): $$BST==6
.CREF
>
DEFINE FI<
.XCREF
IFN<$$BST-5>*<$$BST-6>,<$$E(<Illegal fi>)>
IFE $$BST-5,<
$$C(L,\$$LF):>
IFE $$BST-6,<
$$C(L,\$$LE): $$$P2(L,\$$LE)>
$$$P2(L,\$$LT)
$$$P2(L,\$$LF)
$$BSP==$$BSP-4
$$BST==$$C($$,\<$$BSP>)
$$LT==$$C($$,\<$$BSP+1>)
$$LF==$$C($$,\<$$BSP+2>)
$$LE==$$C($$,\<$$BSP+3>)
.CREF
>
;
;
DEFINE WHILE<
.XCREF
$$C($$,\<$$BSP>)==$$BST
$$C($$,\<$$BSP+1>)==$$LT
$$C($$,\<$$BSP+2>)==$$LF
$$C($$,\<$$BSP+3>)==$$LE
$$BSP==$$BSP+4
$$BST==2
$$LT==$$L
$$LF==$$L+1
$$LE==$$L+2
$$L==$$L+3
$$C(L,\$$LE): $$$WHILE
.CREF
>
DEFINE DO<
.XCREF
IFN $$BST-2,<$$E(<Illegal do>)>
$$$DO
$$C(L,\$$LT): $$BST==7
.CREF
>
DEFINE OD<
.XCREF
IFN $$BST-7,<$$E(<Illegal od>)>
GOTO $$C(L,\$$LE)-$$RELO($$BAS)
$$C(L,\$$LF): $$BSP==$$BSP-4
$$$P2(L,\$$LT)
$$$P2(L,\$$LF)
$$$P2(L,\$$LE)
$$BST==$$C($$,\<$$BSP>)
$$LT==$$C($$,\<$$BSP+1>)
$$LF==$$C($$,\<$$BSP+2>)
$$LE==$$C($$,\<$$BSP+3>)
.CREF
>
;
;
DEFINE LOOP<
.XCREF
$$C($$,\<$$BSP>)==$$BST
$$C($$,\<$$BSP+1>)==$$LT
$$C($$,\<$$BSP+2>)==$$LF
$$BSP==$$BSP+3
$$LT==$$L
$$LF==$$L+1
$$L==$$L+2
$$C(L,\$$LT): $$BST==10
.CREF
>
DEFINE AS<
.XCREF
IFN $$BST-10,<$$E(<Illegal as>)>
$$BST==3
$$$AS
.CREF
>
DEFINE SA<
.XCREF
IFN $$BST-3,<$$E(<Illegal sa>)>
$$$SA
$$C(L,\$$LF): $$BSP==$$BSP-3
$$$P2(L,\$$LT)
$$$P2(L,\$$LF)
$$BST==$$C($$,\<$$BSP>)
$$LT==$$C($$,\<$$BSP+1>)
$$LF==$$C($$,\<$$BSP+2>)
.CREF
>
;
;
DEFINE GOIF<
.XCREF
$$C($$,\<$$BSP>)==$$BST
$$C($$,\<$$BSP+1>)==$$LT
$$C($$,\<$$BSP+2>)==$$LF
$$BSP==$$BSP+3
$$LT==$$L
$$LF==$$L+1
$$L==$$L+2
$$BST==4
$$$GOIF
.CREF
>
DEFINE TO(A)<
.XCREF
IFN $$BST-4,<$$E(<Illegal to>)>
$$$TO
$$C(L,\$$LT): $$BSP==$$BSP-3
GOTO A
$$C(L,\$$LF):
$$$P2(L,\$$LT)
$$$P2(L,\$$LF)
$$BST==$$C($$,\<$$BSP>)
$$LT==$$C($$,\<$$BSP+1>)
$$LF==$$C($$,\<$$BSP+2>)
.CREF
>
;
;
DEFINE TRUE<$$C(L,\$$LT)-$$RELO($$BAS)>
DEFINE FALSE<$$C(L,\$$LF)-$$RELO($$BAS)>
; EMPTY MACROS:
DEFINE $$$IF<>
DEFINE $$$THEN<>
DEFINE $$$WHILE<>
DEFINE $$$DO<>
DEFINE $$$AS<>
DEFINE $$$SA<>
DEFINE $$$GOIF<>
DEFINE $$$TO<>
; INITIATING MACRO:
DEFINE MACINIT=<
SEARCH UUOSYM;;[247]
IFN QDEC20,<SEARCH MONSYM>;;[225]
IF1,<ED$$MX==0>
DEFINE EDIT(n)<;;[255]
ED'n==n
IF1,<
IFG <n-ED$$MX>,<ED$$MX==n>
>>
IF2,<
DEFINE $$ped(n)<PRINTX Edit: n>
IFN ED$$MX,<$$ped(\ED$$MX)>
PURGE $$ped,ED$$MX
>
.XCREF
$$L==20
.CREF
>
SUBTTL BLOCK MACROS
; BEGIN - ENDD
; ============
DEFINE BEGIN<
.XCREF
$$C($$,\<$$BSP>)==$$BST
$$C($$,\<$$BSP+1>)==$$L1
$$C($$,\<$$BSP+2>)==$$L2
$$C($$,\<$$BSP+3>)==$$L3
$$C($$,\<$$BSP+4>)==$$L4
$$C($$,\<$$BSP+5>)==$$L5
$$C($$,\<$$BSP+6>)==$$L6
$$C($$,\<$$BSP+7>)==$$L7
$$C($$,\<$$BSP+10>)==$$L8
$$C($$,\<$$BSP+11>)==$$L9
$$C($$,\<$$BSP+12>)==$$L10
$$BST==11
$$BSP==$$BSP+13
$$L1==$$L+1
$$L2==$$L+2
$$L3==$$L+3
$$L4==$$L+4
$$L5==$$L+5
$$L6==$$L+6
$$L7==$$L+7
$$L8==$$L+10
$$L9==$$L+11
$$L10==$$L
$$L==$$L+12
.CREF
>
DEFINE ENDD<
.XCREF
IFN $$BST-11,<$$E(<Illegal endd>)>
$$BSP==$$BSP-13
$$$PD2(L,\$$L1)
$$$PD2(L,\$$L2)
$$$PD2(L,\$$L3)
$$$PD2(L,\$$L4)
$$$PD2(L,\$$L5)
$$$PD2(L,\$$L6)
$$$PD2(L,\$$L7)
$$$PD2(L,\$$L8)
$$$PD2(L,\$$L9)
$$$PD2(L,\$$L10)
$$BST==$$C($$,\$$BSP)
$$L1==$$C($$,\<$$BSP+1>)
$$L2==$$C($$,\<$$BSP+2>)
$$L3==$$C($$,\<$$BSP+3>)
$$L4==$$C($$,\<$$BSP+4>)
$$L5==$$C($$,\<$$BSP+5>)
$$L6==$$C($$,\<$$BSP+6>)
$$L7==$$C($$,\<$$BSP+7>)
$$L8==$$C($$,\<$$BSP+10>)
$$L9==$$C($$,\<$$BSP+11>)
$$L10==$$C($$,\<$$BSP+12>)
.CREF
>
;
;
;
; MISCELLANEOUS
; =============
;
;
DEFINE $$C(A,B,C)<A'B'C'>
;
;
DEFINE X(A)<IRP A,<
$$L'A==0
DEFINE L'A(B)<$$C(L,\$$L'A)>>>
X <1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19>
$$L==20
;
;
DEFINE $$E(A)<IF1,<PRINTX *** ERROR: A ***>>
;
;
DEFINE $$$P(A,B,C)<
PURGE A'B'C>
DEFINE $$$P2(A,B)<
IF2,<PURGE A'B>>
DEFINE $$$PD2(A,B)<
IFDEF A'B,<IF2,<PURGE A'B>>>
;
;
$$BST==0
$$BSP==0
$$LT==0
$$LF==0
$$LE==0
DEFINE $$RELO(A)<0> ;USED IN SIMDDT WHERE RELOCATABLE
;ADDRESSES CAN NOT BE USED
;$$RELO==MODULE START
$$BAS==0 ;$$BAS==BASE ACCUMULATOR
;
;
DEFINE RNAME(NEW,OLD)
<.K==0
IRP NEW <.K==.K+1>
RENAM1 <1,2,3,4,5,6,7,10,11,12,13,14,15,16,17>,<NEW>,<OLD>
>
DEFINE RENAM1(LOOP,NEW,OLD)
<IRP LOOP <IFE <LOOP-.K>,<STOPI>
.I==0
IRP OLD <.I==.I+1
IFE <.I-LOOP>,<STOPI
.C==OLD>
>
.I==0
IRP NEW <.I==.I+1
IFE <.I-LOOP>,<STOPI
NEW==.C>
>
>
PURGE OLD
>
DEFINE ZEROCHECK(L)=<
ASSERT<IRP L <
IFN <L>,<CFAIL ZEROCHECK FAILURE>
>
>
>
SUBTTL SWITCH MACROS
; SWITCH HANDLING MACROS
; ======================
COMMENT ;
DSW, SETON, SETOFF, IFON AND IFOFF
DEFINE MACROS FOR SETTING, RESETTING AND TESTING A SWITCH.
