96769410A_MSOS_Version_5_Installation_Jan77 96769410A MSOS Version 5 Installation Jan77
96769410A_MSOS_Version_5_Installation_Jan77 96769410A_MSOS_Version_5_Installation_Jan77
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96769410
r;:J 1:\ CONT~OL DATA
\::I r::J CO~OR{\TION
MSOS VERSION 5
INSTALLATION HANDBOOK·
CDC® COMPUTER SYSTEMS:
·CYBER18
1700
REVISION RECORD
DESCRIPTION.
REVISION
01
Preliminary edition
(10/76)
A
Manua 1 released.
(1/77)
Publication No.
96769410
REVISION LETTERS I, 0, Q AND X ARE NOT USED
Address comments concerning this
manual to:
© 1976, 1977
by Control Data Corporation
Printed in the United States of America
it
Control Data Corporation
Publications and Graphics Division
4455 Eastgate Mall
La Jolla, California 92037
.or use Comment Sheet in the back of
this manual.
LIST OF' EFFECTIVE PAGES
New features, as well as changes, deletions, and additions to information in this manual, are Indicated by bars in the margins or by a dot ,
near the page number If the entire page is affected. A bar by the page number Indicates pagination rather than content has changed.
PAGE
REV
PAGE
REV
PAGE
REV
PAGE
PAGE
REV
REV
--
Cover
Title Page
A
ii, iii
Blank
iv
A
v
Blank
vi
A
vii, viii
A
1-1
2~1, 2-2
A
3-1 thru 3-8
A
4-1 thru 4-7
A
A
5-1, 5-2
6-1 thru 6-15
A
7-1 thru 7-10
A
8-1 thru 8-7
A
9-1 thru9-4
A
10-1 thru'10-4
A
11-1 thru 11-4
A
12-1
A
13-1, 13-2
A
A
A-1, A-2
B":'l, B-2
A
A
C-1
D-1, D-2
A
A
E-1, E-2
A
F-l
A
G-l, G-2
A
H-l
I-I thru 1-6
A
A
J-l thru J-29
K-l thru K-8
A
A
L-l
A
M-l
A
N-l
A
0-1
A
l.'-1
Q-l
A
A
R-l, R-2
S-l thru S-7
A'
A
T-l thru T-3
A
U-l thru U-6
A
V-I
Index 1 thru
Index 3
A
Comment Sheet A
Envelope
Back Cover
--
,
--
--
96769410 A
iii/iv
PREFACE
Thls lnstallation handbook descrlbes the procedures necessary for the user to install a CDC® CYBER 18/1700
Mass Storage Operating System (MSOS) Version 5 Computer System. It is assumed that release materials have
been customized to the particular hardware configuration
by the distributing center.
In this manual the term 1700 Computer System refers to
any of the following computers":
1704 Computer
1714 Computer
1784-1 computer}
It Is assumed that the reader has a basic knowledge of
the CYBER 18/1700 Mass Storage Operating System.
The sections regarding additions to a system assume the
basic system Is a standard system. Before reading a
section on a given system addition, the user should be
familiar with the material in General Procedure for
System Additions, section 5.
Additional information may
publications:
1774 Computer
1784-2 Computer
The installation procedures are given in terms of release
materials being provided on punched cards or magnetic
tape (depending on the user's configuration).
I>e found
In the following
CYBER 18-17
Publlcation
Publication No.
Small Computer Maintenance Monitor Reference Manual
39520200
File Manager Version 1 Reference Manual
39520600
Macro Assembler Reference Manual
60361900
ME FORTRAN Version 3A/BReference" Manual
60362000
Magnetic Tape Utility Processor Reference Manual
96768400
RPG II Reference Manual
96769000
" Sort/Merge Version 1. 0 Reference Manual
96769260
Peripheral Drivers Reference Manual
96769390
MSOS Version 5 Reference Manual
96769400
MSOS Version 5 Release Bulletin
96769440
MSOS Version 5 Diagnostic Handbook
96769450
MSOS Version 5 Ordering Bulletin
96769490
This product is intended for use only as described in this document. Control Data
Corporation cannot be held responsible for the proper functioning of undescribed
features or undefined parameters.
96769410 A
v/vi
CONTENTS
1.
INTRODUCTION
1-1
2.
HARDWARE REQUIREMENTS
2-1
3.
INSTALLATION PROCEDURE
3-1
3. 1
3.2
3-1
4.5
3.3
3.4
3.5
3.6
3.7
3.8
3.9
4.
Summary
Card Reader Bootstraps
(1700 Series Computer)
Magnetic Tape Bootstrap
(1700 Series Computer)
Bootstrap Execution
(1700 Series Computer)
Card Reader Bootstrap
(CYBER 18-20 Computer)
Magnetic Tape Bootstrap
(CYBER 18-20 Computer)
Installation with a Working
MSOS System
System Initializer Execution
Program Library Installation
3-2
3-3
6.
Installation Using Method 1
Installation Using Method 2
ADDITION OF FORTRAN 3A/B
6. 1
3-5
3-5
3-6
3-7
4.1
4.2
4-1
4-1
96769410 A
5. 1
5.2
3-4
4-1
4.3
4.4
SYSTEM ADDITIONS
4-6
4-6
4-6
4-6
4-6
4-7
4-7
5-1
5-1
5-1
3-4
VERIFICATION TESTS
Test Operation Summary
Test Description
4.2.1
Requirements
4.2.2
System Timer
4.2.3
System Communications
Region
4.2.4
Standard Logical Units
4.2.5
Test Executi v:e Ordinal
4.2.6
Verification Logical Unit
4.2.7
Reserved Files
4.2.8
MSOS Element Components
Test Operation
Individual Test Descriptions
4.4.1
Directory Listing
4.4.2
Logical Unit Listing
4.4.3
Monitor Test
4.4.4
File Manager Test
4.4.5
Pseudo Tape Test
4.4.6
Magnetic Tape Simulator
Test
4.4.7
Macro Assembler Test
4.4.8
Library Builder Test
4.4.9
FORTRAN Compiler Test
4.4.10 FORTRAN Library Test
4.4.11 Double-Precision Test
4.4.12 Re- Entrant FORTRAN
Library Test
4.4.13 Re-Entrant DoublePrecision Test
5.
4.4. 14 RPG II Compiler Test
4.4.15 RPG II Runtime Test
4.4. 16 Sort/Merge Test·
Error Conditions
Error Mode
4.5.1
4.5.2
Error Recovery
Error Messages
4.5.3
4-1
4-1
4-1
4-2
4-2
4-2
4-2
4-2
4-3
4-3
4-3
4-3
4-3
4-3
4-5
4-5
4-5
4-5
4-5
4-5
4-6
4-6
6.2
6.3
7.
9.
6-1
6-1
6-1
6-2
6-14
ADDITION OF FILE MANAG ER
7-1
7. 1
7-1
7-1
7-2
7-6
7.2
7.3
8.
SYSDA T Modifications
6.1.1
SYSDA T Modifications
Necessary to Add
Re-Entrant FORTRAN
6.1.2
SYSDA T Modifications
Necessary When Adding
FORTRAN to System
with 1781-1
System Skeleton Modification
Incorporating Changes into the
System
6-1
SYSDAT
7.1.1
7.1. 2
7.1.3
7.1.4
Modification
File Manager Data
File Space Information
File Space List Information .
Linkage of Unselected
Entry Points
7.1.5
Preset Region of SYSDA T
System Skeleton Modification
Incorporating Changes into System
7-6
7-7
7-7
7-9
ADDITION OF REPORT GENERATOR
(RPG II)
8-1
8. 1
8.2
8.3
8-1
8-1
8-6
SYSDA T Modification
System Skeleton Modification
Incorporating Changes into System
ADDITION OF· MACRO ASSEMBLER
9.1
9.2
9.3
Building Macro Assembler
Installation File Skeleton
Building Macro Assembler
Installation File
Entering Macro Assembler into
MSOS
9-1
9-1
9-3
9-4
vii .
10.
ADDITION OF SORT/MERGE
10. 1
10.2
10.3
11.
Building Sort/Merge Installation
File Skeleton
Building Sort/Merge Installation
File
Entering Sort/Merge into MSOS
ADDITION OF MAGNETIC TAPE
UTILITY
11.1
Bullding MTUP Installation File
Skeleton
11.2
11.3
10-1
10-1
12.
10-3
10-4
11-1
11-1
11-3
11-3
CYBER 18/1700 MSOS 5 SPECIFICATIONS
12-1
New Features
Deficiencies and Limitations
PSR Level
12-1
12-1
12-1
12.1
12.2
12.3
13.
Building MTUP Installation File
Entering MTUP into MSOS
UPDATING A SYSTEM BY
INSTALLATION OF LIBILD
BINARY FILES
13-1
APPENDIXES
A
B
C
D
E
F
G
H
I
J
K
L
Glossary
Panel Mode Bootstrap Entries
Deadstart Decks
Loading and Checking a Bootstrap
System Initiallzer Error Codes
Autoloading
Initializing Disk Packs for Storage
Module Drivers
End-of-File Card
Sample Load Map
Sample Program Library Installation
Printout
Sample Directories and Logical Unit List
Memory Arrangement
A-I
B-1
C-l
D-l
E-l
F-l
G-l
H-l
I-I
J-l
K-1
L-l
M
N
0
P
Q
R
S
T
U
V
Requirements for N4, Size of Allocatable
Area 4
Obtaining Skeleton from Installation
File
*B Skeleton Record Format
Skeleton Modification
Verification Materials
Verification Test Error Messages
Macro Assembler Verify Test Program
FORTRAN Compiler Verify Test
Program
RPG Compiler Verify Test Program
Macro Assembler Code Format
M-i
N-l
0-1
P-l
Q-l
R-1
S-1
T-1
U-1
V-I
INDEX
FIGURES
4-1
6-1
7-1
7-2
7-3
7-4
7-5
7-6
7-7
7-8
Verification Test Output Example
Re-entrant FORTRAN Table
Replacement Code in SYSDAT File
Manager Section
Addition to SYSDAT for File Manager
Space Information Addition to SYSDAT
for File Manager
Unit 1 Addition to SYSDA T
Unit 2 Addition to SYSDA T
Unit 3 Addition to SYSDAT
Unit 4 Addition to SYSDAT
Unit 5 Addition to SYSDAT
4-4
6-2
7-1
7-2
7-2
7-3
7-3
7-4
7-4
7-5
7-9
7-10
7-11
7-12
7-13
8-1
Unit 6 Addition to SYSDA T
Unlt 7 Addition to SYSDAT'
Unit 8 Addition to SYSDA T
Limits for File Manager
PRESET Addition for File Manager
Partial SYSDAT Modification for Adding
RPGn
9-1 Skeleton for Adding Macro Assembler to
System
10-1 Skeleton for Adding Sort/Merge to System
11-1 Skeleton for Adding Multiple Tape Utllity
Processor to System
7-5
7-5
7-6
7-6
7-8
8-1
9-2
10-2
11-2
TABLES
2-1
2-2
5-1
viii
1700 Computer System
CYBER 18-20 System Hardware
Requirements
System Additions
2-1
5-2
2-1
5-1
5-3
Installation of a New Product Using
Method 1
Installation of a New Product Using
Method 2
5-2
5-2
96769410 A
1
INTRODUCTION·
•
-&
The installation procedure for Mass Storage Operating
System (MSOS) Version 5 has been designed to be as
straightforward as possible. The user receives installation material that must be loaded into the system. When
this material has been properly loaded and tested, the
system is ready for use.
equipment, he may use the Inltlalizer from the
system library.
•
The user executes the initializer. This includes
reading the initiallzer parameters and processing
the installation data. At the end of this phase, the
main memory resident and mass memory resident
programs have been loaded and Unked, and the
number and identity of programs in the system
directory have been established. The autoload program is generated at the end of this phase.
•
The user autoloads the system and installs the
program llbrary. The system is now complete
and ready for execution.
•
The user verifies the system. After ·autoloading
the system again, the user executes the verification
test programs.
Installation materials are provided either on punched
cards, magnetic tape, or a combination of cards and tape,
depending on the user's configuration. This material
consists of:·
•
A deadstart card deck (if the system Is a CYBER
18-20 with a card reader)
•
•
The system initiaUzer program file
The installation fUe
•
Two RPG fUes (if RPG is In the system)
•
•
Three verification fUes
A COSY copy of SYSDAT (SYSDAT is a program
that contains all the customizable data in the system; by changing SYSDAT, the user can modify the
system. )
There is one file mark after the system initializer program and one fUe mark after the installation file. The
user can access the desired part by advancing the proper
number of fUes.
The installation device is the card reader or the magnetic
tape unit from which the installation material is read.
. Installation proceeds as follows:
•
The user loads the system initiallzer program into
main memory. The loading normally requires the
'loading and executing of a bootstrap, which, in turn,
loads the initiallzer. However, if the user has a
current version of MSOS already operating on the
96769410 A
Following successful verification, the system is ready to
run.
The remainder of this manual amplifies the installation
procedures given above and then gives special information on modifying and reinstalling the system in the event
that a new product is added to an existlng system.
•
Section 2 describes hardware reqUirements for
installation.
•
Sectlon 3 describes loading and executing the
inltlallzer and installing the program library.
•
•
Section 4 describes all veriflcatlon procedures.
Sections 5 through 11 describe augmenting an
existing system by installing a new product.
•
Section 12 describes new features found in the
CYBER 18-20 version of MSOS.
•
Section 13 describes the procedure for updating
MSOS with new installation materials.
1-1
2
HARDWARE REQUIREMENTS
The hardware is defined by the requirements of the system; the installation material reflects this configuration.
Equipment codes and interrupt lines are standard and are
defined in tables 2-1 and 2-2.
TABLE 2-1.
1700 COMPUTER SYSTEM
Interrupt Line
and Equipment
Code
Device Type
Users should be certain the equipment codes and inter.rupt lines correspond to this equipment configuration.
Interrupt Line
and Equipment
Code
Device Type
Low-speed I/O line 1 device
1
1500 Series equipm~ntt
8 and 9
Drum mass memory
2
Card punch
10
1747 Data Set Interface
2
Card reader
11
Disk mass memory
3
1744 Digigraphics Controller
12 and 13
Line printer
4
1745-2 Display Controller
12 and 13
Communications unit
5 and 6
15
Magnetic tape
7
178 1-1 Hardware Floating
Point Unit
tThe 1590 also uses interrupt line 6.
The 1595 also uses interrupt line 5.
The 1576 also uses interrupt line 15.
TABLE 2-2. CYBER 18-20 SYSTEM HARDWARE REQUIREMENfS
Peripheral
Equipment
Codet
Macro
Interrupt
Micro
Interrupt
Teletypewriter /CRT
1
1
1
Paper tape reader
2
2
2
Paper tape punch
2
2
2
Card punch
2
2
2
None
3
3
3
Line printer
4
4
4
None
5
5
5
None
6
6
6
Tape cassette
7
7
7
Clock
1
8
8
tEquipment codes 0, 3, 5, 6, and 8 are currently unassigned and reserved for future use.
96769410 A
2-1
'fA BL E 2-2.
CYDEH IH-20 SYST EM IIAHDWAH E HEQUIHEMEN'fS (Contd)
Eql,lipment
Code t
Macro
Interrupt
Micro
Interrupt
9
9
o and 9
Eight-channel communications line adapter
10
10
10
Dual-channel communications line adapter
10
10
10
Card reader
11
11
11
1832-4 Magnetic Tape Controller (NRZI and
phase encoded)
12
12
N/A
10M
13
13
N/A
Storage module drive
14
14
N/A
Cartridge disk drive
14
14
N/A
Flexible disk drive
15
15
N/A
Protect, parity, and power failure (internal)
N/A
0
N/A
Macro stop and panel (internal)
N/A
Peripheral
1832-4 Magnetic Tape Controller (NRZI only)tt
N/A
12-15
tEquipment codes 0, 3, 5, 6, and 8 are currently unassigned and reserved for futUre use.
ttThe 1832-4 Magnetic Tape Controller (NRZI only) micro interrupt is wired to both micro interrupt zero
and nine. The software has the responsi bility to select the desired one.
2-2
96769410 A
3
INSTALLATION PROCEDURE
-
•
3.1 SUMMARY
The installatlon steps are:
This section describes using the installation materials to
build a systemo The installation file suppUed has a typical format as shown below.
1.
Start-
The initlalizer is read into main memory. If the
first file of the installation file is used, the loading
procedure is described in one of the following
sections:
•
3.2 and 3.4 if using a 1700 Series computer
•
3.3· and 3.4 if using a 1700 Series computer
•
3. 5 if using a CYBER .18-20 Computer and a
Bootstrappable Initlallzer
- F i l e Mark
System InitiaUzer control
statements and relocatable
binary programs
and input materials from a card
reade~
and input materials from a magnetic tape
transport
card reader
•
3. 6 if using a CYBER 18-20 Computer and no
card reader
•
*T
End of system
3.7 if using either a 1700 Series or a CYBER
18-20 Computer with a working MSOS system
(current MSOS version only).
At the end of this phase, the initiallzer is loaded,
verified, and ready for execution.
LIBEDT control statements
and program llbrary
programs
2.
The initlalizer is executed. This is described in
section 3.8. Input to this phase is the first part of
the system Installation file. If this phase is successfully completed, outputs from the phase are:
•
Main memory programs loaded and linked and
ready to be autoloaded into the computer
•
System llbrary programs loaded and linked on
mass memory, together with a partially completed system library directory
•
Other system programs loaded in
memory
•
The autoload program
*z
..
*z
I
-File Mark
RPG Error File
- F i l e Mark
Verification test materials
-Three file
marks In
this sectlon
SYSDAT In COSY Form
ASCII If magnetic tape;
Binary If on cards
End-
-File Mark
m~ss
At the end of the phase, the operator is notified that
he may autoload the system.
3.
The program llbrary is installed. This Is described
in section 3.9. Input to this phase is the second
part of the system installation file. If this phase is
successfully completed, the outputs are: .
•
The final system llbrary directory
•
The program library on mass storage, together
with a program library directory
.'
A complete but unverified MSOS system
tSupplied only with systems that have RPG.
96769410 A
3-1
At the end of this phase, the operator Is notified that
he may autoload the system. At this point, the
operator normally proceeds to the verification procedures described In section 4.
3.2 CARD READER BOOTSTRAPS
(1700 SERIES COMPUTER)
The operator selects the bootstrap below that Is associated
with his card reader equipment. The bootstrap Is
entered Into maln memory, starting at location zero and
using the data entry method described in appendix D.
1728-430, 1729-2, OR 1729-3 8-BIT BINARY BOOTSTRAP
Location
Contents
0
0500
1
6823
2
6823
3
EOOO
4
05A1t
5
COOO
6
0081
7
03FE
8
OAD7
9'
68lA
A
ODFE
B
OBOO
C
02FE
D
A815
E
OFC8
F
6C16
10
OBOO
11
02FE
12
A810
13
BC12
14
6Cll
15
D810
16
0829
Locatlon
Contents
17
DaOC
18
C80B
19
0121
lA
18F1
1B
C806
1C
086C
1D
0841
IE
0111
IF
1C05
20
18E2
21
OFOO
22
OOFF
23
0000
24
0000
25
0000
After loading, the operator verifies that the bootstrap
code was properly entered (the bootstrap verification ,
method is given In appendix D). Then the operator proceeds to execute the bootstrap by the method described In
sectlon 3.4.
1726/405 CARD READER 8-BIT BINARY BOOfSTRAP
Location
Contents
0
0500
1
6821
2
6821
3
EOOO
4
058ltt
5
C81A
6
03FE
7
ODFE
8
OBOO
9
02FE
A
A817
B
OFC8
tUse 0521 for 1728:..430.
ttUse 1581 for 1706 No.1.
3-2
96769410 A
Location
Contents
C
6C17
D
OBOO
E
02FE
F
A812
10
BCl3
11
6Cl2
12
D811
13
0829
14
OD01
15
OBOO
16
02FE
17
OFCB
18
0125
19
C807
1A
086C
1B
0841
1C
0111
1D
IC05
IE
18E8
IF
0401
20
OFOO
21
DOFF
22
0000
23
0000
After loading, the operator verifies that the bootstrap was
properly entered (the bootstrap verification method is
given in appendix D). Then the operator proceeds to execute the bootstrap by the method described in section 3.4.
3.3 MAGNETIC TAPE BOOTSTRAP
(1700 SERIES COMPUTER)
The operator selects the bootstrap that is associated with
his magnetic tape equipment. After mounting the installation tape on tape drive unit 0, the operator positions the
tape to the load point and readies the driver. The bootstrap code is entered into main memory, starting at
location zero and using the data entry method described
in appendix D.
SEVEN-TRACK MAGNETIC TAPE BOOTSTRAP
Location
Contents
0
0500
1
6824
2
6824
3
EOOO
4
0382t
5
C81E
6
03FE
7
ODFE
8
C81C
9
03FE'
A
ODFE
B
OAOO
C
020D
D
OFCA
E
0821
F
OAOO
10
02FE
11
OFC4
12
0869
13
OAOO
14
02FE
15
OF42
16
086C
17
6COF
18
D80E
19
18F1
1A
OD01
1B
OBOO
1C
02FE
1D
OFCB
IE
0131
IF
18EA
20
C804
21
03FE
tUse 1382 for 1706 No.1.
96769410 A
3-3
Location
Contents
Location
Contents
22
1C03
17
044C
23
0414
18
0100
24
0100
19
0000
25
0000
1A
0000
26
0000
After loading, the operator verifies that the bootstrap
was properly entered (the bootstrap verification method
Is given In appendix D). Then the operator proceeds to
execute the bootstrap using the method described in
paragraph 3.4.
NINE-TRACK MAGNETIC TAPE BOOTSTRAp·
Location
Contents
After loading, the operator verifies that the bootstrap was
properly entered (the bootstrap verification method is
given in appendix D). Then the operator proceeds to
execute the bootstrap using the method described 1n
section 3.4.
.
3.4 BOOTSTRAP EXECUTION
(1700 SERIES COMPUTER)
1.
Set all switches to neutral.
2.
Press MASTER CLEAR.
3.
Select the A register.
0
~819
1
6819
2
EOOO
3
0382t
4
C813
5
03FE
6
ODFE
7
C811
8
03FE
9
ODFE
A
0203
B
6COF
C
D80E
D
18FC
E
OD01
F
OBOO
10
02FE
3.5 CARD READER BOOTSTRAP
(CYBER 18-20 COMPUTER)
11
OFCB
If there is a card reader In the system, the following
12
0131
deadstart procedure is used to read the bootstrap into
macro memory.
13
18F5
14
C804
15
03FE
16
1C03
4.
Set the pushbutton register to a value of xxxx, where
xxxx Is obtained from the following:
Main Memory Size
XXXX
16K
2000
24K
4000
32K
5000
65K
5000
5.
Ensure that the initialization material is on the
installation device and that the device is ready.
6.
Initiate computer execution (GO or RUN). The system initializer is read from the installation device.
7.
Execution begins automatically when the system
initializer has been completely read.
1.
2.
Press MASTER CLEAR.
Place the deadstart program deck in the card reader.
If the installation material is on cards, the system
initiallzer must also be in the card reader hopper
tUse 1382 for 1706 No.1.
3-4
96769410 A
feeder. At the end of the system lnltiallzer, there
is an end-of-file mark as shown in appendix H. If
installation material is on tape, mount the tape and
load and ready the tape unit.
9.
3.
Push the RESET button on the card reader to ready
it.
10.
4.
Push the DEADSTART button.
5.
The bootstrap within the deadstart deck is read into
macro memory, and the bootstrap executes automatically. Then the operator proceeds to execute
the system initializer by the method described in
section 3.8.
Enter:
Jl1G
This selects the P register.
Enter:
KOOOOG
This sets P equal to O.
11.
Enter:
J14G
This selects the A register.
12.
The 1700 Series code for the deadstart deck is shown in
appendix C.
Enter:
K5000G
This sets A equal to 5000.
13.
