agc.lst
Block I Apollo Guidance Computer (AGC4) assembler version 1.6 for EPROM
First pass: generate symbol table.
Second pass: generate object code.
;==========================================================================
; AGC (file:agc.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 6/7/2002
;
; PURPOSE:
; AGC Block I demonstration. Includes most of the AGC operating system:
; WAITLIST, EXEC, PINBALL (DSKY routines), NOUN tables, VERB tables,
; bank intercommunication routines, the KEY, T3, and T4 interrupt handlers,
; and some dual precision (DP) math routines.
;
; The interpreter is not currently implemented.
;
; Where available, the source is from the Apollo 8 command module computer (CMC)
; load (called COLOSSUS). In cases where COLOSSUS source is not available,
; functionally equivalent code was constructed using COLOSSUS calling and return
; parameters and according to specifications in the technical reports given below.
;
; OPERATION:
; TBD.
;
; ERRATA:
; - Adapted for the AGC4R assembler. The assembler directives and syntax
; differ somewhat from the original AGC assembler.
; - some of the original source was missing from the COLOSSUS listing and
; had to be reverse engineered. Those portions probably differ somewhat
; from the original code in implementation, but should be functionally
; identical.
; - because the COLOSSUS source is for a block II AGC, but the AGC
; implemented here is block I, about 5% of COLOSSUS had to be translated
; to equivalent block I code.
;
; SOURCES:
; Information on the Block I architecture: instruction set, instruction
; sequences, registers, register transfers, control pulses, memory and
; memory addressing, I/O assignments, interrupts, and involuntary counters
; was obtained from:
;
; A. Hopkins, R. Alonso, and H. Blair-Smith, "Logical Description
; for the Apollo Guidance Computer (AGC4)", R-393,
; MIT Instrumentation Laboratory, Cambridge, MA, Mar. 1963.
;
; Supplementary AGC hardware information was obtained from:
;
; R. Alonso, J. H. Laning, Jr. and H. Blair-Smith, "Preliminary
; MOD 3C Programmer's Manual", E-1077, MIT Instrumentation
; Laboratory, Cambridge, MA, Nov. 1961.
;
; B. I. Savage and A. Drake, "AGC4 Basic Training Manual, Volume I",
; E-2052, MIT Instrumentation Laboratory, Cambridge,
; MA, Jan. 1967.
;
; E. C. Hall, "MIT's Role in Project Apollo, Volume III, Computer
; Subsystem", R-700, MIT Charles Stark Draper Laboratory,
; Cambridge, MA, Aug. 1972.
;
; A. Hopkins, "Guidance Computer Design, Part VI", source unknown.
;
; E, C. Hall, "Journey to the Moon: The History of the Apollo
; Guidance Computer", AIAA, Reston VA, 1996.
;
; AGC software information was obtained from:
;
; AGC Block II COLOSSUS rev 249 assembly listing, Oct 28, 1968. (A
; listing of the 1st 50% of the build. It encludes the entire
; eraseable memory, restart initialization, T4RUPT, and the
; entire set of DSKY routines. About 5% of instructions
; had to be converted from Block II to Block I).
;
; A. I. Green and J. J. Rocchio, "Keyboard and Display System Program
; for AGC (Program Sunrise)", E-1574, MIT Instrumentation
; Laboratory, Cambridge, MA, Aug. 1964. Contains detailed
; flowcharts and design materials for the DSKY software.
;
; A. Hopkins, R. Alonso, and H. Blair-Smith, "Logical Description
; for the Apollo Guidance Computer (AGC4)", R-393,
; MIT Instrumentation Laboratory, Cambridge, MA, Mar. 1963.
; Contains the software interfaces for EXEC and WAITLIST, and
; portions of the dual precision (DP) math library.
;
;==========================================================================
INCL doc.asm
;==========================================================================
; AGC documentation (file:doc.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 06/01/2002
;
; PURPOSE:
; Documents AGC ops source code.
;==========================================================================
;--------------------------------------------------------------------------
; DSKY OPERATION
;
; verb/noun (V/N) flash: When the verb and noun indicators flash
; at 1Hz, the DSKY is waiting for keyboard input.
;
;
; Display elapsed time from the AGC clock:
; <VERB> <0> <6> <NOUN> <3> <6> <ENTER>
;
; Test display lights
; a) <VERB> <3> <5> <ENTER>
; b) all DSKY lamps and display segments illuminate for 5 sec.
; c) after 5 sec, the DSKY lamps extinguish
;
; Load component 1 for dataset at octal address 50 with octal 123
; a) <VERB> <2> <1> <NOUN> <0> <1> <ENTER>
; b) verb/noun display flashes; waiting for address
; c) <5> <0> <ENTER>
; d) verb/noun display flash continues; waiting for data
; e) <1> <2> <3> <ENTER>
; f) octal word from R1 is loaded at address 50,
;
; Display component 1 of dataset at octal address 50:
; a) <VERB> <0> <1> <NOUN> <0> <1> <ENTER>
; b) verb/noun display flashes; waiting for address
; c) <5> <0> <ENTER>
; d) octal word from address 50 is displayed in R1
;
; Load 3 component dataset at octal address 50 with octal values
; 123,456,701
; a) <VERB> <2> <5> <NOUN> <0> <1> <ENTER>
; b) verb/noun display flashes; waiting for address
; c) <5> <0> <ENTER>
; d) verb/noun display flash continues; waiting for data
; e) <1> <2> <3> <ENTER>
; f) <4> <5> <6> <ENTER>
; g) <7> <0> <1> <ENTER>
; h) octal word from R1 is loaded at address 50,
; octal word from R2 is loaded at address 51,
; octal word from R3 is loaded at address 52
;
; Display 3 component dataset beginning at address 50:
; a) <VERB> <0> <5> <NOUN> <0> <1> <ENTER>
; b) verb/noun display flashes; waiting for address
; c) <5> <0> <ENTER>
; d) octal word from address 50 is displayed in R1,
; octal word from address 51 is displayed in R2,
; octal word from address 52 is displayed in R3
;
;--------------------------------------------------------------------------
;--------------------------------------------------------------------------
; COLOSSUS REGULAR VERBS (00-39 decimal)
;
; This is adapted from the Apollo 204 accident report posted on multiple
; web sites by Richard F. Drushel. The information has been changed as
; necessary to be consistent with usage in COLOSSUS.
;
;
; Verb | |
; Code | Description | Remarks
; | |
; 01 | Display octal comp 1 in R1 | Performs octal display of data on
; | | REGISTER 1.
; | |
; 02 | Display octal comp 2 in R2 | Performs octal display of data on
; | | REGISTER 1.
; | |
; 03 | Display octal comp 3 in R3 | Performs octal display of data on
; | | REGISTER 1.
; | |
; 04 | Display octal comp 1,2 | Performs octal display of data on
; | in R1,R2 | REGISTER 1 and REGISTER 2
; | |
; 05 | Display octal comp 1,2,3 | Performs octal display of data on
; | in R1,R2,R3 | REGISTER 1, REGISTER 2, and REGISTER 3.
; | |
; 06 | Display decimal in R1 or | Performs decimal display of data on
; | R1,R2 or R1,R2,R3 | appropriate registers. The scale
; | | factors, types of scale factor
; | | routines, and component information
; | | are stored within the machine for each
; | | noun which it is required to display
; | | in decimal.
; | |
; 07 | Display DP decimal in R1,R2 | Performs a double precision decimal
; | | display of data on REGISTER 1 and
; | | REGISTER 2. It does no scale
; | | factoring. It merely performs a 10-
; | | character, fractional decimal
; | | conversion of two consecutive, erasable
; | | registers, using REGISTER 1 and
; | | REGISTER 2. The sign is placed in the
; | | REGISTER 1 sign position with the
; | | REGISTER 2 sign position remaining
; | | blank. It cannot be used with mixed
; | | nouns. Its intended use is primarily
; | | with "machine address to be specified"
; | | nouns.
; | |
; 08 | (Spare) |
; | |
; 09 | (Spare) |
; | |
; 10 | (Spare) |
; | |
; 11 | Monitor octal comp 1 in R1 | Performs octal display of updated data
; | | every 1/2 second on REGISTER 1.
; | |
; 12 | Monitor octal comp 2 in R2 | Performs octal display of updated data
; | | every 1/2 second on REGISTER 1.
; | |
; 13 | Monitor octal comp 3 in R3 | Performs octal display of updated data
; | | every 1/2 second on REGISTER 1.
; | |
; 14 | Monitor octal comp 1,2 | Performs octal display of updated data
; | in R1,R2 | every 1/2 second on REGISTER 1 and
; | | REGISTER 2.
; | |
; 15 | Monitor octal comp 1,2,3 | Performs octal display of updated data
; | in R1,R2,R3 | every 1/2 second on REGISTER 1,
; | | REGISTER 2, and REGISTER 3.
; | |
; 16 | Monitor decimal in R1 or | Performs decimal display of updated
; | R1,R2, or R1,R2,R3 | data every 1/2 second on appropriate
; | | registers.
; | |
; 17 | Monitor DP decimal in R1,R2 | Performs double precision display of
; | | decimal data on REGISTER 1 and
; | | REGISTER 2. No scale factoring is
; | | performed. Provides 10-character,
; | | fractional decimal conversion of two
; | | consecutive erasable registers. The
; | | sign is placed in the sign-bit
; | | position of REGISTER 1. REGISTER 2
; | | sign bit is blank.
; | |
; 18 | (Spare) |
; | |
; 19 | (Spare) |
; | |
; 20 | (Spare) |
; | |
; 21 | Load component 1 into R1 | Performs data loading. Octal
; | | quantities are unsigned. Decimal
; | | quantities are preceded by + or -
; | | sign. Data is displayed on REGISTER
; | | 1.
; | |
; 22 | Load component 2 into R2 | Performs data loading. Octal
; | | quantities are unsigned. Decimal
; | | quantities are preceded by + or -
; | | sign. Data is displayed on REGISTER
; | | 2.
; | |
; 23 | Load component 3 into R3 | Performs data loading. Octal
; | | quantities are unsigned. Decimal
; | | quantities are preceded by + or -
; | | sign. Data is displayed on REGISTER
; | | 3.
; | |
; 24 | Load component 1,2 into | Performs data loading. Octal
; | R1,R2 | quantities are unsigned. Decimal
; | | quantities are preceded by + or -
; | | sign. Data is displayed on REGISTER
; | | 1 and REGISTER 2.
; | |
; 25 | Load component 1,2,3 into | Performs data loading. Octal
; | R1,R2,R3 | quantities are unsigned. Decimal
; | | quantities are preceded by + or -
; | | sign. Data is displayed on REGISTER
; | | 1, REGISTER 2, and REGISTER 3.
; | |
; 26 | (Spare) |
; | |
; 27 | Display fixed memory | This verb is included to permit
; | | displaying the contents of fixed
; | | memory in any bank. Its intended use
; | | is for checking program ropes and the
; | | BANK positions of program ropes.
; | |
; 28 | (Spare) |
; | |
; 29 | (Spare) |
; | |
; 30 | Request EXECUTIVE | Enters request to executive routine
; | (Used only during ground | for any machine address with priority
; | checkout.) | involved. This verb assumes that the
; | | desired priority has been loaded into
; | | bits 10-14 of the prio/delay register
; | | (noun 26). This verb is used with the
; | | noun, "machine address to be
; | | specified". The complete address of
; | | the desired location is then keyed in.
; | | (Refer to "Machine address to be
; | | specified" in paragraph on Verb/Noun
; | | Formats.)
; | |
; 31 | Request WAITLIST | Enters request to "waitlist routine"
; | (Used only during ground | for any machine address with delay
; | checkout.) | involved. This verb assumes that the
; | | desired number of 10-millisecond units
; | | of delay has been loaded into the low
; | | order bits of the prio/delay register
; | | (noun 26). This verb is used with the
; | | "machine address to be specified" noun.
; | | The complete address of the desired
; | | location is then keyed in. (Refer to
; | | "Machine address to be specified" in
; | | paragraph on Verb/Noun Formats.)
; | |
; 32 | Recycle |
; | |
; 33 | Proceed (without data) | Informs routine requesting data that
; | | the operator chooses not to load
; | | fresh data, but wishes the routine to
; | | continue as best it can with old data.
; | | Final decision for what action should
; | | be taken is left to the requesting
; | | routine.
; | |
; 34 | Terminate | Informs routine requesting data to be
; | | loaded that the operator chooses not
; | | to load fresh data and wishes the
; | | routine to terminate. Final decision
; | | for what action should be taken is
; | | left to the requesting routine. If
; | | monitor is on, it is turned off.
; | |
; 35 | Test lights |
; | |
; 36 | Request fresh start | Initializes the program control
; | | software and the keyboard and display
; | | system program.
; | |
; 37 | Change program (major mode) | Change to new major mode. (Refer to
; | | "Change major mode" in paragraph on
; | | Verb/Noun Formats.)
; | |
;--------------------------------------------------------------------------
;--------------------------------------------------------------------------
; COLOSSUS EXTENDED VERBS (40-99 decimal)
;
; Not implemented. Use of these verbs triggers the 'check fail' indicator.
;--------------------------------------------------------------------------
;--------------------------------------------------------------------------
; COLOSSUS NORMAL NOUNS (00-39 decimal)
;
; This is adapted from the Apollo 204 accident report posted on multiple
; web sites by Richard F. Drushel. The information has been changed as
; necessary to be consistent with usage in COLOSSUS.
;
;
; Noun | |
; Code | Description | Scale/Units
; | |
; 01 | Specify machine address (frac) | .XXXXX FRAC
; | | .XXXXX FRAC
; | | .XXXXX FRAC
; | |
; 02 | Specify machine address (whole) | XXXXX INTEGER
; | | XXXXX INTEGER
; | | XXXXX INTEGER
; | |
; 03 | Specify machine address (degree) | XXX.XX DEG
; | | XXX.XX DEG
; | | XXX.XX DEG
; | |
; 04 | (Spare) |
; | |
; 05 | (Spare) |
; | |
; 06 | (Spare) |
; | |
; 07 | (Spare) |
; | |
; 08 | (Spare) |
; | |
; 09 | Alarm codes | OCT
; | | OCT
; | | OCT
; | |
; 10 | (Spare) |
; | |
; 11 | (Spare) |
; | |
; 12 | (Spare) |
; | |
; 13 | (Spare) |
; | |
; 14 | (Spare) |
; | |
; 15 | Increment address | OCT
; | |
; | |
; 16 | (Spare) |
; | |
; 17 | (Spare) |
; | |
; 18 | (Spare) |
; | |
; 19 | (Spare) |
; | |
; 20 | (Spare) |
; | |
; 21 | (Spare) |
; | |
; 22 | (Spare) |
; | |
; 23 | (Spare) |
; | |
; 24 | (Spare) |
; | |
; 25 | (Spare) |
; | |
; 26 | Prio/delay, address | OCT (prio/delay)
; | | OCT (14-bit CADR)
; | | (not used)
; | |
; 27 | (Spare) |
; | |
; 28 | (Spare) |
; | |
; 29 | (Spare) |
; | |
; 30 | (Spare) |
; | |
; 31 | (Spare) |
; | |
; 32 | (Spare) |
; | |
; 33 | (Spare) |
; | |
; 34 | (Spare) |
; | |
; 35 | (Spare) |
; | |
; 36 | Time of CMC clock: |
; | REGISTER 1 | 00XXX. hours
; | REGISTER 2 | 000XX. minutes
; | REGISTER 3 | 0XX.XX seconds
; | |
; 37 | (Spare) |
; | |
; 38 | (Spare) |
; | |
; 39 | (Spare) |
; | |
;--------------------------------------------------------------------------
;--------------------------------------------------------------------------
; COLOSSUS MIXED NOUNS (40-99 decimal)
;
; Not implemented.
;--------------------------------------------------------------------------
;--------------------------------------------------------------------------
; AGC ADDRESS ASSIGNMENTS
;
; Central Registers
;
; 000000 A accumulator
; 000001 Q subroutine return address
; 000002 Z program counter
; 000003 LP lower product register
;
; Input Registers
;
; 000004 IN0
; 000005 IN1
; 000006 IN2
; 000007 IN3
;
; Output Registers
;
; 000010 OUT0
; 000011 OUT1
; 000012 OUT2
; 000013 OUT3
; 000014 OUT4
;
; Memory Bank Select
;
; 000015 BANK
;
; Interrupt Control
;
; 000016 RELINT re-enable interrupts
; 000017 INHINT inhibit interrupts
;
; Editing Registers
;
; 000020 CYR cycle right
; 000021 SR shift rRight
; 000022 CYL cycle left
; 000023 SL shift left
;
; Interrupt Storage Area
;
; 000024 ZRUPT save program counter (Z)
; 000025 BRUPT save B register
; 000026 ARUPT save accumulator (A)
; 000027 QRUPT save Q register
;
; 000030 - 000033 NOT USED
;
; Involuntary Counters
;
; 000034 OVCTR arithmetic overflow counter
; 000035 TIME2 AGC clock (high)
; 000036 TIME1 AGC clock (low)
; 000037 TIME3 WAITLIST (T3) timer
; 000040 TIME4 DISPLAY (T4) timer
;
; Involuntary Counters -- currently unused
;
; 000041 - 000056 NOT USED
;
; Eraseable Memory
;
; 000057 - 001777
;
; Start of fixed memory
;
; 002000 GOPROG AGC (re)start vector
;
; 002004 T3RUPT interrupt vector for TIME3 (T3RUPT)
; 020010 ERRUPT interrupt vector
; 020014 DSRUPT interrupt vector for DSRUPT (T4RUPT)
; 020020 KEYRUPT interrupt vector for keyboard
; 020024 UPRUPT interrupt vector for uplink
;--------------------------------------------------------------------------
;--------------------------------------------------------------------------
; AGC TABLES (name, file, description)
;
; Keyboard/display
; CHARIN2 bank40_1.asm keyboard character table
; INRELTAB bank40_1.asm DSKY register/display table map
; DSPTAB dsky_e.asm display table for DSKY
;
; Verbs:
; VERBTAB bank41_1.asm regular verb routines (00-39)
;
; Nouns:
; NNADTAB bank42_3.asm noun address table (00-99)
; NNTYPTAB bank42_3.asm noun type table (00-99)
; SFINTAB bank42_3.asm noun input scale factor select
; SFOUTAB bank42_3.asm nout output scale factor select
; IDADDTAB bank42_3.asm mixed noun address table (40-99)
; RUTMXTAB bank42_3.asm mixed noun scale factor routine (40-99)
;
; Noun scale factor routines:
; SFOUTABR bank41_1.asm scale factor output routines
; SFINTABR bank41_2.asm scale factor input routines
;
; Major Modes:
; FCADRMM bank04_1.asm entry points for MM jobs
; EPREMM1 bank04_1,asm priorities for MM jobs
;--------------------------------------------------------------------------
; ERASEABLE MEMORY DECLARATIONS
ORG BANK0 ; immediately following counters
INCL waitlist_e.asm ; WAITLIST variables
;==========================================================================
; WAITLIST (file:waitlist_e.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 11/15/2001
;
; PURPOSE:
; Eraseable memory variables and structures for the WAITLIST. See the
; WAITLIST source code file for more information.
;==========================================================================
MAXTASK EQU 7 ; max number of tasks
MAXVAL EQU %037777 ; largest pos 15-bit int (+16383 dec)
MAXDELAY EQU 12000 ; 120 seconds (in .01 sec ticks)
MAXTIMEOUT EQU MAXVAL-MAXDELAY+1 ; TIME3 setting for MAXDELAY
; task delta t: number of 10 mSec ticks until timeout.
; i.e.: 0=timeout, 1=10mS until timeout, 2=20mS until timeout...
; maximum time delay is 120 (decimal) seconds.
;
; If a task record is empty (unused), the address is always set to
; zero and the time is set to MAXDELAY.
; task record structure
TSKTIME EQU 0 ; offset to task delta time
TSKADDR EQU 1 ; offset to 14-bit task address
TRECSZ EQU 2 ; size of task record (words)
; Array of all task records
WL_taskList EQU *
00057 0057 00000 1 DS 0 ; record 0
00060 0060 00000 1 DS 0
00061 0061 00000 1 DS 0 ; record 1
00062 0062 00000 1 DS 0
00063 0063 00000 1 DS 0 ; record 2
00064 0064 00000 1 DS 0
00065 0065 00000 1 DS 0 ; record 3
00066 0066 00000 1 DS 0
00067 0067 00000 1 DS 0 ; record 4
00070 0070 00000 1 DS 0
00071 0071 00000 1 DS 0 ; record 5
00072 0072 00000 1 DS 0
00073 0073 00000 1 DS 0 ; record 6
00074 0074 00000 1 DS 0
00075 0075 00000 1 WL_IN_saveQ DS 0 ; return address
00076 0076 00000 1 WL_IN_taskPtr DS 0 ; points to task rec in list
00077 0077 00000 1 WL_IN_loopCnt DS 0 ; loop counter
00100 0100 00000 1 WL_AT_saveQ DS 0 ; return address
00101 0101 00000 1 WL_AT_taskPtr DS 0 ; points to task rec in list
00102 0102 00000 1 WL_AT_newTime DS 0 ; time to be inserted
00103 0103 00000 1 WL_AT_timeLeft DS 0 ; time remaining until timeout
00104 0104 00000 1 WL_AT_loopCnt DS 0 ; loop counter
00105 0105 00000 1 WL_T3_saveQ DS 0 ; return address
00106 0106 00000 1 WL_T3_oldBank DS 0 ; current bank
00107 0107 00000 1 WL_ST_saveQ DS 0 ; return address
00110 0110 00000 1 WL_ST_taskPtr DS 0 ; points to task rec in list
00111 0111 00000 1 WL_ST_newTime DS 0 ; time-out time
00112 0112 00000 1 WL_ST_loopCnt DS 0 ; loop counter
00113 0113 00000 1 WL_RT_saveQ DS 0 ; return address
00114 0114 00000 1 WL_RT_runAddr DS 0 ; address of task to run
00115 0115 00000 1 WL_RM_saveQ DS 0 ; return address
00116 0116 00000 1 WL_RM_taskPtr DS 0 ; points to task rec in list
00117 0117 00000 1 WL_RM_taskPtr2 DS 0 ; points to task rec behind taskPtr
00120 0120 00000 1 WL_RM_loopCnt DS 0 ; loop counter
00121 0121 00000 1 WL_RM_retval DS 0 ; tmp store for return value
00122 0122 00000 1 WL_IS_newTime DS 0 ; INPUT: time to be inserted
00123 0123 00000 1 WL_IS_newAddr DS 0 ; INPUT: address to be inserted
00124 0124 00000 1 WL_IS_saveQ DS 0 ; return address
00125 0125 00000 1 WL_IS_taskPtr DS 0 ; points to task rec in list
00126 0126 00000 1 WL_IS_taskPtr2 DS 0 ; points to task rec ahead of taskPtr
00127 0127 00000 1 WL_IS_loopCnt DS 0 ; loop counter
INCL exec_e.asm ; EXEC variables
;==========================================================================
; EXEC (file:exec_e.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 04/26/2002
;
; PURPOSE:
; Eraseable memory variables and structures for the EXEX. See the EXEC
; source code file for more information.
;
; The COLOSSUS version of this is on p. 70.
;
; ERRATA: The current version of the EXEC does not set the BANKSET parameter.
; Instead, it stores the 14-bit CADR in LOC. Also, the JOBPRIOBASE field
; has been added.
;==========================================================================
MAXJOBS EQU 7 ; max number jobs (not incl current job)
JRECSZ EQU 13 ; size of job record (words)
; (COLOSSUS, p. 70)
; dynamically allocated core sets for EXEC jobs (8 sets)
; record for current (running) job
; Job priority: 0=no job, 1=lowest priority job, 2=...
EX_currentJob EQU *
MPAC EQU * ; multi-purpose accumulator
00130 0130 00000 1 DS 0
00131 0131 00000 1 DS 0
00132 0132 00000 1 DS 0
00133 0133 00000 1 DS 0
00134 0134 00000 1 DS 0
00135 0135 00000 1 DS 0
00136 0136 00000 1 DS 0
00137 0137 00000 1 MODE DS 0 ; +1 for TP, +0 for DP, or -1 for vector
00140 0140 00000 1 LOC DS 0 ; location associated with job
00141 0141 00000 1 BANKSET DS 0 ; usually contains bank setting
00142 0142 00000 1 PUSHLOC DS 0 ; word of packed interpretive parameters
00143 0143 00000 1 PRIORITY DS 0 ; priority of present job and work area
00144 0144 00000 1 JOBPRIOBASE DS 0 ; nominal job priority
; records for additional jobs waiting to run
JREC0 EQU *
ORG JREC0+JRECSZ
JREC1 EQU *
ORG JREC1+JRECSZ
JREC2 EQU *
ORG JREC2+JRECSZ
JREC3 EQU *
ORG JREC3+JRECSZ
JREC4 EQU *
ORG JREC4+JRECSZ
JREC5 EQU *
ORG JREC5+JRECSZ
JREC6 EQU *
ORG JREC6+JRECSZ
; sorted list of jobs to run. The list is sorted by job priority
; with the highest priority job at the top of the list. Each
; entry on the list is a word index to a job record; the indexes are
; relative to 'EX_currentJob', but the current job is not on the
; list.
EX_jobList EQU *
ORG EX_jobList+MAXJOBS
LOCCTR EQU EX_jobList ; index to next job record
CHGJOB EQU 1 ; change jobs at next opportunity
KEEPJOB EQU 0 ; keep the same job
00307 0307 00000 1 newJob DS 0 ; change flag (set to CHGJOB or KEEPJOB)
00310 0310 00000 1 EX_JW_saveQ DS 0 ; return address
00311 0311 00000 1 EX_JW_loopCnt DS 0 ; loop counter
00312 0312 00000 1 EX_JW_CADR DS 0 ; address of job to wake
00313 0313 00000 1 EX_JW_foundit DS 0 ; 0=job not found, 1=found
00314 0314 00000 1 EX_JW_jobPtr DS 0 ; points to job rec in list
00315 0315 00000 1 EX_JW_jobPtr2 DS 0 ; points to job rec ahead of jobPtr
00316 0316 00000 1 EX_JW_fndIndx DS 0 ; index to awoken record
00317 0317 00000 1 EX_AJ_saveQ DS 0 ; return address
00320 0320 00000 1 EX_AJ_loopCnt DS 0 ; loop counter
00321 0321 00000 1 EX_AJ_jobPrio DS 0 ; priority of new job
00322 0322 00000 1 EX_AJ_jobPtr DS 0 ; initialized to EX_jobList at startup
00323 0323 00000 1 EX_AJ_field DS 0 ; index to field from start of record
00324 0324 00000 1 EX_AJ_findx DS 0 ; total index to field
00325 0325 00000 1 EX_IN_saveQ DS 0 ; return address
00326 0326 00000 1 EX_IN_loopCnt DS 0 ; loop counter
00327 0327 00000 1 EX_IN_jobPtr DS 0 ; points to job rec in list
00330 0330 00000 1 EX_IN_recIndex DS 0 ; record index init counter
00331 0331 00000 1 EX_IN_field DS 0 ; index to field from start of record
00332 0332 00000 1 EX_IN_findx DS 0 ; total index to field
00333 0333 00000 1 EX_MN_runAddr DS 0 ; address of job to run
00334 0334 00000 1 EX_MN_field DS 0 ; index to field from start of record
00335 0335 00000 1 EX_MN_findx DS 0 ; total index to field
00336 0336 00000 1 EX_RM_saveQ DS 0 ; return address
00337 0337 00000 1 EX_RM_jobPtr DS 0 ; points to job rec in list
00340 0340 00000 1 EX_RM_jobPtr2 DS 0 ; points to job rec behind jobPtr
00341 0341 00000 1 EX_RM_savePtr DS 0 ; tmp store for index taken off list
00342 0342 00000 1 EX_RM_loopCnt DS 0 ; loop counter
00343 0343 00000 1 EX_RM_retval DS 0 ; tmp store for return value
00344 0344 00000 1 EX_RM_field DS 0 ; index to field from start of record
00345 0345 00000 1 EX_RM_findx DS 0 ; total index to field
00346 0346 00000 1 EX_IS_newPrio DS 0 ; INPUT: priority to be inserted
00347 0347 00000 1 EX_IS_newPrioB DS 0 ; INPUT: nominal priority to be inserted
00350 0350 00000 1 EX_IS_newLoc DS 0 ; INPUT: address to be inserted
00351 0351 00000 1 EX_IS_saveQ DS 0 ; return address
00352 0352 00000 1 EX_IS_jobPtr DS 0 ; points to job rec in list
00353 0353 00000 1 EX_IS_jobPtr2 DS 0 ; points to job rec ahead of jobPtr
00354 0354 00000 1 EX_IS_loopCnt DS 0 ; loop counter
INCL dsky_e.asm ; DSKY variables
;==========================================================================
; DSKY (file:dsky_e.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 12/14/2001
;
; PURPOSE:
; Eraseable memory variables and structures for the DSKY. See the EXEC
; source code file for more information.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968.
;==========================================================================
00355 0355 00000 1 FLAGWRD5 DS 0
; GENERAL ERASABLE ASSIGNMENTS
; (COLOSSUS, p. 66)
; interrupt temporary storage pool
; (ITEMP1 through RUPTREG4)
00356 0356 00000 1 ITEMP1 DS 0
WAITEXIT EQU ITEMP1
EXECTEM1 EQU ITEMP1
00357 0357 00000 1 ITEMP2 DS 0
WAITBANK EQU ITEMP2
EXECTEM2 EQU ITEMP2
00360 0360 00000 1 ITEMP3 DS 0
RUPTSTOR EQU ITEMP3
WAITADR EQU ITEMP3
NEWPRIO EQU ITEMP3
00361 0361 00000 1 ITEMP4 DS 0
;LOCCTR EQU ITEMP4 ; moved to EXEC
WAITTEMP EQU ITEMP4
00362 0362 00000 1 ITEMP5 DS 0
NEWLOC EQU ITEMP5
00363 0363 00000 1 ITEMP6 DS 0
NEWLOCP1 EQU ITEMP6 ; DP address
00364 0364 00000 1 NEWJOB DS 0 ; COLOSSUS: must be at loc 68 due to wiring
00365 0365 00000 1 RUPTREG1 DS 0
00366 0366 00000 1 RUPTREG2 DS 0
00367 0367 00000 1 RUPTREG3 DS 0
00370 0370 00000 1 RUPTREG4 DS 0
KEYTEMP1 EQU RUPTREG4
DSRUPTEM EQU RUPTREG4
; FLAGWORD reservations
STATE EQU * ; 12 words
00371 0371 00000 1 DS 0
00372 0372 00000 1 DS 0
00373 0373 00000 1 DS 0
00374 0374 00000 1 DS 0
00375 0375 00000 1 DS 0
00376 0376 00000 1 DS 0
00377 0377 00000 1 DS 0
00400 0400 00000 1 DS 0
00401 0401 00000 1 DS 0
00402 0402 00000 1 DS 0
00403 0403 00000 1 DS 0
00404 0404 00000 1 DS 0
FLAGFILL EQU * ; space for future flags
00405 0405 00000 1 DS 0
00406 0406 00000 1 DS 0
00407 0407 00000 1 DS 0
00410 0410 00000 1 DS 0
; pad load for DAPs
; (COLOSSUS, p. 67)
EMDOT EQU FLAGFILL
; exit for VB3
STATEXIT EQU FLAGFILL+2
; EXEC temporaries which may be used between CCS NEWJOBS.
; (INTB15P through RUPTMXM)
00411 0411 00000 1 INTB15P DS 0 ; reflects 15th bit of indexable addresses
DSEXIT EQU INTB15P ; return for DSPIN
EXITEM EQU INTB15P ; return for scale factor routine select
BLANKRET EQU INTB15P ; return for 2BLANK
00412 0412 00000 1 INTBIT15 DS 0 ; similar to above
WRDRET EQU INTBIT15 ; return for 5BLANK
WDRET EQU INTBIT15 ; return for DSPWD
DECRET EQU INTBIT15 ; return for PUTCOM (dec load)
_2122REG EQU INTBIT15 ; temp for CHARIN
; The registers between ADDRWD and PRIORITY must stay in the following order
; for interpretive trace.
00413 0413 00000 1 ADDRWD DS 0 ; 12 bit interpretive operand subaddress
00414 0414 00000 1 POLISH DS 0 ; holds CADR made from POLISH address
UPDATRET EQU POLISH ; return for UPDATNN, UPDATVB
CHAR EQU POLISH ; temp for CHARIN
ERCNT EQU POLISH ; counter for error light reset
DECOUNT EQU POLISH ; counter for scaling and display (dec)
00415 0415 00000 1 FIXLOC DS 0 ; work area address
00416 0416 00000 1 OVFIND DS 0 ; set non-zero on overflow
VBUF EQU * ; temporary storage used for vectors
00417 0417 00000 1 DS 0
00420 0420 00000 1 DS 0
00421 0421 00000 1 DS 0
00422 0422 00000 1 DS 0
00423 0423 00000 1 DS 0
00424 0424 00000 1 DS 0
SGNON EQU VBUF ; temp for +,- on
NOUNTEM EQU VBUF ; counter for MIXNOUN fetch
DISTEM EQU VBUF ; counter for octal display verbs
DECTEM EQU VBUF ; counter for fetch (dec display verbs)
SGNOFF EQU VBUF+1 ; temp for +,- off
NVTEMP EQU VBUF+1 ; temp for NVSUB
SFTEMP1 EQU VBUF+1 ; storage for SF const hi part(=SFTEMP2-1)
HITEMIN EQU VBUF+1 ; temp for load of hrs, min, sec
; must = LOWTEMIN-1
CODE EQU VBUF+2 ; for DSPIN
SFTEMP2 EQU VBUF+2 ; storage for SF const low part(=SFTEMP1+1)
LOWTEMIN EQU VBUF+2 ; temp for load of hrs, min, sec
; must = HITEMIN+1
; (COLOSSUS, p. 68)
MIXTEMP EQU VBUF+3 ; for MIXNOUN data
SIGNRET EQU VBUF+3 ; return for +,- on
; Also, MIXTEMP+1 = VBUF+4, MIXTEMP+2 = VBUF+5
BUF EQU * ; temporary scalar storage
00425 0425 00000 1 DS 0
00426 0426 00000 1 DS 0
00427 0427 00000 1 DS 0
00430 0430 00000 1 BUF2 DS 0
00431 0431 00000 1 DS 0
INDEXLOC EQU BUF ; contains address of specified index
SWWORD EQU BUF ; address of switch word
SWBIT EQU BUF+1 ; switch bit within switch word
00432 0432 00000 1 MPTEMP DS 0 ; temporary used in multiply and shift
DMPNTEMP EQU MPTEMP ; DMPSUB temporary
00433 0433 00000 1 DOTINC DS 0 ; component increment for DOT subroutine
DVSIGN EQU DOTINC ; determines sign of DDV result
ESCAPE EQU DOTINC ; used in arcsin/arccos
ENTRET EQU DOTINC ; exit from enter
00434 0434 00000 1 DOTRET DS 0 ; return from DOT subroutine
DVNORMCT EQU DOTRET ; dividend normalization count in DDV
ESCAPE2 EQU DOTRET ; alternate arcsin/arccos switch
WDCNT EQU DOTRET ; char counter for DSPWD
INREL EQU DOTRET ; input buffer selector (X,Y,Z REG)
00435 0435 00000 1 MATINC DS 0 ; vector increment in MXV and VXM
MAXDVSW EQU MATINC ; +0 if DP quotient is near one - else -1
POLYCNT EQU MATINC ; polynomial loop counter
DSPMMTEM EQU MATINC ; DSPCOUNT save for DSPMM
MIXBR EQU MATINC ; indicator for mixed or normal noun
00436 0436 00000 1 TEM1 DS 0 ; EXEC temp
POLYRET EQU TEM1
DSREL EQU TEM1 ; rel address for DSPIN
00437 0437 00000 1 TEM2 DS 0 ; EXEC temp
DSMAG EQU TEM2 ; magnitude store for DSPIN
IDADDTEM EQU TEM2 ; mixnoun indirect address store
00440 0440 00000 1 TEM3 DS 0 ; EXEC temp
COUNT EQU TEM3 ; for DSPIN
00441 0441 00000 1 TEM4 DS 0 ; EXEC temp
LSTPTR EQU TEM4 ; list pointer for GRABUSY
RELRET EQU TEM4 ; return for RELDSP
FREERET EQU TEM4 ; return for FREEDSP
DSPWDRET EQU TEM4 ; return for DSPSIGN
SEPSCRET EQU TEM4 ; return for SEPSEC
SEPMNRET EQU TEM4 ; return for SEPMIN
00442 0442 00000 1 TEM5 DS 0 ; EXEC temp
NOUNADD EQU TEM5 ; temp storage for noun address
; (COLOSSUS, p. 69)
00443 0443 00000 1 NNADTEM DS 0 ; temp for noun address table entry
00444 0444 00000 1 NNTYPTEM DS 0 ; temp for noun type table entry
00445 0445 00000 1 IDAD1TEM DS 0 ; temp for indir address table entry (MIXNN)
; must - IDAD2TEM-1, = IDAD3TEM-2
00446 0446 00000 1 IDAD2TEM DS 0 ; temp for indir address table entry (MIXNN)
; must - IDAD2TEM+1, = IDAD3TEM-1
00447 0447 00000 1 IDAD3TEM DS 0 ; temp for indir address table entry (MIXNN)
; must - IDAD1TEM+2, = IDAD2TEM+1
00450 0450 00000 1 RUTMXTEM DS 0 ; temp for SF rout table entry (MIXNN only)
; AX*SR*T storage
DEXDEX EQU TEM2 ; B(1) tmp
DEX1 EQU TEM3 ; B(1) tmp
DEX2 EQU TEM4 ; B(1) tmp
RTNSAVER EQU TEM5 ; B(1) tmp
TERM1TMP EQU BUF2 ; B(2) tmp
; (COLOSSUS, p. 70) Note: the eraseable memory for the EXEC.
; Moved to the EXEC area
; (COLOSSUS, p. 72)
; unswitched for display interface routines
00451 0451 00000 1 RESTREG DS 0 ; B(1) prm for display starts
00452 0452 00000 1 NVWORD DS 0
00453 0453 00000 1 MARXNV DS 0
00454 0454 00000 1 NVSAVE DS 0
; (retain the order of CADRFLSH to FAILREG+2 for downlink purposes)
00455 0455 00000 1 CADRFLSH DS 0 ; B(1) tmp
00456 0456 00000 1 CADRMARK DS 0 ; B(1) tmp
00457 0457 00000 1 TEMPFLSH DS 0 ; B(1) tmp
00460 0460 00000 1 FAILREG DS 0 ; B(3) prm 3 alarm-abort user=S 2CADR
00461 0461 00000 1 DS 0
00462 0462 00000 1 DS 0
; (COLOSSUS, p. 73)
; verb 37 storage
00463 0463 00000 1 MINDEX DS 0 ; B(1) tmp index for major mode
00464 0464 00000 1 MMNUMBER DS 0 ; B(1) tmp major mode requested via V37
; pinball interrupt storage
00465 0465 00000 1 DSPCNT DS 0 ; B(1) prm DSPOUT counter
; pinball executive action
00466 0466 00000 1 DSPCOUNT DS 0 ; display position indicator
00467 0467 00000 1 DECBRNCH DS 0 ; Bits2,1: octal=0, +dec=1, -dec=2
; Bit5=R1 (dec), Bit4=R2 (dec), Bit3=R3 (dec)
00470 0470 00000 1 VERBREG DS 0 ; verb code
00471 0471 00000 1 NOUNREG DS 0 ; noun code
00472 0472 00000 1 XREG DS 0 ; R1 input buffer
00473 0473 00000 1 YREG DS 0 ; R2 input buffer
00474 0474 00000 1 ZREG DS 0 ; R3 input buffer
00475 0475 00000 1 XREGLP DS 0 ; low part of XREG (for ded conv only)
00476 0476 00000 1 YREGLP DS 0 ; low part of YREG (for ded conv only)
HITEMOUT EQU YREGLP ; temp for display of HRS, MIN, SEC
; must equal LOTEMOUT-1
00477 0477 00000 1 ZREGLP DS 0 ; low part of ZREG (for ded conv only)
LOTEMOUT EQU ZREGLP ; temp for display of HRS, MIN, SEC
; must equal HITEMOUT+1
; (COLOSSUS, p. 74)
00500 0500 00000 1 MODREG DS 0 ; mode code
00501 0501 00000 1 DSPLOCK DS 0 ; keyboard/subroutine call interlock
00502 0502 00000 1 REQRET DS 0 ; return register for load
00503 0503 00000 1 LOADSTAT DS 0 ; status indicator for LOADTST
00504 0504 00000 1 CLPASS DS 0 ; pass indicator clear
00505 0505 00000 1 NOUT DS 0 ; activity counter for DSPTAB
00506 0506 00000 1 NOUNCADR DS 0 ; machine CADR for noun
00507 0507 00000 1 MONSAVE DS 0 ; N/V code for monitor (= MONSAVE1 - 1)
00510 0510 00000 1 MONSAVE1 DS 0 ; NOUNCADR for monitor (MATBS) = MONSAVE + 1
00511 0511 00000 1 MONSAVE2 DS 0 ; NVMONOPT options
; The 11 register table for the display panel (COLOSSUS, p.74, p.306)
; comment key = RELADD: RELAYWD BIT11 BITS10-6 BITS5-1
DSPTAB EQU *
00512 0512 00000 1 DS 0 ; 0: 0001 -R3 R3D4( 1) R3D5( 0)
00513 0513 00000 1 DS 0 ; 1: 0010 +R3 R3D2( 3) R3D3( 2)
00514 0514 00000 1 DS 0 ; 2: 0011 --- R2D5( 5) R3D1( 4)
00515 0515 00000 1 DS 0 ; 3: 0100 -R2 R2D3( 7) R2D4( 6)
00516 0516 00000 1 DS 0 ; 4: 0101 +R2 R2D1(11) R2D2(10)
00517 0517 00000 1 DS 0 ; 5: 0110 -R1 R1D4(13) R1D5(12)
00520 0520 00000 1 DS 0 ; 6: 0111 +R1 R1D2(15) R1D3(14)
00521 0521 00000 1 DS 0 ; 7: 1000 --- -------- R1D1(16)
00522 0522 00000 1 DS 0 ; 8: 1001 --- ND1 (21) ND2 (20)
00523 0523 00000 1 DS 0 ; 9: 1010 --- VD1 (23) VD2 (22)
00524 0524 00000 1 DS 0 ; 10:1011 --- MD1 (25) MD1 (24)
00525 0525 00000 1 DS 0 ; 11: C/S lights
00526 0526 00000 1 NVQTEM DS 0 ; NVSUB storage for calling address
; must = NVBNKTEM-1
00527 0527 00000 1 NVBNKTEM DS 0 ; NVSUB storage for calling bank
; must = NVQTEM+1
00530 0530 00000 1 VERBSAVE DS 0 ; needed for recycle
00531 0531 00000 1 CADRSTOR DS 0 ; ENDIDLE storage
00532 0532 00000 1 DSPLIST DS 0 ; waiting reg for DSP syst internal use
00533 0533 00000 1 EXTVRACT DS 0 ; extended verb activity interlock
00534 0534 00000 1 DSPTEM1 DS 0 ; buffer storage area 1 (mostly for time)
00535 0535 00000 1 DS 0
00536 0536 00000 1 DS 0
00537 0537 00000 1 DSPTEM2 DS 0 ; buffer storage area 2 (mostly for deg)
00540 0540 00000 1 DS 0
00541 0541 00000 1 DS 0
DSPTEMX EQU DSPTEM2 ; B(2) S-S display buffer for external verbs
NORMTEM1 EQU DSPTEM1 ; B(3) DSP normal display registers
; display for extended verbs
OPTIONX EQU DSPTEMX ; B(2) extended verb option code N12(VB2)
; temp store for major mode change
00542 0542 00000 1 MMTEMP DS 0
; T4RUPT Erasable
00543 0543 00000 1 DSRUPTSW DS 0 ; (COLOSSUS, p. 78)
00544 0544 00000 1 T4RET DS 0 ; added, not part of COLOSSUS
00545 0545 00000 1 DSPOUTRET DS 0 ; added, not part of COLOSSUS
00546 0546 00000 1 DK_IN_saveQ DS 0 ; return for T4RUPT init
; Replacement for Block II LXCH instruction (not part of COLOSSUS)
00547 0547 00000 1 LXCH_LPRET DS 0 ; LP return address
00550 0550 00000 1 LXCH_A DS 0 ; save A
; vars for KEYPROG
00551 0551 00000 1 KP_MPAC DS 0
; Vars for DPTEST (not part of COLOSSUS)
00552 0552 00000 1 DPTEST_A DS 0
00553 0553 00000 1 DPTEST_Q DS 0
; Vars for REQDATX, REQDATY, REQDATZ (not part of COLOSSUS)
00554 0554 00000 1 REQ_Q DS 0
; Vars for SETNCADR (not part of COLOSSUS)
00555 0555 00000 1 SETNCADR_Q DS 0
; Vars for ALLDC_OC (not part of COLOSSUS)
00556 0556 00000 1 ALLDC_OC_Q DS 0
; Vars for SFRUTMIX (not part of COLOSSUS)
00557 0557 00000 1 SFRUTMIX_L DS 0
; Vars for SFCONUM (not part of COLOSSUS)
00560 0560 00000 1 SFCONUM_L DS 0
; vars for BLANKSUB (not part of COLOSSUS)
00561 0561 00000 1 BLANKSUB_Q DS 0
; Vars for GTSFOUT, GTSFIN (not part of COLOSSUS)
00562 0562 00000 1 GTSF_RET DS 0
; Vars for FIXRANGE (not part of COLOSSUS)
00563 0563 00000 1 FR_RETQ DS 0
; Vars for NVSUB (not part of COLOSSUS)
00564 0564 00000 1 NVSUB_L DS 0
00565 0565 00000 1 NVSUB_A DS 0
; Vars for ENDIDLE (not part of COLOSSUS)
00566 0566 00000 1 ENDIDLE_L DS 0
; Vars for NVSUBUSY (not part of COLOSSUS)
00567 0567 00000 1 NBSUBSY1_L DS 0
; Vars for FLASHON/FLASHOFF (not part of COLOSSUS)
00570 0570 00000 1 FLASHRET DS 0
; vars for PASTEVB (not part of COLOSSUS)
00571 0571 00000 1 PASTE_TMP DS 0
; vars for NEWMODEA (not part of COLOSSUS)
00572 0572 00000 1 NEWMODEA_Q DS 0
; Vars for MATH LIB (not part of COLOSSUS)
00573 0573 00000 1 SHORTMP_A DS 0
00574 0574 00000 1 SHORTMP_OVFL DS 0
00575 0575 00000 1 SHORTMP_OVFH DS 0
00576 0576 00000 1 ADDRWD1 DS 0
00577 0577 00000 1 MATH_Q DS 0
00600 0600 00000 1 PRSHRTMP_Q DS 0
; KEYRUPT Eraseable
00601 0601 00000 1 KEYRET DS 0 ; added, not part of COLOSSUS
00602 0602 00000 1 SAVEQ DS 0 ; temp for return addr
; Bank intercommunication
00603 0603 00000 1 BJBANK DS 0
00604 0604 00000 1 BJRET DS 0
00605 0605 00000 1 PJBANK DS 0
00606 0606 00000 1 PJRET DS 0
00607 0607 00000 1 PJA DS 0
00610 0610 00000 1 BCBANK DS 0
00611 0611 00000 1 BCRET DS 0
00612 0612 00000 1 BCA DS 0
00613 0613 00000 1 MBCBANK DS 0
00614 0614 00000 1 MBCRET DS 0
00615 0615 00000 1 MBCA DS 0
00616 0616 00000 1 DCBANK DS 0
00617 0617 00000 1 DCRET DS 0
; FIXED MEMORY DECLARATIONS
ORG EXTENDER
05777 5777 47777 0 DS %47777 ; needed for EXTEND
;--------------------------------------------------------------------------
; RESTART/INTERRUPT ENTRY POINTS
;--------------------------------------------------------------------------
; Program (re)start
ORG GOPROG
02000 2000 0 1,2126 0 TC goMAIN ; AGC (re)start begins here!
; Interrupt vectors
ORG T3RUPT
02004 2004 5 0,0026 0 TS ARUPT ; TIME3 interrupt vector
02005 2005 3 0,0001 0 XCH Q
02006 2006 5 0,0027 1 TS QRUPT
02007 2007 0 1,2034 1 TC goT3
ORG ERRUPT
02010 2010 5 0,0026 0 TS ARUPT
02011 2011 3 0,0001 0 XCH Q
02012 2012 5 0,0027 1 TS QRUPT
02013 2013 0 1,2036 0 TC goER
ORG DSRUPT ; T4RUPT for DSKY display
02014 2014 5 0,0026 0 TS ARUPT
02015 2015 3 0,0001 0 XCH Q
02016 2016 5 0,0027 1 TS QRUPT
02017 2017 0 1,2037 1 TC goDS
ORG KEYRUPT ; DSKY keyboard interrupt vector
02020 2020 5 0,0026 0 TS ARUPT
02021 2021 3 0,0001 0 XCH Q
02022 2022 5 0,0027 1 TS QRUPT
02023 2023 0 1,2041 0 TC goKEY
ORG UPRUPT
02024 2024 5 0,0026 0 TS ARUPT
02025 2025 3 0,0001 0 XCH Q
02026 2026 5 0,0027 1 TS QRUPT
02027 2027 0 1,2043 1 TC goUP
; restore Q and A registers and resume
endRUPT EQU *
02030 2030 3 0,0027 1 XCH QRUPT ; restore Q
02031 2031 5 0,0001 0 TS Q
02032 2032 3 0,0026 0 XCH ARUPT ; restore A
02033 2033 2 0,0000 1 RESUME ; resume normal program execution
;--------------------------------------------------------------------------
; RUPT (INTERRUPT) SERVICE ROUTINES
;
; Upon entry, registers will contain these values:
; - ZRUPT: Prior contents of program counter (Z register).
; - BRUPT: Prior contents of B register.
; - ARUPT: Prior contents of accumulator (A register).
; - QRUPT: Prior contents of Q register.
;
; When the service routine is finished, jump to endRUPT to restore the A
; and Q registers. Call RESUME to restore Z and B, which causes a return
; to normal (non-interrupt) execution. Interrupts are disabled upon entry
; to the service routine; they are reenabled following RESUME.
;--------------------------------------------------------------------------
goT3 EQU *
02034 2034 0 1,2347 0 TCR WL_TIME3task ; handle T3RUPT for WAITLIST
02035 2035 0 1,2030 0 TC endRUPT
goER EQU *
02036 2036 0 1,2030 0 TC endRUPT
goDS EQU *
02037 2037 0 2,4047 0 TCR T4PROG ; handle T4RUPT for DSKY display
02040 2040 0 1,2030 0 TC endRUPT
goKEY EQU *
02041 2041 0 2,4132 0 TCR KEYPROG ; handle keyrupt for keyboard entry
02042 2042 0 1,2030 0 TC endRUPT
goUP EQU *
02043 2043 0 1,2030 0 TC endRUPT
;--------------------------------------------------------------------------
; FIXED MEMORY CONSTANTS
;--------------------------------------------------------------------------
02044 2044 00200 0 ofbit DS %200 ; OUT1, bit 8 initiates standby
02045 2045 77777 0 NEG0 DS -0
02046 2046 77776 1 NEG1 DS -1
02047 2047 77775 1 NEG2 DS -2
02050 2050 00000 1 ZERO DS 0
02051 2051 00001 0 ONE DS 1
02052 2052 00002 0 TWO DS 2
02053 2053 00003 1 THREE DS 3
02054 2054 00004 0 FOUR DS 4
02055 2055 00005 1 FIVE DS 5
02056 2056 00006 1 SIX DS 6
02057 2057 00007 0 SEVEN DS 7
02060 2060 00012 1 TEN DS 10
02061 2061 00013 0 ELEVEN DS 11
; must be in reverse order. Pinball treats this as a table
; and indexes thru it.
02062 2062 40000 0 BIT15 DS %40000
02063 2063 20000 0 BIT14 DS %20000
02064 2064 10000 0 BIT13 DS %10000
02065 2065 04000 0 BIT12 DS %04000
02066 2066 02000 0 BIT11 DS %02000
02067 2067 01000 0 BIT10 DS %01000
02070 2070 00400 0 BIT9 DS %00400
02071 2071 00200 0 BIT8 DS %00200
02072 2072 00100 0 BIT7 DS %00100
02073 2073 00040 0 BIT6 DS %00040
02074 2074 00020 0 BIT5 DS %00020
02075 2075 00010 0 BIT4 DS %00010
02076 2076 00004 0 BIT3 DS %00004
02077 2077 00002 0 BIT2 DS %00002
02100 2100 00001 0 BIT1 DS %00001
02101 2101 00177 0 LOW7 DS %00177
02102 2102 06000 1 bankAddr DS %6000 ; fixed-switchable addr range starts here
02103 2103 01777 1 lowAddr DS %1777 ; mask for 10-bit address
02104 2104 01400 1 OCT1400 DS %1400
02105 2105 00013 0 NOUTCON DS 11
02106 2106 37777 1 POSMAX DS %37777
;-------------------------------------------------------------------------
; CLRMEM - INITIALIZE ERASEABLE MEMORY
;
; Uses QRUPT and ARUPT as scratchpad. This is OK, because interrupts
; are disabled anyway. All eraseable memory above the AGC clock (TIME1,
; TIME2) is cleared. The AGC clock is not cleared because this might
; be a restart or a startup from standby mode.
;-------------------------------------------------------------------------
CLRMEM EQU *
02107 2107 3 0,0001 0 XCH Q
02110 2110 5 0,0027 1 TS QRUPT ; save return address
02111 2111 3 1,2123 0 XCH CLRMEM_WC ; init count of words to clear
02112 2112 5 0,0026 0 TS ARUPT
CLRMEM_CHK EQU *
02113 2113 1 0,0026 1 CCS ARUPT
02114 2114 0 1,2116 0 TC CLRMEM_WORD
02115 2115 0 0,0027 1 TC QRUPT ; return
CLRMEM_WORD EQU *
02116 2116 5 0,0026 0 TS ARUPT
02117 2117 3 1,2050 0 CAF CLRMEM_VAL
02120 2120 2 0,0026 1 INDEX ARUPT
02121 2121 5 0,0037 0 TS CLRMEM_BADDR ; clear a word
02122 2122 0 1,2113 0 TC CLRMEM_CHK ; done?
CLRMEM_VAL EQU ZERO ; set memory to this value
CLRMEM_BADDR EQU TIME3 ; base address to clear
02123 2123 01741 1 CLRMEM_WC DS %1777-TIME3+1 ; clear everything >= TIME3
;-------------------------------------------------------------------------
; FRESH START
;
; AGC starts executing here, following power-up, or restart.
;-------------------------------------------------------------------------
02124 2124 10000 0 V37BANK DS %10000 ; BANK (4) containg PREMM1, FCADRMM1
02125 2125 37600 0 SAMASK DS %37600 ; mask to zero lower 7 bits
goMAIN EQU *
SLAP1 EQU goMAIN ; entry for V36 (fresh start request)
02126 2126 2 0,0000 0 INHINT
; First, check for standby operation. Loosely based on the standby
; algorithm in R-393. Probably should flash the 'computer activity'
; light as well.
02127 2127 3 1,2071 0 CAF BIT8 ; add 2 to 7th power to AGC clock
02130 2130 6 0,0036 1 AD TIME1
02131 2131 5 0,0036 1 TS TIME1
02132 2132 3 1,2050 0 CAF ZERO ; skipped on ovf and C(A) set to 1
02133 2133 6 0,0035 1 AD TIME2 ; bump TIME2 with overflow, if any
02134 2134 5 0,0035 1 TS TIME2
02135 2135 3 1,2125 0 CAF SAMASK ; zero the LSBs of TIME1
02136 2136 7 0,0036 0 MASK TIME1
02137 2137 5 0,0036 1 TS TIME1
02140 2140 3 1,2044 0 XCH ofbit ; enable standby operation
02141 2141 5 0,0011 1 TS OUT1
02142 2142 0 1,2107 0 TC CLRMEM ; clear everything but the AGC clock
; set fresh start major mode to P00 (AGC CMC idle)
02143 2143 3 1,2124 1 CAF V37BANK
02144 2144 5 0,0015 0 TS BANK ; bank for major mode tables
02145 2145 3 4,6046 0 CAF NOV37MM ; assumes BANK is set (above)
02146 2146 5 0,0463 0 TS MINDEX ; index to P00
goMMchange EQU *
02147 2147 2 0,0000 0 INHINT ; inhibit interrupts
; Initialize WAITLIST and EXEC eraseable memory. Initialize DSKY eraseable
; memory (but don't initialize BANK or MINDEX; they are used to start the
; main job for this major mode.
02150 2150 0 1,3252 1 TCR EX_initEX ; initialize EXEC
02151 2151 0 1,2204 0 TCR WL_initWL ; initialize WAITLIST
02152 2152 0 2,4007 1 TCR DK_initDK ; initialize DSKY
; Start the major mode job. This is modified from COLOSSUS because block I
; doesn't have E-bank and my SPVAC interface is a little different from the
; original. The references to PREMM1 and FCADRMM1 assume that the BANK is
; set to the one containing those tables.