A SWITCH MAY BE EITHER A SINGLE BIT OR A WORD.
A SWITCH IS SAID TO BE ON IF IT IS ALL ONES AND OFF
IF IT IS ZERO.
DEFINE SWITCH MACRO:
ARGUMENTS: W WORD NAME
F BIT NAME
N BIT NUMBER (DECIMAL)
XB BASE REGISTER (OPTIONAL)
IF THE SWITCH IS A SINGLE BIT THEN
THE FOLLOWING IS DEFINED:
VF A BIT MASK
CF THE COMPLEMENT OF VF
;
DEFINE DSW (F,W,N,XB)=<
IFL <^D36-^D'N>,<$$E(<TOO BIG BIT NO>)>
IFE ^D36-^D'N,<
IFB <XB>,<DEFINE F(ACC)=<
IFE <%OP%-2>,<$$E(<ILL SWITCH NAME>)>
IFN <%OP%-2>,<
IFE <%OP%-3>,<%OP3 777777>
IFE <%OP%-4>,<%OP3>
IFL <%OP%-2>,<%OP4 W(ACC)>
%OP%==2>>>
IFNB <XB>,<DEFINE F=<
IFE <%OP%-2>,<$$E(<ILL SWITCH NAME>)>
IFN <%OP%-2>,<
IFE <%OP%-3>,<%OP3 XB,777777>
IFE <%OP%-4>,<%OP3 XB,>
IFL <%OP%-2>,<%OP4 W(XB)>
%OP%==2>>>>
IFGE ^D35-^D'N,<
V'F==1B'N
IFE ^D'N,<
C'F==377777777777>
IFN ^D'N,<
C'F==-1*V'F-1>
IFGE ^D17-^D'N,<
C'F==C'F_-^D18
V'F==V'F_-^D18>
DEFINE $$TES1(X,Y,Z)<
IFGE ^D17-^D'N,<
IFB <Z>,<DEFINE F(ACC)<
IFE <%OP%-1>,<%OP1 Y>
IFE %OP%,<%OP1 X>
IFE <%OP%-2>,<$$E(<ILL SWITCH NAME>)>
IFGE <%OP%-3>,<IFB <ACC>,<%OP1 Y>
IFNB <ACC>,<%OP1 ACC,Y>>
IFL<%OP%-2>,<%OP3 W(ACC)>
%OP%==2>>
IFNB <Z>,<DEFINE F=<
IFE <%OP%-1>,<%OP1 Y>
IFE %OP%,<%OP1 X>
IFE <%OP%-2>,<$$E(<ILL SWITCH NAME>)>
IFGE <%OP%-3>,<%OP1 Z,Y>
IFL <%OP%-2>,<%OP3 W(Z)>
%OP%==2>>>
IFL ^D17-^D'N,<
IFB <XB>,<DEFINE F(ACC)<
IFE %OP%-1,<%OP2 Y>
IFE %OP%,<%OP2 X>
IFE <%OP%-2>,<$$E(<ILL SWITCH NAME>)>
IFGE <%OP%-3>,<IFB <ACC>,<%OP2 Y>
IFNB <ACC>,<%OP2 ACC,Y>>
IFL <%OP%-2>,<%OP3 W(ACC)>
%OP%==2>>
IFNB <XB>,<DEFINE F=<
IFE <%OP%-1>,<%OP2 Y>
IFE %OP%,<%OP2 X>
IFE <%OP%-2>,<$$E(<ILL SWITCH NAME>)>
IFGE <%OP%-3>,<%OP2 Z,Y>
IFL <%OP%-2>,<%OP3 W(Z)>
%OP%==2>>
>
>
$$TES1(\C'F,\V'F,XB)
PURGE V'F,C'F
>
>
; OPCODE MACROS:
DEFINE SETOFF<
.XCREF
OPDEF %OP1 [HRLOI]
OPDEF %OP2 [HRROI]
OPDEF %OP3 [ANDM]
OPDEF %OP4 [SETZM]
%OP%==0
.CREF
>
DEFINE SETON <
.XCREF
OPDEF %OP1 [HRLZI]
OPDEF %OP2 [MOVEI]
OPDEF %OP3 [IORM]
OPDEF %OP4 [SETOM]
%OP%==1
.CREF
>
DEFINE IFON <
.XCREF
OPDEF %OP1 [HRLZI]
OPDEF %OP2 [MOVEI]
OPDEF %OP3 [TDNE]
OPDEF %OP4 [SKIPE]
%OP%==1
.CREF
>
DEFINE IFOFF <
.XCREF
OPDEF %OP1 [HRLZI]
OPDEF %OP2 [MOVEI]
OPDEF %OP3 [TDNN]
OPDEF %OP4 [SKIPN]
%OP%==1
.CREF
>
DEFINE IFONA<
.XCREF
%OP%==3
OPDEF %OP1 [TLNE ]
OPDEF %OP2 [TRNE ]
OPDEF %OP3 [CAIE ]
.CREF
>
DEFINE IFOFFA<
.XCREF
%OP%==3
OPDEF %OP1 [TLNN ]
OPDEF %OP2 [TRNN ]
OPDEF %OP3 [CAIN ]
.CREF
>
DEFINE SETONA<
.XCREF
%OP%==3
OPDEF %OP1 [TLO]
OPDEF %OP2 [TRO]
OPDEF %OP3 [SETO]
.CREF
>
DEFINE SETOFA<
.XCREF
%OP%==4
OPDEF %OP1 [TLZ]
OPDEF %OP2 [TRZ]
OPDEF %OP3 [SETZ]
.CREF
>
SUBTTL SUBROUTINE LINKAGE MACROS
; SUBROUTINE LINKAGE MACROS
; =========================
GETSTACK P
GETSTACK R
GETSTACK E
GETSTACK S
DEFINE $$KILL (P1)=<PURGE %.%'P1>
DEFINE $$HELP (P1,P2)=<
.CREF
DEFINE P1=<%.%'P2(XPDP)>
.XCREF>
DEFINE EXEC (L,X)=<
.XCREF
IFNB <X>,<
$$LOOP==0
IRP X,<
$$LOOP==$$LOOP-1
.CREF
STACK X
.XCREF>
>
.CREF
XEC L ;;[221]
.XCREF
IFDEF $$LOOP,<
SUB XPDP, [XWD -$$LOOP,-$$LOOP]
PURGE $$LOOP>
.CREF
>
DEFINE PROC (X)=<
.XCREF
IFDEF $$NO,<$$E(<DOUBLE PROC>)>
IFDEF $$TEMP,<PURGE $$TEMP>
IFNDEF $$NO,<
BEGIN
.XCREF
$$NO==0
IRP X,<
$$NO==$$NO-1>
$$NR==-$$NO
IRP X,<
%.%==-$$NO
PPUSH %.%
$$C(%.%,\%.%)==$$NO
$$HELP(X,\%.%)
$$NO==$$NO+1>>
.CREF
>
DEFINE SAVE (X)<
.XCREF
IFDEF $$NO,<
IFDEF $$SNOX,<
$$E(<DOUBLE SAVE ILLEGAL>)>
IFNDEF $$SNOX,<
$$SNOX==0
$$TEMP==0
IRP X,<
$$SNOX==$$SNOX+1