I@
3.6 MAGNETIC TAPE BOOTSTRAP
(CYBER 18-20 COMPUTER)
Mount the installation tape on tape unit O.
tape to the load point and ready the unit.
1.
. 2.
3.
Position the
Then the operator proceeds to execute the system
initializer by the method described in section 3.8.
Press ESCAPE to enter panel mode.
Enter:
This causes a halt.
Enter:
JUG
This selects the P register.
5.
This starts the system initializer.
Press MASTER CLEAR •
HG
4.
Enter:
3.7 INSTALLATION WITH A WORKING
MSOS SYSTEM
The system initializer in a working MSOS system may be
used to build the new system. Caution must be exercised
in using this method, since the system initializer may not
be the most current version. Using the system initializer
in the installation materials insures that the current version is used.
1.
Load the. installation material into the proper device.
Ready the device if it is a magnetic. tape transport.
2.
Autoload the system using the method described in
appendix F. If using cards, manually remove the
first file (i. e., the system initializer program)
from the installation material. Then proceed to
step 6 below.
3.
Enter ODEBUG (tape only).
KOOOOG
This sets P equal to O.
6.
Enter:
J07G
This selects macro memory.
7.
Enter:
LhhhhG, where hhhhG is first line of the
appropriate bootstrap from appendix B or C,
according to the system installation device.
This begins loading the bootstrap.
8.
Enter:
Type in the rest of the appropriate bootstrap from
appendix B or C. Refer to appendix D for the
method of checking the bootstrap.
96769410 A
Press manual interrupt.
System responds:
MI
Enter:
DB
3-5
System responds:
2.
4.
Advance one file on the installation material (tape
only).
3.
Enter the date in the form of month/day/year (two
digits each).
ADF, 6,1
4.
NEXT
Exit from ODEBUG (tape only).
5.
Enter:
5.
DEBUG OUT
Execute the system initializer load program:
7.
6.
If loading from tape. 'enter:
*1,3
7.
If using a CYBER 18-20 Computer system, the oper-
ator presses ESCAPE, enters J20@, and presses
carriage return. This clears program protect,
signals a carriage return, and reverts to operator
mode.
Ready the card reader if a card reader is the installation device.
The operator then proceeds to execute the initializer using
the method described in section 3.8.
If loading from cards. empty the output card hopper
of any cards that have been read and load more
cards into the input hopper.
If using a 1700 Series computer system, the opera-
tor sets the protect switch to the neutral position and
presses carriage return.
If loading from cards, enter:
*1,2
The system types:
THE INITIALIZER WILL BE MOVED TO
LOCATION xxxx: AND EXECUTED TURN
OFF PROT EC SWITC H AND TYPE
CARRIAGE RETURN
If the system is being installed on a new disk pack,
address tags may be written on the pack by using
the *G control statement. In a CYBER 18-20 computer system using an 1833-1 Storage Module Drive,
the *G control statement causes data to be written
on the entire disk as well as on address tags (see
appendix G). Surface tests may be run on a new
pack by using the *H control statement. (This
requires several hours.)
System responds:
MI
*BATCH
*JOB
*SILP
The normal list dev~ce for the initializer is the console display or teletypewriter. If output is desired
on the printer. enter:
*C, 7
OFF
6.
The system outputs the following message:
DAT E MM/DD/YY
Enter:
System responds:
If the system is to be built on a disk, ensure that
the required disk pack is mounted on unit O.
DEBUG IN
8.
Enter:
*V
This command instructs the initializer to begin reading control statements from the load device. As the
installable binaries are read. the program names
are typed out on the list device in the form:
name
Where: name
xxxx
identification
is the name of the program.
identification is the program deck
identification.
xxxx
is one of the following:
•
The first word address
(FWA) of the program if
the program Is main
memory resident (*L or
*LP)
•
The beginning sector
number of the first program of a group of programs associated with a
*YM ordinal for mass
memory resident
3.8 SYSTEM INITIALIZER EXECUTION
1.
' When the system ,initializer begins execution, the
following messages are output on the console:
MSOS 5.0 SYSTEM INITIALIZER
FWA ADDRESS OF CONTROL = xxxx
The value of xxxx is the starting address of the system Initializer and may be used to restart the
initiallzer if necessary.
3-6
summary level
96769410 A
POWERU - Entry point of a user-suppUed
program to restart after a power
failqre
programs (*M or *MP).
These are system·
library progra.-ns.
•
In addition the following externals appear as
The relative address of
a program within a *YM
ordinal when that program is not the first
program in the ordinal
9.
A sample of the initialization printout 1s given in
appendixes I and J. The printout differs for individual systems depending on the configurations and
options used.
10.
There are three distinct pauses during the execution
of the initiaUzer:
•
After all *L statements have been read from
the installation file
o
After all *LP statements have been read
from the installation file
•
At the conclusion of the installation
unpatched in 1700 Series systems:
SRG721 - Entry point of a user-supplied
routine t~ handle 1572-1 Sample
Rate Generator interrupts
14.
12.
or
ERRORS OCCURRED - YOU MAY ATTEMPT
TO AUTOLOAD
If the latter message occurs, the significance of the
error messages output should be checked.
3.9 PROGRAM LIBRARY INSTALLATION
1.
Autoload the system (see appendix F).
2.
Press manual interrupt.
3.
The system outputs:
MY
4.
13.
The system Ubrary priorities are set and the program library is not bunt. See appendix I for a
sample listing of the load map.
5.
The following system externals appear as unpatched
at the conclusion of the system build if related
routines are not included in the system:
PARITY
96769410 A
- Entry point of a user-supplied
program to process core parity
errors
Enter:
*BATCH
form:
The values of x are given in appendix E.
Entry point of a user-supplied
routine to handle 1576-1 Stall
Alarm Unit interrupts
INITIALIZATION COMPLETE - YOU MAY
AUTOLOAD
If errors occur, error messages are output in the
ERROR x.
STALLD -
At the conclusion of the installation, the system
outputs either of the following messages:
If installing from cards, it is periodically necessary
to empty the output card hopper and load more cards
into the input hopper. If using a Une printer as the
list device, a convenient way of halting the initializer
while removing and loading cards is to press the
ready pushbutton on the line printer, causing the
ready indicator light to go off. This halts the
initializer. After removing and loading the cards,
again press the ready pushbutton. The ready indicator light illuminates, and the inltializer resumes
operation. The ready pushbutton on the card reader
should not be pressed to halt operation, since this
may cause errors. If using a CYBER 18 computer,
the loading and removal of cards may be done in the
pauses between card reading without halting the system. If the list device is not a line printer, the
slower speed of output to the comment device allows
card removal and loading without halting the system.
Entry point of a user-supplied
routine to handle 1572-1 Une
sync tlmerinterrupts
Any other unpatched externals should be considered
errors, and their cause should be investigated.
These pauses may be as long as 30 seconds; they
occur because two internal tables are being generated at this point (CREP and CREP1).
11.
LST721 -
If installation is made using cards, it is periodically
necessary to stop the job to empty and to load the
respecti ve card reader hopper feeders. The steps
that- accompUsh this operation. are:
a.
Press manual interrupt.
b.
The card reader stops reading cards, and the
system outputs MI on the console display.
3-7
6.
c.
Empty the output hopper and load more cards
Into the Input hopper.
d.
,When ready to continue, press carriage
return. The loading continues Immediately.
The following messages are prlnted if, and only If,
RPG is included in the system:
RPG IT DISK FILES WILL BE INITIALIZED
RPG II DISK FILES INITIALIZED
RPG n ERROR MESSAGE FILE IS LOADED
3-8
7.
At the conclusion of installation. the following mesage is output:
·CTO. MBOS 6.0 INSTALLATION COMPLETED - YOU MAY AUTOLOAD
8.
Autoload the system.
9.
At this point, the installation material is positioned
at the beginning of the MSOS verification test
materials, and these tests should now be executed.
Section 4 describes these tests and their operation.
96769410 A
VERIFICATION TESTS
4
kiM 4M+'s+S
4.1 TEST OPERATION SUMMARY
Verification tests are loaded as follows:
1.
Place the verification test materials in the appropriate input device. Ready the unit. The installation materials are properly positioned and ready if
the system has just been installed.
2.
Ready the system list device.
3.
If the tests are not being run at the conclusion of a
system build, advance past the proper number of
files of the installation material to locate the verification tests (see section 1 and figure 3-1).
4.
Press mailual interrupt.
5.
The system outputs:
MI
6.
FORTRAN compiler, RPG compiler, and several other
system elements. To avoid interference with the
remainder of the system, the pseudo dri ver resides in
the system communications region (locations 47 16 through
B2 16)·
.
None of the system input/output drivers are specifically
exercised as a part of the verification tests; however. the
drivers for the system comment, list, installation, and
library units are indirectly exercised during the test
operation.
Because the verification materials consist of mixed ASCII
and binary information, they cannot be copied either from
or to a seven-track magnetic tape transport under MSOS.
4.2.1 REQUIREMENTS
Enter:
The verification tests run to completion without further
operator intervention.
The verification tests are normally used to verify a newly
installed or updated system, and the tests require certain
standard MSOS features. Highly customized MSOS systems may not allow execution of the verification tests.
4.2 TEST DESCRIPTION
4.2.2 SYSTEM TIMER
The MSOS verification tests are a completely automated
set of tests that exercise the major elements of the
installed system. Operator intervention is not required
during execution; successful passage Signifies a correctly
installed operating system.
The system hardware timer or software pseudo timer
must be operational for proper execution of the verification test executive.
The tests are controlled by an executive named VERIFY
that resides in the system library ordinal. Tests that
allow verification of the complete set of MSOS elements
are always supplied, and the executive selects and
sequences the tests required by the installed configuration.
In this way, elements may be added to an existing installation, and their correct operation may be easily verified.
4.2.3 SYSTEM COMMUNICATIONS REGION
VERIFY
The test executive utilizes a pseudo driver for the system
comment and listing devices during some portions of the
tests. The pseudo comment driver does not perform input/
output operations, but it does trap certain system messages
and allows transfer of control between the system background and foreground. The pseudo listing driver causes
listing records to be written to an area of mass storage
temporarily allocated in system scratch. These records
are used during the verification of the macro assembler,
96769410 A
The verification tests make use of the entire communications region between locations 4716 and B2 16 • This area
is restored from the system core image at the normal conclusion of the tests, but no data reference or other ·program
execution may occur in this region during test execution.
4.2.4 STANDARD LOGICAL UNITS
The MSOS standard logical unit assignment must exist in a
system that is verified. Consult the MSOS Reference Manual for a description of this standard. In particular, units
must be aSSigned as follows.
4-1
•
Logical unit 2 - Dummy device
•
•
Logical unit 4 - Comment device
Logical unit 9 - List device
4.2.8 MSOS ELEMENT CQMPONENTS
If the system contains a FORTRAN compiler, a verifica-
tion of the background FORTRAN library is
addition to the compiler verification test.
•
Logical unit 10 - Input device
•
Logical unit 12 - FORTRAN list device
If a pseudo tape test is required, logical unit 7 must be
the unit 0 pseudo tape. Similarly, if a magnetic tape simulator test is required, logical unit 7 must be the unit 0
simulated magnetic tape. Either of these tests is omitted
without error if logical unit 7 is not the specified device.
perform~d
in
It is assumed that the library contains all components that
comprise the released single-precision nonre-entrant
FORTRAN library, as indicated in section 6.2. If the
double-precision library is present and if the length of
unprotected memory is greater than 9400 decimal words,
this library is tested separately. If either of these two
conditions does not occur, the test is omitted without
error.
If the system contains the re-entrant· FORTRAN library,
4.2.5 TEST EXECUTIVE ORDINAL
The system library entr.y used for the verification tests
must be assigned to ordinal 25. This entry is specified by
the name VERIFY in the system initializer *YM
declarations.
4.2.6 VERIFICATION LOGICAL UNIT
The materials required during the execution of the verification tests are read from the logical unit ·used during
system installation. At the start of. the tests, a check is
made to ensure that the materials reside on this unit, and
the message:
TEST MATERIALS NOT LOADED
appears on the system comment device if this is not the
case. Appendix Q contains an illustration of the verification materials.
tests are performed on all single-precision library components. These tests assume that priority levels 4 and 5
are re-entrant FORTRAN leyels. If present, the
re-entrant double-precision library is tested separately.
Removal of programs or components from either FORTRAN
library may cause erroneous test results. RPG II, RPG II
routine, and Sort/Merge are also tested if they are
present in the system.
4.3 TEST OPERATION
The verification tests are initiated by preSSing manual
interrupt and entering the mnemonic VERIFY. If the system has just been built from the installation file, the
verification materials are properly positioned on the installation device and the tests begin by printing the following
message on the system comment device:
MSOS 5 VERIFICATION TESTS - PSR LEVEL nnn
4.2.7 RESERVED FILES
Where: nnn is the PSR summary level that is compatible
with the tests •.
If the system contains an MSOS file manager, files with
hexadecimal numbers 7FFD, 7FFE, and 7FFF are used
during the file manager verification tests. If the system
contains pseudo tape job files, then the follOwing file names
are used during the verification tests:
.
Erroneous results may occur if the value of nnn disagrees
with the summary level of the system.
If the tests are not run as a part of system installation, the
materials may be properly positioned by:
Job File
Security Code
RPFILI
RPllll
RPFIL2
RP2222
RPFIL3
RP3333
These flIes and file names should not be used by applications programs, since any data contained in them is
destroyed by the tests.
•
Advancing the proper number of files if the medium
is magnetic tape
•
Advancing the proper number of files or visually
locating the verification file if the medium is punched
cards
Refer to section 1 and figure 3-1.
96769410 A
Several pauses should be expected during test execution.
These may result from running the tests or from loading
the test programs. However, a pause of over 5 minutes
without apparent system acti vity should be considered a
test error.
The verification tests are divided functionally into 15 sections, fi ve of which are required. The remainder of the
sections are selected by the test executi ve only if the
optional system element is present. Each section is
initiated by a message on the system comment device
specifying the tested element; each section is concluded
with a message of similar format. Within each section,
a message is output as a test is initiated, and if the test
is successful, the following message is output:
-VEHIFIED
An example of the output from a successful set of tests is
shown in figure 4-1.
Successful completion of the
by the message:
verificat~on
tests ·is evidenced
The program schedule request verification involves execution of several priority levels in proper sequence and
the execution resulting from a burst of schedule requests
in proper sequence.
The timer request verification establishes correct time
delays for various delay units, as well as providing an
external measured delay that can be calibrated to a wall
clock.
The memory space and release requests are verified by
oversubscribing allocatable core with requests totaling
40K words. Release requests are performed in each
allocated block after a time delay to allow the test to
complete.
The verification of the directory schedule, ~n~qle
schedule. and disable-schedule involves periociic scheduling of the verification ordinaL during which a disableschedule request is made. This is followed by an
enable-schedule request to complete the test.
on the system comment device. At this point, the system
is in a normal condition and ready for use.
The partition core test is an optional part of the monitor·
verification. It involves the use of the allocation and the
release of partitioned memory. In addition, some checks
are made to ensure that the partitions are properly ~et up.
4.4 INDIVIDUAL TEST DESCRIPTIONS
4.4.4 FILE MANAGER TEST
4.4.1 D IRECTO RY LISTING
This is an optional test that verifies correct operation of
the MS08 File Manager Version 1.
MSOS VERIFICA TION TESTS COMPLET E.
This is a required test that causes the system library and
program library directories to be output on the system list
device. The format of the listing is shown in appendix K.
but individual addresses and entries vary depending on the
system configuration.
Sequential files are verified by writing and reading
records sequentially in a file •. File locking and direct
storage and retrieval are also tested.
4.4.2· LOGICAL UNIT LISTING
Indexed-ordered flIes are verified by storing and retrieving records that are ordered by a key value and ensuring
that each record contains correct data.
This is a required test that causes the system logical units
to be listed on the system list device in the format shown
in appendix K. Individual entries vary, based on the system configuration.
Simple indexed flIes are verified by writing and reading
indexed records in an indexed file. File locking and
locked record retrieval are alsC} tested.
Indexed-linked files are verified by storing and retrieving
records that are linked in a first-in, first-out basis by the
same key value. Various key values are used in this test.
4.4.3 MONITOR TEST
4.4.5 PSEUDO TAPE TEST
This is a required test that verifies those areas of the
MSOS monitor not exercised during the installatidn of the
system and program libraries.
96769410 A
This is an optional test that verifies correct operation of
the pseudo magnetic tape driver. The test consists of
4-3
MI
VERIfY
MSOS 5 VERIFICATION TESTS -- PSR LEVEL 110
THE SYSTEM AND PROGRAM LIBRARY DIRECTORIES
WILL BE LISTED ON THE SYSTEM LIST DEVICE
THE SYSTEM LOGICAL UNITS ~ILL BE
LISTED ON THE SYSTEM LIST DEVICE
BEGIN MSOS MONITOR TEST
PROGRAM SCIIEDULE REQUEST
TIMER DELAY REQUEST
MEASURED DELAY {3D SEC.}
MEMORY SPACE REQUEST
SPACE RELEASE REQUEST
DIRECTORY SCHEDULE REQUEST
DISABLE - SCHEDULE REQUEST
ENABLE - SCHEDULE REQUEST
PARTITIONED CORE REQUEST
MSOS MONITOR TEST COMPLETE
-VERIfIED
-VERIFIED
-VERIFIED
-VERIFIED
-VERIFIED
-VERIFIED
-VERIFIED
-VERIFIED
-VERIFIED
BEGIN MSOS FILE MANAGER TEST
-VERIFIED
SEQUENTIAL FILES
-VERIFIED
INDEXED FILES
-VERIFIED
INDEXED ORDERED FILES
. -VERIFIED
INDEXED LINKCD FILES.
MSOS FILE MANAGER TEST COMPL[TE
BEGIN PSEUDO TAPE TEST
FOREGROUND R[QUEST
JOB FILE REQUES T
PSEUDO TAPE TEST COMPLETE
-VERIfIED
-VERIFIED
BEGIN MACRO ASSEMBLER TEST
ASSEMBLER EXECUTION
-VERIrIED
PROGRAM LISTING
-VERIFIED
PROGRAM CROSS-REFERENCE
-VERIfIED
PROGRAM BINARY OUTPUT
-VERIFIED
MACRO ASSEMBLER TEST COMPLETE
BEGIN LIBRARY BUILDER TEST
LIBRARY BUILDER EXECUTION -VERIFIED
LIBRARY BUILDER OUTPUT
-VERIFIED
LIBRARY BUILDER TEST COMPLETE
BEGIN fORTRAN LIBRARY TEST
fORTRAN EXECUTION
-VERIfIED
fORMATTED INPUT-OUTPUT
-VERIfIED
ENCODE-DECODE"
-VERIfIED
ARITHMETIC LIBRARV
-VERIFIED
MONITOR INTERfACE
-VERIfIED
fORTRAN LIBRARV TEST COMPLETE
BEGIN DOUBLE-PREtISION TEST
fORTRAN EXECUTION
-VERIfIED
fORMATTED INPUT-OUTPUT
-VERIfIED
ENCODE-DECODE
-VERIfIED
ARITHMETIC LIBRARV
-VERIfIED
DOUBLE-PRECISION T(ST COMPLETE
BEGIN RE-ENTRANT fORTRAN TEST
FORTRAN EXECUTION
-VERIFIED
FORMATTED INPUT-OUTPUT
-VERIFIED
ARITHMETIC LIBRARY
-VERIFIED
MONITOR INTERfACE
-VERIFIED
RE-ENTRANT fORTRAN TEST COMPLETE
BEGIN DOUBLE-PRECISION TEST
fORTRAN EXECUTION
-VERIFIED
FORMATTED INPUT-OUTPUT
-VERIFIED
ARITHMETIC LIBRARY
-VERIFIED
DOUBLE-PRECISION TEST COMPLETE
BEGIN RPG COMPILER VERIFICATION
RPG COMPILER EXECUTION
-VERIFIED
PROGRAM LISTING
-VERIFIED
PROGRAM CROSS-REFERENCE
-VERIFIED
PRbGRAM BINARY OUT?UT
-VERIFIED
RPG COMPILER TEST COMPLETE
BEGIN RPG RUNTIME VERIFICATION
RUNTIME EXECUTION
-VERIFIED
RPG RUNTIME OUTPUT LISTING
-VERIFIED
RPG RU~TIME COMPLETE
BEGIN SORT/MERGE VER:FICATIO~
SORT/MERGE EXECUTION
-VERIfIED
SORT/MERGE OUTPUT LISTIN5
-VERIFIED
SORT/MERGE T~ST COMPLETE
MSOS VERIFICATION TESTS COMPLETE
BEGIN FORTRAN COMPILER TEST
COMPILER EXECUTION
-VERIFIED
PROGRAM LISTING
-~ERIFIED
PROGRAM BINARY OUTPUT
-VERIFIED
FORTRAN COMPILER TEST COMPLETE
Figure 4-1. Verification Test Output Example
two optional parts that depend on the. type of pseudo tapes
contained in the system.
Foreground pseudo tape requests are verified by performing formatted and unformatted reads and writes to
the pseudo tape unit. In addition, all tape motion commands are exercised as a part of the test.
The job file requests are verified in a similar manner by
the use of formatted and unformatted read and write
requests, as well as all tape motion commands. In addition, the MSOS job processor statements that are required
4-4
by the job file pseudo tape (e. g., *DEFINE, *RELEASE,
"'OPEN, etc.) are exercised as a part of the test.
4.4.6 MAGNETIC TAPE SIMULATOR TEST
This is an optional test that verifies correct operation of
the magnetic tape simulator. The magnetic tape simulator
is verified by the use of formatted and unformatted read
and write requests, . as well as by the use of all tape motion
commands.
96769410 A
4.4.7 MACRO ASSEMBLER TEST
This is a required test that verifies c~rrect operation of
the MSOS Macro Assembler Version 3.
The assembler execution is verified by causlng a tesi program to be assembled with the llstlng directed to the test
executive pseudo listing driver and the binary object code
to the MSOS load-and-go file. Following assembler
execution, the llstlng and binary data generated during the
test are compared with the verification data contained on
the verification logical unit. This test is successful if
all data agree.
A listing of the program used to test the assembler may
be found in appendix S. This program is not designed to
be executed.
4.4.8 LIBRARY BUILDER TEST
This is a required test that verifies the correct operation
of the MSOS Library Builder utility (LIBILD).
Library builder execution is verified by causing LIBILD
to be run, using the verification logical unit as input and
the pseudo listlng device as output. Following execution,
the pata generated by LIBILD is compared to a set of data
contalned in the verification logical unit.
4.4.9 FORTRAN COMPILER TEST
Thls is an optional test that verifies the correct operation of the MSOS FORTRAN Compiler Version .3.3.
Compiler execution is verified in the same manner as the
macro assembler, using the pseudo listing device and the
MSOS load-and-go file. A set of listing and binary comparison data is contained in the verification logical unit
for both the A and B compiler variants, since each produces slightly different codes from the same source
statements.
library, utillzing either the software or hardware floating
point unit, depending on which is in the system.
This t~st is divided into an execution phase and a verification phase. During execution, several programs are run
that exercise various portions of the FORTRAN run-time
library and write data on the pseudo listing device. Following this, the verification phase is entered in which this
data is compared to data contained in the verification
logical unit.
The formatted input/output test involves the use of the
FORTRAN input/output ~brary by reading and writing data
using numerous formats. Unformatted FORTRAN file .
input/output is also tested:
The encode-decode test involves the use of the FORTRAN
encode-decode library as well as additional FORTRAN
formatting routines.
The arithmetic library test exercises all of the intrinsic
and external functions contained in the run-time library.
The monitor interface test verifies that the nonre-entrant
FORTRAN monitor interface is operating properly by
exercising such modules as LINK, READ, WRITE,
TIMER, etc.
4.4.11 DOUBLE-PRECISION TEST.
This is an optional test that verifies the correct operation
of the nonre-entrant double-precision FORTRAN run-time
library and is structured similarly to the single-precision
library test. All double-precision options contained in
the formatted input-output, encode-decode, and arithmetic
libraries are verified. Depending on the system, this
test is performed with either the software or hardware
floating point.
