pcjs/apps/pdp10/diags/ka10/dakba/DAKBA.MAC.txt

4176 lines
110 KiB
Text

;MAINDEC-10-DAKBA
DECVER=002
MCNVER=000
XLIST
DEFINE NAME (MCNVER,DECVER),<
TITLE DAKBA PDP-10 KA10 BASIC INSTRUCTION RELIABILITY TEST (1), VERSION MCNVER,DECVER >
LIST
LALL
NAME \MCNVER,\DECVER
XALL
;TEST DESIGNED FOR RANDOM NUMBER TESTING OF THE PDP-10 BASIC INSTRUCTIONS
;(COMPARES,SKIPS,EXCHANGES,BOOLE,ROTATES,TESTS,ETC.)
;COPYRIGHT 1977
;DIGITAL EQUIPMENT CORPORATION
;MARLBORO, MASS. 01752
;JOHN R. KIRCHOFF
LOC 137
MCNVER,,DECVER
NOSYM
SUBTTL DIAGNOSTIC PARAMETERS
;LUUO DEFINITIONS
OPDEF ERR [1B8]
OPDEF ERRM [2B8]
OPDEF ERRI [3B8]
OPDEF ERROR [4B8]
OPDEF ER [5B8]
OPDEF EERR [11B8]
OPDEF EERRM [12B8]
OPDEF EERRI [13B8]
LUUO1=ERRMES
LUUO2=ERRMES
LUUO3=ERRMES
LUUO4=ERRMES
LUUO5=ERRMES
LUUO11=ERRMES
LUUO12=ERRMES
LUUO13=ERRMES
;SUBROUTINE ASSEMBLY DEFINITIONS
EXCASB==1
USRASB==1
DEBUG==40
KLOLD==1
KA10=10
PGMEND==1
ERRELB==1
SADR1==BEGIN
SADR2==RESRT1
SADR3==RENTR1
SADR4==BEGIN
SADR5==BEGIN
SADR6==BEGIN
SADR7==HALT BEGIN
SADR8==HALT BEGIN
SADR9==HALT BEGIN
SADR10==HALT BEGIN
SADR11==HALT BEGIN
PAREA1==123457,,654321
PAREA2==0
PAREA3==SIXBIT/DAKBA/
PAREA4==SIXBIT/TMP/
PAREA5==0
PAREA6==0
ITERAT==1
ENDPGM==1
;MACROS
DEFINE SETUP (A,B)<
AC1=<AC+1>&17
AC2=<AC+2>&17
AC3=<AC+3>&17
AC4=<AC+4>&17
AC5=<AC+5>&17
RAN1=<AC-2>&17
MOVEI AC-1,.
MOVEM AC-1,TESTPC ;SETUP SUBTEST PC
MOVEI AC-1,<AC-1>&17 ;INFORM ERROR ROUTINE
MOVEM AC-1,ERRLOP# ;WHICH AC IS USED FOR ITERATION
MOVEI AC-1,A ;ROUTINE WEIGHTING
ASH AC-1,@CMPLXT+B ;ROUTINE COMPLEXITY
ASH AC-1,@RTIME ;RUN TIME CONTROLLER >
DEFINE RANDOM (A)<
MOVE AC,RAN# ;GENERATE A PSEUDO RANDOM NUMBER
ADD AC,[142536475076]
ROT AC,-1 ;IN BOTH AC AND
EQVB AC,RAN ;REGISTER RAN >
DEFINE LOOP (A,B)<
SOJG AC-1,A ;ITERATION COUNTER
MOVE AC,RAN ;RESTORE RANDOM NUMBER
JUMPL AC-1,B ;LOOP ON ERROR SWITCH >
SUBTTL *PARAM* CONSOLE DATA SWITCH ASSIGNMENTS, SEPT 18,1979
DEFINE S,<; *********************************************************************>
; **********************************************************************
;*DATA SWITCHES (READ FROM CONSOLE IN EXEC MODE OR TYPED IN IN USER MODE)
;*LEFT HALF SWITCHES ARE PRE-ASSIGNED FOR SUBROUTINE PACKAGE USE
;*AND CONTROL LOOPING, PRINTING (TTY OR OTHER DEVICE) AND MISC. FUNCTIONS
; **********************************************************************
ABORT== 400000 ;ABORT PROGRAM ON PASS COMPLETION
RSTART==200000 ;RESTART TEST, PRINT TOTALS
TOTALS==100000 ;PRINT TOTALS, CONTINUE
NOPNT== 040000 ;INHIBIT ALL PRINT/TYPE OUT (EXCEPT FORCED)
PNTLPT==020000 ;PRINT ALL DATA ON LPT (LOGICAL DEVICE, USER MODE)
DING== 010000 ;RING BELL ON ERROR
LOOPER==004000 ;ENTER EXERCISE/CHECK LOOP ON ERROR
ERSTOP==002000 ;HALT ON TEST ERROR
PALERS==001000 ;PRINT ALL ERRORS
RELIAB==000400 ;RELIABILITY MODE
TXTINH==000200 ;INHIBIT ERROR TEXT
INHPAG==000100 ;INHIBIT PAGING
MODDVC==000040 ;MODIFY DEVICE CODE
INHCSH==000020 ;INHIBIT CACHE
OPRSEL==000010 ;OPERATOR SELECTION
CHAIN== 000004 ;CHAIN CONTROL SWITCH
KAHZ50==000002 ;KA10 50 HERTZ POWER
;SWITCH 17 RESERVED !!!
SUBTTL *PARAM* PROGRAM/SUBROUTINE PARAMETERS, SEPT 18,1979
; **********************************************************************
;*SPECIAL SUBPROGRAM LINKAGES
; **********************************************************************
FSELNK= 27772 ;FILE SELECT LINK
FRDLNK= 27773 ;FILE READ LINK
LDLNK= 27774 ;LOAD LINKAGE ADDRESS
DDTLNK= 27775 ;DDT LINKAGE ADDRESS
MODLNK= 27776 ;OPERATIONAL MODE CHECK LINKAGE ADDRESS
SUBLNK= 27777 ;SUBROUTINE LINKAGE ADDRESS
; **********************************************************************
;*SPECIAL SUBROUTINE FATAL HALTS
;*USED TO REPORT ERRORS THAT CAUSE THE SUBROUTINES TO BE UNUSABLE
; **********************************************************************
;ADDRESS TAG REASON
;---------------------
; 1010 NOEXEC ;PROGRAM NOT CODED FOR EXEC MODE OPERATION
; 1011 PLERR ;FATAL PUSH LIST POINTER ERROR
; 1012 PLERR1 ;INITIAL PUSH LIST POINTER ERROR
; 1013 MUOERR ;MUUO WITH LUUO HANDLER WIPED OUT
; 1014 DTEBER ;DTE20 INTERRUPT WITHOUT DOORBELL
; 1015 DTECER ;DTE20 CLOCK INTERRUPT WITHOUT FLAG SET
; 1016 CPIERR ;CPU INITIALIZATION ERROR
; 1017 EOPERR ;END OF PROGRAM ERROR
; 1020 LUOERR ;INTERRUPT WITH LUUO HANDLER WIPED OUT
; **********************************************************************
; **********************************************************************
;OPERATOR DEFINITIONS (NON-UUO'S)
; **********************************************************************
OPDEF GO [PUSHJ P,] ;SUBROUTINE CALL
OPDEF RTN [POPJ P,] ;SUBROUTINE RETURN
OPDEF PUT [PUSH P,] ;PUT DATA ON PUSH LIST
OPDEF GET [POP P,] ;GET DATA FROM PUSH LIST
OPDEF PJRST [JRST ] ;JRST TO ROUTINE THAT RTN'S
OPDEF HALT [JRST 4,] ;DEFINITION FOR DDT
OPDEF JRSTF [JRST 2,] ;DEFINITION FOR DDT
OPDEF JEN [JRST 12,] ;DEFINITION FOR DDT
; **********************************************************************
;SUBROUTINE INITIALIZATION CALL
; **********************************************************************
OPDEF PGMINT [JSP 0,SBINIT] ;SUBROUTINE INITIALIZATION
; **********************************************************************
;HALTING UUO'S (A MORE GRACEFUL HALT THAN SIMPLY USING THE HALT INSTRUCTION).
; **********************************************************************
OPDEF FATAL [37B8!15B12!4] ;FATAL PROGRAMMING HALT
OPDEF ERRHLT [37B8!14B12!4] ;PROGRAM ERROR HALT
; **********************************************************************
;TERMINAL INPUT UUO'S
;ALWAYS COME FROM THE CONSOLE TERMINAL IN EXEC MODE OR THE
;CONTROLLING TERMINAL (REAL TERMINAL OR PTY) IN USER MODE.
; **********************************************************************
OPDEF TTICHR [37B8!0B12!3] ;TTY, INPUT ANY CHARACTER
OPDEF TTIYES [37B8!1B12!3] ;TTY, NORMAL RETURN Y
OPDEF TTINO [37B8!2B12!3] ;TTY, NORMAL RETURN N
OPDEF TTIOCT [37B8!3B12!3] ;TTY, INPUT OCTAL WORD
OPDEF TTIDEC [37B8!4B12!3] ;TTY, INPUT DECIMAL WORD
OPDEF TTICNV [37B8!5B12!3] ;TTY, INPUT CONVERTABLE WORD
OPDEF TTLOOK [37B8!6B12!3] ;TTY, KEYBOARD CHECK
OPDEF TTALTM [37B8!7B12!3] ;TTY, ALT-MODE CHECK
OPDEF TTSIXB [37B8!10B12!3] ;TTY, INPUT SIXBIT WORD
OPDEF TTYINP [37B8!11B12!3] ;TTY, IMAGE MODE INPUT
OPDEF TTICLR [37B8!12B12!3] ;TTY, CLEAR INPUT
;TERMINAL OUTPUT UUO'S.
OPDEF PNTA [37B8!0B12!0] ;PRINT ASCII WORD
OPDEF PNTAF [37B8!0B12!1] ;PRINT ASCII WORD FORCED
OPDEF PNTAL [37B8!17B12!0] ;PRINT ASCIZ LINE
OPDEF PNTALF [37B8!17B12!1] ;PRINT ASCIZ LINE FORCED
OPDEF PSIXL [37B8!14B12!3] ;PRINT SIXBIT'Z LINE
OPDEF PSIXLF [37B8!15B12!3] ;PRINT SIXBIT'Z LINE FORCED
OPDEF PNTMSG [37B8!0B12!0] ;PRINT MESSAGE IMMEDIATE
OPDEF PNTMSF [37B8!1B12!0] ;PRINT MESSAGE IMMEDIATE FORCED
OPDEF PSIXM [37B8!2B12!0] ;PRINT SIXBIT'Z MSG IMMEDIATE
OPDEF PSIXMF [37B8!4B12!0] ;PRINT SIXBIT'Z MSG IMM FORCED
OPDEF PNTCI [37B8!0B12!0] ;PRINT CHARACTER IMMEDIATE
OPDEF PNTCIF [37B8!1B12!0] ;PRINT CHARACTER IMMEDIATE FORCED
OPDEF PNTCHR [37B8!12B12!0] ;PRINT CHARACTER
OPDEF PNTCHF [37B8!12B12!1] ;PRINT CHARACTER FORCED
OPDEF PNT1 [37B8!1B12!0] ;PRINT ONE OCTAL DIGIT
OPDEF PNT1F [37B8!1B12!1] ;PRINT 1 OCTAL DIGIT FORCED
OPDEF PNT2 [37B8!2B12!0] ;PRINT TWO OCTAL DIGITS
OPDEF PNT2F [37B8!2B12!1] ;PRINT 2 OCTAL DIGITS FORCED
OPDEF PNT3 [37B8!3B12!0] ;PRINT THREE OCTAL DIGITS
OPDEF PNT3F [37B8!3B12!1] ;PRINT THREE OCTAL DIGITS FORCED
OPDEF PNT4 [37B8!4B12!0] ;PRINT FOUR OCTAL DIGITS
OPDEF PNT4F [37B8!4B12!1] ;PRINT FOUR OCTAL DIGITS FORCED
OPDEF PNT5 [37B8!5B12!0] ;PRINT FIVE OCTAL DIGITS
OPDEF PNT5F [37B8!5B12!1] ;PRINT FIVE OCTAL DIGITS FORCED
OPDEF PNT6 [37B8!6B12!0] ;PRINT SIX OCTAL DIGITS
OPDEF PNT6F [37B8!6B12!1] ;PRINT SIX OCTAL DIGITS FORCED
OPDEF PNT7 [37B8!7B12!0] ;PRINT 7 OCTAL DIGITS
OPDEF PNT7F [37B8!7B12!1] ;PRINT 7 OCTAL DIGITS FORCED
OPDEF PNT11 [37B8!11B12!0] ;PRINT 11 OCTAL DIGITS
OPDEF PNT11F [37B8!11B12!1] ;PRINT 11 OCTAL DIGITS FORCED.
OPDEF PNTADR [37B8!10B12!0] ;PRINT PHYSICAL ADDRESS
OPDEF PNTADF [37B8!10B12!1] ;PRINT PHYSICAL ADDRESS FORCED
OPDEF PNTOCT [37B8!14B12!0] ;PRINT FULL WORD OCTAL
OPDEF PNTOTF [37B8!14B12!1] ;PRINT FULL WORD OCTAL FORCED
OPDEF PNTHW [37B8!13B12!0] ;PRINT OCTAL HALF WORDS, 6 SP 6
OPDEF PNTHWF [37B8!13B12!1] ;PRINT OCTAL HALF WORDS, 6 SP 6 FORCED
OPDEF PNTOCS [37B8!16B12!3] ;PRINT OCTAL, SUPPRESS LEADING 0'S
OPDEF PNTOCF [37B8!17B12!3] ;PRINT OCTAL, SUPPRESS LEADING 0'S FORCED
OPDEF PNTDEC [37B8!15B12!0] ;PRINT DECIMAL, SUPRESS LEADING 0'S
OPDEF PNTDCF [37B8!15B12!1] ;PRINT DECIMAL, SUPRESS LEADING 0'S FORCED
OPDEF PNTDS [37B8!16B12!0] ;PRINT DECIMAL, SPACES FOR LD 0'S
OPDEF PNTDSF [37B8!16B12!1] ;PRINT DECIMAL, SPACES FOR LD 0'S FORCED
OPDEF PNTNM [37B8!4B12!2] ;PRINT PROGRAM NAME
OPDEF PNTSIX [37B8!0B12!2] ;PRINT SIXBIT WORD
OPDEF PNTSXF [37B8!1B12!2] ;PRINT SIXBIT WORD FORCED
OPDEF DROPDV [37B8!5B12!2] ;CLOSE LOGICAL FILE, USER MODE
OPDEF PNTCW [37B8!2B12!2] ;PRINT DF10 CONTROL WORD
OPDEF PNTCWF [37B8!3B12!2] ;PRINT DF10 CONTROL WORD FORCED
OPDEF PCRL [37B8!0B12!CRLF] ;PRINT CARRIAGE RETURN/LINE FEED
OPDEF PCRLF [37B8!1B12!CRLF] ;PRINT CARRIAGE RETURN/LINE FEED FORCED
OPDEF PSP [37B8!0B12!40] ;PRINT SPACE
OPDEF PSPF [37B8!1B12!40] ;PRINT SPACE FORCED
OPDEF PCRL2 [37B8!0B12!CRLF2] ;PRINT CARRIAGE RETURN/LINE FEED (TWICE)
OPDEF PCRL2F [37B8!1B12!CRLF2] ;PRINT CARRIAGE RETURN/LINE FEED (TWICE) FORCED
OPDEF PBELL [37B8!1B12!7] ;PRINT TTY BELL
OPDEF PFORCE [37B8!1B12!26] ;PRINT FORCE, CONTROL O OVERRIDE
DEFINE PMSG (ARG),<
PSIXM [SIXBIT\ARG'_\]>
DEFINE PMSGF (ARG),<
PSIXMF [SIXBIT\ARG'_\]>
;SIXBTZ -- MACRO TO GENERATE SIXBIT DATA FOR PRINTING
; CONSERVES CORE OVER ASCIZ
DEFINE SIXBTZ (ARG),< [SIXBIT\ARG'_\]>
;CONSOLE SWITCH INPUT UUO.
;READS CONSOLE SWITCHES IF IN EXEC MODE OR ASKS FOR THEM IF
; USER MODE.
OPDEF SWITCH [37B8!10B12!2] ;INPUT CONSOLE SWITCHES
;CLOCK INITIALIZATION UUO - TO SET DESIRED CLOCK OPERATION
;EITHER IGNORE CLOCK, ONLY LET IT TICK OR CAUSE INTERRUPT TO OCCUR.
OPDEF CLOKOP [37B8!13B12!4] ;CLOCK OPERATION UUO - PDP-11 CLOCK
OPDEF MTROP [37B8!4B12!4] ;CLOCK OPERATION UUO - DK20 METER
;KL10 ONLY CACHE OPERATION UUO'S
OPDEF CINVAL [37B8!1B12!4] ;CACHE INVALIDATE
OPDEF CFLUSH [37B8!2B12!4] ;CACHE FLUSH
OPDEF CWRTBI [37B8!3B12!4] ;CACHE WRITE-BACK & INVALIDATE
;END OF PASS/PROGRAM UUOS
;PERFORMS THE END OF PASS FUNCTIONS. INCREMENT PASS COUNT,
;DECREMENT ITERATION COUNT, CHECK IF FINISHED WITH THIS PROGRAM ETC.
OPDEF ENDUUO [37B8!12B12!4] ;UUO TO DISPLAY LIGHTS
OPDEF EOPUUO [37B8!16B12!4] ;END OF PROGRAM UUO
;MEMORY MANAGEMENT UUO'S
;UUO'S TO PERFORM VARIOUS MEMORY FUNCTIONS. MAPPING, ZEROING, PAGING,
;ADDRESS CONVERSION, ETC...
OPDEF MAPMEM [37B8!0B12!4] ;MAP MEMORY
OPDEF MEMZRO [37B8!12B12!2] ;ZERO MEMORY
OPDEF MEMSEG [37B8!11B12!2] ;SETUP MEMORY SEGMENT
OPDEF MAPADR [37B8!13B12!2] ;VIRTUAL TO PHYSICAL ADR CONVERT
OPDEF MAPCNK [37B8!15B12!2] ;MAP MEMORY CHUNK
OPDEF MAPSET [37B8!14B12!2] ;SET KI10 EXEC PAGE MAP
OPDEF MAPPNT [37B8!17B12!2] ;PRINT MEMORY MAP
;DEVICE CODE MODIFICATION UUO
;ALLOWS THE MODIFICATION OF IOT'S TO ONE DEVICE TO BE CHANGED TO
;IOT'S TO A DIFFERENT DEVICE CODE.
OPDEF MODPCU [37B8!7B12!2] ;MODIFY PERHIPERAL CODE, USER
OPDEF MODPCP [37B8!6B12!2] ;MODIFY PERHIPERAL CODE, PROGRAM
IFNDEF MODDVL,<MODDVL==BEGIN>
IFNDEF MODDVU,<MODDVU==BEGIN>
;"DIAMON" FILE SELECTION AND READ UUOS
OPDEF FSELECT [37B8!5B12!4] ;FILE SELECTION
OPDEF FREAD [37B8!6B12!4] ;FILE READ - ASCII DATA
OPDEF FRD36 [37B8!7B12!4] ;FILE READ - 36 BIT DATA
OPDEF FRD8 [37B8!10B12!4] ;FILE READ - 8 BIT DATA
;KI10 ONLY UUO FOR PRINTING MARGIN VALUES
OPDEF PNTMGN [37B8!16B12!2] ;PRINT MARGIN VALUE
XLIST
IFNDEF KLOLD,<LIST
SUBTTL ERROR HANDLING UUO DEFINITIONS, SEPT 18,1979
; **********************************************************************
;ERROR HANDLER PARAMETERS
; **********************************************************************
OPDEF ERUUO [36B8] ;ERROR CALL UUO
OPDEF ERLOOP [35B8] ;ERROR LOOP, CHECKS PC,REPT,REPT1,ERROR
OPDEF ERLP1 [35B8!1B12] ;ERROR LOOP IF PC'S MATCH
OPDEF ERLP2 [35B8!2B12] ;ERROR LOOP IF ANY ERROR
OPDEF REPTUO [34B8] ;REPEAT LOOP UUO
;THE ERROR HANDLER MACROS
;A MACRO TO REPORT AN ERROR AND LOOP
DEFINE ERROR (ADR,FORMAT,CORECT,ACTUAL,F,D,ERR)<
SALL
ERUUO FORMAT,[T,,[SIXBIT\F'_\]
CORECT,,ACTUAL
[SIXBIT\D'_\],,ERR]
XALL
ERLOOP ADR ;IF ERROR, LOOP TO ADR
>
;A MACRO TO REPORT AN ERROR AND NOT LOOP
DEFINE ERROR1 (FORMAT,CORECT,ACTUAL,F,D,ERR)<
SALL
ERUUO FORMAT,[T,,[SIXBIT\F'_\]
CORECT,,ACTUAL
[SIXBIT\D'_\],,ERR]
XALL>
>;END OF KLOLD CONDITIONAL
XLIST
IFDEF $PAPER,<LIST>
SUBTTL STANDARD PROGRAM ASSIGNMENTS
; **********************************************************************
;ACCUMULATORS
; **********************************************************************
P= 17 ;PUSHDOWN POINTER AC (IF PUSH LIST USED)
REPT== 15 ;ERROR HANDLER REPEAT AC
REPT1== 16 ; "
; **********************************************************************
;PDP-10 STANDARD PC CONTROL FLAGS (SAVED ON PUSHJ, JSR, ETC..)