SPUSH X
.CREF
STACK X
.XCREF>
REPEAT $$NR,<
PPOP $$TEMP
EPUSH $$TEMP
$$C(%.%,\$$TEMP)==-$$TEMP-$$SNOX>>>
IFNDEF $$NO,<
$$SNOY==0
IRP X,<
SPUSH X
$$SNOY==$$SNOY+1
.CREF
STACK X
.XCREF>>
.CREF
>
DEFINE RETURN=<
.XCREF
RESTORE
POPJ XPDP,
.CREF
>
DEFINE RESTORE=<
IFDEF $$NO,<
IFDEF $$SNOX,<
REPEAT $$SNOX,<
SPOP $$TEMP
RPUSH $$TEMP
UNSTK $$TEMP
>
REPEAT $$SNOX,<
RPOP $$TEMP
SPUSH $$TEMP
>
>
>
IFNDEF $$NO,<
IFDEF $$SNOY,<
REPEAT $$SNOY,<
SPOP $$TEMP
RPUSH $$TEMP
UNSTK $$TEMP
>
REPEAT $$SNOY,<
RPOP $$TEMP
SPUSH $$TEMP
>
>
>
>
DEFINE EPROC=<
.XCREF
IFDEF $$SNOY,<PURGE $$SNOY>
IFNDEF $$NO,<$$E(<ILLEGAL EPROC>)>
IFDEF $$NO,< ;;IF PROC WAS DONE
$$T1==0
PURGE $$NO ;;FLAG EPROC DONE
REPEAT $$NR,<
IFDEF $$TEMP,<EPOP $$T1>
IFNDEF $$TEMP,<PPOP $$T1>
$$KILL (\$$T1)> ;;KILL ALL CONSTANTS OF TYPE %.%
PURGE $$NR
IFDEF $$TEMP,< ;;IF SAVE WAS DONE
PURGE $$SNOX
PURGE $$TEMP>
PURGE $$T1
ENDD>>
SUBTTL RECORD AND FIELD HANDLING MACROS
; RECORD - FIELD MACROS
; =====================
; DEFINE FIELD ACCESS MACROS
;
; LOAD FIELD ZF OF THE RECORD POINTED TO BY XB
; TO XT WITH THE MACRO CALL:
; LF(XT) ZF(XB)
DEFINE LF(XT,A,B)=<
OPDEF $L [HLRZ XT,]
OPDEF $R [HRRZ XT,]
OPDEF $F [MOVE XT,]
OPDEF $B [LDB XT,]
$$USE==1
IFNB <A>,<
IFNB <B>,<A,B>
IFB <B>,<A>
>
>
; SF IS THE REVERSE OF LF, I.E. STORES THE VALUE IN XS
; INTO THE FIELD ZF OF THE RECORD AT XB WITH:
; SF(XS) ZF(XB)
DEFINE SF(XT,A,B)=<
OPDEF $L [HRLM XT,]
OPDEF $R [HRRM XT,]
OPDEF $F [MOVEM XT,]
OPDEF $B [DPB XT,]
$$USE==1
IFNB <A>,<
IFNB <B>,<A,B>
IFB <B>,<A>
>
>
; WLF LOADS AN ENTIRE WORD CONTAINING A FIELD
; XT,XB AND FIELD NAME OCCUR AS FOR LF AND SF
;
DEFINE WLF(XT)=<
$$USE==0
OPDEF $F [MOVE XT,]
>
; WSF STORES XT IN A WORD CONTAINING THE SPECIFIED FIELD BASED BY XB:
; WSF (XT) ZF(XB)
DEFINE WSF(XT)=<
$$USE==0
OPDEF $F [MOVEM XT,]
>
DEFINE ZF(A,B) <
OPDEF $L [HRRZS]
OPDEF $R [HLLZS]
OPDEF $F [SETZM]
PURGE $B,$B
$$USE==1
IFNB <A>,<
IFNB <B>,<A,B>
IFB <B>,<A>
>
>
DEFINE SETF(QVAL)=<
$$$VAL=QVAL
SF()
$$USE=3
>
DEFINE OFFSET(A)<<$'A>&777777>
DEFINE SIZE(Q,Z)=<
Q=<<<$'Z>B59>&77>
>
; [247] LFE (from SIMRPA) loads a fullword or a halfword with sign extension.
; Otherwise identical to LF, but cannot be used when a byte pointer is required.
DEFINE LFE(xt,a,b)<
OPDEF $L [HLRE xt,]
OPDEF $R [HRRE xt,]
OPDEF $F [MOVE xt,]
PURGE $B,$B
$$USE==1
IFNB <a>,<
IFNB <b>,<a,b>
IFB <b>,<a>
>
>
; INTERNAL USE ONLY
; FIELD DEFINITION MACRO
DEFINE DF(F,W,S,P)=<
$$DEF==0
IFE <^D'S-^D36>,<DEFINE F(XB,O)=
<$%W==W
IFNB <O>,<$%W==W+<O>
>
IFE <$$USE-3>,<LI $$$VAL
$$USE==1>
$F $%W(XB)>
$$DEF==1>
IFE <^D'S-^D18>,<IFE <^D'P-^D17>,
<;; LEFT HW
DEFINE F(XB,O)=<
$%W==W
IFNB <O>,<$%W==W+<O>>
IFE <$$USE-3>,<LI $$$VAL
$$USE==1>
IFE $$USE,<$F $%W(XB)>
IFE <$$USE-1>,<$L $%W(XB)>
IFE <$$USE-2>,<PRINTX OPD-OPR NESTING ERROR>
$$USE==2>
$$DEF==1>
IFE <^D'P-^D35>,
<DEFINE F(XB,O)=<
$%W==W
IFNB <O>,<$%W==W+<O>>
IFE <$$USE-3>,<LI $$$VAL
$$USE==1>
IFE $$USE,<$F $%W(XB)>
IFE <$$USE-1>,<$R $%W(XB)>
IFE <$$USE-2>,<PRINTX OPD-OPR NESTING ERROR>
$$USE==2>
$$DEF==1>
>
IFE $$DEF,<
DEFINE F(XB,O)=<
$%W==W
IFNB <O>,<$%W==W+<O>>
IFE <$$USE-3>,<LI $$$VAL
$$USE==1>
IFE $$USE,<$F $%W(XB)>
IFE <$$USE-1>,<$B [$'F O(XB)]-$$RELO($$BAS)>
IFE <$$USE-2>,<PRINTX INVALID USE OF FIELD>
$$USE==2>
$$DEF==1>
OPDEF $'F [POINT S,W,P]
$'F==$'F
%'F==^D'P
IFE <^D'S-1>,<DSW (F,W,P)>
>
; RECORD DEFINITION