4.4.12 RE-ENTRANT FORTRAN LIBRARY TEST
A listing of the programs used to test the FORTRAN compiler may be found in appendix T. These programs are
not designed to be executed.
This is an optional test that verifies the correct position
of the single-precision, re-entrant FORTRAN run-time
library and is structured Similarly to the nonre-entr~t
test~ Depending on the system, this test is performed
with either the software or hardware floating point.
4.4.10 FORTRAN LIBRARY TEST
In addition to testing the formatted input-output, arithmetic, and monitor interface libraries, multi-programming
in FORTRAN at priority levels 4 and 5 is also verified.
This is an optional test that verifies the correct operation
of the single-precision, nonre-entrant FORTRAN runtime
96769410 A
4-5
4.4.13 RE-ENTRANT DOUBLE-PRECISION TEST
This is an optional test that verlfles the correct operation
of the re-entrant double-precision FORTRAN llbrary and
fs equivalent to the nonre-entrant test. Depending on the
system, this test Is performed with either the software
or hardware floating point.
Verification errors are always evidenced by one of the
error messages contained in appendix R and are, In general, recoverable.
Errors found during the monitor tests result in termination of the verlflcation tests. Errors found during the
remaining tests result in the termination of that section of
the test rut the remainder of the test continues.
4.4.14 RPG II COMPILER TEST
4.5.1 ERROR MODE
This Is an optional test that verifies the correct operation
of the RPG IT ComplIer, Version 1. o. A listing of the
program used Is contained In appendix U. Compiler execution is verified in the same manner as for the macro
assembler, using the pseudo llstlng device and the MSOS
load-and-go file. .
The'veriflcation tests may be run in error mode to aid In
the isolation and correction of errors. Error mode is
enabled as follows:
•
If USing a 1700 Series computer system, set the
selectlve·sklp switch UP.
•
4.4.15 RPG II RUNTIME TEST
If using a CYBER 18-20 computer, press ESCAPE
and type:
J20@
This is an optional test that verifies the correct operation
of the RPG IT Version 1.0 runtime library. This section
Is divided Into an execution phase and a verification phase.
(This sets selective skip and reverts to operator
mode.)
,
When error mode has been enabled, the following actions
occur:
4.4.16 SORT/MERGE TEST
•
This Is an optional test that verifies the correct operation
of the Sort/Merge package. This test verifies the sort
function.
ERROR MODE SELECTED
appears Immediately follOwing the initial test
message.
•
The system llst devlce.,is not disabled during the
loading of individual tests. This can be helpful if
test loading results In unpatched externals.
•
If a verification error occurs, the system halts
4.5 ERROR CONDITIONS
Verification test errors may be divided into two c.ategories: operating system errors and verification errors.
Operating system errors are indicated by hardware
input-'output errors, protect violations from the background, etc. Refer to the MSOS Reference Manual for a
summary of these errors. All operating system errors·
(including Input-output errors resulting from devices in a
nonready condition) are fatal to the verification tests. No
attempt should be made to continue after an operating
system error has occurred.
4-6
The message:
rather than contlnlng with the next test. This allows
the execution of a core dump or the system checkout
bootstrap. Refer to the MSOS Reference Manual for
an explanation of the tools.
It should be pointed out that the verification tests perform
successfully with error mode selected as long as no
errors occur.
96769410 A
•
4.5.2 ERROR RECOVERY
The verification tests are designed to allow the tests to
be restarted in case of an error. Although most of the
verification errors resul~ in a continuation of the tests
until they are completed, it is advisable to autoload the
system before restarting the tests. Autoloading is
required if an operating system error has occurred.
The following steps shOUld be performed when restarting
the tests.
1.
Autoload the system.
2.
Position the verification materials properly in the
installation logical unit.
o
96769410 A
Magnetic tape - Backspace one file using
ODEBUG. If the verification error occurred
within RPG runtime, backspacing two files
may be necessary. If the verification error
occurred during Sort/Merge, backspacing
three files may be required (see figure 3-1).
3.
Punched cards - Visually locate the file mark
that precedes the verification materials and
load them in the reader.
Enter MI and VERIFY to restart the tests.
4.5.3 ERROR MESSAGES
All verification error messages are preceded by three
asterisks. FUe manager error messages include the value
of the file manager status word (REQIND). Refer to the
File Manager Reference Manual for a description of the
status bits. Pseudo tape error messages include the value
of the V-field and the driver status. Refer to the MSOS
reference manual for a description of these terms. Macro
assembler, FORTRAN compiler, and RG P compiler error
messages include the line number and the expected line of
data for listing errors and the type of loader block (NAM,
RBD, etc.) for binary data errors. Refer to the MSOS Reference Manual for a description of loader blocks. Appen~
dix R contains a complete list of these error messages.
4-7
5
SYSTEM ADDITIONS
&
This section describes two general procedures for adding
a product to CYBER 18/1700 MSOS. Method 1 produces a
new installation file and can be used in all cases.
Method 2 can be used only on those products that do not
require changes to the data base, SYSDAT. The output
of this method is a new installation file solely for the
product to be added. This new file is not merged with
the old installation file. The new product is then installed
in the system using the LIBEDT utility; reinstallation of
the entire system is not necessary. Method 2 has the
advantage of being quick and easy; the disadvantage is that
if the system is reinstalled at a later date, reinstallation
requires two steps:
o
Installing the original installation file.
•
Installing the new product using LIBEDT •
5.1 INSTALLATION USING METHOD 1
For method 1, three elements are involved in the addition
of the new product:
•
The binary copy of the new product
•
An existing system installation file. The file is
summarized in figure 3-1; it consists of binary
object records of each module in a particular MSOS
installation, together with system initializer pontrol ..
statements and LIBEDT control statements, The'
system installation file provides the information"
needed to build a particular CYBER 18/1700 MSOS
system. This information consists of two parts:
-The first part is used by the system initializer and
is shown in appendix I.
-The second part is used by the library editor
(LIBEDT) and is shown in appendix J.
Table 5-1 shows the six products that may be added to
MSOS, the methods available to install the products, and
the manual section where the installation procedure is
described in detail.
When one of the above products is purchased as an addition to an existing MSOS, the user receives a binary copy
of each module needed to install the ordered product. A
compressed source (COSY) copy of the product (and any
applicable COSY correGtion Gard images) are sent to the
user only if these are specifically requested. In a COSY
copy of a product, each module is preceded by a COSY
identifier.
The utilities used (COSY, SKED, LIBILD, and LIBEDT)
are discussed in detail in the MSOS Reference Manual.
TABLE 5-1. SYSTEM ADDITIONS
Section
Product
•
The current version of SYSDAT. This program
contains the parameters defining the system.
Appropriate parameters must be altered when
adding the product. This is' accomplished by altering SYSDAT and replacing the object program on
the existing installation file.
The binary programs of the new product are merged with
the existing installation file, which has been modified to
reflect the new SYSDAT configuration. This merged
installation tape is then installed and verified using the
procedures of sections 3 and 4.
Table 5-2 summarizes the addition of a product using
methods 1.
Installation
Method
6
FORTRAN Version 3A/B
1 only
7
File Manager Version 1.0
1 only
8
Report Program Generator
(RPG II) Version 1.0
1 only
9
Macro Assembler Version 3.0
1 or 2
10
Sort/Merge Version 1.0
lor 2
11
Magnetic Tape Utility Processor
(MTUP) Version 2.0
1 or 2
96769410 A
An installation file may exist on cards. on magnetic
tape, or on a combination of both.
5.2 INSTALLATION USING METHOD 2
The only elements involved in addiging a new product by
method 2 are the skeleton records and the binary copy of
the product. Table 5-3 summarizes the addition of a
product using method 2.
5-1
TABLE 5-2. INSTALLATION OF A NEW PRODUCT USING METHOD 1
Task
Materials Used
Methods Including MSOS
Packages That May Be Used
Result
Modify SYSDA T
SYSDAT source in COSY
form
COSY may be used to make correctlons to SYSDAT. If using
cards, COSY corrections may be
punched on cards with proper COSY
control cards. If tape is used,
SYSDA T may be modified by using
COSY and making COSY corrections from the comment device.
Modified SYSDA T
source
Produce SYSDAT
binary
Modified SYSDA T source
expanded from COSY or
modified COSY of
SYSDAT
Macro assembler
Binary copy of
modified SYSDA T
Generate a new
skeleton
Installation file
SKED - Manual revisions of
skeleton if on cards
Modified system
skeleton
Generate a new
installation file
a. Modified system
skeleton
LIBILD
Modified installation
b. Binaries for product
to be added.
c. Binary copy of
modified SYSDAT
Rebuild the
system
Modified installation file
System initiallzer
Modified MSOS on
mass memory
Verify the
system
Verify new system
VERIFY program operating in
background
Modified and verified MSOS on mass
storage
TABLE 5-3. INSTALLATION OF A NEW PRODUCT USING METHOD 2
Methods Including MSOS
Packages That May Be Used
Task
Mater ials Used
Produce skeleton
records for the
installation file
Installation materials for
skeleton records
Prepare the file using SKED.
File of sequential
records
Create an installation file for the
new product
Skeleton file just
produced
Construct the new installation file
using LIBILD.
New installation file
(for new product
only)
Install the new
product on the
system
Installation file just
produced
Enter the new product on the
program library using LIBEDT.
Modified MSOS on
mass memory
Verify the new
product
Verification materials on
old installation file
VERIFY program
Modified and verified MSOS on mass
storage
5-2
Result
96769410 A
6
ADDITION OF FORTRAN 3A/B·
'"
.
t'jflH5,,,
A user who does not have FORTRAN in the MSOS originally ordered from Control Data may add either the
FORTRAN Version 3. 3A Compiler or the FORTRAN
Version 3. 3B Compiler to his system. A description of
the two compilers may be found in the MS FORTRAN
Version 3A/B Reference Manual: To add FORTRAN,
the user must first order the installation materials
for the compiler desired (refer to the MSOS 5 Ordering
Bulletin)~ The FORTRAN installation materials sent
to the user are FORTRAN binaries (on magnetic tape
or cards) including either the FORTRAN Version 3. 3A
ComplIer or the FORTRAN Version 3. 3B Compiler
together with:
In the miscellaneous information section of SYSDAT,
delete the following code:
*
*
SPC 4
THIS ENTRY IS PROVIDED TO LINK THE
FORTRAN REENTRANCY DATA
ENTRY POINTS
SPC 1
ENT FMASK, FLIST, DOUT
SPC 1
EQU FMASK($7FFF), FLIST($7FFF), DOUT
($7FFF)
Replace this code with the code in figure 6-1.
(,)
Each module of the FORTRAN re-entrant library
(,)
Each module of the FORTRAN nonre-entrant library
The user must modify SYSDAT and generate a new skeleton. A new installation file is then created using LIBILD,
and a new system is built.
6.1.2 SYSDAT MODIFICATIONS NECESSARY WHEN
ADDING FORTRAN TO SYSTEM WITH 1781-1
Add the following code at any convenient point in SYSDA T
after the physical device tables:
6.1 SYSDAT MODIFICATIONS
Modifications to the SYSDAT program are required if the
system is to contain either the re-entrant FORTRAN
library or a 1781-1 Hardware Floating Point Unit. After
determining and making the required modifications,
SYSDAT must be reassembled. This new version replaces
the SYSDA T program in the system installation file.
*
*
*
MISCELLANEOUS INFORMATION
1781-1 HARDWARE FLOATING
POINT INFORMATION
*
*
ENT E17811 CONVERTER, EQUIPMENT,
STATION
E17811 NUM *0783
6.1.1 SYSDAT MODIFICATIONS NECESSARY TO
ADD RE-ENTRANT FORTRAN
In the storage stacks section of SYSDAT, change the
definition of NFTNLV and NEDLVL as follows:
NFTNLV EQU NFTNLV (n) NUMBER OF
REENTRANT FORTRAN LEVELS
NEDLVL EQU NEDLVL (n) NUMBER OF
REENTRANT ENCODE/DEC ODE LEVELS
Where: n is the number of re-entrant FORTRAN levels
to be in the system.
EQUIPMENT CODE::: 15.
ENT F17811 INITIAL FUNCTION TO SET
OPERATING MODE
F17811 NUM $0000
Add the following preset to the table of presets at the end
of SYSDAT:
*
1781-1 EQUIPMENT CODE PRESET
ALF 3, E17811
ADC E17811
The normal FORTRAN levels are 4, 5,. and 6 with n equal
to 3.
·96769410 A
6-1
EJT
•
•
•
•
MISC ELLANEOUS INFORMATION
FORTRAN REENTRANT INFORMATION
FMASK
*
ENT
EXT
EXT·
SPC
NUM
FMASK, FLIST
E4 SA VE
ARGUO
1
$0070
FORTRAN REENTRANT LEVELS (BIT 0 = LEVEL 0)
TABLE OF FORTRAN ENTRY POINTS SAVED TO MAINTAIN REENTRANCY
SPC
1
ENTRY POINT
PROGRAM
DESCRIPTION
*
*
FLIST
FEND
SPC
ADC
ADC
ADC
EQU
1
FEND
E4SAVE
ARGUO
FEND(*-FLTST-l)
Q8EXPR
Q8GTO
LOCATION $E4
STORAGE
TEMPORARY STORAGE
EIT
*
FORTRAN REENTRANT INFORMATION
*
*
*
Q8STP
SPC
4
THIS ENTRY IS PROVIDED TO ALLOW COMPATIBILITY BETWEEN THE
NON-REENTRANT (BACKGROUND) FORTRAN AND REENTRANT FORTRAN
SPC
1
ENT Q8STP
SPC
1
NCP
0
JMP- (ADISP)
Figure 6-1.
Re-entrant FORTRAN Table
Delete the following code from the miscellaneous information section of SYSDAT:
In this section of SYSDAT which includes the COBOP
starting sector, iI.1sert the following code:
EJT
*
*
II
E17811
E17811
MISCELLANEOUS INFORMATION
4
SPC
THESE ENTRIES ALLOW PROPER
SYSTEM LINKAGE
2
SPC
E17811, E17811
ENT
NUM $7FFF
NUM $7FFF
EIT
If dou ble precision is not to be included, insert the follow-
ing code into the miscellaneous information section of
SYSDAT:
*
6-2
SPC
2
LINK THE DOUBLE PRECISION ENTRY
POINT REFERENCED BY 'FORMTR'
SPC
1
ENT DOUT
EQU DOUT($7FFF)
*
*
SPC
4
THIS ENTRY IS PROVIDED TO LINK THE
NO-FORTRAN DISPATCHER
ENTRY POINT
SPC
1
ENT
NDTSP
SPC
1
EQU NDTSP($7FFF)
6.2 SYSTEM SKELETON MODIFICATION
The current system skeleton must first be obtained (refer
to appendix N). If the skeleton is obtained on cards, it
may be manually modified. If it is obtained on tape, the
utility system skeleton editor, SKED, may be used to
perform the modifications.
96769410 A
If the re-entrant FORTRAN is being added, replace the
appropriate record:
,
*B 'NDISP'
DECK-ID 059
(CYBER 18-20 Computer)
, DECK-ID M24
*B 'NDISP'
(1700 Series Computer)
~S
*8
'RFMTOR'
'AFMTIR'
'RFMTIR'
'ASCHXR'
'HXOCRi
tFLOTIR'
'FOUTR'
'EOUTR'
'EWRITR'
'INTIIR'
'FOQtJTR'
*~
'O~()FIR'
MSOS 5.0'
0>8
MSOS 5.0'
*R
*8
'080FLRt
'OBOFXR'
'HEXAR'
'HEXOR'
'ASCIIR'
'OECHXR'
• AF"OP'-1RI
'RFORMR'
'FLOTGR'
'FLOTR'
'COMFPR'
MSOS 5.0'
MSOS 5.0'
-*S
09
oR
08
*B
0>8
o>g
0>9
OR
with one of these records:
,
DECK-ID 058
*B 'RDISP'
(CYBER 18-20 Computer)
, DECK-ID M23
*B 'RDISP'
(1700 Series Computer)
*R
*R
*~
In addition, when adding re-entrant FORTRAN, insert the
re-entrant FORTRAN runtime library skeleton records
immediately before the record:
*B 'NXTLOC'
,
*~
*R
o>B
*R
*p.
NEXT AVAILABLE LOCATION'
which precedes the system mass resident programs.
NOTE
The deck identification field in the
skeleton record is optional. A
description of the skeleton record
format is contained in appendix P.
The re-entrant FORTRAN runtime library skeleton records
are as follows:
oH
~13
08
0>8
*8
*8
013
*8
OR
(l-B
OB
OR
*B
*B
0>8
o~
*M
(1-8
*8
*8
*8
o>R
~B
013
*8
08
OR
O>B
REENTRANT FORTRAN PUNTIME LIRpARY
FTN 3.3 PtJ~JT T~E •
DECK-ID AO}
'FORTP'
tO$3PPt-1p.,
FTN 1.3 DIHJTP~~ •
DECK-IO B01
'PARA8RI
FTN 3.3 I/UNT I ME'
DECK-ID 802
'QAF2IR'
DECK-IO 11(11 FTN 1.3 PUNTIME'
FTN 3.3 RI/NTIME'
DECK-ID B(.4
'ASSR'
FTN 3.3 RIJNT T~-1E'
DECK-IO R05
'SQRTFR'
FTN 3.3 PI/'H I oq[ •
DECK-IO B06
'SIGNP'
FTN 3.3 RUNT I t.';E'
DECK-ID S07
'FXFLTP'
FTN 3.3 RUNT J!·I~'
OECK-ID BOa
'EXPR'
FTN 3.3 PUNTIMF.'
'ALOGP'
DECK-ID 809
'TANHR'
f)ECK-IO BI0
FTN 3.3 PIJNTIME'
'S"lCSP.·
DECK-ID all
FTN 3.3 RUNTIME'
'ATANR'
DECK-IO B12
FTN 3.3 RUNTIME'
'080IOR'
DECK-IO COl
FTN 3.3 RUNTIME'
'SINARR'
DECK-IO CO2
FTN ).3 RUNTIME'
'IOCODR'
DECK-IO 001
FTN 3.3 RUNTJt<1E'
, INITLR'
DECK-ID 002
FTN ,.3 RUNTIME'
'RSTORR'
OECK-IO DO;
FTN 3.3 f''1JtJT I ME '
'GETCHR'
FTN 3.3 PU"JTI ME'
DECK-IO 004
'IPACKR'
FTN 3.3 RUNTIME'
DECK-IO DOS
'UPOATR'
DECK-ID 006
FTN 3.3 RUIHIME •
'OECPLR'
DECK-ID 007
FTN 3.3 RUNTIME'
'INTGRR'
I)ECK-lD 0013
FTIIJ 3.3 RUNT! ME'
'SPACER'
DECK-IO DOq
FTN 3.3 PUNTIME'
'HOLR'
DECK-ID 010
FTN 3.3 PUNTIME'
'DCHXR'
DECK-IO 011
F'TN 3.3 RUNT I '"'E'
tHXASCR'
DECK-ID 012
FTN 3.3 RUNTIHE'
I)ECK-IO 013
FTN 3.3 QUNTIME'
• AFlHOR'
96769410 A
011.
DIS
016
017
018
D1q
D20
021
022
Dr1
D?4
02S
026
027
D2A
02Q
0)0
OJl
1)32
01)
034
n l'+
Hp,
FTN
FTN
FTN
FTN
FT'J
FTN
FTN
FHJ
FTN
FTN
FHJ
F T!~
FT~J
FTN
FTN
FTN
FTN
FTN
FTN
FTN
FTN
FT"J
FTN
3.3
3.3
3.3
3.3
3.3
3.3
3.3
3.3
3.3
3.3
3.1
RIINTIME'
PI/NT Jt-1['
RUNTIME'
RlJtHTME'
DUtJT I '·IE '
RUNTIME'
PUNTII-\( ,
"Ur-JTIV.E'
PUNT I "'IE'
olj~TIME '
oU'..!T T'-1E'
OIJNT 1 t-IE I
PWHI'-'IE'
RUNTIME'
RIINT1ME'
RIJNTIME'
!.'lJNT I'),E I
oU"JT 1 '·IE •
:~II~·i r I··~E ,
Rljt-..)l It-1E'
3.3
1.3
3.3
3.3
3.3
3.3
3.3
3.3
3.3
3.3 PlIIHIME'
].3 PlJf'!T T!AE t
1.3 PIJ~HP~E '
The re--entrant FORTRAN runtime library skeleton records
Inchlde the records if, and only if, double precision
FORTRAN is to be in the system.
.,
.q
• ~r."f'l 0 '
'fl"02tQ'
.~
'''!dr-SR'
·fl
'O'5I1RTI1'
.~
'r.~rr,"!rp
·8
'O:'JtPR'
·fl
'ntot;R'
.q
.~
4JLP
DECK-IO
OfCK-IO
DECK-IO
DECK-IO
DECK-ID
OECK-ID
DECK-IO
DECK-IO
OECK-IO
OECK-IO
OE'CK-IO
OECK-IO
DECK-IO
OECK-IO
DECK-IO
DECK-IO
DECK-IO
OECK-ID
I')EO:-ID
DECK-ID
DECK-IO
OF.CK-lO
DE'CK"ID
'DSNC<;R'
'nAT~"!R'
aR
'QRqOFP.'
.~
'''OiJT~
.'"
.q
,
'OFLOTR'
'OG.~TR'"
OECIf-Ir
-=-~1
I:"TN
~.~
OECIC-T!'
~f"I?
I:"T~
"'.3
o£r.K-Ir
,
QIJNTT";: ,
r.\1NTT"4~
=:~
F'T~
3.~
PUN T1'4:::: '
OEr.I(-yr C'Ot.
r-Tt\
I=' T II:
C'rN
I='T"!
1.~
"UNT!"4:'
QIJN~T·..r
,
r::IJNTTut; ,
Orr.K-Tr
C''J~
'.'l
IJEr,I(-Tr F~1!
I1EC!(-Tr =:0
nF.rK-Tf' :-11
C'TI\
OErl(-Tt:l ':12
IJECK-yr ~lt.
C'T,,!
"'.'l
":'T"
~."'1'
r:-fN
~.~ o::IUNTT""F. '
3 •.~ OIJ"'T P'C' ,
o£rK-Tr C'1S
DErK-Tr 6 1 3
flErl(-Ir
e~Q
1=',,,.
0 ' N'
~.'1
~.7
°ll'",T,.,!=' '
~
PII"'rT"::: '
PU'HT"1t: '
't.
~.3
.,= ,
PtlNT T
::>UNTTt't:' '
The appropriate FORTRAN compller (Version 3.;$A or B)
skeleton records and the FORTRAN nonre-entrant .runtime
llbrary records must be inserted into the skeleton. These
should be inserted somewhere after the *LIBEDT skeleton
record and befo;re the first of the two *z records at the end
of the skeleton. Care must be taken to insert these records
so that current system modules linked together on mass
memory are not interrupted by the in.sertions.
To avoid such interruptions, the insertion may be Illade
immediately after the *S skeleton records that define request
priorities or immediately before the two final *z skeleton
records.
The FORTRAN Version 3. 3A compiler skeleton records are
llsted as follows. When inserting the skeleton records, the
value of p .is the logical unit of the installation device. For
example, the record *K, 16, is Inserted for *K, Ip if 6 is the
logical unit number of the installation device.
6-3
·e
·K,Ip
."LIBEI)!
-K,Ip
.f!