V37XEQ EQU *
02153 2153 2 0,0000 0 INHINT
02154 2154 2 0,0463 1 INDEX MINDEX
02155 2155 3 4,6037 0 CAF PREMM1
02156 2156 5 0,0542 1 TS MMTEMP
02157 2157 7 2,4666 1 MASK HI5 ; obtain priority bits 15-11
02160 2160 0 2,4640 1 TC RIGHT5
02161 2161 0 2,4640 1 TC RIGHT5 ; shift right to bits 5-1
02162 2162 5 0,0360 1 TS NEWPRIO ; store PRIO for SPVAC
02163 2163 2 0,0463 1 INDEX MINDEX
02164 2164 3 4,6030 1 CAF FCADRMM1
02165 2165 0 1,3075 0 TC SPVAC ; job CADR in C(A), job prio in NEWPRIO
V37XEQC EQU *
02166 2166 3 1,2050 0 CAF ZERO ; was CA MMTEMP in Block II
02167 2167 6 0,0542 1 AD MMTEMP ; upon return from FINDVAC, place the
02170 2170 7 1,2101 1 MASK LOW7 ; new MM in MODREG (the low 7 bits of
02171 2171 0 2,5036 1 TC NEWMODEA ; PHSERDT1)
02172 2172 0 2,5003 1 TC RELDSP ; release display
; Start the EXEC.
02173 2173 0 1,2656 0 TC EX_exec ; never returns
;-------------------------------------------------------------------------
; AGC LIBRARIES
;
; System services in fixed-fixed memory.
;-------------------------------------------------------------------------
INCL waitlist_f.asm ; WAITLIST, incl. T3RUPT handler
;==========================================================================
; WAITLIST (file:waitlist_f.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 11/15/2001
;
; PURPOSE:
; Constants and source code for WAITLIST.
;
; Non-preemptive interrupt timer routines, originally implemented by J. H.
; Laning, Jr. for AGC3 and later adapted for AGC4. Briefly discussed in
; R-393, which gives some of the software interfaces into the WAITLIST.
; This is my own recreation, and the internals may differ from the original.
;
; A task is scheduled for execution by calling 'WAITLIST' and
; furnishing the time-out time and starting address.
; L XCH TASK_TIMEOUT ; in 10 mSec ticks
; L+1 TC WAITLIST
; L+2 DS TASK_ADDRESS ; 14-bit address
; L+3 ... execution resumes here
;
; TASK_TIMEOUT = a positive integer from 1 - MAXDELAY that specifies the delay
; in 10 mSec ticks. Maximum delay is 12000 (2 minutes).
; TASK_ADDRESS = starting address of the task (14-bit address)
;
; WAITLIST can be called from from an interrupt, or from normal execution.
; It is the only public function of the waitlist.
;
; **** WARNING **** If WAITLIST is not called from an interrupt, be sure to
; inhibit interrupts before calling it to protect the integrity of the list.
;
; Tasks execute when TIME3 overflows and generates an interrupt (T3RUPT).
; The task executes during the interrupt. Tasks terminate themselves by
; jumping to TASKOVER.
; TC TASKOVER
;
; Because tasks execute during an interrupt, they should be fairly short.
; Tasks can initiate longer operations by scheduling a 'job' using EXEC.
;==========================================================================
02174 2174 00002 0 WL_taskRecSize DS TRECSZ ; size of a task record (words)
02175 2175 00057 0 WL_tskLstStart DS WL_taskList ; starting address for task list
02176 2176 00073 0 WL_tskLstEnd DS MAXTASK-1@TRECSZ+WL_taskList
02177 2177 00006 1 WL_numTasks DS MAXTASK-1 ; init loop counter for all tasks
02200 2200 00005 1 WL_numTasks1 DS MAXTASK-2 ; init loop counter for all tasks - 1
02201 2201 37777 1 WL_maxVal DS MAXVAL
02202 2202 27340 0 WL_maxDelay DS MAXDELAY
02203 2203 10440 0 WL_maxTimeOut DS MAXTIMEOUT
;--------------------------------------------------------------------------
; WL_initWL - INITIALIZE WAITLIST
;
; Subroutine initializes the eraseable memory segment for WAITLIST.
; Necessary in case the AGC is restarted.
;
; Note: the valid range for TIME3 is 10440 to 37777 (which spans
; 12000 (base 10) ticks, which corresponds to 120 seconds)
; positive overflow occurs at 40000, which triggers T3RUPT.
; TIME3 values of 0 to 10437 are illegal; these values occur
; after timeout when the counter overflows. TIME3 values in this
; range indicate that timeout has occurred and that T3RUPT is
; presently occuring, or is pending.
;--------------------------------------------------------------------------
WL_initWL EQU *
02204 2204 3 0,0001 0 XCH Q
02205 2205 5 0,0075 0 TS WL_IN_saveQ ; save return address
02206 2206 3 1,2203 1 CAF WL_maxTimeOut
02207 2207 5 0,0037 0 TS TIME3
; Iterate through task list and initialize all records to NIL
02210 2210 3 1,2175 0 CAF WL_tskLstStart ; init pointer to start of list
02211 2211 5 0,0076 0 TS WL_IN_taskPtr
02212 2212 3 1,2177 1 CAF WL_numTasks ; loop for number of tasks
WL_IN_loop EQU *
02213 2213 5 0,0077 1 TS WL_IN_loopCnt
02214 2214 3 1,2202 0 CAF WL_maxDelay
02215 2215 2 0,0076 1 INDEX WL_IN_taskPtr
02216 2216 5 0,0000 1 TS TSKTIME
02217 2217 3 1,2050 0 CAF ZERO
02220 2220 2 0,0076 1 INDEX WL_IN_taskPtr
02221 2221 5 0,0001 0 TS TSKADDR
02222 2222 3 0,0076 0 XCH WL_IN_taskPtr ; bump task pointer back 1 record
02223 2223 6 1,2174 1 AD WL_taskRecSize
02224 2224 5 0,0076 0 TS WL_IN_taskPtr
02225 2225 1 0,0077 0 CCS WL_IN_loopCnt ; done checking task list?
02226 2226 0 1,2213 0 TC WL_IN_loop ; not yet
02227 2227 3 0,0075 0 XCH WL_IN_saveQ
02230 2230 5 0,0001 0 TS Q ; restore return address
02231 2231 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; WAITLIST - ADD TASK TO WAITLIST
;
; Subroutine adds a task to WL_taskList. The following conditions are
; true upon entry.
; 1) The task list is sorted so the next task scheduled for execution
; is at the front of the list.
; 2) If no tasks are currently scheduled, the task record at the front
; of the list will be NIL.
; 3) Unused (NIL) records in the task list have their time fields set to
; MAXDELAY and their address fields set to zero.
; 4) If any tasks are on the waitlist, the time field in that task's
; record will contain the remaining time AFTER the next timeout. The
; task scheduled for execution at timeout will have a time remaining
; of zero.
; Any other tasks that will execute at that time will also have a time of
; zero. Tasks that will execute some time in the future AFTER timeout
; will have nonzero times; these times indicate the additional time
; needed after the next timeout.
;
; This is the only 'public' function. It can be called from a job or from
; a task or other interrupt. It disables interrupts to maintain the integrity
; of the taskList.
;--------------------------------------------------------------------------
WAITLIST EQU *
02232 2232 5 0,0102 1 TS WL_AT_newTime ; save task time
02233 2233 3 0,0001 0 XCH Q
02234 2234 5 0,0100 0 TS WL_AT_saveQ ; save return address-1
02235 2235 3 1,2050 0 CAF ZERO
02236 2236 2 1,2176 1 INDEX WL_tskLstEnd
02237 2237 6 0,0001 0 AD TSKADDR
02240 2240 1 0,0000 0 CCS A ; list full?
02241 2241 0 1,2343 1 TC WL_AT_done ; >0 yes, so give up
; Calculate time remaining until currently scheduled time-out.
02242 2242 3 1,2050 0 CAF ZERO
02243 2243 6 0,0037 0 AD TIME3 ; get time
02244 2244 5 0,0103 0 TS WL_AT_timeLeft ; save it, temporarily
; Did TIME3 recently overflow? If so, we are inside T3RUPT, or T3RUPT
; is pending. TIME3 values from 0 - 10437 are not legal, so they
; indicate that an overflow has occurred.
02245 2245 4 1,2203 0 CS WL_maxTimeOut
02246 2246 6 0,0103 0 AD WL_AT_timeLeft
02247 2247 1 0,0000 0 CCS A ; TIME3 recently overflowed?
02250 2250 0 1,2264 0 TC WL_AT_noOvf ; >0 no
02251 2251 0 1,2264 0 TC WL_AT_noOvf ; +0 no
02252 2252 0 1,2254 0 TC *+2 ; <0 yes
02253 2253 0 1,2264 0 TC WL_AT_noOvf ; -0 no
; TIME3 already timed-out, so we must be inside T3RUPT, or T3RUPT
; is pending. Just add the new task to the list. No time correction
; is necessary; the epoch is NOW.
02254 2254 3 1,2050 0 CAF ZERO
02255 2255 6 0,0102 1 AD WL_AT_newTime
02256 2256 5 0,0122 0 TS WL_IS_newTime ; set time field in new task record
02257 2257 2 0,0100 1 INDEX WL_AT_saveQ ; indirectly address WL_AT_saveQ
02260 2260 3 0,0000 1 CAF 0
02261 2261 5 0,0123 1 TS WL_IS_newAddr ; set addr field in new task record
02262 2262 0 1,2473 0 TCR WL_insert ; add new task to task list
02263 2263 0 1,2343 1 TC WL_AT_done
; TIME3 has not timed out yet. Calculate time remaining until timeout
; (timeout occurs when TIME3 overflows)
WL_AT_noOvf EQU *
02264 2264 4 0,0103 1 CS WL_AT_timeLeft ; get -TIME3
02265 2265 6 1,2201 0 AD WL_maxVal
02266 2266 6 1,2051 1 AD ONE
02267 2267 5 0,0103 0 TS WL_AT_timeLeft ; time left = -TIME3 + %37777 + 1
; Compare that time against the timeout for the new task.
WL_AT_chkOrder EQU *
02270 2270 4 0,0102 0 CS WL_AT_newTime
02271 2271 6 0,0103 0 AD WL_AT_timeLeft
02272 2272 1 0,0000 0 CCS A ; compare new task to current
02273 2273 0 1,2306 0 TC WL_AT_mkFirst ; >0 (make new task 1st)
02274 2274 0 1,2276 0 TC *+2 ; +0
02275 2275 0 1,2276 0 TC *+1 ; <0
; The new task does not need to run before the current time-out, so
; just add it to the list. Subtract the remaining time interval from the
; new task's time, so the new task will have the same epoch as the other
; tasks on the list.
02276 2276 4 0,0103 1 CS WL_AT_timeLeft
02277 2277 6 0,0102 1 AD WL_AT_newTime ; make epoch correction
02300 2300 5 0,0122 0 TS WL_IS_newTime ; set time field in new task record
02301 2301 2 0,0100 1 INDEX WL_AT_saveQ ; indirectly address WL_AT_saveQ
02302 2302 3 0,0000 1 CAF 0
02303 2303 5 0,0123 1 TS WL_IS_newAddr ; set addr field in new task record
02304 2304 0 1,2473 0 TCR WL_insert ; add new task to task list
02305 2305 0 1,2343 1 TC WL_AT_done
; The new task needs to run prior to the current time-out. Add the time
; remaining to all tasks currently on the list to change their epoch
; to NOW.
WL_AT_mkFirst EQU *
02306 2306 3 1,2175 0 CAF WL_tskLstStart ; set pointer to front of list
02307 2307 5 0,0101 1 TS WL_AT_taskPtr
02310 2310 3 1,2177 1 CAF WL_numTasks ; loop for number of tasks
WL_AT_loop EQU *
02311 2311 5 0,0104 1 TS WL_AT_loopCnt
02312 2312 3 1,2050 0 CAF ZERO
02313 2313 2 0,0101 0 INDEX WL_AT_taskPtr
02314 2314 6 0,0001 0 AD TSKADDR
02315 2315 1 0,0000 0 CCS A ; end of list?
02316 2316 0 1,2320 1 TC *+2 ; >0 no, so keep going
02317 2317 0 1,2333 0 TC WL_AT_schTsk ; +0 yes, add the new task
02320 2320 3 1,2050 0 CAF ZERO
02321 2321 2 0,0101 0 INDEX WL_AT_taskPtr
02322 2322 6 0,0000 1 AD TSKTIME
02323 2323 6 0,0103 0 AD WL_AT_timeLeft ; time-out = time-out + timeLeft
02324 2324 2 0,0101 0 INDEX WL_AT_taskPtr
02325 2325 5 0,0000 1 TS TSKTIME
02326 2326 3 0,0101 1 XCH WL_AT_taskPtr ; bump task pointer back 1 record
02327 2327 6 1,2174 1 AD WL_taskRecSize
02330 2330 5 0,0101 1 TS WL_AT_taskPtr
02331 2331 1 0,0104 0 CCS WL_AT_loopCnt ; done fixing the times?
02332 2332 0 1,2311 0 TC WL_AT_loop ; not yet
; Now that the tasks all share the same epoch, add the new task to the
; list and call the scheduler to schedule the next task.
WL_AT_schTsk EQU *
02333 2333 3 1,2050 0 CAF ZERO
02334 2334 6 0,0102 1 AD WL_AT_newTime
02335 2335 5 0,0122 0 TS WL_IS_newTime ; set time field in new task record
02336 2336 2 0,0100 1 INDEX WL_AT_saveQ ; indirectly address WL_AT_saveQ
02337 2337 3 0,0000 1 CAF 0
02340 2340 5 0,0123 1 TS WL_IS_newAddr ; set addr field in new task record
02341 2341 0 1,2473 0 TCR WL_insert ; add new task to task list
02342 2342 0 1,2417 1 TCR WL_schedTask ; schedule the next task
WL_AT_done EQU *
02343 2343 3 0,0100 0 XCH WL_AT_saveQ
02344 2344 6 1,2051 1 AD ONE
02345 2345 5 0,0001 0 TS Q ; restore return address
02346 2346 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; WL_TIME3task - T3 TIMEOUT
;
; Perform WAITLIST activities when TIME3 times-out. Called by the
; T3 interrupt handler.
;--------------------------------------------------------------------------
WL_TIME3task EQU *
02347 2347 3 0,0001 0 XCH Q
02350 2350 5 0,0105 0 TS WL_T3_saveQ ; save return address
02351 2351 3 0,0015 0 XCH BANK
02352 2352 5 0,0106 0 TS WL_T3_oldBank ; save current bank
; Execute all timed-out tasks.
02353 2353 0 1,2362 1 TCR WL_runTasks
; Set up TIME3 to overflow at the next task's time-out.
; Adjust the time-outs for all remaining tasks.
02354 2354 0 1,2417 1 TCR WL_schedTask
02355 2355 3 0,0106 0 XCH WL_T3_oldBank
02356 2356 5 0,0015 0 TS BANK ; restore previous bank
02357 2357 3 0,0105 0 XCH WL_T3_saveQ
02360 2360 5 0,0001 0 TS Q ; restore return address
02361 2361 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; WL_runTasks - RUN TIMED-OUT TASK(S)
;
; Runs all tasks timed-out on WL_taskList. Tasks are removed
; from the list before they are run.
;--------------------------------------------------------------------------
WL_runTasks EQU *
02362 2362 3 0,0001 0 XCH Q
02363 2363 5 0,0113 1 TS WL_RT_saveQ ; save return address
; loop, checking the task on the front of the list. If it is
; timed out, remove it from the list and run it.
WL_RT_loop EQU *
02364 2364 3 1,2050 0 CAF ZERO
02365 2365 2 1,2175 1 INDEX WL_tskLstStart
02366 2366 6 0,0000 1 AD TSKTIME
02367 2367 1 0,0000 0 CCS A ; task timed out?
02370 2370 0 1,2414 1 TC WL_RT_done ; >0 no, so we are done
02371 2371 0 1,2373 1 TC *+2 ; +0
02372 2372 0 1,2373 1 TC *+1 ; <0
; This task has timed out, so run it.
02373 2373 0 1,2565 0 TCR WL_remove ; remove task from list
02374 2374 5 0,0114 0 TS WL_RT_runAddr ; save 14-bit address of task to run
; The task address is always 14-bit, so check whether the address falls
; within erasable or fixed-fixed memory. If so, use it as-is; otherwise,
; set the bank register and change the address to 12-bit.
02375 2375 4 0,0000 0 COM ; -(14bitAddr)+%6000
02376 2376 6 1,2102 0 AD bankAddr
02377 2377 1 0,0000 0 CCS A ; task is bank addressed?
02400 2400 0 1,2411 1 TC WL_RT_runIt ; >0 no, just run it, as is
02401 2401 0 1,2403 1 TC *+2 ; +0 yes
02402 2402 0 1,2403 1 TC *+1 ; <0 yes
02403 2403 3 1,2050 0 CAF ZERO
02404 2404 6 0,0114 0 AD WL_RT_runAddr
02405 2405 5 0,0015 0 TS BANK ; set the bank
02406 2406 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
02407 2407 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
02410 2410 5 0,0114 0 TS WL_RT_runAddr
WL_RT_runIt EQU *
02411 2411 2 0,0114 1 INDEX WL_RT_runAddr ; apply indirect address to next instr.
02412 2412 0 0,0000 1 TC 0 ; run the task
TASKOVER EQU * ; task returns here
02413 2413 0 1,2364 1 TC WL_RT_loop ; check next task on list
WL_RT_done EQU *
02414 2414 3 0,0113 1 XCH WL_RT_saveQ
02415 2415 5 0,0001 0 TS Q ; restore return address
02416 2416 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; WL_schedTask - SCHEDULE NEXT TASK
;
; Schedule task on the front of list for the next time-out. Adjust the
; time-out for all other tasks on the list, so they contain the remaining
; time after the next timeout.
;--------------------------------------------------------------------------
WL_schedTask EQU *
02417 2417 3 0,0001 0 XCH Q
02420 2420 5 0,0107 1 TS WL_ST_saveQ ; save return address
02421 2421 3 1,2050 0 CAF ZERO
02422 2422 2 1,2175 1 INDEX WL_tskLstStart
02423 2423 6 0,0001 0 AD TSKADDR
02424 2424 1 0,0000 0 CCS A ; task scheduled?
02425 2425 0 1,2427 1 TC *+2 ; >0 yes
02426 2426 0 1,2466 1 TC WL_ST_noTask ; +0 no, so we are done
02427 2427 3 1,2050 0 CAF ZERO
02430 2430 2 1,2175 1 INDEX WL_tskLstStart
02431 2431 6 0,0000 1 AD TSKTIME
02432 2432 5 0,0111 0 TS WL_ST_newTime ; save the new task's time-out
; Iterate through all tasks on the list. Subtract the time-out time
; from each task. (The 1st task on the list will now have a time-out
; of zero)
02433 2433 3 1,2175 0 CAF WL_tskLstStart ; set pointer to front of list
02434 2434 5 0,0110 1 TS WL_ST_taskPtr
02435 2435 3 1,2177 1 CAF WL_numTasks ; loop for number of tasks
WL_ST_loop EQU *
02436 2436 5 0,0112 0 TS WL_ST_loopCnt
02437 2437 3 1,2050 0 CAF ZERO
02440 2440 2 0,0110 0 INDEX WL_ST_taskPtr
02441 2441 6 0,0001 0 AD TSKADDR
02442 2442 1 0,0000 0 CCS A ; end of list?
02443 2443 0 1,2445 0 TC *+2 ; >0 no, so keep going
02444 2444 0 1,2461 0 TC WL_ST_setT3 ; +0 yes, set TIME3
02445 2445 3 1,2050 0 CAF ZERO
02446 2446 2 0,0110 0 INDEX WL_ST_taskPtr
02447 2447 6 0,0000 1 AD TSKTIME
02450 2450 2 0,0000 1 EXTEND
02451 2451 6 0,0111 0 SU WL_ST_newTime ; time-out = time-out - newtime
02452 2452 2 0,0110 0 INDEX WL_ST_taskPtr
02453 2453 5 0,0000 1 TS TSKTIME
02454 2454 3 0,0110 1 XCH WL_ST_taskPtr ; bump task pointer back 1 record
02455 2455 6 1,2174 1 AD WL_taskRecSize
02456 2456 5 0,0110 1 TS WL_ST_taskPtr
02457 2457 1 0,0112 1 CCS WL_ST_loopCnt ; done fixing the times?
02460 2460 0 1,2436 1 TC WL_ST_loop ; not yet
; Set TIME3 to overflow at the time-out of the task on the front
; of the list: TIME3 = %37777 - WL_ST_newTime + 1
WL_ST_setT3 EQU *
02461 2461 4 0,0111 1 CS WL_ST_newTime
02462 2462 6 1,2201 0 AD WL_maxVal
02463 2463 6 1,2051 1 AD ONE
02464 2464 5 0,0037 0 TS TIME3 ; overflow at new time-out time
02465 2465 0 1,2470 0 TC WL_ST_done
WL_ST_noTask EQU *
02466 2466 3 1,2203 1 CAF WL_maxTimeOut
02467 2467 5 0,0037 0 TS TIME3 ; nothing scheduled, reset the clock
WL_ST_done EQU *
02470 2470 3 0,0107 1 XCH WL_ST_saveQ
02471 2471 5 0,0001 0 TS Q ; restore return address
02472 2472 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; WL_insert - INSERT TASK INTO SORTED LIST
;
; Insert a task record into the sorted list. Use 'WL_IS_newTime' and
; 'WL_IS_newAddr' to set the fields of record to be inserted.
; Performs an insertion sort, with the records sorted by time.
; Lowest times are at the front of the list. If several records
; have the same time, the records inserted first will appear first
; in the list. NIL records have a time of NOTASK and a address
; of positive zero.
;--------------------------------------------------------------------------
WL_insert EQU *
02473 2473 3 0,0001 0 XCH Q
02474 2474 5 0,0124 0 TS WL_IS_saveQ ; save return address
02475 2475 3 1,2176 0 CAF WL_tskLstEnd ; set pointer to back of list
02476 2476 5 0,0125 1 TS WL_IS_taskPtr
02477 2477 2 0,0000 1 EXTEND
02500 2500 6 1,2174 1 SU WL_taskRecSize ; set pointer to rec in front of it
02501 2501 5 0,0126 1 TS WL_IS_taskPtr2
02502 2502 3 1,2050 0 CAF ZERO
02503 2503 2 0,0125 0 INDEX WL_IS_taskPtr
02504 2504 6 0,0001 0 AD TSKADDR
02505 2505 1 0,0000 0 CCS A ; list full?
02506 2506 0 1,2562 1 TC WL_IS_done ; >0 yes
; Work from the back of the list to the front, pushing each record
; to the back until the insertion point is found.
02507 2507 3 1,2200 1 CAF WL_numTasks1 ; loop for number of tasks minus 1
WL_IS_loop EQU *
02510 2510 5 0,0127 0 TS WL_IS_loopCnt
02511 2511 3 1,2050 0 CAF ZERO
02512 2512 2 0,0126 0 INDEX WL_IS_taskPtr2
02513 2513 6 0,0001 0 AD TSKADDR
02514 2514 1 0,0000 0 CCS A ; previous record is NIL?
02515 2515 0 1,2517 0 TC *+2 ; no, so check it
02516 2516 0 1,2541 0 TC WL_IS_bumpPtr ; yes, so skip to next record
; Is this the insertion point?
02517 2517 4 0,0122 1 CS WL_IS_newTime
02520 2520 2 0,0126 0 INDEX WL_IS_taskPtr2
02521 2521 6 0,0000 1 AD TSKTIME
02522 2522 1 0,0000 0 CCS A ; found insertion point?
02523 2523 0 1,2527 0 TC *+4 ; >0 no, keep checking
02524 2524 0 1,2552 1 TC WL_IS_insRec ; +0 yes
02525 2525 0 1,2552 1 TC WL_IS_insRec ; <0 yes
02526 2526 0 1,2552 1 TC WL_IS_insRec ; -0 yes
; No, bump the record toward the back of the list.
02527 2527 3 1,2050 0 CAF ZERO
02530 2530 2 0,0126 0 INDEX WL_IS_taskPtr2
02531 2531 6 0,0000 1 AD TSKTIME
02532 2532 2 0,0125 0 INDEX WL_IS_taskPtr
02533 2533 5 0,0000 1 TS TSKTIME ; copy time field
02534 2534 3 1,2050 0 CAF ZERO
02535 2535 2 0,0126 0 INDEX WL_IS_taskPtr2
02536 2536 6 0,0001 0 AD TSKADDR
02537 2537 2 0,0125 0 INDEX WL_IS_taskPtr
02540 2540 5 0,0001 0 TS TSKADDR ; copy address field
WL_IS_bumpPtr EQU *
02541 2541 3 0,0125 1 XCH WL_IS_taskPtr ; bump task pointer forward 1 record
02542 2542 2 0,0000 1 EXTEND
02543 2543 6 1,2174 1 SU WL_taskRecSize
02544 2544 5 0,0125 1 TS WL_IS_taskPtr
02545 2545 2 0,0000 1 EXTEND
02546 2546 6 1,2174 1 SU WL_taskRecSize ; set pointer to record in front of it
02547 2547 5 0,0126 1 TS WL_IS_taskPtr2
02550 2550 1 0,0127 1 CCS WL_IS_loopCnt ; done bumping tasks backward?
02551 2551 0 1,2510 1 TC WL_IS_loop ; not yet
; Insert new record.
WL_IS_insRec EQU *
02552 2552 3 1,2050 0 CAF ZERO
02553 2553 6 0,0122 0 AD WL_IS_newTime
02554 2554 2 0,0125 0 INDEX WL_IS_taskPtr
02555 2555 5 0,0000 1 TS TSKTIME ; set time field
02556 2556 3 1,2050 0 CAF ZERO
02557 2557 6 0,0123 1 AD WL_IS_newAddr
02560 2560 2 0,0125 0 INDEX WL_IS_taskPtr
02561 2561 5 0,0001 0 TS TSKADDR ; set address field
WL_IS_done EQU *
02562 2562 3 0,0124 0 XCH WL_IS_saveQ
02563 2563 5 0,0001 0 TS Q ; restore return address
02564 2564 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; WL_remove - REMOVE TASK FROM FRONT OF LIST
;
; Returns the address of the task in register A. If the list is
; empty, it returns zero in A. If a task is removed from the list,
; the remaining tasks are moved up to the front.
;--------------------------------------------------------------------------
WL_remove EQU *
02565 2565 3 0,0001 0 XCH Q
02566 2566 5 0,0115 1 TS WL_RM_saveQ ; save return address
02567 2567 3 1,2175 0 CAF WL_tskLstStart ; set pointer to front of list
02570 2570 5 0,0116 1 TS WL_RM_taskPtr
02571 2571 6 1,2174 1 AD WL_taskRecSize ; set pointer to next rec behind it
02572 2572 5 0,0117 0 TS WL_RM_taskPtr2
; Save the address of record at the front of the list.
02573 2573 3 1,2050 0 CAF ZERO
02574 2574 2 0,0116 0 INDEX WL_RM_taskPtr
02575 2575 6 0,0001 0 AD TSKADDR
02576 2576 5 0,0121 0 TS WL_RM_retval ; get address of 1st task
02577 2577 1 0,0000 0 CCS A ; list empty?
02600 2600 0 1,2602 1 TC *+2 ; >0, no
02601 2601 0 1,2636 0 TC WL_RM_done ; +0, yes, so exit
; Loop through the remaining records in the task list and
; bubble them up to the front.
02602 2602 3 1,2200 1 CAF WL_numTasks1 ; loop for number of tasks minus 1
WL_RM_loop EQU *
02603 2603 5 0,0120 1 TS WL_RM_loopCnt
02604 2604 3 1,2050 0 CAF ZERO
02605 2605 2 0,0117 1 INDEX WL_RM_taskPtr2
02606 2606 6 0,0000 1 AD TSKTIME
02607 2607 2 0,0116 0 INDEX WL_RM_taskPtr
02610 2610 5 0,0000 1 TS TSKTIME ; copy time field
02611 2611 3 1,2050 0 CAF ZERO
02612 2612 2 0,0117 1 INDEX WL_RM_taskPtr2
02613 2613 6 0,0001 0 AD TSKADDR
02614 2614 2 0,0116 0 INDEX WL_RM_taskPtr
02615 2615 5 0,0001 0 TS TSKADDR ; copy address field
02616 2616 1 0,0000 0 CCS A ; remainder of list empty?
02617 2617 0 1,2621 0 TC *+2 ; >0, no
02620 2620 0 1,2636 0 TC WL_RM_done ; +0, yes, so exit
02621 2621 3 0,0116 1 XCH WL_RM_taskPtr ; bump task pointer back 1 record
02622 2622 6 1,2174 1 AD WL_taskRecSize
02623 2623 5 0,0116 1 TS WL_RM_taskPtr
02624 2624 6 1,2174 1 AD WL_taskRecSize ; set pointer to record behind it
02625 2625 5 0,0117 0 TS WL_RM_taskPtr2
02626 2626 1 0,0120 0 CCS WL_RM_loopCnt ; done bumping tasks upward?
02627 2627 0 1,2603 0 TC WL_RM_loop ; not yet
; Since we removed a record, the last record on the list
; should be NIL.
02630 2630 3 1,2202 0 CAF WL_maxDelay
02631 2631 2 0,0116 0 INDEX WL_RM_taskPtr
02632 2632 5 0,0000 1 TS TSKTIME ; set time field to NIL
02633 2633 3 1,2050 0 CAF ZERO
02634 2634 2 0,0116 0 INDEX WL_RM_taskPtr
02635 2635 5 0,0001 0 TS TSKADDR ; set address field to NIL
WL_RM_done EQU *
02636 2636 3 0,0115 1 XCH WL_RM_saveQ
02637 2637 5 0,0001 0 TS Q ; restore return address
02640 2640 3 0,0121 0 XCH WL_RM_retval ; return task address in A
02641 2641 0 0,0000 0 RETURN
INCL exec_f.asm ; EXEC
;==========================================================================
; EXEC (file:exec_f.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 04/26/2002
;
; PURPOSE:
; Constants and source code for EXEC.
;
; Non-preemptive multitasking routines, originally implemented by J. H.
; Laning, Jr. for AGC3 and later adapted for AGC4. Briefly discussed in
; R-393, which gives some of the software interfaces into the
; multitasking. This is my own recreation, and it only includes the job
; scheduling. The original EXEC also includes memory management for the
; eraseable memory; this is not reproduced here.
;
; Overview: scheduled elements are called 'jobs'. Up to 7 jobs can be
; concurrently scheduled. An 8th 'dummy' job is always scheduled. Each
; job has an assigned priority (1-n, where 1 is the lowest priority).
; The highest priority job always executes. When that job terminates,
; the next highest priority job is selected for execution. If several
; jobs have the same priority, they are executed round-robin.
;
; A job is scheduled for execution by calling 'NOVAC' and
; furnishing the job priority and starting address.
; L XCH JOB_PRIORITY
; L+1 TC NOVAC
; L+2 DS JOB_ADDRESS
; L+3 ... execution resumes here
;
; JOB_PRIORITY = a positive integer from %3 - %37776 where a higher number
; indicates higher priority. Priorities below 3 are reserved for
; internal EXEC use: 0=no job, 1=sleeping job, 2=dummy job.
; Priority %37777 is also reserved for woken jobs.
; JOB_ADDRESS = starting address of the job.
;
; **** WARNING **** If NOVAC is not being called from an interrupt, be sure to
; inhibit interrupts before calling it to protect the integrity of the list.
;
; When a new job is added, the new job's record (core set) is
; initialized with a copy of the current job's record (MPAC and other
; parameters), except for the new job priority and address, which are
; set by the 'add job' routine. Therefore, data can be stored into
; MPAC prior to starting a new job as a method of passing data into
; the new job.
;
; Jobs terminate themselves by jumping to ENDOFJOB. This removes them
; from the EXEC scheduler:
; TC ENDOFJOB
;
; Jobs can suspend themselves (yield to a higher priority job) by
; executing the following sequence. If there is no other job of
; higher priority, executing of the yielded job resumes at L+2
; L CCS newJob
; L+1 TC CHANG1
; L+2 ... execution resumes here
;
; If there is no other job of equal or higher priority, the branch is
; not taken.
;
; Jobs can put themselves to sleep by calling JOBSLEEP. The address
; where execution of the sleeping job should resume must be in register
; A before calling JOBSLEEP. The job will remain sleeping until JOBWAKE
; is called:
;
; L CAF WAKECADR
; L+1 TC JOBSLEEP
; (does not return from JOBSLEEP)
;
; Sleeping jobs are awakened by calling JOBWAKE. The address where
; execution of the sleeping job should resume must be in register A.
; JOBWAKE returns to the address after the call and execution continues
; for the calling job. The job that was sleeping will now be the next
; job to execute.
;
; L CAF WAKECADR
; L+1 TC JOBWAKE
; L+2 ... execution continues here
;
;==========================================================================
02642 2642 37777 1 EX_WAKE_PRIO DS %37777 ; waking job priority (highest)
02643 2643 00002 0 EX_DUMMY_PRIO DS %00002 ; dummy job priority (lowest runnable)
02644 2644 00001 0 EX_SLEEP_PRIO DS %00001 ; sleeping job; must be < dummy
02645 2645 00130 0 EX_jobCurStart DS EX_currentJob ; starting address for current job
02646 2646 00015 0 EX_jobRecSize DS JRECSZ ; size of a job record (words)
02647 2647 00300 1 EX_jobLstStart DS EX_jobList ; starting address for jobList
02650 2650 00307 0 EX_jobLstEnd DS MAXJOBS+EX_jobList
02651 2651 00306 1 EX_jobLstEnd1 DS MAXJOBS-1+EX_jobList
02652 2652 00006 1 EX_numJobs DS MAXJOBS-1 ; init loop counter for all jobs
02653 2653 00005 1 EX_numJobs1 DS MAXJOBS-2 ; init loop counter for all jobs - 1
; enumerated types for setting change flag:
02654 2654 00001 0 EX_changeJob DS CHGJOB ; change job
02655 2655 00000 1 EX_keepJob DS KEEPJOB ; keep job
;--------------------------------------------------------------------------
; EX_exec -- EXEC SCHEDULER
;
; Executes the highest priority job. Enables interrupts while the job is
; running. Once called, this function never returns.
;--------------------------------------------------------------------------
EX_exec EQU * ; entry point
; Add a dummy job (lowest priority) that never terminates.
02656 2656 3 1,2643 1 CAF EX_DUMMY_PRIO ; job priority
02657 2657 0 1,3162 1 TC NOVAC
02660 2660 03510 0 DS dumJob ; 14 bit job address
02661 2661 2 0,0000 0 INHINT ; inhibit RUPTs enab by addJob
; Get the next job to run.
EX_MN_findJob EQU *
02662 2662 0 1,3410 1 TCR EX_remove
; compare priority of current job to priority of next waiting job.
; If next job has same priority as current job, set the newJob
; flag so they will be scheduled round-robin.
02663 2663 4 0,0143 0 CS PRIORITY ; get priority of current job
02664 2664 2 1,2647 1 INDEX EX_jobLstStart
02665 2665 2 0,0000 0 INDEX 0
02666 2666 6 0,0143 1 AD PRIORITY ; compare with priority of next job
02667 2667 1 0,0000 0 CCS A ; next job has equal priority?
02670 2670 0 1,2677 0 TC EX_MN_setFlg ; >0 (error!)
02671 2671 0 1,2677 0 TC EX_MN_setFlg ; +0 yes, set flag
02672 2672 0 1,2674 0 TC *+2 ; <0 no, clear flag
02673 2673 0 1,2677 0 TC EX_MN_setFlg ; -0 yes, set flag
02674 2674 3 1,2655 0 CAF EX_keepJob ; clear change flag
02675 2675 5 0,0307 0 TS newJob
02676 2676 0 1,2701 0 TC EX_MN_runJob
EX_MN_setFlg EQU *
02677 2677 3 1,2654 1 CAF EX_changeJob ; set change flag
02700 2700 5 0,0307 0 TS newJob
; Start the job. Interrupts are reenabled before 'EX_curJobPtr' is
; referenced, but the interrupts can only call 'NOVAC' which does
; not change 'EX_curJobPtr'.
; The job address is always 14-bit, so check whether the address falls
; within erasable or fixed-fixed memory. If so, use it as-is; otherwise,
; set the bank register and change the address to 12-bit.
EX_MN_runJob EQU *
02701 2701 3 1,2050 0 CAF ZERO
02702 2702 6 0,0140 1 AD LOC
02703 2703 5 0,0333 1 TS EX_MN_runAddr ; save job's 14 bit address
02704 2704 4 0,0000 0 COM
02705 2705 6 1,2102 0 AD bankAddr ; -(14bitAddr)+%6000
02706 2706 1 0,0000 0 CCS A ; job is bank addressed?
02707 2707 0 1,2720 0 TC EX_MN_runIt ; >0 no, just run it, as is
02710 2710 0 1,2712 1 TC *+2 ; +0 yes
02711 2711 0 1,2712 1 TC *+1 ; <0 yes
02712 2712 3 1,2050 0 CAF ZERO
02713 2713 6 0,0333 1 AD EX_MN_runAddr
02714 2714 5 0,0015 0 TS BANK ; set the bank
02715 2715 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
02716 2716 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
02717 2717 5 0,0333 1 TS EX_MN_runAddr
EX_MN_runIt EQU *
02720 2720 2 0,0000 1 RELINT ; enable interrupts
02721 2721 2 0,0333 0 INDEX EX_MN_runAddr ; apply indirect address to next instr.
02722 2722 0 0,0000 1 TC 0 ; run the job
; Job is terminated. Delete the job record.
ENDOFJOB EQU *
02723 2723 2 0,0000 0 INHINT ; inhibit interrupts
02724 2724 0 1,2662 1 TC EX_MN_findJob ; get next job
; job is sleeping. Keep the job record, but drop the priority so it
; is below the priority of the dummy job. This will keep the job
; from running until JOBWAKE is called. The address where it should
; resume running when awoken is in register A.
JOBSLEEP EQU *
02725 2725 2 0,0000 0 INHINT ; inhibit interrupts
02726 2726 5 0,0140 1 TS LOC ; save restart address
02727 2727 3 1,2644 0 CAF EX_SLEEP_PRIO
02730 2730 5 0,0143 1 TS PRIORITY ; set sleeping priority
02731 2731 5 0,0346 0 TS EX_IS_newPrio
02732 2732 0 1,2757 0 TC EX_MN_mvRec ; finish up
; Job is suspended. Keep the job record, but update the address, so
; execution will resume at the point after suspension.
CHANG1 EQU *
02733 2733 2 0,0000 0 INHINT ; inhibit interrupts
02734 2734 3 0,0001 0 XCH Q
02735 2735 5 0,0333 1 TS EX_MN_runAddr ; save job's 12 bit restart address
02736 2736 4 0,0000 0 COM
02737 2737 6 1,2102 0 AD bankAddr ; -(12bitAddr)+%6000
02740 2740 1 0,0000 0 CCS A ; job is bank addressed?
02741 2741 0 1,2750 1 TC EX_MN_notBank ; >0 no, just save it, as is
02742 2742 0 1,2744 1 TC *+2 ; +0 yes
02743 2743 0 1,2744 1 TC *+1 ; <0 yes
02744 2744 4 1,2102 1 CS bankAddr ; 12bitAddr - %6000
02745 2745 6 0,0333 1 AD EX_MN_runAddr
02746 2746 6 0,0015 0 AD BANK ; make it a 14-bit address
02747 2747 0 1,2752 0 TC EX_MN_saveIt
EX_MN_notBank EQU *
02750 2750 3 1,2050 0 CAF ZERO
02751 2751 6 0,0333 1 AD EX_MN_runAddr ; get restart address
EX_MN_saveIt EQU *
02752 2752 5 0,0140 1 TS LOC ; save job's new starting address
02753 2753 3 1,2050 0 CAF ZERO
02754 2754 6 0,0144 0 AD JOBPRIOBASE
02755 2755 5 0,0143 1 TS PRIORITY
02756 2756 5 0,0346 0 TS EX_IS_newPrio ; restore job priority to nominal value
; given the priority, find the insertion point in the list. Copy
; the current job into the list at the correct insertion point.
EX_MN_mvRec EQU *
02757 2757 0 1,3332 0 TCR EX_findIns
02760 2760 5 0,0352 0 TS EX_IS_jobPtr ; save address of insertion point
; copy all fields in current record to list
02761 2761 3 1,2646 1 XCH EX_jobRecSize
02762 2762 5 0,0334 0 TS EX_MN_field
EX_MN_loop3 EQU *
02763 2763 1 0,0334 1 CCS EX_MN_field ; done?
02764 2764 0 1,2766 1 TC *+2 ; not yet
02765 2765 0 1,3002 0 TC EX_MN_done3 ; yes
02766 2766 5 0,0334 0 TS EX_MN_field
; copy this field to list
02767 2767 3 1,2050 0 CAF ZERO
02770 2770 2 0,0352 1 INDEX EX_IS_jobPtr
02771 2771 6 0,0000 1 AD 0 ; get index to record in list
02772 2772 6 0,0334 0 AD EX_MN_field ; add field displacement
02773 2773 5 0,0335 1 TS EX_MN_findx ; save index to field in list
02774 2774 3 1,2050 0 CAF ZERO
02775 2775 2 0,0334 1 INDEX EX_MN_field
02776 2776 6 0,0130 0 AD EX_currentJob ; get field from current job
02777 2777 2 0,0335 0 INDEX EX_MN_findx
03000 3000 5 0,0130 0 TS EX_currentJob ; copy field to list
03001 3001 0 1,2763 1 TC EX_MN_loop3
EX_MN_done3 EQU *
03002 3002 0 1,2662 1 TC EX_MN_findJob ; get next job
;--------------------------------------------------------------------------
; JOBWAKE - wake up the job identified by address in register A
;
; Search jobList for a job with address matching the address in A.
; If found, bump the priority up to the highest level, so the job
; will be the next to run.
;
; This is a 'public' function. It assumes that interrupts are already
; disabled before it is called. Disabling interrupts during JOBWAKE
; is necessary to preserve the integrity of the joblist.
;--------------------------------------------------------------------------
JOBWAKE EQU *
03003 3003 5 0,0312 1 TS EX_JW_CADR ; save job address
03004 3004 3 0,0001 0 XCH Q
03005 3005 5 0,0310 0 TS EX_JW_saveQ ; save return address
; Search the joblist for the job to wake (job address matches
; EX_JW_CADR).
03006 3006 3 1,2050 0 CAF ZERO
03007 3007 5 0,0313 0 TS EX_JW_foundit ; clear 'found it' flag
03010 3010 3 1,2651 1 CAF EX_jobLstEnd1 ; set pointer to back of list
03011 3011 5 0,0314 1 TS EX_JW_jobPtr
03012 3012 6 1,2046 1 AD NEG1 ; set pointer to rec in front of it
03013 3013 5 0,0315 0 TS EX_JW_jobPtr2
03014 3014 3 1,2653 0 CAF EX_numJobs1 ; loop for number of jobs minus 1
EX_JW_loop EQU *
03015 3015 5 0,0311 1 TS EX_JW_loopCnt
; if foundit=0, job has not been found yet. Keep searching toward
; the front of the list.
; if foundit=1, the job has been found and removed from the list.
; push all jobs in front of the removed job one step to the back
; to fill in the gap and to make room at the front of the list
; for the awoken job.
03016 3016 1 0,0313 1 CCS EX_JW_foundit ; already found job to wake?
03017 3017 0 1,3035 1 TC EX_JW_moveRec ; >0, yes
; Is this the job?
03020 3020 4 0,0312 0 CS EX_JW_CADR
03021 3021 2 0,0314 0 INDEX EX_JW_jobPtr
03022 3022 2 0,0000 0 INDEX 0
03023 3023 6 0,0140 1 AD LOC
03024 3024 1 0,0000 0 CCS A ; found job to wake?
03025 3025 0 1,3041 1 TC EX_JW_bumpPtr ; >0, no
03026 3026 0 1,3030 1 TC *+2 ; +0, yes
03027 3027 0 1,3041 1 TC EX_JW_bumpPtr ; <0, no
; found the job to wake.
03030 3030 3 1,2051 1 CAF ONE
03031 3031 5 0,0313 0 TS EX_JW_foundit ; set 'found it' flag
; save record index for awoken job
03032 3032 2 0,0314 0 INDEX EX_JW_jobPtr
03033 3033 3 0,0000 1 XCH 0
03034 3034 5 0,0316 0 TS EX_JW_fndIndx ; index for awoken job
; bump prior record back
EX_JW_moveRec EQU *
03035 3035 2 0,0315 1 INDEX EX_JW_jobPtr2
03036 3036 3 0,0000 1 XCH 0
03037 3037 2 0,0314 0 INDEX EX_JW_jobPtr
03040 3040 3 0,0000 1 XCH 0
EX_JW_bumpPtr EQU *
03041 3041 3 0,0314 1 XCH EX_JW_jobPtr ; bump job pointer forward 1 record
03042 3042 6 1,2046 1 AD NEG1
03043 3043 5 0,0314 1 TS EX_JW_jobPtr
03044 3044 6 1,2046 1 AD NEG1 ; set pointer to record in front of it
03045 3045 5 0,0315 0 TS EX_JW_jobPtr2
03046 3046 1 0,0311 0 CCS EX_JW_loopCnt ; done bumping jobs backward?
03047 3047 0 1,3015 0 TC EX_JW_loop ; not yet
03050 3050 1 0,0313 1 CCS EX_JW_foundit ; found job to wake?
03051 3051 0 1,3053 1 TC *+2 ; >0, yes
03052 3052 0 1,3056 1 TC EX_JW_done ; no
03053 3053 3 0,0316 0 XCH EX_JW_fndIndx ; put awoken job on front of list
03054 3054 2 1,2647 1 INDEX EX_jobLstStart
03055 3055 5 0,0000 1 TS 0
EX_JW_done EQU *
; Is the awoken job at the front of the list?
; (If it was already there before we started searching, 'foundIt'
; will be false (0) so we need to make this test).
03056 3056 4 0,0312 0 CS EX_JW_CADR
03057 3057 2 1,2647 1 INDEX EX_jobLstStart
03060 3060 2 0,0000 0 INDEX 0
03061 3061 6 0,0140 1 AD LOC
03062 3062 1 0,0000 0 CCS A ; woken job at front of list?
03063 3063 0 1,3074 1 TC EX_JW_return ; >0, no
03064 3064 0 1,3066 1 TC *+2 ; +0, yes
03065 3065 0 1,3074 1 TC EX_JW_return ; <0, no
; set awoken priority and change job flag
03066 3066 3 1,2642 0 CAF EX_WAKE_PRIO
03067 3067 2 1,2647 1 INDEX EX_jobLstStart
03070 3070 2 0,0000 0 INDEX 0
03071 3071 5 0,0143 1 TS PRIORITY ; set waking priority
03072 3072 3 1,2654 1 CAF EX_changeJob ; set the change flag
03073 3073 5 0,0307 0 TS newJob
EX_JW_return EQU *
03074 3074 0 0,0310 0 TC EX_JW_saveQ ; return
;--------------------------------------------------------------------------
; SPVAC - ADD A JOB TO THE JOBLIST
;
; Similar to NOVAC, but used by VERB 37. The job CADR is in register A.
; The job priority is in NEWPRIO. Return to the address in Q.
;
; NOVAC differs from SPVAC, because NOVAC has the job CADR at the address
; in Q, and returns to Q+1. Also, in NOVAC the job priority is in A.
;
; This is a 'public' function. It can be called from a job
; or from an interrupt.
;--------------------------------------------------------------------------
SPVAC EQU *
03075 3075 5 0,0350 1 TS EX_IS_newLoc ; store new job address
03076 3076 3 0,0001 0 XCH Q
03077 3077 5 0,0317 1 TS EX_AJ_saveQ ; save return address
; add new job to end of list
03100 3100 3 1,2050 0 CAF ZERO
03101 3101 6 0,0360 1 AD NEWPRIO
03102 3102 5 0,0346 0 TS EX_IS_newPrio
03103 3103 5 0,0347 1 TS EX_IS_newPrioB ; store new job priority
03104 3104 0 1,3332 0 TCR EX_findIns ; find insertion point in list
03105 3105 5 0,0352 0 TS EX_IS_jobPtr ; save address of insertion point
; Initialize relevant fields in new job. The remaining fields
; should already be zeroed.
; Initialize fields for new job record. New job inherits copy of
; MPAC from current job, so copy all fields in current job to new
; job in list
03106 3106 3 1,2646 1 XCH EX_jobRecSize
03107 3107 5 0,0323 0 TS EX_AJ_field
EX_SP_loop1 EQU *
03110 3110 1 0,0323 1 CCS EX_AJ_field ; done?
03111 3111 0 1,3113 1 TC *+2 ; not yet
03112 3112 0 1,3127 0 TC EX_SP_done1 ; yes
03113 3113 5 0,0323 0 TS EX_AJ_field
; copy this field to list
03114 3114 3 1,2050 0 CAF ZERO
03115 3115 2 0,0352 1 INDEX EX_IS_jobPtr
03116 3116 6 0,0000 1 AD 0 ; get index to record in list
03117 3117 6 0,0323 0 AD EX_AJ_field ; add field displacement
03120 3120 5 0,0324 1 TS EX_AJ_findx ; save index to field in list
03121 3121 3 1,2050 0 CAF ZERO
03122 3122 2 0,0323 1 INDEX EX_AJ_field
03123 3123 6 0,0130 0 AD EX_currentJob ; get field from current job
03124 3124 2 0,0324 0 INDEX EX_AJ_findx
03125 3125 5 0,0130 0 TS EX_currentJob ; copy field to list
03126 3126 0 1,3110 1 TC EX_SP_loop1
; now, overwrite fields in the record with the priority
; and location unique to this job.
EX_SP_done1 EQU *
03127 3127 3 1,2050 0 CAF ZERO
03130 3130 6 0,0346 0 AD EX_IS_newPrio
03131 3131 2 0,0352 1 INDEX EX_IS_jobPtr
03132 3132 2 0,0000 0 INDEX 0
03133 3133 5 0,0143 1 TS PRIORITY ; set priority field
03134 3134 3 1,2050 0 CAF ZERO
03135 3135 6 0,0347 1 AD EX_IS_newPrioB
03136 3136 2 0,0352 1 INDEX EX_IS_jobPtr
03137 3137 2 0,0000 0 INDEX 0
03140 3140 5 0,0144 0 TS JOBPRIOBASE ; set nominal priority field
03141 3141 3 1,2050 0 CAF ZERO
03142 3142 6 0,0350 1 AD EX_IS_newLoc
03143 3143 2 0,0352 1 INDEX EX_IS_jobPtr
03144 3144 2 0,0000 0 INDEX 0
03145 3145 5 0,0140 1 TS LOC ; set address field
; Set changeflag if priority of new job >= priority of current job
EX_SP_testFlg EQU *
03146 3146 4 0,0143 0 CS PRIORITY ; get -priority of current job
03147 3147 6 0,0321 1 AD EX_AJ_jobPrio ; add positive priority of new job
03150 3150 1 0,0000 0 CCS A ; new job is highest priority?
03151 3151 0 1,3154 1 TC *+3 ; >0, yes
03152 3152 0 1,3154 1 TC *+2 ; +0, yes
03153 3153 0 1,3156 0 TC EX_SP_done2 ; <0, no, current job is higher priority
03154 3154 3 1,2654 1 CAF EX_changeJob ; set the change flag
03155 3155 5 0,0307 0 TS newJob
EX_SP_done2 EQU *
03156 3156 3 0,0317 1 XCH EX_AJ_saveQ
03157 3157 5 0,0001 0 TS Q
03160 3160 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; FINDVAC - not implemented
;
;--------------------------------------------------------------------------
03161 3161 0 0,0001 0 FINDVAC TC Q ; just return
;--------------------------------------------------------------------------
; NOVAC - ADD A JOB TO THE JOBLIST
;
; Search jobList for an empty slot. If found, put the new job in the
; empty slot. If the new job has the same, or higher, priority than the
; current job, set the change flag to 'CHGJOB' (change jobs at the next
; opportunity).
;
; This is a 'public' function. It can be called from a job
; or from an interrupt.
;--------------------------------------------------------------------------
NOVAC EQU *
03162 3162 5 0,0321 1 TS EX_AJ_jobPrio ; save job priority
03163 3163 3 0,0001 0 XCH Q
03164 3164 5 0,0317 1 TS EX_AJ_saveQ ; save return address-1
; add new job to end of list
03165 3165 3 1,2050 0 CAF ZERO
03166 3166 6 0,0321 1 AD EX_AJ_jobPrio
03167 3167 5 0,0346 0 TS EX_IS_newPrio
03170 3170 5 0,0347 1 TS EX_IS_newPrioB ; store new job priority
03171 3171 2 0,0317 0 INDEX EX_AJ_saveQ ; indirectly address addJobQ
03172 3172 3 0,0000 1 CAF 0
03173 3173 5 0,0350 1 TS EX_IS_newLoc ; store new job address
03174 3174 0 1,3332 0 TCR EX_findIns ; find insertion point in list
03175 3175 5 0,0352 0 TS EX_IS_jobPtr ; save address of insertion point
; Initialize relevant fields in new job. The remaining fields
; should already be zeroed.
; Initialize fields for new job record. New job inherits copy of
; MPAC from current job, so copy all fields in current job to new
; job in list
03176 3176 3 1,2646 1 XCH EX_jobRecSize
03177 3177 5 0,0323 0 TS EX_AJ_field
EX_AJ_loop1 EQU *
03200 3200 1 0,0323 1 CCS EX_AJ_field ; done?
03201 3201 0 1,3203 0 TC *+2 ; not yet
03202 3202 0 1,3217 0 TC EX_AJ_done1 ; yes
03203 3203 5 0,0323 0 TS EX_AJ_field
; copy this field to list
03204 3204 3 1,2050 0 CAF ZERO
03205 3205 2 0,0352 1 INDEX EX_IS_jobPtr
03206 3206 6 0,0000 1 AD 0 ; get index to record in list
03207 3207 6 0,0323 0 AD EX_AJ_field ; add field displacement
03210 3210 5 0,0324 1 TS EX_AJ_findx ; save index to field in list
03211 3211 3 1,2050 0 CAF ZERO
03212 3212 2 0,0323 1 INDEX EX_AJ_field
03213 3213 6 0,0130 0 AD EX_currentJob ; get field from current job
03214 3214 2 0,0324 0 INDEX EX_AJ_findx
03215 3215 5 0,0130 0 TS EX_currentJob ; copy field to list
03216 3216 0 1,3200 0 TC EX_AJ_loop1
; now, overwrite fields in the record with the priority
; and location unique to this job.
EX_AJ_done1 EQU *
03217 3217 3 1,2050 0 CAF ZERO
03220 3220 6 0,0346 0 AD EX_IS_newPrio
03221 3221 2 0,0352 1 INDEX EX_IS_jobPtr
03222 3222 2 0,0000 0 INDEX 0
03223 3223 5 0,0143 1 TS PRIORITY ; set priority field
03224 3224 3 1,2050 0 CAF ZERO
03225 3225 6 0,0347 1 AD EX_IS_newPrioB
03226 3226 2 0,0352 1 INDEX EX_IS_jobPtr
03227 3227 2 0,0000 0 INDEX 0
03230 3230 5 0,0144 0 TS JOBPRIOBASE ; set nominal priority field
03231 3231 3 1,2050 0 CAF ZERO
03232 3232 6 0,0350 1 AD EX_IS_newLoc
03233 3233 2 0,0352 1 INDEX EX_IS_jobPtr
03234 3234 2 0,0000 0 INDEX 0
03235 3235 5 0,0140 1 TS LOC ; set address field
; Set changeflag if priority of new job >= priority of current job
EX_AJ_testFlg EQU *
03236 3236 4 0,0143 0 CS PRIORITY ; get -priority of current job
03237 3237 6 0,0321 1 AD EX_AJ_jobPrio ; add positive priority of new job
03240 3240 1 0,0000 0 CCS A ; new job is highest priority?
03241 3241 0 1,3244 0 TC *+3 ; >0, yes
03242 3242 0 1,3244 0 TC *+2 ; +0, yes
03243 3243 0 1,3246 1 TC EX_AJ_done2 ; <0, no, current job is higher priority
03244 3244 3 1,2654 1 CAF EX_changeJob ; set the change flag
03245 3245 5 0,0307 0 TS newJob
EX_AJ_done2 EQU *
03246 3246 3 0,0317 1 XCH EX_AJ_saveQ
03247 3247 6 1,2051 1 AD ONE
03250 3250 5 0,0001 0 TS Q
03251 3251 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; EX_initEX - INITIALIZE EXEC
;
; Initialize the eraseable memory segment for EXEC. Necessary in
; case the AGC is restarted.
;--------------------------------------------------------------------------
EX_initEX EQU *
03252 3252 3 0,0001 0 XCH Q
03253 3253 5 0,0325 0 TS EX_IN_saveQ ; save return address
03254 3254 3 1,2655 0 CAF EX_keepJob ; clear change flag
03255 3255 5 0,0307 0 TS newJob
03256 3256 3 1,2050 0 CAF ZERO
03257 3257 5 0,0143 1 TS PRIORITY ; set current job record to NIL
; Iterate through jobList, initialize each element on the list so it
; points to its own job record.
03260 3260 3 1,2647 0 CAF EX_jobLstStart ; init pointer to start of list
03261 3261 5 0,0327 1 TS EX_IN_jobPtr
03262 3262 3 1,2050 0 CAF ZERO
03263 3263 6 1,2646 1 AD EX_jobRecSize
03264 3264 5 0,0330 1 TS EX_IN_recIndex
03265 3265 3 1,2652 1 CAF EX_numJobs ; loop for number of jobs
EX_IN_loop1 EQU *
03266 3266 5 0,0326 0 TS EX_IN_loopCnt
03267 3267 3 0,0330 1 XCH EX_IN_recIndex
03270 3270 2 0,0327 0 INDEX EX_IN_jobPtr
03271 3271 5 0,0000 1 TS 0 ; initialize record index
03272 3272 6 1,2646 1 AD EX_jobRecSize
03273 3273 5 0,0330 1 TS EX_IN_recIndex ; bump index to next record
03274 3274 3 0,0327 1 XCH EX_IN_jobPtr ; bump job pointer back 1 record
03275 3275 6 1,2051 1 AD ONE
03276 3276 5 0,0327 1 TS EX_IN_jobPtr
03277 3277 1 0,0326 1 CCS EX_IN_loopCnt ; done clearing jobList?