DEFINE DR(ZR,S,TF,TV)=<
ZR'%S==S
ZR'%V==TV
DEFINE ZR'%F=<TF>
>
; RECORD TEST MACROS
; SKIP IF XB POINTS TO ZR TYPE RECORD
DEFINE WHEN(XB,ZR,O)=<
IFEQF XB,ZR'%F,ZR'%V,O>
DEFINE WHENNOT(XB,ZR,O)=<
IFNEQF XB,ZR'%F,ZR'%V,O>
DEFINE IFEQF(XB,ZF,QV,O)=<
LF() ZF(XB,O)
CAIN QV
>
DEFINE IFNEQF(XB,ZF,QV,O)=<
LF() ZF(XB,O)
CAIE QV
>
DEFINE STEP(XB,ZR,XC)=<
$%X==XB
IFNB <XC>,<$%X==XC>
LI $%X,ZR'%S(XB)
>
DEFINE SSTEP(XB,ZR)=<
ADD XB,[XWD ZR'%S,ZR'%S]>
DEFINE STEPJ(XB,ZR,LAB)=<
IFE <ZR'%S-1>,< AOBJN XB,LAB>
IFN <ZR'%S-1>,<ADD XB,[XWD ZR'%S,ZR'%S]
JUMPL XB,LAB>
>
DEFINE CFAIL(MSG)=
<PRINTX MSG>
IFN QDEBUG,<
DEFINE RFAIL(MSG)=
< RFAI [ASCIZ/MSG/]>
DEFINE ASSERT(B)=<
B
>
>
IFE QDEBUG,<DEFINE ASSERT(B)=<>
DEFINE RFAIL(M)=<RFAI 0
>
>
DEFINE SCALAR(B)=<
%%%%%1==0
IRP B,<
B==%%%%%1
%%%%%1==<%%%%%1+1>>>
SUBTTL RESERVED WORDS DECLARATION MACROS
DEFINE RESWORD<
.XCREF
RESW$ BEGIN,,Z1RWBM ;;RESERVED WORD,NAME OF SYMBOL(ADD %),SWITCHES
RESW$ END ,,Z1RWBE+Z1RWBM
RESW$ IF
RESW$ THEN
RESW$ INTEGER,INT
RESW$ REF
RESW$ DO
RESW$ PROCEDURE,PROC
RESW$ NEW
RESW$ ACTIVATE,ACTIV
RESW$ AFTER
RESW$ AND
RESW$ ARRAY
RESW$ AT
RESW$ BEFORE,BEFOR
RESW$ BOOLEAN,BOOL
RESW$ CHARACTER,CHAR
RESW$ CLASS
RESW$ COMMENT,COMM,Z1RWBM
RESW$ DELAY
RESW$ ELSE,,Z1RWBE
RESW$ EQ
RESW$ EQV
RESW$ EXTERNAL,EXT
RESW$ FALSE
RESW$ FOR
RESW$ GE,NLESS
RESW$ GO,,Z1RWBM
RESW$ GOTO,,Z1RWBE
RESW$ GT,GRT
RESW$ HIDDEN,HIDDE
RESW$ IMP
RESW$ IN
RESW$ INNER
RESW$ INSPECT,INSPE
RESW$ IS
RESW$ LABEL
RESW$ LE,NGRT
RESW$ LONG
RESW$ LT,LESS
RESW$ NAME
RESW$ NE,NEQ
RESW$ NONE
RESW$ NOT
RESW$ NOTEXT,NOTEX
RESW$ OR
RESW$ OPTIONS,OPT,Z1RWBM
RESW$ OTHERWISE,OTHER,Z1RWBE
RESW$ PRIOR
RESW$ PROTECTED,PROTE
RESW$ QUA
RESW$ REACTIVATE,REACT
RESW$ REAL
RESW$ SHORT
RESW$ STEP
RESW$ SWITCH,SWIT
RESW$ TEXT
RESW$ THIS
RESW$ TO,,Z1RWBM
RESW$ TRUE
RESW$ UNTIL
RESW$ VALUE
RESW$ VIRTUAL,VIRT
RESW$ WHEN,,Z1RWBE
RESW$ WHILE
.CREF
>
; BIT SWITCHES USED IN CREATION OF Z1RW
Z1RWBE==1B18 ;BIT 0 DELIMITS END COMMENT OR PRODUCES WARNING
Z1RWBM==1B19 ;BIT 1 MARKED,KEYWORD TO BE RECOGNIZED BY LSI
QNRESW==0
DEFINE RESW$(A,B,C)<
QNRESW==QNRESW+1>
RESWORD
SUBTTL SYSTEM IDENTIFIERS MACRO
DEFINE SYSID<
RESW$ NUMBER:1,NO1
RESW$ NUMBER:2,NO2
RESW$ NUMBER:3,NO3
RESW$ NUMBER:4,NO4
RESW$ FILE.,FIL
RESW$ INFILE,INF
RESW$ OUTFILE,UTF
RESW$ DIRECTFILE,DIF
RESW$ PRINTFILE,PRF
RESW$ SIMSET,SET
RESW$ SIMULATION,SIM
RESW$ LINKAGE,LKA
RESW$ LINK,LIN
RESW$ HEAD,HED
RESW$ PROCESS,PRO
RESW$ SYSIN,SIN
RESW$ SYSOUT,SUT
RESW$ TEXT.,TXT
>
DEFINE RESW$(A,B)<
QID'B=QNSYSID
QNSYSID==QNSYSID+1
>
QNSYSID==2000
SYSID
QNSYSID==QNSYSID-2000
SUBTTL SYMBOL DECLARATION MACROS
; SYMBOL DECLARATION
; ==================
REPEAT 0,<
THIS UNIVERSAL DEFINES SYMBOLS FROM LEXICAL SCANNER TO
SYNTAX RECOGNITION AND THE SYMBOLS IN IC1, AS WELL AS SYMBOLS ONLY USED IN PASS 2 ZNS NODES.
THE SYMBOLS ARE DECLARED IN THE MACRO SYMBOL AS ARGUMENT TO THE
MACRO SYMBX.THE ARGUMENTS ARE:
NAME THE SYMBOL-NAME IS %'NAME
BIT MASK BIT 1 FROM LEXICAL SCANNER
BIT 2 IN IC1
BIT 3 IN ZNS NODES ONLY
CLASS SYMBT1 OPERATORS
SYMBT2 CONTROL ACTIONS
SYMBT3 OPERANDS
SYMBT4 DECLARATIONS
SYMBT5 AUXILARY FROM LS
VALUE NUMBER OF HALFWORDS
THE LIMITS OF THE DIFFERENT CLASSES ARE NAMED SYMBL9.
SYMBL3 IS 1 LESS THE LOWEST ELEMENT IN SYMBT3
AND 1 GREATER THE HIGHEST ELEMENT IN SYMBT2.
THE SYMBOLS CAN BE ACCESSED THRU THE MACRO SYMB.