·e 'FTN33A'
"'K,P8
¥F
·e 'FTt\33A'
·e 'GOA'
'IOPReA'
·8
·e 'Ct\VT'
·e 'cct\v'
rECK-IO FO 1
'CIAGkG'
'GETC'
'GETSYH'
"e
'CUTE~T'
·e
'ceFIH~S'
'F Jl C)( ,
·B
·e
4e
"e
'~TOqE'
'SYH8Cl'
'lOClIlA'
'CUHYAA'
'FHASF:A'
.lfE
lie
·e
""e
'tlRAY5~'
'(PLCCP'
'F.I\COO'
' Gt\ S T '
'PEADER'
"'8
"'8
·s
'IG~TCF'
'C FTIC t~ ,
·8
"IE
IJE
'FLA3EL'
4e
'c{Joecs'
"Ie
'ROLA'::L'
·e
'~AVEIOt
'5TCHIlR'
'8
·e
'E~CLCC'
FORTRAN 3.3A'
·N,F'~3Ae"
'CIJlG'
¥e
·e
·s
.
,
CECK-IO FO 1
CECK-IO F02
CECK~IO F08
CECK-IO A01
CECK-IO F03
rECK-IO FO~
DECK-IO F65
rECK-IO F13
CECK-IO F12
CECK-IO A07
CECK-IO FOS
CECK-IO FiO
CECK-IO F11
CECK-IO A03
CECK-IO Fi7
CECK-IO Fi8
CECK-IO A08
CECK-IO A42
CECK-tO AId
CECK-IO A2g
CECK-IO A06
rECK-IO Fait
CECK-IO F14
rECK-IO F15
CECK-IO ADS
CECK-IO Al0
CECK-IO A1i
CECK-IO A04
CF:CK-IO A12
CECK-IO F16
FORT~JlN
FORT~AN
FORTRAN
FOR·l'~AN
FORT~.oN
FOR1RAN
FORT~AN
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oB
09
08
oB
oB
OB
OB
08
08
oB
'CFIVOC'
'CKNAHE'
'CNVT'
'CONV'
'OIAG'
'DIAGQG'
'DXP9'
'OFlOT'
'DUMVOl'
'GETC'
'GETF'
'GETSYM'
'JPUT'
'IGETCF'
'PACK'
'RDLA8L'
'STORE'
'SYM80L'
'ENDDO'
'GNST'
'HEADER'
'OPTION'
'OUTENT'
'PlABEl'
'STCHAR'
"8' 'TYPE'
08 'SAVEIO'
08 'lOCLAl'
08 tOUMYAl'
08 '08080S'
08 'ENOLOC'
oT
oK,I8
°N.FTN3AI".d
oK,Ip
oK,P8
oP.ttMARKER
08 'FTN33B'
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"8
08 'PHASEA'
OB 'IOPRBA'
08 '08PRHS'
08 'CFIVOC'
08 'CKNAME'
OR -CtNT'
oB 'CONV'
oB 'DIAG'
*8 'DIAGRG'
oB toXP9'
08 'DFLOT'
oB 'DUMVOL'
08 'GETC'
08 'GETf'
08 'GETSYM'
*8 'GPUT'
08 'IGETCF'
08 'PACK'
08 'RDLABL'
08 'STORE'
"8 'SYM80l'
08 'ENODO'
OB 'GNST'
08 'HEADER'
08 'OPTION'
oB 'OUTENT'
"8 'PLABEL'
"B 'STCHAR'
OB 'TYPE'
,
,
OECK-IO
DECK-ID
DECK-IO
DECK-IO
OECK-ID
DECK-ID
DECK-ID
DECK-ID
DECK-ID
DECK-IO
DECK-IO
DECK-ID
DECK-ID
DECK-IO
DECK-ID
OECK-ID
DECK-IO
OECK-ID
DECK-ID
QECK-ID
oECK-ID
DECK-IO
DECK-IO
DECK-ID
DECK-ID
DECK-IO
DECK-IO
DECK-ID
oECK-ID
DECK-IO
DECK-IO
34A
36A
OIA
03F
04f
37F
OSF
06F
3SF
14F
04A
01F
02A
lSF
09F
lOA
11F
03A
29A
OSA
36F
16F
06A
08A
IlA
121\
l3A
12F
13F
09A
17F
FORTRAN
FORTRAN
FORTRAN
fORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
DECK-ID
DECK-IO
DECK-ID
DECK-IO
DECK-ID
DECK-ID
DECK-I 0
OECK-ID
DECK-ID
DECK-IO
OECK-ID
DECK-ID
DECK-ID
DECK-ID
DECK-ID
DECK-IO
DECK-IO
DECK-ID
DECK-IO
DECK-ID
DECK-IO
DECK-ID
DECK-ID
DECK-ID
DECK-ID
DECK-IO
DECK-IO
DECK-ID
DECK-IO
OECK-IO
DECK-ID
OIF
02F
07A
OBF
lOF
34A
36A
OIA
03F
04F
31F
OSF
06F
3SF'
14F
04A
01F
02A
ISF
09F
lOA
IlF
03A
29A
OSA
36F
16F
06A
08A
llA
12A
FORTRAN 3.38'
F'OPTRM~ 3.38'
F'ORn~At-.J 1.38'
rORTRAN 3 .'3f3 ,
FORTRAN 1.3R'
FORTRAN 1.3R'
FORTRAN 1.3'1'
FORTRAN 1.3B'
FORTRAN 1.38'
FORTRAN 3.3qt
FORTRAN 1.313,'
FORTRAN 3.38'
FORTRAN 1.3Bt
FORTRAN 3.3R·
FORTRAN 3.3R'
FORTRAN 1.3R'
FORTRAN 3.3A'
FORTRAN 3.38'
FORTRAN 3.38'
FORTRAN 3.38'
FORTRAN 3.38'
FORTRAN 1.38'
FORTRAN 1.3B·
FORTRAN 1.38'
FORTRAN 3.3R'
FORTRAN 3.38'
FORTRAN 1.3A'
FORTRAN 1.3S'
FORTRAN 3.38'
FORTRAN 3.38'
FORTRAN 3.38'
3.38'
1.3B·
3.3B·
1.38'
3.38'
3.38'
1.3R'
~. 3A' '
1.313'
3.38'
3.38'
1.3B'
1.38' .
3.38'
3.3R'
'3.3B'
1.38'
3.3A'
'3.38'
3.38'
1.3'3'
1.3B'
1.38'
1.38'
3.38'
1.3A'
3.38'
3.3B'
3.3B'
1.38'
3.38'
6-9
08
08
OB
08
oB
08
08
oB
08
08
oB
08
oB
08
oB
OT
'SAVEIO'
'LOCLA2'
'DUMYA2'
'BYEOPR'
'CHECKf.'
'COMNPR'
'CONSUB'
'OATAPR'
'OIMPR'
'EXRLPR'
'FGETC'
'FORK'
'SUBPPR'
'TYPEPR'
'ENOLOC'
°K.I8
°N.FTN3A2."i3
oK,Ip
oK,P8
oP, •• MARKER
08 'FTN3JB'
08 'GOA'
08 'PHASEA'
08 'IOPRBA'
08 '08PRMS'
oB 'CFIVOC'
oB 'CKNAME'
08 'CNVT'
08 'CONY'
08 'DIAG'
oB 'DIAGRG'
08 'DXP9 f
oB 'DFLOT'
oB 'DUMVOL'
08 'GETC'
oB 'GETF'
oB 'GETSYM'
08 'GPUT'
4tB
'IGETCF'
oB 'PACK'
08
'RDLABL'
oB 'STORE'
~B
'SYMBOL'
oB 'ENDOO'
OB 'GNST~
~B
'HEADER'
oB 'OPTION'
oB 'OUTENT'
~B
'PLABEL'
OB 'STCHAR'
OA 'TYPE'
oB 'SAVEIO'
08 'LOCLA3'
*B 'DUMYA3'
oB 'ARAYSZ'
oB 'ASEMPR'
oB 'ASGNPR'
08 '8DOPR'
oB 'CHECKF'
oB 'CKIVC'
~13
'CONSUB'
08 'CPLOOP'
oB 'fGETC'
08 'fORK'
08 'ERBPR'
08 'MODMXR'
oB 'PUNT'
08 'ENOLOC'
6-10
DECK-IO
DECK-IO
DECK-ID
DECK-IO
DECK-ID
OECK-IO
DECK-ID
DECK-ID
OECK-ID
DECK-IO
DECK-ID
DECK-IO
DECK-IO
DECK-IO
DECK-ID
DECK-ID
DECK-·IO
OECK-IO
OECK-IO
OECK-IO
DECK-IO
DECK-ID
DE.CK-ID
Of.CK-ID
DECK-IO
DECK-ID
OECK-IO
DECK-ID
DECK-ID
DECK-ID
DECK-IO
DECK-ID
DECK-ID
DECK-ID
.DECK-IO
OECK-ID
OECK-IO
OECK-IO
DECK-IO
DECK-IO
DECK-IO
DECK-IO
OECK-IO
OECK-IO
DECK-IO
OECK-IO
DECK-IO
DECK-IO
DECK-IO
DECK-IO
OECK-IO
OECK-IO
DECK-IO
DECK-IO
OECK-ID
DECK-IO
DECK-IO
OECK-ID
DECK-IO
DECK-ID
OECK-IO
DECK-IO
OECK-IO
13A
laF
19F
19A
20A
15A
30A
31A
16A
24A
21A
22A
23A
18A
11F
OIF
02F
01A
08F
10F
34A
36A
OlA
03F
04F
37F
OSf
06F
35F
14F
04A
07f
02A
15F
09F
lOA
I1F
03/\
29A
05A
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16f
06A
08A
11A
12A
13A
20F
21F
42&\
40A
32A
33A
20A
35A
30A
43A
21A
22A
38A
39A
27A
17F
fORTRAN
fORTPAN
fORTRAN
fORTRAt,-I
fORTRAN
FORTRAN
FORTRAN
fORTRAN
FORTRAN
FORTRAN
FORP~AN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
1.38'
1.38'
1.38'
1.38'
1.38'
1.38'
1.3B'
3.38'
1.38'
1.3B'
1.33'
1.3B'
1.38'
3.38'
1.39'
FORTRAN
FORTRAN
FORTRAN
FORTQAN
fOQTRAN
FORTRAN
FORTRAN
1.3B'
1.38'
1.38'
3.39'
3.38'
1.33'
3.'38'
FORTPA:~
1.::FP
FORiRA"J
fORTRAN
FORTRMJ
FORTRAN
fORTRAN
FORTRAN
FORTRAN
FORTRAN
fORTRAN
fORTPAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
fORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTqAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FbRT~AN
FORTRAN
FORTRAN
FORTRAN
fORTRAN
1 .. 1": '
1.38'
3.313'
1.38'
'3.38'
3.313'
l.3R'
1.3R'
1.38'
1.38'
1.313 •
1.38'
3.38'
3.38'
1.38'
1.38'
1.3R'
1.38'
3.38'
1.38'
3.3B'
3.38'
1.3R·
3.38'
3.38'
3.38'
3.38'
3.38'
3.38'
3.38'
'3.38'
1.38'
3.38'
3.38'
3.3B'
1.39'
3.3B'
3.3B'
3.38'
3.3B'
oT
°K.18
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08 'CKNAME'
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08 'OXP9'
OR 'DFLOT'
oB 'DUHVOL'
of) 'GETC'
08 'GETf'
08 'GETSYM'
08 'GPUT'
08 'IGETCF'
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08 'ROlA8L'
oR 'STORE'
oR 'SYMBOL'
oR 'ENODO'
08 , GNSl'
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08 'OUTENT'
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08 'ST-CHAR'
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08 'CFIVOC'
oB 'CK~AME'
08 'CNVT'
08 'CONY'
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FORTRAN
FORTRAN
FORTQAN
FORTRAN
FORTQAN
FORTRAN
FORTQAN
FORTQAN
FORTPAN
FORTRAN
FORTPAN
FORTRAN
FORTRAN
3.313'
1.38'
1.3A'
1.3B'
1.38'
1.3B'
1.38'
DECK-ID
OECI$-IO
OECK-IO
OECK-IO
DECK-IO
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OECK-IO
DECK-ID
OECK-ID
DECK-ID
OECK-IO
DECK';" 10
OECK-IO
DECK-ID
OECK-IO
OECK-IO
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DECK-ID
DECK-ID
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DECK-ID
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29A
05A
36F
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12A
13A
22F
23f
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l1A
41A
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1.38'
1.38'
1.38'
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l.3B'
FORli~AN 1.38'
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FORTQAN 1.3B'
FORTQAN 1.3~'
FORTqAN 1. 3f~'
FORTRAN 3 .. 3f~'
FORTRAN 3 .. JI~ I
FORTRAN 3.38'
FORTRAN 3.3R·
FORTqAN 1.38'
FORTRAN 1.38'
F"ORTRAN J.3A'
FORTRAN 1.38'
FORTRAN 3.313'
FORTRAN 1.38'
F"ORTRAN 1.38'
FORT·PAN 1.38'
FORTqAN 1.38'
fORTRAN 1.3R'
FORTRAN 1.38'
FORTRAN 1.38'
FORTRAN 1.38'
fORTRAN 1.38'
FORTRAN 3.3R'
FORTRAN 3.38'
DECK-IO
OECK-IO
DECK-IO
DECK-ID
OECK-IO
OECK-IO
DECK-IO
DECK-IO
OECK-ID
OECK-ID
OECK-IO
OECK-ID
OECK-ID
OECK-IO
OECK-IO
OECK-ID
OECK-IO
DECK-IO
OECK-ID
OlF
02F
07A
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34A
36A
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06F
35F
14F
04A
01f
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lSF
FORTRAN
FORTRAN
FORTRAN
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FORTRAN
FORTRAN
FORTRAN
fORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTqAN
FORTRAN
FORTQAN
FORTqAN
FORTRAN
fORTRAN
fORTRAN
3.3B'
3.3A'
3.38'
1.38'
3.3B'
'3.38'
1.3B'
3.3B·
3.38'
3.3B·
1.313'
3.38'
3.38'
3.38'
OECK-IO
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DECK-ID
OECK-IO
DECK-IO
OECK-IO
DECK-IO
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3.3~'
1.38'
3.38'
1.38'
1.313'
3.38'
96769410 A
OB
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08
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08
oS
08
08
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'OPTION'
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'PLAtlEL'
'STCrlARI
'TYPE'
'SAVEID'
'LOCLAS'
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'PEQVS'
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DECK-ID
DECK-IO
OECK-IO
DECK-!O
DECK-IO
DECK-IO
OECK-IO
DECK-ID
()ECK-IO
OECK-IO
·OE.(K-ID
DECK-'IO
DECK-IO
DECK-ID
OECK-ID
DECK-ID
DECK-IO
DECK-ID
DECK-IO
DE<:K-ID
DECK-ID
DECK-ID
09F
lOA
11 F
rDA
29A
OSA
36F
16F
06A
OI)A
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FORTPAN
FORTRAN
FORTRAN
FORTRAN
FORTRAN
FOPTRAN
! \ i\
FO;:
f.Ot)
LLJt'LO(*-LUEO)
SECTO~S
LONG
OF THQEE SECTORS LONr;
Figure 7-3. Space Information Addition to SYSDAT for File Manager
"
7-2
96769410 A
LOG I CAL
ENT
OAT A ,
U NIT
U NIT
1
~EGLIJ1
E'H "JU'-1FSl
LOGICAL U~IT OF FILE MANAGE~ UNIT 1
BEGINNING FILE SECTOR - UNIT 1
NUM~ER OF FILE SECTORS - UNIT }
EOU LUI\J I T1
(p)
(m)
F.flU NIj'-1FS 1 (n)
fClU
LIJE1
VFn
AOC
AOC
AOC
NlJM
~FGLU}
LE~GTH(7/15), LOGlr,AL UNrT(O-6)
OF F'IL£ SPACE POOL
NUMRFR OF AVAILAALE SECTORS
NUMPER OF' SEC TOWS I~ THIS FILE SPACE
THR~AO OF O~~ SfCTOR LONG
XQ/LlJFL1.X7/LUNITl
LU FNTRY
~EI,UIl
AOD~ESS
0
NUMF'SI
o.}
THRFAO OF TWO SECTORS LONG
LlJEL 1
NUM
0.3
E au
L UEL 1 (O-l UE})
TH~fAO
OF THQEE SECTORS LONr,
WHERE: p IS THE LOGICAL UNIT OF THE MASS STORAGE DEVICE USED AS FILE MANAGER
UNIT 1.
m IS THE SECTOR NUMBER CORRESPONDING TO THE START OF FILE SPACE ON
FILE MANAGER UNIT 1.
n IS THE NUMBER OF SECTORS OF FILE SPACE ON FILE MANAGER UNIT 1.
Figure 7-4. Unit 1 Addition to SYSDA T
L 0 (;
CAL
ENT RFGLlJ?
"JIJMFS?
€QIJ LUN IT? (p) ,
FOU -1F'f;lIJ? (m)
fOIJ NIJMFS? (n)
OAT A ,
U NIT
U NIT
2
(:,jT
LUE?
lUEl2
LOGIC~L UNIT OF FILE MANAGER UNIT
AE~IN~ING FILF. SECTOR
- UNIT 2 "
NUMAER OF FILE SECTORS - U~IT 2
2
VFn
Af1C
AI)t;
AOC
0
LE~~TH(7/1S), LOGI~AL
Ar)O~ESS OF FILE SPACE POOL
NIJMr~fR OF AVAILARLE SECTORS
NU'-1FS2
NIJM~ER
"'JIJ~
0.\
OF SErTORS IN THIS FILE SPACE
THRFAO OF ONE SECTOR LONG
"'lUr.4
0.2
THRFAO OF TWO SECTORS LONG
NW-4
0.3
THREAf) OF THREE SECTORS LONG
fUU
lIJEL? (O-UJE2)
X,q/Ll fr::L::>. X7 ILUNI T2
REG-ttl?
LU FNTRY
UNIT(O-6)
,Figure 7-5. Unlt 2 Addition to SYSDAT
Flle manager unit 3:
Flle manager unit 4:
If file manager unit 2 is the last file space unit for the
file manager, proceed to section 7. 1.3, File Space List
Information. If there is file space on file manager unit 3,
add the information in figure 7-6. Thedeflnltions for p,
m, and n are listed in figure 7-4.
If file manager unit 3 is the last file space unit for the
file manager, proceed to section 7. 1. 3, File Space List
Information. If there is file space on file manager unit 4,
add the information in Ilgure 7-7. The definitions for p,
m, and n are listed in figure 7-4.
96769410 A
7-3
LOG I r. A L
o
LUFl
~~JT
8FGUJl
~ "IT
"J:Y.. F C; 1
F':"}
l.I!"HT~(P)
FIJI.J
.~c:r,l.IJ1(m)
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VFD
II"'C
U NIT
~')c
()
1'JII'IFSl
tllJo..I
0 .. 1
p ~IJ'"
0 ..
"JUM
n .. )
3
U~IT OF FILE MANAGER UNIT 3
gFGINtJI"JG FILE SEr.TOR - U"'IIT 3
NIJMHE'~ OF FILE Sf.CTORS - UNIT 3
LOGIC~L
l(Q/LlIFL, .. 'l..7/LUNTT3
;"C:'-;LU3
Ar)C
U NIT
LU FNTRY LF.:NGTH(7/1S), LOGlr.AL UNIT(O-6)
~nn;:;'ESS OF FILE SPACE POOL
NI '''''!4ER OF AVI\ILABLE SECTORS
N' 'M'4F.P. OF SF='CTORS If\J THIS FILE SPACE
THRI='AD OF ONF.: SECTOq LOflJG
THRI='AD OF Hm SECTORS LONG
2
TH~FAD
OF' THREE SECTORS LONG
Figure 7-6. Unit 3 Addition to SYSDA T
LOG I CAL
r- •.JT
4
LOr,IChL U"'IT OF' FILE MANAGER UNIT
Pfr;TN~'Iw; FILE 5ECTOK
- UNIT 4
NIJMREq OF FILF SECTORS - UNIT 4
'I.. 9/LlIFLt.. .. X7/L1JN
HEC,l' /4
I T4
4
M)C
()
,". '1C
·)Uo..1~S4
"JIJ'..
0 .. 1
LU I='NTRY LEW~TH(1/15) , LOGICAL UNTTCO-6)
AnnuF.SS OF FILE SPACE POOL
"'U""~ER OF' AV".IL48LE SECTORS
'\jU"'\~F.R OF SFr.TO~S
I"l THIS FTLE SPACE
THR~Aj) OF Or\lF SECTOQ LONG
"JIJ"1
0 .. 2
THKFAO OF Twn SECTORS LONG
rJ' J'A
0 .. 1
T~~FAD
F'llj
LUFL4(O-LUE4)
vFr)
.1\r)C
1I ifL4
U NIT
g~r,UJ4
F'H :·JU-.1FS4
~(JU LW.i! T4 (p)
~O'J 04~-GLIJ4 (m)
q~u 'JU"'~-~4 (n)
tlJE4
U '" I T
OF' TH"'EE SF.CTORS l,.ONC;
Figure 7-7. Unit 4 Addition to SYSDAT
File manager unit 5:
File manager unit 7:
If file manager unit 4 is the last file space unit for the
file manager, proceed to section 7. 1.3, File Space List
Information. If there is file space On file manager unit 5,
add the information in figure 7-8. The definitions for p,
m, and n are listed in figure 7-4.
If file manager unit 6 is the last file space unit for the
file manager, proceed to section 7. 1. 3, File SPace List
Information. If there is file sp~ce on file manager unit 7,
add the information in figure 17 .... 10. The definitions for p,
m, and n are listed in figure 7-4.
File manager unit 6:
File manager unit 8:
If file manager unit 5 is the last file space unit for the
file manager, proceed to section 7.1.3, File Space List
Information. If there is file space on file manager unit 6,
add the information in figure 7-9. The definitions for p,
m, and n are listed in figure 7-4.
If file manager unit 7 is the last file space unit for the
flle manager, proceed to section 7. 1.3, File Space List
Information. If there is file space on file manager unit 8,
add the information in figure 7-11. The definitions for p,
m, and n are listed in figure 7-4.
7-4
96769410 A
LOr, I CAL
F.t\lT RF.GlIJt;
n~T NllvFSt;
::(JU LIN I T5 (p)
FOI) ~Fr;LlJt;(m)
EIJU "·IU·.AFC;C; (n)
Lt JES
U NIT
U NIT
5
LOGIC~L U~IT OF FrL~ MANAGER UNIT
AE~IN~I~G FILE SECTOR
- UNIT 5
5
NUMAEq OF FILF SfCT1RS - UNIT 5
VFf)
XQIL\JFLC;.X7/LUNITS
LU
AnI.
RF.GUJ~
POOL
NIJ~QFkI OF4Vo. TL4RLE SECTORS
NUM~fR OF SFCTORS IN THIS FILE
THRFAO OF ONF SECTOR LONG
~')C
i)
Ar,C
NUMFS5
NU·'"
0.1
~NTRY LEN~TH(7/1S),
AnD~F.SS OF rYLE SPACE
T~RF4D
IJU-.A
n. 3
OF TWO
SECTO~S
LOGI~AL
UNITCO-6)
SP~CE
LONG
THRFAO OF THREE SECTORS LONG
Figure 7-8. Unit 5 Addition to SYSDAT
U NIT
~'JT
J:" '):J
41="-;UJA
NUMFSA
L' H\j I TA
~r:u
~"-GL'J~
F~04T
FI~lJ
VFf)
ADr.
(p)
(m)
~JU .AFSfl (n)
Anc
0
!'JtJ~FS6
t~d""
0.1
LU FNTRY LENGTH(111S). LOr,ICAL UNIT(0-6)
ADIl4F.SS OF FTLE SPACE POOL
NIJ"1 o ER OF AVAILABLE SECTORS
NlJ~RFP OF SECTORS It\1 THIS FTLE SPACE
THRFAD OF ONF SECTOR LONG
THP~Af)
LIJELA
MJ'A
0 •. 3
F(lU
lIJfL~
6
LOGICtL LJ"IIT OF FILE MANAGER lJt\lIT 6
BEGIN~ING FILE SECTOR
- UNIT 6
NlIMtiE~ OF FIL~ SECTORS - UNIT (;
Xq/LlIF.U·.• X7/LUNIT6
I-IJ:GLlJA
M)C
U NIT
OF TWO SECTORS LONG
THRFAD OF THP.E[ SECTORS LONG
(O-LUEF,)
Figure 7-9. Unit 6 Addition to SYSDAT
LOr. I CAL
ErJT ~~r,LlJ1
F)-,T r~IHFC;7
ffJl1 L!JNIT1(P)
F(J') 4F('1I17(m)
f (JU
lIIE7
~i irAi=' S 7
(n)
XlJ/LUfL7.(1ILUNIT7
Af'r.
t.')C
q~(,LlI7
ADC
~·JU~FS
~!lIt...