03300 3300 0 1,3266 0 TC EX_IN_loop1 ; not yet
; Iterate through job records, initialize each field to zero.
03301 3301 3 1,2647 0 CAF EX_jobLstStart ; init pointer to start of list
03302 3302 5 0,0327 1 TS EX_IN_jobPtr
03303 3303 3 1,2652 1 CAF EX_numJobs ; loop for number of jobs
EX_IN_loop2 EQU *
03304 3304 5 0,0326 0 TS EX_IN_loopCnt
; loop for number of fields in each record
03305 3305 3 1,2646 1 XCH EX_jobRecSize
03306 3306 5 0,0331 0 TS EX_IN_field
EX_IN_loop3 EQU *
03307 3307 1 0,0331 1 CCS EX_IN_field ; done?
03310 3310 0 1,3312 1 TC *+2 ; not yet
03311 3311 0 1,3324 1 TC EX_IN_done ; yes
03312 3312 5 0,0331 0 TS EX_IN_field
; set the field to zero
03313 3313 3 1,2050 0 CAF ZERO
03314 3314 2 0,0327 0 INDEX EX_IN_jobPtr
03315 3315 6 0,0000 1 AD 0 ; get index to record
03316 3316 6 0,0331 0 AD EX_IN_field ; add field displacement
03317 3317 5 0,0332 0 TS EX_IN_findx ; save index to field
03320 3320 3 1,2050 0 CAF ZERO
03321 3321 2 0,0332 1 INDEX EX_IN_findx
03322 3322 5 0,0130 0 TS EX_currentJob ; clear field
03323 3323 0 1,3307 0 TC EX_IN_loop3
; done clearing all fields in record, so do next record
EX_IN_done EQU *
03324 3324 3 0,0327 1 XCH EX_IN_jobPtr ; bump job pointer back 1 record
03325 3325 6 1,2051 1 AD ONE
03326 3326 5 0,0327 1 TS EX_IN_jobPtr
03327 3327 1 0,0326 1 CCS EX_IN_loopCnt ; done clearing jobList?
03330 3330 0 1,3304 0 TC EX_IN_loop2 ; not yet
03331 3331 0 0,0325 0 TC EX_IN_saveQ ; return
;--------------------------------------------------------------------------
; EX_findIns - FIND INSERTION POINT INTO SORTED LIST
;
; Insert a job record into the sorted list. Use 'EX_IS_newPrio',
; EX_IS_newPrioB and 'EX_IS_newLoc' to set the fields of record to
; be inserted.
; Performs an insertion sort, with the records sorted by priority.
; Highest priority is at the front of the list. If several records
; have the same priority, the records inserted first will appear first
; in the list. NIL records have a priority of zero.
;--------------------------------------------------------------------------
EX_findIns EQU *
03332 3332 3 0,0001 0 XCH Q
03333 3333 5 0,0351 0 TS EX_IS_saveQ ; save return address
03334 3334 3 1,2651 1 CAF EX_jobLstEnd1 ; set pointer to back of list
03335 3335 5 0,0352 0 TS EX_IS_jobPtr
03336 3336 6 1,2046 1 AD NEG1 ; set pointer to rec in front of it
03337 3337 5 0,0353 1 TS EX_IS_jobPtr2
03340 3340 3 1,2050 0 CAF ZERO
03341 3341 2 0,0352 1 INDEX EX_IS_jobPtr
03342 3342 2 0,0000 0 INDEX 0
03343 3343 6 0,0143 1 AD PRIORITY ; check last record on list
03344 3344 1 0,0000 0 CCS A ; list full?
03345 3345 0 1,3405 0 TC EX_FI_done ; >0 yes
; Work from the back of the list to the front, pushing each record
; to the back until the insertion point is found.
03346 3346 3 1,2653 0 CAF EX_numJobs1 ; loop for number of jobs minus 1
EX_FI_loop EQU *
03347 3347 5 0,0354 0 TS EX_IS_loopCnt
03350 3350 3 1,2050 0 CAF ZERO
03351 3351 2 0,0353 0 INDEX EX_IS_jobPtr2
03352 3352 2 0,0000 0 INDEX 0
03353 3353 6 0,0143 1 AD PRIORITY
03354 3354 1 0,0000 0 CCS A ; previous record is NIL?
03355 3355 0 1,3357 0 TC *+2 ; no, so check it
03356 3356 0 1,3376 0 TC EX_FI_bumpPtr ; yes, so skip to next record
; Is this the insertion point?
03357 3357 4 0,0346 1 CS EX_IS_newPrio
03360 3360 2 0,0353 0 INDEX EX_IS_jobPtr2
03361 3361 2 0,0000 0 INDEX 0
03362 3362 6 0,0143 1 AD PRIORITY
03363 3363 1 0,0000 0 CCS A ; found insertion point?
03364 3364 0 1,3405 0 TC EX_FI_insRec ; >0 yes
03365 3365 0 1,3405 0 TC EX_FI_insRec ; +0 yes
03366 3366 0 1,3370 0 TC *+2 ; <0 no, keep checking
03367 3367 0 1,3405 0 TC EX_FI_insRec ; -0 yes
; No, bump the record toward the back of the list.
03370 3370 2 0,0353 0 INDEX EX_IS_jobPtr2
03371 3371 3 0,0000 1 XCH 0
03372 3372 2 0,0352 1 INDEX EX_IS_jobPtr
03373 3373 3 0,0000 1 XCH 0
03374 3374 2 0,0353 0 INDEX EX_IS_jobPtr2
03375 3375 3 0,0000 1 XCH 0
EX_FI_bumpPtr EQU *
03376 3376 3 0,0352 0 XCH EX_IS_jobPtr ; bump job pointer forward 1 record
03377 3377 6 1,2046 1 AD NEG1
03400 3400 5 0,0352 0 TS EX_IS_jobPtr
03401 3401 6 1,2046 1 AD NEG1 ; set pointer to record in front of it
03402 3402 5 0,0353 1 TS EX_IS_jobPtr2
03403 3403 1 0,0354 1 CCS EX_IS_loopCnt ; done bumping jobs backward?
03404 3404 0 1,3347 1 TC EX_FI_loop ; not yet
; New record should be inserted at EX_IS_jobPtr.
EX_FI_insRec EQU *
EX_FI_done EQU *
03405 3405 3 1,2050 0 CAF ZERO
03406 3406 6 0,0352 0 AD EX_IS_jobPtr ; get insertion spot in list
03407 3407 0 0,0351 0 TC EX_IS_saveQ ; return
;--------------------------------------------------------------------------
; EX_remove - REMOVE JOB FROM FRONT OF LIST
;
; Remove job from front of list and copy it to the current job. Bubble
; any remaining jobs toward the front of the list.
;--------------------------------------------------------------------------
EX_remove EQU *
03410 3410 3 0,0001 0 XCH Q
03411 3411 5 0,0336 1 TS EX_RM_saveQ ; save return address
03412 3412 3 1,2647 0 CAF EX_jobLstStart ; set pointer to front of list
03413 3413 5 0,0337 0 TS EX_RM_jobPtr
03414 3414 6 1,2051 1 AD ONE ; set pointer to next rec behind it
03415 3415 5 0,0340 0 TS EX_RM_jobPtr2
; Dequeue the record at the top of the list (the next job to run).
; Make it the current job by copying it to the current job record.
03416 3416 3 1,2646 1 XCH EX_jobRecSize
03417 3417 5 0,0344 1 TS EX_RM_field
EX_RM_loop1 EQU *
03420 3420 1 0,0344 0 CCS EX_RM_field ; done?
03421 3421 0 1,3423 1 TC *+2 ; not yet
03422 3422 0 1,3437 1 TC EX_RM_done1 ; yes
03423 3423 5 0,0344 1 TS EX_RM_field
; copy field from list to current job
03424 3424 3 1,2050 0 CAF ZERO
03425 3425 2 0,0337 1 INDEX EX_RM_jobPtr
03426 3426 6 0,0000 1 AD 0 ; get index to record
03427 3427 6 0,0344 1 AD EX_RM_field ; add field displacement
03430 3430 5 0,0345 0 TS EX_RM_findx ; save index to field
03431 3431 3 1,2050 0 CAF ZERO
03432 3432 2 0,0345 1 INDEX EX_RM_findx
03433 3433 6 0,0130 0 AD EX_currentJob ; get field
03434 3434 2 0,0344 0 INDEX EX_RM_field
03435 3435 5 0,0130 0 TS EX_currentJob ; move to current job
03436 3436 0 1,3420 1 TC EX_RM_loop1
; done copying record for current job. Restore the current job to
; its default priority, in case it was previously elevated.
EX_RM_done1 EQU *
03437 3437 3 1,2050 0 CAF ZERO
03440 3440 6 0,0144 0 AD JOBPRIOBASE
03441 3441 5 0,0143 1 TS PRIORITY
03442 3442 2 0,0337 1 INDEX EX_RM_jobPtr
03443 3443 3 0,0000 1 XCH 0
03444 3444 5 0,0341 1 TS EX_RM_savePtr ; so we can move it to the end later
; Loop through the remaining records in the job list and
; bubble them up to the front.
03445 3445 3 1,2653 0 CAF EX_numJobs1 ; loop for number of jobs minus 1
EX_RM_loop2 EQU *
03446 3446 5 0,0342 1 TS EX_RM_loopCnt
03447 3447 2 0,0340 1 INDEX EX_RM_jobPtr2
03450 3450 3 0,0000 1 XCH 0
03451 3451 2 0,0337 1 INDEX EX_RM_jobPtr
03452 3452 5 0,0000 1 TS 0
03453 3453 1 0,0000 0 CCS A ; remainder of list empty?
03454 3454 0 1,3456 0 TC *+2 ; >0, no
03455 3455 0 1,3465 0 TC EX_RM_done2 ; +0, yes, so exit
03456 3456 3 0,0337 0 XCH EX_RM_jobPtr ; bump job pointer back 1 record
03457 3457 6 1,2051 1 AD ONE
03460 3460 5 0,0337 0 TS EX_RM_jobPtr
03461 3461 6 1,2051 1 AD ONE ; set pointer to record behind it
03462 3462 5 0,0340 0 TS EX_RM_jobPtr2
03463 3463 1 0,0342 0 CCS EX_RM_loopCnt ; done bumping jobs upward?
03464 3464 0 1,3446 1 TC EX_RM_loop2 ; not yet
; Since we removed a record, the last record on the list
; should be NIL.
EX_RM_done2 EQU *
03465 3465 3 0,0341 1 XCH EX_RM_savePtr
03466 3466 2 0,0337 1 INDEX EX_RM_jobPtr ; move the index for the top record
03467 3467 5 0,0000 1 TS 0 ; to the bottom of the list
; set all fields in NIL record to zero
03470 3470 3 1,2646 1 XCH EX_jobRecSize
03471 3471 5 0,0344 1 TS EX_RM_field
EX_RM_loop3 EQU *
03472 3472 1 0,0344 0 CCS EX_RM_field ; done?
03473 3473 0 1,3475 1 TC *+2 ; not yet
03474 3474 0 1,3507 0 TC EX_RM_done3 ; yes
03475 3475 5 0,0344 1 TS EX_RM_field
; set this field to zero
03476 3476 3 1,2050 0 CAF ZERO
03477 3477 2 0,0337 1 INDEX EX_RM_jobPtr
03500 3500 6 0,0000 1 AD 0 ; get index to record
03501 3501 6 0,0344 1 AD EX_RM_field ; add field displacement
03502 3502 5 0,0345 0 TS EX_RM_findx ; save index to field
03503 3503 3 1,2050 0 CAF ZERO
03504 3504 2 0,0345 1 INDEX EX_RM_findx
03505 3505 5 0,0130 0 TS EX_currentJob ; clear field
03506 3506 0 1,3472 0 TC EX_RM_loop3
EX_RM_done3 EQU *
03507 3507 0 0,0336 1 TC EX_RM_saveQ ; return
;--------------------------------------------------------------------------
; DUMMY JOB - runs at the lowest priority and never terminates. Ensures
; that there is always at least one job executing. Sleeping jobs are
; given a lower priority than the dummy job.
;
; The dummy job controls the computer activity light on the DSKY. When
; the dummy job is running, the light is off. When the dummy job is
; preempted by a higher priority job, the light is on.
;
; I couldn't find good information on the computer activity light
; in COLOSSUS, so this is my best guess concerning its operation. It
; seems consistent witht the MPEG video of the Apollo 11 DSKY.
;--------------------------------------------------------------------------
; entering dummy job -- turn off computer activity light
dumJob EQU *
03510 3510 3 1,2050 0 CAF ZERO
03511 3511 6 0,0011 1 AD DSALMOUT
03512 3512 7 1,3525 1 MASK NOTACTLT
03513 3513 5 0,0011 1 TS DSALMOUT ; turn bit1 off
; runtime loop for dummy job
dumJob1 EQU *
03514 3514 1 0,0307 1 CCS newJob ; check for context switch
03515 3515 0 1,3517 1 TC dumJob2 ; yes
03516 3516 0 1,3514 1 TC dumJob1 ; no
; exiting dummy job -- turn on computer activity light
dumJob2 EQU *
03517 3517 4 0,0011 0 CS DSALMOUT ; inclusive OR bit 1 with 1 using
03520 3520 7 1,3525 1 MASK NOTACTLT ; Demorgan's theorem
03521 3521 4 0,0000 0 COM
03522 3522 5 0,0011 1 TS DSALMOUT
03523 3523 0 1,2733 1 TC CHANG1 ; exit to run higher priority job
03524 3524 0 1,3510 0 TC dumJob ; job done, return here, light off again
03525 3525 77776 1 NOTACTLT DS %77776 ; 1's compliment of bit1 (comp activity light)
INCL bank_f.asm ; bank intercommunication routines
;==========================================================================
; BANK INTERCOMMUNICATION (file:bank_f.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 01/19/2002
;
; PURPOSE:
; Contains bank intercommunication routines.
; The source is missing from my (incomplete) listing of COLOSSUS. The
; implementation here is inferred from the usage in the COLOSSUS pinball
; routines. Some of these routines could probably be combined or optimized
; away if I understood the pinball software architecture a little better.
;==========================================================================
;--------------------------------------------------------------------------
; DXCHJUMP
; Do a bank jump to the CADR in register A. After the bank jump, the return
; CADR is in register A. Contents of register Q are destroyed.
; This is my attempt to implement the block I equivalent for
; DCA MY2CADR
; DXCH Z
;... which is used in some places in COLOSSUS to implement bank jumps. In that
; implementation, MY2CADR has the lower portion of the address in MYCADR and
; the bank portion in MY2CADR+1. DCA loads the lower address into A and the
; bank address into L. DXCH loads the lower address into Z and the bank portion
; into BB (both bank register), thereby doing a bank call. After the call,
; the lower return address is in A and the return bank is in L.
;--------------------------------------------------------------------------
DXCHJUMP EQU *
03526 3526 5 0,0576 0 TS ADDRWD1 ; save 14-bit destination address
03527 3527 3 0,0001 0 XCH Q
03530 3530 5 0,0617 1 TS DCRET ; save old return address
03531 3531 3 0,0015 0 XCH BANK
03532 3532 5 0,0616 0 TS DCBANK ; save old bank
; put the 12-bit destination address in ADDRWD1
03533 3533 4 0,0576 1 CS ADDRWD1 ; -(14bitAddr)+%6000
03534 3534 6 1,2102 0 AD bankAddr
03535 3535 1 0,0000 0 CCS A ; CADR is bank addressed?
03536 3536 0 1,3547 1 TC DODXCHCALL ; >0 no, just run it, as is
03537 3537 0 1,3541 1 TC *+2 ; +0 yes
03540 3540 0 1,3541 1 TC *+1 ; <0 yes
03541 3541 3 1,2050 0 CAF ZERO
03542 3542 6 0,0576 0 AD ADDRWD1
03543 3543 5 0,0015 0 TS BANK ; set the bank
03544 3544 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
03545 3545 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
03546 3546 5 0,0576 0 TS ADDRWD1 ; save 12-bit destination address
; put the 14-bit return CADR into A.
DODXCHCALL EQU *
03547 3547 4 0,0617 0 CS DCRET ; get 12-bit return address
03550 3550 6 1,2102 0 AD bankAddr ; -(12bitAddr)+%6000
03551 3551 1 0,0000 0 CCS A ; return address is bank addressed?
03552 3552 0 1,3561 0 TC DC_NOTBANK ; >0 no, just use it, as is
03553 3553 0 1,3555 1 TC *+2 ; +0 yes
03554 3554 0 1,3555 1 TC *+1 ; <0 yes
03555 3555 4 1,2102 1 CS bankAddr ; 12bitAddr - %6000
03556 3556 6 0,0617 1 AD DCRET
03557 3557 6 0,0616 0 AD DCBANK ; put return CADR in A
03560 3560 0 1,3563 1 TC *+3
DC_NOTBANK EQU *
03561 3561 3 1,2050 0 CAF ZERO
03562 3562 6 0,0617 1 AD DCRET ; put return CADR in A
03563 3563 2 0,0576 1 INDEX ADDRWD1 ; apply indirect address to next instr.
03564 3564 0 0,0000 1 TC 0 ; make the jump
;--------------------------------------------------------------------------
; BANKCALL
; Do a bank jump to the location referenced by the 14-bit address referenced
; in Q. Does not affect register A (but assumes A does not contain an
; overflow). Functionally identical to POSTJUMP.
; Usage:
; TC BANKCALL ; bank jump to CADR
; DS MYCADR ; the 14-bit address
; returns here if MYCADR calls TC Q.
;
; Inferred from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968.
;--------------------------------------------------------------------------
BANKCALL EQU *
03565 3565 5 0,0612 1 TS BCA ; save A
03566 3566 2 0,0001 1 INDEX Q ; load the CADR into A
03567 3567 3 0,0000 1 CAF 0
03570 3570 5 0,0576 0 TS ADDRWD1 ; save 14-bit destination address
03571 3571 3 0,0001 0 XCH Q
03572 3572 5 0,0611 1 TS BCRET ; save old return address-1
03573 3573 3 0,0015 0 XCH BANK
03574 3574 5 0,0610 0 TS BCBANK ; save old bank
03575 3575 4 0,0576 1 CS ADDRWD1 ; -(14bitAddr)+%6000
03576 3576 6 1,2102 0 AD bankAddr
03577 3577 1 0,0000 0 CCS A ; CADR is bank addressed?
03600 3600 0 1,3611 1 TC DOBANKCALL ; >0 no, just run it, as is
03601 3601 0 1,3603 1 TC *+2 ; +0 yes
03602 3602 0 1,3603 1 TC *+1 ; <0 yes
03603 3603 3 1,2050 0 CAF ZERO
03604 3604 6 0,0576 0 AD ADDRWD1
03605 3605 5 0,0015 0 TS BANK ; set the bank
03606 3606 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
03607 3607 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
03610 3610 5 0,0576 0 TS ADDRWD1
DOBANKCALL EQU *
03611 3611 3 0,0612 1 XCH BCA ; restore A
03612 3612 2 0,0576 1 INDEX ADDRWD1 ; apply indirect address to next instr.
03613 3613 0 0,0000 1 TC 0 ; make the jump
; Jump returns here; restore the old bank and return
03614 3614 5 0,0612 1 TS BCA ; save A
03615 3615 3 0,0610 0 XCH BCBANK
03616 3616 5 0,0015 0 TS BANK
03617 3617 3 0,0611 1 XCH BCRET
03620 3620 6 1,2051 1 AD ONE ; skip CADR
03621 3621 5 0,0001 0 TS Q
03622 3622 3 0,0612 1 XCH BCA ; restore A
03623 3623 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; MYBANKCALL
; Functionally identical to BANKCALL. Used for converting the FLASHON/FLASHOFF
; COLOSSUS block II code to block I. In Block II, the V/N flash is controlled by
; setting a bit in an I/O channel. In Block I, a bit in the display table must
; be set using _11DSPIN. Because _11DSPIN is in fixed/switchable memory, but is
; called from fixed/fixed, a bank call function is needed. The original BANKCALL
; could not be used because it is not reentrant and I dont understand its usage
; in COLOSSUS well enough to be certain that FLASHON/FLASHOFF isn't already
; being called somewhere through BANKCALL.
;--------------------------------------------------------------------------
MYBANKCALL EQU *
03624 3624 5 0,0615 0 TS MBCA ; save A
03625 3625 2 0,0001 1 INDEX Q ; load the CADR into A
03626 3626 3 0,0000 1 CAF 0
03627 3627 5 0,0576 0 TS ADDRWD1 ; save 14-bit destination address
03630 3630 3 0,0001 0 XCH Q
03631 3631 6 1,2051 1 AD ONE ; skip CADR
03632 3632 5 0,0614 1 TS MBCRET ; save old return address
03633 3633 3 0,0015 0 XCH BANK
03634 3634 5 0,0613 0 TS MBCBANK ; save old bank
03635 3635 3 1,2050 0 CAF ZERO
03636 3636 6 0,0576 0 AD ADDRWD1
03637 3637 5 0,0015 0 TS BANK ; set the bank
03640 3640 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
03641 3641 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
03642 3642 5 0,0576 0 TS ADDRWD1
03643 3643 3 0,0615 0 XCH MBCA ; restore A
03644 3644 2 0,0576 1 INDEX ADDRWD1 ; apply indirect address to next instr.
03645 3645 0 0,0000 1 TC 0 ; make the jump
; Jump returns here; restore the old bank and return
03646 3646 5 0,0615 0 TS MBCA ; save A
03647 3647 3 0,0613 0 XCH MBCBANK
03650 3650 5 0,0015 0 TS BANK
03651 3651 3 0,0615 0 XCH MBCA ; restore A
03652 3652 0 0,0614 1 TC MBCRET
;--------------------------------------------------------------------------
; POSTJUMP
; Do a bank jump to the location referenced by the 14-bit address referenced
; in Q. Does not affect register A (but assumes A does not contain an
; overflow). Functionally identical to BANKCALL
; Usage:
; TC POSTJUMP ; bank jump to CADR
; DS MYCADR ; the 14-bit address
; returns here if MYCADR calls TC Q.
;
; Inferred from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968.
;--------------------------------------------------------------------------
POSTJUMP EQU *
03653 3653 5 0,0607 0 TS PJA ; save A
03654 3654 2 0,0001 1 INDEX Q ; load the CADR into A
03655 3655 3 0,0000 1 CAF 0
03656 3656 5 0,0576 0 TS ADDRWD1 ; save 14-bit destination address
03657 3657 3 0,0001 0 XCH Q
03660 3660 5 0,0606 1 TS PJRET ; save old return address-1
03661 3661 3 0,0015 0 XCH BANK
03662 3662 5 0,0605 1 TS PJBANK ; save old bank
03663 3663 4 0,0576 1 CS ADDRWD1 ; -(14bitAddr)+%6000
03664 3664 6 1,2102 0 AD bankAddr
03665 3665 1 0,0000 0 CCS A ; CADR is bank addressed?
03666 3666 0 1,3677 1 TC DOPOSTJUMP ; >0 no, just run it, as is
03667 3667 0 1,3671 1 TC *+2 ; +0 yes
03670 3670 0 1,3671 1 TC *+1 ; <0 yes
03671 3671 3 1,2050 0 CAF ZERO
03672 3672 6 0,0576 0 AD ADDRWD1
03673 3673 5 0,0015 0 TS BANK ; set the bank
03674 3674 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
03675 3675 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
03676 3676 5 0,0576 0 TS ADDRWD1
DOPOSTJUMP EQU *
03677 3677 3 0,0607 0 XCH PJA ; restore A
03700 3700 2 0,0576 1 INDEX ADDRWD1 ; apply indirect address to next instr.
03701 3701 0 0,0000 1 TC 0 ; make the jump
; Jump returns here; restore the old bank and return
03702 3702 5 0,0607 0 TS PJA ; save A
03703 3703 3 0,0605 1 XCH PJBANK
03704 3704 5 0,0015 0 TS BANK
03705 3705 3 0,0606 1 XCH PJRET
03706 3706 6 1,2051 1 AD ONE ; skip CADR
03707 3707 5 0,0001 0 TS Q
03710 3710 3 0,0607 0 XCH PJA ; restore A
03711 3711 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; BANKJUMP
; Do a bank jump to the location referenced by the 14-bit address in A.
; Usage:
; CADRSTOR DS MYCADR
;
; CAF CADRSTOR ; load the 14-bit address
; TC BANKJUMP ; bank jump to CADR
; returns here if MYCADR calls TC Q
;
; Inferred from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968.
;--------------------------------------------------------------------------
BANKJUMP EQU *
03712 3712 5 0,0576 0 TS ADDRWD1 ; save 14-bit destination address
03713 3713 3 0,0001 0 XCH Q
03714 3714 5 0,0604 0 TS BJRET ; save old return address
03715 3715 3 0,0015 0 XCH BANK
03716 3716 5 0,0603 1 TS BJBANK ; save old bank
03717 3717 4 0,0576 1 CS ADDRWD1 ; -(14bitAddr)+%6000
03720 3720 6 1,2102 0 AD bankAddr
03721 3721 1 0,0000 0 CCS A ; CADR is bank addressed?
03722 3722 0 1,3733 0 TC DOBANKJUMP ; >0 no, just run it, as is
03723 3723 0 1,3725 1 TC *+2 ; +0 yes
03724 3724 0 1,3725 1 TC *+1 ; <0 yes
03725 3725 3 1,2050 0 CAF ZERO
03726 3726 6 0,0576 0 AD ADDRWD1
03727 3727 5 0,0015 0 TS BANK ; set the bank
03730 3730 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
03731 3731 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
03732 3732 5 0,0576 0 TS ADDRWD1
DOBANKJUMP EQU *
03733 3733 2 0,0576 1 INDEX ADDRWD1 ; apply indirect address to next instr.
03734 3734 0 0,0000 1 TC 0 ; make the jump
; Jump returns here; restore the old bank and return
03735 3735 3 0,0603 1 XCH BJBANK
03736 3736 5 0,0015 0 TS BANK
03737 3737 3 0,0604 0 XCH BJRET
03740 3740 5 0,0001 0 TS Q
03741 3741 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; DATACALL
; Retrieve memory contents at location referenced by the 14-bit address in A.
; Usage:
; CADRSTOR DS MYCADR
;
; CAF CADRSTOR ; load the 14-bit address
; TC DATACALL ; return data in A
;
; Inferred from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968.
;--------------------------------------------------------------------------
DATACALL EQU *
03742 3742 5 0,0576 0 TS ADDRWD1 ; save 14-bit address
03743 3743 3 0,0001 0 XCH Q
03744 3744 5 0,0604 0 TS BJRET ; save old return address
03745 3745 3 0,0015 0 XCH BANK
03746 3746 5 0,0603 1 TS BJBANK ; save old bank
03747 3747 4 0,0576 1 CS ADDRWD1 ; -(14bitAddr)+%6000
03750 3750 6 1,2102 0 AD bankAddr
03751 3751 1 0,0000 0 CCS A ; CADR is bank addressed?
03752 3752 0 1,3763 0 TC DODATACALL ; >0 no, just use it, as is
03753 3753 0 1,3755 0 TC *+2 ; +0 yes
03754 3754 0 1,3755 0 TC *+1 ; <0 yes
03755 3755 3 1,2050 0 CAF ZERO
03756 3756 6 0,0576 0 AD ADDRWD1
03757 3757 5 0,0015 0 TS BANK ; set the bank
03760 3760 7 1,2103 0 MASK lowAddr ; get lowest 10-bits of address
03761 3761 6 1,2102 0 AD bankAddr ; set bits 11,12 for fixed-switchable
03762 3762 5 0,0576 0 TS ADDRWD1
DODATACALL EQU *
03763 3763 3 1,2050 0 CAF ZERO
03764 3764 2 0,0576 1 INDEX ADDRWD1 ; apply indirect address to next instr.
03765 3765 6 0,0000 1 AD 0 ; load the word
03766 3766 3 0,0603 1 XCH BJBANK ; restore the old bank
03767 3767 5 0,0015 0 TS BANK
03770 3770 3 0,0603 1 XCH BJBANK ; get the word
03771 3771 0 0,0604 0 TC BJRET ; return
INCL T4rupt_f.asm ; T4RUPT handler
;==========================================================================
; T4RUPT (file:T4rupt_f.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 01/09/2002
;
; PURPOSE:
; Contains T4RUPT handler and DSPOUT subroutine to update DSKY.
;==========================================================================
; RELTAB is a packed table. RELAYWORD code in upper 4 bits, RELAY code
; in lower 5 bits. In COLOSSUS, p. 129.
RELTAB EQU *
03772 3772 04025 1 DS %04025
03773 3773 10003 0 DS %10003
03774 3774 14031 0 DS %14031
03775 3775 20033 0 DS %20033
03776 3776 24017 1 DS %24017
03777 3777 30036 1 DS %30036
04000 4000 34034 1 DS %34034
04001 4001 40023 1 DS %40023
04002 4002 44035 1 DS %44035
04003 4003 50037 0 DS %50037
04004 4004 54000 0 DS %54000
04005 4005 60000 1 RELTAB11 DS %60000
;--------------------------------------------------------------------------
; DK_initDK - INITIALIZE DSKY
;
; Subroutine initializes the eraseable memory segment for DSKY displays.
; Blank DSKY registers program, verb, noun, R1, R2, R3.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, Fresh Start and Restart, p.187.
;--------------------------------------------------------------------------
04006 4006 05265 0 DKTESTINIT DS %5265 ; init DSKY to all zeroes (TEST ONLY)
DK_initDK EQU *
04007 4007 3 0,0001 0 XCH Q
04010 4010 5 0,0546 0 TS DK_IN_saveQ ; save return address
04011 4011 3 1,2060 0 CAF TEN ; blank DSKY registers
04012 4012 5 0,0130 0 DSPOFF TS MPAC
04013 4013 4 1,2065 1 CS BIT12
; CS DKTESTINIT ; set display to '0'
04014 4014 2 0,0130 1 INDEX MPAC
04015 4015 5 0,0512 1 TS DSPTAB
04016 4016 1 0,0130 1 CCS MPAC
04017 4017 0 2,4012 0 TC DSPOFF
; followed by additional DSKY initialization p 187, 188)
04020 4020 3 1,2050 0 CAF ZERO
04021 4021 5 0,0465 0 TS DSPCNT
04022 4022 5 0,0531 0 TS CADRSTOR
04023 4023 5 0,0502 0 TS REQRET
04024 4024 5 0,0504 0 TS CLPASS
04025 4025 5 0,0501 0 TS DSPLOCK
04026 4026 5 0,0507 0 TS MONSAVE ; kill monitor
04027 4027 5 0,0510 0 TS MONSAVE1
04030 4030 5 0,0470 1 TS VERBREG
04031 4031 5 0,0471 0 TS NOUNREG
04032 4032 5 0,0532 0 TS DSPLIST
04033 4033 3 1,2105 1 CAF NOUTCON
04034 4034 5 0,0505 1 TS NOUT
; set DSKY display bit (sign bit). Word must be negative, but
; not minus zero (find out where they do this in COLOSSUS)
04035 4035 4 1,2051 0 CS ONE
04036 4036 5 0,0355 1 TS FLAGWRD5
; initialize DSPCNT (index into DSPTAB).
04037 4037 3 1,2050 0 CAF ZERO
04040 4040 6 2,4072 0 AD TABLNTH
04041 4041 5 0,0465 0 TS DSPCNT
; schedule 1st T4RUPT
04042 4042 3 2,4074 0 CAF _120MRUPT ; reschedule interrupt for 120 mSec
04043 4043 5 0,0040 0 TS TIME4
04044 4044 3 0,0546 0 XCH DK_IN_saveQ
04045 4045 5 0,0001 0 TS Q ; restore return address
04046 4046 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; T4PROG -- T4RUPT PROGRAM
;
; Performs T4RUPT (DSRUPT) functions.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.129.
;--------------------------------------------------------------------------
T4PROG EQU *
04047 4047 3 0,0001 0 XCH Q
04050 4050 5 0,0544 1 TS T4RET ; save return address
04051 4051 0 2,4116 0 TC DSPOUT ; update DSKY display
04052 4052 3 2,4074 0 CAF _120MRUPT ; reschedule interrupt for 120 mSec
04053 4053 5 0,0040 0 TS TIME4
04054 4054 3 0,0544 1 XCH T4RET
04055 4055 5 0,0001 0 TS Q ; restore return address
04056 4056 0 0,0000 0 RETURN
;--------------------------------------------------------------------------
; DSPOUT -- PUTS OUT DISPLAYS
;
; Writes changes in the software display buffer to the AGC DSKY hardware
; display.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.131.
;--------------------------------------------------------------------------
DSPOUTSR EQU *
04057 4057 5 0,0505 1 TS NOUT ; decrement NOUT
04060 4060 4 1,2050 1 CS ZERO
04061 4061 5 0,0370 0 TS DSRUPTEM ; set to -0 for 1st pass thru DSPTAB
04062 4062 3 0,0465 0 XCH DSPCNT
04063 4063 6 1,2045 1 AD NEG0 ; to prevent +0
04064 4064 5 0,0465 0 TS DSPCNT
DSPSCAN EQU *
04065 4065 2 0,0465 1 INDEX DSPCNT
04066 4066 1 0,0512 0 CCS DSPTAB ; test sign of DSPTAB + DSPCNT
04067 4067 1 0,0465 1 CCS DSPCNT ; >0, already displayed, test DSPCNT
04070 4070 0 2,4063 0 TC DSPSCAN-2 ; if DSPCNT +, again
04071 4071 0 2,4103 1 TC DSPLAY ; <0, not yet displayed
04072 4072 00012 1 TABLNTH DS %12 ; dec 10, length of DSPTAB
04073 4073 1 0,0370 1 CCS DSRUPTEM ; if DSRUPTEM=+0, 2nd pass thru DSPTAB
04074 4074 37764 0 _120MRUPT DS 16372 ; (DSPCNT=0), +0 into NOUT
04075 4075 5 0,0505 1 TS NOUT ; DSRUPTEM=+0, every table entry was checked
04076 4076 0 2,4126 0 TC DSPOUTEXIT ; return
04077 4077 5 0,0370 0 TS DSRUPTEM ; DSRUPTEM=-0, 1st pass thru DSPTAB
04100 4100 3 2,4072 0 CAF TABLNTH ; (DSPCNT=0), +0 into DSRUPTEM, pass again
04101 4101 0 2,4064 1 TC DSPSCAN-1
04102 4102 0 2,4126 0 TC DSPOUTEXIT ; return
DSPLAY EQU *
04103 4103 6 1,2051 1 AD ONE
04104 4104 2 0,0465 1 INDEX DSPCNT
04105 4105 5 0,0512 1 TS DSPTAB ; replace positively
04106 4106 7 2,4672 1 MASK LOW11 ; remove bits 12 to 15
04107 4107 5 0,0370 0 TS DSRUPTEM
04110 4110 3 2,4666 0 CAF HI5
04111 4111 2 0,0465 1 INDEX DSPCNT
04112 4112 7 1,3772 1 MASK RELTAB ; pick up bits 12 to 15 of RELTAB entry
04113 4113 6 0,0370 0 AD DSRUPTEM
04114 4114 5 0,0010 0 TS OUT0 ; was EXTEND/WRITE OUT0 in block II
04115 4115 0 2,4126 0 TC DSPOUTEXIT ; return
DSPOUT EQU *
04116 4116 3 0,0001 0 XCH Q
04117 4117 5 0,0545 0 TS DSPOUTRET ; save return address
04120 4120 1 0,0355 0 CCS FLAGWRD5 ; no display unless DSKY flag (sign bit) on
04121 4121 3 1,2050 0 CAF ZERO ; >0, DSKY disabled
04122 4122 0 2,4126 0 TC NODSPOUT ; +0, DSKY disabled
04123 4123 1 0,0505 0 CCS NOUT ; <0, DSKY enabled, so test NOUT
04124 4124 0 2,4057 1 TC DSPOUTSR ; >0, handle display requests
04125 4125 0 2,4126 0 TC NODSPOUT ; +0, no display requests
NODSPOUT EQU *
DSPOUTEXIT EQU *
04126 4126 3 0,0545 0 XCH DSPOUTRET ; return to calling routine
04127 4127 5 0,0001 0 TS Q
04130 4130 0 0,0000 0 RETURN
INCL keyrupt_f.asm ; KEYRUPT handler
;==========================================================================
; KEYRUPT (file:keyrupt_f.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 77.
;==========================================================================
;--------------------------------------------------------------------------
; KEYRUPT -- KEYBOARD INTERRUPT HANDLER
;
; Performs keyRUPT functions. Triggered by a keyboard key entry. N-key
; rollover, implemented as follows: When an interrupt occurs, the current
; job record is saved and then restored when the job resumes after the
; interrupt. The job record includes MPAC, a set of general purpose
; registers assigned to the job. When the keyboard interrupt occurs, the
; interrupt handler stores the keyboard character in MPAC. A job is then
; started to process the character. The new job copies its MPAC fields from
; the current job, so the character is copied to storage owned by the job.
; When additional keyboard interrupts occur, they start their own jobs.
; Up to 7 jobs can be waiting in a queue for execution, so as many as
; 7 keyboard characters can be enqueued for processing. Since all keyboard
; jobs have the same priority, they are enqueued in the order received.
; Its OK for the keyboard handler to modify the MPAC of the interrupted job
; because the interrupted job's record is restored at the end of the
; interrupt service routine.
;
; Not included in my partial AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, so I had to improvise it from the original flow charts in
; E-1574, p.77.
;--------------------------------------------------------------------------
04131 4131 37776 0 CHRPRIO DS %37776 ; priority of CHARIN job (highest)
KEYPROG EQU *
04132 4132 3 0,0001 0 XCH Q
04133 4133 5 0,0601 0 TS KEYRET ; save return address
; prepare to EXEC a job to handle the keystroke.
04134 4134 3 0,0004 0 XCH IN0
04135 4135 7 2,4664 0 MASK LOW5
04136 4136 3 0,0130 0 XCH MPAC ; save keyboard code
04137 4137 3 0,0551 0 XCH KP_MPAC ; save previous MPAC
; create the job. It terminates when it finishes processing the key.
04140 4140 3 2,4131 0 CAF CHRPRIO ; CHARIN job priority
04141 4141 0 1,3162 1 TC NOVAC
04142 4142 12000 1 CADR CHARIN ; 14 bit CHARIN job address
04143 4143 3 0,0551 0 XCH KP_MPAC
04144 4144 3 0,0130 0 XCH MPAC ; restore previous MPAC
04145 4145 3 0,0601 0 XCH KEYRET
04146 4146 5 0,0001 0 TS Q ; restore return address
04147 4147 0 0,0000 0 RETURN
INCL math_f.asm ; DP math routines
;==========================================================================
; MATH LIBRARY (file:math_f.asm)
;
; Version: 1.0
; Author: John Pultorak
; Date: 03/01/2002
;
; PURPOSE:
; Contains double precision math routines.
;==========================================================================
;--------------------------------------------------------------------------
; TPAGREE
; Force the signs in a triple precision (TP) word to agree. The word is
; in MPAC, MPAC+1, MPAC+2
;
; The sign of the corrected number is always the sign of the most-significant
; non-zero word.
;
; This isn't included in my partial COLOSSUS listing, so I had to invent
; my own version.
;--------------------------------------------------------------------------
TPAGREE EQU *
04150 4150 3 0,0001 0 XCH Q
04151 4151 5 0,0577 1 TS MATH_Q ; return address
; Find the sign to convert to. It will be the sign
; of the most significant non-zero word.
TPA_SGN0 EQU *
04152 4152 1 0,0130 1 CCS MPAC
04153 4153 0 2,4157 0 TC TPA_P0 ; >0, sign will be +
04154 4154 0 2,4241 1 TC TPA_SGN1 ; +0, still don't know sign, check MPAC+1
04155 4155 0 2,4210 0 TC TPA_M0 ; <0, sign will be -
04156 4156 0 2,4241 1 TC TPA_SGN1 ; -0, still don't know sign, check MPAC+1
; MPAC is non-zero positive, so reconcile signs to a positive number.
TPA_P0 EQU *
04157 4157 1 0,0131 0 CCS MPAC+1
04160 4160 0 2,4250 1 TC TPA_P1+2 ; >0, MPAC+1 is OK, check MPAC+2
04161 4161 0 2,4167 0 TC TPA_PZ0 ; +0,
04162 4162 0 2,4164 0 TC *+2 ; <0, fix MPAC+1
04163 4163 0 2,4167 0 TC TPA_PZ0 ; -0,
04164 4164 3 2,4317 0 CAF TPA_MPAC0 ; borrow from MPAC to correct MPAC+1
04165 4165 0 2,4337 1 TC TPA_FIXP
04166 4166 0 2,4250 1 TC TPA_P1+2 ; MPAC+1 is now non-zero positive; check MPAC+2
; MPAC is non-zero positive, MPAC+1 is zero
TPA_PZ0 EQU *
04167 4167 1 0,0132 0 CCS MPAC+2
04170 4170 0 2,4175 0 TC *+5 ; >0, zero MPAC+1, MPAC+2 is OK
04171 4171 0 2,4173 0 TC *+2 ; +0, MPAC+1, +2 both zero
04172 4172 0 2,4200 1 TC TPA_PZ0FIX ; <0,
04173 4173 3 1,2050 0 CAF ZERO ; make sure they're both +0
04174 4174 5 0,0132 1 TS MPAC+2
04175 4175 3 1,2050 0 CAF ZERO
04176 4176 5 0,0131 1 TS MPAC+1
04177 4177 0 0,0577 1 TC MATH_Q
; MPAC is non-zero positive, MPAC+1 is zero, MPAC+2 is non-zero negative.
; Solution: borrow from MPAC, transfer borrowed value to MPAC+1, but also
; borrow from MPAC+1, use borrowed value to correct MPAC+2.
TPA_PZ0FIX EQU *
04200 4200 3 0,0132 1 XCH MPAC+2 ; move MPAC+2 to MPAC+1 so we can use
04201 4201 5 0,0131 1 TS MPAC+1 ; our standard correction function
04202 4202 3 2,4317 0 CAF TPA_MPAC0 ; borrow from MPAC to correct MPAC+1
04203 4203 0 2,4337 1 TC TPA_FIXP
04204 4204 3 2,4315 1 CAF MAXPOS ; move corrected value from MPAC+1 back
04205 4205 3 0,0131 1 XCH MPAC+1 ; to MPAC+2. Set MPAC+1 to correct value
04206 4206 5 0,0132 1 TS MPAC+2 ; borrowed from MPAC.
04207 4207 0 0,0577 1 TC MATH_Q
; The MPAC is non-zero negative, so reconcile signs to a negative number.
TPA_M0 EQU *
04210 4210 1 0,0131 0 CCS MPAC+1
04211 4211 0 2,4215 0 TC *+4 ; >0, fix MPAC+1
04212 4212 0 2,4220 0 TC TPA_MZ0 ; +0,
04213 4213 0 2,4264 0 TC TPA_M1+2 ; <0, MPAC+1 is OK, check MPAC+2
04214 4214 0 2,4220 0 TC TPA_MZ0 ; -0,
04215 4215 3 2,4317 0 CAF TPA_MPAC0 ; borrow from MPAC to correct MPAC+1
04216 4216 0 2,4321 0 TC TPA_FIXM
04217 4217 0 2,4264 0 TC TPA_M1+2
; MPAC is non-zero negative, MPAC+1 is zero
TPA_MZ0 EQU *
04220 4220 1 0,0132 0 CCS MPAC+2
04221 4221 0 2,4231 0 TC TPA_MZ0FIX ; >0,
04222 4222 0 2,4224 1 TC *+2 ; +0, MPAC+1, +2 both zero
04223 4223 0 2,4226 0 TC *+3 ; <0, zero MPAC+1, MPAC+2 is OK
04224 4224 3 1,2045 1 CAF NEG0 ; make sure they're both -0
04225 4225 5 0,0132 1 TS MPAC+2
04226 4226 3 1,2045 1 CAF NEG0
04227 4227 5 0,0131 1 TS MPAC+1
04230 4230 0 0,0577 1 TC MATH_Q
; MPAC is non-zero negative, MPAC+1 is zero, MPAC+2 is non-zero positive
; Solution: borrow from MPAC, transfer borrowed value to MPAC+1, but also
; borrow from MPAC+1, use borrowed value to correct MPAC+2.
TPA_MZ0FIX EQU *
04231 4231 3 0,0132 1 XCH MPAC+2 ; move MPAC+2 to MPAC+1 so we can use
04232 4232 5 0,0131 1 TS MPAC+1 ; our standard correction function
04233 4233 3 2,4317 0 CAF TPA_MPAC0 ; borrow from MPAC to correct MPAC+1
04234 4234 0 2,4321 0 TC TPA_FIXM
04235 4235 3 2,4316 1 CAF MAXNEG ; move corrected value from MPAC+1 back
04236 4236 3 0,0131 1 XCH MPAC+1 ; to MPAC+2. Set MPAC+1 to correct value
04237 4237 5 0,0132 1 TS MPAC+2 ; borrowed from MPAC.
04240 4240 0 0,0577 1 TC MATH_Q
; MPAC was zero, so we still don't know the sign. Check MPAC+1.
TPA_SGN1 EQU *
04241 4241 1 0,0131 0 CCS MPAC+1
04242 4242 0 2,4246 0 TC TPA_P1 ; >0, sign will be +
04243 4243 0 2,4277 1 TC TPA_SGN2 ; +0, still don't know sign, check MPAC+2
04244 4244 0 2,4262 0 TC TPA_M1 ; <0, sign will be -
04245 4245 0 2,4277 1 TC TPA_SGN2 ; -0, still don't know sign, check MPAC+2
; MPAC+1 is non-zero positive, so reconcile signs to a positive number.
TPA_P1 EQU *
04246 4246 3 1,2050 0 CAF ZERO
04247 4247 5 0,0130 0 TS MPAC ; set MPAC to +0
04250 4250 1 0,0132 0 CCS MPAC+2
04251 4251 0 0,0577 1 TC MATH_Q ; >0, all words are positive
04252 4252 0 0,0577 1 TC MATH_Q ; +0, all words are positive
04253 4253 0 2,4257 0 TC *+4 ; <0, MPAC+2 is nonzero -
04254 4254 3 1,2050 0 CAF ZERO ; -0, change to +0 and we're done
04255 4255 5 0,0132 1 TS MPAC+2
04256 4256 0 0,0577 1 TC MATH_Q
04257 4257 3 2,4320 1 CAF TPA_MPAC1 ; borrow from MPAC+1 to correct MPAC+2
04260 4260 0 2,4337 1 TC TPA_FIXP
04261 4261 0 0,0577 1 TC MATH_Q
; MPAC+1 is non-zero negative, so reconcile signs to a negative number.
TPA_M1 EQU *
04262 4262 3 1,2045 1 CAF NEG0
04263 4263 5 0,0130 0 TS MPAC ; set MPAC to -0
04264 4264 1 0,0132 0 CCS MPAC+2
04265 4265 0 2,4274 1 TC *+7 ; >0, MPAC+2 is nonzero +
04266 4266 0 2,4271 1 TC *+3 ; +0, change to -0 and we're done
04267 4267 0 0,0577 1 TC MATH_Q ; <0, all words are negative
04270 4270 0 0,0577 1 TC MATH_Q ; -0, all words are negative
04271 4271 3 1,2045 1 CAF NEG0 ; +0, change to -0 and we're done
04272 4272 5 0,0132 1 TS MPAC+2
04273 4273 0 0,0577 1 TC MATH_Q
04274 4274 3 2,4320 1 CAF TPA_MPAC1 ; borrow from MPAC+1 to correct MPAC+2
04275 4275 0 2,4321 0 TC TPA_FIXM
04276 4276 0 0,0577 1 TC MATH_Q
; MPAC and MPAC+1 were both zero, so we still don't know the sign.
; Check MPAC+2.
TPA_SGN2 EQU *
04277 4277 1 0,0132 0 CCS MPAC+2
04300 4300 0 2,4304 1 TC TPA_P2 ; >0, sign is +
04301 4301 0 2,4310 1 TC TPA_P3 ; +0, number is all zeros
04302 4302 0 2,4306 0 TC TPA_M2 ; <0, sign is -
04303 4303 0 2,4310 1 TC TPA_P3 ; -0, number is all zeros
04304 4304 3 1,2050 0 TPA_P2 CAF ZERO
04305 4305 0 2,4312 0 TC *+5 ; set MPAC, MPAC+1 to +0
04306 4306 3 1,2045 1 TPA_M2 CAF NEG0 ; set MPAC, MPAC+1 to -0
04307 4307 0 2,4312 0 TC *+3
04310 4310 3 1,2050 0 TPA_P3 CAF ZERO
04311 4311 5 0,0132 1 TS MPAC+2 ; set MPAC, MPAC+1, MPAC+2 to +0
04312 4312 5 0,0131 1 TS MPAC+1
04313 4313 5 0,0130 0 TS MPAC
04314 4314 0 0,0577 1 TC MATH_Q
04315 4315 37777 1 MAXPOS DS %37777 ; largest non-overflow pos number
04316 4316 40000 0 MAXNEG DS %40000 ; largest non-overflow neg number
04317 4317 00130 0 TPA_MPAC0 DS MPAC
04320 4320 00131 1 TPA_MPAC1 DS MPAC+1
;--------------------------------------------------------------------------
; TPA_FIXM
; Reconcile the signs in a double precision word. The most significant word
; is in C(A), the lesser word in C(A+1). Reconcilliation occurs by borrowing
; from C(A) and adding the borrowed amount to C(A+1). C(A) is assumed to be
; negative non-zero number and C(A+1) positive non-zero. The reconciliation
; makes both numbers negative.
;
; This is part of my implementation of TPAGREE.
;--------------------------------------------------------------------------
TPA_FIXM EQU *
04321 4321 5 0,0576 0 TS ADDRWD1
04322 4322 2 0,0576 1 INDEX ADDRWD1
04323 4323 4 0,0000 0 CS 0 ; borrow from 1st word
04324 4324 1 0,0000 0 CCS A
04325 4325 4 0,0000 0 COM
04326 4326 2 0,0576 1 INDEX ADDRWD1
04327 4327 5 0,0000 1 TS 0
04330 4330 3 2,4316 1 CAF MAXNEG
04331 4331 6 1,2046 1 AD NEG1 ; create negative overflow
04332 4332 2 0,0576 1 INDEX ADDRWD1
04333 4333 6 0,0001 0 AD 1 ; correct 2nd word, changes sign
04334 4334 2 0,0576 1 INDEX ADDRWD1
04335 4335 5 0,0001 0 TS 1
04336 4336 0 0,0001 0 TC Q
;--------------------------------------------------------------------------
; TPA_FIXP
; Reconcile the signs in a double precision word. The most significant word
; is in C(A), the lesser word in C(A+1). Reconcilliation occurs by borrowing
; from C(A) and adding the borrowed amount to C(A+1). C(A) is assumed to be
; positive non-zero number and C(A+1) negative non-zero. The reconciliation
; makes both numbers positive.
;
; This is part of my implementation of TPAGREE.
;--------------------------------------------------------------------------
TPA_FIXP EQU *
04337 4337 5 0,0576 0 TS ADDRWD1
04340 4340 2 0,0576 1 INDEX ADDRWD1
04341 4341 1 0,0000 0 CCS 0 ; borrow from 1st word
04342 4342 2 0,0576 1 INDEX ADDRWD1
04343 4343 5 0,0000 1 TS 0
04344 4344 3 2,4315 1 CAF MAXPOS
04345 4345 6 1,2051 1 AD ONE ; create positive overflow
04346 4346 2 0,0576 1 INDEX ADDRWD1
04347 4347 6 0,0001 0 AD 1 ; correct 2nd word, changes sign
04350 4350 2 0,0576 1 INDEX ADDRWD1
04351 4351 5 0,0001 0 TS 1
04352 4352 0 0,0001 0 TC Q
;--------------------------------------------------------------------------
; SHORTMP -- MULTIPLY DOUBLE WORD BY A SINGLE WORD
; Multiply C(MPAC, MPAC+1) by the contents of A. Put the product in MPAC,
; MPAC+1, MPAC+2.
;;
; These aren't included in my partial COLOSSUS listing, so I had to invent
; my own version.
;--------------------------------------------------------------------------
SHORTMP EQU *
04353 4353 5 0,0573 0 TS SHORTMP_A
; MPAC+2 = MPAC+1 * A
04354 4354 2 0,0000 1 EXTEND
04355 4355 4 0,0131 0 MP MPAC+1
04356 4356 5 0,0574 1 TS SHORTMP_OVFL
04357 4357 3 0,0003 1 XCH LP
04360 4360 5 0,0132 1 TS MPAC+2
; MPAC+1 = (MPAC * A) + overflow
04361 4361 3 0,0573 0 XCH SHORTMP_A
04362 4362 2 0,0000 1 EXTEND
04363 4363 4 0,0130 1 MP MPAC
04364 4364 5 0,0575 0 TS SHORTMP_OVFH
04365 4365 3 0,0003 1 XCH LP
04366 4366 6 0,0574 1 AD SHORTMP_OVFL
04367 4367 5 0,0131 1 TS MPAC+1 ; skip on overflow
04370 4370 3 1,2050 0 CAF ZERO ; otherwise, make interword carry=0
; MPAC = overflow
04371 4371 6 0,0575 0 AD SHORTMP_OVFH
04372 4372 5 0,0130 0 TS MPAC
04373 4373 0 0,0001 0 TC Q ; return
;--------------------------------------------------------------------------
; DMP -- DOUBLE PRECISION MULTIPLY
; Multiply val, val+1 with C(MPAC, MPAC+1). 'ADDRWD1' contains the
; address of 'val'. The product appears in MPAC, MPAC+1, MPAC+2
;
; This isn't included in my partial COLOSSUS listing, but is taken from
; the double precision math examples in R-393.
;--------------------------------------------------------------------------
DMP EQU *
04374 4374 2 0,0001 1 INDEX Q
04375 4375 3 0,0000 1 CAF 0
04376 4376 6 2,5777 0 AD EXTENDER
04377 4377 5 0,0576 0 TS ADDRWD1
04400 4400 3 0,0131 1 XCH MPAC+1
04401 4401 5 0,0034 0 TS OVCTR
04402 4402 2 0,0576 1 INDEX ADDRWD1
04403 4403 4 0,0001 1 MP 1
04404 4404 3 0,0034 0 XCH OVCTR
04405 4405 2 0,0576 1 INDEX ADDRWD1
04406 4406 4 0,0000 0 MP 0
04407 4407 3 0,0034 0 XCH OVCTR
04410 4410 6 0,0003 1 AD LP
04411 4411 3 0,0130 0 XCH MPAC
04412 4412 5 0,0132 1 TS MPAC+2
04413 4413 2 0,0576 1 INDEX ADDRWD1
04414 4414 4 0,0001 1 MP 1
04415 4415 3 0,0034 0 XCH OVCTR
04416 4416 3 0,0130 0 XCH MPAC
04417 4417 6 0,0003 1 AD LP
04420 4420 3 0,0132 1 XCH MPAC+2
04421 4421 2 0,0576 1 INDEX ADDRWD1
04422 4422 4 0,0000 0 MP 0
04423 4423 3 0,0034 0 XCH OVCTR
04424 4424 6 0,0130 0 AD MPAC
04425 4425 6 0,0003 1 AD LP
04426 4426 3 0,0131 1 XCH MPAC+1
04427 4427 3 0,0034 0 XCH OVCTR
04430 4430 5 0,0130 0 TS MPAC
04431 4431 3 0,0001 0 XCH Q ; skip next word on return
04432 4432 6 1,2051 1 AD ONE
04433 4433 5 0,0001 0 TS Q
04434 4434 0 0,0001 0 TC Q
BANKFF_1 EQU *
;-------------------------------------------------------------------------
; PINBALL
;
; Now, do the "pinball game" (DSKY) routines.
;
; Mimic the bank assignments in COLOSSUS. Since this is a block I AGC that
; has fewer banks, different bank numbers are used, but the sequence and
; relative allocation of routines to various banks is preserved.
;-------------------------------------------------------------------------
; don't change BANK04_1 without also changing V37BANK
BANK04_1 EQU BANK4 ; was BANK 04 in COLOSSUS
BANK40_1 EQU BANK5 ; was BANK 40 in COLOSSUS
BANK41_1 EQU BANK6 ; was BANK 41 in COLOSSUS
BANK42_1 EQU BANK7 ; was BANK 42 in COLOSSUS
BANK43_1 EQU BANK10 ; was BANK 43 in COLOSSUS
; start of COLOSSUS routines
ORG BANK04_1 ; COLOSSUS pp. 192-204
INCL bank04_1.asm
;==========================================================================
; MAJOR MODE CHANGE (file:bank04_1.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 192-204.
;==========================================================================
;--------------------------------------------------------------------------
; VERB 37
;
; In COLOSSUS, a successful V37 apparently also restarts the AGC. Here,
; we implement a subset of COLOSSUS to kick off a job associated with the
; verb.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.192-204.
;--------------------------------------------------------------------------
V37 EQU * ; verb 37
10000 4,0000 5 0,0464 1 TS MMNUMBER ; save major mode
; ** skipped quite a bit of guidance system-related code **
10001 4,0001 0 4,6005 1 TC CHECKTAB
; ** skipped more guidance system-related code **
V37BAD EQU *
10002 4,0002 0 2,5003 1 TC RELDSP ; releases display from astronaut
10003 4,0003 0 1,3653 1 TC POSTJUMP ; bring back last normal display if there
10004 4,0004 05067 0 CADR PINBRNCH ; was one, OY
; Search table for entry matching major mode number. Table entries
; are sorted by major mode number, so the search occurs in order from
; lowest number to highest.
