Digital PDFs

AH-E232C-MC

May 1980

200 pages

Original

99MB

view download

OCR Version

134MB

view download

Document:	CZDMRC0 DMP11,DMR11 M8203 STATIC DIAG 1 MAY 1980 bw
Order Number:	AH-E232C-MC
Revision:	000
Pages:	200
Original Filename:	CZDMRC0__DMP11,DMR11__M8203_STATIC_DIAG_1__AH-E232C-MC__MAY_1980_gray.pdf

OCR Text

il L DL

MB203 STATIC
CZDMRCO

DIAG #1

AH:-E232C-MC
FICHE 1 OF 1

s
o
armvies

e T e
A BULE

NLIST
.TITLE CZDMRC MB203 STATIC DIAG #1
E?SYL PROGRAM
DOCUMENT

SEQ 0001

.REM 3

IDENTIFICATION
PRODUCT CODE:

AC-E231C-MC

PRODUCT NAME:

CZDMRCO M8203 STATIC DIAG #1

PRODUCT DATE:

FEBRUARY 1980

MAINTAINER:

DIAGNOSTIC ENGINEERING

AUTHOR :

DAVID HOFFMAN

THE INFORMATION IN THIS DOCUMENT IS
SUBJECT
TO
CHANGE WITHOUT
NOTICE
AND
SHOULD
NOT BE CONSTRUED AS A COMMITMENT BY DIGITAL
EQUIPMENT CORPORATION.
DIGITAL EQUIPMENT CORPORATION ASSUMES NO
RESPONSIBILITY FOR ANY ERRORS THAT MAY APPEAR IN THIS DOCUMENT.

NO RESPONSIBILITY IS ASSUMED
FOR
SOF TWARE ON EQUIPMENT THAT IS NOT
AFFILIATED COMPANIES.

DEC

OR
BY

RELIABILITY
OF
DIGITAL
OR ITS

1979, 1980 BY DIGITAL EQUIPMENT CORPORATION

THE FOLLOWING ARE

DIGITAL

THE
USE
SUPPLIED

TRADEMARKS OF

PDP

DECUS

DIGITAL EQUIPMENT CORPORATION:

UNIBUS

DECTAPE

MASSBUS

C
CONTENTS

1.0 INTRODUCTION

2.0 HARDWARE REQUIREMENTS
5.0 PRELIMINARY PROGRAM REQUIREMENTS

4.0 GENERAL PROGRAM CONSIDERATIONS
4.1 DIAGNOSTIC SUPERVISOR
4.2 EXECUTION TIME

.3 XXDP+

4.4 ACT/SLIDE
4.5 APT
4.6 MEMORY MANAGEMENT
J\

.7 MEMORY PARITY OPTION
4.8 ERROR LOGGING
5.0 PROGRAM LOAD MEDIA

TESTS SWITCH

.2 PASS SWITCH
.3 FLAGS SWITCH

4 END OF PASS SWITCH
5 EFFECT OF START COMMAND

ART COMMAND
TESTS, PASS, AND FLAG SWITCHES

UNITS SWITCH
EFFECY OF RESTART COMMAND
NUE
COMMAND
PASS SWITCH
FLAGS SWITCH

EFFECT OF CONTINUE COMMAND
- COMMAND
LAGS SWITCH
E FFECT OF PROCEED COMMAND

m—

) g'vn-. 2

m-—

S SWITCH
CT OF ADD COMMAND

<mom S

I
“

N-A -~ -

L
L

N=ON)-=M WN—”-'WN—'

MWWHWWW

2
WWWSNN
o gb«o« AR
]

uuwww

Nm_n-a—n-a-n

QQM

E
.

WWO W

W
W

WWOLN

oomowooooobookooouooowooooo

6.0 OPERATING INSTRUCTIONS
6.1 LOADING AND STARTING PROCEDURES
6.1.1 LOADING PROCEDURES
6.1.2 STARTING PROCEDURES
6.1.3 STEPS FOR QUICK AND SIMPLE EXECUTION
2.2 INITIAL DIALOGUE

SWITCH

T OF DROP COMMAND

FFECT OF PRINT COMMAND

OMMAND
UNITS SWITCH
EFFECT OF DISPLAY COMMAND

SEQ 0002

'ng'fl

SEQ 0003

ECT OF FLAGS COMMAND

.10.

FECT OF ZFLAGS COMMAND

CONTROL CHARACTERS

2
3 SOF TWARE PARAME TERS

4 EXTENDED DISCUSSION OF P-TABLE DIALOGUE

7.0 DEVICE INFORMATION TABLES

8.0 TEST DESCRIPTIONS
8.1 DATA PATTERNS USED
9.0 ERROR INFORMATION
9.1 ERROR REPORTING

SEQ 0004

1.0 INTRODUCTION

THE

M8203

SINGLE-LINE

SYNCHRONOUS LINE UNIT HJDULE

WHICH SUPPORTS BOTH CHARACTER-MIENTED (DDCMP, BSC,
ETC.)
AND BIT=ORIENTED (SDLC, HDLC, ETC.) PROTOCOLS.
THE
PlRPOSE THIS PROGRAM IS TO PERFORM DIAGNOSTIC TESTING

OF ALL &03 LOGIC
FOLLOWING

FUNCTIONS

RELATIVELY

STATIC

WILL BE PERFORMED:

MANNER.

THE

LINE UNIT REGISTER

ADDRESSING, USYRT ADDRESSING,
STATIC BIT
INTERACTION AND
READ/WRITE LOGIC
TESTS,
BASIC
TRANSMITTER AND RECEIVER
SEQUENCING
AND DATA BUFFERING AND
STATIC
OPERATIONS
IN
CHARACTER AND BIT=STUFFING MODES.
IN ADDITION DATA MESSAGES

WILL BE SENT AT SPEEDS
OF 2400

LOOPBACK

THE

USYRT,

BAUD

THROUGH
AN EXTERNAL TEST CONNECTOR

INTERFACE SELECTED.

THE

STATIC

LOGIC

MEGABAUD,

UITH

WITH

SPECIFIC

HJDEH

ON THE LINE UNIT AT TTL LEVEL,

TESTS

WILL

_PROVIDE

EXTENSIVE

TROUBLESHOOTING CAPABILITIES, SUCH AS
TIGHT
SCOPE
LOOPS,
SWITCH OPTIONS,
AND ABILITY
TO ‘10CK'* ONTO INTERMITTENT
ERRORS.
IN ADDITION TESTS WILL BE DESIGNED
AND
STRUCTURED
TO
ACHIEVE
MAXIMUM
FAULT
RESOLUTION
AND
FACILITATE

REPLACEMENT OF THE SMALLEST FIELD REPLACEABLE UNIT.
THIS

PROGRAM

SUPERVISOR

AND

WILL

IMPLEMENTED

USING

THE

DIAGNOSTIC

A STRUCTURED PROGRAMMING APPROACH.

BECAUSE

THE
DESIGN WILL
CONFORM
TO
THE
SUPERVISOR
(STANDALONE
VE“lgsgalaEflE PROGRAM WILL BE COMPATIBLE WITH ACT, APT, XXDP+,
THROUGH DIALOGUE WITH THE OPERATOR,

THE PROGRAM

WILL

ALLOW

MODIFICATION OF
DEVICE PARAMETERS, SUCH AS UNIBUS ADDRESS,
VECTOR ADDRESSES AND DEVICE
PRIORITY.
IN ADDITION,
THE
OPERATOR
CAN
SPECIFY
PARTICULAR
TESTS
TO BE
RUN AND A
VARIETY OF LOCPING, RUNNING, AND REPORTING MODES.
DEVICE ERRORS WILL BE REPORTED AS THEY
OCCUR.
THE
REPORT
WILL
INCLUDE
A
TEST_
NUMBER AND DESCRIPTION OF THE ERROR,
%E:fig BAD
TEST
DATA,
AND
APPLICABLE
DEVICE
REGISTER

2.0 HARDWARE REQUIREMENTS
THE

FOLLOWING

LOGIC TESTS:

HARDWARE

IS REQUIRED TO RUN THE M8203 STATIC

l;g:-:é/“
.05,10,20,30,34,35,40,45,50,60, OR 70

CONSOLE TERMINAL

DMC-11 OR KMC-11 MICROPROCESSOR
M8203 LINE UNIT AND BCO8S-1 CABLE AND BERG CONNECTORS

3.0 PRELIMINARY PROGRAM REQUIREMENTS
THIS PROGRAM OPERATES
THE
MICROPROCESSOR
EXTENSIVELY
_IN
ORDER
TO
TEST
THE
LINE
INIT.
FOR
THIS
REASON,
THE
MICROPROCESSOR DIAGNOSTIC
AND
SUBSYSTEM
FUNCTIONAL
TESTS

SHOULD
BE
RUN
FIRST,
AND ANY
FAULTS
FOUND
MICROPROCESSOR MODULE SHOULD
BE REPAIRED, PRIOR
TO
THE M8203 STATIC LOGIC TESTS.

IN
THE
RUNNING

4.0 GENERAL PROGRAM CONSIDERATIONS
4.1 DIAGNOSTIC SUPERVISOR
THIS

PROGRAM

COMPATIBLE WITH THE STANDALONE DIAGNOSTIC

SUPERVISOR, AND MUST BE LOADED TO BE
CO-RESIDENT
WITH
THE
SUPERVISOR,
OR BE
PREVIOUSLY COMBINED WITH THE SUPERVISOR
AND LOADED AS A SINGLE FILE.
IN EITHER CASE,
THE
COMBINED

PROGRAM WILL NOT EXCEED 16K OF MEMORY.

4.2 EXECUTION TIME
THE MAXIMUM TIME REQUIRED TO RUN THE M8203 STATIC LOGIC

IS ABOUT 45 SECONDS PER PASS FOR EACH UNIT.

4.3 XXDP+

TESTS

THIS PROGRAM MAY BE LOADED UNDER XXDP+, AND

DUMP MODE OR CHAIN MODE.

MAY

RUN

4.4 ACT/SLIDE
THIS PROGRAM MAY BE LOADED UNDER ACT OR SLIDE AND MAY BE RUN

IN DUMP MODE OR CHAIN MODE.

4.5 APT
THIS PROGRAM MAY BE LOADED
BY
THE
APT
SYSTEM
APT-RD) AND RUN IN PROGRAM MODE OR SCRIPT MODE.

(INCLUDING

4.6 MEMORY MANAGEMENT

MEMORY MANAGEMENT IS NGT UTILIZED IN THIS PROGRAM.
INSTALLED, IT IS DISABLED BY THE PROGRAM.

IT IS

TRAPS

ARE

4.7 MEMORY PARITY OPTION

IF PARITY MEMORY
IS
INSTALLED,
DISABLED BY THE PROGRAM.

MEMORY

PARITY

SEQ 0005

4.8 ERROR LOGGING

SEQ 0006

AT THE END OF EACH PASS ON ALL UNITS, THE PROGRAM PRINTS OQUT
THE CUMULATIVE TOTAL NUMBER OF ERRORS SINCE THE LAST START OR

RESTART COMMAND.

5.0 PROGRAM LOAD MEDIA
THIS PROGRAM

CAN

LOADED

FROM

PAPER

TAPE

USING

THE

ABSOLUTE
LOADER OR FROM ACT, SLIDE, OR APT SYSTEMS, OR FROM
ANY MEDIA SUPPORTED BY XXDP+.
WHEN USING
THE
PAPER
TAPE
ABSOLUTE
LOADER,
THE
PROGRAM
SHOULD BE
LOADED
FIRST,

FOLLOWED BY THE DIAGNOSTIC SUPERVISOR.
WHEN USING XXDP+, THE
DIAGNOSTIC
SUPERVISOR
SHOULD
BE LOADED FIRST, FOLLOWED BY
THE DIAGNOSTIC PROGRAM.

6.0 OPERATING INSTRUCTIONS
6.1 LOADING AND STARTING PROCEDURES

6.1.1 LOADING PROCEDURES
THIS PROGRAM MAY
BE
LOADED
FROM
PAPER
TAPE
USING
THE
ABSOLUTE
LOADER.
IT MAY ALSO BE LOADED FROM ANY XXDP+ LOAD
MEDIA. WHEN LOADED UNDER XXDP+, THE DIAGNOSTIC SUPERVISOR
WILL BE LOADED AUTOMATICALLY.

6.1.2 STARTING PROCEDURES
THE
PROGRAM
STARTS
AT
LOCATION
PROCEDURES TO START THE PROGRAM.

200.

USE

STANDARD

DEC

6.1.3 STEPS FOR QUICK AND SIMPLE EXECUTION
THE
DIAGNOSTIC
CAN BE EXECUTED STANDALONE UNDER XXDP+,
WITHOUT READING THE REMAINDER OF THIS DOCUMENT, AS FOLLOWS:

A) LOAD AND START DIAGNOSTIC USING RUN COMMAND

B)
()
D)
E)
F)

RECEIVE DIAGNOSTIC SUPERVISOR IDENTIFICATION AND PROMPT
ENTER STA<CR>
ANSWER HARDWARE AND SOF TWARE QUESTIONS
GET END OF PASS MESSAGES OR ERROR MESSAGES
TO END EXECUTION, ENTER CONTROL/(

(DRS=-(C>)

6.2 INITIAL DIALOGUE

SEQ 0007

AFTER THE PROGRAM AND THE SUPERVISOR ARE LOADED AND THE PROGRAM

IS STARTED, THE FOLLOWING IDENTIFICATION IS TYPED :
DRS LOADED
DIAG. RUN-TIME SERVICES

CZDMR-C-0
M8203 STATIC LOGIC TESTS - PART 1 OF 2

Dl%lgT IS m8203

THE OPERATOR THEN PROCEEDS BY TYPING ONE OR MORE OF THE
COMMANDS DESCRIBED IN THE FOLLOWING SECTION 6.3. (FOR MORE
DETAILED INFORMATION, REFER TO THE DIAGNOSTIC SUPERVISOR
FUNCTIONAL SPECIFICATION).

6.3 PROGRAM OPTIONS
6.3.1 START COMMAND
LR

AR A

st sttt
222222 222222

STA(RT) /TESTS:<TEST-LIST>/PASS : <PASS~CNT>/FLAGS :
<FLAG=LIST>/EOP:<INCR>

AR RS

6.3.1.1

s sttt
I Il
222223222223 8.4

TESTS SWITCH (/TESTS:<TEST=LIST>)

<TEST-LIST>

A SEQUENCE OF DECIMAL NUMBERS

(1:2 (7(.)

RANGES OF DECIMAL NUMBERS (1-5:8-10 ETC.) THAT
SPECIFY
THE
TESTS
TO BE EXECUTED.
THE NUMBERS ARE SEPARATED BY COLONS.
THE NUMBERS RANGE FROM 1 TO THE LARGEST TEST NUMBER
IN
THE
DIAGNOSTIC.
THEY MAY BE SPECIFIED IN ANY ORDER.
TESTS WILL
BE EXECUTED IN NUMERICAL ORDER REGARDLESS OF
THE
ORDER
OF
SPECIFICATION.
THE
DEFAULT
IS
TO EXECUTE ALL TESTS.
ON
THIS AND ALL SWITCHES, THE ANGLE BRACKETS <> ARE PUNCTUATION
USED
IN THE DEFINITION ONLY, AND ARE NOT TO BE TYPED BY THE
OPERATOR.
SEE EXAMPLE AT END OF 6.3.1.5.

6.3.1.2 PASS SWITCH (/PASS:<PASS=CNT>)
<PASS=CNT> IS A DECIMAL NUMBER INDICATING THE DESIRED NUMBER
OF
PASSES.
A PASS IS DEFINED AS THE EXECUTION OF THE FULL

DIAGNOSTIC (ALL SELECTED TESTS) AGAINST ALL UNITS SUBMITTED.

THE DEFAULT IS
THE PROGRAM 1S
BY OCCURANCE
gg.mfl‘f}fl'fl;

NON-ENDING EXECUTION.
IN THIS CASE EXIT FROM
ACCOMPLISHED EITHER BY TYPING A CONTROL/C
OR
OF AN ERROR WITH THE HALT ON ERROR FLAG BEING
IS A RETURN TO COMMAND MODE.
SEE EXAMPLE
AT

6.3.1.3 FLAGS SWITCH (/FLAGS:<FLAG-LIST>)

SEQ 0008

<FLAG-LIST>
IS
A
SEQUENCE OF ELEMENTS OF THE FORM <FLAG>,
<FLAG=1>, OR <FLAG=0>, SEPARATED BY COLONS, WHERE <FLAG> HAS

ONE OF THE FOLLOWING VALUES:
HOE

HALT ON ERROR, CAUSING COMMAND MODE TO BE

ENTERED WHEN AN ERROR IS ENCOUNTERED
LOOP ON ERROR, CAUSING THE DIAGNOSTIC TO LOOP
CONTINUOUSLY WITHIN THE SMALLEST DEFINED BLOCK
OF CODING (SEGMENT, SUBTEST, OR TEST) CONTAINING THE ERROR
INHIBIT ERROR REPORTING
INHIBIT BASIC ERROR REPORTS

LOE

[ER
IBE
IXE

INHIBIT EXTENDED ERROR REPORTS

PRI
PNT

DIRECT ALL MESSAGES TO A LINE PRINTER
PRINT NUMBER OF TEST BEING EXECUTED

BOE
UAM

BELL ON ERROR
RUN _IN UNATTENDED MODE, BYPASSING MANUAL
INTERVENTION TESTS
INHIBIT STATISTICAL REPORTS
INHIBIT DROPPING OF UNITS BY DIAGNOSTIC
LOOP ON TEST

ISR
IDU
LOT
THE

FLAGS NAMED OR EQUATED TO 1

ARE CLEARED.

ARE

SET,

THOSE EQUATED TO 0

A FLAG NOT SPECIFIED IS CLEARED.

E:J‘I)Tg;l 6I§ 1??7 GIVEN ALL

FLAGS ARE

CLEARED.

THE FLAGS

SEE EXAMPLE AT

6.3.1.4 END OF PASS SWITCH (/EOP:<INCR>)
<INCR>

IS A DECIMAL NUMBER

PASSES)
PRINTED.

INDICATING HOW OFTEN

IT
IS
DESIRED
THAT
THE
END
THE DEFAULT IS AT THE
END
OF

EXAMPLE AT END OF 6.3.1.5.

(IN TERMS OF

OF PASS MESSAGE BE
EVERY
PASS.
SEE

6.3.1.5 EFFECT OF START COMMAND
THE
EFFECT OF THE START COMMAND IS TO INITIATE THE HARDWARE
PARAMETER DIALOGUE, THE
SOFTWARE
PARAMETER
DIALOGUE,
AND
THEN THE DIAGNOSTIC TESTS THEMSELVES.

THE
HARDWARE PARAMETER DIALOGUE COMMENCES WITH THE QUESTION
"W UNITS?'' TO WHICH THE
OPERATOR
REPLIES
WITH
A
DECIMAL

NUMBER

N FROM 1 TO 16. THE TERM "UNIT'' REFERS TO THE DEVICE

TO WHICH THIS SERIES OF DIAGNOSTICS IS DEDICATED.
FOLLOWING
THIS
ARE THE QUESTIONS WHEREBY THE P-TABLES THEMSELVES WILL
BE BUILT.
EACH P-TABLE IS A CORE-RESIDENT TABLE
CONTAINING
ALL
THE
HARDWARE
INFORMATION FOR ONE UNIT.
THE OPERATOR

MUST SUPPLY N_(NUMBER OF UNITS) VALUES
FOR EACH QUESTION.
HE
MAY
DO
THIS BY GIVING ONE ANSWER TO EACH QUESTION (IN
WHICH CASE THE SERIES OF QUESTIONS WILL BE POSED N TIMES) OR
BY
GIVING N _VALUES, SEPARATED BY COMMAS, TO EACH QUESTION
(SERIES WILL BE POSED ONCE).
EACH QUESTION IS
FOLLOWED
BY
THE

RESPONSE

RADIX

OCTAL, L FOR YES/NO)

FOR

DECIMAL,

IN PARENTHESES AND

AFTER THE PARENTHESES.

B FOR BINARY, O FOR

THE

DEFAULT

VALUE

FOLLOWING
THE HARDWARE QUESTIONS ARE THE SOF TWARE QUESTIONS
TO BUILD THE SOFTWARE TABLES, WHICH DEFINE THE
MODE
(QUICK

VERIFY ETC.) THAT THE DIAGNOSTIC WILL EXECUTE IN.

WHEN THE QUESTION " UNITS?'' IS ANSWERED, MEMORY STORAGE
ALLOCATED FOR THE P-TABLES, AND IF THERE IS NOT
ENOUGH
ACCOMMODATE THEM THE MESSAGE '‘TOO MANY UNITS'' IS ISSUED.
}Eé% SCEE“’T"IETSDIAGDSTIC MUST BE EXECUTED MORE THAN ONCE

IS
TO
IN
TO

:
EXAMPLE

STA/TESTS:1:2-4:6:8-10/PASS:3/FLAGS
: IER:HOE=1:
THIS

COMMAND

UAM: LOE

WILL CAUSE THREE PASSES TO BE MADE, EACH PASS

CONSISTING OF TESTS 1,2,3,4,6,8,9, AND 10 EXECUTED AGAINST
ALL UNITS.
THERE IS NO DIFFERENCE BETWEEN SAYING <FLAG> AND
SAYING <FLAG=1>. THE NOTATION <FLAG=0> IS MEANINGFUL ONLY ON

A
COMMAND
OTHER
THAN
START
TO
CLEAR
A
FLAG
THAT WAS
PREVIOUSLY SET.
NOTE THAT ON ALL COMMANDS
ONLY
THE
FIRST
THREE LETTERS ARE

SCANNED.

6.3.2 RESTART COMMAND
LA

AR A

sttt sttt
32222222222 28222821

RES(TART)/TESTS:<TEST=LIST>/PASS:<PASS=CNT>/FLAGS:
<FLAG=LIST>/UNITS:<UNIT-LIST>

LAA

ddddtd sttt
3222222228288 2

6.3.2.1 TESTS, PASS, AND FLAGS SWITCHES
<TEST=LIST>,

COMMAND

<PASS=CNT>,

AND <FLAG-LIST> ARE AS

IN THE

START

6.3.2.2 UNITS SWITCH (/UNITS:<UNIT=LIST>)
<UNIT=-LIST>

A SEQUENCE OF DECIMAL NUMBERS (0,1 ETC.) OR

RANGES OF DECIMAL NUMBERS

UNITS

TESTED.

(0-5, 8-10 ETC.)

THAT SPECIFY

THE

THE NUMBERS ARE SEPARATED BY COLONS.

THE NUMBERS MAY RANGE FROM O THRU N-1

(N IS

THE

NUMBER

UNITS
SPECIFIED IN THE PREVIOUS START COMMAND).
THE NUMBER
INDICATES THE POSITION OF
THE P-TABLE
AS
THE
DATA WAS
ENTERED DURING THE HARDWARE DIAGLOGUE.
THE UNITS WHICH ARE
SELECTED MUST NOT HAVE BEEN DROPPED BY
THE
DROP
COMMAND.
SEE_
THE DISCUSSION OF ADD AND DROP COMMANDS BELOW.
DEFAULT
émEST ALL UNITS WHICH HAVE NOT BEEN DROPPED BY
A DROP

SEQ 0009

6.3.2.3 EFFECT OF RESTART COMMAND

SEQ 0010

THE
RESTART
COMMAND DIFFERS FROM THE
THE P-TABLES FROM THE PREVIOUS
START
HAVE
BEEN ONE)
ARE USED, INSTEAD OF
THE UNITS SWITCH GIVES THE ABILITY TO

START COMMAND IN THAT
COMMAND
(THERE
MUST
NEW ONES BEING BUILT.
SELECF . A - SUBSET
OF

THESE.

THE

SOFTWARE DIALOGUE MAY OPTIONALLY
BE

COMMAND

MODE

HAS BEEN REENTERED IN ANY OF THE THREE NORMAL

(OPERATOR WILL BE ASKED).

THE

COMMAND

CAN

REEXECUTED

D AFTER

’

WAYS:
A) THE REQUESTED NUMBER OF PASSES HAVE BEEN MADE
B)
AN
ERROR WAS ENCOUNTERED WITH THE HALT ON ERROR FLAG SET C)
A CONTROL/C WAS ENTERED BY THE OPERATOR.

6.3.3 CONTINUE COMMAND
LA

AL A

ARt

sttt

ittt

siasssdy

CONCTINUE) /PASS : <PASS=CNT/FLAGS : <FLAG-LIST>
LA

AR A

ittt

sssssiissy

6.3.3.1 PASS SWITCH (/PASS:<PASS=CNT>)
<PASS-CNT> IS SAME AS IN START COMMAND, BUT THE
DEFAULT
IS
THE UNSATISFIED PASS~CNT FROM THE PREVIOUS START OR RESTART.

IF NONE REMAINS, THE DEFAULT IS NON-ENDING EXECUTION.

6.3.3.2 FLAG SWITCH (/FLAGS:<FLAG=LIST>)
<FLAG-LIST> IS SAME AS IN
START
FLAGS RETAIN THEIR CURRENT VALUE.

C(OMMAND,

BUT

UNSPECIFIED

6.3.3.3 EFFECT OF CONTINUE COMMAND
CONTINUE
MUST
FOLLOW A START OR RESTART, AND COMMAND MODE
MUST HAVE
BEEN ENTERED
DUE
TO A HALT
ON ERROR
OR
A
CONTROL/C.
THE
EFFECT
OF
THE
COMMAND
IS
TO GO TO THE
BEGINNING OF THE TEST THAT WAS BEING EXECUTED WHEN THE
HALT
OR
CONTROL/C
TOOK PLACE.
SOFTWARE DIALOGUE MAY OPTIONALLY
BE REEXECUTED.
HARDWARE PARAMETERS MAY NOT BE CHANGED.

6.3.4 PROCEED COMMAND
e
T
S
LR
LTI

PRO(CEED)
/FLAGS : <FLAG-LIST>
R

m‘--

6.3.4.1 FLAGS SWITCH (/FLAGS:<FLAG-LIST>)
<FLAG-LIST> IS AS IN

THE

START

FLAGS RETAIN THEIR CURRENT VALUE.

COMMAND,

BUT

UNSPECIFIED

6.3.4.2 EFFECT OF PROCEED COMMAND
PROCEED

MUST FOLLOW A START, RESTART,

SEQ 0011
OR CONTINUE.

MODE MUST HAVE BEEN ENTERED VIA A HALT ON ERROR.

COMMAND

THE EFFECT

OF
THE
COMMAND
IS
TO BEGIN
EXECUTION AT
THE LOCATION
FOLLOWING THE ERROR CALL.
NEITHER
HARDWARE
NOR
SOF TWARE
PARAMETERS MAY BE ALTERED.

6.3.5 ADD COMMAND
AR

AR R

AR A A AR R A A AR AR

R AR AR AR ARk

ADD/UNITS:<UNIT=-LIST>
LA

AR A

At ettt
eI
2222222 2

6.3.5.1 UNITS SWITCH (/UNITS:<UNIT=LIST>
<UNIT=LIST> IS AS IN THE RESTART COMMAND.

6.3.5.2 EFFECT OF ADD COMMAND
THE UNITS SPECIFIED ARE ADDED TO THE
TEST
SEQUENCE.
EACH
UNIT
MUST
HAVE
A
P-TABLE
IN MEMORY
DUE
TO AN EARLIER
HARDWARE DIALOGUE.
THIS
COMMAND
MUST
BE
FOLLOWED
BY
A
RESTART
OR
CONTINUE.
THE UNITS SWITCH MUST BE SPECIFIED.
THE ADD COMMAND IS
MEANINGFUL
ONLY
FOR
UNITS
THAT
WERE
PREVIOUSLY DROPPED.

6.3.6 DROP COMMAND
e

R Rt

DRO(P) /UNITS:<UNIT-LIST>
LA A

ddd sttt

ettt

1222232323 2232323232222222

6.3.6.1 UNITS SWITCH (/UNITS:<UNIT=LIST>)
<UNIT=LIST> IS AS IN THE RESTART COMMAND.

6.3.6.2 EFFECT OF DROP COMMAND
THE UNITS SPECIFIED WILL BE DROPPED FROM TESTING.
THE UNITS
WILL BE RESELECTED ONLY BY THE EXECUTION OF AN ADD OR
START
COMMAND.
THE
UNITS
SWITCH MUST BE ENTERED.
THIS COMMAND
MUST BE FOLLOWED BY A RESTART OR A CONTINUE COMMAND.

6.3.7 PRINT COMMAND
LA

AR A

SEQ 0012

e ittt
23322223%

PRI(NT)
R

6.3.7.1 EFFECT OF PRINT COMMAND
THE TOTAL NUMBER OF ERRORS FOR

EACH

UNIT

START OR RESTART
COMMAND ARE
PRINTED.
STATISTICAL REPORTING) FLAG IS CLEARED.

SINCE

THE

LAST

THE ISR (INMIBIT

6.3.8 DISPLAY COMMAND
LA

AR A

ittt

ettt

222%%223]

DIS(PLAY) /UNITS:<UNIT=LIST>
A

AR AR R

A R

AN R

AR R AR R

AR AR RN RN

ARRAN RN AN R

6.3.8.1 UNITS SWITCH (/UNITS:<UNIT=LIST>)
<UNIT=-LIST> IS AS IN THE RESTART COMMAND.

6.3.8.2 EFFECT OF DISPLAY COMMAND
THE HARDWARE P-TABLES FOR ALL UNITS UNDER TEST

OUT

THE

FORMAT

THAT WERE DROPPED BY THE

DESIGNATED.

ARE

IN WHICH THEY WERE ENTERED.
OPERATOR

‘DROP''

COMMAND

PRINTED

ANY UNITS
ARE

6.3.9 FLAGS COMMANDLA AR

ddd

sttt ettt
2222223223223 222223

FLA(GS)
AR AR RN

R AR AR AR AR R R AR

R RN

RNRRRAARR AR

6.3.9.1 EFFECT OF FLAGS COMMAND
THE CURRENT SETTINGS OF ALL FLAGS ARE PRINTED.

6.3.10 ZFLAGS COMMAND
LA AR A

AR d

ddd

ZFL (AGS)
LA A

gttt gt stt
I
2222222232
t
222 21

sttt

6.3.10.1 EFFECT OF ZFLAGS COMMAND
ALL FLAGS ARE CLEARED.

IT22233222282223222222%;

6.3.11

C(ONTROL

CHARACTERS

A CONTROL C_(C) ENTERED DURING THE EXECUTION OF A DIAGNOSTIC CAUSES
A RETURN
TO
COMMAND MODE.
A
CONTROL
Z
(Z)
ENTERED DURING ONE OF THE THREE OPERATOR
DIALOGUES= HARD CORE QUESTIONS (SEE
6.2) ,HARDWARE
DIALOGUE

(SEE 6.3.1.5), OR SOF TWARE DIALOGUE (SEE 6.3.1.5) CAUSES THE

DEFAULTS TO BE TAKEN FOR THE REMAINDER OF THAT DIALOGUE.

A CONTROL O (0) ENTERED DURING THE EXECUTION OF A DIAGNOSTIC

CAUSES
ALL
TELETYPE OUTPUT
TO BE
SURPRESSED FOR
THE
REMAINDER OF THE DIAGNOSTIC OR UNTIL ANOTHER 0
IS
TYPED,

WHICH RESTORES NORMAL TELETYPE OUTPUT.

6.3.12 HARDWARE PARAMETERS
THE
FOLLOWING 4 QUESTIONS WILL BE ASKED ON A START COMMAND.
THE VALUE LOCATED TO THE LEFT OF THE QUESTION MARK
IS
THE
DEFAULT
VALUE
THAT
WILL
BE
TAKEN ON A CARRIAGE RETURN
RESPONSE
.

DEVICE CSR ADDRESS :

(0)

160170?

THIS IS THE ADDRESS AT WHICH THE CSR REGISTERS (SELO) RESIDE
ON
THE
UNIBUS.
THE
ALLOWABLE
RANGE
IS
160000-177776
(OCTAL), AND THE DEFAULT VALUE IS 160170.

DEVICE VECTOR ADDRESS :

(0) 300 ?

THIS IS THE ADDRESS OF THE INPUT INTERRUPT VECTOR
FOR
THIS
DEVICE.
THE
ALLOWABLE
RANGE
IS 000-674 (OCTAL), AND THE
DEFAULT VALUE IS 300.

DEVICE PRIORITY LEVEL :

(0) 5 ?

THIS IS THE CPU PRIORITY AT WHICH THE INTERRUPT HANDLERS
OF
THIS
DEVICE
WILL BE EXECUTED.
THE ALLOWABLE RANGE IS 0-7,
AND THE DEFAULT VALUE IS 5.
g

MICROPROCESSOR RUN SWITCH - TYPE O IF OFF,

THIS TELLS THE PROGRAM IF

IF ON :

(0)

THE RUN SWITCH ON THE MICROPROCESSOR

IS SET OR NOT. IF IT IS SET, RUN IS NOT INHIBITED, AND TESTS
REQUIRING THE RUN STATE CAN BE EXECUTED. THE ALLOWABLE VALUES
ARE O AND 1, AND THE DEFAULT VALUE IS 1 (RUN IS NOT INMIBITED).

6.3.13 SOF TWARE PARAMETERS
NO SOF TWARE PARAMETER QUESTIONS ARE ASKED BY PART 1
STATIC LOGIC TESTS.

THE

6.3.14 EXTENDED DISCUSSION OF P-TABLE DIALOGUE
THE
FULL CAPABILITY OF THE HARDWARE DIALOGUE IS REVEALED BY
THE FOLLOWING DISCUSSION OF WHAT HAPPENS INTERNALLY.

SEQ 0013

AS SOON AS THE QUESTION "W UNITS?'"

NUMBER

SAY)

ANSWERED

(WITH

THE

SPACE IN CORE IS ALLOCATED FOR N P-TABLES.

ALL OF THE P-~TABLES ARE OF THE SAME FORMAT, AND THERE

ONE-TO ONE
CORRESPONDENCE BETWEEN THE HARDWARE PARAMETER
QUESTIONS AND THE SLOTS IN THE P-TABLE FORMAT.
ON THE FIRST TRIP THRU THE QUESTIONS, ALL OF
THE
SLOTS
IN
ALL OF
THE P-TABLES ARE FILLED.
IF THE OPERATOR TYPES IN
LESS THAN N EXPLICIT VALUES
IN RESPONSE
TO A PARTICULAR
QUESTION, THESE VALUES ARE PLACED IN THE P-TABLES (ONE VALUE

GOING_INTO THE PROPER SLOT OF EACH P-TABLE

BEGINNING WITH

THE
FIRST P-TABLE) UNTIL THE STRING OF VALUES IS EXHAUSTED.
THE LAST VALUE IN THE STRING BECOMES THE NEW DEFAULT AND
IS

USED TO FILL THAT SLOT IN THE REMAINING P-TABLES.

ON
SUBSEQUENT TRIPS THRU THE QUESTIONS, THE SAME PROCESS IS
CARRIED OUT, EXCEPT THAT THE EARLIEST P-TABLE
NOT
TO HAVE
RECEIVED
AN EXP_ICIT VALUE IN ANY OF ITS SLOTS NOW ASSUMES
THE ROLE THAT TABLE NUMBER ONE PLAYED IN THE FIRST TRIP.
THE SERIES OF QUESTIONS
IS
REISSUED
UNTIL
AT
LEAST
ONE
QUESTION HAS RECEIVED N EXPLICIT VALUES FROM THE OPERATOR.

GIVING

STRING

OF VALUES, COMMAS WITHOUT INTERVENING

VALl%SmeYEE USED TO INDICATE

REPETITION

THE

LAST

A
STRING OF
VALUES
MAY
BE
GIVEN AS
A RANGE (6~10 FOR
EXAMPLE). IF THE VALUES REPRESENT PURE NUMERICAL DATA,
THIS

SAMPLE

RANGE

INCREMENT OF 1).

TRANSLATES

IF THE VALUES

THE

ARE

STRING

6,7.8.9.10

ADDRESSES,

THE

(AN

SAMPLE

RANGE TRANSLATES TO THE STRING 6.8,10 (AN INCREMENT OF 2).

NOW LET US
SEE
HOW WE
COULD USE THESE CAPABILITIES TO
CONSTRUCT A SET OF P-TABLES.
ASSUME THAT WE HAVE 16 UNITS,
AND THAT THERE ARE THREE HARDWARE PARAMETERS FOR EACH (THREE
SLOTS IN
THE
P-TABLE,
THREE
HARDWARE
QUESTIONS
IN
THE
DIALOGUE).
LET THE DESIRED VALUE FOR THE FIRST PARAMETER BE

THE NUMBER 75 FOR ALL 16 TABLES.
LET THE DESIRED VALUE FOR
THE
SECOND
PARAMETER
BE_
EQUAL
TO
THE
UNIT NUMBER
(0,1,2,...,15) EXCEPT FOR UNIT 12, WHICH SHOULD RECEIVE
THE
VALUE
11.
LET THE DESIRED VALUE FOR THE THIRD PARAMETER BE
THE NUMBER 76 FOR THE FIRST 7 UNITS AND THE NUMBER
77 FOR
THE LAST 9 UNITS.
THE FOLLOWING DIALOGUE WOULD ACCOMPLISH THIS GOAL:

# UNITS (D)

UNIT 0

? 16

UNIT 7

]

-~ RS R

7-11,,13-15
77

SEQ 0014

THE

FIRST

TIME THE SERIES IS ASKED, SLOT ONE RECEIVES A 75

IN ALL 16 TABLES.

SLOT TWwO RECEIVES THE VALUES 0,1.,2.....6

TABLES O THRU 6 AND A CONSTANT 6 IN TABLES 7 THRU"15.

SLOT THREE RECEIVES A CONSTANT 76 IN ALL 16 TABLES.

THE SECOND TIME THRU THE SERIES, TABLES 7 THRU THE END
ARE
GOING TO BE AFFECTED (NCTE THAT THIS PIECE OF INFORMATION IS

PRINTED OUT FOR THE THE OPERATOR IN THE FORM
‘UNIT
XX''
AT
THE
BEGINNING OF EACH SERIES).
QUESTION 1 IS RESPONDED TO

BY A <CR>, SO SLOT ONE STAYS AT CONSTANT
75
IN TABLES
7
THRU 15, SINCE NO NEW EXPLICIT VALUES ARE TYPED 1~
SLOT TWO

GETS THE VALUES 7.8,9.10,11

IN TABLES 7

rung

GETS AN 11 IN SLOT 12, AND GETS THE VALUES 13,14,15 1~

raste§s13 THRU 15. SLOT THREE GETS THE VALUE 77IN TABLES 7

THE DIALOGUE IS TERM INATED WHEN THE SOF TWARE RECOGNIZES THAT
16 EXPLICIT VALUES X,
HAVE BEEN GIVEN FOR AT LEAST ONE QUESTION
(NAMELY QUESTION 2

7.0 DEVICE INFORMATION TABLES

s ettt
I 2222222222222 2247

* MAINTENANCE REGISTER - BSEL1
LA

RUN

MCLR

= BIT7

s ettt
2222223338 232822222

= BITé

STEPLU
LULOOP

= BIT4
= BIT3

ROMO
ROMI
STEPMP

= BIT2
= BIT1
= BITO

AR e

s gttt
22323223 2233232328 232222222222222221225

* 0BUS REG 10 - TRANSMITTER BUFFER
A

TTM*6

= BIT7

ettt

T332

3222222222223 222212122;

= BITé

= BITS

X3
TM2
@1
X0

= BIT3
= BIT2
= BIT
= BITO

= BIT4

Qt""'.'t"".'t.tt't"t't*t'tQ'ttttfitttiitt"tt.'fi.'itttttt't'tittfit"'tttt.

* 0BUS REG 11

tttt"t"tttfii't"".ttttittt'tfitttti't."tttttt.fittttt'l'tttt'tii"tti.tt'ttfi

GOAH
ABORT
EOM
SOM

= BIT7

= BIT3
= BIT2
= BIT
= BITO

SEQ@ 0015

D
S

R R

* 0BUS REG 12

R R R R R R

IC
BPOLL

= BIT?7
= BITé

R R

R A R AR RN AR AR AR AR R AR AR P AR AR AR AR AR R

A A R A T AR AR AR R

AR R AR AR AR AR AR AR AR RN R TR AR

2
R AR AR AR

R AR R

AR AR AR

= BITS

LULP

* 0BUS REG 13
MR

POLL

A A

AR AR

AR AR AR AR AR AR AR RS AR

RN,

AR AR

AR AN

e ettt
222 22

= BIT7

DTR

= BITé

SELFR

= BITS

MAINT1
MAINT2
SELSBY

= BIT3
= BITZ2
= BIT1

HDX

= BIT4

R R

AR R AR AR AR AR AR AR RN AR AR AR AR RN AR AR AN AR R®

* 0BUS REG 14
R

TXEN

A R A

R A

A A

AR AR AR AR AR AR R AR R AR AR R A AR AR AR AN

AR AR

R AR

= BIT6

DISSI
RDAX
WAX
ENAX
AX2
AX1

= BITS
= BIT4
= BIT3
= BIT2
= BIT1
= BITO

:.'Qttt"'.'.'tt'.t*t'tt'tt'tfittti'*t'tfittt..titttt'tt't'.t.'t"'ti't.itttfittit

* 0BUS REG 17

:t'*""'tt.""'tt'.'Q'tttttt'ttttt't.it*fiitt'ttt'ttt'tttt't"""'ttfi"t.t.ii

= BIT?
= BITé
= BITS

CRC2
CRC1
IDLE

SECA
STRIP
RDALL
IERR
DDCMP
LA AR

=
=
=
=
=

BIT4
BIT3
BIT2
BIT1
BITO

* IBUS REG 10 - RECEIVER BUFFER

RX7

RX6

ARl d

= BIT7

= BIT6

RXS

= BITS

RX3
RX2
RX1
RX0

= BIT3
= BIT2
= BIT
= BITO

RX4

= BIT4

222223222228 22222232322222222

22222222322222223221212%;

SEQ 0016

E
AL LA

12T2322222%}

* [BUS REG 11

:""'.'tt"'""'QI.Q."'.'."t'."'..t..t'...'."t".....""'.".'"Q.t'....

= BIT7
= BITS
= BIT4
= BIT3
= BIT2

oc
OACT
Sw3
ORDY
SW2
SW1

= BITé

SW0
UNRR

= BIT
= BITO

:."""t.t't..t""".".'.'Qt"'fitt.'tt..t.'tt.l'.tt'fitt.fi't.""'fi.l..t'it.t

* IBUS REG 12

:'t""t"t"t."fi.tt.'i"tt't'.'fi‘..QQ.Qitttttfitttt..'.tt'i""""Q...!t't.tt

ic
IACT

= BIT7
= BIT6

LULP

= BITS

IRDY
ORR
RAB
EBLK
BCC

=
=
=
=
=

LA AR

BIT&
BIT3
BIT2
BITI
BITO
s

e et
222 2222222323223 222232227

~ IBUS REG 13

SRR Al At

RING
DTR
RTS
HDX

= BIT7
= BITé
= BITS
= BIT4

MODR
)

=
=
=
=

STBY
CARR

LA AL AR

222222223222332322222222;

BIT3
BIT?2
BIT1
BITO

Attt

ettt

il 22222223223232233322222222%;

* [BUS REG 14
AL AL

At s

READY

TXEN

DISSI

2222222322232 32232222222

= BITé

= BITS

RDAX
WAX

= BIT4
= BIT3

ENAX
AX2
AX1
LA A

At s

= BIT7

= BIT2
= BIN
= BITO
AR e

At g ett
222032 222222222222223
t
2122%%

* IBUS REG 17

:"t't't"i't'ttitttttttt'ttt"tt'ttttttttttt*ttttttttt'tttttit't'ttttt*t!tttt

SIGR

SIGQ
TXDATA
OCOR

ICIR

= BIT?7

= BITé
= BITS
= BIT4

= BIT3

TESTMD
= BITZ2
MCLK
= BIT1
DDCMP
= BITO

SEQ 0017

F
S

R R

AT AR A

R AR

AR A AR R R R R AR RN P AR AR AR AN RN R N AR R AR

* AXO-15 = USYRT REG O (READ ONLY)
S

RX7
RX6
RXS
RX4

R A

A A

R A

AR AR AR R

AR R AR R AR AR A

AR AR AR AR AR AN AR AR

AN RN

= BIT?7
= BIT6
= BITS
= BIT4

RX3
RX2

= BIT3
= BIT?

RX1
RX0

= BIT1
= BITO

LA AR AR ARl

s ettt
Tttt 2222222222%%4

* AXO-16 = USYRT REG 1
LA

AR AR

(READ ONLY)

et ittt
322222222222227

RERR
ASBC2
ASBC1
ASBCO
ROR
RABT
REOM

= BIT7
= BITS
= BITS
= BIT4
= BIT3
= BIT2
= BIT

s ettt
22222223 2232222

RSOM

= BITO

AR g

* AX1-15 = USYRT REG 2

MLl

ARt e

sttt g et
I2222222233 22228

= BIT?7

= BITé

= 8ITS

TH4
X3

TM2

TM1
TM0
LA

LSRR

=
=
=
=
=

BIT4
BIT3
BIT2
BIT1
BITO

sttt

* AX1-16 - USYRT REG 3

LA AL

TERR
TXGA
TXAB
TEOM
TSOM

sttt

2222332232232 2232222,

22223232

22222222232222%;

= BIT?7
= BIT3
= BIT?
= BIT1
= BITO

:'t'it"'tt't'tt'ttt'tt'tfitttttttttttttt'tttt'tttttttttttttttttttt.ttttttttfifi

* AX2-15 - USYRT REG 4

:Q"".t"'t"t"tt.tttt'tQ.tttttttt.tttttfittit'tttttt.ttttfitttt"tt'tttfitttt

SYN7

= BIT7

SYN6

= BITé

SYN4

= BIT4

SYNS

SYN3
SYN2
SYN1

SYNO
SYNCH

= BITS

= BIT3
= BIT2
= BIT

= BITO
= 226

SEQ 0018

G
ML

e ettt
22222244

* AX2-16 = USYRT REG 5
S

R R R R

APA
DDC

= BIT7
= BIT6

STR
SEC
IDL
CRCTY2
CRCTY1
CRCTYO

R R

N A

AR AR

R AR AR AR R R R AR AR AR R AR

* AX3-15 = USYRT REG 6
bbb

1422

St il

2322232222222232222322222233

2222222222223 22 8

= BIT6

C328CC
v35
INTGRL
C32eENB

= BITS
= BIT4
= BIT3
= BIT2

oP
TEST

= BIT
= BITO

AX315U
A

= 1422!XYZ!C32BCC!V35!INTGRL'OP

ettt

eIt

* AX3-16 = USYRT REG 7
A

AR AR AR RN R

= BIT?7

XYZ

AR RN

= BITS
= BIT4
= BIT3
= BIT?
= BIT1
= BITO

R R A A R A

TXLEN2
TXLEN1
TXLENO
RXLEN2
RXLEN1
RXLENO

T222232222232223222;

s et
2222232223222222%;

BIT7
BITé
BITS
BIT?
BIT1
BITO

=
=
=
=
=

8.0 TEST DESCRIPTIONS
AR

s eIt
122223223228
t
233 2222222222222
t
22231 5

TEST 1 = MICROPROCESSOR CSR ADDRESSING TEST

(SELO)

* THIS TEST ADDRESSES THE FIRST MICROPROCESSOR CSR (SELO), TO MAKE SURE
* THAT A NON-EXISTENT MEMORY TIME-OUT TRAP DOES NOT OCCUR WHILE
* ATTEMPTING TO ADDRESS THE MICROPROCESSOR.
AR A

SR E

At a2
23 223 232222232222222221212¢%;

ittta2
222223 2323232222222 2222222221223215

TEST 2 = INBUS/OUTBUS REG 14 INITIALIZATION TEST

* MASTER CLEAR (MCLR) IS SET IN THE MICROPROCESSOR,
* AND COMPARED TO 200.
M

AR SR

IBUS REG 14 IS READ

I3 2223232222222222222222211311%;

SEQ 0019

H
R

R A AR AR AR R R AR AR AR AR AR A PR AR AR

AR AR

AR A AR RN

TEST 3 - INBUS/OUTBUS REG 14 READ/WRITE BIT TEST
*

* WRITE, READ, AND COMPARE ALL WORDS OF DATA PATTERN A INTO REG 14,
N QE%ISGAT A'TIME. NON-R/W BITS ARE MASKED OFF TO O BEFORE WRITING AND
'

DATA PATTERN A = 125,252,000,377,001,002,004,010,020,040,100,200,376,

LA AR AR AR d

$75.5%73,%7,%57,%37,%77.177.

s ittt
It I T332 2232222

s ettt
2122222232222 22223

TEST 4 - REG 14 MASTER CLEAR TEST

* \I%ITE 377 INTO REG 14, ISSUE MASTER CLEAR, READ REG 14 AND COMPARE
LA

AR AR

LA AR AR A

s ettt
22222223233 2222222;

sttt

TEST_5 = REG 14 UNIBUS RESET

(INIT)

222223222328232233222222223

TEST

* \]-%1550377 INTO REG 14, ISSUE UNIBUS RESET (INIT), READ REG 14 AND COMPARE
'

AR AL

LAl s itt
Il
T332 22222232822333222
t
222223

AR AR

Rt ett
222 3222230 33222282322223222
t
2222221%%5

TEST 6 = LINE UNIT FALSE SELECTION TEST

FIRST, A MASTER CLEAR IS PERFORMED. THEN, THE PROGRAM SINGLE-STEPS THE
MICROPROCESSOR THROUGH AN INSTRUCTION WHICH LOADS 041 (OCT) INTO THE MAR
REGISTER (OBUS* ADRS 14). THEN, THE LINE UNIT REGISTER 14 IS READ AND CHECKED
TO BE UNAFFECTED (STILL = 0). THIS TEST IS INTENDED TO DETECT A FALSE
iglégggégl OF THE LINE UNIT REGISTERS, WHEN THE LINE UNIT IS NOT BEING
-

Al ad

eIt

T332

223232232

22322323222222222222121

d st
I3
t
2233222 222222222222
t
213311 5

TEST 7 = INBUS REG MASTER CLEAR TEST

* FIRST, ALL READ/WRITE BITS OF REGS 10-17 ARE SET BY LOADING A

DIFFERENT WORD OF PATTERN G INTO EACH REG.

BITS ARE MASKED OFF TO O BEFORE_COMPARISON)
.

THEN,

A MASTER CLEAR IS ISSUED AND EACH REG IS READ AND COMPARED TO A WORD OF
PATTERN M. WHICH CONTAINS THE INITIALIZED STATES OF THE REGS. (UNPREDICTABLE
PATTERN G = 000,000,240,120,177,000,000,001
PATTERN M = 000,020,000,000,200,000,000,051
A

Attt

eIl 22232322322222222222221132111
%

SEQ 0020

I
S

P R R A

A AR

R AR A AR AR

AR AR AR AR AR AR R PR

AR R

R AR A AR

2
AR

TEST 8 = REGISTER 10~17 ADDRESSING TEST
FIRST, A MASTER CLEAR IS ISSUED. THEN,
WRITE A DIFFERENT WORD OF DATA PATTERN B INTO EACH OF REGS 10-17,
AND AFTER EACH WRITE, READ AND COMPARE ALL REGS TO EXPECTED VALUES.
UNPREDICTABLE BITS ARE MASKED OFF TO O WHEN READ FOR COMPARISON.
PATTERN B = 000,000,040,100,220,000,000,051

AL AR ARt

LA AR

AR d

Al ittt
I3 32232222

e ettt
22232222228 2

TEST 9 = REG 11 READ/WRITE BIT TEST
*

* WRITE, READ, AND COMPARE EACH WORD OF DATA PATTERN C
*
DATA PATTERN C = 020,020,020.
MAAA AR

LA AR R

AR AL A

INTO REG 11

ittt

222232232323 23832222

s ettt
1222232222323233 2222222

TEST 10 - REG 12 READ/WRITE BIT TEST
g

* WRITE, READ, AND COMPARE EACH WORD OF DATA PATTERN D INTO REG 12
*
DATA PATTERN D = 000,040,000.
LA LA AR LR

LA AR AR R

et itt
22222222233
t
2222222%;

ettt

2222323232322222222322222221

TEST 11 - REG 13 READ/WRITE BIT TEST

* WRITE, READ, AND COMPARE EACH WORD OF DATA PATTERN E
*
DATA PATTERN E = 000,120,020,100,120,000.
MLAA AL

AR A

Attt it

Al Al

ittt

ettt

TEST 12 = REG 17 READ/WRITE BIT TEST

AAL AL

Add

INTO REG 13

222223222222 2232322222222

222323222223232222222222223111IIIT Y

* WRITE, READ, AND COMPARE EACH WORD OF DATA PATTERN F
*
DATA PATTERN F = 050,051,050.

INTO REG 17

2222223323222

22222223222211211

SEQ 0021

J
R

R A

A AR

AR AR AR AR AR AR AR

AR R P AR AR

AR AR A AR AR

LA
R BF B

BF 2

BN BFB IR B

BN 2N BN R

TEST 13 = MAINTENANCE CLOCK BIT TEST
FIRST, A MASTER CLEAR IS ISSUED TO INIT ALL REGS.

IS PLACED IN A LOOP ON AN INSTRUCTION,

THEN, THE MICROPROCESSOR

BY SETTING THE INSTRUCTION IN SEL6

AND SETTING ROMI AND RUN IN BSELT. THE INSTRUCTION IS ONE WHICH REPETITIVELY

READS LINE UNIT REG 17 INTO BSEL2. THE PDP-11 CAN THEN SCAN BSEL2 TO MONITOR
;O*FI"NA{'T‘gN:lNCEE CLOCK BIT, MCLK. THE FOLLOWING SEQUENCE IS THEN PERFORMED
= THE PROGRAM REPEATEDLY CHECKS THE MCLK BIT FOR THE 1 STATE, AND IF IT IS
NOT FOUND WITHIN SEVERAL HUNDRED MILLI-SEC (DEPENDING ON THE PROCESSOR)
ggcgm IS REPORTED. (THE MAINTENANCE CLOCK HAS A PERIOD OF 41.6 MICRO= THE PROGRAM NEXT REPEATEDLY CHECKS THE MCLK BIT FOR THE O STATE, AND IF

IT IS NOT FOUND WITHIN SEVERAL HUNDRED MILLI-SEC AN ERROR IS REPORTED.

= THE PROGRAM NEXT REPEATEDLY CHECKS MCLK BIT FOR THE 1

STATE AGAIN, AND

IF IT IS NOT FOUND WITHIN SEVERAL HUNDRED MILLI-SEC, AN ERROR IS REPORTED.

IF THE P-TABLE FOR THIS UNIT INDICATES THAT THE MICROPROCESSOR RUN SWITCH
IS OFF, THE TEST WILL BE SKIPPED.

s ittt
2211222223223 23 83232222

st stt
It
I222222322233322
t
222222;

BN O

BN IR BN J

TEST 14 - EXTENDED REGISTER MASTER CLEAR TEST

FIRST, ALL READ/WRITE BITS OF EXTENDED REGS AX0-AX3 ARE SET BY LOADING
A DIFFERENT WORD OF PATTERN H INTO EACH REG. THEN, A MASTER CLEAR IS

ISSUED AND EACH REG IS READ AND COMPARED TO A WORD OF PATTERN I, WHICH
CONTAINS THE INITIALIZED STATES OF ALL THE EXTENDED REGS.
PATTERN H = 000,000,377,017,377,377,375,377
PATTERN I = 000,000,000,000,000,703,000,000

AR At

s sttt
eIl
2222222282222222322222212%;

At At itt
32122223223 2222322322222212
t
22223

FIRST, ISSUE A MASTER CLEAR TO PUT REGS INTO INITIALIZED STATES SHOWN IN
PATTERN I. THEN, WRITE A DIFFERENT WORD OF PATTERN J INTO EACH EXTENDED (AX)
'v‘ifae"’ AFTER EACH WRITE, READ AND COMPARE ALL EXTENDED REGS TO EXPECTED

PATTERN I = 000,000,000.000,000,103,000.000

TEST 15 - EXTENDED REGISTER ADDRESSING TEST

PATTERN J = 000.000.001.002.004.103.040.100
RS

222

23232232322

2222222223221121111

SEQ 0022

K
LA AA R

AR AL A

ittt

2
132222222}

USING REGS 15,16, THE INDIRECT REGS AX2=15,AX2=16 (USYRT REGS 4,5) ARE

WRITTEN AND READ USING EACH WORD OF PATTERN K. AX2-15 IS COMPARED
TO THE WORD WRITTEN, AND AX2-16 IS ALWAYS COMPARED TO 103. (AX2=16 IS NOT
WRITEABLE)
.
PATTERN K =

FOR REG 15: 000,377,125,252,001,002,004,
.040,100,200,000,000,
.000,000,000,000,000,376.
.367,357,337,277 ,177,
377,377 ,377,377,377,377,377,
FOR REG 16: 000.377.125.252.000.000.000.000.000.000.000.000.001.00;.
004001000200 040,100,200,377,377,377
.
.
.
.
03770377v3770377037 376,375,373,367,357,337,277,177.

B JEB 2

BN I

2N O

TEST 16 = REGS 15,16 /7 AX2-15,AX2-16 READ/WRITE BIT TEST

AR AR A

d stt2222232333222222
t
22%

s ett
22222322322303
t
23222222

LAB B

2N O3N O

TEST 17 = AXO-15,AX0-16 READ/WRITE BIT TEST

IN THIS TEST, A MASTER CLEAR IS DONE, AND THEN A WRITE, READ, AND COMPARE
ARE PERFORMED IN REGS AX0-15,AX0-16 USING EACH WORD OF PATTERN L.
ANY BITS IN AX0=15,AX0-16 WHICH ARE NOT READ/WRITE ARE MASKED OFF (TO 0)

IN THE EXPECTED VALUE BEFORE COMPARISON.
PATTERN L =

» »
*

AR A

212232222

222222222322222222¢%;

21222222223 2322222221231¢%;

TEST 18 - AX1-15,AX1-16 READ/WRITE BIT TEST

FOR REG 15: 000,377,000
FOR REG 16: 000,377,000.

IN THIS TEST, A MASTER CLEAR IS DONE, AND THEN A WRITE, READ, AND COMPARE

ARE PERFORMED IN REGS AX1-15,.X1-16 USING EACH WORD OF PATTERN K.

ANY BITS IN AX1-15,AX1-16 WHICH ARE NOT READ/WRITE ARE MASKED OFF
IN THE EXPECTED VALUE BEFORE COMPARISON.

(TO 0)

122223222223222322222223322313111%
%5

SEQ 0023

L
S

R R

AR AR

A A A AR AN AR AR AR AP AR AR AR AR IR AR AR

AR AR RN

IN THIS TEST A MASTER CgEAR IS DONE AND THEN A WRITE, READ, AND COMPARE ARE

PERFORMED IN REGS AX3-15,AX3=16 USING EACH WORD OF PATTERN V FOR WRITING,

AND PATTERN U FOR COMPARING.
ANY BITS IN AX3-15,AX3-16 WHICH ARE NOT READ/WRITE ARE MASKED OFF
IN THE EXPECTED VALUE BEFORE COMPARISON

(TO 0)

PATTERN V =

FOR REG 15 :

TEST 19 = AX3-15,AX3-16 READ/WRITE BIT TEST

BN BN I

FOR REG 16 :
PATTERN U =

FOR REG 15 :

FOR REG 16 :

SRARAA AR AR AR AT AR AN AR A RAR

LA AR AR At R

sttt ett
22222322223
t
233322222222

2R N

TEST 20 = REG 17 - AX2-16 READ/WRITE, MASTER CLEAR TEST
THIS TEST CONSISTS OF 2 SUBTESTS.

IN THE FIRST SUBTEST, EACH BYTE OF PAT 0

IS WRITTEN INTO REG 17 AND AFTER EACH WRITE, AX2-16 IS READ AND COMPARED

TO A BYTE OF PAT P.
PATTERN 0 = 000,041,004,010,020,040,100,101,200,201,300,111,301,375

PATTERN P = 000,113,200,040,020,010,001,104,007,105,007,144,107,157

IN THE_SECOND SUBTEST, REG 17 IS LOADED WIiTH $75,°A MASTER CLEAR IS ISSUED,

AND AX2-16 IS COMPARED TO ITS INITIALIZED STATE (103).

i a1
121223 222232222223232222232%;

it a

AR A

il it

sttt

LA LII O

TEST 21 = TRANSMITTER BUFFER DATA TEST

23232222222 2322222121212121¢%;

A MASTER CLEAR IS DONE FIRST, AND THEN A BYTE OF PATTERN N IS LOADED INTO

REG 11 AND THE NEXT BYTE IS LOADED TWICE INTO REG 10. THE PROGRAM THEN WAITS
AT LEAST 50 MICRO-SEC, AND THEN IT READS AND COMPARES AX1-15 TO THE BYTE WHICH

WAS LOADED INTO REG 10, AND IT READS AND COMPARES AX1-16 TO THE BYTE WHICH WAS
LOADED INTO REG 11. THIS PROCESS IS REPEATED (INCLUDING THE MASTER CLEAR)
FOR EACH PAIR OF BYTES IN PATTERN N.
PATTERN N =
FOR REG 10: 000,125,252,377,000,000,000
FOR REG 11: 000,000,000,000,005,012,017

AR d

ittt

22222222223 22222222223311111 Y

SEQ 0024

m2
AR

A ittt
ittt
Ittt
2232322221

2N 2R 2N N

J LA

2N 2N 2%

TEST 22 = TRANSMITTER BUFFER SEQUENCING TEST
FIRST, A MASTER CLEAR IS DONE, AND THE PROGRAM CHECKS FOR ORDY=1, OCOR=0.

THEN, 2 TSOM CHARS ARE LOADED INTO THE TX SILO, AND ALLOWED TO RiPPLE

DOWN TO THE OUTPUT. THE PROGRAM CHECKS FOR ORDY=1, OCOR=1.

NEXT, THE PROGRAM CYCLES THE STEPLU BIT UNTIL OCOR=0 AGAIN, AND CHECKS FOR
THIS TO OCCUR WITHIN 3 CYCLES.
THE SILO IS THEN FILLED WITH 64 BYTES OF A 256-BYTE BINARY COUNT PATTERN

(000-377) AND THE PROGRAM CHECKS FOR ORDY=0 AFTER THE 64TH CHAR IS LOADED.

THE PROGRAM CYCLES STEPLU FOR 8 CYCLES AND CHECKS THAT AFTER THE 8TH, ORDY=1.

AX1=15 IS READ AND COMPARED TO EXPECTED DATA.
THE REST OF THE BINARY COUNT DATA BYTES ARE LOADED, CYCLED 8 CLOCKS, READ AND
C%N&Eul;y ? BIY)E(ERACI) A TIME. UPON COMPLETION, THE SILO IS CHECKED TO BE EMPTY
S

AR A

sttt

ittt

ettt

22322232222224

11222222423 23323222222;

LA
IR IR2R
O O O

TEST 23 = TX MSG TIMING TEST, CHAR MODE, WITH CRC

IN THIS TEST, AN ENTIRE MESSAGE IS TRANSMITTED (USING STEPLU AND LULOOP)

AND
THE PROGRAM MONITORS THE OCCURRENCE OF USYRT TX
(BY SCANNING ORDY AND OCOR) AND OACT, AT EACH STEP.
CHARACTER ORIENTED PROTOCOL MODE, USING 8-BIT CHARS
THE FOLLOWING STEPS ARE DONE
:
A MASTER CLEAR IS DONE, AND THE LINE UNIT IS PLACED
SOM IS SET TWICE TO SEND 2 SYNCH CHARS. THEN, 2 000

THEN 2 TERMINATING SYNCHS ARE SENT.

BUFFER EMPTY FLAGS
THE TEST IS DONE IN
AND CRC-16.

IN CHAR MODE.
CHARS ARE SENT, AND

THE TRANSMITTER IS THEN DISABLED, USING OC, AND OACT IS MONITORED FOR THE
CLEARED STATE AFTER THE 3RD SYNCH COMPLETES.

MRt

bt R

AR LSS

sttty

Iyl

222222232 222222232222222111%;

e a1
222222 33222222223 2322232222

TEST 24 = TX MSG TIMING TEST, BIT MODE, WITH CRC

IN THIS TEST, AN ENTIRE MESSAGE IS TRANSMITTED (USING STEPLU AND LULOOP)
THE PROGRAM MONITORS THE OCCURRENCE OF USYRT TX BUFFER EMPTY FLAGS
(BY SCANNING ORDY AND OCOR) AND OACT, AT EACH STEP. THE TEST IS DONE IN

LA I

BIT ORIENTED PROTOCOL MODE, USING 8-8IT CHARS AND CRC-CCITT=1,

L
A

THE FOLLOWING STEPS ARE DONE:
A MASTER CLEAR IS DONE, AND THE LINE UNIT IS PLACED IN BIT MODE.
SOM IS SET TWICE TO SEND 2 FLAG CHARS. THEN, 2 000 CHARS ARE SENT, AND

THEN 2 TERMINATING FLAGS ARE SENT.

THE TRANSMITTER IS THEN DISABLED, USING OC, AND OACT IS MONITORED FOR THE

CLEARED STATE.
AR

Tt T22222322222232322222233222221111
)

SEQ 0025

N
S

AR AR

R AR

R R AR

R AR AR AR AR AR RPN AR RTINS

SEQ 0026

TEST 25 = TX MSG TIMING TEST, CHAR MODE, WITH NO CRC

%»
% %%
B
2R 2N 2% 2N N

IN THIS TEST, AN ENTIRE MESSAGE IS TRANSMITTED (USING STEPLU AND LULOOP)
AND THE PROGRAM MONITORS THE OCCURRENCE OF USYRT TX BUFFER EMPTY FLAGS
(BY SCANNING O7DY AND OCOR) AND OACT, AT EACH STEP. THE TEST IS DONE IN
CHARACTER ORIENTED PROTOCOL MODE, USING 8-BIT CHARS AND NO ERROR CHECKING.
THE FOLLOWING STEPS ARE DONE:
A MASTER CLEAR IS DONE, AND THE LINE UNIT IS PLACED IN CHAR MODE.
SOM IS SET TWICE TO SEND 2 SYNCH CHARS. THEN, 2 000 CHARS ARE SENT, AND
THEN 2 TERMINATING SYNCHS ARE SENT.