0.1
7
7
LOGICI\L U"IIT OF FILl: I~ANAC;EQ IJNIT 7
8FGII\J~IING FILE SEf':TOR
- UNIT 7
NIIM'iFI.1 OF FrL~ SECTORS - UNIT 7
VFfl
0
U NIT
tJ '" I T
LlI FNTRY LENC;TH(7/1t;), LOGICAL UNtT(O-6)
Ann~ESS OF FILE SPACE POOL
NI)t.1qER OF AV I'd L4HLE SECTORS
NU~~ER OF S~CTO~S I~ THIS FILE SPACE
rH~FAD OF O~F SECTOR LONG
rHR~AD
ON TWO
THPI="AD OF
SECTO~S
T~QEE
LONG
SECTORS LONr,
Figure 7-10. Unit 7 Additlon to SYSDAT
~6769410
A
7-5
•
l
•
r r. r c
~
l
II
-J
T
'"
W-
A T
A
II N 1: T
•
"
ENT BEr.LUA
ENr NU"4~ SP,
EGU lUNI TlHpl
- UNTT
BEGJtWING
rIlF:
Z~CT
£r.IJ NUMf ~e'n)
SPC 1
NUMBER Cr
fIL~
SECTORS -
efGU!~
VFO
X9/LUfLR.X7/lU~TTe
Lt...! £'ttT'i\Y
An~
BEGt.t:8
A~OR~:;CS
NllrlF:'
'HASHCO'
'GETKIO'
'~THSPC'
'RPENO '
.,s
.S,FH~Pl1
.t1
.8
."
·0
'RTVIOO'
'GETKID'
\100
'
'~rNSPC'
~PEW)'
4.1'
4.1'
4.1'
4.1'
\IoS,FH~P12,S
·H
.\IoH
\10
.e
·a
.R
HASS RESIDENT FILE
'OEFFIL'
'FILSPC'
' ~PENO'
~ANAGER
O':CK-IO FIJ5
O:::r:K-IO f31J
OEr:K-ID Fil7
HSOS 4.1'
HSOS 4.1'
MSOS 4.1'
O::CK-IO FOR
HSOS 4.1'
,",SOS 4.1'
HSOS 4.1'
·S,FH~P01,S
\IoH
·8
·8
\108
'P-ELFIL'
'RELSPC'
'RPENO'
.,..
\IoS,FH~P02,S
96769410 A
n~CK-IO
~'Jg
OECK-IO fl)7
\loA
'FIiDUHY'
OECK-IO F04
HSOS 4.1'
·S,FM~ENOtS
If the system library unit is one of the following devices:
1867 -10/20 Storage Module Drl ve
1738-853/854 Cartridge Disk
1733-1-853/854 Cartridge Disk Controller
1752-3/4 Drum
7-7
•
f
I l
c:
F)(T
~)F:f'F
ALF
1.~FF'F
AOC
rJEFF IL
EXT
ALf'
~FLPIL
·h~~Lf' It
AI1C
~~LF'
FXT
OF-:FIOx
1.11FF It»,
OF:FrnX
~Lf'
AOC
Il
1._
Il
ALF
LOt(FTL
3.LOKFII.
AI)C
LOI\FTL
F'''T
ALF
Ijt.!LFIL
£)l.T
Anc
1.U!'>,LfII.
U"JLF IL
E" T
S Tt)SF.O
b.LF
MlC
3.STt1SE;·)
.;;TOSFO
EX T
AU·
3.STODItJ
o
MiC
STOj)J~
-';TI)yOX
ALF
3.STOlux.
FX.T
5Toynx
3. R-TVStO
AOC
~TVSFQ
EX.T
J.iT"iIIP
OEFINF. INnEXEO fILt
LOCK
FILE
U:>.ILOCK
fILE
STORE SFQIIENTIAL
~F.CORD
STO~E
DIRECT
STOPE INDFXFD RECORD
R~TRIF.VE
SEQUENTIAL RECORD
RF.T~If."E
OtRECT
RET~IF.VF.
JNDEXEO RECORD
W€TRIFV~
TNOEXfO-OPDEREO RECORD
3 ••·1TIJDI;.J
Ane
~TVi)IR
F:XT
4T\lTI1X
o
AL;:
1.~TVID)(
~OC
QTVInX
FtT
ALF
Ai)C
~T"rnf)
39t"fPF'LG
Figure 7-13. PRESET Addition for File Manager
7-8
96769410 A
add the records:
*S, BEGFMS, S
SPECIFY THE SYSTEM FILE
SPACE
*M, BEGFMS+q
*M
*B 'FMDUMY"
Where: p is the logical unit number of the installation
device.
DECK-ID F24 FILE MANAGER'
Where: q is the length of the file space on the library
unit.
If there are to be job files stored on pseudo tapes, add
the following records:
*S, JETLV4, S
*T
*K,I8
*N, EDITFL ••• B
*K,Ip
SPECIFY THE JOB FILE TABLE
SPACE
The value of BGNMON must be decreased by 1339 to allow
room for the main memory resident file manager modules.
If the monitor follows directly behind unprotected,
ENDOV4 must also be changed by the same value; otherwise, ENDOV4 remains unaltered. The skeleton records
defining BGNMON and ENDOV4 have the form:
*S, BGNMON, nl
*S, ENDOV4, n2
*M, JFTLV4+j
Where: j is the number of sectors in the job file table in
. hexadecimal. The value of j must be such
that:
These records appear near the beginning of the skeleton.
After modification, the values of n land n2 are the new
values of BGNMON and ENDOV4, respectively.
It may also be necessary to modify the value of N4.
If there are to be one or more pseudo tapes in the system,
add the following records:
*B 'FMDUMY' , DECK-ID F24 FILE :MANAGER'
*S, SCSPCS, S SPECIFY THE CONFIGURA TOR
DATA SPACE
*M, SC SPCS+$lOOO
*B 'FMDUMY' ,. DECK-ID F24 FILE MANAGER'
*S, SCSPCE, S
*S, LBSPCS, S SPECIFY THE LIBRARY BUILDER
DATA SPACE
*M, LBSFCS+$2000
*B 'FMDUMY' , DECK-ID F24 FILE MANAGER'
*S, LPSPCE, S
If the text editor is to be included in the system, add the
following:
*V
TEXT EDITOR
*K,Ip
*L, EDITOR
*B 'EDITOR' , DECK-ID F25 FILE MANAGER'
*K,P8
*p
*B 'EDITFL' ' DECK-ID F26 FILE MANAGER'
*B 'NXTLOC' , NEXT AVAILABLE LOCATION'
A
discussion of the reqUirements for N4 is found in appendix M. The system requirements for unprotected must
also be considered before modifying N4.
7.3 INCORPORATING CHANGES
INTO SYSTEM
A new installation file must now be created using the new
binary version of SYSDA T, the new skeleton, the old
installation file, and the file manager binaries. This is .
accomplished by using LIBILD. Care must be taken so
that the new version of SYSDAT is read by LIBILD before
reading the old installation file, so that the proper version
of SYSDAT is incorporated into the new installation file.
Using the new installation file and the system initializer
program, the new system may be loaded. Entries on
the comment device are as follows:
Entry
Remarks
MI
Operator has manually interrupted
the system
*BATCH
Operator requests batch processing
J
Batch processing is in control
*JOB
Operator'requests the job processor
J
Job processor is in control
SILP
Operator requests the system
inltializer loading program
tThere are 9 job files per sector.
96769410 A
7-9
The system replies:
THE INITIALIZER WILL BE MOVED TO LOCATION
xxxx AND EXECUTED. TURN OFF PROTEC
SWITCH AND TYPE CARRIAGE RETURN
If using a 1700 Series computer system, the operator sets
the protect switch to the neutral position and presses
carriage return.
If USing a CYBER 18-20 Computer, the operator presses
ESCAPE, types J20@, and presses carriage return. This
clears program protect, signals a carriage return, and
reverts to operator mode.
7-10
Ready the card reader If the card reader is the installation device.
The operator then proceeds to Initialize the execution
described in sectlon 3.8. This Is followed by Ubrary
Installation described in section 3.9. If verification of
the augmented system is desired. verify the system (in
whole or part) using the procedures of section 4.
MSOS now is ready to operate in Its augmented form.
96769410 A
8
ADDITION OF REPORT GENERATOR (RPG II)
F
A user who does not have RPG II in the MSOS originally
ordered from Control Data may add this product to his
system. To do this, the user must first order the installation materials (see the MSOS Version 5 Ordering Bulletin). It is assumed that the user has a file manager in the
system and that the main memory and mass memory
requirements outlined in the MSOS Version 5 Ordering
Bulletin are satisfied. Binary copies of each RPG II
program are sent to the user.
Add the followlng presets to the table of presets at the
end of SYSDAT:
*
R9SWCH
8.2 SYSTEM SKELETON MODIFICATION
8.1 SYSDAT MODIFICATION
Add the code in figure 8-1 at any convenient point in
SYSDAT after the job processor file parameters and
before the presets.
The skeleton records to load RPG in the program library
must be added to the skeleton somewhere after the
*LIBEDT record and before the two *z records at the end
EJT
MISC ELLANEOUS INFORMATION
RPGII ENTRIES
*
*
SPC
SPC
EQU
2
FILE NUMBER ASSIGNMENT FOR RPGII USAGE
2
RPGNBR(20)
NO OF FILE NUMBERS RESERVED FOR RPGII
EQU
RPGTOP(FBASV4-1)
HIGHEST RPGII FILE NO
EQU
RPG BAS(RPGTOP-RPGNBR+ 1)
LOWEST RPGII FILE NO
ENT
RPGBAS, RPGTOP. RPGNBR
SPC
2
FILE NO OF RPGII DIRECTORY STORED BY DFUT - INITIALIZE
2
RPGDIR
0
FILE NO OF RPGII DffiECTORY
2
STATUS OF RPGII SWITCHES (EXTERNAL INDICATORS) Ul TO U8
2
R9SWCH
0
STATUS OF RPGII SWITCHES Ul TO U8
*
RPGNBR
ADC
SPC
ALF
ADC
SPC
The user must modify SYSDA T and generate a new system
skeleton. A new installation file is then created using
LIBILD. This installation file is used to build the augmented system.
*
*
*
SPC
ALF
2
RPG II DIRECTORY FILE NO PRESET
2
3, RPFDIR
RPFDIR
2
RPG II SWITCH STATUS PRESET
2
3, R9SWCH
SPC
*
RPGTOP
*
RPGBAS
*
*
*
RPGDIR
SPC
ENT
NUM
SPC
*
R9SWCH
SPC
ENT
NUM
Figure 8-1.
Partial SYSDAT Modification for Adding RPG II
8-1
96769410 A
J
of the skeleton. Care must be taken to insert these
records so that current system modules linked together
on mass memory are not interrupted by the insertions.
The skeleton records necessary to load RPG in the program library follow. The deck identification field is
optional (refer to appendix 0). When inserting the skeleton records, the value of n is the logical unit of the installation device. For example, the record *K, In would be
inserted as *K, Hi if 6 is the logical unit number of the
installation device.
°K.In
01 18Ff)T
Ol-l '~IJGIJ'
oK,P8
oP.F,.R4tjASF
.~I
'PPG'
o~
'PPGDMY'
'~9LbY'
OH
'qqSijY'
I)ECK,-ID
~9
7
R63
R73
Rb2
R71
R04
CI0
C07
ROl
elI
RSS
R97
Ro3
R73'
R62
R71
~O4
CI0
COB
ROI
Cl1
R5S
1-<97
Rb3
R73
RA2
R71
R04
CI0
C09
DECK-ID ROJ
RPGTI
RPGI I
F-'PGT I
RPGI I
RPGt I
RPGI I
RPG I I
RPGII
RPGII
RPGII
RPGII
RPGII
RPGII
RPGII
~PGII
RPGI I
RPGI I
RPGTI
RPGt I
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1.0'
1 .. 0'
1.0'
1.0'
RPGI I 1 .0'
RPGI I 1.0'
RPGt I 1.0'
~PGII 1.0'
RPGII 1.0'
RPGI I 1.0'
RPGI I 1.0'
RPGII 1.0'
RPGI I 1.0'
RPGI I 1.0'
RPGI I 1.0'
RPGI I 1.0'
96769410 A
..
,~
DECK-II) Rl':l
~PGI
f)FCI<:-ID
~16
I-CK
DfCK-IO
R~O
RPGII 1.0'
o~
DECK-IO
R~l
RPGII 1.0'
ol.1-l9"4IA
oq 'R9l.4I~'
°l.R9MIW
DECK-IO R62
RPGTI 1.0'
o~
DECK-In R63
~PGII
o~~
n~CK~IO
0,-.~9I()CL
OU
, RQ I TL P ,
°L,~9L~HO
Orl
'~9L AHO
°L,~9L~Y
'
OR 'R9LI:3Y'
oL,R9LCAE
OQ 'R9LCAf'
0,-,R9LEL
oR 'R9LEL'
oL,R9LKUP
o~
'R9LKUP'
oL,i-<9LOAO
oq '~YLOAO'
1.0'
°L,~9LOCL
'RqL~CK'
'~9MItI'
01_, R9MMOV
OH '1.?9MMOV'
0, .R9~OVA
OQ '~9~OVA'
1.0'
R64
RPGII 1.0'
DECK-IO R65
RPGII 1.0'
DECK-IO R66
RPGII 1.0'
DECK-IO
R~7
RPGII 1.0'
OECK-IO R68
RPGII 1.0'
n~CK-IO
~69
RPGII 1.0'
DECK-IO R70
RPGII 1.0'
DECK-IO R71
RPGII 1.0'
DECK-IO R72
RPGII 1.0'
OECK-IO R73
RPGII 1.0'
O~CK-IO
~74
RPGII 1.0'
DECK-IO R75
RPGII 1.0'
DECK-IO R76
RPGYI 1.0'
DECK-IO R77
RPGII 1.0'
~18
RPGII 1.0'
DECK-IO R19
kPGII 1.0'
OECK-IO 522
RPGII 1.0'
DECK-IO RJ;30
RPGII 1.0'
OECK-IO RBI
RPGII 1.0'
O~CK-ID
01.,~9MOVE
04 'R9l.40VF'
01_, R9MOVl
OH '~9MOVZ'
0L ,t-I9r-1TRN
OR 'R9MTRN'
oL.R9"1TWK
OR '49MT tiK'
°L,~9MLJLT
o~
'~9MUL
T'
°l..R9MV8
oq 'R9MV~'
°1..R9"4VTA
OR 'R9MVTA'
°L,R9r-1VW
04 'R9MVW'
*l.R9N~MX
OR
'R9NRMX'
*l.,R9N5Q~
oq
'R9NSQR'
*t,R9~TOA
*4 'R9NTOA'
oL,R9NXFL
ou 'R9NXFL'
°L,~9NXRC
OR 'R9NXRC'
°l..R90PNF
oq 'R90PNF'
oL,R90TMG
OR 'R90TMG'
*L,R90TMV
OR 'R90TMV'
*L,R90TPT
OQ 'R90TPT'
°1..,R90V50
8-4
DECK-IO
'~90V5f)'
DECK-IO R83
PPGII 1.0'
OECK-IO RH2
RPGTI 1.0'
DECK-ID R84
kPGII 1.0'
DF.CK-ID
HAS
~PGII
DECK-IO
RR~
RP61I 1.0'
DECK-ID RA1
RPGII 1.0'
01 ,R90VOP
oq 'R90VOP'
°1.R9PACK
OR • R9PACK'
°L.R9 P AGE
OR • R9PAGf •
01 ,R9POSS
oq 'Rc)P05S'
°L,R9PRCL
Of.,l 'R'lPRCL •
°L,R9PRFN
oq 'R9PRFN'
0l.,K9PLJTS
oq 'R9PUTS'
00,_ ,R9RCAO
o~
'R9RCAO'
°L.R9RDEN
oq • P9ROEN'
01 ,R9REAO
OR 'R9REAO'
°L.1-l9RPGO
OR 'R9RPGO'
°L.R9RPRT
oq 'Q9RPRT'
°L.k9R5LT
oq '~9RSL T'
Ool .R9R5T~
oQ 'R9~ST5'
°l,R95HY
OR '~95BY'
Ool.,R95ETF"
OR 'Q9SETF'
01 ,~95~TN
o~
'QQ5ET"I'
oL,Q9SHFT
o·~
'R95HFT'
°L.R95KIP
OR
'R9SK I P'
°L.R95PAC
o;~
• R95PAC'
°L,R95PTP
OH 'Q9SPTP'
oL,R95QRT
o~
'R9SQRT'
°L.R9STHO
o~
'R95THO'
.oL,R95TLL
o~
'Q95TLL'
°L.R95TON
08
'R95TON'
Oot,R9T80T
o~
'P9TBOT'
oL,R9TIME
oq 'R9TIME'
oL,R9TP40
oq 'R9TP40'
°t,R9TRAL
o~
'R9TRAL'
oL,R9TRCE
o~
'R9TRCE'
DECK-IO
~AA
~PGtI
1.0'
1.0'
OFCK-ID R89
RPGII 1.0'
R90
RPGTI 1.0'
OECK-ID R91
RPGII 1.0'
nECK-IO R92
RPGTI 1.0'
DECK-IO R93
RPGII 1.0'
DECK-IO
~94
RPGII 1,0'
DECK-IO
RqS
RPGII 1.0'
DfCK-IO
~96
RPGII 1.0'
~ECK-IO
R91
RPGl1 1.0'
DECK-IO
~99
RPGII 1.0'
DECK-IO SOl
RPGII 1.0'
OECK-IO 502
R~GTI
nECK-ID SOl
RPGII 1.0'
DECK-IO 504
RPGII 1.0'
DECK-IO 505
RPGII 1.0'
DECK-IO 506
RPGII 1.0'
ID 501
RPGII 1.0'
DECK-IO SOA
RPGII 1.0'
509
RPGTI 1.0'
nECK-IO S10
RPGII 1.0'
OECK-ID 511
RPGII 1.0'
DECK-IO 512
RPGII 1.0'
513
RPGII 1.0'
DECK-IO 514
RPGII 1.0'
DECK-IO 515
RPbII 1.0'
DECK-IO 516
RPGII 1.0'
QECK-IO 511
RPGII 1.0'
~ECK-IO
~ECK-
DfC~-IO
OEC~-IO
1.0'
0L • ~9TROT
OQ 'Q9TROTt
°L.R9T5TB
OR iR9TSHP
°t,R9T5TN
oq HNTSTN'
OL,R'9T5Tl
Oq 'P9T5TZ'
96768410 A
°L,~9TTOP
01.1 n~cHTOP'
01 ,R9UNPK
oq 'R9UNPk'
0\..R9XCPT
o~
'R9XCPT'
*L,R9XFOT
oq '~9XFOT'
-I)L.R9XRSD
o~
'~9XRSO'
nECK-I 0
Sl~
OECK-IO 519
~PGII
nECK-In 520
RP(' I I 1.0'
oF.CK-In 5?1
~PGI
nECK-ID 52)
RPGII 1.0'
DECK-In 524
RP(' I I 1.0'
OFCK-IO S25
RPGI I 1.0'
nECK-IO 526
RPGI I 1.0'
nECK-IO 012
PPGI I 1.0'
*l,R9YCOO
o~
'~NYCOO '
*'.,R9!.Ar:>5
o~
qNlAOS'
°L.K91COO
0'-1
'i)9ZCOO'
*1. • nnJT
o~
, OFUTt
*P.F
o~
'OFUT'
OH 'oUE'
oq 'nFCHEXI
o~
'RINASC'
, ATm·p
*~
*u 'FAT~(;~'
*q IMOVBYT'
*g 'C"'15G'
Ot.j 'I-iF::LP'
'MMI
*~
on ' .... UT I O'~'
*q '4I"JHEX'
o~
'nmMSC;'
OH
'f)EFII\jf-~1
~H
IAUnITI
'nUMP'
I I NI Tt
'LOAD'
'COPY'
'nTSCRO'
'AOI·WUT'
IPURGF'
'SAVEl
'RELOAf)'
IT APMGR'
IAORPRG'
'A[)R5KL'
'FURTNI
(t~
'QHPR~SI
o~
*q
-I)R
OR
01-(
*u
*q
-I)q
o~
o. ~
oq
O.~
~~
RPGII 1.0'
DECK-IO
nFCK-If)
nfCK-IO
nECK-IO
fJECI(-IO
OF.CK-JO
OECK-ID
DECK-If)
OE:CK-IO
DECK-IO
DFCK-IfJ
nECK-IO
f)ECK-ID
f)fCK-ID
IlfCK-ID
f)ECK-IO
OFCK-ID
OfCK-ID
nECK-IO
11fCK-ID
DECK-If)
f)ECK-IO
DfCK-ID
f)E"CK-ID
OECK-ID
UFCK-IO
DECK-In
nEcK-tr:>
OECK-IO
I 1.0'
U12
013
u 11
U03
U02
U14
U46
U37
RPGII
~PGJ I
RPGI I
RPGT J
RPGI I
RPGr I
RPGII
u15
RPGT I
RPGTI
RPGI I
h'PG I I
RPGI I
RP(, I r
I-?PGI I
I.A'
01 .UPnT27
o~
"JP01?7'
01..UPf)T28
oq
'UPD1?~'
01.UPf1129
o~
'tIPOT;::>9'
°1..ADf1T30
0H 'AOOTJO'
01.,AOnT31
o~
'AOOT31'
°1.AOOT32
oR
'1\00T32'
oL.SE.TL33
o~
'SETL33'
oL.SLCT34
o~
'SLCT34'
°1 .• CLOS35
014 'CLOS3S'
oL.CLOS3fl
oq 'CLOSlh'
0l.,CLOS37
014 'CLOS37'
°l.CLOS38
o~
'CLOS3,q'
-DL.CLOS39
oq
'CLO~39'
01 .• CLOS40
or~
'CLOS40'
01 .CLOS41
oc..
'CLOS41 '
°L.ROOT43
-Dq 'ROOT43'
0l ,ROOT44
o~
'ROOT 44'
°L,ROOT45
OR 'ROOT4S'
0,-,ERR046
OR 'FR~046'
°L,NTAP4S
OR
'NTAP4R'
°L.NTAP49
o~
'NT AP49'
°1.,SORT50
-D~
'SORT50'
O( .CKEYSI
-D~
'CKEY51'
°L.NTI\PS2
-DR • NTAPS2'
°L.NTAPS3
08 'NTAPS3'
-Dl.NTAPS4
-DR 'NTAPS4'
-Dl,NTAPS5
oq
'NTAP55'
-Dl,NTAP57
-DR 'NTAPS7'
-DL. "H APS8
-D~
'NTAP5H'
-DL.MOUNT
oq
''''10UNT'
-Dl.IOOOWR
-D8 '1000WR'
-Dl.CMOOPT
8-6
~ECK-IO
M;::>l
~PGIJ
DECK-IO
M?S
RPGTI 1.0'
l)fCK-IO "'126
RPGII 1.0'
nECK-IO M27
~PGII
DECK-IO M2B
RPGII 1.0'
DECK-ID M30
RPGIT 1.0'
DECK-IO M31
RPGtt 1.0'
DECK-IO M32
RPGtJ 1.0'
nrCK-IO
~13
RPGtI 1.0'
DECK-IO M34
RPGII 1.0'
DECK-IO M35
RPGII 1.0'
DECK-IO M36
RPGII 1.0'
DECK-If) MJ7
~PGrI
DECK-IO M38
RPGTI 1.0'
nECK-IO M39
RPGtI 1.0'
DfCK-IO M40
RPGII 1.0'
M41
RPGII 1.0'
DECK-ID M41
RPGII 1.0'
f)fCK-ID M44
RPGTI 1.0'
OECK-IO M4S
~PGII
DECK-IO M46
RPGII 1.0'
DECK-IO M48
RPGIJ 1.0'
DFCK-IO M49
RPGTI 1.0'
OECK-ID M50
RPGTI 1.0'
nECK-IO
~51
RPGII 1.0'
DECK-IO M52
RPGTI 1.0'
OECK-IO
~53
RPGII 1.0'
DECK-IO M54
RPG!I 1.0'
nECK-IO M5S
RPGTI 1.0'
OECK-IO MS7
RPGII 1.0'
OECK-IO MSA
RPGTI 1.0'
OECK-ID U19
RPGTI 1.0'
DECK-IO U16
RPGJI 1.0'
D~CK-IO
1.0'
O~
'CMOOPT'
oL,CM02IN
OR
'CM02IN'
°L,CM03GO
OQ
'CM03G!)'
oL.STRACE
014 'STRACf.'