CHECKTAB EQU *
10005 4,0005 3 1,2050 0 CAF ZERO ; was CA NOV37MM in Block II
10006 4,0006 6 4,6046 0 AD NOV37MM ; the no. of MM in table (minus 1)
10007 4,0007 5 0,0131 1 AGAINMM TS MPAC+1
10010 4,0010 3 1,2050 0 CAF ZERO ; was CA PREMM1 in Block II
10011 4,0011 2 0,0131 0 INDEX MPAC+1
10012 4,0012 6 4,6037 0 AD PREMM1 ; obtain which MM this is for
10013 4,0013 7 1,2101 1 MASK LOW7
10014 4,0014 4 0,0000 0 COM
10015 4,0015 6 0,0464 1 AD MMNUMBER
10016 4,0016 1 0,0000 0 CCS A ; MMNUMBER - current table MM number
10017 4,0017 1 0,0131 0 CCS MPAC+1 ; if GR, see if anymore in list
10020 4,0020 0 4,6007 0 TC AGAINMM ; yes, get next one (was TCF)
10021 4,0021 0 4,6026 0 TC V37NONO ; last time or passed MM (was TCF)
; Found the index into the major mode table for entry matching the
; major mode number input by the user.
10022 4,0022 3 1,2050 0 CAF ZERO ; was CA MPAC+1 in Block II
10023 4,0023 6 0,0131 1 AD MPAC+1
10024 4,0024 5 0,0463 0 TS MINDEX ; save index for later
10025 4,0025 0 1,2147 1 TC goMMchange ; in Block II, jumped to restart AGC
; Requested MM doesn't exist
V37NONO EQU *
10026 4,0026 0 2,4701 0 TC FALTON ; come here if MM requested doesn't exist
10027 4,0027 0 4,6002 0 TC V37BAD
;--------------------------------------------------------------------------
; FCADRMM
;
; For verb 37, two tables are maintained. Each table has an entry for each
; major mode that can be started from the keyboard. The entries are put
; into the table with the entry for the highest major mode coming first,
; to the lowest major mode which is the last entry in the table.
;
; The FCADRMM table contains the FCADR of the starting job of the major mode.
;
; The entries in this table must match the entries in PREMM1 below.
;--------------------------------------------------------------------------
FCADRMM1 EQU *
10030 4,0030 22147 0 CADR P79
10031 4,0031 22142 0 CADR P78
10032 4,0032 22127 0 CADR P04
10033 4,0033 22066 1 CADR P03
10034 4,0034 22036 1 CADR P02
10035 4,0035 22022 1 CADR P01
10036 4,0036 22000 1 CADR P00
; etc *********
;--------------------------------------------------------------------------
; PREMM1
;
; The PREMM1 table contains the E-bank, major mode, and priority information.
; It is in the following form:
;
; PPP PPE EEM MMM MMM
;
; Where,
; the 7 'M' bits contain the major mode number
; the 3 'E' bits contain the E-bank number (ignored in Block I)
; the 5 'P' bits contain the priority at which the job is to be started
;
; The entries in this table must match the entries in FCADRMM1 above.
;--------------------------------------------------------------------------
PREMM1 EQU *
10037 4,0037 26117 1 DS %26117 ; MM 79, PRIO 13
10040 4,0040 26116 0 DS %26116 ; MM 78, PRIO 13
10041 4,0041 26004 1 DS %26004 ; MM 04, PRIO 13
10042 4,0042 26003 0 DS %26003 ; MM 03, PRIO 13
10043 4,0043 26002 1 DS %26002 ; MM 02, PRIO 13
10044 4,0044 26001 1 DS %26001 ; MM 01, PRIO 13
10045 4,0045 26000 0 DS %26000 ; MM 00, PRIO 13
; etc *********
EPREMM1 EQU *
10046 4,0046 00006 1 NOV37MM DS EPREMM1-PREMM1-1 ; number of entries in table (minus 1)
BANK04_2 EQU *
ORG BANK40_1 ; COLOSSUS pp. 310-317
INCL bank40_1.asm
;==========================================================================
; PINBALL GAME (file:bank40_1.asm)
;
; AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.310-317.
;==========================================================================
;--------------------------------------------------------------------------
; CHARIN -- PROCESS KEYBOARD CHARACTER FROM KEYRUPT
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.310.
;--------------------------------------------------------------------------
CHARIN EQU *
12000 5,0000 3 1,2051 1 CAF ONE ; block display syst
12001 5,0001 3 0,0501 0 XCH DSPLOCK ; make dsp syst busy, but save old
12002 5,0002 5 0,0412 0 TS _2122REG ; C(DSPLOCK) for error light reset
12003 5,0003 1 0,0531 1 CCS CADRSTOR ; all keys except ER turn on KR lite if
12004 5,0004 0 5,6006 1 TC *+2 ; CADRSTOR is full. This reminds operator
12005 5,0005 0 5,6016 0 TC CHARIN2 ; to re-establish a flashing display
12006 5,0006 4 5,6062 1 CS ELRCODE1 ; which he has obscured with displays of
12007 5,0007 6 0,0130 0 AD MPAC ; his own (see remarks preceding routine
; VBRELDSP).
12010 5,0010 1 0,0000 0 CCS A ; was BZF CHARIN2 in Block II
12011 5,0011 0 5,6015 0 TC *+4 ; >0
12012 5,0012 0 5,6014 1 TC *+2 ; +0
12013 5,0013 0 5,6015 0 TC *+2 ; <0
12014 5,0014 0 5,6016 0 TC CHARIN2 ; -0
12015 5,0015 0 2,4713 0 TC RELDSPON
CHARIN2 EQU *
12016 5,0016 3 0,0130 0 XCH MPAC
12017 5,0017 5 0,0414 0 TS CHAR
12020 5,0020 2 0,0000 0 INDEX A
12021 5,0021 0 5,6022 1 TC *+1 ; input_code function
12022 5,0022 0 5,7307 1 TC CHARALRM ; 0
12023 5,0023 0 5,6101 1 TC NUM ; 1
12024 5,0024 0 5,6101 1 TC NUM ; 2
12025 5,0025 0 5,6101 1 TC NUM ; 3
12026 5,0026 0 5,6101 1 TC NUM ; 4
12027 5,0027 0 5,6101 1 TC NUM ; 5
12030 5,0030 0 5,6101 1 TC NUM ; 6
12031 5,0031 0 5,6101 1 TC NUM ; 7
12032 5,0032 0 5,6065 1 TC _89TEST
12033 5,0033 0 5,6065 1 TC _89TEST ; 11 9
12034 5,0034 0 5,7307 1 TC CHARALRM ; 12
12035 5,0035 0 5,7307 1 TC CHARALRM ; 13
12036 5,0036 0 5,7307 1 TC CHARALRM ; 14
12037 5,0037 0 5,7307 1 TC CHARALRM ; 15
12040 5,0040 0 5,7307 1 TC CHARALRM ; 16
12041 5,0041 0 5,7307 1 TC CHARALRM ; 17
12042 5,0042 0 5,6077 1 TC NUM-2 ; 20 0
12043 5,0043 0 5,6272 0 TC VERB ; 21 VERB
12044 5,0044 0 5,7462 0 TC ERROR ; 22 ERROR LIGHT RESET
12045 5,0045 0 5,7307 1 TC CHARALRM ; 23
12046 5,0046 0 5,7307 1 TC CHARALRM ; 24
12047 5,0047 0 5,7307 1 TC CHARALRM ; 25
12050 5,0050 0 5,7307 1 TC CHARALRM ; 26
12051 5,0051 0 5,7307 1 TC CHARALRM ; 27
12052 5,0052 0 5,7307 1 TC CHARALRM ; 30
12053 5,0053 0 5,7327 0 TC VBRELDSP ; 31 KEY RELEASE
12054 5,0054 0 5,6326 0 TC POSGN ; 32 +
12055 5,0055 0 5,6312 1 TC NEGSGN ; 33 -
12056 5,0056 0 5,6063 1 TC ENTERJMP ; 34 ENTER
12057 5,0057 0 5,7307 1 TC CHARALRM ; 35
12060 5,0060 0 5,6412 0 TC CLEAR ; 36 CLEAR
12061 5,0061 0 5,6306 1 TC NOUN ; 37 NOUN
12062 5,0062 00022 1 ELRCODE1 DS %22
12063 5,0063 0 1,3653 1 ENTERJMP TC POSTJUMP
12064 5,0064 14002 0 DS ENTER
_89TEST EQU *
12065 5,0065 1 0,0466 1 CCS DSPCOUNT
12066 5,0066 0 5,6072 1 TC *+4 ; >0
12067 5,0067 0 5,6072 1 TC *+3 ; +0
12070 5,0070 0 1,2723 0 TC ENDOFJOB ; <0, block data in if DSPCOUNT is <0 or -0
12071 5,0071 0 1,2723 0 TC ENDOFJOB ; -0
12072 5,0072 3 1,2053 0 CAF THREE
12073 5,0073 7 0,0467 0 MASK DECBRNCH
12074 5,0074 1 0,0000 0 CCS A
12075 5,0075 0 5,6101 1 TC NUM ; if DECBRNCH is +, 8 or 9 OK
12076 5,0076 0 5,7307 1 TC CHARALRM ; if DECBRNCH is +0, reject 8 or 9
;--------------------------------------------------------------------------
; NUM -- PROCESS NUMERICAL KEYBOARD CHARACTER
; Assembles octal, 3 bits at a time. For decimal, it converts incoming word
; as a fraction, keeping results to DP (double precision).
; Octal results are left in XREG, YREG, or ZREG. High part of DEC in XREG,
; YREG, ZREG; the low parts in XREGLP, YREGLP, or ZREGLP).
; DECBRNCH is left at +0 for octal, +1 for +DEC, +2 for -DEC.
; If DSPCOUNT was left -, no more data is accepted.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.311.
;--------------------------------------------------------------------------
12077 5,0077 3 1,2050 0 CAF ZERO
12100 5,0100 5 0,0414 0 TS CHAR
NUM EQU *
12101 5,0101 1 0,0466 1 CCS DSPCOUNT
12102 5,0102 0 5,6106 0 TC *+4 ; >0
12103 5,0103 0 5,6106 0 TC *+3 ; +0
12104 5,0104 0 5,6105 0 TC *+1 ; <0, block datain if DSPCOUNT is <0 or -0
12105 5,0105 0 1,2723 0 TC ENDOFJOB ; -0
12106 5,0106 0 5,6241 0 TC GETINREL
12107 5,0107 1 0,0504 1 CCS CLPASS ; if CLPASS is >0 or +0, make it +0
12110 5,0110 3 1,2050 0 CAF ZERO
12111 5,0111 5 0,0504 0 TS CLPASS
12112 5,0112 0 5,6113 1 TC *+1
12113 5,0113 2 0,0414 1 INDEX CHAR
12114 5,0114 3 1,3772 0 CAF RELTAB
12115 5,0115 7 2,4664 0 MASK LOW5
12116 5,0116 5 0,0421 0 TS CODE
12117 5,0117 3 1,2050 0 CAF ZERO ; was CA DSPCOUNT in Block II
12120 5,0120 6 0,0466 0 AD DSPCOUNT
12121 5,0121 5 0,0440 1 TS COUNT
12122 5,0122 0 5,7161 0 TC DSPIN
12123 5,0123 3 1,2053 0 CAF THREE
12124 5,0124 7 0,0467 0 MASK DECBRNCH
12125 5,0125 1 0,0000 0 CCS A ; +0=octal, +1=+dec, +2=-dec
12126 5,0126 0 5,6137 1 TC DECTOBIN ; >0
12127 5,0127 2 0,0434 0 INDEX INREL ; +0 (octal)
12130 5,0130 3 0,0470 1 XCH VERBREG
12131 5,0131 5 0,0022 1 TS CYL
12132 5,0132 4 0,0022 0 CS CYL
12133 5,0133 4 0,0022 0 CS CYL
12134 5,0134 3 0,0022 1 XCH CYL
12135 5,0135 6 0,0414 0 AD CHAR
12136 5,0136 0 5,6155 0 TC ENDNMTST
DECTOBIN EQU *
12137 5,0137 2 0,0434 0 INDEX INREL
12140 5,0140 3 0,0470 1 XCH VERBREG
12141 5,0141 5 0,0130 0 TS MPAC ; sum x 2EXP-14 in MPAC
12142 5,0142 3 1,2050 0 CAF ZERO
12143 5,0143 5 0,0131 1 TS MPAC+1
12144 5,0144 3 1,2060 0 CAF TEN ; 10 x 3EXP-14
12145 5,0145 0 2,4353 0 TC SHORTMP ; 10SUM x 2EXP-28 in MPAC, MPAC+1
12146 5,0146 3 0,0131 1 XCH MPAC+1
12147 5,0147 6 0,0414 0 AD CHAR
12150 5,0150 5 0,0131 1 TS MPAC+1
12151 5,0151 0 5,6155 0 TC ENDNMTST ; no overflow
12152 5,0152 6 0,0130 0 AD MPAC ; overflow, must be 5th character
12153 5,0153 5 0,0130 0 TS MPAC
12154 5,0154 0 5,6176 1 TC DECEND
ENDNMTST EQU *
12155 5,0155 2 0,0434 0 INDEX INREL
12156 5,0156 5 0,0470 1 TS VERBREG
12157 5,0157 4 0,0466 1 CS DSPCOUNT
12160 5,0160 2 0,0434 0 INDEX INREL
12161 5,0161 6 5,6232 1 AD CRITCON
12162 5,0162 1 0,0000 0 CCS A ; was BZF ENDNUM in Block II
12163 5,0163 0 5,6167 1 TC *+4 ; >0
12164 5,0164 0 5,6166 0 TC *+2 ; +0, DSPCOUNT = CRITCON
12165 5,0165 0 5,6167 1 TC *+2 ; <0
12166 5,0166 0 5,6170 1 TC ENDNUM ; -0
12167 5,0167 0 5,6227 0 TC MORNUM ; - , DSPCOUNT G/ CRITCON
ENDNUM EQU *
12170 5,0170 3 1,2053 0 CAF THREE
12171 5,0171 7 0,0467 0 MASK DECBRNCH
12172 5,0172 1 0,0000 0 CCS A
12173 5,0173 0 5,6176 1 TC DECEND
ENDALL EQU *
12174 5,0174 4 0,0466 1 CS DSPCOUNT ; block NUMIN by placing DSPCOUNT
12175 5,0175 0 5,6230 0 TC MORNUM+1 ; negatively
DECEND EQU *
12176 5,0176 4 1,2051 0 CS ONE
12177 5,0177 6 0,0434 1 AD INREL
12200 5,0200 1 0,0000 0 CCS A ; was BZMF ENDALL in Block II
12201 5,0201 0 5,6205 0 TC *+4 ; >0
12202 5,0202 0 5,6204 1 TC *+2 ; +0, INREL=0,1(VBREG,NNREG), leave whole
12203 5,0203 0 5,6204 1 TC *+1 ; <0, INREL=0,1(VBREG,NNREG), leave whole
12204 5,0204 0 5,6174 0 TC ENDALL ; -0, INREL=0,1(VBREG,NNREG), leave whole
12205 5,0205 0 2,4374 0 TC DMP ; if INREL=2,3,4(R1,R2,R3), convert to frac
; mult sum x2EXP-28 in MPAC, MPAC+1 by
12206 5,0206 06237 1 ADRES DECON ; 2EXP14/10EPX5. Gives(sum/10EXP5)x2EXP-14
; in MPAC, +1, +2
12207 5,0207 3 1,2053 0 CAF THREE
12210 5,0210 7 0,0467 0 MASK DECBRNCH
12211 5,0211 2 0,0000 0 INDEX A
12212 5,0212 0 5,6212 0 TC *+0
12213 5,0213 0 5,6220 1 TC PDECSGN
12214 5,0214 4 0,0131 0 CS MPAC+1 ; - case (was DCS, DXCH in Block II)
12215 5,0215 5 0,0131 1 TS MPAC+1
12216 5,0216 4 0,0132 0 CS MPAC+2
12217 5,0217 5 0,0132 1 TS MPAC+2
PDECSGN EQU *
12220 5,0220 3 0,0132 1 XCH MPAC+2
12221 5,0221 2 0,0434 0 INDEX INREL
12222 5,0222 5 0,0473 1 TS XREGLP-2
12223 5,0223 3 0,0131 1 XCH MPAC+1
12224 5,0224 2 0,0434 0 INDEX INREL
12225 5,0225 5 0,0470 1 TS VERBREG
12226 5,0226 0 5,6174 0 TC ENDALL
MORNUM EQU *
12227 5,0227 1 0,0466 1 CCS DSPCOUNT ; decrement DSPCOUNT
12230 5,0230 5 0,0466 0 TS DSPCOUNT
12231 5,0231 0 1,2723 0 TC ENDOFJOB
CRITCON EQU *
12232 5,0232 00022 1 DS %22 ; dec 18
12233 5,0233 00020 0 DS %20 ; dec 16
12234 5,0234 00012 1 DS %12 ; dec 10
12235 5,0235 00005 1 DS %5
12236 5,0236 00000 1 DS %0
DECON EQU *
12237 5,0237 05174 0 DS %05174 ; 2EXP14/10EXP5 = .16384 DEC
12240 5,0240 13261 0 DS %13261
;--------------------------------------------------------------------------
; GETINREL
; Gets proper data register relative address for current C(DSPCOUNT) and
; puts into INREL: +0 VERBREG, 1 NOUNREG, 2 XREG, 3 YREG, 4 ZREG
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.313.
;--------------------------------------------------------------------------
GETINREL EQU *
12241 5,0241 2 0,0466 1 INDEX DSPCOUNT
12242 5,0242 3 5,6245 1 CAF INRELTAB
12243 5,0243 5 0,0434 1 TS INREL ; (A TEMP, REG)
12244 5,0244 0 0,0001 0 TC Q
INRELTAB EQU *
12245 5,0245 00004 0 DS %4 ; R3D5, 0 = DSPCOUNT
12246 5,0246 00004 0 DS %4 ; R3D4, 1
12247 5,0247 00004 0 DS %4 ; R3D3, 2
12250 5,0250 00004 0 DS %4 ; R3D2, 3
12251 5,0251 00004 0 DS %4 ; R3D1, 4
12252 5,0252 00003 1 DS %3 ; R2D5, 5
12253 5,0253 00003 1 DS %3 ; R2D4, 6
12254 5,0254 00003 1 DS %3 ; R2D3, 7
12255 5,0255 00003 1 DS %3 ; R2D2, 8D
12256 5,0256 00003 1 DS %3 ; R2D1, 9D
12257 5,0257 00002 0 DS %2 ; R1D5, 10D
12260 5,0260 00002 0 DS %2 ; R1D4, 11D
12261 5,0261 00002 0 DS %2 ; R1D3, 12D
12262 5,0262 00002 0 DS %2 ; R1D2, 13D
12263 5,0263 00002 0 DS %2 ; R1D1, 14D
12264 5,0264 0 5,6271 0 TC CCSHOLE ; no DSPCOUNT numbers
12265 5,0265 00001 0 DS %1 ; ND2, 16D
12266 5,0266 00001 0 DS %1 ; ND1, 17D
12267 5,0267 00000 1 DS %0 ; VD2, 18D
12270 5,0270 00000 1 DS %0 ; VD1, 19D
12271 5,0271 0 1,2723 0 CCSHOLE TC ENDOFJOB ; can't find this anywhere; best guess
;--------------------------------------------------------------------------
; VERB
; Verb key was pressed; prepare to enter a 2 decimal digit verb.
; Blank the verb display and call ENDOFJOB.
;
; NOUN
; Noun key was pressed; prepare to enter a 2 decimal digit noun.
; Blank the noun display and call ENDOFJOB.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.314.
;--------------------------------------------------------------------------
VERB EQU *
12272 5,0272 3 1,2050 0 CAF ZERO
12273 5,0273 5 0,0470 1 TS VERBREG
12274 5,0274 3 2,4675 1 CAF VD1
NVCOM EQU *
12275 5,0275 5 0,0466 0 TS DSPCOUNT
12276 5,0276 0 5,6540 0 TC _2BLANK
12277 5,0277 3 1,2051 1 CAF ONE
12300 5,0300 5 0,0467 1 TS DECBRNCH ; set for dec V/N code
12301 5,0301 3 1,2050 0 CAF ZERO
12302 5,0302 5 0,0502 0 TS REQRET ; set for ENTPAS0
12303 5,0303 3 2,4553 0 CAF ENDINST ; if DSPALARM occurs before first ENTPAS0
12304 5,0304 5 0,0433 0 TS ENTRET ; or NVSUB, ENTRET must already be set
; to TC ENDOFJOB
12305 5,0305 0 1,2723 0 TC ENDOFJOB
NOUN EQU *
12306 5,0306 3 1,2050 0 CAF ZERO
12307 5,0307 5 0,0471 0 TS NOUNREG
12310 5,0310 3 2,4676 1 CAF ND1 ; ND1, OCT 21 (DEC 17)
12311 5,0311 0 5,6275 1 TC NVCOM
;--------------------------------------------------------------------------
; NEGSGN
; Turn the minus sign on for the register selected by DSPCOUNT.
; Call ENDOFJOB when done.
;
; POSGN
; Turn the plus sign on for the register selected by DSPCOUNT.
; Call ENDOFJOB when done.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.314.
;--------------------------------------------------------------------------
NEGSGN EQU *
12312 5,0312 0 5,6367 0 TC SIGNTEST
12313 5,0313 0 5,6353 1 TC M_ON
12314 5,0314 3 1,2052 1 CAF TWO
BOTHSGN EQU *
12315 5,0315 2 0,0434 0 INDEX INREL ; set DEC compu bit to 1 (in DECBRNCH)
12316 5,0316 6 1,2072 0 AD BIT7 ; Bit 5 for R1, bit 4 for R2, bit 3 for R3
12317 5,0317 6 0,0467 1 AD DECBRNCH
12320 5,0320 5 0,0467 1 TS DECBRNCH
PIXCLPAS EQU *
12321 5,0321 1 0,0504 1 CCS CLPASS ; if CLPASS is + or +0, make it +0
12322 5,0322 3 1,2050 0 CAF ZERO
12323 5,0323 5 0,0504 0 TS CLPASS
12324 5,0324 0 5,6325 0 TC *+1
12325 5,0325 0 1,2723 0 TC ENDOFJOB
POSGN EQU *
12326 5,0326 0 5,6367 0 TC SIGNTEST
12327 5,0327 0 5,6332 0 TC P_ON
12330 5,0330 3 1,2051 1 CAF ONE
12331 5,0331 0 5,6315 0 TC BOTHSGN
;--------------------------------------------------------------------------
; P_ON
; Turn the plus sign on for register selected by DSPCOUNT.
; Return when done.
;
; M_ON
; Turn the minus sign on for register selected by DSPCOUNT.
; Return when done.
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.314.
;--------------------------------------------------------------------------
P_ON EQU *
12332 5,0332 3 0,0001 0 XCH Q ; was LXCH Q in block II
12333 5,0333 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
12334 5,0334 0 5,6241 0 TC GETINREL
12335 5,0335 2 0,0434 0 INDEX INREL
12336 5,0336 3 5,6362 0 CAF SGNTAB-2
12337 5,0337 5 0,0420 1 TS SGNOFF
12340 5,0340 6 1,2051 1 AD ONE
12341 5,0341 5 0,0417 0 TS SGNON
SGNCOM EQU *
12342 5,0342 3 1,2050 0 CAF ZERO
12343 5,0343 5 0,0421 0 TS CODE
12344 5,0344 3 0,0420 1 XCH SGNOFF
12345 5,0345 0 5,7253 1 TC _11DSPIN
12346 5,0346 3 1,2066 0 CAF BIT11
12347 5,0347 5 0,0421 0 TS CODE
12350 5,0350 3 0,0417 0 XCH SGNON
12351 5,0351 0 5,7253 1 TC _11DSPIN
12352 5,0352 0 0,0547 1 TC LXCH_LPRET ; return
M_ON EQU *
12353 5,0353 3 0,0001 0 XCH Q ; was LXCH Q in block II
12354 5,0354 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
12355 5,0355 0 5,6241 0 TC GETINREL
12356 5,0356 2 0,0434 0 INDEX INREL
12357 5,0357 3 5,6362 0 CAF SGNTAB-2
12360 5,0360 5 0,0417 0 TS SGNON
12361 5,0361 6 1,2051 1 AD ONE
12362 5,0362 5 0,0420 1 TS SGNOFF
12363 5,0363 0 5,6342 1 TC SGNCOM
SGNTAB EQU *
12364 5,0364 00005 1 DS %5 ; -R1
12365 5,0365 00003 1 DS %3 ; -R2
12366 5,0366 00000 1 DS %0 ; -R3
;--------------------------------------------------------------------------
; SIGNTEST
; Test whether this is a valid point for entering a + or - sign character.
; Returns if valid; calls ENDOFJOB if invalid.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.314.
;--------------------------------------------------------------------------
SIGNTEST EQU *
12367 5,0367 3 0,0001 0 XCH Q ; was LXCH Q in block II
12370 5,0370 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
; allows +,- only when DSPCOUNT=R1D1
12371 5,0371 3 1,2053 0 CAF THREE ; R2D1, or D3D1. Allows only first of
12372 5,0372 7 0,0467 0 MASK DECBRNCH ; consecutive +/- characters.
12373 5,0373 1 0,0000 0 CCS A ; if low2 bits of DECBRNCH not=0, sign
12374 5,0374 0 1,2723 0 TC ENDOFJOB ; for this word already in, reject.
12375 5,0375 4 2,4635 1 CS R1D1
12376 5,0376 0 5,6404 1 TC SGNTST1 ; DSPCOUNT is R1D1?
12377 5,0377 4 2,4636 1 CS R2D1
12400 5,0400 0 5,6404 1 TC SGNTST1
12401 5,0401 4 2,4637 0 CS R3D1
12402 5,0402 0 5,6404 1 TC SGNTST1
12403 5,0403 0 1,2723 0 TC ENDOFJOB ; no match found, sign illegal
SGNTST1 EQU *
12404 5,0404 6 0,0466 0 AD DSPCOUNT
12405 5,0405 1 0,0000 0 CCS A ; was BZF *+2 in Block II
12406 5,0406 0 0,0001 0 TC Q ; >0, no match, check next register
12407 5,0407 0 0,0547 1 TC LXCH_LPRET ; +0, match found, sign is legal
12410 5,0410 0 0,0001 0 TC Q ; <0, no match, check next register
12411 5,0411 0 0,0547 1 TC LXCH_LPRET ; -0, match found, sign is legal
;--------------------------------------------------------------------------
; CLEAR -- PROCESS CLEAR KEY
; Clear blanks which R1, R2, R3 is current or last to be displayed (pertinent
; XREG, YREG, ZREG is cleared). Successive clears take care of each RX L/
; RC until R1 is done, then no further action.
;
; The single component load verbs allow only the single RC that is appropriate
; to be cleared.
;
; CLPASS = 0, PASSO, can be backed up
; CLPASS = +NZ, HIPASS, can be backed up
; CLPASS = -NZ, PASSO, cannot be backed up
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.316.
;--------------------------------------------------------------------------
CLEAR EQU *
12412 5,0412 1 0,0466 1 CCS DSPCOUNT
12413 5,0413 6 1,2051 1 AD ONE
12414 5,0414 0 5,6416 1 TC *+2
12415 5,0415 6 1,2051 1 AD ONE
12416 5,0416 2 0,0000 0 INDEX A ; do not change DSPCOUNT because may later
12417 5,0417 3 5,6245 1 CAF INRELTAB ; fail LEGALTST
12420 5,0420 5 0,0434 1 TS INREL ; must set INREL, even for HIPASS
12421 5,0421 1 0,0504 1 CCS CLPASS
12422 5,0422 0 5,6431 1 TC CLPASHI ; +
12423 5,0423 0 5,6425 1 TC *+2 ; +0, if CCLPASS is +0 or -, it is PASS0
12424 5,0424 0 5,6425 1 TC *+1 ; -
12425 5,0425 3 1,2050 0 CAF ZERO ; was CA INREL in Block II
12426 5,0426 6 0,0434 1 AD INREL
12427 5,0427 0 5,6464 1 TC LEGALTST
12430 5,0430 0 5,6454 1 TC CLEAR1
CLPASHI EQU *
12431 5,0431 1 0,0434 0 CCS INREL
12432 5,0432 5 0,0434 1 TS INREL
12433 5,0433 0 5,6464 1 TC LEGALTST
12434 5,0434 3 5,6536 1 CAF DOUBLK+2 ; +3 to - number, backs data requests
12435 5,0435 6 0,0502 0 AD REQRET ; was ADS REQRET in Block II
12436 5,0436 5 0,0502 0 TS REQRET
12437 5,0437 3 1,2050 0 CAF ZERO ; was CA INREL in Block II
12440 5,0440 6 0,0434 1 AD INREL
12441 5,0441 5 0,0422 0 TS MIXTEMP ; temp storage for INREL
12442 5,0442 1 0,0470 0 CCS VERBREG ; was DIM VERBREG in Block II
12443 5,0443 0 5,6446 1 TC *+3
12444 5,0444 0 5,6446 1 TC *+2
12445 5,0445 0 5,6446 1 TC *+1
12446 5,0446 5 0,0470 1 TS VERBREG ; decrement VERB and redisplay
12447 5,0447 0 1,3565 1 TC BANKCALL
12450 5,0450 14327 1 DS UPDATVB
12451 5,0451 3 1,2050 0 CAF ZERO ; was CA MIXTEMP in Block II
12452 5,0452 6 0,0422 0 AD MIXTEMP
12453 5,0453 5 0,0434 1 TS INREL ; restore INREL
CLEAR1 EQU *
12454 5,0454 0 5,6461 1 TC CLR5
12455 5,0455 3 0,0504 0 XCH CLPASS ; was INCR CLPASS in Block II
12456 5,0456 6 1,2051 1 AD ONE
12457 5,0457 5 0,0504 0 TS CLPASS ; only if CLPASS is + or +0
12460 5,0460 0 1,2723 0 TC ENDOFJOB ; set for higher pass
;--------------------------------------------------------------------------
; CLR5
; blanks 5 char display word by calling _5BLANK, but avoids TC GETINREL.
; Returns when done.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.316.
;--------------------------------------------------------------------------
CLR5 EQU *
12461 5,0461 3 0,0001 0 XCH Q ; was LXCH Q in block II
12462 5,0462 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
12463 5,0463 0 5,6476 1 TC _5BLANK+3 ; uses _5BLANK, but avoids its TC GETINREL
;--------------------------------------------------------------------------
; LEGALTST
; Returns if LEGAL, calls ENDOFJOB if illegal.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.316.
;--------------------------------------------------------------------------
LEGALTST EQU *
12464 5,0464 6 1,2047 0 AD NEG2
12465 5,0465 1 0,0000 0 CCS A
12466 5,0466 0 0,0001 0 TC Q ; LEGAL, INREL G/ 2
12467 5,0467 0 5,6271 0 TC CCSHOLE
12470 5,0470 0 1,2723 0 TC ENDOFJOB ; ILLEGAL, INREL = 0, 1
12471 5,0471 0 0,0001 0 TC Q ; LEGAL, INREL = 2
;--------------------------------------------------------------------------
; _5BLANK
; blanks 5 char display word in R1,R2,or R3. It also zeroes XREG, YREG or
; ZREG. Place any + DSPCOUNT number for pertinent RC into DSPCOUNT.
; DSPCOUNT is left set to left most DSP numb for RC just blanked.
; Returns when done.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.316.
;--------------------------------------------------------------------------
12472 5,0472 5 0,0466 0 TS DSPCOUNT ; needed for BLANKSUB
_5BLANK EQU *
12473 5,0473 3 0,0001 0 XCH Q ; was LXCH Q in block II
12474 5,0474 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
12475 5,0475 0 5,6241 0 TC GETINREL
12476 5,0476 3 1,2050 0 CAF ZERO
12477 5,0477 2 0,0434 0 INDEX INREL
12500 5,0500 5 0,0470 1 TS VERBREG ; zero X, Y, Z reg
12501 5,0501 2 0,0434 0 INDEX INREL
12502 5,0502 5 0,0473 1 TS XREGLP-2
12503 5,0503 5 0,0421 0 TS CODE
12504 5,0504 2 0,0434 0 INDEX INREL ; zero pertinent DEC comp bit
12505 5,0505 4 1,2072 1 CS BIT7
12506 5,0506 7 0,0467 0 MASK DECBRNCH
12507 5,0507 7 5,6537 1 MASK BRNCHCON ; zero low 3 bits
12510 5,0510 5 0,0467 1 TS DECBRNCH
12511 5,0511 2 0,0434 0 INDEX INREL
12512 5,0512 3 5,6527 1 CAF SINBLANK-2 ; blank isolated char separately
12513 5,0513 5 0,0440 1 TS COUNT
12514 5,0514 0 5,7161 0 TC DSPIN
_5BLANK1 EQU *
12515 5,0515 2 0,0434 0 INDEX INREL
12516 5,0516 3 5,6532 0 CAF DOUBLK-2
12517 5,0517 5 0,0466 0 TS DSPCOUNT
12520 5,0520 0 5,6540 0 TC _2BLANK
12521 5,0521 4 1,2052 0 CS TWO
12522 5,0522 6 0,0466 0 AD DSPCOUNT ; was ADS DSPCOUNT in Block II
12523 5,0523 5 0,0466 0 TS DSPCOUNT
12524 5,0524 0 5,6540 0 TC _2BLANK
12525 5,0525 2 0,0434 0 INDEX INREL
12526 5,0526 3 2,4633 0 CAF R1D1-2
12527 5,0527 5 0,0466 0 TS DSPCOUNT ; set DSPCOUNT to leftmost DSP number
12530 5,0530 0 0,0547 1 TC LXCH_LPRET ; of REG, just blanked
SINBLANK EQU *
12531 5,0531 00016 0 DS %16 ; DEC 14
12532 5,0532 00005 1 DS %5
12533 5,0533 00004 0 DS %4
DOUBLK EQU *
12534 5,0534 00015 0 DS %15 ; DEC 13
12535 5,0535 00011 1 DS %11 ; DEC 9
12536 5,0536 00003 1 DS %3
12537 5,0537 77774 0 BRNCHCON DS %77774
;--------------------------------------------------------------------------
; _2BLANK
; blanks 2 char, place DSP number of left char of the pair into DSPCOUNT.
; This number is left in DSPCOUNT. Returns when done.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.317.
;--------------------------------------------------------------------------
_2BLANK EQU *
12540 5,0540 3 0,0001 0 XCH Q
12541 5,0541 5 0,0602 0 TS SAVEQ
12542 5,0542 3 1,2050 0 CAF ZERO ; was CA DSPCOUNT in Block II
12543 5,0543 6 0,0466 0 AD DSPCOUNT
12544 5,0544 5 0,0021 1 TS SR
12545 5,0545 4 5,6563 0 CS BLANKCON
12546 5,0546 2 0,0000 0 INHINT
12547 5,0547 2 0,0021 0 INDEX SR
12550 5,0550 3 0,0512 1 XCH DSPTAB
12551 5,0551 1 0,0000 0 CCS A ; was BZMF *+2 in Block II
12552 5,0552 0 5,6556 1 TC *+4 ; >0
12553 5,0553 0 5,6555 1 TC *+2 ; +0, if old contents -, NOUT OK
12554 5,0554 0 5,6555 1 TC *+1 ; <0, if old contents -, NOUT OK
12555 5,0555 0 5,6557 0 TC *+2 ; -0, if old contents -, NOUT OK
12556 5,0556 3 0,0505 1 XCH NOUT ; was INCR NOUT in Block II
12557 5,0557 6 1,2051 1 AD ONE
12560 5,0560 5 0,0505 1 TS NOUT ; if old contents +, +1 to NOUT
12561 5,0561 2 0,0000 1 RELINT
12562 5,0562 0 0,0602 0 TC SAVEQ
12563 5,0563 04000 0 BLANKCON DS %4000
BANK40_2 EQU *
ORG BANK41_1 ; COLOSSUS pp. 318-329
INCL bank41_1.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank41_1.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 318-329.
;==========================================================================
;--------------------------------------------------------------------------
; ENTER -- PROCESS ENTER KEY
; Enter pass 0 is the execute function. Higher order enters are to load
; data. The sign of REQRET determines the pass, + for pass 0, - for higher
; passes.
; Machine CADR to be specified (MCTBS) nouns desire an ECADR to be loaded
; when used with load verbs, monitor verbs, or display verbs (except
; verb = fixed memory display, which requires a FCADR).
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.318.
;--------------------------------------------------------------------------
14000 6,0000 0 6,7505 0 NVSUBR TC NVSUB1 ; standard lead-ins, don't move
14001 6,0001 0 6,6723 1 LOADLV1 TC LOADLV
ENTER EQU *
14002 6,0002 3 1,2050 0 CAF ZERO
14003 6,0003 5 0,0504 0 TS CLPASS
14004 6,0004 3 2,4553 0 CAF ENDINST
14005 6,0005 5 0,0433 0 TS ENTRET
14006 6,0006 1 0,0502 1 CCS REQRET
14007 6,0007 0 6,6040 0 TC ENTPAS0 ; if +, pass 0
14010 6,0010 0 6,6040 0 TC ENTPAS0 ; if +, pass 0
14011 6,0011 0 6,6012 1 TC *+1 ; if -, not pass 0
; not first pass thru ENTER, so enter data word
ENTPASHI EQU *
14012 6,0012 3 6,6036 1 CAF MMADREF
14013 6,0013 6 0,0502 0 AD REQRET ; if L/2 char in for MM code, alarm
14014 6,0014 1 0,0000 0 CCS A ; and recycle (decide at MMCHANG+1)
14015 6,0015 0 6,6021 1 TC *+4 ; >0
14016 6,0016 0 6,6020 0 TC *+2 ; +0
14017 6,0017 0 6,6021 1 TC *+2 ; <0
14020 6,0020 0 6,6032 0 TC ACCEPTWD ; -0, was BZF ACCEPTWD in Block II
14021 6,0021 3 1,2053 0 CAF THREE ; if DEC, alarm if L/5 char in for data,
14022 6,0022 7 0,0467 0 MASK DECBRNCH ; but leave REQRET - and flash on, so
14023 6,0023 1 0,0000 0 CCS A ; operator can supply missing numerical
14024 6,0024 0 6,6026 0 TC *+2 ; characters and continue.
14025 6,0025 0 6,6032 0 TC ACCEPTWD ; octal, any number of char OK.
14026 6,0026 1 0,0466 1 CCS DSPCOUNT
14027 6,0027 0 6,6341 1 TC GODSPALM ; less than 5 char DEC(DSPCOUNT is +)
14030 6,0030 0 6,6341 1 TC GODSPALM ; less than 5 char DEC(DSPCOUNT is +)
14031 6,0031 0 6,6032 0 TC *+1 ; 5 char in (DSPCOUNT is -)
ACCEPTWD EQU *
14032 6,0032 4 0,0502 1 CS REQRET ; 5 char in (DSPCOUNT is -)
14033 6,0033 5 0,0502 0 TS REQRET ; set REQRET +
14034 6,0034 0 2,4770 0 TC FLASHOFF
14035 6,0035 0 0,0502 0 TC REQRET
ENTEXIT EQU ENTRET
14036 6,0036 15357 1 MMADREF DS MMCHANG+1 ; assumes TC REGMM at MMCHANG
14037 6,0037 00034 0 LOWVERB DS 28 ; lower verb that avoids nount test.
; first pass thru ENTER, so execute VERB/NOUN
ENTPAS0 EQU *
14040 6,0040 3 1,2050 0 CAF ZERO ; noun verb sub enters here
14041 6,0041 5 0,0467 1 TS DECBRNCH
14042 6,0042 4 2,4675 0 CS VD1 ; block further num char, so that stray
14043 6,0043 5 0,0466 0 TS DSPCOUNT ; char do not get into verb or nount lights.
; test VERB
TESTVB EQU *
14044 6,0044 4 0,0470 0 CS VERBREG ; if verb is G/E LOWVB, skip noun test
14045 6,0045 5 0,0530 1 TS VERBSAVE ; save verb for possible recycle.
14046 6,0046 6 6,6037 0 AD LOWVERB ; LOWVERB - VB
14047 6,0047 1 0,0000 0 CCS A ; was BZMF VERBFAN in Block II
14050 6,0050 0 6,6054 0 TC *+4 ; >0
14051 6,0051 0 6,6053 1 TC *+2 ; +0, VERB G/E LOWVERB
14052 6,0052 0 6,6053 1 TC *+1 ; <0, VERB G/E LOWVERB
14053 6,0053 0 6,6151 1 TC VERBFAN ; -0, VERB G/E LOWVERB
; test NOUN
TESTNN EQU *
; set MIXBR and put the noun address into NNADTEM
; MIXBR is an enumerated type:
; 1 = normal nouns
; 2 = mixed nouns
14054 6,0054 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14055 6,0055 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14056 6,0056 2 0,0435 1 INDEX MIXBR ; computed GOTO
14057 6,0057 0 6,6057 0 TC *+0
14060 6,0060 0 6,6062 0 TC *+2 ; returns here for normal noun
14061 6,0061 0 6,6237 1 TC MIXNOUN ; returns here for mixed noun
; normal noun, so test noun address table entry (NNADTEM)
14062 6,0062 1 0,0443 0 CCS NNADTEM ; normal
14063 6,0063 0 6,6147 0 TC VERBFAN-2 ; normal if +
14064 6,0064 0 6,6341 1 TC GODSPALM ; not in use if +0
14065 6,0065 0 6,6073 0 TC REQADD ; specify machine CADR if -
; NNADTEM was -0, so just increment noun address (in NOUNCADR) and
; set the result in NOUNADD
14066 6,0066 3 0,0506 1 XCH NOUNCADR ; augment machine CADR if -0
14067 6,0067 6 1,2051 1 AD ONE
14070 6,0070 5 0,0506 1 TS NOUNCADR ; was INCR NOUNCADR in Block II
14071 6,0071 0 2,4625 1 TC SETNADD ; set NOUNADD
14072 6,0072 0 6,6132 1 TC INTMCTBS+3
; NNADTEM was -, so noun address needs to be specified (loaded).
REQADD EQU *
14073 6,0073 3 1,2062 1 CAF BIT15 ; set CLPASS for pass0 only
14074 6,0074 5 0,0504 0 TS CLPASS
14075 6,0075 4 2,4553 1 CS ENDINST ; test if reach here from internal or
14076 6,0076 6 0,0433 0 AD ENTEXIT ; from external
14077 6,0077 1 0,0000 0 CCS A ; was BZF *+2 in Block II
14100 6,0100 0 6,6104 1 TC *+4 ; >0
14101 6,0101 0 6,6103 0 TC *+2 ; +0
14102 6,0102 0 6,6104 1 TC *+2 ; <0
14103 6,0103 0 6,6105 0 TC *+2 ; -0, external mach CADR to be specified
14104 6,0104 0 6,6127 0 TC INTMCTBS
14105 6,0105 0 6,6274 0 TC REQDATZ ; external mach CADR to be specified
14106 6,0106 1 0,0467 0 CCS DECBRNCH ; alarm and recycle if decimal used
14107 6,0107 0 2,4474 1 TC ALMCYCLE ; for MCTBS
14110 6,0110 4 2,4675 0 CS VD1 ; octal used OK
14111 6,0111 5 0,0466 0 TS DSPCOUNT ; block num char in
14112 6,0112 1 0,0531 1 CCS CADRSTOR
14113 6,0113 0 6,6116 1 TC *+3 ; external MCTBS display will leave flash
14114 6,0114 0 6,6117 0 TC USEADD ; on if ENDIDLE not = +0
14115 6,0115 0 6,6116 1 TC *+1
14116 6,0116 0 2,4760 1 TC FLASHON
; noun address has now been loaded into the Z register. Copy it into
; NOUNCADR and NOUNADD and then jump to the VERBFAN.
USEADD EQU *
14117 6,0117 3 0,0474 0 XCH ZREG
14120 6,0120 0 2,4616 1 TC SETNCADR ; ECADR into NOUNCADR, set EB, NOUNADD
14121 6,0121 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14122 6,0122 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14123 6,0123 0 6,6151 1 TC VERBFAN
14124 6,0124 16114 1 LODNNLOC DS LODNNTAB ; *** uses 2 words in Block II ***
14125 6,0125 00000 1 DS 0
14126 6,0126 77772 0 NEG5 DS -5
; If external (keyboard input), noun address is in register A.
; If internal (S/W input), noun address is in MPAC+2.
; Store the noun address into NOUNCADR and NOUNADD. If the verb
; is O5. go directly to the VERBFAN; for all other verbs, display
; the noun address in R3 and then go to the VERBFAN.
INTMCTBS EQU *
; entry point for internal:
14127 6,0127 3 1,2050 0 CAF ZERO ; was CA MPAC+2 in Block II
14130 6,0130 6 0,0132 1 AD MPAC+2 ; internal mach CADR to be specified
; entry point for external (keyboard input):
14131 6,0131 0 2,4616 1 TC SETNCADR ; store addr (A) into NOUNCADR and NOUNADD
14132 6,0132 4 1,2055 1 CS FIVE ; NVSUB call left CADR in MAPC+2 for mach
14133 6,0133 6 0,0470 1 AD VERBREG ; CADR to be specified.
14134 6,0134 1 0,0000 0 CCS A ; was BZF VERBFAN in Block II
14135 6,0135 0 6,6141 0 TC *+4 ; >0
14136 6,0136 0 6,6140 1 TC *+2 ; +0
14137 6,0137 0 6,6141 0 TC *+2 ; <0
14140 6,0140 0 6,6151 1 TC VERBFAN ; -0, don't display CADR if verb = 05
14141 6,0141 3 2,4637 1 CAF R3D1 ; verb not = 05, display CADR
14142 6,0142 5 0,0466 0 TS DSPCOUNT
14143 6,0143 3 1,2050 0 CAF ZERO ; was CA NOUNCADR in Block II
14144 6,0144 6 0,0506 1 AD NOUNCADR
14145 6,0145 0 6,7310 1 TC DSPOCTWD
14146 6,0146 0 6,6151 1 TC VERBFAN
; NNADTEM was + (normal), so just use the noun address straight from the
; noun table (currently in A). The CCS instruction used to test the
; address also decremented it, so we add one to restore the correct address.
14147 6,0147 6 1,2051 1 AD ONE
14150 6,0150 0 2,4616 1 TC SETNCADR ; store addr (A) into NOUNCADR and NOUNADD
; noun address is currently in NOUNCADR and NOUNADD.
VERBFAN EQU *
14151 6,0151 4 6,6163 1 CS LST2CON
14152 6,0152 6 0,0470 1 AD VERBREG ; verb-LST2CON
14153 6,0153 1 0,0000 0 CCS A
14154 6,0154 6 1,2051 1 AD ONE ; ver G/ LST2CON
14155 6,0155 0 6,6157 1 TC *+2
14156 6,0156 0 6,6164 1 TC VBFANDIR ; verb L/ LST2CON
14157 6,0157 5 0,0130 0 TS MPAC
14160 6,0160 0 2,5003 1 TC RELDSP ; release display syst
14161 6,0161 0 1,3653 1 TC POSTJUMP ; go to GOEXTVB with VB-40 in MPAC
14162 6,0162 20000 0 DS GOEXTVB
14163 6,0163 00050 1 LST2CON DS 40 ; first list2 verb (extended verb)
VBFANDIR EQU *
14164 6,0164 2 0,0470 0 INDEX VERBREG
14165 6,0165 3 6,6167 1 CAF VERBTAB
14166 6,0166 0 1,3712 0 TC BANKJUMP
VERBTAB EQU *
14167 6,0167 14341 1 CADR GODSPALM ; VB00 Illegal
14170 6,0170 14355 1 CADR DSPA ; VB01 display oct comp 1 (R1)
14171 6,0171 14363 1 CADR DSPB ; VB02 display oct comp 2 (R1)
14172 6,0172 14370 0 CADR DSPC ; VB03 display oct comp 3 (R1)
14173 6,0173 14350 1 CADR DSPAB ; VB04 display oct comp 1,2 (R1,R2)
14174 6,0174 14343 0 CADR DSPABC ; VB05 display oct comp 1,2,3 (R1,R2,R3)
14175 6,0175 14510 0 CADR DECDSP ; VB06 decimal display
14176 6,0176 12704 1 CADR DSPDPDEC ; VB07 DP decimal display (R1,R2)
14177 6,0177 14341 1 CADR GODSPALM ; VB08 spare
14200 6,0200 14341 1 CADR GODSPALM ; VB09 spare
14201 6,0201 14341 1 CADR GODSPALM ; VB10 spare
14202 6,0202 15146 0 CADR MONITOR ; VB11 monitor oct comp 1 (R1)
14203 6,0203 15146 0 CADR MONITOR ; VB12 monitor oct comp 2 (R2)
14204 6,0204 15146 0 CADR MONITOR ; VB13 monitor oct comp 3 (R3)
14205 6,0205 15146 0 CADR MONITOR ; VB14 monitor oct comp 1,2 (R1,R2)
14206 6,0206 15146 0 CADR MONITOR ; VB15 monitor oct comp 1,2,3 (R1,R2,R3)
14207 6,0207 15146 0 CADR MONITOR ; VB16 monitor decimal
14210 6,0210 15146 0 CADR MONITOR ; VB17 monitor DP decimal (R1,R2)
14211 6,0211 14341 1 CADR GODSPALM ; VB18 spare
14212 6,0212 14341 1 CADR GODSPALM ; VB19 spare
14213 6,0213 14341 1 CADR GODSPALM ; VB20 spare
14214 6,0214 14663 1 CADR ALOAD ; VB21 load comp 1 (R1)
14215 6,0215 14673 0 CADR BLOAD ; VB22 load comp 2 (R2)
14216 6,0216 14707 1 CADR CLOAD ; VB23 load comp 3 (R3)
14217 6,0217 14635 1 CADR ABLOAD ; VB24 load comp 1,2 (R1,R2)
14220 6,0220 14600 1 CADR ABCLOAD ; VB25 load comp 1,2,3 (R1,R2,R3)
14221 6,0221 14341 1 CADR GODSPALM ; VB26 spare
14222 6,0222 15301 1 CADR DSPFMEM ; VB27 fixed memory display
14223 6,0223 14341 1 CADR GODSPALM ; VB28 spare
14224 6,0224 14341 1 CADR GODSPALM ; VB29 spare
14225 6,0225 15420 0 CADR VBRQEXEC ; VB30 request executive
14226 6,0226 15446 0 CADR VBRQWAIT ; VB31 request waitlist
14227 6,0227 13325 1 CADR VBRESEQ ; VB32 resequence
14230 6,0230 13315 1 CADR VBPROC ; VB33 proceed (without data)
14231 6,0231 13323 1 CADR VBTERM ; VB34 terminate
14232 6,0232 15572 0 CADR VBTSTLTS ; VB35 test lights
14233 6,0233 02126 0 CADR SLAP1 ; VB36 fresh start
14234 6,0234 15356 0 CADR MMCHANG ; VB37 change major mode
14235 6,0235 14341 1 CADR GODSPALM ; VB38 spare
14236 6,0236 14341 1 CADR GODSPALM ; VB39 spare
;--------------------------------------------------------------------------
; MIXNOUN
; NNADTAB contains a relative address, IDADDREL(in low 10 bits), referring
; to where 3 consecutive addresses are stored (in IDADDTAB).
; MIXNOUN gets data and stores in MIXTEMP, +1, +2. It sets NOUNADD for
; MIXTEMP.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.322.
;--------------------------------------------------------------------------
MIXNOUN EQU *
14237 6,0237 0 6,6341 1 TC GODSPALM ; not currently implemented
; ************ BUNCH OF MISSING STUFF ************
;--------------------------------------------------------------------------
; DPTEST
; enter with SF routine code number (SF ROUT) in A. Returns to L+1 if no DP.
; Returns to L+2 if DP.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.322. Also, see p. 263.
;--------------------------------------------------------------------------
DPTEST EQU *
14240 6,0240 5 0,0552 0 TS DPTEST_A
14241 6,0241 3 0,0001 0 XCH Q
14242 6,0242 5 0,0553 1 TS DPTEST_Q
14243 6,0243 2 0,0552 1 INDEX DPTEST_A
14244 6,0244 0 6,6245 1 TC *+1
14245 6,0245 0 0,0553 1 TC DPTEST_Q ; octal only, no DP
14246 6,0246 0 0,0553 1 TC DPTEST_Q ; straight fractional, no DP
14247 6,0247 0 0,0553 1 TC DPTEST_Q ; CDU degrees (XXX.XX), no DP
14250 6,0250 0 0,0553 1 TC DPTEST_Q ; arithmetic SF, no DP
14251 6,0251 0 6,6262 1 TC DPTEST1 ; DP1OUT
14252 6,0252 0 6,6262 1 TC DPTEST1 ; DP2OUT
14253 6,0253 0 0,0553 1 TC DPTEST_Q ; Y OPTICS DEGREES, no DP
14254 6,0254 0 6,6262 1 TC DPTEST1 ; DP3OUT
14255 6,0255 0 0,0553 1 TC DPTEST_Q ; HMS, no DP
14256 6,0256 0 0,0553 1 TC DPTEST_Q ; MS, no DP
14257 6,0257 0 6,6262 1 TC DPTEST1 ; DP4OUT
14260 6,0260 0 0,0553 1 TC DPTEST_Q ; arith1, no DP
14261 6,0261 0 0,0553 1 TC DPTEST_Q ; 2INTOUT, no DP to get hi part in MPAC
DPTEST1 EQU *
14262 6,0262 2 0,0553 0 INDEX DPTEST_Q
14263 6,0263 0 0,0001 0 TC 1 ; return to L+2
;--------------------------------------------------------------------------
; REQDATX, REQDATY, REQDATZ
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.323.
;--------------------------------------------------------------------------
REQDATX EQU *
14264 6,0264 3 0,0001 0 XCH Q
14265 6,0265 5 0,0554 0 TS REQ_Q
14266 6,0266 3 2,4635 0 CAF R1D1
14267 6,0267 0 6,6277 0 TC REQCOM
REQDATY EQU *
14270 6,0270 3 0,0001 0 XCH Q
14271 6,0271 5 0,0554 0 TS REQ_Q
14272 6,0272 3 2,4636 0 CAF R2D1
14273 6,0273 0 6,6277 0 TC REQCOM
REQDATZ EQU *
14274 6,0274 3 0,0001 0 XCH Q
14275 6,0275 5 0,0554 0 TS REQ_Q
14276 6,0276 3 2,4637 1 CAF R3D1
14277 6,0277 5 0,0466 0 REQCOM TS DSPCOUNT
14300 6,0300 4 0,0554 1 CS REQ_Q
14301 6,0301 5 0,0502 0 TS REQRET
14302 6,0302 0 1,3565 1 TC BANKCALL
14303 6,0303 12473 1 DS _5BLANK
14304 6,0304 0 2,4760 1 TC FLASHON
ENDRQDAT EQU *
14305 6,0305 0 0,0433 0 TC ENTEXIT
;--------------------------------------------------------------------------
; UPDATNN, UPDATVB
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.323.
;--------------------------------------------------------------------------
14306 6,0306 5 0,0471 0 TS NOUNREG
UPDATNN EQU *
14307 6,0307 3 0,0001 0 XCH Q
14310 6,0310 5 0,0414 0 TS UPDATRET
14311 6,0311 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14312 6,0312 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14313 6,0313 1 0,0443 0 CCS NNADTEM
14314 6,0314 6 1,2051 1 AD ONE ; >0, normal
14315 6,0315 0 6,6320 0 TC PUTADD ; +0, normal
14316 6,0316 0 6,6321 1 TC PUTADD+1 ; <0, MCTBS don't change NOUNADD
14317 6,0317 0 6,6321 1 TC PUTADD+1 ; -0, MCTBI don't change NOUNADD
PUTADD EQU *
14320 6,0320 0 2,4616 1 TC SETNCADR ; ECADR into NOUNCADR, sets NOUNADD
14321 6,0321 3 2,4676 1 CAF ND1
14322 6,0322 5 0,0466 0 TS DSPCOUNT
14323 6,0323 3 1,2050 0 CAF ZERO ; was CA NOUNREG in Block II
14324 6,0324 6 0,0471 0 AD NOUNREG
14325 6,0325 0 6,6335 1 TC UPDAT1
14326 6,0326 5 0,0470 1 TS VERBREG
UPDATVB EQU *
14327 6,0327 3 0,0001 0 XCH Q
14330 6,0330 5 0,0414 0 TS UPDATRET
14331 6,0331 3 2,4675 1 CAF VD1
14332 6,0332 5 0,0466 0 TS DSPCOUNT
14333 6,0333 3 1,2050 0 CAF ZERO ; was CA VERBREG in Block II
14334 6,0334 6 0,0470 1 AD VERBREG
UPDAT1 EQU *
14335 6,0335 0 1,3653 1 TC POSTJUMP ; can't use SWCALL to go to DSPDECVN, since
14336 6,0336 13156 1 DS GOVNUPDT ; UPDATVB can itself be called by SWCALL
14337 6,0337 0 0,0414 0 TC UPDATRET
;--------------------------------------------------------------------------
; GOALMCYC, GODSPALM
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.324.
;--------------------------------------------------------------------------
14340 6,0340 0 2,4474 1 GOALMCYC TC ALMCYCLE ; needed because bankjump cant handle F/F
14341 6,0341 0 1,3653 1 GODSPALM TC POSTJUMP
14342 6,0342 13267 0 DS DSPALARM
;--------------------------------------------------------------------------
; DISPLAY VERBS
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.326.