THE ARGUMENTS TO SYMB ARE:
BIT MASK SAME AS IN SYMBOL
ORDER 0= ALPHABETIC ORDER
1= NUMERIC ORDER
NAME NAME OF MACRO TO BE CALLED. THE
ARGUMENTS TO THIS MACRO ARE:
NAME OF SYMBOL WITHOUT LEADING %
VALUE OF SYMBOL
NUMBER OF VALUES
SPELLING OF SYMBOL
>
DEFINE SYMBOL<
.XCREF
SYMBX ACTIV,3,SYMBT1,1,ACTIVATE
SYMBX ADEC,2,SYMBT1
SYMBX AFTER,1,SYMBT5,,AFTER
SYMBX AND,3,24,,AND
SYMBX ARRAY,1,SYMBT4,,ARRAY
SYMBX AT,1,SYMBT5,,AT
SYMBX BBLK,2,SYMBT2
SYMBX BECOM,3,SYMBT1,,<:=>
SYMBX BEFOR,1,SYMBT5,,BEFORE
SYMBX BEGCL,2,SYMBT1,,BEGCL
SYMBX BEGIN,1,SYMBT5,,BEGIN
SYMBX BEGPB,2,SYMBT1,,BEGPB
SYMBX BEGPR,2,SYMBT1,,BEGPRO
SYMBX BOOL,1,SYMBT4,,BOOLEAN
SYMBX BOUND,2,SYMBT1,,ARRAYBND
SYMBX BPROG,2,SYMBT2
SYMBX CHAR,1,SYMBT4,,CHARACTER
SYMBX CLASS,1,SYMBT4,,CLASS
SYMBX COLON,1,SYMBT5,,<:>
SYMBX COMM,1,SYMBT5
SYMBX COMMA,1,36,,<,>
SYMBX CONC,3,SYMBT3,1,CONSTANT
SYMBX CONI,3,SYMBT3,2,CONSTANT
SYMBX CONLR,3,SYMBT3,4,CONSTANT
SYMBX CONR,3,SYMBT3,2,CONSTANT
SYMBX CONT,3,SYMBT3,2,CONSTANT
SYMBX CONVE,4,SYMBT1,,CONV
SYMBX CVBE,2,SYMBT1,,<:=>
SYMBX CVDE,2,SYMBT1,,<:->
SYMBX DEBUG,3,SYMBT2,1
SYMBX DELAY,1,SYMBT5,,DELAY
SYMBX DELOP,2,0
SYMBX DENOT,3,SYMBT1,,<:->
SYMBX DEQ,3,17,,<==>
SYMBX DIV,3,3,,</>
SYMBX DO,3,SYMBT2,,DO
SYMBX DOT,3,33,,<.>
SYMBX EBLK,2,SYMBT2
SYMBX EDCL,2,SYMBT2
SYMBX EDPB,2,SYMBT2
SYMBX ELSE,1,SYMBT5,,ELSE
SYMBX END,1,SYMBT5,,END
SYMBX ENDCL,2,SYMBT2
SYMBX ENDDO,2,SYMBT2
SYMBX ENDFO,2,SYMBT2
SYMBX ENDPR,2,SYMBT2
SYMBX EOF,1,SYMBT5
SYMBX EPROG,2,SYMBT2
SYMBX EQ,3,13,,<=&@(EQ)>
SYMBX EQV,3,27,,EQV
SYMBX ERROR,2,SYMBT2
SYMBX EXT,1,SYMBT4,,EXTERNAL
SYMBX FALSE,3,SYMBT3,,FALSE
SYMBX FIX,2,SYMBT2,1
SYMBX FOR,1,SYMBT5,,FOR
SYMBX FORDO,2,SYMBT2
SYMBX FORSI,2,SYMBT1,,<:=/:->
SYMBX FORST,2,SYMBT1,,<STEP/UNTIL>
SYMBX FORWH,2,SYMBT1,,WHILE
SYMBX GO,1,SYMBT5,,GO
SYMBX GOTO,3,SYMBT1,,GOTO
SYMBX GRT,3,14,,<&^&@(GT)>
SYMBX HIDDE,1,SYMBT5,,HIDDEN
SYMBX IDIV,3,4,,<//>
SYMBX IENDC,2,SYMBT2
SYMBX IF,1,SYMBT5,,IF
SYMBX IFEX,2,SYMBT1,,ELSE
SYMBX IFEX1,4,SYMBT1,,IF
SYMBX IFST,2,SYMBT1,1,<IF>
SYMBX IFTRE,2,SYMBT1,1,<IF>
SYMBX IFTRU,2,SYMBT1,,<IF>
SYMBX IMP,3,26,,IMP
SYMBX IN,3,22,,IN
SYMBX INNER,3,SYMBT2,,INNER
SYMBX INSPE,3,SYMBT1,1,INSPECT
SYMBX INT,1,SYMBT4,,INTEGER
SYMBX IS,3,21,,IS
SYMBX JUMP,2,SYMBT2,1
SYMBX LABEL,1,SYMBT5,,LABEL
SYMBX LB,3,SYMBT3,,<[>
SYMBX LESS,3,11,,<&\&@(LT)>
SYMBX LONG,1,SYMBT4,,LONG
SYMBX LP,3,SYMBT3,,<(>
SYMBX MINUS,3,7,,<->
SYMBX MOCEB,4,SYMBT1,<:=>
SYMBX MULT,3,2,,<*>
SYMBX NAME,1,SYMBT5,,NAME
SYMBX NDEQ,3,20,,<=/=>
SYMBX NEQ,3,16,,<\=&@(NE)>
SYMBX NEW,3,31,,NEW
SYMBX NGRT,3,12,,<&\=&@(LE)>
SYMBX NLESS,3,15,,<&^=&@(GE)>
SYMBX NONE,3,SYMBT3,,NONE
SYMBX NOT,3,23,,<\&@(NOT)>
SYMBX NOTEX,3,SYMBT3,,NOTEXT
SYMBX NOTHR,2,SYMBT2
SYMBX OPT,3,SYMBT2,1
SYMBX OR,3,25,,OR
SYMBX OTHER,3,SYMBT2,,OTHERWISE
SYMBX PAREN,2,SYMBT1,,PARENTHESIS
SYMBX PARM,4,SYMBT1
SYMBX PCALL,4,SYMBT1
SYMBX PBEND,2,SYMBT2
SYMBX PLUS,3,5,,<+>
SYMBX POW,3,1,,<**>
SYMBX PRIOR,1,SYMBT5,,PRIOR
SYMBX PROC,1,SYMBT4,,PROCEDURE
SYMBX PROTE,1,SYMBT5,,PROTECTED
SYMBX PURGE,2,SYMBT2
SYMBX QUA,3,32,,QUA
SYMBX QUAL,4,SYMBT1,,QUALIF
SYMBX RB,1,34,,<]>
SYMBX REACT,1,SYMBT5,,REACTIVATE
SYMBX REAL,1,SYMBT4,,REAL
SYMBX REF,1,SYMBT4,,REF
SYMBX RP,3,35,,<)>
SYMBX SEMIC,3,SYMBT5,,<;>
SYMBX SHORT,1,SYMBT4,,SHORT
SYMBX STEP,1,SYMBT5,,STEP
SYMBX SWEL,2,SYMBT1,,SWITCHELEM
SYMBX SWEND,2,SYMBT2
SYMBX SWIT,1,SYMBT4,,SWITCH
SYMBX SWITC,2,SYMBT1
SYMBX TEXT,1,SYMBT4,,TEXT
SYMBX THEN,1,SYMBT5,,THEN
SYMBX THIS,3,30,,THIS
SYMBX TO,1,SYMBT5,,TO
SYMBX TONED,4,SYMBT1
SYMBX TRUE,3,SYMBT3,,TRUE
SYMBX UDEF,2,SYMBT3
SYMBX UNMIN,2,10,,<->
SYMBX UNTIL,1,SYMBT5,,UNTIL
SYMBX UPLUS,2,6,,<+>
SYMBX VALUE,1,SYMBT5,,VALUE
SYMBX VIRT,1,SYMBT5,,VIRTUAL
SYMBX WHEDO,2,SYMBT1,,WHEN
SYMBX WHEN,1,SYMBT5,,WHEN
SYMBX WHILE,3,SYMBT1,1,WHILE
.CREF
>
SYMBT1==-1
SYMBT2==-2
SYMBT3==-3
SYMBT4==-4
SYMBT5==-5
SYMBL0==0
SYMBL1==0
SYMBL2==0
SYMBL3==0
SYMBL4==0
SYMBL5==0
SYMBL6==0
DEFINE SYMBX(A,B,C,D,E)<
IFG C,<IFG C-SYMBL1,<SYMBL1==C>>
IFE C+1,<SYMBL2==SYMBL2+1>
IFE C+2,<SYMBL3==SYMBL3+1>
IFE C+3,<SYMBL4==SYMBL4+1>
IFE C+4,<SYMBL5==SYMBL5+1>
IFE C+5,<SYMBL6==SYMBL6+1>
>
SYMBOL
SYMBL1==SYMBL1+1
SYMBL2==SYMBL2+SYMBL1+1
SYMBL3==SYMBL3+SYMBL2+1
SYMBL4==SYMBL4+SYMBL3+1
SYMBL5==SYMBL5+SYMBL4+1
SYMBL6==SYMBL6+SYMBL5+1
DEFINE SYMB(A,B,C)<