THE TEST IS PERFORMED WITH TXEN (REG 14, BIT6) SET, AND THE PROGRAM CHECKS
THAT THIS HOLDS RTS HIGH PAST THE END OF THE MESSAGE.

HEEA;EWD
sr{}gfk IS THEN DISABLED, USING OC, AND OACT IS MONITORED FOR THE
A

AL R

Al ettt
ettt
IT22222223223222222%4

sttt ittt
222222322322323 32222223

TEST 26 = TX UNDERRUN SET AND CLEAR TEST = CHAR MODE

IN THIS TEST, A TX UNDERRUN ERROR IS FORCED IN EACH OF 2 SITUATIONS,
AND THEN CLEARED DIFFERENTLY IN EACH.
IN THE FIRST, A MESSAGE IS INITIATED, A 000 CHAR IS SENT, AND THE TX
BUFFER IS NOT SERVICED IN RESPONSE TO THE USYRT TX BUFFER EMPTY FLAG,
WHICH CAUSES UNRR TO SET IN REG 11. THEN, SOM IS SET TO CLEAR THE ERROR,
AND THIS IS VERIFIED.
IN THE SECOND SITUATION, A MSG IS INITIATED, A 000 CHAR IS SENT, AND THE TX
BUFFER IS NOT SERVICED IN RESPONSE TO THE USYRT TX BUFFER EMPTY FLAG, WHICH
AGAIN CAUSES UNRR TO SET. THEN, A MASTER CLEAR IS DONE, AND THE UNRR BIT
* [S CHECKED TO BE CLEARED.

et e

sttt

Attt

ittt

ettt

I3 222222222822232323222222

T332

2232 232823222232333232223

2R N

2R AN

TEST 27 = TRANSMIT CHAR LENGTH TIMING TEST = CHAR MODE, CRC

THE LINE UNIT IS PLACED IN CHAR MODE (DDCMP) AND A MESSAGE IS INITIATED
WITH AN 8-BIT SYNCH AND A 5-BIT SYNCH CHAR. NEXT, A 000 CHAR IS SENT WITH
EACH OF THE FOLLOWING TX CHAR LENGTHS : 5 BITS, 6 BITS, 7 BITS, 8 BITS.
(FOR EXAMPLE, A 5-BIT CHAR REQUIRES 5 CLOCK CYCLES TO BE TRANSMITTED). TWO
TERMINATING SYNCHS ARE SENT AFTER THE DATA.

AL AL

A gtt
2222823232332
t
222222222321
y
2111
S

ittt

ettt

12222222233 2232222222322222322111

TEST 28 = TRANSMIT CHAR LENGTH TIMING TEST - BIT MODE, CRC

THE LINE UNIT IS PLACED IN BIT MODE AND A MESSAGE IS INITIATED

WITH 2 FLAG CHARS. NEXT, 2 8-BIT 000 CHARS ARE SENT, FOLLOWED BY 000 CHARS
WITH EACH OF THE FOLLOWING TRANSMITTER CHAR LENGTHS:

1 B8IT, 2 BITS,

3 BITS, 4 BITS, 5 BITS,

6 BITS, 7 BITS, AND 8 BITS.

(FOR EXAMPLE, A 5-BIT CHAR REQUIRES 5 CLOCK CYCLES TO BE TRANSMITTED).

TWO TERMINATING FLAGS ARE SENT AFTER THE DATA.

ettty

2222322232223

2222223221131I1TS

8B
A

R A A AR R RN R R R

AR AR RN AN AR

AR AR AR NN

TEST 29 = TXDATA BIT TEST = CHAR MODE, CRC

AR AN P AR

3
RN

NNS

THE LINE UNIT IS INITIALIZED AND A MSG IS INITIATED (USING STEPLU) WITH CRC16 SELECTED IN CHAR MODE. TWO SYNCHS, 000,125,252,377,000,
AND 2 TERMINATING

SYNCHS ARE THEN SENT. THE PROGRAM CHECKS

EACH BIT OF THE Tk :*STMITTED

DATA CHARS, BY MONITORING TXDATA (REG 17) AS THE DATA IS CLOCKED OUT OF
THE USYRT TRANSMITTER.

A A

AR AR A

R AR

AR AR TR

A R AR

AR AR

R N AR R AR AR NN RN AN AT RN TP RN ARNA RN RN NN

AR AR AN AR RN R AR AR A AR

RARN

TEST 30 - USYRT RECEIVER MSG TEST - CHAR MODE, CRC

THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH

LULP (REG 12) SET TO LOOP THE DATA_INTERNALLY IN THE USYRT, AND WITH CRC-16

SELECTED. TWO SYNCHS, 000,125,252,377,000, AND FOUR TERMINATING SYNCHS ARE
SENT. THE PROGRAM MONITORS IACT, AND THE RCV'D CHARS AND CRC BYTES ARE READ
FROM AXO-15 AND COMPARED TO EXPECTED VALUES. THE PROGRAM THEN CHECKS FOR IACT
STILL SET AFTER THE MESSAGE.

LA AR AR

Il 2122222223222223322222%

SR Sttt stt
eI T22222222333222
t
22222

LA
IR R

TEST 31 = USYRT RECEIVER MSG TEST - BIT MOCE, CRC

THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH

LULP (REG 12) SET TO LOOP THE DATA INTERNALLY IN THE USYRT, AND WITH CRCCCITT-1. TWO FLAGS, 000,125,252,377,000, AND TWO TERMINATING FLAGS ARE THEN
SENT. THE PROGRAM MONITORS IACT, RSOM, AND THE RCV'D CHARS ARE READ

FROM AXO-15 AND COMPARED TO EXPECTED VALUES.

THE PROGRAM THEN CHECKS FOR

* JACT = 0, SETS IC TO CLEAR THE RECEIVER, AND CHECKS FOR IACT STILL = 0.
AL

MRS

Al s ett
22222322323 22222332232222222
t
23

Al et At
et
T
t
1222222222222 2223222232221
t
31112%

TEST 32 = USYRT RECEIVER MSG TEST - CHAR MODE, NO CRC

* THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH

LULP (REG 12) SET TO LOOP THE DATA INTERNALLY IN THE USYRT, AND WITH NO

* ERROR DETECTION. TWO SYNCHS, 000,125,252,377,000, AND TWO SYNCHS ARE

* THEN SENT.

THE PROGRAM MONITORS IACT, AND THE RECEIVED CHARS ARE READ FROM

* AXO-15 AND COMPARED TO EXPECTED VALUES. THE PROGRAM THEN CHECKS FOR IACT
* STILL = 0, SETS IC TO CLEAR THE RECEIVER, AND CHECKS FOR IACT = 0.

LA AL SRR R itt
T2 2223233 22233222322221
t
22312 5

SEQ 0027

c
R

R A

AR R

AR R AR R R AR AR R AR AR R

AR AR AR R

R R ARAA AR AR

TEST 33 = USYRT RECEIVER MSG TEST - BIT MODE, NO CRC

* THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH

LULP (REG 12) SET TO LOOP THE DATA INTERNALLY

IN THE USYRT, AND WITH ERROR

DETECTION INHIBITED. TWO FLAGS, 000,125,252,377,000, AND TWO TERMINATING FLAGS

* ARE THEN SENT. THE PROGRAM MONITORS IACT, RSOM, AND THE RCV'D CHARS ARE
* READ FROM AXO=15 AND COMPARED TO EXPECTED VALUES. THE PROGRAM THEN CHECKS FOR
*

IACT = 0, SETS IC TO CLEAR THE RECEIVER, AND CHECKS FOR IACT STILL = 0.

AL LA

AL AL

ittt

I222232132222222322322%;

A ettt
eIyl
22222232223 22322228.

TEST 34 - SILO-DISABLED TRANSMITTER LOAD TEST
*

* THIS TEST DISABLES THE SILOS, LOADS A 125 CHARACTER INTO THE TX SILO, AND
* aEfA?ER“1-1S AND CHECKS THAT THE DATA DID NOT GET LOADED INTO THE USYRT TX
'

ARl sttt
It
2222 2222222282223 323322322233

LA AR AR

aat sttt
2222222223222 23222222%

TEST 35 - SILO-DISABLED MESSAGE TEST - BIT MODE, NO CRC

* THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU)
* WITH LULP (REG 12) SET TO LOOP THE DATA INTERNALLY IN THE USYRT,
WITH SILO
E3

* DISABLE SET, AND WITH NO ERROR DETECTION. TWO FLAGS, 000,125,252, AND

TERMINATING FLAGS ARE THEN SENT BY LOADING THE TRANSMITTED CHARS INTO

* REG AX1. THE PROGRAM MONITORS OACT, IACT, RSOM, REOM, ORDY, OCOR, ICIR,

* \IIAMBLYE'SM THE RECEIVED CHARS ARE READ FROM AX0O AND COMPARED TO EXPECTED
.

AL AR A

AL AR

ettt

Attt

T222222222222223322222212%;

ettt

2222222282232222222222222%;

=
0. THEN, 2 SOM CHARS ARE LOADED AND CLOCKED INTO THE USYRT, AND 64
?¥£§xo§ I&)256-8”5 BINARY COUNT DATA PATTERN (C00-377) ARE LOADED INTO

THE LINE UNIT IS THEN CLOCKED UNTIL IRDY = 1, AND THE PROGRAM CHECKS FOR
THIS TO OCCUR WITHIN 40-43 CYCLES. THE PROGRAM READS THE RCV SILO, CHECKS THE

2R N

BN BN O

FIRST, A MASTER CLEAR IS DONE AND THE PROGRAM CHECKS FOR ICIR = 1 AND IRDY

3N BN BN BN IR B

TEST 36 - RECEIVER BUFFER TEST - CHAR MODE, CRC

CHAR FOR 000, AND CHECKS FOR IRDY = 0 AGAIN.

THE LINE UNIT IS THEN CLOCKED IN GROUPS OF 8
PROGRAM CHECKS FOR ICIR = 1, IRDY = 1, UNTIL
IT CHECKS FOR ICIR = 0, IRDY = 1. THE SECOND
?ERSSIVE? i&?NMD COMPARED TO 001. THEN, THE
THE REST OF

CYCLES, AND AFTER EACH, THE
THE 64TH GROUP, AFTER WHICH
DATA CHAR IS READ FROM THE
PROGRAM CHECKS FOR ICIR = 1,

THE BINARY COUNT DATA BYTES ARE CYCLED 8 CLOCKS AND READ AND

COMPARED A BYTE AT A TIME.
A

2222228233 2222322222222232211I11I1

SEQ 0028

D
S

R R

R AR AR AR AR

AR AR AR R A AR PR AR AR

AR AR

TEST 37 = RECEIVER CHAR LENGTH TIMING TEST = CHAR MODE, NO CRC
THE LINE UNIT IS PLACED IN CHAR MODE,

WITH NO ERROR DETECTION, AND A MSG IS

INITIATED WITH 2 SYNCH CHARS. NEXT, FIFTEEN 000 CHARS ARE LOADED INTO THE

TRANSMITTER SILO. THE LINE UNIT IS THEN CLOCKED USING STEPLU WITH LULOOP
SET, WHILE THE RECEIVER CHAR LENGTH IS SET TO THE FOLLOWING VALUES : S 6,7,8.

FOR EACH RCV_CHAR LENGTH, THE PROGRAM CHECKS TO MAKE SURE THET USYRT RECEIVER
FLAGS OCCUR THE PROPER NO. OF CYCLES APART, FOR EACH RCV CHAR LENGTH.

(FOR EXAMPLE A 5-BIT CHAR TAKES 5 CLOCK CYCLES TO BE RECEIVED). A MASTER
CLEAR IS THEN DONE TO TERMINATE THE OPERATION.
R

A R A

AR A A A AR

AR R

AR AR TR R AR AR AR AR AT

RAN AR AR AR

Al s ettt
It
2222222232223222223

TRANSMITTER SILO.

ARIR R

N
B

THE LINE UNIT IS PLACED IN BIT MODE WITH NO ERROR DETECTION, AND A MESSAGE IS

IR B

TEST 38 -~ RECEIVER CHAR LENGTH TIMING TEST - BIT MODE, NO CRC

INITIATED

WITH 2 FLAG CHARS. NEXT, FIFTEEN 000 CHARS ARE LOADED INTO THE
THE LINE UNIT IS THEN CLOCKED USING STEPLU WITH LULOOP

SET, WHILE THE RCV CHAR LENGTH IS SET TO THE FOLLOWING VALUES : 8,8,8,7.6.5.
4,3,2,1. FOR EACH RCV CHAR LENGTH, THE PROGRAM CHECKS TO MAKE SURE THAT THE
USYRT RECEIVER FLAGS OCCUR THE PROPER NO. OF CYCLES APART, FOR EACH RCV
CHAR LENGTH. (FOR EXAMPLE, A 5 BIT CHAR TAKES 5 CLOCK CYCLES TO BE RECEIVED).
A MASTER CLEAR IS THEN DONE TO TERMINATE THE OPERATION.

AR Al g

st s stt
Il
T2 222222323323223222
t
223

s stt
2122 222222322323
t
232323222%2

TEST 39 - TRANSMITTER UNDERRUN ERROR, IDLE MARKING, CHAR MODE,NO CRC
THE LINE UNIT IS PLACED IN CHAR MODE, AND THE IDLE BIT IS SET.

THEN, A

LRB

MSG IS INITIATED, A 000 CHAR IS SENT, AND THE TX BUFFER IS NOT SERVICED
IN RESPONSE TO THE USYRT TX BUFFER EMPTY FLAG, WHICH CAUSES A TX UNDERRUN
ERROR. THEN, THE RECEIVER IS CLOCKED AND CHECKED FOR TWO 377 CHARS TO BE
* RECEIVED (LINE MARKING) BEFORE SHUTTING DOWN WITH A MASTER CLEAR.
AR A

LA AL AR At

st s

s ey
T 23222228
l
228223222333323222%;

sttt

ittt

222

2232222

322222222223

LRB

2N I

TEST 40 - MSG TERMINATION WITH GA CHARS - BIT MODE.NO CRC
THE DEVICE IS ENABLED FOR TRANSMIT AND RECEIVE, AND A MESSAGE IS

INITIATED IN BIT MODE.

2 FLAG CHARACTERS ARE SENT, FOLLOWED BY

THE FOLLOWING DATA CHARACTERS : 000, 125, 252, 377, 000. THEN THE LOOP
MODE BIT (STRIP) IS SET AND 2 TERMINATING GO-AHEAD (HARACTERS ARE

SENT. EACH USYRT RCV FLAG IS TIMED AS IT IS RECEIVED, AND THE 5 DATA
WORDS ARE READ AND COMPARED TO EXPECTED VALUES.
ALSO, THE FIRST GA CHAR IS CHECKED BY SCANNING THE TXDATA BIT AS THE GA
IS BEING TRANSMITTED (GA = 376 OCTAL).
THE TEST ALSO CHECKS FOR SETTING OF RAB AND EBLK
IN LOOP MODE.

AR A

2322223223232222222232222%5

SEQ 0029

E
A

A A A

A R AR

AR AR AR AR R AR AR AR AR R R R

BN BN BNBN O

TEST 41 - IDLE SYNCHS TEST - CHAR MODE

THE DEVICE IS ENABLED FOR TRANSMIT AND RECEIVE, AND A MESSAGE

INITIATED IN CHAR MODE. 24(DEC) SYNCHS ARE SENT.
EACH SYNCH IS TIMED AS IT IS RECEIVED, AND THE BITS ARE CHECKED

FOR A VALID SYNCH CHAR FOR EACH OF THE 22 SYNCHS WHICH FOLLOW

THE FIRST TWO (THESE PERFORM SYNCHRONIZATION, AND ARE NOT READ).
WHILE THE LAST SYNCH IS BEING TRANSMITTED, OC IS SET, AND THE

NEXT CHAR RCV'D AFTER THE SYNCH IS CHECKED TO BE 377 (LINE MARKING).
THEN, A MASTER CLEAR IS _ISSUED.
THE SYNCH CHAR USED IS 226 (OCTAL).

AR AR

Al sl
i i3 2312222222232 483

alddd sttt
222222222;

LR R2RB B

N 2NIR AN

TEST 42 = STRIP SYNCH TEST

THE DEVICE IS ENABLED FOR TRANSMIT AND RECEIVE, AND A MESSAGE IS
INITIATED IN CHAR MODE AND WITH THE STRIP SYNCH
BIT SET. THEN 24 (DEC) SYNCHS ARE SENT
FOLLOWED BY THE FOLLOWING DATA CHARACTERS

377,

000,

125,

252.

AND THEN 2 TERMINATING SYNCHS.
EACH OF THE 23 SYNCHS AFTER THE FIRST ARE CHECKED AT THE TRANSMITTER OUTPUT,

BY SCANNING THE TXDATA BIT.
EACH USYRT RCV FLAG IS TIMED AS IT IS RECEIVED, AND THE 4 DATA WORDS
ARE READ AND COMPARED TO EXPECTED VALUES.
FINALLY,

THE LINE UNIT IS CLOCKED FOR SEVERAL CHAR TIMES, AND A CHECK

IS MADE FOR OACT = O (TEOM SHOULD CAUSE TX ENABLE TO DROP).

THE ABOVE TEST IS REPEATED FOR EACH OF
PATTERNS : 226,000,125,252,376,177.

AL AR

THE FOLLOWING SYNCH CHAR DATA

st st
222223 8223 222222222227

SEQ 0030

8.1 DATA PATTERNS USED

SEQ 0031

swans DATA PATTERN A wtwne
PATA:

BYTE
BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

125
252
000
377
001
002
004

010
020
040
100
200

376
375
373
367
357
337
277
177

w«xxxx DATA PATTERN B

PATB:

LA 2

PATC:

LA S

PATD:

LA A

:
PATE

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

000
000
040
100
220
000
000
051

DATA PATTERN C

.BYTE
.BYTE
.BYTE

LA 2

LA S

000
040
000

DATA PATTERN E

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

LA222

020
020
020

DATA PATTERN D

.BYTE
.BYTE
.BYTE

LA 2 2 3 ]

000
120
020
100
120
000

]

swwxx

PATF:

LA S

PATG:

LA S

PATH:

DATA PATTEPN F

.BYTE
BYTE
.BYTE

.BYTE
.BYTE
.BYTE
.BYTE

]

PATI]:

LA A

PATJ:

377
377
375
377

.BYTE

000

.BYTE
.BYTE

000
000

.BYTE
.BYTE
.BYTE

103
000
000

DATA PATTERN J

.BYTE

LA 2

000
000
377
017

DATA PATTERN |

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

LA A2 2

000
000
240
120
177
000
000
001

DATA PATTERN H

.BYTE
.BYTE
.BYTE
.BYTE
LA 2

050
0%
050

DATA PATTERN G

.BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE
.BYTE
.BYTE

LA222]

000
000
010
002
004
103
001
100

LA 2 22]

L e 8

2 24

SEQ 0032

seexe DATA PATTERN K sawxs
PATK:
BYTE
000

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
BYTE

.BYTE
.BYTE

000
377
377
125
125
252
252
001
000

.BYTE

002

.BYTE
.BYTE

000
010

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

020
000
040
000
100
000
200
000
000
001
000
002
000
004
000
010
000
020
000
040
000
100
000
200

.BYTE
.BYTE

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

000
004

376
377
375
377
373
377
367
377
357
377
337
377
277
377
177
377
377
376

SEQ 0033

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

.BYTE
.BYTE
.BYTE

377
75
77
373
377
367
377
357
377
337
377

277
377
177

sewxs DATA PATTERN L
PATL
:

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

SEQ 0034

*wxxnw

000
000
377
377
000
000

wxwxt DATA PATTERN M wxawx
PATM:

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

000
020
000
000
200

.BYTE
.BYTE

000
051

saxxx DATA PATTERN N xwxaxn
PATN:

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

000
000
000
125
000
252
000
377
005
000
012
000
017
000

sexes DATA PATTERN O wesws

PATO:

BYTE
BYTE
BYTE
BYTE
BYTE
BYTE
.BYTE
.BYTE
.BYTE
BYTE
BYTE
BYTE
BYTE
.BYTE

000
041
004
010
020
040
100
101
200
201
300
111
301
375

wxwxx DATA PATTERN P waxxx

PATP:

.BYTE
.BYTE
.BYTE
BYTE
.BYTE
.BYTE
BYTE
BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE
BYTE

000
113
200
040
020
010
001
104
007
105
007
144
107
157

wawwx DATA PATTERN U wwaxxx
.BYTE

.BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
.BYTE
BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE
.BYTE

000

000
001
000
013
000
011
000
021
000
101
000
301
000
000
001
000
002
000
004
000
040
000

PATU:

SEQ 0035

.BYTE
.BYTE
.BYTE
BYTE
.BYTE

000
200
000
346
000

.BYTE

g‘oog

.BYTE
.BYTE
.BYTE
BYTE
.BYTE
BYTE

000
307
000
247
000
147

wxxxx DATA PATTERN V wxwxx

PATV:

.BYTE

.BYTE
.BYTE
.BYTE
.BYTE

.BYTE
.BYTE
.BYTE

.BYTE
.BYTE
.BYTE
.BYTE

000

000
333
000
331

000
323
000

313
000
233
133

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

000
000
001
000
002
000
004
000
040
000
100
000
200
000

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

000
343
000
307
000
247
000
147

.BYTE
.BYTE

346
000

SEQ 0036

9.0 ERROR INFORMATION

9.1 ERROR REPORTING
ERRORS
ARE
REPORTED BY
THE PROGRAM AS THEY OCCUR (IF NOT
INHIBITED). THE REPORT CONFORMS TO THE DIAGNOSTIC SUPERVISOR
ERROR REPORT
FORMAT,
AND CONSISTS OF A DESCRIPTION OF THE

ERROR, THE TEST NUMBER, SUBTEST
CALL,
DEVICE
INFORMATION.

ADDRESS,

AND

NUMBER,
BASIC

AND

THE

EXTENDED

ERROR

THE FOLLOWING EXAMPLE PROVIDES A TYPICAL ERROR REPORT, WHICH

DESCRIBES

''IRDY

NOT SET'' ERROR, AND PROVIDES THE PC OF

THE ERROR CALL AND THE PC OF

THE

CALL

THE

SUBROUTINE

gEmP%L%'SKS IT, THE FAILING REGISTER NAME, AND DEVICE REGISTER

CZDMR DVC FTL ERR 00017 ON UNIT 00 TST 034 SuB 000 PC:
IRDY NOT SET

006210

PC OF SUBR CALL:
030044
DEVICE CSR ADDRESS : 160170
FAILING REG:

INBUS/0UTBUS REG 12

LINE UNIT INBUS REGS:

REG10

000

REG11

120

REG14

024

REG12

000

REG15

377

REG13

257

REG16

377

REG17

035

LINE UNIT EXTENDED REGS:
AX0-15 AX0-16 AX1-15 AX1-16
000
000
000
000
AX2-15 AX2-16 AX3-15 AXx3-16

000

FOR OTHER ERRORS,

000

THE REPORT

MAY

REQUIRE ADDITIONAL DATA TO BE REPORTED.

EXTENSIVE,

AND

IF
EXTENDED ERROR INFORMATION HAD BEEN INHIBITED USING THE
IXE FLAG PRIOR TO RUNNING THE TEST, THE ABOVE
ERROR WOULD

HAVE BEEN REPORTED IN THE FOLLOWING SHORTENED FORM :

CZDMR DVC FTL ERR 00017 ON UNIT 00 TST 034 SuB 000 PC:006210
IRDY NOT SET

PC OF SUBR CALL:
030044
DEVICE CSR ADDRESS : 160170
FAILING REG:

INBUS/0UTBUS REG 12

SEQ 0037

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-B0 14:38

2194
2203

002000

MACY11 30A(1052)

13-MAR-80

14:40

002000

.MCALL
SvC

SVC

2217

002000

BGNMOD

LUTMOD

2228
2229

000001
000001
000001
000001
000001
000001
000001

SEQ 0038

.TITLE CZDMRC M8203 STATIC DIAG #1
.=2000

2210
2211

2220
2221
2222
2223
2224
2225
2226

m3
PAGE 2

SLSTIN= 1
SLSTTAG= 1
SVCINS= 1
SVCTST= 1
SvVCSuB= 1
SVCGBL= 1
SVCTAG= 1
;

;
:
:
;
;

LIST
LIS ;
LIST
LIST
LIST

; INITIALIZE SUPERVISOR MACROS

INSTRUCTIONS, SHIFTED RIGHT
TEST TAGS, SHIFTED RIGHT

SUBTEST TAGS, SHIFTED RIGHT
GLOBAL TAGS, SHIFTED RIGHT
OTHER TAGS, SHIFTED RIGHT

CHANGE THE VALUES OF THE SVC... SYMBOLS TO BE ZERO IF YOU WISH
TO ALIGN THE MACRO CALLS AND THEIR EXPANSIONS.
CHANGE THE
SYMBOLS TO BE MINUS-ONE TO NOT LIST THE EXPANSIONS.
CHANGE THE SYMBOLS AT ANY POINT IN YOUR PROGRAM.

YOU MAY

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P1
13-MAR-80 14:38

2235
36

MACY11 30A(1052)

13-MAR-80

PROGRAM HEADER

.SBTTL

14:40

PAGE 2-1

SEQ 0039

PROGRAM HEADER

: THE PROGRAM HEADER IS THE INTERFACE BETWEEN
: THE DIAGNOSTIC PROGRAM AND THE SUPERVISCR.
002000

POINTER BGNAU,BGNDU

11ZXZ!!!!X!l!!!!Xl!l!l!l!l!ll1!l!!l!l!X!!!l!l!!l!!!l!!!l!l!l!l!l!!1!22!2!2!211112

IF ANY OPTIONAL POINTERS ARE TO BE USED IN THE ‘HEADER'‘,

'FOINTER” TO CONTAIN THE CORRECT, ARGUHENTS

CHANGE

IF ALL OPTIONAL

CHANGE ' POINTER'
BE 'POINTER ALL'
112!Xl2!!2lllllllelllllll!lflll!l!!l!22ll2
!!X!XIX2!X!!lX1!!!2!!!12!211221!2211!2
TERS

HEADER

% § g & S8833RkE

2241

035556

(ZDMR,(C,0,45..0

::
LSNAME

LSREV::

:
LSDEPO:
LSUNIT::
LSTIML::
LSHPCP::

L$SPCP::

002252

LSHPTP::
:
LSSPTP:

036234

LSLADP::

L$STA::
L$CO::
LSDTYP::

LSAPT::
LSDTP::

L$PRIO::
LSENV]::

LASCII
LASCII
LASCII
LASCII
LASCII
BYTE
BYTE

/C/
72/
/b/
/M/
/R/
O
O

LASCII

/C/7

LASCII

70/

WORD

.WORD

4S5.

.WORD

LSHARD

WORD

LSHW

WORD

.WORD

LSLAST

WORD

LWORD

WORD

LSDISPATCH

WORD

BYTE

MACY11 30A(1052)

PROGRAM HEADER

G208 000000

14:40

&
PAGE 2-2

SEQ 0040

LSEXP1::

LSMREV::

LSSPC::

000000

LSDEVP::

003462

:
LSREPP:

000000

LSEXP4::

000000

LSEXPS::

000000

LSAUT::

021634

LSDUT::

021552

LSLUN::

000000

:
LSDESP:

003470

LSLOAD::

104035

LSETP::

000000

LSICP::

021120

LSCCP::

021550

LSACP::

021470

LSPRT::

021112

LSTEST::

000000

LSDLY::

000000

LSHIME::

000000

5EEEEEEEEE

LSEF::

000000
000000

.BYTE

5588888

003
003

(X)ZOS‘I

13-MAR-B0

CZDMRC MB8203 STATIC D AG M
CZDMRC.P1
13-MAR
14:38

CSREVISION
CSEDIT

0
0
0

LSDVTYP
0
0

0
LSAU
LSDU
0
LSDESC
ESLOAD

LSINIT
LSCLEAN
LSAUTO

LSPROT

0
0

!I21212!1!!!!!gl!fig}g!Zl%l!!!!!!I!ZZ!!!lgggggX!II!XZ!X!2!Xlll!l!ll!!l!ll!ll!!ll!l

1!le!21!!2!ll!l!llllll!!ll!lZl!l!l!ll!!11!21!212121!!I!ZZXZZ!XZI!I!XSZ!!ZZX!!ZXZ
.EVEN

CZDMRC MB203 STATIC DIAG #1
CZDMRC .P11
13-MAR-B0 14:38

MACY11 30A(1052)
13-MAR-B0
DISPATCH TABLE

14:40

&
PAGE 2-3

SEQ 0041

gzzgg

.SBTTL

2269
2270

SIIITITITITTITI777 777000077777 777777777777777777777777727777707777777707770777717
/ Ylf DISPATCH TABLE CONTAINS THE STARTING ADDRESS OF EACH TEST.

2271
%%

2274

/ 1T IS USED BY THE SUPERVISOR TO DISPATCH TO EACH TEST.
/////////////////////////////////////////////////////////////////////////////
002122

(&)

002122

000052

(6)
6)

002126
0021%8

021636
021720

(6)
002132
(6)
002134
(6)
002136
(6)
002140
(6)
002142
(6)
002144
(6)
002146
(6)
002150
(6)
002152
(6) 002154
(6)
002156
(6)
002160
(6)
002162
(6)
002164
(6)
002166
(6)
002170
(6)
002172
(6)
002174
(6) 002176

(6)
(6)

(3)

(6)

(6)
(6)
(6)
(6)
(6)

(6)
(6)
(6)
(6)
(6)
(6)
(6)
6)
(6)
(6)
(6)
>59;

DISPATCH TABLE

002124

0021

002200

002202
002204

002206
002210
002212
002214
002216
002220
002222
002226
002226
002230
002232

002234

236
002240
002242
002244
002246

DISPATCH 42
WORD

.WORD

LSDISPATCH::

.WORD

22004

022130
022232
022
022500
022654
023110
023226
023344
02
02
024230
024562
025052
025262
025466
025672
026130
026362
026634

.WORD

.WORD
.WORD
.WORD
WORD
.WORD
.WORD
WORD
.WORD
.WORD
.WORD
WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
WORD
.WORD

T4
15
T6
717
T8
T9
T10
TM

120
T21
T22

027432
027542

WORD
WORD

T24
T25

027312

WORD

0277
030302
030512
031042
031142

WORD
.WORD
.WORD
.WORD
.WORD

031512
0320
032324
032
033016
033730
034212
034412
034712
035002
035144
035312

WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD

T12
T13
T14
T15
T16
T17
T18
T19

T23

T26
T27
T28
T29
T30
T3
T32
T33
T34
T35
T36

T37

T38
T39
T40
T41
T42

2277

zzzzzzxzxzzxzzxzxxzxxzzzzzzzzzxzzzxuzzzzzzzzzzxzzzzxxzzzzxzzxuzzxxzzzzuzuzzxz

2279

2278

CHANGE THE ARGUMENT OF ‘DISPATCH'' TO BE THE

NUMBER OF HARDWARE TESTS IN YOUR PROGRAM.

CZDMRC M8203 STATIC DIAG #1
(ZDHRC P11
13-MAR-80 14:38

MACY11

30A(1052)
13-MAR-B0
DISPATCH TABLE

14:40

4
PAGE 2-4

3233333 32232223990288088084888333933
933339 933334343333339338384888889399333339%41

SEQ 0042

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1T
13-MAR-80 14:38

MACY11 30A(1052)
13-HAR-80 14:40
DEFAULT HARDWARE P-TABLE

&
PAGE 2-5

SEQ 0043

gggg

.SBTTL

2290

SIITTTTI777777777777777777777777777777777777777777777777777777777777777777777

%22345

///////////////////////////////////////////////////////////////////////////

2291
2292
2293

2296

'/ THE DEFAULT HARDWARE P-TABLE CONTAINS DEFAULT VALUES OF
/ THE TEST-DEVICE PARAMETERS. THE STRUCTURE OF THIS TABLE
/ 1S IDENTICAL TO THE STRUCTURE OF THE RUN-TIME P-TABLE.

002250

(3)

002250

> g;

002252

2298
2299
2300
2301
2302
2303
2304
2305

002252
002254
002256
002260
002262
002264
002266
002270
002272
002274
002276

(3)

2307
2308
2310
(3)
2311
2312
2313
2314

DEFAULT HARDWARE P-TABLE

002252

002300
002300

000013

BGNHW

DFPTBL
LSHW::

LWORD

L 70000-L$HW/2

DFPTBL::
000007
160170
000300
005000
000003
000056
000000
000000
000000
000004
000001

.WORD
. WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
WORD
.WORD
.WORD
ENDHW

7
160170
300
5000
3
056
000
000
0
4
1

;MICROPROCESSOR TYPE = M8207
sDMCT1 OR KMC11 CSR UNIBUS ADDRESS
;DMCT1 OR KMC11 INTERRUPT VECTOR
sDMC11 OR KMC11 INTERRUPT PRIORITY LEVEL = §
sLINE UNIT = m8203
;SWITCH PACK #1 (REG 11)
JSWITCH PACK #2 (REG 15)
;SWITCH PACK #3 (REG 16)
JH32548H3255 USED
;BAUD RATE = 56 K
sRUN SWITCH ON MICROPROCESSOR IS ON
L10000:

CZDMRC MB8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-B0 14:38

g§18

.SBTTL

2325
2326
2327
(3)
2328
2329
2330
2331
2332

PAGE 2-6

SEQ 0044

SOFTWARE P-TABLE

/ THE SOF TWARE P-TABLE CONTAINS THE VALUES OF

THE PROGRAM

/ PARAMETERS THAT CAN BE CHANGED BY THE OPERATOR.

(3)
(3)

14:40

///////////////////////////////////////////////////////////////////////

2324
(3)

MACY11 30A(1052)
13-MAR-B0
SOF TWARE P-TABLE

///////////////////////////////////////////////////////////////////////

002300
002300

002302
002302

000000

BGNSW

SFPTBL
LSSW::
SFPTBL:

ENDSW

L10001:

.WORD
:

L10001-L$Sw/2

MACY11 30A(1052)
13-MAR-B0
SOF TWARE P-TABLE

14:40

4
PAGE 2-7

SEQ 0045

PAANAEL TN

—-Ov

ASTNSTST.NT NS, NN

CZDMRC MB203 STATIC DIAG '138
CZDMRC.P11
13-MAR-80
1

WWWWW

002302

EQUALS

: BIT DIFINITIONS

8IT15== 100000

P NP NP NP NP N

BIT8==
BIT7==
BIT6==
BITS==
BIT4==
BIT3==
BIT2==
BIT1==
BIT0==

NP NI N

NI NI NI NI NI NI NI NI NI NI NI NI NP

BIT14== 40000
BIT13== 20000
BIT12== 10000
BIT11== 4000
BIT10== 2000
BIT09== 1000
BIT08== 400
BIT07== 200
BIT06== 100
BIT0S== 40
BIT04== 20
BIT03== 10
BIT02== 4
BITO1== 2
BIT00== 1

BIT9==

NP N
NP N
N

THE GLOBAL EQUATES SECTION CONTAINS PROGRAM EQUATES THAT

27
ARE USED IN MORE THAN ONE TEST.
SIIIIIIIITIIITTIIIIIITT10017077770777000700000000000000001000000000100010011117

—

Y
Y
O
O

Y
NN NN NN PN PN NN N
WIS
e e
T
J
Y
Y
S
YN R
YA
NN NN
e
NN
NN NN NN NN
e e
PN
B

GLOBAL EQUATES SECTION

SIIITTTITITT7777777777777707777777777777777777777777777777077777777777777177777

.SBTTL

BIT09

BIT08
BITO7
BIT06
BITOS
BIT04
BITO3
BIT02
BITO1
BIT00

N N

: EVENT_FLAG_DEF INITIONS

:
000040
000037

EF32:EF17 RESERVED FOR SUPERVISOR TO PROGRAM COMMUNICATION

EF .START==
EF .RESTART==

32.
31.

: START COMMAND WAS ISSUED
; RESTART COMMAND WAS ISSUED

CZDMRC MB203 STATIC DIAG "38

CZDMRC.P11
1)

(N
1)
1)

)
1)
(1)
(1)
1)
(1)

1)
1)
1)
1)
(1)
(1)
(1)
1)
1)
1)
(1)
(1)
(1)
(1)
1
(1)
(1)
D)

(1)

2355
2356
2357
2358
2359
2360
2361
2362
2363
2364
2365
2366
2367
2368
2369
2370
2371
2372
2373
2374
2375
2376
2377
2378

13-MAR-80
1
000036

000035

000034

MACY11 30A(1052)
13-MAR-80 14:40
GLOBAL EQUATES SECTION

EF. CONTINUE==

30.

EF.

28.

&
PAGE 2-8

SEQ 0046

; CONTINUE COMMAND WAS ISSUED

: A NEW PASS HAS BEEN STARTED
; A POWER-FAIL/POWER-UP OCCURRED

* PRIORITY LEVEL DEFINITIONS
000340
000
000249
000
000140
000100

000049
000000

PRIO7==
PRI06==
PRIOS==
PRIO4==

PRIO3==

PRI0Z2==
PRIO1==
PRI00==

340
300
240
200
140
100
40
0

;OPERATOR FLAG BITS
000004
000010
000020
000040
000100
000200
000400
001000
002000
000

010000
020000
040000
100000

EVlL==
LOT==
ADR==

4
10

IDU==

ISR==
==

100
200

400

PNT==

1000

PR]==

IXE==
IBE==
1ER==
LOE==
HOE==

2000

4000
10000
20000
40000
100000

ARl

* PROGRAM EVENT FLAG DEF INITIONS
M

;* MAINTENANCE REGISTER - BSEL1

000200
000100
000020
000010
000004
000002
000001

RUN

= BIT?7

MCLR

= BITé

ROMO
ROM]

= BIT2
= B8IN

STEPLU
LULOOP

STEPMP

I I2122222322232222222221¢2;

2222223222222

22222323222

22322322222

222222222222125

222232222223231123%

= BIT4
= BIT3

= BITO

;:.t'.!.t.ttt.tt".it"t'tt.t'i.'i'!Qtt.ttttt'tltt.it.!tlttt.tt..'l't.'."."'..

CZDMRC MB203 STATIC DIAG 01
CZDMRC.P11
1 3-MAR-B0 14:38

TX?

= BIT7

&4
PAGE 2-9

SEQ 0047

= BITS

TX3
TM2
TM1
TM0

= BIT3
= BIT2
= BIT1
= BITO

TX4

AR A A AR AR AR AR AR AR AR AR R AR AR AN AN

ANRA

AR AP AR

= BIT4

13 0BUS REG 11
000200
000010
000004
000002
000001

= BITé

oc
GOAH
ABORT
EOM
SOM

1222222332222 22322222232)

2232223332222

2222221322%3

= BIT7
= BIT3
= BIT2
= BIT
= BITO

..'t"t.t*tfifi't.tttfi"'lt"'tt"t.t*.fi'tt'.Q.ttQ.t."fit."...'...'Q..t't".'....

:* 0BUS REG 12

000200

000100
000040

t.'tfi'fitt..'fi..""'Q"'t..fit.fifi..Qttifi.i'ttt."t'fi.'Q'.t'."i'.'.""."..t.'

= BIT7

BPOLL

= BIT6

LULP

= BITS

;* 0BUS REG 13

000200
000100
000040
000020
000010
000004
000002

POLL
DTR
SELFR

= BIT7
= BITé
= BITS

MAINT]1
MAINT2
SELSBY

= BIT3
= BITZ2
= BIT1

HDX

el 32222323222222223222222233233212%
5

;* 0BUS REG 14

000100
000040
000020
000010
000004
000002
000001

eI 22222223223223222222212223

= BIT4

1222222223223 222222222221213%

:;t.'t.ttt'tttttttttttt"tttt'ttt"tt'filt!Qt'ttt.tltfi.t.iitt'.ttt"t'i.'tti'tt't

TXEN

DISSI

RDAX

WAX
ENAX
AX2
AX1

= BITé

= BITS

= BITé

= BIT3
= BIT2
= BIT1
= BITO

.Q..t'fitt.t'.'l'it.ttt"tt.it.tfitttttlitt'..i'tt.t"tt".t...'!.tttt.t.Q!.t"'t

:* 0BUS REG 17
O

CRC?

CRC1
IDLE
SECA

= BIT7
w

000200
000100
000040
000020

—

2413
2414
2415
2416
2417
2418
2419
2420
2421
2422
2423
2424
2425
2426
2427
2428
2429
2430
2431
2432
2433
2434

000200
000100
000040
000020
000010
000004
000002
000001

2406
2407
2408
2409
2410
2411
2412

—

24602

2403
2404
2405

;* 0BUS REG 10 = TRANSMITTER BUFFER

nnn

2379
2380
2381
238%
238
2384
2385
2386
2387
2388
2389
2390
2391
2392
2393
2394
2395
2396
2397
2398
2399
2400
2401

MACY11 30A(1052)
13-MAR-80 14:40
GLOBAL EQUATES SECTION

CZDMRC MB203 STATIC D G 01
CZDMRC.P11
13-MAR-80
14:38

2435
2436
2437
gz%g

000010
000004
000002
000001

2“0

2441

gzg?

000200
000100
000040
000020
000010
000004
000002

000001

000200
000100
000040
000020
000010
000004
000002
000001

2465
000200
000100

000040
000020
000010
000004
000002
000001

.’ttttttttttttt'tttttttttttttttttttttttttttttttttQttttttttttttttttttttt'.."tt.'

0C
OACT
SW3
ORDY
Sw2
Sw1
SW0
UNRR

= BIT7
= BITé
= BITS
= BIT4
= BIT3
= BIT2
= BIT1
= BITO

"tttttttttttttttttttttttt'tttttttttttttttttttttttttttttttttttitt!tt'tttttt'tttt

IC
IACT

LULP
IRDY
OVRR
RAB
EBLK
BCC

= BIT?
= BITé

= BITS
= BIT4
= BIT3
= BIT2
= BIT1
= BITO

..ttttttttttttttttttttttttttttttttttttttttttttttttttttt'itttttttttttttt'tt'ttttt

2477

;% IBUS REG 13

2478

2489

= BITO

;* IBUS REG 12

2476

2488

RX0

= BIT?
= BITé
= BITS
= BIT4
= BIT3
= BIT2
= BIT1

..ttttttttt'ttttttt!tttttttttttttttttttttttttttt.ttttttttttt'ttttttttttttttttttt

2666

2479
2480
2481
2482
2483
2484
2485
5239

RX7
RX6
RXS
RX4
RX3
RX2
RX1

..ttttttttttttttttttttt*ttfittttttttttitfitttttttQQtt'tttttt'ttttttttttttttttttttt
:* IBUS REG 11

2‘6‘

2469
2470
2471
2472
2473
52;§

= BIT3
= BIT2
= BIT1
= BITO

:* IBUS REG 10 = RECEIVER BUFFER

265‘

2467
2468

4
PAGE 2-10

'.t.ttittttttttt't.ttttt"'tt.tt'tttttttttttt't.ttt..t.tt..'.tttttttttt."'ttt"

2‘52
2453
2455
2456
2457
2458
2459
2460
2461
gzgg

STRIP
RDALL
IERR
DDCMP

..ttttt'tttttttttttttt'tt"tt'tt.ttQ'tfitQtQtQQtQQt..ttt't'tttt'tttt.t.ttt.t"tt'

2‘42

2443
2444
2445
2446
2447
2448
2449

MACY11 30A(1052)
13-MAR-80 14:40
GLOBAL EQUATES SECTION

000200
000100
000040
000020
000010
000004
000002
000001

..tttttttttttttttttttttttttttttttttt'ttttttttttltttttttittttt'ttttt!ttttt.tttttt

RING
DTR
RTS
HDX
MODR
S
STBY
CARR

= BIT?
= BITé
= BITS
= BIT4
= BIT3
= BIT?
= BIT1
= BITO

ttttt!ttttttttttttttt'tttttttttttttttt.ttttt.tltttt'tttttttttttttttttttttt.ttt

13 IBUS REG 14

't.tt.tt'ttttt"t.t.t"'ttt.'.'ttQt.t.t'ttt!titt!fi'!.tt..."ttt..."t.!t.'ltt'

SEQ 0048

CZDMRC MB8203 STATIC DIAG M
CZDMRC.P11
13-MAR-B0 14:38
000200
000100
000040
000020
000010
000004
000002
000001

MACY11 30A(1052)
13-MAR-80 14:40
GLOBAL EQUATES SECTION
READY

4
PAGE 2-11

SEQ 0049

= BIT7

TXEN
DISSI
RDAX
WAX

= BIT
= BIT
= BIT4
= BIT3

ENAX
AX2
AX1

= BIT2
= BIT]
= BITO

I'~ IBUS REG 17
MRl

1222222322322

2222322222222¢%;

223322222322 2222222232222222¢25

= BIT7

SIGR

SIGQ
TXDATA
OCOR

= BITé
= BITS
= BIT4

TESTMD
MCLK
DDCMP

= BIT2
= BIT
BITO

ICIR

= BIT3

ARt ittt
eIl
I 1222222322223 22322222223223

;* AX0=15 = USYRT REG O (READ ONLY)

RX7

= BIT?7

RX6

= BITé

RX4
RX3
RX2
RX1

= BIT4
= BIT3
= BIT2
= BIT
= BITO

RX5

2223222223222

32222222222223

= BITS

RX0

M ett
It 222322 2223282323222
t
222223332331%5

;* AX0=16 = USYRT REG 1
At

RERR
ASBC2
ASBC1
ASBCO
ROR
RABT
REOM
RSOM
R

(READ ONLY)

ittt

= BIT7
= BITé
= BITS
= BIT4
= BIT3
= BIT?
= BIT
= BITO

;* AX1-15 = USYRT REG 2

12222232232222222222222322311T5

3131232233222 2232322222222322323%5

'...'tt".fitttttttttttttttl'ttt.t.t!tttttttttttt..‘t.itt't.t.tt't.tttttttt'tt.

X7
X6
XS
TX4
TM3
TM2
TM1
TM0

BIT7
= BITé
= BITS
= BIT4
= BIT3
= BIT?2
= BINM
= BITO

CZDMRC MB203 STATIC DIAG '138

CZDMRC.P11

2547
2548
2549
2550
2551
2552
2553
2554
2555
2556
2557
2558
2559
2560
2561
2562
2563
2564
2565
2566
2567
2568
2569
2570
2571
2572
2573
2574
2575
2576
2577
2578
2579
2580
2581
2582
2583
584
2585
2586
2587
2588
2589
2590
2591
2592
2593
2594
2595
2596
2597
2598
2599
2600
2601
2602

13-MAR-80 14

MACY11 30A(1052)
13-MAR-80 14:40
GLOBAL EQUATES SECTION
A

PAGE 2-12

SEQ@ 0050
ittt

2122222222222223

;% AX1-16 = USYRT REG 3

000200

000010

000004
000002

000001

..'Qfi'..".tt't'i..Q't"i.t.fifit't'.t.'.Qtt.'tt.t'fi...t.t.'t't.'t.'Q.'Qt.'.'.

= BIT?

tERR

TXGA
TXAB
TEOM
TSOM

=
=
=
=

BIT3
BIT2
BITI
BITO

sl il
I
T2 22222223222223

:* AX2=15 = USYRT REG 4

000200
000100
000040
000020
000010
000004
000002
000001
000226

s ettt
It
I
222222222222

= BIT?7

SYN?7

SYNG
SYN5
SYN4
SYN3
SYN2
SYN1
SYNO
SYNCH

= BIT6
= BITS
= BIT4
= BIT3
= BIT?
= BIT1
= BITO
= 226

:* AX2-16 = USYRT REG 5
MR

000200
000100
000040
000020
000010
000004
000002
000001

APA
DDC
STR
SEC
IDL

123222223233

223

2222222222125

g ett
2222223t
2822332222233 22225

= BIT7
= BITé
= BITS
= BIT4
= BIT3

CRCTY2
CRCTY1
CRCTYO

= BIT2
= BIT
= BITO

MR itt
T2 22221223223322223
t
2222222222312)

e AX3-15 = USYRT REG 6

000200
000100
000040
000020
000010
000004
000002
000001
000372

Mttt

1422

XyZ

C328CC
v35
INTGRL
C32ENB
TEST

AX315U

g st
Il
t
222223022223 t
22222222221133 )

= BIT?7

= BIT6

= BITS
= BIT4
= BIT3
= BIT?
= BIT1

= BITO

= 1422!XYZ!C32BCC'V35!INTGRL
'OP

i* AX3-16 = USYRT REG 7
000200
000100
000040
000004
000002

1232222232333

222223222212)

M itt
Il
T 322332232223
t
2222223222211% 85

TXLEN2

TXLENT
TXLENO
RXLENZ
RXLEN1

= BIT7

= BITé
= BITS
= BIT2
= BIT1

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

2603

2604
2605
2606

000001

2808

2609

2610
2611
2612
2613
2614
2615
2616
2617
2618
2619
2620

MACY11 30A(1052)
13-MAR-80 14:40
GLOBAL EQUATES SECTION

L)
PAGE 2-13

SEQ 0051

RXLENO = BITO

:t'ttttfititttt..titlttt"tt..tttt'ttttt'tt.tt".t.tttttt..ti.tttt'.tttttt..'t"'

004000
002000
001000
000400

:* TX CONTROL BITS DEFINED ON WORD BASIS
'tttttt'ttitttttttttt'ttt'tt.'tttttttttttttt'ttttttt'.Qtt'ttt.ttt.tttttt'.ttt.tt
TXGOA = BIT11
TXABT = BIT10
TXEOM = BIT9
TXSOM = BIT8

gt ittt
Tl
2222234203

s* RCV CONTROL BITS DEFINED ON WORD BASIS

004000
002000
001000

000400

RXOVR
RXABT

RXEBL

RXBCC

2633

Al g

il it

s ettt
eIl
1T22222234 03

= BIT11
= BIT10
= BIT9

= BIT8

s stt
1223223223322
t
23222222222222¢%5

:* ADDRESS EQUATES FOR REGISTER STORAGE TABLE (LUREG:)

2634

2635
2636
2637

Attt

2639
264
2641

002302
002304
2306
002310
002312
002314
002316

2643
2644
2645
2646
2647
2648
2649

002322
002324
002326
0023
002332
002334
002336

AX0.15
AX0.16
AX1.15
AX1.16
AX2.15
AX2.16
AX3.15

= LUREG+20
= LUREG+22
= LUREG+24
= LUREG+26
= LUREG+30
= LUREG+32
= LUREG+34

2652
2653
2654
2655
Sggg

100000

CHPCHK

= BIT15

2658

100000

BCCCHK

= BIT15

222??

002340

LURTI0
LURT1
LURT2
LUR1S
LURT4
LURTS
LURT16

LUR17

AX3.16

= LUREG+0
= LUREG+2
= LUREG+4
= LUREG+6
= LUREG+10
= LUREG+12
= LURE;+14

= LUREG+16

= LUREG+36

eIt

sLINE UNIT IBUS REG 10
sLINE UNIT IBUS REG 11
;LINE UNIT IBUS REG 12
sLINE UNIT IBUS REG 13
;LINE UNIT IBUS REG 14
sLINE UNIT IBUS REG 15
sLINE UNIT IBUS REG 16
sLINE UNIT IBUS REG 17

sUSYRT REG 0
sUSYRT REG 1
sUSYRT REG g
sUSYRT REG
sUSYRT REG 4
sUSYRT REG 5
sUSYRT REG 6

;USYRT REG 7

Il 222222223233 222322222222222125

2680

MACY11 30A(1052)
13-MAR-80 14:40
GLOBAL EQUATES SECTION
CRCCHK

= BIT15

A AR A

AR AR A

AR TR

&
PAGE 2-14

SEQ 0052

AR AR AR AR AR AR AN R AR

:* MICROINSTRUCTION DEF INITIONS

géggg

b
-

2669
2670
2671
267
267
2674
2675
2676
2677
2678
2679

100000

RIS

FRRERERERY|

CZDMRC MB203 STATIC D AG #1
13-MARCZDMRC.P11
14:38

Mviox

MVIXO
MVIXOX

= 021000
= 122000
= 121000

RRDYTO
WRDYTO

= BITO
= BIT1

:MOVE IBUS TO OBUS*

:MOVE IBUS* TO 0BUS
:MOVE IBUS* TO OBUS*

sexxxx ERRORT BIT FLAC DEFINITIONS *tsnn

000002

AR AAANAAAAAAR RN AAANAAN RN AR AR

1122222322

2223222222%3

CZDMRC M8203 STATIC DIAG #1

CZOMRC.P11

13-MAR-80 14:38

MACY11 30A(1052)

13-MAR-B0

GLOBAL DATA SECTION

14:40

PAGE 2-15

2683

.SBTTL GLOBAL DATA SECTION

2685
2686
2687
2o88

g,
2/
THE GLOBAL DATA SECTION CONTAINS DATA THAT ARE USED
2/
IN MORE THAN ONE TEST.
SIIIIIIIITIITIIIIITTITTTIITTITIIIII110 00000000 000000000000000000000000001110101

26%

.t'."'t...t.'."'.t"""'t".Q.'.Q"tt....t.'fi....'..t.t..'...QQQ"".Q"

2691

2692
22232

:* STORAGE FOR DEVICE REGISTERS

002302

000020

t'Q"tt'tt'..'tt.fi.t""'t'.Q..'.ttt.....'tt..'..'.'.'QQ..'Q."Q..Q..."..
(OREG:
.BLKW
16.

2695

.'tQQt.tt.t.tQ.Q'..t.'QQ"Q'Q'.QQ'Q......QttQ.'.".t'..'..'.."'.fit'.".'

2697

:tt.ttttt..'ttfil't.."."'.'.Q...Q'......Q..Qt.".."......"'..ttt..t.'

2696

;% MISCELLANEOUS STORAGE

2698
2699
2700
2701
2702
2703

002342
002344
002346
002350
002352
002354

000000
000000
000000
000000
000000
000000

SCRACH:
LOGDEV:
PSTACK:
PRIOR:
SUBRPC:
INTFLG:

.WORD
.WORD
.WORD
.WORD
.WORD
.WORD

0
0
0
0
0
0

;GEN'L PURPOSE SCRATCH WORD
:LOGICAL DEVICE NUMBER
:CONTAINS BASE LEVEL PROGRAM STACK POINTER
:CPU PRIORITY FOR PRINTOUT
:PC_OF SUBR CALL FOR ERROR REPORTS
: INTERRUPT RECEIVED FLAGS

2705
2706
2707

002356
002360
002362

000000
000000
000000

ERRFLG: .WORD
TIMFLG: .WORD
RETADR: .WORD

0
0
0

:SUBROUTINE ERROR FLAG
:EVENT TIME-OUT FLAG
:SUBR ERROR RETURN ADDRESS

2704

2708
2709
2710
P14

002370

2712
2713
2714
2715
2716

002374
002376
002400
002402
002404

2718
2719
2720
2721

002410
002412
002414
002416

2723
2724
2725

002422
002424
002426
002430
002432
002434
002436
002440
002442
002444

2722

2727
2728
2729
2730
2731
2732

2734

2735
2736
2737
2738

002446
002450
002452
002454

000000
000000
000000
000000
000000
000000
000000
000000
000000

REDBYT:
WRIBYT:
RAX1S:
RAX16:

WAX15:
WAX16:
REGMUM:
AXNM:
GOODAT:

.WORD
.WORD
.WORD
.WORD

0
0
O
0

.WORD
.WORD
.WORD
.WORD
.WORD

0
0
0
0
0

LOADAT:
FRSTIM:
SAVE4:
SAVE6:

.WORD
.WORD
.WORD
.WORD

0
0
0
0

000000
000000
000000
000000
000000
000000
000000
000000
000000
000000

TXWORD:
RXWORD:
DISILO:
CHPTYP:
SAVLEN:
DEVMAP:
DEVPTR:
UNIT:
TSTNUM:
STARES:

.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD
.WORD

160170
160171
160172

MPCSR:
BSEL1:
BSEL2:
BSEL4:

000000

BADDAT:

000000

ERRORT:

000000
000000
000000
000000

.WORD

O
0
0
O
0
0
0
0
O
O

: BIT 0 FOR TX, BIT 1 FOR RCV

:LO BYTE CONTAINS BYTE READ FROM LU REG
:LO BYTE CONTAINS BYTE TO LOAD INTO LU REG
:LO BYTE CONTAINS BYTE READ FROM REG 15
:LO BYTE CONTAINS BYTE READ FROM REG 16

:LO BYTE CONTAINS BYTE TO LOAD INTO REG 15
:LO BYTE CONTAINS BYTE TO LOAD INTO REG 16
:NUMBER (10~17)
OF LINE UNIT REG BEING TESTED
:NUMBER (0-7) OF EXTENDED REG BYTE BEING TESTED
:STORAGE FOR EXPECTED DATA

:STORAGE FOR ACTUAL DATA

:CONTAINS TEST DATA LOADED INTO REG
:FLAG=0 IF PROGRAM JUST LOADED
:SAVE LOC 4 HERE (ERROR TRAP VECTOR)
:SAVE LOC 6 HERE (ERROR TRAP VECTOR)

:SUBR ERROR BIT FLAGS (DEF'D IN GLOBAL EQUATES)

:BITS 0-11 CONTAIN DATA TO LOAD INTO TX SILO
:BITS 0-11 CONTAIN DATA READ FROM RCV SILO
:CONTAINS CURRENT STATE OF DISSI IN BIT 5
$USYRT CHIP TYPE, =0 FOR SIG, ELSE =1
:SAVED TX AND RCV CHAR LENGTHS
:BIT MAP OF ACTIVE DEVICES
:DEVICE MAP BIT POINTER
:CONTAINS UNIT NO. (1 TO N)
:CONTAINS TEST NUMBER FOR SOME TESTS
:FLAG=0 IF FIRST PASS AFTER STA OR RES

;;#wxwwansx CURRENT DEVICE PARAMETERS sasssssawwans
.WORD
.WORD
.WORD

160170
160171
160172

:POINTER TO MICROPROCESSOR CSR'S
:POINTER TO BSEL1
:POINTER TO BSEL2

SEQ 0053

CZDMRC MB8203 STATIC DIAG ”
CZDMRC.P1
13-MAR
4:38

MACY11 30A(1052)

13-MAR-80

GLOBAL DATA SECTION

14:40

SELG:
SEL6:

WORD
WORD

160174
160176

MPRIOR:

.WORD

240

TSTCON:

.WORD

MPIVEC: .WORD
MPOVEC: .WORD

300
304

LUSWIT1: .WORD
LUSWIZ2: .WORD
LUSWI3: .WORD

RUNINH:

0
0
0

.WORD

PAGE 2-16

SEQ 0054

;POINTER TO SEL4
JPOINTER TO SEL6

sMICROPROCESSOR INPUT INTERRUPT VECTOR
;MICROPROCESSOR OUTPUT INTERRUPT VECTOR

sMICROPROCESSOR DEVICE PRIORITY

JLINE UNIT SWITCH PACK #1
JLINE UNIT SWITCH PACK #2
JLINE UNIT SWITCH PACK #3

JTEST CONNECTOR INDICATOR

JRUN SWITCH INDICATOR

sevnxx STORAGE FOR DATA READ IN ADDRESS TESTS #enaw
REDDAT: .BYTE
0

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

0
0
0
0
0
0
0

so%vxx

GEN'L PURPOSE SCRATCH STORAGE

REG1:
REG2:

WORD
WORD

O
O

REG4:

WORD

REG6:

WORD

REGO:

REG3:

REGS:

REG?7:

WORD

wawnw

so%nxx
TMPO:
TTMMP1:
TTMMP2:

SCRATCH STORAGE FOR MESSAGE REPORTING
WORD
O
WORD
O

TTMMPS :
TMPS :
TMP6 :
TMP7 :

WORD
WORD
WORD
.WORD

TMP3:

.WORD
MWORD

ERRRR

O
O
O
0

(;’a;;; INBUS LU REG BIT MASKS FOR UNPREDICTABLE BITS wwans

.BYTE

000

.BYTE

000

JMASK FOR REG 12

.BYTE

100

JMASK FOR REG 14

.BYTE

R14NRW:
*RRRNN

ANBITS

056

257

JMASK FOR REG 10

sMASK FOR REG 11

JMASK FOR REG 13

.BYTE
.BYTE
BYTE

377
377
306

;MASK FOR REG 15
JMASK FOR REG 16
JMASK FOR REG 17

.BYTE

200

JREG 14 NON-R/W BITS

MASKS FOR EXTENDED REGISTER NON-READ/WRITE BITS nvwws

CZDMRC M8203 STATIC DIAG "38
13-MAR
CZDMRC.P11

2795

2796

002561

00256%

377

002571
002571
002572
002573
002574
002575
002576
002577

2814

020

002604

200

2815
2816

002602
002603

2818

002605

2817

2819

2820
2821
2822
2823
2824
2825
2826
2827
2828
2829
2830
2831
2832
2833
2834
2835
2836
2837
2838
2839
2840
2841
2842
2843
2844
2845
2846
2847
2848
2849
2850

002607
002610
002611
002612
002613
002614
002615
002615
002616
002617
002620
002621
002622
002623
002624
002625
002625
002626
2627
002630
002630
002631
002632

13-MAR-80

GLOBAL DATA SECTION

.BYTE
.BYTE
.BYTE
.BYTE
BYTE
BYTE

377

2797
2798
2799
2800
2801
2
280
2804
2805
2806
2807
2808
2809
2810
2811
2812

2813

00256
002564
002565
002
002567
002570

MACY11 30A(1052)

000
360
000
000
004
030

BYTE

77
77
000
360
000
000

125
252
000
377
001
002
004

010

040
100
376

375

373
367
357
337
277
177

.BYTE
BYTE
.BYTE
.BYTE
BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE

030
wenew

125
252
000
377
001
002
004
010
020
040
100
200
376
375
373
367
357
337
277
177

sawxxx DATA PATTERN B *wwwx

000
000
040
100
220
000
000
051

PATB:

BYTE
BYTE
BYTE
.BYTE

000
000
040
100

BYTE
.BYTE
BYTE

000
000
051

sennwwx DATA PATTERN C *wwxx

020
020

PATC:

020

BYTE
.BYTE
BYTE

020
020
020

suewnxx DATA PATTERN D *rexx

000
040
000

PATD:

BYTE
.BYTE
.BYTE

PAGE 2-17

SEQ 0055
FOR AX0-15
FOR AX0-16
FOR AX1-15
FOR AX1-16
FOR AX2-15
FOR AX2-16
FOR AX3-15
FOR AX3-16

004

swwnwxx DATA PATTERN A

PATA

14:40

000
040
000

swnxxx DATA PATTERN E wween

MACY11 30A(1052)

13-MAR-80

GLOBAL DATA SECTION

PATE:

BYTE
.BYTE
.BYTE
.BYTE
BYTE
BYTE

050
051

PATF
:

.BYTE
.BYTE
.BYTE

S88IREES

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

88 88888
W

]

LA A2

000
000
240
120
177
000
000
001

;ewxxx DATA PATTERN
PATH:

LA 2 22

;xxxxx DATA PATTERN
PAT]:

LA A2

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

LA R

050
051
050

sxxnxxx DATA PATTERN

PATG:

14:40

000
120
(020
100
120
000

;exxxx DATA PATTERN

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
BYTE

000
000
377
017
377
377
375
377

000
000
000
000
000
103
000
000

L 222

000
000
010
002
004

— (N

8-‘
o

< <<

—t—

.BYTE
.BYTE
BYTE
BYTE
BYTE
oD

SoRRas8

2851
285
285
54

8388383

CZDMRC MB203 S T ATIC D AG1 [2
4:38
1 3-MAR
CZDMRC.PT

PAGE 2-18

SEQ 0056

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1
13-MAR-B0 14:38

2907

2909

2910
2911
291%
2913
2914
2915
2916
2917
2918
2919
2920
2921
2922
2923

2926
2925
2926
2927
2928
2929
2930
2931
2932
2933

2935
2937
2938
2939
2940
2941
2942
2943

2944
2945
2946
2947
2948
2949
2950
2951
2952
2953
2954
2955
2956
2957
2958
2959
2960
2961
2962

002703

100

002704
002705
2706
002707
002710
002711
00271
00271
002714
002715
002716
002717
002720
002721

000
000
377
377
125
125
252
252
001
000
002
000
004
000

002722
002723
002724
002725
002726
002727
002730
002731
002732
002733

010
000
020
000
040
000
100
000
200
000

002735
002736
002737
002740
002741
002742
002743
002744
002745
002746
002747
002750
002751
002752
002753
002754
002755
002756
002757
002760
002761
002762
002763
002764
002765
002766
002767
002770

001
000
002
000
004
000
010
000
020
000
040
000
100
000
200
376
377
375
377
373
377
367
377
357
377
337
377
277

002734

000

MACY11 30A(1052)
13-MAR-80
GLOBAL DATA SECTION

.BYTE

14:40

100

;¥xnxwx DATA PATTERN K ##ves

PATK:

.BYTE
.BYTE
.BYTE
.BYTE
BYTE
BYTE
.BYTE
BYTE
BYTE
.BYTE
.BYTE
.BYTE
.BYTE
-BYTE

000
000
377
377
125
125
252
252
001
000
002
000
004
000

.BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

010
000
020
000
040
000
100
000
200
000

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
BYTE

001
000
002
000
004
000
010
000
020
000
040
000
100
000
200
376
377
375
377
373
377
367
377
357
377
337
377
277

.BYTE

000

5
PAGE 2-19

SEQ@ 0057

CZDMRC MB203 STATIC D IAG M
CZDMRC.P1T
13-MAR -80 14:38

2963

2964
2965
2966
2967
2968
2969
2970
2971
2972
2973
2974
2975
2976
2977
2978
2979
2980
2981
2982
2983
2984
2985
2986
2987
2988
2989
2990
2991

2992

002771

00277
00277
002774
002775
00277
002
003000
003001
003002
003003
3004
003005
003006
003007
003010
003011
003012
003013
003014
003014
003015
003016
003017
003020
003021

2993
2994
2995
2996
2997
2998
2999
3000
3001

003022
003022
003023
003024
003025
003026
003027
003030
003031

3003
3004
3005
3006
3007
3008
3009
3010
3011
3012

003032
003032
003033
3034
003035
3036
003037
003040
003041

3002

3013
3014
3015
3016
3017
3018

003042
003043
3044
003045
003046
003047

MACY11 30A(1052)
13-MAR-B0
GLOBAL DATA SECTION

377

.BYTE
BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE
BYTE

177
377
377
376
377
375
377
373
377
367
377
357
377
337
377
277
377
177

377
177
377
377
376
77
75
377
373
377
367
377
357
377
337
377
277
377
177

é""' DATA PATTERN

000
000
377
377
000
000

000
020
000
000
200
000
000
051

ATL:

.BYTE

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

14:40

000

000
377
377
000
000

;***xx DATA PATTERN M rrenn
PATM:

.BYTE
BYTE
.BYTE
.BYTE
.BYTE

000
020
000
000
200

.BYTE
.BYTE

000
051

;**«xxx DATA PATTERN N

000
000
000
125
000
252
000
377

005
000
012
000
017
000

wxeen

PATN:

.BYTE
.BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
.BYTE
.BYTE

000
000
000
125
000
252
000
377
005

BYTE
.BYTE
.BYTE
.BYTE

012
000
017
000

*xeax

PAGE 2-20

SEQ 0058

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

3019

; *x=xx DATA PATTERN

003050

000

3024

00305%

004

axxen

*renn

220
201
300

.BYTE
.BYTE
.BYTE

301
375

.BYTE

040

003104
003105
003106
003107
003110
003111
003112
003113
003114
003115
003116
003117
003120
003121
003122
003123
003124
003125
003126
003127

000
000
001
000
013
000
on
000
021
000
101
000
301
000
000
001
000
002
000
004

020
010
001
104
007
105

.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE
.BYTE

113

200
040
020

000
113
200

PATP

;**»xx DATA PATTERN

003071

003072
003073
003074
003075
003076
003077

.BYTE

NN&SNNN

3053
3054
3055
3056
3057
3058
3059
3060
3061
3062
3063
3064
3065
3066
3067
3068
3069
3070
3071
3072
3073
3074

003066
003066
003067
003070

.BYTE
.BYTE
.BYTE
.BYTE

010
020
040
100
101
200
201
300
m
301
375

wteen

3043
3044
3045
3046
3047

00305
003054
003055
003056
003057
003060
003061
003062
003063
003064
003065

041

;**«xxx DATA PATT
PATU:

.BYTE

.BYTE
.BYTE

—

3025
3026
3027
3028
3029
3030
3031
3032
3033
3034
3035
3036
3037
3038
3039
3040
3041

003051

.BYTE
.BYTE

-l
) -

PATO

S3ESSREE

003050

14:40

§EIS8SS <>§?: SS8=828888 '§ NoRS SEE

MACY11 30A(1052)
13-MAR-80
GLOBAL DATA SECTION

PAGE 2-21

SEQ 0059

CZDMRC MB203 STATIC DIAG # 1

CZDMRC.P

13-MAR-B0 14:38

3075
3076

000
040
000
100

MACY11

30A(1052)

13-MAR-80

GLOBAL DATA SECTION

003130
003131
0031
0031

3080
3081
!06%
3083

003135
0031
00313
003140

200
000
346
000

.BYTE
BYTE
BYTE
BYTE
.BYTE

000

5 00314

000

-8YTE

000

000
307
000
247
00
14?