DECK-ID UOS
4PGII 1.0'
f)ECK-ID U09
RPGJI 1.0'
OECK-IO UIO
RPGII 1.0'
DECK-ID M59
RPGTI 1.0'
1.0'
1.0'
It may be necessary to decrease the value of N4. the size
of allocatable area 4, in order to increase the size of
unprotected main memory to satisfy the RPG requirements for unprotected memory. RPG requires an
unprotected area of at least 18,270 bytes for compilation.
RPG execution requirements for unprotected are as
follows:
Under MSOS
Load and Go
Under MSOS
Catalog Mode
Minimum:
14, 000 bytes
12,000 bytes
Typical:
36, 000 bytes
30, 000 bytes
Large programs:
56,000 bytes
40, 000 bytes
Size
The current size of unprotected may be ascertained by
dumping the contents of the locations F616 and F716 and
computing the difference.
v =
F6 16 - F7 16 = number of words of
unprotected main memory
Let V' equal the new size of unprotected main memory.
Then:
V' equals V - 13
1.0'
This is because 13 words were added to SYSDAT.
If the value of V' is less than the required size of unpro-
tected, it may be possible to allow more space in unprotected by decreasing the value of N4. The requirements
for N4 are discussed in appendix M. To change N4,
modify the skeleton record *S, N4, n so that n is the new
value of N4. This record is near the beginning of the
skeleton.
8.3 INCORPORATING CHANGES
INTO SYSTEM
A new installation flIe must now be created using the new
binary version of SYSDAT, the new skeleton, the old
installation file, and the RPG binaries. This is accomplished by using LIBILD. Care must be taken that the
new version of SYSDAT is read by LIBILD before reading
the old installation file, so that the proper version of
SYSDA T will be incorporated into the new installation file.
96769410 A
Using the new Installation file and the system initlallzer
program, the new system may be loaded. Entries on the
comment device are as follows:
Remarks
Operator has manually interrupted
the system
'
*BATCH
Operator requests batch processing
J
Batch processing is in control
*JOB
Operator requests the job processor
J
Job processor is in control
*SILP
Operator requests the system
initializer loading program
If using a 1700 Series computer system, the operator sets
the protect switch to the neutral position and presses
carriage return.
If using a CYBER 18-20 computer, the operator presses
ESCAPE, types J20@, and presses carriage return. This
clears program protect, signals a carriage return, and
reverts to operator mode.
Ready the card reader if the card reader is the Installation device.
The operator then proceeds to the initlalizer execution
described in section 3. 8. This is followed by the library
installation described in section 3. 9. If verification of
the augmented system Is deSired, verify the system (in
whole or part) using the procedures of section 4.
The system replies:
MSOS is now ready to operate in its
augm~nted
form.
THE INITIALIZER WILL BE MOVED TO LOCATION
xxxx AND EXECUTED. TURN OFF PROTEC
SWITCH AND TYPE CARRIAGE RETURN
96769410 A
8-7
9
ADDITION OF MACRO ASSEMBLER
la,
•
e
A user who does not have the macro assembler in the
version of MSOS originally ordered from Control Data
may add this product to his system. To do this, he must
order the installation materials (see the MSOS Version 5
Ordering Bulletin). The macro assembler installation
materials, on punched cards or magnetic tape, consist
of a binary copy of each macro assembler program.
After the system repUes with:
Since SYSDAT is not modified by this addition, the user
need not rebuild the entire system using the techniques of
section 5, method 1. Instead, by using the techniques of
section 5, method 2, the user may generate a separate
installation file for this product alone. This file is used
to update the system library, thereby adding the new
product to the system.
to transfer the first two records of the skeleton to an
output tape mounted on logical unit 6. After the library
editor is loaded, transfer of records is accomplished by:
Using method 2, the installation steps are:
1.
2.
3.
4.
Use SKED utility to produce the m3.cro a~sembler
skeleton file. Records that compose the file are
specified in this section.
Use the LIBILD utility to produce the macro
assembler installation file, a complete and independent installation file containing the skeleton and
binary programs for the macro assembler alone.
Use the LIBEDT utility to enter the macro assembler programs from the new installation file into
the program library.
(Optional) The system may be verified in whole or
in part using the verification procedures described
in section 4.
The detailed procedures for steps 1, 2, and 3 are
described below.
J
the operator calls the library editor with:
*LIBEDT
*T, 4, A, 6, A, 2
Transfers two records from the
comment device to logical unit 6
(ASCII mode)
*K, 16, P8
First two records from figure 9-1
(macro-assembler skeleton
records)
*L, LIBMAC
*z
*z
J
Exit LIBEDT} Control statements;
Exit job
not transferred to
processor
tape.
Next, the operator calls debug to close the file and to
rewind the new tape:
MI
DB
When the system replies that debug is loaded (DEBUG IN),
the operator writes an end-of-file mark and rewind the
tape:
WEF, 6,1
Write end-of-file mark.
NEXT
REW, 6
9.1 BUILDING MACRO ASSEMBLER
INSTALLATION FILE SKELETON
If the system has a card reader, the skeleton records
defined in figure 9-1 may be punched and used as the
LIBILD skeleton input (described in section 9.2).
If no card reader is available, the skeleton records can
be put onto magnetic tape using the following MSOS
functions. The operator enters the job processor with:
Rewind tape.
NEXT
OFF
Exit from debug.
The skeleton editor can now be used to build the remainder
of the installation file. After entering the job processor,
SKED is called with:
*SKED~
The computer replies with:
SKED IN
*JOB
96769410 A
NEXT
9-1
OPERATOH ENTERED CODE (SKELETON)
SKELETON DIRECTS PROCESSING AS SHOWN:
*K, 16, PB
*L, LIBMAC
*B'LIBMAC'
*L.ASSEM
*B 'ASSEM'
*K.PS
*P.F
*B 'PASS1'
*B 'PAIPR2'
*T
*K.IB
*N. PASS1 ••• B
*K.16
*K.PS
*P.F
*B 'PASS2'
*B 'PA2PR2'
*T
*K.IS
*N, PASS2 ••• B
*K,I6
*K,PS
*P,F
*B 'PASS3'
*B 'PA3PR2'
*B 'PA3PR3'
*T
*K.IS
*N. PASS3 ••• B
*K.16
*K.:PS
ALL INPUT IS FOR LOGICAL UNIT 6. IF THE
INSTALLA TION IS TO BE MADE FROM ANOTHER
LOGICAL UNIT, CHANGE I VALUE AS
APPROPRIATE.
SET OF BINARY PROGRAMS IS ENTERED WITH
MSOS PROGRAM LIBRARY AS AN ABSOLUTE FILE. '
ABSOLUTE FILE
}
ABSOLUTE FILE
*P.F
*B 'TABLST'
*T
*K. IS
*N. TABLST ••• B
*K.I6
*K.PS
*P.F
*B 'XREF'
*K.IS
*N.XREF ••• B
*K.I6
*B 'MACSKL'
*B 'MACROS'
.} ABSOLUTE FILE
}
}
*z
*CTO, MACRO ASSEMBLER INSTALLED
*z
ABSOLUf E FILE
THESE TWO PROGRAMS REMAIN IN BINARY
FORMAT.
EXIT LIBEDT }
CONTROL STATEMENTS USED
EXIT JOB
DURING LIBEDT PROCESSING
NOTE: EACH LINE ENDS WITH A CARRIAGE RETURN AND A LINE FEED.
Figure 9-1. Skeleton for Adding Macro Assembler to System
9-2
96769410 A
The operator loads the first two records just written on
the installation tape:
LOAD,6
After loading the records, the computer replies:
ANY MORE INPUT, ENTER LU
This SKED internal condition is cleared by pressing
carriage return. The computer replies:
NEXT
The operator now inserts all the other records in the
skeleton of figure 9-1. Each input record is followed by
a carriage return and a line feed.
INSERT, 2,4
*B 'LIBMAC'
*L,ASSEM
Remaining records from
skeleton in figure 9-1
*z
carriage return
The final carriage return terminates the loading command sequence. The comment device displays:
NEXT
The operator may now list the full skeleton by:
CATLOG
When the computer replies:
NEXT
the operator is ready to dump the skeleton onto the
'installation tape, using the same magnetic tape as before:
REW,6
9.2 BUILDING MACRO ASSEMBLER
INSTALLATION FILE
The skeleton is now used in conjunction., with the macro
assembler binaries to create the macro aat3embler installation file. The utillty program LIBILD generates the
file. In the following example, both the new skeleton and
the macro assembler binaries are on magnetic tape and
are input from logical unit 16.
Assuming that the job processor is still in control of the
computer, LIBILD is put in control by the operator
entering:
*LIBILD
The Comment
Device Displays:
The Operator
Replies:
CONTROL LU =
DEFS LU =
INSTALL LU =
NEWLIB LU ==
LIB 01 LU ==
LIB 02 LU =
SKELETON LU ==
Carriage return
Carriage return
Six carriage returns
Carriage return
16 carriage returns
Carriage return
16 carriage returns
Note that only a carriage return is entered as the response
to the query CONTROL LU ==. This is because the
sequence control statements are read from the comment
device. A carriage return is also the response' to the
query DEFS LU =, since the installation file is to be
created according to the skeleton and not according to a
definitions deck. The response to INSTALL LU = indicates that the installation file is to be written on logical
unit 6. No new'output library is to be created. Therefore, a carriage return is entered following the query
NEWLIB LU.=.
Following the 16-carriage-return reply to the query
SKELETON LU =, the binary programs are read from
logical unit 16 and saved on mass storage. When all the
binary programs have been read, the comment device
displays:
LOAD SKEL/INSTAL, CR WHEN READY
When the tape is rewound and the computer replies (NEXT),
the operator writes the skeleton with:
DUMP, 6
The computer replies with:
NEXT
After mounting the skeleton tape prepared by SKED (section 9.1) on logical unit 16, mounting the installation tape
on logical unit 6, and readying both of these units, the
operator replies with a carriage return. LIBILD reads
the skeleton and prepares a macro assembly installation
file by reading the skeleton records and binaries and
proceSSing the binaries according to the instructions of
the skeleton records.
and the skeleton is now saved on the output device. The
operator exits from the skeleton editor with:
EXIT
96769410 A
9-3
When the installation file is complete, the comment device
displays:
LIBRARY BUILD COMPLETE
TYPE *Z TO TERMINATE OR
TYPE *C TO CONTINUE WITH CURRENT
SKELETON AND/OR
OUTPUT LIBRARY LUIS
Since the installation file is now complete and residing on
logical unit 6, the operator exits from LIBILD by
replying:
Z
Assuming that the job processor is stlll controlling the
computer, the library editor is placed in control by the
operator entering:
*LIB EDT
When the library editor Is controlling the computer, the
comment device displays:
LIB IN
The operator loads the installation file on logical unit 6
and readies that tape unit. He then causes the file to be
read by entering:
*V,6
The system returns to job processor control.
After LIBEDT has processed the file, the comment device
displays the CTO statement entered at the end of the
skeleton:
9.3 ENTERING MACRO ASSEMBLER
INTO MSOS
The newly prepared macro assembler installation file may
now be used by LIBEDT utility to enter the macro assembler into MSOS.
9-4
MACRO ASSEMBLER INSTALLED
The first *Z statement from the skeleton causes LIBEDT
termination; the second *z statement causes job processor termination. MSOS is now augmented by addition of
the macro assembler.
96769410 A
10
ADDITION OF SORT/MERGE
fa
sa
....
A user who does not have Sort/Merge in the version of
MSOS originally ordered from Control Data may add this
product to his system. To do this, he must order the
installation materials (see the MSOS Version 5 Ordering
Bulletin).
If no card reader is available, the skeleton records can
It is assumed the user's system contains a file manager.
It is further assumed that the user has in his system the
After the system repUes with:
main memory and mass memory requirements for Sort/
Merge Version 1. 0 as outlined in the MSOS Version 5
Ordering Bulletin. The sort/merge installation materials,
on punched cards or magnetic tape, consist of a binary
copy of each sort/merge program.
Since SYSDAT is not modified by this addition, the user
need not rebuild the entire system using the techniques of
section 5, method 1. Instead, using the techniques of
section 5, method 2, the user may generate a separate
installation file for this product alone. That file is used
to update the system library, thereby adding the new
product to the syst~m.
Using method 2, the installation steps are:
1.
2.
Use SKED utility to produce the Sort/Merge skeleton
file •. Records that compose the file are specified in
. this section.
Use the LIBILD utility to produce the Sort/Merge
installation file, a complete and independent installation file containing the skeleton and binary programs
for Sort/Merge alone.
be put onto magnetic tape using the following MSOS
functions. The operator enters the job processor with:
*JOB
J
the operator calls the library editor with:
*LIBEDT
to transfer the first two records of the skeleton to an
output tape mounted on logical unit 6. After the library
editor is loaded. this is accomplished by:
*T,4,A, 6,A. 2
Transfers two records from the
comment device to logical unit 6
(ASCII mode)
*K,I6
First two records from
figure 10-1 (macro-assembler
skeleton records)
*L,SMC
*Z
*z
}
Exit LIBEDT} Control stateExit job
ments; not transprocessor
ferred as records.
Next, the operator calls debug to close the file and to
rewind the new tape:
MI
3.
4.
Use the LIBEDT utility to enter the Sort/Merge programs from the new installation file into the program
library.
(Optional) The system may be verified in whole or
in part using the verification procedures described
in section 4.
The detailed procedures for steps 1, 2, and 3 are
described below.
DB
When the system replies that debug is loaded (DEBUG IN),
the operator writes an end-of-file mark and rewinds the
tape:
WEF, 6,1
Write end-of-file mark.
NEXT
REW, 6
Rewind tape.
NEXT
10.1 BUILDING SORT/MERGE
INSTALLATION FILE SKELETON
If the system has a card reader, the skeleton records
defined in figure 10-1 may be punched and used as the
LIBILD skeleton input (described in section 10.2).
96769410 A
OFF
Exit from debug.
The skeleton editor can now be used to build the remainder
of the installation file. After entering the job processor,
SKED is called with:
*SKED
10-1
OPERATOH ENTERED CODE
(SK_~,ETON)
tV
tlJ
ALL INPUT IS FOn LOGICAL UNIT G. IF THE
INSTALLATION IS TO BE MADE FHOM ANOTHEH
LOGICAL UNIT, CHANGE I VALUE AS
APPROPRIATE.
SOHT/MEHGE 1. 0
tv
*K,I6
*L, SMC
,
*B
'SMC'
*K,P8
*p
,
*B
'SMCI\10N'
,
:tD
'FLOTN'
,
*'B
'PARASN'
,
*B
'COMNER'
,
tB
'NXTLOC'
*'1'
:tK,IH
*N, SMCMON ••• B
*K, In
*p
*B
'SMCEDT"
*B
'NXTLOC"
*1'
*K,18
lON, SMCEDT ••• B
SKELETON DIRECTS PROCESSING AS SHOWN:
DECK-ID SOl SMC 1.0'
DECK-ill S02 Sl'vIC
DECK-ID S08 SMC
DECK-ID S07 SMC
DECK-ID S09 SMC
NEXT AVAILABLE
1. 0'
1. 0'
1. 0'
1. 0'
LOCATION'
DECK-ID S03 SMC 1.0'
NEXT AVAILABLE LOCATION'
SET OF BINARY PROGRAMS IS ENTERED INTO
1\ISOS PROGRAM LIBRARY AS AN ABSOLUTE FILE.
ABSOLUTE FILE
lOK, In
*p
lOB
'SMCSRT"
DECK-ID S04 SMC 1.0'
*B
'NXTLOC"
NEXT AVAILABLE LOCATION'
*1'
*K,18
*N, SMCSRT, ••• B
ABSOLUTE FILE
*K, In
*p
'SMCIMG' , DECK-ID S05 SMC 1. 0'
*B
'NXTLOC' , NEXT AVAILABLE LOCATION'
*B
*1'
*K,18
*N, SMCIMG••• B
ABSOLUTE FILE
*K,ln
*p
*B
'SMCFMG"
*B
'NXTLOC"
*1'
*K,I8
*N, SMCFMG ••• B
ABSOLUTE FILE
DECK-ID S06 SMC 1. 0'
NEXT AVAILABLE LOCATION'
*z
EXIT LIBEDT}
* CTO, SORT /MERG E INSTALLED
*z
NOTE:
EXIT JOB
EACH LINE ENDS WITH A CARRIAGE RETURN AND A LINE FEED.
OPTIONAL.
CONTROL STATEMENTS USED
DURING LIBEDT PROC ESSING
DECK IDENTIFICATIONS ARE
Figure 10-1. Skeleton for Adding Sort/Merge to System
10-2
96769410 A
The computer replies with:
SKED IN
NEXT
NEXT
The operator loads the first two records just written on
the installation tape:
LOAD,6
ANY MORE INPUT, ENT ER LU
This SKED internal condition 1s cleared by pressing
carrlage return. The computer replies:
NEXT
The operator now inserts all the other records in the
skeleton of figure 10-1. Each input record is followed
by a carriage return and a line feed.
INSERT, 2, 4
*B 'SMC'
*K,P8
Remaining records from
skeleton in figure 10-1
1
carriage return
The final carriage return terminates the loading command
sequence. The comment device displays:
NEXT
The operator may now list the full skeleton by:
CATLOG
When the computer replies:
NEXT
the operator is ready to dump the skeleton onto the installation tape, using the same magnetic tape as before:
REW,6
When the tape is rewound and the computer replies
(NEXT), the operator writes the skeleton with:
DUMP, 6
96769410 A
and the skeleton is now saved on the output device. The
operator exits from the skeleton editor with:
EXIT
It may be necessary to decrease the value of N4. the size
After loading the records, the computer replies:
*z
The computer replies with:
of allocatable area 4, in order to increase the size of
unprotected to satisfy the Sort/Merge requirements for
unprotected memory. Sort/Merge requires an unprotected
area of 12,000 bytes. Speed of execution is improved if
additional unprotected memory is available.
The current size of unprotected may be ascertained by
dumping the contents of the locations F6 16 and F7 16 and
computing the difference.
v =
F6
16
- F7
16
= number of words of unprotected.
If the value of V is less than the required 6000 words. it
may be possible to allow more space in unprotected by
decreasing the value of N4. The requirements for N4 are
discussed in appendix M. To change N4. modify the
skeleton record *S. N4. n so that n is the new value of N4.
This record is near the beginning of the skeleton.
10.2 BUILDING SORT/MERGE
INSTALLATION FILE
The skeleton is now used in conjunction with the Sort/
Merge binaries to create the sort/merge installation file.
The utility programLIBILD generates the file. In the
following example. both the new skeleton and the Sort/
Merge binaries are on magnetic tape. both mounted on
logical unit 16.
Assuming that the job processor is still in control of the
computer, LIBILD is put in control by the operator
entering:
*LIBILD
The Comment
Device Displays:
The Operator
Replies:
CONTROL LU =
DEFS LU =
INSTALL LU =
NEWLIB LU =
LIB 01 LU =
LIB 02 LU =
SKELETON LU =
Carriage return
Carriage return
Six carriage returns
Carriage return
16 carriage returns
Carriage return
16 carriage returns
10-3
Note that only a carriage return is entered as the response
to the query CONTROL LV =. This is because the
sequence control statements are read from the comment
device. A carriage return is also the response to the
query DEFS LU =:, since the installation file is to be
created according to the skeleton and not according to a
definitions deck. The response to INSTALL LU :::: indicates
that the installation file is to be written on logical unit 6.
No new output library is to be created. Therefore, a carriage return is entered following the query NEWLIB LU =•
Following the 16-carriage-return reply to the query
SKELETON LU =, the binary programs are read from logical unit 16 and saved on mass storage. When all the binary
programs have been read, the comme~t deyice displays:
10.3 ENTERING SORT/MERGE
INTO MSOS
The newly prepared Sort/Merge installation file may now
be used by LIBEDT utility to enter Sort/Merge into
MSOS.
Assuming that the job processor is still controlling the
computer, the library editor is placed in control by the
operator entering:
*LIBEDT
When the library editor iscontrolUng the computer, the
comment device displays:
LOAD SKEL/INSTAL, CR WHEN READY
LIB IN
After mounting the skeleton tape prepared by SKED (section 10. 1) on logical unit 16, mounting the installation
tape on logical unit 6, and readying both of these units,
the operator I:eplies with a carriage return. LIBILD
reads the skeleton and prepares a Sort/Merge installation
file by reading the skeleton records and binaries and
processing the binaries according to the instructions of
the skeleton records.
When the installation file is complete, the comment
device displays:
LIBRARY BUILD COMPLETE
TYPE *Z TO TERMINATE OR
TYPE *C TO CONTINUE WITH CURRENT
SKELETON AND/OR
OUTPUT LIBRARY LU'S
Since the installation file is now complete and residing on
logical unit 6, the operator exits from LIBILD by replying:
The operator loads the installation file on logical unit 6
and readies that tape unit. He then causes the file to be
read by entering:
*V,6
After LIBEDT has entered the file, the comment device
displays the CTO statement entered at the end of the
skeleton:
SORT/MERGE INSTALLED
The first *z statement from the skeleton causes LIBEDT
termination; the second *Z statement causes job processor termination. MSOS is now augmented by addition of
Sort/Merge.
*Z
The system returns to job processor control.
10-4
96769410 A
11
ADDITION OF MAGNETIC TAPE UTILITY PROCESSOR
-
pmflG.
A user who does not have the magnetic tape utility
processor (MTUP) in the version of MSOS originally
ordered from Control Data may add this product to his
system. To do this, he must order the installation
materials (see the MSOS Version 5 Ordering Bulletin).
The magnetic tape utility processor installation material
consists of a binary copy of each magnetic tape utility
processor program. Since SYSDAT is not modified by
this addition, the user need not rebuild the entire system
using the techniques of section 5, method 1. Instead,
employing the techniques of section 5, method 2, the user
may generate a separate installation file for this product
alone. That file is used to update the system library,
thereby adding the new product to the system.
Using method 2, the installation steps are:
1.
2.
3.
4.
Use SKED utility to produce the magnetic tape utility
processor skeleton file. Records that compose the
file are specified in this section.
Use the LIBILD utility to produce the magnetic tape
utility processor installation file, a complete and
independent installation file containing the skeleton
and binary programs for the magnetic tape utilities
alone.
Use the LIBEDT utility to enter the magnetic tape
utility processor programs from ,the new installationfile into the program library.
(Optional) The system may be verified in whole or
in part using the verification' procedures described
in section 4.
The detailed procedures for steps I, 2, and 3 are
described below.
.
After the system replies with:
J
the operator calls the library editor with:
*LIBEDT
to transfer the first two records of the skeleton to an
output tape mounted on logical unit 6. After the library
edi~or is loaded, this is accomplished by:
*T,4,A,6,A.2
*K. 16. P8
*L, MTUP
*z
*z
If the system has a card reader, the skeleton records
defined in figure 11-1 may be punched and used as the
LIBILD skeleton input (described in section 11.2).