SYMBT1==SYMBL1+1
SYMBT2==SYMBL2+1
SYMBT3==SYMBL3+1
SYMBT4==SYMBL4+1
SYMBT5==SYMBL5+1
IFE B,<
DEFINE SYMBX(M,N,O,P,Q)<
IFN N&A,<C(M,\O,P,<Q>)>
IFE O-SYMBT1,<SYMBT1==SYMBT1+1>
IFE O-SYMBT2,<SYMBT2==SYMBT2+1>
IFE O-SYMBT3,<SYMBT3==SYMBT3+1>
IFE O-SYMBT4,<SYMBT4==SYMBT4+1>
IFE O-SYMBT5,<SYMBT5==SYMBT5+1>
>
SYMBOL
>
IFN B,<
DEFINE SYMBX(M,N,O,P,Q)<
IFL O-SYMBL1,<
IFN N&A,<
DEFINE SYMB'O<C(M,\O,P,<Q>)>>>>
SYMBOL
DEFINE SYMBZ(F)<
IFDEF SYMB'F,<SYMB'F>>
SYMBY==-1
REPEAT SYMBL1,<
SYMBY==SYMBY+1
SYMBZ(\SYMBY)>
DEFINE SYMBZ(F)<
DEFINE SYMBX(M,N,O,P,Q)<
IFE O-SYMBT'F,<
IFN N&A,<C(M,\O,P,<Q>)>
SYMBT'F==SYMBT'F+1>>
SYMBOL>
SYMBZ 1
SYMBZ 2
SYMBZ 3
SYMBZ 4
SYMBZ 5
>
>
DEFINE SYMBXX(A,B,C,D)<
%'A=B>
SYMB 7,0,SYMBXX
IFE QDEC20,<;;[225] DEC20 prefers single segment programs
SUBTTL MACRO FOR EXCHANGE OF HIGH SEGMENT
;ARGUMENTS:
; NAME = NAME OF HIGH SEGMENT FILE
; WNAME= WORK NAME OF HIGH SEGMENT
; INCR = TRANSFER SHOULD BE TO ENTRY+INCR
; PPN = PROJECT-PROGRAMMER NUMBER WHERE TO FIND NEW HIGH SEGMENT
;
;AT ENTRY X3 SHOULD BE LOADED WITH [ XWD 1,<TOP OF LOW SEGMENT> ]
;IF NO LOW SEGMENT CHANGES WITH [ XWD 1,0 ]
;[172] Take following passes from same DSK area as Pass 1 in SYS version
DEFINE SWAPPA(NAME,WNAME,INCR,PPN)<
DEFINE RL(LAB)<LAB-L2()+Y3SWAP>
EXTERN Y3SWAP
BEGIN
HLLZS .JBREN##
HLLZS .JBSA##
L X2,[XWD L2(),Y3SWAP]
BLT X2,RL(L9())
GOTO RL(L2())
L2():! CORE X3,
HALT
IFN QSYS,<
IFNDEF YP1DEV,<EXTERN YP1DEV,YP1PPN>
L YP1DEV
ST RL(L4())
L YP1PPN
ST RL(L4())+4
>
LI X1,RL(L4())
GETSEG X1,
SKIPA
GOTO RL(L3())
LI X1,RL(L5())
GETSEG X1,
HALT
L3():! BRANCH 400011+INCR ;;[260]
L4():! SIXBIT'DSK'
IFE QSYS,<SIXBIT/WNAME/>
IFN QSYS,<SIXBIT/NAME/>
Z
Z
Z
Z
L5():! EXP QSYSDEV
SIXBIT/NAME/
Z
Z
EXP PPN
Z
L9():!
ENDD
>
>
SUBTTL TYPE CODES AND DECLARATION FILE FIELDS
; TYPE CODES
SCALAR <QUNDEF,QINTEGER,QREAL,QLREAL,QCHARACTER,QBOOLEAN,QTEXT,QREF,QLABEL,QNOTYPE,QRLREA>
; KIND CODES
SCALAR <QUNDEF,QSIMPLE,QARRAY,QPROCEDURE,QCLASS>
; MODE CODES
SCALAR <QDECLARED,QVALUE,QNAME,QREFER,QVIRTUAL,SPARE,QHDN,QNHDN>
; DECLARATION STACK RECORD TAG VALUES (SPARSE REPRESENTATION)
SCALAR <QZQU,QZHB,QZHE>
; BLOCK TYPE CODES IN ZHE AND ZHB RECORDS
SCALAR <QFOR,QRBLOCK,QUBLOCK,QPROCB,QPBLOCK,QCLASB,QINSPEC,QPROTO,QEBLOC,QCEXT,QPEXT,QMEXT,QFEXT,QSYSCL>
QQUACH==QPROTO
;PARAMETER DESCRIPTOR TYPE CODES IN ZFL RECORD
SCALAR <QDTVSI,QDTSIM,QDTFNM,QDTDYN,QDTCON,QDTICO,Q,QDTEXP>
; RELOCATION VALUES USED TO INDEX THE
; RELOCATION COUNTER TABLE. THEIR VALUES MUST REFLECT THE ORDER OF THE RELOCATION COUNTER TABLE IN LOWSEG.
SCALAR <QNOREL,QRELCN,QRELCD,QRELPT,QRELLT,QRELST,QRELID,QRELI2>
;[14 22 12] DEFINE ZQUSNR CODE. DEFINITION MOVED FROM SYS1.MAC
DEFINE SC(B)=<
%%%%%1==0
IRP B,<
SYS'B==%%%%%1
%%%%%1==<%%%%%1+1>>>
SC<CL,MA,PR,TX,I1,I2,I3,I4,I5,I6,I7,I8,I9,K1,K2,K3,K4,K5,K6,K7,K8,K9,L1,L2,L3,L4,L5,L6,L7,L8,L9,M1>
SUBTTL DEFINITIONS OF DF1 AND PASS 2 FIELDS
DF ZDETYP,0,3,2
DF ZDELNK,2,18,35
DF ZQUGLO,0,1,3
DF ZQUEXT,0,1,4
DF ZQULEN,0,1,5
DF ZQUIS,0,1,5
DF ZQUIB,0,1,6
DF ZQUTPT,0,1,6 ;[40]
DF ZQUSYS,0,1,7
DF ZQUHID,0,1,13 ;[40] TOGETHER WITH BIT 12
DF ZQUNOT,0,1,14 ;[40]
DF ZQUTYP,0,4,11
DF ZQUMOD,0,3,14
DF ZQUKND,0,3,17
DF ZQUTMK,0,10,17
DF ZQUSTM,0,11,17
DF ZQUZHE,0,18,35
DF ZQUTEM,0,18,35
DF ZQUFIX,1,18,17
DF ZQUIVA,1,1,0 ;[40]
DF ZQUNSB,1,5,5
DF ZQULID,1,12,17
DF ZQUIND,1,18,35
DF ZQUUSE,2,1,0 ;[140]
DF ZQUZQU,2,18,17
DF ZQUQID,2,18,17
DF ZQUZB,2,18,35
DF ZQUNAC,3,3,2
DF ZQUPR,3,1,3
DF ZQUGB,3,1,4
DF ZQUIO,3,1,5
DF ZQULO,3,1,6
DF ZQUQIK,3,1,7 ;[040700] Quicker call of this MACRO-10 procedure
DF ZQUPTD,3,1,8 ;[40]
DF ZQUDD,3,1,9 ;[136]
DF ZQUSNR,3,8,17 ;[040700] Leave some bits here for later possible use
DF ZQULNE,3,18,35
DF ZQUUNR,4,36,35
DF ZHETYP,0,3,5
DF ZHENOI,0,1,11
DF ZHESOL,0,6,17
DF ZHEDLV,0,18,35
DF ZHEEBL,1,5,4
DF ZHELEN,1,10,14
DF ZHEBNM,1,9,23
DF ZHEFIX,1,12,35
DF ZHEOID,0,12,17
DF ZHELID,0,18,35
DF ZHEUNR,1,36,35
DF ZHBXID,2,18,17
DF ZHBZQU,2,18,17
DF ZHBZE,2,18,35
DF ZHBZHB,2,18,35
DF ZHBDEV,3,11,12
DF ZHBNRP,3,8,7
DF ZHBVRT,3,8,15
DF ZHBSBL,3,5,20
DF ZHBSTD,3,5,25
DF ZHBSZD,3,5,30
DF ZHBUPF,3,1,31
DF ZHBMFO,3,3,33 ;;[040700] Non-zero for MACRO-10 or FORTRAN procedure
;;[040700] Values of ZHBMFO field:
QEXMAC=1 ;; MACRO-10, standard procedure call