.BYTE
BYTE
BYTE
BYTE
BYTE
BYTE

000
307
000
247
000
147

3087
3088
3089
3090
3091
33%%

0031

003141
00314

003144
003145
003146
003147
003150
003151

000

345

BYTE

343

3094

3095
3096
3097
3098
3099
3100
3101
3102
3103
3104
3105
3106
3107
3108
3109
3110
3111
3112
3113
3114
3115
3116

.BYTE
BYTE
.BYTE
BYTE

BYTE

000
040
000
100

200
000
346
000
345

;eexxnx PATTERN V wannn

3117
3118
3119
3120
3121
3122

003152
003153
003154
003155
003156
003157
003160
003161
003162
003163
003164
003165
003166
003167
003170
003171
003172
003173
003174
003175
003176
003177
3200
003201
003202
003203
003204
003205

3206
003207
003210
003211

000
345
000
343

.BYTE
BYTE
.BYTE
BYTE

000
100
000
200
000
346
000
345
000
343

3128
3129
3130

003212
003213
003214

000
307
000

.BYTE
BYTE
.BYTE

000
307
000

3123
3126
3125
g} 59

000
000
333
000
331
000
323
000
313
000
233
000
133
000
000
001
000
002
000
004
000
040
000
100
000
200
000
346

14:40

PATV:

BYTE
BYTE
.BYTE
.BYTE
BYTE
BYTE
BYTE
BYTE
BYTE
.BYTE
.BYTE
.BYTE
BYTE
.BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE
BYTE
BYTE
.BYTE
BYTE
.BYTE
BYTE

000
- 000
333
000
331
000
323
000
313
000
233
000
133
000
000
001
000
002
000
004
000
040

PAGE 2-22

SEQ 0060

CZOMRC M8203 STATIC DIAG #1
CZDMRC.P1
13-MAR-80 14:38
;‘I 31

13§
313

3134
3135
3136

003215

00321
321

247

3144

003220

003222
003224
3226
003230
003232
003234
3236
003240
003242
003244

3156
3157
3158
3159
3160

003246
003250
003252
003254
003256

3162
3163
3164
3165
3166
3167
3168
3169
3170
7N
3172
3173
3174
3175
3176
3177

14:40

PAGE 2-23

SEQ 0061

247
000
147

ENDPAT:
.EVEN

s**x

3145
3146
3147
3148
3149
3150
3151
3152
3153
g} gg

3161

BYTE
.BYTE
BYTE

000
147

3137

3138
3139
3140
3141
3 4%
314

MACY11 30A(1052)
13-MAR-80
GLOBAL DATA SECTION

000400

000400
000000
000125
000252
000377

MSG1:

001000

TXSOM
TXSOM

TXEOM
TXEOM
TXEOM
TXEOM

001000

000125
000252
001000

w#w=

000
125
252
377
000

001000
001000

000377

TEST MESSAGES TO BE TRANSMITTED

MSG4:

377
000
125
252

001000

TXEOM
TXEOM

003262

000100

RCVBUF: .BLKW

;*** RECEIVED DATA BUFFER (64. WORDS) wxw
64.

CZDMRC MZOS STATlC DIAG #1
CZDMRC.P1
13-MAR
14:38

MACYT1 30A(1052)

GLOBAL TEXT SECTION
.SBTTL

eg e

PAGE 2-24

SEQ 0062

GLOBAL TEXT SECTION

} 4

HE GLOBAL T

SECTION CONTA

FORMAT STATEME

'ESSAGES MD ASCII IMMTIW THAT ARE USED IN

MORE
THAN ONE TEST

[3433333333433874330448444444880
0803000 00%%888883888888888888884434434444444443

003462
003462
003462

Se NN,

g
b ot

14:40

ummmuzmmxumzzmmmmmzmmmmxzzxxzzmzzxzxxmu

DEVTYP

034115

030062

000063

Ittt 12222222222232222222223

NAMES OF DEVICES SUPPORTED BY PROGRAM

LEBEIRAR &R

180
181

(2)

13-MAR-B0

<M8203>

T T

2222322222223 2223232332222222;

LSDVTYP::
LASCIZ
.EVEN

/M8203/

CZDMRC MB8203 STATIC DIAG
CZDMRC.P11
13-MAR-80 14:38

MACY11 30A(1052)
13-MAR-80
GLOBAL TEXT SECTION

%19‘

MR AR Al

195

(4)

003470

(3)

003470

0035

AR R

DESCRIPT

034

031040

03006

006

PAGE 3

A i i

;* TITLE OF PROGRAM
M

14:40

SEQ 0063

I I T e e 1223232232223 22222222222223
i

T332 322222332232322222222232%3

<MB8203 STATIC LOGIC TESTS = PART 1 OF 2>
LSDESC::

.ASCIZ

000

/M8203 STATIC LO

.EVEN
: FORMAT STATEMENTS USED IN PRINT CALLS

3205
3206

ZX!ZX!ZZ211lIl!llX!XXZZXZXZ!ZXZ!ZZ!X!lZX!2l!XX2!ul!!2X!!ZZZ!!XXXX!XXZZZZXZ!XZZZZ
:
NSE HE FWMT STATEI'ENTS USED IN THE VARIOUS PRINT CALLS.

%12

CIZ
S
zzzzzzzzzzzzzzzzxzmxxzxzxzzzzzzmzxxzzzzzmzzzzzzzmzzxxzzzzzzxzzzzzxxxzzzxz

CZDMRC M8203 STATIC DIAG #1
13-MAR-80 14:38
CZDMRC.P11

3216
3217
3218
3219
3220
3221
3222
3223
3224
3225
3226
3227
3228
3229
3230
3231
3232
3233
3234
3235
3236
3237
3238

3239
3240
3241
3242
3243
3244
3245
3246
3247
3248
3249

3250
3251
3252
3253
3254
3255
3256
3257
3258
3259
3260
3261
3262
3263
3264
3265
3266
3267
3268
3269
3270
3271

MACY11 30A(1052)
13-MAR-80
GL OBAL SUBROUTINES
.SBTTL

14:40

M5
PAGE 3-1

SEQ 0064

GLOBAL SUBROUTINES

SITITTTTIIITTITII7777
0700007707 77777070777777777777777777777777727077717771777777
o/
THE GLOBAL SUBR OUTINES ARE CALLED BY MORE THAN ONE TEST
SIIIIIIIITT77777717771771177711771777777771077777777717771077710102140710021411047

SRR

AR A AR AT

AR AR AR AR AR AR RN AR AR

AR AR RN AR

AR ARS

;* STPCLK = THIS SUBROUTINE FORCES THE DMC11 OR KMC11 MICROPROCESSOR TO
;®
EXECUTE AN INSTRUCTION WHICH IS PASSED IN THE WORD FOLLOWING THE CALL.
AR

003540
003540
003546
003554
003562
003570
003574

176702
176702
176666
176660

d ittt
ittt
I i I T2
222222

STPCLK:

BISB

MOV
BISB

BICB

agg

AR A

#ROMO'ROMI ,aBSEL1
:SET ROMO, ROMI BITS IN BSEL1
a(SP) .aSEL6
:PUT INSTRUCTION INTO SEL6
#ROMO'ROMI'STEPMP,aBSEL1 +SET ROMO, ROMI, STEPMP IN BSEL1
#ROMO!ROMI i STEPMP,aBSEL1 :CLEAR ROMO, ROMI, STEPMP IN BSEL1
gz (SP)
FD#ULWP RETURN PC

et it d it
ittt T
11212222222

:* MSTCLR = THIS SUBROUTINE ISSUES A MASTER CLEAR AND SETS LULOOP
ttt'fittttt'fifitttttttt"i't"tttt'.ltfifi'ttt.tt'ttfit.ittfittt.tfi'.t'tttt.t'i"t'..

003576
003576
003600
003604
003612
003620
003624
003626
003630
003632
003640
003646
003652
003656
00
003664
003670

010146

HSTCLR

002400

300
000024

000010

366
003750
002400

176636
176630

MOV
MoV
MOvVB

BICB

2%:
176610
002400

2%
#LULOOP ,aBSEL1
#13 _REGNUM

JSR
MOV
MOV

PC,WRITLU
(SP)
+ ,REGNUM
(SP)+ ,R1

CLR

RTS

#RUN'MCLR,aBSEL1

NOP
DEC
BNE
BISB
MOV
CLR

002432

R1,-(SP)
REGNUM,
- (SP)
#MCLR,aBSEL1

WRIBYT

SAVLEN

;SAVE R1
:SAVE LU REG NO.
sSET MASTER CLEAR BIT

:CLEAR RUN AND MCLR BITS
sINITIALIZE STALL COUNTER
sSTALL IN LOOP FOR SEVERAL MICRO-SEC

;SET LU LOOP
:SET LU REG NO. =13

;CLEAR REG 13
sRESTORE LU REG NO.
sRESTORE R1
;CLEAR CHAR LENGTH FROM SETUP
ETURN

AR ittt
1222222322222

;* READLU = THIS SUBROUTINE FORCES THE DMC11 OR KMC11 MICROPROCESSOR

i
;*

TO EXECUTE AN INSTRUCTION WHICH READS THE LINE UNIT REG WHOSE

NUMBER IS PASSED IN REGNUM, INTO REDBYT.
i

ittt

211233

222222322323

CZDMRC
CZDMRC.P1

3 STATIC DIAG M
13-MAR-80 14:38

;‘g 003673 810146

éb
o

006301
006301

MACY11 30A(1052)

GLOBAL SUBROUTINES
READLU:

002400

176516
002365

13-MAR-80

MOV
MOV
ASL
ASL
ASL
ASL
BIS

002364

2%:

N 5
PAGE 3-2

R1,-(SP)
REGNUM,R1

R1
R1
71
R1
#4 ,R1

JSHIFT INTO SOURCE BITS 4-7

;SET DESTINATION = BSEL4

#MVIOX,R1
R1,2%
PC,STPCLK

MOVB
CLRB
MOV

aBSEL4,REDBYT
REDBYT+1
(SP)+,R1

.WORD

sSET REST OF MOVE INSTRUCTION
sSET INSTRUCTION AS SUBROUTINE ARGUMENT
JEXECUTE MOVE INSTRUCTION

Attt

SEQ 0065

;SAVE R1
JGET LINE UNIT REG NUMBER

BIS
MOV
JSR

RTS

14:40

sINSTRUCTION GOES HERE

:GET LU REG CONTENTS INTO REDBYT
*CLR HI BYTE OF STORAGE
*RESTORE R1

;RETURN

ittt

21212223223 2232232222232 322231

;* WRITLU = THIS SUBROUTINE FORCES THE DMC11 OR KMC11 MICROPROCESSOR TO
*
EXECUTE AN INSTRUCTION WHICH LOADS THE BYTE CONTAINED IN WRIBYT

INTO THE LU REG WHOSE NUMBER IS PASSED IN REGNUM,

;ttt"ttttttt'tttttt.tt't'ttt*t'fiQtt.tt.it.fi'.fiQtttt'.t..it'.'tt'tittt.ttttt"'t

WRITLU:

010146

MOV

R1,-(SP)

;SAVE R1

BIS

#100,R1

:SET SOURCE = BSEL4

MOV

R1,2$

MOV
BIS

176450

2%:

CLRB
MOVB
JSR

WORD

MOV
RTS

REGNUM, R1

#MVIX0,R1

WRIBYT+1
WRIBYT,aBSEL4
PC,STPCLK

(SP)+,R1

*GET LINE UNIT REG NUMBER
:SET REST OF MOVE INSTRUCTION

:SET INSTRUCTION AS SUBROUTINE ARGUMENT

:CLR HI BYTE OF STORAGE
:LOAD BYTE INTO BSEL4
:EXECUTE MOVE INSTRUCTION

;RESTORE R1

*RETURN

.tttttttttfittttttttttt'tt't*tttttttfitttfittttittitttfitttttfifii..'tttt't'tt

;% GETREG - THIS SUBROUTINE READS THE LINE UNIT REGISTERS 10-17 INTO THE
i
REGISTER STORAGE TABLE (LUREG:).

ttt""t

.ttttttttttttttttttttitttttttttttttt.ttt!t'ttttttttitttttitt'ttttttttQtttt"l'tt

GETREG: MOV

000010

002
002400

002400

000020

3$:

R1,-(SP)

MOV
MOV
MOV

REGNUM,-(SP)
#LUR10.R1
#10,REGNUM

MOVB
CLRB

REDBYT,(R1)+
(R1)+

REGNUM, #20

JSR

INC

PC ,READLU

RE GNUM

:SAVE R1

:SAVE CURRENT REG NO.
SINIT POINTER TO REG STORAGE TABLE
ZINIT LU REG NO. TO 10

:READ A LINE UNIT REG

:PUT BYTE READ INTO TABLE
:CLEAR UPPER BYTE OF TABLE ENTRY

: INCREMENT REG NO.

sSEE IF ALL REGS READ YET

CZDMRC MB203 STATIC DIAG M

CZDMRC.P11T

13-MAR

2328

062

3& 004070 01 %201
072
3538
3334
064

012637

14:38

MACYT 38:(1052)

OBAL SUBROUTINES

BLT
MOV
MOV

002400

3335
3336
3337
3338
3339
3340
3341
3342
3343
7

3346
3347

OC 774
00.102

3348
3349
3350
3351

3352
3353
3354
3355
3356
3357
3358
3359
3360
3361
3362
3363
3364
3365
3366
3367
3368
3369
3370
3371
3372
3373
3374
3375
3376
3377

3378
3379
3380
3381
3382
3383

13-MAR-80

M Sesesoinsnoasn,n,
»

PAGE 3-3

3s
(SP)+ ,REGNUM
(SP)+,R1

RTS

AR AR AR A

14:40

SEQ 0066

;BR_IF NOT
sRESTORE CURRENT REG NO.
sRESTORE R1

:RETURN

ittty

Iyt

2222222

2232332322222 2283

;* LOOPIN = THIS SUBROUTINE PLACES THE MICROPROCESSOR IN A LOOP ON AN

*
*
*

004i10
004116
004122

INSTRUCTION, BY MOVING THE INSTRUCTION FROM THE WORD FOLLOWING THE CALL

INTO SEL6, AND SETTING RUN AND ROMI IN BSEL1. THE SUBROUTINE RETURNS
WITH THE MICROPROCESSOR STUCK IN THE LOOP, AND IF IT IS DESIRED TO
TERMINATE THE LOOP, THE PDP-11 PROGRAM MUST CLEAR THE RUN BIT IN

BSEL1, OR CALL SUBROUTINE MSTCLR TO DO THIS.

tl'..t...QtQQQttt...'.".Qt'tltt't.l.Q't..t'fi..t..t...tt.tt'tQQQ.."Q..Q.'.Q"'

152777
017677

152777
062716

000207

000006
000000

000206
000002

176346
176346
176332

OOPIN:

BISB

MOV

BISB

ADD
RTS

#ROMO'ROMI.aBSEL1

a(SP) ,ASEL6

SET ROMO, ROMI BITS IN BSEL1

:PUT MICROINSTRUCTION INTO SEL6

#RUN'ROMO'ROMI,@BSEL1 ;SET RUN, ROMO, ROMI IN BSEL1

#2,(SP)

sFIX UP RETURN PC

*RETURN WITH MICROPROCESSOR STUCK IN SINGLE

INSTRUCTION LOOP

3tttttQtttit.'tt.'t't."""ttttfi't*.t!Q'tttt.'tfifi...t.'fit't.'tt"'.'lt.".....'

:* READAX - THIS SUBROUTINE READS THE USYRT REG PAIR WHOSE NUMBER (0-3)
i
IS PASSED IN BITS 1,2 OF AXNUM ON ENTRY, AND RETURNS THE BYTES READ IN

004124
004126
004132
004140
004146
004154
004160
004166
004174
004200
004202
004
004214
004216
0042

004222
0042
0042
004240
004244
004252

010146
013746
042737
012737
113737
006237
152737
053737
004737
005001
737
132737
1
005201
1370

052737
24
012737
004737
113737
105037

RAX1S AND RAX16. IF THE LINE UNIT DOES NOT RESPOND WITH READY IN REG 14,
RRDYTO BIT IS SET IN ERROR1 ON RETURN.

>t't.tttttttttttttt..t'ttttt.Qt.tttfi.lttt.ttt'.t.tt'tt..ttttt".tt'ttttt.t"t.tt

002400
000001

000014
002402
002366
000024
002426
003750

READAX: MOV

MOV
BIC
MOV
MOVB
ASR

002420
002400
002366
002366
002366

003672
000200

002364

000001

002420

000015
003672
002364
002371

002400

002370

98:

:SAVE R1

:-STORE CURRENT REG NO.
:CLEAR ERROR BIT
*SET LU REG NO. = 14

:SET UP AX REG NO. BITS

BISB

#RDAX'ENAX,WRIBYT :SET UP BITS TO LOAD INTO REG 14

JSR
CLR
JSR

PC,WRITLU
R1
PC ,READLU

*SET RDAX AND ENAX IN REG 14
SINIT TIMER
*READ REG 14

9s
R1
68
#RRDYTO,ERROR1
12%
#15 ,REGNUM
PC,READLU
REDBYT RAX1S
5+1

*BR IF READY SET
*INCR TIMER
*BR IF TIMER DIDN'T TIME OUT YET
:SET ERROR FLAG FOR TIME OUT ON READ RDY
:BR TO RETURN
*SET REG NO.
= 15
*READ REG 15
:STORE REG AX-15
:CLR HI BYTE OF STORAGE

BIS

6$:

R1,-(SP)

REGNUM,-(SP)
#RRDYTO,ERROR1
#14 ,REGNUM
AXNUM_WRIBYT
WRIBYT

BITB

BNE
INC
BNE
BIS
B8R
MOV
JSR
MOVB
CLRB

DISILO,WRIBYT

#READY,REDBYT

;SET PROPER STATE OF DISSI BIT

:SEE IF READY BIT SET IN REG 14 YET

CZDMRC M8203 STATIC D AG fi‘l
CZDMRC.P
13-MAR
4:38

012737
004566 004737
004

004270
0046276
004302

MACY11 30A(1052)

GL OBAL SUBROUTINES

002400

soser 002372

002373
002400

004306
004310

13-MAR-80

128:

MOV
JSR
MOVB
CLRS
MOV
MOV
RTS

14:40

6
PAGE 3-4

#16 ,REGNUM
PC ,READLU
REDBYT RAX16
16+1
(smo REGNUM
(SP)+.R1

SEQ 0067

:SET REG NO. = 16
*READ REG 16
:STORE REG AX=16
*CLR HI BYTE OF STORAGE
:RESTORE CURRENT REG NO.
*RESTORE R1
*RETURN

..tt't'tttttt'ttlltfitfittttfitltttttfifitt.Qt..t.Qt.'ttQ...t.tttt"'t"t.'.QQQQQ'tt.

;* WRITAX = THIS SUBROUTINE WRITES THE USYRT REG PAIR WHOSE NUMBER (0-3) IS
e
PASSED IN BITS 1,2 OF AXNUM ON ENTRY, WITH THE DATA FROM WAX15 AND

i
i

WAX16. IF LINE UNIT DOES NOT RESPOND WITH READY IN REG 14, movro BIT
IS SET IN ERRORT ON RETURN.

tttt'tt't'lfiltt*tQttt"tt'tttt"..t..tt'ttt.ttttt.Q'tQQttt'ttt'.tfit.'t.t'.'.'.t

010146

WRITAX: MOV

:SAVE CURRENT REG NO.
:CLEAR ERROR BIT
*SET LU REG NO. = 14

PC ,WRITLU
#15 _ REGNUM

*SET AX NO. BITS IN REG 14
:SET REG NO. = 15

MOVB

WAX15.WRIBYT

:SET UP BYTE TO WRITE INTO REG 15

CLRB
MOVB

WAX16+1
WAX16,WRIBYT

3 VWONOWVS WO

PN
SRR

JSR
INC

JSR
MOV

002400
002366

002364

68:

WRRRRRR
W
O SIERRUK

3431

002420

PC,WRITLU
RE GNUM

PC.WRITLU
#14 ,REGNUM

:CLR HI BYTE OF STORAGE

:WRITE BYTE INTO REG 15
*SET REG NO. = 16

*CLR HI BYTE OF STORAGE
:-SET UP BYTE TO WRITE INTO REG 16

*WRITE BYTE INTO REG 16
*SET REG NO. = 14

BISB
BIS

#ENAX'WAX,WRIBYT :SET UP BITS TO LOAD INTO REG 14
DISILO,WRIBYT
;SET PROPER STATE OF DISSI BIT

JSR
CLR
JSR
BITB
BNE
BNE
BIS
MOV
MOV
RTS

WAX15+1

;SET PROPER STATE OF DISSI BIT

AXNUM.WRIBYT

INC

000002
002400

DISILO,WRIBYT

:SET AX REG NO. BITS

MOVB

ASR

002366
002366

3421

:SAVE R1

REGNUM,=(SP)
MIRDYTO,ERROR1
#14
RE
AXNUM.WRIBYT
WwRIBYT

CLRB

002366

R1,=(SP)

MOV
BIC
MOV
MOVB
ASR
BIS
JSR
MOV

WRIBYT

-SET
AX REG NO. BITS

PC.WRITLU
R1
PC ,READLU
WREADY,REDBYT
98
R1
68
#MRDYTO,ERRORT
(SP)+,REGNUM
(SP)+.R1

-RESTORE CURRENT REG NO.
*RESTORE R1

*SET ENAX AND WAX IN REG 14
*INIT PROGRAM TIMER

*READ REG 14

:SEE IF READY BIT SET IN REG 14 YET

*BR IF READY SET
*INCR TIMER
*BR IF TIMER DIDN'T TIME OUT YET

:SET ERROR FLAG BIT FOR TIME OUT ON WRITE RDY

*RETURN

Tl 22323232223232222222332331
Y
1

;* GETALL = THIS SUBROUTINE READS THE LINE UNIT REGS 10=17 AND THE EXTENDED

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
1 3-MAR-80 14:38

3442
3443
3444
5

w0
~e
N

f\auN’! R

SEERREEEEE JAJFANANIS

3447
3448
3449
3450
3451
3452
3453
3454
3455
3456
3457
3458
3459
3460
3461
3462
3463
3464
3465
3466
3467
3468
3469

0045%8

0045
004534
004542
004550
004552
004560
004564
004572
004576
004602
004606
004612
004614
004620
004622
004630
004636

13-MAR-B0

GLOBAL SUBROUTINES

14:40

D6
PAGE 3-5
SEQ 0068

REGISTERS AXO=AX3 INTO REGISTER STORAGE TABLE (LUREG:).

:'.'.Q'Q.Qtt'...Q...Q"""'tt.....t'.'Q'.Q.'....t'.t.....QQ.".'.'Q.O'Q'Q".'.Q

010146

00240
01443
000001
014442
004016

GETALL: MOV

002530
002402
002530
175656

R1,=(SP)

:SAVE R1

18:

MOV
MOV
BIT
BEQ
MOV
JSR

AXNUM, = (SP)
#DHS , TMPO
#8170, AxNuM
1$
#DH6 ,TMPO
PC,GE TREG

*SAVE CURRENT AX REG BYTE NO.
*SET AX LO BYTE NO.
*SEE IF LO OR HI BYTE
‘BR IF LO BYTE
*SET AX HI BYTE NO.
*READ AND STORE REGS 10-17

38:

MOV
CLR
JSR

#AX0.15.R1
AXNUM
PC ,READAX

*INIT POINTER TO REG STORAGE TABLE
*INIT AX REG BYTE NO. TO 0
*READ 2 AX REG BYTES

ADD
CMP
BLT
MOV
MOV
MOV
ASR

#2 , AXNUM
AXNUM, #10
3s
(SP)+,AXNUM
(SP)+.R1
AXNUM
. TMP1
TMP1

002402
000010

004640
004644
004646
004654

002532

004660

BICB

#LULOOP.3BSEL1

MOVB
CLRB
MOVB
CLRB

RAX1S5,(R1)+
(R1)+
RAX16,(R1)+
(R1)+

RTS

:CLEAR LULOOP

:PUT LO BYTE READ
*CLEAR UPPER BYTE
*PUT HI BYTE READ
*CLEAR UPPER BYTE

INTO TABLE
OF TABLE ENTRY
INTO TABLE
OF TABLE ENTRY

*INCR AX REG BYTE NO.
*SEE IF ALL REGS READ YET
:BR IF NOT
*RESTORE CURRENT AX REG BYTE NO.
*RESTORE R1
;GET EXTENDED REG NO. FOR PRINTOUT

*RETURN

T3321222222223222222221232%
5

:* OSIRDY = THIS SUBROUTINE CHECKS FOR THE PROPER STATES OF ORDY (REG 11)

e
i

AND OCOR (REG 17) AND REPORTS AN ERROR IF EITHER IS NOT PROPERLY SET
& {’ASSED IN BIT O (ORDY) AND BIT 1 (OCOR) OF THE WORD FOLLOWING THE

n’agrgn ERROR OCCURS, A RETURN IS MADE TO THE TEST. AT THE ADDRESS IN

]

SRSINE Soin g
SRR RRRRCRCRERE
RRRE

fik‘l

MACY11 30A(1052)

002400
002352
002352

000011
003672
000001
000020
004526

EtttQ.Q.'.t.tt'tt'.tt".'t't.'t...."t.tt'."tttt't..'Q.lQt..'t"..'tt't."."t'

OSIRDY: MOV

002352
002352
002400 18:
000004
002364

REGNUM,-(SP)

MOV
ST
BNE
MOV
SUB
MOV
JSR
8IT
BEQ
BITB
BNE
JSR

SUBRPC
. ~(SP)
SUBRP(
1s
4(SP) , SUBRPC
#4 , SUBRPC
#11, REGNUM
PC ,READLU
#BIT0,84(SP)
3s
WORDY.REDBYT
98
PC,GETALL

ERRDF

7.EM7.ERR4

;REPORT ORDY NOT SET

:SAVE LU REG NO.

;SEE IF THIS IS A NESTED CALL

*BR IF YES
:GET PC OF SUBROUTINE CALL
*SET REG NO. TO 11
*READ REG 11
:GET EXPECTED STATE OF ORDY
*BR IF EXPECTED ORDY = 0
:SEE IF ORDY = 1
*BR IF ORDY = 1
*GET REGS FOR PRINTOUT

iRAP

LWORD
.WORD

CSERDF

¢
EM?7

CZDMRC MB2C3 STATIC DIAG #
CZDMRC.P1
13-MAR-80 14:38

000020

8382283

002364

000017
003672
000002

000004

000020

002364

002400

004526

000020

13-MAR-80

GLOBAL SUBROUTINES

004526

Vgsgfifiga

g8 KEx
R ENDRA

N=NWOANN

015624
000451
132737
001407
004737

MACY11 30A(1052)

002364

004526

002400

000002
002352
002400

000004

BR
16%
9s:
MOV
#17 ,REGNUM
JSR
PC ,READLU
BITB
#BIT1,84(SP)
BEQ
12%
BITB
#OCOR,REDBYT
BNE
208
JSR
PC,GETALL
;REPORT OCOR NOT SET
ERRDF
9,EM9,ERR4

BR
16$
128%:
BITB
#OCOR ,REDBYT
BEQ
208
JSR
PC,GETALL
:REPORT OCOR NOT CLEARED

16%:

20$:

23$:

MOV

MOV
MOV
BR
ADD
MOV
MOV
RTS

PRl

PAGE 3-6

BR
16%
38:
BITB
#ORDY ,REDBYT
BEQ
9%
JSR
PC,GETALL
;REPORT ORDY NOT CLEARED
ERRDF
8,EM8.ERR4

ERRDF

000002
002346
002362

14:40

SEQ 0069
ERR4

:TAKE ERROR RETURN

:SEE IF ORDY = 0
:BR IF ORDY = 0
:GET REGS roa PRINTOUT

: TAKE ERROR RETURN

PSTACK,SP

RETADR,-(SP)
23$
#2,4(SP)
(SP) +,SUBRPC
(SP)
+ ,REGNUM
PC

CSERDF

.WORD
.WORD

ERR4

:SET REG NO. =17

sREAD LU REG 17
;GET EXPECTED STATE OF QOCOR

:BR_IF EXPECTED10CG! =0
< SEE IF OCOR
:BR IF OCOR
= 1
;GET REGS FOR PRINTOUT

CSERDF
ERR4

s TAKE ERROR RETURN

;SEE IF OCOR
= 0
:BR_IF OCOR
= 0
;GET REGS FOR PRINTOUT

10,EM10,ERR4

2(SP) ,REGNUM

TRAP

TRAP
.WORD
.WORD
.WORD

sRESTORE LU REG NO.
sRESTORE STACK POINTER TO BASE LEVEL
;FIX ERROR RETURN PC

CSERDF
10

EM10
ERR4

sFIX UP ERROR-FREE RETURN PC

sRESTORE LU REG NO.
ETURN

ettt

1113223222232 2232222222212131 1

;* WAIT50 = THIS SUBROUTINE STALLS FOR AT LEAST 50 MICRO-SEC, AND THEN RETURNS.

010146

000310

WAITS0:

3s:

MOV
MOV
DEC
BNE
MOV

R1,=-(SP)
0260. .R1
3s
(SP)+,R1

T332

sSAVE R1

s INIT COUNTER
:DECREMENT COUNTER
:BR IF NOT DONE YET
sRESTORE R1

232222322232231

1 3331

CZDMRC M8203 STATIC DIAG #1
13-MAR-B0 14:38
CZDMRC.P1T
005162

MACY11 30A(1052)

13-MAR-80

GLOBAL SUBROUTINES

000207

RTS

AL A

14:40

6
PAGE 3-7

SEQ@ 0070

JRETURN

SR ARl

T332

;% STALL = THIS SUBROUTINE STALLS FOR ABOUT A MICRO-SEC.
AR

STALL:

T332

223 2332222222222

2%3

NOP

NOP
NOP
RTS

222222223222222222¢%;

T 2222223222222222222322%;

;* LDTXSI ~ THIS SUBROUTINE LOADS THE TX SILO (REGS 10,11) WITH THE DATA PASSED

ARl

013746
042737
012737
113737
004

00242

IN BITS 0-11 OF TXWORD.

A it
I
t
I
22222223223222232
t
2222223232322

(DTXSI: MOV

BIC

002400
002366

MOV
MOVB
JSR

002400
002366

REGNUM, - (SP)

#170000, TXWORD

:CLEAR UNUSED BITS
#11,REGNUM
sSET REG NO. = 11
TXWORD+1,WRIBYT sSET DATA TO BE WRITTEN INTO REG 11
PC,WRITLU
:LOAD DATA INTO REG 11

MOV

#10, REGNUM

JSR

PC,WRITLU

MOVB

MOV
RTS

:SAVE LU REG NO.

TXWORD,WRIBYT

(SP)+,REGNUM
PC

sSET REG NO. = 10
;SET DATA TO BE WRITTEN INTO REG 10
sLOAD DATA INTO REG 10
sRESTORE LU REG NO.
TURN

AR Att
I
222222223222
t
232222231%

;* STPLU = THIS SUBROUTINE CLOCKS THE LINE UNIT FOR THE NO. OF CYCLES PASSED

I
i
:.

IN BITS 0-14 OF THE WORD FOLLOWING THE CALL.
A CHECK IS MADE TO DETERMINE IF THE USYRT CHIP TYPE
IF BIT 15 =
REQUIRES DECRE'ENTING THE NO. OF CYCLES BY 1.

'..t..t'tt't.tt.fi.tt'Q""t..l..'fi.t'.....ttfit.fittt.."'t.tt'tttt'tt"t"'tt."

010146
017601
001426
100006

STPLU:

MOV
MOV
BEQ

8PL
BIC

2$
#BIT15,R1

BEQ
DEC
BISB
BISB
JSR
BICB
JSR

2s
R1
#LULOOP,aBSEL1
WSTEPLU.@BSEL1
PC,STALL
#STEPLU,aBSEL1
PC,STALL

175140

175132

175120

28:
3s:

R1,-(SP)
a2(sP) .R1
6
CHPTYP

;SAVE R1

:GET DESIRED NO. OF CYCLES
s1F DESIRED CYCLES = 0, RETURN
:BR_IF CHIP TYPE CHECK NOT NECESSARY
:CLEAR FLAG BIT
:SEE IF SIG USYRT
:BR IF YES
sDECREMENT CYCLE COUNT
sSET LU LOOP BIT

:SET THE STEPLU BIT (CLOCK THE TRANSMITTER)
s STALL

ECLiff THE STEPLU BIT (CLOCK THE RECEIVER)

CZDMRC MB8203 STATIC DIAG
13-MAR-80 14:38
CZDMRC.P1

3592
359

005334
005%40
005

595
596
597
3598
3599
3600
3601
3602
3603
3604
3605
3606
3607
3608
3609
3610
3611
361%
3613
3614
3615
3616
3617
3618
3619

005352
005356
005362
005366
005370
005376
005404
005412
005416
005424
005426
005434
005436

3621

005442

(4)
(5)
(5)
(5)

005346
005350

000002

DEC
BNE

6$:

ADD
MOV
RTS

AR R

G_6

14:40

PAGE 3-8

R1
3s

sDECREMENT CYCLE COUNTER
:BR IF NOT DONE YET

#2,2(SP)
(SP)+,R1

sFIX UP RETURN PC

:RESTORE R1
:RETURN

SEQ 0071

2222223 222222322222221%3

;* OACTIV = THIS SUBROUTINE CHECKS FOR THE PROPER STATE OF QACT (REG 11) AND

“x

005442
005444
005446
005450

005452
005454
005462
005464

3627

005470

3628
3629
3630
3631
3632
3633
3634
3635
3636
3637
3638

012601
000207

GL OBAL SUBROUTINES

3622
3623
3626
%g
(4)
(5)
(5)
(5)

005301
001364
062766

13-MAR-80

MACY11 30A(1052)

005470
005472
005474
005476

005500
005506
005512
005516
005520
005526
005532
005536

013746
013746
005737
001006
016637
162737
012737
737
032776
001413
132737
001031
004737

002400
002352
002352

OACTIV: MOV

000004
000004
000011
003672
000001

002352
002352
002400

000100

002364

104455
14
012507
015624

016637
013706
013746
07
766
012637
012637
000207

18:

REGNUM,=(SP)

MOV
ST
BNE
MOV
SUB
MOV
JSR

SUBRPC
.~ (SP)
SUBRP(
1s
4(SP), SUBRPC
#4, SUBRPC
#11,REGNUM
PC ,READLU

BEQ
BITB
BNE
JSR

3
MOACT.REDBYT
9
PC,GETALL

BIT

004526

000100

IT IS NOT PROPERLY SET TO THE STATE OF BIT O IN THE

.tt".'...QQ.Q'..'tt.""'t'...QQ..Q.'Q...Q.tt."..'t.tt....'t"'."..QQQ"'Q'

#RIT0,34(SP)

;REPORT OACT NOT SET
ERRDF
11,EM11,ERR4

104455
000013
012472
015624

lg
132737
001416
004737

REPORTS AN ERROR IF

WORD FOLLOWING THE CALL.

002364

004526

3s:

BITB

BEQ
JSR

#OACT,REDBYT

9
PC, senu.

;REPORT OACT NOT CLEARED

ERRDF

:SAVE LU REG NO.

;SEE IF THIS IS A NESTED CALL
*BR
IF YES

:GET PC OF suanoumf CALL
*READ REG 11
:SET REG NO, = 11

:GET EXPECTED STATE OF OACT

:BR IF EXPECTED OACT= 0
-SEE IF OACT = 1
*BR IF GACT = 1
*GET REGS FOR PRINTOUT

TRAP

:TAKE ERROR RETURN

000002
002352
002400

002400

68:

TRAP

CSERDF

sse IF OACT = 0

BR IF OACT = 0
“GET REGS FOR PRINTOUT

12,EM12,ERRG

9%
128:

.WORD

MOV
MOV

2(SP) ,REGNUM
PSTACK, SP
?S;ADR.-(SP)

“FIX UP ERROR RETURN PC

ADD
MOV
MOV

#2,4(SP)
(SP)+, SUBRPC
(SP)+.REGNUM

:FIX UP ERROR-FREE RETURN P(

Bm'c‘)v

RTS

11
EM11

ERR&

LWORD
JWORD

r 2002
. J2346
002362

(CSERDF

LWORD
.WORD
.WORD

:RESTORE LU REG NO.
*RESTORE PROGRAM STACK TO BASE LEVEL

:RESTORE LU REG NO.

*RETURN

12
EM12
ERR&

CZDMRC M8203 SYATIC DIAG #1

CZDMRC.P11

13-MAR-80 14:38

MACY11 30A(1052)

13-MAR-8B0

GLOBAL SUBROUTINES

14:40

PAGE 3-9

.t"Q.t..t""I'tt.'t"t."t..t.t..'.'...Q.QQ'..Q.QQ'Q......"'...Q.'.Q.Qt.....

364,

:
;i
i

w.§

:* INITRN = THIS SUBROUTINE INITIATES mmsms ION OF A MESSAGE, BY DOING A

34h

3645
3646
%47
3648
3649

ia
i
i

“SO

3651

005540

010146

005552

016637

3656 005566

004737

3654

005560

3657
3658
3659
3660

THROUGHOUT THE PROCESS.
IF THE SUBROUTINE DETECTS AN ERROR, A RETURN IS MADE TO THE TEST. AT THE
ADDRESS CONTAINED IN RETADR.

.t..t.tQQtt.tt....tt.t""'......Qttt..t.....t'.t.""...'.Q.QQ'.""'.'QQ.Q'

3652 005542 013746 002400
3653 005546 013746 002402
3655

MASTER CLEAR, LOADING AX2-1
G 17 WITH THE DATA PASSED IN Tut 2
WORDS FOLLOWING THE CALL, LOAD]NG
SOM CHARS INTO THE TX SILO,
CLOCKING THE LINE UNIT UNTIL THE FIRST SYNCH OR FLAG HAS BEEN ssmuzso
IN THE USYRT. THE PROGRAM MONITORS ORDY,OCOR, AND OACT FOR VALID STATES.

000006

INITRN: MOV

002352

162737

000004

005572
005576
005600
005604

004737
000001
004737
000000

004662

3662

005614

117637

000006

002374

3664
3665

005630
005636

113737
005037

002374
002376

002422

005646

012737

000017

002400

003576

:SAVE LU REG NO.
*SAVE
AX BYTE NO.

SUB

#4, SUBRPC

:GET PC OF SUBR CALL

JSR
1
JSR
0

PC.OSIRDY

*CHECK ORDY=1, OCOR=0

JSR

005352

3661 005606 012737 000004 002402

MOV

3663

MOV

3667

3668
3669
3670

3671

005622

012737

000400

005642 004737 004312
005654
005662
005670

005674

062766
117637
004737

004737

000002
000006
003750

MOVB

002422

MOVB
CLR

005174

3673
%76
3675

004737
004737
004737
000003

3677
378

005722
005724

000000
005001

3680
3681

005734
005742

152777
152777

000010
000020

3685
3686

005760
005766
005770

132737
001014
142777

000100

002364

000020

174452

005174
005146
004662

3676 005716 004737 005352
3679

005726

012737

000011

005750 004737 005164
3683 005754 004737 003672
3687

3688
3689
%90

3691

3692
3693
3694

3695

005776

004737

006002
006006
006010

005201
020127
002751

006016
006020
006026

000001
012737
005037

006012

006032

004737

005164

002400

174506
174500

000017

002430

003672

:SET TSOM BIT

-SET SYNCH CHAR

JSR
JSR
JSR
3

PC.LDTXSI
PC,WAITSO
PC.0SIRDY

*LOAD ANOTHER SOM INTO SILO
JWAIT FOR DATA TO RIPPLE
*CHK ORDY=1, OCOR=1

JSR

PC,OACTIV

;CHK FOR OACT = 0

MOV

#11,REGNUM

*SET LU REG NO. = 11

PC,STALL
PC .READLU

*STALL FOR MICRO-SEC
*READ REG 11

#17 REGNUM

PC.LDTXSI

*SET REG NO. = 17

*LOAD THE SILO WITH SOM CHAR

:INIT CYCLE COUNTER

BISB
BISB

#LULOOP,aBSEL1
#STEPLU.@BSEL1

BITB
BNE
BICB

#OACT,REDBYT
9s
ASTEPLU,@BSEL1

-SEE IF OACT
= 1 YET
*BR IF QACT
= 1
:CLEAR CLOCK BIT

R1
R1,43
6$

*INCR CYCLE COUNT
*SEE IF 3 CYCLES DONE YET
*BR IF NOT

#17 ,REGNUM
CHPTYP

JCLEAR USYRT CHIP INDICATOR

JSR

9%:

#TXSOM,TXWORD

WAX1S5,TXWORD
WAX16

:SET AX BYTE NO. = 4 FOR AX2

:SET DATA BYTE TO LOAD INTO AX2-15

JINCR POINTER TO NEXT DATA BYTE
:SET DATA BYTE TO LOAD INTO REG 17
*LOAD REG 17

INC
CMP
BLT
002400

@6(SP),WAX1S

#2. 6(SP)
@6(SP),WRIBYT
PC.WRITLU

JSR

005352

#4 , AXNUM

;CHK OACT=0

ADD
MOVB
JSR

JSR
JSR

000003

PC,OACTIV

*ISSUE A MASTER CLEAR

;LOAD AX2

0
CLR

68:

PC.MSTCLR

PC,WRITAX

JSR

005700
005704
005710
005714

6(SP)
. SUBRPC

JSR

MOV

000006
002366

:SAVE R1

REGNUM,=(SP)
AXNUM, = (SP)

MOV

002352

R1,-(SP)

MOV
MOV

1
MOV
CLR

JSR

PC,STALL

PC,OACTIV

PC,READLU

:SET LINE UNIT LOOP BIT
-SET CLOCK BIT

*STALL FOR A MICRO-SEC

“CHK FOR OACT
= 1

;SET REG NO. = 17

:READ REG 17

SEQ 0072

CZDMRC M8203 STATIC DIAG #1
CZDMRC.PT
1 3-MAR
14:38

1 S%ZV

000020

MACY11 30A(1052)
13-MAR-80
GLOBAL SUBROUTINES

002364

i 000001 002430
174366 128:
000020
005164
004662

000002
002402
002400

000006

002352

BITB
BEQ
BI(B

JSR

14:40

6
PAGE 3-10

#OCOR,REDBYT
128
#1,CHPTYP

psfmu.aaseu

PC,STALL

:CHK FOR OCOR CLEARED YET
:BR IF YES = IT IS SIG CHIP
:SET INDICATOR FOR OTHER CHIP TYPE
:CLEAR CLOCK BIT

*STALL FOR MICRO-SEC

iusn

PC.OSIRDY

“CHK FOR ORDY = 1, OCOR = 0

ADD
MOV
MOV
MOV
CLR

#2,6(SP)
(SP)+,AXNUM
(SP)+.REGNUM
(SP)+.R1
SUBRP(

:FIX UP RETURN PC
*RESTORE AX BYTE NO.
:RESTORE LU REG NO.
*RESTORE R1
:CLEAR SUBR CALL PC

RTS

*RETURN

.tt'tttttttttttt'Q.ttt't'tttfi.tt.t..t.t'.tt'tttttfittt.t...'"tttttt.'tt'.'...'.

;* TXCHAR = THIS SUBROUTINE

i
i
i
i
i
i
i
i

’tit'ttttt.tttt.t.ttt't.'it..ttfit'ttti'ttt.t.t.t'ttt.tt'.t.t.tttfi'tt'ttt'.tt't"

010146

TXCHAR: MOV

005174
005146

002352
002352
002422
000004

*SAVE R2
:GET PC OF SUBR CALL
:GET DATA TO BE TRANSMITTED
:LOAD THE TX SILO WITH THE DATA
:WAIT FOR DATA TO RIPPLE DOWN SILO
*INCR POINTER

MOV

#sn

ausm R2
R2
9
#BIT15,R2
CHPTYP
93
Re
PC,OACTIV

*GET DESIRED NO. OF CYCLES
:SEE IF CHIP TYPE CHK SHOULD BE MADE
:BR
IF NOT
*CLEAR FLAG BIT
*SEE IF SIG USYRT
:BR IF YES
*DECREMENT NO. OF CYCLES
“CHK OACT= 1

R1,R2

ésn

PC,0SIRDY

{sn

PC.STPLU

:STEP LU ONE CYCLE

INC

;INCR CYCLE COUNT

JSR

PC,0SIRDY

:CHK ORDY=1, OCOR=0

BPL
BIC
TST
BEQ

100000

005352

005254
4

006246

004662

DEC

BEQ

004662

128:

:SAVE R1

R2.-(SP)
4(SP), SUBRPC
#4_ SUBRPC
@ (SP) ,TXWORD
PC,LDTXSI
PC.WAIT50
02 4(SP)

CLR

002430

R1,=-(SP)

MOV
MOV
SuB
MOV
JSR
JSR
ADD
TST

3751

INITIATES TRANSMISSION OF A CHARACTER, BY LOADING

THE TX SILO WITH DATA PASSED IN BITS 0-11
OF THE WORD FOLLOWING THE CALL
AND CLOCKS THE LINE UNIT WITH THE NUMBER OF CYCLES PASSED IN BITS 0-14
OF THE SECOND WORD FOLLOWING THE CALL. IF BIT 15 = 1, A CHK IS MADE TO
DETERMINE IF THE USYRT CHIP TYPE REQUIRES oecnertnnns THE NO. OF CYCLES
BY 1. THE PROGRAM CHECKS FOR VALID STATES OF ORDY,
OCOR, AND OACT THROUGHOUT THE PROCESS.
IF AN ERROR IS DETECTED, A RETURN IS MADE TO THE TEST, AT THE ADDRESS
CONTAINED IN RETADR.

B8R

12$

*INIT CYCLE COUNT

;SEE IF REQUIRED CYCLES DONE YET

“BR IF YES

*CHK ORDY=1, OCOR=1

SEQ 0073

CZDMRC M8203 STATIC DIAG "38
CZDMRC.P11
13-MAR-80
1

3752
75

006252
54

755
756
757

006266
006270
006272

012602
012601
000207

MACY11 30A(1052)
13-MAR-80
GL OBAL SUBROUTINES

754 9&%62 0050(3’9 000002
002352
758

14:40

6
PAGE 3-11

#2,4(SP)
SUBRP(
(SP)+ ,R2
(SP)+ R

SEQ 0074

sFIX UP RETURN PC

sCLEAR SUBR CALL PC

sRESTORE R2
sRESTORE R1
sRETURN

3759
3760
3761

3762

006274
006276
006302
006310
006316
006324
006332
006336
006342
006
006350
006354
006356
006364
006370
006376
006400
006404

006406
006406

006410
006412

006414
006420
006424
006426

010146
013746
016637
162737
012737
012737
004737
004737
004737
000001
004737
000000
012737
737
032737
001406
004737
104455
000101
014246
015624

005037
012637
012601
207

002400
000004
000004
000011
000200
003750
005146
004662

2223 3223323223222

2222222%%3

THE PROGRAM

WAITS FOR 50 US, AMD CHECKS FOR ORDY=1, OCOR=0, OACT=0, RTS=0.

ENDTRN: MOV

002352

005352
000013
003672
000040
004526

002352
002400

002400
002364

R1,=(SP)

:SAVE R1

MOV
MOV
SUB
MOV
MOV
JSR
JSR

REGNUM,-(SP)
4(SP), SUBRPC
#4, SUBRPC
#11, REGNUM
#0C .WRIBYT
PC.WRITLU
PC.WAITSO

:SAVE LU REG NO.
:GET PC OF SUBROUTINE CALL
:SET LU REG NO. = 11
*SET OC IN DATA
*SET OC IN REG 11
*STALL FOR >50 US.

5SR

PC,OACTIV

;CHK OACT = 0

.1:sa

PC.0SIRDY

*CHK ORDY=1, OCOR=0

MOV
#13,REGNUM
JSR
PC ,READLU
BIT
#RTS,REDBYT
BEQ
3s
JSR
PC,GETALL
:REPORT RTS NOT CLEARED
ERRDF 65 EM6S, ERRG

*BR IF RIS = 0
*GET REGS FOR PRINTOUT

3$:

;CLEAR SUBR CALL PC

CLR

SUBRP(

RTS

MOV
MOV

(SP)+,REGNUM
(SP)+_R1

:SET REG NO. = 13
*READ REG 13

“CHK FOR RTS = 0

TRAP
.WORD
-WORD
-WORD

CSERDF
6
ERR4

:RESTORE LU REG NO.
*RESTORE R1

*RETURN

ittt

1132323332222

2222323223133333

R
A

»»

;* ISIRDY = THIS SUBROUTINE CHECKS FOR THE PROPER STATES OF ICIR (REG 17)
;.
AND IRDY (REG 12) AND REPORTS AN ERROR IF EITHER IS NOT PROPERLY SET

3786
3787
3788
3789
3790
3791
3792
3793
3794
3795
3796
3797
3798
3799
3800
3801
3802
3803

"tttt.tltttttttfi.t"."""..Q'..t'.fi.tt.'.t.ttt"tfi.fi.t.'ttt..t.t.'..'...'."'

(5)
(5)

;* ENDTRN = THIS SUBROUTINE CLEARS THE TRANSMITTER BY SETTING OC.

(4)
(5)

eiLPASSED IN BIT O (ICIR) AND BIT 1 (IRDY) OF THE WORD FOLLOWING THE
L
}z QIEUTEDRR(R OCCURS, A RETURN IS MADE TO THE TEST AT THE ADDRESS

006430

013746

002400

3763
3764
3765
3766
3767
3768
3769
3770
3771
3772
3773
3774
3775
3776
3777
3778
3779
3780
3781
3782
3783
3784
3785

ISIRDY: MOV

REGNUM, - (SP)

sSAVE LU REG NO.

T2 23232223232233222222222111
1

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
1 3-MAR-80 14: 38

006434
006440

3810
3811
381§
3813
3814
332}2

006470
006474
006502
006504
006512
006514

3817

006520

(4)
(5)
(5)
(5)

006520
006522
006524
006526

3818
3819
3820
33%22}

006530
006532
006540
006542

3823

006546

(5)
(5)
(5)

006550
006552
006554

(4)

006546

3824
3825
3826
3827
3828
3829
3830
333%}

006556
006560
006566
006572
006600
006602
006610
006612

3833

006616

(64)

006616

3834
3835
3836
3837
3838
3839
(4)

006626
006630
006636
006640

(5)
(5)
(5)

(5)
(5)
(5)
3840

3841

3842
3843

006620
006622
006624

006644
006644

006646
006650
006652
006654

006666
006672

013746
%?737

002352
002352

i B

004737
032776
00141
132737
001022
004737

1%:

003672
000002

000020
004526

000020

002364

004526

3s:

000017
003672
000001

002400

000010

002364

004526

013706
013746
07

B8R
BITB
BEQ

168
#IRDY,REDBYT
13

ERRDF

18,EM18,ERR4

BR
MOV
JSR

16$
#17 ,REGNUM
PC ,READLU

BITB

#8IT0,34(SP)

BITB

#1CIR,REDBYT

BEQ

BNE
JSR

23
012703
015624

104455
24
012720
015624
016637

17.EM17,ERR4

12%

208

PC,GETALL

;REPORT ICIR NOT SET
ERRDF
19,EM19,ERR4

104455

000010

ERRDF

JSR
PC, seuu.
sREPORT IRDY NOT CLEARED

000022
012662
015624

12
132737
001416
737

BNE
JSR

SUBRP(

sREPORT IRDY NOT SET

104455

36
012737
737
132776
001413
132737
001031
004737

SUBRPC
, = (SP)
1s
4(SP) , SUBRPC
#4, SUBRPC
#12, REGNUM
PC ,READLU
#MBIiT1,34(SP)
3$
#IRDY,REDBYT
9
PC,GETALL

BITB

104455
000021
012645
015624

51
132737
001407
004737

MOV
ST
BNE
MOV
SuB
MOV
JSR
BIT
BEQ

14:40

002364

004526

12%:

BITB

BEQ

16%

#1CIR,REDBYT

208

JSR
PC,GE TALL
;REPORT ICIR NOT _C{EARED

ERRDF

6
PAGE 3-12

SEQ 0075

;SEE IF THIS IS A NESTED CALL
BR IF YES

;GET PC OF SUBR CALL
;SET REG NO, TO 12

sREAD REG 12

sGET EXPECTED STATE OF IRDY
:BR IF EXPECTED IRDY = 0
;SEE IF IRDY = 1
:BR_IF IRDY = 1

:GET REGS FOR PRINTOUT

TRAP
-WORD
s TAKE ERROR EXIT
:SEE IF IRDY = 0

-WORD

CSERDF
18
EM18
ERR4

s TAKE ERROR RETURN
:SET REG NO. =17
;READ REG 17

GET EXPECTED STATE OF (I)CIR
BR _IF EXPECTED ICIR
=
SEE IF ICIR = 1

:BR IF

ICIR = 1

:GET REGS FOR PRINTOUT
CSERDF
19
EM19
ERR4

s TAKE ERROR RETURN
:SEE IF ICIR = 0
:BR IF ICIR = 0
:GET REGS FOR PRINTOUT

20,EM20,ERR4
TRAP

.WORD

000002

002346
002362

002400

16$:

MOV
MOV
MOV
BR

2(SP) ,REGNUM
PSTACK,
SP
RgTADR.'(SP)
23%

CSERDF
17
EM?
ERR4

:BR IF IRDY
= 0
;GET REGS FOR PRINTOUT

558

%’0
5

MACY11 30A(1052)
13-MAR-80
GL OBAL SUBROUTINES

sRESTORE LU REG NO.
sRESTORE STACK POINTER TO BASE LEVEL
;FIX ERROR RETURN PC

CZDMRC FSZO} STATIC DIAG M

CZDMRC.P11

13-MAR-80

14:38

MACY11 30A(1052)

GLOBAL SUBROUTINE

006674

208:

006712

238:

&? 006702 06%669
002355
33«9 006706
7 002400
3847

3848

3849
3850

134MR-GO

14:40

6
PAGE 3-13

ADD

#2,4(SP)

:FIX UP ERROR-FREE RETURN PC

RTS

*RETURN

MOV
MOV

(SP)+,
SUBRPC
(SP)+,REGNUM

SEQ 0076

:RESTORE LU REG NO.

385

'ttttttttttttttttttttttttt'tttttttttttttttt'tt'tttt'tttttt.ttttt..'t'.ttt..'tt.'

3855
3856

i
i

.' IACTIV = THIS SUBROUTINE CHECKS FOR THE PROPER STATE OF IACT (REG 12) AND

Ssggz

3859

3860

3861

3&%

006714

0067246

013746

002400

005737

002352

013746

006730
3864 006732
3865 006740
3866 006746
3867 006756

001006
016637
162737
012737
004737

3869 006766

001413

3871

001031

3868

006760

3870

006770

3872

3873

3874
(4)

(5
(5)
(5)

3875

006776

007000

007004

7006
007010
007012

000004

132737

000100

002364

004737

004526

3880
(4)
(5)
(5)
(5)

104455
000026
012756
015624

3881
3882
3883
3884
3885
3886
3887
3888

38903E

132737

007042 016637
007050 013706
007054 013746
007060 000407
007062 062766
007070 012637
007074 012637
007100

000207

BNE
MOV
SuB
MOV
JSR

REGNUM,-(SP)

sSAVE LU REG NO.

SUBRP(C

JSEE IF THIS IS A NESTED CALL

SUBRPC
.~ (SP)

18
4(SP), SUBRPC
#4 ,SUBRPC
#12,REGNUM
PC ,READLU

:GET PC OF SUBR CALL
:SET REG NO, = 12
*READ REG 12

:BR IF EXPECTED IACT= 0

:BR IF IACT = 1

BIT

#BIT0,84(SP)

BITB

WIACT.REDBYT

JSR

PC,GETALL

ERRDF

21,EM21,ERR4

BEQ

BNE

JREPORT IACT NOT SE

*BR IF YES

:GET EXPECTED STATE OF IACT
-SEE IF IACT = 1

:GET REGS FOR PRINTOUT
TRAP

012741
015624

001416
004737

007032
007032
007034
007036
007040

1$:

104455

3877 007024
3878 007026

3879

TST

000001

00041

007016

MOV

002352
002352
002400

007014

3876

IACTIV: MoV

002352

000004
000004
000012
003672

032776

’1‘2
AN ERROR OCCURS, A RETURN IS MADE TO THE TEST AT THE ADDRESS IN

:ttQtttttQtttttttttt't'ttttttttttttttQttttttttttt.tttt.tttttttQtt'.ttt"tttt'ttt
- %

006720

REPORTS AN ERROR IF IT IS NOT PROPERLY SET TO THE STATE OF BIT O IN THE
WORD FOLLOWING THE CALL.

000100

002364

004526

3$:

B8R

:TAKE ERROR EXIT

BEQ
JSR

98
PC, smu

*BR IF IACT = 0
*GET REGS FOR PRINTOUT

ERRDF

22,EM22 ,ERR4

MOV
MOV
MOV
B8R
ADD
MOV
MOV

2(SP) ,REGNUM
PSTACK, SP
RETADR.=(SP)
128
#2,4(SP)
(SP)
+, SUBRPC
(SP)+.REGNUM

BITB

#IACT.REDBYT

JREPORT IACT NOT CLEAR

000002
002346
002362

002400

6$:

000002
002352
002400

000004

9%:
12$:

RTS

CSERDF

.WORD
.WORD
.WORD

21
EM21
ERR4

TRAP
LWORD
.WORD
.WORD

CSERDF
22
EM22
ERR4

-SEE IF IACT = 0

:RESTORE LU REG NO.
*RESTORE PROGRAM STACK TO BASE LEVEL
:FIX UP ERROR RETURN PC

;FIX UP ERROR-FREE RETURN PC
:RESTORE LU REG NO.

*RETURN

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80
14:38

MACY11 30A(1052)
13-MAR-80
GLOBAL SUBROUTINES

3895

i AXO-16

3898
m
007102

013746

013746
005737
001006
016637
162737
012737
004737

3909 007154

001413

3908

007146

3910

007156

032776

132737

(4)
(5)
(5)
(5)

007172

002402

000004
000004
000001
004124
000001

002372

3916

007204

132737

000001

3918

007214

004737

004526

3917 007212

3919
3920

007220

001407

002352
002352
002402
000004

104455
000035
013175
017014

007202

RSEOM:

000001

007172
007174
007176
007200

3915

-ttt.'tttttt.t.t.tttt'ttttti'..tttfit.'ttt't.ttttt.tttt'.t..ti...ttt'.t".'t'."'

002352
002352

3911 007164 001022
3912 007166 004737 004526

3914

002372

104455
000034
013154
017014

3922

007232

132776

000002

000004

3924

007242

132737

000002

002372

3923 007240 001413

3925
3926

007250 001031
007252
737 004526

3928
(4)

007256
007256

3927
(5)
(5)
(5)

3929

3930

3931

3932

3933
393,
(&)

007260
007262
007264

104455
00003
013233
017014

007270

132737

007266 00041;

007276
007304

007304

001416

000002

004737 004526
104455

AXNUM, = (SP)

:GET PC OF SUBR CALL
:SET AX BYTE NO. FOR AX0-16
*READ AX0

BEQ

*BR IF EXPECTED RSOM= 0

BNE
JSR

9%
PC,GETALL

*BR IF RSOM = 1
*GET REGS FOR PRINTOUT

ERRDF

29,EM29,ERR6

168

BIT

BITB

3$:

9%:

#BIT0,34(SP)

WRSOM,RAX16

BITB

#RSOM,RAX16

JSR

PC,GETALL

ERRDF

28,EM28,ERR6

BEQ

B8R

168

128:

;SEE IF THIS IS A NESTED CALL
*BR IF YES

:GET EXPECTED STATE OF RSOM

*SEE IF RSOM = 1

;TAKE ERROR EXIT

;TAKE ERROR RETURN

BITB

#REOM.RAX16

“SEE IF REOM = 1

BNE
JSR

20$
PC,GETALL

ERRDF

31,EM31,ERR6

BITB

BEQ

JSR

168

#REOM.RAX16

208

PC,GETALL

;REPORT REOM NOT CLEARED
ERRDF
30,EM30,ERR6

TRAP
.WORD
.WORD
.WORD

CSERDF
28
EM28
ERR6

TRAP
.WORD
.WORD
.WORD

CSERDF
31
EM31
ERR6

TRAP

CSERDF

*GET REGS FOR PRINTOUT

GET EXPECTED STATE OF REOM

12¢

CSERDF
29
EM29
ERR6

*SEE IF RSOM = 0

#BIT1,34(SP)

BEQ

TRAP
LWORD
.WORD
.WORD

:BR IF RSOM = 0

BITB

;REPORT REOM NOT SET

002372

;SAVE AX BYTE NO.

SUBRP( ,=(SP)
SUBRP(
1s
4(SP)
, SUBRPC
#4, SUBRPC
#1 ,AXNUM
PC .READAX

;REPORT RSOM NOT CLEARED

007220
007222
0072264
007226

007230

1$:

MOV

MOV
ST
BNE
MOV
SUB
MOV
JSR

;REPORT RSOM NOT SET

(4)
(5)
(5)
(5)

3921

AND REPORTS AN ERROR IF EITHER IS NOT SET TO THE STATE PASSED IN BITS

RESPECTIVELY, OF THE WORD FOLLOWING THE CALL.

i uf AN ERROR OCCURS, A RETURN IS MADE TO THE TEST AT THE ADDRESS IN RETADR.

007106
007112
007116
007120
007126
007134
007142

3913

SEQ 0077

:* RSEOM = THIS SUBROUTINE CHECKS FOR THE PROPER STATES OF RSOM AND REOM IN

2}3"

3900

M6
PAGE 314

.Qttttt..t"ttt.Q'fi.t'.""'Q.tttQtt'tt..tt*.Q.t'.'t't.'.'....Qt..'.....t.t.'t"

3895

3901
3902
3903
3904
3905
3006
3907

14:40

BR IF EXPECTED REOM = 0

:BR IF REOM
= 1
*GET REGS FOR PRINTOUT

:TAKE ERROR RETURN

*SEE IF REOM
= 0

‘BR IF REOM
= 0

*GET REGS FOR PRINTOUT

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80
14:38
(5)

MACYT1 S&A(‘IOSZ)
13-nwa-go
OBAL SUBROUT INE

14:40

6
PAGE 3-15

SEQ 0078

(5) 00 12 8?93%

(5)
ggss

007312
007314

3% 007322

;gsr 007

38 007332

3939

0073

017014

1%637

.
oooggz

013706 002346

002402

168:

13749 002362

00040

062769

ooooog

3940 007342 012637 00235
3941 007346 012637 002402
394; 007352 000207

MOV

000004

20$:

238:

39,
3944,

B8R

ADD

MOV
MOV
RTS

2(SP) , AXNUM

PSTACK , SP

LWORD

.WORD

ERR6

.WORD EM30

;RESTORE AX BYTE NO.

:RESTORE STACK POINTER TO BASE LEVEL

agmn.-(sm . :FIX ERROR RETURN PC
238

#2,4(SP)

(SP)+, SUBRPC
(SP)+ , AXNUM
PC

;FIX UP ERROR-FREE RETURN PC

;RESTORE AX BYTE NO.
*RETURN

3945

3!91.76

3%8

;ttQtttttQtltttttittt't't'ttttttfitttttttttitttttttt.ttl.Qt"'tt"tt.tt.t'tttttt.