;--------------------------------------------------------------------------
DSPABC EQU *
14343 6,0343 4 1,2052 0 CS TWO
14344 6,0344 0 6,6414 0 TC COMPTEST
14345 6,0345 2 0,0442 1 INDEX NOUNADD
14346 6,0346 4 0,0002 1 CS 2
14347 6,0347 3 0,0427 0 XCH BUF+2
DSPAB EQU *
14350 6,0350 4 1,2051 0 CS ONE
14351 6,0351 0 6,6414 0 TC COMPTEST
14352 6,0352 2 0,0442 1 INDEX NOUNADD
14353 6,0353 4 0,0001 1 CS 1
14354 6,0354 3 0,0426 1 XCH BUF+1
DSPA EQU *
14355 6,0355 0 6,6435 0 TC DECTEST
14356 6,0356 0 6,6462 1 TC TSTFORDP
14357 6,0357 2 0,0442 1 INDEX NOUNADD
14360 6,0360 4 0,0000 0 CS 0
DSPCOM1 EQU *
14361 6,0361 3 0,0425 1 XCH BUF
14362 6,0362 0 6,6375 0 TC DSPCOM2
DSPB EQU *
14363 6,0363 4 1,2051 0 CS ONE
14364 6,0364 0 6,6430 0 TC DCOMPTST
14365 6,0365 2 0,0442 1 INDEX NOUNADD
14366 6,0366 4 0,0001 1 CS 1
14367 6,0367 0 6,6361 0 TC DSPCOM1
DSPC EQU *
14370 6,0370 4 1,2052 0 CS TWO
14371 6,0371 0 6,6430 0 TC DCOMPTST
14372 6,0372 2 0,0442 1 INDEX NOUNADD
14373 6,0373 4 0,0002 1 CS 2
14374 6,0374 0 6,6361 0 TC DSPCOM1
DSPCOM2 EQU *
14375 6,0375 4 1,2052 0 CS TWO ; A B C AB ABC
14376 6,0376 6 0,0470 1 AD VERBREG ; -1 -0 +1 +2 +3 IN A
14377 6,0377 1 0,0000 0 CCS A ; +0 +0 +0 +1 +2 IN A AFTER CCS
14400 6,0400 0 6,6403 0 TC DSPCOM3
14401 6,0401 0 0,0433 0 TC ENTEXIT
14402 6,0402 0 6,6403 0 TC *+1
DSPCOM3 EQU *
14403 6,0403 5 0,0417 0 TS DISTEM ; +0, +1, +2 into DISTEM
14404 6,0404 2 0,0000 0 INDEX A
14405 6,0405 3 2,4635 0 CAF R1D1
14406 6,0406 5 0,0466 0 TS DSPCOUNT
14407 6,0407 2 0,0417 1 INDEX DISTEM
14410 6,0410 4 0,0425 0 CS BUF
14411 6,0411 0 6,7310 1 TC DSPOCTWD
14412 6,0412 3 0,0417 0 XCH DISTEM
14413 6,0413 0 6,6377 1 TC DSPCOM2+2
;--------------------------------------------------------------------------
; COMPTEST
; alarms if component number of verb (load or oct display) is
; greater than the highest component number of noun.
;
; DCOMPTST
; alarms if decimal only bit (bit 4 of comp code number) = 1.
; If not, it performs regular COMPTEST.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.326.
;--------------------------------------------------------------------------
COMPTEST EQU *
14414 6,0414 5 0,0420 1 TS SFTEMP1 ; - verb comp
14415 6,0415 3 0,0001 0 XCH Q ; was LXCH Q in block II
14416 6,0416 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
COMPTST1 EQU *
14417 6,0417 0 6,6501 0 TC GETCOMP
14420 6,0420 0 2,4647 0 TC LEFT5
14421 6,0421 7 1,2053 1 MASK THREE ; noun comp
14422 6,0422 6 0,0420 1 AD SFTEMP1 ; noun comp - verb comp
14423 6,0423 1 0,0000 0 CCS A
14424 6,0424 0 0,0547 1 TC LXCH_LPRET ; noun comp G/ verb comp; return
14425 6,0425 0 5,6271 0 TC CCSHOLE
14426 6,0426 0 6,6341 1 TC GODSPALM ; noun comp L/ verb comp
NDOMPTST EQU *
14427 6,0427 0 0,0547 1 TC LXCH_LPRET ; noun comp = verb comp; return
DCOMPTST EQU *
14430 6,0430 5 0,0420 1 TS SFTEMP1 ; - verb comp
14431 6,0431 3 0,0001 0 XCH Q ; was LXCH Q in block II
14432 6,0432 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
14433 6,0433 0 6,6435 0 TC DECTEST
14434 6,0434 0 6,6417 0 TC COMPTST1
;--------------------------------------------------------------------------
; DECTEST
; alarms if dec only bit = 1 (bit 4 of comp code number1). Returns if not.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.327.
;--------------------------------------------------------------------------
DECTEST EQU *
14435 6,0435 3 0,0001 0 XCH Q ; was QXCH MPAC+2 in block II
14436 6,0436 5 0,0132 1 TS MPAC+2
14437 6,0437 0 6,6501 0 TC GETCOMP
14440 6,0440 7 1,2063 1 MASK BIT14
14441 6,0441 1 0,0000 0 CCS A
14442 6,0442 0 6,6341 1 TC GODSPALM
14443 6,0443 0 0,0132 1 TC MPAC+2
;--------------------------------------------------------------------------
; DCTSTCYC
; alarms and recycles if dec only bit = 1 (bit 4 of comp code number).
; Returns if not. Used by load verbs.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.327.
;--------------------------------------------------------------------------
DCTSTCYC EQU *
14444 6,0444 3 0,0001 0 XCH Q ; was LXCH Q in block II
14445 6,0445 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
14446 6,0446 0 6,6501 0 TC GETCOMP
14447 6,0447 7 1,2063 1 MASK BIT14
14450 6,0450 1 0,0000 0 CCS A
14451 6,0451 0 2,4474 1 TC ALMCYCLE
14452 6,0452 0 0,0547 1 TC LXCH_LPRET
;--------------------------------------------------------------------------
; NOUNTEST
; alarms if no-load bit (bit 5 of comp code number) = 1
; if not, it returns.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.327.
;--------------------------------------------------------------------------
NOUNTEST EQU *
14453 6,0453 3 0,0001 0 XCH Q ; was LXCH Q in block II
14454 6,0454 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
14455 6,0455 0 6,6501 0 TC GETCOMP
14456 6,0456 1 0,0000 0 CCS A
14457 6,0457 0 0,0547 1 TC LXCH_LPRET
14460 6,0460 0 0,0547 1 TC LXCH_LPRET
14461 6,0461 0 6,6341 1 TC GODSPALM
;--------------------------------------------------------------------------
; TSTFORDP
; test for DP. If so, get minor part only.
; The Block II version had some code that checked for a -1 in NNADTEM
; which meant use an I/O channel instead of memory. This was removed
; for the Block I.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.327.
;--------------------------------------------------------------------------
TSTFORDP EQU *
14462 6,0462 3 0,0001 0 XCH Q ; was LXCH Q in block II
14463 6,0463 5 0,0547 1 TS LXCH_LPRET ; save return address in faux LP
14464 6,0464 2 0,0435 1 INDEX MIXBR
14465 6,0465 0 6,6465 0 TC *
14466 6,0466 0 6,6470 1 TC *+2 ; normal
14467 6,0467 0 0,0547 1 TC LXCH_LPRET ; mixed case already handled in MIXNOUN
14470 6,0470 0 6,6762 1 TC SFRUTNOR
14471 6,0471 0 6,6240 1 TC DPTEST
14472 6,0472 0 0,0547 1 TC LXCH_LPRET ; no DP
14473 6,0473 3 0,0442 0 XCH NOUNADD ; was INCR NOUNADD in Block II
14474 6,0474 6 1,2051 1 AD ONE ; DP E+1 into NOUNADD for minor part
14475 6,0475 5 0,0442 0 TS NOUNADD
14476 6,0476 0 0,0547 1 TC LXCH_LPRET
;--------------------------------------------------------------------------
; GETCOMP
;
; noun address is in NNADTEM
; noun type is in NNTYPTEM
;
; MIXBR is an enumerated type:
; 1 = normal nouns
; 2 = mixed nouns
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.328.
;--------------------------------------------------------------------------
14477 6,0477 00444 0 COMPICK DS NNTYPTEM
14500 6,0500 00443 1 DS NNADTEM
GETCOMP EQU *
14501 6,0501 2 0,0435 1 INDEX MIXBR ; normal mixed
14502 6,0502 3 6,6476 1 CAF COMPICK-1 ; ADRES NNTYPTEM ADRES NNADTEM
14503 6,0503 2 0,0000 0 INDEX A
14504 6,0504 4 0,0000 0 CS 0 ; C(NNTYPTEM) C(NNADTEM)
14505 6,0505 4 0,0000 0 COM ; was CA 0 in Block II
14506 6,0506 7 2,4666 1 MASK HI5
14507 6,0507 0 0,0001 0 TC Q
;--------------------------------------------------------------------------
; DECDSP -- DECIMAL DISPLAY
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.328.
;--------------------------------------------------------------------------
DECDSP EQU *
14510 6,0510 0 6,6501 0 TC GETCOMP
14511 6,0511 0 2,4647 0 TC LEFT5
14512 6,0512 7 1,2053 1 MASK THREE
14513 6,0513 5 0,0414 0 TS DECOUNT ; comp number into DECOUNT
DSPDCGET EQU *
14514 6,0514 5 0,0417 0 TS DECTEM ; picks up data
14515 6,0515 6 0,0442 0 AD NOUNADD ; DECTEM 1COMP +0, 2COMP +1, 3COMP +2
14516 6,0516 2 0,0000 0 INDEX A
14517 6,0517 4 0,0000 0 CS 0
14520 6,0520 2 0,0417 1 INDEX DECTEM
14521 6,0521 3 0,0472 0 XCH XREG ; cant use BUF since DMP uses it
14522 6,0522 1 0,0417 1 CCS DECTEM
14523 6,0523 0 6,6514 1 TC DSPDCGET ; more to get
DSPDCPUT EQU *
14524 6,0524 3 1,2050 0 CAF ZERO ; displays data
14525 6,0525 5 0,0131 1 TS MPAC+1 ; DECOUNT 1COMP +0, 2COMP +1, 3COMP +2
14526 6,0526 5 0,0132 1 TS MPAC+2
14527 6,0527 2 0,0414 1 INDEX DECOUNT
14530 6,0530 3 2,4635 0 CAF R1D1
14531 6,0531 5 0,0466 0 TS DSPCOUNT
14532 6,0532 2 0,0414 1 INDEX DECOUNT
14533 6,0533 4 0,0472 1 CS XREG
14534 6,0534 5 0,0130 0 TS MPAC
14535 6,0535 0 6,7003 0 TC SFCONUM ; 2X (SF CON NUMB) in A
14536 6,0536 5 0,0420 1 TS SFTEMP1
14537 6,0537 3 6,6550 1 CAF GTSFOUTL ; was DCA GTSFOUTL, DXCH Z in Block II
14540 6,0540 0 1,3526 0 TC DXCHJUMP ; bank jump to SF constant table read rtne
14541 6,0541 2 0,0435 1 INDEX MIXBR
14542 6,0542 0 6,6542 1 TC *+0
14543 6,0543 0 6,6546 0 TC DSPSFNOR
14544 6,0544 0 6,6770 1 TC SFRUTMIX
14545 6,0545 0 6,6560 1 TC DECDSP3
DSPSFNOR EQU *
14546 6,0546 0 6,6762 1 TC SFRUTNOR
14547 6,0547 0 6,6560 1 TC DECDSP3
14550 6,0550 16162 0 GTSFOUTL DS GTSFOUT
DSPDCEND EQU *
14551 6,0551 0 1,3565 1 TC BANKCALL ; all SFOUT routines end here
14552 6,0552 13064 1 DS DSPDECWD
14553 6,0553 1 0,0414 1 CCS DECOUNT
14554 6,0554 0 6,6556 1 TC *+2
14555 6,0555 0 0,0433 0 TC ENTEXIT
14556 6,0556 5 0,0414 0 TS DECOUNT
14557 6,0557 0 6,6524 1 TC DSPDCPUT ; more to display
DECDSP3 EQU *
14560 6,0560 2 0,0000 0 INDEX A
14561 6,0561 3 6,6563 1 CAF SFOUTABR
14562 6,0562 0 1,3712 0 TC BANKJUMP
SFOUTABR EQU *
14563 6,0563 13265 1 CADR PREDSPAL ; 0, alarm if dec display with octal only noun
14564 6,0564 14551 0 CADR DSPDCEND ; 1
14565 6,0565 12564 0 CADR DEGOUTSF ; 2
14566 6,0566 12644 1 CADR ARTOUTSF ; 3
14567 6,0567 00000 1 CADR 0 ; 4 **********
14570 6,0570 00000 1 CADR 0 ; 5 **********
14571 6,0571 00000 1 CADR 0 ; 6 **********
14572 6,0572 00000 1 CADR 0 ; 7 **********
14573 6,0573 16000 0 CADR HMSOUT ; 8
14574 6,0574 00000 1 CADR 0 ; 9 **********
14575 6,0575 00000 1 CADR 0 ; 10 *********
14576 6,0576 00000 1 CADR 0 ; 11 *********
14577 6,0577 00000 1 CADR 0 ; 12 *********
BANK41_2 EQU *
ORG BANK40_2 ; COLOSSUS pp. 330-332
INCL bank40_2.asm
;==========================================================================
; SCALE FACTOR ROUTINES (file:bank40_2.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 330-332.
;==========================================================================
DEGOUTSF EQU *
12564 5,0564 3 1,2050 0 CAF ZERO
12565 5,0565 5 0,0132 1 TS MPAC+2 ; set index for full scale
12566 5,0566 0 5,6603 1 TC FIXRANGE
12567 5,0567 0 5,6571 1 TC *+2 ; no augment needed (SFTEMP1 and 2 are 0)
12570 5,0570 0 5,6572 1 TC SETAUG ; set augmenter according to C(MPAC+2)
12571 5,0571 0 5,6616 0 TC DEGCOM
SETAUG EQU *
12572 5,0572 3 1,2050 0 CAF ZERO ; loads SFTEMP1 and SFTEMP2 with the
12573 5,0573 2 0,0132 0 INDEX MPAC+2 ; DP augmenter constant
12574 5,0574 6 5,6640 0 AD DEGTAB ; was DCA DEGTAB, DXCH SFTEMP1 in Block II
12575 5,0575 3 0,0420 1 XCH SFTEMP1
12576 5,0576 3 1,2050 0 CAF ZERO
12577 5,0577 2 0,0132 0 INDEX MPAC+2
12600 5,0600 6 5,6641 1 AD DEGTAB+1
12601 5,0601 3 0,0421 0 XCH SFTEMP1+1
12602 5,0602 0 0,0001 0 TC Q
FIXRANGE EQU *
12603 5,0603 3 0,0001 0 XCH Q
12604 5,0604 5 0,0563 1 TS FR_RETQ
12605 5,0605 1 0,0130 1 CCS MPAC ; if MPAC is +, return to L+1
12606 5,0606 0 0,0563 1 TC FR_RETQ ; if MPAC is -, return to L+2 after
12607 5,0607 0 0,0563 1 TC FR_RETQ ; masking out the sign bit
12610 5,0610 0 5,6611 1 TC *+1 ; was TCF *+1 in Block II
12611 5,0611 4 1,2062 0 CS BIT15
12612 5,0612 7 0,0130 1 MASK MPAC
12613 5,0613 5 0,0130 0 TS MPAC
12614 5,0614 2 0,0563 0 INDEX FR_RETQ
12615 5,0615 0 0,0001 0 TC 1
DEGCOM EQU *
12616 5,0616 3 1,2050 0 CAF ZERO ; was INDEX MPAC+2, DCA DEGTAB, DXCH MPAC in Block II
12617 5,0617 2 0,0132 0 INDEX MPAC+2 ; loads multiplier, does SHORTMP, and
12620 5,0620 6 5,6641 1 AD DEGTAB+1 ; adds augmenter
12621 5,0621 3 0,0131 1 XCH MPAC+1 ; adjusted angle in A
12622 5,0622 3 1,2050 0 CAF ZERO
12623 5,0623 2 0,0132 0 INDEX MPAC+2
12624 5,0624 6 5,6640 0 AD DEGTAB
12625 5,0625 3 0,0130 0 XCH MPAC
12626 5,0626 0 2,4353 0 TC SHORTMP
12627 5,0627 3 0,0421 0 XCH SFTEMP1+1 ; was DXCH SFTEMP1, DAS MPAC in Block II
12630 5,0630 6 0,0131 1 AD MPAC+1
12631 5,0631 5 0,0131 1 TS MPAC+1 ; skip on overflow
12632 5,0632 3 1,2050 0 CAF ZERO ; otherwise, make interword carry=0
12633 5,0633 6 0,0420 1 AD SFTEMP1
12634 5,0634 6 0,0130 0 AD MPAC
12635 5,0635 5 0,0130 0 TS MPAC ; skip on overflow
12636 5,0636 3 1,2050 0 CAF ZERO ; otherwise, make interword carry=0
12637 5,0637 0 5,6651 0 TC SCOUTEND
DEGTAB EQU *
12640 5,0640 05605 1 DS %05605 ; Hi part of .18
12641 5,0641 03656 1 DS %03656 ; Lo part of .18
12642 5,0642 16314 0 DS %16314 ; Hi part of .45
12643 5,0643 31463 1 DS %31463 ; Lo part of .45
ARTOUTSF EQU *
12644 5,0644 3 0,0421 0 XCH SFTEMP1+1 ; was DXCH SFTEMP1, DXCH MPAC in Block II
12645 5,0645 3 0,0131 1 XCH MPAC+1 ; assumes point at left of DP SFCON
12646 5,0646 3 0,0420 1 XCH SFTEMP1
12647 5,0647 3 0,0130 0 XCH MPAC
12650 5,0650 0 2,4740 0 TC PRSHRTMP ; if C(A) = -0, SHORTMP fails to give -0
12651 5,0651 0 1,3653 1 SCOUTEND TC POSTJUMP
12652 5,0652 14551 0 CADR DSPDCEND
;--------------------------------------------------------------------------
; READLO
; Picks up fresh data for both HI and LO and leaves it in MPAC, MPAC+1.
; This is needed for time display. It zeroes MPAC+2, but does not force
; TPAGREE.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.332.
;--------------------------------------------------------------------------
READLO EQU *
12653 5,0653 3 0,0001 0 XCH Q
12654 5,0654 5 0,0441 0 TS TEM4 ; save return address
12655 5,0655 2 0,0435 1 INDEX MIXBR
12656 5,0656 0 5,6656 1 TC *
12657 5,0657 0 5,6701 1 TC RDLONOR ; MIXBR=1, so normal noun
12660 5,0660 3 1,2050 0 CAF ZERO ; MIXBR=2, so mixed noun
12661 5,0661 2 0,0414 1 INDEX DECOUNT ; was INDEX DECOUNT, CA IDAD1TEM in Block II
12662 5,0662 6 0,0445 1 AD IDAD1TEM ; get IDADDTAB entry for comp K of noun
12663 5,0663 7 2,4672 1 MASK LOW11 ; E bank
12664 5,0664 0 2,4633 0 TC SETEBANK ; set EB, leave E address in A
; Dereference noun address to move components of noun into MPAC, MPAC+1
; mixed normal
; C(E SUBK) C(E)
; C((E SUBK)+1) C(E+1)
READLO1 EQU *
12665 5,0665 5 0,0576 0 TS ADDRWD1 ; temp store addr for immediate use below
12666 5,0666 3 1,2050 0 CAF ZERO ; was INDEX A, DCA Q, DXCH MPAC in Block II
12667 5,0667 2 0,0576 1 INDEX ADDRWD1
12670 5,0670 6 0,0000 1 AD 0
12671 5,0671 5 0,0130 0 TS MPAC
12672 5,0672 3 1,2050 0 CAF ZERO
12673 5,0673 2 0,0576 1 INDEX ADDRWD1
12674 5,0674 6 0,0001 0 AD 1
12675 5,0675 5 0,0131 1 TS MPAC+1
12676 5,0676 3 1,2050 0 CAF ZERO
12677 5,0677 5 0,0132 1 TS MPAC+2
12700 5,0700 0 0,0441 0 TC TEM4 ; return
12701 5,0701 3 1,2050 0 RDLONOR CAF ZERO ; was CA NOUNADD in Block II
12702 5,0702 6 0,0442 0 AD NOUNADD
12703 5,0703 0 5,6665 1 ENDRDLO TC READLO1
BANK40_3 EQU *
ORG BANK42_1 ; COLOSSUS pp. 333-336
INCL bank42_1.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank42_1.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 333-336.
;==========================================================================
;--------------------------------------------------------------------------
; HMSOUT -- OUTPUT SCALE FACTOR ROUTINE
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.333.
;--------------------------------------------------------------------------
HMSOUT EQU *
16000 7,0000 0 1,3565 1 TC BANKCALL ; read fresh data for HI and LO into MPAC,
16001 7,0001 12653 1 DS READLO ; MPAC+1.
16002 7,0002 0 2,4150 1 TC TPAGREE ; make DP data agree
16003 7,0003 0 7,6053 1 TC SEPSECNR ; leave frac sec/60 in MPAC, MPAC+1, leave
; whole min in bit13 of LOWTEMOUT and above
16004 7,0004 0 2,4374 0 TC DMP ; use only fract sec/60 mod 60
16005 7,0005 06043 0 ADRES SECON2 ; mult by .06
16006 7,0006 3 2,4637 1 CAF R3D1 ; gives CENT1-SEC/10EXP5 mod 60
16007 7,0007 5 0,0466 0 TS DSPCOUNT
16010 7,0010 0 1,3565 1 TC BANKCALL ; display sec mod 60
16011 7,0011 13064 1 DS DSPDECWD
16012 7,0012 0 7,6074 1 TC SEPMIN ; remove rest of seconds
16013 7,0013 3 7,6045 0 CAF MINCON2 ; leave fract min/60 in MPAC+1, leave
16014 7,0014 3 0,0130 0 XCH MPAC ; whole hours in MPAC
16015 7,0015 5 0,0476 1 TS HITEMOUT ; save whole hours
16016 7,0016 3 7,6046 0 CAF MINCON2+1
16017 7,0017 3 0,0131 1 XCH MPAC+1 ; use only fract min/60 mod 60
16020 7,0020 0 2,4740 0 TC PRSHRTMP ; if C(A) = -0, SHORTMP fails to give -0.
; mult by .0006
16021 7,0021 3 2,4636 0 CAF R2D1 ; gives min/10EXP5 mod 60
16022 7,0022 5 0,0466 0 TS DSPCOUNT
16023 7,0023 0 1,3565 1 TC BANKCALL ; display min mod 60
16024 7,0024 13064 1 DS DSPDECWD
16025 7,0025 3 7,6051 0 CAF HRCON1 ; was DCA HRCON1, DXCH MPAC in Block II
16026 7,0026 5 0,0130 0 TS MPAC
16027 7,0027 3 7,6052 0 CAF HRCON1+1
16030 7,0030 5 0,0131 1 TS MPAC+1 ; minutes, seconds have been removed
16031 7,0031 3 1,2050 0 CAF ZERO ; was CA HITEMOUT in Block II
16032 7,0032 6 0,0476 1 AD HITEMOUT ; use whole hours
16033 7,0033 0 2,4740 0 TC PRSHRTMP ; if C(A) = -0, SHORTMP fails to give -0.
; mult by .16384
16034 7,0034 3 2,4635 0 CAF R1D1 ; gives hours/10EXP5
16035 7,0035 5 0,0466 0 TS DSPCOUNT
16036 7,0036 0 1,3565 1 TC BANKCALL ; use regular DSPDECWD, with round off
16037 7,0037 13064 1 DS DSPDECWD
16040 7,0040 0 0,0433 0 TC ENTEXIT
16041 7,0041 25660 0 SECON1 DS %25660 ; 2EXP12/6000
16042 7,0042 31742 1 DS %31742
16043 7,0043 01727 1 SECON2 DS %01727 ; .06 for seconds display
16044 7,0044 01217 1 DS %01217
16045 7,0045 00011 1 MINCON2 DS %00011 ; .0006 for minutes display
16046 7,0046 32445 0 DS %32445
16047 7,0047 02104 0 MINCON1 DS %02104 ; .066..66 upped by 2EXP-28
16050 7,0050 10422 1 DS %10422
16051 7,0051 05174 0 HRCON1 DS %05174 ; .16384 decimal
16052 7,0052 13261 0 DS %13261
; ************* missing stuff ****************
SEPSECNR EQU *
16053 7,0053 3 0,0001 0 XCH Q ; this entry avoid rounding by .5 secs
16054 7,0054 5 0,0441 0 TS SEPSCRET
16055 7,0055 0 2,4374 0 TC DMP ; mult by 2EXP12/6000
16056 7,0056 06041 1 ADRES SECON1 ; gives fract sec/60 in bit12 of MPAC+1
16057 7,0057 3 1,2050 0 CAF ZERO ; was DCA MPAC, DXCH HITEMOUT in Block II
16060 7,0060 6 0,0130 0 AD MPAC ; save minutes and hours
16061 7,0061 3 0,0476 1 XCH HITEMOUT
16062 7,0062 3 1,2050 0 CAF ZERO
16063 7,0063 6 0,0131 1 AD MPAC+1
16064 7,0064 3 0,0477 0 XCH HITEMOUT+1
16065 7,0065 0 2,4721 1 TC TPSL1
16066 7,0066 0 2,4721 1 TC TPSL1 ; gives fract sec/60 in MPAC+1, MPAC+2
16067 7,0067 3 1,2050 0 CAF ZERO
16070 7,0070 3 0,0132 1 XCH MPAC+2 ; leave fract sec/60 in MPAC, MPAC+1
16071 7,0071 3 0,0131 1 XCH MPAC+1
16072 7,0072 3 0,0130 0 XCH MPAC
16073 7,0073 0 0,0441 0 TC SEPSCRET
SEPMIN EQU *
16074 7,0074 3 0,0001 0 XCH Q ; finds whole minutes in bit13
16075 7,0075 5 0,0441 0 TS SEPMNRET ; of LOWTEMOUT and above.
16076 7,0076 3 1,2050 0 CAF ZERO
16077 7,0077 6 0,0477 0 AD LOTEMOUT ; removes rest of seconds
16100 7,0100 2 0,0000 1 EXTEND ; leaves fract min/60 in MPAC+1
16101 7,0101 4 1,2076 0 MP BIT3 ; leaves whole hours in MPAC
16102 7,0102 2 0,0000 1 EXTEND ; SR 12, throw away LP
16103 7,0103 4 1,2064 0 MP BIT13 ; SR 2?, take from LP. = SL 12
16104 7,0104 3 0,0003 1 XCH LP ; was LXCH MPAC+1 in Block II
16105 7,0105 5 0,0131 1 TS MPAC+1 ; this forces bits 12-1 to 0 if +,
; forces bits 12-1 to 1 if -.
16106 7,0106 3 1,2050 0 CAF ZERO
16107 7,0107 6 0,0476 1 AD HITEMOUT
16110 7,0110 5 0,0130 0 TS MPAC
16111 7,0111 0 2,4374 0 TC DMP ; mult by 1/15
16112 7,0112 06047 1 ADRES MINCON1 ; gives fract min/60 in MPAC+1
16113 7,0113 0 0,0441 0 ENDSPMIN TC SEPMNRET ; gives whole hours in MPAC
BANK42_2 EQU *
ORG BANK40_3 ; COLOSSUS pp. 336
INCL bank40_3.asm
;==========================================================================
; WORD DISPLAY ROUTINES (file:bank40_3.asm)
;
; AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.336.
;==========================================================================
;--------------------------------------------------------------------------
; DSPDPDEC
; This is a special purpose verb for displaying a double precision AGC
; word as 10 decimal digits on the AGC display panel. It can be used with
; any noun, except mixed nouns. It displays the contents of the register
; NOUNADD is pointing to. If used with nouns which are inherently not DP
; such as the CDU counters, the display will be garbage.
; Display is in R1 and R2 only with the sign in R1.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.353.
;--------------------------------------------------------------------------
DSPDPDEC EQU *
12704 5,0704 2 0,0435 1 INDEX MIXBR
12705 5,0705 0 5,6705 0 TC *+0
12706 5,0706 0 5,6710 1 TC *+2 ; normal noun
12707 5,0707 0 5,7267 0 TC DSPALARM
12710 5,0710 3 1,2050 0 CAF ZERO
12711 5,0711 2 0,0442 1 INDEX NOUNADD
12712 5,0712 6 0,0000 1 AD 0 ; was DCA 0, DXCH MPAC in Block II
12713 5,0713 5 0,0130 0 TS MPAC
12714 5,0714 3 1,2050 0 CAF ZERO
12715 5,0715 2 0,0442 1 INDEX NOUNADD
12716 5,0716 6 0,0001 0 AD 1 ; was DCA 0, DXCH MPAC in Block II
12717 5,0717 5 0,0131 1 TS MPAC+1
12720 5,0720 3 2,4635 0 CAF R1D1
12721 5,0721 5 0,0466 0 TS DSPCOUNT
12722 5,0722 3 1,2050 0 CAF ZERO
12723 5,0723 5 0,0132 1 TS MPAC+2
12724 5,0724 0 2,4150 1 TC TPAGREE
12725 5,0725 0 5,7131 0 TC DSP2DEC
12726 5,0726 0 0,0433 0 ENDDPDEC TC ENTEXIT
BANK40_4 EQU *
ORG BANK41_2 ; COLOSSUS pp. 337-342
INCL bank41_2.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank41_2.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 337-342.
;==========================================================================
;==========================================================================
; PINBALL GAME LOAD VERBS (file:bank41_2.asm)
;
; If alarm condition is detected during execute, check fail light is
; turned on and ENDOFJOB. If alarm condition is detected during enter
; of data, check fail is turned on and it recycles to execute of
; original load verb. Recycle caused by 1) decimal machine CADR,
; 2) mixture of octal/decimal data, 3) octal data into decimal only
; noun, 4) decimal data into octal only noun, 5) data too large for
; scale, 6) fewer than two data words loaded for HRS, MIN, SEC noun.
; For #2-6, alarm and recycle occur at final enter of set; for #1,
; alarm and recycle occur at enter of CADR.
;
; AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.337-343.
;==========================================================================
ABCLOAD EQU *
14600 6,0600 4 1,2052 0 CS TWO
14601 6,0601 0 6,6414 0 TC COMPTEST
14602 6,0602 0 6,6453 0 TC NOUNTEST ; test if noun can be loaded
14603 6,0603 3 6,6733 0 CAF VBSP1LD
14604 6,0604 0 6,6326 0 TC UPDATVB-1
14605 6,0605 0 6,6264 1 TC REQDATX
14606 6,0606 3 6,6734 1 CAF VBSP2LD
14607 6,0607 0 6,6326 0 TC UPDATVB-1
14610 6,0610 0 6,6270 1 TC REQDATY
14611 6,0611 3 6,6735 0 CAF VBSP3LD
14612 6,0612 0 6,6326 0 TC UPDATVB-1
14613 6,0613 0 6,6274 0 TC REQDATZ
PUTXYZ EQU *
14614 6,0614 4 1,2056 1 CS SIX ; test that the 3 data words loaded are
14615 6,0615 0 6,6736 0 TC ALLDC_OC ; all dec or all oct
14616 6,0616 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14617 6,0617 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14620 6,0620 3 1,2050 0 CAF ZERO ; X comp
14621 6,0621 0 6,7031 1 TC PUTCOM
14622 6,0622 2 0,0442 1 INDEX NOUNADD
14623 6,0623 5 0,0000 1 TS 0
14624 6,0624 3 1,2051 1 CAF ONE ; Y comp
14625 6,0625 0 6,7031 1 TC PUTCOM
14626 6,0626 2 0,0442 1 INDEX NOUNADD
14627 6,0627 5 0,0001 0 TS 1
14630 6,0630 3 1,2052 1 CAF TWO ; Z comp
14631 6,0631 0 6,7031 1 TC PUTCOM
14632 6,0632 2 0,0442 1 INDEX NOUNADD
14633 6,0633 5 0,0002 0 TS 2
; *************** missing stuff *****************
; Omitted a bunch of code from here that does special stuff if the noun=7.
; (a noun that operates on I/O channels and flagbits)
14634 6,0634 0 6,6723 1 TC LOADLV
ABLOAD EQU *
14635 6,0635 4 1,2051 0 CS ONE
14636 6,0636 0 6,6414 0 TC COMPTEST
14637 6,0637 0 6,6453 0 TC NOUNTEST ; test if noun can be loaded
14640 6,0640 3 6,6733 0 CAF VBSP1LD
14641 6,0641 0 6,6326 0 TC UPDATVB-1
14642 6,0642 0 6,6264 1 TC REQDATX
14643 6,0643 3 6,6734 1 CAF VBSP2LD
14644 6,0644 0 6,6326 0 TC UPDATVB-1
14645 6,0645 0 6,6270 1 TC REQDATY
PUTXY EQU *
14646 6,0646 4 1,2055 1 CS FIVE ; test that the 2 data words loaded are
14647 6,0647 0 6,6736 0 TC ALLDC_OC ; all dec or all oct
14650 6,0650 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14651 6,0651 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14652 6,0652 3 1,2050 0 CAF ZERO ; X comp
14653 6,0653 0 6,7031 1 TC PUTCOM
14654 6,0654 2 0,0442 1 INDEX NOUNADD
14655 6,0655 5 0,0000 1 TS 0
14656 6,0656 3 1,2051 1 CAF ONE ; Y comp
14657 6,0657 0 6,7031 1 TC PUTCOM
14660 6,0660 2 0,0442 1 INDEX NOUNADD
14661 6,0661 5 0,0001 0 TS 1
14662 6,0662 0 6,6723 1 TC LOADLV
ALOAD EQU *
14663 6,0663 0 6,6264 1 TC REQDATX
14664 6,0664 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14665 6,0665 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14666 6,0666 3 1,2050 0 CAF ZERO ; X comp
14667 6,0667 0 6,7031 1 TC PUTCOM
14670 6,0670 2 0,0442 1 INDEX NOUNADD
14671 6,0671 5 0,0000 1 TS 0
14672 6,0672 0 6,6723 1 TC LOADLV
BLOAD EQU *
14673 6,0673 4 1,2051 0 CS ONE
14674 6,0674 0 6,6414 0 TC COMPTEST
14675 6,0675 3 1,2062 1 CAF BIT15 ; set CLPASS for PASS0 only
14676 6,0676 5 0,0504 0 TS CLPASS
14677 6,0677 0 6,6270 1 TC REQDATY
14700 6,0700 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14701 6,0701 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14702 6,0702 3 1,2051 1 CAF ONE
14703 6,0703 0 6,7031 1 TC PUTCOM
14704 6,0704 2 0,0442 1 INDEX NOUNADD
14705 6,0705 5 0,0001 0 TS 1
14706 6,0706 0 6,6723 1 TC LOADLV
CLOAD EQU *
14707 6,0707 4 1,2052 0 CS TWO
14710 6,0710 0 6,6414 0 TC COMPTEST
14711 6,0711 3 1,2062 1 CAF BIT15 ; set CLPASS for PASS0 only
14712 6,0712 5 0,0504 0 TS CLPASS
14713 6,0713 0 6,6274 0 TC REQDATZ
14714 6,0714 3 6,6124 0 CAF LODNNLOC ; was DCA LODNNLOC, DXCH Z in Block II
14715 6,0715 0 1,3526 0 TC DXCHJUMP ; bank jump to noun table read rtne
14716 6,0716 3 1,2052 1 CAF TWO
14717 6,0717 0 6,7031 1 TC PUTCOM
14720 6,0720 2 0,0442 1 INDEX NOUNADD
14721 6,0721 5 0,0002 0 TS 2
14722 6,0722 0 6,6723 1 TC LOADLV ; yes, COLOSSUS actually did this
LOADLV EQU *
14723 6,0723 3 1,2050 0 CAF ZERO
14724 6,0724 5 0,0467 1 TS DECBRNCH
14725 6,0725 4 1,2050 1 CS ZERO
14726 6,0726 5 0,0503 1 TS LOADSTAT
14727 6,0727 4 2,4675 0 CS VD1 ; to block numerical chars and
14730 6,0730 5 0,0466 0 TS DSPCOUNT ; clears after a completed load
14731 6,0731 0 1,3653 1 TC POSTJUMP ; after completed load, go to RECALTST
14732 6,0732 13413 0 DS RECALTST ; to see if there is RECALL from ENDIDLE
14733 6,0733 00025 0 VBSP1LD DS 21 ; VB21 = ALOAD
14734 6,0734 00026 0 VBSP2LD DS 22 ; VB22 = BLOAD
14735 6,0735 00027 1 VBSP3LD DS 23 ; VB23 = CLOAD
ALLDC_OC EQU *
14736 6,0736 5 0,0414 0 TS DECOUNT ; test that data words loaded are either
14737 6,0737 3 0,0001 0 XCH Q ; (needed to handle TCF conversion below)
14740 6,0740 5 0,0556 1 TS ALLDC_OC_Q ; save return address
14741 6,0741 4 0,0467 0 CS DECBRNCH ; all dec or all oct; alarms if not
14742 6,0742 5 0,0021 1 TS SR
14743 6,0743 4 0,0021 0 CS SR
14744 6,0744 4 0,0021 0 CS SR ; shifted right 2
14745 6,0745 1 0,0000 0 CCS A ; dec comp bits in low 3
14746 6,0746 0 6,6750 0 TC *+2 ; some ones in low 3 (was TCF in Block II)
14747 6,0747 0 0,0556 1 TC ALLDC_OC_Q ; all zeros, all oct, OK so return
14750 6,0750 6 0,0414 0 AD DECOUNT ; dec comp = 7 for 3comp, =6 for 2comp
; (but it has been decremented by CCS)
14751 6,0751 1 0,0000 0 CCS A ; must match 6 for 3comp, 5 for 2comp
14752 6,0752 0 6,6756 0 TC *+4 ; >0
14753 6,0753 0 6,6755 0 TC *+2 ; +0
14754 6,0754 0 6,6756 0 TC *+2 ; <0
14755 6,0755 0 6,6757 1 TC *+2 ; -0, was BZF *+2 in Block II
14756 6,0756 0 2,4474 1 TC ALMCYCLE ; alarm and recycle (does not return)
14757 6,0757 3 0,0556 1 XCH ALLDC_OC_Q ; restore return address
14760 6,0760 5 0,0001 0 TS Q
14761 6,0761 0 0,0001 0 GOQ TC Q ; all required are dec, OK
;--------------------------------------------------------------------------
; SFRUTNOR
; gets SF routine number for normal case.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.340.
;--------------------------------------------------------------------------
SFRUTNOR EQU *
14762 6,0762 3 0,0001 0 XCH Q
14763 6,0763 5 0,0411 0 TS EXITEM ; can't use L for return. TESTFORDP uses L.
14764 6,0764 3 2,4665 0 CAF MID5
14765 6,0765 7 0,0444 1 MASK NNTYPTEM
14766 6,0766 0 2,4640 1 TC RIGHT5
14767 6,0767 0 0,0411 0 TC EXITEM ; SF routine number in A
;--------------------------------------------------------------------------
; SFRUTMIX
; gets SF routine number for mixed case.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.340.
;--------------------------------------------------------------------------
SFRUTMIX EQU *
14770 6,0770 3 0,0001 0 XCH Q ; gets SF routine number for mixed case
14771 6,0771 5 0,0411 0 TS EXITEM
14772 6,0772 2 0,0414 1 INDEX DECOUNT
14773 6,0773 3 6,7022 0 CAF DISPLACE ; put TC GOQ, TC RIGHT5, or TC LEFT5 in L
14774 6,0774 5 0,0557 0 TS SFRUTMIX_L
14775 6,0775 2 0,0414 1 INDEX DECOUNT
14776 6,0776 3 2,4664 1 CAF LOW5 ; LOW5, MID5, or HI5 in A
14777 6,0777 7 0,0450 1 MASK RUTMXTEM ; get HI5, MID5, or LOW5 of RUTMXTAB entry
15000 6,1000 2 0,0557 1 INDEX SFRUTMIX_L
15001 6,1001 0 0,0000 1 TC 0
; do TC GOQ (DECOUNT=0), do TC RIGHT5 (DECOUNT=1), do TC LEFT5 (DECOUNT=2)
15002 6,1002 0 0,0411 0 SFRET1 TC EXITEM ; SF routine number in A
SFCONUM EQU *
15003 6,1003 3 0,0001 0 XCH Q ; gets 2X (SF constant number)
15004 6,1004 5 0,0411 0 TS EXITEM
15005 6,1005 2 0,0435 1 INDEX MIXBR
15006 6,1006 0 6,7006 0 TC *+0
15007 6,1007 0 6,7025 1 TC CONUMNOR ; normal noun
15010 6,1010 2 0,0414 1 INDEX DECOUNT ; mixed noun
15011 6,1011 3 6,7022 0 CAF DISPLACE
15012 6,1012 5 0,0560 1 TS SFCONUM_L ; put TC GOQ, TC RIGHT5, or TC LEFT5 in L
15013 6,1013 2 0,0414 1 INDEX DECOUNT
15014 6,1014 3 2,4664 1 CAF LOW5
15015 6,1015 7 0,0444 1 MASK NNTYPTEM
15016 6,1016 2 0,0560 0 INDEX SFCONUM_L
15017 6,1017 0 0,0000 1 TC 0
; do TC GOQ (DECOUNT=0), do TC RIGHT5 (DECOUNT=1), do TC LEFT5 (DECOUNT=2)
15020 6,1020 6 0,0000 1 SFRET DOUBLE ; 2X (SF constant number) in A
15021 6,1021 0 0,0411 0 TC EXITEM
DISPLACE EQU *
15022 6,1022 0 6,6761 1 TC GOQ
15023 6,1023 0 2,4640 1 TC RIGHT5
15024 6,1024 0 2,4647 0 TC LEFT5
CONUMNOR EQU *
15025 6,1025 3 2,4664 1 CAF LOW5 ; normal noun always gets low 5 of
15026 6,1026 7 0,0444 1 MASK NNTYPTEM ; NNTYPTAB for SF CONUM
15027 6,1027 6 0,0000 1 DOUBLE
15030 6,1030 0 0,0411 0 TC EXITEM ; 2X (SF constant number) in A
PUTCOM EQU *
15031 6,1031 5 0,0414 0 TS DECOUNT
15032 6,1032 3 0,0001 0 XCH Q
15033 6,1033 5 0,0412 0 TS DECRET
15034 6,1034 3 1,2050 0 CAF ZERO
15035 6,1035 5 0,0136 0 TS MPAC+6
15036 6,1036 2 0,0414 1 INDEX DECOUNT
15037 6,1037 3 0,0475 1 XCH XREGLP
15040 6,1040 5 0,0131 1 TS MPAC+1
15041 6,1041 2 0,0414 1 INDEX DECOUNT
15042 6,1042 3 0,0472 0 XCH XREG
15043 6,1043 5 0,0130 0 TS MPAC
15044 6,1044 2 0,0435 1 INDEX MIXBR
15045 6,1045 0 6,7045 1 TC *
15046 6,1046 0 6,7077 0 TC PUTNORM ; normal noun
; if mixnoun, place address for component K into NOUNADD, set EBANK bits.
15047 6,1047 2 0,0414 1 INDEX DECOUNT ; set IDADDTAB entry for component K
15050 6,1050 3 1,2050 0 CAF ZERO ; of noun
15051 6,1051 6 0,0445 1 AD IDAD1TEM ; was CA IDAD1TEM in Block II
15052 6,1052 7 2,4672 1 MASK LOW11 ; (ECADR) SUBK for current comp of noun
15053 6,1053 0 2,4616 1 TC SETNCADR ; ECADR into NOUNCADR, sets EB, NOUNADD
15054 6,1054 2 0,0000 1 EXTEND ; C(NOUNADD) in A upon return
15055 6,1055 6 0,0414 0 SU DECOUNT ; place (ESUBK)-K into NOUNADD
15056 6,1056 5 0,0442 0 TS NOUNADD
15057 6,1057 1 0,0467 0 CCS DECBRNCH
15060 6,1060 0 6,7114 1 TC PUTDECSF ; + dec
15061 6,1061 0 6,6444 0 TC DCTSTCYC ; +0 octal
15062 6,1062 0 6,6770 1 TC SFRUTMIX ; test if dec only bit = 1. If so,
15063 6,1063 0 6,6240 1 TC DPTEST ; alarm and recycle. If not, continue.
15064 6,1064 0 6,7111 1 TC PUTCOM2 ; no DP
; test for DP scale for oct load. If so,
; +0 into major part. Set NOUNADD for
; loading octal word into minor part.
PUTDPCOM EQU *
15065 6,1065 3 1,2050 0 CAF ZERO ; was INCR NOUNADD in Block II
15066 6,1066 6 0,0442 0 AD NOUNADD ; DP (RSUBK)-K+1 or E+1
15067 6,1067 6 1,2051 1 AD ONE
15070 6,1070 5 0,0442 0 TS NOUNADD
15071 6,1071 6 0,0414 0 AD DECOUNT ; (ESUBK)+1 or E+1 into DECOUNT
15072 6,1072 5 0,0414 0 TS DECOUNT ; was ADS DECOUNT in Block II
15073 6,1073 3 1,2050 0 CAF ZERO ; NOUNADD set for minor part
15074 6,1074 2 0,0414 1 INDEX DECOUNT
15075 6,1075 5 17,7776 0 TS -1 ; zero major part (ESUBK or E1)
15076 6,1076 0 6,7111 1 TC PUTCOM2
PUTNORM EQU *
15077 6,1077 0 2,4625 1 TC SETNADD ; ECADR from NOUNCADR, sets EB, NOUNADD
15100 6,1100 1 0,0467 0 CCS DECBRNCH
15101 6,1101 0 6,7114 1 TC PUTDECSF ; +DEC
15102 6,1102 0 6,6444 0 TC DCTSTCYC ; +0 octal
15103 6,1103 0 6,6762 1 TC SFRUTNOR ; test if dec only bit = 1. If so,
15104 6,1104 0 6,6240 1 TC DPTEST ; alarm and recycle. If not, continue.
15105 6,1105 0 6,7111 1 TC PUTNORM_1 ; no DP
15106 6,1106 3 1,2050 0 CAF ZERO
15107 6,1107 5 0,0414 0 TS DECOUNT
15110 6,1110 0 6,7065 0 TC PUTDPCOM
PUTNORM_1 EQU * ; eliminated Block II CHANNEL LOAD code
PUTCOM2 EQU *
15111 6,1111 3 0,0130 0 XCH MPAC
15112 6,1112 0 0,0412 0 TC DECRET
15113 6,1113 16176 0 GTSFINLC DS GTSFIN
; *************** missing stuff *****************
; PUTDECSF
; Finds MIXBR and DECOUNT still set from PUTCOM
PUTDECSF EQU *
15114 6,1114 0 6,7003 0 TC SFCONUM ; 2X (SF CON NUM) in A
15115 6,1115 5 0,0420 1 TS SFTEMP1
15116 6,1116 3 6,7113 0 CAF GTSFINLC ; was DCA GTSFINLC, DXCH Z in Block II
15117 6,1117 0 1,3526 0 TC DXCHJUMP ; bank jump to SF const table read rtne
; loads SFTEMP1, SFTEMP2
15120 6,1120 2 0,0435 1 INDEX MIXBR
15121 6,1121 0 6,7121 1 TC *
15122 6,1122 0 6,7125 0 TC PUTSFNOR
15123 6,1123 0 6,6770 1 TC SFRUTMIX
15124 6,1124 0 6,7126 0 TC PUTDCSF2
15125 6,1125 0 6,6762 1 PUTSFNOR TC SFRUTNOR
15126 6,1126 2 0,0000 0 PUTDCSF2 INDEX A
15127 6,1127 3 6,7131 0 CAF SFINTABR
15130 6,1130 0 1,3712 0 TC BANKJUMP ; switch banks for expansion room
15131 6,1131 14340 0 SFINTABR CADR GOALMCYC ; 0, alarm and recycle if dec load
15132 6,1132 13011 0 CADR BINROUND ; 1
15133 6,1133 12727 0 CADR DEGINSF ; 2
15134 6,1134 12776 1 CADR ARTHINSF ; 3
15135 6,1135 00000 1 CADR 0 ; 4 **********
15136 6,1136 00000 1 CADR 0 ; 5 **********
15137 6,1137 00000 1 CADR 0 ; 6 **********
15140 6,1140 00000 1 CADR 0 ; 7 **********
15141 6,1141 00000 1 CADR 0 ; 8 **********
15142 6,1142 00000 1 CADR 0 ; 9 **********
15143 6,1143 00000 1 CADR 0 ; 10 *********
15144 6,1144 00000 1 CADR 0 ; 11 *********
15145 6,1145 00000 1 CADR 0 ; 12 *********
; BUNCH OF TABLE ENTRIES GO HERE!!!!!
; ************ NEED TO ADD THE REST *************
BANK41_3 EQU *
ORG BANK40_4 ; COLOSSUS pp. 343-346
INCL bank40_4.asm
;==========================================================================
; SCALE FACTOR ROUTINES (file:bank40_4.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 343-346.
;==========================================================================
DEGINSF EQU *
12727 5,0727 0 2,4374 0 TC DMP ; SF routine for dec degrees
12730 5,0730 06772 0 ADRES DEGCON1 ; mult by 5.5 5(10)X2EXP-3
12731 5,0731 1 0,0131 0 CCS MPAC+1 ; this rounds off MPAC+1 before shift
12732 5,0732 3 1,2066 0 CAF BIT11 ; left 3, and causes 360.00 to OF/UF
12733 5,0733 0 5,6735 0 TC *+2 ; when shifted left and alarm
12734 5,0734 4 1,2066 1 CS BIT11
12735 5,0735 6 0,0131 1 AD MPAC+1
12736 5,0736 0 5,7016 1 TC _2ROUND+2
12737 5,0737 0 2,4721 1 TC TPSL1 ; left 1
12740 5,0740 0 2,4721 1 DEGINSF2 TC TPSL1 ; left 2
12741 5,0741 0 5,7025 1 TC TESTOFUF
12742 5,0742 0 2,4721 1 TC TPSL1 ; returns if no OF/UF (left 3)
12743 5,0743 1 0,0130 1 CCS MPAC
12744 5,0744 0 5,6750 0 TC SIGNFIX ; if +, go to SIGNFIX
12745 5,0745 0 5,6750 0 TC SIGNFIX ; if +0, go to SIGNFIX
12746 5,0746 4 0,0000 0 COM ; if -, use -MAGNITUDE + 1
12747 5,0747 5 0,0130 0 TS MPAC ; -f -0; use +0
12750 5,0750 1 0,0136 1 SIGNFIX CCS MPAC+6
12751 5,0751 0 5,6766 0 TC SGNTO1 ; if overflow
12752 5,0752 0 5,6762 1 TC ENDSCALE ; no overflow/underflow
12753 5,0753 1 0,0130 1 CCS MPAC ; if UF, force sign to 0 except -180
12754 5,0754 0 5,6271 0 TC CCSHOLE
12755 5,0755 0 5,6764 1 TC NEG180
12756 5,0756 0 5,6757 1 TC *+1
12757 5,0757 3 0,0130 0 XCH MPAC
12760 5,0760 7 1,2106 0 MASK POSMAX
12761 5,0761 5 0,0130 0 TS MPAC
ENDSCALE EQU *
12762 5,0762 0 1,3653 1 TC POSTJUMP
12763 5,0763 15111 1 CADR PUTCOM2
12764 5,0764 4 1,2106 0 NEG180 CS POSMAX
12765 5,0765 0 5,6761 1 TC ENDSCALE-1
SGNTO1 EQU *
12766 5,0766 4 0,0130 1 CS MPAC ; if OV force sign to 1
12767 5,0767 7 1,2106 0 MASK POSMAX
12770 5,0770 4 0,0000 0 CS A
12771 5,0771 0 5,6761 1 TC ENDSCALE-1
12772 5,0772 26161 0 DEGCON1 DS %26161
12773 5,0773 30707 1 DS %30707
12774 5,0774 21616 0 DEGCON2 DS %21616
12775 5,0775 07071 0 DS %07071
; ************ missing stuff ***************
ARTHINSF EQU *
12776 5,0776 0 2,4374 0 TC DMP ; scales MPAC, +1 by SFTEMP1, SFTEMP2
12777 5,0777 00420 1 ADRES SFTEMP1 ; assumes point between HI and LO parts
13000 5,1000 3 0,0132 1 XCH MPAC+2 ; of SFCON, shifts results left by 14.
13001 5,1001 3 0,0131 1 XCH MPAC+1 ; (by taking results from MPAC+1, MPAC+2)
13002 5,1002 3 0,0130 0 XCH MPAC
13003 5,1003 1 0,0000 0 CCS A ; was BZF BINROUND in Block II
13004 5,1004 0 5,7010 1 TC *+4 ; >0
13005 5,1005 0 5,7007 1 TC *+2 ; +0
13006 5,1006 0 5,7010 1 TC *+2 ; <0
13007 5,1007 0 5,7011 0 TC BINROUND ; -0
13010 5,1010 0 2,4474 1 TC ALMCYCLE ; too large a load, alarm and recycle
BINROUND EQU *
13011 5,1011 0 5,7014 0 TC _2ROUND
13012 5,1012 0 5,7025 1 TC TESTOFUF
13013 5,1013 0 5,6762 1 TC ENDSCALE
; ************ missing stuff ***************
_2ROUND EQU *
13014 5,1014 3 0,0131 1 XCH MPAC+1
13015 5,1015 6 0,0000 1 DOUBLE
13016 5,1016 5 0,0131 1 TS MPAC+1
13017 5,1017 0 0,0001 0 TC Q ; if MPAC+1 does not OF/UF
13020 5,1020 6 0,0130 0 AD MPAC
13021 5,1021 5 0,0130 0 TS MPAC
13022 5,1022 0 0,0001 0 TC Q ; if MPAC does not OF/UF
13023 5,1023 5 0,0136 0 TS MPAC+6
13024 5,1024 0 0,0001 0 _2RNDEND TC Q
TESTOFUF EQU *
13025 5,1025 1 0,0136 1 CCS MPAC+6 ; returns if no OF/UF
13026 5,1026 0 2,4474 1 TC ALMCYCLE ; OF, alarm and recycle
13027 5,1027 0 0,0001 0 TC Q
13030 5,1030 0 2,4474 1 TC ALMCYCLE ; UF, alarm and recycle
BANK40_5 EQU *
ORG BANK42_2
BANK42_3 EQU *
ORG BANK41_3
INCL bank41_3.asm ; COLOSSUS pp. 349-351
;==========================================================================
; DISPLAY ROUTINES (file:bank41_3.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 349-351.
;==========================================================================
; MONITOR allows other keyboard activity. It is ended by verb TERMINATE
; verb PROCEED WITHOUT DATA, verb RESEQUENCE, another monitor, or any
; NVSUB call that passes DSPLOCK (provided that the operator has somehow
; allowed the ending of a monitor which he has initiated through the
; keyboard.
;
; MONITOR action is suspended, but not ended, by any keyboard action,
; except error light reset. It begins again when KEY RELEASE is performed.
; MONITOR saves the noun and appropriate display verb in MONSAVE. It saves
; NOUNCADR in MONSAVE1, if noun = machine CADR to be specified. Bit 15 of
; MONSAVE1 is the kill monitor signal (killer bit). Bit 14 of MONSAVE1
; indicates the current monitor was externally initiated (external monitor
; bit). It is turned off by RELDSP and KILMONON.
;
; MONSAVE indicates if MONITOR is on (+=ON, +0=OFF)
; If MONSAVE is +, monitor enters no request, but turns killer bit off.
; If MONSAVE is +0, monitor enters request and turns killer bit off.
;
; NVSUB (if external monitor bit is off), VB=PROCEED WITHOUT DATA,
; VB=RESEQUENCE, and VB=TERMINATE turn kill monitor bit on.
;
; If killer bit is on, MONREQ enters no further requests, zeroes MONSAVE
; and MONSAVE1 (turning off killer bit and external monitor bit).
;
; MONITOR doesn't test for MATBS since NVSUB can handle internal MATBS now.
MONITOR EQU *
15146 6,1146 4 6,7155 0 CS BIT15_14
15147 6,1147 7 0,0506 0 MASK NOUNCADR
MONIT1 EQU *
15150 6,1150 5 0,0131 1 TS MPAC+1 ; temp storage
15151 6,1151 4 0,0433 1 CS ENTEXIT
15152 6,1152 6 2,4553 0 AD ENDINST
15153 6,1153 1 0,0000 0 CCS A
15154 6,1154 0 6,7164 0 TC MONIT2
15155 6,1155 60000 1 BIT15_14 DS %60000
15156 6,1156 0 6,7164 0 TC MONIT2
15157 6,1157 3 1,2063 0 CAF BIT14 ; externally initiated monitor
15160 6,1160 6 0,0131 1 AD MPAC+1 ; was ADS MPAC+1 in Block II
15161 6,1161 5 0,0131 1 TS MPAC+1 ; set bit 14 for MONSAVE1
15162 6,1162 3 1,2050 0 CAF ZERO
15163 6,1163 5 0,0511 1 TS MONSAVE2 ; zero NVMONOPT options
MONIT2 EQU *
15164 6,1164 3 1,2101 0 CAF LOW7
15165 6,1165 7 0,0470 0 MASK VERBREG
15166 6,1166 0 2,4647 0 TC LEFT5
15167 6,1167 5 0,0022 1 TS CYL
15170 6,1170 4 0,0022 0 CS CYL
15171 6,1171 3 0,0022 1 XCH CYL
15172 6,1172 6 0,0471 0 AD NOUNREG
15173 6,1173 5 0,0130 0 TS MPAC ; temp storage
15174 6,1174 3 1,2050 0 CAF ZERO
15175 6,1175 5 0,0501 0 TS DSPLOCK ; +0 into DSPLOCK so monitor can run
15176 6,1176 1 0,0531 1 CCS CADRSTOR ; turn off KR lite if CADRSTOR and DSPLIST
15177 6,1177 0 6,7201 0 TC *+2 ; are both empty. (Lite comes on if new
15200 6,1200 0 2,5026 0 TC RELDSP1 ; monitor is keyed in over old monitor.)