QEXMQI=2 ;; MACRO-10, quick calling sequence
QEXFOR=4 ;; FORTRAN-10
QEXF40=5 ;; Old FORTRAN (F40)
;[040700] DF ZHBFOR,3,1,31
DF ZHBBLV,3,1,32
;[040700] DF ZHBF40,3,1,32
DF ZHBLOC,3,1,33
;[040700] DF ZHBMAC,3,1,33
DF ZHBKDP,3,1,34
DF ZHBNCK,3,1,34
DF ZHBEXT,3,1,35
DF ZHBUNR,4,36,35
DF ZHBPPN,4,36,35
DF ZQQLNK,0,18,17
DF ZQQFIX,0,18,35
DF ZQQUNR,1,36,35
; DF1 AND PASS 2 RECORDS
DR ZQU,4,ZDETYP,1B<^d33+QZQU>
DR ZHE,2,ZDETYP,1B<^d33+QZHE>
DR ZHB,5,ZDETYP,1B<^d33+QZHB>
; DSW NCODE TO STOP CODE GENERATION
QO2LIS==200 ; SIZE OF LITERAL TABLE
QLOWID==^D1024 ; FIRST LEXICAL ID NUMBER ASSIGNED
QFTFX==140 ; FIRST FIXUP NUMBER ASSIGNED BY PASS 1
SUBTTL SWITCH DECLARATIONS
; COMPILER SWITCH SWITCHES
; ========================
DSW (YSWD,YSWITCH,34)
DSW (YSWI,YSWITCH,33)
DSW (YSWR,YSWITCH,32)
DSW (YSWY,YSWITCH,31)
DSW (YSWA,YSWITCH,30)
DSW (YSWQ,YSWITCH,28)
DSW (YSWW,YSWITCH,27)
DSW (YSWS,YSWITCH,26) ;[13] Set by any search list change
DSW (YSWCZ,YSWITCH,25) ;[220] CONTROL-Z SWITCH
DSW (YSWCM,YSWITCH,0)
DSW (YI1CCL,YSWITCH,1)
DSW (YDMF,YSWITCH,2)
DSW (YDMFE,YSWITCH,3)
DSW (YSWTRM,YSWITCH,4)
DSW (YSWP1,YSWITCH,5)
DSW (YSWLST,YSWITCH,6)
DSW (YSWCOM,YSWITCH,7) ;ON IF COMMAND FILE IN THIS COMPILATION
DSW (YSWLPT,YSWITCH,8) ;ON IF /LIST FROM COMPIL
DSW (YSWNFC,YSWITCH,9) ;OFF IF FIRST COMPILATION
DSW (YTRSW,YTRPAS,36)
; MASKS FOR A,M,Q AND W
; THESE MASKS ARE USED AS OPERANDS TO THE $OPT OPERATOR IN IC1
QSWA==1B30
QSWQ==1B28
QSWW==1B27
;SWITCHES SHOWING DEFAULT VALUES OF COMMAND SWITCHES
;SWITCH ON DENOTES DEFAULT ON, OFF DENOTES DEFAULT OFF (- BEFORE SWITCH)
DSW (YSWDA,YSWDEF,0)
DSW (YSWDD,YSWDEF,1)
DSW (YSWDE,YSWDEF,2)
DSW (YSWDI,YSWDEF,3)
DSW (YSWDQ,YSWDEF,4)
DSW (YSWDR,YSWDEF,5)
DSW (YSWDW,YSWDEF,6)
DSW (YSWDS,YSWDEF,7) ;[13,,12]
;SWITCHES SHOWING WHICH COMPILE SWITCHES HAVE BEEN CHANGED DURING COMPILATION
;SWITCH ON DENOTES CHANGE FROM DEFAULT
DSW (YSWCA,YSWCHA,0)
DSW (YSWCD,YSWCHA,1)
DSW (YSWCE,YSWCHA,2)
DSW (YSWCI,YSWCHA,3)
DSW (YSWCQ,YSWCHA,4)
DSW (YSWCR,YSWCHA,5)
DSW (YSWCW,YSWCHA,6)
DSW (YSWCS,YSWCHA,7) ;[13,,12]
QNSWCH==7+1 ;[13,,12] Number of switches involved
;WARNING: THE POSITION AND ORDER OF THESE SWITCHES
;ARE CRITICAL FOR MODULE T3 IN PASS 3!!
;DEFAULT VALUES (1 DEFAULT=ON, 0 DEFAULT=OFF)
QSWAD==1
QSWDD==1
QSWED==0
QSWID==1
QSWQD==1
QSWRD==0
QSWWD==1
QSWSD==0 ;[13,,12] 1 means some change (e g /-S)
QSWDEF==<QSWAD>B0+<QSWDD>B1+<QSWED>B2+<QSWID>B3+<QSWQD>B4+<QSWRD>B5+<QSWWD>B6
QSWDEF==<QSWDEF+<QSWSD>B7>_-^D18 ;[13,,12]
; MACROS FOR CREATION OF FILE OPEN SWITCHES:
DEFINE DCHSW(NAME)=<
DEFINE X(NAM,NUMBER)=<
RADIX 8
DSW (NAM,Y3OPEN,NUMBER)
>
DEFINE Y(P1,P2)=<SYN P1,YOP'P2>
QOPNO==^D35
IRP NAME,<
RADIX 10
X (YOP'NAME,\<35-QCH'NAME>)
RADIX 10
X (YPO'NAME,\<17-QCH'NAME>)
Y (YOP'NAME,\QOPNO)
QOPNO=QOPNO-1
>
>;END OF DCHSW
;THE ORDER BETWEEN THE ARGUMENTS IS SIGNIFICANT
;EACH ARG CORRESPONDS TO CHANNEL QCH'ARG AND ARG NR I CORRESPONDS TO CHANNEL I
DCHSW(<TTY,SRC,EXT,LS1,IC1,DF1,ZSE,REL,ATR,XRF,IC2,LST,DEB,ERR,TRC>)
; DEFINITION OF LS1 RECORD 4 PROTOTYPE
; ------------------------------------
DEFINE LS1INIT=<
DF (ZLEID,ZLEREC,7,6) ;IDENTIFIER FIELD = "I"
DF (ZLEIND,ZLEREC,8,16) ;BREAK CHARACTER COMBINATION INDICATOR
DSW (ZLESRC,ZLEREC,7) ;ON IF LINE NUMBER IN SOURCE LINE
DSW (ZLEOK,ZLEREC,8) ;ON IF SOURCE LINE NUMBER CAN BE USED IN LISTING
DSW (ZLEBIT,ZLEREC,17) ;RECORD INDICATOR = 1
;SYMBOLIC NAMES ON ZLEIND VALUES ;[14 22 15] Now defined in LC
>
IFN QDEC20,<;[225] DEFINE FILE INFO AREA FOR DEC-20 HANDLING OF FILES
DR ZLF,3 ;LIMITS
DF ZLFFCP,0,36,35 ;First core page no
DF ZLFFFP,1,36,35 ;First file page (corresponding)
DF ZLFNPA,2,36,35 ;Number of pages in core area
>
;;; MACROS FOR LOOKUP AND ENTER
; Only to be used for files which are handled by PMAP on the 20
IFE QDEC20,<
DEFINE LOKUPF(F)<LOOKUP QCH'F,YEL'F>
DEFINE ENTERF(F)<ENTER QCH'F,YEL'F>
>
IFN QDEC20,<
DEFINE LOKUPF(F)<
LI X1,YEL'F
IF2,<IFNDEF O1JFNI,<EXTERN O1JFNI>>
XEC O1JFNI
>
DEFINE ENTERF(F)<
LI X1,YEL'F
IF2,<IFNDEF O1JFNO,<EXTERN O1JFNO>>
XEC O1JFNO
>
>
SUBTTL TIMING MACRO
;THE MACRO TIMER WILL OUTPUT THE TIME SPENT SINCE THE
;LAST TIME IT WAS CALLED. IF NO MESSAGE IS GIVEN THERE
;IS NO OUTPUT, ELSE THE MESSAGE FOLLOWED BY THE TIME
;FOLLOWED BY "MILLISECONDS" IS OUTPUTTED.