3949
3950

:* RDRXSI = THIS SUBROUTINE READS THE RCV SILO (REGS 10.12) AND RETURNS THE
T
SILO ENTRY IN BITS 0-11 OF RXWORD.

3951

:t'tt.ttttttttt'tQttt't'tttttttt.tttttt.ttttit..tttttttt"..tttttttt..t..tt.'.'t

3952

007354

013746

002400

RDRXSI: MOV

3954

007366

004737

003672

JSR

3956

007400

042737

170000

3958 007414

004737

3953 007360 012737 000012 002400
3955

007372

113737

002425

MOVB

3957 007406 012737 000010 002400

MOV

3959

007420

MOVB

3961
3962
3963
3964

007432

113737

002364

MOV

003672
002364

3960 007426 012637 002400

002424

RTS

i
i

3986
3987

PC,READLU

*READ LU REG 12

#170000,RXWORD

:CLEAR UNUSED BITS

*SET REG NO. = 12

REDBYT,RXWORD+1 :GET HI BITS OF SILO ENTRY

#10, REGNUM

PC,READLU

REDBYT,RXWORD

(SP)+,REGNUM

*SET REG NO. = 10

*READ REG 10

:GET LOW BITS OF SILO ENTRY

:RESTORE LU REG NO.

:* RCVIST - THIS SUBROUTINE RECEIVES THE FIRST CHAR OF A MESSAGE, AND MONITORS
1
STATUS OF THE RECEIVER. FIRST, A CHECK IS MADE FOR IACT = 0, IRDY = 0,
e
ICIR = 1, AND RSOM = 0. THEN, THE LINE UNIT IS CLOCKED USING
‘e
STEPLU UNTIL IRDY = 1. THE PROGRAM CHECKS FOR THIS TO OCCUR WITHIN 3

3974,

3084
3985

:SAVE LU REG NO.

;tttttttttttttttttttttt"tttttttttttfitttttttttttttttittttttttttittttt.t't.ttt.t'

3972
3973

3983

MOV

000207

3968
3969
3970
3971

3977
3978
3979
3080
3081

JSR

002424

3%7

3976

BIC

REGNUM,-(SP)

#12 ,REGNUM

007434

007436
007440
007444
007452
007460

007466
007470

007474
007500
007504
007506

010146

010346
013746 002400
016637 000006
162737 000004
012737 000012
005001
017603

062703
005776

001414
004737

000006

000003
000006
006714

CYCLES AFTER THE NO. OF CYCLES PASSED IN THE WORD FOLLOWING THE CALL.
IF AN ERROR OCCURS, A RETURN IS MADE TO THE TEST, AT THE ADDRESS

CONTAINED IN RETADR.

RCVIST: MOV

002352
002352
002400

MOV
MOV
MOV
SuB
MOV
CLR
MOV

ADD
ST
BEQ
JSR

R1,=(SP)

R3.=(SP)
REGNUM,-(SP)
6(SP)
, SUBRPC
#4 , SUBRPC
#12,REGNUM

R1
?6(SP) ,R3

#3,R3
26(SP)

8$
PC,IACTIV

ity

2222232322233

:SAVE R1

*SAVE R3
:SAVE LU REG NO.
:GET PC OF SUBROUTINE CALL
:SET LU REG NO. = 12

JINIT CYCLE COUNT TO O
sGET CYCLE COUNT LIMIT

;SEE IF DESIRED CYCLES = 0
‘BR
;BR
IF YES
;CHK FOR JACT = 0

22322222332133

4001

4003

4007

4010
40N
4012

4013
4014
4015

MACY11 30A(1052 )

13-MAR-80

GL OBAL SUBROUTINES

sogesNN=

3997

0075
0075

3993

0075

007512
007514
007520
007522

% ¥RgT
2988 33& S

§8 g8z g A #3 EREES
S
3
2%
&

CZDMRC MB203 STATIC DIAG #
CZDMRC.P11
1
14:38

14:40

PAGE 3-16

SEQ 0079

006430

JSR

PC,ISIRDY

;CHK FOR ICIR =1, IRDY = 0

007102

JSR

PC ,RSEOM

;CHK RSOM = 0, REOM = 0 IN AX0-16

005254
8%:

005146

003672
000020

002364

006430

gSR

PC,STPLU

JSR

PC.WAITSO

JSR
BIT8
BNE
cwP
BLT

PC ,READLU
#1RDY ,REDBYT
9%
R1,R3
68

sCLOCK LU FOR 1 CYCLE
sALLOW SILO DATA TO RIPPLE
s INCREMENT CYCLE COUNT
sREAD REG 12
;SEE IF IRDY = 1 YET
:BR _IF IRDY = 1
sSEE IF LIMIT EXCEEDED
sBR IF NOT YET

%SR

PC,ISIRDY

sCHK FOR ICIR = 1,

R1,36(SP)

,'JSR

12§

PC,ISIRDY

;SEE IF LESS THAN REQUIRED CYCLES
“BR
IF NOT
:BR
;CHK FOR ICIR =1, IRDY = 0

.{SR

PC,IACTIV

;CHK FOR IACT =1

006430

.SJSR

PC,ISIRDY

;CHK FOR ICIR = 1,

000002
002400

ADD
MOV
MOV
MOV
CLR

#2,6(SP)
(SP)
+ ,REGNUM
(SP)+,R3
(SP)+,R1
SUBRP(

006430
006714

12%:

002352

RTS

IRDY = 1

IRDY =1

sFIX UP RETURN PC

sRESTORE LU REG NO.

;RESTORE R3
+RESTORE R1
sCLEAR SUBR CALL PC
sRETURN

ittt

It 2222222222322 2322232223223:¢85

;* STPERR = THIS SUBROUTINE LOADS THE CONTENTS OF THE FIRST WORD FOLLOWING THE
®
CALL INTO REG 17, AND SETS THE IERR BIT, AND CLOCKS THE LINE UNIT
FOR THE NO. OF CYCLES PASSED IN THE 2ND WORD FOLLOWING THE CALL.

002400

MOV
MOV

000002
007720

000002

STPERR: MOV

002366

3s:

THEN,

IT RESTORES REG 17 TO ITS ORIGINAL CONTENTS, CLEARING THE IERR BIT.
REGNUM, -(SP)

#17 ,REGNUM
@2(SP) ,WRIBYT
#1ERR,WRIBYT

JSR

P
PC,STPLU

ADD
MOV

#2,2(SP)
(SP) + ,REGNUM

RTS

AR A AR AR AR A AR AR AN AN AR R AR AN AR A AR

A R AR AN

:SAVE LU REG NO.
sSET LU REG NO. = 17

sSET IERR BIT IN REG 17
- INCREMENT SUBR ARGUMENT POINTER

sGET DESIRED NO. OF CYCLES

sCLOCK LU FOR DESIRED NO. OF CYCLES
sNO. OF CYCLES GOES HERE
;CLEAR IERR BITP%N REG 17
sFIX UP RETURN
sRESTORE LU REG NO.

sRETURN

CZDMRC MB203 STATIC DIAG #1

CZDMRC.P1T

13-MAR-80 14:38

MACY11 30A(1052)
13-MAR-80
GLOBAL SUBROUTINES

14:40

PAGE 3-17

SEQ 0080

4044
4045

4046
4047
4048

AR A

AR L

2222222222322222%3

:* CKDATA = THIS SUBROUTINE READS THE RCV SILO AND COMPARES THE SILO ENTRY
TO BITS 0-11 OF
OF THE FIRST WORD FOLLOWING THE CALL. IF THERE IS
A
2

4051

405

AR A

CKDATA:

002352
002352

MISMATCH, THE ERROR IS REPORTED AND A RETURN IS MADE TO THE TEST AT THE
ADDRESS CONTAINED IN RETADR. IF BIT 15
= 0 _IN THE FIRST WORD
FOLLOWING THE CALL,
THE SUBROUTINE WILL NOT CHECK THE BCC BIT (SILO
BIT 8). IF THERE ARE NO ERRORS, THE LINE UNIT IS CLOCKED FOR THE
NUMBER OF CYCLES PASSED IN THE SECOND WORD FOLLOWING THE CALL.

sl it
I
I
T 2222223323 22232223223

MOV
MOV
MOV

002424

CMP8

R1,RXWORD

P
BNE

BIC

BEQ

CLR
MOVB
CLR
MOVB

002406
002400

002364

;GET PC OF SUBR CALL

BIC

JSR

A¥

gzism :fi

:SAVE R1

: SAVE LU REG NO.

sGET EXPECTED SILO ENTRY
CLEAR UNUSED BITS FOR COMPARE
PC,RDRXS]
READ RCv
SILO
%VLENMTXLEN2! TXLEN‘I! TXLENO!RXLENZ2!'RXLEN;!RXLENO
;BR IF CHAR LENGTH NOT
#BIT7.R1
;MASK OFF BIT 8TH BIT

BIC
000347

R1,=(SP)
REGNUM,
= (SP)
4(SP)
, SUBRPC

#170000,R1

#8177
. RXWORD

GOODAT
R1,GOODAT
BADDAT
RXWORD,BADDAT

MOV
JSR

#11,REGNUM
PC ,READLU

JSR

PC,GETALL

sREPORT TX UNDERRUN ERROR
ERRDF
54 ,EM54 ,ERR4

s COMPARE EXPECTED BITS 0=7 TO ACTUAL
:BR IF MATCH

sGET EXPECTED DATA

:GET ACTUAL DATA

sSET REG NO. = 11
*READ REG 11
:SEE IF TX UNDERRUN ERROR

:BR_IF NOT

:GET REGS FOR PRINTOUT
TRAP

004526

002400

5%:

JMP
MOV
JSR

36%
#10 ,REGNUM
PC,GE TALL

;REPORT RCV'D DATA MISCOMPARE
ERRDF
34 ,EM34 ,ERR8

;TAKE ERROR EXIT
:SET REG NO. = 10
:GET REGS FOR PRINTOUT

010600

000012

002425

e
b

elelelelelelelelelele)
—_ e e
D e 2 ) —h =
—t
eleleleleleleleleleleBelele

JWORD
.WORD

010554

002400

6%:

JMP
SWAB
MOV
CMP8
BNE
JMP

36%
R1
#12 ,REGNUM
R1,RXWORD+1
7%
22%

;TAKE ERROR EXIT

CSERDF

54
EMS4

.WORD

ERR4

TRAP

CSERDF

JWORD
.WORD
.WORD

34
EM34
ERRS

sSET LU REG NO. FOR ERROR REPORTS
- COMPARE EXPECTED SILO BITS 8-11 TO ACTUAL
;BR IF MISMATCH
s CONT INUE

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

409§

4093
409%
4095
409%
4097
4098
4099
4100
4101

010172

010176
010202
010206
010214
010222
010224
010230
010232
010240

5037

010242

004737

010246
010246
010250
010252
010254
010256
010262
010270
010272

104455
000043
013350
020124
000137
132737
001010
004737

4110
(4)
(5)
(5)
(5)
4111

010276
010276
010300
010302
010304
010306

104455
000044
013370
020124
000137

010316
010320
010326
010330

132701
001014
132737
001424
004737

4109

4112
4113

4114
4115
4116
4117
4118
4119
(4)

(5)
(5)
(5)
4120
4121
4122
4123
4124

4125

(4)
(5)
(5)
(5)
4126

2;5;
4129
4130
4131

010312
010312

010334
010334

010336
010340
010342
010344
010350
010356
010360
010364

7$:
002406

000004

002425

004526

010600
000001

002425

004526

010600

002425

004526

104455
000046
013425
020124
000137

010400
010404
010406

132701
001014
132737

010600
000002

002425

004526

010600

8S$:

7
PAGE 3-18

R1,GOODAT
sSET EXPECTED DATA
BADDAT
RXWORD+1,BADDAT ;SET ACTUAL DATA

#BCCCHK
a4 (SP)
108

JMP
BITB
BNE
JSR

36%
#BCC,RXWORD+1
108
PC GETALL

ERRDF

36 EH36 ERR8

002425

JMP

SEQ 0081

GOODAT

36%

BITB
#EBLK,R1
BNE
12%
BITB
#EBLK ,RXWORD+1
BEQ
14$
JSR
PC, GETALL
:REPORT EBLK NOT_CLEARED
ERRDF
37 ,EM37 ,ERR8

JMP
36%
BITB
HEBLK ,RXWORD+1
BNE
14$
JSR
PC,GETALL
sREPORT EBLK NOT_SET
ERRDF
38,EM38,ERRS

12%:

148:

000004

#8CC.R1
8s
#BCC,RXWORD+1
108
JSR
PC, GETALL
:REPORT BCC NOT CLEAR
ERRDF
35 EH3S ERR8

108:

000002
000002

CLR

MOovVB
CLR
MOov8
BIT
BEQ
BITB
BNE
8IT8
BEQ

14:40

sREPORT BCC NOT
$

104455

000045
013404
020124
000137
132737
001010
004737
:

010364
010366
010370
010372
010374

010400

002404

1
‘l 7 002404
005037
00240?
113737 002425
032772 100000
00143
132701
000001
001014
132737 000001
001424

4102
4103
4104
(&)
(5)
(5)
(5)
4105
4106
4107
4108

MACY11 30A(1052)
13-MAR-80
GLOBAL SUBROUTINES

;SEE IF BCC SHOULD BE IGNORED
:BR IF YES

sSEE IF EXPECTED BIT
=
:BR IF YES
;SEE IF ACTUAL BIT = 0
:BR_IF YES
;GET REGS FOR PRINTOUT

s TAKE ERROR EXIT
:SEE IF ACTUAL BIT =
:BR IF YES
;GET REGS FOR PRINTOUT

:TAKE ERROR EXIT

TRAP

CSERDF

.WORD
.WORD
.WORD

35
EM35
ERR8

TRAP
WORD
.WORD
.WORD

CSERDF
36
EM36
ERR8

TRAP

CSERDF

sSEE IF EXPECTED BIT
= 1
:BRIF YES
;SEE IF ACTUAL BIT
= 0
:BR_IF YES
:GET REGS FOR PRINTOUT

:TAKE ERROR EXIT
:SEE IF ACTUAL BIT
= 1
:BR_IF YES
;GET REGS FOR PRINTOUT

JMP

368

s TAKE ERROR EXIT

BITB
BNE
BITB

#RAB ,R1
16%
#RAB ,RXWORD+1

sSEE IF EXPECTED BIT
= 1
:BR IF YES
:SEE IF ACTUAL BIT
= 0

.WORD
.WORD
.WORD

37
EM37
ERRS

TRAP
.WORD
.WORD
.WORD

CSERDF
38
EM38
ERR8

CZDMRC M8203 STATIC DIAG M
CZDMRC.P11
13-MAR-80 14:38

4132 010414
4133 010416

001424
004737

6135
(&)
(5)
(5)
(5)

010422
010422
010426
010426
010430

104455
000047
013442
020124

4137

010436

413

004526

413 010432

000137 010600

4138
4139

4140
4141
(4)
(5)
(5)
(5)

010444
010646

001010
004737

010452
010452
010454
010456
010460

000050
013462
020124

4143

010466

4142

4144

4145

010462

010466

132737

010600

132701

000012

132737

000010

4149
4150
(%)
(5)
(5)
(5)

010502
010504

001424
004737

010510
010510
010512
010514
010516

104455
000051
013476
020124

4152

010526

4151

4153
4154

4155

010474

010520

000137

010532

001010

010534

4156
(4)
(5)
(5)
(5)

010540
010540
010542
010544
010546

4158

010554

4161
4162

010570
010574

4157 010550

4159 010554
4160 010562
4163
4164
4165
4166
4167

4168

010576
010600
0106064
010610
010614

010616

4169 010624
4170 010630
4171 010632

002425

004526

000137
001014

4146

000004

010600

004737

004526

16$:

188:

000137

010600

062766
017637

000002
000004

004737
000000

000407
011637

005254

002346
002362

012637
012601
005037

002400

062766

000002

002352

ERRDF

39,EM39,ERRS

JMP

368

BNE
JSR

188
PC,GETALL

PAGE 3-19

BITB

WRAB,RXWORD+1

JMP

368

BITB

WOVRR,R1

BITB

#OVRR,RXWORD+1

002425

20$:

JMP

BITB

BNE

000004
010574

24$:

36$:

000004

38%:

408:

;TAKE ERROR EXIT

22%

JSR

PC,GETALL

ERRDF

42,EM42,ERR8

TRAP

CSERDF

.WORD
.WORD
.WORD

40
EM40
ERR8

TRAP
LWORD
JWORD
.WORD

CSERDF
41
EM41
ERRS

TRAP
.WORD
JWORD
.WORD

CSERDF
42
EM42
ERRS

;SEE IF EXPECTED BIT
= 1

:BR
IF YES
*GET REGS FOR PRINTOUT

#OVRR,RXWORD+1

(SERDF
39
EM39
ERRS8

*BR
IF VES
*GET REGS FOR PRINTOUT

22%
PC,GETALL

:REPORT ovnn NOT SET

228
:

;TAKE ERROR EXIT

TRAP
LWORD
.WORD
.WORD

:SEE IF ACTUAL BIT
=

:BR
IF YES

368

SEQ 0082

:BR IF YES
*GET REGS FOR PRINTOUT

208

:REPORT OVRR NOT CLEARED
.
ERRDF
41,EM41,ERR8

002400

013706
013746
000406

188
PC,GETALL

BEQ
JSR

104455

013517
020124

BEQ
JSR

BNE

002425

004526

000010

:REPORT RAB NOT SET
ERRDF
40,EM40,ERRS

132737

14:40

;REPORT RAB NOT CLEARED

104455

010472

4147
4148

MACY11 30A(1052)
13-MAR-80
GLOBAL SUBROUT INES

:SEE IF ACTUAL BIT
= 0

:TAKE ERROR EXIT

-SEE IF ACTUAL BIT
= 1

‘BR IF YES

*GET REGS FOR PRINTOUT

JMP

368

:TAKE ERROR EXIT

ADD
MOV

#2.4(SP)
@ (SP) , 248

:INCR SUBROUTINE ARGUMENT POINTER
*GET DESIRED CYCLE COUNT

JSR
.WORD

B8R
MOV
MOV
MOV
B8R
ADD

MOV
MOV
CLR

PC,STPLU
0

*CLOCK LU FOR DESIRED CYCLES

38s
(SP) ,REGNUM
PSTACK , SP
RETADR.=(SP)
408

:TAKE ERROR-FREE EXIT
*RESTORE LU REG NO.

(SP)+,REGNUM
(SP) +.R1
SUBRP(

:RESTORE LU REG NO.
*RESTORE R1
*CLEAR SUBROUTINE PC

#2.4(SP)

*RESTORE PROGRAM smcx TO BASE LEVEL
:FIX
UP ERROR RETURN
;FIX UP ERROR-FREE RETURN PC

CZDMRC M8203 STATIC DIAG #1
13-MAR-80 14:38
CZDMRC.P11
4172
4173
4174
4175
4176
4177
4178
4179
4180
4181
4182
4183
4184

4185
4186
4187
4188
4189
4190
4191

010636

13-MAR-80

MACY11 30A(1052)

GLOBAL SUBROUTINES

000207

RTS

AL A

14:40

PAGE 3-20

SEQ 0083

JRETURN

12222222222

222232321221%

;* SETUP = THIS SUBROUTINE LOADS THE FIRST WORD AFTER THE CALL INTO Ax2-15
.
(SYNCH CHAR), LOADS THE SECOND WORD AFTER THE CALL INTO REG 17
.
LOADS THE THIRD WORD INTO AX3-15, AND LOADS THE FOURTH INTO AX3-16.

010640
010644
010650
010656
010664
0
2
010710

'l.tt.ttttt'tt.Q...tt.""."Q.Q.t.'..'.......'ttt.ttQ...t".t...t't.t'.t'.'t'Q

013746

077653

SETUP:

MOV

AXNUM, - (SP)
REGNUM,
- (SP)
#4 , AXNUM

002402
002374

34(52)LWAX15

002400

#17 REGNUM

002

“(SP) WRIBYT

PC ,WRITAX

#2,4(SP)

sSAVE AX BYTE NO.

:SAVE LU REG NO.
sSET AX BYTE NO. FOR AX2
sSET SYNCH CHAR IN AX2-15 CLEAR AX2-16
:SET LU REG NO. = 17

s INCREMENT ARGUMENT POINTER

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
1
14:38
4193
6196
4195
4"
6197
4198
4199
4200
4201
&
4203
4204
4205
4206
4207
4208
4209
4210
4211
4212
4213
6214
4215
4216
4217
4218
4219
4220
4221
4222
4223
4226
4225
4226
4227
4228
4229
4230
4231
4232
4233
4234
4235
4236
4237
4238
4239
4240
4261
4242
4243
4264
42645
42646
4247
4248

0107
010722
010
010
010744
010752
0107
010766
010772
011000
011004
011010
011014

g?
012737
Zg?
01
06;7
0176
013737
004737
062766
012637
012637
005037
000207

MACY11 30A(1052)

GLOBAL SUBROUTINES

003750
000006
2

002402

000002

000004

002376
004312
002400
002402
002352

13-MAR-B0

JSR
MOV
ADD
MOV
ADD
MOV
MOV
JSR
ADD
MOV
MOV
CLR

oozggl.

002376
002432
000004

RTS

14:40

PC,WRITLU
lg.mm
#2.4(SP)
@ (SP) ,WAX1S
#2,4(SP)
@4 (SP) ,WAX16
WAX16,SAVLEN
PC,WRITAX
#2.4(SP)
(SP)+,REGNUM
(SP) +, AXNUM
SUBRP(
PC

PAGE 4

:LOAD REG 17
*SET AX BYTE NO. FOR AX3
*INCREMENT ARGUMENT POINTER
;INCR ARGUMENT POINTER
:STORE TX AND RCV CHAR LENGTH
*LOAD AX3-15, AX3-16
*FIX RETURN PC
:RESTORE LU REG NO.
*RESTORE AX BYTE NO.
*CLEAR SUBROUTINE PC STORAGE

*RETURN

stttttttt..tt.t....t'tt""t'Q.t....'.Q..Q'.'.'..'t."."tt....'..t'..t".'

;% LODMSG = THIS SUBROUTINE LOADS THE NO. OF WORDS PASSED IN THE SECOND WORD
i
FOLLOWING THE CALL FROM THE MSG BUFFER WHOSE ADDRESS IS IN THE FIRST
i
WORD FOLLOWING THE CALL, INTO THE TRANSMITTER SILO.

ttt'tttttt.tt.tt.Q.'t""'Q.t..'..tt...........Q.Q.'..t...".QQ.QQ'.".."Q'.

011016
011020
011022
011026
011034
011040
011046
011052
011056
011060
011062
011066
011070
011072

010146
010246
017601
062766
017602
062766
012137
004737
005302
001372
004737
012602
012601
207

LODMSG: MOV

000004
000002
000004
000002
002422

000004

005174

68:

005146

MOV
MOV
ADD
MOV
ADD
MOV
JSR
DEC
BNE
JSR
MOV
MOV
RTS

R1,=(SP)

R2.=(SP)
@4 (SP) ,R1
#2,4(SP)
@ (SP) ,R2
#2.,4(SP)
(R1)+,TXWORD
PC.LDTXSI
R2
6$
PC.WAITS0
(SP)+,R2
(SP)+.R1
PC

:SAVE R1

*SAVE R2
*GET MSG POINTER INTO R1
:INCR ARG POINTER
*GET WORD COUNT INTO R2
:FIX UP RETURN PC
:GET NEXT MSG WORD
*LOAD A WORD INTO TX SILO
*DECR COUNT
*BR IF NOT DONE YET
:WAIT FOR SILO TO RIPPLE
*RESTORE R2
*RESTORE R1

*RETURN

't.tttttfitttttttttt.tt"'.t..t.t.tt.t't...tttt..t.tt.t.ttt.tttt".tt.."t

:* RXCHAR = THIS SUBROUTINE READS THE RCV SILO AND CLOCKS THE LINE UNIT.
i
FIRST, IT READS THE CHAR FROM THE RCV SILO, AND CHECKS FOR ICIR

i
i

011074
011076
011104
011112
011116
011122
011124

010146
016637
162737
004737
004737
005001
020176

1, IRDY = 0. IT THEN CLOCKS THE LINE um FOR THE NO. OF CYCLES

"‘?55',’,,,’,',‘ mg WORD FOLLOWING THE CALL. AND THEN CHECKS FOR ICIR
=

:ttt'ttt..t..t..t...t.t"t"..!.'.t...tt...t..'.t.t.""Q.t'tt't..""".t

000002
000004

007354
005146

000002

002352
002352

RXCHAR: MOV

MOV
SUB
JSR

98:

R1,-(SP)

2(sp> SUBRPC
#4, SUBRPC
PC_RDRXS|

:SAVE R1

:GET PC OF SUBR CALL
*READ RCV SILO

JSR

PC.WAIT50

*ALLOW SILO TO RIPPLE

cTMP

R1,32(SP)

:SEE IF REQUIRED CYCLES DONE YET

CLR

SINIT CYCLE COUNT

SEQ 0084

CZDRRC
CZDMRC.P1

4269
4250
4251
4%5;

4255
4254
4255
4259
4257
4258
4259
4260
4261
4262
4263
4264

MB203 STATIC DIAG #1.
13-MAR
1

01N
0
0OM
011140

011144
8111458
0M
011152
011156
011160
011166
011172
011174

00141
004737
000(7)g1

004737
000001
005201
000765
004737
000003
062766
005037
012601

MACYT! 30A(1052)
13-MAR-80
OBAL SUBROUTINES

BEQ
JSR
1

006430
005254

006430
000002
002352

128:
000002

000207

JSR
1
INC
BR
JSR
3
ADD
CLR
MOV
RTS

4588

‘267

AR A A At

164:40

PAGE 4-1

SEQ 0085

12%
PC,ISIRDY

:BR IF YES
¢CHK ICIR = 1, IRDY = 0

PC,STPLU

;CLK LU 1 CYCLE

R1
9%
PC,ISIRDY

sINCR CYCLE COUNT
sCHK ICIR = 1 IRDY = 1

#2,2(SP)
SUBRP(
(5P)+,R1
PC

sFIX RETURN PC
;CLEAR SUBR CALL PC
sRESTORE R1
sRETURN

it It I

T2 222232223222222222287

4268
4269
4270
2%;}

:* CKTBIT = THIS SUBROUTINE CLOCKS THE LINE UNIT FOR 8 CYCLES, AND AFTER EACH
:®
CYCLE, THE TXDATA BIT IN REG 17 IS EXAMINED, AND COMPARED TO A BIT OF
s
THE CHAR PASSED IN THE WORD FOLLOWING THE CALL.
s®
II!ETAAgREm OCCURS, A RETURN IS MADE TO THE TEST AT THE ADDRESS IN

‘273
42764
4275
4276

:'t.Q.Q"t...'.Qtt.".."t"".....'.Q.Q"..'QQ‘Q....t'.t..'.'t'...t."t....'..'.
CKTBIT: MOV
REGNUM, - (SP)
sSAVE LU REG NO.
MOV
R1,-(SP)
;SAVE R1
MOV
4 (SP) , SUBRP(

4278

011176
011202
011204
011212
011220

013746
010146
016637
162737
012701

4280
4281
4282
4283
4284

011232
011236
011240
011244
011250

004737
000001
004737
030176
001013

4287

011262

4289
(4)
(5)
(5)

011266
011266
011270
011272

4277

4279

4285
4286

4288

(5)
4290

011226

011252
011260

011274
011276

012737

132737
001422

004737

000004

000004
000001

000017

005254

002352

002400

SUB

MOV
48:

003672
000004

000040

002364

004526

132737
001007
004737

4295
(4)
(5)
(5)
(5)
4296

011314
011314
011316
011320
011322
011324

104455
000041
013277
015624
00040

000040

004526

JSR
1
JSR
BIT
BNE

#4,SUBRPC

sGET PC OF SUBROUTINE CALL

#17 ,REGNUM

sSET REG NO. = 17

#81T0,R1

002364

9%:

sINIT BIT POINTER

PC,STPLU

sCLOCK LINE UNIT 1 CYCLE

JSR

PC ,READLU
R1,34(SP)
93
#TXDATA REDBYT
12%
PC,GETALL

;READ REG 17
sSEE IF EXPECTED BIT = 1
:BR _IF YES
;SEE IF ACTUAL BIT = 0
;BR_IF YES
;GET REGS FOR PRINTOUT

ERRDF

32,EM32 ,ERR4

;REPORT TXDATA NOT CLEARED

013250
015624

011300
011306
011310

MOV

BITB
BEQ

104455

4291
4292
4293

4294

002400

BR
BITB
BNE
JSR

20$
,
#TXDATA REDBYT
12%
PC,GETALL

ERRDF

33 ,EM33,ERR4

20%

sREPORT TXDATA BIT NOT_SET

TRAP
.WORD
.WORD

: TAKE ERROR RETURN
;SEE IF ACTUAL BIT = 1
:BR _IF YES
:GET REGS FOR PRINTOUT

;TAKE ERROR EXIT

CSERDF
32
EM32

.WORD

ERR4

TRAP
.WORD
.WORD
.WORD

CSERDF
33
EM33
ERR4

CZDMRC MB203 STATIC DIAG li”
CZDMRC.P11
13-MAR

4303
4304
4305
4306

4307
4308
4309
4310
431
4312
4313
4314
4315
4316
4317
4318
4319
4320
4321
4322
4323
4324
4325
4326
6327
4328
4329
4330
4331
4332
4333
4334
4335
4336
4337
4338

M
011
om
011336
ON
on

0113
011352
ON
011362

011366
011372

006301
020127
0013
05
013706
013746

000406
062766
012601
012637
005037
000207

12%:

000400
002346
002362

208:

000002
002400
002352

14:40

R1
R1,#400
4%

22%

PSTACK,SP

7
PAGE 4=2

SEQ 0086

sSHIFT BIT POINTER
;SEE IF 8 BITS SCANNED YET
BR IF NO

;RESTORE PROGRAM STACK POINTER TO BASE LEVEL

REOIADR.~(SP)

sFIX UP RETURN PC

22%:

#2,4(SP)

:
408

(SP) +.REGNUM
gtpnpc

sFIX UP ERROR-FREE RETURN PC
;RESTORE R1
sRESTORE REG NO.
sCLEAR SUBR CALL PC

(SP)+,R1

TURN

A
A PRTR T

6297
4298
6%
&
4301

MACY11 30A(1052)
13-MAR-B0
GL OBAL SUBROUTINES

222222322232

22222222323

;* LDMSG] = THIS SUBROUTINE LOADS THE TRANSMITTER SILO WITH MSG1, AND LOADS
- %
®

011374
011376
011400
011404
011406
011410
011414
011420
011422
011426
011430
011436
011442
011446
011450
011452

010146
010246
737
003220
11
012701
012702
012122
020127
103774
052762
012726
012726
012602
012601
000207

THE DATA CHARS INTO THE RCV MSG BUFFER (RCVBUF:), AS EXPECTED DATA
FOR LATER COMPARISON.

Al d

LDMSG1 : MOV
MOV

011016

003224
003262

3s:

003236
100400

000160
000034

177776

eI I I122222322222322322333238

R1,-(SP)
R2,=(SP)

;SAVE R1
;sSAVE R2
sLOAD MSG1 INTO TX SILO

MMSG1+4 R
#RCVBUF ,R2
(R1)+,(R2)+
g}JHSGHM

;GET POINTER TO MSG1

PC,LODMSG

:GET POINTER TO MSG BUF

;LOAD A CHAR INTO MSG BUF
SEE lF DID LAST DATA CHAR YET
F NOT

#CRCCHK !RXBCC, -Z(RZ) sSET EXPECTED BCC

#160, (SP)+

;LOAD HI CRC BYTE

(SP)+ R2
(SP)*.R1

;RESTORE R2

#034,(SP)+

:LOAD LO CRC BYTE

sRESTORE R1
sRETURN

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1
13-MAR-80 14:38

7
MACYT1 30A(1052)
13-MAR-80 14:40 PAGE 43
GLOBAL ERROR REPORT SECTION

2%21

.SBTTL

434

///////////////////////////////////////////////////////////////////

43464
4345
2%29

4348
6349
4350

011456
011462
011464

052045
000116
047045

FMT1:

_ASCIZ

/XTX063N/

040445

040506

FMT2:

_ASCIZ

/INXAFAILING REG: /

FMT3:

,ASCIZ

/XAEXPECTED: XO3%SSXAACTUAL: XO3IN/

047045

FMT4:

ASCIZ

/INXTANZTIN/

051445

FMT5:

ASCIZ

/%03%S5%03%S5%X03%S5%03%IN/

047111
035107
054105
042105
022463
041501
020072
000116
052045
7045

011570
011576
8}}2?4

022465
022465
022883

031517
031517
031517

011620
011626
011634
011642
8}}2;2

022463
022463
022
022463
835??2

032523
032523
032523
000116
047445

4356

011656
011666
011672
011700

040445
042116
043505
030517

4357

011712

052045

4359

011750

4353

011563

4354 01161%
4355

4358

4360

4361

011706

011717
0117264
011732
011740

011746

011756
011764
011772
012000
012006

012007

012014
012022
012030
012036

012040

045

THE _GLOBAL ERROR REPORT SECTION CONTAINS ERROR MESSAGES
THAT ARE USED IN MORE THAN ONE TEST.
i
g

022466

046111
042522
040445
052103
047445
040445
046101
022463
047045
052045

4352

/
3/
Y
047445

011472
011500
011506
011514
011522
011530
011536
011544
011550
011556

6351

GLOBAL ERROR REPORT SECTION

031517

020107
000040
042520
020072
032523
052524
047445

051445
051445
047045

032123 047445 FMT6:
047445
047445
047445

.ASCIZ /%S4%03%S5%03%¥S5X03%SSX03%IN/

022462

FMT7:

_ASCIZ

/%TX02%N/

054105
042105
040440
040445
000116

042526
051040
022530
022455

FMT8:

.ASCIZ

/XAEXTENDED REG AXX01%A-XTIN/

045
043117
020122
020072

050101
051440
040503
047445

020103
041125
046114
022466

000

FMT9:

_ASCIZ

/XTIN/

040445

042522

022524

000116

047445
047514
053440
022440
000

051505
022462
020124
000116

047045

FMT10:

.ASCIZ

/%APC OF SUBR CALL: X063N/

022462
042101
052111
031517

020107

020101
042105
035110
047045

FMT11:

.ASCIZ

/XAREG %02%A LOADED WITH: %03%N/

022516

020124
020101
052522

052101

042045
047516
022516

FMT19:

_ASCIZ

/ANXATEST XD2XA NOT RUNZN/

040445

046120

FMT24:

.ASCIZ

/INXAPLEASE INSURE RUN SWITCH ON MICROPROCESSOR IS ONIN/

SEQ 0087

CZDMRC M8203 STATIC DIAG M

CZDMRC.P11

012046

012054

4362

43
6365

4366

0
0120
012076
012104
012112
012120
012126

012127

13-MAR

040505

051512

05252
052111
020119
05011
051523
020123
000

103

14:38

042552

0511

MACY11 32:(1052)

13-MAR-80

14:40

OBAL ERROR REPORT SECTION

7
PAGE 4=4

044440

022105

020112
044103
044515
04752;
051117
047117

053523
047440
051103
042503
044440
047045

051123

040440

EM1:

.ASCIZ

/(SR ADDRESS TIME-OUT (SEL0)/

043505

012134
012142
012150
012156

042104
052040
052517
105

042522
046511
020124
024460

012170
012176
012
012212
122

052117
044526
042105
051515
2

044440
046101
041040
020124

047040

044516
055111
020131
046103

EM2:

.ASCIZ

/REG NOT INITIALIZED BY MST CLR/

042522

020107

044515

EM3:

.ASCIZ

/REG MISCOMPARE/

043505

047040

EM&:

.ASCIZ

/REG NOT INITIALIZED BY UNIBUS RESET (INIT)/

012163

12;

051523
026505
051450
000

6367

012222

4368

012241

122

4369

012314

040515

047111

020124

EMS:

LASCIZ

/MAINT CLK BIT STUCK AT 0/

4370

012345

115

044501

4371

012376

4372

01241

4373
4374

012230

012344

012352
012360
012366
012404

0000

041440
052111
045503
000061
051117
052117
117

046
000

045514
051440
040440

052116

041040
052524
020124

EMé6:

.ASCIZ

/MAINT CLK BIT STUCK AT 1/

054504

047040

EM7:

.ASCIZ

/ORDY NOT SET/

020131

EMS:

.ASCIZ

/0RDY NOT CLEARED/

051440

042122

012420
012426

047516
040505

041517
17

051117
051440

047040
052105

EM9:

.ASCIZ

/0COR NOT SET/

012451

117

047503

020122

EM10:

,ASCIZ

/OCOR NOT CLEARED/

012434

0201264
042522

052105

046103
000104

012456 047266 020124 888}82

SEQ 0088

CZDMRC MB203 STATIC DIAG #1

CZDMRC.P11
4375

13-MAR

040517
052117

052103
051440

047040
05210

012514
012522
0125
0125
012544
012552

047516
04050
047125
052117
051101
020131

020124
04253
0511
041440
04;1 05
04 553

046103
000104
047040
042514
041040
000115

052117

051440

047125

4379

012575

125

4380

012626

012602
012610
012616

012632
012640

047516
040505
054502

047

14:40

.ASCIZ

PAGE 4-5

/OACT NOT SET/

.ASCIZ /OACT NOT CLEARED/

EM13:

_ASCIZ

/UNRR NOT CLEARED BY SOM/

051122

047040

EM14:

.ASCIZ

/UNRR NOT SET/

051116

020122

EM15:

.ASCIZ

/UNRR NOT CLEARED BY 0C/

051122

047040

EM16:

.ASCIZ

/UNRR NOT CLEARED/

020124
04;522
047440

052105

046103
020104
000103

052117
051101

041440
042105

042514
000

047516
000124

020124

042523

020131

EM17:

.ASCIZ

/IRDY NOT SET/

4381

012645

4382

012662
012670

051111
052117

054504
041440

047040
042514

EM18:

.ASCIZ

/IRDY NOT CLEARED/

4383

012703
012710

111
047516

044503
020124

020122
042523

EM19:

.ASCIZ

/ICIR NOT SET/

4384

012720
012726

041511
052117

051111
041440

047040
042514

EM20:

.ASCIZ

/ICIR NOT CLEARED/

4385

012741

111

041501

020124

042523

EM21:

.ASCIZ

/IACT NOT SET/

4386

012756

040511

052103

047040

EM22:

.ASCIZ

/IACT NOT CLEARED/

4387

012777

020111

EM23:

.ASCIZ

/DSSI NOT CLEARED/

EM24:

.ASCIZ

/DSSI NOT SET/

EM25:

.ASCIZ

/DSSI NOT CLEARED BY MST CLR/

012716

051101

0127646
012754

047516
000124

4391

013004
013012
013020
01 %26
34

01;825

052117

-t

4390

012764

4389

000124

012734

—m—aaanaa

4388

051101

106

042122

042105

041440
042105
o

012676

111

012652
012660

elelelelelelele]

’

012560

8} gg%

EM11:

??9 041501 020126 EM12:

4378

13-MAR-80

OBAL ERROR REPORT SECTION

012458
8} 206

4376 012507
4377

14:38

MACYT? 38:(1052)

051523

000

042514
000

047516
040505
051504
052(1)(1)5

020124
042522
044523
051440

046103
000104
047040
052105

106

051523

020111

111

041516

051117

EM26:

.ASCIZ

/INCORRECT DATA CHAR RCV'D/

051117

EM27:

.ASCIZ

/INCORRECT CRC BYTE RCV'D/

7
1

000

041516

052103

000

041440

SEQ 0089

4395

4397

ASRRERH

D d D

14:40

m7
PAGE 4=6

EM28:

.ASCIZ

/RSOM NOT CLEARED/

020715 EM29:

LASCIZ

/RSOM NOT SET/

EM30:

.ASCIZ

/REOM NOT CLEARED/

020??? EM31:

ASCIZ

/REOM NCT SET/

EM32:

LASCIZ

/TXDATA BIT NOT CLEARED/

EM33:

.ASCIZ

/TXDATA BIT NOT SET/

[N]

042523

047040
042514

042523

040524
047040
042514
000
052101
020124
042523

3264
01327,
—

4396

13-MAR-80

GL OBAL ERROR REPORT SECTION

047040
062514

KRR
FSEES

4394

D d d D e e
NN

4393

MACY11 30A(1052 )

052131
81928 023526

d b d d D e e

4392

imlelelelelelelelelelelelelelelelele)

CZDMRC MB203 S TATIC DIAG M
CZDMRC.P11
13-MAR
14:38

EM34:

LASCIZ

/RCV'D DATA MISCOMPARE/

4399

047516
040505

EM35:

LASCIZ

/BCC NOT CLEARED/

EM36:

.ASCIZ

/BCC NOT SET/

EM37:

.ASCIZ

/EBLK NOT CLEARED/

EM38:

.ASCIZ

/EBLK NOT SET/

EM39:

.ASCIZ

/RAB NOT CLEARED/

EM4O:

.ASCIZ

/RAB NOT SET/

EM41:

.ASCIZ

/0VRR NOT CLEARED/

EM&2:

LASCIZ

/0VRR NOT SET/

EM43:

LASCIZ

/SW PACK #1

EM4LS :

LASCIZ

/SW PACK #2 INCORRECT/

4408

- NN
= =

b d

WWSHON \Jg

020
041516
-

4407

4406

4405

4404

b e md

Ty
SRR 33258

020104
046440
050115

elelelelelelelelele]

4398

020062
051122

INCORRECT/

SEQ 0090

CZDMRC M8203 STATIC DIAG M

042522

014047

4416

014107

LASCIZ

14:40

/SW PACK #3 INCORRECT/

.ASCIZ /RCV SILO NOT CLEARED BY IC/

EM47:

.ASCIZ

/ASSEMB BIT COUNT INCORRECT/

EM48:

.ASCIZ

/0DD VRC PARITY BIT NOT SET/

EM49:

.ASCIZ

/0DD VRC PARITY BIT NOT CLEARED/

EMS0:

.ASCIZ

/EVEN VRC PARITY BIT NOT SET/

= N

n
&»H

— e

041115

042526

020116

042526

020116

EMS1:

.ASCIZ

/EVEN VRC PARITY BIT NOT CLEARED/

rS
>~

—

105

051126

13-MAR-8B0

RRAR

4615

328 SR R34S

014013

e \J) =

S IR 23378
<>§E

4414

N =

042117
o

013754

<
R

EM4S:

—

N —

NN
o &~

S
N

117

R® =

S nN

—d —_

1501

4440

g 835?83 051440 EM46:

4413

050043

013721
o (=

4412

:38

292990292990
o

461

44610

XN W
J

4409

SERRELEEREEE

CZDMRC.P11

N 7
PAGE 4~7
GLOBAL ERROR REPORT SECTION

MACY11 30A(1052)

000

040505

054504

EMS2:

.ASCIZ

/READY NOT SET AFTER AX REG WRITE/

042522

042101

020131

EMS3:

.ASCIZ

/READY NOT SET AFTER AX REG READ/

052440

042116

EMS4:

.ASCIZ

/TX UNDERRUN ERROR/

047516

EM60:

.ASCIZ

/RTS NOT SET/

047516

EM6S:

.ASCIZ

/RTS NOT CLEARED/

b e

4617

elelalelelelelele)

122

4618

014210

4619

014232

4620

014226

014240
014246

000104

054124

051105

052122

020124
052122

047522

020123

523
020123

000122

0001 24

SEQ 0091

CZDMRC MB203 STATIC D AG n

CZOMRC.P11

13-MAR

014262

6310
6316

4324

4426

01433

4£:38

MACY11 30A(1052)

000104

052502

027523

044514
044516

042516
020124

041126

14:40

GLOBAL ERROR REPORT SECTION

042522

2517

13-MAR-B0

8
PAGE 4-8

DH1:

.ASCIZ

BINBUS/OUTBUS REG &

052440
047111

DH2:

LASCIZ

/LINE UNIT INBUS REGS :/

DH3:

.ASCIZ

/REGI0

DH4:

LASCIZ

LASCIZ
LASCIZ
.ASCIZ

715/
716/
/LINE UNIT EXTENDED REGS :/

051525

000040

,l?SO;

020123

042(5)(2)8

030061

014344
014%

020040
030461

122

043505

014366

0518408

043505

031461

4427

014375

040

020040

051040

4428
4429
4630

014437
014442
014445

061
033061
116

000065
000
047111

020105

DH5:
DH6:
DH7:

4431

016477

10}

000
030130

030455

DH8:

LASCIZ

/AX0-15

4432

014536

820040

020040

054101

DH9:

LASCIZ

014566
014574

026463

020040
033061

BGNMSG

ERR1

PRINTB

#FMT1,#ADDRES ,MP(CSR

440

4454

32061

014602

4440
(3)
4441
(9)
(8)

014602
014602
014602
014602
014606

(6)

014616

(7)

000066

051040
020040

014612

013746
012746
012746
012746

SEQ 0092

043505
051048
02004

020040

000

REG11

REG14

REG15S

AX0-16

AX2=15

REG12

REGI¢

Ax1-15

AX2-16

REG13/

REG17/

Ax1-16/

AX3-15

Ax3-16/

.EVEN

002446
035622
011454
000003

ERR1::
MOV
MOV
MCV
MOV

MPCSR,-(SP)
OADDRES -(SP)
#EMT1,~(SP)
#3,-(5P)

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
1 3-MAR
14:38

MACYT1 30A(1052)
13-MAR-80 14:40 PAGE 4-9
GLOBAL ERROR REPORT SECTION

SEQ 0093

010600
104414

062706

000010

ENDMSG

L10002:

104423

BGNMSG

ERR2

PRINTB

#FMT1 ,#ADDRES ,MPCSR

ERR2::
MPCSR,~-(SP)

#ADDRES
, = (SP)
#FMT1,=(SP)

#3,-(5P)
SP,RO

CSPNTB

PRINTB

#FMT2

#10,SP

#FMT2 ,-(SP)

#1,-(SP)

SP.RO
CSPNTB

PRINTB

#FMT7 ,#DH1 ,REGNUM

#4,SP

REGNUM, - (SP)
#DH1 - (SP)

mn? -(SP)
,=(5P)

PRINTB

013746
013746
012746
012746
0600

#FMT3,GOODAT ,BADDAT
BADDAT ,~(SP)
GOODAT ,~(SP)

#FMT3, = (SP)

000010

PRINTX

#FMT4 ,#DH2 , #DH3

#DH3,~(SP)
#DH2 .~ (SP)

#FMT4,-(SP)

#3,-(SP)

PRINTX

#FMT5,LURT0,LURTT,LURT2,LURT3

LUR13,-(SP)
LUR1Z2,~(SP)
LURT1,-(SP)

LUR10,~(SP)

012746

#EMTS - (SP)
#5,-(SP)

CZDMRC &03 STATIC DIAG M

CZDMRC.P11

(3)

010602

015050

062

015054

012746

015072

104415

015046

4453

015054

(8)

(7)
(6)
(3)
(&)

4454

14:38

015044

(&)

(4)

015060
015064
015070

015074

015100

10441

012746
012746
01

014375

000006

015100
015106
015110
015116
015120
015126
015130

013746
013746
013746
013746
012746
012746
01

002320
002316
002314
002312
011613
5

(4)

015134

062706

000014

4455
(3)
(3)

4456
4457
4458
4459
4460
4461
(3)
L4662

(9)
(8)
(7)
(6)
(3)
(4)

(4)

015132

015140
015140
015140

104415

015142
015146
015152
015156
015162

015164

013746
012746
012746
012746

010600
104414

002446
035622
011454
000003

062706

000010

015172
015176
015202

012746
012746
010600

011464
000001

015206

062706

000004

(9)
(8)
(7)
(6)
(3)

015212
015216
015222
015226
015232

013746
013746
012746
012746
010600

002530
002532
011656
000003

(4)

015236

062706

000010

015242
015246
015252

013746
013746
012746

002406
002404
011506

(7)
6)
(3)
(4)

(4)

4664

(4)

4465

(9)
(8)
(7)

015172

015204

015212

01523%

015242

GLOBAL ERROR REPORT SECTION

PAGE 4=10

104414

SEQ 009

MOV

SP,RO

ADD

#14,5P

TRAP

PRINTX

#FMT9,#DH4

MOV

#FMT6,LUR14,LURTS,LUR16,LURT?

ADD

#6,SP

MOV
MOV
MOV
MOV
MOV
MOV
MOV

LUR17,=(SP)
LUR16,=(SP)
LUR1S.=(SP)
LUR%. =(SP)
#FMT6. -(SP)
-($P)
SP.RO

ADD

#14,5P

TRAP

(SMSG

MOV
MOV
MOV
MOV

MPCSR,
= (SP)
#ADDRES
, - (SP)
#FMT1,~(SP)
#3,-(SP)

TRAP

CSANTB

TRAP

ENDMSG

ERR3

PRINTB

#FMT1 _,#ADDRES ,MPCSR

#FMT2

A#FMT8,TMP1,TMPO

#FMT3,GOODAT ,BADDAT

SP.RO

ADD

#10,SP

MOV
MOV
MOV

#FMT2,~(SP)
#1,-(SP)
SP.RO

ADD

#4,SP

MOV
MOV
MOV
MOV
MOV

TTMPO.~(SP)
TMP1 . -(SP)
#FMTS, - (SP)
#3,-(5P)
SP.RO

ADD

#10,SP

MOV
MOV
MOV

BADDAT ,~(SP)
GOODAT.~ (SP)
#FMT3,=(SP)

TRAP

PRINTB

CSPNTX

ERR3::

TRAP

PRINTB

CSPNTX

L10003:

BGNMSG

PRINTB

#DHG = (SP)

#EMTO,
- (SP)
#2,-(5P)
SP.RO

TRAP

PRINTX

CSPNTX

MOV
MOV
MOV

MOV

015166

4463

14:40

104423

015142

015142
015142

13-MAR-80

011712
2

(11)
(10)
(9)
(8)
(7)
(6)
(3)
(%)

MACY11 30A(1052)

CSPNTB

(6)

(%)
(4)

015256
015262
015264

MACY11 30A(1052)
13-MAR-B0 14:40 PAGE 4-11
GLOBAL ERROR REPORT SECTION

000003
000010

014337
014310
011550
3

000010

010600
104415

002310
002306
002304
002302
011563
000005

062706

000014

012746
012746
012746
010600

014375
011712
000002

PRINTX

#FMT4 ,#DH2 , #DH3

PRINTX

#FMT5,LURT0,LURTT,LURT2,LURT3

PRINTX

HFM
, T9
#DH4

#FMTS,-(SP)
#5,-(SP)
SP,RO
CSPNTX

#14,SP

#OH4 = (SP)

#2,-(5P)

PRINTX

013746

LUR13,-(SP)
LUR12,-(SP)
LUR11,~(SP)
LUR10,-(SP)

#FMTS
= (SP)

104415

062706

SEQ 0095

% 3333333 3333333 5338

CZDMRC MB8203 STATIC DIAG #1
13-MAR
CZDMRC.P1T
14:38

#FMT6,LURT4,LURTS,LUR16,LURT7

SP.RO
CSPNTX
#6,SP

LUR1Z,=(SP)
LUR16.~(SP)
LUR1S
. =(SP)

.= (SP)
LUR14

#FEMT6,
- (SP)

#5,-(SP)
SP,RO

000014
014477
014445
011550
000003

CSPNTX

PRINTX

#FMT4 ,#DH7 ,#DH8

#14,5P

#DH8,~(SP)
#DH7 ,~(SP)

#EMTS
- (SP)

#3,-(SP)

CSPNTX

SGNON SS
RINY
— —

b
e
e
e
o
o
e
—

A AN
Y,
wvivwviwnan

elelelelelelelelele]

SP,RO

PRINTX

#FMT5,AX0.15,AX0.16,AX1.15,AX1.16

#10,SP

AX1.16,-(SP)

AX1.15,-(SP)
AX0.16,-(SP)
AX0.15,-(SP)

#FMTS ,-(SP)

SP.RO
CSPNTX

(4)
4672
(9)

0155
0155
0155

(3)

015552

(7)
(6)

000014

014536
011712
000002

01554
015546

(4)
015554
(4)
015556
4473 015;25
(11) 015
(10) 015566
(9)
015572
(8)
015576
(7)
015602
(6)
015606
(3)
015612
(4)
015614
(4)
015616
4474 015622
(3)
015622
(3)
015622
4475

4476
4477
4478
4479
4480
(3)
4481
(8)
(7)
(6)
(3)
(4)
(4)

015624
015624
015624
015624
015630
015634
015640
015642
015644

(9)
(8)
(7)
(6)
(3)
(4)
(4)
4483
(7)
(6)
(3)
(4)
(4)
4484
(9)
(8)
(7)
(6)
(3)
(4)

015650
015654
015660
015664
015670
015672
015674
015700
015700
015704
015710
015712
015714
015720
015720
015724
015730
015734
015740
015742

015650

MACY11 30A(1052)

13-MAR-B0

14:40

GLOBAL ERROR REPORT SECTION
PRINTX

PRINTX

8
PAGE 4=12

#FMTS,#DHS

#FMT6,AX2.15,AX2.16,AX3.15,AX3.16

ENDMSG

013746

002352
011717
000002

002446
035622
011454
000003

SEQ 0096

L10004:

BGNMSG

ERR4

PRINTB

#FMT10, SUBRP(C

; 533333333 533333 &

CZDMRC MB203 STATIC DIAG »
1 3-MAR
CZDMRC.PT
14:38

#14,5P

#DH9,=(SP)

#FEMTS,
=~ (SP)

:g.;(()sm

CSPNTX

#6,SP

AX3.16,-(SP)
AX3.15.=(SP)
Ax2.1g.-<sm
AX2.15.=(SP)

#EMT6,=(SP)

#5,-(SP)
SP.RO
CSPNTX

#14,SP

CSMSG

ERR4::
SUBRPC ,~(SP)
#FMT10.~(SP)
#2,-(SP)

PRINTB

#FMT1,#ADDRES ,MPCSR

SP.RO
CSPNTB
“.9

MPCSR,
= (SP)

#ADDRES
, = (SP)
#FMT1,~(SP)

#3,-(SP)

SP.RO

CSPNTB

PRINTB

#FMT2

#10,SP

#FMT2,~(SP)

1 ,-(SP)

PRINTB

#FMT7 ,#DH1 ,REGNUM

SP.RO
CSPNTB
#4,SP

REGNUM,
- (SP)

#DH1 ,-(SP)

#FMT?
= (SP)

#3,-(SP)
SP RO
CSPNTB

CZDMRC MB8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80
14:38

(4)

015744

062706

000010

(9)
(8)
(7)
6)

015750
0157564
015760
015764

012746
012746
012746
012746

014337
014310
011550
000003

(&)

015772

104415

485

(3)

(11)
(10)
(9)
(8)
(7)
(6)
(3)

(4)

015750

msng 01

015774

016000

016000
01
016010
016014
016020
016026
016030

016032

706

000010

013746
013746
013746
013746
012746
012746
010600

002310
002
002
g
01156

104415

01603% 062

000014

(8)
(7)

016040
016044

012746
012746

014375
011712

(3)

016054

4487
6)

(4)

016040
01

016056

015060

016064

012746
104415

706

000006

016064
016070
016076
016100
016106
016110
016114

013746
013746
013746
013746
012746
012746
01

002320
002316
002314
002312
011613

(4)

016120

062706

000014

016126
016130
016134
016140
016144

012746
012746
012746
012746
010600

014477
014445
011550
000003

4489

(9)
(8)
(7)
(6)
(3)
(%)

016116

016124

016146

104415

PRINTX

WFMT4,#DH2 ,#DH3

SEQ 0097

ADD

#10,SP

MOV
MOV
MOV
MOV

#DH3,=(SP)
#DH2
. =(SP)
mm'. -(SP)
-(ém

TRAP

CSPNTX

MOV

PRINTX #FMTS,LUR10,LURTT,LURT2,LURT3

#10,5P

MOV
MOV
MOV
MOV
MOV
MOV
MOV

LUR13,=(SP)
LUR12.=(SP)
LURTT .=(SP)
LUR10.=(SP)
#FMTS = (SP)
#5,-(5P)
SP.RO

ADD

#14,5P

MoV
MOV

#DH4 = (SP)
#EMTS - (SP)

MOV

[ 73 -(SP)

TRAP

CSPNTX

TRAP

PRINTX

A#FMT9,#DH4

PRINTX #FMT6,LUR14,LURTS,LUR16,LURT7

#FMT4 ,#DH7 ,#DH8

CSPNTX

SP.RO

ADD

#6,SP

MOV
MOV
MOV
MOV
MOV
MOV
MOV

LUR17,=(SP)
LUR16.,=(SP)
LUR1S.=(SP)
LUR14.=(SP)
#FMT6.~(SP)
#5,-(5P)
SP.RO

ADD

#14,5P

MOV
MOV
MOV
MOV
MOV

#DH8,~(SP)
#DH7.- (SP)
#FEMTS, - (SP)
#3,-(5P)
SP.RO

ADD

#10,SP

MOV
MOV
MOV
MOV

AX1.16,~(SP)
AX1.15.-(5P)
AX0.16.~-(SP)
AX0.15.~(5P)

TRAP

PRINTX

ADD

MOV

(11)
(10)
(9)
(8)
(7)
(6)
(3)
(4)

G 8
MACY11 30A(1052)
13-MAR-B0 14:40 PAGE 4-13
GLOBAL ERROR REPORT SECTION

TRAP

CSPNTX

(4)

016150

(11)
(10)
(9)
(8)

016154
016160
016164
016170

013746
013746
013746
013746

002330
002326
002324
00232

(6)
(3)

016200
016204

012746
010600

000005

MOV
MOV

#5,-(SP)
SP.RO

016210

062706

000014

ADD

#14,SP

016214

012746

014536

MOV

#DH9,
-~ (SP)

4490

(7)

(4)

4491

(8)

016154

016174

016206
016214

012746
104415

000010

PRINTX

#FMTS,AX0.15,AX0.16,AX1.15.AX1.16

01156

MOV

TRAP

PRINTX

#FMTS,#DH9

#EMTS, -(SP)
CSPNTX

7
(6)

SEQ 0098

011712
000002

(4)
PRINTX

#FMT6,AX2.15,AX2.16,AX3.15,AX3.16

ENDMSG

013746
012746
012746
012746
0600

002446
035622
011454
000003

000010
002410
002400
011750
000003

L10005:

BGNMSG

ERRS

PRINTB

#FMT1 ,#ADDRES ,MPCSR

PRINTB

#FMT11,REGNUM, LOADAT

HFMT2

§ S§2233933 83338

CZDMRC.P

MACY11 30A(1052)
13-MAR-80 14:40 PAGE =14
GLOBAL TRROR RtFORT SECTION
#FMTO, = (SP)

02 -($P)

SP RO

CSPNTX

#6,SP

AX3.16,-(SP)
AX3.15,=(5P)
AX2.16,=(SP)
AX2.15,=(SP)
#FMT6,-(SP)

#5,-(SP)
SP,RO
CSPNTX

#4,SP

CSMSG

ERRS::

3 533333 3333 g

CZOMRC MZOS STAHC 0 AG1013‘

MPCSR,~(SP)

#ADDRES, - (SP)
#FMT1,=(SP)

#3,-(5P)
SP,RO

CSANTB

#10,sP

LOADAT ,~(SP)
REGNUM,
- (SP)
#FMT11,-(SP)
#3,-(SP)
”'m
CSPNTB

#10,SP

#FMT2,-(SP)
#1,-(SP)

9'”
CSPNTB

PRINTB

#FMT8, TMP1, TMPO

#4,SP

TMPQ,~(SP)
TMP1 ,~(SP)

#FMT8, - (SP)
#3,-(5P)
S’P'RO
CSPNTB

PRINTB

#FMT3,GOODAT ,BADDAT

CZDMRC MB203 STATIC D AG 01

CZOMRC.P11
(9)
(8)
(7)
(6)
(3)

13-MAR

4:38

MACY11 30A(1052)

13-MAR-B0

14:40

GLOBAL ERROR REPORT SECTION

PAGE 4-15

SEQ 0099

016432
016436
016442
owu.s
016452

013746
013746
012746
012746
01

002406
002404
011506

MOV
MOV
MOV
MOV
MOV

BADDAT ,=(SP)
GOODAT. =(SP)
#EMT3, = (SP)
#3,-(5P)
SP.RO

016456

062

000010

ADD

#10,5P

012746

014337

MoV

#DH3,=(SP)

(7)
(6)
(3)

016472
016476
016502

012746
012746
01

011550
3

MOV
MOV
MOV

#FMT4
= (SP)
#3,-(5P)
SP.RO

000010

ADD

#10,5P

MoV
MOV
MOV
MOV
MOV
MOV
MOV

LUR13,=(SP)
LUR12.=(SP)
LURTT .=(SP)
LUR10.=(SP)
#EMTS =(SP)
.~(5P)
SP.

ADD

#14,5P

MOV
MOV
MOV
MOV

#DH4 , = (SP)
#FMTS - (SP)
#2,-(SP)
SP.RO

ADD

#6,SP

MOV
MOV
MOV
MOV
MOV
MOV
MOV

LUR17,=(SP)
LUR16.~(SP)
LUR1S.=(SP)
LUR14.=(SP)
#FMT6
.~ (SP)
.~(5P)
SP.RO

ADD

#14,5P

MOV
MOV
MOV
MOV
MOV

#DH8, - (SP)
#DH7.~ (SP)
#FMTS - (SP)
#3,-(SP)
SP.RO

ADD

#10,SP

MOV
MOV
MOV
MOV
MOV

AX1.16,~(SP)
AX1.15.-(SP)
AX0.16.~(SP)
AX0.15.~(SP)
#FMTS,=(SP)

(&)

(4)

4505

(8)

(4)

(%)

4506

016456
01

016504

016506

104414

012746

104415

01651
016512
016516
016522
016526
016532
016536
016542

013746
013746
013746
013746
012746
012746
01

(4)

016546

062706

000014

(8)
(7)
(6)
(3)

016552
016556
016562
016566

012746
012746
012746
01

014375
011712
000002

(4)

016572

062706

000006

(11)
(10)
(9)
(8)
(7)
(6)
(3)

016576
016602
016606
016612
016616
016622
016626

013746
013746
013746
013746
012746
012746
010600

002320
002316
002314
002312
011613

016632

062706

000014

(9)
(8)
(7)
(6)
(3)

016636
016642
016646
016652
016656

012746
012746
012746
012746
010600

014477
014445
011550
000003

(4)

016662

(11)
(10)
(9)
(8)
(7)

016666
016672
016676
016702
016706

4507

(4)

4508

(2)

(4)

4509

(4)

4510

016544

016552

016570

016576

016630

016636

016660

016666

104415

013746
013746
013746
013746
012746

PRINTX

#FMT4 ,#DH2 ,#DH3

014310

(11)
(10)
(9)
(8)
(7)
(6)
(3)
(&)

TRAP

002310

MOV

TRAP

PRINTX

#FMTS,LUR10,LURT1,LUR12,LURT3

002302
011563

000010
002330
002326
002324
00232
01156

TRAP

PRINTX

#FMT9,#DH4

TRAP

PRINTX

#FMT6,LUR14,LUR1S,LUR16,LUR17

TRAP

PRINTX

#FMT4 ,#DH7 ,#DH8

TRAP

PRINTX

#FMTS,AX0.15,AX0.16,AX1.15,AX1.16

CSPNTB

#DH2
.= (SP)

CSPNTX

CZDMRC MB203 STATIC DIAG #1

CZDMRC.P11

13-MAR

14:38

MACY11 30A(1052)

13-MAR-B0

14:40

GLOBAL ERROR REPORT SECTION

8
PAGE 4~16

SEQ 0100

(6)
(3)

016712
016716

012746
01

000005

MOV
MOV

#5,-(SP)
SP.RO

(4)

016722

062706

000014

ADD

#14,5P

016

012746

014536

MOV

#DHY,
= (SP)

(&)

4511

7))
6)
(3)

(%)

4512

016720

016726

016
016736
016742
016744

016746

01675

10441

012746
012746
01
104415

(11)
(10)
(9)
(8)
(7)
6)
(3)

016752
016756
016762
016766
016772
016776
017002

013746
013746
013746
013746
012746
012746
01

(4)

017006

062706

(4)

4513
(3)
(3)
4514
4515
4516
4517
4518
4519
(3)
4520

(8)
(7)
(6)
(3)

017006

017012
017012
017012

017014
017014
017014

104415

#EMTS,
= (SP)
#2,-(5P)
SP.RO

000006

ADD

#6,SP

MoV
MOV
MOV
MOV
MOV
MOV
MOV

AX3.16,=(SP)
AX3.15.-(SP)
AX2.16.=(SP)
AX2.15.=(SP)
#FMT6,
= (SP)
#5,-(5P)
SP.RO

ADD

#14,SP

TRAP

(CSMSG

MOV
MOV
MOV
MOV

SUBRPC ,~(SP)
#FMT10. -(SP)
#2,-(SP)
SP.RO

ADD

#6,SP

MOV
MOV
MOV
MOV
MOV

MPCSR,~(SP)
#ADDRES
, - (SP)
#FMT1 ,-(SP)
#3.-(5P)
i

ADD

#10,SP

MoV
MOV

#FMT2,~(SP)
#1.,-(5P)

002340
002336
002334

000014

062706

000006

(9)
(8)
(7)
(6)
(3)

017040
017044
017050
017054
017060

013746
012746
012746
012746
01

002446
035622
011454
3

(4)

017064

062706

000010

(7)
(6)

017070
017074

012746
012746

011464
000001

(%)

017102

104414

(%)

4522

(3)

(4)

4523

(9)
(8)
(7)

017040

017062

017070

017100

104414

010600

W#FMT6,AX2.15,AX2.16,AX3.15,AX3.16

TRAP

ENDMSG

L 10006:

BGNMSG

ERR6

PRINTB

#FMT10,SUBRPC

TRAP

PRINTB

#FMT1,#ADDRES ,MPCSR

TRAP

PRINTB

#FMT?2

062706

000004

017110
017114
017120

013746
013746
012746

002530
002532
011656

TRAP

PRINTB

#FMT8,TMP1,TMPO

CSPNTX

ERRG::

MOV

017104

017110

PRINTX

104423

017034

4521

TRAP

011613
5

002352
011717
000002

017032

#FMT9,#DH9

MOV
MOV
MOV

013746
012746
012746
010600

(4)

PRINTX

CSPNTX

011712
000002

017014
017020
017026
017030

(%)

TRAP

CSPNTB

SP.RO

CSPNTB

ADD

#4,SP

MOV
MOV
MOV

TTMPQ,~(SP)
TMP1 . ~(SP)
#FMT8,~(SP)

MACY11 30A(1052)

13-MAR-80

14:40

GLOBAL ERROR REPORT SECTION

8
PAGE 4=17

01 71% e 000003
017124

—

000010

014337
014310
011550
3
000010

002310
002306
002304
002302
011563
000005
000014

014375
011712
000002

PRINTX

WFMT4 ,#DH2 , #DH3

PRINTX

#FMT5,LURT0,LURTT,LURT2,LUR13

PRINTX

#FMT9
, #DH4

PRINTX

#FMT6,LURT4 LURTS5,LUR16,LURT7

SEQ 0101

% 3333338 3333338 338

CZDMRC M8203 STATIC D AG M
CZDMRC.P11
13-MAR
14:38

LUR13,~(SP)
LUR12,=(SP)
LURT1,=(SP)
LUR10,-(SP)

#FMTS5 ,~(SP)
.