15201 6,1201 2 0,0000 0 INHINT
15202 6,1202 1 0,0507 1 CCS MONSAVE
15203 6,1203 0 6,7207 0 TC *+4 ; if MONSAVE was +, no request
15204 6,1204 3 1,2051 1 CAF ONE ; if MONSAVE was 0, request MONREQ
15205 6,1205 0 1,2232 0 TC WAITLIST
15206 6,1206 15215 0 CADR MONREQ
15207 6,1207 3 0,0131 1 XCH MPAC+1 ; was DXCH MPAC, DXCH MONSAVE
15210 6,1210 3 0,0510 0 XCH MONSAVE+1
15211 6,1211 3 0,0130 0 XCH MPAC ; place monitor verb and noun into MONSAVE
15212 6,1212 3 0,0507 0 XCH MONSAVE ; zero the kill monitor bit
15213 6,1213 2 0,0000 1 RELINT ; set up external monitor bit
15214 6,1214 0 0,0433 0 TC ENTRET
MONREQ EQU *
15215 6,1215 0 6,7300 0 TC LODSAMPT ; called by waitlist (see COLOSSUS p. 374)
15216 6,1216 1 0,0510 1 CCS MONSAVE1 ; time is snatched in RUPT for NOUN 65
15217 6,1217 0 6,7223 0 TC *+4 ; if killer bit = 0, enter requests
15220 6,1220 0 6,7223 0 TC *+3 ; if killer bit = 0, enter requests
15221 6,1221 0 6,7232 0 TC KILLMON ; if killer bit = 1, no requests
15222 6,1222 0 6,7232 0 TC KILLMON ; if killer bit = 1, no requests
15223 6,1223 3 6,7236 1 CAF MONDEL
15224 6,1224 0 1,2232 0 TC WAITLIST ; enter waitlist request for MONREQ
15225 6,1225 15215 0 CADR MONREQ
15226 6,1226 3 2,4131 0 CAF CHRPRIO
15227 6,1227 0 1,3162 1 TC NOVAC ; enter EXEC request for MONDO
15230 6,1230 15237 0 CADR MONDO
15231 6,1231 0 1,2413 0 TC TASKOVER
KILLMON EQU *
15232 6,1232 3 1,2050 0 CAF ZERO ; zero MONSAVE and turn killer bit off
15233 6,1233 5 0,0507 0 TS MONSAVE
15234 6,1234 5 0,0510 0 TS MONSAVE1 ; turn off kill monitor bit
15235 6,1235 0 1,2413 0 TC TASKOVER ; turn off external monitor bit
15236 6,1236 00144 0 MONDEL DS %144 ; for 1 sec monitor intervals
MONDO EQU *
15237 6,1237 1 0,0510 1 CCS MONSAVE1 ; called by EXEC
15240 6,1240 0 6,7244 1 TC *+4 ; if killer bit = 0, continue
15241 6,1241 0 6,7244 1 TC *+3 ; if killer bit = 0, continue
15242 6,1242 0 1,2723 0 TC ENDOFJOB ; in case TERMINATE came since last MONREQ
15243 6,1243 0 1,2723 0 TC ENDOFJOB ; in case TERMINATE came since last MONREQ
15244 6,1244 1 0,0501 1 CCS DSPLOCK
15245 6,1245 0 6,7276 0 TC MONBUSY ; NVSUB is busy
15246 6,1246 3 1,2101 0 CAF LOW7
15247 6,1247 7 0,0507 1 MASK MONSAVE
15250 6,1250 0 6,6306 1 TC UPDATNN-1 ; place noun into NOUNREG and display it
15251 6,1251 3 2,4473 0 CAF MID7
15252 6,1252 7 0,0507 1 MASK MONSAVE ; change monitor verb to display verb
15253 6,1253 6 6,7274 1 AD MONREF ; -DEC10, starting in bit5
15254 6,1254 5 0,0020 0 TS CYR ; shift right 7, was TS EDOP, CA EDOP in BII
15255 6,1255 4 0,0020 1 CS CYR
15256 6,1256 4 0,0020 1 CS CYR
15257 6,1257 4 0,0020 1 CS CYR
15260 6,1260 4 0,0020 1 CS CYR
15261 6,1261 4 0,0020 1 CS CYR
15262 6,1262 4 0,0020 1 CS CYR
15263 6,1263 3 0,0020 0 XCH CYR
15264 6,1264 7 1,2101 1 MASK LOW7
15265 6,1265 5 0,0470 1 TS VERBREG
15266 6,1266 3 6,7275 0 CAF MONBACK ; set return to PASTEVB after data display
15267 6,1267 5 0,0433 0 TS ENTRET
15270 6,1270 4 6,7155 0 CS BIT15_14
15271 6,1271 7 0,0510 1 MASK MONSAVE1
15272 6,1272 5 0,0132 1 TS MPAC+2 ; display it and set NOUNCADR, NOUNADD,
15273 6,1273 0 6,6054 0 ENDMONDO TC TESTNN ; EBANK
; COLOSSUS switches to fixed/fixed memory and inserts PASTEVB here--
; Probably, because their assembler couldn't handle forward references.
15274 6,1274 75377 0 MONREF DS %75377 ; -dec10, starting in bit8
15275 6,1275 04435 1 MONBACK CADR PASTEVB
15276 6,1276 0 2,4713 0 MONBUSY TC RELDSPON ; turn key release light
15277 6,1277 0 1,2723 0 TC ENDOFJOB
15300 6,1300 0 0,0001 0 LODSAMPT TC Q ; ************************** FIX ****************************
BANK41_4 EQU *
ORG BANKFF_1
INCL bankff_1.asm ; COLOSSUS pp. 351
;==========================================================================
; DISPLAY ROUTINES (file:bankff_1.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 351.
;==========================================================================
PASTEVB EQU *
04435 4435 3 2,4473 0 CAF MID7
04436 4436 7 0,0511 0 MASK MONSAVE2 ; NVMONOPT paste option
04437 4437 5 0,0571 1 TS PASTE_TMP
04440 4440 1 0,0000 0 CCS A ; was BZF *+2 in Block II
04441 4441 0 2,4443 0 TC *+2 ; >0,
04442 4442 0 2,4444 1 TC *+2 ; +0,
04443 4443 0 2,4445 0 TC *+2 ; <0,
04444 4444 0 2,4447 1 TC *+3 ; -0,
04445 4445 3 0,0571 1 XCH PASTE_TMP
04446 4446 0 2,4451 0 TC PASTEOPT ; paste please verb for NVMONOPT
04447 4447 3 1,2050 0 CAF ZERO ; was CA MONSAVE in BII
04450 4450 6 0,0507 0 AD MONSAVE ; paste monitor verb - paste option is 0
PASTEOPT EQU *
04451 4451 5 0,0020 0 TS CYR ; shift right 7, was TS EDOP, CA EDOP in BII
04452 4452 4 0,0020 1 CS CYR
04453 4453 4 0,0020 1 CS CYR
04454 4454 4 0,0020 1 CS CYR
04455 4455 4 0,0020 1 CS CYR
04456 4456 4 0,0020 1 CS CYR
04457 4457 4 0,0020 1 CS CYR
04460 4460 3 0,0020 0 XCH CYR
04461 4461 7 1,2101 1 MASK LOW7 ; place monitor verb or please verb into
04462 4462 0 1,3565 1 TC BANKCALL ; VERBREG and display it.
04463 4463 14326 0 CADR UPDATVB-1
04464 4464 3 1,2050 0 CAF ZERO ; zero REQRET so that pasted verbs can
04465 4465 5 0,0502 0 TS REQRET ; be executed by operator.
04466 4466 3 1,2050 0 CAF ZERO
04467 4467 6 0,0511 1 AD MONSAVE2 ; was CA MONSAVE2 in BII
04470 4470 0 2,4565 0 TC BLANKSUB ; process NVMONOPT blank option if any (p. 368)
04471 4471 0 2,4472 1 TC *+1
04472 4472 0 1,2723 0 ENDPASTE TC ENDOFJOB
04473 4473 37600 0 MID7 DS %37600
BANKFF_2 EQU *
ORG BANK41_4
INCL bank41_4.asm ; COLOSSUS pp. 352
;==========================================================================
; DISPLAY ROUTINES (file:bank41_4.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 352.
;==========================================================================
;--------------------------------------------------------------------------
; DSPFMEM -- DISPLAY FIXED MEMORY
; Used to display (in octal) any fixed register. It is used with NOUN =
; machine CADR to be specified. The FCADR of the desired location is then
; punched in. It handles F/F (FCADR 4000-7777)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.352.
;--------------------------------------------------------------------------
DSPFMEM EQU *
15301 6,1301 3 2,4635 0 CAF R1D1 ; If F/F, DATACALL uses bank 02 or 03
15302 6,1302 5 0,0466 0 TS DSPCOUNT
15303 6,1303 3 1,2050 0 CAF ZERO ; was CA NOUNCADR, TC SUPDACAL in Block II
15304 6,1304 6 0,0506 1 AD NOUNCADR ; original FCADR loaded still in NOUNCADR
15305 6,1305 0 1,3742 0 TC DATACALL ; call with FCADR in A
15306 6,1306 0 6,7310 1 TC DSPOCTWD
15307 6,1307 0 1,2723 0 ENDSPF TC ENDOFJOB
BANK41_5 EQU *
ORG BANK40_5 ; COLOSSUS pp. 353-355
INCL bank40_5.asm
;==========================================================================
; WORD DISPLAY ROUTINES (file:bank40_5.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 353-355.
;==========================================================================
DSPSIGN EQU *
13031 5,1031 3 0,0001 0 XCH Q
13032 5,1032 5 0,0441 0 TS DSPWDRET
13033 5,1033 1 0,0130 1 CCS MPAC
13034 5,1034 0 5,7044 0 TC *+8 ; >0, positive sign
13035 5,1035 0 5,7044 0 TC *+7 ; +0, positive sign
13036 5,1036 6 1,2051 1 AD ONE
13037 5,1037 5 0,0130 0 TS MPAC
13040 5,1040 0 5,6353 1 TC M_ON ; display minus sign
13041 5,1041 4 0,0131 0 CS MPAC+1
13042 5,1042 5 0,0131 1 TS MPAC+1
13043 5,1043 0 0,0441 0 TC DSPWDRET
13044 5,1044 0 5,6332 0 TC P_ON ; display plus sign
13045 5,1045 0 0,0441 0 TC DSPWDRET ; return
;--------------------------------------------------------------------------
; DSPRND
; Round up decimal fraction by 5 EXP -6. This was entirely coded in
; Block II instructions, so I translated it to the functional
; equivalent in Block I code.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.353.
;--------------------------------------------------------------------------
DSPRND EQU *
13046 5,1046 3 5,7117 1 CAF DECROUND
13047 5,1047 6 0,0131 1 AD MPAC+1
13050 5,1050 5 0,0131 1 TS MPAC+1 ; skip on overflow
13051 5,1051 3 1,2050 0 CAF ZERO ; otherwise, make interword carry=0
13052 5,1052 6 0,0130 0 AD MPAC
13053 5,1053 5 0,0130 0 TS MPAC ; skip on overflow
13054 5,1054 0 0,0001 0 TC Q ; return
13055 5,1055 3 5,7063 0 CAF DPOSMAX+1 ; number overflows, so set to max
13056 5,1056 5 0,0131 1 TS MPAC+1
13057 5,1057 3 5,7062 1 CAF DPOSMAX
13060 5,1060 5 0,0130 0 TS MPAC
13061 5,1061 0 0,0001 0 TC Q ; return
DPOSMAX EQU * ; max positive decimal fraction
13062 5,1062 37777 1 DS %37777
13063 5,1063 34000 0 DS %34000
;--------------------------------------------------------------------------
; DSPDECTWD -- DISPLAY DECIMAL WORD
; Converts C(MPAC, MPAC+1) into a sign and 5 char decimal starting in loc
; specified in DSPCOUNT. it rounds by 5 exp 6.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.353.
;--------------------------------------------------------------------------
DSPDECWD EQU *
13064 5,1064 3 0,0001 0 XCH Q
13065 5,1065 5 0,0412 0 TS WDRET
13066 5,1066 0 5,7031 1 TC DSPSIGN
13067 5,1067 0 5,7046 1 TC DSPRND
13070 5,1070 3 1,2054 1 CAF FOUR
DSPDCWD1 EQU *
13071 5,1071 5 0,0434 1 TS WDCNT
13072 5,1072 3 2,4700 1 CAF BINCON
13073 5,1073 0 2,4353 0 TC SHORTMP
TRACE1 EQU *
13074 5,1074 2 0,0130 1 INDEX MPAC
13075 5,1075 3 1,3772 0 CAF RELTAB
13076 5,1076 7 2,4664 0 MASK LOW5
13077 5,1077 5 0,0421 0 TS CODE
13100 5,1100 3 1,2050 0 CAF ZERO
13101 5,1101 3 0,0132 1 XCH MPAC+2
13102 5,1102 3 0,0131 1 XCH MPAC+1
13103 5,1103 5 0,0130 0 TS MPAC
13104 5,1104 3 0,0466 0 XCH DSPCOUNT
TRACE1S EQU *
13105 5,1105 5 0,0440 1 TS COUNT
13106 5,1106 1 0,0000 0 CCS A ; decrement DSPCOUNT except at +0
13107 5,1107 5 0,0466 0 TS DSPCOUNT
13110 5,1110 0 5,7161 0 TC DSPIN
13111 5,1111 1 0,0434 0 CCS WDCNT
13112 5,1112 0 5,7071 0 TC DSPDCWD1 ; >0, not done yet
13113 5,1113 4 2,4675 0 CS VD1 ; +0
13114 5,1114 5 0,0466 0 TS DSPCOUNT
13115 5,1115 0 0,0412 0 TC WDRET ; return
13116 5,1116 00000 1 DS %00000
13117 5,1117 02476 0 DECROUND DS %02476
;--------------------------------------------------------------------------
; DSPDECNR
; Converts C(MPAC, MPAC+1) into a sign and 5 char decimal starting in loc
; specified in DSPCOUNT. It does not round.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.354.
;--------------------------------------------------------------------------
DSPDECNR EQU *
13120 5,1120 3 0,0001 0 XCH Q
13121 5,1121 5 0,0412 0 TS WDRET
13122 5,1122 0 5,7031 1 TC DSPSIGN
13123 5,1123 0 5,7070 1 TC DSPDCWD1-1
;--------------------------------------------------------------------------
; DSPDC2NR
; Converts C(MPAC, MPAC+1) into a sign and 2 char decimal starting in loc
; specified by DSPCOUNT. It does not round.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.354.
;--------------------------------------------------------------------------
DSPDC2NR EQU *
13124 5,1124 3 0,0001 0 XCH Q
13125 5,1125 5 0,0412 0 TS WDRET
13126 5,1126 0 5,7031 1 TC DSPSIGN
13127 5,1127 3 1,2051 1 CAF ONE
13130 5,1130 0 5,7071 0 TC DSPDCWD1
;--------------------------------------------------------------------------
; DSP2DEC
; Converts C(MPAC) and C(MPAC+1) into a sign and 10 char decimal starting
; in the loc specified in DSPCOUNT.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.354.
;--------------------------------------------------------------------------
DSP2DEC EQU *
13131 5,1131 3 0,0001 0 XCH Q
13132 5,1132 5 0,0412 0 TS WDRET
13133 5,1133 3 1,2050 0 CAF ZERO
13134 5,1134 5 0,0421 0 TS CODE
13135 5,1135 3 1,2053 0 CAF THREE
13136 5,1136 0 5,7253 1 TC _11DSPIN ; -R2 off
13137 5,1137 3 1,2054 1 CAF FOUR
13140 5,1140 0 5,7253 1 TC _11DSPIN ; +R2 off
13141 5,1141 0 5,7031 1 TC DSPSIGN
13142 5,1142 3 2,4636 0 CAF R2D1
13143 5,1143 0 5,7071 0 END2DEC TC DSPDCWD1
;--------------------------------------------------------------------------
; DSPDECVN
; Displays C(A) upon entry as a 2 char decimal beginning in the
; loc specified in DSPCOUNT.
; C(A) should be in form N x 2EXP-14. This is scaled to form N/100 before
; display conversion.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.353.
;--------------------------------------------------------------------------
DSPDECVN EQU *
13144 5,1144 2 0,0000 1 EXTEND
13145 5,1145 4 5,7155 0 MP VNDSPCON ; mult by .01
13146 5,1146 3 0,0003 1 XCH LP ; was LXCH MPAC in Block II
13147 5,1147 5 0,0130 0 TS MPAC ; take results from LP (mult by 2EXP14)
13150 5,1150 3 1,2050 0 CAF ZERO
13151 5,1151 5 0,0131 1 TS MPAC+1
13152 5,1152 3 0,0001 0 XCH Q
13153 5,1153 5 0,0412 0 TS WDRET
13154 5,1154 0 5,7127 1 TC DSPDC2NR+3 ; no sign, no round, 2 char
13155 5,1155 00244 0 VNDSPCON DS %00244 ; .01 rounded up
GOVNUPDT EQU *
13156 5,1156 0 5,7144 1 TC DSPDECVN ; this is not for general use. Really part
13157 5,1157 0 1,3653 1 TC POSTJUMP ; of UPDATVB
13160 5,1160 14337 0 DS UPDAT1+2
BANK40_6 EQU *
ORG BANK41_5 ; COLOSSUS pp. 355-356
INCL bank41_5.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank41_5.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 355-356.
;==========================================================================
;--------------------------------------------------------------------------
; DSPOCTWD -- DISPLAY OCTAL WORD
; Displays C(A) upon entry as a 5 char octal starting in the DSP char
; specified in DSPCOUNT. It stops after 5 char have been displayed.
;
;
; DSP2BIT -- DISPLAY 2 OCTAL CHARS
; Displays C(A) upon entry as a 2 char oct beginning in the DSP
; loc specified in DSPCOUNT by pre-cycling right C(A) and using
; the logic of the 5 char octal display.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.355/356.
;--------------------------------------------------------------------------
DSPOCTWD EQU *
15310 6,1310 5 0,0022 1 TS CYL
15311 6,1311 3 0,0001 0 XCH Q
15312 6,1312 5 0,0412 0 TS WDRET ; must use the same return as DSP2BIT
15313 6,1313 3 1,2063 0 CAF BIT14 ; to blank signs
15314 6,1314 6 0,0466 0 AD DSPCOUNT ; was ADS DSPCOUNT in block II
15315 6,1315 5 0,0466 0 TS DSPCOUNT
15316 6,1316 3 1,2054 1 CAF FOUR
WDAGAIN EQU *
15317 6,1317 5 0,0434 1 TS WDCNT
15320 6,1320 4 0,0022 0 CS CYL
15321 6,1321 4 0,0022 0 CS CYL
15322 6,1322 4 0,0022 0 CS CYL
15323 6,1323 4 0,0000 0 CS A
15324 6,1324 7 1,2057 0 MASK DSPMSK
15325 6,1325 2 0,0000 0 INDEX A
15326 6,1326 3 1,3772 0 CAF RELTAB
15327 6,1327 7 2,4664 0 MASK LOW5
15330 6,1330 5 0,0421 0 TS CODE
15331 6,1331 3 0,0466 0 XCH DSPCOUNT
15332 6,1332 5 0,0440 1 TS COUNT
15333 6,1333 1 0,0000 0 CCS A ; decrement DSPCOUNT except at +0
15334 6,1334 5 0,0466 0 TS DSPCOUNT ; > 0
15335 6,1335 0 1,3653 1 TC POSTJUMP ; + 0
15336 6,1336 13261 0 DS DSPOCTIN
OCTBACK EQU *
15337 6,1337 1 0,0434 0 CCS WDCNT
15340 6,1340 0 6,7317 0 TC WDAGAIN
DSPLW EQU *
15341 6,1341 4 2,4675 0 CS VD1 ; to block numerical characters, clears
15342 6,1342 5 0,0466 0 TS DSPCOUNT
15343 6,1343 0 0,0412 0 TC WDRET ; * return
DSPMSK EQU SEVEN
DSP2BIT EQU *
15344 6,1344 5 0,0020 0 TS CYR
15345 6,1345 3 0,0001 0 XCH Q
15346 6,1346 5 0,0412 0 TS WDRET
15347 6,1347 3 1,2051 1 CAF ONE
15350 6,1350 5 0,0434 1 TS WDCNT
15351 6,1351 4 0,0020 1 CS CYR
15352 6,1352 4 0,0020 1 CS CYR
15353 6,1353 3 0,0020 0 XCH CYR
15354 6,1354 5 0,0022 1 TS CYL
15355 6,1355 0 6,7324 0 TC WDAGAIN+5
BANK41_6 EQU *
ORG BANK40_6 ; COLOSSUS pp. 356-358
INCL bank40_6.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank40_6.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 356-358.
;==========================================================================
;--------------------------------------------------------------------------
; DSPIN -- DISPLAY RELAY CODE
;
; For DSPIN, place 0-25 oct into COUNT to select the character (same as DSPCOUNT),
; 5 bit relay code into CODE. Both are destroyed. If bit 14 of COUNT is 1, sign is
; blanked with left char.
; For DSPIN11, place 0,1 into CODE, 2 into COUNT, rel address of DSPTAB entry
; into DSREL.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.356.
;--------------------------------------------------------------------------
DSPIN EQU *
13161 5,1161 3 0,0001 0 XCH Q ; cant use L for RETURN, since many of the
13162 5,1162 5 0,0411 0 TS DSEXIT ; routines calling DSPIN use L as RETURN
; Set DSREL to index into DSPTAB; the index corresponds to the display character
; referenced by COUNT (which is derived from DSPCOUNT)
13163 5,1163 3 2,4664 1 CAF LOW5
13164 5,1164 7 0,0440 0 MASK COUNT
13165 5,1165 5 0,0021 1 TS SR ; divides by 2
13166 5,1166 3 0,0021 1 XCH SR
13167 5,1167 5 0,0436 0 TS DSREL
; Check COUNT (derived from DSPCOUNT) to find whether the character to be
; displayed is in the right (Bits 5-1) or left (Bits 10-6) bits of the
; DSPTAB word.
13170 5,1170 3 1,2100 1 CAF BIT1
13171 5,1171 7 0,0440 0 MASK COUNT
13172 5,1172 1 0,0000 0 CCS A
13173 5,1173 0 5,7175 0 TC *+2 ; >0, left if COUNT is odd
13174 5,1174 0 5,7205 1 TC DSPIN1-1 ; +0, right if COUNT is even
; Character to be displayed should be in the left bits (Bit 10-6), so
; shift it left into bits 10-6.
13175 5,1175 3 0,0421 0 XCH CODE
13176 5,1176 0 2,4656 0 TC SLEFT5 ; does not use CYL
13177 5,1177 5 0,0421 0 TS CODE
; Set COUNT as an enumerated type; tells how to mask the new character
; into the relay word.
; 0 = mask new character into right side of relayword (bits 5-1)
; 1 = mask into left side (bits 10-6) and leave old sign (bit 11) alone.
; 2 = mask into left side (bits 10-6) and blank sign bit (bit 11)
13200 5,1200 3 1,2063 0 CAF BIT14
13201 5,1201 7 0,0440 0 MASK COUNT
13202 5,1202 1 0,0000 0 CCS A
13203 5,1203 3 1,2052 1 CAF TWO ; >0, BIT14 = 1, blank sign
13204 5,1204 6 1,2051 1 AD ONE ; +0, BIT14 = 0, leave sign alone
13205 5,1205 5 0,0440 1 TS COUNT
; New display character in CODE has been bit-shifted into the correct (left
; or right) bit position. All other bits are zeroed.
DSPIN1 EQU *
13206 5,1206 2 0,0000 0 INHINT
; Get the existing display word from DSPTAB. Words that have already been
; displayed will be positive; words yet to be displayed will be negative.
; Use CCS to load the absolute value of the display word. Since CCS decrements
; it, we need to add 1 to restore the value.
13207 5,1207 2 0,0436 1 INDEX DSREL
13210 5,1210 1 0,0512 0 CCS DSPTAB
13211 5,1211 0 5,7213 0 TC *+2 ; >0, old word already displayed
13212 5,1212 0 5,7245 0 TC DSLV ; +0, illegal DSPCOUNT (was TC CCSHOLE)
13213 5,1213 6 1,2051 1 AD ONE ; <0, old word not displayed yet
13214 5,1214 5 0,0437 1 TS DSMAG ; store the old relay word
; Now, mask off the portion of the old relay word corresponding to the
; new character. Subtract the new character from the old to see whether
; they are the same.
13215 5,1215 2 0,0440 0 INDEX COUNT
13216 5,1216 7 5,7247 0 MASK DSMSK ; mask with 00037, 01740, 02000, or 03740
13217 5,1217 2 0,0000 1 EXTEND
13220 5,1220 6 0,0421 0 SU CODE
; Old code same as new code? If so, we don't need to redisplay it.
13221 5,1221 1 0,0000 0 CCS A ; was BZF DSLV in Block II
13222 5,1222 0 5,7226 0 TC DFRNT ; >0
13223 5,1223 0 5,7245 0 TC DSLV ; +0, same, so return
13224 5,1224 0 5,7226 0 TC DFRNT ; <0
13225 5,1225 0 5,7245 0 TC DSLV ; -0, same, so return
; New code is different.
DFRNT EQU * ; different
13226 5,1226 2 0,0440 0 INDEX COUNT
13227 5,1227 4 5,7247 0 CS DSMSK ; mask with 77740, 76037, 75777, or 74037
13230 5,1230 7 0,0437 0 MASK DSMAG
13231 5,1231 6 0,0421 0 AD CODE
; Store new DSPTAB word and get the old (previous) word. If the old word is
; negative, it had not been displayed yet, so NOUT (the count of undisplayed
; words) has already been incremented for this DSPTAB word. If the old word
; is positive, it has already been displayed, so we need to increment NOUT
; to tell DSPOUT to display the new word.
13232 5,1232 4 0,0000 0 CS A
13233 5,1233 2 0,0436 1 INDEX DSREL
13234 5,1234 3 0,0512 1 XCH DSPTAB
13235 5,1235 1 0,0000 0 CCS A ; was BZMF DSLV in Block II
13236 5,1236 0 5,7242 1 TC *+4 ; >0
13237 5,1237 0 5,7241 1 TC *+2 ; +0, DSPTAB entry was -
13240 5,1240 0 5,7241 1 TC *+1 ; <0, DSPTAB entry was -
13241 5,1241 0 5,7245 0 TC DSLV ; -0, DSPTAB entry was -
13242 5,1242 3 0,0505 1 XCH NOUT ; DSPTAB entry was + (was INCR NOUT in Block II)
13243 5,1243 6 1,2051 1 AD ONE
13244 5,1244 5 0,0505 1 TS NOUT
13245 5,1245 2 0,0000 1 DSLV RELINT
13246 5,1246 0 0,0411 0 TC DSEXIT ; return
DSMSK EQU *
13247 5,1247 00037 0 DS %00037 ; COUNT=0
13250 5,1250 01740 0 DS %01740 ; COUNT=1
13251 5,1251 02000 0 DS %02000 ; COUNT=2
13252 5,1252 03740 1 DS %03740 ; COUNT=3
; For 11DSPIN, put rel address of DSPTAB entry into A, 1 in BIT11 or 0 in
; BIT11 of CODE. I changed the name to _11DSPIN because my assembler doesn't
; like labels that start with a digit.
_11DSPIN EQU *
13253 5,1253 5 0,0436 0 TS DSREL
13254 5,1254 3 1,2052 1 CAF TWO
13255 5,1255 5 0,0440 1 TS COUNT
13256 5,1256 3 0,0001 0 XCH Q ; must use same return as DSPIN
13257 5,1257 5 0,0411 0 TS DSEXIT
13260 5,1260 0 5,7206 1 TC DSPIN1
DSPOCTIN EQU *
13261 5,1261 0 5,7161 0 TC DSPIN ; so DSPOCTWD doesn't use SWCALL
13262 5,1262 3 5,7264 0 CAF *+2
13263 5,1263 0 1,3712 0 TC BANKJUMP
13264 5,1264 15337 1 ENDSPOCT DS OCTBACK
; DSPALARM finds TC NVSUBEND in ENTRET for NVSUB initiated routines.
; Abort with 01501.
; DSPALARM finds TC ENDOFJOB in ENTRET for keyboard initiated routines.
; do TC ENTRET.
PREDSPAL EQU *
13265 5,1265 4 2,4675 0 CS VD1
13266 5,1266 5 0,0466 0 TS DSPCOUNT
DSPALARM EQU *
13267 5,1267 4 5,7314 1 CS NVSBENDL
13270 5,1270 6 0,0433 0 AD ENTEXIT
13271 5,1271 1 0,0000 0 CCS A ; was BZF CHARALRM+2 in Block II
13272 5,1272 0 5,7276 0 TC *+4 ; >0
13273 5,1273 0 5,7275 0 TC *+2 ; +0
13274 5,1274 0 5,7276 0 TC *+2 ; <0
13275 5,1275 0 5,7311 0 TC CHARALRM+2 ; -0
13276 5,1276 4 5,7313 0 CS MONADR ; if this is a monitor, kill it
13277 5,1277 6 0,0433 0 AD ENTEXIT
13300 5,1300 1 0,0000 0 CCS A ; was BZF *+2 in Block II
13301 5,1301 0 5,7305 0 TC *+4 ; >0
13302 5,1302 0 5,7304 1 TC *+2 ; +0
13303 5,1303 0 5,7305 0 TC *+2 ; <0
13304 5,1304 0 5,7306 0 TC *+2 ; -0
13305 5,1305 0 5,7307 1 TC *+2
13306 5,1306 0 2,4536 0 TC KILMONON
CHARALRM EQU *
13307 5,1307 0 2,4701 0 TC FALTON ; not NVSUB initiated, turn on OPR error
13310 5,1310 0 1,2723 0 TC ENDOFJOB
13311 5,1311 0 2,5050 1 TC POODOO
13312 5,1312 01501 1 DS %01501
13313 5,1313 04435 1 MONADR DS PASTEVB
13314 5,1314 0 2,4532 1 NVSBENDL TC NVSUBEND
BANK40_7 EQU *
ORG BANKFF_2 ; COLOSSUS pp. 358
INCL bankff_2.asm
;==========================================================================
; DISPLAY ROUTINES (file:bankff_2.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 358.
;==========================================================================
;--------------------------------------------------------------------------
; ALMCYCLE
; Turns on check fail light, redisplays the original verb that was executed,
; and recycles to execute the original verb/noun combination that was last
; executed. Used for bad data during load verbs and by MCTBS. Also by MMCHANG
; if 2 numerical chars were not punched in for MM code.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.358.
;--------------------------------------------------------------------------
ALMCYCLE EQU *
04474 4474 0 2,4701 0 TC FALTON ; turn on check fail light
04475 4475 4 0,0530 0 CS VERBSAVE ; get original verb that was executed
04476 4476 5 0,0502 0 TS REQRET ; set for ENTPAS0
04477 4477 0 1,3565 1 TC BANKCALL ; puts original verb into VERBREG and
04500 4500 14326 0 DS UPDATVB-1 ; displays it in verb lights
04501 4501 0 1,3653 1 TC POSTJUMP
04502 4502 14002 0 ENDALM DS ENTER
BANKFF_3 EQU *
ORG BANK41_6 ; COLOSSUS pp. 359-360
INCL bank41_6.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank41_6.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 359-360.
;==========================================================================
;--------------------------------------------------------------------------
; MMCHANG -- MAJOR MODE CHANGE
; Uses noun display until ENTER; then it uses MODE display. It goes to
; MODROUT with the new MM code in A, but not displayed in MM lights.
; It demands 2 numerical characters be punched in for new MM code.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.359.
;--------------------------------------------------------------------------
MMCHANG EQU *
15356 6,1356 0 6,7404 0 TC REQMM ; ENTPASHI assumes the TC GRQMM at MMCHANG
; if this moves at all, must change
; MMADREF at ENTPASHI
15357 6,1357 3 1,2074 0 CAF BIT5 ; OCT 20 = ND2
15360 6,1360 6 0,0466 0 AD DSPCOUNT ; DSPCOUNT must = -ND2
15361 6,1361 1 0,0000 0 CCS A ; was BZF *+2 in Block II
15362 6,1362 0 6,7366 0 TC *+4 ; >0
15363 6,1363 0 6,7365 0 TC *+2 ; +0
15364 6,1364 0 6,7366 0 TC *+2 ; <0
15365 6,1365 0 6,7367 1 TC *+2 ; -0
15366 6,1366 0 2,4474 1 TC ALMCYCLE ; DSPCOUNT not -ND2. Alarm and recycle.
15367 6,1367 3 1,2050 0 CAF ZERO
15370 6,1370 3 0,0471 0 XCH NOUNREG
15371 6,1371 5 0,0130 0 TS MPAC
15372 6,1372 3 2,4676 1 CAF ND1
15373 6,1373 5 0,0466 0 TS DSPCOUNT
15374 6,1374 0 1,3565 1 TC BANKCALL
15375 6,1375 12540 0 DS _2BLANK
15376 6,1376 4 2,4675 0 CS VD1 ; block num char in
15377 6,1377 5 0,0466 0 TS DSPCOUNT
15400 6,1400 3 1,2050 0 CAF ZERO ; was CA MPAC in Block II
15401 6,1401 6 0,0130 0 AD MPAC
15402 6,1402 0 1,3653 1 TC POSTJUMP
15403 6,1403 10000 0 DS MODROUTR ; go thru standard loc.
MODROUTR EQU V37
REQMM EQU *
15404 6,1404 4 0,0001 1 CS Q
15405 6,1405 5 0,0502 0 TS REQRET
15406 6,1406 3 2,4676 1 CAF ND1
15407 6,1407 5 0,0466 0 TS DSPCOUNT
15410 6,1410 3 1,2050 0 CAF ZERO
15411 6,1411 5 0,0471 0 TS NOUNREG
15412 6,1412 0 1,3565 1 TC BANKCALL
15413 6,1413 12540 0 DS _2BLANK
15414 6,1414 0 2,4760 1 TC FLASHON
15415 6,1415 3 1,2051 1 CAF ONE
15416 6,1416 5 0,0467 1 TS DECBRNCH ; set for dec
15417 6,1417 0 0,0433 0 TC ENTEXIT
;--------------------------------------------------------------------------
; VBRQEXEC -- REQUEST EXECUTIVE
;
; Enters request to EXEC for any address with any priority. It does ENDOFJOB
; after entering request. Display syst is released. It assumes NOUN 26 has been
; preloaded with:
; COMPONENT 1 -- priority (bits 10-14), bit1=0 for NOVAC, bit1=1 for FINDVAC
; COMPONENT 2 -- job CADR (14 bit; was 12 bit in Block II)
; COMPONENT 3 -- not used (was BBCON in Block II)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.360.
;--------------------------------------------------------------------------
VBRQEXEC EQU *
15420 6,1420 3 1,2100 1 CAF BIT1
15421 6,1421 7 0,0534 1 MASK DSPTEM1
15422 6,1422 1 0,0000 0 CCS A
15423 6,1423 0 6,7444 1 TC SETVAC ; if bit1=1, FINDVAC
15424 6,1424 3 2,4667 1 CAF TCNOVAC ; if bit1=0, NOVAC
; sets up to call NOVAC or FINDVAC thru MPAC as follows:
; MPAC = TC NOVAC
; MPAC+1 = job CADR
; MPAC+2 = TC ENDOFJOB
; MPAC+3 = temp store for job PRIO
REQEX1 EQU *
15425 6,1425 5 0,0130 0 TS MPAC ; TC NOVAC or TC FINDVAC into MPAC
15426 6,1426 4 1,2100 0 CS BIT1
15427 6,1427 7 0,0534 1 MASK DSPTEM1
15430 6,1430 5 0,0133 0 TS MPAC+3 ; PRIO into MPAC+3 as a temp (was +4)
REQUESTC EQU *
15431 6,1431 0 2,5003 1 TC RELDSP
15432 6,1432 3 1,2050 0 CAF ZERO ; was CA ENDINST in Block II
15433 6,1433 6 2,4553 0 AD ENDINST
15434 6,1434 5 0,0132 1 TS MPAC+2 ; TC ENDOFJOB into MPAC+2 (was +3)
15435 6,1435 3 1,2050 0 CAF ZERO ; set BBCON for Block II dropped
15436 6,1436 6 0,0535 1 AD DSPTEM1+1 ; job adres into MPAC+1
15437 6,1437 5 0,0131 1 TS MPAC+1
15440 6,1440 3 1,2050 0 CAF ZERO ; was CA MPAC+4 in Block II
15441 6,1441 6 0,0133 0 AD MPAC+3 ; PRIO in A
15442 6,1442 2 0,0000 0 INHINT
15443 6,1443 0 0,0130 0 TC MPAC
SETVAC EQU *
15444 6,1444 3 2,4671 0 CAF TCFINDVAC
15445 6,1445 0 6,7425 0 TC REQEX1
;--------------------------------------------------------------------------
; VBRQWAIT -- REQUEST WAITLIST
;
; Enters request to WAITLIST for any address with any delay. It does ENDOFJOB
; after entering request. Display syst is released. It assumes NOUN 26 has been
; preloaded with:
; COMPONENT 1 -- delay (low bits)
; COMPONENT 2 -- task CADR (14 bit; was 12 bit in Block II)
; COMPONENT 3 -- not used (was BBCON in Block II)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.360.
;--------------------------------------------------------------------------
VBRQWAIT EQU *
15446 6,1446 3 2,4670 1 CAF TCWAIT
15447 6,1447 5 0,0130 0 TS MPAC ; TC WAITLIST into MPAC
15450 6,1450 3 1,2050 0 CAF ZERO ; was CA DSPTEM1 in Block II
15451 6,1451 6 0,0534 0 AD DSPTEM1 ; time delay
15452 6,1452 0 6,7430 1 ENDRQWT TC REQUESTC-1
; REQUESTC will put task address in MPAC+1, TC ENDOFJOB in MPAC+2.
; It will take the time delay out of MPAC+3 and leave it in A, INHINT
; and TC MPAC.
BANK41_7 EQU *
ORG BANK40_7 ; COLOSSUS pp. 360-362
INCL bank40_7.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank40_7.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 360-362.
;==========================================================================
;--------------------------------------------------------------------------
; VBPROC -- PROCEED WITHOUT DATA
; VBTERM -- TERMINATE
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.360.
;--------------------------------------------------------------------------
VBPROC EQU *
13315 5,1315 3 1,2051 1 CAF ONE ; proceed without data
13316 5,1316 5 0,0503 1 TS LOADSTAT
13317 5,1317 0 2,4536 0 TC KILMONON ; turn on kill monitor bit
13320 5,1320 0 2,5003 1 TC RELDSP
13321 5,1321 0 2,4770 0 TC FLASHOFF
13322 5,1322 0 5,7413 0 TC RECALTST ; see if there is any recall from endidle
VBTERM EQU *
13323 5,1323 4 1,2051 0 CS ONE
13324 5,1324 0 5,7316 1 TC VBPROC+1 ; term verb sets loadstat neg
;--------------------------------------------------------------------------
; VBRESEQ
; Wakes ENDIDLE at same line as final enter of load (L+3). Main use is
; intended as response to internally initiated flashing displays in ENDIDLE.
; Should not be used with load verbs, please perform, or please mark verbs
; because they already use L+3 in another context.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.361.
;--------------------------------------------------------------------------
VBRESEQ EQU *
13325 5,1325 4 1,2050 1 CS ZERO ; make it look like data in.
13326 5,1326 0 5,7316 1 TC VBPROC+1
; flash is turned off by proceed without data, terminate,
; resequence, end of load.
;--------------------------------------------------------------------------
; VBRELDSP
; This routine always turns off the UPACT light and always clears
; DSPLOCK.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.362.
;--------------------------------------------------------------------------
VBRELDSP EQU *
; some code here to turn off the UPACT light is omitted
13327 5,1327 1 0,0412 1 CCS _2122REG ; old DSPLOCK
13330 5,1330 3 1,2063 0 CAF BIT14
13331 5,1331 7 0,0510 1 MASK MONSAVE1 ; external monitor bit (EMB)
13332 5,1332 1 0,0000 0 CCS A
13333 5,1333 0 5,7342 0 TC UNSUSPEN ; old DSPLOCK and EMB both 1, unsuspend
13334 5,1334 0 2,5003 1 TSTLTS4 TC RELDSP ; not unsuspending external monitor,
13335 5,1335 1 0,0531 1 CCS CADRSTOR ; release display system and
13336 5,1336 0 5,7340 1 TC *+2 ; do reestablish if CADRSTOR is full
13337 5,1337 0 1,2723 0 TC ENDOFJOB
13340 5,1340 0 1,3653 1 TC POSTJUMP
13341 5,1341 05067 0 CADR PINBRNCH
UNSUSPEN EQU *
13342 5,1342 3 1,2050 0 CAF ZERO ; external monitor is suspended
13343 5,1343 5 0,0501 0 TS DSPLOCK ; just unsuspend it by clearing DSPLOCK
13344 5,1344 1 0,0531 1 CCS CADRSTOR ; turn key release light off if both
13345 5,1345 0 1,2723 0 TC ENDOFJOB ; CADRSTOR and DSPLIST are empty
13346 5,1346 0 2,5026 0 TC RELDSP1
13347 5,1347 0 1,2723 0 TC ENDOFJOB
BANK40_8 EQU *
ORG BANKFF_3 ; COLOSSUS pp. 363-364
INCL bankff_3.asm
;==========================================================================
; DISPLAY ROUTINES (file:bankff_3.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 363-364.
;==========================================================================
; COLOSSUS p. 364 - comments are taken from the Block I flow charts with some
; additional annotations by me.
NVSUB EQU *
04503 4503 5 0,0565 1 TS NVSUB_A ; more gymnastics for Block II conversion
04504 4504 3 1,2050 0 CAF ZERO ; was LXCH 7 in Block II
04505 4505 5 0,0564 0 TS NVSUB_L ; zero NVMONOPT options
; save C(A). C(A) should be holding the noun/verb code; C(L) should
; be holding NVMONOPT options. In this Block I version, the NVMONOPT
; options should be placed in NVSUB_L before calling NVMONOPT.
04506 4506 3 0,0565 1 XCH NVSUB_A
NVMONOPT EQU *
04507 4507 5 0,0420 1 TS NVTEMP
; Test DSPLOCK (+NZ=busy; +0=display system available)
; Display is blocked by DSPLOCK=1 or external monitor bit set (bit 14)
04510 4510 3 1,2063 0 CAF BIT14
04511 4511 7 0,0510 1 MASK MONSAVE1 ; external monitor bit
04512 4512 6 0,0501 0 AD DSPLOCK
04513 4513 1 0,0000 0 CCS A
04514 4514 0 0,0001 0 TC Q ; dsp syst blocked, ret to 1, calling loc
; Store calling line +2 in NVQTEM
04515 4515 3 1,2051 1 CAF ONE ; dsp syst available
04516 4516 6 0,0001 0 NVSBCOM AD Q
04517 4517 5 0,0526 0 TS NVQTEM ; 2+calling loc into NVQTEM
; Force bit 15 of MONSAVE to 1, turn off bit 14.
04520 4520 3 0,0564 0 XCH NVSUB_L ; was LXCH MONSAVE2 in Block II
04521 4521 3 0,0511 1 XCH MONSAVE2 ; store NVMONOPT options
04522 4522 5 0,0564 0 TS NVSUB_L ; replaces LXCH by working through A instead
04523 4523 0 2,4536 0 TC KILMONON ; turn on kill monitor bit
; Store calling bank in NVBNKTEM
; ** this was changed quite a bit from Block II **
NVSUBCOM EQU *
04524 4524 3 1,2050 0 CAF ZERO
04525 4525 6 0,0015 0 AD BANK
04526 4526 5 0,0527 1 TS NVBNKTEM
04527 4527 0 1,3624 1 TC MYBANKCALL ; go to NVSUB1 thru standard loc
04530 4530 14000 1 CADR NVSUBR
04531 4531 15505 0 NVSRRBNK CADR NVSUB1 ; ****** WHAT'S THIS FOR?? ********
; Restore calling bank and TC NVQTEM
; ** this was changed quite a bit from Block II **
NVSUBEND EQU *
04532 4532 3 1,2050 0 CAF ZERO
04533 4533 6 0,0527 1 AD NVBNKTEM
04534 4534 5 0,0015 0 TS BANK ; restore calling bank
04535 4535 0 0,0526 0 TC NVQTEM
BANKFF_4 EQU *
ORG BANK41_7 ; COLOSSUS pp. 365-366
INCL bank41_7.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank41_7.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 365-366.
;==========================================================================
; BLANKDSP blanks display according to option number in NVTEMP as follows:
; -4 full blank, -3 leave mode, -2 leave mode and verb, -1 blank R-S only
BLANKDSP EQU *
15453 6,1453 6 1,2057 1 AD SEVEN ; 7,8,9,or 10 (A had 0,1,2,or 3)
15454 6,1454 2 0,0000 0 INHINT
15455 6,1455 5 0,0421 0 TS CODE ; blank specified DSPTABS
15456 6,1456 4 1,2065 1 CS BIT12
15457 6,1457 2 0,0421 1 INDEX CODE
15460 6,1460 3 0,0512 1 XCH DSPTAB
15461 6,1461 1 0,0000 0 CCS A
15462 6,1462 0 6,7501 1 TC INCR_NOUT ; was INCR NOUT in Block II
15463 6,1463 0 6,7464 0 INCR_NOUT_RET TC *+1
15464 6,1464 1 0,0421 1 CCS CODE
15465 6,1465 0 6,7455 1 TC BLANKDSP+2
15466 6,1466 2 0,0000 1 RELINT
15467 6,1467 2 0,0420 0 INDEX NVTEMP
15470 6,1470 0 6,7475 0 TC *+5
15471 6,1471 0 6,7472 1 TC *+1 ; NVTEMP has -4 (never touch MODREG)
15472 6,1472 5 0,0470 1 TS VERBREG ; -3
15473 6,1473 5 0,0471 0 TS NOUNREG ; -2
15474 6,1474 5 0,0504 0 TS CLPASS ; -1
15475 6,1475 4 2,4675 0 CS VD1
15476 6,1476 5 0,0466 0 TS DSPCOUNT
15477 6,1477 0 2,4770 0 TC FLASHOFF ; protect against invisible flash
15500 6,1500 0 6,7540 1 TC ENTSET-2 ; zeroes REQRET
INCR_NOUT EQU *
15501 6,1501 3 0,0505 1 XCH NOUT ; was INCR NOUT in Block II
15502 6,1502 6 1,2051 1 AD ONE ; have to make it a separate routine
15503 6,1503 5 0,0505 1 TS NOUT ; because it was nested inside
15504 6,1504 0 6,7463 1 TC INCR_NOUT_RET ; a CCS.
NVSUB1 EQU *
15505 6,1505 3 6,7542 0 CAF ENTSET ; in bank
15506 6,1506 5 0,0433 0 TS ENTRET ; set return to NVSUBEND
15507 6,1507 1 0,0420 0 CCS NVTEMP ; what now
15510 6,1510 0 6,7514 0 TC *+4 ; normal NVSUB call (execute VN or paste)
15511 6,1511 0 6,6341 1 TC GODSPALM
15512 6,1512 0 6,7453 1 TC BLANKDSP ; blank display as specified
15513 6,1513 0 6,6341 1 TC GODSPALM
15514 6,1514 3 1,2101 0 CAF LOW7
15515 6,1515 7 0,0420 0 MASK NVTEMP
15516 6,1516 5 0,0133 0 TS MPAC+3 ; temp for noun (can't use MPAC, DSPDECVN
; uses MPAC, +1, +2
15517 6,1517 3 1,2050 0 CAF ZERO ; was CA NVTEMP
15520 6,1520 6 0,0420 1 AD NVTEMP
15521 6,1521 5 0,0020 0 TS CYR ; shift right 7, was TS EDOP, CA EDOP in BII
15522 6,1522 4 0,0020 1 CS CYR
15523 6,1523 4 0,0020 1 CS CYR
15524 6,1524 4 0,0020 1 CS CYR
15525 6,1525 4 0,0020 1 CS CYR
15526 6,1526 4 0,0020 1 CS CYR
15527 6,1527 4 0,0020 1 CS CYR
15530 6,1530 3 0,0020 0 XCH CYR
15531 6,1531 7 1,2101 1 MASK LOW7
15532 6,1532 5 0,0134 1 TS MPAC+4 ; temp for verb (can't use MPAC, DSPDECVN
; uses MPAC, +1, +2
15533 6,1533 1 0,0133 1 CCS MPAC+3 ; test noun (+NZ or +0)
15534 6,1534 0 6,7543 1 TC NVSUB2 ; if noun not +0, DC on
15535 6,1535 3 1,2050 0 CAF ZERO ; was CA MPAC+4 in Block II
15536 6,1536 6 0,0134 1 AD MPAC+4
15537 6,1537 0 6,6326 0 TC UPDATVB-1 ; if noun = +0, display verb then return
15540 6,1540 3 1,2050 0 CAF ZERO ; zero REQRET so that pasted verbs can
15541 6,1541 5 0,0502 0 TS REQRET ; be executed by operator
15542 6,1542 0 2,4532 1 ENTSET TC NVSUBEND
15543 6,1543 1 0,0134 0 NVSUB2 CCS MPAC+4 ; test verb (+NZ or +0)
15544 6,1544 0 6,7551 1 TC *+5 ; if verb not +0, go on
15545 6,1545 3 1,2050 0 CAF ZERO ; was CA MPAC+3 in Block II
15546 6,1546 6 0,0133 0 AD MPAC+3
15547 6,1547 0 6,6306 1 TC UPDATNN-1 ; if verb = +0, display noun, then return
15550 6,1550 0 2,4532 1 TC NVSUBEND
15551 6,1551 3 1,2050 0 CAF ZERO ; was CA MPAC+2 in Block II
15552 6,1552 6 0,0132 1 AD MPAC+2 ; temp for mach CADR to be spec, (DSPDECVN
15553 6,1553 5 0,0135 0 TS MPAC+5 ; uses MPAC, +1, +2
15554 6,1554 3 1,2050 0 CAF ZERO ; was CA MPAC+4 in Block II
15555 6,1555 6 0,0134 1 AD MPAC+4
15556 6,1556 0 6,6326 0 TC UPDATVB-1 ; if both noun and verb not +0, display
15557 6,1557 3 1,2050 0 CAF ZERO ; was CA MPAC+3 in Block II
15560 6,1560 6 0,0133 0 AD MPAC+3 ; both and go to ENTPAS0
15561 6,1561 0 6,6306 1 TC UPDATNN-1
15562 6,1562 3 1,2050 0 CAF ZERO
15563 6,1563 5 0,0503 1 TS LOADSTAT ; set for waiting for data condition
15564 6,1564 5 0,0504 0 TS CLPASS
15565 6,1565 5 0,0502 0 TS REQRET ; set request for pass 0
15566 6,1566 3 1,2050 0 CAF ZERO ; was CA MPAC+5 in Block II
15567 6,1567 6 0,0135 0 AD MPAC+5 ; restores mach CADR to be spec to MPAC+2
15570 6,1570 5 0,0132 1 TS MPAC+2 ; for use in INTMCTBS (in ENTPAS0)
15571 6,1571 0 6,6040 0 ENDNVSB1 TC ENTPAS0
; if internal mach CADR to be specified, MPAC+2 will be placed into
; NOUNCADR in ENTPAS0 (INTMCTBS)
BANK41_8 EQU *
ORG BANKFF_4 ; COLOSSUS pp. 366-368
INCL bankff_4.asm
;==========================================================================
; DISPLAY ROUTINES (file:bankff_4.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 366-368.
;==========================================================================
KILMONON EQU * ; force bit 15 of MONSAVE1 to 1.
04536 4536 3 1,2062 1 CAF BIT15 ; this is the kill monitor bit.
04537 4537 5 0,0510 0 TS MONSAVE1 ; turn off bit 14, the external
04540 4540 0 0,0001 0 TC Q ; monitor bit.
; COLOSSUS p. 367
ENDIDLE EQU *
04541 4541 3 0,0001 0 XCH Q ; was LXCH Q in Block II
04542 4542 5 0,0566 1 TS ENDIDLE_L ; return address into L
04543 4543 0 2,4554 1 TC ISCADR_P0 ; abort if CADRSTOR not= +0
04544 4544 0 2,4560 0 TC ISLIST_P0 ; abort if DSPLIST not= +0
04545 4545 3 1,2050 0 CAF ZERO ; was CA L in Block II
04546 4546 6 0,0566 1 AD ENDIDLE_L ; don't set DSPLOCK to 1 so can use
04547 4547 7 2,4674 1 MASK LOW10 ; ENDIDLE with NVSUB initiated monitor.
04550 4550 6 0,0015 0 AD BANK ; same strategy for CADR as MAKECADR
04551 4551 5 0,0531 0 TS CADRSTOR
04552 4552 0 1,2725 0 TC JOBSLEEP
04553 4553 0 1,2723 0 ENDINST TC ENDOFJOB
ISCADR_P0 EQU *
04554 4554 1 0,0531 1 CCS CADRSTOR ; aborts (code 1206 if CADRSTOR not= +0
04555 4555 0 2,4563 0 TC DSPABORT ; returns if CADRSTOR = +0
04556 4556 0 0,0001 0 TC Q
04557 4557 0 2,4563 0 TC DSPABORT
ISLIST_P0 EQU *
04560 4560 1 0,0532 1 CCS DSPLIST ; aborts (code 1206 if DSPLIST not= +0
04561 4561 0 2,4563 0 TC DSPABORT ; returns if DSPLIST = +0
04562 4562 0 0,0001 0 TC Q
04563 4563 0 2,5050 1 DSPABORT TC POODOO
04564 4564 01206 1 DS %1206
; BLANKSUB blanks any combination of R1, R2, R3. Call with blanking code in A.
; BIT1=1 blanks R1, BIT2=1 blanks R2, BIT3=1 blanks R3. Any combination of these
; three bits is accepted.
;
; DSPCOUNT is restored to the state it was in before BLANKSUB was executed.
BLANKSUB EQU *
04565 4565 7 1,2057 0 MASK SEVEN
04566 4566 5 0,0420 1 TS NVTEMP ; store blanking code in NVTEMP
04567 4567 3 1,2063 0 CAF BIT14
04570 4570 7 0,0510 1 MASK MONSAVE1 ; external monitor bit
04571 4571 6 0,0501 0 AD DSPLOCK
04572 4572 1 0,0000 0 CCS A
04573 4573 0 0,0001 0 TC Q ; dsp syst blocked. Return to 1+calling loc
04574 4574 3 0,0001 0 XCH Q ; was INCR Q in Block II
04575 4575 6 1,2051 1 AD ONE ; set return for 2+calling location
04576 4576 5 0,0561 0 TS BLANKSUB_Q ; was TC Q in Block II
04577 4577 1 0,0420 0 CCS NVTEMP
04600 4600 0 2,4602 1 TC *+2 ; was TCF in Block II
04601 4601 0 0,0561 0 TC BLANKSUB_Q ; nothing to blank, Return to 2+calling loc
; the return address+2 is now in BLANKSUB_Q. We need to call BLNKSUB1 in
; in "bank 40", so we'll have to save the bank register so that we can
; return to the address in BLANKSUB_Q. The block II code had a bunch of
; tricky stuff involving the both bank bits and superbit. Block I doesn't
; need to worry about that, so we can substitute this simplified code.
; As in the Block II code, the return bank gets saved to BUF and the return
; address+2 gets saved to BUF+1.
04602 4602 3 1,2050 0 CAF ZERO
04603 4603 6 0,0561 0 AD BLANKSUB_Q
04604 4604 3 0,0426 1 XCH BUF+1 ; set return for 2+calling loc
04605 4605 3 1,2050 0 CAF ZERO
04606 4606 6 0,0015 0 AD BANK
04607 4607 3 0,0425 1 XCH BUF ; save return bank
04610 4610 3 2,4612 0 CAF BSUB1ADDR
04611 4611 0 1,3526 0 TC DXCHJUMP ; bank jump to BLNKSUB1 rtne
04612 4612 13350 0 BSUB1ADDR CADR BLNKSUB1
; this is my attempt to implement the return from BLNKSUB1. In BII, it executes
; as part of the BLNKSUB1 routine:
; DXCH BUF
; TC SUPDXCHZ+1
; to jump from the BLNKSUB1 bank to the calling bank.
BS_SUPDXCHZ EQU *
04613 4613 3 0,0425 1 XCH BUF
04614 4614 3 0,0015 0 XCH BANK ; restore the calling bank bits
04615 4615 0 0,0426 1 TC BUF+1 ; return to calling loc+2 (set in BLANKSUB)
BANKFF_5 EQU *
ORG BANK04_2 ; COLOSSUS pp. 369
INCL bank04_2.asm
;==========================================================================
; DSPMM - DISPLAY MODREG (file: bank04_2.asm)
;
; DSPMM does not display MODREG directly. It puts EXEC request with
; prio=CHARPRIO for DSPMMJB and returns to caller.
;
; If MODREG contains -0, DSPMMJB blanks the MODE lights.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 369.
;==========================================================================
DSPMM EQU *
10047 4,0047 3 0,0001 0 XCH Q
10050 4,0050 5 0,0130 0 TS MPAC
10051 4,0051 2 0,0000 0 INHINT
10052 4,0052 3 2,4131 0 CAF CHRPRIO
10053 4,0053 0 1,3162 1 TC NOVAC
10054 4,0054 13400 1 CADR DSPMMJB
10055 4,0055 2 0,0000 1 RELINT
10056 4,0056 0 0,0130 0 ENDSPMM TC MPAC
BANK04_3 EQU *
ORG BANK40_8 ; COLOSSUS pp. 369-371
INCL bank40_8.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank40_8.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 369-371.