DEFINE TIMER(MESSAGE)<
IFN QTIMER,<
STACK X0
STACK X1
STACK X2
LI X1,0
RUNTIM X1,
SUB X1,YTIMER##
ADDM X1,YTIMER
IFNB<MESSAGE>,<
OUTSTR [ASCIZ/
MESSAGE /]
LSH X1,25
LI X2,5
LOOP
LI X0,0
LSHC X0,3
ADDI X0,60
OUTCHR
AS
SOJG X2,TRUE
SA
OUTSTR [ASCIZ/ MILLISECONDS
/]
>
UNSTK X2
UNSTK X1
UNSTK X0
>
>
SUBTTL MACRO FOR SETTING UP I/O BUFFERS
DEFINE SETBUF(FIL,BUFFER,SIZE)<
EXTERN YBUFR'BUFFER,YBH'FIL
L [XWD QBUFS-2,YBUFR'BUFFER+1+QBUFS+1]
ST YBUFR'BUFFER+1
HRRI YBUFR'BUFFER+1
ST YBUFR'BUFFER+1+QBUFS+1
HRLI 400K
IFB<SIZE>,<ST YBH'FIL>
IFNB<SIZE>,<MOVSI X1,(^D'SIZE'B11)
STD YBH'FIL>
>
SUBTTL RECORD DUMP MACRO
; DEFINE RECORD DUMP
; ==================
DEFINE DRD(R,F)
< PROC
.'R:: SAVE <X2,X3,X4,X5>
OUTSTR [ASCIZ/ =====
RECORD TYPE R AT ADDRESS /]
LI X3,22
MOVE X4,X1
EXEC L2
OUTSTR [ASCIZ/
=====
/]
IRP F < OUTSTR [ASCIZ/F/]
OUTCHR ["="]
SIZE (QSZ,F)
IFE <QSZ-1>,<LI X4,"0"
IFON F(X1)
LI X4,"1"
OUTCHR X4
>
IFN <QSZ-1>,<LI X3,QSZ
LF (X4) F(X1)
EXEC L2
>
OUTSTR [ASCIZ/
/]
>
OUTSTR [ASCIZ/
/]
RETURN
DEFINE R <EXEC .'R>
L2(): SETZ X2,0
DIVI X2,3
SKIPE X3
AOJ X2,0
MOVN X3,X2
IMULI X3,3
ROT X4,(X3)
L3(): SETZ X5,0
ROTC X4,3
ADDI X5,"0"
OUTCHR X5
DECR X2,L3
POPJ XPDP,0
EPROC
>
SUBTTL REGISTER ASSIGNMENTS
; ************************
; * REGISTER ASSIGNMENTS *
; ************************
X0==0
X1==1
X2==2
X3==3
X4==4
X5==5
X6==6
X7==7
X10==10
X11==11
X12==12
X13==13
X14==14
X15==15
X16==16
XPDP==17
SUBTTL OPERATOR DEFINITIONS
; ************************
; * OPERATOR DEFINITIONS *
; ************************
OPDEF GOTO [JRST]
OPDEF BRANCH [JRST]
OPDEF INCR [AOBJN]
OPDEF DECR [SOJG]
OPDEF L [MOVE]
OPDEF LI [MOVEI]
OPDEF ST [MOVEM]
OPDEF NOP [JFCL]
OPDEF STACK [PUSH XPDP,]
OPDEF UNSTK [POP XPDP,]
OPDEF XEC [PUSHJ XPDP,] ;[221]
OPDEF RET [POPJ XPDP,] ;[221]
DEFINE %%CJMP(X)<
IRP X,<
OPDEF GOTO'X [JUMP'X]
OPDEF BRAN'X [JUMP'X]>>
%%CJMP(<L,E,LE,GE,N,G>)
IFN QKI10,<
OPDEF LD [DMOVE]
OPDEF STD [DMOVEM]
DEFINE KA10WARNING=<>
>
IFN QKA10,<
DEFINE KA10WARNING=<
PRINTX KI10 DEPENDENT CODE
>
DEFINE LD (A,B)=<
L A,B
L A+1,1+B
>
DEFINE STD(A,B)=<
ST A,B
ST A+1,1+B
>>
QUUO==1
DEFINE X(E)=
<IFNB<E>,
<Q'E==%%%%%1
OPDEF E [<%%%%%1>B8]>
%%%%%1==%%%%%1+1
>
DEFINE UUOS(E)
<%%%%%1==QUUO
IRP E<X(E)>
>
DEFINE UUOSET=<
UUOS <ERRT,,ERRI3,ERRI2,ERRI1,ERR,ERRLI,WARN,ERRR,ERR1,ERR2,FATA,SEV,SEV1,SEV2,RFAI>;ORDER SIGNIFICANT
>
UUOSET
;ERROR TYPES:
;===========
QE==0
QT==1
QW==2
;ERROR START NUMBERS:
;===================
;START NUMBER OF ERRORMESSAGES IN THE COMPILER OF A CERTAIN TYPE AND PASS
;END NUMBER IS ONE NUMBER LESS THAN START OF NEXT INTERVAL
Q1.WAR==1 ;LOWEST WARNING MESSAGE NUMBER PASS1
Q1.ERR==60 ;LOWEST ERROR MESSAGE NUMBER PASS 1
Q1.TER==240 ;LOWEST TERMINATION MESSAGE NUMBER PASS 1
Q2.WAR==300 ;LOWEST WARNING MESSAGE NUMBER PASS 2
Q2.ERR==330 ;LOWEST ERROR MESSAGE NUMBER PASS 2
Q2.TER==460 ;LOWEST TERMINATION MESSAGE NUMBER PASS 2
Q3.WAR==500 ;LOWEST WARNING MESSAGE PASS 3
Q3.ERR==530 ;LOWEST ERROR MESSAGE PASS 3
Q3.TER==560 ;LOWEST TERMINATION MESSAGE PASS 3
Q.OFL==567 ;ERROR NUMBER FOR STACK OVERFLOW, COMMON TO ALL 3 PASSES
Q.UFL==566 ;ERROR NUMBER FOR STACK UNDERFLOW, COMMON TO ALL 3 PASSES
Q.TER==570 ;START NUMBER OF ERRORS COMMON TO ALL 3 PASSES
;MACRO TO CLEAR ^O
;=================
DEFINE CLEARO <
SKPINC
NOP
>
>;END OF IF1
SUBTTL Macros for defining versions
; *********************************
; * MACROS FOR DEFINING VERSIONS. *
; *********************************
DEFINE CTITLE (module,a,b) <;;[104]
TITLE module DECsystem-10/20 SIMULA COMPILER %4A(310) >
DEFINE CUNIV (module,a,b) <;;[104]
IFDEF .DIRECTIVE,<.DIRECTIVE .NOBIN>
UNIVERSAL module DECsystem-10/20 SIMULA COMPILER %4A(310) >
COMMENT /EXAMPLE %3AM(777)-5
VMM E W
CTITLE is used by modules of the compiler.
V = Main version (should be same as RTS main version).
MM= Minor version.
E = Edit level.
W = Who made the last update.
/
CUNIV(SIMMAC)
DEFINE RTITLE (module,a,b) <;;[104]
TITLE module DECsystem-10/20 SIMULA RTS %4A(310) >
;; RTITLE is used by modules of the Run Time System.
DEFINE RUNIV (module,a,b) <;;[104]
IFDEF .DIRECTIVE,<.DIRECTIVE .NOBIN>
UNIVERSAL module DECsystem-10/20 SIMULA RTS %4A(310) >
VERCOM=< BYTE (3) 0 (9) 4 (6) 1 (18) 310 >
COMMENT /EXAMPLE
BYTE (3) 5 (9) 3 (6) 47 (18) 777
WHO VERSION MINOR E
VERCOM is used by compiler passes to set .JBVER.
This is done in the modules I1,I2,I3. Same legend as CTITLE.
/
VERRTS=VERCOM
COMMENT /
VERRTS is used by the RTS to set .JBVER. This
is done in the module SIMRTS. Same legend
as RTITLE.
/
END