; **********************************************************************
AROV== 400000 ;ARITHMETIC OVERFLOW
CRY0== 200000 ;CARRY 0
CRY1== 100000 ;CARRY 1
FOV== 40000 ;FLOATING POINT OVERFLOW
BIS== 20000 ;BYTE INTERRUPT
USERF== 10000 ;USER MODE
EXIOT== 4000 ;USER PRIV I/O
FXU== 100 ;FLOATING POINT UNDERFLOW
DCK== 40 ;DIVIDE CHECK
; **********************************************************************
;PDP-10 STANDARD ADDRESS ASSIGNMENTS
; **********************************************************************
LUUO== 40 ;UUO STORAGE, UUO 1-37
LUUOI== 41 ;UUO SERVICE INSTRUCTION
; **********************************************************************
;JOB DATA AREA EXTERNALS (OLD DEFINITIONS)
; **********************************************************************
JOBUUO==40
JOB41== 41
JOBREL==44
JOBDDT==74
JOBSYM==116
JOBUSY==117
JOBSA== 120
JOBFF== 121
JOBREN==124
JOBAPR==125
JOBCNI==126
JOBTPC==127
JOBOPC==130
JOBVER==137
; **********************************************************************
;JOB DATA AREA EXTERNALS (NEW DEFINITIONS)
; **********************************************************************
.JBUUO==40
.JB41== 41
.JBREL==44
.JBDDT==74
.JBSYM==116
.JBUSY==117
.JBSA== 120
.JBFF== 121
.JBREN==124
.JBAPR==125
.JBCNI==126
.JBTPC==127
.JBOPC==130
.JBVER==137
; **********************************************************************
;USER MODE APR ASSIGNMENTS (FOR "APRENB" CALL)
; **********************************************************************
PDLOVU==200000 ;PUSHDOWN LIST OVERFLOW
MPVU== 20000 ;MEMORY PROTECTION VIOLATION
NXMU== 10000 ;NON-X-MEMORY
PARU== 4000 ;PARITY ERROR
CLKU== 1000 ;CLOCK
FOVU== 100 ;FLOATING OVERFLOW
AROVU== 10 ;ARITHMETIC OVERFLOW
; **********************************************************************
;USER MODE PRINT OUTPUT CHANNEL ASSIGNMENTS (FOR SUBROUTINE PACKAGE)
;THE USER SHOULD BE CAUTIONED NOT TO USE THESE CHANNELS WHEN
;USING THE SUBROUTINE PACKAGE AND CODING USER MODE PROGRAMS.
; **********************************************************************
$DEVCH==17 ;LOGICAL DEVICE CHANNEL
$DVCH1==16 ;LOGICAL DEV UPDATE INPUT CHANNEL
; **********************************************************************
;PDP-10 SPECIAL COMPATABILITY ASSIGNMENTS
; **********************************************************************
PAG== 010 ;PAGING I/O DEVICE CODE, KI/KL
CCA== 014 ;CACHE I/O DEVICE CODE, KL10
; **********************************************************************
;PDP-10 STANDARD APR CONO ASSIGNMENTS
; **********************************************************************
IOCLR== 200000 ;CLEAR ALL I/O DEVICES
CLKDIS==4000 ;DISABLE CLOCK INTERRUPTS
CLKENB==2000 ;ENABLE CLOCK INTERRUPTS
CLKCLR==1000 ;CLEAR CLOCK FLAG
; **********************************************************************
;PDP-10 STANDARD APR CONI ASSIGNMENTS, RIGHT HALF
; **********************************************************************
CLKENB==2000 ;CLOCK INTERRUPT ENABLED
CLK== 1000 ;CLOCK FLAG
ANXM== 10000 ;KA10, NON-X-MEMORY
INXM== 100 ;KI10
; **********************************************************************
;PDP-10 STANDARD PI CONO ASSIGNMENTS
; **********************************************************************
PWFCLR==400000 ;CLEAR POWER FAIL FLAG
PARCLR==200000 ;CLEAR PARITY ERROR FLAG
PARDIS==100000 ;DISABLE PARITY INTERRUPTS
PARENB==40000 ;ENABLE PARITY INTERRUPTS
PICLR== 10000 ;CLEAR PI SYSTEM
REQSET==4000 ;SET PROGRAM PI REQUEST
CHNON== 2000 ;TURN ON CHANNEL
CHNOFF==1000 ;TURN OFF CHANNEL
PIOFF== 400 ;TURN OFF PI SYSTEM
PION== 200 ;TURN ON PI SYSTEM
; **********************************************************************
;PDP-10 STANDARD PI CONI ASSIGNMENTS
; **********************************************************************
PION== 200 ;PI SYSTEM ON
; **********************************************************************
;PDP-10 STANDARD PI CHANNEL ASSIGNMENTS
; **********************************************************************
PICHN1==100 ;PI CHANNEL 1
PICHN2==40 ;PI CHANNEL 2
PICHN3==20 ;PI CHANNEL 3
PICHN4==10 ;PI CHANNEL 4
PICHN5==4 ;PI CHANNEL 5
PICHN6==2 ;PI CHANNEL 6
PICHN7==1 ;PI CHANNEL 7
PICHNA==177 ;ALL PI CHANNELS, 1 THRU 7
XLIST
IFDEF KA10,<
IFDEF $PAPER,<LIST>
; **********************************************************************
;KA10 APR CHANNEL ASSIGNMENTS
; **********************************************************************
AAPRC1==1 ;APR INTERRUPT CHANNEL
; **********************************************************************
;KA10 APR CONO ASSIGNMENTS
; **********************************************************************
APDCLR==400000 ;CLEAR PUSHDOWN OVERFLOW
AABCLR==40000 ;CLEAR ADDRESS BREAK
AMPCLR==20000 ;CLEAR MEMORY PROTECTION
ANXCLR==10000 ;CLEAR NON-X-MEMORY
AFODIS==400 ;DISABLE FLOATING POINT OVERFLOW
AFOENB==200 ;ENABLE FLOATING POINT OVERFLOW
AFOCLR==100 ;CLEAR FLOATING POINT OVERFLOW
AOVDIS==40 ;DISABLE OVERFLOW
AOVENB==20 ;ENABLE OVERFLOW
AOVCLR==10 ;CLEAR OVERFLOW
; **********************************************************************
;KA10 APR CONI ASSIGNMENTS
; **********************************************************************
APDLOV==200000 ;PUSHDOWN OVERFLOW
AUSRIO==100000 ;USER I/O
AADRBK==40000 ;ADDRESS BREAK
AMPV== 20000 ;MEMORY PROTECTION VIOLATION
ANXM== 10000 ;NON-EXISTENT MEMORY
AFOENB==200 ;FLT PT INTERRUPT ENABLED
AFOV== 100 ;FLOATING POINT OVERFLOW
ATRPOS==40 ;TRAPS OFFSET
AOVENB==20 ;OVERFLOW INTERRUPT ENABLED
AOVFLO==10 ;ARITHMETIC OVERFLOW
; **********************************************************************
;KA10 PI CONI ASSIGNMENTS
; **********************************************************************
APWRFL==400000 ;POWER FAILURE
APARER==200000 ;PARITY ERROR
APAREN==100000 ;PARITY INTERRUPT ENABLED
> ;END CONDITIONAL ON KA10
XLIST
IFDEF KI10,<
IFDEF $PAPER,<LIST>
; **********************************************************************
;KI10 PC CONTROL FLAGS
; **********************************************************************
LIP== 2000 ;LAST INSTRUCTION PUBLIC
TN0== 400 ;TN=00, NO TRAP ;TN=01, ARITH TRAP
TN1== 200 ;TN=10, PDL OV ;TN=11, TRAP 3
; **********************************************************************
;KI10 SPECIAL EXEC MODE FLAGS
; **********************************************************************
UOLIP== 400000 ;UUO OLD L.I.P.
UOUSR== 4000 ;UUO OLD USER
; **********************************************************************
;KI10 APR CHANNEL ASSIGNMENTS
; **********************************************************************
IAPRC1==1 ;APR CLOCK CHANNEL
IAPRE1==10 ;APR ERROR CHANNEL
; **********************************************************************
;KI10 APR CONO ASSIGNMENTS
; **********************************************************************
ITMSET==400000 ;SET TIME OUT TIMER
ITMDIS==100000 ;DISABLE TIME OUT
ITMENB==40000 ;ENABLE TIME OUT
IASRTC==20000 ;CLEAR AUTO RESTART
IASRTS==10000 ;SET AUTO RESTART
IIOPFC==200 ;CLEAR I/O PAGE FAIL
INXCLR==100 ;CLEAR NON-X-MEM
; **********************************************************************
;KI10 APR CONI ASSIGNMENTS, RIGHT HALF
; **********************************************************************
ITMOUT==400000 ;TIMER TIMED OUT
IPARER==200000 ;PARITY ERROR
IPAREN==100000 ;PARITY ENABLED
ITMOEN==40000 ;TIME OUT ENABLED
IPWRFL==20000 ;POWER FAIL
IASRTE==10000 ;AUTO RESTART ENABLED
IIOPFL==200 ;I/O PAGE FAIL
INXM== 100 ;NON-X-MEMORY
; **********************************************************************
;KI10 APR CONI ASSIGMENTS, LEFT HALF
; **********************************************************************
IMLAPD==200000 ;MEMORY OVERLAP DISABLED
IFMMAN==100000 ;FAST MEMORY MANUAL
IMIPGD==40000 ;MI PROGRAM DISABLE
ICNSLR==20000 ;CONSOLE READ ONLY
ICNSLL==10000 ;CONSOLE LOCKED
IP50HZ==4000 ;50 HZ POWER
IMGINM==2000 ;MANUAL MARGINS
IMAINT==1000 ;MAINTENANCE MODE
IPWRLO==400 ;POWER LOW
IMGNLO==200 ;MARGIN COMPARATOR LOW
SENSE1==40 ;SENSE SWITCHES 1
SENSE2==20 ; 2
SENSE3==10 ; 3
SENSE4==4 ; 4
SENSE5==2 ; 5
SENSE6==1 ; 6
; **********************************************************************
;KI10 APR DATAO ASSIGNMENTS
; **********************************************************************
IEVNPR==20000 ;WRITE EVEN PARITY
ISPDOF==10000 ;SPEED MARGINS OFF
ISPDON==4000 ;SPEED MARGINS ON
IMGNOF==2000 ;MARGINS OFF - LH
IMGNON==1000 ;MARGINS ON - LH
; **********************************************************************
;KI10 PI CONO ASSIGNMENTS
; **********************************************************************
IRQCLR==20000 ;CLEAR PROGRAM PI REQUEST
; **********************************************************************
;KI10 PI CONI ASSIGNMENTS
; **********************************************************************
IINSTF==400000 ;ADDRESS CONDITIONS, INST FETCH
IDATAF==200000 ; DATA FETCH
IWRITE==100000 ; WRITE
IADSTP==40000 ;ADDRESS STOP
IADBRK==20000 ;ADDRESS BREAK
IADEXC==10000 ;ADDRESS SWITCHES EXEC
IADUSR==4000 ; " " USER
IPRSTP==2000 ;PARITY STOP
INXSTP==1000 ;NON-X-MEM STOP
; **********************************************************************
;KI10 PAG CONI ASSIGNMENTS
; **********************************************************************
EXCMEM==400 ;EXEC MEMORY SPACE
AMCLRB==40 ;ASSOCIATIVE MEMORY CLEAR BIT
; **********************************************************************
;KI10 PAG DATAO ASSIGNMENTS, LEFT HALF
; **********************************************************************
LDUSRB==400000 ;LOAD USER BASE REGISTER
SMLUSR==40000 ;SMALL USER, 32K OR UNDER
USRCMP==20000 ;USER ADR COMPARE ENABLE
; **********************************************************************
;KI10 PAG DATAO ASSIGNMENTS, RIGHT HALF
; **********************************************************************
LDEXCB==400000 ;LOAD EXEC BASE REGISTER
TRPENB==20000 ;ENABLE TRAPS
; **********************************************************************
;KI10 PAG DATAI ASSIGNMENTS
; **********************************************************************
SMLUSR==40000 ;SMALL USER
USRCMP==20000 ;USER ADR COMPARE ENABLED
TRPENB==20000 ;RH, TRAPS ENABLED
; **********************************************************************
;KI10 PTR DATAO ASSIGNMENTS
; **********************************************************************
;ADDRESS CONDITIONS, ADDRESS BREAK ;AS ABOVE, PI CONI
;ADDRESS SWITCHES, 14-35
; **********************************************************************
;KI10 EXEC PAGE MAP PAGE ASSIGNMENTS
; **********************************************************************
PGFTRP==420 ;PAGE FAULT TRAP
AROVTP==421 ;ARITHMETIC TRAP
PDOVTP==422 ;PUSHDOWN OVERFLOW TRAP
TRP3TP==423 ;TRAP 3 TRAP
; **********************************************************************
;KI10 USER PAGE MAP PAGE ASSIGNMENTS
; **********************************************************************
PGFTRP==420 ;PAGE FAULT TRAP
AROVTP==421 ;ARITHMETIC TRAP
PDOVTP==422 ;PUSHDOWN OVERFLOW TRAP
TRP3TP==423 ;TRAP 3 TRAP
MUUO== 424 ;MUUO STORAGE
MUUOPC==425 ;C(PC) OF MUUO STORAGE
EXCPFW==426 ;EXEC PAGE FAIL WORD
USRPFW==427 ;USER PAGE FAIL WORD
KNTRP== 430 ;KERNAL NO TRAP - NEW PC'S-
KTRP== 431 ;" TRAP
SNTRP== 432 ;SUPERVISOR NO TRAP
STRP== 433 ;" TRAP
CNTRP== 434 ;CONCEAL NO TRAP
CTRP== 435 ;" TRAP
PNTRP== 436 ;PUBLIC NO TRAP
PTRP== 437 ;" TRAP
> ;END CONDITIONAL ON KI10
XLIST
IFDEF KL10,<
IFNDEF KL10P0,<
IFDEF $PAPER,<LIST>
;KL10 CONO APR 000 ASSIGMENTS
; **********************************************************************
LIOCLR==200000 ;CLEAR ALL I/O DEVICES
LFLGEN==100000 ;ENABLE SELECTED FLAG
LFLGDS==40000 ;DISABLE SELECTED FLAG
LFLGCL==20000 ;CLEAR SELECTED FLAG
LFLGST==10000 ;SET SELECTED FLAG
LSBUSE==4000 ;SBUS ERROR FLAG
LNXMER==2000 ;NON-EXISTENT MEMORY FLAG
LPARER==1000 ;PARITY ERROR FLAG
LIOPFE==400 ;I/O PAGE FAIL FLAG
LPWRFL==100 ;POWER FAIL FLAG
LCASWD==20 ;CACHE SWEEP DONE FLAG
LAPRP7==7 ;APR PI CHANNEL 7
LAPRP6==6 ;APR PI CHANNEL 6
LAPRP5==5 ;APR PI CHANNEL 5
LAPRP4==4 ;APR PI CHANNEL 4
LAPRP3==3 ;APR PI CHANNEL 3
LAPRP2==2 ;APR PI CHANNEL 2
LAPRP1==1 ;APR PI CHANNEL 1
LESBER==104000 ;ENABLE SBUS ERRORS
LDSBER==044000 ;DISABLE SBUS ERRORS
LCSBER==024000 ;CLR SBUS ERRORS
LSSBER==014000 ;SET SBUS ERROR
LENXER==102000 ;ENABLE NON-EXISTENT MEMORY
LDNXER==042000 ;DISABLE NON-EXISTENT MEORY
LCNXER==022000 ;CLR NON-EXISTENT MEMORY
LSNXER==012000 ;SET NON-EXISTENT MEMORY
LEPAER==101000 ;ENABLE PARITY ERRORS
LDPAER==041000 ;DISABLE PARITY ERRORS
LCPAER==021000 ;CLR PARITY ERROR
LSPAER==011000 ;SET PARITY ERROR
LEIOPF==100400 ;ENABLE I/O PAGE FAILS
LDIOPF==040400 ;DISABLE I/O PAGE FAILS
LCIOPF==020400 ;CLR I/O PAGE FAIL
LSIOPF==010400 ;SET I/O PAGE FAIL
LEPWRF==100100 ;ENABLE POWER FAIL
LDPWRF==040100 ;DISABLE POWER FAIL
LCPWRF==020100 ;CLR POWER FAIL
LSPWRF==010100 ;SET POWER FAIL
LECASD==100020 ;ENABLE CACHE SWEEP DONE
LDCASD==040020 ;DISABLE CACHE SWEEP DONE
LCCASD==020020 ;CLR CACHE SWEEP DONE
LSCASD==010020 ;SET CACHE SWEEP DONE
LAPRAL==127520 ;CLR ALL ERROR FLAGS & ENABLE
; **********************************************************************
;KL10 CONI APR 000 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LSBSEN==4000 ;SBUS ERRORS ENABLED
LNXMEN==2000 ;NON-EXISTENT MEMORY ERRORS ENABLED
LPAREN==1000 ;PARITY ERRORS ENABLED
LIOPFE=400 ;I/O PAFE FAILURES ENABLED
LPWRFE==100 ;POWER FAILURES ENABLED
LCASDE==20 ;CACHE SWEEP DONE ENABLED
; **********************************************************************
;KL10 CONI APR 000 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
LCASWB==200000 ;CACHE SWEEP BUSY
LSBUSE==4000 ;SBUS ERROR FLAG
LNXMER==2000 ;NON-EXISTENT MEMORY FLAG
LPARER==1000 ;PARITY ERROR FLAG
LIOPFE==400 ;I/O PAGE FAIL FLAG
LPWRFL==100 ;POWER FAIL FLAG
LCASWD==20 ;CACHE SWEEP DONE FLAG
LAPRP7==7 ;APR PI CHANNEL 7
LAPRP6==6 ;APR PI CHANNEL 6
LAPRP5==5 ;APR PI CHANNEL 5
LAPRP4==4 ;APR PI CHANNEL 4
LAPRP3==3 ;APR PI CHANNEL 3
LAPRP2==2 ;APR PI CHANNEL 2
LAPRP1==1 ;APR PI CHANNEL 1
LINT==10 ;APR INTERRUPT
; **********************************************************************
;KL10 DATAO APR 000 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LINSTF==400 ;ADDRESS BREAK REQUEST FOR INST. FETCH
LDATAF==200 ;ADDRESS BREAK REQUEST FOR DATA FETCH
LWRITE==100 ;ADDRESS BREAK REQUEST FOR DATA WRITE
LUSCMP==40 ;USER ADDRESS COMPARE
LEXCMP==0 ;EXEC ADDRESS COMPARE
; **********************************************************************
;KL10 DATAO APR 000 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
;DATAO APR,ADDRESS SWITCHES=13-35
>
XLIST
IFDEF KL10P0,<
IFDEF $PAPER,<LIST>
;KL10 CONO APR 000 ASSIGMENTS
; **********************************************************************
LIOCLR==200000 ;CLEAR ALL I/O DEVICES
LFLGEN==100000 ;ENABLE SELECTED FLAG
LFLGDS==40000 ;DISABLE SELECTED FLAG
LFLGCL==20000 ;CLEAR SELECTED FLAG
LFLGST==10000 ;SET SELECTED FLAG
LSBUSE==4000 ;SBUS ERROR FLAG
LNXMER==2000 ;NON-EXISTENT MEMORY FLAG
LIOPFE==1000 ;I/O PAGE FAIL FLAG
LPARER==400 ;MB PARITY ERROR FLAG
LCADRP==200 ;CACHE ADDRESS PARITY ERROR FLAG
LSADRP==100 ;S-BUS ADDRESS PARITY ERROR FLAG
LPWRFL==40 ;POWER FAIL FLAG
LCASWD==20 ;CACHE SWEEP DONE FLAG
LAPRP7==7 ;APR PI CHANNEL 7
LAPRP6==6 ;APR PI CHANNEL 6
LAPRP5==5 ;APR PI CHANNEL 5
LAPRP4==4 ;APR PI CHANNEL 4
LAPRP3==3 ;APR PI CHANNEL 3
LAPRP2==2 ;APR PI CHANNEL 2
LAPRP1==1 ;APR PI CHANNEL 1
LESBER==104000 ;ENABLE SBUS ERRORS
LDSBER==044000 ;DISABLE SBUS ERRORS
LCSBER==024000 ;CLR SBUS ERRORS
LSSBER==014000 ;SET SBUS ERROR
LENXER==102000 ;ENABLE NON-EXISTENT MEMORY
LDNXER==042000 ;DISABLE NON-EXISTENT MEORY
LCNXER==022000 ;CLR NON-EXISTENT MEMORY
LSNXER==012000 ;SET NON-EXISTENT MEMORY
LEIOPF==101000 ;ENABLE I/O PAGE FAILS
LDIOPF==041000 ;DISABLE I/O PAGE FAILS
LCIOPF==021000 ;CLR I/O PAGE FAIL
LSIOPF==011000 ;SET I/O PAGE FAIL
LEPAER==100400 ;ENABLE PARITY ERRORS