If no card reader is available, the skeleton records can
be put onto magnetic tape using the following MSOS
functions. The operator enters the job processor with:
*JOB
96769410 A
First two records from figure 11-1 (macro-assembler
skeleton records)
Exit LIBEDT} Control state'
Exit job
ments; not transprocessor
ferred as records
Next. the operator calls debug to close the file and to
rewind the new tape:
MI
DB
When the system replies that debug is loaded (DEBUq IN).
the operator writes an end-of-file mark and rewinds the
tape:
WEF, 6.1
Write end-of-file mark.
NEXT
REW, 6
11.1 BUILDING MTUP INSTALLATION
FILE SKELETON
}
Transfers two records from the
comment device to logical unit 6
(ASCII mode)
Rewind tape.
NEXT
OFF
Exit from debug.
The skeleton editor can now be used to build the remainder
of the installation file. After entering the job processor,
SKED is called with:
*SKED
The computer replies with:
SKED IN
NEXT
11-1
SKELETON DIRECTS PROCESSING AS SHOWN:
OPEHATOR ENTERED CODE (SKELETON)
*K, 16, P8
*L, MTUP
'MTUP'
"'B
"'P, F" TAPUTL
'MTUP'
"'13
*'13
'TAPUTL
'FNN'
"'B
'SCAN'
"'B
'OPFNIO'
"'B
*B
'RDWTP'
*B
'LIOG'
*B
'COPY'
*B
'EXIT'
*B
'PRINT'
*B
'VERIFY'
'SELECT'
"'B
'PRINTT'
"'B
*B
'DUMP'
*B
'INIT'
'STNLAB'
"'B
'CVASEB'
"'B
'ALCBUF'
"'B
*B
'NXTLOC'
"'T
*K,I8
*N, MTUPFL ••• B
DECK-ID
VOl
DECK-ID UOI
DECK-ID U02
DECK-ID U03
DECK-ID U04
DECK-ID U05
DECK-ill U06
DECK-ID U07
DECK-ID UOS
DECK-ID - U09
DECK-ID UIO
DECK-ID Ull
DECK-ID Ul2
DECK-ID Ul3
DECK-ID Ul4
ALL INPUT IS FOR LOGICAL UNIT 6. IF THE
INSTALLATION IS TO BE MADE FROM
ANOTHER LOGICAL UNIT, CHANGE I VALUE
AS APPROPRIATE.
l\IAG TAPE UTILITY'
l\1AG TAPE
MAG TAPE
l\IAG TAPE
l\1AG TAPE
l\1AGTAPE
l'vlAG TAPE
l'vIAG TAPE
l\1AG TAPE
MAG TAPE
l\1AG TAPE
l\IAG TAPE
MAG TAPE
l\1AG TAPE
l\IAG TAPE
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
UTILITY'
DECK-ID Ul5 l'vIAG TAPE UTILITY'
DECK-ID Ul6 l\1AG TAPE UTILITY'
DECK-ID Ul7 MAG TAPE UTILITY'
DECK-ill UIS l\1AG TAPE UTILITY'
NEXT A VAlLA BLE LOCATION'
*z
"'CTO
MAGNETIC TAPE UTILITIES INSTALLED
}
*z
NOTE:
CONTROL STATE'MENTS USED DURING
LIBEDT PROC ESSING
EACH LINE ENDS WITH A CARRIAGE RETURN AND A LINE FEED.
OPTIONAL.
DECK IDENTIFICATIONS ARE
Figure 11-1. Skeleton for Adding Multiple Tape Utility Processor to System
The operator loads the first two records just written on
the installation tape:
The operator now inserts all the other records in the
skeleton of figure 11-1. Each input record is followed by
a carriage return and a line feed.
LOAD,6
INSERT, 2, 4
After loading the records, the computer replies:
ANY MOHE INPUT, ENTER LU
This SKED internal condition is cleared by pressing carriage return. The computer replies:
NEXT
11-2
*B
'MTUP'
*P, F, , TAPUTL
Remaining records from
skeleton in figure 11-1
*z
carriage return
96769410 A
The final carriage return terminates the loading command
sequence. The comment device displays:
NEXT
The operator may now list, the full skeleton by:
CATLOG
When the computer replies:
NEXT
the operator is ready to dump the skeleton onto the installation tape, using the same magnetic tape as before:
REW,6
When the tape is rewound and the computer replies
(NEX1) , the operator writes the skeleton with:
The computer replies with:
NEXT
The
EXIT
After mounting the skeleton tape prepared by SKED (section 11. 1) on logical unit 16, mounting the installation tape
on logical unit 6, and readying both of these units, the
operator replies with a carriage return. LIBILD reads
the ~keleton and prepares a magnetic tape utility processor installation file by reading the skeleton records and
binaries, and processing the binaries according to the
instructions of the skeleton records.
When the installation file is complete, the comment
device displays:
11.2 BUILDING MTUP INSTALLATION FILE
The skeleton is now used in conjunction with the magnetic
tape utility processor binaries to create the magnetic tape
utility processor installation file. The utility program
LIBILD generates the file. In the following example, both
the new skeleton and the magnetic tape utility processor
binaries are on magnetic tape, both mounted on logical
unit 16.
.
Assuming that the job processor is still in control of the
computer, LIBILD is put in control by the operator
entering:
*LIBILD
LIBRARY BUILD COMPLET E
TYPE *z TO TERMINATE OR
TYPE *C TO CONTINUE WITH CURRENT
SKELETON AND/OR
OUTPUT LIBRARY LU'S
Since the installation file is now complete and residing on
logical unit 6, the operator exits from LIBILD by replying:
*Z
The system returns to job processor control.
11.3 ENTERING MTUP INTO MSOS
The Comment
Device Displays:
The Operator
Replies:
CONTROL LU =
DEFS LU =
INSTALL LV =
NEWLIB LU =
LIB 01 LV =
LIB 02 LV =
SKELETON LV =
Carriage return
Carriage return
Six carriage returns
Carriage return
16 carriage returns
Carriage return
16 carriage returns
96769410 A
Following the I6-carriage-return reply to the query
SKELETON LV=, the binary programs are read from logical unit 16 and saved on mass storage. When all the binary
programs have been read, the comment device displays:
LOAD SKEL/INSTAL, CR WHEN READY
DUMP, 6
and the skeleton is now saved on "the output device.
operator exits from the skeleton editor with:
Note that only a carriage return is entered as the
response to the query CONTROL LU =. This is because
the sequence control statements are read from the comment device. A carriage return is also the response to
the query DEFS LU =, since the installation file is to be
created according to the skeleton and not according to a
definitions deck. The response to INSTALL LU = indicates that the installation file is to be written on logical
unit 6. No new output library is to be created. Therefore, a carriage return is entered following the query
NEWLIB LU =
The newly prepared magnetic tape utility processor
installation file may now be used by LIBEDT utility to
enter magnetic tape utility processor into MSOS.
Assuming that the job processor is still controlling the
computer, the library editor is placed in control by the
operator entering:
*LIBEDT
11-3
When the library editor is controlling the computer, the
comment device displays:
After LIBEDT has processed the file, the comment device
displays the CTO statement entered at the end of the
skeleton:
LIB IN
MAGNETIC TAPE UTILITIES INSTALI,ED
The operator loads the installation file on logical unit 6
and readies that tape unit. He then causes the file to be
read by entering:
*V,6
11-4
The first *z statement from the skeleton causes LIBEDT
termination; the second *z statement causes job processor termination. MSOS is now augmented by addition of
the magnetic tape utilities.
96769410 A
12
CYBER 18/1700 MSOS 5 SPECIFICATIONS
fee'
liS
12.1 NEW FEATURES
MSOS 5 is a multiprogramming operating system designed
to support a variety of applications requiring dedicated
system utilization, batch processing, and program checkout features in a real-time environment. In addition to
those features that presently exist in MSOS 4, the following features are provided for the CYBER 18-20 computer.
•
a_
M
•
Continual support of operation on 1704/1714/1774/
1784 computers is provided.
•
The additional instruction repertoire supported by
the CYBER 18-20 computer is included within the
macro assembler.
•
Peripheral drivers IC under MSOS include new
drivers for the following peripheral equipment:
-1833-1/1833-3/1867-10/1867-20 Storage Module
Drive
MSOS 5 provides auto-data transfer (ADT) for
pseudo direct memory transfers of data to and
from a device.
o
The system provides access to data in memory
beyond the 128K byte boundary.
o
All additional general purpose registers are saved
and restored on interrupt.
o
MSOS 5 supports a real-time clock in auto-data
transfer mode.
-1833-5/1865-1/1865-2 Flexible Disk
•
The system provides the ability to advance records
or files and backspace records or files from the job
processor.
12.2 DEFICIENCIES AND LIMITATIONS
o
The system supports up to eight mass storage disk
drives, each capable of storing 50 million 8-bit bytes
of formatted data.
There are no known deficiencies or limitations in the
system.
o
Up to two flexible disk drives are supported. These
are formatted in either IBM 3740 format (128 bytes
per sector) or the CDC 1700 Series rotating mass
storage format (192 bytes per sector).
12.3 PSR LEVEL
o
MSOS 5 provides a stand-alone background text
editor for manipulation of user program and data
files.
96769410 A
The release level of MSOS 5 is summary level 110. (Summary levels for RPG II Version 1.0, FORTRAN Version
3~3A/B, and Magnetic Tape UtilityProcessor Version
2~ 0 may be less than 110 since they are previously
released products.)
12-1
13
UPDATING A SYSTEM BY INSTALLATION OF
LIBILD BINARY UPDATE FILES
•
•
rgM!M!t·S'aw
Periodically, MSOS and its associated products are
updated by Control Data. At the time of an update. the
user is sent a binary update file for MSOS and a binary
update file for each associated product in the user's
system. The user also receives a COSY release file
and a COSY corrections file for each product in his system. The COSY files may be used to generate new system listings.
To update the system, a skeleton corresponding to the
latest installation file must be obtained. This may be
done by using the program SKED as shown in appendix N.
The skeleton should be modified to change the *S system
initializer control statements defining SYSLVL, SYSMON,
SYSDA Y. and SYSYER, which define the PSR level and
system build date. If the skeleton is on cards, cards can
be manually changed. Otherwise, SKED may be used to
make these changes. The operator then uses LIBILD to
create a new installation file containing the modules from
all binary update files the user has received. This is
done by presenting the binary update files as library input
to LIBILD together with the modified skeleton to create a
new installation file. The new installation file may be
used to build an updated system as described in section 3.7,
omitting steps 2 through 5.
A system initial1zer error message may appear. indicating
memory space has been exceeded. This may be due to an
increase in size in one or more updated main memory
resident modules. In this case BGNMON should be
decreased. ENDOV4 must also be decreased if BGNMON =
ENDOV4 (e. g •• the system has neither partitioned core
nor unused area; see appendix L). The user must determine the amount, .L, of new space needed.
The new values are then computed:
BGNMON'
BGNMON - L= n1
ENDOV4'
ENDOV4 - L = n2
To modify the values of BGNMON and ENDOV4, the skeleton records defining BGNMON and ENDOV4 must be modified. The new records have the form:
*S, BGNMON, n1
The current size of unprotected may be ascertained by
dumping the contents of the locations F6 16 and F716 and
computing the dif~erence.
v
= F6 Ul - F7 16
unprotected.
Let V' equal new size of unprotected. Then:
V'
Where:
=
V- L - m
L is the number of words added to main memory
resident programs.
m is the number (if any) of additional words
added to SYSDAT.
To generate updated listings for each product, follow the
instructions for cases 1 and 2 below.
CASE 1: CARD READER IN SYSTEM
1.
Obtain a punched card copy of each COSY correction card image. (If the COSY correction file is
already on cards. omit this step.)
If there is a card punch in the system, LIBEDT
may be used to transfer the COSY correction tape
to cards. If there is no card punch in the system,
obtain a listing of the COSY corrections as follows:
Mount the COSY corrections file on logical
unit p and ready the device. The follOwing
dialog then takes place on the comment device:
Comment device
Operator requests the job
processor
J
Job processor is ready
*LIBEDT
Operator requests the
library editor
LIB IN
Library editor is ready
*T, p, A, 9, A, , 1
Operator requests transfer
of data:
p
input logical unit.
A = ASCn mode,
9
output logical unit, for
the one (installation) file
*z
Operator exits from LIBEDT
Where: n and n are the new values.
2
1
96769410 A
Remarks
*JOB
*S, ENDOV4, n2
These records are found near the beginning of the
skeleton.
number of words of
13-1
This generates a listing of the corrections.
Using this listing. the operator punches a card for
each correction card image listed.
2.
Insert the corrections from step 1 into the source
decks for those modules that have corrections. If
source decks are not available and the system has
a card punch. source decks may be generated as
follows:
Let p
Let q
COSy input device logical unit
= card
punch logical unit
E~ter
the following from the comment
Remarks
Comment Device
*JOB
Request the job processor
*CSY. In. Pq
Reassign COSY input to logical
unit r. output to logical unit q
*K.lp
Reassign standard input to
logical unit p
*COSY
Execute COSY
*z
Exit from the job processor
Mount the COSY release file on logical unit p and
ready the device. Mount the COSy corrections file
into the standard input device. Enter the following
from the comment device:
This generates Hollerith source deck images on
logical unit q with the tape on logical q rewound.
The system roesponds:
Comment Device
Enter on the comment device:
Remarks
J
*JOB
Request for job processor
*K,IlO
Input on logical unit 10
*K. Iq, P2
*CSY, Ip, Pq
Reassign COSY input to logical
unit p, output to logical unit q
Reassign the input to COSY
output logical unit
*ASSEM
Execute the macro assembler.
*COSY
Execute COSy
*z
Exit from the job processor
COSY then punches source decks in Hollerith format.
If there is no card punch in the system, let q equal
the tape logical unit so that Hollerith source deck
images are to be written to logical unit q. Use the
above procedure to write Hollerith source deck
images to logical unit q. A listing of the Hollerith
source may be obtained using LIBEDT. A source
deck may be punched from this listing.
3.
device.
device:
Punch any necessary control cards and use the
macro assembler and/or FORTRAN to process
the corrected modules, obtaining the desired
listings.
Comment Device
Remarks
Watch the listing as printed. Compare it with the
COSY index received with the COSy tapes from
Control Data. The index indicates which programs
are FORTRAN programs.
At the end of the first block of assembly programs,
the system automatically reverts to the job processor and outputs:
J
Enter:
*FTN
to execute FORTRAN.
At the end of this block of FORTRAN programs, the
system again automatically reverts to the job
processor and outputs:
J
CASE 2: NO CARD READER IN SYSTEM
At this point enter:
ASSEM
Obtain updated Hollerith output on tape. This may be
done as follows:
1.
13-2
Let n, p, and q be magnetic tape logical units.
(Logical unit q may be a pseudo tape or simulated
magnetic tape.) Mount the COSy release file on
logical unit n and ready the device. Mount the COSY
corrections file on logical unit p and ready the
Similarly alternate between FORTRAN and macro
assembler as necessary until all desired listings
have been obtained.
An error message may appear indicating mass storage has been exceeded. This is because the default
macro assembly options include load-and-go output to
mass memory. This error message may be ignored.
96769410 A
GLOSSARY
ff'.·
A
Me
The glossary is intended to assist in the communication
of facts and ideas related to information processing.
FILE MANAGER -An MSOS product for managing records
and files
In all instances, a comparison has been made to the
American National Standards Institute (ANSI) glossary to
ensure consistency with standard nomenclature wherever
possible.
FORTRAN -Formula translating system; a language
primarily used to express scientific computer programs by arithmetic formulas
ALLOCATABLE MAIN MEMORY -That portion of main
memory that can be assigned to programs by the core
allocator (i.e. SYSDAT and resident program areas
cannot be allocated). See appendix L.
AUTOLOAD -To place the resident routines of the operating system in main memory
INITIALIZER -An MSOS program that initializes the
system using an installation file
INSTALLATION FILE -The file of installation material
used to install MSOS on a computer system
LIBEDT -The library editor program
LIBILD -The library building program
BGNMON - Beginning address· of the monitor
BINARY -A program (module) in binary format
MACRO ASSEMBLER -The program that compiles
source language into 1700 machine language
statements (ASSEM)
BOOTSTRAP - A set of machine language instructions
designed to read in a program from an input device
and begin execution of that program
MAIN MEMORY RESIDENT-A program (e.g., SYSDAT,
monitor) that always resides in main memory
BYTE-A sequence of adjacent binary digits operated,'
upon as a unit and usually shorter than a word;
within the CWER .18/1700 Series computer systems,
a byte is eight bits; i. e., a byte is one~half of a
I6-bit word
MASS STORAGE RESIDENT-A part of the system that
resides on mass storage and that is brought into
core when needed by the system. Many of these
I programs are either in the system library or the
program library"
COSY -A format for compressing information in source
decks or source deck images by replacing three or
more sequential blanks with two special ASCn
characters
METHOD I-The full system installation method for
adding a product. See section 5.
CREP "":"Core resident Entry Point Table. Holds entry
points (linkage addresses) to protected programs
executed in part 1 of core.
METHOD 2 -The special installation method for adding
new products that do not require changes to SYSDAT.
See section 5.
MTUP -The magnetic tape utility program
CREP I-Core Resident Entry Point 1 Table. Holds
entry points (linkage addresses) to protected programs
executed in part 1 of core.
ORDINAL -A number that specifies the order of programs on the system library. Loosely used to refer
to the program designated by this ordinal
DEADSTART-CYBER 18-20 hardware logic that allows
execution of panel mode instructions input from an
external input device. These instructions may load
a bootstrap into macro memory and initiate its
execution.
PROGRAM LIBRARY -Library of background programs.
These can be relocatable binary or absolute (program
files) •
RPG -The report generator program
ENDOV4-End of blank common (see appendix L)
SKED -The skeleton editor
96769410 A
A-I
SORT /lVrERGE - The sorting and merging program for
file data manipulation
SYSTEM LIBRARY for MSOS
SYSDA T - The system data base that is resident at the
beginning of main memory
VERIFY -
A-2
The library of foreground programs
The verify program; part of the installation file
96769410 A
PANEL MODE BOOTSTRAP ENTRIES
B
"31m.·ei t
Bootstrap entries for 1832-4 Magnetic Tape Controller
with seven-track magnetic tape are as follows:
0822G
6846G'
9871G
0102G
0131G
1803G
0814G
D870G
6872G
686DG
6871G
09FEG
6864G
8000G
3000G
6862G
580IG
OBOOG
COOOG
0908G
5840G
·C8FBG
095EG
EOOOG
8009G
OB06G
OAOIG'
8000G
0900G
5837G
OAOIG
8000G
0900G
5833G
CC58G
582DG
582CG
D855G
CC54G
OFC2G
OFE4G
4C52G
D851G
OFC2G
5824G
D84DG
CC4CG
5821G
OFC2G
96769410 A
OFE4G
4C49G
D848G
C846G
983BG
0122G
D843G
18E9G
C83FG
OllBG
C83BG
8837G
683CG
8835G
6839G
5808G
C835G
6837G
8830G
6834G
5803G
1400G
OOOOG
OOOOG
E82AG
ODFEG
CE2EG
6E2CG
0141G
18FBG
lCF8G
OOOOG
OFC2G
OFE6G
lCFCG
OOOOG
E820G
OD08G
OB04G
OBOOG
OBOOG
ODF7G
OB05G
OA03G
6817G
COOOG
OFFFG
09FFG
OlOlG
18FDG
E812G
OB04G
B-1
AOOOG
0002G
OlOlG
18F3G
C80BG
0102G
09FEG
18FOG
OB05G
lCE5G
8480G
IFFFG
3FFFG
OOOOG
1000G
OOOOG
0480G
OOOOG
OOOOG
OOOOG
OOOOG
OOOOG
OOOOG
Bootstrap entries for 1832-4 Magnetic Tape Controller
with nine-track magnetic tape are as follows:
6819G
09FEG
6834G
8000G
2000G
6832G
5801G
OBOOG
COOOG
Ol08G
5810G
C8FBG
092EG
EOOOG
8009G
OB06G
OAOIG
8000G
B-2
OlOOG
5807G
OAOIG
8000G
OlOOG
5803G
1400G
OOOOG
OOOOG
E81FG
OD08G
OB04G
OBOOG
OBOOG
ODF7G
OB05G
OA03G
6816G
COOOG
OFFFG
09FEG
0101G
18FDG
E811G
OB04G
AOOOG
0002G
OlOlG
18F3G
C80AG
Ol02G
09FEG
18FOG
OB05G
lCE5G
8480G
IFFFG
3FFFG
OOOOG
OOOOG
0480G
Bootstrap entries for the card reader are those in
appendix C, excluding the first three lines and the final
five lines.
96769410 A
c
DEADSTART DECKS
'g
lC05G
18E2G
OFOQG
OOFFG
OOOOG
OOOOG
OOOOG
KOOOOG
J14G
K5000G
JI0G
K31200800
The following is a listing of the deadstart deck, including
a bootstrap to read from the card reader.
K71008000G
KOOOOG.
L0500G
6823G
6823G
EOOOG
0581G
COOOG
0080G
03FEG
OAD7G
68IAG
ODFEG
OBOOG
02FBG
A815G
OFC8G
6C16G·
OBOOG
02FEG
A810G
BC12G
6C11G
D810G
0829G
D80CG
C80BG
0121G
18FIG
C806G
086CG
0841G
0111G
96769410 A
A deadstart deck containing a bootstrap to read from a
magnetic tape unit consists of the following three parts.
The first symbol on each card must be in column one.
There must be one blank between each pair of characters.
1.
Initial cards:
K71008000G
KOOOOG
L
2.
Cards containing the symbols are listed in appendix B
for the 1832-4 Magnetic Tape Controller with either
the seven-track or nine-track tape, depending on
the type of installation device. These symbols may
be grouped; e. g., five lines per card, if desired.
3.
Final cards:
KOOOOG
J14G
K2400G
JI0G
K31202800
C-l
LOADING AND CHECKING A BOOTSTRAP
',itiil*
o
*
0.1 1700 COMPUTER SYSTEMS
3.
Select the P register.
4.
Set the pushbutton register to the first address to
be checked by first pressing the CLEAR button to
the right of the pushbutton register and then pressing the pushbuttons that set the address in the
register.
1784 COMPUTER
Loading
1.
Press the STOP button.
5.
Set the ENTER/SWEEP switch to SWEEP.
2.
Press the master CLEAR button on the console.
6.
Select the X register.
3.
Set the row of switches near the bottom right hand
side of the console to their neutral position. Set
the MODE switch to 32K if the system size contains
32K of memory or less, or to 65K if the size is
larger than 32K. The INSTRUCTION/CYCLE
switch should be set to INSTRUCTION. All other
two-position switches should be in the off position.
7.
Press the GO button.
8.
The data that is stored at the core address specified
in step 4 appears in the pushbutton register. To
display the next sequential words of core, press the
GO button.
4.
Select the P register by pressing the button
marked P.
5.
Set the pushbutton register to the first address in
core that information is to be entered into. Do this
by first pressing the C LEAR button to the right of
the pushbutton register to clear the register. Then
press the pushbuttons in the pattern that gives the
hexadecimal address desired. (The starting address
of the system initializer bootstraps is 0000.)
To check the address of any location during this procedure.
select the B register and the core address appears in the
pushbutton register. To resume checking the code, select
the X register and continue pressing the GO button. When
finished. set the ENTER/SWEEP switch and the INSTRUCTION/CYCLE switch to the neutral position.
1704,1714, 1774 COMPUTERS
6.
Set the ENTER/SWEEP switch to ENTER.
7.
Select the X register.
Loading
8.
Enter the code into memory as follows:
1.
Put the RUN/STEP switch momentarily in the STEP
position.
2.
Press the master CLEAR switch.
Enter the first (or next) word of code into
the pushbutton register.
3.
All other switches should be set in the neutral or off
position.
c.
Press the GO button.
4.
If there is a MODE switch (1714 computer). it should
d.
Repeat these steps for every word of code to
be entered.
a.
b.