=(SP)

LUR17 ,-(SP)
LUR16,-(SP)
LUR1S5,=(SP)
LUR14,~(SP)

#FMT6,~(SP)

SP,

000014
014477
014445
011550
000003

PRINTX

#FMT4 ,#DH7 ,#DH8

CSPNTX
#14,SP

#DH8 ,~(SP)
#DH7 ,~(SP)

#FMTS
- (SP)

#3,-(SP)

PRINTX

#FMT5 ,AX0.15,AX0.16,AX1.15,AX1.16

AX1.16,-(SP)

AX0.16,-(SP)
AX0.15,-(SP)

CZDMRC MB203 STATIC D AG 01

CZDMRC.P11T

13-MAR

4:38

(4)
4530
9)
(7)
6)
(3)

017400
174604
17406
0172410
017414
0174

062706

000014

012746
012746
81 7646
1osog

0145
01177
000002

(4)

017626

062706

000006

(11) 017430
<1o> 017434
(9) 017440
(8) 017644
(7) 017450
(6) 017454
(3) 017460

013746
013746
013746
013746
012746
012746
01

002340
002336
002334
002332
011613

(4)

062706

000014

(4)

017422

4531

0174

(4)

017462

4532
(3)
(3)
4533
4534
4535
4536
4537
4538
(3)
4539

(9)
(8)
(7)
(6)
(3)

017464

017470
017470
017470

017472
017472
017472

10441

104415

013746
012746
012746
012746
010600

002446
035622
011454
000003

017516

062706

000010

(7)
(6)
(3)

017522
017526
017532

012746
012746
010600

011464

017536

(4)

4540

(4)

4541

(9)
(8)
(7)
6)
(3)

(4)

(4)
4542
(9)

(8)
(7)
(6)

(3)

017514

017522

017534

017542
017542
017546
017552
017556
017562

017564

017566
017572
017572

017576
017602
017606

017612

13-MAR-80

14:40

GLOBAL ERROR REPORT SECTION
PRINTX

PAGE 4-18

104414

000004

013746
012746
012746
012746
01

0024
014266
011646

062706

000010

012746

014337

104414

012746
012746
012746

014310
011550
3

SEQ 0102

#FMT9,#DH9

ADD

#14,5P

MOV
MOV
MOV
MOV

#DHY, = (SP)
#FMTS, - (SP)
#2,-(5P)
SP.RO

ADD

#6,SP

MoV
MOV
MOV
MOV
MOV
MOV
MOV

AX3.16,-(SP)
AX3.15.=(SP)
sz
12T=(SP)
2.15.=(SP)
mnb,-<sm
#5,-(SP)
SP.RO

ADD

#14,5P

TRAP

CIMSG

MOV
MOV
MOV
MOV
MOV

MPCSR,~(SP)
#ADDRES, - (SP)
#FMT1,-(SP)
#3,-(5P)
SP.RO

ADD

#10,SP

MOV
MOV
MOV

#FMT2,~(SP)
#1,-(SP)
SP.RO

ADD

#4,SP

MOV
MOV
MOV
MOV
MOV

REGNUM,
= (SP)
#DH1 ,~(SP)
#FMT?
= (SP)
#3,-(SP)
SP.RO

ADD

#10,SP

MOV
MOV
MOV
MOV

#DH3,~(SP)

TRAP

PRINTX

#FMT6,AX2.15,AX2.16,AX3.15,AX3.16

TRAP

ENDMSG

BGNMSG

ERR7

PRINTB

#FMT1 _,#ADDRES ,MPCSR

#FMT2

TRAP

PRINTB

#FMT7 ,#DH1 ,REGNUM

TRAP

PRINTX

CSPNTX

ERR7::

TRAP

PRINTB

CSPNTX

L10007:

104423

017472
017476
017502
017506
017512

(%)

MACY11 30A(1052)

#FMT4 ,#DH2 ,#DH3

MOV

CSPNTB

-(SP)

#FMTS
- (SP)
#3,-(SP)
RO

CZDMRC M8203 STATIC D AG 01

CZDMRC.P11
%)

(4)

017614

13-MAR

104415

4:38

017616

062706

000010

1) 017
(10) omgg
(9) 017632
(8) 017636
(7) 017642
(6)
017646

013746
013746
013746
013746
012746
012746

002310
002306
002304
00230
01156
000005

4543 0172%3

(3)

(4)

017652

017656

104415

017656

062706

000014

(8)
(7)
(6)
(3)

017662
017666
017672
017676

012746
012746
012746
01

014375
011712
000002

(4)

017702

062706

000006

017706
017712
017716
017722
017726
017732
017736

013746
013746
013746
013746
012746
012746
01

002320
002316
002314
00231
01161

0177642

062706

000014

017746
017752
017756
017762
017766

012746
012746
012746
012746
0

014477
014445
011550
000003

(4)
4547
(11)
(10)
(9)
(8)
(7)
(6)
(3)

017772
017776
017776
020002
020006
020012
020016
020022
020026

062706

000010

013746
013746
013746
013746
012746
012746
010600

002330
002326
002324
00232
01156
000005

(4)
4548
(8)

020032
020036
020036

062706

000014

012746

014536

4544

4545

(11)
(10)
(9)
(8)
(7)
(6)
(3)
(%)

(4)

4546

(9)
(8)
(7)
(6)
(3)
(4)

(4)

(7)

(6)
(3)

(4)
(4)
4549
(11)

017662

017706

017740

017746

017770

020030

020042

020046
020052

020054
020056

020062
020062

104415

012746

012746
010600

MACY11 30A(1052)

13-MAR-80

14:40

GLOBAL ERROR REPORT SECTION

8
PAGE 4=19
TRAP

PRINTX #FMTS,LUR10,LURT1,LUR12,LURT3

PRINTX

A#FMT9,#DH4

000006

013746

002340

#10,SP

MOV
MOV
MOV
MoV
MOV
MOV

LUR13,=(SP)
LUR12.=(SP)
LURT1.=(S5P)
LUR10.=(SP)

#FMT6,LUR14,LURTS,LUR16,LURT7

#5,-(5P)
SP.RO

ADD

#14,SP

MOV
MOV
MOV
MOV

#DH4 , = (SP)
#FMTO,
= (SP)
#2,-(SP)
SP.RO

ADD

#6,SP

MOV
MOV
MOV
MOV
MOV
MOV
MOV

LUR17,=(SP)
LUR16.=(SP)
LUR1S.~(SP)
LUR1%.=(SP)
#FMT6.
- (SP)
#5,-(S5P)
SP.RO

ADD

#14,5P

MOV
MOV
MOV
MOV
MOV

#DH8, - (SP)
#DH7 .= (SP)
#FMTS - (SP)
#3,-(SP)
SP.RO

ADD

#10,SP

MOV
MOV
MOV
MOV
MOV
MOV

AX1.16,~(SP)
AX1.15.-(SP)
AX0.16.-(SP)
AX0.15.-(SP)
#FMTS,=(SP)
#5.-(5P)

TRAP

PRINTX

#FMT
, #DH7 ,#DH8
4

TRAP

PRINTX

#FMTS,AX0.15,AX0.16.AX1.15,AX1.16

#FMT9,#DH9

#FMT6,AX2.15,AX2.16,AX3.15,AXx3.16

CSPNTX

MOV
TRAP
ADD

SP.RO
CSPNTX
#14,5P

MOV

#DH9,~(SP)

MOV

PRINTX

#EMTS =(SP)

MOV

TRAP

PRINTX

CSPNTX

ADD

TRAP

011712

104415
062700

SEQ 0103

#FMTO
- (SP)

MOV
MOV

#2.,-(SP)
»

MOV

AX3.16,-(SP)

TRAP
ADD

CSPNTX
.SP

CZDMRC M8203 STATIC DIAG #1

CZDMRC .P11

13-HIR-‘0 14:38

§1§m 885;

(9)

(8)
(7
6)

1
106

(%)

116

GLOBAL ERROR REPORT SECTION

1161

MOV
MOV
MOV

10441

000014

020124
020130
020134
020140

013746
012746
012746
010600

002352
011717
2

(4)
4558
(9)
(8)
(7)
(6)
(3)

020144
020150
020150
020156
020160
020164
020170

062706

000006

013746
012746
012746
012746
010600

002446
035622
011454

(4)

020174

062706

000010

(7)
(6)
(3)

020200
020206
020210

012746
012746
010600

011464
000001

(4)
4560
(9)
(8)
(7)
(6)
(3)

027214
020220
020220
0202264
020230
020234
020240

062706

000004

013746

002400

(%)

4559

(4)

(4)
(4)
4561

(9)
(8)
(7)
(6)
(3)

(4)
(4)
4562

020172

020200

020212

020242
020244
020250
020250
020254
020260
020264

020270

020272
020274
020300

MOV

TRAP

ENDMSG

104414

012746
012746
012746
010600

104414
062706

013746
013746
012746
012746
010600

104414
062706

BGNMSG

ERRS

PRINTB

#FMT10, SUBRPC

#FMT1,#ADDRES ,MPCSR

#FMT2

#FMT7 ,#DH1 ,REGNUM

014266
011646
000003
000010

002406
002404
011506
000003
000010

PRINTB

#FMT3,GOODAT ,BADDAT

PRINTX

CSPNTX

TRAP

CSMSG

MOV
MOV
MOV
MOV

SUBRPC ,~(SP)
#FMT10.~(SP)
#2,-(SP)
SP.RO

ADD

#6,SP

MOV
MOV
MOV
MOV
MOV

MPCSR,=(SP)
#ADDRES
, = (SP)
#FMT1,-(SP)
#3,-(5P)
SP.RO

ADD

#10,SP

MOV
MOV
MOV

#FMT2,~(SP)
#1,-(5P)
SP.RO

ADD

#4,SP

MOV
MOV
MOV
MOV
MOV

REGNUM,
= (SP)
#DH1,~(SP)
#FMT?
- (SP)
#3,-(SP)
SP.RO

ERRS:
:

_
PRINTB

SP,RO

#14,5P

TRAP

PRINTB

AX2.15.=(SP)
#FEMT6, = (SP)
#5,-(5P)

ADD

TRAP

PRINTB

AX3.15,=(SP)

Axg.1g.-<sm

L10010:

104423

020124

020142

SEQ 0104

MOV

(8)
(7)
(6)
(3)
(4)

8
PAGE 4-20

13746
015746
012746

062706

020124
020124

MOV

(4)

02012
02012
020122

14:40

0023

4550
(3)
(3)
4551
455
455
4554
4555
4556
(3)
4557

13-MAR-B0

13746

(3) 8%8"
020116

MACY11 30A{1052)

#FMT4 ,#DH2 ,#DH3

TRAP

CSPNTB

TRAP
ADD

C$SPNTB
#10,SP

MOV
MOV
MOV
MOV
MOV

BADDAT
, = (SP)
GOODAT
.~ (SP)
#FMT3,
= (SP)
#3,-(SP)
SP_RO

iRAP
ADD

CSPNTB
#10,SP

CZDMRC MB203 STATIC DIAG #1
CZOMRC.P11T
1
14:38

(9)
(8)
(7)
(6)

020300
020304
020310
8583"’

012746
012746
012746
012746

(4)

020322

10441

(3)
(%)

320 010502

000010

020330
020334
020
020344

013746
013746
013746
013746

002310
002306
002304
oozsog

(6)
(3)

020356
020360

012746
01

000005

(4)

020364

062706

000014

(8)
(7)
(6)

020370
020374
020400

012746
012746
012746

014375
011712
000002

(4)

020406

(7)

(4)

4564

(3)

0203

020350

020362

020370

020404

012746
104415

104415

020410 062

000006

(11)
(10)
(9)
(8)
(7)
(6)
(3)

020414
020420
020426
020430
020434
020440
020444

013746
013746
013746
013746
012746
012746
010600

002320
002316
002314
002312
011613

(4)

020450

062706

000014

(9)
(8)
(7)
(6)
(3)

020454
020460
020464
020470
020474

012746
012746
012746
012746
01

014477
014445
011550
000003

(4)

020500

(4)

4566

(4)

020414

020446

020454

020476

4567 020504
(11) 020504
(10) 020510

104415

(9)
(8)
(7)
(6)
(3)
(4)
(4)

020514
020520
0205264
020530
020534
020536
020540

013746
013746
013746
013746
012746
012746
01
104415
062706

(8)
(7)
(6)

020544
020550
020554

012746
012746
012746

4568

(020544

PRINTX

#FMTS,LUR10,LURT1,LUR12,LURT3

01156

(4)

4565

MOV
MOV
MOV
MOV

#DH3,=(SP)
#DH2
= (SP)
#EMTS,
- (SP)
#3,-(5P)

TRA®

CSPNTX

MOV

062706

(11)
(10)
(9)
(8)

SEQ 0105

o14§37
014310
01155

020%'6

4563

B 9
MACY11 30A(1052)
13-MAR-B0 14:40 PAGE 4=21
GLOBAL ERROR REPORT SECTION

PRINTX

#10,5P

MOV
MOV
MOV
MOV

LUR13,=(SP)
LUR12.=(SP)
LURTT.=(SP)
LUR10.=(SP)

MOV

"HTS -(SP)

MOV
MOV

#5,-(5P)
SP.RO

ADD

#14,5P

MOV
MOV
MOV

#DHG = (SP)
#EMT, - (SP)
#2,-(SP)

TRAP

PRINTX

#FMT6,LUR14,LURTS,LURT6,LURT7

PRINTX

#FMT4
, #DH7 ,#DHS

‘

#FMTS,AX0.15,AXC.16,AX1.15,AX1.16

PRINTX

#FMT9,#DH9

SP.RO

CSPNTX

#6,5P

MOV
MOV
MOV
MOV
MOV
MOV
MOV

LUR17,=(SP)
LUR16.=(SP)
LUR1S.=(SP)
LUR1%,=(SP)
#FMT6. ~(SP)
#5,-(SP)
SP.RO

ADD

#14,5P

MOV
MOV
MOV
MOV
MOV

#DH8,
- (SP)
#DH7 .- (SP)
#FMTS
- (SP)
#3,-(SP)
SP.RO

ADD

#10,SP

MOV
MOV
MOV
MOV
MOV
MOV
MOV
TRAP
ADD

AX1.16.=(SP)
AX1.15.~(SF)
AX0.16.~(SP)
AX0.15.-(SP)
#FMTS,=(SP)
#5.-(SP)
SP.RO
CSPNTX
#14,5P

MOV
MOV
MOV

#FMTS - (SP)

TRAP

PRINTX

CSPNTX

ADD

TRAP

002330
002326
002324
32
011563

014536
011712
000002

ADD

MOV

000010

000014

#FMTQ,#DH4

SP,RO

CSPNTX

#DH9, - (SP)

#2,-(SP)

(4) 020223
0503
4569
020570
(11) 020570
(10) 020574

(7)
(6)

(4)

MACY11 30A(1052 )

13-MAR-B0 14:40 PAGE 4=22
GLOBAL ERROR REPORT SECTION

PRINTX

SEQ 0106

333338 333

CZDMRC MB203 STATIC DIAG M
CZDMRC.P11
13-MAR
14:38

WFMT6,AX2.15,AX2.16,AX3.15,AX3.16

020600
020604
020610
020614

020620

MOV

020622

ADD

ENDMSG

013746
012746
012746
012746
010600

L10011:

BGNMSG

ERR9

PRINTB

#FMT1,#ADDRES ,MPCSR

012746
012746
01 0600

013746

AX2.16,=(SP)
AX2.15,=(SP)
#FMT6,=(SP)

#5,-(SP)
SP,RO
CSPNTX

#4,SP

CSMSG

:
ERR9:
MPCSR,-(SP)

#FMT1,-(SP)

#3,-(SP)

CSPNTB

PRINTB

#FMT2

#10,sP

#FMT2 ,-(SP)
#1,-(SP)
SP.RO

104414

062706

AX3.16,-(SP)
AX3.15,-(SP)

#ADDRES ,~(SP)

104414

062706

SP,RO
CSPNTX
#6,5P

CSPNTB

PRINTB

#FMT7 ,#DH1,REGNUM

#6,SP

REGNUM,
- (SP)

#DH1 ,-(SP)

#FMT?,=(SP)
#3,-(SP)

4581
020762
(11) 020762
(10) 020766

013746
013746

PRINTX

#FMT4 ,#DH2 ,#DH3

PRINTX

#FMT5,LUR10,LURTT,LURT2,LURT3

LUR13,-(SP)
LUR12,=(SP)

CZDMRC.P11
(9
(8)

13-MAR

772
776

013746
013746

4£:38

MACY11 30A(1052)

13-MAR-B0

14:40

GLOBAL ERROR REPORT SECTION

9
PAGG 4=23

SEQ 0107

00230§

(©
015748 000003
@ 108 o
(%)
(4)

1016

021016

4582
(8)
(7)
(6)
(3)
(4)

021 8%5
021
021026
021032
021036
021040

4583
(11)
(10)
(9)
(8)
(7)
(6)
(3)
(4)
(4)
4584
(3)
(3)
4585
4586

021046
021046
021052
021056
021062
021066
021072
021076
021100
021102
021106
021106
021106

(4)

4587
4588

021042

10441

062706

000014

012746
012746
012746
01
104415

014375
011712
000002

062

000006

013746
013746
013746
013746
012746
012746
01
104415
062706

002320
002316
002314
002312
011613

PRINTX

#FMT6,LURT4,LURTS,LURT6,LURT7

000014
ENDMSG

104423

#FMT9,#DH4

L10012:

; gpaaaaess §§§§§§ 5333333

CZDMRC MB203 STATIC D AG 01

LURT1,=(SP)
LUR10.=(SP)
#FMTS

= (SP)

SP.RO
CSPNTX

#14,5P

mné -(SP)
-(SP)

#2,-(5P)
SP.RO
CSPNTX

LUR17,=(SP)
LUR16.=(SP)
LUR1S,=(SP)
LUR14.=(SP)

#FMT6
. ~(SP)

#5,-(SP)
w'm
CSPNTX

#14,SP

CSMSG

CZDMRC M8203 SYAT!C D AG C‘l

CZDMRC.PTT

13-MAR

2281

4£:38

MACY11 30A(1052)

REPORT CODING SECTION
.SBTTL

459

13-MAR-80

14:40

PAGE 4=24

SEQ 0108

REPORT CODING SECTION

4594
4595

//////////////////////////////////////////////////////////////////////////
THE REPORT coomc SECYIO‘ CONTAINS THE

22?”

////////////////////////////////////////////////////////////////////////

'/ "PRINTS'' CALLS
THAT GENERATE STATISTICAL REPORTS.

4599
(3)

021110
021110

BGNRPT

4601
(3)
(3)
4602
4603

021110
021110
021110

ENDRPT

4604
4605

104425

LSRPT::
L10013:

TRAP

CSRPT

§§
Tl

lalal

FfigOS STATIC DIAG #1

13-“-&0 14:38

MACY11 30A(1052)

13-MAR-B0

14:40

LOAD DEVICE PROTECTION TABLE
.SBTTL

PAGE 4=25

SEQ 0109

LOAD DEVICE PROTECTION TABLE

SIHITTITIIITITITITIILIIIIIT
LTI T 20 70070700007 07007077077070770777771720777777¢7
s/ THIS TABLE IDENTIFIES THE LOAD DEVICE TO THE SUPERVISOR, SO THAT IT CAN BE
:/ PROTECTED FROM TESTING, IF DESIRED.
SHIITITITTITITIIT 777070000700 7707777770770777707777777777777777707277777777717

02111
02111
021112
021114
021116

021120

BGNPROT

177777
177777
177777

LWORD
JWORD
LWORD

ENDPROT

-1
-1
=1

;DON'T CHK CSR ADRS
;DON'T CHK MASSBUS UNIT NO.
;DON'T CHK DRIVE NO.

LSPROT::

CZDMRC FBZOB STATIC DIAG M

CZDMRC.PT

13-MAR-80

14:38

MACY11 30A(1052)
13-MAR-80
INITIALIZE SECTION
.SBTTL

14:40

PAGE 4=26

SEQ 0110

INITIALIZE SECTION

SIVITIIITIITIITIIZIITIITIITTI
7777077000777 7070777700777077777777277717
/ THE INITIALIZE SECTION CONTAINS THE CODING THAT IS PERFORMED

/ AT THE BEGINNING OF THE TEST SEQUENCE ON

HE NEXT

UNIT.

NTFRZRERENY 33

/////////////////////////////////////////////////////////////////////
BGNINIT

MOV

SP ,PSTACK

CLR
CLR
CLR
CLR
CLR

SUBRP(
DISILO
CHPTYP
ERROR1
SAVLEN

MOV

a#6 ,SAVES

TST

002414
002416

LSINIT::

FRSTIM

6%:

012737

002412

sSAVE BASE-LEVEL STACK POINTER
sCLEAR SUBR CALL PC
:CLEAR CURRENT STATE OF DISSI
sCLEAR USYRT CHIP TYPE INDICATOR

;CLEAR ERROR FLAG
sCLEAR CHAR LENGTH FROM SETUP
:SEE IF FIRST TIME THROUGH AFTER LOAD
:BI
R
F NOT
sSAVE ERROR TRAP VECTOR
JRESTORE ERROR TRAP VECTOR

#1,FRSTIM
MOV
sMARK FLAG FOR NEXT TIME THROUGH
PROGRAM
IF
JUST STARTED, BR IF YES
E
;SE

9%:

READEF

012700

#EF .START

104447
BCOMPLETE

103415

021226
021226
021232
021234
021234

012700

104447

;SEE IF PROGRAM JUST RESTARTED, BR IF YES
READEF

000037

104447

READEF

104447

NEWST

;SEE IF PROGRAM WAS JUST CONTINUED
READEF

000036

005037

002444

021264

005037

002434

021270
021276

012737
005237

177777
002444

002344

ENDIT

GETPRM

STARST:

CLR
STARES
;CLEAR DEVICE MAP
CLR
DEVMAP
NEWST:

MOV
INC

B8(CS

STARST

MOV
TRAP

#EF .RESTART
RO

B8(sS

STARST

MOV
TRAP

#EF .NEW_RO
CSREFG

BCS

NEWST

MOV

#EF . CONT INUE ,.RO

BCS

ENDIT

CSREFG

#EF . CONT INUE

BCOMPLETE

103504
000414

#EF .START
,RO
CSREFG

#EF .NEW

BCOMPLETE

103411

012700

STARST

;SEE IF THIS IS A NEW PASS, BR IF YES
000035

TRAP

#EF .RESTART

BCOMPLETE

103411

012700

STARST

MOV

#-1,L0GDEV
STARES

TRAP

;CLEAR FLAG TO SHOW JUST HAD STA OR RES

JRESET LOGICAL DEVICE TO -1
:INCR NO. OF PASSES SINCE STA OR RES

CSREFG

CZDMRC MB203 STATIC DIAG 01”
CZOMRC.PT
13-MAR
4669
4670
4671
4672

467

4674
4675
4676
(3)
(3)
(3)

021302

021310

0%1 10

012737

005237

013700
104442
010001

(2)
4678
4679
4680
4681
4682
4683
4684
4685
4686
4687
4688
4689
4690

021334
021336
021342
021344
021352
021356
021362
021366
021372
021376
021404
021410
021414
021422

103403
006337
00076;
05373
337
701
011137
011137
5237
013737
005237
011137
062737
012137

4692
4693
4696
4695
4696
4697
4698
4699
(3)
(3)
4700
4701
4702
4703

021434
021440
021444
021452
021456
021462
021466
021466
021466
021466

011137
012137
062737
012137
062701
011137

4691

4704

0%1 334

1426

002436

14:40

H9
PAGE 4-27

#31T0,DEVPTR

; GET WINS ADDRESS, "VECTOR,

(:35
CMCTM INFORMATION F OR

021314
021322
021324
021326
021%
021332

4677

000001

13-MAR-80
MACY11 30A(1052)
INITIALIZE SECTION

023737
002362

062737

104411

002344
002344

INC

002012

BGE

GPHARD

002344

LOGDEV
NEWST

LOGDEV,LSUNIT
LOGDEV,R1

BCOMPLETE
108:

ENDIT:

:BR _IF YES
;GET P=TABLE POINTER INTO R1

;BR IF DEVICE AVAILABLE

MOV
TRAP
MOV

LOGDEV RO
CSGPHRD
RO.R1

;GET POINTER TO BSEL1 (MAINTENANCE REGISTER)

INC

BSEL2

;GET POINTER TO BSELZ2

ADD

#4,SELL

:GET POINTER TO SEL4

#2 R
(R1) ,MPCSR
(R1) .BSEL1

ADD

002462

s INCREMENT LOGICAL DEVICE NUMBER
;SEE IF MAXIMUM UNIT NO. EXCEEDED

BSEL1

ADD
MOV
MOV

MOV

002456

THIS LOGICAL DEVICE

INC

GE TPRM

BIS
ASL

MOV

002454

SWITCH PACKS, TEST

DEVPTR,DEVMAP
DEVPTR

DEVPTR

B8R

MOV

002452

;INIT DEVICE MAP BIT POINTER

PRIORITY LEVEL,

BCS
sSHIFT DEVICE POINTER
:SKIP THIS DEVICE
sSET BIT FOR THIS DEVICE
sSHIFT BIT POINTER
s INCREMENT R1 PAST MICROPROCESSOR TYPE
sSTORE POINTER TO MICROPROCESSOR CSR'S

ASL

002434

108

SEQ 01N

MOV
MOV
ADD
MOV
ADD
MOV
ENDINIT

BSEL1,8SEL2
(R1), SEL4
(R1)+,SEL6
LSEL6

(R1) ,MPIVEC
(R1)+ ,MPOVEC
#4 MPOVEC
(R1)+
. MPRIOR
#14 Ri
(R15 ,RUNINH

108

:STORE POINTER TO SEL6
;GET MICROPROCESSOR INPUT INTRPT VECTOR

:GET MICROPROCESSOR OUTPUT INTRPT VECTOR

;GET MICROPROCESSOR DEVICE PRIORITY

sPOINT R1 TO RUN SWITCH INDICATOR
;GET STATE OF MICROPROCESSOR RUN SWITCH
L10015:

TRAP

CSINIT

CZDMRC MB203 STATIC DIAG #
CZDMRC.P1T
13-MAR-80 14:38

13-MAR-80 14:40
MACY11 30A(1052)
AUTO DROP UNIT SECTION

.SBTTL

PAGE 4-28

SEQ 0112

AUTO DROP UNIT SECTION

SIHITIIITITITITIITIRTITTTITT7770077707077777777777777777777777777777777777777777
:/ THE AUTO DROP CODING DETERMINES WHETHER OR NOT THE DEVICE WHOSE P-TABLE
:/ WAS JUST OBTAINED IS READY FOR TESTING, AND IT IS DROPPED IF NOT READY.

SIIIIT177771777777771771171111171177711777117717717717171177111117717717117111117
TO

LSAUTO::

JESTABLISH CPU PRIORITY = 7
000340

021520
000340

021520

021546

104461

#6S AN
#PRIO7
, a6

TST

aMP(SR

MOV
TRAP

#PR107,RO
C$SPRI

MOV
TRAP

LOGDEV RO
C$DODU

TRAP

C$AUTO

sSET UP NON-EXISTENT MEMORY ERROR TRAP VECTOR
;ADDRESS SELO

; TAKE THIS BR IF DEVICE RESPONDS

;COME HERE IF DEVICE CSR IS NON-EXISTENT

68:

002344
002414
002416

MOV

000004

013737

#PRIO7

MoV

160730

021516

SETPRI

000004
000006

9%:

ADD

DODU

MOV
MOV

ENDAUTO

#4,SP

LOGDEV
SAVE4 ,an4
SAVEG, a6

;CLEAN UP THE STACK POINTER

:DROP THIS UNIT FROM TESTING
JRESTORE ERROR TRAP VECTOR
L10016:

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80
14:38

4732

MACY11 30A(1052)
13-MAR-B0 14:40
CLEANUP CODING SECTION

.SBTTL

4733
47
4735

9
PAGE 4-29

SEQ 0113

CLEANUP CODING SECTION

SIVITIITTIITIIZIITT
70700007707 77707777777772777777777777777777777777747
s/ THE CLEANUP CODING SECTION CONTAINS THE CODING THAT IS PERFORMED

4736
4737

:/ AT THE END OF THE TEST SEQUENCE ON A PARTICULAR UNIT.
SI111177717711771777117711771777771777171177177771717171717110711011147

4739
(3)

021550
021550

BGNCLN

4742

021550

ENDCLN

(3)
(3)

021550
021550

104412

LSCLEAN::

L10017:
TRAP

CSCLEAN

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1
13-MAR-B0 14:38

MACY11 30A(1052)
13-MAR-B0
DROP UNIT SECTION

14:40

9
PAGE 4-30

SEQ 0114

2;?8

.SBTTL

4751
4752
4753

/////////////////////////////////////////////////////////////////////////////
THE DROP-UNIT SECTION CONTAINS THE CODING THAT CAUSES A DEVICE
/ TO NO LONGER BE TESTED.

2;§§

SIIITIITITIITTIITT10700T001010700000000000000000010001700001100011100011107

4756
(3)

021552
021552

4758
(3)
4759
4760
(8)
(7)
(6)
(3)
(4)
(4)
4761
(3)

021552
021552

104433

021554
021554
021560
021564

013746
012746
012746

4757

4;25

4763

4764

DROP UNIT SECTION

021570

021572
021574
021600
021600

BGNDU

;ISSUE UNIBUS RESET TO CLEAN uP

010600

104417
062706

021600

104453

021602
021610
021616
0216246

047045
052111
040445
050120

021632

000
021634

LSDU::

BRESET

sPRINT "UNIT XX DROPPED'’
PRINTF #FMT27 ,LOGDEV

002344
021602
000002

TRAP

CSRESET

MOV
MOV
MOV
TRAP
ADD

LOGDEV,=(SP)
#FMT27 ,-(SP)
#2,-(SP)
SP,RO
CSPNTF
#6,SP

TRAP

C$OU

MOV
000006

040445
022440
042040
042105

ENDDU

047125
031104
047522
047045

FMT27:

.EVEN

_ASCIZ

L10020:
/INXAUNIT %D2%A DROPPEDIN/

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1N
13-MAR-80 14:38

MACY11 30A(1052)
13-MAR-80
ADD UNIT SECTION

14:40

PAGE 4=31

SEQ 0115

2;'7’1

.SBTTL

477
4774

////////////////////////////////////////////////////////////////////
/ THE ADD=UNIT SECTION CONTAINS THE CODING THAT CAUSES A DEVICE

277%

////////////////////////////////////////////////////////////////////

4775
4776

&779

;/
s/

BGNAU

021634

ENDAU

021634

(3)
(3)
4781

021634
021634

4782
4783
4784
4785

TO BE (A) TESTED FOR THE FIRST TIME, OR (B) RESUMED IN TESTING.
"EF.AUNIT'' IS SET, THE UNIT WILL BE ESTED AS A NEW UNIT.

021634

(3)

4780

ADD UNIT SECTION

104452

IFf

LSAU::
L10021:

TRAP

CSAU

CZDMRC MB203 STATIC D AG 7
CZDMRC.P11
13-MAR
14:38

MACY11 30A(1052)

13-MAR-B0

HARDWARE TESTS

.SBTTL

14:40

m9
PAGE 4-32

SEQ 0116

HARDWARE TESTS

.SBTTL

eIyl

TEST 1 = MICROPROCESSOR CSR ADDRESSING TEST (SELO)

222222223 2232222%;

;% THIS TEST ADDRESSES THE FIRST MICROPROCESSOR CSR (SELO), TO MAKE SURE
:* THAT A NON-EXISTENT MEMORY TIME-OUT TRAP DOES NOT OCCUR WHILE

;* ATTEMPTING TO ADDRESS THE MICROPROCESSOR.

::'t'ttt...t'tt‘...tt"'.'i't.ttt..'ttttttt"......t.t.tt."'..".'......t'.."'

BGNTST

;ESTABLISH CPU PRIORITY = 7
SETPRI #PRIO7

000340
021666
160562

MOV
MOV

#6S , ant
#PR107,a46

ADD

#4,SP

ERRDF

1,EM1,ERR1

awPCSRTM

T1::

MOV
#PR107,RO
TRAP
(CS$SPRI
;SET UP NON-EXISTENT MEMOR' ERROR TRAP VECTOR
:ADDRESS SELO

:TAKE THIS BR IF DEVICE RESPONDS
;CLEAN UP THE STACK POINTER

;COME HERE IF DEVICE CSR IS NON-EXISTENT

6$:

;REPORT CSR ADDRESS TIME-OUT

021672
021672
021674

013737
021716

9s:

002414
002416

ENDTST

MOV
MOV

SAVES , aNé
SAVEG.a#6

TRAP

;RESTORE ERROR TRAP VECTOR
L10022:

104401

CSERDF

WORD
.WORD
.WORD

1
EMI
ERR1

TRAP

CSETST

MR itI3
t
22238 8232222222322
t
33131 5

.SBTTL

TEST 2 - INBUS/OUTBUS REG 14 INITIALIZATION TEST

. %

;% MASTER CLEAR (MCLR) IS SET IN THE MICROPROCESSOR, IBUS REG 14 IS READ
;* AND COMPARED TO 200.

BGNTST

002400
003026

021752

002404

MOV
JSR
JSR
(MP8

BEQ
CLR
MOvB

#14 ,REGNUM
PC MSTCLR
PC ,READLU
REDBYT ,PATM+4

6%
GOODAT
PATM+4 ,GOODAT

1222223222323 33222222232221111

T2::

sSET LU REG NO. = 14
s ISSUE MASTER CLEAR
;READ REG 14
;(CHK FOR INITIALIZED STATE

;BR IF YES
sSET EXPECTED REG CONTENTS = 000
;SET EXPECTED DATA

CZDMRC FGZOS STATIC DIAG M

MACY11 30A(1052)

CZDMRC .P
1
14:38
4834 851760 omg? 002364 002406
4835
004737 004016
‘839
483 85
(%)
104455
(5)
(5)
(5)
4838
4839
(3)
(3)
4840
4841
4842
4843

1774.
8%1776
022000
022002
022002
022002
022002

oooooi
01216
014634

_13-MAR-B0

14:40

PAGE 4-33

TEST 2 = INBUS/OUTBUS REG 14 INITIALIZATION TEST

MOV
JSR

REDBVT BADDAT
GETREG

ERRDF

2,EM2,ERR2

:SET ACTUAL REG CONTENTS
“GET REGS FOR PRINTOUT

:REPORT REG NOT CLEARED BY MASTER CLEAR
68:
ENDTST

TRAP

WORD
.WORD
.WORD

2
EM2
ERR2

TRAP

CSETST

. b4'tt'ttt.tttfitt*ttttt't'titt..t.ttfit..'.ltt.tQQ!Q".l.tttt...t...'..t.'t"'."'

‘ag‘ag

SarTL

TEST 3 = INBUS/OUTBUS REG 14 READ/WRITE BIT TEST

4848

.- WRITE, READ, AND COMPARE ALL WORDS OF DATA PATTERN A INTO REG 14,

4851
4852

4853
4854
(3)

iw 35%}56AT A TIME. NON-R/W BITS ARE MASKED OFF TO O BEFORE WRITING AND

:*
i

022004
022004

4855 022004 004737
4856 022010 012737
4857 022016 012701

4858
4859
(3)

022022
022022
022022

4861

022030

022026

022036

104404
111137
143737
004737

003576
000014
002571

002400
3$:

002366

002560

003750

BEQ
MOV

6%
WRIBYT,GOODAT

002364

002366

002404

022072
022100

4871
(4)
(5)
(5)
(5)
4872
4873
(3)
(3)
4874
4875

022104
022106
022106
022110
022112
022114
022114
022114
022114
022116
022120

4870

013737
004737

002364
004016

JSR

CMP8

002406

nov

68:

002615

R14NRW,WRIBYT

PC,WRITLU

TRAP

:MASK OFF NON-READ/WRITE BITS

*WRITE DATA BYTE INTO REG 14

PC _READLU

*READ DATA BYTE FROM REG 14

REDBYT.WRIBYT

:COMPARE BYTE READ TO BYTE WRITTEN

REDBYT.BADDAT
PC,GETREG

(SBSEG

:MASK OFF NON-READ/WRITE BITS

*BR IF BYTES MATCH
:SET EXPECTED REG CONTENTS

-SET ACTUAL REG CONTENTS
*GET REGS FOR PRINTOUT

:REPORT LINE UNIT REG MISCOMPARE
ERRDF

104455
000003
012222
014634

104405
005201
020127

:GET A BYTE OF PAT A

RI4NRW,.REDBYT

123737

4868
4869

(R1),WRIBYT

BICB

022054

002560

MOVB

002364

4865

001414
013737

;ISSUE MASTER CLEAR
*SET LU REG NO. = 14
:GET POINTER TC DATA PAT IN R1

BICB

003672

4866 022062
4867 022064

PC.MSTCLR
#14 ,REGNUM
#PATA R1

002366

004737
143737

JSR
MOV
MOV

BGNSEG

(022042
022046

DATA PATTERN A = 125,252,000,377,001,002,004,010,020,040,100,200.376.
375,373,367,357.3%7.2%7.1%7.

22tttttttttttttttttt't'ttttttlttt.tt'tt.ttttttttt'ltttttt'ttttt"tt'tttttt"ttt'
BGNTST
T3::

4863

4864

(CSERDF

L10023:

104401

‘8‘.5

SEQ 0117

3,EM3,ERR2

ENDSEG
INC
mMP

TRAP
WORD
.WORD
.WORD
100008:

R1
R1,4PATB

CSERDF
3
EM3
ERR2

(RAP
CSESEG
s INCREMENT DATA PATTERN POINTER
sSEE IF ALL WORDS OF PATTERN A USED YET

CZDMRC MB203 STATIC DIAG 01
CZDMRC.P1
13-MAR-80
1 4:38
4876

022152
022126

8 10

MACY11 30A(1052)
_13-MAR-80 14:40 PAGE 4=34
TEST 3 = INBUS/OUTBUS REG 14 READ/WRITE BIT TEST

103736

ENDTST

SEQ 0118

;BR IF NOT DONE YET

L10024:

104401

TRAP

CSETST

.'Qtt..tfi.ttt'.."fit"t"t'ttht.'.t'.'.Q.Qt.*fi.t"t..'...Q.'...'.t'..'...'.'.t.'

.SBTTL

TEST 4 = REG 14 MASTER CLEAR TEST

i #81580377 INTO REG 14, ISSUE MASTER CLEAR, READ REG 14 AND COMPARE
.t

AR R

BGNTST

Rt itt
22223222
t
2222222222222

JSR

PC,MSTCLR

:PERFORM MASTER CLEAR

MOVB

#377,WRIBYT

:SET DATA BYTE = 377

002400
002366

MOV

003026

CMPB

*SET LU REG NO. = 14

JSR
JSR
JSR

PC,WRITLU
PC.MSTCLR
PC,READLU

sWRITE 377 INTO REG 14
:ISSUE MASTER CLEAR

BEQ

£%

:BR IF REG GOT CLEARED

REDBYT,PATM+4

CLR
MOVB

002404
002406

#14 ,REGNUM

GOODAT
PATM+4,GOODAT

MOV
JSR

REDBYT,BADDAT
PC,GETREG

ERRDF

2,EM2,ERR2

T6::

*READ REG 14

:CHK FOR INIT'D STATE

;SET EXPECTED DATA

:SET ACTUAL DATA
:GET REGS FOR PRINTOUT

;REPORT REG NOT CLEARED BY MASTER CLEAR

TRAP

6$:

ENDTST

AR A

L10025:

.SBTTL

TEST 5 = REG 14 UNIBUS RESET (INIT)

P22

323

TEST

CSERDF

.WORD
.WORD
.WORD

2
EM2
ERR2

TRAP

CSETST

2223222222222 2222331%85

.' #81550377 INTO REG 14, ISSUE UNIBUS RESET (INIT), READ REG 14 AND COMPARE
022232
32

022256

it'.t'ttl"itttttttttttt'tttltt.'fi't.ttt'lfitttttt.!t‘t'."tt't't.'t.tttt'tt."

BGNTST

004737
012737
112737
004737
104433

002400
002366

JSR
MOV

PC ,MSTCLR
#14 ,REGNUM

JSR

PC,WRITLU

MOVB

BRESET

#377,WRIBYT

;PERFORM MASTER CLEAR
:SET LU REG NO. = 14
*SET DATA BYTE = 377

*WRITE 377 INTO REG 14

*ISSUE UNIBUS RESET (INIT)

“C 10

TRAP

CSRESET

CZDMRC HBZOS STATIC DIAG M

CZDMRC.P

ssnnn-ao 14:38
142777

006200
00501
737

000200
000024

€10

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 4-35
TEST 5 = REG 14 UNIBUS RESET (INIT) TEST

160162

BICB
MOV

2$:

003672
000100
002364

002364
003026

002404
003026
002364
004016

002404
002406

NOP
DEC

#RUN,aBSEL1
#20. .R1
R1

BNE
JSR
BICB
CMPB
BEQ
CLR
MOVB
MOV
JSR

2s
PC ,READLU
WTXEN,REDBYT
REDBYT,PATM#4
X3
GOODAT
PATM+4,GOODAT
REDBYT.BADDAT
PC,GETREG

ERRDF

& ,EM4,ERR2

:CLEAR RUN BIT
sINIT LOOP COUNTER
:DECR COUNTER

*BR TO STALL
*READ REG 14
:CLEAR UNPREDICTABLE BIT
:CHK FOR INIT'D STATE
:BR IF REG GOT CLEARED
:SET EXPECTED DATA
:SET ACTUAL DATA
*GET REGS FOR PRINTOUT

;REPORT REG NOT CLEARED BY UNIBUS RESET (INIT)

TRAP
WORD

"WORD
.WORD

6%:
ENDTST
(3)

SEQ 0119

L10026:

022356

TRAP

CSERDF
4
EM4

ERR2

CSETST

::ttttttttttt'tttttt"'t"ttttttt'ttttttttttt'tttttttttttttt.tttt"".t.t'Qtt'tt

.S8rL

,.
:*
;%
;%
o
- %

TEST 6 = LINE UNIT FALSE SELECTION TEST

FIRST, A MASTER CLEAR IS PERFORMED. THEN, THE PROGRAM SINGLE-STEPS THE
MICROPROCESSOR THROUGH AN INSTRUCTION WHiCH LOADS 041 (OCT) INTO THE MAR
REGISTER (0BUS* ADRS 14). THEN, THE LINE UNIT REGISTER 14 IS READ AND CHECKED
TO BE UNAFFECTED (STILL = 0). THIS TEST IS INTENDED TO DETECT A FALSE
‘S\E%Eggég’v OF THE LINE UNIT REGISTERS, WHEN THE LINE UNIT IS NOT BEING

s tttttfi"ttttt'tttttttt't'tttttt.tttt'tttt't.tttttt'fittt'tttttttttt'tt"tttttt'

BENTST

002400

JSR
MOV
MOV
BIS

160034

MOV
MOVB
JSR

BIS

2%:

003026

022462

002404
002406

PC.MSTCLR
#14 ,REGNUM
REGNUM,R1
#100,R1

mvxxox.m

:SET INSTRUCTION AS SUBROUTINE ARGUMENT
*SET DATA BYTE = 041
:EXECUTE MOVE INSTRUCTION

PC ,READLU
REDBYT,PATM+4

*READ LU REG 14
:CHECK FOR LU REG 14 UNCHANGED

BEQ
CLR
MOVB
MOV

/X3
GOODAT
PATM+4,GOODAT
REDBYT,BADDAT

JSR

:SET REST OF MOVE INSTRUCTION

R1,2%
#041,aBSEL4
PC,STPCLK

L.WORD

JSR
CMPB

;ISSUE A MASTER CLEAR
:SET LU REG NO. = 14
:SET DESTINATION
= 0BUS* REG 14
:SET SOURCE = BSEL4

PC,GETREG

:INSTRUCTION GOES HERE

*BR IF LU REG 14 UNCHANGED
:SET EXPECTED DATA
;SET ACTUAL DATA
*GET REGS FOR PRINTOUT

CZDMRC MB203 STATIC DIAG L4 1
CZDMRC.P1
13-MAR-80 14:38

MACY11 30A(1052)

13-MAR-B0

14:40

010
PAGE 4-36

TEST 6 = LINE UNIT FALSE SELECTION TEST

4970

SEQ 0120

;REPORT REGISTER_MISCOMPARE
ERRDF
3,EM3,ERR2

TRAP

A ¥
ENDTST

L10027:

CSERDF

WORC
WORD
.WORD

3
EM3

TRAP

CSETST

ERRZ2

.'Q.....'...t...fi.""""'......fi.....'t"...'..".....Q'....'""..'.Q.".Q.

e e 8088, %8, 8,0,

SBTYL

TEST 7 = INBUS REG MASTER CLEAR TEST

;* FIRST, ALl

READ/WRITE BITS OF REGS 10-17 ARE SET BY LOADING A

:+ DIFFERENT WORD OF PATTERN G INTO EACH REG.
THEN,
;* A MASTER CLEAR IS ISSUED AND EACH REG IS READ AND COMPARED TO A WORD OF

;* PATTERN M, WHICH CONTAINS THE INITIALIZED STATES OF

;« BITS ARE MASKED OFF TO 0 BEFORE gWAR SON)
.
;*+
PATTERN G = 000,000,240,120,177,000,000,001

PATTERN
M = 000,020.,000,000,200.000.000,051

BENTST
AR

2s:

5
=]
A, L'

Egfin~a\fidszg¥ns
—=uwvw b

PC.WRITLU
RE GNUM

:WRITE BYTE INTO REG
: INCREMENT REG NO. FOR WRITING

BLO

28’

(R1)+.WRIBYT

R1,APATH

(UNPREDICTABLE

22222232222 2222223222222%3

JSR
INC

MOVB

-SET DATA PATTERN BYTE TO BE WRITTEN

:SEE IF ALL BYTES WRITTEN YET

:BR IF NOT DONE WRITING YET

JSR
MOV
MOV
MOV

PC ,MSTCLR
#10,REGNUM
#PATM,R2
#UPBITS,R1

JSR

PC ,READLU

*ISSUE MASTER CLEAR
*INIT LU REG NO. TO 10
*INIT DATA PATTERN POINTER
sINIT POINTER TO UNPREDICTABLE BITS
:READ A LINE UNIT REG

(MP8

REDBYT, (R2)

:COMPARE MASKED DATA TO EXPECTED

(R1)+,REDBYT

MASK OUT UNPREDICTABLE BITS FOR THIS REG

BEQ

*BR IF DATA READ IS OK

MOVB

(R2),GOODAT

:SET EXPECTED DATA

GOODAT

MOV
REDBYT,BADDAT :SET ACTUAL DATA
JSR
PC,GE TREG
“GET REGS FOR PRINTOUT
:REPORT REG NOT CLEARED av MASTER CLEAR
ERRDF

2,EM2,ERR2

A
PR

:ISSUE MASTER CLEAR
*INIT REG NO. TO 10
“INIT DATA PATTERN POINTER

CLR

022632

PC MSTCLR
#10 ,REGNUM
#PATG,R1

BICB

002406

JSR
MOV
MOV
P

002400

THE REGS.

ESCAPE

TST

TRAP

.WORD
.WORD
.WORD

(SERDF

2
EM2
ERR2

CZDMRC MB203 STATIC DIAG M
13-MAR-80 14:38
CZOMRC P11
(3
(3)

02
02%63%

5015
5016

0
002642

5018
5019
(3)
(3)

022650
022652
02265
022652

5017

5021
5022
5023
5024
5025
5026
5027
5028
5029
5030
5031
5032
5033
5034
(3)
5035
5036
5037
5038
5039
5040
5041

5042
5043
5044
5045
5048
5047
5048
5049
5050
5051
5052
5053
5054
5055
5056
5057
5058
5059
5060
5061
5062
5063

002644

104410
000016

005237
00520

020227

103744

002400

MACYT? 30“1052)

13-MAR-80

14:40

E 10
PAGE 4-37

T 7 = INBUS REG MASTER CLEAR TEST

6%:

INC
INC
CMP

003032

REGNUM
R2
R2 ,#PATN
3%

ENDTST

SEQ 0121

s INCREMENT REG NO.
JINCR DATA PATTERN POINTER
SEE IF ALL DONE YET
BR IF NOT DONE YET

L10030:

104401

.WORD

L1100

TRAP

CSETST

"."......'...'.'""""'..'......"....'......".'.....'..'..'..'.'..'."'.

.SBTTL

.'
:*
;*
:*
B

022654
022654

020654
020660
022664
022670
022674
022676

022700

022702
022704
022710
022716
022724
022732
022740
022744
022746
022752
022760
022764
022772
(023000
023002
023010
023016
02302
023006
023032
023040
023046

3065 023052

TEST 8 = REGISTER 10-17 ADDRESSING TEST

FIRST, A MASTER CLEAR IS ISSUED. THEN,
WRITE A DIFFERENT WORD OF DATA PATTERN B INTO EACH OF REGS 10-17,
AND AFTER EACH WRITE, READ AND COMPARE ALL REGS TO EXPECTED VALUES.
UNPREDICTABLE BITS ARE MASKED OFF TO O WHEN READ FOR COMPARISON.
PATTERN
B = 000,000,040,100,220,000,000,051

..tt.t'tt't".fi't.'.t't""Qt..t'..Qtttfi.tt'.t.t'.fi..'fltttt...ttttt."'t'tt..t"

BGNTST

004737
012701
012702
012703
112221
005303

003576
002500
003022
000010

JSR

3$:

001375

005001
010137
06273
116137
113761
146161
004737
005003
010337
062737
004737
146337
023727
001006
142737
142763
123763
001420
005037
116337
013737
004737

002400

1
002615
002
002550
003750

002400
000010
003672
002550
002400

000020
000020
002364
002404
002500
002
004016

68:

18::

#REDDAT ,R1
lPATH R2

:INIT POINTER TO EXPECTED DATA AREA
*GET POINTER TO PATTERN M
*SET COUNTER

DEC

*DECR COUNTER

MOVB
BNE
CLR
MOV
ADD
JSR

CLR
MOV
ADD

(RZ’*.(RIM

:LOAD BYTE OF PATRN INTO EXPECTED DATA AREA

3s
m REGNUM
#10,REGNUM

:BR IF NOT DONE LOADING YET

:GET REG NO. FOR WRITING

PC.WRITLU

;WRITE DATA BYTE INTO REG

#ORDY,REDBYT

msx ORDY BIT IN ACTUAL BYTE

:INIT DATA PATTERN INDEX FOR WRITING

PATB(R1) ,WRIBYT :SET DATA BYTE TO BE WRITTEN
WRIBYT,REDDAT(R1) ;SET EXPECTED DATA FOR READ
UPBITS(RT),REDDAT(R1) :MASK OUT UNPREDICTABLE BITS

BICB
P
BNE

R3
*INIT DATA PAT INDEX FOR READS
R3, REGNUM
#10, REGNUM
;GET REG NO. FOR READING
PC ,READLU
*READ A LINE UNIT REG
wansum Reoev? ‘MASK OUT meoxcras BITS
REGNUM, #
és 1r READING REG 11
108
F NOT

BICB

#ORDY.REDDAT(R3) :MASK ORDY BIT IN EXPECTED BYTE

JSR

BICB

108:

;ISSUE MASTER CLEAR

MOV
MOV
MOV

MOVB
MOVB
BICB

98:

PC . MSTCLR

(MP8
BEQ

MOvB
MOV
JSR

REDBYT,REDDAT(R3) :COMPARE BYTE READ TO EXPECTED
12%
:BR IF DATA MATCHES
GOODAT

REDDAT(R3) ,GOODAT ;SET EXPECTED DATA
REDBYT,BADDAT
;SET ACTUAL DATA
PC, GE TREG

sREPORT REG MISCOMPARE
ERRDF

3,EM3,ERR2

sREAD AND STORE REGS 10-17 FOR PRINTOUT

CZDMRC MB203 STATIC DIAG #1

CZDMRC.P1
(4)
(%)
(5)
(5)

13-MAR

023052
0%3054
023056
3060

14:38

MACY11 30A(1052)

13-MAR-80

14:40_

F 10
PAGE 4-38

TEST 8 = REGISTER 10-17 ADDRESSING TEST

104455
000003
012222
014634

SEQ 0122

1RAP
LMWORD
.WORD
ESCAPE
12%:

INC

.WORD

T1ST

TRAP

.WORD

(MP
BLT
INC

CSESCAPE

L10031~-.

*SEE IF ALL REGS READ YET
:BR
IF NOT

s INCREMENT DATA PAT INDEX FOR WRITING

*BR
IF NOT

R1.#10

ENDTST

ERRZ2

: INCREMENT DATA PATTERN INDEX FOR READING

R3.#10
B

cMP

CSERDF
3
EM3

*SEE IF ALL REGS WRITTEN YET

L10031:

TRAP

CSETST

'Q..".'Q"..".'.."""."...'.'i'...'.'.'.....".'Q..."".....".'."...'.

.SBTTL

TEST 9 - REG 11 READ/WRITE BIT TEST

:' WRITE, READ, AND COMPARE EACH WORD OF DATA PATTERN C INTO REG 11 :
i

110
110

023110

(3)
5091
5092

004737

114
122

012737
012701

023126
023130
023134

104404
111137
%737

003576

000011
002625

002400

023202

023202
023204
023206
023210
023212

5103
(3)

023212
023212

5104
5105

023214
023216

(3)

023212

1113233222322

2233223222322222222%5

JSR
MOV
MOV

PC MSTCLR
#1171 ,REGNUM
#PATC ,R1

s ISSUE MASTER CLEAR
sSET LU REG NO. = 11
;GET POINTER TO DATA PAT IN R1

MOvB
JSR
JSR

(R1) ,WRIBYT
PC,WRITLU
PC ,READLU

;GET A BYTE OF PAT C
;WRITE DATA BYTE INTO REG 11
;READ DATA BYTE FROM REG 11

CMP8

REDBYT,WRIBYT

BGNSEG

002366
003750

BI(B

002404
002406

(4)
(5)
(5)
(5)
5102

DATA PATTERN € = 020,020,020.

BGNTST

002364
002366

5101

C$BSEG

UPBITS+1,REDBYT ;MASK OUT UNPREDICTABLE BITS

;COMPARE BYTE READ TO BYTE WRITTEN

BEQ

:BR _IF BYTES MATCH

JSR

PC, GE TREG

:GET REGS FOR PRINTOUT

MOV
MOV

TRAP

WRIBYT ,GOODAT
REDBYT,BADDAT

;SET EXPECTED REG CONTENTS
:SET ACTUAL REG CONTENTS

;REPORT LINE UNIT REG MISCOMPARE
ERRDF

104455

012222
014634

6%:

104405

005201
020127

002630

3 ,EM3,ERR2

ENDSEG
INC

(MP

10000%:
R1

R1,#PATD

s INCREMENT DATA PATTERN POINTER

TRAP
WORD
.WORD
.WORD

CSERDF
3
EM3
ERRZ

CSESEG

JSEE IF ALL WORDS OF PATTERN C USED YET

103741

ENDTST

W
N

o
NN

3222
023224
ol
023224

G 10

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 4-39
TEST 9 = REG 11 READ/WRITE BIT TEST

SEQ 0123

;BR IF NOT DONE YET

L10032:

104401

CSETST

TRAP

;;....'.'......'...."""'.'.........'......'......'.'......'.....'........'..'

.SBTTL

:* WRITE, READ, AND COMPARE EACH WORD OF DATA PATTERN D INTO REG 12 :
BGNTST

SN WS
-2
W~ SN

— e

vivivivivaiaoai

—

e e

e PN

—

1%,

TEST 10 = REG 12 READ/WRITE BIT TEST

* %

VIVIT

D d e

NS 2 B G TMVN VN Y VOV I bl o D A Yl 0 O PO 0 NI ORI
PO N b b 8 b 8 b

VN WY

d d

— 5 b

S%vv&yvvvv&mfiuw~88m~8mvau-8 voaNOmwa—'csgwsg

(ale]

alal

iiii
S
=3

3 STATIC DIAG
P11
13-MAR-B0 14:38

004737
012737
012701
104404

003576
002630

002400

DATA PATTERN D = 000,040,000.
A

002366
003750
0036
002552

002364

123737

002364

002366

002404
002406

004016

104455
000003
012222
014634

2222222222222

;ISSUE MASTER CLEAR

MOV

#PATD R1

*GET POINTER TO DATA PAT IN R1

(R1),WRIBYT

;GET A BYTE OF PAT D

#12 ,REGNUM

22222223

T10::

PC ,MSTCLR

*SET LU REG NO. = 12

MOVB
JSR
JSR

PC,WRITLU
PC _READLU

B8I(B

TRAP

($BSEG

*WRITE DATA BYTE INTO REG 12
*READ DATA BYTE FROM REG 12

UPBITS+2 REDBYT ;MASK OUT UNPREDICTABLE BITS

CMPB

REDBYT ,WRIBYT

BEQ

;COMPARE BYTE READ TO BYTE WRITTEN

:BR _IF BYTES MATCH

MOV
WRIBYT,GOODAT
:SET EXPECTED REG CONTENTS
MOV
REDBYT ,BADPAT
;SET ACTUAL REG CONTENTS
JSR
PC,GETREG
;GET REGS FOR PRINTOUT
sREPORT LINE UNIT REG MISCOMPARE
ERRDF
3 _EM3.ERR2
.WORD

6%:

ENDSEG

10000%:

104405

005201
020127
103741

JSR

MOV

BGNSEG

111137
004737
004737
143737

001414
013737
013737
004737

AR R

INC

CMP

002633
ENDTST

s INCREMENT DATA PATTERN POINTER

;BR IF NOT DONE YET

R1,#PATE

BLO

L10033:

"SBTTL

EM3
ERRZ

TRAP

CSESEG

sSEE IF ALL WORDS OF PATTERN D USED YET

104401

.WORD
.WORD

TEST 11 = REG 13 READ/WRITE BIT TEST

TRAP

CSETST

MACY11 30A(1052)

D o

:* WRITE, READ,

i PN

002400

JSR
MOV
MOV

004737

002553
002364

002364
002366

002366
002364

002404
002406

JSR
JSR

8I(B

:ISSUE MASTER CLEAR
+
:SET LU REG NO. = 13
*GET POINTER TO DATA PAT IN R1

(R1),WRIBYT

:GET A BYTE OF PAT E

PC.WRITLU
PC .READLU

103741

($BSEG

*WRITE DATA BYTE INTO REG 13
*READ DATA BYTE FROM REG 13

UPBITS+3,REDBYT ;MASK OUT UNPREDICTABLE BITS

6%:

3,EM3,ERR2

TRAP
.WORD
.WORD

ENDSEG

100008:

104405

005201
020127

TRAP

CMP8
REDBYT,WRIBYT
;COMPARE BYTE READ TO BYTE WRITTEN
BEQ
6$
:BR _IF BYTES MATCH
MOV
WRIBYT ,GOODAT
;SET EXPECTED REG CONTENTS
MOV
REDBYT,BADDAT
:SET ACTUAL REG CONTENTS
JSR
PC,GE TREG
;GET REGS FOR PRINTOUT
:REPORT LINE UNIT REG MISCOMPARE’
ERRDF

104455
00000 3
012222
014634

PC ,MSTCLR
#15 REGNUM
#PATE R

RB R

BGNSEG
MOVB

d o

WN NV

AU 2B IIILLI

et
e
e Y

SEQ 0124

AND COMPARE EACH WORD OF DATA PATTERN E INTO REG 13

DATA PATTERN E = 000,120,020,100,120,000.

il il PN

PAGE 4=40

BENTST

) il i

H 10

.Q..t....'...'.....'""".Q..............Q'Q..Q.Q.....QQ.Q'.'....'.'Q."."..

14:40

i
d e

ViV

.~ PN i

~N
&~

(3)

13-MAR-80_

TEST 11 = REG 13 READ/WRITE BIT TEST

v
CIITEIERRARZBLLIFNLER WRY
=8

VNN
A

lalal

lale

Sfii

M8203 STATIC DIAG M
P11
13-MAR-B0 14:38

INC

; INCREMENT DATA PATTERN POINTER

BLO

;BR IF NOT DONE YET

002641
ENDTST

R1,#PATF

CSERDF
3
EM3

.WORD

ERR2

CSESEG

sSEE IF ALL WORDS OF PATTERN E USED YET
L10034:

104401

TRAP

CSETST

.t'...."......'.."'."'..'....'."'.fi....'......'.."...'..'......".

SBTTL

.'.‘."

TEST 12 - REG 17 READ/WRITE BIT TEST

:' WRITE, READ, AND COMPARE EACH WORD OF DATA PATTERN F INTO REG 17:
;e

DATA PATTERN F = 050,051,050.

',t'..fit..ttttti!t't.'t"'.t.fittltt".".tttlt.tt'i'.'t.t".tlttt.t't'tt.t."'tt

BGNTST

004 737
012737
012701

003576
000017
002641

002400

JSR

MOV
MOV

PC ,MSTCLR

#17 ,REGNUM
#PATF .R1

:ISSUE MASTER CLEAR

T12::

*SET LU REG NO. = 17
*GET POINTER TO DATA PAT IN R1

MACY11 30A(1052)

3%:

MOVB

vVIiVii

110
PAGE
S

SEQ 0125

;GET A BYTE OF PAT F

PC READ&U

sREAD DATA BYTE FROM REG 17

PC,WRITLU

8I(B

UPBITS+7 REDBYT :MASK OUT UNPREDICTABLE BITS

CMP8
BEQ

002404
002406

MOV
MOV
JSR

REDBYT,WRIBYT
63

;COMPARE BYTE READ TO BYTE WRITTEN
:BR _IF BYTES MATCH

PC,GETREG

:GET REGS FOR PRINTOUT

WRIBYT,GOODAT
REDBYT ,BADDAT

;SET EXPECTED REG CONTENTS
;SET ACTUAL REG CONTENTS

TRAP
.WORD
.WORD

ENDSEG

10000$:

104405

005201
020127
103741

023576

002644

INC

s INCREMENT DATA PATTERN POINTER

BLO

;BR IF NOT DONE YET

CMP

ENDTST

R1,4PATG

L10035:

SrRANRNAAAAAAAAAA A AR NS

)
T
I
R
A

B
IR IR BE B

TRAP

CSESEG

TRAP

THEN,

= THE PROGRAM REPEATEDLY CHECKS THE MCLK BIT FOR THE 1

CSETST

3322222232223

THE MICROPROCESSOR

STATE, AND IF

IT IS

NOT FOUND WITHIN SEVERAL HUNDRED MILLI-SEC (DEPENDING ON THE PROCESSOR)
gfelcsm IS REPORTED. (THE MAINTENANCE CLOCK HAS A PERIOD OF 41.6 MICRO-

= THE PROGRAM NEXT REPEATEDLY CHECKS THE MCLK BIT FOR THE O STATE, AND IF

IT IS NOT FOUND WITHIN SEVERAL HUNDRED MILLI-SEC AN ERROR IS REPORTED.

= THE PROGRAM NEXT REPEATEDLY CHECKS MCLK BIT FOR THE 1

STATE AGAIN, AND

IF IT IS NOT FOUND WITHIN SEVERAL HUNDRED MILLI-SEC, AN ERROR IS REPORTED.

B
I
I

ERR2

AND SETTING ROMI AND RUN IN BSEL1. THE INSTRUCTION IS ONE WHICH REPETITIVELY
READS LINE UNIT REG 17 INTO BSEL2. THE PDP-11 CAN THEN SCAN BSEL2 TO MONITOR
;gfnm}%swnas CLOCK BIT, MCLK. THE FOLLOWING SEQUENCE IS THEN PERFORMED

IF THE P-TABLE FOR THIS UNIT INDICATES THAT THE MICROPROCESSOR RUN SWITCH
IS NOT ON, THE TEST WILL BE SKIPPED.

023600

.WORD

IS PLACED IN A LOOP ON AN INSTRUCTION, BY SETTING THE INSTRUCTION IN SEL6

(3)

LA AR AR ddd

TEST 13 - . AINTENANCE CLOCK BIT TEST

FIRST, A MASTER CLEAR IS ISSUED TO INIT ALL REGS.