LDPAER==040400 ;DISABLE PARITY ERRORS
LCPAER==020400 ;CLR PARITY ERROR
LSPAER==010400 ;SET PARITY ERROR
LECAER==100200 ;ENABLE CACHE ADR PARITY ERRORS
LDCAER==040200 ; " DISABLE
LCCAER==020200 ; " CLR
LSCAER==010200 ; " SET
LESAER==100100 ;ENABLE S-BUS ADR PARITY ERRORS
LDSAER==040100 ; " DISABLE
LCSAER==020100 ; " CLR
LSSAER==010100 ; " SET
LEPWRF==100040 ;ENABLE POWER FAIL
LDPWRF==040400 ;DISABLE POWER FAIL
LCPWRF==020040 ;CLR POWER FAIL
LSPWRF==010040 ;SET POWER FAIL
LECASD==100020 ;ENABLE CACHE SWEEP DONE
LDCASD==040020 ;DISABLE CACHE SWEEP DONE
LCCASD==020020 ;CLR CACHE SWEEP DONE
LSCASD==010020 ;SET CACHE SWEEP DONE
LAPRAL==127760 ;CLR ALL ERROR FLAGS & ENABLE
; **********************************************************************
;KL10 CONI APR 000 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LSBSEN==4000 ;SBUS ERRORS ENABLED
LNXMEN==2000 ;NON-EXISTENT MEMORY ERRORS ENABLED
LIOPFE==1000 ;I/O PAGE FAILURES ENABLED
LPAREN==400 ;PARITY ERRORS ENABLED
LCADEN==200 ;CACHE ADR PARITY ERRORS ENABLED
LSADEN==100 ;S-BUS ADR PARITY ERRORS ENABLED
LPWRFE==40 ;POWER FAILURES ENABLED
LCASDE==20 ;CACHE SWEEP DONE ENABLED
; **********************************************************************
;KL10 CONI APR 000 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
LCASWB==200000 ;CACHE SWEEP BUSY
LSBUSE==4000 ;SBUS ERROR FLAG
LNXMER==2000 ;NON-EXISTENT MEMORY FLAG
LIOPFE==1000 ;I/O PAGE FAIL FLAG
LPARER==400 ;PARITY ERROR FLAG
LCADRP==200 ;CACHE ADR PARITY ERROR FLAG
LSADRP==100 ;S-BUS ADR PARITY ERROR FLAG
LPWRFL==40 ;POWER FAIL FLAG
LCASWD==20 ;CACHE SWEEP DONE FLAG
LAPRP7==7 ;APR PI CHANNEL 7
LAPRP6==6 ;APR PI CHANNEL 6
LAPRP5==5 ;APR PI CHANNEL 5
LAPRP4==4 ;APR PI CHANNEL 4
LAPRP3==3 ;APR PI CHANNEL 3
LAPRP2==2 ;APR PI CHANNEL 2
LAPRP1==1 ;APR PI CHANNEL 1
LINT==10 ;APR INTERRUPT
; **********************************************************************
;KL10 DATAO APR 000 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LINSTF==400 ;ADDRESS BREAK REQUEST FOR INST. FETCH
LDATAF==200 ;ADDRESS BREAK REQUEST FOR DATA FETCH
LWRITE==100 ;ADDRESS BREAK REQUEST FOR DATA WRITE
LUSCMP==40 ;USER ADDRESS COMPARE
LEXCMP==0 ;EXEC ADDRESS COMPARE
; **********************************************************************
;KL10 DATAO APR 000 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
;DATAO APR,ADDRESS SWITCHES=13-35
>
XLIST
IFDEF $PAPER,<LIST>
; **********************************************************************
;KL10 DATAI APR 000 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LINSTF==400 ;ADDRESS BREAK REQUEST FOR INST. FETCH
LDATAF==200 ;ADDRESS BREAK REQUEST FOR DATA FETCH
LWRITE==100 ;ADDRESS BREAK REQUEST FOR DATA WRITE
LUSCMP==40 ;USER ADDRESS COMPARE
LEXCMP==0 ;EXEC ADDRESS COMPARE
; **********************************************************************
;KL10 DATAI APR 000 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
;DATAI APR,ADDRESS SWITCHES=13-35
; **********************************************************************
;KL10 BLKO APR 000 ASSIGMENTS (IMMEDIATE MODE)
; **********************************************************************
;REFILL ALGORITHM BITS 18-20
;REFILL ALGORITHM ADDRESS 27-33
; **********************************************************************
;KL10 BLKI APR 000 ASSIGMENTS
; **********************************************************************
;MICRO-CODE OPTIONS = 0-8
;MICRO-CODE VERSION NUMBER = 9-17
;HARDWARE OPTIONS =18-23
;PROCESSOR SERIAL NUMBER = 24-35
; **********************************************************************
;KL10 CONO PI 004 ASSIGMENTS
; **********************************************************************
LEVNPA==400000 ;WRITE EVEN PARITY ADDRESS
LEVNPD==200000 ;WRITE EVEN PARITY DATA
LEVNCD==100000 ;WRITE EVEN CACHE DIRECTORY PARITY *P0
LRQCLR==20000 ;DROP INTERRUPT ON SELECTED CHANNEL
LPICLR==10000 ;CLEAR PI SYSTEM
LREQSE==4000 ;REQUEST INTERRUPT ON SELECTED CHANNEL
LCHNON=2000 ;TURN ON SELECTED CHANNEL
LCHNOF==1000 ;TURN OFF SELECTED CHANNEL
LPIOFF==400 ;TURN PI SYSTEM OFF
LPION==200 ;TURN PI SYSTEM ON
LPICH1==100 ;PI CHANNEL 1
LPICH2==40 ;PI CHANNEL 2
LPICH3==20 ;PI CHANNEL 3
LPICH4==10 ;PI CHANNEL 4
LPICH5==4 ;PI CHANNEL 5
LPICH6==2 ;PI CHANNEL 6
LPICH7==1 ;PI CHANNEL 7
LPICHA==177 ;ALL PI CHANNELS
; **********************************************************************
;KL10 CONI PI 004 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LPRCH1==100 ;PROGRAM REQUEST ON CHANNEL 1
LPRCH2==40 ;PROGRAM REQUEST ON CHANNEL 2
LPRCH3==20 ;PROGRAM REQUEST ON CHANNEL 3
LPRCH4==10 ;PROGRAM REQUEST ON CHANNEL 4
LPRCH5==4 ;PROGRAM REQUEST ON CHANNEL 5
LPRCH6==2 ;PROGRAM REQUEST ON CHANNEL 6
LPRCH7==1 ;PROGRAM REQUEST ON CHANNEL 7
; **********************************************************************
;KL10 CONI PI 004 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
LEVNPA==400000 ;WRITE EVEN PARITY ADDRESS
LEVNPD==200000 ;WRITE EVEN PARITY DATA
LEVNCD==100000 ;WRITE EVEN CACHE DIRECTORY PARITY *P0
LPIIP1==40000 ;PI IN PROGRESS ON CHANNEL 1
LPIIP2==20000 ;PI IN PROGRESS ON CHANNEL 2
LPIIP3==10000 ;PI IN PROGRESS ON CHANNEL 3
LPIIP4==4000 ;PI IN PROGRESS ON CHANNEL 4
LPIIP5==2000 ;PI IN PROGRESS ON CHANNEL 5
LPIIP6==1000 ;PI IN PROGRESS ON CHANNEL 6
LPIIP7==400 ;PI IN PROGRESS ON CHANNEL 7
LPION==200 ;PI SYSTEM ON
LPICH1==100 ;PI CHANNEL 1 ON
LPICH2==40 ;PI CHANNEL 2 ON
LPICH3==20 ;PI CHANNEL 3 ON
LPICH4==10 ;PI CHANNEL 4 ON
LPICH5==4 ;PI CHANNEL 5 ON
LPICH6==2 ;PI CHANNEL 6 ON
LPICH7==1 ;PI CHANNEL 7 ON
; **********************************************************************
;KL10 DATAO PAG 010 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LLACBL==400000 ;LOAD AC BLOCKS
LLPRCN==200000 ;LOAD PREVIOUS CONTEXT SECTION
LLDUSB==100000 ;LOAD USER BASE REGISTER
LCWSX==40 ;
;CURRENT AC BLOCKS BITS 6 - 8
;PREVIOUS AC BLOCKS BITS 9 - 11
;PREVIOUS CONTEXT SECTION BITS 13 - 17
; **********************************************************************
;KL10 DATAO PAG 010 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
;USER BASE REGISTER BITS 23 - 35
; **********************************************************************
;KL10 DATAI PAG 010 ASSIGMENTS (LEFT HALF)
; **********************************************************************
LLACBL==400000 ;LOAD AC BLOCKS
LLPRCN==200000 ;LOAD PREVIOUS CONTEXT SECTION
LLDUSB==100000 ;LOAD USER BASE REGISTER
LCWSX==40 ;
;CURRENT AC BLOCKS BITS 6 - 8
;PREVIOUS AC BLOCKS BITS 9 - 11
;PREVIOUS CONTEXT SECTION BITS 13 - 17
; **********************************************************************
;KL10 DATAI PAG 010 ASSIGMENTS (RIGHT HALF)
; **********************************************************************
;USER BASE REGISTER BITS 23 - 35
; **********************************************************************
;KL10 CONO PAG 010 ASSIGMENTS
; **********************************************************************
LCASLO==400000 ;CACHE STRATEGY LOOK
LCASLD==200000 ;CACHE STRATEGY LOAD
LSMODE==40000 ;SECTION MODE
LTRPEN==20000 ;TRAP AND PAGE ENABLE
;EXEC BASE REGISTER = 23-35
; **********************************************************************
;KL10 CONI PAG 010 ASSIGMENTS
; **********************************************************************
LCSLOO==400000 ;CACHE STRATEGY LOOK
LCSLOA==200000 ;CACHE STRATEGY LOAD
LSECMO==40000 ;SECTION MODE
LTRPAE==20000 ;TRAP AND PAGE ENABLE
;EXEC BASE REGISTER = 23-35
; **********************************************************************
;KL10 BLKO PAG 010 ASSIGMENTS (IMMEDIATE MODE)
; **********************************************************************
XLIST
IFNDEF KL10P0,<
IFDEF $PAPER,<LIST>
; **********************************************************************
;KL10 EXEC PAGE MAP PAGE ASSIGNMENTS
; **********************************************************************
LAROVT==421 ;ARITHMETIC TRAP
LPDOVT==422 ;PUSHDOWN OVERFLOW TRAP
LTRP3T==423 ;TRAP 3 TRAP
; **********************************************************************
;KL10 USER PAGE MAP PAGE ASSIGNMENTS
; **********************************************************************
LEUPFW==420 ;EXEC & USER PAGE FAIL WORD
LAROVT==421 ;ARITHMETIC TRAP
LPDOVT==422 ;PUSHDOWN OVERFLOW TRAP
LTRP3T==423 ;TRAP 3 TRAP
LMUUO== 424 ;MUUO STORAGE
LMUUOP==425 ;C(PC) OF MUUO STORAGE
LPFWPC==426 ;C(PC) OF PAGE FAIL WORD
LPGFTR==427 ;PAGE FAIL NEW PC TRAP
LKNTRP==430 ;KERNAL NO TRAP - NEW PC'S-
LKTRP== 431 ;" TRAP
LSNTRP==432 ;SUPERVISOR NO TRAP
LSTRP== 433 ;" TRAP
LCNTRP==434 ;CONCEAL NO TRAP
LCTRP== 435 ;" TRAP
LPNTRP==436 ;PUBLIC NO TRAP
LPTRP== 437 ;" TRAP
>
XLIST
IFDEF KL10P0,<
IFDEF $PAPER,<LIST>
; **********************************************************************
;KL10 EXEC PAGE MAP PAGE ASSIGNMENTS
; **********************************************************************
LAROVT==421 ;ARITHMETIC TRAP
LPDOVT==422 ;PUSHDOWN OVERFLOW TRAP
LTRP3T==423 ;TRAP 3 TRAP
LTBASH==510 ;TIME-BASE, HI
LTBASL==511 ;TIME-BASE, LO
LPRFMH==512 ;PERFORMANCE ANAYLYSIS, HI
LPRFML==513 ;PERFORMANCE ANAYLYSIS, LO
; **********************************************************************
;KL10 USER PAGE MAP PAGE ASSIGNMENTS
; **********************************************************************
LAROVT==421 ;ARITHMETIC TRAP
LPDOVT==422 ;PUSHDOWN OVERFLOW TRAP
LTRP3T==423 ;TRAP 3 TRAP
LMUUO== 424 ;MUUO STORAGE
LMUUOP==425 ;C(PC) OF MUUO STORAGE
LCNTXT==426 ;PROCESS CONTEXT WORD
LKNTRP==430 ;KERNAL NO TRAP - NEW PC'S-
LKTRP== 431 ;" TRAP
LSNTRP==432 ;SUPERVISOR NO TRAP
LSTRP== 433 ;" TRAP
LCNTRP==434 ;CONCEAL NO TRAP
LCTRP== 435 ;" TRAP
LPNTRP==436 ;PUBLIC NO TRAP
LPTRP== 437 ;" TRAP
LEUPFW==500 ;EXEC & USER PAGE FAIL WORD
LPFWPC==501 ;C(PC) OF PAGE FAIL WORD
LPGFTR==502 ;PAGE FAIL NEW PC
LEBXMH==504 ;E-BOX CLOCK TICK METER, HI
LEBXML==505 ;E-BOX CLOCK TICK METER, LO
LMBXMH==506 ;M-BOX CYCLE METER, HI
LMBXML==507 ;M-BOX CYCLE METER, LO
>> ;END CONDITIONAL ON KL10
LIST
SUBTTL *FIXED* FIXED CONTROL AND DISPATCH STORAGE, SEPT 18,1979
LOC 30000
; **********************************************************************
;PROGRAM STARTING ADDRESSES
;THESE ADDRESSES CALL VARIOUS SPECIAL START ROUTINES AND OR OPTIONS
;NORMAL START ADDRESS IS 30000 ALL OTHERS ARE SPECIAL. INVOKED BECAUSE
;OF END OF PASS, POWER FAILURE, DDT START, RE-ENTERING(TYPICALLY USER
;MODE), OR ANY NUMBER OF SPECIAL FEATURE TESTS.
; **********************************************************************
BEGIN: JRST @MODLNK ;STAND-ALONE START
$START: JRST START ;MODE CHECK STARTING ADDRESS
DIAGMN: JRST @LDLNK ;DIAGNOSTIC MONITOR START
SYSEXR: JRST @LDLNK ;SYSTEM EXERCISER START
SFSTRT: JRST SADR1 ;SPECIAL FEATURE START
PFSTRT: JRST SADR2 ;POWER FAIL RESTART
REENTR: JRST SADR3 ;REENTER START(USUALLY USER MODE ONLY)
SRTDDT: ;COMMONLY MISTAKEN NAME FOR "DDTSRT"
DDTSRT: JRST @DDTLNK ;DDT START
BEGIN1: JRST STARTA ;LOOP START(END OF PASS COMES HERE)
SBINIT: JRST @SUBLNK ;PMGINT LINKAGE
RETURN: 0 ;RETURN ADDRESS STORAGE
START1: SADR7 ;OPTIONAL STARTING ADR/INSTRUCTIONS
START2: SADR8 ; "
START3: SADR9 ; "
START4: SADR10 ; "
START5: SADR11 ; "
; **********************************************************************
;PROGRAM FIXED PARAMETER AREA
; **********************************************************************
PNTNAM: PAREA3 ;SIXBIT PROGRAM NAME
PNTEXT: PAREA4 ;SIXBIT PROGRAM EXTENSION
RANDBS: PAREA1 ;RANDOM BASE NUMBER
SWTEXR: PAREA2 ;SYSTEM EXERCISER SWITCHES
ITRCNT: ITERAT ;PROGRAM ITERATIONS
$PNAME: PGMNAM ;POINTER TO PROGRAMS NAME
$PVER: MCNVER,,DECVER ;MCN & DEC VERSION LEVEL
$MODVL: MODDVL ;DEVICE CODE CHANGE LOWER LIMIT
$MODVU: MODDVU ;DEVICE CODE CHANGE UPPER LIMIT
$EMODE: IFNDEF EXCASB,<0> IFDEF EXCASB,<-1> ;EXEC ALLOWED
$UMODE: IFNDEF USRASB,<0> IFDEF USRASB,<-1> ;USER ALLOWED
$DSKUP: IFNDEF DSKUPD,<0> IFDEF DSKUPD,<-1> ;DISK UPDATE MODE
$MMAP: IFNDEF MEMMAP,<0> IFDEF MEMMAP,<-1> ;ALLOW MEMORY RTNS
PAREA7: PAREA5 ;OPTIONAL PARAMETER
PAREA8: PAREA6 ;OPTIONAL PARAMETER
; **********************************************************************
;PROGRAM VARIABLE PARAMETER AREA
; **********************************************************************
USER: 0 ; 0 = EXEC, -1 = USER MODE FLAG
KAIFLG: 0 ;PROCESSOR TYPE, 0 = KA10, -1 = KI10
KLFLG: 0 ;PROCESSOR TYPE, 0 = KA/KI, -1 = KL10
MONFLG: -1 ;DIAG MONITOR SPECIAL USER FLAG
MONCTL: 0 ;DIAG MON/SYS EXR FLAG
MONTEN: 0 ;-1= LOADED BY 10
CLOCKF: 0 ;CLOCK TICKED FLAG
CONSW: 0 ;CONSOLE SWITCH SETTINGS
PASCNT: 0 ;PROGRAM PASS COUNT
RUNFLG: 0 ;PROGRAM RUN FLAG
TESTPC: 0 ;SUBTEST PC
ERRPC: 0 ;ERROR PC
ERRTLS: 0 ;ERROR TOTALS
TICKS: 0 ;PROGRAM RUNNING TIME
MARGIN: 0 ;KI10 MARGIN WORD VALUE
$ONETM: 0 ;SUBROUTINE INITIALIZATION FLAG
; **********************************************************************
;SPECIAL PROGRAM DISPATCH ADDRESSES
; **********************************************************************
BEGEND: ENDUUO ;END OF PASS
$BEND1: JRST BEGIN1 ;KEEP RUNNING PROGRAM
$BEND2: EOPUUO ;END OF PROGRAM - NO RETURN
CNTLC: SADR5 ;CONTROL C XFER ADDRESS
ALTMGO: SADR6 ;ALTMODE XFER ADDRESS
CPOPJ1: ;SKIP RETURN
UUOSKP: AOS (P) ;SKIP RETURN FROM UUO
CPOPJ: ;NON-SKIP REGULAR RETURN
UUOEXT: RTN ;UUO RETURN
UUORTN: JFCL ;ADDITIONAL USERS UUO ROUTINE
$UORTX: JFCL ;ADDITIONAL UUO LINKAGE
$UUOER: JFCL ;INITED AS (JRST $UOERX)
$ITRHL: JFCL ;ADDITIONAL INTERRUPT LINKAGE
$ITRX1: JFCL ; "
$USRHL: JFCL ; "
$RSRTX: JFCL ;ADDITIONAL POWER FAIL LINKAGE
$RSRTY: JFCL ; "
RESRT1: JFCL ; INITED AS (JRST RESRTX)
RESRT2: JFCL ; "
$PARER: JFCL ;ADDITIONAL PARITY ERROR LINKAGE
ERMORE: JFCL ;ADDITIONAL ERROR HANDLER LINKAGE
HALT . ;IMPROPER TRANSFER HALT
$PSHER: 0 ;INITED AS (JRST PSHERR)
ITRCH1: 0 ;PC & FLAGS OF CURRENT INTERRUPT
0 ;INITED AS (JRST $ITRC1)
; **********************************************************************
;PROCESSOR CONTROL STORAGE
; **********************************************************************
$ACC0: 0 ;INTERRUPT SAVED AC0
$SVPI: 0 ;INTERRUPT SAVED PI
$SVAPR: 0 ;INTERRUPT SAVED APR
$SVPAG: 0 ;INTERRUPT SAVED PAG (DATAI)
$SPAG1: 0 ;INTERRUPT SAVED PAG (CONI)
$SVUUO: 0 ;CURRENT USERS UUO
$SVUPC: 0 ;PC OF CURRENT USERS UUO
REPTU: 0 ;REPEAT UUO ITERATIONS
SCOPE: 0 ;ERROR HANDLER SCOPE LOOP FLAG
%CORFLG:0 ; " CORRECT FLAG
%COREC: 0 ; " CORRECT DATA
%ACTFL: 0 ; " ACTUAL FLAG
%ACTUL: 0 ; " ACTUAL DATA
%DISCR: 0 ; " DISCREPENCY DATA
; **********************************************************************
;UUO DISPATCH TABLE
; **********************************************************************
XLIST
IFNDEF LUUO1,<LUUO1=$UUOER>
IFNDEF LUUO2,<LUUO2=$UUOER>
IFNDEF LUUO3,<LUUO3=$UUOER>
IFNDEF LUUO4,<LUUO4=$UUOER>
IFNDEF LUUO5,<LUUO5=$UUOER>
IFNDEF LUUO6,<LUUO6=$UUOER>
IFNDEF LUUO7,<LUUO7=$UUOER>
IFNDEF LUUO10,<LUUO10=$UUOER>
IFNDEF LUUO11,<LUUO11=$UUOER>
IFNDEF LUUO12,<LUUO12=$UUOER>
IFNDEF LUUO13,<LUUO13=$UUOER>
IFNDEF LUUO14,<LUUO14=$UUOER>
IFNDEF LUUO15,<LUUO15=$UUOER>
IFNDEF LUUO16,<LUUO16=$UUOER>
IFNDEF LUUO17,<LUUO17=$UUOER>
IFNDEF LUUO20,<LUUO20=$UUOER>
IFNDEF LUUO21,<LUUO21=$UUOER>
IFNDEF LUUO22,<LUUO22=$UUOER>
IFNDEF LUUO23,<LUUO23=$UUOER>
IFNDEF LUUO24,<LUUO24=$UUOER>
IFNDEF LUUO25,<LUUO25=$UUOER>
IFNDEF LUUO26,<LUUO26=$UUOER>
IFNDEF LUUO27,<LUUO27=$UUOER>
IFNDEF LUUO30,<LUUO30=$UUOER>
IFNDEF LUUO31,<LUUO31=$UUOER>
IFNDEF LUUO32,<LUUO32=$UUOER>
IFNDEF LUUO33,<LUUO33=$UUOER>
LIST
UUODIS: LUUO1,,$UUOER
LUUO3,,LUUO2
LUUO5,,LUUO4
LUUO7,,LUUO6
LUUO11,,LUUO10
LUUO13,,LUUO12
LUUO15,,LUUO14
LUUO17,,LUUO16
LUUO21,,LUUO20
LUUO23,,LUUO22
LUUO25,,LUUO24
LUUO27,,LUUO26
LUUO31,,LUUO30
LUUO33,,LUUO32
; **********************************************************************
;MEMORY MANAGMENT STORAGE
; **********************************************************************
DF22F: 0 ;DF10 CONTROL FLAG, 0 = 18, -1 = 22 BIT
MAPNEW: 0 ;MEMORY MAPPING CONTROL FLAG, -1 = 4096K MAPPING
MEMTOT: 0 ;TOTAL MEMORY SIZE IN K (1024.)