;==========================================================================
BLNKSUB1 EQU *
13350 5,1350 3 1,2050 0 CAF ZERO ; was CA DSPCOUNT in Block II
13351 5,1351 6 0,0466 0 AD DSPCOUNT ; save old DSPCOUNT for later restoration
13352 5,1352 5 0,0427 0 TS BUF+2
13353 5,1353 3 1,2100 1 CAF BIT1 ; test bit 1. See if R1 to be blanked.
13354 5,1354 0 5,7373 1 TC TESTBIT
13355 5,1355 3 2,4635 0 CAF R1D1
13356 5,1356 0 5,6472 0 TC _5BLANK-1
13357 5,1357 3 1,2077 0 CAF BIT2 ; test bit 2. See if R2 to be blanked.
13360 5,1360 0 5,7373 1 TC TESTBIT
13361 5,1361 3 2,4636 0 CAF R2D1
13362 5,1362 0 5,6472 0 TC _5BLANK-1
13363 5,1363 3 1,2076 1 CAF BIT3 ; test bit 3. See if R3 to be blanked.
13364 5,1364 0 5,7373 1 TC TESTBIT
13365 5,1365 3 2,4637 1 CAF R3D1
13366 5,1366 0 5,6472 0 TC _5BLANK-1
13367 5,1367 3 1,2050 0 CAF ZERO ; was CA BUF+2 in Block II
13370 5,1370 6 0,0427 0 AD BUF+2 ; restore DSPCOUNT to state it had
13371 5,1371 5 0,0466 0 TS DSPCOUNT ; before BLANKSUB
13372 5,1372 0 2,4613 1 TC BS_SUPDXCHZ ; was DXCH BUF, TC SUPDXCHZ+1 in BII
TESTBIT EQU *
13373 5,1373 7 0,0420 0 MASK NVTEMP ; NVTEMP contains blanking code
13374 5,1374 1 0,0000 0 CCS A
13375 5,1375 0 0,0001 0 TC Q ; if current bit = 1, return to L+1
13376 5,1376 2 0,0001 1 INDEX Q ; if current bit = 0, return to L+3
13377 5,1377 0 0,0002 0 TC 2
DSPMMJB EQU *
13400 5,1400 3 2,4677 0 CAF MD1 ; gets here thru DSPMM
13401 5,1401 3 0,0466 0 XCH DSPCOUNT
13402 5,1402 5 0,0435 0 TS DSPMMTEM ; save DSPCOUNT
13403 5,1403 1 0,0500 0 CCS MODREG
13404 5,1404 6 1,2051 1 AD ONE
13405 5,1405 0 5,7144 1 TC DSPDECVN ; if MODREG is + or +0, display MODREG
13406 5,1406 0 5,7410 0 TC *+2 ; if MODREG is -NZ, do nothing
13407 5,1407 0 5,6540 0 TC _2BLANK ; if MODREG is -0, blank MM
13410 5,1410 3 0,0435 0 XCH DSPMMTEM ; restore DSPCOUNT
13411 5,1411 5 0,0466 0 TS DSPCOUNT
13412 5,1412 0 1,2723 0 TC ENDOFJOB
;--------------------------------------------------------------------------
; RECALTST
; Entered directly after data is loaded (or resequence verb is executed),
; terminate verb is executed, or proceed without data verb is executed.
; It wakes up job that did TC ENDIDLE.
; If CADRSTOR not = +0, it puts +0 into DSPLOCK, and turns off KEY RLSE
; light if DSPLIST is empty (leaves KEY RLSE light alone if not empty).
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.370.
;--------------------------------------------------------------------------
RECALTST EQU *
13413 5,1413 1 0,0531 1 CCS CADRSTOR
13414 5,1414 0 5,7416 0 TC RECAL1
13415 5,1415 0 1,2723 0 TC ENDOFJOB ; normal exit if keyboard initiated.
RECAL1 EQU *
13416 5,1416 3 1,2050 0 CAF ZERO
13417 5,1417 3 0,0531 0 XCH CADRSTOR
13420 5,1420 2 0,0000 0 INHINT
13421 5,1421 0 1,3003 1 TC JOBWAKE
13422 5,1422 1 0,0503 0 CCS LOADSTAT
13423 5,1423 0 5,7450 1 TC DOPROC ; + proceed without data
13424 5,1424 0 1,2723 0 TC ENDOFJOB ; pathological case exit
13425 5,1425 0 5,7446 0 TC DOTERM ; - terminate
13426 5,1426 3 1,2052 1 CAF TWO ; -0, data in or resequence
RECAL2 EQU *
13427 5,1427 2 0,0300 0 INDEX LOCCTR
13430 5,1430 6 0,0140 1 AD LOC ; loc is + for basic jobs
13431 5,1431 2 0,0300 0 INDEX LOCCTR
13432 5,1432 5 0,0140 1 TS LOC
13433 5,1433 3 1,2050 0 CAF ZERO ; save verb in MPAC, noun in MPAC+1 at
13434 5,1434 6 0,0471 0 AD NOUNREG ; time of response to ENDIDLE for
13435 5,1435 2 0,0300 0 INDEX LOCCTR ; possible later testing by job that has
13436 5,1436 5 0,0131 1 TS MPAC+1 ; been waked up
13437 5,1437 3 1,2050 0 CAF ZERO
13440 5,1440 6 0,0470 1 AD VERBREG
13441 5,1441 2 0,0300 0 INDEX LOCCTR
13442 5,1442 5 0,0130 0 TS MPAC
13443 5,1443 2 0,0000 1 RELINT
RECAL3 EQU *
13444 5,1444 0 2,5003 1 TC RELDSP
13445 5,1445 0 1,2723 0 TC ENDOFJOB
DOTERM EQU *
13446 5,1446 3 1,2050 0 CAF ZERO
13447 5,1447 0 5,7427 1 TC RECAL2
DOPROC EQU *
13450 5,1450 3 1,2051 1 CAF ONE
13451 5,1451 0 5,7427 1 TC RECAL2
BANK40_8a EQU *
ORG BANKFF_5 ; COLOSSUS pp. 372-376
INCL bankff_5.asm
;==========================================================================
; DISPLAY ROUTINES (file:bankff_5.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 372-376.
;==========================================================================
;--------------------------------------------------------------------------
; MISCELLANEOUS SERVICE ROUTINES IN FIXED-FIXED
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.372.
;--------------------------------------------------------------------------
; SETNCADR
; Store the eraseable memory address from A into NOUNCADR and NOUNADD.
; (changed from Block II, because there is no bank addressing for block I)
; SETNADD
; Get the eraseable memory address from NOUNCADR and store it into NOUNADD.
; (changed from Block II, because there is no bank addressing for block I)
;
; SETEBANK
; E CADR arrives in A. E ADRES is "derived" and left in A.
; (changed from Block II, because there is no bank addressing for block I)
SETNCADR EQU *
04616 4616 3 0,0001 0 XCH Q
04617 4617 5 0,0555 1 TS SETNCADR_Q ; save return address
04620 4620 3 0,0001 0 XCH Q ; restore A
04621 4621 5 0,0506 1 TS NOUNCADR ; store ECADR
04622 4622 7 2,4674 1 MASK LOW10
04623 4623 5 0,0442 0 TS NOUNADD ; put E ADRES into NOUNADD
04624 4624 0 0,0555 1 TC SETNCADR_Q
SETNADD EQU *
04625 4625 3 0,0001 0 XCH Q
04626 4626 5 0,0555 1 TS SETNCADR_Q ; save return address
04627 4627 3 0,0001 0 XCH Q ; restore A
04630 4630 3 1,2050 0 CAF ZERO
04631 4631 6 0,0506 1 AD NOUNCADR ; get NOUNCADR
04632 4632 0 2,4622 0 TC SETNCADR+4
SETEBANK EQU *
04633 4633 7 2,4674 1 MASK LOW10
04634 4634 0 0,0001 0 TC Q
04635 4635 00016 0 R1D1 DS %16 ; these 3 constants form a packed table
04636 4636 00011 1 R2D1 DS %11 ; don't separate
04637 4637 00004 0 R3D1 DS %4 ; must stay here
RIGHT5 EQU *
04640 4640 5 0,0020 0 TS CYR
04641 4641 4 0,0020 1 CS CYR
04642 4642 4 0,0020 1 CS CYR
04643 4643 4 0,0020 1 CS CYR
04644 4644 4 0,0020 1 CS CYR
04645 4645 3 0,0020 0 XCH CYR
04646 4646 0 0,0001 0 TC Q
LEFT5 EQU *
04647 4647 5 0,0022 1 TS CYL
04650 4650 4 0,0022 0 CS CYL
04651 4651 4 0,0022 0 CS CYL
04652 4652 4 0,0022 0 CS CYL
04653 4653 4 0,0022 0 CS CYL
04654 4654 3 0,0022 1 XCH CYL
04655 4655 0 0,0001 0 TC Q
SLEFT5 EQU *
04656 4656 6 0,0000 1 DOUBLE
04657 4657 6 0,0000 1 DOUBLE
04660 4660 6 0,0000 1 DOUBLE
04661 4661 6 0,0000 1 DOUBLE
04662 4662 6 0,0000 1 DOUBLE
04663 4663 0 0,0001 0 TC Q
04664 4664 00037 0 LOW5 DS %00037 ; these 3 constants form a packed table
04665 4665 01740 0 MID5 DS %01740 ; don't separate
04666 4666 76000 0 HI5 DS %76000 ; must stay here
04667 4667 0 1,3162 1 TCNOVAC TC NOVAC
04670 4670 0 1,2232 0 TCWAIT TC WAITLIST
;TCTSKOVR TC TASKOVER
04671 4671 0 1,3161 1 TCFINDVAC TC FINDVAC
;CHRPRIO DS %30000 ; EXEC priority of CHARIN
04672 4672 03777 0 LOW11 DS %3777
B12M1 EQU LOW11
04673 4673 00377 1 LOW8 DS %377
04674 4674 01777 1 LOW10 DS %01777
04675 4675 00023 0 VD1 DS %23 ; these 3 constants form a packed table
04676 4676 00021 1 ND1 DS %21 ; don't separate
04677 4677 00025 0 MD1 DS %25 ; must stay here
04700 4700 00012 1 BINCON DS 10
;**************** TURN ON/OFF OPERATOR ERROR LIGHT ******* p. 373
DSALMOUT EQU OUT1 ; channel 11 in Block II is OUT1 in Block I
FALTON EQU *
04701 4701 4 0,0011 0 CS DSALMOUT ; inclusive OR bit 7 with 1 using
04702 4702 7 2,4712 0 MASK FALTOR ; Demorgan's theorem
04703 4703 4 0,0000 0 COM
04704 4704 5 0,0011 1 TS DSALMOUT ; was bit 7 of channel 11 in Block II
04705 4705 0 0,0001 0 TC Q
FALTOF EQU *
04706 4706 4 1,2072 1 CS BIT7
04707 4707 7 0,0011 0 MASK DSALMOUT
04710 4710 5 0,0011 1 TS DSALMOUT ; was bit 7 of channel 11 in Block II
04711 4711 0 0,0001 0 TC Q
04712 4712 77677 1 FALTOR DS %77677 ; 1's compliment of bit 7
;**************** TURN ON KEY RELEASE LIGHT ******* p. 373
RELDSPON EQU *
04713 4713 4 0,0011 0 CS DSALMOUT ; inclusive OR bit 5 with 1 using
04714 4714 7 2,4720 1 MASK RELDSPOR ; Demorgan's theorem
04715 4715 4 0,0000 0 COM
04716 4716 5 0,0011 1 TS DSALMOUT ; was bit 5 of channel 11 in Block II
04717 4717 0 0,0001 0 TC Q
04720 4720 77757 1 RELDSPOR DS %77757 ; 1's compliment of bit 5
; TPSL1
; Shift triple word MPAC, MPAC+1, MPAC+2 left 1 bit
TPSL1 EQU *
04721 4721 3 1,2050 0 CAF ZERO
04722 4722 6 0,0132 1 AD MPAC+2
04723 4723 6 0,0132 1 AD MPAC+2
04724 4724 5 0,0132 1 TS MPAC+2 ; skip on overflow
04725 4725 3 1,2050 0 CAF ZERO ; otherwise, make interword carry=0
04726 4726 6 0,0131 1 AD MPAC+1
04727 4727 6 0,0131 1 AD MPAC+1
04730 4730 5 0,0131 1 TS MPAC+1 ; skip on overflow
04731 4731 3 1,2050 0 CAF ZERO ; otherwise, make interword carry=0
04732 4732 6 0,0130 0 AD MPAC
04733 4733 6 0,0130 0 AD MPAC
04734 4734 5 0,0130 0 TS MPAC ; skip on overflow
04735 4735 0 0,0001 0 TC Q ; no net OV/UF
04736 4736 5 0,0136 0 TS MPAC+6 ; MPAC+6 set to +/- 1 for OV/UF
04737 4737 0 0,0001 0 TC Q
; PRSHRTMP
; if MPAC, +1 are each +NZ or +0 and C(A)=-0, SHORTMP wrongly gives +0.
; if MPAC, +1 are each -NZ or -0 and C(A)=+0, SHORTMP wrongly gives +0.
; PRSHRTMP fixes first case only, by merely testing C(A) and if it = -0,
; setting result to -0.
; (Do not use PRSHRTMP unless MPAC, +1 are each +NZ or +0, as they are
; when they contain the SF constants).
PRSHRTMP EQU *
04740 4740 5 0,0432 1 TS MPTEMP
04741 4741 3 0,0001 0 XCH Q
04742 4742 5 0,0600 1 TS PRSHRTMP_Q
04743 4743 1 0,0432 0 CCS MPTEMP
04744 4744 0 2,4754 0 TC DOSHRTMP ; C(A) +, do regular SHORTMP
04745 4745 0 2,4754 0 TC DOSHRTMP ; C(A) +0, do regular SHORTMP
04746 4746 0 2,4754 0 TC DOSHRTMP ; C(A) -, do regular SHORTMP
04747 4747 4 1,2050 1 CS ZERO ; C(A) -0, force result to -0 and return
04750 4750 5 0,0130 0 TS MPAC
04751 4751 5 0,0131 1 TS MPAC+1
04752 4752 5 0,0132 1 TS MPAC+2
04753 4753 0 0,0600 1 TC PRSHRTMP_Q
DOSHRTMP EQU *
04754 4754 3 1,2050 0 CAF ZERO
04755 4755 6 0,0432 1 AD MPTEMP
04756 4756 0 2,4353 0 TC SHORTMP
04757 4757 0 0,0600 1 TC PRSHRTMP_Q
;**************** TURN ON/OFF V/N FLASH ******* p. 374
; this is handled by setting a bit in channel 11 in Block II.
; In Block I, it has to be set through the display table, so I
; borrowed this method from SGNCOM (the DSKY +/- sign routine)
; Uses MYBANKCALL because BANKCALL is not reentrant and I dont
; understand its usage in COLOSSUS well enough to be certain
; that FLASHON/FLASHOFF isn't being called somewhere through
; BANKCALL.
FLASHON EQU *
04760 4760 3 0,0001 0 XCH Q
04761 4761 5 0,0570 0 TS FLASHRET
04762 4762 3 1,2066 0 CAF BIT11
04763 4763 5 0,0421 0 TS CODE
04764 4764 3 2,5000 1 CAF FLSHTAB
04765 4765 0 1,3624 1 TC MYBANKCALL
04766 4766 13253 1 CADR _11DSPIN
04767 4767 0 0,0570 0 TC FLASHRET
FLASHOFF EQU *
04770 4770 3 0,0001 0 XCH Q
04771 4771 5 0,0570 0 TS FLASHRET
04772 4772 3 1,2050 0 CAF ZERO
04773 4773 5 0,0421 0 TS CODE
04774 4774 3 2,5000 1 CAF FLSHTAB
04775 4775 0 1,3624 1 TC MYBANKCALL
04776 4776 13253 1 CADR _11DSPIN
04777 4777 0 0,0570 0 TC FLASHRET
05000 5000 00011 1 FLSHTAB DS %11 ; V/N flash
NVSUBUSY EQU *
05001 5001 0 1,3653 1 TC POSTJUMP
05002 5002 13452 0 CADR NVSUBSY1
BANKFF_5a EQU *
ORG BANK40_8a ; COLOSSUS pp. 376
INCL bank40_8a.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank40_8a.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 376.
;==========================================================================
;--------------------------------------------------------------------------
; MISCELLANEOUS SERVICE ROUTINES IN FIXED-FIXED
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.376.
;--------------------------------------------------------------------------
NVSUBSY1 EQU *
13452 5,1452 5 0,0567 0 TS NBSUBSY1_L ; save CADR
13453 5,1453 0 2,4554 1 TC ISCADR_P0 ; abort if CADRSTOR not = +0
13454 5,1454 0 2,4560 0 TC ISLIST_P0 ; abort if DSPLIST not = +0
13455 5,1455 0 2,4713 0 TC RELDSPON
13456 5,1456 3 1,2050 0 CAF ZERO ; was CA L in Block II
13457 5,1457 6 0,0567 0 AD NBSUBSY1_L
13460 5,1460 5 0,0532 0 TS DSPLIST
13461 5,1461 0 1,2725 0 ENDNVBSY TC JOBSLEEP
BANK40_9 EQU *
ORG BANKFF_5a ; COLOSSUS pp. 376-378
INCL bankff_5a.asm
;==========================================================================
; DISPLAY ROUTINES (file:bankff_5a.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 376-378.
;==========================================================================
;--------------------------------------------------------------------------
; MISCELLANEOUS SERVICE ROUTINES IN FIXED-FIXED
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.376.
;--------------------------------------------------------------------------
; RELDSP
; used by VBPROC, VBTERM, VBRQEXEC, VBRQWAIT, VBRELDSP, EXTENDED VERB
; DISPATCHER, VBRESEQ, and RECALTST.
; RELDSP1
; used by monitor set up, VBRELDSP
RELDSP EQU *
05003 5003 3 0,0001 0 XCH Q ; set DSPLOCK to +0, turn RELDSP light
05004 5004 5 0,0441 0 TS RELRET ; off, search DSPLIST
05005 5005 4 1,2063 1 CS BIT14
05006 5006 2 0,0000 0 INHINT
05007 5007 7 0,0510 1 MASK MONSAVE1
05010 5010 5 0,0510 0 TS MONSAVE1 ; turn off external monitor bit
05011 5011 1 0,0532 1 CCS DSPLIST
05012 5012 0 2,5014 1 TC *+2
05013 5013 0 2,5017 1 TC RELDSP2 ; list empty
05014 5014 3 1,2050 0 CAF ZERO
05015 5015 3 0,0532 0 XCH DSPLIST
05016 5016 0 1,3003 1 TC JOBWAKE
RELDSP2 EQU *
05017 5017 2 0,0000 1 RELINT
05020 5020 4 1,2074 1 CS BIT5 ; turn off KEY RLSE light
05021 5021 7 0,0011 0 MASK DSALMOUT ; was WAND DSALMOUT in Block II
05022 5022 5 0,0011 1 TS DSALMOUT
05023 5023 3 1,2050 0 CAF ZERO
05024 5024 5 0,0501 0 TS DSPLOCK
05025 5025 0 0,0441 0 TC RELRET
RELDSP1 EQU *
05026 5026 3 0,0001 0 XCH Q ; set DSPLOCK to +0, No DSPLIST search
05027 5027 5 0,0441 0 TS RELRET ; turn KEY RLSE light off if DSPLIST is
; empty. Leave KEY RLSE light alone if
; DSPLIST is not empty.
05030 5030 1 0,0532 1 CCS DSPLIST
05031 5031 0 2,5033 1 TC *+2 ; + not empty, leave KEY RLSE light alone
05032 5032 0 2,5017 1 TC RELDSP2 ; +0, list empty, turn off KEY RLSE light
05033 5033 3 1,2050 0 CAF ZERO ; - not empty, leave KEY RLSE light alone
05034 5034 5 0,0501 0 TS DSPLOCK
05035 5035 0 0,0441 0 TC RELRET
;--------------------------------------------------------------------------
; NEWMODEA
;
; The new major mode is in register A. Store the major mode in MODREG and update
; the major mode display.
;
; I couldn't find this in my COLOSSUS listing, so I borrowed it from UPDATVB-1
; (but modified it to work with the major mode instead of the verb).
;--------------------------------------------------------------------------
NEWMODEA EQU *
05036 5036 5 0,0500 1 TS MODREG ; store new major mode
05037 5037 3 0,0001 0 XCH Q
05040 5040 5 0,0572 1 TS NEWMODEA_Q ; save Q
05041 5041 3 2,4677 0 CAF MD1
05042 5042 5 0,0466 0 TS DSPCOUNT
05043 5043 3 1,2050 0 CAF ZERO
05044 5044 6 0,0500 1 AD MODREG
05045 5045 0 1,3565 1 TC BANKCALL
05046 5046 13144 1 CADR DSPDECVN
05047 5047 0 0,0572 1 TC NEWMODEA_Q ; return
;-------------------------------------------------------------------------
; POODOO - Program alarm.
;
; Turn on program alarm light and store alarm code in FAILREG. The alarm code
; is retrieved from the address pointed to by Q. The most recent code is stored
; in FAILREG. Older codes are scrolled to FAILREG+1,+2. Older CADRs are
; scrolled down.
;
; This was missing from my COLOSSUS listing, so I had to guess at the
; implementation, based upon calling references in COLOSSUS, and textual
; descriptions of normal noun 9 which retrieves alarm codes.
;-------------------------------------------------------------------------
POODOO EQU *
05050 5050 3 0,0001 0 XCH Q
05051 5051 5 0,0130 0 TS MPAC
05052 5052 4 0,0011 0 CS DSALMOUT ; inclusive OR bit 9 with 1 using
05053 5053 7 2,5066 0 MASK NOTPALT ; Demorgan's theorem
05054 5054 4 0,0000 0 COM
05055 5055 5 0,0011 1 TS DSALMOUT ; turn on PROG ALM light
05056 5056 3 0,0461 1 XCH FAILREG+1 ; scroll previous codes down
05057 5057 5 0,0462 1 TS FAILREG+2
05060 5060 3 0,0460 0 XCH FAILREG
05061 5061 5 0,0461 1 TS FAILREG+1
05062 5062 2 0,0130 1 INDEX MPAC ; indirectly address Q
05063 5063 3 0,0000 1 CAF 0 ; (gets alarm code)
05064 5064 5 0,0460 0 TS FAILREG ; store alarm code
05065 5065 0 1,2723 0 TC ENDOFJOB
05066 5066 77377 1 NOTPALT DS %77377 ; 1's compliment of bit9 (PROG ALM)
;-------------------------------------------------------------------------
; PINBRNCH
;
; This is supposed to restore the DSKY display to its former state in the
; event of error. According to COLOSSUS, it works if you use "Margaret's"
; code. I don't have that portion of the listing, so I just terminate
; the job, which seems to be an acceptable work-around, even though the
; old display is not restored.
;-------------------------------------------------------------------------
05067 5067 0 1,2723 0 PINBRNCH TC ENDOFJOB
BANKFF_6 EQU *
ORG BANK41_8 ; COLOSSUS pp. 379-380
INCL bank41_8.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank41_8.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 379-380.
;==========================================================================
VBTSTLTS EQU *
15572 6,1572 2 0,0000 0 INHINT
; heavily modified from the original Block II code...
15573 6,1573 4 0,0011 0 CS DSALMOUT ; turn on lights
15574 6,1574 7 6,7623 0 MASK TSTCON1 ; inclusive OR light bits with 1's using
15575 6,1575 4 0,0000 0 COM ; Demorgan's theorem
15576 6,1576 5 0,0011 1 TS DSALMOUT
15577 6,1577 3 1,2060 0 CAF TEN
15600 6,1600 5 0,0414 0 TSTLTS1 TS ERCNT
15601 6,1601 4 6,7621 1 CS FULLDSP
15602 6,1602 2 0,0414 1 INDEX ERCNT
15603 6,1603 5 0,0512 1 TS DSPTAB
15604 6,1604 1 0,0414 1 CCS ERCNT
15605 6,1605 0 6,7600 0 TC TSTLTS1
15606 6,1606 4 6,7622 1 CS FULLDSP1
15607 6,1607 5 0,0513 0 TS DSPTAB+1 ; turn on 3 plus signs
15610 6,1610 5 0,0516 0 TS DSPTAB+4
15611 6,1611 5 0,0520 0 TS DSPTAB+6
15612 6,1612 3 1,2061 1 CAF ELEVEN
15613 6,1613 5 0,0505 1 TS NOUT
15614 6,1614 0 2,4760 1 TC FLASHON
15615 6,1615 3 6,7624 0 CAF SHOLTS
15616 6,1616 0 1,2232 0 TC WAITLIST
15617 6,1617 15625 1 CADR TSTLTS2
15620 6,1620 0 1,2723 0 TC ENDOFJOB ; DSPLOCK is left busy (from keyboard
; action) until TSTLTS3 to ensure that
; lights test will be seen.
15621 6,1621 05675 0 FULLDSP DS %05675 ; display all 8's
15622 6,1622 07675 1 FULLDSP1 DS %07675 ; display all 8's and +
; 1's Comp of UPTEL=bit3, KEY REL=bit5, oper err=bit7, PROG ALM=bit 9
15623 6,1623 77253 0 TSTCON1 DS %77253
15624 6,1624 00764 1 SHOLTS DS %764 ; 5 sec
TSTLTS2 EQU *
15625 6,1625 3 2,4131 0 CAF CHRPRIO ; called by WAITLIST
15626 6,1626 0 1,3162 1 TC NOVAC
15627 6,1627 15631 1 CADR TSTLTS3
15630 6,1630 0 1,2413 0 TC TASKOVER
TSTLTS3 EQU *
15631 6,1631 2 0,0000 0 INHINT
15632 6,1632 3 6,7623 1 CAF TSTCON1 ; turn off lights
15633 6,1633 7 0,0011 0 MASK DSALMOUT
15634 6,1634 5 0,0011 1 TS DSALMOUT
15635 6,1635 2 0,0000 1 RELINT
15636 6,1636 0 1,3565 1 TC BANKCALL ; redisplay C(MODREG)
15637 6,1637 10047 0 CADR DSPMM
15640 6,1640 0 2,4536 0 TC KILMONON ; turn on kill monitor bit
15641 6,1641 0 2,4770 0 TC FLASHOFF ; turn off V/N flash
15642 6,1642 0 1,3653 1 TC POSTJUMP ; does RELDSP and goes to PINBRNCH if
15643 6,1643 13334 1 CADR TSTLTS4 ; ENDIDLE is awaiting operator response
BANK41_9 EQU *
ORG BANK40_9 ; COLOSSUS pp. 381-382
INCL bank40_9.asm
;==========================================================================
; DISPLAY ROUTINES (file:bank40_9.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 381-382.
;==========================================================================
;--------------------------------------------------------------------------
; ERROR - Error light reset.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.381.
;--------------------------------------------------------------------------
ERROR EQU *
13462 5,1462 3 0,0412 0 XCH _2122REG ; restore original C(DSPLOCK), thus error
13463 5,1463 5 0,0501 0 TS DSPLOCK ; light reset leaves DSPLOCK unchanged
; omitted some stuff in COLOSSUS here
13464 5,1464 4 5,7520 0 CS ERCON ; turn off UPTL, OPER ERR, PROG ALM
13465 5,1465 7 0,0011 0 MASK DSALMOUT
13466 5,1466 5 0,0011 1 TS DSALMOUT
13467 5,1467 3 2,4700 1 TSTAB CAF BINCON ; dec 10
13470 5,1470 5 0,0414 0 TS ERCNT ; ERCNT = count
13471 5,1471 2 0,0000 0 INHINT
13472 5,1472 2 0,0414 1 INDEX ERCNT
13473 5,1473 1 0,0512 0 CCS DSPTAB
13474 5,1474 6 1,2051 1 AD ONE
13475 5,1475 0 5,7502 1 TC ERPLUS
13476 5,1476 6 1,2051 1 AD ONE
13477 5,1477 4 0,0000 0 ERMINUS CS A
13500 5,1500 7 5,7517 1 MASK NOTBIT12
13501 5,1501 0 5,7505 0 TC ERCOM
13502 5,1502 4 0,0000 0 ERPLUS CS A
13503 5,1503 7 5,7517 1 MASK NOTBIT12
13504 5,1504 4 0,0000 0 CS A
13505 5,1505 2 0,0414 1 ERCOM INDEX ERCNT
13506 5,1506 5 0,0512 1 TS DSPTAB
13507 5,1507 2 0,0000 1 RELINT
13510 5,1510 1 0,0414 1 CCS ERCNT
13511 5,1511 0 5,7470 0 TC TSTAB+1
13512 5,1512 3 1,2050 0 CAF ZERO ; clear the error codes for PROG ALM
13513 5,1513 5 0,0460 0 TS FAILREG
13514 5,1514 5 0,0461 1 TS FAILREG+1
13515 5,1515 5 0,0462 1 TS FAILREG+2
13516 5,1516 0 1,2723 0 TC ENDOFJOB
13517 5,1517 73777 1 NOTBIT12 DS %73777
13520 5,1520 00504 0 ERCON DS %504 ; channel 11 bits 3,7,9
BANK40_10 EQU *
; end of PINBALL routines
; PINBALL NOUN tables
ORG BANK42_3
INCL bank42_3.asm ; COLOSSUS pp. 263-279
;==========================================================================
; PINBALL NOUN TABLES (file:bank42_3.asm)
;
; The following routines are for reading the noun tables and the scale
; factor (SF) tables (which are in a separate bank from the rest of
; PINBALL). These reading routines are in the same bank as the tables.
; They are called by DXCH Z (translated to DXCHJUMP for Block I).
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 263-279.
;==========================================================================
;--------------------------------------------------------------------------
; Noun table info from COLOSSUS, p.325
;
; noun code < 40 : normal noun case
; noun code >= 40: mixed noun case
;--------------------------------------------------------------------------
; NNADTAB:
; for normal noun case, NNADTAB contains one CADR for each noun.
; +entry = noun CADR
; +0 = noun not used.
; -entry = machine CADR (E or F) to be specified.
; -1 = channel to be specified (not used for Block I);
; -0 = augment of last machine CADR supplied.
; for mixed noun case, NNADTAB contains one indirect address (IDADDREL)
; in low 10 bits, and the component code number in the high 5 bits.
; Examples:
; NNADTAB = %00042 ; CADR for octal address 42
; NNADTAB = %00000 ; noun not used
; NNADTAB = %40000 ; specify machine address
; NNADTAB = %77777 ; augment last address
;--------------------------------------------------------------------------
; NNTYPETAB (normal case):
; a packed table of the form: MMMMM NNNNN PPPPP
; for the normal case:
; MMMMM (bits 15-11): COMPONENT CODE NUMBER (p.263)
; 00000 = 1 component
; 00001 = 2 component
; 00010 = 3 component
; X1XXX = bit4=1, decimal only
; 1XXXX = bit5=1, no load
;
; NNNNN (bits 10-6): SF ROUTINE CODE NUMBER (p.263)
; 00000 = octal only
; 00001 = straight fractional (decimal)
; 00010 = CDU degrees (XXX.XX)
; 00011 = arithmetic SF
; 00100 = arith DP1, OUT(mult by 2EXP14 at end), IN(straight)
; 00101 = arith DP2, OUT(straight), IN(SL 7 at end)
; 00110 = Y optics degrees (XX.XXX max at 89.999)
; 00111 = arith DP3, OUT(SL 7 at end) IN(straight)
; 01000 = whole hours in R1, whole minutes (mod 60) in R2,
; seconds (mod 60) 0XX.XX in R3 *** alarms if used with octal
;
; PPPPP (bits 5-1): SF CONSTANT CODE NUMBER (p.263)
; 00000 = whole, use arith
; Examples:
; NNTYPTAB = %00000 ; 1 comp, octal only
; NNTYPTAB = %02000 ; 2 comp, octal only
; NNTYPTAB = %04000 ; 3 comp, octal only
; NNTYPTAB = %00040 ; 1 comp ,straight fractional
; NNTYPTAB = %04040 ; 3 comp ,straight fractional
;--------------------------------------------------------------------------
; NNTYPETAB (mixed case):
; a packed table of the form: MMMMM NNNNN PPPPP
; for the mixed case (3 component):
; MMMMM (bits 15-11) = SF constant3 code number.
; NNNNN (bits 10-6) = SF constant2 code number.
; PPPPP (bits 5-1) = SF constant1 code number.
; for the mixed case (2 component):
; NNNNN (bits 10-6) = SF constant2 code number.
; PPPPP (bits 5-1) = SF constant1 code number.
; for the mixed case (1 component):
; PPPPP (bits 5-1) = SF constant1 code number.
;--------------------------------------------------------------------------
; IDADDTAB (mixed case only):
; there is also an indirect address table for mixed case only.
; Each entry contains one ECADR. IDADDREL is the relative address of
; the first of these entries.
; There is one entry in this table for each component of a mixed noun.
; They are listed in order of ascending K.
;--------------------------------------------------------------------------
; RUTMXTAB (mixed case only):
; there is also a scale factor routine number table for mixed case only.
; There is one entry per mixed noun. The form is: QQQQQ RRRRR SSSSS
; for the 3 component case
; QQQQQ (bits 15-11) = SF routine3 code number.
; RRRRR (bits 10-6) = SF routine2 code number.
; SSSSS (bits 5-1) = SF routine1 code number.
; for the 2 component case
; RRRRR (bits 10-6) = SF routine2 code number.
; SSSSS (bits 5-1) = SF routine1 code number.
; In octal display and load (oct or dec) verbs, exclude use of verbs whose
; component number is greater than the number of components in noun.
; (All machine address to be specified nouns are 3 component)
; In multi-component load verbs, no mixing of octal and decimal data
; component words is allowed; alarm if violation.
; In decimal loads of data, 5 numerical chars must be keyed in before
; each enter; if not, alarm.
;--------------------------------------------------------------------------
; LODNNTAB
; loads NNADTEM with the NNADTAB entry, NNTYPTEM with the NNTYPTAB
; entry. If the noun is mixed, IDAD1TEM is loaded with the first IDADTAB
; entry, IDAD2TEM the second IDADTAB entry, IDAD3TEM the third IDADTAB
; entry, RUTMXTEM with the RUTMXTAB entry. MIXBR is set for mixed=2
; or normal=1 noun.
;
; NOTE: in BlockII, NNADTEM = -1 means use an I/O channel instead of a
; memory address (channel specified in NOUNCADR). Block I does not have
; I/O channels.
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.265.
;--------------------------------------------------------------------------
LODNNTAB EQU *
16114 7,0114 5 0,0562 0 TS GTSF_RET ; save return CADR
16115 7,0115 2 0,0471 1 INDEX NOUNREG
16116 7,0116 3 7,6210 1 CAF NNADTAB
16117 7,0117 5 0,0443 1 TS NNADTEM
16120 7,0120 2 0,0471 1 INDEX NOUNREG
16121 7,0121 3 7,6354 0 CAF NNTYPTAB
16122 7,0122 5 0,0444 0 TS NNTYPTEM
16123 7,0123 4 0,0471 1 CS NOUNREG
16124 7,0124 6 7,6161 1 AD MIXCON
16125 7,0125 1 0,0000 0 CCS A ; was BZMF LODMIXNN in Block II
16126 7,0126 0 7,6132 1 TC *+4 ; >0
16127 7,0127 0 7,6131 1 TC *+2 ; +0, noun number G/E first mixed noun
16130 7,0130 0 7,6131 1 TC *+1 ; <0, noun number G/E first mixed noun
16131 7,0131 0 7,6135 0 TC LODMIXNN ; -0, noun number G/E first mixed noun
16132 7,0132 3 1,2051 1 CAF ONE ; noun number L/ first mixed noun
16133 7,0133 5 0,0435 0 TS MIXBR ; normal, +1 into MIXBR
16134 7,0134 0 7,6156 0 TC LODNLV
LODMIXNN EQU *
16135 7,0135 3 1,2052 1 CAF TWO ; mixed, +2 into MIXBR
16136 7,0136 5 0,0435 0 TS MIXBR
16137 7,0137 2 0,0471 1 INDEX NOUNREG
16140 7,0140 3 7,7054 1 CAF RUTMXTAB-40 ; first mixed noun = 40
16141 7,0141 5 0,0450 0 TS RUTMXTEM
16142 7,0142 3 2,4674 0 CAF LOW10
16143 7,0143 7 0,0443 0 MASK NNADTEM
16144 7,0144 5 0,0001 0 TS Q ; temp
16145 7,0145 2 0,0000 0 INDEX A
16146 7,0146 3 7,6640 0 CAF IDADDTAB
16147 7,0147 5 0,0445 1 TS IDAD1TEM ; load IDAD1TEM with first IDADDTAB entry
16150 7,0150 2 0,0001 1 INDEX Q
16151 7,0151 3 7,6641 1 CAF IDADDTAB+1
16152 7,0152 5 0,0446 1 TS IDAD2TEM ; load IDAD2TEM with 2nd IDADDTAB entry
16153 7,0153 2 0,0001 1 INDEX Q
16154 7,0154 3 7,6642 1 CAF IDADDTAB+2
16155 7,0155 5 0,0447 0 TS IDAD3TEM ; load IDAD3TEM with 3rd IDADDTAB entry
LODNLV EQU *
16156 7,0156 3 1,2050 0 CAF ZERO
16157 7,0157 6 0,0562 0 AD GTSF_RET ; load return CADR
16160 7,0160 0 1,3526 0 TC DXCHJUMP ; return
16161 7,0161 00050 1 MIXCON DS %50 ; 1st mixed noun = 40 (DEC 40)
;--------------------------------------------------------------------------
; GTSFOUT
; On entry, SFTEMP1 contains SFCONUM X 2.
; Loads SFTEMP1, SFTEMP2 with the DP SFOUTAB entries
;
; GTSFIN
; On entry, SFTEMP1 contains SFCONUM X 2.
; Loads SFTEMP1, SFTEMP2 with the DP SFINTAB entries
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.266.
;--------------------------------------------------------------------------
GTSFOUT EQU *
16162 7,0162 5 0,0562 0 TS GTSF_RET ; save return CADR
16163 7,0163 3 0,0420 1 XCH SFTEMP1
16164 7,0164 5 0,0001 0 TS Q ; temp
16165 7,0165 2 0,0001 1 INDEX Q
16166 7,0166 3 7,6570 0 CAF SFOUTAB
16167 7,0167 5 0,0420 1 TS SFTEMP1
16170 7,0170 2 0,0001 1 INDEX Q
16171 7,0171 3 7,6571 1 CAF SFOUTAB+1
16172 7,0172 5 0,0421 0 TS SFTEMP2
SFCOM EQU *
16173 7,0173 3 1,2050 0 CAF ZERO
16174 7,0174 6 0,0562 0 AD GTSF_RET ; load return CADR
16175 7,0175 0 1,3526 0 TC DXCHJUMP ; return
GTSFIN EQU *
16176 7,0176 5 0,0562 0 TS GTSF_RET ; save return CADR
16177 7,0177 3 0,0420 1 XCH SFTEMP1
16200 7,0200 5 0,0001 0 TS Q ; temp
16201 7,0201 2 0,0001 1 INDEX Q
16202 7,0202 3 7,6520 0 CAF SFINTAB
16203 7,0203 5 0,0420 1 TS SFTEMP1
16204 7,0204 2 0,0001 1 INDEX Q
16205 7,0205 3 7,6521 1 CAF SFINTAB+1
16206 7,0206 5 0,0421 0 TS SFTEMP2
16207 7,0207 0 7,6173 1 TC SFCOM
;--------------------------------------------------------------------------
; NOUN ADDRESS TABLE (NNADTAB)
; Indexed by noun number (0-39 decimal for normal nouns).
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.266.
;--------------------------------------------------------------------------
NNADTAB EQU * ; NN - NORMAL NOUNS
16210 7,0210 00000 1 DS %0 ; 00 - not in use
16211 7,0211 40000 0 DS %40000 ; 01 - specify machine address (fractional)
16212 7,0212 40000 0 DS %40000 ; 02 - specify machine address (whole)
16213 7,0213 40000 0 DS %40000 ; 03 - specify machine address (degrees)
16214 7,0214 00036 1 DS %00036 ; 04 - spare *********** TEST, CHANGE TO ZERO
16215 7,0215 00000 1 DS %0 ; 05 - spare
16216 7,0216 00000 1 DS %0 ; 06 - spare
16217 7,0217 00000 1 DS %0 ; 07 - spare
16220 7,0220 00000 1 DS %0 ; 08 - spare
16221 7,0221 00460 0 ECADR FAILREG ; 09 - alarm codes
16222 7,0222 00000 1 DS %0 ; 10 - spare
16223 7,0223 00000 1 DS %0 ; 11 - spare
16224 7,0224 00000 1 DS %0 ; 12 - spare
16225 7,0225 00000 1 DS %0 ; 13 - spare
16226 7,0226 00000 1 DS %0 ; 14 - spare
16227 7,0227 77777 0 DS %77777 ; 15 - increment machine address
16230 7,0230 00000 1 DS %0 ; 16 - spare
16231 7,0231 00000 1 DS %0 ; 17 - spare
16232 7,0232 00000 1 DS %0 ; 18 - spare
16233 7,0233 00000 1 DS %0 ; 19 - spare
16234 7,0234 00000 1 DS %0 ; 20 - spare
16235 7,0235 00000 1 DS %0 ; 21 - spare
16236 7,0236 00000 1 DS %0 ; 22 - spare
16237 7,0237 00000 1 DS %0 ; 23 - spare
16240 7,0240 00000 1 DS %0 ; 24 - spare
16241 7,0241 00000 1 DS %0 ; 25 - spare
16242 7,0242 00534 0 ECADR DSPTEM1 ; 26 - prio/delay, adres, BBCON
16243 7,0243 00000 1 DS %0 ; 27 - spare
16244 7,0244 00000 1 DS %0 ; 28 - spare
16245 7,0245 00000 1 DS %0 ; 29 - spare
16246 7,0246 00000 1 DS %0 ; 30 - spare
16247 7,0247 00000 1 DS %0 ; 31 - spare
16250 7,0250 00000 1 DS %0 ; 32 - spare
16251 7,0251 00000 1 DS %0 ; 33 - spare
16252 7,0252 00000 1 DS %0 ; 34 - spare
16253 7,0253 00000 1 DS %0 ; 35 - spare
16254 7,0254 00035 1 ECADR TIME2 ; 36 - time of AGC clock (hrs, min, sec)
16255 7,0255 00000 1 DS %0 ; 37 - spare
16256 7,0256 00000 1 DS %0 ; 38 - spare
16257 7,0257 00000 1 DS %0 ; 39 - spare
; end of normal nouns
; start of mixed nouns
16260 7,0260 00000 1 DS %0 ; 40 - spare
16261 7,0261 00000 1 DS %0 ; 41 - spare
16262 7,0262 00000 1 DS %0 ; 42 - spare
16263 7,0263 00000 1 DS %0 ; 43 - spare
16264 7,0264 00000 1 DS %0 ; 44 - spare
16265 7,0265 00000 1 DS %0 ; 45 - spare
16266 7,0266 00000 1 DS %0 ; 46 - spare
16267 7,0267 00000 1 DS %0 ; 47 - spare
16270 7,0270 00000 1 DS %0 ; 48 - spare
16271 7,0271 00000 1 DS %0 ; 49 - spare
16272 7,0272 00000 1 DS %0 ; 50 - spare
16273 7,0273 00000 1 DS %0 ; 51 - spare
16274 7,0274 00000 1 DS %0 ; 52 - spare
16275 7,0275 00000 1 DS %0 ; 53 - spare
16276 7,0276 00000 1 DS %0 ; 54 - spare
16277 7,0277 00000 1 DS %0 ; 55 - spare
16300 7,0300 00000 1 DS %0 ; 56 - spare
16301 7,0301 00000 1 DS %0 ; 57 - spare
16302 7,0302 00000 1 DS %0 ; 58 - spare
16303 7,0303 00000 1 DS %0 ; 59 - spare
16304 7,0304 00000 1 DS %0 ; 60 - spare
16305 7,0305 00000 1 DS %0 ; 61 - spare
16306 7,0306 00000 1 DS %0 ; 62 - spare
16307 7,0307 00000 1 DS %0 ; 63 - spare
16310 7,0310 00000 1 DS %0 ; 64 - spare
16311 7,0311 00000 1 DS %0 ; 65 - spare
16312 7,0312 00000 1 DS %0 ; 66 - spare
16313 7,0313 00000 1 DS %0 ; 67 - spare
16314 7,0314 00000 1 DS %0 ; 68 - spare
16315 7,0315 00000 1 DS %0 ; 69 - spare
16316 7,0316 00000 1 DS %0 ; 70 - spare
16317 7,0317 00000 1 DS %0 ; 71 - spare
16320 7,0320 00000 1 DS %0 ; 72 - spare
16321 7,0321 00000 1 DS %0 ; 73 - spare
16322 7,0322 00000 1 DS %0 ; 74 - spare
16323 7,0323 00000 1 DS %0 ; 75 - spare
16324 7,0324 00000 1 DS %0 ; 76 - spare
16325 7,0325 00000 1 DS %0 ; 77 - spare
16326 7,0326 00000 1 DS %0 ; 78 - spare
16327 7,0327 00000 1 DS %0 ; 79 - spare
16330 7,0330 00000 1 DS %0 ; 80 - spare
16331 7,0331 00000 1 DS %0 ; 81 - spare
16332 7,0332 00000 1 DS %0 ; 82 - spare
16333 7,0333 00000 1 DS %0 ; 83 - spare
16334 7,0334 00000 1 DS %0 ; 84 - spare
16335 7,0335 00000 1 DS %0 ; 85 - spare
16336 7,0336 00000 1 DS %0 ; 86 - spare
16337 7,0337 00000 1 DS %0 ; 87 - spare
16340 7,0340 00000 1 DS %0 ; 88 - spare
16341 7,0341 00000 1 DS %0 ; 89 - spare
16342 7,0342 00000 1 DS %0 ; 90 - spare
16343 7,0343 00000 1 DS %0 ; 91 - spare
16344 7,0344 00000 1 DS %0 ; 92 - spare
16345 7,0345 00000 1 DS %0 ; 93 - spare
16346 7,0346 00000 1 DS %0 ; 94 - spare
16347 7,0347 00000 1 DS %0 ; 95 - spare
16350 7,0350 00000 1 DS %0 ; 96 - spare
16351 7,0351 00000 1 DS %0 ; 97 - spare
16352 7,0352 00000 1 DS %0 ; 98 - spare
16353 7,0353 00000 1 DS %0 ; 99 - spare
; end of mixed nouns
;--------------------------------------------------------------------------
; NOUN TYPE TABLE (NNTYPTAB)
; Indexed by noun number (0-39 decimal for normal nouns).
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.269.
;--------------------------------------------------------------------------
NNTYPTAB EQU * ; NN - NORMAL NOUNS
16354 7,0354 00000 1 DS %0 ; 00 - not in use
16355 7,0355 04040 1 DS %04040 ; 01 - 3 component (fractional)
16356 7,0356 04140 0 DS %04140 ; 02 - 3 component (whole)
16357 7,0357 04102 0 DS %04102 ; 03 - 3 component (CDU degrees)
16360 7,0360 00000 1 DS %0 ; 04 - spare
16361 7,0361 00000 1 DS %0 ; 05 - spare
16362 7,0362 00000 1 DS %0 ; 06 - spare
16363 7,0363 00000 1 DS %0 ; 07 - spare
16364 7,0364 00000 1 DS %0 ; 08 - spare
16365 7,0365 04000 0 DS %04000 ; 09 - 3 component, octal only
16366 7,0366 00000 1 DS %0 ; 10 - spare
16367 7,0367 00000 1 DS %0 ; 11 - spare
16370 7,0370 00000 1 DS %0 ; 12 - spare
16371 7,0371 00000 1 DS %0 ; 13 - spare
16372 7,0372 00000 1 DS %0 ; 14 - spare
16373 7,0373 00000 1 DS %0 ; 15 - 1 component, octal only
16374 7,0374 00000 1 DS %0 ; 16 - spare
16375 7,0375 00000 1 DS %0 ; 17 - spare
16376 7,0376 00000 1 DS %0 ; 18 - spare
16377 7,0377 00000 1 DS %0 ; 19 - spare
16400 7,0400 00000 1 DS %0 ; 20 - spare
16401 7,0401 00000 1 DS %0 ; 21 - spare
16402 7,0402 00000 1 DS %0 ; 22 - spare
16403 7,0403 00000 1 DS %0 ; 23 - spare
16404 7,0404 00000 1 DS %0 ; 24 - spare
16405 7,0405 00000 1 DS %0 ; 25 - spare
16406 7,0406 04000 0 DS %04000 ; 26 - 3 component, octal only
16407 7,0407 00000 1 DS %0 ; 27 - spare
16410 7,0410 00000 1 DS %0 ; 28 - spare
16411 7,0411 00000 1 DS %0 ; 29 - spare
16412 7,0412 00000 1 DS %0 ; 30 - spare
16413 7,0413 00000 1 DS %0 ; 31 - spare
16414 7,0414 00000 1 DS %0 ; 32 - spare
16415 7,0415 00000 1 DS %0 ; 33 - spare
16416 7,0416 00000 1 DS %0 ; 34 - spare
16417 7,0417 00000 1 DS %0 ; 35 - spare
16420 7,0420 24400 0 DS %24400 ; 36 - 3 component, HMS, (dec only)
16421 7,0421 00000 1 DS %0 ; 37 - spare
16422 7,0422 00000 1 DS %0 ; 38 - spare
16423 7,0423 00000 1 DS %0 ; 39 - spare
; end of normal nouns
; start of mixed nouns
16424 7,0424 00000 1 DS %0 ; 40 - spare
16425 7,0425 00000 1 DS %0 ; 41 - spare
16426 7,0426 00000 1 DS %0 ; 42 - spare
16427 7,0427 00000 1 DS %0 ; 43 - spare
16430 7,0430 00000 1 DS %0 ; 44 - spare
16431 7,0431 00000 1 DS %0 ; 45 - spare
16432 7,0432 00000 1 DS %0 ; 46 - spare
16433 7,0433 00000 1 DS %0 ; 47 - spare
16434 7,0434 00000 1 DS %0 ; 48 - spare
16435 7,0435 00000 1 DS %0 ; 49 - spare
16436 7,0436 00000 1 DS %0 ; 50 - spare
16437 7,0437 00000 1 DS %0 ; 51 - spare
16440 7,0440 00000 1 DS %0 ; 52 - spare
16441 7,0441 00000 1 DS %0 ; 53 - spare
16442 7,0442 00000 1 DS %0 ; 54 - spare
16443 7,0443 00000 1 DS %0 ; 55 - spare
16444 7,0444 00000 1 DS %0 ; 56 - spare
16445 7,0445 00000 1 DS %0 ; 57 - spare
16446 7,0446 00000 1 DS %0 ; 58 - spare
16447 7,0447 00000 1 DS %0 ; 59 - spare
16450 7,0450 00000 1 DS %0 ; 60 - spare
16451 7,0451 00000 1 DS %0 ; 61 - spare
16452 7,0452 00000 1 DS %0 ; 62 - spare
16453 7,0453 00000 1 DS %0 ; 63 - spare
16454 7,0454 00000 1 DS %0 ; 64 - spare
16455 7,0455 00000 1 DS %0 ; 65 - spare
16456 7,0456 00000 1 DS %0 ; 66 - spare
16457 7,0457 00000 1 DS %0 ; 67 - spare
16460 7,0460 00000 1 DS %0 ; 68 - spare
16461 7,0461 00000 1 DS %0 ; 69 - spare
16462 7,0462 00000 1 DS %0 ; 70 - spare
16463 7,0463 00000 1 DS %0 ; 71 - spare
16464 7,0464 00000 1 DS %0 ; 72 - spare
16465 7,0465 00000 1 DS %0 ; 73 - spare
16466 7,0466 00000 1 DS %0 ; 74 - spare
16467 7,0467 00000 1 DS %0 ; 75 - spare
16470 7,0470 00000 1 DS %0 ; 76 - spare
16471 7,0471 00000 1 DS %0 ; 77 - spare
16472 7,0472 00000 1 DS %0 ; 78 - spare
16473 7,0473 00000 1 DS %0 ; 79 - spare
16474 7,0474 00000 1 DS %0 ; 80 - spare
16475 7,0475 00000 1 DS %0 ; 81 - spare
16476 7,0476 00000 1 DS %0 ; 82 - spare
16477 7,0477 00000 1 DS %0 ; 83 - spare
16500 7,0500 00000 1 DS %0 ; 84 - spare
16501 7,0501 00000 1 DS %0 ; 85 - spare
16502 7,0502 00000 1 DS %0 ; 86 - spare
16503 7,0503 00000 1 DS %0 ; 87 - spare
16504 7,0504 00000 1 DS %0 ; 88 - spare
16505 7,0505 00000 1 DS %0 ; 89 - spare
16506 7,0506 00000 1 DS %0 ; 90 - spare
16507 7,0507 00000 1 DS %0 ; 91 - spare
16510 7,0510 00000 1 DS %0 ; 92 - spare
16511 7,0511 00000 1 DS %0 ; 93 - spare
16512 7,0512 00000 1 DS %0 ; 94 - spare
16513 7,0513 00000 1 DS %0 ; 95 - spare
16514 7,0514 00000 1 DS %0 ; 96 - spare
16515 7,0515 00000 1 DS %0 ; 97 - spare
16516 7,0516 00000 1 DS %0 ; 98 - spare
16517 7,0517 00000 1 DS %0 ; 99 - spare
; end of mixed nouns
;--------------------------------------------------------------------------
; SCALE FACTOR INPUT TABLE (SFINTAB)
; Indexed by SF constant code number x 2 PPPPP (0-19 decimal; 0-23 octal)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.272.
;--------------------------------------------------------------------------
SFINTAB EQU *
16520 7,0520 00006 1 DS %00006 ; 00 - whole, DP time (sec)
16521 7,0521 03240 1 DS %03240 ; 00
16522 7,0522 00000 1 DS %00000 ; 01 - spare
16523 7,0523 00000 1 DS %00000 ; 01
16524 7,0524 00000 1 DS %00000 ; 02 - CDU degrees, Y optics degrees
16525 7,0525 00000 1 DS %00000 ; 02 (SFCONs in DEGINSF, OPTDEGIN
16526 7,0526 00000 1 DS %00000 ; 03
16527 7,0527 00000 1 DS %00000 ; 03
16530 7,0530 00000 1 DS %00000 ; 04
16531 7,0531 00000 1 DS %00000 ; 04
16532 7,0532 00000 1 DS %00000 ; 05
16533 7,0533 00000 1 DS %00000 ; 05
16534 7,0534 00000 1 DS %00000 ; 06
16535 7,0535 00000 1 DS %00000 ; 06
16536 7,0536 00000 1 DS %00000 ; 07
16537 7,0537 00000 1 DS %00000 ; 07
16540 7,0540 00000 1 DS %00000 ; 10
16541 7,0541 00000 1 DS %00000 ; 10
16542 7,0542 00000 1 DS %00000 ; 11
16543 7,0543 00000 1 DS %00000 ; 11
16544 7,0544 00000 1 DS %00000 ; 12
16545 7,0545 00000 1 DS %00000 ; 12
16546 7,0546 00000 1 DS %00000 ; 13
16547 7,0547 00000 1 DS %00000 ; 13
16550 7,0550 00000 1 DS %00000 ; 14
16551 7,0551 00000 1 DS %00000 ; 14
16552 7,0552 00000 1 DS %00000 ; 15
16553 7,0553 00000 1 DS %00000 ; 15
16554 7,0554 00000 1 DS %00000 ; 16
16555 7,0555 00000 1 DS %00000 ; 16
16556 7,0556 00000 1 DS %00000 ; 17
16557 7,0557 00000 1 DS %00000 ; 17
16560 7,0560 00000 1 DS %00000 ; 20
16561 7,0561 00000 1 DS %00000 ; 20
16562 7,0562 00000 1 DS %00000 ; 21
16563 7,0563 00000 1 DS %00000 ; 21
16564 7,0564 00000 1 DS %00000 ; 22
16565 7,0565 00000 1 DS %00000 ; 22
16566 7,0566 00000 1 DS %00000 ; 23
16567 7,0567 00000 1 DS %00000 ; 23
;--------------------------------------------------------------------------
; SCALE FACTOR OUTPUT TABLE (SFOUTAB)
; Indexed by SF constant code number x 2 PPPPP (0-19 decimal; 0-23 octal)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.273.
;--------------------------------------------------------------------------
SFOUTAB EQU *
16570 7,0570 05174 0 DS %05174 ; 00 - whole, DP time (sec)
16571 7,0571 13261 0 DS %13261 ; 00
16572 7,0572 00000 1 DS %00000 ; 01 - spare
16573 7,0573 00000 1 DS %00000 ; 01
16574 7,0574 00000 1 DS %00000 ; 02 - CDU degrees, Y optics degrees
16575 7,0575 00000 1 DS %00000 ; 02 (SFCONs in DEGOURSF, OPTDEGOUT
16576 7,0576 00000 1 DS %00000 ; 03
16577 7,0577 00000 1 DS %00000 ; 03
16600 7,0600 00000 1 DS %00000 ; 04
16601 7,0601 00000 1 DS %00000 ; 04
16602 7,0602 00000 1 DS %00000 ; 05
16603 7,0603 00000 1 DS %00000 ; 05
16604 7,0604 00000 1 DS %00000 ; 06
16605 7,0605 00000 1 DS %00000 ; 06
16606 7,0606 00000 1 DS %00000 ; 07
16607 7,0607 00000 1 DS %00000 ; 07
16610 7,0610 00000 1 DS %00000 ; 10
16611 7,0611 00000 1 DS %00000 ; 10
16612 7,0612 00000 1 DS %00000 ; 11
16613 7,0613 00000 1 DS %00000 ; 11
16614 7,0614 00000 1 DS %00000 ; 12
16615 7,0615 00000 1 DS %00000 ; 12
16616 7,0616 00000 1 DS %00000 ; 13
16617 7,0617 00000 1 DS %00000 ; 13
16620 7,0620 00000 1 DS %00000 ; 14
16621 7,0621 00000 1 DS %00000 ; 14
16622 7,0622 00000 1 DS %00000 ; 15
16623 7,0623 00000 1 DS %00000 ; 15
16624 7,0624 00000 1 DS %00000 ; 16
16625 7,0625 00000 1 DS %00000 ; 16
16626 7,0626 00000 1 DS %00000 ; 17
16627 7,0627 00000 1 DS %00000 ; 17
16630 7,0630 00000 1 DS %00000 ; 20
16631 7,0631 00000 1 DS %00000 ; 20
16632 7,0632 00000 1 DS %00000 ; 21
16633 7,0633 00000 1 DS %00000 ; 21
16634 7,0634 00000 1 DS %00000 ; 22
16635 7,0635 00000 1 DS %00000 ; 22
16636 7,0636 00000 1 DS %00000 ; 23
16637 7,0637 00000 1 DS %00000 ; 23
; SCALE FACTOR INPUT ROUTINE TABLE is on pp. 342, 343 of COLOSSUS
; SCALE FACTOR OUTPUT ROUTINE TABLE is on p. 329 of COLOSSUS
;--------------------------------------------------------------------------
; MIXED NOUN ADDRESS TABLE (IDADDTAB)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.274.