BN B

CSERDF
3
EM3

sSEE IF ALL WORDS OF PATTERN F USED YET

104401

.S8TTL

($BSEG

*WRITE DATA BYTE INTO REG 17

sREPORT LINE UNIT REG MISCOMPARE
ERRDF
3,EM3,ERR2

6%:

TRAP

(R1),WRIBYT

JSR
JSR

002364
002366

14:40

BGNSEG

h P

g BRIRALR

13-MAR-B0_

TEST 12 = REG 17 READ/WRITE BIT TEST

CZDMRC MB203 STATIC D IAG M
13-MAR
CZDMRC.P11
14:38

BGNTST

3223323233223 223222222221231

T13::

CZDMRC M8203 STATIC DIAG #1
CZDMRC .P11
13-MAR-80 14:38

5239

§240

5241
5242
5243
5244

023600

023604

023612
023616
023620
023626

5245
(8)
(7)
(6)
(3)
(4)

023630
023630
023634
023640
023644
023646

5246

023654

(4)

5247
5248
5249

004737

012737

005737
001020
023727
001012

000015

002442

002444

000001

002476

023650

013746
012746
012746
010600
104417
062706

023660
023666
023672

012737
012701
052701

000017
000360
000002

010137
004737

023712
004074

000137

5250

023676

052701

gggz

023712

000000

5251
5252

003576

023702
023706

J 10

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 5-1
TEST 13 - MAINTENANCE CLOCK BIT TEST

5260

000006

024222

002400

021000

023714

005037

002510

023726

132737

000002

023720

117737

001031
005237
001366

5265
5266

023744
023752

012737
013737

5267

023760

5269

023764

(4)
(5)

(5)
(5)

5270
5271

023764
023766

023770
023772

023774

004737

2s:

002364

012746
012746
010600
104417

gg;%

024014

000137

000002
002364

MOV
MOV
BIS

“SET TEST NO.

*SEE IF RUN SWITCH IS SET
*BR If YES, TO RUN TEST
:SEE IF THIS IS FIRST PASS SINCE STA OR RES
:BR IF NOT, TO SKIP PRINTING

#FMT19,TSTNUM

:PRINT MSG TO SAY TEST NOT RUN

;GO TO SKIP TEST

MOV
MOV
MOV
MOV
TRAP
ADD

TSTNUM,=(SP)
#FMT19,=(SP)
#2,-(SP)
SP,RO
CSPNTF
#6,SP

#17 ,REGNUM
#360,R1
#2.Ri

;SET REG NO. = 17
sSET INSTRUCTION SOURCE = INBUS REG 17
sSET INSTRUCTION DESTINATION = BSEL2

R1,2$
PC,LOOPIN

sSET INSTRUCTION AS SUBROUTINE ARGUMENT
;GET MICROPROCESSOR LOOPING ON MOVE INSTRUCTION

BIS

#MVIOX,R1

WORD

MOV
JSR

sSET REST OF MOVE INSTRUCTION
sINSTRUCTION GOES HERE

004016

062706

CLR

REGO

BITB

#MCLK ,REDBYT

63
REGO
3s

:BR IF MCLK = 1
; INCREMENT TIMER
;BR IF PROGRAM TIMER DID NOT TIME OUT YET

MOV
MOV

#MCLK,GOODAT
REDBYT,BADDAT

2SET EXPECTED REG CONTENTS
:SET ACTUAL REG CONTENTS

MOVB
BNE
INC
BNE

002404
002406

JSR

aBSEL2,REDBYT

PC,GETREG

;REPORT MCLK BIT STUCK AT 0
ERRDF

;INIT PROGRAM TIMER

:GET RtG 17 INTO REDBYT

*SEE IF MCLK BIT
= 1 YET

; (TIME OUT = SEVERAL HUNDRED MILLI-SEC)

;GET REGS FOR PRINTOUT

5,EMS,ERR2

sTYPE 'PLEASE INSURE MICROPROCESSOR RUN SWITCH IS ON''
PRINTF #FMT24

012040
000001
000004

024222

JMP

5274

;ESCAPE TO END OF TEST

gg;g

5277
5278
5279

3$:

002510

012314
014634

023774
024000
024004
024006
024010

156526

104455
000005

(7)
(6)
(3)
(4)
(4)

1$:

JMP

s, rsmm

RUNINH
1%
STARES , #1
408

;PERFORM MASTER CLEAR

; WAIT FOR MCLK BIT TO BE SET TO 1

023734
023736
023742

5268

40%:

PC MSTCLR

5261
5262
5263

5264

TST
BNE
CMP
BNE

PRINTF

gggg
5258

MOV

002442
012007
000002

5255

5259

JSR

SEQ 0126

; WAIT FOR MCLK BIT TO BE CLEARED TO 0

024020
024020
024024

005037
117737

002510
156422

6%:
002364

8$:

CLR
MOovB

REGO
@BSEL2,REDBYT

;INIT PROGRAM TIMER
:GET REG 17 INTO REDBYT

TRAP
WORD

.WORD
.WORD

CSERDF
5
EMS
ERR2

MOV
MOV
MOV
TRAP

#FMT24 ,~(SP)
#1,-(SP)
SP,RO
CSPNTF

ADD

#4,SP

CZDMRC MB8203 STATIC D AG 01
CZDMRC.P11
4:38
13-MAR

5280
5281

0240
02404
02404
024046

000002

002364

002510
002404
002364
004016

002406

BITB
BEQ
INC
BNE
CLR
MOV
JSR

MMCLK,REDBYT
108
REGO
8$
GOODAT
neoevr BADDAT
GETREG

ERRDF

6,EM6,ERR

;REPORT MCLK BITsfucx AT 1

SEQ 0127

:SEE IF MCLK BIT= 0 YET
*BR IF MCLK = 0
*INCREMENT TIMER
*BR IF TIMER DID NOT TIME OUT YET
*SET EXPECTED REG CONTENTS
:SET ACTUAL REG CONTENTS
:GET REGS FOR PRINTOUT
TRAP
WORD
.WORD

(CSERDF
6
EM6

MOV
MOV
MOV

#FMT24,~(SP)
#1,-(SP)
SP.RO

ADD

#4,SP

.WORD

;TYPE *PLEASE INSURE MICROPROCESSOR RUN SWITCH IS ON'*
PRINTF
#FMT24

012040
000001

024116

K 10

13-MAR-80 14:40 PAGE 5<2
TEST 13
= MAINTENANCE CLOCK BIT TEST

MACYT 30A(1052)

TRAP

000004
024222

JMP

:ESCAPE TO END OF TEST

ERR2

CSPNTF

: WAIT FOR MCLK BIT TO BE SET TO 1 AGAIN
024122

002510
156320
000002

108:

002364

CLR

12$:

002510
000002
004016
024172
0264172
024174
024176
024200

BITB
BNE

REGO
@BSEL2.REDBYT
#MCLK,REDBYT
Al

;INIT PROGRAM TIMER
:GET REG 17 INTO REDBYT
:SEE IF MCLK BIT= 1 YET
*BE IF MCLK = 1

BNE
MOV
MOV

128
#MCLK,GOODAT
REDBYT,BADDAT

*BR IF TIMER DID NOT TIME OUT YET
:SET EXPECTED REG CONTENTS
:SET ACTUAL REG CONTENTS

MOVB
INC

002404
002406

JSR

REGO

PC.GETREG

;REPORT MCLK BIT STUCK AT 0
ERRDF
5,EMS,ERR2

* INCREMENT TIMER

*GET REGS FOR PRINTOUT

TRAP

;TYPE
012040
000001

WORD
.WORD

"PLEASE INSURE MICROPROCESSOR RUN SWITCH IS ON'*
PRINTF

#FMT24

003576

024226

ENDTST

JSR

PC,MSTCLR

§
EMS

.WORD

ERR2

MOV
MOV
MOV

#FMT24 ,~(SP)
#1,-(SP)
SP.RO

ADD

#4,SP

TRAP

CSETST

TRAP

CSERDF

CSPNTF

;ISSUE MASTER CLEAR

L10036:

CZDMRC M8203 STATIC DIAG M
CZDMRC.P11
13-MAR-80 14:38

5316
5317
5318
5319
5320
5321
S32§
532
5324
5325
5326
5327
5328
(3)
5329
5330
5331
5332
5333
5334
5335
336
5337
g%g

024230
024230
024230
024234
024240
024244
0242
024254
024260
024266
024270
024276

5340
(4)
(5)
(5)
(5)
5341
(3)
(3)

024302
0264302
024304
024
024310
024312
024312
024314

5343

024326

5342

5345
5347

5349
5350
5351
5352
5353
354
(4)
(5)
(5)
(5)

5355
(3)
(3)
5356
5357
5358

MACYT 30A(1052)

13-MAR-80 14:40 PAGE 5-3
T 13 = MAINTENANCE CLOCK BIT TEST

LAl

.......Q

SBTTL

ittt

SEQ 0128

2222232232

222222222212%;

TEST 14 -~ EXTENDED REGISTER MASTER CLEAR TEST

‘% FIRST

ALL READ/WRITE BITS OF EXTENDED REGS AX0-AX3 ARE SET BY LOADING

% A DIFF ERENT WORD OF PATTERN H INTO EACH REG. THEN, A MASTER CLEAR IS

;* ISSUED AND EACH REG IS READ AND COMPARED TO A WORD OF PATTERN I, WHICH
:* CONTAINS THE INITIALIZEDfiTAT;S % % D? SXTEPDED REGS.

;*
;*

024316

024416
024420

000014
004016

062737

020127

JSR
CLR

PC,MSTCLR
AXNUM

002420

BIT

ggfibYTO.ERRGH

002400

MOV
JSR

#14 ,REGNUM
PC,GE TREG

ERRDF

52,EM52,ERR9

1%:

001003
142737

MOV
MOvVB
MovB
JSR

#PATH,R1
(R1)+,WAX15
(R1)+,WAX16
PC,WRITAX

T14::

;ISSUE AN INITIAL MASTER CLEAR
JINIT AX REG BYTE NO. TO O

sINIT DATA PATTERN POINTER
sSET BITS TO LOAD INTO LO BYTE
sSET BITS TO LOAD INTO HI BYTE
sWRITE EXTENDED REG

SSE IF'SEADY FAILED TO SET
IF

sSET LU REG NO
= 14
:GET REGS FOR PRINTOUT

sREPORT READY NOT SET AFTER AX REG WRITE

CSERDF

ESCAPE

ERR9

TST

CSESCAPE

000002

002664

002402

003576
002402
002664

004124
000001

002420

000014
004016

002400

8%:

2%:

ADD
cMP
8LO
JSR

#2 , AXNUM
R1,4PATI
1%
PC MSTCLR

s INCR REG BYTE NO.
sSEE IF ALL REGS WRITTEN YET
:BR_IF NOT DONE WRITING YET
:ISSUE MASTER CLEAR

#PATI ,R1
PC ,READAX

:INIT DATA PAT POINTER FOR READS
READ AN EXTENDED REG

sSET LU REG NO. = 14
:GET REGS FOR PRINTOUT

CLR

AXNUM

BIT

fggDYTO.ERR(R‘I

MOV
JSR

#14 ,REGNUM
PC,GE TREG

MOV
JSR

L10037~.

s INIT EXTENDED REG BYTE NO. TO 0

SEEHF&?EADY FAILED TO SET
:BR

sREPORT READY NOT_SET AFTER AX REG READ
ERRDF
53,EM53,ERR9

104455
000065
014150
020632

104410
000152
023727

—

104410
0002

032737
001413
012737
737

024404
024404
024406
024410

003576
002402
002654
002374
002376
004312
000002

014107
020632

024352
024360
024362
024370
024374
024376
024400
024402

.tttttt.'t'.t...tt"'."'..t.t.'tfifi.it'..fi.'...t..'..tt.tt.fi't'."t'.i.t't't..

104455

103745
004737
005037
012701

024374

(7,]

004737
005037
012701
112137
112137
004737
032737
001413
012737
004737

024330
024332
024336
024342

024346

PATTERN H
PATTERN I = 000,000

TRAP

ESCAPE

-WORD

TST

TRAP

002402

000372

108:

002370

cMP
BNE

BI(B

A)s(MH.6‘6
3

#AX315U,RAX15

;SEE IF AX3-15
:BR_IF NOT

;MASK OFF UNPREDICTABLE BITS

.WORD

CSERDF
53

EMS3
ERR9

CSESCAPE
L10037-.

CZDMRC HB?OS STATIC DIAG M
CZOMRC.P11
3-MAR
14:38
|

123711

Mm10
MACY11 30A(1052)
13-MAR-80 14:40 PAGE S5<4
TEST 14 = EXTENDED REGISTER MASTER CLEAR TEST

002370

38:

(MP8

;COMPARE LO BYTE TO EXPECTED VALUE

BEQ

*BR IF DATA MATCHES

MOV
JSR

RAX15,BADDAT
PC,GE TALL

:GET EXPECTED DATA BYTE

CLR
MOVB

002406

GOODAT
(R1),GOODAT

:GET ACTUAL DATA BYTE
*GET REGS FOR PRINTOUT

:REPORT REG NOT INITIALIZED BY MASTER CLEAR
ERRDF
2,EM2,ERR3

104455
00000%
01216
015142

000070

48:

INC

INC
(MPB

BEQ

LWORD
.WORD
.WORD

TRAP

AXNUM

MOV
JSR

.WORD

: INCREMENT AX BYTE NO.

R1
RAX16, (R1)

CLR
MOVB

002406

TRAP

TST

ESCAPE

104410

ESCAPE

104410

GOODAT
(R1).,GOODAT

*BR IF DATA MATCHES

RAX16,BADDAT

:GET EXPECTED DATA BYTE

PC,GETALL

68:

*GET REGS FOR PRINTOUT
TRAP
.WORD
JWORD
.WORD

TST

002674
ENDTST

INC

AXNUM

;INCR AX BYTE NO.

CMP
BLO

R1.4PATJ
28

*SEE IF ALL REGS READ YET
*BR IF NOT DONE READING YET

INC

.SBTTL

CSERDF
2
EM2
ERR3
CSESCAPE

.WORD

L10037-.

TRAP

CSETST

*INCR PAT POINTER

L10037:

CSESCAPE

L10037-.

:GET ACTUAL DATA BYTE

TRAP

002402

CSERDF

2
EM2
ERR3

*INCREMENT PAT POINTER
:COMPARE HI BYTE TO EXPECTED VALUE

;REPORT REG NOT INITIALIZED BY MASTER CLEAR
ERRDF
2,EM2,ERR3

104455
000002
012163
015142

000016

RAX1S,(R1)

SEQ 0129

ittt

1222222222223 2222222233311IS

TEST 15 - EXTENDED REGISTER ADDRESSING TEST

* FIRST, ISSUE A MASTER CLEAR TO PUT REGS INTO INITIALIZED STATES SHOWN IN
;« PATTERN 1. THEN, WRITE A DIFFERENT WORD OF PATTERN J INTO EACH_EXTENDED (AX)

;* REG, AND AFTER EACH WRITE, READ AND COMPARE ALL EXTENDED REGS TO EXPECTED
;+ VALUES.
5
PATTERN 1 = 000.,000,000,000,000,103.,000, 000

5399
(3)

024562

PATTERN J = 000,000.010.002.004.103.001.100

.tttt.tttttt.tttttiititttt't.ttt'.t..ttttfitt'.tt't..it.ttttt.'!tttttt'.'t"tt'

T15::

CZDOMRC H8203 STATIC DIAG M

m'& 14:38

13-MAR-80 14:40 PAGE 5=5
TEST 15 = EXTENDED REGISTER ADDRESSING TEST

003576
664

3s:

68:

FELELRLLLLR
3 BBICNE W=D

S
|

CZDMRC.P11

N 10

MACY11 30A(1052)

JSR
MOV
MOV

PC,MSTCLR
#PATI R
#REDDAT ,R2

R1,#PATJ

MOVB

BLO
CLR
MOV

MOVB
MOVB

MOVB

108:

5421

3’

R1,AXNUM

:MOVE PAT | INTO REDDAT TABLE

sINIT INDEX FOR WRITING

*GET AX BYTE NO. FOR WRITING

PATJ(R1),WAX1S :SET LO AX BYTE TO BE WRITTEN
PATJ+1(R1),WAX16 ;SET HI AX BYTE TO BE WRITTEN

WAX1S,REDDAT(R1) :SET EXPECTED LO BYTE IN TABLE

WAX16.REDDAT+1(R15 ;SET EXPECTED Wl BYTE IN TABLE

CLR

R3’

PC,WRITAX

;WRITE DATA BYTES INTO EXTENDED REG

sINIT INDEX FOR READING

MOV
JSR
cMP
BNE

R3, AXNUM
PC .READAX
AXNLM, #6
108

(MP8

RAX15,REDDAT(R3) :COMPARE LO BYTE READ TO EXPECTED

CLR
MOVB

GOODAT
REDDAT(R3),GOODAT :GET EXPECTED LO BYTE

BICB

BEQ
MOV
JSR

MAX315U,RAX15

ERRDF

:GET AX BYTE NO. FOR READING
:READ 2 AX BYTES
*SEE IF AX3-15
*BR IF NOT
:MASK OFF UNPREDICTABLE BITS

128

:BR IF LO BYTE MATCHES EXPECTED

RAX15,BADDAT
PC,GETALL

;GET ACTUAL DATA
*GET REGS FOR PRINTOUT

:REPORT REG MISCOMPARE
104455
000003

:ISSUE MASTER CLEAR
*INIT POINTER TO PAT I
sINIT POINTER TO EXPECTED DATA AREA

MOVB

JSR

9%:

(R1)+,(R2)+

SEQ 0130

3,EM3.ERR3
TRAP

WORD
.WORD

012222
015142

ESCAPE

.WORD

TST

TRAP

002402
002372
002404
002501
002372
004526

104455
000003
012222
015142

104410
26

002501

128:

INC

(MPB

BEQ

CLR
MOVB

002404
002406

MOV
JSR

AXNUM

INCR AX BYTE NO.

158

;BR"IF HI BYTE MATCHES EXPECTED

RAX16,BADDAT
PC,GETALL

:;GET ACTUAL DATA
*GET REGS FOR PRINTOUT

LWORD

TRAP

000002
000010

15$:

ADD

CMP
BLT
ADD
CMP
BLT

ERR3
CSESCAPE

L10040~.

GOODAT
REDDAT+1(R3),GOODAT ;GET EXPECTED HI BYTE

«WORD
.WORD

000002
000010

3
EM3

RAX16,REDDAT+1(RS) :COMPARE HI BYTE READ TO EXPECTED

;REPORT REG MISCOMPARE
ERRDF
3,EM3,ERR3

ESCAPE

CSERDF

TST

#2.R3

R3.4#10
9%
#2.R1
R1.#10
6$

;INCR INDEX FOR READS

.WORD
:
TRAP
.WORD

:SEE IF ALL AX BYTES READ YET
:BR IF NOT DONE READING YET
*INCR INDEX FOR WRITES
:SEE IF ALL AX BYTES WRITTEN YET
:BR IF NOT DONE WRITING YET

CSERDF

3
EM3
ERR3

CSESCAPE

L10040-.

CZDMRC MB20Z STATIC DIAG #1
CZDMRC.P1
13-MAR14:38
(3)
(3)
5445
5446
5447
5448
5449
5450
5451
5452
5453
5454
5455
5456
5457
5458
5459
5460
5461
5462
5463
5464
5465
(3)
5466
5467
5468
54669
(3)
5470
571
5472
5473
54764
5475
5476
5477
5478
5479
5480
5481
5482
5483
(4)
(3)

(5)
(5)

(3)
(3)
5485
5486
5487
5488
5489

025050
025050
025050

B 1
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 5-6
TEST 15 = EXTENDED REGISTER ADDRESSING TEST
ENDTST

L10040:

104401

AR A

SEQ 0131

.SBTTL

TRAP

CSETST

Il 222222222222222222222

TEST 16 = REGS 15,16 / AX2-15,Ax2-16 READ/WRITE BIT TEST

'* USING REGS 15,16, THE INDIRECT REGS AX2-15,AX2-16 (USYRT REGS 4,5) ARE

;* WRITTEN AND READ USING EACH WORD OF PATTERN K. AX2-15 IS COMPARED
c* Igfiflf KE!;D WRITTEN, AND AX2-16 IS ALWAYS COMPARED TO 103. (AX2=16 IS NOT
%

ix
tw

EAB'

PATTERN K =
FOR REG 15: 000,377.125.252.001.002.004.010.020.040 100.,200.,000,000,

000,000,000,000.000.,000.376.375.373.367.357.337.277.177.
377.377.377.377.377.377.377.377

FOR REG 16: 000.377.125.252.000.000.000.000 000,000, 000,000,001,002,

004,010,020.,040,100,200,377.377.377.377.377.377.377.377.

025052
025052
025052
025056
025062
025062
025062
025064
025072

025076
025104
025112
025120
025124
025130
025136
025140
025146
025154

025160

025160
025162

025164
025166
025170
025170
025172
025174
025
025206
025210
025214

376.375.373.367.357.337.277.177.

'.t.ttttttttttt.tttt"t'ttQQt'tttQQtittt.t.ttttQtttttt.ttt'..Q'Qt.t'tt"'tt'tt"

BGNTST
004737
012701

116137
143737
143737
004737
004737
123737
001416
013737
013737
737

002402

MOV

002376
002374
002376

BICB

002374
002404
002406

104455
000003
012222
015142

005237
123737
001416
005037
113737

JSR
MOV

PC.MSTCLR
#PATK ,R1

;ISSUE MASTER CLEAR
SINIT DATA PATTERN POINTER

#4 ,AXNUM

sSET BYTE NO. = 4

BGNSEG

104404
012737
111137

104410
000052

MOVB
MOVB

8I(B

002671

002404
002671

002404

ANBITS+4,WAX1S

ANBITS+5 WAX16

JSR
PC.WRITAX
JSR
PC ,READAX
CMP8
RAX15,WAX15
BEQ
6$
MOV
WAX15,GOODAT
MOV
RAX15 ,BADDAT
JSR
PC,GE TALL
:REPORT REG MISCOMPARE
ERRDF
3,EM3.ERR3

ESCAPE

002402
002372

(R1),WAX1S
1(R1),WAX16

6%:

INC

CMP8
BEQ
CLR

MOvB

RAX16,PATI+5
9%
GOUDAT

PATI+5,GOODAT

cnNn

(S$BSEG

:SET DATA TO WRITE INTO LO BYTE
*SET DATA TO WRITE INTO HI BYTE

:MASK OFF NON-READ/WRITE BITS IN LO BYTE

:MASK OFF NON-READ/WRITE BITS IN HI BYTE

:LOAD DATA INTO AX2-15,AY2-16
sREAD AX2-15 AND AX2-16
sCOMPARE LO BYTE DATA READ
:BR_IF DATA MATCHES
sSET EXPECTED DATA
:SET ACTUAL DATA
:GET REGS FOR PRINTOUT

TRAP
WORD
.WORD

SEG

AXNUM

TRAP

sSET AX BYTE NO. = 5

:COMPARE HI BYTE DATA READ
:BR IF DATA MATCHES

;SET EXPECTED DATA

CSERDF
3
EM3

.WORD

ERR3

TRAP

CSESCAPE

.WORD
:

100008-.

CZDMRC M8203 STATIC DIAG M

CZDMRC.P1

13-MAR-B0 14:38

222
230
(4)

(3)
(5)

234

025234

25236

025240
025242

013737
004737

002372
004526

MACY11 30A(1052)

13-MAR-80

14:40

PAGE 5-7

TEST 16 - REGS 15 16 / AX2-15,AX2=16 READ/WRITE BIT TEST

002406

nov

RAX16,BADDAT

ERRDF

3,EM3,ERR3

PC,GETALL
;REPORT REG M] SCOMPARE

104455

:SET ACTUAL DATA

*GET REGS FOR PRINTOUT
TRAP

000003

012222
015142

ENDSEG

(3)
5496

5497

5498
5499
(3)
(3)
5500
5501
5502
5503
5504
5505
5506
5507
5508
5509
5510
5511
5512
5513
5514
5515
5516
(3)
5517
5518
5519
5520
(3)
5521
5522

025244
025246

104405
062701

025256
025260
025260
025260

103701

025252

003014

ENDTST

10000%:

#2,R1
R1.APATL

BLO

:INCR PATTERN POINTER
*SEE IF ALL DATA WRITTEN YET

(CSERDF

WORD
.WORD
.WORD

3
EM3
ERR3

TRAP

CSESEG

TRAP

CSETST

*BR IF NOT DONE YET

L10041:

104401

't.ttttttQt".tttttt"'tt'ttfitlttttttttfittfi.Q...t'..Q'tt'...Qtt'tt.'ttt'."t't

.sem

TEST 17 = AX0-15,AX0-16 READ/WRITE BIT TEST

;*
;«
;*
;«

IN THIS TEST, A MASTER CLEAR IS DONE, AND THEN A WRITE, READ, AND COMPARE
ARE PERFORMED IN REGS AX0-15,AX0-16 USING EACH WORD OF PATTERN L.
ANY BITS IN AX0-15,AX0-16 WHiCH ARE NOT READ/WRITE ARE MASKED OFF (TO 0)
IN THE_EXPECTED VALUE BEFORE COMPARISON.
*
PATTERN L =
v
FOR REG 15: 000,377.000
‘%
FOR REG 16: 000.377.000.

.
.
E
.
.
=

025262
025262
025262
025266
025272
025272
025272
025274
025302

5523
5524
5525
526
5527
5528
5529
5530
5531

025306
025314
025322
025330
025334
025340
025
025350
0253

5534

025370

(4)

020127

ADD
CMP

000002

SEQ 0132

025370

'tttttttfittfittttttttttttttttttttttt.tttttfi*tt'tt.tttt'ttt'Q.t.ttt.tttt't.tt.ttt

8 GNTST

004737
012701

003576
003014

;ISSUE MASTER CLEAR
*INIT DATA PATTERN POINTER

002374
002561
002562
004312
004124
002370
002374
002370

MOV

#0 ,AXNUM

:SET BYTE NO. = 0

movB
MOVB
BICB

:SET DATA TO WRITE INTO LO BYTE
:SET DATA TO WRITE INTO HI BYTE
:MASK OFF NON-READ/WRITE BITS IN LO BYTE

PC,WR] TAX

;LOAD DATA INTO AX0-15,AX0-16

BI(B

ANBITS+1 ,WAX16

JSR
(MP8

PC ,READAX
RAX15 ,WAX15

;READ AX0-15
AND AX0-16
:COMPARE LO BYTE DATA READ

WAX15, GOODAT
RAX15 ,BADDAT
PC,GETALL

sSET EXPECTED DATA
:SET ACTUAL DATA
:GET REGS FOR PRINTOUT

JSR

BEQ
MOV
MOV
JSR

ERRDF

TRAP

(R),wAXx1S
1(R1),WAX16
ANBITS+0,WAX15

;REPORT REG MISCOMPARE

104455

T17::

PC.MSTCLR
#PATL ,R1

BGNSEG

104404

012737
111137
116137
143737
143737
004737
004737
123737
001416
013737
013737

JSR
MOV

3,EM3,ERR3

($BSEG

;MASK OFF NON-READ/WRITE BITS IN HI BYTE

:BR_IF DATA MATCHES

TRAP

CSERDF

CZDMRC M8203 STATIC DIAG #
13-MAR
CZDMRC.P11
14:38

025%72

o 1N

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 5-8
TEST 17 = AX0-15,Ax0-16 READ/WRITE BIT TEST

000003
012222
015142
104410

000046
005;37
123737

002402
002372

013737
013737
004737

002376
002372
004526

001414

002376

6$%:

002404
002406

SEG

INC
(MPB
BEQ
MOV
MOV
JSR

AXNUM
RAX16,WAX16
9
WAX16,GOODAT
RAX16 ,BADDAT
PC,GETALL

ERRDF

3,EM3,ERR3

JSET AX BYTE NO. = 1
sCOMPARE HI BYTE DATA READ
:BR IF DATA MATCHES
sSET EXPECTED DATA
JSET ACTUAL DATA
;GET REGS FOR PRINTOUT

sREPORT REG MISCOMPARE

104455
000003

012222
015142

103703

ESCAPE

SEQ 0133
3
EM3
ERR3

TRAP
.WORD

CSESCAPE
100008-.

TRAP
.WORD
.WORD

CSERDF
3
EM3

TRAP

CSESEG

TRAP

CSETST

.WORD

9%:

ENDSEG

000002
003022

100008:

ADD

#2.R1

BLO

CMP

ENDTST

;INCR PATTERN POINTER
sSEE IF ALL DATA WRITTEN YET
;BR IF NOT DONE YET

R1,#PATM

L10042:

104401

LWORD
.WORD
.WORD

12122322223

TEST 18 - AX1-15,AX1-16 READ/WRITE BIT TEST

.SBTTL

ERR3

23222222223322131TS

- %

:* IN THIS TEST, A MASTER CLEAR IS DONE, AND THEN A WRITE, READ, AND COMPARE
:* ARE PERFORMED IN REGS AX1-15,AX1-16 USING EACH WORD OF PATTERN K.
:* ANY BITS IN AX1-15,AX1-16 WHICH ARE NOT READ/WRITE ARE MASKED OFF (TO 0)

;* IN THE EXPECTED VALUE BEFORE COMPARISON.

AT A

AN AR A

AR A

BGNTST
38

AR AR AR AR AR AN AN AN AR AN AR AN AR

R AN AR AR

JSR
MOV

PC _MSTCLR
#PATK R1

;ISSUE MASTER CLEAR
s INIT DATA PATTERN POINTER

MOV

#2 ,AXNUM

sSET BYTE NO. = 2

MOVB
BI(B

1(R1),WAX16
ANBITS+2 WAX1S

sSET DATA TO WRITE INTO HI BYTE
:MASK OFF NON-READ/WRITE BITS IN LO BYTE

JSR
JSR

PC,WRITAX
PC ,READAX

sREAD AX1-15

BGNSEG

002402

002376
002374

002376

025544

123737

002374

AN ARAR

MOvVB
8I(B

(MP8

(RT) WAX15

ANBITS+3, WAX16

RAX15,WAX15

TRAP

sSET DATA TO WRITE INTO LO BYTE

;MASK OFF NON-READ/WRITE BITS IN HI BYTE
;LOAD DATA

INTO AX1-15,AX1-16
AND AX1-16

:COMPARE LO BYTE DATA READ

($BSEG

CZDMRC MB203 STATIC DIAG M

CZDMRC.P11

13-MAR

14:38

0014.19
0137

004737

104455
000003

13-MAR-B0 14:40 PAGE 5-9
TEST 18 = AX1=15,AX1-16 READ/WRITE BIT TEST

N
N
N
N

63
WAX1S ,GOODAT
RAX1S "BADDAT

MOV

JSR

GE TALL

sREPORT REG HISCWE

012222
015142

ERRDF

3.EM3,ERR3

ESCAPE

SEG

SEQ 0134

;BR _IF DATA MATCHES
sSET EXPECTED DATA

sSET ACTUAL DATA

;GET REGS FOR PRINTOUT

00237¢

NOw

00
Qo 0o

ViV
Vi

[V, ]

BEQ
MOV

002404
002406

SS% 01 757 002370

MACY11 30A(1052)

MOV
nov

WAX16,GOODAT
RAX16 ,BADDAT

PC,GETALL

JREPORT REG HISCWARE
ERRDF
3.EM3,ERR3

104455

000003
012222
015142

103703

AXNUM
RAX16,WAX16

BEQ

002404
002406

5588

INC
CMPB

9%:

;SET AX BYTE NO. =
;COMPARE HI BYTE DATA READ
:BR IF DATA MATCHES
sSET EXPECTED DATA
sSET ACTUAL DATA

ENDTST

ADD
CMP
BLO

100008:

#2,R1
R1,#PATL
3s

:INCR PATTERN POINTER
;SEE IF ALL DATA WRITTEN YET
;BR IF NOT DONE YET

L10043:

104401

.SBTTL

NOWnWSs W= O

5607

CSERDF
3
EM3
ERR3

TRAP

CSESCAPE

TRAP
.WORD
.WORD
.WORD

CSERDF
3
EM3
ERR3

TRAP

CSESEG

TRAP

CSETST

.WORD

100008~-.

:GET REGS FOR PRINTOUT

ENDSEG

000002
003014

TRAP
WORD
.WORD
.WORD

1213232222223222222232212111%

TEST 19 - AX3-15,AX3-16 READ/WRITE BIT TEST

;* IN THIS TEST A MASTER CLEAR IS DONE AND THEN A WRITE, READ, AND COMPARE ARE
;* PERFORMED IN REGS AX3-1 AX3-16 USING EACH WORD OF PATTERN V FOR WRITING,

;* AND PATTERN U FOR COMPARING.
;* ANY BITS IN AX3-15,AX3-16 WHICH ARE NOT READ/WRITE ARE MASKED OFF

;: INP;#E&XPSCIED VALUE BEFORE COMPARISON.

>
e
o*

FOR REG 15 : 000,333,331,323,313.233.133,000,000,000,000,

FOR REG 16 : 000-000000-

" 100,200

000 000" 000" 000" 905 002004040
345:92?: 0713291147'
i
i

FOR REG 15 : 000,001

011.,021.,101.301,000, 000,000,000,

PATTERN U =

000000

000.000.000.000.000

(TO 0)

CZDMRC MB203 STATIC DIAG 01
13-MAR-80
CZDMRC.P11
1 4£:38

F 11
MACY11 30A(1052)
13-MAR-80 14 :40 PAGE S- 10
TEST 19 = AX3-15,AX3-16 READ/WRITE BIT TEST
FOR REG 16

o *

SEQ@ 0135

.000,001,002,004,040,
200; 346, 303. 343 307
7,247,147

"."'t'Q.'Q'Q'Q..Q"Q'"".'....'QQ.'.Q'Q.Q.Q.'...Q.."QQQ'QQ.Q""".Q"..."

TST

003576
000010
003152
003104

JSR

154544

BICB

3s:

MOV

002376

MOVB

002370
002370

A ¥

104455

JSR
JSR

PC,WRITAX
PC _READAX

002402
002372
002404
000001
002372
004526

104455

000003
012222
015142

000001

6%:

1(R2),WAX16

000002
000002
003152

;LOAD DATA

:READ AX3-15

#AX315U.RAX1S
#C32BCC.RAX15
RAX1S, (R1)

sMASK OFF UNPREDICTABLE BITS

BEQ

;CLEAR CRC32 BCC BIT
:COHPARE LO BYTE DATA READ
;BR IF DATA MATCHES

MOV
JSR

RAX15,BADDAT
PC,GE TALL

sSET EXPECTED DATA
;SET ACTUAL DATA
;GET REGS FOR PRINTCUT

AXNUM
RAX16,1(R1)

CLR
MOVB

GOODAT
1(R1),GOODAT

;SET AX BYTE NO., = 7
;COMPARE HI BYTE DATA READ
;BR IF DATA MATCHES

RAX16 .BADDAT
PC,GE TALL

;SET EXPECTED DATA
;SET ACTUAL DATA
;GET REGS FOR PRINTOUT

;REPORT REG MISCOMPARE
ERRDF
3,EM3,ERR3

ENDSEG

ADD

ADD
CMP

10000%:

#2.R2

#2 R1
R1.APATY

TRAP

CSERDF

.WORD
.WORD
.WORD

SEG

INC
(MPB

C$BSEG

AND A¥3-16

BICB
BICB
CMPB

GOODAT
(R1),GOODAT

TRAP

INTO AX3-15,AX3-16

SSEIIF eg INTERFACE IS SELECTED

MOV
JSR

9%:

;SET BYTE NO. = 6
sSET DATA TO WRITE INTO LO BYTE
sSET DATA TO WRITE INTO HI BYTE

zrssr.ums

BEQ

002404
002406

T19::

BITB

ESCAPE

104410

020127

(Ré) WAX15

;REPORT REG MISCOMPARE
ERRDF
3,EM3,ERR3

000003
012222
015142

026120

AXNUM

MOVB

CLR
MOVB

002406

#LULOOP,aBSEL1

#PATV RS
#PATU R1

s ISSUE MASTER CLEAR
;CLEAR LULOOP
sINIT PATTERN V POINTER
:INIT PATTERN U POINTER

BGNSEG

002402

002374

004737

MOV
MOV

PC,MSTCLR

s INCR PATTERN V POINTER
s INCR PATTERN U POINTER
sSEE IF ALL DATA WRITTEN YET

ERR3

TRAP

CSESCAPE
100008~.

TRAP

CSERDF
3
EM3

.WORD
.WORD
.WORD

ERR3

TRAP

CSESEG

CZDMRC M8203 STATIC DIAG #1

CZDMRC.P11T
5660
5661
(%)
(3)

026126
026126
026126
026126

13-MAR-80 14:38

G 1
MACYT1 30A(1052)
13-MAR-B0 14:40 PAGE 5-11
TEST 19 = AX3-15,AX3-16 READ/WRITE BIT TEST

103673

ENDTST

SEQ 0136

;BR IF NOT DONE YET

L10044:

104401

TRAP

CSETST

5663

AR AR A

.SBTTL

22222323222

TEST 20 = REG 17 = AX2-16 READ/WRITE, MASTER CLEAR TEST

. %

:* THIS TEST CONSISTS OF 2 SUBTESTS.

22222%

IN THE FIRST SUBTEST, EACH BYTE OF PAT 0

:* IS WRITTEN INTO REG 17 AND AFTER EACH WRITE, AX2=16 IS READ AND COMPARED
:* TO A BYTE OF PAT P,

;*
:*

PATTERN 0 = 000,041,004,010,020,040,100,101,200,201,300,111,301,375
PATTERN P = 000,113,200,040,020,010,001,104,007,105,007,144,107,157

:* IN THE_SECOND SUBTEST, REG 17 IS LOADED WiTH $75, A MASTER CLEAR IS ISSUED,
;* AND Ax2-16 IS COMPARED TO ITS INITIALIZED STATE (103).

AR AR g
iy
Il
t
2233 2232223222223 223222113% 5

BGNTST
5679

026130

004737

003576
003050
003066
000017
000005

120

JSR
MOV
MOV
MOV
MOV

002400
002402

PC,MSTCLR
#PATO,R1
#PATP ,R2
#17 ,REGNUM
#5 ,AXNUM

;ISSUE MASTER CLEAR
JINIT PAT O POINTER
JINIT PAT P POINTER
sSET LU REG NO. = 17
sSET AX BYTE NO. = S FOR AX2-16

; WRITE REG 17, READ AND COMPARE AX2-16
BGNSUB

3%:

BGNSEG

MOVB
JSR
JSR
(MPB
BEQ
CLR

MOVB
CLR

002406

120.1:

MOVB
MOV

(R1) ,WRIBYT
PC,WRITLU
PC ,READAX
RAX16, (R2)
6%

;SET BYTE TO BE WRITTEN
JWRITE DATA BYTE INTO REG 17
;READ AXZ2
;COMPARE AX2-16 TO EXPECTED DATA
;BR IF DATA MATCHES

(R1) ,LOADAT

oSET DATA WHICH WAS WRITTEN

(R2) ,GOODAT
RAX16 ,BADDAT

;SET EXPECTED DATA READ
JSET ACTUAL DATA READ

LOADAT

GOODAT

JSR
PC,GETALL
;REPORT REG MISCOMPARE
ERRDF
3,EM3,ERRS

6%:

TRAP

C$8suB

TRAP

($BSEG

TRAP

CSERDF

;GET REGS FOR PRINTOUT

.WORD
.WORD
.WORD

ENDSEG

10000%:

3
EM3
ERRS

CZDMRC MB203 STATIC DIAG M
CZDMRC.P11
1

m-&o 14:38

N = O~

I (i

32383

(3)

026250
026252
026254

H1
MACY11 30A(1(T)52)
13-MAR-80_ 14:40 PAGE 5-12
EST 20 = REG 17 = AX2-16 READ/WRITE, MASTER CLEAR TEST

104405

005201
00520
0201

INC
INC

CMP
BLO

003066
103737
s
026264

026264
026264

ENDSUB

R1
R2

R1,4PATP
3s

:INCR PAT 0 POINTER
*INCR PAT P POINTER

SEQ 0137
IRAP

(SESEG

TRAP

(CSESUR

TRAP

($8SUB

“SEE IF ALL BYTES LOADED YET
*BR IF NOT
L10046:

104403

: LOAD REG 17, DO MASTER CLEAR, READ AND COMPARE AX2-16

002366

MOVB

WWWN = N

- 9288382882
S

BGNSUB

;SET DATA TO BE LOADED

PC,WRITLU
PC.MSTCLR
PC .READAX

:LOAD DATA INTO REG 17
*PERFORM MASTER CLEAR
*READ AX2-15,AX2-16

BEQ

‘BR IF YES

MOV
JSR

RAX16,BADDAT
PC,GE TALL

:SET ACTUAL DATA
*GET REGS FOR PRINTOUT

CLR
MOVB

002404
002406

#375,WRIBYT

JSR
JSR
JSR

(MPB

002671

120.2:

RAX16,PATI+S

GOODAT
PATI+S5,GOODAT

-SEE IF AX2-16 WAS INIT'D CORRECTLY
:SET EXPECTED DATA

;REPORT REG NOT INITIALIZED BY MASTER CLEAR
ERRDF

2,EM2,ERR3

TRAP

6%:

ENDSUB

L10047:

ENDTST

L10045:

CSERDF

.WORD
.WORD
.WORD

2
EM2
ERR3

TRAP

(SESUB

TRAP

CSETST

I3 22223222223223223233333333
I
3

.SBTTL
TEST 21 - TRANSMITTER BUFFER DATA TEST
:* A MASTER CLEAR IS DONE FIRST, AND THEN A BYTE OF PATTERN N IS LOADED INTO
:* REG 11 AND THE NEXT BYTE IS LOADED TWICE INTO REG 10. THE PROGRAM THEN WAITS
;* AT LEAST 50 MICRO-SEC, AND THEN IT READS AND COMPARES AX1-15 TO THE BYTE
;* WHICH WAS LOADED INTO REG 10, AND IT READS AND COMPARES AX1-16 TO THE BYTE
;* WHICH WAS LOADED INTO REG 11.

THIS PROCESS IS REPEATED (INCLUDING THE MASTER

* CLEAR) FOR EACH PAIR OF BYTES IN PATTERN N.

5745
5746
(3)

*
*
*

026362
026362

PATTERN N =
FOR REG 10: 000,125,252,377,000,000,000
FOR REG 11: 000,000,000,000,005,012,017

121::

CZDMRC MB8203 STATIC (_)&A)G "
CZDMRC.P1T
13-MAR
14:38

57647

026362

01270
012737
104402

004737
004737
000001
012737
111137

003032
026630

MACY11 30A(1052)

MOV
MOV

002362

BGNSUB

3$:

sINIT PATTERN POINTER
sSET SUBROUTINE ERROR RETURN ADDRESS
121.1:

($8suUB

MOV

#11 ,REGNUM

REAL

sSET LU REG NO. = 11
sSET DATA BYTE TO BE WRITTEN
SWRITE BYTE INTO REG 11
sSET LU REG NO. = 10

JSR
JSR
gsn

PC.WRITLU
PC.WAITS0
PC.OSIRDY

;WRITE BYTE INTO REG_10
SWRITE IT AGAIN (SO 2 ENTRIES ARE IN SILO)
sWAIT FOR SILO DATA TO RIPPLE
sCHECK ORDY AND OCOR FOR EXPECTED STATES

000001

MOV
JSR
CMPB

#2 , AXNUM
PC ,READAX
RAX15,1(R1)

002404
002406

MOVB
MOV

1(R1),GOODAT
RAX15 .BADDAT

002400

.1:sa

MOVB

MOVB
JSR

002402

026532

#PATN,R1
#A2
,RE TADR

SEQ 0138

PC,MSTCLR

004737

INn
PAGE 5-13

JSR

002366

026526

14:40

TEST 21 = TRANSMITTER BUFFER DATA TEST

003576
004662
000011

13-MAR-80

BEQ
CLR
JSR

PC.OSIRDY

(R1),WRIBYT

1(R1),WRIBYT
PC,WRITLU

I3
GOODAT

PC,GETALL

;REPORT REG MISCOMPARE
ERRDF
3,EM3,ERR3

104455
000003
012222
015142

s ISSUE MASTER CLEAR
sCHECK ORDY AND OCOR FOR EXPECTED STATES

sSET DATA BYTE TO BE WRITTEN

;SET BYTE NO. FOR AX1-15
;READ AX1-15, AX1-16
;COMPARE AX1-15 TO EXPECTED
;BR IF MATCH
;SET EXPECTED DATA
sSET ACTUAL DATA
:GET REGS FOR PRINTOUT
CSERDF

ESCAPE

104410

000064
005237
123711
001417
005037
111137
013737
004737

6$:

002406

INC
CMPB
BEQ
CLR
MOVB

AXNUM
RAX16, (R1)
9s
GOODAT
(R1),GOODAT

JSR

PC,GETALL

MOV

RAX16 ,BADDAT

;REPORT REG MISCOMPARE
ERRDF
3,EM3,ERR3

ESCAPE

000002
003050

0%:
A2:

SUB

ADD

#2.R1

BLO

CMP

ENDSUB

ERR3

SUB

R1.#PATO

sINCR AX BYTE NO.
s COMPARE AX1-16 TO EXPECTED
:BR IF MATCH

.WORD

CSESCAPE
L10051~-.

TRAP

CSERDF

sSET EXPECTED DATA
sSET ACTUAL DATA
;GET REGS FOR PRINTOUT

.WORD
.WORD
.WORD

ERR3

TRAP
.WORD

L10051-.

s INCR DATA PATTERN POINTER
sSEE IF ALL DATA BYTES WRITTEN YET
;BR IF NOT DONE YET

CSESCAPE

CZDMRC MB203 STATIC DIAG "38
CZDMRC.P1
13-MAR-80 14
(3)
(3)
789
(3)

J N
MACY11 30A(1052)
_13-MAR-80 14:40 PAGE 5-14
TEST 21 = TRANSMITTER BUFFER DATA TEST

104403

SEQ 0139

L10051:

ENDTST

L10050:

104401

.SBTTL

TRAP

CSESUB

TRAP

CSETST

AR Al itt
2222223222232
t
22222222223

TEST 22 = TRANSMITTER BUFFER SEQUENCING TEST

:* FIRST, A MASTER CLEAR IS DONE, AND THE PROGRAM CHECKS FOR ORDY=1, OCOR=0.

:* THEN, 2 TSOM CHARS ARE LOADED INTO THE TX SILO, AND ALLOWED TO RIPPLE
:* DOWN TO THE OUTPUT. THE PROGRAM CHECKS FOR ORDY=1, OCOR=1.
;* NEXT, THE PROGRAM CYCLES THE STEPLU BIT UNTIL OCOR=0 AGAIN, AND CHECKS FOR

;* THIS TO OCCUR WITHIN 3 CYCLES.

:* THE SILO IS THEN FILLED WITH 64 BYTES OF A 256-BYTE BINARY COUNT PATTERN

;* (000-377) AND THE PROGRAM CHECKS FOR ORDY=0 AFTER THE 64TH CHAR IS LOADED.

:* THE PROGRAM CYCLES STEPLU FOR 8 CYCLES AND CHECKS THAT AFTER THE 8TH, ORDY=1.

;* AX1=15 IS READ AND COMPARED TO EXPECTED DATA.

:* THE REST OF THE BINARY COUNT DATA BYTES ARE LOADED, CYCLED 8 CLOCKS, READ AND
:* COMPARED, A BYTE AT A TIME. UPON COMPLETION, THE SILO IS CHECKED TO BE EMPTY
;* WITH ORDY=1, OCOR=0.

ittt

BGNTST
012737

027310

MoV

002362

#A3 ,RETADR

122222222222

122

;SET SUBR ERROR RETURN ADDR

: SET MASTER CLEAR, CHECK FOR ORDY=1, OCOR=0
004737

003576
004662

JSR
.1JSR

PC,MSTCLR

PC,OSIRDY

s ISSUE MASTER CLEAR

:CHK ORDY=1, OCOR=0

: LOAD 2 SOM CHARS, ALLOW SILO TO RIPPLE, CHK ORDY=1, OCOR=1
000400
005174
005174
005146
004662

002422

MOV

JSR
JSR
JSR
iSR

#TXSOM,TXWORD

PC,LDTXSI
PC.LDTXS]
PC.WAIT50
PC.OSIRDY

;SET DATA TO WRITE INTO SILO

*LOAD THE SILO WITH SOM
*LOAD ANOTHER SOM
*WAIT FOR DATA TO RIPPLE

*CHK ORDY=1, OCOR=1

: CLOCK LINE UNIT, CHK FOR OCOR = O WITHIN 3 CYCLES

026740

005001
012737
004737
000001
004737
132737
00}404
005201
020127

000017
005254

003672
000020
000003

002400

002364

P
3s:

CLR

MOV
4sa

JSR

BITB

BEQ

INC
MP

sINIT CYCLE COUNTER TO 0

PC,STPLU

*STEP LU 1 CYCLE

#17 ,REGNUM
PC,READLU

W#OCOR,REDBYT

R1
R1,43

*SET REG NO. = 17
:READ REG 17

:SEE IF OCOR = O YET

*BR IF OCOR = 0

*INCR CYCLE COUNT
sSEE IF 3 CYCLES DONE YET

2232322222222

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38
5840
5841
5845
584
5844
5845
5846
5847
5848
5849
5850
5851
585
585

026744
026746
026752

002763
004737
000001

K1
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 5-15
TEST 22 = TRANSMITTER BUFFER SEQUENCING TEST

004662

6$:

8s$:

027022
027022

5857
5858
5859
5861
000011

9s:

MOV

148:

LWORD

128:

168:

JSR

INC
cTMP
BLT

:BR IF NO

*CHK ORDY=1, 0COR=0

R3, TXWORD
PC.LDTXSI
PC.WAITS0
R3.463.
9%

gius

#3,148

:INIT PATTERN FOR WRITING

:SET DATA TO BE WRITTEN
:LOAD DATA CHAR INTO TX SILO
:WAIT FOR DATA TO RIPPLE IN SILO
:SEE IF 64TH CHAR JUST LOADED
“BR
IF NO

:SET UP TO CHK ORDY=0,0COR=1

:SET UP TO CHK ORDY=1,0COR=1

PC.OSIRDY

:CHK ORDY, OCOR

R3
R3,#64.
8%

;INCR PATTERN FOR WRITES
:SEE IF 64 CHARS LOADED YET
*BR
IF NO

‘

MOV

#11 ,REGNUM

.1:sa

PC.STPLU

+CLOCK LU FOR 1 CYCLE

PC ,READLU

;READ REG 11

198
R1
R1,48.
168
PC,0SIRDY

*BR IF YES
*SEE IF 8 CYCLES YET
:BR IF NOT YET
<CHK ORDY= “, OCOR = 1

CLR

JSR

3 002364

5871
5872
5873
5874
5875
5876
5877
5878
5879
5880
5881
5882
5883

BITB

BNE
INC

000010

198:

004662

cTMP
BLT
gsa

#ORDY,REDBYT

;SET REG NO. = 11

“INIT CYCLE COUNT

:SEE IF ORDY = 1

YET

“INCR CYCLE COUNT

: READ AND COMPARE FIRST CHARACTER IN AX1-15
CLR

002402

#2 , AXNUM
PC .READAX

BEQ
MOV
MOV
JSR

208
R4, GOODAT
RAX7S,BADDAT
PC GE TALL

wvin

LY
NTaYo)

&~MNOW
ONWW

ERRDF

;INIT PATTERN FOR READING

*SET AX BYTE NO. FOR AX1-15
*READ AX1-15
:COMPARE AX1-15 TO EXPECTED
*BR IF MATCH
*SET EXPECTED DATA
:SET ACTUAL DATA
*GET REGS FOR PRINTOUT

3,EM3,ERR3
TRAP

ESCAPE

RROSER

233333

RAX15,Ré4

:REPORT REG MI SCOMPARE

W=
O

027144

002406

SR SnoR

5887

027140

MOV
JSR

CMPB

5885

5889

CLR

MOV
JSR
JSR
P
BNE
Bmgv

002400

005254

5869

(3)
(3)

PC,0SIRDY

: CLOCK LINE UNIT, CHECK ORDY = 1 WITHIN 8 CYCLES

5863
5864
5865
5866
5867

(5)
(5)
(5)

.1:sa

: LOAD 64 BINARY COUNT CHARS INTO SILO, CHK ORDY=0

5855

(4)

BLT

SEQ 0140

TST

L.WORD
.WORD
.WORD
iRAP

:
208

.WORD

CSERDF

3
EM3
ERR3

CSESCAPE

L10052-.

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1T
13-MAR-80 14:38

LN
PAGE 5-16
TEST 22 = TRANSMITTER BUFFER SEQUENCING TEST
13-MAR-80

MACY11 30A(1052)

14:40

SEQ 0141

: LOAD AND COMPARE REST OF CHARS, MONITOR ORDY, OCOR
2%8:

268:

002406

104455
000003
012222
015142

004737
000001
000404
004737
000003
000724

R3,4255.

;SEE IF ALL CHARS LOADED YET

268
R3, TXWORD
PC.LDTXS!
R3
PC,O0SIRDY

*BR IF YES
*SET DATA TO BE WRITTEN
*LOAD DATA CHAR INTO TX SILO
*INCR DATA TO BE WRITTEN
*CHK ORDY=0, OCOR=1

INC

:INCR PAT FOR READING

JSR
CMP8
BEQ
MOV
MOV
JSR

PC ,READAX
RAX15,R4
27%
Ré, GOODAT
RAX15,BADDAT
PC,GE TALL

;READ AX1-15
*COMPARE AX1-15 TO EXPECTED
*BR IF MATCH
*SET EXPECTED DATA
:SET ACTUAL DATA
*GET REGS FOR PRINTOUT

gsn

PC.STPLU

;REPORT REG MISCOMPARE
ERRDF
3,EM3,ERR3

+CLOCK LINE UNIT FOR 8 CYCLES

TRAP
.WORD
-WORD
-WORD

ESCAPE

104410

000030
020427
001004

(WP

BGT
MOV
JSR
INC
55&

000377

27%:

004662
004662

(WP

5
ENDTST

104401

RG ,#255.

;SEE IF WE READ LAST CHAR YET

BNE

29%

B8R

PC,OSIRDY

:CHK ORDY=1, OCOR=1

B8R

24$

: CONT INUE

45&

298 :

TST

%sn

PC,0SIRDY

CSERDF

M3
ERR3

TRAP

.WORD

CSESCAPE
L10052-.

TRAP

CSETST

*BR
IF NOT

*CHK ORDY=1, OCOR=0

L10052:

ttttit.tttt.ilttttttttttQ'tttt.ttttfitittttttttfi't."ttt'tt"t'fi.t'..tt..t.'t

sem

TEST 23 = TX MSG TIMING TEST, CHAR MODE, WITH CRC

:- IN THIS TEST, AN ENTIRE MESSAGE IS TRANSMITTED (USING STEPLU AND LULOOP)
:* AND THE PROGRAM MONITORS THE OCCURRENCE OF USYRT TX BUFFER EMPTY FLAGS
:* (BY SCANNING ORDY AND OCOR) AND OACT, AT EACH STEP. THE TEST IS DONE IN
;* CHARACTER ORIENTED PROTOCOL MCDE, USING 8-BIT CHARS AND CRC-16.
:* THE FOLLOWING STEPS ARE DONE:
;% A MASTER CLEAR IS DONE, AND THE LINE UNIT IS PLACED IN CHAR MUDE.
;% SOM IS SET TWICE TO SEND 2 SYNCH CHARS. THEN, 2 000 CHARS ARE SENT. AND
“* THEN 2 TERMINATING SYNCHS ARE SENT.

CZDMRC MB203 STATIC D AG M
13-MAR
CZDMRC.P11
14:38

MmN
MACY11 30A(1052)
_13-MAR-80 14:40 PAGE 5-17
TEST 23 = TX MSG TIMING TEST, CHAR MODE, WITH CRC

SEQ 0142

;* THE TRANSMITTER IS THEN DISABLED, USING OC, AND OACT IS MONITURED FOR THE

;* CLEARED STATE AFTER THE 3RD SYNCH COMPLETES.
AR

BGNTST

02731%

el
88883383383383

;SET TEST EXIT ADDRESS FOR ERRORS
;DO MASTER CLR, LOAD 2 SOM'2

006122

533

PC, TXCHAR

;LOAD A 000 CHAR, TX FIRST SYNCH (226)

006122

(st)g

SYNCH
STRIP!DDCMP

CHPCHK
! 8.

PC.,TXCHAR

;LOAD 2ND 000 CHAR, TX 2ND SYNCH

JSR
TXEOM

PC.,TXCHAR

006122

JSR

PC, TXCHAR

;LOAD EOM CHAR, TX 2ND 000 CHAR

006122

JSR

PC, TXCHAR

:LOAD EOM, TX CRC-16 CHAR

006122

JSR

PC,TXCHAR

;LOAD EOM, TX FIRST TERMINATING SYNCH

006122

JSR

PC, TXCHAR

:LOAD EOM, TX 2ND TERMINATING SYNCH

JSR

PC,ENDTRN

:SET OC, MONITOR OCOR

PC.MSTCLR

;ISSUE MASTER CLEAR TO CLEAN UP

006274

003576

TXEOM
rgson

TXEOM

B
)

ENDTST

;LOAD EOM CHAR, TX FIRST 000 CHAR

L10053:

223222320 322223222222323223

#A4 ,RETADR
PC,INITRN

MOV
JSR

006122

o u=

00ssa0 202>

§§§§E§§E§§Q§§E‘§

027324

ARttt

.SBTTL
T

TRAP

CSETST

Tl 122323232322222222232322222
)

TEST 24 - TX MSG TIMING TEST, BIT MODE, WITH CRC

:* IN THIS TEST, AN ENTIRE MESSAGE IS TRANSMITTED (USING STEPLU AND LULOOP)
:* AND THE PROGRAM MONITORS THE OCCURRENCE OF USYRT TX BUFFER EMPTY FLAGS
;% (BY SCANNING ORDY AND OCOR) AND OACT, AT EACH STEP. THE TEST IS DONE IN
:* BIT ORIENTED PROTOCOL MODE, USING 8-8BIT CHARS AND CRC-CCITT-1.
:* THE FOLLOWING STEPS ARE DONE:
:* A MASTER CLEAR IS DONE. AND THE LINE UNIT IS PLACED IN BIT MODE.
;* SOM IS SET TWICE TO SEND 2 FLAG CHARS. THEN, 2 000 CHARS ARE SENT, AND
;* THEN 2 TERMINATING FLAGS ARE SENT.
:* THE TRANSMITTER IS THEN DISABLED, USING OC, AND OACT IS MONITORED FOR THE
:* CLEARED STATE.
027432

BGNTST

T332

2223222

CZDMRC MB203 STATIC DIAG #1
13-MAR
CZDMRC.P11
14:38
(3)

5991

5994

2995

6007

0274

8%74

446

012737
004737

000029

027534
005540

MACY11 30A(7052)

_13-MAR-B0

MOV

002362

000

006122

5058

027460

004737

006122

(st)g

006122
006122

027530

00001
004737

006274

6015

027534

004737

003576

:DO MASTER CLR, LOAD 2 SOM'

PC, TXCHAR

;LOAD A 000 CHAR, TX FIRST FLAG
;LOAD 2ND 000 CHAR, TX 2ND FLAG

JSR

PC., TXCHAR

;LOAD EOM CHAR, TX FIRST 000 CHAR

.%"s(gm

PC,TXCHAR

;LOAD EOM, TX 2ND 000 CHAR AND CRC=-CCITT=1 CHAR

JSR

PC, TXCHAR

;LOAD EOM, TX FIRST TERMINATING FLAG

JSR

PC, TXCHAR

:LOAD EOM, TX 2ND TERMINATING FLAG

JSR

PC.ENDTRN

;SET OC, MONITOR OCOR

PC.MSTCLR

:ISSUE MASTER CLEAR TO CLEAN UP

TXEOM

.
'

ENDTST

.SBTTL
.

.
.

.
-

.
.

BN B

.
.

.
.
.

2R 2R BN I

T24::

;SET TEST EXIT ADDRESS FOR Sms

PC,TXCHAR

006122

SEQ 0143

PC,INITRN

CHPCHK
! 8.

006122

6013

#AS ,RE TADR

538

004737

0000
884737

N1
PAGE 5-18

TEST 24 = TX MSG TIMING TEST, BIT MODE, WITH CRC

027450

027510

14:40

L10054:

TRAP

CSETST

Rl itt
It
1T 1222222222222
t
222222221225

TEST 25 = TX MSG TIMING TEST, CHAR MODE, WITH NO CRC

IN THIS TEST, AN ENTIRE MESSAGE IS TRANSMITTED (USING STEPLU AND LULOOP)
AND THE PROGRAM MONITORS THE OCCURRENCE OF USYRT TX BUFFER EMPTY FLAGS
(BY SCANNING ORDY AND OCOR) AND OACT, AT EACH STEP. THE TEST IS DONE IN
CHARACTER ORIENTED PROTOCOL MODE, USING 8-BIT CHARS AND NO ERROR CHECKING.
THE FOLLOWING STEPS ARE DONE
:
A MASTER CLEAR IS DONE, AND THE LINE UNIT IS PLACED IN CHAR MODE.
SOM IS SET TWICE TO SEND 2 SYNCH CHARS. THEN, 2 000 CHARS ARE SENT, AND
THEN 2 TERMINATING SYNCHS ARE SENT.
THE TEST IS PERFORMED WITH TXEN (REG14, BIT6) SET, AND THE PROGRAM CHECKS
THAT THIS HOLDS RTS HIGH PAST THE END OF THE MESSAGE.
(T:tlENT‘ESN?#}EER IS THEN DISABLED, USING OC, AND OACT IS MONITORED FOR THE

it
il
Il
It I 2223232322223
y
222 22232331

BGNTST

6039
6042

027542
027556

012737
004737
6
000311

027730
005540

002362

MOV

gez(:“

#A6,RETADR
PC,INITRN

CRC2!CRC1!STRIP'DDCMP

T25::

JSET TEST EXIT ADDRESS FOR ERRORS

DO MASTER CLR, LOAD 2 SOM'?2

PC,TXCHAR

;LOAD EOM CHAR, TX 2ND 000 CHAR

JSR

PC.,TXCHAR

;LOAD EOM, TX FIRST TERMINATING SYNCH

PC,TXCHAR

;LOAD EOM, TX 2ND TERMINATING SYNCH

JSR

PC,STPLU

;CLK PAST END OF MSG

MOV
JSR
BIT
BNE
JSR

#13 ,REGNUM

PC iGE TALL

ERRDF

60,EM60,ERR7

JSR

PC,ENDTRN

sSET OC, MONITOR OCOR

JSR

PC,MSTCLR

;ISSUE MASTER CLEAR TO CLEAN uP

24.

002400

002364

PC ,READLU

#RTS ,REDBYT

sREPORT RTS NOT

3s:
ENDTST

;SET REG NO, = 13

;READ REG 13
;CHK FOR RTS STILL SET
:BR IF RTS SET
;GET REGS FOR PRINTOUT

L10055:

.SBTTL

CSERDF
ERR7

CSETST

T332 232222232223322222233111
S

TEST 26 = TX UNDERRUN SET AND CLEAR TEST - CHAR MODE

;* IN THIS TEST, A TX UNDERRUN ERROR IS FORCED IN EACH OF 2 SITUATIONS,

:# AND THEN CLEARED DIFFERENTLY IN EACH.
THE FIRST A MESSAGE IS INITIATED, A 000 CHAR IS SENT, AND THE TX
|
EP IS
SERVICED IN RESPONSE TO THE USYRT TX BUFFER EMPTY FLAG,
O

003576

JSR
TXEOM

HC
THI S

027730
027730
027734
027734
027734

;LOAD EOM CHAR, TX FIRST 000 CHAR

TXEOM

6075
6076
(3)
(3)

PC,TXCHAR

JSR

005254

006274

JSR
TXEOM

006122

027714
027716

027720
027722
027724

;LOAD 2ND 000 CHAR, TX 2ND SYNCH

TXEQOM

M-

(5)

PC,TXCHAR

006122

027714

JSR

006122

855 5’3

(4)
(5)

PC,WRITLU
PC . TXCHAR

sSET REG NO. = 14
+SET TXEN BIT
sLOAD TXEN BIT IN REG 14
;LOAD A 000 CHAR, TX FIRST SYNCH (226)

#TXEN,WRIBYT

000
8.

006122

004526

#14 ,REGNUM

MOV
MOV
JSR
JSR

000
CHPCHK
! 8.

006122

000013
003672
000040

6072

002400
002366

SEQ 0144

5358

004737

000014
000100
003750
006122

B 12
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 5-19
TEST 25 = TX MSG TIMING TEST, CHAR MODE, WITH NO CRC

8% 600
3 7604

012737
0127 ;

s888388388s8sssss

6045

6046
6047

027560
027566
027574

-§§§§a§§z§§§§§g§§gw

CZDMRC MB203 STATIC DIAG ,138
13-MARCZOMRC.P1

lMR TO SET IN REG 11. THEN, SOM IS SET TO CLEAR THE ERROR,
lS VERIF IED.
S ECW SITUATION, A MSG IS INITIATED, A 000 CHAR IS SENT, AND THE TX
I

NOT SERVICED {N RESPONSE TO THE USYRT TX BUFFER EMPTY FLAG, WHICH

CZDMRC M8203 STATIC DIAG M
CZDMRC.P1
13-MAR-80 14:38

c 12
13-MAR-80 14:40 PAGE 5-20
TEST 26 = TX UNDERRUN SET AND CLEAR TEST = CHAR MODE

MACY11 30A(1052)

SEQ 0145

:* AGAIN CAUSES UNRR TO SET. THEN, A MASTER CLEAR IS DONE, AND THE UNRR BIT

:* IS CHECKED TO BE CLEARED.
b

027736
027736

bbb

e T

BGNTST

2222222222222

T26::

: CAUSE TX UNDERRUN, CHK UNRR = 1; SET SOM, CHK UNRR
= 0
030274
005540

002362

MOV
JSR

SYNCH
STRIP!DDCMP

S bbb
b A NN
- e

BOQVO\VVVV\I‘J\MN—‘OS

o 0o o Yo Yo o Yo 3
o200 N
-, o N PN D
i el ) i

NONNNONO

006122

JSR
PC,TXCHAR
000
CHPCHK !8.

005254
000011
003672
000001

002400

002364

004526

002364

004526

MOV
JSR

#11,REGNUM
PC ,READLU

SET LU REG NO. = 11
:READ REG 11
sCHK FOR UNRR = 0

BITB

#UNRR ,REDBYT

JSR

PC,GETALL

JMP

:BR_IF UNRR
= 0
;GET REGS FOR PRINTOUT

.:;SR

PC,STPLU

;SKIP TO END OF TEST
;CLOCK LAST BIT OF 000 CHAR

JSR
BITB

PC ,READLU
#UNRR ,REDBYT

JSR

PC,GETALL

sREAD REG 11
sCHK FOR UNRR = 1
;BR IF UNRR = 1
;GET REGS FOR PRINTOUT

ERRDF

14 ,EM14 ERR7

BNE

9%:

THE 000 CHAR HAVE BEEN TRANSMITTED

16,EM16,ERR7

:REPORT UNRR NOT SET

002422

;LOAD A 000 CHAR, TX FIRST SYNCH
CLOCK THE TRANSMITTER UNTIL 7 BITS OF

BEQ

6$:

;DO MASTER CLEAR, LOAD 2 SOM'S

PC,.STPLU

;REPORT lMR NOTCLEARED

030274
005254

sSET TEST EXIT ADDRESS FOR ERRORS

12!!