MEMLOW: 0 ;LOWEST USABLE MEMORY
MEMSIZ: BLOCK ^D41 ;MEMORY SEGMENT POINTER TABLE
; **********************************************************************
;PRINT CONTROL STORAGE
; **********************************************************************
PNTFLG: 0 ;PRINT FLAG, -1 WHILE IN PRINT ROUTINE
PNTENB: 0 ;PRINT ENABLE
PDISF: 0 ;PRINT DISABLED FLAG
PNTINH: 0 ;INHIBIT PRINT INPUT CHECKS
PNTSPC: 0 ;PRINT SPACE CONTROL
OPTIME: 0 ;TYPE-IN WAIT TIME
$TWCNT: 0 ;TIME WAITED
$DVOFF: 0 ;LOGICAL DEVICE INITED FLAG
TTYFIL: 0 ;TTY EXEC FILLERS FLAG
TTYSPD: 0 ;TTY EXEC BAUD RATE
$TTCHR: 0 ;ACTUAL TYPED IN CHAR
$CHRIN: 0 ;UPPER CASED & PARITY STRIPPED CHAR
$TYPNB: 0 ;TYPED IN NUMBER
$CRLF: 0 ;FREE CR/LF FLAG
$TABF: 0 ;TAB CONVERSION FLAG
$FFF: 0 ;FORM FEED CONVERSION FLAG
$VTF: 0 ;VERTICAL TAB CONVERSION FLAG
USRLFF: 0 ;USER LF FILLERS
USRCRF: 0 ;USER CR FILLERS
; **********************************************************************
;THE FOLLOWING MISCELLANEOUS PRINT CHARACTERS ARE INCLUDED
;TO FACILITATE PRINTING AND ARE CALLED AS FOLLOWS:
; MOVEI NAME
; PNTA ;OR PNTAF
; **********************************************************************
CRLF: ASCII/
/
CRLF2: ASCII/
/
COMMA: ASCII/,/
PERIOD: ASCII/./
SPACE: ASCII/ /
TAB: ASCII/ /
MINUS:
HYPEN: ASCII/-/
PLUS: ASCII/+/
AST: ASCII/*/
ATSIN: ASCII/@/
LFP: ASCII/(/
RTP: ASCII/)/
BELL: BYTE (7) 007
QUEST: ASCII/?/
SLASH: ASCII!/!
DOLLAR: ASCII/$/
RADIX: ^D10 ;DECIMAL PRINT RADIX
RADLSP: 40 ;DECIMAL PRINT LEADING CHAR
RADLSC: ^D10 ;DECIMAL PRINT LEADING CHAR COUNT
; **********************************************************************
;USER MODE OUTPUT FILE INFORMATION
; **********************************************************************
$OBUF: BLOCK 3 ;LOGICAL FILE OUTPUT BUFFER HEADER
$OUTNM: SIXBIT /PRINT/ ;FILE NAME
$OUTEX: SIXBIT /PNT/ ;FILE NAME EXTENSION
BLOCK 2
; **********************************************************************
;DISK UPDATE MODE FILE INFORMATION
; **********************************************************************
$IBUF: BLOCK 3
$INNM: SIXBIT /PRINT/
$INEXT: SIXBIT /PNT/
BLOCK 2
; **********************************************************************
;PUSHDOWN LIST CONTROL INFORMATION
; **********************************************************************
PLIST: PLIST-PLISTE,,PLIST
PLISTS: BLOCK 200
PLISTE: 0 ;END OF PUSHDOWN LIST
; **********************************************************************
;POWER LINE CLOCK FREQUENCY FLAG
; **********************************************************************
CYCL60: 0 ;0 = 60, -1 = 50 CYCLE
; **********************************************************************
;KL10 CACHE CONTROL FLAGS
; **********************************************************************
CSHFLG: 0 ;ALLOW CACHE IF 0
CSHMEM: 0 ;CACHE MEMORY SEGMENTS IF 0
; **********************************************************************
;NUMBER INPUT DIGIT FLAG
; **********************************************************************
TTNBRF: 0 ;-1 IF ANY DIGIT TYPED
; **********************************************************************
;KL10 & KI10 "INHPAG" SWITCH PAGING PREVENTION
; **********************************************************************
PVPAGI: 0 ;IF NON-ZERO, OVERRIDE "INHPAG" SWITCH ACTION
; **********************************************************************
;ERROR REPORTING ROUTINE ADDITIONAL USERS CONTROL INSTRUCTIONS
; **********************************************************************
%ERHI1: 0 ;IF NON-ZERO, XCT'D AT START OF %ERUUO
%ERHI2: 0 ;IF NON-ZERO, XCT'D AT END OF %ERUUO
%ERHI3: 0 ;IF NON-ZERO, XCT'D AFTER "PC" OF %ERUUO
; **********************************************************************
;SPECIAL USERS UUO INTERCEPT INSTRUCTION
; **********************************************************************
$$UUO: 0 ;IF NON-ZERO, XCT'D AT START OF $UORTN
; **********************************************************************
;USER MODE MONITOR TYPE FLAG
; **********************************************************************
MONTYP: 0 ;0 = TOPS10, -1 = TOPS20
;*********************************************************************^
;*KL10 PROCESSOR TYPE FLAG, 0=P0, 1=BBD NEW, 2=BBD OLD
;*********************************************************************^
KLTYP: 0
; **********************************************************************
;SPECIAL USERS MUUO INTERCEPT INSTRUCTION
; **********************************************************************
$$MUUO: 0 ;IF NON-ZERO, XCT'D AT START OF MUUOER
; **********************************************************************
;SPECIAL USERS USER MODE OUTPUT ERROR INTERCEPT INSTUCTION
; **********************************************************************
$$OUTER:0 ;IF NON-ZERO, XCT'D AT END OF USER MODE ERROR
; **********************************************************************
;"SWITCH" CALL USAGE CONTROL
; **********************************************************************
$$TOGGLE:0 ;IF NON-ZERO, USE C(CONSW) FOR SWITCHES
; **********************************************************************
;SPECIAL USERS ALTMODE SWITCH CALL INTERCEPT INSTRUCTIONS
; **********************************************************************
$$TAX1: 0 ;IF NON-ZERO, XCT'D AT START OF ALTMODE SWITCH CALL
$$TAX2: 0 ;IF NON-ZERO, XCT'D AT END OF ALTMODE SWITCH CALL
; **********************************************************************
;SM10 (KS-10) PROCESSOR TYPE FLAG
; **********************************************************************
SM10: 0 ;IF -1 THIS IS A KS-10
; **********************************************************************
;RIGHT HALF SWITCHES PROMPT TABLE ADDRESS
; **********************************************************************
SWPTAB: 0 ;0 = NO PROMPT, ADR = ADR OF SIXBIT PROMPT TABLE
; **********************************************************************
;SPECIAL FUTURE EXPANSION ROOM
; **********************************************************************
; **********************************************************************
;END OF FIXED STORAGE
; **********************************************************************
LOC 30577
ENDFIX: 0 ;END OF FIXED STORAGE
;INITIALIZE UUO HANDLER
START: ;PGMINT ;INITIALIZE SUBROUTINES
MOVE 0,RANDBS ;EXEC, SETUP RANDOM BASE
SKIPE USER ;USER, USE TIME OF DAY IN JIFFIES
;CALL 0,[SIXBIT/TIMER/]
MOVEM 0,RAN ;SETUP RANDOM BASE
;INITIALIZE COMPLEXITY TABLE
A=0
STARTA: SETZM CMPLXT ;STORE A TABLE OF POWERS OF 2
MOVEI 1,1 ;OR 0.
;SWITCH
TLNN RELIAB ;FAST CYCLE SWITCH SET ?
SETZM 1 ;YES, STORE ZERO'S
REPEAT 7,
< MOVEM 1,CMPLXT+1+A
LSH 1,1
A=A+1>
;INITIALIZE RUN TIME
MOVEI 1,1
TLNE RELIAB ;FAST CYCLE SWITCH SET ?
MOVEI 1,7 ;NO, MULTIPLY RUNNING TIME
MOVEM 1,RTIME ;STORE IN RTIME
JRST CAM1 ;GO PERFORM DIAGNOSTIC
RENTR1: ;DROPDV ;CLOSE LOGICAL OUTPUT FILE
;CALL [SIXBIT .EXIT.]
PGMNAM: ASCIZ/
PDP-10 KA10 BASIC INSTRUCTION RELIABILITY TEST 1 (DAKBA)
(COMPARES, SKIPS, EXCHANGES, BOOLE, ROTATES, TESTS, ETC.)
/
;CONSTANTS
RTIME: 0
CMPLXT: BLOCK 20
SUBTTL DIAGNOSTIC SECTION
LALL
;TEST CAMN,CAME (SIMPLE)
;THE CONTENTS OF THE AC IS COMPARED WITH ITSELF
;AN ERROR WILL OCCUR IF CAMN SKIPS OR CAME FAILS TO SKIP
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
;15 ACS ARE USED IN THE TEST
AC=2
CAM1: SETUP 20,0
RANDOM
CAMNE1: REPEAT ^D10,
< MOVE AC,RAN
CAMN AC,AC ;C(AC) = C(AC)
CAME AC,AC
ERROR AC,AC ;CHECK CAME,CAMN
AC=<AC+1>&17
>
AC=2
LOOP CAMNE1-3,CAMNE1
;TEST MOVE TO AC,FURTHER TEST OF CAME
;THE C(AC) IS COMPARED WITH THE CONTENTS OF THE RANDOM
;NUMBER GENERATOR. 15 ACS ARE USED IN THE TEST
;ERRORS ARE PRINTED IN THE FORM (PC,AC,C(AC),CORRECT)
AC=2
MOVAC: SETUP 20,0
RANDOM
MOVAC1: REPEAT ^D10,
< MOVE AC,RAN ;MOVE RAN INTO AC.
CAME AC,RAN ;RANDOM SHOULD EQUAL AC
ERROR AC,RAN ;IF NOT MOVE FAILED
CAME AC,RAN# ;IF AC=RAN CAME FAILED
ERROR AC,RAN# ;IF PREVIOUS WORKED,INHIBIT STORE
AC=<AC+1>&17 ;AC ON CAME FAILED
>
AC=2
LOOP MOVAC1-3,MOVAC1
;TEST THE SKIP INST FOR NO SKIP,ABILITY TO LOAD
;AN AC,AC SELECTION,AND AC0 LOGIC(NOT LOADING 0)
;ERRORS ARE PRESENTED IN THE FORM(PC,AC,C(AC),CORRECT)
AC=5
SKP: SETUP 30,0
RANDOM
SKP1: MOVE [0] ;DO NOT USE AC0 FOR SKIP
REPEAT ^D8,
< SKIP AC1,RAN# ;STORE IN AC,DO NOT SKIP,CHECK
CAME AC1,AC ;NEW AC AGAINST PREVIOUSLY
ERROR AC1,AC ;STORED AC. IF AC=AC+1(SKIP LOGIC)
CAME [0] ;IF NOT= STORE CYCLE
ERROR [0] ;IF 0 NONE ZERO ADDR/STORE
AC=<AC+1>&17
AC1=<AC+1>&17
>
AC=5
LOOP SKP1-4,SKP1
;TEST SKIPA INST FOR PC INCREMENT,ABILITY TO LOAD AN AC,
;AC SELECTION AND AC0 LOGIC(NOT LOADING 0).ERRORS ARE
;PRESENTED IN THE FORM (PC,AC,C(AC),CORRECT)
AC=5
SKPA: SETUP 30,0
RANDOM
SKPA1: MOVE [0] ;DO NOT USE AC0 FOR SKIPA
REPEAT ^D8,
< SKIPA AC1,AC ;LOAD AC1 AND SKIP
ER AC,[ASCII /SKP/] ;FAILED TO SKIP.
CAME AC,RAN ;C(E) GET CHANGED?
ERROR AC,RAN ;YES.
CAME AC1,RAN ;AC GET LOADED WITH RAN?
ERROR AC1,RAN ;NO.
CAME 0,[0] ;C(AC0) STILL = 0?
ERROR [0] ;CHECK STORE CYCLE,AC ADDRESS
AC=<AC+1>&17
AC1=<AC+1>&17
>
AC=5
LOOP SKPA1-4,SKPA1
;TEST EXCH. BOTH AC AND E ARE AC'S. CHECK FOR
;CORRECT DATA IN AC AND C(E).
;C(E) = -1, C(AC) = RAN NUM.
AC=5
EXCH1: SETUP 200,0
EXCH2: RANDOM
EXCH3: SETOB AC1,RAN1 ;MAKE C(E) = -1.
EXCH AC,AC1 ;DO THE EXCH.
CAME AC,RAN1 ;THE C(AC) SHOULD = ORIG C(E).
ERR RAN1,RAN
CAME AC1,RAN ;THE C(E) SHOULD = ORIG C(AC).
ERR RAN1,RAN
LOOP EXCH2,EXCH3
;TEST SETCA FOR COMPLEMENT AC AND NOT STORING IN C(E)
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
;SETCA DOES NOT NORMALLY CHANGE THE CONTENTS OF "E"
AC=10
BOLCA: REPEAT 2,
< SETUP 100,2
RANDOM
MOVE AC2,[0] ;CLEAR AC2, USED TO INSURE
SETCA AC,AC2 ;SETCA DOES NOT STORE IN C(E)
CAMN AC,RAN# ;IF AC UNCHANGED CNTL PULSES
ERROR AC,RAN ;FOR INST SETCA FAILED
REPEAT 3,
< SETCA AC,AC2>
CAME AC,RAN# ;A TOTAL OF 4 COMPLEMENTS
ERROR AC,RAN ;SHOULD PRODUCE ORIGINAL NUM
CAME AC2,[0] ;IF SETCA STORED C(E)
ERROR AC2,[0] ;C(AC2) WILL NO LONGER BE 0.
LOOP .-16,.-15
AC=AC+17
>
;TEST SETCAI ABILITY TO COMPLEMENT AC AND FAILURE TO FETCH C(E)
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT
;SETCA IS INDEXED FOR NOISE PURPOSES
AC=5
BOLCAI: SETUP 40,0
BOLCA1: RANDOM
BOLCA2: REPEAT 4,
< MOVE AC1,AC ;MOVE RANDOM TO AN AC
SETCAI AC1,-1(AC) ;TWO COMP SHOULD PRODUCE
SETCAI AC1,777000(AC) ;ORIGINAL NUMBER
CAME AC1,AC ;SETCAI FAILED
ERROR AC1,AC
AC=<AC+1>&17
AC1=<AC+1>&17
>
AC=5
LOOP BOLCA1,BOLCA2
;TEST XOR TO ZERO,XOR 0 TO N,N TO N,-1 TO N
;THREE ACS ARE USED IN THE TEST
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT
AC=1
BOLX: REPEAT 3,
< SETUP 200,0
RANDOM
MOVE AC,[0] ;CLEAR THE AC
XOR AC,RAN ;0 EXCLUSIVE ORED WITH
CAME AC,RAN ;RANDOM SHOULD = RANDOM
ERROR AC,RAN ;XOR FAILED
XOR AC,[0] ;ANY NUMBER XORED
CAME AC,RAN ;WITH THE NUMBER 0
ERROR AC,RAN ;SHOULD REMAIN UNCHANGED
XOR AC,RAN ;ANY NUMBER XORED
CAME AC,[0] ;WITH ITSELF SHOULD
ERROR AC,[0] ;EQUAL 0
XOR AC,[-1] ;SET AC TO ALL ONES
XOR AC,RAN ;AC SHOULD CONTAIN COMP OF RAN
XOR AC,[-1] ;RECOMPLEMENT AC TO ORIG
CAME AC,RAN ;CHECK FOR RANDOM
ERROR AC,RAN ;XOR FAILED
LOOP .-22,.-21
AC=AC+1
>
;TEST SETZI AND IOR. SETZI ABILITY TO CLEAR,IOR RAN TO 0,
;RANDOM TO RANDOM,RANDOM TO COMP RANDOM,0 TO RANDOM
;ERROR IN THE FORM (PC,AC,C(AC),CORRECT)
AC=5
BOLZI: SETUP 100,0
RANDOM
BOLZI1: REPEAT 2,
< MOVE AC,RAN# ;LOAD THE AC THEN
SETZI AC,(AC) ;TRY TO CLEAR IT,INDEX REDUNDANT
CAME AC,[0] ;IF NOT 0
ERROR AC,[0] ;SETZI FAILED
IOR AC,RAN ;INCLUSIVE OR OF A
CAME AC,RAN ;NUMBER TO 0 SHOULD PRODUCE
ERROR AC,RAN ;THE NUMBER
IOR AC,RAN ;IOR SAME NUMBERS
CAME AC,RAN ;SHOULD HAVE NO EFFECT
ERROR AC,RAN ;ON AC.IOR FAILED
IOR AC,[0] ;IOR OF NO BITS SHOULD DO NOTHING
CAME AC,RAN
ERROR AC,RAN ;IOR FAILED
SETCA AC,0
IOR AC,RAN ;INCLUSIVE OR OF COMP NUMBERS
CAME AC,[-1] ;SHOULD SET ALL BITS
ERROR AC,[-1] ;IOR FAILED
IOR AC,[-1] ;ALL BITS TO ALL BITS
CAME AC,[-1] ;PRODUCE ALL BITS
ERROR AC,[-1]
AC=<AC+1>&17
>
AC=5
LOOP BOLZI1-4,BOLZI1
;TEST AND FOR 0 TO 0,1 TO 1,0 TO 1,1 TO 0
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BOLA: SETUP 400,0
RANDOM
BOLA1: AND AC,RAN ;NUMBER AND NUMBeR
CAME AC,RAN ;SHOULD EQUAL NUMBER
ERROR AC,RAN ;IF NOT, "AND" FAILED.
AND AC,[-1] ;"AND" OF ALL BITS WITH
CAME AC,RAN ;ANY NUMBER SHOULD
ERROR AC,RAN ;LEAVE THE NUMBER UNCHANGED
SETCA AC,
AND AC,RAN ;"AND" OF A NUMBER WITH ITS
CAME AC,[0] ;COMPLEMENT SHOULD
ERROR AC,[0] ;PRODUCE 0
LOOP BOLA1-4,BOLA1
;TEST ORCA AND SETO. 1 TO 0,1 TO 1, 0 TO 0, 1 TO 0,0 TO 1
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
;ONE AC IS USED FOR TESTING
AC=12
BOLOS: SETUP 300,0
RANDOM
BOLOS1: SETO AC,. ;WILL CHANGE THIS INST IF FETCH/STORE C(E).
CAME AC,[-1] ;CHECK FOR ALL BITS SET
ERROR AC,[-1] ;SETO FAILED
ORCA AC,RAN ;-1 ORED TO RANDOM
CAME AC,RAN ;SHOULD PRODUCE RANDOM
ERROR AC,RAN ;IF AC COMP PROBELY
ORCA AC,RAN ;RANDOM TO RANDOM SHOULD
CAME AC,[-1] ;PRODUCE -1
ERROR AC,[-1] ;IF AC COMPLEMENTED PROPERLY
ORCA AC,[0] ;WITH NO BITS EFFECT IC COMP AC
ORCA AC,RAN
CAME AC,[-1] ;NO BITS COMPLEMENTS TO PRODUCE
ERROR AC,[-1] ;ALL ONES
LOOP BOLOS1-4,BOLOS1
;TEST ANDCA.1 TO 1,0 TO 0, 0 TO 1,0 TO 0,1 TO 1,1 TO 0
;ERRORS ARE IN THE FORM(PC,AC,C(AC),CORRECT
;ONE AC IS USED
AC=13
BOLAC: SETUP 200,1
RANDOM
BOLAC1: ANDCA AC,RAN ;ANDCA OF LIKE NUMBERS
CAME AC,[0] ;SHOULD PRODUCE 0
ERROR AC,[0] ;ANDCA FAILED
ANDCA AC,RAN
CAME AC,RAN ;ANDCA OF ZERO AND NUMBER
ERROR AC,RAN ;SHOULD PRODUCE NUMBER
SETO AC,. ;SET ALL BITS
ANDCA AC,RAN
CAME AC,[0] ;ANDCA OF ALL BITS WITH NUMBER
ERROR AC,[0] ;SHOULD PRODUCE 0
LOOP BOLAC1-4,BOLAC1
;TEST EQV,1 TO 1,0 TO 0,1 TO 0,0 TO 1. EQV =(SET ALL LIKE BITS)
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=14
BOLEQ: SETUP 200,2
RANDOM
BOLEQ1: EQV AC,RAN ;WHEN NUMBERS ARE EQUAL
CAME AC,[-1] ;EQV SHOULD PRODUCE ALL
ERROR AC,[-1] ;BITS SET.EQV FAILED
EQV AC,RAN#
CAME AC,RAN ;WITH AC SET,EQV SHOULD
ERROR AC,RAN ;PRODUCE C(E) IN THE AC
SETZI AC,-1
EQV AC,RAN ;WHEN AC=0 EQV SHOULD
SETCA AC,. ;PRODUCE COMPLEMENT OF
CAME AC,RAN ;C(E)
ERROR AC,RAN ;EQV FAILED
LOOP BOLEQ1-3,BOLEQ1
;TEST SETM. SET THE CONTENTS OF MEMORY TO THE AC
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BOLSM: SETUP 100,0
RANDOM
BOLSM1: REPEAT 2,
< SETM AC1,RAN ;THE NET RESULT OF SETM
CAME AC1,AC ;IS THE SAME AS MOVE
ERROR AC1,RAN ;SETM FAILED
AC=<AC+1>&17
AC1=<AC+1>&17
>
AC=10
LOOP BOLSM1-4,BOLSM1
;TEST SETCM. (MOVE THE COMPLEMENT OF MEMORY TO AC)
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=14
BOLCM: SETUP 100,0
RANDOM
BOLCM1: SETCM AC1,RAN ;COMP OF RANDOM TO AC
SETCM AC2,AC1 ;RECOMP TO AC2
CAME AC2,RAN
ERROR AC2,RAN ;SETCM 1 OR 2 FAILED
LOOP BOLCM1-3,BOLCM1
;TEST ORCM. (INCLUSIVE OR THE CONTENTS OF COMPLEMENTED MEMORY
;TO THE CONTENTS OF AC.) ERRORS ARE IN THE FORM (PC,AC,
;C(AC),CORRECT
AC=5
BOLOC: SETUP 140,0
RANDOM
BOLOC1: ORCM AC,RAN ;LIKE NUMBERS SHOULD PRODUCE
CAME AC,[-1] ;ALL BITS SET
ERROR AC,[-1]
ORCM AC,RAN ;ANY NUMBER ORED WITH ALL
CAME AC,[-1] ;ONES SHOULD PRODUCE
ERROR AC,[-1] ;ALL ONES
SETZI AC,-1
ORCM AC,RAN ;THE RANDOM NUMBER IS
SETCA AC,. ;ORED TO 0. THIS SHOULD
CAME AC,RAN ;PRODUCE THE COMPLEMENT
ERROR AC,RAN ;OF RANDOM
ORCM AC,[-1]
CAME AC,RAN ;ORING -1 SHOULD LEAVE
ERROR AC,RAN ;AC UNCHANGED
LOOP BOLOC1-3,BOLOC1
;TEST ANDCM (AND WITH THE COMP OF MEMORY)
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BOLAX: SETUP 140,0
RANDOM
BOLAX1: ANDCM AC,RAN ;LIKE NUMBERS SHOULD
CAME AC,[0] ;PRODUCE 0
ERROR AC,[0] ;ANDCM FAILED
ANDCM AC,RAN ;ANYTHING ANDED TO
CAME AC,[0] ;ZERO SHOULD = 0
ERROR AC,[0]
SETO AC,
ANDCM AC,RAN ;AC SHOULD - COMP OF MEMORY
ANDCM AC,[0] ;AC SHOULD REMAIN UNCHANGED
XOR AC,[-1] ;COMP AC
CAME AC,RAN ;AFTER COMP SHOULD EQUAL
ERROR AC,RAN ;RANDOM. ANDCM FAILED
LOOP BOLAX1-3,BOLAX1
;TEST ORCB (INCLUSIVE OR THE COMPLEMENT OF AC AND C(E))
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=1
BOLOB: SETUP 140,0
RANDOM
BOLOB1: ORCB AC,RAN ;PRODUCE COMP OF RAN
ORCB AC,[-1] ;COMP AC
CAME AC,RAN ;CHECK ORCB
ERROR AC,RAN
ORCB AC,[-1] ;COMP AC
ORCB AC,RAN ;ANY TWO COMPLEMENTED NUMBERS
CAME AC,[-1] ;SHOULD PRODUCE ALL ONES
ERROR AC,[-1]
ORCB AC,[0] ;AC COMPLEMENTS TO 0
CAME AC,[-1]
ERROR AC,[-1] ;ORCB FAILED
LOOP BOLOB1-4,BOLOB1
;TEST ANDCB (AND WITH BOTH OPERANDS COMPLEMENTED)
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=2
BOLAB: SETUP 140,0
RANDOM
BOLAB1: ANDCB AC,RAN ;PRODUCE COMP OF RAN
ANDCB AC,[0] ;COMP AC
CAME AC,RAN ;CHECK FOR ORIGIONAL NUMBER
ERROR AC,RAN ;ANDCB FAILED
ANDCB AC,[0] ;COMPLEMENT AC
ANDCB AC,[0] ;RECOMPLEMENT AC
CAME AC,RAN ;SHOULD PRODUCE ORIGIONAL
ERROR AC,RAN ;ANDCB FAILED
ANDCB AC,[-1] ;RESULT SHOULD BE 0 IF
CAME AC,[0] ;CONTENTS OF E
ERROR AC,[0] ;CONTAINS NO BITS AFTER COMP
ANDCB AC,RAN ;AC SHOULD EQUAL COMP OF RAN
ANDCB AC,[0] ;COMP AC
CAME AC,RAN ;THE AND TO 0
ERROR AC,RAN ;FAILED
LOOP BOLAB1-3,BOLAB1
;TEST SETA (EFFECTIVELY A NO OPERATION IN THIS MODE)
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=3
BOLSA: SETUP 100,0
RANDOM
;DO 7 SETA'S.