;--------------------------------------------------------------------------
; ** currently, the table is not populated **
IDADDTAB EQU *
16640 7,0640 00000 1 DS %0 ; 40 - spare component
16641 7,0641 00000 1 DS %0 ; 40 - spare component
16642 7,0642 00000 1 DS %0 ; 40 - spare component
16643 7,0643 00000 1 DS %0 ; 41 - spare component
16644 7,0644 00000 1 DS %0 ; 41 - spare component
16645 7,0645 00000 1 DS %0 ; 41 - spare component
16646 7,0646 00000 1 DS %0 ; 42 - spare component
16647 7,0647 00000 1 DS %0 ; 42 - spare component
16650 7,0650 00000 1 DS %0 ; 42 - spare component
16651 7,0651 00000 1 DS %0 ; 43 - spare component
16652 7,0652 00000 1 DS %0 ; 43 - spare component
16653 7,0653 00000 1 DS %0 ; 43 - spare component
16654 7,0654 00000 1 DS %0 ; 44 - spare component
16655 7,0655 00000 1 DS %0 ; 44 - spare component
16656 7,0656 00000 1 DS %0 ; 44 - spare component
16657 7,0657 00000 1 DS %0 ; 45 - spare component
16660 7,0660 00000 1 DS %0 ; 45 - spare component
16661 7,0661 00000 1 DS %0 ; 45 - spare component
16662 7,0662 00000 1 DS %0 ; 46 - spare component
16663 7,0663 00000 1 DS %0 ; 46 - spare component
16664 7,0664 00000 1 DS %0 ; 46 - spare component
16665 7,0665 00000 1 DS %0 ; 47 - spare component
16666 7,0666 00000 1 DS %0 ; 47 - spare component
16667 7,0667 00000 1 DS %0 ; 47 - spare component
16670 7,0670 00000 1 DS %0 ; 48 - spare component
16671 7,0671 00000 1 DS %0 ; 48 - spare component
16672 7,0672 00000 1 DS %0 ; 48 - spare component
16673 7,0673 00000 1 DS %0 ; 49 - spare component
16674 7,0674 00000 1 DS %0 ; 49 - spare component
16675 7,0675 00000 1 DS %0 ; 49 - spare component
16676 7,0676 00000 1 DS %0 ; 50 - spare component
16677 7,0677 00000 1 DS %0 ; 50 - spare component
16700 7,0700 00000 1 DS %0 ; 50 - spare component
16701 7,0701 00000 1 DS %0 ; 51 - spare component
16702 7,0702 00000 1 DS %0 ; 51 - spare component
16703 7,0703 00000 1 DS %0 ; 51 - spare component
16704 7,0704 00000 1 DS %0 ; 52 - spare component
16705 7,0705 00000 1 DS %0 ; 52 - spare component
16706 7,0706 00000 1 DS %0 ; 52 - spare component
16707 7,0707 00000 1 DS %0 ; 53 - spare component
16710 7,0710 00000 1 DS %0 ; 53 - spare component
16711 7,0711 00000 1 DS %0 ; 53 - spare component
16712 7,0712 00000 1 DS %0 ; 54 - spare component
16713 7,0713 00000 1 DS %0 ; 54 - spare component
16714 7,0714 00000 1 DS %0 ; 54 - spare component
16715 7,0715 00000 1 DS %0 ; 55 - spare component
16716 7,0716 00000 1 DS %0 ; 55 - spare component
16717 7,0717 00000 1 DS %0 ; 55 - spare component
16720 7,0720 00000 1 DS %0 ; 56 - spare component
16721 7,0721 00000 1 DS %0 ; 56 - spare component
16722 7,0722 00000 1 DS %0 ; 56 - spare component
16723 7,0723 00000 1 DS %0 ; 57 - spare component
16724 7,0724 00000 1 DS %0 ; 57 - spare component
16725 7,0725 00000 1 DS %0 ; 57 - spare component
16726 7,0726 00000 1 DS %0 ; 58 - spare component
16727 7,0727 00000 1 DS %0 ; 58 - spare component
16730 7,0730 00000 1 DS %0 ; 58 - spare component
16731 7,0731 00000 1 DS %0 ; 59 - spare component
16732 7,0732 00000 1 DS %0 ; 59 - spare component
16733 7,0733 00000 1 DS %0 ; 59 - spare component
16734 7,0734 00000 1 DS %0 ; 60 - spare component
16735 7,0735 00000 1 DS %0 ; 60 - spare component
16736 7,0736 00000 1 DS %0 ; 60 - spare component
16737 7,0737 00000 1 DS %0 ; 61 - spare component
16740 7,0740 00000 1 DS %0 ; 61 - spare component
16741 7,0741 00000 1 DS %0 ; 61 - spare component
16742 7,0742 00000 1 DS %0 ; 62 - spare component
16743 7,0743 00000 1 DS %0 ; 62 - spare component
16744 7,0744 00000 1 DS %0 ; 62 - spare component
16745 7,0745 00000 1 DS %0 ; 63 - spare component
16746 7,0746 00000 1 DS %0 ; 63 - spare component
16747 7,0747 00000 1 DS %0 ; 63 - spare component
16750 7,0750 00000 1 DS %0 ; 64 - spare component
16751 7,0751 00000 1 DS %0 ; 64 - spare component
16752 7,0752 00000 1 DS %0 ; 64 - spare component
16753 7,0753 00000 1 DS %0 ; 65 - spare component
16754 7,0754 00000 1 DS %0 ; 65 - spare component
16755 7,0755 00000 1 DS %0 ; 65 - spare component
16756 7,0756 00000 1 DS %0 ; 66 - spare component
16757 7,0757 00000 1 DS %0 ; 66 - spare component
16760 7,0760 00000 1 DS %0 ; 66 - spare component
16761 7,0761 00000 1 DS %0 ; 67 - spare component
16762 7,0762 00000 1 DS %0 ; 67 - spare component
16763 7,0763 00000 1 DS %0 ; 67 - spare component
16764 7,0764 00000 1 DS %0 ; 68 - spare component
16765 7,0765 00000 1 DS %0 ; 68 - spare component
16766 7,0766 00000 1 DS %0 ; 68 - spare component
16767 7,0767 00000 1 DS %0 ; 69 - spare component
16770 7,0770 00000 1 DS %0 ; 69 - spare component
16771 7,0771 00000 1 DS %0 ; 69 - spare component
16772 7,0772 00000 1 DS %0 ; 70 - spare component
16773 7,0773 00000 1 DS %0 ; 70 - spare component
16774 7,0774 00000 1 DS %0 ; 70 - spare component
16775 7,0775 00000 1 DS %0 ; 71 - spare component
16776 7,0776 00000 1 DS %0 ; 71 - spare component
16777 7,0777 00000 1 DS %0 ; 71 - spare component
17000 7,1000 00000 1 DS %0 ; 72 - spare component
17001 7,1001 00000 1 DS %0 ; 72 - spare component
17002 7,1002 00000 1 DS %0 ; 72 - spare component
17003 7,1003 00000 1 DS %0 ; 73 - spare component
17004 7,1004 00000 1 DS %0 ; 73 - spare component
17005 7,1005 00000 1 DS %0 ; 73 - spare component
17006 7,1006 00000 1 DS %0 ; 74 - spare component
17007 7,1007 00000 1 DS %0 ; 74 - spare component
17010 7,1010 00000 1 DS %0 ; 74 - spare component
17011 7,1011 00000 1 DS %0 ; 75 - spare component
17012 7,1012 00000 1 DS %0 ; 75 - spare component
17013 7,1013 00000 1 DS %0 ; 75 - spare component
17014 7,1014 00000 1 DS %0 ; 76 - spare component
17015 7,1015 00000 1 DS %0 ; 76 - spare component
17016 7,1016 00000 1 DS %0 ; 76 - spare component
17017 7,1017 00000 1 DS %0 ; 77 - spare component
17020 7,1020 00000 1 DS %0 ; 77 - spare component
17021 7,1021 00000 1 DS %0 ; 77 - spare component
17022 7,1022 00000 1 DS %0 ; 78 - spare component
17023 7,1023 00000 1 DS %0 ; 78 - spare component
17024 7,1024 00000 1 DS %0 ; 78 - spare component
17025 7,1025 00000 1 DS %0 ; 79 - spare component
17026 7,1026 00000 1 DS %0 ; 79 - spare component
17027 7,1027 00000 1 DS %0 ; 79 - spare component
17030 7,1030 00000 1 DS %0 ; 80 - spare component
17031 7,1031 00000 1 DS %0 ; 80 - spare component
17032 7,1032 00000 1 DS %0 ; 80 - spare component
17033 7,1033 00000 1 DS %0 ; 81 - spare component
17034 7,1034 00000 1 DS %0 ; 81 - spare component
17035 7,1035 00000 1 DS %0 ; 81 - spare component
17036 7,1036 00000 1 DS %0 ; 82 - spare component
17037 7,1037 00000 1 DS %0 ; 82 - spare component
17040 7,1040 00000 1 DS %0 ; 82 - spare component
17041 7,1041 00000 1 DS %0 ; 83 - spare component
17042 7,1042 00000 1 DS %0 ; 83 - spare component
17043 7,1043 00000 1 DS %0 ; 83 - spare component
17044 7,1044 00000 1 DS %0 ; 84 - spare component
17045 7,1045 00000 1 DS %0 ; 84 - spare component
17046 7,1046 00000 1 DS %0 ; 84 - spare component
17047 7,1047 00000 1 DS %0 ; 85 - spare component
17050 7,1050 00000 1 DS %0 ; 85 - spare component
17051 7,1051 00000 1 DS %0 ; 85 - spare component
17052 7,1052 00000 1 DS %0 ; 86 - spare component
17053 7,1053 00000 1 DS %0 ; 86 - spare component
17054 7,1054 00000 1 DS %0 ; 86 - spare component
17055 7,1055 00000 1 DS %0 ; 87 - spare component
17056 7,1056 00000 1 DS %0 ; 87 - spare component
17057 7,1057 00000 1 DS %0 ; 87 - spare component
17060 7,1060 00000 1 DS %0 ; 88 - spare component
17061 7,1061 00000 1 DS %0 ; 88 - spare component
17062 7,1062 00000 1 DS %0 ; 88 - spare component
17063 7,1063 00000 1 DS %0 ; 89 - spare component
17064 7,1064 00000 1 DS %0 ; 89 - spare component
17065 7,1065 00000 1 DS %0 ; 89 - spare component
17066 7,1066 00000 1 DS %0 ; 90 - spare component
17067 7,1067 00000 1 DS %0 ; 90 - spare component
17070 7,1070 00000 1 DS %0 ; 90 - spare component
17071 7,1071 00000 1 DS %0 ; 91 - spare component
17072 7,1072 00000 1 DS %0 ; 91 - spare component
17073 7,1073 00000 1 DS %0 ; 91 - spare component
17074 7,1074 00000 1 DS %0 ; 92 - spare component
17075 7,1075 00000 1 DS %0 ; 92 - spare component
17076 7,1076 00000 1 DS %0 ; 92 - spare component
17077 7,1077 00000 1 DS %0 ; 93 - spare component
17100 7,1100 00000 1 DS %0 ; 93 - spare component
17101 7,1101 00000 1 DS %0 ; 93 - spare component
17102 7,1102 00000 1 DS %0 ; 94 - spare component
17103 7,1103 00000 1 DS %0 ; 94 - spare component
17104 7,1104 00000 1 DS %0 ; 94 - spare component
17105 7,1105 00000 1 DS %0 ; 95 - spare component
17106 7,1106 00000 1 DS %0 ; 95 - spare component
17107 7,1107 00000 1 DS %0 ; 95 - spare component
17110 7,1110 00000 1 DS %0 ; 96 - spare component
17111 7,1111 00000 1 DS %0 ; 96 - spare component
17112 7,1112 00000 1 DS %0 ; 96 - spare component
17113 7,1113 00000 1 DS %0 ; 97 - spare component
17114 7,1114 00000 1 DS %0 ; 97 - spare component
17115 7,1115 00000 1 DS %0 ; 97 - spare component
17116 7,1116 00000 1 DS %0 ; 98 - spare component
17117 7,1117 00000 1 DS %0 ; 98 - spare component
17120 7,1120 00000 1 DS %0 ; 98 - spare component
17121 7,1121 00000 1 DS %0 ; 99 - spare component
17122 7,1122 00000 1 DS %0 ; 99 - spare component
17123 7,1123 00000 1 DS %0 ; 99 - spare component
; end of mixed noun address table
;--------------------------------------------------------------------------
; MIXED NOUN SCALE FACTOR ROUTINE TABLE (RUTMXTAB)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.278.
;--------------------------------------------------------------------------
; ** currently, the table is not populated **
RUTMXTAB EQU *
17124 7,1124 00000 1 DS %0 ; 40 - spare
17125 7,1125 00000 1 DS %0 ; 41 - spare
17126 7,1126 00000 1 DS %0 ; 42 - spare
17127 7,1127 00000 1 DS %0 ; 43 - spare
17130 7,1130 00000 1 DS %0 ; 44 - spare
17131 7,1131 00000 1 DS %0 ; 45 - spare
17132 7,1132 00000 1 DS %0 ; 46 - spare
17133 7,1133 00000 1 DS %0 ; 47 - spare
17134 7,1134 00000 1 DS %0 ; 48 - spare
17135 7,1135 00000 1 DS %0 ; 49 - spare
17136 7,1136 00000 1 DS %0 ; 50 - spare
17137 7,1137 00000 1 DS %0 ; 51 - spare
17140 7,1140 00000 1 DS %0 ; 52 - spare
17141 7,1141 00000 1 DS %0 ; 53 - spare
17142 7,1142 00000 1 DS %0 ; 54 - spare
17143 7,1143 00000 1 DS %0 ; 55 - spare
17144 7,1144 00000 1 DS %0 ; 56 - spare
17145 7,1145 00000 1 DS %0 ; 57 - spare
17146 7,1146 00000 1 DS %0 ; 58 - spare
17147 7,1147 00000 1 DS %0 ; 59 - spare
17150 7,1150 00000 1 DS %0 ; 60 - spare
17151 7,1151 00000 1 DS %0 ; 61 - spare
17152 7,1152 00000 1 DS %0 ; 62 - spare
17153 7,1153 00000 1 DS %0 ; 63 - spare
17154 7,1154 00000 1 DS %0 ; 64 - spare
17155 7,1155 00000 1 DS %0 ; 65 - spare
17156 7,1156 00000 1 DS %0 ; 66 - spare
17157 7,1157 00000 1 DS %0 ; 67 - spare
17160 7,1160 00000 1 DS %0 ; 68 - spare
17161 7,1161 00000 1 DS %0 ; 69 - spare
17162 7,1162 00000 1 DS %0 ; 70 - spare
17163 7,1163 00000 1 DS %0 ; 71 - spare
17164 7,1164 00000 1 DS %0 ; 72 - spare
17165 7,1165 00000 1 DS %0 ; 73 - spare
17166 7,1166 00000 1 DS %0 ; 74 - spare
17167 7,1167 00000 1 DS %0 ; 75 - spare
17170 7,1170 00000 1 DS %0 ; 76 - spare
17171 7,1171 00000 1 DS %0 ; 77 - spare
17172 7,1172 00000 1 DS %0 ; 78 - spare
17173 7,1173 00000 1 DS %0 ; 79 - spare
17174 7,1174 00000 1 DS %0 ; 80 - spare
17175 7,1175 00000 1 DS %0 ; 81 - spare
17176 7,1176 00000 1 DS %0 ; 82 - spare
17177 7,1177 00000 1 DS %0 ; 83 - spare
17200 7,1200 00000 1 DS %0 ; 84 - spare
17201 7,1201 00000 1 DS %0 ; 85 - spare
17202 7,1202 00000 1 DS %0 ; 86 - spare
17203 7,1203 00000 1 DS %0 ; 87 - spare
17204 7,1204 00000 1 DS %0 ; 88 - spare
17205 7,1205 00000 1 DS %0 ; 89 - spare
17206 7,1206 00000 1 DS %0 ; 90 - spare
17207 7,1207 00000 1 DS %0 ; 91 - spare
17210 7,1210 00000 1 DS %0 ; 92 - spare
17211 7,1211 00000 1 DS %0 ; 93 - spare
17212 7,1212 00000 1 DS %0 ; 94 - spare
17213 7,1213 00000 1 DS %0 ; 95 - spare
17214 7,1214 00000 1 DS %0 ; 96 - spare
17215 7,1215 00000 1 DS %0 ; 97 - spare
17216 7,1216 00000 1 DS %0 ; 98 - spare
17217 7,1217 00000 1 DS %0 ; 99 - spare
; end of mixed noun scale factor routine table
BANK42_4 EQU *
; extended verb tables
ORG BANK43_1
INCL bank43_1.asm ; COLOSSUS pp. 230-232
;==========================================================================
; DISPLAY ROUTINES (file:bank43_1.asm)
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, pp. 230.
;==========================================================================
;--------------------------------------------------------------------------
; GOEXTVB -- EXTENDED VERBS
;
; Adapted from the AGC Block II COLOSSUS rev 249 assembly listing,
; Oct 28, 1968, p.230.
;--------------------------------------------------------------------------
GOEXTVB EQU *
20000 10,0000 2 0,0130 1 INDEX MPAC ; verb-40 is in MPAC
20001 10,0001 0 10,6002 0 TC LST2FAN ; fan as before
LST2FAN EQU *
20002 10,0002 0 10,6076 0 TC ALM_END ; VB40 - spare
20003 10,0003 0 10,6076 0 TC ALM_END ; VB41 - spare
20004 10,0004 0 10,6076 0 TC ALM_END ; VB42 - spare
20005 10,0005 0 10,6076 0 TC ALM_END ; VB43 - spare
20006 10,0006 0 10,6076 0 TC ALM_END ; VB44 - spare
20007 10,0007 0 10,6076 0 TC ALM_END ; VB45 - spare
20010 10,0010 0 10,6076 0 TC ALM_END ; VB46 - spare
20011 10,0011 0 10,6076 0 TC ALM_END ; VB47 - spare
20012 10,0012 0 10,6076 0 TC ALM_END ; VB48 - spare
20013 10,0013 0 10,6076 0 TC ALM_END ; VB49 - spare
20014 10,0014 0 10,6076 0 TC ALM_END ; VB50 - spare
20015 10,0015 0 10,6076 0 TC ALM_END ; VB51 - spare
20016 10,0016 0 10,6076 0 TC ALM_END ; VB52 - spare
20017 10,0017 0 10,6076 0 TC ALM_END ; VB53 - spare
20020 10,0020 0 10,6076 0 TC ALM_END ; VB54 - spare
20021 10,0021 0 10,6076 0 TC ALM_END ; VB55 - spare
20022 10,0022 0 10,6076 0 TC ALM_END ; VB56 - spare
20023 10,0023 0 10,6076 0 TC ALM_END ; VB57 - spare
20024 10,0024 0 10,6076 0 TC ALM_END ; VB58 - spare
20025 10,0025 0 10,6076 0 TC ALM_END ; VB59 - spare
20026 10,0026 0 10,6076 0 TC ALM_END ; VB60 - spare
20027 10,0027 0 10,6076 0 TC ALM_END ; VB61 - spare
20030 10,0030 0 10,6076 0 TC ALM_END ; VB62 - spare
20031 10,0031 0 10,6076 0 TC ALM_END ; VB63 - spare
20032 10,0032 0 10,6076 0 TC ALM_END ; VB64 - spare
20033 10,0033 0 10,6076 0 TC ALM_END ; VB65 - spare
20034 10,0034 0 10,6076 0 TC ALM_END ; VB66 - spare
20035 10,0035 0 10,6076 0 TC ALM_END ; VB67 - spare
20036 10,0036 0 10,6076 0 TC ALM_END ; VB68 - spare
20037 10,0037 0 10,6076 0 TC ALM_END ; VB69 - spare
20040 10,0040 0 10,6076 0 TC ALM_END ; VB70 - spare
20041 10,0041 0 10,6076 0 TC ALM_END ; VB71 - spare
20042 10,0042 0 10,6076 0 TC ALM_END ; VB72 - spare
20043 10,0043 0 10,6076 0 TC ALM_END ; VB73 - spare
20044 10,0044 0 10,6076 0 TC ALM_END ; VB74 - spare
20045 10,0045 0 10,6076 0 TC ALM_END ; VB75 - spare
20046 10,0046 0 10,6076 0 TC ALM_END ; VB76 - spare
20047 10,0047 0 10,6076 0 TC ALM_END ; VB77 - spare
20050 10,0050 0 10,6076 0 TC ALM_END ; VB78 - spare
20051 10,0051 0 10,6076 0 TC ALM_END ; VB79 - spare
20052 10,0052 0 10,6076 0 TC ALM_END ; VB80 - spare
20053 10,0053 0 10,6076 0 TC ALM_END ; VB81 - spare
20054 10,0054 0 10,6076 0 TC ALM_END ; VB82 - spare
20055 10,0055 0 10,6076 0 TC ALM_END ; VB83 - spare
20056 10,0056 0 10,6076 0 TC ALM_END ; VB84 - spare
20057 10,0057 0 10,6076 0 TC ALM_END ; VB85 - spare
20060 10,0060 0 10,6076 0 TC ALM_END ; VB86 - spare
20061 10,0061 0 10,6076 0 TC ALM_END ; VB87 - spare
20062 10,0062 0 10,6076 0 TC ALM_END ; VB88 - spare
20063 10,0063 0 10,6076 0 TC ALM_END ; VB89 - spare
20064 10,0064 0 10,6076 0 TC ALM_END ; VB90 - spare
20065 10,0065 0 10,6076 0 TC ALM_END ; VB91 - spare
20066 10,0066 0 10,6076 0 TC ALM_END ; VB92 - spare
20067 10,0067 0 10,6076 0 TC ALM_END ; VB93 - spare
20070 10,0070 0 10,6076 0 TC ALM_END ; VB94 - spare
20071 10,0071 0 10,6076 0 TC ALM_END ; VB95 - spare
20072 10,0072 0 10,6076 0 TC ALM_END ; VB96 - spare
20073 10,0073 0 10,6076 0 TC ALM_END ; VB97 - spare
20074 10,0074 0 10,6076 0 TC ALM_END ; VB98 - spare
20075 10,0075 0 10,6076 0 TC ALM_END ; VB99 - spare
ALM_END EQU *
20076 10,0076 0 2,4701 0 TC FALTON ; turn on operator error light
20077 10,0077 0 1,3653 1 GOPIN TC POSTJUMP
20100 10,0100 05067 0 FCADR PINBRNCH
BANK43_2 EQU *
;--------------------------------------------------------------------------
; TEST JOBS & TASKS
;--------------------------------------------------------------------------
ORG BANKFF_6
;--------------------------------------------------------------------------
; MAJOR MODES
;--------------------------------------------------------------------------
ORG BANK11
;--------------------------------------------------------------------------
; P00 CMC IDLE PROGRAM
;
; Does nothing
;--------------------------------------------------------------------------
P00 EQU *
; Start any jobs or tasks needed at AGC initialization.
22000 11,0000 3 11,6004 0 CAF time1 ; add a test task
22001 11,0001 0 1,2232 0 TC WAITLIST
22002 11,0002 22005 1 CADR task1 ; 14-bit task address
22003 11,0003 0 1,2723 0 TC ENDOFJOB
; TEST CODE - task started by P00
22004 11,0004 01750 1 time1 DS 1000 ; 10 seconds
task1 EQU *
22005 11,0005 3 11,6011 1 XCH prio1 ; job priority
22006 11,0006 0 1,3162 1 TC NOVAC
22007 11,0007 22012 1 CADR job1 ; 14 bit job address
22010 11,0010 0 1,2413 0 TC TASKOVER
; TEST CODE - job started by task
22011 11,0011 00003 1 prio1 DS %3 ; lowest priority
job1 EQU *
22012 11,0012 3 1,2050 0 CAF ZERO
22013 11,0013 6 0,0053 1 AD %53
22014 11,0014 6 1,2051 1 AD ONE
22015 11,0015 5 0,0053 1 TS %53 ; incr data at this address
22016 11,0016 0 1,2723 0 TC ENDOFJOB
;--------------------------------------------------------------------------
; P01 DEMO PROGRAM
;
; Calls pinball: verb 1, noun 4.
;--------------------------------------------------------------------------
22017 11,0017 00204 1 nvcode1 DS %0204 ; verb 01, noun 04
22020 11,0020 22024 1 restart1_addr DS P01_restart
22021 11,0021 00042 1 tcadr1 DS %42
P01 EQU *
22022 11,0022 3 11,6021 1 CAF tcadr1 ; load 'machine address to be specified'
22023 11,0023 5 0,0132 1 TS MPAC+2
P01_restart EQU *
22024 11,0024 3 11,6017 1 CAF nvcode1
22025 11,0025 0 2,4503 0 TC NVSUB
22026 11,0026 0 11,6030 1 TC *+2 ; display busy
22027 11,0027 0 1,2723 0 TC ENDOFJOB ; execution of verb/noun succeeded
22030 11,0030 3 11,6020 0 CAF restart1_addr
22031 11,0031 0 2,5001 0 TC NVSUBUSY ; go to sleep until display released
22032 11,0032 0 1,2723 0 TC ENDOFJOB ; error: another job is already waiting
;--------------------------------------------------------------------------
; P02 DEMO PROGRAM
;
; Calls pinball: verb 21, noun 2.
;
; Sleeps if DSKY is busy until KEYREL. Executes verb 21, noun 2 to do
; an external load. Then it sleeps with ENDIDLE until the user loads
; the data or terminatest the load with PROCEED or TERMINATE.
; NOTE: routines that call ENDIDLE must be in fixed-switchable memory
;--------------------------------------------------------------------------
22033 11,0033 05202 1 nvcode2 DS %05202 ; verb 21, noun 02
22034 11,0034 22040 0 restart2_addr DS P02_restart
22035 11,0035 00042 1 tcadr2 DS %42
P02 EQU *
22036 11,0036 3 11,6035 1 CAF tcadr2
22037 11,0037 5 0,0132 1 TS MPAC+2
P02_restart EQU *
22040 11,0040 3 11,6033 1 CAF nvcode2
22041 11,0041 0 2,4503 0 TC NVSUB
22042 11,0042 0 11,6044 1 TC *+2 ; display busy
22043 11,0043 0 11,6047 1 TC P02_wait ; execution of verb/noun succeeded
22044 11,0044 3 11,6034 0 CAF restart2_addr
22045 11,0045 0 2,5001 0 TC NVSUBUSY ; go to sleep until display released
22046 11,0046 0 1,2723 0 TC ENDOFJOB ; another job is already sleeping
P02_wait EQU *
22047 11,0047 0 2,4541 0 TC ENDIDLE
22050 11,0050 0 11,6060 1 TC P02_ter ; terminate
22051 11,0051 0 11,6055 1 TC P02_pwd ; proceed without data
22052 11,0052 3 1,2051 1 CAF ONE ; data in
22053 11,0053 5 0,0043 0 TS %43 ; set loc=1
22054 11,0054 0 1,2723 0 TC ENDOFJOB
P02_pwd EQU * ; proceed without data
22055 11,0055 3 1,2052 1 CAF TWO
22056 11,0056 5 0,0043 0 TS %43 ; set loc=2
22057 11,0057 0 1,2723 0 TC ENDOFJOB
P02_ter EQU * ; terminate
22060 11,0060 3 1,2053 0 CAF THREE
22061 11,0061 5 0,0043 0 TS %43 ; set loc=3
22062 11,0062 0 1,2723 0 TC ENDOFJOB
;--------------------------------------------------------------------------
; P03 DEMO PROGRAM
;
; Nearly identical to P02, except that the job does not go to sleep
; waiting for the load with ENDIDLE. Instead, it busy-waits on LOADSTAT.
; NOTE: routines that call ENDIDLE must be in fixed-switchable memory
;--------------------------------------------------------------------------
22063 11,0063 05202 1 nvcode3 DS %05202 ; verb 21, noun 02
22064 11,0064 22070 0 restart3_addr DS P03_restart
22065 11,0065 00042 1 tcadr3 DS %42
P03 EQU *
22066 11,0066 3 11,6065 1 CAF tcadr3
22067 11,0067 5 0,0132 1 TS MPAC+2
P03_restart EQU *
22070 11,0070 3 11,6063 1 CAF nvcode3
22071 11,0071 0 2,4503 0 TC NVSUB
22072 11,0072 0 11,6074 1 TC *+2 ; display busy
22073 11,0073 0 11,6077 1 TC P03_wait ; execution of verb/noun succeeded
22074 11,0074 3 11,6064 0 CAF restart3_addr
22075 11,0075 0 2,5001 0 TC NVSUBUSY ; go to sleep until display released
22076 11,0076 0 1,2723 0 TC ENDOFJOB ; another job is already sleeping
P03_wait EQU *
22077 11,0077 1 0,0503 0 CCS LOADSTAT
22100 11,0100 0 11,6115 1 TC P03_pwd ; >0, verb "proceed w/o data" has been keyed in
22101 11,0101 0 11,6107 1 TC P03_yield ; +0, waiting for data
22102 11,0102 0 11,6120 1 TC P03_ter ; <0, verb "terminate" has been keyed in
22103 11,0103 3 0,0000 1 NOOP ; -0, load has been completed
22104 11,0104 3 1,2051 1 CAF ONE ; data in
22105 11,0105 5 0,0043 0 TS %43 ; set loc=1
22106 11,0106 0 1,2723 0 TC ENDOFJOB
P03_yield EQU *
22107 11,0107 3 1,2051 1 CAF ONE
22110 11,0110 6 0,0043 0 AD %43
22111 11,0111 5 0,0043 0 TS %43 ; incr loc while busy-waiting
22112 11,0112 1 0,0307 1 CCS newJob ; yield to higher priority job?
22113 11,0113 0 1,2733 1 TC CHANG1 ; yes
22114 11,0114 0 11,6077 1 TC P03_wait ; no, keep busy-waiting
P03_pwd EQU * ; proceed without data
22115 11,0115 3 1,2052 1 CAF TWO
22116 11,0116 5 0,0043 0 TS %43 ; set loc=2
22117 11,0117 0 1,2723 0 TC ENDOFJOB
P03_ter EQU * ; terminate
22120 11,0120 3 1,2053 0 CAF THREE
22121 11,0121 5 0,0043 0 TS %43 ; set loc=3
22122 11,0122 0 1,2723 0 TC ENDOFJOB
;--------------------------------------------------------------------------
; P04 DEMO PROGRAM
;
; Calls pinball: monitor verb 11, noun 04.
;--------------------------------------------------------------------------
22123 11,0123 02604 1 nvcode4 DS %02604 ; verb 11, noun 04
22124 11,0124 22131 1 restart4_addr DS P04_restart
22125 11,0125 00042 1 tcadr4 DS %42
;mon_option DS %6
22126 11,0126 02206 1 mon_option DS %2206
P04 EQU *
22127 11,0127 3 11,6125 1 CAF tcadr4 ; load 'machine address to be specified'
22130 11,0130 5 0,0132 1 TS MPAC+2
P04_restart EQU *
22131 11,0131 3 11,6126 1 CAF mon_option ; paste verb 09, blank R2, R3
22132 11,0132 5 0,0564 0 TS NVSUB_L
22133 11,0133 3 11,6123 1 CAF nvcode4
22134 11,0134 0 2,4507 1 TC NVMONOPT ; was NVSUB
22135 11,0135 0 11,6137 1 TC *+2 ; display busy
22136 11,0136 0 1,2723 0 TC ENDOFJOB ; execution of verb/noun succeeded
22137 11,0137 3 11,6124 0 CAF restart4_addr
22140 11,0140 0 2,5001 0 TC NVSUBUSY ; go to sleep until display released
22141 11,0141 0 1,2723 0 TC ENDOFJOB ; error: another job is already waiting
;--------------------------------------------------------------------------
; P78 DEMO PROGRAM
;
;--------------------------------------------------------------------------
P78 EQU *
22142 11,0142 3 1,2050 0 CAF ZERO
22143 11,0143 6 0,0051 0 AD %51
22144 11,0144 6 1,2051 1 AD ONE
22145 11,0145 5 0,0051 0 TS %51 ; incr data at this address
22146 11,0146 0 1,2723 0 TC ENDOFJOB
;--------------------------------------------------------------------------
; P79 DEMO PROGRAM
;
;--------------------------------------------------------------------------
P79 EQU *
22147 11,0147 3 1,2050 0 CAF ZERO
22150 11,0150 6 0,0052 0 AD %52
22151 11,0151 6 1,2051 1 AD ONE
22152 11,0152 5 0,0052 0 TS %52 ; incr data at this address
22153 11,0153 0 1,2723 0 TC ENDOFJOB
Assembly complete. Errors = 0
Symbol table:
BANK0 000057 MAXTASK 000007 MAXVAL 037777
MAXDELAY 027340 MAXTIMEOUT 010440 TSKTIME 000000
TSKADDR 000001 TRECSZ 000002 WL_taskList 000057
WL_IN_saveQ 000075 WL_IN_taskPtr 000076 WL_IN_loopCnt 000077
WL_AT_saveQ 000100 WL_AT_taskPtr 000101 WL_AT_newTime 000102
WL_AT_timeLeft 000103 WL_AT_loopCnt 000104 WL_T3_saveQ 000105
WL_T3_oldBank 000106 WL_ST_saveQ 000107 WL_ST_taskPtr 000110
WL_ST_newTime 000111 WL_ST_loopCnt 000112 WL_RT_saveQ 000113
WL_RT_runAddr 000114 WL_RM_saveQ 000115 WL_RM_taskPtr 000116
WL_RM_taskPtr2 000117 WL_RM_loopCnt 000120 WL_RM_retval 000121
WL_IS_newTime 000122 WL_IS_newAddr 000123 WL_IS_saveQ 000124
WL_IS_taskPtr 000125 WL_IS_taskPtr2 000126 WL_IS_loopCnt 000127
MAXJOBS 000007 JRECSZ 000015 EX_currentJob 000130
MPAC 000130 MODE 000137 LOC 000140
BANKSET 000141 PUSHLOC 000142 PRIORITY 000143
JOBPRIOBASE 000144 JREC0 000145 JREC1 000162
JREC2 000177 JREC3 000214 JREC4 000231
JREC5 000246 JREC6 000263 EX_jobList 000300
LOCCTR 000300 CHGJOB 000001 KEEPJOB 000000
newJob 000307 EX_JW_saveQ 000310 EX_JW_loopCnt 000311
EX_JW_CADR 000312 EX_JW_foundit 000313 EX_JW_jobPtr 000314
EX_JW_jobPtr2 000315 EX_JW_fndIndx 000316 EX_AJ_saveQ 000317
EX_AJ_loopCnt 000320 EX_AJ_jobPrio 000321 EX_AJ_jobPtr 000322
EX_AJ_field 000323 EX_AJ_findx 000324 EX_IN_saveQ 000325
EX_IN_loopCnt 000326 EX_IN_jobPtr 000327 EX_IN_recIndex 000330
EX_IN_field 000331 EX_IN_findx 000332 EX_MN_runAddr 000333
EX_MN_field 000334 EX_MN_findx 000335 EX_RM_saveQ 000336
EX_RM_jobPtr 000337 EX_RM_jobPtr2 000340 EX_RM_savePtr 000341
EX_RM_loopCnt 000342 EX_RM_retval 000343 EX_RM_field 000344
EX_RM_findx 000345 EX_IS_newPrio 000346 EX_IS_newPrioB 000347
EX_IS_newLoc 000350 EX_IS_saveQ 000351 EX_IS_jobPtr 000352
EX_IS_jobPtr2 000353 EX_IS_loopCnt 000354 FLAGWRD5 000355
ITEMP1 000356 WAITEXIT 000356 EXECTEM1 000356
ITEMP2 000357 WAITBANK 000357 EXECTEM2 000357
ITEMP3 000360 RUPTSTOR 000360 WAITADR 000360
NEWPRIO 000360 ITEMP4 000361 WAITTEMP 000361
ITEMP5 000362 NEWLOC 000362 ITEMP6 000363
NEWLOCP1 000363 NEWJOB 000364 RUPTREG1 000365
RUPTREG2 000366 RUPTREG3 000367 RUPTREG4 000370
KEYTEMP1 000370 DSRUPTEM 000370 STATE 000371
FLAGFILL 000405 EMDOT 000405 STATEXIT 000407
INTB15P 000411 DSEXIT 000411 EXITEM 000411
BLANKRET 000411 INTBIT15 000412 WRDRET 000412
WDRET 000412 DECRET 000412 _2122REG 000412
ADDRWD 000413 POLISH 000414 UPDATRET 000414
CHAR 000414 ERCNT 000414 DECOUNT 000414
FIXLOC 000415 OVFIND 000416 VBUF 000417
SGNON 000417 NOUNTEM 000417 DISTEM 000417
DECTEM 000417 SGNOFF 000420 NVTEMP 000420
SFTEMP1 000420 HITEMIN 000420 CODE 000421
SFTEMP2 000421 LOWTEMIN 000421 MIXTEMP 000422
SIGNRET 000422 BUF 000425 BUF2 000430
INDEXLOC 000425 SWWORD 000425 SWBIT 000426
MPTEMP 000432 DMPNTEMP 000432 DOTINC 000433
DVSIGN 000433 ESCAPE 000433 ENTRET 000433
DOTRET 000434 DVNORMCT 000434 ESCAPE2 000434
WDCNT 000434 INREL 000434 MATINC 000435
MAXDVSW 000435 POLYCNT 000435 DSPMMTEM 000435
MIXBR 000435 TEM1 000436 POLYRET 000436
DSREL 000436 TEM2 000437 DSMAG 000437
IDADDTEM 000437 TEM3 000440 COUNT 000440
TEM4 000441 LSTPTR 000441 RELRET 000441
FREERET 000441 DSPWDRET 000441 SEPSCRET 000441
SEPMNRET 000441 TEM5 000442 NOUNADD 000442
NNADTEM 000443 NNTYPTEM 000444 IDAD1TEM 000445
IDAD2TEM 000446 IDAD3TEM 000447 RUTMXTEM 000450
DEXDEX 000437 DEX1 000440 DEX2 000441
RTNSAVER 000442 TERM1TMP 000430 RESTREG 000451
NVWORD 000452 MARXNV 000453 NVSAVE 000454
CADRFLSH 000455 CADRMARK 000456 TEMPFLSH 000457
FAILREG 000460 MINDEX 000463 MMNUMBER 000464
DSPCNT 000465 DSPCOUNT 000466 DECBRNCH 000467
VERBREG 000470 NOUNREG 000471 XREG 000472
YREG 000473 ZREG 000474 XREGLP 000475
YREGLP 000476 HITEMOUT 000476 ZREGLP 000477
LOTEMOUT 000477 MODREG 000500 DSPLOCK 000501
REQRET 000502 LOADSTAT 000503 CLPASS 000504
NOUT 000505 NOUNCADR 000506 MONSAVE 000507
MONSAVE1 000510 MONSAVE2 000511 DSPTAB 000512
NVQTEM 000526 NVBNKTEM 000527 VERBSAVE 000530
CADRSTOR 000531 DSPLIST 000532 EXTVRACT 000533
DSPTEM1 000534 DSPTEM2 000537 DSPTEMX 000537
NORMTEM1 000534 OPTIONX 000537 MMTEMP 000542
DSRUPTSW 000543 T4RET 000544 DSPOUTRET 000545
DK_IN_saveQ 000546 LXCH_LPRET 000547 LXCH_A 000550
KP_MPAC 000551 DPTEST_A 000552 DPTEST_Q 000553
REQ_Q 000554 SETNCADR_Q 000555 ALLDC_OC_Q 000556
SFRUTMIX_L 000557 SFCONUM_L 000560 BLANKSUB_Q 000561
GTSF_RET 000562 FR_RETQ 000563 NVSUB_L 000564
NVSUB_A 000565 ENDIDLE_L 000566 NBSUBSY1_L 000567
FLASHRET 000570 PASTE_TMP 000571 NEWMODEA_Q 000572
SHORTMP_A 000573 SHORTMP_OVFL 000574 SHORTMP_OVFH 000575
ADDRWD1 000576 MATH_Q 000577 PRSHRTMP_Q 000600
KEYRET 000601 SAVEQ 000602 BJBANK 000603
BJRET 000604 PJBANK 000605 PJRET 000606
PJA 000607 BCBANK 000610 BCRET 000611
BCA 000612 MBCBANK 000613 MBCRET 000614
MBCA 000615 DCBANK 000616 DCRET 000617
EXTENDER 005777 GOPROG 002000 T3RUPT 002004
ERRUPT 002010 DSRUPT 002014 KEYRUPT 002020
UPRUPT 002024 endRUPT 002030 goT3 002034
goER 002036 goDS 002037 goKEY 002041
goUP 002043 ofbit 002044 NEG0 002045
NEG1 002046 NEG2 002047 ZERO 002050
ONE 002051 TWO 002052 THREE 002053
FOUR 002054 FIVE 002055 SIX 002056
SEVEN 002057 TEN 002060 ELEVEN 002061
BIT15 002062 BIT14 002063 BIT13 002064
BIT12 002065 BIT11 002066 BIT10 002067
BIT9 002070 BIT8 002071 BIT7 002072
BIT6 002073 BIT5 002074 BIT4 002075
BIT3 002076 BIT2 002077 BIT1 002100
LOW7 002101 bankAddr 002102 lowAddr 002103
OCT1400 002104 NOUTCON 002105 POSMAX 002106
CLRMEM 002107 CLRMEM_CHK 002113 CLRMEM_WORD 002116
CLRMEM_VAL 002050 TIME3 000037 CLRMEM_BADDR 000037
CLRMEM_WC 002123 V37BANK 002124 SAMASK 002125
goMAIN 002126 SLAP1 002126 goMMchange 002147
V37XEQ 002153 V37XEQC 002166 WL_taskRecSize 002174
WL_tskLstStart 002175 WL_tskLstEnd 002176 WL_numTasks 002177
WL_numTasks1 002200 WL_maxVal 002201 WL_maxDelay 002202
WL_maxTimeOut 002203 WL_initWL 002204 WL_IN_loop 002213
WAITLIST 002232 WL_AT_noOvf 002264 WL_AT_chkOrder 002270
WL_AT_mkFirst 002306 WL_AT_loop 002311 WL_AT_schTsk 002333
WL_AT_done 002343 WL_TIME3task 002347 WL_runTasks 002362
WL_RT_loop 002364 WL_RT_runIt 002411 TASKOVER 002413
WL_RT_done 002414 WL_schedTask 002417 WL_ST_loop 002436
WL_ST_setT3 002461 WL_ST_noTask 002466 WL_ST_done 002470
WL_insert 002473 WL_IS_loop 002510 WL_IS_bumpPtr 002541
WL_IS_insRec 002552 WL_IS_done 002562 WL_remove 002565
WL_RM_loop 002603 WL_RM_done 002636 EX_WAKE_PRIO 002642
EX_DUMMY_PRIO 002643 EX_SLEEP_PRIO 002644 EX_jobCurStart 002645
EX_jobRecSize 002646 EX_jobLstStart 002647 EX_jobLstEnd 002650
EX_jobLstEnd1 002651 EX_numJobs 002652 EX_numJobs1 002653
EX_changeJob 002654 EX_keepJob 002655 EX_exec 002656
EX_MN_findJob 002662 EX_MN_setFlg 002677 EX_MN_runJob 002701
EX_MN_runIt 002720 ENDOFJOB 002723 JOBSLEEP 002725
CHANG1 002733 EX_MN_notBank 002750 EX_MN_saveIt 002752
EX_MN_mvRec 002757 EX_MN_loop3 002763 EX_MN_done3 003002
JOBWAKE 003003 EX_JW_loop 003015 EX_JW_moveRec 003035
EX_JW_bumpPtr 003041 EX_JW_done 003056 EX_JW_return 003074
SPVAC 003075 EX_SP_loop1 003110 EX_SP_done1 003127
EX_SP_testFlg 003146 EX_SP_done2 003156 FINDVAC 003161
NOVAC 003162 EX_AJ_loop1 003200 EX_AJ_done1 003217
EX_AJ_testFlg 003236 EX_AJ_done2 003246 EX_initEX 003252
EX_IN_loop1 003266 EX_IN_loop2 003304 EX_IN_loop3 003307
EX_IN_done 003324 EX_findIns 003332 EX_FI_loop 003347
EX_FI_bumpPtr 003376 EX_FI_insRec 003405 EX_FI_done 003405
EX_remove 003410 EX_RM_loop1 003420 EX_RM_done1 003437
EX_RM_loop2 003446 EX_RM_done2 003465 EX_RM_loop3 003472
EX_RM_done3 003507 dumJob 003510 dumJob1 003514
dumJob2 003517 NOTACTLT 003525 DXCHJUMP 003526
DODXCHCALL 003547 DC_NOTBANK 003561 BANKCALL 003565
DOBANKCALL 003611 MYBANKCALL 003624 POSTJUMP 003653
DOPOSTJUMP 003677 BANKJUMP 003712 DOBANKJUMP 003733
DATACALL 003742 DODATACALL 003763 RELTAB 003772
RELTAB11 004005 DKTESTINIT 004006 DK_initDK 004007
DSPOFF 004012 T4PROG 004047 DSPOUTSR 004057
DSPSCAN 004065 TABLNTH 004072 _120MRUPT 004074
DSPLAY 004103 DSPOUT 004116 NODSPOUT 004126
DSPOUTEXIT 004126 CHRPRIO 004131 KEYPROG 004132
TPAGREE 004150 TPA_SGN0 004152 TPA_P0 004157
TPA_PZ0 004167 TPA_PZ0FIX 004200 TPA_M0 004210
TPA_MZ0 004220 TPA_MZ0FIX 004231 TPA_SGN1 004241
TPA_P1 004246 TPA_M1 004262 TPA_SGN2 004277
TPA_P2 004304 TPA_M2 004306 TPA_P3 004310
MAXPOS 004315 MAXNEG 004316 TPA_MPAC0 004317
TPA_MPAC1 004320 TPA_FIXM 004321 TPA_FIXP 004337
SHORTMP 004353 DMP 004374 BANKFF_1 004435
BANK4 010000 BANK04_1 010000 BANK5 012000
BANK40_1 012000 BANK6 014000 BANK41_1 014000
BANK7 016000 BANK42_1 016000 BANK10 020000
BANK43_1 020000 V37 010000 V37BAD 010002
CHECKTAB 010005 AGAINMM 010007 V37NONO 010026
FCADRMM1 010030 PREMM1 010037 EPREMM1 010046
NOV37MM 010046 BANK04_2 010047 CHARIN 012000
CHARIN2 012016 ELRCODE1 012062 ENTERJMP 012063
_89TEST 012065 NUM 012101 DECTOBIN 012137
ENDNMTST 012155 ENDNUM 012170 ENDALL 012174
DECEND 012176 PDECSGN 012220 MORNUM 012227
CRITCON 012232 DECON 012237 GETINREL 012241
INRELTAB 012245 CCSHOLE 012271 VERB 012272
NVCOM 012275 NOUN 012306 NEGSGN 012312
BOTHSGN 012315 PIXCLPAS 012321 POSGN 012326
P_ON 012332 SGNCOM 012342 M_ON 012353
SGNTAB 012364 SIGNTEST 012367 SGNTST1 012404
CLEAR 012412 CLPASHI 012431 CLEAR1 012454
CLR5 012461 LEGALTST 012464 _5BLANK 012473
_5BLANK1 012515 SINBLANK 012531 DOUBLK 012534
BRNCHCON 012537 _2BLANK 012540 BLANKCON 012563
BANK40_2 012564 NVSUBR 014000 LOADLV1 014001
ENTER 014002 ENTPASHI 014012 ACCEPTWD 014032
ENTEXIT 000433 MMADREF 014036 LOWVERB 014037
ENTPAS0 014040 TESTVB 014044 TESTNN 014054
REQADD 014073 USEADD 014117 LODNNLOC 014124
NEG5 014126 INTMCTBS 014127 VERBFAN 014151
LST2CON 014163 VBFANDIR 014164 VERBTAB 014167
MIXNOUN 014237 DPTEST 014240 DPTEST1 014262
REQDATX 014264 REQDATY 014270 REQDATZ 014274
REQCOM 014277 ENDRQDAT 014305 UPDATNN 014307
PUTADD 014320 UPDATVB 014327 UPDAT1 014335
GOALMCYC 014340 GODSPALM 014341 DSPABC 014343
DSPAB 014350 DSPA 014355 DSPCOM1 014361
DSPB 014363 DSPC 014370 DSPCOM2 014375
DSPCOM3 014403 COMPTEST 014414 COMPTST1 014417
NDOMPTST 014427 DCOMPTST 014430 DECTEST 014435
DCTSTCYC 014444 NOUNTEST 014453 TSTFORDP 014462
COMPICK 014477 GETCOMP 014501 DECDSP 014510
DSPDCGET 014514 DSPDCPUT 014524 DSPSFNOR 014546
GTSFOUTL 014550 DSPDCEND 014551 DECDSP3 014560
SFOUTABR 014563 BANK41_2 014600 DEGOUTSF 012564
SETAUG 012572 FIXRANGE 012603 DEGCOM 012616
DEGTAB 012640 ARTOUTSF 012644 SCOUTEND 012651
READLO 012653 READLO1 012665 RDLONOR 012701
ENDRDLO 012703 BANK40_3 012704 HMSOUT 016000
SECON1 016041 SECON2 016043 MINCON2 016045
MINCON1 016047 HRCON1 016051 SEPSECNR 016053
SEPMIN 016074 ENDSPMIN 016113 BANK42_2 016114
DSPDPDEC 012704 ENDDPDEC 012726 BANK40_4 012727
ABCLOAD 014600 PUTXYZ 014614 ABLOAD 014635
PUTXY 014646 ALOAD 014663 BLOAD 014673
CLOAD 014707 LOADLV 014723 VBSP1LD 014733
VBSP2LD 014734 VBSP3LD 014735 ALLDC_OC 014736
GOQ 014761 SFRUTNOR 014762 SFRUTMIX 014770
SFRET1 015002 SFCONUM 015003 SFRET 015020
DISPLACE 015022 CONUMNOR 015025 PUTCOM 015031
PUTDPCOM 015065 PUTNORM 015077 PUTNORM_1 015111
PUTCOM2 015111 GTSFINLC 015113 PUTDECSF 015114
PUTSFNOR 015125 PUTDCSF2 015126 SFINTABR 015131
BANK41_3 015146 DEGINSF 012727 DEGINSF2 012740
SIGNFIX 012750 ENDSCALE 012762 NEG180 012764
SGNTO1 012766 DEGCON1 012772 DEGCON2 012774
ARTHINSF 012776 BINROUND 013011 _2ROUND 013014
_2RNDEND 013024 TESTOFUF 013025 BANK40_5 013031
BANK42_3 016114 MONITOR 015146 MONIT1 015150
BIT15_14 015155 MONIT2 015164 MONREQ 015215
KILLMON 015232 MONDEL 015236 MONDO 015237
ENDMONDO 015273 MONREF 015274 MONBACK 015275
MONBUSY 015276 LODSAMPT 015300 BANK41_4 015301
PASTEVB 004435 PASTEOPT 004451 ENDPASTE 004472
MID7 004473 BANKFF_2 004474 DSPFMEM 015301
ENDSPF 015307 BANK41_5 015310 DSPSIGN 013031
DSPRND 013046 DPOSMAX 013062 DSPDECWD 013064
DSPDCWD1 013071 TRACE1 013074 TRACE1S 013105
DECROUND 013117 DSPDECNR 013120 DSPDC2NR 013124
DSP2DEC 013131 END2DEC 013143 DSPDECVN 013144
VNDSPCON 013155 GOVNUPDT 013156 BANK40_6 013161
DSPOCTWD 015310 WDAGAIN 015317 OCTBACK 015337
DSPLW 015341 DSPMSK 002057 DSP2BIT 015344
BANK41_6 015356 DSPIN 013161 DSPIN1 013206
DFRNT 013226 DSLV 013245 DSMSK 013247
_11DSPIN 013253 DSPOCTIN 013261 ENDSPOCT 013264
PREDSPAL 013265 DSPALARM 013267 CHARALRM 013307
MONADR 013313 NVSBENDL 013314 BANK40_7 013315
ALMCYCLE 004474 ENDALM 004502 BANKFF_3 004503
MMCHANG 015356 MODROUTR 010000 REQMM 015404
VBRQEXEC 015420 REQEX1 015425 REQUESTC 015431
SETVAC 015444 VBRQWAIT 015446 ENDRQWT 015452
BANK41_7 015453 VBPROC 013315 VBTERM 013323
VBRESEQ 013325 VBRELDSP 013327 TSTLTS4 013334
UNSUSPEN 013342 BANK40_8 013350 NVSUB 004503
NVMONOPT 004507 NVSBCOM 004516 NVSUBCOM 004524
NVSRRBNK 004531 NVSUBEND 004532 BANKFF_4 004536
BLANKDSP 015453 INCR_NOUT_RET 015463 INCR_NOUT 015501
NVSUB1 015505 ENTSET 015542 NVSUB2 015543
ENDNVSB1 015571 BANK41_8 015572 KILMONON 004536
ENDIDLE 004541 ENDINST 004553 ISCADR_P0 004554
ISLIST_P0 004560 DSPABORT 004563 BLANKSUB 004565
BSUB1ADDR 004612 BS_SUPDXCHZ 004613 BANKFF_5 004616
DSPMM 010047 ENDSPMM 010056 BANK04_3 010057
BLNKSUB1 013350 TESTBIT 013373 DSPMMJB 013400
RECALTST 013413 RECAL1 013416 RECAL2 013427
RECAL3 013444 DOTERM 013446 DOPROC 013450
BANK40_8a 013452 SETNCADR 004616 SETNADD 004625
SETEBANK 004633 R1D1 004635 R2D1 004636
R3D1 004637 RIGHT5 004640 LEFT5 004647
SLEFT5 004656 LOW5 004664 MID5 004665
HI5 004666 TCNOVAC 004667 TCWAIT 004670
TCFINDVAC 004671 LOW11 004672 B12M1 004672
LOW8 004673 LOW10 004674 VD1 004675
ND1 004676 MD1 004677 BINCON 004700
OUT1 000011 DSALMOUT 000011 FALTON 004701
FALTOF 004706 FALTOR 004712 RELDSPON 004713
RELDSPOR 004720 TPSL1 004721 PRSHRTMP 004740
DOSHRTMP 004754 FLASHON 004760 FLASHOFF 004770
FLSHTAB 005000 NVSUBUSY 005001 BANKFF_5a 005003
NVSUBSY1 013452 ENDNVBSY 013461 BANK40_9 013462
RELDSP 005003 RELDSP2 005017 RELDSP1 005026
NEWMODEA 005036 POODOO 005050 NOTPALT 005066
PINBRNCH 005067 BANKFF_6 005070 VBTSTLTS 015572
TSTLTS1 015600 FULLDSP 015621 FULLDSP1 015622
TSTCON1 015623 SHOLTS 015624 TSTLTS2 015625
TSTLTS3 015631 BANK41_9 015644 ERROR 013462
TSTAB 013467 ERMINUS 013477 ERPLUS 013502
ERCOM 013505 NOTBIT12 013517 ERCON 013520
BANK40_10 013521 LODNNTAB 016114 LODMIXNN 016135
LODNLV 016156 MIXCON 016161 GTSFOUT 016162
SFCOM 016173 GTSFIN 016176 NNADTAB 016210
NNTYPTAB 016354 SFINTAB 016520 SFOUTAB 016570
IDADDTAB 016640 RUTMXTAB 017124 BANK42_4 017220
GOEXTVB 020000 LST2FAN 020002 ALM_END 020076
GOPIN 020077 BANK43_2 020101 BANK11 022000
P00 022000 time1 022004 task1 022005
prio1 022011 job1 022012 nvcode1 022017
restart1_addr 022020 tcadr1 022021 P01 022022
P01_restart 022024 nvcode2 022033 restart2_addr 022034
tcadr2 022035 P02 022036 P02_restart 022040
P02_wait 022047 P02_pwd 022055 P02_ter 022060
nvcode3 022063 restart3_addr 022064 tcadr3 022065
P03 022066 P03_restart 022070 P03_wait 022077
P03_yield 022107 P03_pwd 022115 P03_ter 022120
nvcode4 022123 restart4_addr 022124 tcadr4 022125
mon_option 022126 P04 022127 P04_restart 022131
P78 022142 P79 022147 ARUPT 000026
Q 000001 QRUPT 000027 TIME1 000036
TIME2 000035 BANK 000015 A 000000
TIME4 000040 OUT0 000010 IN0 000004
LP 000003 OVCTR 000034 CYL 000022
SR 000021 CYR 000020 