ERRDF

003672
000001

#A7 ,RETADR
PC,INITRN

MOV

;SKIP TO END OF TEST

PC.WAIT50

;WAIT FOR SILO DATA TO RIPPLE
sCLOCK LU FOR 2 CYCLES

PC ,READLU
#UNRR ,REDBYT

sREAD REG 11

12%

PC,GETALL

;REPORT LMR NOT CLEARED BY SOM
ERRDF

CSERDF

.WORD
-WORD

EM16
ERR7

CSERDF
14
EM14
ERR7

“HATXSOM, TXWORD sSET SOM CHAR TO BE WRITTEN
PC,LDTXSI
:LOAD SOM CHAR INTO TX SILO
PC,STPLU

002364

TRAP

sCHK FOR UNRR
= 0

:BR IF UNRR = 0

:GET REGS FOR PRINTOUT

13,EM13,ERR7

TRAP

.WORD

CZDMRC MB8203 STATIC DIAG 01
CZDMRC.P1T
13-MAR-B0 14:38

030146
030150
8301 52

01 ;530
01 47;
000137

D 12
MACYT1 30A(1052)
_13-MAR-B0 14:40 PAGE 5-21
TEST 26 = TX UNDERRUN SET AND CLEAR TEST = (HAR MODE

030274

128:

JMP

SEQ 0146

.WORD
.WORD

;SKIP TO END OF TEST

EM13
ERR7

sCAUSE TX UNDERRUN, CHK UNRR = 1; DO MASTER CLR, CHK UNRR = 0
030156

004737

005540

géficu

030166

004737
000000

006122

IDLE!STRIP'!DDCMP
%
PC,TXCHAR

JLOAD A 000 CHAR, TX FIRST SYNCH

030176
030202

004737

005254

CHPCHK '8.
J;R
PC.STPLU

;STEP THE LU UNTIL 000 HAS BEN TRANSMITTED

JSR

PC,READLU

;READ REG 11

16$%
PC,GETALL

BR IF UNRR = 1
;GET REGS FOR PRINTOUT

003672
000001
004737

002364

004526

BITB

000137
004737
004737

030274
003576
003672
00000

030260

004737

004526

030274
030

004737

003576

;DO MASTER CLEAR, LOAD 2 SOM'S

#UNRR ,REDBYT

BNE
JSR

JREPORT UNRR NOT SET
ERRDF

030232
030234
030240
030244

PC,INITRN

16%:
002364

14 ,EM14 ,ERR7

TRAP
.WORD

JMP

;SKIP TO END OF TEST

JSR
BITB
BEQ
JSR

PC,READLU
#UNRR ,REDBYT
A7
PC,.GETALL

;READ REG 11
sCHK FOR UNRR
= 0
m IF UNRR
= 0
;GET REGS FOR PRINTOUT

ERRDF

15.EM15,ERR?

JSR

PCMSTCLR

JREPORT UNRR NOT CLEARED BY 0OC

A7:
ENDTST

JCHK FOR UNR
= 1

JSR

PC,MSTCLR

CSERDF
14

.WORD
.WORD

EM14
ERR7

TRAP
WORD

CSERDF
15

;s ISSUE MASTER CLEAR

;ISSUE CLEAN-UP MASTER CLEAR

L10056:

.WORD

EM1S

TRAP

CSETST

.WORD

..Q..'I.......t.."."'""'....'...'.Q.'..".t....'fi'.'."'fi'."'."."."..'

SBTTL

TEST 27 = TRANSMIT CHAR LENGTH TIMING TEST = CHAR MODE, CRC

.' THE LINE UNIT IS PLACED IN CHAR MODE (DDCMP) AND A MESSAGE IS INITIATED
;* WITH AN B-BIT SYNCH AND A 5-8BIT SYNCH CHAR NEXT, A 000 CHAR IS SENT WITH
:* EACH OF THE FOLLOWING TX CHAR LENGTHS
: 5 BITS, 6 BITS, 7 B!TS, 8 BITS.

:* (FOR EXAMPLE, A S-BIT CHAR REQUIRES 5 CLOCK CYCLES TO BE TRANSMITTED).
o TERMINAT ING SYNCHS ARE SENT AFTER THE DATA.
A

030302

BGNTST

AR AT

A AR

AT AR R AR AR AR

R AR AN AR AR R AR AN R AR

A AN AR AR RN ARRA

AN RN

ON S

IDMRC MB203 STATIC DIAG #

20000

ZDMRC. P n

13-MAR-80

1 27§7

0
030

0303
030342
030346
030352

14:38

808348

E 12
MACY1 30A(1052) 13-MAR-B0 14:40 PAGE 5-22
T 27 = TRANSMIT CHAR LENGTH TIMING TEST = CHAR MODE, CRC
002362

MOV

JSR

giery

MOV

004737
000000

JSR
000

01 2737

#A8 RE TADR

PC, INITRN

IDLE !DDCMP

MOV
MOV
JSR

WAX1S

127::
;SET TEST EXIT ADDRESS FOR ERRORS

;DO MASTER CLR, LOAD 2 SOM'S
:SET BYTE NO. = 6 FOR AX3

*SET DATA FOR AX3- 15= 0

#TXLE
' TXLENO,
N2 WAX16 ser TX LENGTH = 5 FOR AX3-16
PC,WRITAX

PC. TXCHAR

:LOAD AX3-15,AX3-16

:LOAD S-BIT 000 CHAR, TX 8-BIT SYNCH

SCO 0147

CHPCHK '8,
538
PC, TXCHAR

100010

004737
000000
000005

F 12

MACY11 30A(1052)
_13-MAR-B0 14:40 PAGE 6
TEST 27 = TRANSMIT CHAR LENGTH TIMING TEST = CHAR MODE, CRC

n
N

CZDMRC MB203 STATIC D AG M
13-MAR
CZDMRC.P11
14:38

002376

004%7

£R5
99

RRRRRRARRRRLLLER

000000

002376

RR
=3 VNS WNN=O

6207

#TXLEN2
! TXLENT ,WAX16

538

PC. TXCHAR

5
MOV

HTXLE
TXLENT ! TXLENO,
N2'
WAX16

538

PC . TXCHAR

PC,WRITAX

JSR

PC,WRITAX

002376

MOV

#000,WAX16

JSR
JSR

TX 5-BIT 000 CHAR

:SET TX CHAR LENGTH = 7
;LOAD 8-BIT 000 CHAR,

TX 6-BIT 000 CHAR

;SET TX CHAR LENGTH = 8
*LOAD EOM, TX 7-BIT 000 CHAR

JSR

PC.,TXCHAR

;LOAD EOM, TX 8-BIT 000 CHAR

JSR

PC, TXCHAR

;LOAD EOM, TX CRC-16 CHAR

JSR

PC, TXCHAR

:LOAD EOM, TX FIRST TERMINATING SYNCH

JSR

PC,ENDTRN

:CLEAR TRANSMITTER

;xeon

eon

gxeon

:SET TX CHAR LENGTH = 6

:LOAD 7-BIT 000 CHAR,

PC.WRITAX
PC . TXCHAR

TXEOM

001000
000010
004737
001000
0000 20
004737
001000
000010
004737

;LOAD 6-BIT 000 CHAR, TX 5-BIT SYNCH

<
MOV
JSR

SEQ 0148

ENDTST

L10057:

TRAP

CSETST

.' ; .ttfit'tttttiQt.tttt't'tttt"'tit.'tt'tttt..t..ttfiifi"t.tti.'tt.tt"tittt"tt't

“SBTTL

TEST 28 - TRANSMIT CHAR LENGTH TIMING TEST - BIT MODE, CRC

. %

;% THE LINE UNIT IS PLACED IN BIT MODE AND A MESSAGE IS INITIATED

:* WITH 2 FLAG CHARS. NEXT, 2 8-BIT 000 CHARS ARE SENT., FOLLOWED BY 000 CHARS

;% WITH EACH OF THE FOLLOWING TRANSMITTER CHAR LENGTHS:
;*
1BIT, 2 BITS, 3 BITS, 4 BITS, 5 BITS, 6 BITS, 7 BITS, AND 8 BITS.

:* (FOR EXAMPLE, A 5-BIT CHAR REQUIRES 5 CLOCK CYCLES TO BE TRANSMITTED).
;% TWO TERMINATING FLAGS ARE SENT AFTER THE DATA.

.' .' tt.ttttt.ttttttttt'tt."t'.ttt'.ttttt..t't..ttt...t'.'ttt..lQ.tt..'."'tt"t.'

BGNTST

031040
005540

006122

002362
'

MOV

538

000

JSR

000

#A9,RE TADR

;SET TEST EXIT ADDRESS FOR ERRORS

PC, INITRN

;DO MASTER CLR, LOAD 2 SOM'S

PC., TXCHAR

:LOAD FIRST 8-BIT 000 CHAR., TX FIRST FLAG

G 12

CZDMRC MB8203 STATIC DIAG #1
1 3-MAR

14:38

100010

CHPCHK
!8

538

006122

=% :

004737

;LOAD 1-BIT 000 CHAR, TX FIRST 8-8IT 000 CHAR

MOV
MOV
MOV
JSR

#6 ,AXNUM
#000, WAX15
ATXLENO,WAX16
PC,WRITAX

:SET BYTE NO. = 6 FOR AX3
*SET DATA FOR AX3-15 = 0
:SET TX CHAR LENGTH = 1 FOR AX3-16
*LOAD AX3-15,AX3-16

8.
MOV

#TXLLENT ,WAX16

nN—
NNS

898
— N—

538

002376

gs2

IS
o

838
— (N —

002376

NN=

afigg

PC, TXCHAR

AN —

;LOAD 2ND 8-BIT 000 CHAR, TX 2ND FLAG

5058

—>

g g2
g

PC, TXCHAR

006122

JSR
JSR

PC.TXCHAR

PC,WRITAX
PC,TXCHAR

:LOAD 2-BIT 000 CHAR, TX 2ND 8-8IT 000 CHAR

sSET TX CHAR LENGTH = 2

;LOAD 3-BIT 000 CHAR, TX 1-BIT 000 CHAR

MOV
JSR

#TXLENT ! TXLENO,WAX16
PC,WRITAX
sSET TX CHAR LENGTH = 3
PC,TXCHAR

;LOAD 4-BIT 000 CHAR, TX 2-BIT 000 CHAR

2
MoV
JSR
JSR

#TXLEN2 ,WAX16
PC,WRITAX
PC,TXCHAR

sSET TX CHAR LENGTH = 4
;LOAD 5-BIT 000 CHAR, TX 3-BIT 000 CHAR

002376

MOV
JSR
JSR

#TXLENZ2 ! TXLENO,WAX16
PC,WRITAX
sSET TX CHAR LENGTH = 5
PC,TXCHAR
;LOAD 6-BIT 000 CHAR, TX 4-BIT 000 CHAR

002376

MOV
JSR
JSR

H#TXLEN2'! TXLENT,WAX16
PC,WRITAX
sSET TX CHAR LENGTH = 6
PC,TXCHAR
;LOAD 7-BIT 000 CHAR, TX 5-BIT 000 CHAR

002376

MOV
JSR
JSR

#TXLENZ! TXLENT ! TXLENO,WAX16
PC,WRITAX
;SET TX CHAR LENGTH = 7
PC,TXCHAR
;LOAD 8-BIT 000 CHAR, TX 6-BIT 000 CHAR

002376

MOV
JSR

#000,WAX16
PC,WRITAX

&S)S

PC,TXCHAR

;SET TX CHAR LENGTH = 8
;LOAD EOM, TX 7-BIT 000 CHAR

PC,TXCHAR

;LOAD EOM, TX 8-BIT 000 CHAR, CRC-CCITT=1 CHAR

JSR

PC,TXCHAR

;LOAD EOM, TX FIRST TERMINATING FLAG

8
JSR

PC.ENDTRN

;CLEAR TRANSMITTER

JSR

TXEOM

.{)S(?m

CZDMRC.P1

MACY11 30A(1052)
_13-MAR-80 14:40 PAGE 6~1
TEST 28 = TRANSMIT CHAR LENGTH TIMING TEST = BIT MODE, CRC

SEQ 0149

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1T
13-MAR-B0 14:38
6302
6303
(g)
(3)

6304

031040
031040
031040
031040

H 12
MACY11 30A(1052)
13-MAR-B0 14:40 PAGE 6-2
TEST 28 = TRANSMIT CHAR LENGTH TIMING TEST = BIT MODE, CRC
A9:
ENDTST

L10060:

104401

LA AR A

.SBTTL

eIt

TEST 29 = TXDATA BIT TEST = CHAR MODE, CRC

. %

SEQ 0150

TRAP

CSETST

2222122223232

2222222

;* THE LINE UNIT IS INITIALIZED AND A MSG IS INITIATED (USING STEPLU) WITH CRC-

;* 16 SELECTED IN CHAR MODE. TWO SYNCHS, 000,125,252,377,000, AND 2 TERMINATING
:* SYNCHS ARE THEN SENT. THE PROGRAM CHECKS EACH BIT OF THE TRANSMITTED
:* DATA CHARS, BY MONITORING TXDATA (REG 17) AS THE DATA IS CLOCKED OUT OF

;* THE USYRT TRANSMITTER.

AR A

BGNTST

2322222223 222222222222222

129

005540

.sjezc”

003224

MOV
MOV
MOV

#MSG1+4 ,R1
R1,R3
(R1)
+, TXWORD

cMP

R1,#MSG1+18.

sSEE IF ALL CHARS LOADED YET

PC.WAITS50
PC,STPLU

;WAIT FOR SILO TO RIPPLE
sCLOCK LU UNTIL SYNCHS ARE TX'D

(R3),8%

;GET EXPECTED DATA CHAR

002422
005174
003242

000002
003236

003576

;DO MASTER CLR, LOAD 2 SOM'S

STRIP!DDCMP

3%:

JSR

PC,LDTXSI

BLO

JSR
JSR

005146
005254

031120
011176

PC,INITRN

CHPCHK
! 16.

6$%:

MOV

8%:

.WORD

JSR

ADD

16$:
ENDTST

.SBTTL
. %

:*
:*
;*
;*
;*
;%

CMP
BLO
JSR

PC,CKTBIT

;GET POINTER TO DATA
;LOAD A DATA CHAR INTO TX SILO

:BR IF NOT YET

sCHECK TXDATA FOR CHAR BITS

EXPECTED CHAR GOES HERE

R3,AMMSG1+14,
63

;SEE IF ALL CHARS CHECKED YET
:BR _IF NOT YET

#2,R3

PC,MSTCLR

:INCR PATTERN POINTER

;ISSUE MASTER CLEAR TO CLEAN UP

L10061:

ittt

TRAP

CSETST

ittt 221322322232222221133333
)

TEST 30 - USYRT RECEIVER MSG TEST = CHAR MODE, CRC

THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH
LULP (REG 12) SET TO LOOP THE DATA_INTERNALLY IN THE USYRT, AND WITH CRC-16
SELECTED. TWO SYNCHS, 000,125,252,377,000, AND FOUR TERMINATING SYNCHS ARE
SENT. THE PROGRAM MONITORS IACT, AND THE RCV'D CHARS AND CRC BYTES ARE READ
FROM AX0=15 AND COMPARED TO EXPECTED VALUES. THE PROGRAM THEN CHECKS FOR IACT
STILL SET AFTER THE MESSAGE.

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

112

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 6-3
TEST 30 = USYRT RECEIVER MSG TEST = CHAR MODE, CRC

gHNSEXRBREU

D
D

002400

#12,REGNUM

002366

MOVB

sSET LU REG NO. = 12
;SET AX BYTE NO. = 0 FOR AX0

d e cd e

)

000
000
MOV

JSR
PC MSTCLR
JSR
PC.SETUP
SYNCH
STRIP! IERR!DDCMP

CLR

002404
002406

JSR
TMP
BLO
JSR

PC,LDTXSI
RT.AMSG1+22.
3s
PC.WAITSO

ZSR

PC.STPLU

3sn

PC,IACTIV

sSET LULP IN REG 12
;GET POINTER TO MSG DATA TABLE
;GET CHAR TO BE LOADED
;LOAD CHAR INTO TX SILO
sSEE IF ALL MSG CHARS LOADED YET
;BR IF NOT YET
JALLOW DATA TO RIPPLE IN SILO
sCLOCK LU FOR 40 CYCLES (UNTIL FIRST
;
DATA CHAR IS ABOUT TO BE RECEIVED)
JCHK IACT =0

gsa

PC.STPLU

;CLOCK LU UNTIL 1ST DATA CHAR IS RCV'D

MOV
%sn

MMSG1+4
,R1
PC,IACTIV

sCHK JACT =1

JSR

PC ,READAX

MOV
MOV
JSR

-2(R1)
, GOODAT
RAX1S,BADDAT
PC,GETALL

MOV

(R1)+
. TXWORD

RAX15, (R1)+
128

BR
gsn

24$
PC,STPLU

cMP

R1,4MSG1+14.

{sa

PC,IACTIV

BLO

006714

JSR

000160

002406

#LULP,WRIBYT

PC.WRITLU
MMSG1 ,R1

2222222222222

;READ AX0
: COMPARE RCV'D CHAR TO EXPECTED
:BR_IF RCV'D DATA OK
:GET EXPECTED DATA
:GET ACTUAL DATA

:GET REGS FOR PRINTOUT
;REPORT INCORRECT DATA CHAR RCV'D
ERRDF
26,EM26,ERR3

128:

002404

AXNUM

JSR
MOV

CMP
BEQ

003236

000160
002370
004526

T30::
sSET TEST EXIT ADDRESS FOR ERRORS
s ISSUE MASTER CLEAR
;PROGRAM THE USYRT

005254

004124
002370

#24$,RETADR

d
e
—

177776

002370
004526

MOV

108:

031420

002362

3s:

031414

BENTST

SEQ 0151

14%:

10§

PC ,READAX

(MPB
BEQ
MOV

RAX15.#160
168
#160, GOODAT

JSR

PC,GE TALL

MOV

RAX15,BADDAT

CSERDF
26
EM26
ERR3
sCLOCK LU 8 CYCLES
;SEE IF CHECKING HI
:BR IF NOT YET
sCHK IACT =1

CRC BYTE YET

:READ AX0
CPP RCV'D CHAR TO EXPECTED HI CRC BYTE
BR_IF HI CRC BYTE RCV'D OK
GET EXPECTED DATA
sSET ACTUAL DATA
:GET REGS FOR PRINTOUT

:REPORT 1~connsc1 CRC BYTE RCV'D’
ERRDF
27 ,EM27 ,ERR3

CZDMRC M8203 STATIC DIAG #1

CZDMRC.PT
(4)
(5)
(5)
(%)

6404

031420
031422
0314264
0%1458

0314

6405
6406
6407

031432
031436
031440

6409
6410
6411
6412
6413
6414
6615
6416
6417
6418

031446
031454
031460
031466
031470
031474
031476
031502
031504
031510

(3)
(3)
6419
6420
6421

031444

031510
031510

13-MAR-B0 14:38

MACY11 30A(1052)

005254

16%:

006714
000034
004124
002370

002404

000034

005254
006714

003576

248:
ENDTST

J 12
PAGE 6-4

BR
JSR
8.
JSR
1
MOV
JSR
CMPB
BNE
JSR
8.
JSR
1
JSR

SEQ@ 0152
TRAP
.WORD
.WORD
.WORD

248
PC,STPLU

sCLOCK LU FOR 8 CYCLES

PC,IACTIV

sCHK IACT =1

#034 ,GOODAT
PC ,READAX
RAX15,#034
14$
PC,STPLU

sGET EXPECTED LO CRC BYTE
sREAD AX0
sCMP RCV'D CHAR TO EXPECTED LO CRC BYTE
¢BR IF LO CRC INCORRECT
;CLOCK LU 8 CYCLES

PC,IACTIV

sCHK TACT STILL =1

PC,MSTCLR

s ISSUE CLEAN-UP MASTER CLEAR
L10062:

104401

6‘2‘

&SZ

MR AR R

.SBTTL

TEST 31 = USYRT RECEIVER MSG TEST - BIT MODE, CRC

*®

6427
6428
6429
6430
6431
6432

&33
6434
(3)
6435
6436
6437
6438
6439
6440
6441
6442
6443
6444
6445
6446
6447
6448
6449
6450
6451
6452

14:40

TEST 30 = USYRT RECEIVER MSG TEST = CHAR MODE, CRC

104455
00003%
013712
015142

000425
004737
000010
004737
000001
012737
004737
123727
001347
004737
00001
004737
000001
004737

_13-MAR-80

i il

TRAP

CSERDF
27
EM27
ERR3

CSETST

I I 12222222 2222222222222%5

:* THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH
:* LULP_(REG_12) SET TO LOOP _THE DATA_INTERNALLY IN THE USYRT, AND WITH CRC:* CCITT-1. TWO FLAGS, 000,125,252,377,000, AND TWO TERMINATING FLAGS ARE THEN
;% SENT. THE PROGRAM MONITORS IACT, RSOM, AND THE RCV'D CHARS ARE READ
;* FROM AXO-15 AND COMPARED TO EXPECTED VALUES. THE PROGRAM THEN CHECKS FOR
:* IACT = 0, SETS IC TO CLEAR THE RECEIVER, AND CHECKS FOR IACT STILL = 0.

031512
031512
031512
031520
031524
031530
031532
031534
031536
031540
031546
031552
031560
031564
031570
031574
031600
031604
031606
031612

M
BGNTST
012737
004737
004737
000000
000002
000000
000000
012737

005037
112737
004737
012701
012137
004737
020127
103771
004737
004737

032046
003576
010640

002362

000012
002402
000040
003750
003220
002422
005174
003242

002400

005146
005254

ittty

MOV
JSR
JSR
000
1ERR

002366

3s:

000
MOV
CLR
MOVB
JSR
MOV
MOV
JSR
cMP
BLO
JSR
JSR

#24% ,RETADR
PC,MSTCLR
PC,SETUP

#12 ,REGNUM
AXNUM
#LULP,WRIBYT
PC,WRITLU
#MSG1,R1
(R1)+, TXWORD
PC,LDTXSI
R1,AMSG1+18.
3s
PC,WAITSO
PC,STPLU

It 1213222322333

3 2232121111

131::
sSET TEST EXIT ADDRESS FOR ERRORS
s ISSUE MASTER CLEAR
;PROGRAM THE USYRT

sSET LU REG NO. = 12
sSET AX BYTE NO. = 0 FOR AX0
sSET LULP IN REG 12
:GET POINTER TO MSG DATA TABLE
;GET CHAR TO BE LOADED
:LOAD CHAR INTO TX SILO
.SEE IF ALL MSG CHARS LOADED YET
;BR IF NOT YET
;ALLOW DATA TO RIPPLE IN SILO
;CLOCK LU FOR 50 CYCLES (UNTIL FIRST

CZDMRC M8203 STATIC DIAG #1
13-MAR-80 14:38
CZDMRC.P11

33FoRERES

6455
6456
6457
6458
6459

50.

SEQ 0153

DATA CHAS IS ABOUT TO BE RECEIVED)

006714

(J)sn

PC,IACTIV

;CHK JACT

007102

6sa

PC,RSEOM

sCHK RSOM = 0, REOM = 0

005254

gsn

PC,STPLU

sCLOCK LU UNTIL 1ST DATA CHAR IS RCV'D

MOV
CMP
BNE

#MSG1+4 R
R1,AMSG1
+4
65

6461

V3224
003224

6463

006714

6465

007102

6469
6470
6471
6472
6473
6474
6475
6476
6477
6478
6479

K 12

13-MAR-80 14:40 PAGE 6=5
TEST 371 = USYRT RECEIVER MSG TEST = BIT MODE, CRC

MACY11 30A(1052)

5%:

6%:

003234

006714

007102
006714

8%:

.1:sn

PC,IACTIV

;SEE IF 1ST CHAR RCV'D
:BR IF NO
;CHK TACT

{sn

PC ,RSEOM

;CHK RSOM

B8R

R1,4MSG1+12.

1, REOM = 0

6SR

PC,IACTIV

;SEE IF LAST CHAR RCV'D
:BR IF NO
;CHK FOR IACT
= 0

5SR

PC RSEOM

sCHK RSOM = 0, REOM = 0

BNE

B8R

{sa

PC,IACTIV

;CHK FOR IACT =1

007102

éSR

PC.RSEOM

;CHK RSOM = 0, REOM = 0

004124
002370

JSR

177776

P
BEQ

MOV
MOV
JSR

002404
002406

PC ,READAX

RAX15, (R1)+
12%

-2(R1) ,GOODAT
RAX1S,BADDAT
PC,GETALL

sREAD AX0
: COMPARE RCV'D CHAR TO EXPECTED
:BR _IF RCV'D DATA OK
sGET EXPECTED DATA
sGET ACTUAL DATA
:GET REGS FOR PRINTOUT

sREPORT INCORRECT DATA CHAR RCV'D
ERRDF

005254

12%:

003236

26,EM26,ERR3

248

gsn

PC.STPLU

cMP

R1,#MSG1+14.

CSERDF
26
EM26
ERR3

;CLOCK LU 8 CYCLES

006714

BLO
35}:

5
PC,IACTIV

sSEE IF ALL DATA CHARS CHECKED YET
:BR IF NOT YET
;CHK IACT = 0

007102

5SR

PC,RSEOM

sCHK RSOM = 0, REOM = 0

000200
003750
006714

003576

MOV

002366

JSR

24%:

ENDTST

#1C,WRIBYT

PC,WRITLU

Z’)SR

PC.IACTIV

sSET IC C(INPUT CLEAR)
;CHK IACT
= 0

JSR

oC ,MSTCLR

s ISSUE CLEAN-UP MASTER CLEAR

IN REG 12

L10063:

TRAP

CSETST

CZDMRC M8203 STATIC DIAG #1
13-MAR-80 14:38
CZDMRC.P11

L 12

MACY11 30A(1052)
_13-MAR-80 14:40 PAGE 6-6
TEST 31 = USYRT RECEIVER MSG TEST = BIT MODE, CRC

ARl

.SBTTL

SEQ 0154

1222222

TEST 32 = USYRT RECEIVER MSG TEST = CHAR MODE, NO CRC

* %

22222222%;

s* THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH
;* LULP (REG 12) SET TO LOOP THE DATA ;NTEMA%&Y IN THE USYRT, AND WITH NO
:* ERROR DETECTION. TWO SYNCHS, 000,125,252,377,000, AND TWO SYNCHS ARE

;% THEN SENT. THE PROGRAM MONITORS TACT. AND THE RECEIVED CHARS ARE READ FROM

;* AXO=15 AND COMPARED TO EXPECTED VALUES. THE PROGRAM THEN CHECKS FOR IACT

;% STILL = 0, SETS IC TO CLEAR THE RECEIVER, AND CHECKS FOR IACT = 0.

AR R

BGNTST
012737

032316
003576
010640

132

MOV
JSR

002362

s itt
1132222223233
t
2222222222222

gi:CH

#24$ ,RETADR
PC,MSTCLR
PC,SETUP

;SET TEST EXIT ADDRESS FOR ERRORS
: ISSUE MASTER CLEAR
;PROGRAM THE USYRT

CRC2!CRC1!STRIP!IERR!DDCMP
000
000

3s:

108:

177776
002370
004526

002404
002406

MOV
CLR
MOVB
JSR
MOV
MOV
JSR
cMP
BLO
JSR
JSR
24.

#12 ,REGNUM
AXNUM
#LULP ,WRIBYT
PC,WRITLU
#MSG1 ,R1
(R1)+, TXWORD
PC.LDTXSI

sSET LULP IN REG 12
;GET POINTER TO MSG DATA TABLE
:GET CHAR TO BE LOADED
;LOAD CHAR INTO TX SILO

R1,AMSG1+18.
3%
PC,WAIT50
PC,STPLU

sSEE IF ALL MSG CHARS LOADED YET
;BR IF NOT YET
sALLOW DATA TO RIPPLE IN SILO
sCLOCK LU FOR 24 CYCLES (UNTIL - IRST

.(J)SR

PC,IACTIV

;CHK IACT = 0

gSR

PC,STPLU

sCLOCK LU UNTIL 1ST DATA CHAR IS RCV'D

MOV

#MSG1+4
R1

DATA CHAR IS ABOUT TO BE RECEIVED)

.11$R

PC,IACTIV

sCHK IACT = 1

JSR
cMP
BEQ
MOV

PC ,READAX
RAX15,(R1)+
128
=2(R1) ,GOODAT

sREAD AX0
sCOMPARE RCV'D CHAR TO EXPECTED
;BR_IF RCV'D DATA OK
;GET EXPECTED DATA

MOV

RAX15,BADDAT

:GET ACTUAL DATA

fsa
PC,GETALL
“GET REGS FOR PRINTOUT
;REPORT INCORRECT DATA CHAR RCV'D
ERRDF

005254

sSET LU REG NO. = 12
sSET AX BYTE NO. = 0 FOR AX0

128:

JSR

26,EM26,ERR3

24%

PC,STPLU

TRAP

WORD
.WORD
.WORD

sCLOCK LU 8 CYCLES

CSERDF

26
EM26
ERR3

CZDMRC NZOS STATIC D AG 7
CZDMRC.P11
13-MAR
14:38

52;22

003236
006714

0047%7 003750
012737

000200

004737
000000
004737

006714

8.
P

R1,#MSG1+14.

%sa

PC,IACTIV

MOV
JSR

#1C,WRIBYT
PC,WRITLU
PC.IACTIV

“CHK IACT = 0

JSR

PC.MSTCLR

;ISSUE CLEAN-UP MASTER CLEAR

BLO
002366

3sa

248:

003576

ENDTST

10§

SEQ 0155

:SEE IF ALL s DATA CHARS RCV'D YET

*BR IF NOT

*CHK FOR lACT snu 1

:SET IC_(INPUT CLEAR) IN REG 12

L10064:

104401

TRAP

CSETST

MR it
I
Il
1222222223
y
222222222332233115

.SBTTL

We We B0y 0 8%, %8,

6
6555
6

M 12

MACYT 30A(1052)
13-MAR-80 14:40 PAGE 6-7
TEST 32 = USYRT RECEIVER MSG TEST = CHAR MODE. NO CRC

TEST 33 - USYRT RECEIVER MSG TEST - BIT MODE, NO CRC

;* THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU) WITH

;* LULP (REG 12) SET TO LOOP THE DATA INTERNALLY

IN THE USYRT, AND WITH ERROR

;* DETECTION INHIBITED. TWO FLAGS, 000,125,252,377,000, AND TW TERMINATING FLAGS
;* ARE THEN SENT. THE PROGRAM MONITORS IACT, RSOM, AND THE RCV'D CHARS ARE
;* READ FROM AXO-15 AND COMPARED TO EXPECTED VALUES. THE PROGRAM THEN CHECKS FOR

:* IACT = 0, SETS IC TO CLEAR THE RECEIVER, AND CHECKS FOR IACT STILL = O.

tttttttttQtfitttt.tttt"'.tttfitttttitifi.t.tttfitttfit'tttt.t'.'ttttt"..'..'t.."

B(NTST

032660
003576
010640

002362

MOV
JSR
6(5)8

#24$ ,RETADR
PC,MSTCLR
PC,SETUP

CRC2'!CRC1!IERR
000
000

3s:

MOV
CLR
MOvVB
JSR
MOV
MOV
JSR
cMP
B8LO
JSR
JSR
33.

#12 ,REGNUM

AXNUM
#LULP,WRIBYT
PC.WRITLU
#MSG1,R1
(R1)+, TXWORD

PC,LDTXSI
R1 MSG1*18
3%
PC,WAITSO
PC,STPLU

T33::

;s ISSUE MASTER CLEAR

+PROGRAM THE USYRT

;SET LU REG NO

SET AX BYTE m = 0 FOR AX0

JSET LULP IN REG 12
GET POINTER TO MSG DATA TABLE
GE CHAR TO BE LOADED

LOAD CHAR INTO TX SILO
.'SEE IF ALL MSG CHARS LOADED YET
;BR IF NOT YET
sALLOW DATA TO RIPPLE IN SILO
JCLOCK LU FOR 33 CYCLES (UNTIL FIRST
3
DATA CHAR IS ABOUT TO BE RECEIVED)

8SR

PC,IACTIV

JCHK IACT =0

6SR

PC_RSEOM

JCHK RSOM = 0, REOM = 0

gSR

PC,STPLU

sCLOCK LU UNTIL 1ST DATA CHAR IS RCV'D

MOV

#MSG1+4 ,R1

CZDMRC.P11

1 3-MAR

020127

14:38

N 12

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 6-8
TEST 33 = USYRT RECEIVER MSG TEST = BIT MODE, NO CRC

003224

5$:

CMP

283838
¢ 42 g gms & on

CZDMRC MB203 STATIC DIAG #1

006714

007102
003234

6%:

006714
007102

006714
007102
004124
002370
177776

002404
002406

R1,AMSG1+4
6%

sSEE IF 1ST CHAR RCV'D
:BR
IF NO

PC ,RSEOM

sCHK RSOM = 1, REOM = 0

PC,IACTIV

9%
R1,AMSG1+12.

;SEE IF LAST CHAR RCV'D

:BR IF NO

PC ,RSEOM

sCHK RSOM = 0, REOM = 0

PC,IACTIV

;CHK FOR IACT
= 0

PC,IACTIV

;CHK FOR IACT =1

PC ,RSEOM

;CHK RSOM = 0, REOM = 0

PC ,READAX

sREAD AX0

=2(R1) ,GOODAT
RAX15,BADDAT

;GET EXPECTED DATA
sGET ACTUAL DATA

RAX15, (R1)+
128
PC,GE TALL

ERRDF

26 ,EM26 ,ERR3

JSR

24%

: COMPARE RCV'D CHAR TO EXPECTED
:BR_IF RCV'D DATA OK

DGET REGS FOR PRINTOUT

TRAP
-WORD
.WORD
.WORD

PC,STPLU

;CLOCK LU 8 CYCLES

006714

R1,MMSG1+14.,
5%
PC,IACTIV

;SEE IF ALL DATA CHARS CHECKED YET
;BR IF NOT YET
sCHK JACT = 0

007102

PC_,RSEOM

JCHIE'RSOM = 0, REOM = 0

005254
003236

000200
003750
006714

003576

002366

#I1C,WRIBYT

PC,WRITLU

248:

ENDTST

.SBTTL
®

JSR

CSERDF
2

ERR3
e

sSET IC (INPUT CLEAR) IN REG 12

PC,IACTIV

CPK IACT
= 0

PC,MSTCLR

;ISSUE CLEAN-UP MASTER CLEAR

L10065:

SEQ@ 0156

sCHK TACT =

sREPORT INC(RRECT DATA CHAR RCV'

128:

TRAP

CSETST

31222232322222222

TEST 34 - SILO-DISABLED TRANSMITTER LOAD TEST

:* THIS TEST DISABLES THE SILOS, LOADS A 125 CHARACTER INTO THE TX SILO, AND

CZDMRC MB203 STATIC DIAG #1

CZDMRC.P11
6657
6658
6659
6660
(3)
6661
666%
6663
6664
6665
6666
6667
6668
6669
6670
6671
6672
6673
g;g
6676
(4)
(5)
(5)
(5)
6677
6678
6679
(3)
(3)
6680
6681
6682
6683
6684
6685
6686
6687
6688
6689
6690
6691

13-MAR-B0 14:38

8 13

MACYTT 30A(1052)
_13-MAR-80 14:40 PAGE 6-9
TEST 34 = SILO-DISABLED TRANSMITTER LOAD TEST

§e &E:gERAX‘I-‘lS AND CHECKS THAT THE DATA DID NOT GET LOADED INTO THE USYRT TX
-

(3)
6697
6698
6699

6700
6701
6702
6703
6704

0
032666
0
032672
032
032
032712
032
0327,
032
032740
032744
032752
032754
032762
032770
032774
032774
032776
033000
033002
033004
033010
033014
033014
033014

BGNTST
737
012737
012737
737
012737
012737
737
012737
737
123727
001414
012737
013737
004737

003576
000014
00%040
003750
000040
000125
005174
000002
004124
002370

000000
002370
004526

JSR

002426
002422

MOV

002402

MOV

002404
002406

#DISSI,DISILO

#125, TXWORD

JSR

PC.LDTXSI

JSR

PC .READAX

#2 . AXNUM

CMPB

RAX1S,#000

MOV

#000, GOODAT

JSR

PC,GE TALL

MOV

002426
003576

3%:
ENDTST

CLR

JSR

T3%::

:SET DISABLE SILO FLAG

:SET REG NO. FOR AX1

*READ AX1-15, AX1-16

*CHECK FOR AX1-15 UNCHANGED

RAX15,BADDAT

:GET ACTUAL DATA

*GET EXPECTED DATA
*GET REGS FOR PRINTOUT

3,EM3,ERR3

DISILO

2222222 222222%;

:LOAD 125 INTO TX SILO

*BR IF UNCHANGED

PC,MSTCLR

:SET REG NO. = 14

;REPORT REG MISCOMPARE

ERRDF

:SET DISSI BIT

PC,WRITLU

BEQ

#DISSI,WRIBYT

JSR

MOV

;ISSUE MASTER CLEAR

#14 ,REGNUM

MOV

PC MSTCLR

MOV

104455

012222
015142
005037

002400
002366

TRAP

sCLEAR DISABLE SILO FLAG

CSERDF

.WORD
.WORD
.WORD

3
EM3
ERR3

TRAP

CSETST

s ISSUE MASTER CLEAR TO CLEAN UP

L10066:

104401

;:ttttt'.t'tttt!ttt.Qtt".".fi..tQtt""tfit't".it'tfit.'t'tttt.i't;‘...ttt"!'t.

.SBTTL

TEST 35 - SILO-DISABLED MESSAGE TEST - BIT MODE, NO CRC

. %

;* THE LINE UNIT IS INITIALIZED AND A MESSAGE IS INITIATED (USING STEPLU)
;* WITH LULP (REG 12) SET TO LOOP THE DATA INTERNALLY IN THE USYRT,
WITH SILO

;* DISABLE SET, AND WITH NO ERROR DETECTION. TWO FLAGS, 000.125.252. AND

;* TERMINATING FLAGS ARE THEN SENT BY LOADING THE TRANSMITTED CHARS INTO

6692

6693
6694
6695
6696

SEQ 0157

;* REG AX1. THE PROGRAM MONITORS OACT, IACT, RSOM, REOM, ORDY, OCOR, ICIR,

;* \IITL,(YE'”D THE RECEIVED CHARS ARE READ FROM AXO AND COMPARED TO EXPECTED

. ®

033016
033016
033016
033024
033030
033032
033034
033040
033044
033046

BGNTST

012737
004737
000000
000000
004737
004737
000000
000302

033716
005540

003576
010640

002362

Ittt 22332223222222222322221231

MOV
3SR

JSR
JSR
000

#188,RETADR

;SET TEST EXIT ADDRESS FOR ERRORS

PC, INITRN

*FIND OUT WHICH USYRT CHIP

PC,MSTCLR
PC,SETUP

;ISSUE MASTER CLEAR

CRC2!CRC1!IERR

:PROGRAM THE USYRT

CZDMRC MB203 STATIC DIAG l‘l
CZDMRC.P1
13-MAR-80
1 4£:38

c13
MACY11 30A(1052) 13-MAR-80 14:40 PAGE 6-10
TEST 35 = SILO-DISABLED MESSAGE TEST - BIT MODE, NO CRC

6705
002400
002366

#14 ,REGNUM

#TXEN!DISSI DISILO

002426
002400
002366

#12
,REGNUM
#LULP,WRIBYT

002402

A ¥

346
033354

LU REG
NO. = 12

sSET LULP _IN REG 12
:GET POINTER TO MSG
JCHK ORDY = 1

#2 ,AXNUM

(R1)+,WAX15

;SET AX BYTE NO. FOR AX1
;GET A CHAR

PC,WRITAX
PC.OSIRDY

;LOAD CHAR INTO USYRT TX BUFFER
sCHK ORDY = 0

PC,OACTIV

;CHK OACT =0

PC.STPLU

;CLOCK LU FOR 3 CYCLES

PC,OACTIV

sCHK OACT =1

#4,R3

sINIT COUNTER

(R1)+,WAX15

(R1)+,WAX16

;GET ANOTHER CHAR

R3,#1
58
CHPTYP
X3

#TEOM,WAX16
PC.0SIRDY

;SEE IF LOADING LAST DATA CHAR YET
:BR_IF NOT
;SEE IF SIG USYRT
:BR IF YE
_YES
;SET TEOM UI{H LAST DATA CHAR
;CHK ORDY

PC,WRITAX
PC,OSIRDY

;LOAD ANOTHER CHAR INTO USYRT TX BUFFER
;CHK ORDY = 0

PC,IACTIV

JCHK IACT =0

PC,RSEOM

JCHK RSOM = 0, REOM = 0

PC,STPLU

;CLOCK LU FOR 8 CYCLES

PC,O0ACTIV

;CHK OACT =1

PC,OSIRDY

;CHK ORDY = 1

;DECR COUNTER
;BR IF NOT DONE YET

PC,ISIRDY

002430

002374
00000
004312

IN REG 14
:SET DISABLE SILO FLAG

PC.WRITLU
R
MSG1
PC,0SIRDY

(R1)+ UAx16

006430

;SET REG NO. = 14

#TXEN!DISSI, WRIBYT
PC, WRITLU
s SET TXEN AND DISSI

JCHK IRDY = 0

JSEE IF SIG USYRT
:BR IF NOT

002376

#TEOM, WAX16
PC.WRITAX

;LOAD EOM CHAR
;LOAD ANOTHER CHAR INTO USYRT TX BUFFER

SEQ 0158

D13

13-MAR-80 14:40 PAGE 6-11
TEST 35 = SILO-DISABLED MESSAGE TEST = BIT MODE, NO CRC

MACY11 30A(1052)

PC,STPLU
PC,I1SIRDY
PC,OACTIV

sCHK IRDY

005352

.3:5&
5sa
{sn

sCHK OACT

006714

#sa

PC,IACTIV

sCHK JTACT

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
1 3-MAR-B0 14:38

00792

.{sa

PC ,RSEOM

;CHK RSOM

006430

6SR

PC,ISIRDY

sCHK IRDY

MOV
CMPB
BEQ
MOV
MOV
JSR

#0 , AXNUM
RAX1S5,#000
9s
#0,GOODAT
RAX1S,BADDAT
PC,GETALL

ERRDF

26,EM26,ERR3

000000
002370

002402
000000

000000
002370
004526

002404
002406

sREPORT

= 0
. REOM

006430

;CLOCK LU FOR 3 CYCLES

11$%:

;SET AX BYTE NO. FOR AX0
s COMPARE RCV'D CHAR TO 000
:BR_IF MATCH
sSET EXPECTED DATA

:SET ACTUAL DATA
:GET REGS FOR PRINTOUT

Oe.

005254

SEQ 0159

INCORRECT DATA CHAR RCV'D

TRAP

B8R

005254

188

.WORD
.WORD

gsn

PC,STPLU

sCLOCK LU FOR 8 CYCLES

006430

$§R

PC.ISIRDY

;CHK IRDY

005352

.{sa

PC.OACTIV

;CHK OACT

006714

.1:sn

PC,IACTIV

sCHK TACT

007102

(J)sa

PC ,RSEOM

;CHK RSOM

0, REOM = 0

006430

5SR

PC,ISIRDY

sCHK IRDY

CMPB

RAX15.#125

CWARE ZMD RCV'D CHAR TO 125
MA
IFR
:B

002370

000125

002404

BEQ
MOV
B8R

128
#125,GOODAT
£

Jasn

PC.STPLU

s SET EXPECTED DATA
:BR TO REPORT ERROR
8 CYCLES
R
:CLOCK LU FO

006430

5&&

PC,ISIRDY

;CHK IRDY =1

005352

.1:sn

PC.OACTIV

sCHK OACT =1

006714

(J)sn

PC,IACTIV

;CHK TACT =0

007102

5sn

PC RSEOM

;CHK RSOM = 0, REOM =

006430

(J)sn

PC,ISIRDY

;CHK IRDY =0

CMPB

RAX15,#252

CWARE 3RD RCV'D CHAR TO 252
IF MA
:BR

005254

12%:

002370

000252

002404

BEQ
MOV

148
#252,GOODAT

sSET EXPECTED DATA

CSERDF
26
EM26
ERR3

CZDMRC MB82G3 STATIC DIAG #1

CZDMRC.P1T

033642
0

000014

000040
003750
000011
000200
003750
005146
005352

002400

002366

148:

002400
002366

002426
003576

188:

BR
MOV
MOV
JSR
MOV
MOV
JSR
JSR
55&

6$
#14 ,REGNUM
#D1SSI ,WRIBYT
PC,WRITLU
#11,REGNUM
#OC .WRIBYT
PC,WRITLU
PC.WAITSO
PC.OACTIV

;SET OC TO SHUT DOWN TRANSMITTER
*WAIT FOR SHUTDOWN
“CHK FOR OACT = 0

(LR

DISILO

:CLEAR DISABLE SILO FLAG

PCMSTCLR

ENDTST

*SET REG NO. = 14

:CLEAR TX ENABLE
*SET REG NO. = 11

+ISSUE MASTER CLEAR TO CLEAN UP

L10067:

2% BN B JFBF BF BN BF 3

.SBTTL

033730
033730
033730

034204

CSETST

212222222222 3222222222222222223

FIRST, A MASTER CLEAR IS DONE AND THE PROGRAM CHECKS FOR ICIR = 1 AND IRDY

= 0. THEN, 2 SOM CHARS ARE LOADED AND CLOCKED INTO THE USYRT, AND 64
?’YOEE¥X0§It0256-8"E BINARY COUNT DATA PATTERN (000-377) ARE LOADED INTO

THE LINE UNIT IS THEN CLOCKED UNTIL IRDY = 1, AND THE PROGRAM CHECKS FOR
THIS TO OCCUR WITHIN 40-43 CYCLES. THE PROGRAM READS THE RCV SILO, CHECKS THE

CHAR FOR 000, AND CHECKS FOR IRDY = 0 AGAIN.

THE LINE UNIT IS THEN CLOCKED IN GROUPS OF 8 CYCLES, AND AFTER EACH, THE
PROGRAM CHECKS FOR ICIR = 1, IRDY = 1, UNTIL THE 64TH GROUP, AFTER WHICH

IT CHECKS FOR ICIR = O, IRDY = 1, THE SECOND DATA CHAR IS READ FROM THE
?ESSIVH; i&?h‘w COMPARED TO 001. THEN, THE PROGRAM CHECKS FOR ICIR = 1,
THE REST OF THE BINARY COUNT DATA BYTES ARE CYCLED 8 CLOCKS AND READ AND
COMPARED A BYTE AT A TIME.

Rl itt
11323122 322222222222223
t
231311

MOV

002362

TRAP

TEST 36 - RECEIVER BUFFER TEST - CHAR MODE, CRC

BGNTST
012737

SEQ 0160

:BR TO REPORT ERROR

033726

LAE 2R 2

6813
6814

1 3-MAR-80 14:38

E 13

MACY11 30A(1052)
_13-MAR-80 14:40 PAGE 6-12
TEST 35 = SILO-DISABLED MESSAGE TEST = BIT MODE, NO CRC

#A10,RETADR

;SET TEST EXIT ADDRESS FOR ERRORS

: DO MASTER CLR, CHK FOR ICIR = 1, IRDY = 0
033736
033742
033746

004737
004737
000001

003576
006430

JSR

.{SR

PC ,MSTCLR

PC,ISIRDY

;ISSUE MASTER CLEAR

sCHK ICIR = 1,

IRDY = 0

: LOAD AND CLOCK 2 SOM'S, LOAD 64 BYTES OF BINARY COUNT PATTERN INTO TX SILO,
; CLOCK LINE UNIT, CHK FOR IRDY = 1 WITHIN 40-43 CYCLES

033750
005003
010337

005540

gszCH

PC.INITRN

;LOAD 2 SOM'S, CLOCK THEM INTO USYRT

002422

STRIP!DDCMP
CLR
R3
MOV
R3, TXWORD

s INIT BINARY COUNT DATA FOR WRITING

2%:

CZDMRC M8203 STATIC DIAG #1

CZDMRC.P11
6866
6867
6868

033766
033772
033774

6869
034000
6870 034002

6871
687,
68

034006

6875
6876

034010
034012

6874

6877
6878
6879
6880
6881

034016
034020
034022
034026
034030

13-MAR-80

737
005203
020327

002770
004737
000050

005004
004737

000000
000000
005204
004737
000001

14:38

F13

MACY11 30A(1052)
_13-MAR-B0 14:40 PAGE 6-13
TEST 36 - RECEIVER BUFFER TEST = CHAR MODE, CRC

005174

JSR
INC
P

000100

BLT
JSR

007434

40.

9s:

007750

168:

006430

CLR
JSR

0
0
INC
JSR
1

034032
034036

004737
000010

005254

188:

PC.STPLU

INC

3
P

R3,4127.

010337
004737

002422
005174

MOV
JSR

6890

034052

004737

006430

JSR

6893

6894

034050

034056
034060

034064

005203

3
020327

002762

000177

6895

6897 034066

004737

005254

6899

004737

006430

gggg

034072

034074

034100

000010

000002

034102

6906
6907
6908
6909

034112
034114
034116
034120

6912
6913
6914
6915

6916

6917

034106

034126
034126

010437

PC,ISIRDY
18§

sLOAD ANOTHER WORD INTO TX SILO
:INCR PATTERN FOR WRITING
sCHK ICIR = 1, IRDY = 1

;SEE IF 63 MORE CHARS CLOCKED YET
:BR IF NOT YET

JSR

PC.STPLU

;CLOCK LU FOR 8 CYCLES

JSR

PC,ISIRDY

;CHK ICIR = 0, IRDY = 1

007750

020427

000400

000000
000000
005204

001427
004737

3
004737
000010
020327

034150

010337

034146

0%154%
034160

6921

034166

034162

034112

004737

034132
034134
034140
034142

6918
6919

6920

R3, TXWORD
PC.LDTXSI

;CLOCK LU FOR 8 CYCLES

:READ, COMPARE, CLOCK REST OF DATA CHARS

6904

6910
6911

BLT

gggg

6905

sINIT PATTERN FOR READING
sREAD RCV SILO, COMPARE DATA
;EXPECTED DATA = 000
sDON'T CLOCK LINE UNIT
s INCR DATA FOR READING
;CHK FOR ICIR = 1, IRDY = 0

: CLOCK 1 MORE CHAR INTO RCV SILO, CHK ICIR = 0, IRDY = 1

6896
6898

R4
PC,ISIRDY

JSR
8.

034040
034044

6891
6892

R
PC,CKDATA

¢ CLOCK 63 CHARS INTO RCV SILO, CHK ICIR = 1, IRDY = 1

6887
6888

6889

28
PC,RCVIST

;LOAD A DATA BYTE INTO TX SILO
s INCR DATA
sSEE IF 64 BYTES LOADED YET
;BR _IF NOT YET
sRECEIVE AND TIME FIRST CHARACTER

: READ RCV SILO, COMPARE FIRST CHAR TO 000, CHK FOR ICIR = 1, IRDY = 0
.

68846883
6885
6886

Pg.LDTXSI
R
R3,#64.

003007

737
005203

000137

012737

208:

MOV

218:

0
0
INC
P

22%:

000377

;CLOCK LU FOR 8 CYCLES

R3,4377

248

;SEE IF ALL CHARS LOADED INTO TX SILO YET
;BR IF YES

JSR
INC

PC.LDTXSI
R3

;LOAD ANOTHER CHAR INTO TX SILO
s INCR DATA PATTERN FOR WRITING

MOV

#TXEOM, TXWORD

BGT

002422

MOV

005174

034102

PC.STPLU

3
JSR
8.
P

005254

001000

328
PC,ISIRDY

BEQ
JSR

006430

002422

24%:

R4,21$

sSET EXPECTED DATA
sREAD AND COMPARE DATA
SEXPECTED SILO ENTRY GOES HERE
sDON'T CLOCK LINE UNIT
s INCR DATA PATTERN FOR READS
sSEE IF ALL DONE READING YET
;BR IF DONE READING
;CHK ICIR = 1, IRDY =1

JSR

JMP

PC.CKDATA
R4
Ré& , #4600

R3, TXWORD

208

SEQ 0161

CZDMRC MB203 STATIC DIAG fl
13-MAR-80
CZDMRC.P1
1 4£:38

034174
0

G 13

MACYT SOA(‘IOSZ)
13-MAR-80 14:40 PAGE 6-14
T 36 = RECEIVER BUFFER TEST = CHAR MODE, CRC

SEQ 0162

004737
000137

005174
034102

JSR

PC,LDTXSI

;LOAD EOM INTO TX SILO

004737

003576

JSR

PC,MSTCLR

;s ISSUE MASTER CLEAR TO CLEAN UP

20$

L10070:

104401

TRAP

CSETST

12222 222222222222222223

TEST 37 = RECEIVER CHAR LENGTH TIMING TEST = CHAR MODE, NO CRC

SBTTL
* %

;* THE LINE UNIT IS PLACED IN CHAR MODE, WITH NO ERROR DETECTION, AND A MSG IS

;#* INITIATED WITH 2 SYNCH CHARS. NEXT, FIFTEEN 000 CHARS ARE LOADED INTO THE

;* TRANSMITTER SILO.

THE LINE UNIT IS THEN CLOCKED USING STEPLU WITH LILCXP

;* SET, WHILE THE RECEIVER CHAR LENGTH IS SET TO THE FOLLOWING VALUES
: 5,6,7.8.

;* FOR EACH RCV_CHAR LENGTH, THE PROGRAM CHECKS TO MAKE SURE THET USYRT RECEIVER
:* FLAGS OCCUR THE PROPER NO. OF CYCLES APART, FOR EACH RCV CHAR LENGTH.
;# (FOR EXAMPLE A 5-BIT CHAR TAKES 5 CLOCK CYCLES TO BE RECEIVED). A MASTER

L
v
.

;* CLEAR IS THEN DONE TO TERMINATE THE OPERATION

't.ttttt.Qfi""'..t"""'tfi't.t.tt"t.tt'.fi'tt..'.'t'tt..."t'.'t..."'.t.t'.

B8 GNTST

012737
004737

034404
005540

012701
005037

000017
002422

004737

005146
000006

MOV

002362

(st)g

#24$ ,RETADR

PC,INITRN

CRC2'CRC1' IDLE ' DDCMP

MOV

005174

3%:

002376

CLR

TXWORD

:DO MASTER CLR, LOAD 2 SOM'S

sINIT COUNTER

JSR
PC.LDTXSI
:LOAD A 000 CHAR INTO TX SILO
DEC
R1
*DECR COUNTER
BNE
3s
*BR IF NOT DONE LOADING YET
JSR
PC.HAITSO
:WAIT FOR SILO TO RIPPLE
MOV
*SET BYTE NO. = 6 FOR AX3
MOV
0060
WAX1S
*SET
DATA FOR AX3-15= 0
MOV
#RXLEN2 'RXLENO, ume :SET RCV LEN = §
JSR
PC,WR]TAX
:LOAD AX3
JSR
PC.STPLU
*CLK LU UNTIL TX'ING 1ST DATA CHAR
CHPCHK
' 10.
MOV
#RXLEN2 {RXLENT ,WAX16 ;SET RCV LEN= 6
JSR
PC,WRITAX
:LOAD AX3
gsn

PC.RCVIST

MOV
JSR

meenz'axLem'RxLEno WAX16 :SET RCV LEN= 7
PC,WRIT
:LOAD "AX3
PC RXCHAR

*RCV S-BIT DATA CHAR, (LK 6-81T

MOV
JSR

#0,WAX16
PC.wR1TAX

:SET RCV_LEN
= 8
“LOAD AX3

gsn

002376

#15. Ri

137::

;SET TEST EXIT ADRS FOR ERRORS

gsn

PC _RXCHAR
PC ,RXCHAR

*CLOCK S=BIT DATA CHAR

*RCY 6-BIT DATA CHAR, (LK 7-8IT

;RCY 7-BIT DATA CHAR, (LK 8-BIT

CZDMRC M8203 STATIC DIAG M
CZOMRC.P11
1 3-MAR-80 14:38

004737

000010
004737

MACYTT 30A(1052)

_13-MAR-80

14:40

H13
PAGE 6-15

TEST 37 - RECEIVER CHAR LENGTH TIMING TEST = CHAR MODE, NO CRC

011074

24%:

003576

ENDTST

JSR

PC ,RXCHAR

:RCV 8-BIT DATA CHAR

JSR

PC,MSTCLR

;ISSUE MASTER CLEAR TO CLEAN UP
L10071:

104401

AR AR AR

LSBTTL
. %

;*
:*
;*
;%

TRAP

2222232222222

SEQ 0163

(SETST

22222322283

TEST 38 = RECEIVER CHAR LENGTH TIMING TEST = BIT MODE, NO CRC

THE LINE UNIT IS PLACED IN BIT MODE WITH NO ERROR DETECTION, AND A MESSAGE IS
INITIATED WITH 2 FLAG CHARS. NEXT, FIFTEEN 000 CHARS ARE LOADED INTO THE
TRANSMITTER SILO. THE LINE UNIT IS THEN CLOCKED USING STEPLU WITH LULOOP
SET, WHILE THE RCV_CHAR LENGTH IS SET TO THE FOLLOWING VALUES : 8,8,8.7.6.5.

;* 4,3,2,1. FOR EACH RCV CHAR LENGTH, THE PROGRAM CHECKS TO MAKE SURE THAT THE
:* USYRT RECEIVER FLAGS OCCUR THE PROPER NO. OF CYCLES APART, FOR EACH RCV

:* CHAR LENGTH. (FOR EXAMPLE, A 5 BIT CHAR TAKES 5 CLOCK CYCLES TO BE RECEIVED).
:* A MASTER CLEAR IS THEN DONE TO TERMINATE THE OPERATION.

BGNTST
012737
004737
000000

MOV

002362

533

#24$ ,RETADR

PC,INITRN

CRC2!CRC1

MOV
CLR
JSR

#15. .R1

:*NIT COUNTER

PC,LDTXSI

BNE
JSR
MOV
MOV

3
PC.WAITS0
#6 .AXNUM
#000,WAX15

:1LOAD A 000 CHAR INTO TX SILO
:BR IF NOT DONE LOADING YET
‘WAIT FOR SILO TO RIPPLE
;SET BYTE NO. = 6 FOR AX3
*SET DATA FOR AX3-15 = 0

MOV
JSR

#0,WAX16
PC.WRITAX

;SET RCV LEN = 8
*LOAD AXZ

MOV
JSR

#RXLEN2'RXLENT'RXLENO,WAX16 :SET RCV LEN = 7
PC,WRITAX
;LOAD "AX3

002376

MOV
JSR
%sn

#RXLEN2 'RXLENT ,WAX16
:SET RCV LEN = 6
PC,WRITAX
:LOAD AX3
PC _RXCHAR
:RCV 3RD 8-BIT DATA CHAR, CLK 7-8IT

002376

MOV
JSR
éSR

#RXLEN2 'RXLENO,WAX16
:SET RCV LEN = §
PC,WRITAX
:LOAD Ax3
PC _RXCHAR
*RCV 7-BIT DATA CHAR, CLK 6=-BIT

002376

MOV

#RXLEN2 ,WAX16

3$:
002402
002374
002376

DEC

ign

QU
Qug

&Hrownm

—t

—

=¥
—

—

Z¥8

—

gsn

=¥E

;SET TEST EXIT ADRS FOR ERRORS

:DO MASTER CLR, LOAD 2 SOM'S

002376

gSR

TXWORD

PC.RCVIST

PC _RXCHAR

PC_RXCHAR

:DSCR COUNTER

:CLOCK FIRST 8-BIT DATA CHAR

*RCV FIRS: 8-BIT DATA CHAR, CLK SECOND 8-BIT

*RCV SECOND 8-EIT DATA CHAR., CLK 3RD 8-BIT

;SET RCV LEN = 4

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1
13-MAR-80 14:38

004737
004737
000025
012737
004737
004737
000004

113

MACY11 30A(1052)
_13-MAR-B0 14:40 PAGE 6-16
TEST 38 = RECEIVER CHAR LENGTH TIMING TEST = BIT MODE, NO CRC

004312
011074

JSR

PC,WRITAX

MOV

#RXLENT'RYLENO,WAX16

gSR

000003
004312
011074

002376

000002
004312
011074

002376

000001
004312
011074

002376

003576

JSR

PC _RXCHAR

MOV
JSR

#RXLEN1 ,WAX16
PC,WRITAX

SET RCV3LEN 2
; LOAD

*RCV S-BIT DATA CMAR,

PC ,RXCHAR

RCV 4-BIT DATA (HAR,

IRXLENO UAX16

SET RCV_LEN = 1

034774
005540

002362

000000
005174
005254

002422

(LK 3-BIT

PC,WRIT
PC. RXCHAR

;LOAD AX3
RCV 3-BIT DATA (HAR, (LK 2-BIT

.115R

PC.RXCHAR

;RCV 2-BIT DATA (HAR, (LK 1-BIT

JSR

PC,MSTCLR

s ISSUE MASTER CLEAR TO CLEAN UP

L10072:

AR d

ittt

TRAP

Tl 32222222232222222222222332%

THE LINE UNIT IS PLACED IN CHAR MODE, AND THE IDLE BIT IS SET. THEN,
MSG IS INITIATED, A 000 CHAR IS SENT, AND THE TX BUFFER IS NOT SERVICED
IN RESPONSE TO THE USYRT TX BUFFER EMPTY FLAG, WHICH CAUSES A TX UNDERRUN
ERROR. THEN, THE RECEIVER IS CLOCKED AND CHECKED FOR TWO 377 CHARS TO BE
RECEIVED (LINE MARKING) BEFORE SHUTTING DOWN WITH A MASTER CLEAR.
A

AR A

MOV

é?fi
i

#24$ ,RETADR

PC, INITRN

it 21223222232322222222223233222
5

T39::
:SET TEST EXIT ADDRESS FOR ERRORS

:MST CLR, LOAD 2 SOM'S

CRC2'CRC1!
IDLE ' DDCMP

MOV
JSR

#000, TXWORD
PC,LDTXSI

;LOAD 000 CHAR INTO TX SILO

007354
007750

JSR

PC ,RDRXS]

;READ 000 CHAR

007750

§§§

PC,CKDATA

;READ AND CHECK FOR ANOTHER MARK CHAR

000
JSR

PC.MSTCLR

;ISSUE MASTER CLEAR TO CLEAN UP

003576

CSETST

TEST 39 - TRANSMITTER UNDERRUN ERROR, IDLE MARKING, CHAR MODE ,NO CRC

BGNTST

012737

CLR 4=BIT

JSR
5SR

SBTYL

.'
;*
:*
:*
i+

:SET RCV LEN = 3

:LOAD AX3

MOV

24%:
ENDTST

;RCV 6-BIT DATA CHAR, (LK 5-BIT

PC,WR1TAX

%SR

011074

;LOAD AX3

PC.RXCHAR

JSR

SEQ 0164

é?“

%gg

000

gzg;sr

PC.STPLU

PC.CKDATA

:CLOCK LINE UNIT UNTIL LINE GOES MARKING

*READ AND CHECK FOR MARK CHAR

(377)

L10073:

TRAP

CSETST

J 13

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

MACY11 30A(1052)
_13-MAR-80 14:40 PAGE 6-17
TEST 39 - TRANSMITTER UNDERRUN ERROR, IDLE MARKING, CHAR MODE,NO CRC

7079
7080
7081
7083

t'Qt"...'t..fit*tt""""fi..t.*t..Q..t'Qt..'.t...'.".'."'."Q'.QQ..

7085
7087

‘SarTL
TEST 40 = MSG TERMINATION WITH GA CHARS - BIT MODE,NO CRC
% THE DEVICE IS ENABLED FOR TRANSMIT AND RECEIVE, AND A MESSAGE IS

- %

7088
7089
7090
7091
7092
7093
709%
7095
709
7097

i INITIATED IN BIT MODE.
i* 2 FLAG CHARACTERS ARE SENT, FOLLOWED
B
i« THE FOLLOWING DATA CHARACTERS: 000, 125 252, 377, 000. THEN THE LOOP
;% MODE BIT (STRIP) IS SET AND 2 TERMINATING GO-AMEAD CHARACTERS ARE
;% SENT. EACH USYRT RCV FLAG IS TIMED AS IT IS RECEIVED, AND THE 5 DATA
;% WORDS ARE READ AND COMPARED TO EXPECTED VALUES.
;v ALSO, THE FIRST GA CHAR IS CHECKED BY SCANNING THE TXDATA BIT AS THE GA
i 1S BEING TRANSMITTED (GA = 376 OCTAL)
i THE TEST ALSO CHECKS FOR SETTING OF RAB AND EBLK
% IN LOOP MODE.