BOLSA1: REPEAT 7,<
SETA AC,.>
CAME AC,RAN ;C(AC) SHOULD = ORIG. C(AC)
ERROR AC,RAN
LOOP BOLSA1-3,BOLSA1
;TEST IORM, WHERE E IS AN AC. THE INST IS TESTED
;FOR NOT STORING IN AC AS WELL AS STORING PROPERLY
;IN E.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=11
BMIOR: SETUP 100,1
BMIOR1: RANDOM
BMIOR2: MOVS AC1,AC ;AC=C(E) ORIG
CAMN AC,AC1 ;HALVES SAME?
JRST BMIOR1 ;YES. REJECT.
SETCM AC ;SIM AN
AND AC1 ;IOR
XOR AC ;INST
IORM AC,AC1 ;RESULT TO AC1
CAMN AC,AC1 ;BOTH SAME?
ERROR AC,AC1 ;YES. STORED IN AC.
CAME AC1,0 ;C(E) = SIM. ANS?
ERROR AC,0 ;NO. IORM FAILED.
LOOP BMIOR1,BMIOR2
;TEST ORCAM, WHERE E IS AN AC. THE INSTRUCTION IS TESTED
;FOR NOT STORING IN AC AS WELL AS STORING PROPERLY IN C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=12
BMICA: SETUP 100,1
BMICA1: RANDOM
BMICA2: MOVS AC1,AC ;SECOND RANDOM NUMBER
SETCM AC2,AC1 ;MOVE COMPLEMENT OF NUMBER
SETCM AC ;SIMULATE
AND AC2 ;THE INSTRUCTION
XOR AC ;IN AC0.
ORCAM AC1,AC ;RESULT TO C(E)
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. STORED IN AC.
CAME AC,0 ;C(E) = SIM. ANS?
ERROR AC,0 ;NO. ORCAM FAILED.
LOOP BMICA1,BMICA2
;TEST ORCMM, WHERE E IS AN AC. THE INSTRUCTION
;IS TESTED FOR NOT STORING IN AC AS WELL AS THE
;CORRECT ANSWER IN C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=13
BMICM: SETUP 100,0
BMICM1: RANDOM
BMICM2: MOVS AC1,AC ;SECOND RANDOM NUMBER
SETCM AC2,AC ;SIMULATE
SETCM AC1 ;THE
AND AC2 ;INSTRUCTION
XOR AC1 ;IN AC0
CAMN 0,AC1 ;IS SIMULATED ANS
JRST BMICM1 ;= C(AC)?...REJECT.
ORCMM AC1,AC ;IF AC1 = AC, STORE INHIBIT
CAMN AC1,AC
ERROR AC1,AC ;FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;ORCMM FAILED.
LOOP BMICM1,BMICM2
;TEST ORCBM, WHERE E IS AN AC. THE INSTRUCTION
;IS TESTED FOR NOT STORING IN AC AS WELL AS THE
;CORRECT ANSWER IN C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=14
BMICB: SETUP 200,0
BMICB1: RANDOM
BMICB2: MOVS AC1,AC ;AC1= 0101,0011
SETCM AC2,AC ;AC2= 1100,1010
SETCM AC2 ;AC0 = 0011,0101
ANDCM AC1 ;AC0 = 0010,0100
XOR AC2 ;AC0 = 1110,1110
ORCBM AC1,AC ;SHOULD PRODUCE SAME LOGIC
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;ORCBM FAILED.
LOOP BMICB1,BMICB2
;TEST XORM, WHERE E IS AN AC. THE INSTRUCTION IS
;TESTED FOR NOT STORING AC AS WELL AS CONTENTS
;OF E CORRECTNESS.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BMX: SETUP 200,1
BMX1: RANDOM
BMX2: JUMPE AC,BMX1 ;REJECT IF RAN = 0.
MOVS AC1,AC ;SECOND RANDOM NUMBER.
SETCM AC
ANDCA AC1 ;PERFORM
MOVE AC2,AC ;A PSEUDO
IOR AC2,AC1 ;EXCLUSIVE
ANDCA AC2 ;OR INSTRUCTION
XORM AC1,AC ;DO THE XOR
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;XORM FAILED.
LOOP BMX1,BMX2
;TEST EQVM, WHERE E IS AN AC. THE INSTRUCTION
;IS TESTED FOR NOT STORING AC AS WELL AS
;CORRECTNESS OF C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BMEQ: SETUP 100,0
BMEQ1: RANDOM
BMEQ2: MOVS AC1,AC ;SECOND RANDOM NUMBER
SETCM AC1 ;EQV IS SAME LOGIC
XOR AC ;AS XOR WITH COMP AC
EQVM AC1,AC ;EQV SETS ALL LIKE BITS
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;EQVM FAILED.
LOOP BMEQ1,BMEQ2
;TEST ANDM, WHERE E IS AN AC. THE INSTRUCTION IS
;TESTED FOR NOT STORING IN AC AS WELL AS STORING
;PROPERLY IN C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=3
BMAN: SETUP 100,0
BMAN1: RANDOM
BMAN2: MOVS AC1,AC ;SECOND RANDOM NUMBER
MOVE AC ;SIMULATE
IOR AC1 ;AN "AND"
XOR AC1 ;INSTRUCTION.
XOR AC ;IN AC0
CAMN AC1,AC ;REJECT THE NUMBER
JRST BMAN1 ;IF EQUAL.
ANDM AC1,AC ;THE INSTRUCTION
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;AND FAILED.
LOOP BMAN1,BMAN2
;TEST ANDCAM, WHERE E IS AN AC. THE INSTRUCTION IS
;TESTED FOR NOT STORING IN AN AC AS WELL AS
;STORING C(E) PROPERLY.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=4
BMACA: SETUP 100,0
BMACA1: RANDOM
BMACA2: JUMPE AC,BMACA1 ;REJECT IF RAN = 0.
MOVS AC1,AC ;SECOND RANDOM NUMBER
SETM AC ;SIMULATE
ORCA AC1 ;ANDCA
SETCA ;LOGIC
ANDCAM AC1,AC ;THE INSTRUCTION
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;ANDCA FAILED.
LOOP BMACA1,BMACA2
;TEST ANDCMM, WHERE E IS AN AC. THE INSTRUCTION IS
;TESTED FOR NOT STORING IN AN AC AS WELL AS
;STORING C(E) PROPERLY.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=5
BMACM: SETUP 100,0
BMACM1: RANDOM
BMACM2: JUMPE AC,BMACM1 ;REJECT IF RAN = 0.
MOVS AC1,AC ;SECOND RANDOM NUMBER
SETAM AC1,0 ;AC1 TO AC0.
IOR AC ;SIMULATE
XOR AC ;THE INSTUCTION
CAMN 0,AC1 ;SIM ANS = C(AC)?
JRST BMACM1 ;YES. REJECT.
ANDCMM AC1,AC ;DO AN ANDCMM INSTRUCTION.
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;ANDCMM FAILED.
LOOP BMACM1,BMACM2
;TEST ANDCBM, WHERE E IS AN AC. THE INSTRUCTION
;IS TESTED FOR NOT STORING IN AC AS WELL AS STORING
;PROPERLY IN C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=7
BMACB: SETUP 100,0
BMACB1: RANDOM
BMACB2: MOVS AC1,AC ;SECOND RANDOM NUMBER.
SETCM AC1 ;SIMULATE
SETCM 1,AC ;AN
AND 1 ;ANDCBM INST.
ANDCBM AC1,AC ;DO AN ANDCBM.
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;ANDCBM FAILED.
LOOP BMACB1,BMACB2
;TEST SETCAM, WHERE E IS AN AC. THE INSTRUCTION
;IS TESTED FOR NOT STORING IN AC AS WELL AS
;PROPER C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BMCMM: SETUP 200,0
BMCMM1: RANDOM
BMCMM2: MOVS AC1,AC ;CHECK FOR NO CHANGE
CAMN AC1,AC ;IN 8 COMPLEMENTS
JRST BMCMM1 ;REJECT IF HALF SAME.
REPEAT 10,<
SETCMM AC1,AC>
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,RAN ;C(E) SHOULD = ORIG. C(E).
ERROR AC,RAN ;SETCMM FAILED.
LOOP BMCMM1,BMCMM2
;TEST SETCAM, WHERE E IS AN AC. TEST FOR NOT
;STORING IN AC AS WELL AS PROPER STORAGE IN C(E).
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=11
BMCAM: SETUP 100,0
BMCAM1: RANDOM
BMCAM2: MOVS AC1,AC ;SECOND RANDOM NUMBER.
SETCM AC1 ;SIMULATE SETCAM.
SETCAM AC1,AC ;DO SETCAM.
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,0 ;C(E) SHOULD = SIM. ANS.
ERROR AC,0 ;SETCAM FAILED.
LOOP BMCAM1,BMACM2
;TEST SETAM, WHERE E IS AN AC.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BMSA: SETUP 100,0
BMSA1: RANDOM
BMSA2: MOVS AC1,AC ;SECOND RANDOM NUMBER
CAMN AC1,AC
JRST BMSA1 ;REJECT IF SAME.
SETAM AC,AC1 ;C(AC) TO C(AC1)
CAME AC,AC1 ;EQUAL?
ERROR AC,AC1 ;NO.
CAME AC1,RAN ;C(E) SHOULD = ORIG C(AC).
ERROR AC1,RAN ;SETAM FAILED.
LOOP BMSA1,BMSA2
;TEST SETOM, WHERE E IS AN AC.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
BMSM: SETUP 100,0
BMSM1: RANDOM
BMSM2: MOVS AC1,AC ;SECOND RANDOM NUMBER
SETOM AC1,AC ;DO SETOM INST.
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,[-1] ;C(E) SHOULD = A -1.
ERROR AC,[-1] ;SETOM FAILED.
LOOP BMSM1,BMSM2
;TEST SETMM, WHERE E IS AN AC.
;ERRORS ARE IN THE FORM (PC, AC,C(AC),CORRECT)
AC=10
BMSMM: SETUP 100,0
BMSMM1: RANDOM
BMSMM2: MOVS AC1,AC ;A SECOND RANDOM NUMBER
CAMN AC,AC1 ;REJECT IF
JRST BMSMM1 ;HALF SAME
;DO 8 SETMM...SHOULD NOT CHANGE C(E).
REPEAT 10,<
SETMM AC1,AC>
CAMN AC1,AC ;EQUAL?
ERROR AC1,AC ;YES. INHIBIT STORE AC FAILED.
CAME AC,RAN ;C(E) SHOULD = ORIG. C(E).
ERROR AC,RAN ;SETMM FAILED.
LOOP BMSMM1,BMSMM2
;TEST SETZM, WHERE E IS AN AC. TESTS FOR NOT STORING
;IN AC AS WELL AS STORING IN C(E) PROPERLY.
AC=10
SETZM1: SETUP 40,0
SETZM2: RANDOM
SETZM3: JUMPE AC,SETZM2 ;REJECT IF C(AC) = 0.
SETOB AC1,RAN1 ;SET C(AC) TO ALL ONES.
SETZM AC1,AC ;DO SETZM
CAME AC,[0] ;DID AC GET CLEARED?
EERR ,RAN1 ;NO.
CAME AC1,[-1] ;DOES C(AC1) STILL = -1?
EERR ,RAN1 ;NO.
LOOP SETZM2,SETZM3
;TEST ROT LEFT 3X(2X18). CHECKING FOR AC1 NOT CHANGED
;AS WELL AS C(AC) BEING THE PROPER NUMBER.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
ROTL2: SETUP 200,2
ROTL2A: RANDOM
ROTL2B: SETOB AC1,RAN1 ;SET AC+1 TO ALL ONES.
;DO 6 X (ROT LEFT 18 PLACES).
REPEAT 3,<
ROT AC,22
ROT AC,22>
CAME AC,RAN ;C(AC)SHOULD = C(AC) BEFORE ROT.
EERRI ,22
CAME AC1,[-1] ;AC1 SHOULD NOT HAVE CHANGED.
ERR RAN1,22
LOOP ROTL2A,ROTL2B
;TEST ROT RIGHT 3X(2X18)..CHECKING FOR AC1 NOT
;CHANGED AS WELL AS C(AC) ENDING UP BEING
;THE SAME AS IT WAS BEFORE THE ROT.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=10
ROTR2: SETUP 300,2
ROTR2A: RANDOM
ROTR2B: SETOB AC1,RAN1 ;SET AC+1 TO ALL ONES.
;DO 6 X (ROT RIGHT 18 PLACES).
REPEAT 3,<
ROT AC,-22
ROT AC,-22>
CAME AC,RAN ;C(AC) SHOULD = C(AC) BEFORE ROT.
EERR ,-22
CAME AC1,[-1] ;C(AC1) SHOULD STILL = -1.
ERRI RAN1,-22
LOOP ROTR2A,ROTR2B
;TEST ROT LEFT 3X36. CHECKING FOR AC1 NOT
;CHANGED AND C(AC) = WHAT IT WAS BEFORE
;ROT.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=2
RTL36: SETUP 300,2
RTL36A: RANDOM
RTL36B: SETOB AC1,RAN1 ;SET AC+1 TO ALL ONES.
;DO 3 X (ROT LEFT 36 PLACES).
REPEAT 3,<
ROT AC,44>
CAME AC,RAN ;C(AC) SHOULD = C(AC) BEFORE ROT.
EERRI ,44
CAME AC1,[-1] ;C(AC1) SHOULD STILL = -1.
ERRI RAN1,44
LOOP RTL36A,RTL36B
;TEST ROT RIGHT 3X36. CHECKING FOR AC1 NOT
;CHANGED AND C(AC) = WHAT IT DID BEFORE ROT.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=2
RTR36: SETUP 300,2
RTR36A: RANDOM
RTR36B: SETOB AC1,RAN1 ;SET AC+1 TO ALL ONES.
;DO 3 X (ROT RIGHT 36 PLACES).
REPEAT 3,<
ROT AC,-44>
CAME AC,RAN ;C(AC) SHOULD = RAN.
EERRI ,-44
CAME AC1,[-1] ;C(AC1) SHOULD STILL = -1.
ERRI RAN1,-44
LOOP RTR36A,RTR36B
;TEST ROTC LEFT 3X36 THROUGH ALL AC'S CHECKING
;FOR C(AC) AND C(AC1) BEING EXCHANGED
;AFTER THE ROTC.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=2
RTCL: SETUP 100,2
RTCLA: RANDOM
RTCLB: REPEAT ^D10,<
MOVE AC,RAN ;MOVE A RAN NUM INTO AN AC.
SETOB AC1,RAN1 ;SET AC+1 TO ALL ONES.
;DO 3 X (ROTC LEFT 36 PLACES).
REPEAT 3,<
ROTC AC,44>
CAME AC1,RAN ;C(AC1) SHOULD = RAN.
EERRI ,44
CAME AC,[-1] ;C(AC) SHOULD = A -1.
ERRI RAN1,44
AC=<AC+1>&17
AC1=<AC+1>&17
>
AC=2
LOOP RTCLA,RTCLB
;TEST ROTC RIGHT 3X36 THROUGH ALL AC'S. CHECKING
;FOR C(AC) AND C(AC1) BEING EXCHANGED.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=2
RTCR: SETUP 100,2
RTCRA: RANDOM
RTCRB: REPEAT ^D10,<
MOVE AC,RAN ;MOVE A RAN NUM INTO AN AC.
SETOB AC1,RAN1 ;SET AC+1 TO ALL ONES.
;DO 3 X (ROTC RIGHT 36 PLACES).
REPEAT 3,<
ROTC AC,-44>
CAME AC1,RAN ;C(AC1) SHOULD = C(AC) BEFORE ROTC.
EERRI ,-44
CAME AC,[-1] ;C(AC) SHOULD = C(AC1) BEFORE ROTC.
ERRI RAN1,-44
AC=<AC+1>&17
AC1=<AC+1>&17
>
AC=2
LOOP RTCRA,RTCRB
;TEST ROT. ROT A RANDOM NUMBER A RANDOM NUMBER OF TIMES
;IN ONE DIRECTION AND THEN THE SAME NUMBER OF TIMES
;IN THE OPPOSITE DIRECTION.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT).
AC=2
ROTLR: SETUP 100,4
ROTLR1: RANDOM
MOVE AC3,RAN ;CHECK TO SEE
AND AC3,[377] ;THAT THE RIGHT MOST 8 BITS
JUMPE AC3,ROTLR1 ;DO NOT = 0..REJECT IF THEY DO.
ROTLR2: MOVN AC2,RAN ;PUT 2'S COMP OF RAN INTO AC2.
SETOB AC1,RAN1 ;SET AC+1 TO ALL ONES.
ROT AC,(AC) ;ROT AC A RANDOM NUMBER OF TIMES.
ROT AC,(AC2) ;ROT AC THE SAME NUM OF TIMES
;IN THE OPPOSITE DIRECTION.
CAME AC,RAN ;C(AC) SHOULD STILL = C(RAN).
ERROR AC,RAN
CAME AC1,[-1] ;C(AC1) SHOULD STILL = -1.
ERROR AC1,[-1]
LOOP ROTLR1,ROTLR2
;TEST ROTC. DO A ROTC WITH A RANDOM NUMBER A RANDOM
;NUMBER OF TIMES IN ONE DIRECTION AND THEN THE SAME
;NUMBER OF TIMES IN THE OPPOSITE DIRECTION.
;REPEAT THIS TEST FOR ALL AC'S.
;ERRORS ARE IN THE FORM (PC,AC,C(AC),CORRECT)
AC=2
RTCLR: SETUP 200,3
RTCLR1: RANDOM
MOVE AC3,RAN ;CHECK TO SEE
AND AC3,[377] ;THAT THE RIGHT MOST 8 BITS
JUMPE AC3,RTCLR1 ;DO NOT = 0..REJECT IF THEY DO.
RTCLR2: REPEAT ^D10,<
MOVE AC,RAN ;MOVE A RAN NUM INTO AN AC.
MOVN AC2,RAN ;MOVE THE 2'S COMP INTO ANOTHER AC.
SETO AC1, ;SET AC1 TO ALL ONES.
ROTC AC,(AC) ;ROTC AC A RANDOM NUMBER OF
;TIMES IN ONE DIRECTION.
ROTC AC,(AC2) ;ROTC AC THE SAME NUMBER OF
;TIMES IN THE OPPOSITE DIRECTION.
CAME AC,RAN ;C(AC) SHOULD STILL = RAN.
ERROR AC,RAN
CAME AC1,[-1] ;C(AC1) SHOULD STILL =-1
ERROR AC1,[-1]
AC=<AC+1>&17
AC1=<AC+1>&17
AC2=<AC+2>&17
>
AC=2
LOOP RTCLR1,RTCLR2
;TEST OVERFLOW ON A ROT LEFT...AROV SHOULD NOT COME UP.
AC=2
ROTOV: SETUP 20,0
ROTOV1: RANDOM
ROTOV2: JUMPE AC,ROTOV1 ;REJECT IF RAN = 0.
CAMN AC,[-1] ;ALSO REJECT IF RAN = -1.
JRST ROTOV1
JFCL 10,.+1 ;CLEAR OV FLAG.
ROT AC,256 ;ROT C(AC) 256 TIMES.
JFCL 10,.+2 ;OV FLAG GET SET?
JRST .+2 ;NO.
ER AC,[ASCII /OV/] ;YES. SHOULD NOT SET ON A ROT.
LOOP ROTOV1,ROTOV2
;TEST OVERFLOW FLAG ON A ROT RIGHT...SHOULD NEVER GET SET.
AC=3
RTROV: SETUP 20,0
RTROV1: RANDOM
RTROV2: JUMPE AC,RTROV1 ;REJECT IF RAN = 0.
CAMN AC,[-1] ;ALSO REJECT IF RAN = -1.
JRST RTROV1
JFCL 10,.+1 ;CLEAR OVERFLOW FLAG.
ROT AC,-256 ;ROT AC RIGHT 256 TIMES.
JFCL 10,.+2 ;OVERFLOW FALG GET SET?
JRST .+2 ;NO.
ER AC,[ASCII /OV/]
LOOP RTROV1,RTROV2
;TEST MOVEM. AFTER <MOVEM AC,AC1> FOLLOWED BY
;<MOVEM AC1,AC>, C(AC) SHOULD = ORIG C(AC).
;RAN TO RAN1.
AC=2
MVEM1: SETUP 30,0
MVEM2: RANDOM
;DO 3 SETS OF MOVEM'S.
MVEM3: REPEAT 3,<
MOVEM AC,AC1
MOVEM AC1,AC>
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERROR AC,RAN
CAME AC1,RAN ;C(AC1) SHOULD ALSO = ORIG. C(AC).
ERROR AC1,RAN
LOOP MVEM2,MVEM3
;TEST MOVES. AFTER 6 MOVES IN A ROW, THE C(E)
;SHOULD = ORIG C(E).
AC=2
MVES1: SETUP 200,1
MVES2: RANDOM
;DO 6 MOVE INSTRUCTIONS.
MVES3: REPEAT 3,<
MOVES AC1,AC
MOVES AC1,AC>
CAME AC1,AC ;C(AC) SHOULD = C(E).
ERROR AC1,AC
CAME AC,RAN ;C(E) SHOULD = ORIG C(E).
ERROR AC,RAN
LOOP MVES2,MVES3
;TEST MOVS INSTRUCTION...TWO MOVS SHOULD GIVE SAME NUMBER.
AC=4
MOVSA: SETUP 200,2
MOVSB: RANDOM
;DO 6 MOVS INSTRUCTIONS.
MOVSC: REPEAT 3,<
MOVS AC,AC
MOVS AC,AC>
CAME AC,RAN ;C(AC) SHOULD STILL = RAN.
EERR ,RAN
LOOP MOVSB,MOVSC
;TEST MOVS INSTRUCTION...MOVS FOLLOWED BY ROT SHOULD GIVE
;SAME NUMBER.
AC=5
MOVS1: SETUP 200,1
MOVS2: RANDOM
MOVS3: MOVS AC,AC ;DO MOVS INSTRUCTION.
ROT AC,22 ;ROT LEFT 18 PLACES.
CAME AC,RAN ;C(AC) SHOULD NOW = RAN.
EERR ,RAN
LOOP MOVS2,MOVS3
;TEST MOVSM....TWO MOVSM SHOULD GIVE THE ORIG. NUM.
AC=6
MOVSMA: SETUP 300,1
MOVSMB: RANDOM
MOVSMC: REPEAT 3,<
MOVSM AC,AC1
MOVSM AC1,AC>
CAME AC,RAN ;C(AC) SHOULD NOW BE = TO RAN.
ERROR AC,RAN
LOOP MOVSMB,MOVSMC
;TEST MOVSS...TWO MOVSS SHOULD GIVE THE ORIGINAL NUMBER.
AC=7
MOVSSA: SETUP 200,0
MOVSSB: RANDOM
MOVSSC: SETZB 0,RAN1 ;CLEAR AC0.
REPEAT 3,<
MOVSS AC
MOVSS AC>
CAME AC,RAN ;C(AC) SHOULD NOW BE = TO RAN.
EERR ,RAN1
CAME [0] ;C(AC0) SHOULD STILL = 0.
EERR ,RAN1
LOOP MOVSSB,MOVSSC
;TEST MOVSI.
AC=10
MOVSIA: SETUP 100,0
MOVSIB: RANDOM
MOVE AC2,RAN ;PUT RAN INTO AN AC.
MOVSIC: ANDI AC,-1 ;SIMULATE
ROT AC,22 ;A MOVSI INST.
MOVSI AC1,(AC2) ;DO MOVSI.
CAME AC1,AC ;C(AC1) SHOULD = SIM. ANS.
ERROR AC1,AC
LOOP MOVSIB,MOVSIC
;TEST LSH. SIMULATE A LSH 18 PLACES WITH A MOVSI.
AC=11
LSHA: SETUP 200,1
LSHB: RANDOM
LSHC: SETO AC1, ;SET AC+1 TO ALL ONES.
MOVSI AC2,(AC) ;SIMULATE LSH 18 PLACES.
LSH AC,22 ;DO LSH
CAME AC,AC2 ;C(AC) SHOULD = SIM. ANS.
ERROR AC,AC2
CAME AC1,[-1] ;AC1 GET CHANGED?
ERROR AC1,[-1] ;YES.
LOOP LSHB,LSHC
;TEST LSH RIGHT 18 PLACES.
AC=10
LSH1: SETUP 200,1
LSH2: RANDOM
LSH3: SETOB AC1,RAN1 ;SET C(AC+1) TO ALL ONES.
LSH AC,-22 ;DO LSH RIGHT 18 PLACES.
MOVS AC2,RAN ;SIMULATE
ANDI AC2,-1 ;LSH.
CAME AC,AC2 ;C(AC) SHOULD = SIM. ANS.
EERRI ,-22
CAME AC1,[-1] ;C(AC+1) GET CHANGED?
ERRI RAN1,-22
LOOP LSH2,LSH3
;TEST ASH ABILITY TO SET OR NOT SET OVERFLOW FLAG.
AC=10
ASHOV: SETUP 30,0
ASHOV1: SETO AC, ;SET AC TO ALL ONES..1,1 CONDITION.
JFCL 10,.+1 ;CLEAR OV FLAG.
ASH AC,1 ;DO ASH.
JFCL 10,.+2 ;OVERFLOW FLAG GET SET?
JRST .+2 ;NO.
ER AC,[ASCII /OV/] ;YES. 1,1 CONDITION SHOULD NOT SET IT.
JFCL 10,.+1 ;CLEAR OV FLAG.
SETZ AC, ;CLEAR AC...0,0 CONDITION.
ASH AC,1 ;DO ASH.
JFCL 10,.+2 ;OVERFLOW FLAG GET SET?
JRST .+2 ;NO.
ER AC,[ASCII /OV/] ;YES. 0,0 COND. SHOULDN'T SET IT.
JFCL 10,.+1 ;CLEAR OV FLAG.
MOVSI AC,377777 ;SET AC FOR 0,1 CONDITION.
ASH AC,1 ;DO ASH.
JFCL 10,.+2 ;OVERFLOW FLAG GET SET?
ER AC,[ASCII /OV/] ;NO. 0,1 COND. SHOULD SET IT.
JFCL 10,.+1 ;CLEAR OV FLAG.
MOVSI AC,400000 ;SET AC FOR 1,0 CONDITION.
ASH AC,1 ;DO ASH.
JFCL 10,.+2 ;OV FLAG GET SET?
ER AC,[ASCII /OV/] ;NO. 1,0 COND. SHOULD SET IT.
LOOP ASHOV1,ASHOV1
;TEST ASH. DO ASH RIGHT 36 PLACES WITH ORIG.
;C(AC) = 400000000000. AFTER ASH THE C(AC) SHOULD = A -1.
AC=10
ASH1: SETUP 20,0
ASH2: MOVE AC,[XWD 400000,0] ;MAKE C(AC) = ALL 0'S WITH SIGN BIT SET.
ASH AC,-44 ;DO ASH RIGHT 36 PLACES...SIGN
CAME AC,[-1] ;BIT SHOULD HAVE SET ALL BITS TO A ONE.
ERROR AC,[-1]
LOOP ASH2,ASH2
;TEST ASH. DO ASH LEFT 36 PLACES WITH ORIG. C(AC) =
;TO A -1. AFTER ASH THE C(AC) SHOULD = THE SIGN
;BIT SET AND THE REST ZEROS.
AC=11
ASH3: SETUP 20,0
ASH4: MOVE AC,[-1] ;MAKE C(AC) = A -1.
ASH AC,44 ;DO ASH LEFT 36 PLACES..0'S GOING
CAME AC,[XWD 400000,0] ;INTO BIT 35 SHOULD JUST LEAVE SIGN BIT SET.
ERROR AC,[0]
LOOP ASH4,ASH4
;TEST ADD. RAN TO 0 CONDITION.
AC=10
ADD1: SETUP 100,0
ADD2: RANDOM
ADD3: SETZ AC, ;CLEAR AC.
ADD AC,RAN ;ADD RAN TO 0.
CAME AC,RAN ;C(AC) SHOULD = RAN NUM.
ERROR AC,RAN
LOOP ADD2,ADD3
; TEST ADD. 0 TO RAN CONDITION.
AC=10
ADD1A: SETUP 100,0
ADD2A: RANDOM
;ADD A CONSTANT 0 TO RAN 5 TIMES.
ADD3A: REPEAT 5,<
ADD AC,[0]>
CAME AC,RAN ;C(AC) SHOULD STILL = RAN NUM.
ERROR AC,RAN
LOOP ADD2A,ADD3A
;TEST ADD. ADD 1'S COMP OF RAN TO RAN.
;SHOULD GET A -1.
AC=10
ADD1B: SETUP 100,0
ADD2B: RANDOM
ADD3B: SETCM AC1,RAN ;1'S COMP OF RAN TO AC1.
ADD AC,AC1 ;ADD IT TO RAN.
CAME AC,[-1] ;C(AC) SHOULD = -1.
ERROR AC,[-1]
LOOP ADD2B,ADD3B
;TEST ADD. CHECK CRY0,CRY1,AND OV FLAGS.
;ADD, TO A RANDOM NUMBER, A -1 AND THEN A +1.
;CRY0 AND CRY1 SHOULD BOTH GET SET AND AROV SHOULD NOT GET SET.
AC=10
ADD1C: SETUP 400,2
ADD2C: RANDOM
ADD3C: JFCL 17,.+1 ;CLEAR ALL FLAGS.
ADD AC,[-1] ;ADD A -1 TO RAN.
ADD AC,[1] ;ADD A +1 TO ANS OF ADDITION OF RAN AND A -1.
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERROR AC,RAN
JFCL 4,CRY0A
JFCL 2,.+2
JRST BOTHF
ER AC,[ASCII /CRY0/];CRY0 FAILED TO GET SET.
CRY0A: JFCL 2,.+2
ER AC,[ASCII /CRY1/];CRY1 FAILED TO GET SET.
JRST AROVA
BOTHF: ER AC,[ASCII /CRY01/];BOTH CRY0 + CRY1 FAILED TO GET SET.
AROVA: JFCL 10,.+2
JRST ADD4C
ER AC,[ASCII /OV/] ;AROV GOT SET.
ADD4C: LOOP ADD2C,ADD3C
;TEST ADDM. WHERE E IS AN AC.
;RAN TO 0 CONDITION.
AC=4
ADDM1: SETUP 100,0
ADDM2: RANDOM
MOVE AC2,RAN ;SAVE RAN IN AN AC.
ADDM3: SETZB AC1,RAN1 ;MAKE C(E) = 0.
ADDM AC,AC1 ;DO ADDM.
CAME AC2,AC1 ;C(E) SHOULD =ORIG C(AC).
ERRM RAN1,RAN
LOOP ADDM2,ADDM3
;TEST ADDM. WHERE E IS AN AC.
;0 TO RAN CONDITION.
AC=5
ADDM1A: SETUP 100,0
ADDM2A: RANDOM
MOVE AC2,RAN ;SAVE RAN IN AN AC.
ADDM3A: SETZB AC1,RAN1 ;MAKE C(AC) = 0.
ADDM AC1,AC ;DO ADDM.
CAME AC2,AC ;C(E) SHOULD = ORIG C(E).
EERRM ,RAN1
LOOP ADDM2A,ADDM3A
;TEST ADDM. WHERE E IS AN AC.
;1'S COMP RAN TO RAN.
AC=6
ADDM1B: SETUP 100,0
ADDM2B: RANDOM
ADDM3B: SETCM AC1,AC ;MAKE C(AC) = 1'S COMP OF C(E).
MOVE RAN1,AC1 ;SAVE C(AC) IN CASE OF ERROR.
ADDM AC1,AC ;DO ADDM.
CAME AC,[-1] ;C(E) SHOULD = A -1.
EERRM ,RAN1
LOOP ADDM2B,ADDM3B
;TEST ADDI. CHECK C(AC) FOR CORRECT DATA.
;0 TO RAN CONDITION.
AC=2
ADDI1: SETUP 20,0
ADDI2: RANDOM
ADDI3: ADDI AC,0 ;DO ADDI.
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
EERRI ,0
LOOP ADDI2,ADDI3
;TEST ADDI. CHECK FOR CORRECT DATA IN AC.
;RAN TO 0 CONDITION.
AC=2
ADDI1A: SETUP 100,0
ADDI2A: RANDOM
ADDI3A: SETZB AC1,RAN1 ;CLEAR C(AC).
MOVEI AC2,(AC) ;SIMULATE ADDI.
ADDI AC1,(AC) ;DO ADDI.
CAME AC1,AC2 ;C(AC) SHOULD = SIM. ANS.
ERRI RAN1,(AC)
LOOP ADDI2A,ADDI3A
;TEST ADDI. CHECK FOR CORRECT DATA IN AC.
;1'S COMP RAN TO RAN.
AC=3
ADDI1B: SETUP 40,0
ADDI2B: RANDOM
ADDI3B: SETCM AC1,AC ;MAKE C(AC) = 1'S COMP OF E.
MOVE AC2,AC1 ;SIMULATE
IORI AC2,-1 ;ADDI INST.
MOVE RAN1,AC1 ;SAVE C(AC) IN CASE OF ERROR.
ADDI AC1,(AC) ;DO ADDI.
CAME AC1,AC2 ;C(AC) SHOULD = SIM. ANS.
ERRI RAN1,(AC)
LOOP ADDI2B,ADDI3B
;TEST ADDB. CHECK FOR C(AC) = C(E), AND CORRECT
;DATA IN AC FOR 0 TO RAN CONDITION.
AC=4
ADDB1: SETUP 100,0
ADDB2: RANDOM
ADDB3: SETZB AC1,RAN1 ;CLEAR C(E).
ADDB AC,AC1 ;DO ADDB.
CAME AC,AC1 ;C(AC) SHOULLD = C(E).
ERR RAN1,RAN
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR RAN1,RAN
LOOP ADDB2,ADDB3
;TEST ADDB. CHECK FOR C(AC) = C(E), AND CORRECT
;DATA IN AC FOR RAN TO 0 CONDITION.
AC=5
ADDB1A: SETUP 100,0
ADDB2A: RANDOM
ADDB3A: SETZB AC1,RAN1 ;CLEAR C(AC).
ADDB AC1,AC ;DO ADDB.
CAME AC1,AC ;C(AC) SHOULD = C(E).
EERR ,RAN1
CAME AC1,RAN ;C(AC) SHOULD = ORIG C(E).
EERR ,RAN1
LOOP ADDB2A,ADDB3A
;TEST ADDB. CHECK FOR C(AC) = C(E), AND CORRECT DATA
;IN AC FOR NOT RAN TO RAN CONDITION.
AC=6
ADDB1B: SETUP 100,0
ADDB2B: RANDOM
ADDB3B: SETCM AC1,AC ;MAKE C(E) = 1'S COMP OF C(AC).
MOVE RAN1,AC1 ;SAVE C(E) IN CASE OF ERROR.
ADDB AC,AC1 ;DO ADDB.
CAME AC,AC1 ;C(AC) SHOULD = C(E).
ERR RAN1,RAN
CAME AC,[-1] ;C(AC) SHOULD = A -1.
ERR RAN1,RAN
LOOP ADDB2B,ADDB3B
;TEST SUB. CHECK C(AC) FOR CORRECT DATA.
;0 TO RAN CONDITION.
AC=2
SUB1: SETUP 100,0
SUB2: RANDOM
SUB3: SETZB AC1,RAN1 ;CLEAR C(E).
REPEAT 3,<
SUB AC,AC1>
CAME AC,RAN ;C(AC) SHOULD STILL = ORIG C(AC).
ERR RAN1,RAN
LOOP SUB2,SUB3
;TEST SUB. CHECK C(AC) FOR CORRECT DATA.
;RAN TO 0 CONDITION.
AC=2
SUB1A: SETUP 100,0
SUB1B: RANDOM
SUB1C: SETZB AC1,RAN1 ;CLEAR C(AC).
MOVN AC2,RAN ;ANY NUM FROM 0 = 2'S COMP OF THAT NUM.
SUB AC1,AC ;SUBTRACT RAN FROM 0.
CAME AC1,AC2 ;C(AC) SHOULD = SIM. ANS.
EERR ,RAN1
LOOP SUB1B,SUB1C
;TEST SUB. CHECK C(AC) FOR CORRECT DATA.
;SUB RAN FROM RAN.
AC=2
SUB2A: SETUP 100,0
SUB2B: RANDOM
SUB2C: MOVE AC1,AC ;MAKE C(E) = C(AC).
SUB AC,AC1 ;SUB RAN FROM RAN.
CAME AC,[0] ;C(AC) SHOULD = 0.
EERR ,RAN
LOOP SUB2B,SUB2C
;TEST SUBM. WHERE E IS AN AC.
;RAN TO 0 CONDITION.
AC=7
SUBM1: SETUP 100,0
SUBM2: RANDOM
SUBM3: SETZB AC1,RAN1 ;CLEAR C(AC).
MOVN AC2,AC ;SIM SUB..RAN FROM 0 = 2'S COMP RAN.
SUBM AC1,AC ;DO SUBM.
CAME AC2,AC ;C(E) SHOULD = SIM. ANS.
EERRM ,RAN1
LOOP SUBM2,SUBM3
;TEST SUBM. SHERE E IS AN AC.
;0 TO RAN CONDITION.
AC=10
SUBM1A: SETUP 100,0
SUBM2A: RANDOM
MOVE AC2,RAN ;SAVE RAN IN AN AC.
SUBM3A: SETZB AC1,RAN1 ;CLEAR C(E).
SUBM AC,AC1 ;DO SUBM...0 FROM RAN = RAN.
CAME AC2,AC1 ;C(E) SHOULD = ORIG C(AC).
ERRM RAN1,RAN
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERRM RAN1,RAN
LOOP SUBM2A,SUBM3A
;TEST SUBM. WHERE E IS AN AC.
;RAN TO RAN CONDITION.
AC=11
SUBM1B: SETUP 100,0
SUBM2B: RANDOM
SUBM3B: MOVE AC1,AC ;MAKE C(E) = C(AC).
SUBM AC,AC1 ;DO SUBM.
CAME AC1,[0] ;C(E) SHOULD = 0.
EERRM ,RAN
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
EERRM ,RAN
LOOP SUBM2B,SUBM3B
;TEST SUBI. CHECK C(AC) FOR CORRECT DATA.
;0 TO RAN CONDITION.
AC=10
SUBI1: SETUP 20,0
SUBI2: RANDOM
SUBI3: SUBI AC,0 ;DO SUBI..0 FROM RAN = RAN.
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
EERRI ,0
LOOP SUBI2,SUBI3
;TEST SUBI. CHECK C(AC) FOR CORRECT DATA.
;RAN TO 0 CONDITION.
AC=10
SUBI1A: SETUP 20,0
SUBI2A: RANDOM
SUBI3A: SETZB AC1,RAN1 ;CLEAR C(AC).
MOVNI AC2,(AC) ;SIM SUB..RAN FROM 0 = 2'S COMP RAN.
SUBI AC1,(AC) ;DO SUBI.
CAME AC1,AC2 ;C(AC) SHOULD = SIM ANS.
ERRI RAN1,(AC)
LOOP SUBI2A,SUBI3A
;TEST SUBI. CHECK C(AC) FOR CORRECT DATA.
;RAN TO RAN CONDITION.
AC=10
SUBI1B: SETUP 20,0
SUBI2B: RANDOM
MOVE RAN1,AC ;SAVE C(AC) IN CASE OF ERROR.
SUBI3B: MOVE AC1,AC ;SIMULATE A
AND AC1,[XWD -1,0] ;SUBI RAN FROM RAN.
SUBI AC,(AC) ;DO SUBI.
CAME AC,AC1 ;C(AC) SHOULD = SIM. ANS.
ERRI RAN1,(RAN1)
LOOP SUBI2B,SUBI3B
;TEST SUBB. CHECK THAT C(AC) = C(E) AND C(AC)
;= CORRECT DATA.
;0 TO RAN.
AC=10
SUBB1: SETUP 20,0
SUBB2: RANDOM
SUBB3: SETZB AC1,RAN1 ;CLEAR C(E).
SUBB AC,AC1 ;DO SUBB..0 FROM RAN = RAN.
CAME AC,AC1 ;C(AC) SHOULD = C(E).
ERR RAN1,RAN
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR RAN1,RAN
LOOP SUBB2,SUBB3
;TEST SUBB. CHECK C(AC) = C(E) AND C(AC) FOR
;CORRECT DATA.
;RAN TO 0 CONDITION.
AC=10
SUBB1A: SETUP 20,0
SUBB2A: RANDOM
SUBB3A: SETZB AC1,RAN1 ;CLEAR C(AC).
MOVN AC2,AC ;SIMULATE SUB...RAN FROM 0 = 2'S COMP RAN.
SUBB AC1,AC ;DO SUBB.
CAME AC1,AC ;C(AC) SHOULD = C(E).
EERR ,RAN1
CAME AC1,AC2 ;C(AC) SHOULD = SIM. ANS.