7099
(3)
7100
7101
7102
7103
7104
7105
7106
7107
7108
7109
7110
7111
7112
7113
7114
7115
7116
7117
7118
7119
7120
7121
7122
7123
7124
7125
7126
7127
7128
7129

035002
035002
035002
035010
035014
035016
035020
035024
035026
035030
035036
035042
035046
035052
035056
035060
035064
035066
035072
035074
035076
035102
035104
035106
035112
035114
035116
035122
035124
035126
035132
035134

7130

035136

7132
(3)

035 142
035142

'.t.titfi..fit'tt.t*'fi'.."'t.tfifit.'ttfi.fi.tt't.."ttt't.fiQ.Qt'."...t""'

BGNTST
012737
004737
000000
000310
004737
003224
000005
012737
004737
004737
004737
004737
100071
004737
000376
004737
000000
000000
004737
000125
000000
004737
000252
000000
004737
000377
000010
004737
003000
000010

004737

035136
005540

002362

011016
005000
005174
005174
005146
005254

002422

011176
007750
007750

007750
007750
007750

003576

24$:
ENDTST

T40::
MOV
#24$,RETADR
;SET TEST EXIT ADRS FOR ERRORS
JSR
PC,INITRN
:MST CLR, LOAD 2 SOM'S
000
CRC2!CRC1!STRIP
JSR
PC,LODMSG
:LOAD DATA CHARS INTO TX SILO
MSG1+4
5
MOV
#TXGOA'TXEOM, TXWORD
JSR
PC,LDTXSI
:LOAD A GA CHAR INTO TX SILO
JSR
PC.LDTXSI
:LOAD ANOTHER GA
JSR
PC.WAITS0
:ALLOW SILO TO RIPPLE
JSR
PC.STPLU
:CLOCK LU UNTIL GA CHAR IS TX'ING
CHPCHK
! 57.
JSR
PC,CKTBIT
:SCAN TXDATA BIT FOR GA CHAR
376
JSR
PC,CKDATA
:RCV 000 CHAR, CLK 125
000
0
JSR
PC,CKDATA
:RCV 125 CHAR, CLK 252
125
0
JSR
PC,CKDATA
:RCV 252 CHAR, CLK 377
252
0
JSR
PC,CKDATA
:RCV 377 CHAR
377
8.
JSR
PC,CKDATA
:RCV 000 CHAR, CHK RAB = 1, EBLK = 1
3000
8.

JSR

PC,MSTCLR

:ISSUE MASTER CLEAR

L1007:

SEQ 0165

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

CSETST

TRAP

A A A A AR AT

.SBTTL

TEST 41 - IDLE SYNCHS TEST - CHAR MODE

% %2282

SRR AR A

AR AR AR AR AT AR AR AR RN AR AR AT RN

AR AR RN

THE DEVICE IS ENABLED FOR TRANSMIT AND RECEIVE, AND A MESSAGE IS

INITIATED IN CHAR MODE. 24(DEC) SYNCHS ARE SENT.
EACH SYNCH IS TIMED AS IT IS RECEIVED, AND THE BITS ARE CHECKED

FOR A VALID SYNCH CHAR FOR EACH OF THE 22 SYNCHS WHICH FOLLOW

THE FIRST TWO (THESE PERFORM SYNCHRONIZATION, AND ARE NOT READ).
WHILE THE LAST SYNCH IS BEING TRANSMITTED, OC IS SET, AND THE

NEXT CHAR RCV'D AFTER THE SYNCH IS CHECKED TO BE 377 (LINE MARKING).

THEN, A MASTER CLEAR IS ISSUED,
THE SYNCH CHAR USED IS 226 (OCTAL).
AR

it ddgttt
il
I
222122222228

—

012737
73

035304
005540

035144
002362

MOV

002422

MOV
MOV

#22. .R1
#SYNCH, TXWORD

DEC

ggfim

#24% ,RETADR
PC,INITRN

CRC2!CRC1!IDLE !DDCMP

68:

JSR

8s:

000011
000200
003750
005254

6%
PC.WAITS0

*BR IF MORF TO LOAD
*ALLOW SIL. TO RIPPLE

MOV

#21. .R1

JSR

SYNCH

003576

ENDTST

*CLK LU UNTIL 3RD SYNCH RCV'D

:READ A SYNCH, CLK NEXT ONE

8s
PC,CKDATA

:DERC COUNTER

MOV

#11 ,REGNUM

:SET REG NO. = 11

JSR

PC,WRITLU

#0C.WRIBYT

(RCVR IS ACTIVE)

;INIT COUNTER

PC.CKDATA

43:2

248:

PC.RCVIST

:DECR COUNTER

BNE
JSR

MOVB

007750

s INIT COUNTER

BNE
JSR

zmcn

002400
002366

JMST CLR, LOAD 2 SOM'S

;LOAD AN SOM INTO TX SILO

DEC

007750

T41::

;SET TEST EXIT ADRS FOR ERRORS

PC,LDTXSI

éfR

035310

SEQ 0166

104401

035142

B %0009, 8% 8%,0%, -

(3)

7133

K13

MACYT1 30A(1052)
13-MAR-B0 14:40 PAGE 6~18
TEST 40 = MSG TERMINATION WITH GA CHARS = BIT MODE,NO CRC

:BR IF NOT ALL CHECKED
:CHECK LAST SYNCH

;SET OC IN REG 11

PC.STPLU

*FINISH CLOCKING CHAR, AND THEN SOME

%;9

PC.,CKDATA

:RCV A MARK CHAR, CHK IT

0
JSR

PC,MSTCLR

;ISSUE MASTER CLEAR TO CLEAN UP

L10075:

iRAP

CSETST

CZDMRC M8203 STATIC DIAG #
CZDMRC.P11
13-MAR-80 14:38

L 13
MACY11 30A(1052)
13-MAR-B0 14:40 PAGE 6-19
TEST 41 = IDLE SYNCHS TEST = CHAR MODE

SEQ 0167

7185
7188

AR R AR R A AR R AR

AT AR AR AN AR AR R AN R AR RN R AR

ANRANN RN

RN AN

7189

SB‘ITL

719

;% THE DEVICE IS ENABLED FOR TRANSMIT AND RECEIVE, AND A MESSAGE IS

TEST 42 = STRIP SYNCH TEST

Mm13

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 7
TEST 42 = STRIP SYNCH TEST

SEQ 0168

;% INITIATED IN CHAR MODE AND WITH THE STRIP SYNCH
:# BIT SET. THEN 24 (DEC) SYNCHS ARE SENT
:* FOLLOWED BY THE FOLLOWING DATA CHARACTERS : 377, 000, 125, 252.
i* AND 2 TERMINATING SYNCHS.
:* EACH OF THE 23 SYNCHS AFTER THE FIRST ARE CHECKED AT THE TRANSMITTER OUTPUT,
*» BY SCANNING THE TXDATA BIT.
:* EACH USYRT RCV FLAG IS TIMED AS IT IS RECEIVED, AND THE 4 DATA WORDS
:* ARE READ AND COMPARED TO EXPECTED
VALUES.
:* FINALLY, THE LINE UNIT IS CLOCKED FOR SEVERAL CHAR TIMES, AND A CHECK
;* 1S MADE FOR OACT = O (TEOM SHOULD CAUSE TX ENABLE TO DROP).
:* THE ABOVE TEST IS REPEATED FOR EACH OF THE FOLLOWING SYNCH CHAR DATA
:* PATTERNS
: 226,000,125,252,376.177.

'.ttttt'.'t't....tt'..t.ttfii.itttt'fi"t.Q..tttt.."t't.t..'t't..Qt'tttt'

BGNTST

035312
035532
035540
035334
005540

002362

000400
000026
005174

002422

28:
38:

68:

011016

-3\

QI8

011176

#24$ ,RETADR
#SYNPAT ,R1
(R1),3%
PC,INITRN

MOV
MOV
JSR
DEC
BNE
JSR

#TXSOM, TXWORD
#22. .R2
PC,LDTXSI
R2
6$
PC,LODMSG

;LOAD DATA CHARS INTO TX SILO

MOV
JSR
JSR
JSR
MOV
MOV
JSR

#TXEOM, TXWORD
PC,LDTXSI
PC.LDTXSI
PC.WAIT50
(Ri),168
#23. .R2
PC,STPLU

:LOAD A TEOM
*LOAD ANOTHER TEOM
*ALLOW SILO TO RIPPLE
*GET CURRENT SYNCH PATTERN
*INIT COUNTER
*CLOCK OUT FIRST SYNCH

LWORD
0
CRC2!CRC1!STRIP!DDCMP

CHPCHK! 8.
JSR
PC,CKTBIT
.WORD
O
DEC
R2

BNE

*SYNCH PATTERN GOES HERE

;LOAD 22 SOM'S INTO TX SILO

;CHECK TX'D SYNCH
*SYNCH PATTERN GOES HERE
*DECR COUNTER

gsa

PC.RCVIST

148

*BR IF NOT DONE CHECKING LAST 23 SYNCHS

.3;;;

PC,CKDATA

;RCV 377,

JSR

PC,CKDATA

;RCV 000, CLK 125

007750

#gg

PC,CKDATA

;RCV 125, CLK 252

007750

ggg

PC,CKDATA

:RCV 252, CLK END OF MSG

005352

JSR

PC,OACTIV

;CHK FOR OACT = 0

007434
007750
007750

035512

148:
16$:

.
:SET TEST EXIT ADRS FOR ERRORS
*GET POINTER TO DATA
*GET A SYNCH PATTERN
“MST CLR, LOAD 2 SOM'S

MOV
MOV
MOV
JSR

2564

002422

NINININD IRRRNRRNY
& NS3o NN WN=O

3333

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1T
13-MAR-80 14:38

goo

32.

:CLOCK UNTIL 000 CHAR RCV'D
CLOCK 000

CZDMRC M8203 STATIC D AG 01

CZDMRC.P11

13-MAR

4£:38

§§ 0201;7
035554
103675
(3)

7254

035536

062701

000002

004737

003576

MACY11 30A(1052)

13-MAR-80

24%:

ENDTST

ADD
cMP
BLO
JSR

SYNPAT: 226

035552

000177
A

#2,R1

R1.#SYNPAT+12.
2$

PC,MSTCLR

SEQ 0169

sINIT SYNCH PATTERN POINTER
sSEE IF ALL PATTERNS CHECKED YET
:BR IF NOT YET
s ISSUE MASTER CLEAR TO CLEAN uP

L10076:

104401

252
7261
7262
7263
7264

N 13
PAGE 7-1

TEST 42 = STRIP SYNCH TEST

;

7260

14:40

TRAP

CSETST

CZDMRC MB203 STATIC DIAG '138
CZDMRC.P11
13-MAR-80 14:

MACYT 32:'(‘1052)

13-MAR-80

14:40

B 14
PAGE 7-2

DWARE PARAMETER CODING SECTION

.SBTTL

SEQ 0170

HARDWARE PARAMETER CODING SECTION

////////////////////////////////////////////////////////////////////////////

/ THE HARDWARE PARAMETER CODING SECTION CONTAINS MACROS

:/ THAT ARE USED BY THE SUPERVISOR TO BUILD P-TABLES.
THE
/ MACROS ARE NOT EXECUTED AS MACHINE INSTRUCTIONS BUT ARE

/ INTERPRETED BY THE SUPERVISOR AS DATA STRUCTURES.

THE

/ MACROS ALLOW THE SUPERVISOR TO ESTABLISH COMMUNICATIONS
:/ WITH THE OPERATOR.
SIIIII1171707777777770111711717771117100777100077170717100001102011170011047

035554
035554
035556

BGNHRD

000022

LSHARD::
GPRMA

001031
035622
160000
177776

GPRMA

002031
035650
000000
000674

GPRMD

003032
035701
007000
000004
000007

GPRMD

012032
035732
000007
000000
000007

ADDRES,2,0,160000,177776,YES

VECTOR,4,0,0,674,YES

PRIRTY,6,0,7000,4,7,YES

ISRUN,24.,0,7.0,7,YES

L10077:
042503
040440
051523

ADDRES:

.ASCIZ

/DEVICE CSR ADDRESS

VECTOR:

.ASCIZ

/DEVICE VECTOR ADDRESS

PRIRTY:

.ASCIZ

/DEVICE PRIORITY LEVEL

042101
020123

035714

.WORD
.WORD
.WORD
.WORD

TSCODE
ADDRES
TSLOLIM
TSHILIM

.WORD
.WORD
.WORD
WORD

TSCODE
VECTOR
TSLOLIM
TSHILIM

.WORD
.WORD
.WORD
WORD
.WORD

TSCODE
PRIRTY
7000
TSLOLIM

.WORD

TSCODE

WORD
.WORD
WORD

7
TSLOLIM
TSHILIM

.WORD

ENDHRD

7291

.WORD L10077-L$HARD/2

053105
051120
054524

TSHILIM

ISRUN

CZDMRC M8203 STATIC D IAG M
CZDMRC.P11
1 3-MAR 80 14:38

7292

035722
035730
035732

053105
000040

MACY11 30A(1052) 13-MAR-80 14:40 CPAGE 7-3
HARDWARE PARAMETER CODING SECTION

046105

035040

051103

050117
3

ISRUN:

.EVEN

.ASCIZ

/MICROPROCESSOR RUN SWITCH = TYPE O IF OFF,

SEQ@ 0171

IF ON : /

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

D 14
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 7=4
SOF TWARE PARAMETER CODING SECTION
.SBTTL

SEQ 0172

SOFTWARE PARAMETER CODING SECTION

SIITTITTIIIITIIITII77700007777777777777777777777777777777771777777771717
:/ THE _SOF TWARE PARAMETER CODING SECTION CONTAINS MACROS
:/ THAT ARE USED BY THE SUPERVISOR TO BUILD P-TABLES.
THE
/ MACROS ARE NOT EXECUTED AS MACHINE INSTRUCTIONS BUT ARE

/ INTERPRETED BY THE SUPERVISOR AS DATA STRUCTURES.

THE

/ MACROS ALLOW THE SUPERVISOR TO ESTABLISH COMMUNICATIONS
:/ WITH THE OPERATOR.
SIIIIIIIITTITITT717770000010007107777101710007000170771101710011007117

BGNSFT

LSSOFT::

.WORD L10100-L$SOFT/2

ENDSFT

L10700:

.EVEN

;anxxxx PATCH AREA FOR DEBUG t**xxnwn

036022

PATCH:

036222
036224
036226

.=.+200

NOP
NOP
NOP
IR

AR AR AR AR R

036230

ENDMOD

036230

LASTAD

036230
036232
036234

LSLAST::

000001

.END

RRRR

RRRNRRRRR

.EVEN
WORD
WORD

O
O

CZDMRC M8203 STATIC DIAG #1
13-MAR-80 14:38
CZDMRC.P11
ABORT = 000004
ADDRES 0356%8
= 000020
G
ANBITS 002561
APA
= 000200
ASBCO = 000020
ASBC1 = 000040
ASBC2 = 000100

E 14

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8
CROSS REFERENCE TABLE == USER SYMBOLS
4462

4482

4500

4521

4539

5474

5524

5525

5571

5572

ASSEMB= 000010
AXNUM
002402

3451%

4185+

5470%
6253~
AX0.15= 002322
AX0.16= 002324
AX1
= 000001
AX1.15= 002326
AX1.16= 002330
AX2
= 000002
AX2.15= 002332
AX2.16= 002334
AX3.15= 002336
AX3.16= 002340
AX31SU= 000372

a4
A5
A6
A7
A8
A9
BADDAT

3457

4194
5485+

6363~

4577

7282

72854

3458

5521
6443+

3460+
5330+
5536+
6526+

3462
5342+

5568+
6589+

3653
5346+
5583+
6668

4868+
5363~
5722+

4899+
5374+
5769+

4203+

3661+
5356

6717+

4567

4567
4567
4569
4569
4569
4569

024222

034204
026630
027310

027424
027534
027730
030274
030510
031040
002406

BCC
= 000001
BCCCHK= 100000

BITOO = 000001 G
BITO1 = 000002 G
BIT02 = 000004 G
BITO3 = 000010 G
BITO4 = 000020 G
BITO5 = 000040 G
BITO6 = 000100 G
BITO7 = 000200 G
BITO8 = 000400 G
BITO9 = 001000 G
BIT1
= 000002 G

6125

6138

6157

6161

61654

4073«

4095«

5490+

4094~
5098«
5531«

4465
5202«
5587+
6629+

4834+
5304+
5699+

4106

4450
5167%
5578+
6548+

4561
5285+
5651+

4100

5133«
5540%
6483+

2388
2555

2397
2567

2426
2580

2438
2592

2450
2603

2474
3445

2486
3486

2387
2545

2415
2566

2425
2579

2437
2591

2461

2473
3502

6385+

4669

4558

noONO
N

A10
A2

4547
4567

SEQ 0173

6777«

2449
2602

2676

4932+

5423
5779+

2522

3868

2485
3811

2497
3922

2509

CZDMRC MB8203 STATIC DIAG #1

MACY11 30A(1052)

BIT10 = 002000 G
BIT11 =
000 G
BIT12 = 010000 G

2613
2612

2625
2624

CZDMRC.P1

13-MAR-80 14:38
23548
23548
23544

13-MAR-80

14:40

F 14
PAGE 8-1

CROSS REFERENCE TABLE == USER SYMBOLS

SEQ 0174

BIT13 = 020000 G

2354

BIT2

= 000004 G

2658
2386
2544
2385

2659
2395
2553
2394

3583
2414
2565
2413

3737
2424
2578
2423

2436
2590
2435

2448
2601
2447

2472

2484

2496

2508

= 000010 G

2656
2374
2532
2373

2460

BIT3

2354
2520
2354w

2459

2471

2483

2495

2507

BIT4

= 000020 G

2354¢

2372

2384

2412

2422

2434

2446

2458

2470

2482

2494

2506

2518

BITS

= 000040 G

23544

2383

2404

2411

2421

2433

2445

2457

2469

2481

2493

2505

2517

BIT6é

= 000100 G

23544

237

2382

2403

2410

2420

2432

2444

2456

2468

2480

2492

2504

BIT7

= 000200 G

2467
4067

2491

2503

= 000400 G
= 001000 G
= 000400 G
= 000100
002450

2455
4066

2479

BIT8
BIT9
BOE
BPOLL
BSELT

2443
<598

3590

BIT14 = 040000 G
BIT15 = 100000 G

BSEL2
BSEL4

002452
002454

CHPTYP
CKDATA

002430
007750

CARR = 000001
CHPCHK= 100000

2354
23544

2519

2530

2529

2516
2354»
2515

23548
23544
23544
24034
27364

3680
27378
27384

24864
26564

CKTBIT 011176
CRCCHK= 100000
CRCTYO= 000001
CRCTY1= 000002
CRCTY2= 000004
CRC1
= 000100
CRC2 = 000200

27264
40574
7235
L2748
26594
25804
25794
25784
24328
24314

CSAU = 000052
CSAUTO= 000061
C$8RK = 000022
($BSEG= 000004
C$8SUB= 000002
CSCEFG= 000045
CSCLCK= 000062
CSCLEA= 000012
C$CLOS= 000035
C$CLP1= 000006
CSCVEC= 000036
CSDCLN= 000044
C$DODU= 000051
CSDRPT= 000024
CSDU = 000053
C$EDIT= 000003
CSERDF= 000055

22114
22114
22114
22114
22114
22114
22114
22114
22114
22114
22114
22114
22114
22114
22114
22114
22114

csS

= 000004

24844

2531

2542

2541

2528
2370
2527

2543

2563
2562

2552

2576
2575

2615
2614

2540
2381
2539

2627
2626

2561
2393
2551

3231«

3233x

3234+

2564

2588
2587

2574
2402
2560

3248+

2577

2600

2586
2409
2573

3249+

2589

2599
2431
2585

3254%

4685*
5298

4921%

3346%

3348+

3449+

3587+«

3588+

4960+

4684*
5279

4686

3305«

3699%
5259

5948
3584
6876
7238
6332
4329

5997
3694«
6905
7241
7113

6048
3698+
7071
7244
7229

6106
3738
7074

6148
4638+
7115

6193
6734
7118

6246
6756
7121

6330

6960

7112

7228

7124

7127

7165

7170

7178

6042
6042

6522
6522

6585
6585

6704
6704

6948
6948

7000
7000

7065
7065

7103
7103

7155
7155

7212
7212

5090
5713

5124
5749

5159

5194

5469

5520

5567

5627

5689

3498

3508

3514

3621

3627

3785

3817

3823

3833

3839

3874

3681
46B6*

3686*
4687+

3284

5623+

4780
4725
4859
5687
4742

4722

4761
2251
3492

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P1
13-MAR-80 14:38

G 14

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-2
CROSS REFERENCE TABLE == USER SYMBOLS

0
4150

3914
4156

3920
4289

3928
4295

5493

5534

5543

5581

5136

6072
2211#
22114
22114

5170

5205

5269

SEQ 0175

3934
4811

5288

4080
4837
5307

4085
4871
5340

4104
4902
5354

4110
4935
5366

4119
4971
5377

4125
5013
5426

4135
5065
5436

4141
5101
5483

5644

5654

5702

5725

5772

5782

6137

6156

6164

6388

6403

6486

6551

6632

6676

6780

5582

5645

2211#
22114

5014

5066

5341

5355

5367

5378

5427

5437

5484

5535

CSESEG= 000005
CSESUB= 000003
CSETST= 000001

22114
2211#
22114

4873
5709
4814

5103
5727
4839

5138
5788
4877

5172

5207

5495

5545

5592

5656

5704

4904

4937

4973

CSEXIT= 000032
CSGETB= 000026
CSGETW= 000027
CSGMAN= 000043
CSGPHR= 000042
C$GPLO= 000030
CSGPRI= 000040
CSINIT= 000011
CS$INLP= 000020
CSMANI= 000050
CSMEM = 000031
CSMSG = 000023
CSOPEN= 000034
CSPNTB= 000014

CSPNTF= 000017
CSPNTS= 000016
CSPNTX= 000015

($QI10 = 000377
CSRDBU= 000007
CSREFG= 000047
CSRESE= 000033
CSREVI= 000003
CSRFLA= 000021
CSRPT = 000025
CSSEFG= 000046
CSSPRI= 000041
CSSVEC= 000037
C$TPRI= 000013
(328CC= 000040
C32ENB= 000004
DDC
= 000100
DDCMP = 000001

5312
6166

22114
22114
22114
22114
2114
22114
22114
2118
22114
22114
22114
22114
22114
2118

4484

5910

6124

CSERHR= 000056
CSERRO= 000060
CSERSF= 000054
CSERSO= 000057
CSESCA= 000010

5773

5887

6115

5783

5383
6223

5888

5911

5661
6564

5019

5073

5107

5142

5176

5211

5728
6647

5789
6679

5921
6825

5970
6926

6016
6978

6076
7046

4513

4532

4550

4570

4584

4450

4462

4465

4481

4482

4483

4470

4471

4472

4473

5444
6303

5499
6338

5549
6418

5596
6501

4442

4455

4474

4493

4441

4447

4448

4449

4503

4504

4676
4699

4500

4501

4502

4520

4521

4463

4464

4522

4523

4539

4540

4541

22114
22114
22114

4760

5245

5271

5290

5309

4451

4452

4453

4454

4466

4467

4468

4469

4510
4544

4511
4545

4512
4546

4524
4547

4525
4548

4526
4549

4527
4562

4528
4563

4529
4564

4530
4565

4531
4566

4542
4567

4543
4568

4650
4758
2251

4653
4920

4656

4659

6042

6103

6145

6185

6321

6359

6522

6863

6948

7065

4485

22114
22114
22114
22114
2114
22114
22114
22114
2114
22114
22114
25874
25904
2574M
;?ggl

4486

4487

4488

4489

4490

449

4492

4505

4506

4507

4508

4509

4601

4715

4803

2593

5636

;‘S?}gl

5945

CZDMRC M8203 STATIC DIAG #1

MACYT1 30A(1052)

DEVMAP
DEVPTR
DFPTBL

002434
002436
002252 G

4L665*
L6699+

4680+
4678+

4680

4681+

4449

4484

4541

4560

DH3

014310
014337

CZDMRC.P1T

DH1

13-MAR-80 14:38

27284
2729
22964

014266

LL24N

014375

L4278

4451
4451

4466
446¢

3444
3447
L4304
L3184
La328

L4284
4424
4470
4470
6472

DISILO 002426
DISSI = 000040
DTR
= 000100
EBLK = 000002
EF .CON= 000036 G
EF .NEW= 000035 G
EF .PWR= 000034 G
EF .RES= 000037 G
EF .STA= 000040 G
EM1
012127
EM10
012451
EM11
012472
EM12
012507

27254
24214
264104
24734
23548
23544
23544
23544
23544
43654
3514
3621
3627

3370
24934
24804
4113
4659
4656

EM14
EM15
EM16
EM17
EM18
EM19
EM2
EM20
EM21
EM22

L3784
4379%
43804
3817
3823
3833
L3664
3839
3874

DH4

014437
014442
014445
014477
014536

DIAGMC= 000000

EM13

012530

012560
012575
012624
012645
12
012703
012163
012720
012741
012756

EM23
EM24
EM25
EM26
EM27
EM28
EM29
EM3

012777
013020
013035
013071
013123
013154
013175
012222

EM30
EM31
EM32
EM33
EM34
EM35
EM36
EM37
EM38
EM39

013212
013233
013250
013277
013322
013350
013370
013404
013425
013442

2211

43778

43874
43884
43854
43904
43914
3920
3914
43678
5543
3934
3928
4289
4295
4085
4104
4110
4119
4125
4135

14:40

H 14

PAGE 8-3

CROSS REFERENCE TABLE == USER SYMBOLS

L4258
L4268

DH5
DH6
DH7
DH8
DH9

13-MAR-80

4453

4579

4468

4485
4485

4487

4505
4505

4524
4524

4526

4544

4489
4489
44691

4509
4509
451

4528
4528
4530

4546
4546
4548

4566
4566
4568

3407
6663

3621
6665

4637*
6708

6665%
6710

6677+
6815

4115

“a

5725

4507

4542
4542

SEQ 0176

4562
4562

4580
4580

4564

4582

6710

6823+

5205
5782

5426
5887

4653
4650
4811
L374m
L3754
L3764

6137

6124
6164
6115
43814
43824
43834
4837
4384w
43854
43864

6388
6403
43924
43934
4871
5581
43944
43954
43964
43974
43984
43994
44004
L4014
44024
44034

6156

4902

5013

5366

5377

6486

6551

6632

6780

4971
5590

5065
5644

5101
5654

5136
5702

5170
5772

5436
5910

5483
6676

5493

5534

CZDMRC MB8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38
EM4
EM40
EM41
EM&2
EM43

012241
013462
013476
013517
013534

L3684
4141
4150
4156
4407%

EM4S
EM4E

1
013633

44094
44104

EM48
EM4S
EMS
EM50
EM51

013721
013754
012314
014013
014047

EMS3
EM54

014150
214210

EM4LS

013561

EM4G7

EM6
EM60
EM65
EM?
EM8
EMS
ENAX

4935
44044
44054
44064

L11m

46124
44134
L3694
L4414
44154

014107

416

012345
014232
014246
012376
012413
012434

43704
46194
3785
3492
3498
3508

La178
4080

= 000004

24248

5269

5354
L4184
5288
6072
44204
43714
43724
43734
24964

3369

3420

5967

6013

6073

6221

6301

3365«
4811
ggg;

3378+

3403«

3429+«

4639%

5335

5349

4871

4902

4935

497N

5013

5065

5101

5136

5170

5205

5269

5377
5782
3508
4295

5426
5887
3514
44804

5436
5910
3621

5483
6388
3627

5493
6403
3785

5534
6486
3817

5543
6551
3823

5581
6632
3833

5590
6676
3839

5644
6780
3874

5654
3880

3928
6115
4110
5354

3934
6124
4119

45194
6137
4125

6156
4135

6164
4141

4150

4156

L5564

4577

021466
003220
006274
000002
002356
002420
014602 G
014634 G

4660
31354
37678
23964
27054
2722k
44404
gggg#

46984

ERR3

015142 G

ERR4

015624 G

ERRS
ERR6
ERR7
ERR8
ERR9

016302
017014
017472
020124
020632

44618
5725
3492
4080
4499
3914
45384
4085
45764

5366
5772
3498
4289
5702
3920
6072
4104
5340

EVL

FMT1

011454

G
G
G
G
G
G

23544

22114
22114

L3498

5307

5340

ENDIT
ENDPAT
ENDTRN
EQM
=
ERRFLG
ERRORT
ERR1
ERR2

ESEND = 002100
ESLOAD= 000035

SEQ 0177

44084

EMS52

I 14
MACY11 30A(1052)
13-MAR-B0 14:40 PAGE 8<4
CROSS REFERENCE TABLE == USER SYMBOLS

2251

4441

FMT10
FMT11
FMT19
FMT2
FMT24
FMT27
FMT3
FMT4

011717
011750
012007
011464
012040
021602
011506
011550

43584
43594
43604
43504
43614
4760
43514
222%#

4481
4501
5245
4448
5271
47634
4450
2?36

FMTS

011563

43538

4452

4447

4520

4557

4462

4482

4500

4521

4539

4558

4463
5290

4483
5309

4502

4522

4540

4559

4578

4465
4466

4504
4470

4561
4485

4489

4505

4509

4524

4528

4542

4546

4562

4467

4471

4486

4490

4506

4510

4525

4529

4543

4547

4563

CZDMRC MB203 STATIC DIAG #
CZDMRC.P1
13-MAR-B0 14:38
FMT6

011613

FMT?7

011646

FMT8
FMT9

4567
22230

4581
2?3%

4469

4473

4488

4492

L3558

4449

4484

4541

4560

4579

4487

4461

011656
011712

L3568
2?2;0

002412

27198

FSAUTO= 000020
FSBGN
= 000040

22114
2211

FRSTIM

FSAU

= 000015

FSCLEA= 000007
FSDU = 000016
FSEND
= 000041

FSPROT= 000021
FSPWR = 000017
FSRPT = 000012
F$SEG = 000003

F$SOF
T= 000005
F$SRV = 000010
F$SUB = 000002
F$SW = 000014
FSTEST= 000001

4464
2233

4503
4468

4641

4648+

4713
2217

4725
4440

22114

4779

4633
4
3107
5341
5516
5687
5
6239

4713
4915
5119
5355
5520
5689
9
6303
6696
7182

7151
22114
2114
211»
4725
4915
5119
5355
5535
5704
5911

6303

FS$HARD= 000004
F$HW = 000013
FSINIT= 000006
F$JMP = 000050
F$MOD = 000000
FSMSG = 000011

J 14

MACY11 30A(1052)
13-MAR-B0
14:40 PAGE 8-5
CROSS REFERENCE TABLE == USER SYMBOLS

7182

22114
22114
22114
22114
2114
22114

4538
22114
22114
22114
22114

5520

22114
22114
2114
22114
22114
4990

5312
5678
6166
6580

4739
4756
2217
4742
4937
5138

5367
5545
5709
5921
6318

6825

7280

4633

4739
4937
5124
5535

5921
6318
6825
7206

4742
4761
4442
4761
4953
5142

5378
5549
5713
5941
6338
7253

7287
2310
4699

7337
4442

4599
4859

4601
4873

7313

7316

5687

2324
4801
5019

5328
5728
6181
664

4508

4512

4527

4531

4545

4549

4565

449

4507

45N

4526

4530

4544

4548

4564

4480

4499

4519

4538

4556

4576

4599

4615

4780

2217
4440
4550
4615

5545

4523
4472

SEQ 0178

4556
4619

5567

5709

2327
4814
5034

5383
5746
6223
666

4446

4756
4953
5142
5378
5549
5713
5941
6338
6849
7253
4455
4780
4973
5154

5383

5727
5970
6354

4779
4973
5154
5383
5563
5727
5970
6354
6926
7280
4474
4801

5172

5582
5728

6926

7287

6418
6944
7316

4446

4455

4801
4990
5159
5399
5567
5728
5
6418
944
7313
4403
4814
5014
5176

5427
5592
5746
6016
34

6978

7337

4461

4814
5014
5176
5427
5582
5746
6016
6434
6978
7337
4513
£R26
501y
5188

5437
5596
5749
6038
6501

4474

4480

5103

5124

5138

5713

5727

5749

5788

4826
5073

4839
5085

4854
5107

4877
5119

5444
5811
6303
6696

5211
5465
5645
5783

6996

5090

5399
5789
6239
6679

5207
5444
5621
5773
6076

4550
4854

6564
7061

4576

5627

g
4532
({839

4839
5034
5194
5444
5621
5773
6076
6517
7046

6517
7046

4570

5592

4826
5019
5188
5437
55
5749
6038
6501

4854

521
5465
5627
5783
6564
7061
.
45/0
4873
5073
5238

5484
5656
5788
6166
6580

4859
5073
5238
5469
5645
5788
6166
6580
7078

4877
5085
5312
5484
5661
5789
6181
6647
7099

4584
4877

4601
4888
5103
5328

5312
5495
5661
5789
6181

7078

6647
7099

4493

4499

5159

5172

4888
5142

4904
5154

5499
5678
5811
6223

4888
5090
5328
5499
5678
5811
6223
7132

4699
4904
5107
5341

5516
5687

6239

7132

79
7151

4513

4519

4532

5194

5207

5469

5495

4937
5188

4953

4973

5176

5211

5238

4584

5656

5465
5921
6318

5689

5499
5941
6338
6849

5704

5516
5970
6354
6926

5549
5990
6418
6944

5563

6978

5596
6038
6501
6996

5621
6076
6517
7046

5661
6096
6564
7061

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38
GETALL

004526

GETPRM
GETREG

021310
004016

K 14
PAGE 8-6
CROSS REFERENCE TABLE == USER SYMBOLS

MACY11 30A(1052)

13-MAR-80

7132
34

14:40

SEQ 0179

718

351
3932

3837
4133
5541
6122

3872
4139
5579
6135
5203

GOAH = 000010
GOODAT 002404

4561

4897+
5201+
5488+

5650
6409+

5778«

5721+
6672+

IACT 000100
IACTIV 006714

IBE
= 010000
IC
= 000200
ICIR = 000010
IDL_
= 000010
IDLE = 000040
IDU
= 000040
IER
= 020000
IERR = 000002
INITRN 005540

INTFLG
INTGRL=
IRDY =
ISIRDY

002354
000010
000020
006430

7285
7285

7283

7284

7285

7283

7284

7285

2253

2276

3204

6374
6557

6379
6561

6394
6600

3876

6542
6496
3835

6559

6185

6948

7065

7155

4038

6359
6040

6439
6101

6522
6143

3998
4006

4010

4250

7153

3819

7210

6407
6609

4256

HOE

7284
7284

GSCNTO= 000200

6454
6621

6463
6638

6470
6644

6475
6742

6492
6767

6704
6241

6319

6698

6861

6946

6998

6754

6763

6771

6784

6792

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
1 3-MAR-80 14:38
ISR
=
100 G
ISRUN
035732
IXE
= 004000 G
ISAU_ = 000041
ISAUTO= 000041

;35
85
23544
22118
22114

ISOU = 000041
ISHRD = 000041
ISINIT= 000041
ISMOD = 000041
ISMSG = 000041

22114
72804
2217
T
Q1IN
45384
22114
22114
22114
22114
22114
51034
5465
56274

6996

ISCLN = 000041

ISPROT= 000040
ISPTAB= 000041
ISPWR = 000041
ISRPT = 000041
ISSEG = 000041

ISSETU= 000041
ISSFT = 000041
ISSRV = 000041
ISSUB = 000041

I$TST = 000041

1422

= 000200

LDMSG1
LDTXSI

011374
005174

JSJMP = 000167

22118

L 14
PAGE 8-7
CROSS REFERENCE TABLE == USER SYMBOLS

MACY11 30A(1052)

6855

6880

13-MAR-80

6890

14:40

6899

SEQ 0180

6911

72924
4779%
47138

47398

47564
72874
L6334
22178
LLLON
45504
46154

47804
47254

47424
47614

L4L4LON
4570

L455K
45768

LLOTR
4584H

L4T4R

4L4BOM

4493

4499

45138

4519

4532

45994
4801
5119
54694
5645

46014
4826
51244
5484
56564

4854
51384
54954
5678

48594
5154
5516
5687

48734
51594
55204
56894

4888
51724
5535
57044

4915
5188
55454
5713

4953
31944
5563
5746

4990
52074
55674
5749

5034
5238
5582
5811

5085
5328
5592
5941

50904
5399
5621
5990

7061

7099

7151

7206

6181

6239

‘

L6
73374
444N
45564

6318

6354

6434

6517

6580

6660

6696

6849

6944

5034

5085

5119

5154

5188

22114
73138
22114
22114

4801

4826

4854

4888

4915

4953

4990

5749

5773

5783

5788

5811

5941

5990

6038

6096

6181

6239

6318

6354

4B77h
50854
5367
56214
59414
63384
6BLON

4BBBE
51074
5378
56614
- 59704
63544
69264

4904
S1194
53834
56784
59904
64184
6944k

4915K
51424
53994
5687
60164
6434
678K

497K
51544
5427
5713
60384
65014
69964

4953
51764
5437
57284
60764
65178
70464

49734
51884
56444
57464
60964
65644
70614

5238

6434

73164

5328

6517

22114
49904
52114
4654
5749
61664
65804

4BO1H
5014
5238%#
3699
57894
61814
GOL7H

25854

2593

70784

22114

43194
35584

6531

70994

3671

6594

LOADAT 002410
LODMSG 011016
LOE
= 040000 G
LOGDEV 002344
LOOPIN 004074
LOT
= 000010 G
LULOOP= 000010
LULP = 000040
LUREG
002302

7215
27184
Q2164
2354m
26994
33454
23544
23734
2604
2635

7222
4501
4321

LUR10 = 002302
LURTT = 002304

26354
26364

2648

5399

6580

4B14a
50194
5312
S516
58114
GOEOF

71324

3672

6667

7223
5695«
7104

5465

5516

5563

6660

6696

6849

71514

71828

72064

4LB2OH
50344
53284
5549
5888
62394
GE79F

3730

6866

GBI
5066
5341
S5634
5911
63034
66O6H

4223

4BS4N
50734
5355
55964
39214
63184
6B2SH

5823

5621

6944

72534

5824

6888

6918

6922

5678

6996

5848

56874

7061

57094

7099

7206

5746

7003

5896

6127

6325

6368

6448

2645

2646

2647

7067

7108

7109

7158

5696+
7218

4673%

4674

4676

4722

4760

3254
24694
2636

3449
6364
2637

3587
6444
2638

3680
6527
2639

5623
6590
2640

6712
2641

2642

2643

2644

3321
4452

4452
4467

4467
4486

4486
4506

4506
4525

4525
4543

4543
4563

4563
4581

4581

2650

7151

S7274

6951

4L667x
5252

2649

57134

26934

CZDMRC MB203 STATIC DIAG #1

CZDMRC.P11

13-MAR-80 14:38

UR12
= 002306
LUR13
= 002310
LUR14 = 002312
LURTS = 002314
LUR16 = 002316
LUR17 = 002320
LUSWIT
002466
LUSWIZ2
002470
LUSWIS
002472
LUTMOD

LSAU

021634 G

LSACP
LSAPT

26374
26384
26394
26404
26414
26424
2744N
27454
27464
22174

002110 G
002036
G

22514
22514

LSAUT
LSAUTO
LSCCP
LSCLEA

002070
G
021470 G
002106
G
021550 G

22514
2251
22514
2251

LSDEPO
LSDESC
LSDESP
LSDEVP
LSDISP
LSOLY
LSDTP
LSDTYP

002011 G
003470 C
002076 G
00
G
002124 G
002116 G
00
G
002034
G

22514
2251
22514
22514
2251
22514
22514
22514

LSDUT
LSOVTY

002072 G
00
G

22514
2251

002044 G
002102 G
00
G

22514
22514
22514

L$CO

LSDU
LSEF

LSENVI
LSETP
LSEXP1

002032

021552 6
002052 G

2251

22514

2251

22514

LSEXP4
LSEXPS
LSHARD
LSHIME
LSHPCP

002064 G
00
G
035556 G
002120 G
002016 G

LSHW
LSICP_
LSINIT
L
LSLAST
LSLOAD
LSLUN
LSMREV
LSNAME
LSPRIO
LSPROT
LSPRT

002252 G
002104 G
021120 G
002026 G
036234 G
002100 G
002074 G
002050 G
00
G
002042 G
021112 G
002112 G

2251
22514
2251
22514
2251
22514
22514
22514
22514
22514
2251
22514

LSREV
LSRPT
LSSOFT

002010 G
021110 G
036022 G

22514
4594
73134

LSHPTP

LSREPP

L$SPC

22 G

002056 G

M 14
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-8
CROSS REFERENCE TABLE == USER SYMBOLS

22514
22514
2251
22514
22514

22514

4779

47134
4735

31974
22744

47564

31914

72804

22964
46334
7339

46154

SEQ 0181

CZDMRC M8203 STATIC D AG M
CZDMRC.P11
13-MAR14:

LSSPCP

N 14
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-9
CROSS REFERENCE TABLE == USER SYMBOLS

002020 G

LSSPTP

00%8 4 G

LSSW

002302 G

LSSTA 00 gfl G

LSTEST

LSTIML

114

50154
50734

L10061

031140

5355
5437

5367
54444

5783
591

57884
59214

5378

53834

SEQ 0182

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

L10062
L10063
L10064

031510
032052
032322

64184
65014
65644

L10066
L10067
L10070
L10071
£10072
L10073
L10074
L10075
L10076
L10077
L10100

033014
033726
034210
034410
034710
035
035142
035310
035536
035622
036022

66794
68254
69264
69784
70464
70784
71324
71824
725
7080
7313

L10065 osgo

MAINT1= 000010
MAINT2= 000004
MCLK = 000002
MCLR = 000100

MODR =
MPCSR
MPIVEC
MPOVEC
MPRIOR
MSG1

000010
002446
002460
002462
002464
003220

MSG4
MSTCLR

003246
003576

NEWST
021270
OACT = 000100
OACTIV 005352

OCOR

= 000200

24134
2414k
25094
23714

5280

5299

5303

24834
735K
7618
742K
27438
31460

5265
3249

4441
4692%
4693%
4695%
4322

4447

4462

44B2

4500

4521

4539

4558

6326

€341

6366

6355

6369

7105

@530

6335

6714

6490

6322

6636

64O

4327

4828

4855

4889

4893

4916

4954

6661

6015

6075
6678

6158
6701

6165
6824

6854

6925

3741

3777

6723

6727

6460

31564
32454

6563
7181

26684
26694
26704

4657
24564
;32;’

5873

24714
22114

2114
22114

0osOU = 000001
OSERRT= 000000

22114
22114

O$POIN= 000001
O$SETU= 000000

5969

LO66F
3617
3659

4675
3623
3676

3684
3691

3280
3302
4958

6599

3510

3772

6818

3696

5836

3488
3657

3494
3674

5056
3701

5057
3745

4144
2251
22414
2251

4146

4152

22414
2251

2251

22414
2251

2251
7339

5898

2251

22114

2251

4683+

6378

e
392

4718

4806

)

6337

€392

6395

6606

6446

6449

4991

6607{3
,
6414
’

4999

5035

5086

5120

6977

6417

6436
7045

6500
7077

6519
7130

6748

6765

6786

6802

6821

5761

5817

5826

5841

5855

6356

5250

22114

22114
2211#

4326

6646

2593

O$AU = 000001
O$8GNR= 000000

OSGNSW= 000000

5816

4577

4694

6582
7252

25914

24584
34784

O$BGNS=

7219
3656

24554

ORDY = 000020
OSIRDY 004662
OVRR = 000010
OS$APTS= 000000

6461

23934

25064

= 00000

72874
73164
5260
3248

= 000020

SEQ 0183

66474

5750

MVIOX = 021000
MVIXO = 122000
MVIXOX= 121000

B8 15

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-10
CROSS REFERENCE TABLE =- USER SYMBOLS

5914

2251

5917

7174

6715

5868
3751

6721

3775

6737

5751

674C

6750

C15

CZDMRC M8203 STATIC DIAG #
CZDMRC.P1
13-MAR-80 14:38

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-11
CROSS REFERENCE TABLE == USER SYMBOLS

PATA
PATB
PATC
PATCH
PATD
PATE
PATF
PATG
PATH
PATI
PATJ
PATK
PATL
PATM
PATN
PATO
PATP

4857
4875
5088

5486
5409

5489

5718

5721

5594
4895

4898

4928

4931

4964

4967

4805
3882

4635+

5363

5423
5881
6626

5477

5480

6629

6670

5528
5907
6673

5374
5718

5429
5722

5433
5775

5486
5779

5358+
5636+
6411

6483

5419
5769
6548

3910
5587

3924
5651

5370
5699

RCVBUF
RCVIST

003262
007434

RDRXSI
READAX

007354
004124

5632

003672

3614

READY = 000200
REDBYT 002364

5547

4165

002372

READLU

5037

72914

RAX16

000004
000020

5001

5401
5408

(2]

= 001

POLL
= 000200
PRI
= 002000
PRIOR
002350
PRIRTY 035701
PRIOO = 000000
PRIO1 = 000040
PRIO2 = 000100
PRIO3 = 000140
PRIO4 = 000200
PRIOS = 000240
PRIO6 = 000300
PRIO7 = 000340
PSTACK 002346
000004
000004
- RAX15
002370

[2121q1aIaaTaTA)

PNT

002571
002615
002625
036022
002630
002633
002641
002644
002654
002664
002674
002704
003014
003022
3032
003050
3066

SEQ 0184

7162

6110
3488
3870

4895
5062

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P1
13-MAR-80 14:38

5130
5285

D 15

HACY‘I‘I 30A(1052)
13-MAR-80 14:40 PAGE 8-12
CROSS REFERENCE TABLE == USER SYMBOLS

5133
5298

5163
5299

5164
5304

5167
5836

5198«
5868

5199
6068

5202
6111

5259«
6120

5260
6133

5266
6152

5279+«
6160

5280

5422

5429

3300

3320

3322«

3326

3327

3329+

4189+«
4B890%

4202%
4917+

3484+
3667
3860
4041+

3364
3500
3679+
3866+
4058

3366+
3515+
3693+
3881+
4074+
4501
5015+

REDDAT

002500

gzgy

5036

5046

REGNUM

002400

27148

3247

3255«

3258+

3274

4082+
4541

4088+
4560

4164
4579

4169
4827+

4184
4B56*

3380«
3521~
3705~
3887«

3043«
5753«

REGO
REG]
REG2
REG3
REG4
REGS
REG6
REG7
REOM
RERR

002510
002512
002514
002516
2520
002522
002524
002526

RETADR
RING

ROMI
ROMO
ROR

= 000002
= 000200

002362

= 000200

= 000002
= 000004
= 000010

27614
27624
27634
27644
27654
27664
27674
27684

25334
25274

2707#
6100%
24794

23754
23744
25314

RRDYTO= 000001
RSEOM
007102

26754
39004

RSOM
RTS

= 000001
= 000040

25344
24814

RXABT = 002000
RXBCC = 000400
RXCHAR 011074

26254
262784
l}%zgl

RXEBL = 001000
RXLENO= 000001

26264
26034

RUN
= 000200
RUNINH 002476

RXLEN1= 000002

RXLEN2= 000004

RXOVR = 004000
RXWORD 002424

RX0O
RX1
RX2
RX3

RX4
RX5

= 000001
= 000002
=
= 000010

= 000020
= 000040

3384+
3558
3768
3952

5044+
5756

3924

3930

3517
6182+

26498
244BN
24478

646N
24454

3402
3563+
3779~
3957«

5051+
5863*

5057+

3606+
3566
3787«
3960+«

5054
6043*

5058

3409+
3607
3803
3978

5087«
6066%

5061

3413«
3613+
3809+
3981«

5121*
6109%

5402

3417+
3628+
3825+
4013«

56410«

3430«
3634+
3840+
4029

5411+«

3478
3652
3846+
4030%

5419

4274
4955+

4279%
4956

4306%
6992+

4449
4996+

4484
5000*

5351«
6662%

5682+
6707+

5156*
6362*

5190%
6442+

5247+
6525+

5337«
6588+

5282+

5297«

5301«

3630
6240%

3842
6355+

3883
6435+

3937
6518+

4166
6581+

4302
6697%

5748+
6850%

5812+
6945+

5942+
6997+

5991+
7062«

6039+

3231
3231

3233
3233

3234
3234

3346
3346

3348
3348

3365
3991

3378
6456

5349
6465

6472

6477

6494

6602

6611

6618

6623

6640

6744

6975

7013

7017

7021

7025

7029

7033

7037

7041

4100

4106

4115

3249
4697+

4131
24504

5047+«

5278+

23704
27488

26244
724K

5050
5832+

5262+

6790

26014

3388+
3560+
3771«
3953«

5258+

6769

2602¢

SEQ 0185

6806

3910
3781

3916
6068

3348
5241

4921

4329
6967

6971

6973

4064

3955«

4137
25224

25214
25204
25194

25184
gg } z

6957

6961

6957
3956+

4146

6965

7015

7023

7031

7039

6961

7015

6965

7019

7031

7035

7023

7027

3959+

4067+

4068

4073

4089

4095

4152

7015

7019

7100

CZDMRC MB203 STATIC DIAG M
1
CZDMRC.P11
-80 14:38
RX7?7
= 000200
R14NRW 002560
SAVE4G
002414

SAVES

002416

SETUP

010640

SOM
STALL
STARES
STARST
STBY
=

005164
002444
021260
000002

STEPMP= 000001
STPCLK 003540
STPERR 007646
STPLU
005254

STR
000040
STRIP = 000010
SUBRPC 002352

SVCGBL= 000000
SVCINS= 000001

E 15

MACY11 30A(1052)

13-MAR-80 14:40 PAGE 8-13
CROSS REFERENCE TABLE == USER SYMBOLS

25154

4861
4643+
464h*
3260+

4864
4646

4647

4064

4723
4724
4199+

4812
4813
4640+

4690

4691«

6520

6583

6702

3687

3700

SEQ 0186

CZDMRC MB8203 STATIC DIAG M
13-MAR-80 14:38
CZDMRC.P1T

F 15
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-14
CROSS REFERENCE TABLE == USER SYMBOLS

5644
5728
5970

SEQ 0187

5656
5773
6076
6486
7078

5713

sSvCsuB= 000001
SVCTAG= 000001

SVCTST= 000001

6354
SWwO0
SW1

sw2
SW3

= 000002
= 000004

= 000010
= 000040

SYNCH = 000226

6102

SYNPAT 035540
SYNO = 000001
SYN1
= 000002
SYN2 = 000004
SYN3 = 000010
SYN4
= 000020
SYN5 = 000040
SYNé = 000100
SYN7 = 000200
S$LSYM= 010000

TMPS
TMP6
TTMP7

TXABT =

6358

6521

6862

7064

45504

53124
57274
65014
73164

002530

4503
4503

002532
002534
002536
002540

002542
002544
002546

TSOM = 000001
TSTCON 002474
TSTNUM 002442
TXAB
=

6320

7154

7157

7166

45844
49734
54444

46014

72554

TEQM
=
TERR
= 000200
TEST
= 000001
TESTMD= 000004
TIHFLG 002360

THP1
TMP2
TMP3
TMP4

6144

5240+

5245

66474

5019#
54694
578954
66794

CZDMRC MB203 STATIC DIAG '138
CZDMRZ .P11
13-MAR-80
1
TXCHAR

006122

TXDATA= 000040
TXEN
= 000100
TXEOM = 001000

TXGA
= 000010
TXGOA = 004000
TXLENO= 000040
TXLEN1= 000100
TXLEN2= 000200
TXSOM
= 000400
TXWORD
002422

TM0
TM1
TM2
TM3
TM4
TMS
TM6
TM7

=
=
=
=
=
=
=
=

000001
000002
000004
000010
000020
000040
000100
000200

T$ARGC= 000001

MACY11 30A(1052)

13-MAR-80

5949
6049

TSERRN= 000032

5955
6055
6244

5995
6146
6262

5998

6001

6267

6044
3153
6053

6708
3154
6056

5956
6213

6202
6202

6255
6260

7221

6197
3663
3564
6593

6202
5822
3663+
6666+

L4488
LL68N
44884
45084

LL4LH
446N
44894
45094

3094

72854

35084
39284

42954

TSEXCP= 000000
T$FLAG= 000040

35144
3934

48114

6007
6204
6282

5959
6216

5962
6219

5965
6293

6002
6296

5847+
6950+

7002+

5895+

6126+
7066+

6324+

6285
5822+
6921+

7107+

44504
44704
44904
45104
45574
45774

36214
40804
48374

52884
55904
61564

53554

5367#

53784

4455
4780

4474
4814

4570
4973

6016
6978

7253

5073
5727
6501
7316

44614
45844

44804
46014

72854

T$LSYM= 010000

72854
4442
4761

T$LTNO= (00052
TSNEST= 177777

45294
45494
45694

6272

6004
6199
6277

52694
55814
61374

TSGMAN= 000000
TSHILI= 000007
TSLAST= 000001

T$LOLI= 000000

SEQ 0188

5952
6052
6218
6298

45284
45484
45684
T$CODE= 012032

G 15

14:40 PAGE 8-15
CROSS REFERENCE TABLE == USER SYMBOLS

5211
5921
6825

23104

45194

5312
5970
6926

23244

4532#

53074

61644

23274

45384

4601

(ZDMRC MB203 STATIC DIAG ,138
13-MAR-80 14:
CZDMRC.P1
46154
4814
49904
51594
54654

56274
884

TSNSO
TSNS

H 15

MACY11 30A(1052)

13-MAR-80 14:40 PAGE 8-16
CROSS REFERENCE TABLE == USER SYMBOLS

L6998
48544

50734
S188¢
54994
S678#4
59214
63184
68254

S085#
51944
SS516#
S687#
5941»#
63384
6845#

2327

4440
4550
4739

72064

000005

45384
4725
L8884
5142
55164
5970

63544
6926
T$NS2 = 000002

TSNS3 = 000003

T$PTNU= 000000
T$SAVL= 177777
T$SEGL= 177777

T$SEKO= 010000
T$SUBN= 000000

TSTAGL= 177777
TSTAGN= 010101

T$TEMP= 000000

T$TSTM= 177777

72534

904
S154#
5549
5990#

6418

72804
5103
5627#

69444
7287
51244
5656

50
55454
5103
5567#
L8544
S465#
60964
70614

51034
55674
51244
5582
48884
SS516#4
61814
70994

Le408

L446N

L7398
51544
S749%

L7564
51884
58114
66964

L4428
47428
5073#

44554
47618
51034

794

6825#4

53784
55964
59114

TSTEST= 000052

47134
4LBS#

5383«
S645#4
5921#

72878
LBS54n
54654

73164
L8884

70614
3508
3928

70994
3514
3934

4295

55164
61814

4441

L473%
48774
51034

32114
55454
57044
59904

SEQ 0189

CZDMRC M8203 STATIC DIAG ‘138
CZDMRC.P11
13-MAR-80 14

115

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-17
CROSS REFERENCE TABLE == USER SYMBOLS

4454
4473
4492
4511

T$TSTS= 000001

T$SSAU =
T$$SAUT=
TSSCLE=
TSSDU =
TSSHAR=
TSS$HW =
TSSINI=

010021
010016
010017
010020
010077
010000
010015
TSSMSG= 010012

4532

45384

5484

54954

4973

49904
5211

T$SSPRO= 010014

TSSRPT= 010013

T$$SEG= 010000
T$$SOF= 010100
T$$SUB= 010051

6418
69444
T
710

T
112
T13
T14
T15
T16
117

021636 G

025262 G

5444
58114
6223
66604
7132

54654
888
62394
66
Al

T$$SW = 010001
T$$TES= 010076

71514

CZDMRC MB8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38
118
119
T2
120
120.1

025466 G
025672 G
021720 G
026130 G
026160

2274
2274
2274
2274
56874

026362 G
026374

2274
57494

124

027432 G

2274

126

027736 G

2274

120.2

026266

121
121.1

122
123

026634 G
027312 G

125

027542 G

127
128

030302 G
030512 G

129

031042 G

T
3

132
133
T34
T35
136
137
738
139

T4
140
T41
142
TS
76
17
T8
9
UM

UNIT
UNRR =
UPBITS
VECTOR
v35
=
WAIT50
WAX

WAX15

WAX16

G
G
G
G

SEQ 019N

55634

2274

2274
2274

2274
2274
2274
2274
2274

2274
2274
2274
2274

022232 G
022360 G
022500 G
022654 G
023110 6

2274
2274
2274
2274
2274

002440

27304
24624
27814

CROSS REFERENCE TABLE == USER SYMBOLS

2274
2274

2274
2274
2274

022130
035002
035144
035312

J 15
PAGE 8-18

2274

032054 G
032324 G
032666 G
G
G
G
G
G

14:40

2274
2274

2274

033016
033730
034212
034412
034712

13-MAR-80

57134

022004 G

031142 G
031512 G

MACY11 30A(1052)

23544

7283
25
3531#
6451

6133
5094

5198

3995
6954

5760
7161

5825
7224

6128

6328

6371

002374

27124
5479

664
5530

5332
5575

5408+
5577

5471+
5633

5473
6187+

5477
6254

002376

27134

6280+
7019+

5333«
5630+
6719+
7031«

5409+
6188~
6731+

5472+
6202+
6759+

5474+
6207
6957+

6255+
6961+

34 1

3415+

002550
035650
005146
10

WRDYTO= 000002
WRIBYT 002366

24234

6718+

5525+
6260+
6965+

26764
27094

3418«
4861+

7008+
4187+
5572+

3367+
3561~

4918+

3370«
3772+
5046

7035+

3405+

4031«
5091«

3407~

4038«
5097

4191«
5125+«

5523+

5130

CZDMRC M8203 STATIC DIAG #1
CZDMRC.P11
13-MAR-80 14:38

WRITAX

004312

WRITLU

003750

XYZ

= 000100

XSALWA= 000000
X$FALS= 000040
X$OF
F S= 000400
X$TRUE= 000020
$LSTIN= 000001
$LSTTA= 000001
.
= 036234

K 15

MACY11 30A(1052)
13-MAR-80 14:40 PAGE 8-19
CROSS REFERENCE TABLE == USER SYMBOLS

SEQ 0192

5132
Ghbhr

5160
6496%

5164
6527+

5166
6559%

5195«
6590

5199
6642+

5201
6663+

5690%
6708

5714+
6712«

5754«
6815

6208
6962

6256
6966

6261

6266

6271

6276

6281

6286

6291

6720

5631

6189

6198

4193
5758

4862
5759

3408

3412

3416

3422

5092
6528

3562

5126
6560

3565

5161
6591

3670

5196
6643

3773

5691
6664

5715
6709

5755
6713

5014

5066

5341

5355

5367

5378

5427

34014

3257

381 6

5864

22114
22114
22114
22114
22204
22214
22034

5437

3666

32984

6819

2593

26934

5484

4188
3371

4892
6045
7175

31684

5535

4200

5334

5412

4919
6365

4995
6445

5048
6497

31974

4434k

4764

5582

5645

5773

5475

5783

5526

5888

5573

5911

73294

5757+
6818%

6739

6044*
7174+

6364+

6760

6958

4033

4039

6203

L 15

CZDMRC M8203 STATIC D'AG ’138
CZDMRC.P1T
13-MAR-80 14

13-MAR-80 14:40 PAGE 9
MACY11 30A(1052)
CROSS REFERENCE TABLE == MACRO NAMES

BCOMPL

4654

4657

4660

4677

4446

4461

4480

4499

4519

4538

4556

4576

5124

5159

5194

5469

5520

5567

5627

5689

4888

4915
5678

6696

4953
5746
6849

4990
5811
6544

5034
5941
6996

5085
5990
7061

5119
6038

154

22114

31»
3

2114
2114

194
234

BGNDU
BGNHRD
BGNHW

“7r
S5
66F

22114

4756
7280
2296

BGNMOD
BGNMSG
BGNPRO

854
988
1064

2214
22114
22114

2217
4440
4615

BGNAUT
BGNCLN

BGNINI

BGNPTA
BGNRPT
BGNSEG
BGNSET
BGNSFT
BGNSRV

BGNSUB
BGNSW
BGNTST

BNCOMP

778

1144
16460
152
1614
182#¢
193¢

2014

2258
2364
5328

6318

211»
211

4651

BERROR
BGNAU

2211r

22114

22114
22118
22114
22114
22114
2211

22114
22114
22114
5399

6354

22114

BNERRO
BREAK
BRESET
CKLOOP
CLOCK
CLOSE
CLRVEC

2704
2748
2784
2824
2864
2928
2968

DELAY
DESCRI
DEVTYP
DISPAT
DISPLA
DOCLN
DODU
DORPT
ENDAU
ENDAUT
ENDCLN
ENDCOM
ENDDU
ENDHRD
ENDHW
ENDINI

3220
3178
6x
3668
3604
3764
3804
3854
3894
GO1x
4134
w5h
Ga1x
4534
454
4758

22114
22114
22118
22114
22114
22114
22114
22114
22114
22114
22114
22114
22118
22114
22114
22114

ENDMSG
ENDPRO
ENDPTA
ENDRPT
ENDSEG
ENDSET
ENDSFT

5004
5124
5204
52
5414
3554
5684

22114
22114
22114
22114
22114
22114
22114

COMMEN

ENDMOD

3014

4878

22114
22114

22114
22114
22114
22114
22114

SEQ 0193

4779

4713
4739

4633

4599
4859
7313

5687

5749

2324
4801
5465

4854

5563
6580

6434

5621
6660

7099

4758

22114

2214

3197
3N
2274
4722
4780
4725
4742
4761
7287
2310
4699

7337

4442
4619

4601
4873
7316

4455

4474

4493

4513

4532

4550

4570

4584

5103

5138

5172

5207

5495

5545

5592

5656

5704

5238
6239

CZDMRC MB203 STATIC DIAG #1

CZDMRC.PT

13-MAR-80 14:38

ENDSRV
ENDSUB
ENDSW
ENDTST

3804
964
6144
624N

EQUALS
ERRDF

6338
642k
7144
3914
4295

22114
22114
22114
% 1#
G64

6418
2211¢
22114
3920
4811

5709
2327
4814
5499
6501
2354
3492
3928
4837

5702
6551

5725
6632

ESCAPE

7440

GPRMA
GPRMD

IOSETU
IOSTAR

13-MAR-B0

14:40

M 15
PAGE 9-1

CROSS REFERENCE TABLE == MACRO NAMES

SEQ 0194

5727

5788

4839
5549
6564

4877
5596
6647

4904
5661
6679

4937
5728
6825

4973
5789
6926

5019
5921
6978

5073
5970
7046

5107
6016

5142
6076

5176
6166

5211
6223

5312
6303

3498
3934
4871

3508
4080
4902

3514
4085
4935

3621
4104
4971

3627
4110
5013

2785
4119
5065

3817
4125

3823
4135

3833
4141

3839
4150

3874
4156

3880
4289

5772
6676

5782
6780

5887

5910

6072

6115

6124

%%18;#

gg}?

5066

5341

5355

5367

5378

5427

5437

5484

5535

5582

5645

5773

8744
9034

22114
22114

7282
7284

7283
7285

9744

22114
22114

L4SSH

44T74H

4GB

45138

45328

4SSOM

4570

4SB4R

4601H

4619

8684

KT11
LASTAD
MANUAL
MEMORY
MSBYTE

9824
11474
1162¢
11664
20004

22114
22114
22114
22114
22114

22514

MSDATA

18674

22114

2251#

MSDECR

MACY11 30A(1052)

.l?.g%gl’

22114

5366

7078

7132

7182

7253

7339

23104

31914

23278

52904

3197#

444N

CZDMRC MB203 STATIC DIAG #1
CZDMRC.P11
1 3-MAR-80 14:38
MSDEFA
MSENDE

MSERRI

MSESCA
MSESCS
MSEXCP
MSEXIT
MSEXSE
MSEXTJ
M$GEN

MSGENB
MSGETS

MSGETT

MSGNIN

MACYT1 30A(1052) 13-MAR-80 14:40 N1
PAgE 9-2
CROSS REFERENCE TABLE == MACRO NAMES

73164

% 114
114
47420

51424
56614
64184
73374
211#
9204
48114
53404
57254
66324

46934

48774
53834

45138
49044

Shbiht
59214
69784

37854

41194

55824
5582#

CZDMRC M8203 STATIC DIAG #
CZDMRC.P11
13-MAR-B0 14:38

52714
54264
35454
568
5887#
62234
68254

MSGNL
S
MSGNSU
MSGNTA

MEGNTE
MSHAPT

MSINCR

MACY11 30A(1052)

13-MAR-80

14:

B 16

CROSS REFERENCE TABLE -‘gACSSGSA:Eg

53074
4374
55814
57094
59114
63884

53094
54446
55824

53554
34954
56444
S7724
6;15#
65644
72824

73164
19134

5592#

1898#
18904

L7254
5211
60164
7078#
189%#
53284
63184
1739
18244

MS10SE

MSMASK
MSMCHI
MSMCLO

23104

47424

51424
56614
64184

M$PRIN

73374
44414

23274

47614
51724
57044
65014

44554
48144
5;070
57274
66474

45324

[

44494

44534

54444
59214
69784

CZDMRC M8203 STATIC DIAG »
CZDMRC.P11
13-MAR-80 14:38
L4660
4488

MSPUSH

L4678
44854

C 16
13-MAR-80 14:40 PAGE 9-4
MACY11 30A(1052)
CROSS REFERENCE TABLE == MACRO NAMES
L4694
44914

Wa71a
45004
45224
L5044
45664

44724

SEQ 0197
L6864
45084

4554
45814

45764

L4874
45094
45314
45604
45824

459
50344
55204
60964
7151

MSPUT

44654
44874
45094
45314
45604
45824

MSPUT1

44654
44874
4509
45314
45604

45824

MSRAD
|

MSSETS

MS$STAR
MSSVC

MSTLAB

CZDMRC M8203 STATIC DIAG #1

CZDMRC.P1T

39144
L2954

13-MAR-80 14:38
39284

D 16
MACY11 30A(1052)
13-MAR-80 14:40 PAGE 9-5
CROSS REFERENCE TABLE == MACRO NAMES
41194

SEQ 0198
42854

MSTSTL

MSXFER
POINTE

PRINTB

PRINTF
PRINTS
PRINTX

READBU

4484
4559

4468
4569

4485
4512
4548

CZDMRC M8203 STATIC DIAG #1

CZDMRC.PT
READEF

RFLAGS

13-MAR

1403#

14084

4650

4653

4715

4803

14134
1418¢

22114
22114

XFER
XFERF
XFERT

16124
16164
16204

22114
22114
22114

036234

000

. ABS.

162640
1438
14524

ERRORS DETECTED:

CROSS REFERENCE TABLE == MACRO NAMES

22114

SETPRI
SETVEC

SLASH
STARS
Sv(C

14:38

1
MACY11 30A(1052) 13-MAR-80 14:40 EPAgE
9-6

22114
22114
22104

4656

4659

2211

CZDMRC.BIN,CZDMRC.LST/CRF/NL
: TOC=SVC34R.MLB, CZDMRC.P11
RUN-TIME: 123 150 14 SECONDS

RUN-TIME RATIO:

CORE USED:

17K

541/289=1.8

(33 PAGES)

SEQ 0199