EERR ,RAN1
LOOP SUBB2A,SUBB3A
;TEST SUBB. CHECK C(AC) = C(E) AND FOR
;CORRECT DATA IN AC.
;RAN TO RAN CONDITION.
AC=10
SUBB1B: SETUP 40,0
SUBB2B: RANDOM
SUBB3B: MOVE AC1,AC ;MAKE C(E) = C(AC).
SUBB AC,AC1 ;DO SUBB..RAN FROM RAN = 0.
CAME AC,AC1 ;C(AC) SHOULD = C(E).
EERR ,RAN
CAME AC,[0] ;C(AC) SHOULD = 0.
EERR ,RAN
LOOP SUBB2B,SUBB3B
;TEST MOVEI. CHECK C(AC) FOR CORRECT DATA.
;RAN TO RAN1.
AC=2
MVEI1: SETUP 20,0
MVEI2: RANDOM
MOVE AC2,RAN ;SAVE RAN IN AN AC.
MVEI3: MOVSS RAN1,AC ;MAKE C(AC) = SEC RAN NUM.
MOVE AC1,RAN ;SIMULATE
LSH AC1,22 ;A
LSH AC1,-22 ;MOVEI.
MOVEI AC,(AC2) ;DO A MOVEI.
CAME AC,AC1 ;C(AC) SHOULD = SIM. ANS.
ERRI RAN1,(AC2)
LOOP MVEI2,MVEI3
;TEST MOVN. TWO MOVN INSTRUCTIONS SHOULD NOT CHANGE C(AC).
AC=2
MOVN1: SETUP 200,0
MOVN2: RANDOM
;DO 6 X (MOVN RAN TO RAN).
MOVN3: REPEAT 3,<
MOVN AC,AC
MOVN AC,AC>
CAME AC,RAN ;C(AC) SHOULD STILL = RAN NUM.
ERROR AC,RAN
LOOP MOVN2,MOVN3
;TEST MOVNI. CHECK C(AC) FOR CORRECT DATA.
;RAN TO RAN1.
AC=2
MVNI1: SETUP 40,0
MVNI2: RANDOM
MOVE AC2,RAN ;SAVE RAN IN AN AC.
MVNI3: MOVSS RAN1,AC ;C(AC) = SEC RAN NUM.
MOVEI AC1,(AC2) ;SIMULATE
SETCA AC1, ;A
ADD AC1,[1] ;MOVNI INST.
MOVNI AC,(AC2) ;DO A MOVNI.
CAME AC,AC1 ;C(AC) SHOULD = SIM. ANS.
ERRI RAN1,(AC2)
LOOP MVNI2,MVNI3
;TEST MOVNM. WHERE E IS AN AC.
;CHECK C(E) FOR CORRECT DATA.
;RAN TO RAN.
AC=2
MVNM1: SETUP 100,0
MVNM2: RANDOM
MOVE RAN1,RAN ;SAVE RAN IN AN AC.
MVNM3: MOVE AC1,AC ;MAKE C(E) = C(AC).
;DO 3 X 2(MOVNM).
REPEAT 3,<
MOVNM AC,AC1
MOVNM AC1,AC>
CAME RAN1,AC ;C(E) SHOULD = ORIG C(E).
EERRM ,RAN
LOOP MVNM2,MVNM3
;TEST MOVNS. WHERE E IS AN AC.
;CHECK PROPER STORING OF C(E) INTO AC.
;TWO MOVNS = ORIG NUMBER.
;C(E) = RAN.
AC=3
MVNS1: SETUP 100,0
MVNS2: RANDOM
MOVE AC2,RAN ;PUT C(RAN) INTO AC2 FOR FUTURE COMPARE.
MVNS3: SETOB AC1,RAN1 ;MAKE C(AC) = -1.
;DO 3 X 2(MOVNS).
REPEAT 3,<
MOVNS AC1,AC
MOVNS AC1,AC>
CAME AC1,AC ;C(AC) SHOULD = C(E).
EERRM ,RAN1
CAME AC2,AC ;C(E) SHOULD = ORIG. C(E).
EERRM ,RAN1
LOOP MVNS2,MVNS3
;TEST MOVNS. WHERE E IS AN AC.
;CHECK FOR NOT LOADING C(E) INTO AC WHEN AC= 0.
;TWO MOVNS = ORIGINAL NUM.
;C(E) = RAN.
AC=10
MVNSA: SETUP 40,0
MVNSB: RANDOM
MOVE AC2,RAN ;SAVE RAN IN AN AC.
MVNSC: SETOB RAN1 ;MAKE C(AC) = -1.
;DO 3 X 2(MOVNS).
REPEAT 3,<
MOVNS AC
MOVNS AC>
CAMN AC ;C(AC) SHOULD NOT = C(E).
EERRM ,RAN1
CAME AC2,AC ;C(AC) SHOULD = ORIG C(AC).
EERRM ,RAN1
LOOP MVNSB, MVNSC
;TEST MOVM. CHECK F(AC) FOR CORRECT DATA.
;RAN TO RAN1.
AC=7
MVM1: SETUP 40,0
MVM2: RANDOM
MVM3: MOVSS RAN1,AC ;C(AC) = SEC RAN NUM.
MOVE AC1,RAN ;C(E) = 1ST RAN NUM.
SETCM AC2,AC1 ;SIMULATE
TLNN AC1,400000 ;A
MOVE AC2,AC1 ;MOVM
TLNE AC1,400000 ;INST.
ADD AC2,[1]
MOVM AC,AC1 ;DO A MOVM.
CAME AC,AC2 ;C(AC) SHOULD = SIM. ANS.
EERR ,RAN1
LOOP MVM2, MVM3
;TEST MOVMI. CHECK C(AC) FOR CORRECT DATA.
;RAN TO RAN1.
AC=10
MVMI1: SETUP 40,0
MVMI2: RANDOM
MVMI3: MOVEI AC1,AC ;SIMULATE A MOVMI INST...MOVEI.
MOVSS RAN1,AC ;C(AC) = SEC RAN NUM.
MOVMI AC,(AC1) ;DO MOVMI.
CAME AC,AC1 ;C(AC) SHOULD = SIM ANS.
ERRI RAN1,(AC1)
LOOP MVMI2, MVMI3
;TEST MOVMM. CHECK C(AC) + C(E) FOR CORRECT DATA.
;RAN TO RAN1.
AC=11
MVMM1: SETUP 200,0
MVMM2: RANDOM
MVMM3: MOVSS RAN1,AC ;C(AC) = SEC RAN NUM.
MOVE AC1,RAN ;C(E) = RAN.
SETCM AC2,AC ;SIMULATE
TLNN AC,400000 ;A
MOVE AC2,AC ;MOVMM
TLNE AC,400000 ;INST
ADD AC2,[1]
MOVMM AC,AC1 ;DO A MOVMM INST.
CAME AC,RAN1 ;C(AC) SHOULD = ORIG C(AC).
EERRM ,RAN1
CAME AC1,AC2 ;C(E) SHOULD = SIM. ANS.
EERRM ,RAN1
LOOP MVMM2, MVMM3
;TEST MOVMS. CHECK C(E) FOR CORRECT DATA.
;RAN TO RAN1.
AC=10
MVMS1: SETUP 200,0
MVMS2: RANDOM
MVMS3: MOVSS RAN1,AC ;C(AC) = SEC RAN NUM.
MOVE AC1,RAN ;C(E) = RAN.
SETCM AC2,RAN ;SIMULATE
TLNN AC1,400000 ;A
MOVE AC2,AC1 ;MOVMS
TLNE AC1,400000 ;INST.
ADD AC2,[1]
MOVMS AC,AC1 ;DO A MOVMS.
CAME AC,AC1 ;C(AC) SHOULD = C(E).
EERRM ,RAN1
CAME AC1,AC2 ;C(E) SHOULD = SIM. ANS.
EERRM ,RAN1
LOOP MVMS2, MVMS3
;TEST LSH. A LSH LEFT AND A LSH RIGHT SHOULD
;GIVE THE SAME NUMBER WITH A ZERO SIGN BIT.
AC=2
LSH1P: SETUP 40,0
LSH1PA: RANDOM
LSH1PB: AND AC,[XWD 377777,-1] ;SIMULATE A LSH LEFT THEN RIGHT.
MOVE AC1,RAN ;MOVE RANDOM NUM INTO AN AC
;AND DO 3(LSH LEFT 1 PLACE THEN RIGHT 1 PLACE).
REPEAT 3,<
LSH AC1,1
LSH AC1,-1>
CAME AC1,AC ;C(AC1) = SIM. ANS?
ERROR AC1,AC ;NO. LSH FAILED.
LOOP LSH1PA,LSH1PB
;TEST TDN,TDNA. CHECK FOR SKIP/NO SKIP AND
;NO DATA CHANGE IN AC FOR RAN1 TO RAN CONDITION.
AC=2
TDN1: SETUP 100,0
TDN2: RANDOM
TDN3: MOVS AC1,AC ;PUT SECOND RAN. NUM. INTO "E".
TDN AC,AC1 ;NO SKIP, NO DATA CHANGE.
JRST .+2 ;HERE..GO AROUND ERR UUO.
ER AC,[ASCII /TST/];TDN SKIPPED.
TDNA AC,AC1 ;SKIP, NO DATA CHANGE.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR AC1,RAN
LOOP TDN2,TDN3
;TEST TDNN,TDNE. CHECK FOR SKIP/ NO SKIP AND
;NO DATA CHANGE IN AC FOR RAN TO 0 CONDITION.
AC=3
TDNE1A: SETUP 100,0
TDNE2A: RANDOM
TDNE3A: SETZB AC1,RAN1 ;CLEAR C(AC).
TDNN AC1,AC ;C(E) + C(AC) =0..NO SKIP.
JRST .+2
ER AC1,[ASCII /TST/];TDNN SKIPPED.
TDNE AC1,AC ;C(E) + C(AC) = 0. SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,[0] ;C(AC) SHOULD STILL = 0.
ERR AC,RAN1
LOOP TDNE2A,TDNE3A
;TEST TDNN,TDNE. CHECK FOR SKIP/ NO SKIP AND
;NO DATA CHANGE FOR 0 TO RAN CONDITION.
AC=4
TDNE1B: SETUP 40,0
TDNE2B: RANDOM
TDNE3B: SETZ AC1, ;CLEAR C(E).
TDNN AC,AC1 ;C(E) + C(AC) = 0. NO SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDNN SKIPPED.
TDNE AC,AC1 ;C(E) + C(AC) = 0. SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR AC1,RAN
LOOP TDNE2B,TDNE3B
;TEST TDNN,TDNE. CHECK FOR SKIP/ NO SKIP AND
;NO DATA CHANGE IN AC FOR RAN TO -1 CONDITION.
AC=5
TDNE1C: SETUP 40,0
TDNE2C: RANDOM
JUMPE AC,TDNE2C ;REJECT IF RAN = 0.
TDNE3C: SETOB AC1,RAN1 ;SET C(AC) TO ALL ONES.
TDNE AC1,AC ;C(E) + C(AC) NOT = 0..NO SKIP.
JRST .+2
ER AC1,[ASCII /TST/];TDNE SKIPPED.
TDNN AC1,AC ;C(E) + C(AC) NOT = 0..SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,[-1] ;C(AC) SHOULD = ORIG C(AC).
ERR AC,RAN1
LOOP TDNE2C,TDNE3C
;TEST TDNE,TDNN. CHECK FOR SKIP/ NO SKIP AND
;NO DATA CHANGE IN AC FOR -1 TO RAN CONDITION.
AC=6
TDNE1D: SETUP 40,0
TDNE2D: RANDOM
JUMPE AC,TDNE2D ;REJECT IF RAN = 0.
TDNE3D: SETO AC1, ;SET C(E) TO ALL ONES.
TDNE AC,AC1 ;C(E) + C(AC) NOT = 0..NO SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDNE SKIPPED.
TDNN AC,AC1 ;C(E) + C(AC) NOT = 0..SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR AC1,RAN
LOOP TDNE2D,TDNE3D
;TEST TDNE,TDNN. CHECK FOR SKIP/ NO SKIP AND
;NO DATA CHANGE IN AC FOR RAN TO RAN CONDITION.
AC=7
TDNE1E: SETUP 20,0
TDNE2E: RANDOM
JUMPE AC,TDNE2E ;REJECT IF RAN = 0.
TDNE3E: MOVE AC1,AC ;MAKE C(E) = C(AC).
TDNE AC,AC1 ;C(E) + C(AC) NOT = 0..NO SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDNE SKIPPED.
TDNN AC,AC1 ;C(E) + C(AC) NOT = 0. SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR AC1,RAN
LOOP TDNE2E,TDNE3E
;TEST TDNE,TDNN. CHECK FOR SKIP/ NO SKIP AND
;NO DATA CHANGE IN AC FOR NOT RAN TO RAN CONDITON.
AC=10
TDNE1F: SETUP 20,0
TDNE2F: RANDOM
TDNE3F: SETCM AC1,AC ;MAKE C(E) = 1'S COMP OF C(AC).
TDNN AC,AC1 ;C(E) + C(AC) = 0..NO SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDNN SKIPPED.
TDNE AC,AC1 ;C(E) + C(AC) = 0..SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR AC1,RAN
LOOP TDNE2F,TDNE3F
;TEST TDZ,TDZA. CHECK FOR SKIP/ NO SKIP AND
;CORRECT DATA IN AC FOR NOT RAN TO RAN CONDITION.
AC=11
TDZA1: SETUP 100,0
TDZA2: RANDOM
TDZA3: SETCM AC1,AC ;MAKE C(E) 1'S COMP OF C(AC).
TDZ AC,AC1 ;SHOULD NOT SKIP.
JRST .+2
ER AC,[ASCII/TST/] ;TDZ SKIPPED.
TDZA AC,AC1 ;SHOULD SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD STILL = RAN NUM.
ERR AC1,RAN
CAMN AC1,RAN ;C(E) SHOULD NOT = RAN.
ERR AC1,RAN
LOOP TDZA2,TDZA3
;TEST TDZ,TDZA. CHECK FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR RAN TO RAN CONDITION.
AC=10
TDZAA: SETUP 100,1
TDZAB: RANDOM
TDZAC: TDZ AC,AC ;SHOULD NOT SKIP.
CAME AC,[0] ;SHOULD CLEAR C(AC).
EERR ,RAN
MOVE AC,RAN ;RESTORE AC.
TDZA AC,AC ;SHOULD SKIP.
ER AC,[ASCII /TST/]
CAME AC,[0] ;C(AC) SHOULD BE CLEARED.
EERR ,RAN
LOOP TDZAB,TDZAC
;TEST TDZ,TDZA. CHECK FOR SKIP/ NO SKIP AND
;CORRECT DATA IN AC FOR RAN1 TO RAN CONDITION.
AC=10
TDZB1: SETUP 100,0
TDZB2: RANDOM
TDZB3: MOVS AC1,AC ;MAKE C(E) A DIFF. RAN. NUM.
MOVE AC2,AC1 ;SIMULATE
XOR AC2,AC ;A
AND AC2,AC ;TDZ.
TDZ AC,AC1 ;TDZ SHOULD NOT SKIP.
CAME AC,AC2 ;C(AC) SHOULD = SIM. ANS.
ERR AC1,RAN
MOVE AC,RAN ;RESTORE AC.
TDZA AC,AC1 ;SHOULD SKIP.
ER AC,[ASCII /TST/]
CAME AC,AC2 ;C(AC) SHOULD = SIM. ANS.
ERR AC1,RAN
LOOP TDZB2,TDZB3
;TEST TDZE, TDZN. CHECK FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR FLOATING ONE IN C(E) AND
;THAT BIT CLEARED IN RANDOM NUM. IN AC.
AC=10
TDZE1: SETUP 100,0
MOVEI AC1,1 ;SETUP AC1 TO CONTAIN A MASK BIT.
TDZE2: RANDOM
ROT AC1,1 ;ROT TO TEST NEXT BIT.
TDZE3: ANDCM AC,AC1 ;CLEAR MASK BIT IN AC.
MOVE AC2,AC ;SAVE FOR FUTURE COMPARE.
TDZN AC,AC1 ;C(E) + C(AC) = 0...NO SKIP.
JRST .+2
ER AC,[ASCII /TST/] ;TDZN SKIPPED.
TDZE AC,AC1 ;C(E) + C(AC) = 0...SKIP.
ER AC,[ASCII /TST/]
CAME AC,AC2 ;C(AC) SHOULD = ORIG C(AC).
ERR AC1,AC2
LOOP TDZE2,TDZE3
;TEST TDZE, TDZN. CHECK FOR SKIP/ NO SKIP AND
;CORRECT DATA IN AC FOR FLOATING ONE IN C(E)
;AND THAT BIT SET IN RAN. NUM. IN C(AC).
AC=10
TDZEA: SETUP 100,0
MOVEI AC1,1 ;SET MASK BIT IN C(E).
TDZEB: RANDOM
ROT AC1,1 ;ROT MASK BIT TO TEST NEXT BIT.
TDZEC: IOR AC,AC1 ;SET MASK BIT IN AC.
MOVE RAN1,AC ;SAVE C(AC) IN CASE OF ERROR.
MOVE AC2,AC ;SIMULATE
ANDCM AC2,AC1 ;A TDZ.
TDZE AC,AC1 ;C(E) + C(AC) NOT = 0...NO SKIP.
CAME AC,AC2 ;C(AC) SHOULD = SIM. ANS.
ERR AC1,RAN1
IOR AC,AC1 ;RESET MASK BIT IN AC.
TDZN AC,AC1 ;C(E) + C(AC) NOT = 0...SKIP.
ER AC,[ASCII /TST/]
CAME AC,AC2 ;AND C(AC) SHOULD = SIM. ANS.
ERR AC1,RAN1
LOOP TDZEB,TDZEC
;TEST TDZE,TDZN. SET AND ROT A MASK BIT IN AC
;AND CHECK SKIP/NO SKIP AND PROPER C(AC)
;FOR MASK BIT IN AC ANS RANDOM NUMBER IN E.
AC=10
TDZNA: SETUP 100,0
MOVEI AC1,1 ;SETUP AC1 FOR MASK BIT.
TDZNB: RANDOM
ROT AC1,1 ;ROT AC1 TO TEST NEXT BIT.
MOVE AC2,AC1 ;SAVE MASK BIT.
TDZNC: MOVE AC1,AC2 ;RESTORE MASK BIT IF ERROR.
ANDCM AC,AC1 ;CLEAR MASK BIT IN RAN NUM.
TDZN AC1,AC ;C(E) + C(AC) =0..SHOULDN'T SKIP.
JRST .+2
ER AC1,[ASCII /TST/];TDZN SKIPPED.
TDZE AC1,AC ;C(E) + C(AC) = 0..SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,AC2 ;C(AC1) SHOULD NOT HAVE CHANGED.
ERR AC,AC2
LOOP TDZNB,TDZNC
;TEST TDZE,TDZN. SET AND ROT A MASK BIT IN AC
;AND CHECK SKIP/NO SKIP AND PROPER C(AC)
;FOR MASK BIT IN AC AND RANDOM NUMBER IN E.
;RANDOM NUMBER HAS MASK BIT SET.
AC=10
TDZN1: SETUP 40,0
MOVEI AC1,1 ;SETUP AC1 FOR MASK BIT.
TDZN2: RANDOM
ROT AC1,1 ;ROT AC1 TO TEST NEXT BIT.
TDZN3: MOVE AC2,AC1 ;SAVE MASK BIT.
IOR AC,AC1 ;SET MASK BIT IN RAN.
TDZE AC1,AC ;C(E) + C(AC) NOT = 0...NO SKIP.
CAME AC1,[0] ;C(AC) SHOULD = 0.
ERR AC,AC2
MOVE AC1,AC2 ;RESTORE MASK BIT.
TDZN AC1,AC ;C(E) + C(AC) NOT = 0...SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,[0] ;AC1 SHOULD HAVE GOTTEN CLEARED OUT.
ERR AC,AC2
MOVE AC1,AC2 ;RESTORE MASK BIT.
LOOP TDZN2,TDZN3
;TEST TDO TDOA. CHECK FOR SKIP/NO SKIP ANS CORRECT DATA
;IN AC FOR RAN TO NOT RAN.
AC=10
TDOA1: SETUP 100,0
TDOA2: RANDOM
TDOA3: SETCM AC1,AC ;MAKE "C(E)" = COMP OF RAN.
TDO AC,AC1 ;SHOULD NOT SKIP.
CAME AC,[-1] ;AC SHOULD HAVE ALL BITS SET.
ERR AC1,RAN
MOVE AC,RAN ;RESTORE AC.
TDOA AC,AC1 ;SHOULD SKIP.
ER AC,[ASCII /TST/]
CAME AC,[-1] ;AC SHOULD HAVE ALL BITS SET.
ERR AC1,RAN
LOOP TDOA2,TDOA3
;TEST TDO,TDOA. CHECK SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR RAN TO RAN CONDITION.
AC=2
TDOAA: SETUP 40,0
TDOAB: RANDOM
TDOAC: TDO AC,AC ;SHOULD NOT SKIP.
JRST .+2
ER AC,[ASCII /TST/] ;TDO SKIPPED.
TDOA AC,AC ;SHOULD SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD NOT HAVE CHANGED.
EERR ,RAN
LOOP TDOAB,TDOAC
;TEST TDO, TDOA. CHECK FOR SKIP/NO SKIP
;AND CORRECT DATA IN AC FOR RAN1 TO RAN CONDITION.
AC=2
TDOB1: SETUP 400,3
TDOB2: RANDOM
TDOB3: MOVS AC1,AC ;MAKE AC1 ANOTHER RAN NUM.
MOVE AC2,AC ;SIMULATE
XOR AC2,AC1 ;A
IOR AC2,AC ;TDO INST.
TDO AC,AC1 ;SHOULD NOT SKIP.
CAME AC,AC2 ;C(AC) = SIM. ANS?
ERR AC1,RAN ;NO.
MOVE AC,RAN ;RESTORE AC.
TDOA AC,AC1 ;SHOULD SKIP.
ER AC,[ASCII /TST/]
CAME AC,AC2 ;C(AC) = SIM ANS?
ERR AC1,RAN ;NO.
LOOP TDOB2,TDOB3
;TEST TDOE,TDON. ROT A MASK BIT IN E AND SET THAT
;BIT IN AC BEFORE TDO. CHECK FOR SKIP/NO SKIP
;AND PROPER DATA IN AC.
AC=2
TDOE1: SETUP 40,0
MOVEI AC1,1 ;SETUP A MASK BIT IN "E".
TDOE2: RANDOM
ROT AC1, ;ROT MASK BIT TO TEST NEXT BIT.
TDOE3: IOR AC,AC1 ;SET MASK BIT IN AC.
MOVE AC2,AC ;SAVE AC IN AC2.
TDOE AC,AC1 ;C(E) + C(AC) NOT = 0. NO SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDOE SKIPPED.
TDON AC,AC1 ;C(E) + C(AC) NOT = 0..SKIP.
ER AC,[ASCII /TST/]
CAME AC,AC2 ;C(AC) SHOULD NOT CHANGE.
ERR AC1,AC2
LOOP TDOE2,TDOE3
;TEST TDOE,TDON. ROT A MASK BIT IN E AND CLEAR THAT
;BIT IN AC BEFORE TDO. CHECK FOR SKIP/NO SKIP
;AND PROPER DATA IN AC.
AC=3
TDOEA: SETUP 40,0
MOVEI AC1,1 ;SETUP MASK BIT IN"E".
TDOEB: RANDOM
ROT AC1,1 ;ROT MASK BIT TO TEST NEXT BIT.
TDOEC: ANDCM AC,AC1 ;CLEAR MASK BIT IN AC.
MOVE RAN1,AC ;SAVE AC.
MOVE AC2,AC ;SIMULATE
IOR AC2,AC1 ;A TDO.
TDOE AC,AC1 ;C(E) + C(AC) = 0. SKIP.
ER AC,[ASCII /TST/]
CAME AC,AC2 ;C(AC) = SIM ANS?
ERR AC1,RAN1 ;NO.
MOVE AC,RAN1 ;RESTORE AC.
TDON AC,AC1 ;C(E) + C(AC) = 0..NO SKIP.
CAME AC,AC2 ;C(AC) = SIM. ANS?
ERR AC1,RAN1 ;NO.
LOOP TDOEB,TDOEC
;TEST TDOE,TDON. ROT A MASK BIT IN AC AND CLEAR THAT
;BIT IN E BEFORE TDO. CHECK FOR SKIP/NO SKIP
;AND PROPER DATA IN AC.
AC=4
TDONA: SETUP 40,0
MOVEI AC1,1 ;SETUP A MASK BIT IN AC.
TDONB: RANDOM
ROT AC1,1 ;ROT BIT TO TEST NEXT BIT.
MOVE AC2,AC1 ;SAVE MASK BIT SO IN CASE
TDONC: MOVE AC1,AC2 ;OF ERROR IT CAN BE RESTORED.
ANDCM AC,AC1 ;CLEAR MASK BIT IN E.
JUMPE AC,TDONB ;REJECT IF C(AC) = 0.
MOVE AC3,AC ;SIMULATE
IOR AC3,AC1 ;TDO.
TDOE AC1,AC ;C(E) + C(AC) = 0...SKIP.
ER AC1,[ASCII /TST/];TDOE DID NOT SKIP.
CAME AC1,AC3 ;C(AC) SHOULD = SIM. ANS.
ERR AC,AC2
TDON AC1,AC ;C(E) + C(AC) NOT = 0...SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,AC3 ;C(AC) SHOULD = SIM. ANS.
ERR AC,AC2
MOVE AC1,AC2 ;RESTORE AC.
LOOP TDONB,TDONC
;TEST TDOE,TDON. ROT A MASK BIT IN AC AND SET
;THAT BIT IN E BEFORE TDO. CHECK FOR SKIP/ NO SKIP
;AND CORRECT DATA IN AC.
AC=5
TDON1: SETUP 40,0
MOVEI AC1,1 ;SETUP AC TO CONTAIN A MASK BIT.
TDON2: RANDOM
ROT AC1,1 ;ROT TO TEST NEXT BIT.
MOVE AC2,AC1 ;SAVE C(AC) SO IT CAN BE
TDON3: MOVE AC1,AC2 ;RESTORED IN CASE OF ERROR.
IOR AC,AC1 ;SET MASK BIT IN E.
TDOE AC1,AC ;C(E) + C(AC) NOT = 0...NO SKIP.
JRST .+2
ER AC1,[ASCII /TST/];TDOE SKIPPED.
TDON AC1,AC ;C(E) + C(AC) NOT = 0...SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,AC ;C(AC) SHOULD = C(E).
ERR AC,AC2
MOVE AC1,AC2 ;RESTORE AC.
LOOP TDON2,TDON3
;TEST TDC. CHECK FOR SKIP/NO SKIP AND CORRECT
;DATA FOR NOT RAN TO RAN CONDITION.
AC=6
TDC1: SETUP 100,0
TDC2: RANDOM
TDC3: SETCM AC1,RAN ;MAKE C("E") = COMP. OF RAN.
TDC AC,AC1 ;NO SKIP.
CAME AC,[-1] ;C(AC) SHOULD = A -1.
ERR AC1,RAN
SETO RAN1, ;SET RAN1 FOR ERROR MESSAGE.
TDC AC,AC1 ;NO SKIP.
CAME AC,RAN ;C(AC) SHOULD = RAN AGAIN.
ERR AC1,RAN1
LOOP TDC2,TDC3
;TEST TDCA. CHECKING FOR SKIP/ NO SKIP AND
;CORRECT DATA IN AC FOR NOT RAN TO RAN CONDITION.
AC=10
TDCA1: SETUP 100,0
TDCA2: RANDOM
TDCA3: SETCM AC1,RAN ;MAKE C("E") = COMP OF RAN.
TDC AC,AC1 ;SHOULD NOT SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDC SKIPPED.
TDCA AC,AC1 ;SHOULD SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;TWO TDC'S SHOULD RETURN C(AC)
;TO IT'S ORIGINAL VALUE.
ERR AC1,RAN
LOOP TDCA2,TDCA3
;TEST TDCE. CHECKING FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR RAN TO 0 CONDITION.
AC=11
TDCE1: SETUP 100,0
TDCE2: RANDOM
TDCE3: SETZB AC1,RAN1 ;CLEAR BOTH AC AND RAN1.
TDCE AC1,AC ;C(E) + C(AC) = 0. SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,RAN ;C(AC) SHOULD = RAN.
EERR ,RAN1
LOOP TDCE2,TDCE3
;TEST TDCE,TDCN. CHECKING FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR 0 TO RAN CONDITION.
AC=11
TDCEA: SETUP 100,0
TDCEB: RANDOM
TDCEC: SETZ AC1, ;CLEAR C(E).
TDCN AC,AC1 ;C(E) + C(AC) = 0...NO SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDCN SKIPPED.
TDCE AC,AC1 ;C(E) + C(AC) = 0. SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD STILL = RAN.
ERR AC1,RAN
LOOP TDCEB,TDCEC
;TEST TDCE. CHECKING FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR RAN TO -1 CONDITION.
AC=10
TDCE4: SETUP 100,0
TDCE5: RANDOM
JUMPE AC,TDCE5 ;REJECT IF RAN = 0.
TDCE6: SETOB AC1,RAN1 ;SET C(AC) TO ALL ONES.
SETCM AC2,AC ;SIMULATE A TDC.
TDCE AC1,AC ;C(E) + C(AC) NOT = 0. NO SKIP.
CAME AC1,AC2 ;C(AC) = SIM.. ANS?
ERR AC,RAN1 ;NO.
LOOP TDCE5,TDCE6
;TEST TDCE,TDCN. CHECKING FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR -1 TO RAN CONDITION.
AC=10
TDCED: SETUP 100,0
TDCEE: RANDOM
JUMPE AC,TDCEE ;REJECT IF RAN = 0.
CAMN AC,[-1] ;C(AC) = -1?
JRST TDCEE ;YES. REJECT.
TDCEF: SETOB AC1,RAN1 ;SET C(E) TO ALL ONES.
TDCE AC,AC1 ;C(E) + C(AC) NOT = 0. NO SKIP.
JRST .+2
ER AC,[ASCII /TST/];TDCE SKIPPED.
TDCN AC,AC1 ;C(E) + C(AC) NOT = 0..SKIP.
ER AC,[ASCII /TST/]
CAME AC,RAN ;C(AC) SHOULD = ORIG C(AC).
ERR RAN1,RAN
LOOP TDCEE,TDCEF
;TEST TDCE. CHECKING FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR RAN TO RAN CONDITION.
AC=10
TDCE7: SETUP 100,0
TDCE8: RANDOM
JUMPE AC,TDCE8 ;REJECT IF RAN = 0.
TDCE9: MOVE AC1,RAN ;MAKE C("AC") = C("E").
TDCE AC1,AC ;C(E) + C(AC) NOT = 0. NO SKIP.
CAME AC1,[0] ;C(AC) SHOULD = 0.
ERR AC,AC
LOOP TDCE8,TDCE9
;TEST TDCE. CHECKING FOR SKIP/NO SKIP AND
;CORRECT DATA IN AC FOR RAN TO NOT RAN.
AC=10
TDCEG: SETUP 100,0
TDCEH: RANDOM
TDCEI: SETCM AC1,AC ;MAKE C("AC") = TO COMP OF RAN.
MOVE RAN1,AC1 ;SAVE C(AC) IN CASE OF ERROR.
TDCE AC1,AC ;C(E) + C(AC) = 0. SKIP.
ER AC1,[ASCII /TST/]
CAME AC1,[-1] ;C(AC) SHOULD = -1.
ERR AC,RAN1
LOOP TDCEH,TDCEI
;JRST BEGEND ;REPEAT TEST
SUBTTL *UUOERR* OLD-UUO ERROR HANDLER SUBROUTINE, V75B, APR 22,1975
;THIS SUBROUTINE PROVIDES ERROR REPORTING THRU THE USE OF UUO'S.
ERRMES: MOVEM 0,%ERAC0# ;SAVE AC0
IFDEF EXCASB,<IFDEF KI10,<
SKIPN KAIFLG
JRST .+5
SKIPE USER ;USER MODE ?
JRST .+3
SKIPE MARGIN
DATAO APR,[IMGNOF,,ISPDOF] ;CLR MARGINS >>
MOVEM 1,%ERAC1# ;SAVE AC1
MOVEM 2,%ERAC2# ;SAVE AC2
AOS ERRTLS ;INCREMENT ERROR TOTALS
HRRZ 0,$SVUPC ;GET PC OF UUO
CAMN 0,ERRPC ;PC = PC OF LAST ERROR ?
AOS MICNT# ;YES, ADD 1 TO ERROR COUNT
MOVE 0,MICNT
HRL 0,$SVUPC
SKIPN KLFLG ;NOT KL10
SKIPE USER ;AND NOT USER?
JRST .+2
DATAO PI,0 ;YES, DISPLAY ERROR PC,ERROR COUNT
SETZM PROCED# ;CLEAR PROCEED FLAG
SWITCH
TLNE NOPNT ;PRINTOUT ?
JRST %ERRS1 ;NO, RESTORE AC'S AND RETURN
MOVE 1,$SVUUO
LSH 1,-^D27
MOVEM 1,%ACS1A# ;SAVE UUO NUMBER
MOVE 0,%ERAC0
MOVE 1,%ERAC1
SKIPGE @ERRLOP ;ERR LOOP AC > OR = 0 ?
JRST %ERRS4 ;NO, SEE IF PRINT ALL
%ERMS1: SETZM MICNT ;CLEAR ERROR COUNT
SKIPL MONCTL ;DIAG MON OR SYS EXER ?
JRST .+4 ;NO, DON'T NEED TITLE
SKIPN %ERFST# ;FIRST ERROR ?
PNTNM ;YES, PRINT PROGRAM TITLE
SETOM %ERFST
SKIPN PASCNT ;FIRST PASS ?
JRST .+4 ;YES
PMSG <^TEST PASS COUNT = >
MOVE PASCNT
PNTDEC
PMSG <^PC = >
HRRZ 0,$SVUPC ;GET PC OF UUO
MOVEM 0,ERRPC ;SAVE FOR COMPARE
PNT6 ;PRINT UUO ADDRESS
XLIST
IFDEF ERDIAG,<LIST
;DIAGNOSTIC FORMAT ERROR PRINTER
;PRINT RESULT
%ERMS2: PMSG <^RESULT = >
MOVE 1,$SVUUO ;GET AC # OF UUO
LSH 1,-27
ANDI 1,17
MOVE 0,(1) ;GET C(AC)
CAIG 1,1 ;IS AC # = TO SAVE AC ?
MOVE 0,%ERAC0(1) ;YES, GET SAVED AC
PNTHW ;PRINT C(AC)
MOVE CONSW
TLNE TXTINH ;PRINT FAILURE DES AND FLT NBR ?
JRST %ERMORE ;NO, RESTORE AC'S ETC.
;PRINT FAILURE DESCRIPTOR
MOVE 1,%ACS1A ;GET UUO NUMBER
CAIG 1,1 ;PRINT DESCRIPTOR ?
JRST %ERMS3 ;NO, JUST PRINT FAULT NUMBER
PCRL
MOVE %FLTTB(1)
PNTAL ;PRINT FAULT DESCRIPTOR
;PRINT FAULT NUMBER
%ERMS3: PMSG <^FAULT NUMBER = >
MOVEI TLET
PNTA ;PRINT TEST LETTER
HRRZ $SVUUO
TRNE 700000
JRST %ER6X
TRNE 070000
JRST %ER5X
TRNE 007000
JRST %ER4X
PNT3 ;PRINT FAULT NUMBER
%ER7X: PCRL
JRST %ERMORE
%ER4X: PNT4
JRST %ER7X
%ER5X: PNT5
JRST %ER7X
%ER6X: PNT6
JRST %ER7X
;FAILURE DESCRIPTORS
TLET: 0 ;TEST LETTER
%FLTTB: 0 ;DESCRIPTOR TABLE
%NODES: [0] ;NO DESCRIPTOR
SPDES: [0] ;SPECIAL USER FAILURE DESCRIPTOR
$ACF: [ASCIZ/C(AC) FAILED/]
%AC1F: [ASCIZ/C(AC+1) FAILED/]
%EF: [ASCIZ/C(E) FAILED/]
%E1F: [ASCIZ/C(E+1) FAILED/]
%ARF: [ASCIZ/C(C(ACR)) FAILED/]
%AR1F: [ASCIZ/C(C(ACR+1)) FAILED/]
%ALF: [ASCIZ/C(C(ACL)) FAILED/]
%EEF: [ASCIZ/C(C(E)) FAILED/]
%FF: [ASCIZ/FLAG FAILED/]
>
XLIST
IFDEF ERRELB,<
LIST
;RELIABILITY FORMAT ERROR PRINTER
%ERMS2: SETZM %RAND# ;CLEAR PNT C(RAN) FLAG
MOVE 1,%ACS1A
CAIL 1,11 ;UUO # 11-13
SETOM %RAND ;YES, SET PNT C(RAN) FLAG
TRZ 1,10 ;MAKE UUO # 1-7
MOVEM 1,%ACS1A
MOVE 2,ERRPC ;GET UUO ADDRESS
MOVE 2,-1(2) ;GET INST IN UUO-1
CAIL 1,4 ;UUO # < THAN 4 ?
MOVE 2,$SVUUO ;YES, GET UUO
MOVEM 2,%CNTE# ;SAVE E ADDRESS
MOVE 2,%ERAC2
MOVE 1,%ERAC1
MOVE 0,%ERAC0
MOVEI 1,@%CNTE ;GET ADRS FIELD OF UUO OR UUO-1
MOVEM 1,%EE1#
MOVE 1,%ERAC1
MOVE 1,@%EE1 ;GET C(E)
MOVEM 1,%EE1A#
MOVE 1,%ERAC1
MOVEI 1,@$SVUUO ;GET ADDRESS FIELD OF UUO
MOVEM 1,%EE2#
MOVE 1,%ACS1A
CAIN 1,3 ;UUO # 3 ?
JRST .+4 ;YES
MOVE 1,%ERAC1
MOVE 1,@%EE2 ;GET C(E) OF UUO
MOVEM 1,%EE2A#
MOVE 2,%ACS1A ;GET UUO #
MOVE 1,%CNTE
LSH 1,-27 ;GET AC NUMBER
ANDI 1,17
CAIG 2,5 ;UUO # 6,7 OR 2
CAIN 2,2
JRST %ERR2 ;YES, GO PNT E AND C(E)
;PRINT ERROR AC
PMSG <^AC = >
MOVE 0,1
PNT2 ;PRINT AC NUMBER
PMSG <^C(AC)= >
MOVE 0,(1) ;GET C(AC)
CAIG 1,2 ;IS AC # = SAVED AC ?
MOVE 0,%ERAC0(1) ;YES, GET SAVED AC
%ERRB: PNTHW ;PRINT C(AC) OR UUO2 (E)
;PRINT ERROR INFO
CAIN 2,5 ;UUO # 5
JRST %ERR4 ;YES, GO PNT 'TST','SKP', OR ETC.
PMSG <^COR = >
MOVE 0,(1) ;GET C(AC)
CAIG 1,2 ;IS AC # = SAVED AC ?
MOVE 0,%ERAC0(1) ;YES, GET SAVED AC
CAIE 2,2
MOVE 0,%EE1A ;UUO # 2, GET C(E)
PNTHW ;PRINT C(E) OR UUO2 C(AC)
CAIL 2,4 ;UUO # >3 ?
JRST %ERRC ;YES, RESTORE AC'S AND RETURN
PMSG <^ ORIGINAL>
%ERRB1: MOVE 1,$SVUUO
LSH 1,-27 ;GET AC # OF UUO
ANDI 1,17
PMSG <^C(AC)= >
MOVE 0,(1) ;GET C(AC)
CAIG 1,2 ;IS AC # = SAVED AC ?
MOVE 0,%ERAC0(1) ;YES, GET SAVED AC
SKIPE %RAND ;PRINT C(RAN) FLAG SET ?
MOVE 0,RAN# ;YES
PNTHW ;PRINT C(AC) OR C(RAN)
CAIN 2,3 ;UUO # 3 ?
JRST %ERR2 ;YES, PRINT E, RESTORE AC'S AND RETURN
CAIN 2,7 ;UUO # 7 ?
JRST %ERRC ;YES, BYPASS PRINTING C(E)
PMSG <^C(E) = >
MOVE 0,%EE2A
PNTHW ;PRINT C(E)
JRST %ERRC
%ERR2: PMSG <^E = >
MOVE 0,%EE2
CAIN 2,2 ;UUO # 2 ?
MOVE 0,%EE1
PNT6 ;PRINT E OF UUO OR UUO-1
CAIL 2,6 ;UUO 6 OR 7 ?
JRST %ERRB1 ;YES, GO PNT C(AC), C(E) AND RETURN
CAIN 2,3 ;UUO # 3 ?
JRST %ERRC ;YES, RESTORE AC'S AND RETURN
PMSG <^C(E) = >
MOVE 0,%EE1A ;GET C(E)
JRST %ERRB
;PRINT ASCII COMMENT
%ERR4: HRRZI 0,@$SVUUO
PNTA ;PRINT 'TST','SKP', OR ETC.
JRST %ERRC
;COMPLETE PRINTOUT
%ERRC: PCRL
XLIST
IFDEF UUOTXT,<
LIST
MOVE 0,CONSW
TLNN TXTINH ;PRINT DIAGNOSTIC COMMENT ?
CAIE 2,7 ;UUO # 7 ?
JRST %ERMORE ;NO, RESTORE AC'S AND RETURN
MOVE 0,%EE2 ;YES
PNTAL ;PRINT DIAGNOSTIC COMMENT
PCRL
>
LIST
JRST %ERMORE
>
LIST
;RESTORE AC'S AND RETURN OR HALT
%ERMORE:XCT ERMORE
PNTMGN ;PRINT MARGINS
SWITCH
%ERRS1: TTALTM ;ALTMODE CHECK
JRST .+4 ;NONE
MOVEI .+3 ;SAVE CONT ADDRESS
MOVEM JOBOPC
JRST @ALTMGO ;PERFORM TRANSFER
MOVE CONSW
TLNE 0,ERSTOP ;HALT ON ERROR SWITCH SET ?
ERRHLT ;YES
TLNN 0,LOOPER ;LOOP ON ERROR SWITCH SET ?
SETOM PROCED ;NO, SET THE PROCEED FLAG
TLNE 0,DING ;RING BELL SWITCH SET ?
PBELL ;YES, GO RING BELL
%ERRS2: MOVE 2,%ERAC2 ;RESTORE AC'S
MOVE 1,%ERAC1
SETOM @ERRLOP ;SET C(ERR LOOP AC) TO -1
SKIPN PROCED ;LOOP ON ERROR ?
JRST %ERRS5 ;YES
AOS @ERRLOP ;NO, INC C(ERR LOOP AC)
AOS @ERRLOP ;SO IT ='S 1
SKIPL MONCTL ;UNDER DIAGNOSTIC MONITOR ?
JRST %ERRS5 ;NO, CONTINUE PROGRAM
MOVE 0,ERRTLS ;YES
CAIL 0,5 ;PRINTED ALLOWED ERRORS ?
JRST $BEND2
%ERRS5: MOVE 0,%ERAC0 ;NO, CONTINUE PROGRAM
IFDEF EXCASB,<IFDEF KI10,<
SKIPN KAIFLG
JRST .+5
SKIPE USER
JRST .+3
SKIPE MARGIN
DATAO APR,MARGIN ;RESET MARGIN SYSTEM >>
JRST UUOEXT
%ERRS4: MOVE 0,CONSW
TLNN PALERS ;PRINT ALL ERRORS ?
JRST %ERRS1 ;NO
JRST %ERMS1 ;YES
SUBTTL *STOR* RESERVED STORAGE, JULY 19,1977
;PROGRAM LITERALS
XLIST
IFNDEF $LPAPER,<LIST>
LIT
LIST
ENDSLD: 0
IFDEF DEBUG,<
PATCH: BLOCK DEBUG ;PATCHING AREA
>
;PROGRAM VARIABLES
VAR
IFDEF PGMEND,<
END: 0
END START >