9.
Press the CLEAR button to the right of the
pushbutton register.
When finished, set the ENTER/SWEEP and the
INSTRUCTION/CYCLE switches to the neutral
position.
be set to 32K or 65K as required.
5..
Select the P register.
6.
Set the pushbutton register to the first address in
core that information is to be entered into. Do this
by first pressing the CLEARbutton to the right of
the pushbutton register and then setting the pushbuttons in the pattern that give the hexadecimal
address desired (the starting address of the system
initializer bootstraps is 0000).
7.
Set the ENTER/SWEEP switch to ENTER.
8.
Select the X register.
Checking
1.
Press the master C LEAR button on the console.
2.
Set the row of switches to the same positions as in
step 3 above.
96769410 A
D-l
9.
10.
Enter the code into memory as follows:
a.
Press the CLEAR button to the right of the
pushbutton register.
b.
Enter the first (or next) word of code into the
pushbutton register.
c.
Momentarily put the RUN/STEP switch in the
ST EP position.
d.
Repeat these steps for every word of code to
be entered.
When finished, set the ENTER/SWEEP switch to
the neutral position.
select the X register and continue pressing the RUN/
STEP switch to the STEP position. When finished, set
the ENTER/SWEEP switch and the INSTRUCTION/CYCLE
switch to the neutral position.
0.2 CYBER 18-20 COMPUTER SYSTEM
The methods of loading a bootstrap are given in section 3.5 (cards) or 3.6 (magnetic tape). To check a
bootstrap proceed as follows (this procedure assumes
panel mode has been entered).
1.
J11G
Checking
1.
Press the master C LEAR switch.
2.
Set the row of switches to the same positions as in
steps 3 and 4 under Loading above (1704. 1714,
1774 Computers).
3.
Select the P register.
4.
Set the pushbutton register to the firf?t address to
be checked as in step 6 under Loading above (1704,
1714, 1774 Computers).
5.
Set the ENTER/SWEEP switch to SWEEP.
6.
Select the X register.
7.
Momentarily set the RUN/ST EP switch to the STEP
position.
8.
The data stored at the core address specified in
step 4 appears in the pushbutton register. To display the next and subsequent sequential words of
core, momentarily set the RUN/STEP switch to the
STEP position.
Enter:
Selects the P register
2.
Enter:
KhhhhG
Sets P to the first address to be checked (for system initiaUzer bootstrap, hhhh=OOOO)
3.
Enter:
J07G
Selects macro memory (if not already selected)
4.
Enter:
LG
Begins checking the bootstrap
5.
Enter:
G
Displays the contents of the next location
To check the address of any location during this procedure, select the P register and the core address appears
in the pushbutton register. To resume checking the code,
D-2
Repeat step 5 until the bootstrap has been completely
checked.
96769410 A
SYSTEM
INITIALI~ER
SYSTEM INITIALIZER CODES
The following defines the system initializer error codes:
Significance
Message
ERROR 1
Asterisk initiator missing
ERROR 2
Number appears in the name field
ERROR 3
Illegal control statement
ERROR 4
Input mode illegal
ERROR 5
Statement other than *y or *YM previously
entered
ERROR 6
Statement other than *y previously entered
ERROR 7
*y not entered prior to the first *L
ERROR 8
Name appears in the number field
ERROR 9
Illegal hexadecimal core relocation field
ERROR A
Illegal mass storage sector number
ERROR B
Error return from the loader module
ERROR C
Not used
ERROR D
Not used
ERROR E
Field terminator in valid
ERROR F
More than 120 characters in the control
statement
ERROR CODES
Message
E
Significance
ERROR 22
Attempt to load part 1 core resident into
nonexistent memory
ERROR 23
The name used in the second field of an
*M control statement was not previously
defined as an entry point.
ERROR 24
The entry point, SECTOR, was not
defined at the start of initialization and is
not available to the initializer.
ERROR 25
I1leg~1
ERROR 26
An attempt was made to load an *MP program when no partitioned core table exists
in SYSDAT.
partition number in the first field
of an *MP statement or illegal number of
partitions in the second field of statement
SYSTEM INITIALIZER LOADER ERRORS
Error
Significance
LOADER ERROR 1
Unrecognizable input
LOADER ERROR 2
Mass storage overflow
LOADER ERROR 3
Out-of-order input block
LOADER ERROR 4
Illegal data or common declaration
ERROR 10
Ordinal name without ordinal number
LOAD ER ERROR 5
Core overflow
ERROR 11
Doubly defined entry point
LOADER ERROR 6
Overflow of entry point table
ERROR 12
In valid ordinal number
LOADER ERROR 7
Data block overflow
ERROR 13
Loader control statement out of order Correct order is L, LP, M, MP.
LOADER ERROR 8
Duplicate entry point
LOADER ERROR 9
I5-/16-bit arithmetic error
ERROR 14
Data declared during an *M load but not by
the first segment; initialization restarted.
LOADER ERROR 10
Unpatched externals
ERROR 15
Not used
LOADER ERROR 11
Insufficient core for both SYSDA T
and paging
ERROR 16
Irrecoverable mass storage input/output
error
LOADER ERROR 12
Illegal page number used
ERROR 17
Irrecoverable loader error; last program
loaded was ignored.
LOAD ER, ERROR 13
Undefined transfer address
LOADER ERROR 14
Invalid function for loader
ERROH 18
Not used
LOADER ERROR 15
Link table overflow
ERROR 19
Not used
LOADER ERROR 16
External table overflow
ERROR 20
*S, ENDOV4, hhhh not defined before first *L
LOADER ERROR 17
Entry point absolutized to 7FFF 16
EHROH 21
*S, MSIZV4, hhhh not defined before first
*LP or *MP
96769410 A
E-I
SYSTEM INITIALIZER DISK ERRORS
Error
Significance
DISK EHROR
Address tag write sequence attempted
but internal/external rcject found
DISK FAILURE xx
Surface test operation caused error
xx. Refer to the device error codes
to interpret xx.
E-2
Error
DISK COMPARE
ERROR SECT aaaa
WORD bbbb IS
ecce SB dddd
Significance
SUrface test pattern error on sector
aaaa at word bbbb. Only one error
is listed per sector. Data read was
ecce but it should be dddd.
96769410 A
F
AUTOLOADING
1.
Press STOP.
Press MASTER CLEAR.
2.
Press the mass memory AUTOLOAD button.
3.
If the console has a MODE switch, set it to 32K or
7.
The system then outputs the name of the system (a
parameter in SYSDAT).
8.
The system outputs:
65K, depending on the size of the system.
32K MODE
or
NOTE
When using a 1733-2 Cartridge
Disk Controller, press the
MASTER CLEAR button before
going to step 4.
4.
Activate GO or RUN.
. 5.
The system outputs:
MSOS 5.0 - - PSR LEVEL xx date
Where: xx is the version number of the system.
date is the date of system release.
6.
65K MOQE
9.
If the system contains a fUe manager, it outputs:
CHECKING FILES If the files are found to be valid, the message OK
is output. If errors are found, the user is given
the option to continue or to purge all system files •
10.
The system outputs:
ENTER DATE/TIME MMDDYYHHMM
11.
If the PROGRAM PROTECT switch has not been set,
Enter the date and time in the form:
mmddyyhhmm
the system outputs:
These items are (left to right, two digits each):
month, day, year, hour (out of 24), minutes.
SET PROORAM PROTECT.
If using a 1700 Series computer system, set the
protect switch up.
If using a CYBER 18-20 computer, press ESCAPE
and enter:
12.
The system then outputs the date and time:
DATE: dd month yy
TIME: hh mm:OO
J28@
This sets program protect and reverts to operator
mode.
96769410 A
F-1
INITIALIZING DISK PACKS FOR STORAGE MODULE DRIVERS
G
M'
The following procedures are required to initialize a disk
pack for use under MSOS on an 1867-10 or 1867-20
Storage Module Drive.
1.
Format the pack. This initializes the pack with the
proper head gaps and sync patterns. It destroys
any address tag information or data that may be on
the pack.
2.
Write address tags. This sets up the sector information for each sector on the pack.
3.
Write data. MSOS requires that data initially be
written on the entire pack. A disk error occurs if
an attempt is made to read data from a sector that
has never had data written in it.
G.l PROCEDURES FOR FORMATTING
A PACK (1867-10/20)
G.1.1 FORMATTING A PACK (1867-10/20 DISK)
WITH A WORKING MSOS
1.
Enter the job processor.
2.
Enter on the comment device:
*SMDMPI
3.
The output on the comment device appears as
follows:
BoarSTRAP INITIALIZER FIRST WORD
ADDRESS WILL BE 2E90 MASTER CLEAR
AND START AT THE ADDRESS ABOVE WITH
A
DRIVE LOGICAL NUMBER
Q = EQUIPMENT CODE (OXXO) OR ZERO IF
EQUIP 14 (STANDARD)
4.
Master clear the computer, mount the pack to be
formatted, and ready the drive.
5.
Follow the instructions on the comment device.
6.
Watch the controller lights to see when formatting
is finished; i. e., when lights stop flashing, the
procedure requires approximately two minutes. On
completion of the formatting operation, both the A
and Q registers are zero if there was no error.
G.1.2 FORMATTING A PACK WITHOUT A
WORKING MSOS
A formatting deadstart deck is suppUed to the user along
with the installation materials. This deck is not to be
confused with the system initializer deadstart deck. This
deck is used in the following procedure:
1.
Mount the pack and ready the drive.
2.
Press master clear.
3.
Place the formatting deadstart deck in the card
reader.
4.
Push the RESET button on card reader to ready it.
5.
Push the DEADSTART button.
6.
The bootstrap within the deadstart deck is read into
macro memory and begins execution automatically.
7.
Proceed to step 6, section G. 1. 1 above.
G.2 PROCEDURES FOR WRITING
ADDRESS TAGS AND DATA
ON A PACK
G.2.1 WRITING ADDRESS TAGS AND DATA ON
1867-10/20 WITH A WORKING MSOS
1.
Enter the job processor.
2.
Enter on the comment device:
*SILP
carriage return
3.
The message to turn off the protect switch is
received.
4.
Press ESCAPE and enter:
J20@
carriage return
The message to enter the date is received.
5.
. 6.
Mount the disk pack to be initialized on the drive
(unit 0) and make ready.
Enter the date in the form:
mm/dd/yy.
96769410 A
G-I
The system responds with:
Q
7.
Enter:
*0,4
carriage return
10.
Press carriage return.
11.
Writing of address tags and data occurs. This
procedure requires about 10 minutes for a single
density pack, about 20 minutes for a double density
pack. At the conclusion, the system outputs a Q.
The system responds with:
Q
8.
Enter:
*G
carriage return
9.
The system outputs:
G.2.2 WRITING ADDRESS TAGS AND DATA ON
1867-10/20 WITHOUT A WORKING MSOS
Use the *G function of the system lnltlalizer during system build.
ENABLE ADDRESS WRITE -- THEN CR
G-2
96769410 A
H
END-Of-fiLE CARD
The card following an end-of-file is the first card of the
next file.
An end-of-file card (figure H-l) contains only a 6,
7, 8, 9 punch in column 1.
'-1
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11
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5555
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Figure H-1. End-of-File Card
96769410 A
H-l
SAMPLE LOAD MAP
OATE,
09/2411~
.\1 .
·S,SYS"'ON,~303q
·~,SYSClAY.~3233
·S.SYSYER.!o373f,
*5,SYSlIIL,$3130
·11
1100 MASS STORAG£ OPERATING SYSTEM - VER 5.0
.\1
·V
COPYRIGHT CONTHOl DATA CORPORATION -
.\1
·11
.1/
~~OS
1976
5.0 TEST SYSTEM 5
Oil
"Y"'.Lli:iEDT,l
"Y"'.LOADS['.2
oY"',J0i1Er.T.3
"YM.JG ... p~·n.4
·Y .... f'~OTEC.5
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O"M,.Jf'CM(;E,7
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... 'J4.14
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·Y ... [;tJ~>4Y3.28
.Y ... f'U""'Y4.c9
·Y .... LJL ..... Y~.:1(l
·,."'.lHJ ..... Yb.31
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0L
SYSTEM DATA PROGRAM
CS7f7F
SYSDAT
0000
MSOS 5.0 TEST SYSiEM 5
0L
~rAC~ ~~~UEST PROCESSOR
SPACE
l8D7
DfC~-J~ M29
MSOS 5.0
-
SYSTEM CORE PESIDENT
SUMMARY-110
~ROGRAMS
~ONITOR
-lP
NMONI
BH3F
~[)ISP
HIi>i2
FI'"
FlA30
BADE
fiAEF
BAFA
BRbi:l
Ti4
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PMoiAME
COMMON
NIPHOC
ALVOL
Of VOL
ALCOk£
Bfi~F
Be31
BC4E
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OtO~E
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t--JC"'P~Q
MAK(.I
ArlEV
TMINT
OTIMER
96769410 A
SUMMARY-I04
C14~
C2MB
C340
DECK-IL> MI0
DECr(-IU 058
DE.CK-ID M(lQ
DEC~-ll.J 1'120
DECK-IO M04
O£CK-ll) 1'103
DtcK-IlJ 0~5
DECK-It) 10412
LECI(-IO M16
DfCK-lD MIS
D£CK-lU 1'117
OfCK-IU 057
OEC~-JU 0'j6
DECK-JU M21
DECK-ID "'20
DECK-lU 10408
DE CK- II.J H2?
DtCK-lU "'06
D~C~-ID M05
MSOS
MSUS
104505
104505
M50S
M50S
MSOS
I~S05
MSOS
Io4S0S
MSOS
MSOS
MS05
MSOS
MSOS
104505
MSOS
1450S
MS05
5.0
!:I. 0
5.0
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5.0
S.O
!:I.CI
SUMMARY-110
SUM MJlRY-110
SUMMARY-110
~.O.
SUM~'''RY-110
SUMMA~Y-110
~.O
!:I. 0
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5.0
SUMM~RY-1I0
SUMM>4RY-II0
SUMt-IAI-IY-110
SUMMARY-110
SUMMARY-IIO
SUMMARY-110
SUM,..AI-IY-110
SU"tMARY-lIO
~.O
SU'MM~FlY-110
5.0
5.0
5.0
SUMMARY-lIO
SUMM"I-/Y-IIO
SUMMARY-110
SUMMAHY-llO.
SUMMARY-IIO
~.O
5.0
I-I
O~CI\-10 M2S
MSOS ~.O
C31:>F
OECK-IO M07 MSOS ~.O
C3f:!t
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OEBuGGIr-.;G I CHECtl.OuT
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C~[)5
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fll,,331
C77E
OECK-IO CA." PEPI~H. D'-IVERS
FILE MANA('[H
CflOl
O~ CK-IO FOI
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FILE MANA(,ER
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DECK-I!J F02 FILL I-iAf.;AGER
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DECK-II.> Cf17 PERIPH. OI-iIVERS
CM:; PERIPH. lJ~IVEHS
071'2
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0ECK-ICi Cf!4 PERIP';. [)RIVEPS
~""DIOA
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DECK-ID C90 PERIPH. DRIVERS
OPSUSK
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FORTRAN COMPILER VERIFY TEST PROGRAM
M
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AI
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#".S,WafbifeHS;W
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OPT LXCO
C
C
C
C
P~OGRAM fTNMAY
M50S VERIfICATION TEST COMPILER SOURCE PROGRAM
1700 MASS STORAGE OPERATING SY5TE~ VERSION 4.1
SMALL COMPUTER DEVELOPMENT DIVISION. LA JOLLA. CALIfORNIA
COPYRIGHT CONTROL DATA CORPORATION 1975
C
C
C
C
THIS PROGRAM IS DESIGNED TO EXERCISE
THE fORTRAN COMPILER AND IS NON-EXECUTABLE
fTNTST VERIfIES LIST AND BINARY OUTPUT Of fTNMAY COMPILATION
C
C
C
EXTERNAL STATEMENT
C
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C
C
RfLATIVE STATEMENT
C
c
C
R~LAT1VE
TYPE
RELl.REL2.REL3.BL~OAT
STATE~ENT
C
AINTl.BINT2.CINTJ.GINT7(SI.HINTS,
lIINT9.JINTlO.fINT6
I~TEGER
~fAL
o
AREALl,~REAt2.CREAL3(3,3),IREALl,JREAL2.
lKREAL3 (9)
DOUgLE PRECISIO~ MDBLl.NDBL2,ODRL3.PD8L4(J,S).
lO~8LS.RD8L6.SDaL7.TDBLS(2.4).UDBL9,VDBLI0,WDBLll
SINGLE
DI~T4.EINTS.~INTll
C
C
C
DI~ENSION
STATEMENT
OtMENSION LINT12(S),QDBLS(2.3.4).AINTIlIO).
lAREAL1(J.4).fINT6(5)
C
C
BYTE AND SIGNED BYTE STATEMENT
C
BYTE (fINH"LINTl2(1l (13=6) I
SIGNED BYTE (HINTS.GINT7 (3) (7=0) I
C
C
C
COMMON STATEMENT
COMMON ILA8EL/AREAL1.EINTS.MINTIJ(l2),P4BL4
COMMON ILARF.L/HREAL8.WDBLll
COM~O~ IIBREAL2(2.2.2).BINT2,ODBL,
COMMON AINT1.VDALIO(lOI,EREALS
C
C
DATA STATEMENT
C
o
c
C
DATA (GINT7(J).J=1.5)/$FDB9,$DB97,$B975.S9753,S7S311
DATA «(CREAL3(I.JI.I=1.31.J=1,3)/3567.508.1.2.
15?86.J2S4.98.6.110.9.0.0000S0 •• 1.10S6.3219.J6S00000.0 I
DATA MD8Ll/34S.67D-OJ/.N08L2/.34S670+S/,
l008L3/34S67.D-OSI
E~UIVALENCE
C
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EQUIVALENCE IAINTl (61.LINT'l2(1l I, (MDBLl.NDBL2)
C
C
C
STATE~ENT FUNCTION,INTRINSIC fUNCTION.F.XTERNAL
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C
c
C
C
10
20
MYFUNC (I.J.DREAL4.EREALS.RDBL61 =
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2+ALOG(OREAL4)-SORT(J)+FTNFCN(DREAL4.EREALS,fREAL6,BINT2,CINTJ,
3AINTl(S»
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STATEMENT
I = LINT12Cl)+LINT12(2)-LINT12(3)oBREAL2(1.2,11/.OOS
1 00 2
WQqLll = (TDQL8(2.21*(I/S)+36S.S68)/LINT12(3)002+HYfUNC(I.
IJ.OREAL4,EREALS.R08L6)
C
C
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C
C
30
96769410 A
LOGICAL If.RELATIONAL EXPRESSIONS.UNCONDITIONAL GO TO,
LABLED ASSIGNMENT.SUBROUTINE CALL. fORMATTED WRITE.STOP,
LOGICAL EXPRESSIONS.PAUSE
IF (I.EO.LINTl2 (4)) GO TO 40
T-1
40
50
60
70
SO
90
C
C
C
500
600
700
800
900
C
C
C
I~ (I.NE.LINT12(4)) J = I-I
IF (LINT12(5).GT.J) ASSIGN 800 TO IFORM
IF rJ.GE.I) CALL FTNSU8(25.AREALl.~DBL1)
IF (J.L~.I) WRITE (4.600)
IF (J.LE.AREALl) STOP 6
IF (.NOT.(I.EO.LINT12(4».AND.(LINT12C5).GT.J).OR.
1(J.LT.3)) PAUSE 7
FOR~AT
STATEMENT
FORMAT (1ISFIO.5.EIO.2/lSDII.7.JCIlO.S4).2Zl,2A2,Rl/)
FORMAT (lHO.22HREPLACE THIS STATE~ENT.5X,
I-COMMENT 'l' •• 'COMHENT *2*')
FORMAT (IS)
FORMAT (lHl.f6.4)
FORMAT (/017.10)
RELEASE
STATE~ENT
CALL RELESE (FTNMAY)
C
C
C
END STATEMENT
E~O
OPT LXARCOV
SURROUTINE fTNSU8 (I.LREAL4.XOBL12)
HSOS VERIfICATION TEST COMPILER SOURCE PROGRAM 2
1700 ~ASS STORAGE OPERATING SYSTEM VERSION 4.1
S~ALL COMPUTER DEVELOPMENT DIVISION. LA JOLLA. CALIFORNIA
COPYRIGHT CONTROL DATA CORPORATIO~ 1975
C
C
C
C
C
C
C
C
C
C
1
o
C
C
C
50
55
60
65
70
C
C
C
C
C
C
75
so
C
C
C
THIS NONEXECUTABLE SU8PGM. IS DESIGNED TO EXERCISE THE COMPILER
~T~TST VERIfIES LIST AND BINARY OUTPUT Of FTNSUB COMPILATION
RFAL tREAL4
DOUBLE PRECISION X08L12
SINGLE I.IRUf(58).IDAT(J,.INUM.ITEMPCS)
DATA (loAT(I).I =1,J)/S002J~SFfFE.SOOIA/,INUH/51
SETBfR,FORMATTED ·WRITE.IOERR,IRWERR
CALL SETBfR (IBUf.5S)
WRITE (I.IOO)(IDAT(I).I=I,),INUH
IF (IOERR(O).EQ.-l) GO TO 50
JfRROR = IR~ERR(O)
CHARACTER CONVERSION
CALL
CALL
CALL
CALL
CALL
CALL
CALL
~EXASC(I.IRUf(l»
HEXOECCI.IRUf(l»
ASCII(IBUf(I).I)
OECHEX(IRUf(l).I)
AFORM(IBUf(l).IoAT)
RfORH(IBUFCl).IDAT)
fLOATG(LREAL4.IBUFCl»
INPUT/OUTPUT
CALL
CALL
CALL
CALL
OUTIHS(IDAT)
INPINS(IOAT)
ICONCT(IDAT)
OCONCT(IDAT)
FORTRAN/MONITOR INTERFACE
If LAG = SOOII
ASSIGN 75 TO ICOMP
CALL FWRITE (SlSfB.IBUfCl).40,ICOMP,IFLAG,ITEHPCl»
CALL nrSPAT
CALL SCHEDL (SO.SI,I.ITEMP)
CALL DISPAT
CALL TIMER (1.S21.S.ITEMP)
CALL DISPAT
N = LINK(O)
K
ICLOCK(O)
=
EHCODE/DECODE
ASSIGN 99 TO IFORM
CALL ENCODE (IBUf.IfORH,3,IDAT)
If LAG = DECODE CIBUF.IFORM.J.IDAT,
RFTUR~
99
100
OPT
C
C
C
C
fORMAT (13)
fORHAT (/JIZ,10H TERMINAL ,I2,11H TERMINATED)
ENO
.
LX~VC
R€AL fUNCTION fTNfCN (Al.A2.A3.Il.I2.I)
MSOS VERIfICATION TEST COMPILER SOURCE PROGRAM J
1700 ~ASS STORAGE OPERATING SYSTEM VERSION 4.1
SMALL COMPUTER DEVELOPMENT DIVISION, LA JOLLA, CALIFORNIA
COPYRIGHT CONTROL DATA CORPORATION 1975
C
96769410 A
C
C
THIS NO~EXECUTAALE SUSPGM. IS DESIGNED TO EXERCISE THE COMPILER
FTNTST VERIFIES LIST AND BINARY OUTPUT OF FTNFCN COMPILATION
SINGLE LENGTH.BUFFER(SOI.ITEMP
C
C
ASSEM~LY
17
ASSEM .IS.5CBFE.S6400.+Il.S6400.ITEMP
ASSEM .16.554F4.*.S0901.*17.S0.S0BF9,*(LENGTH).*BUFFERC1)
CONTINUE
C
C
C
C
CODE.CONTINUE STATEMENT
ASSIGNED GO TO.COMPUTED GO TO
GO TO I3.(20.30.40.S0.60)
GO TO (20.30.40.50.60).12
C
C
ARITHMETIC IF
C
20
IF (AliA2) 30.40.50
C
C
PAUSE STATEMENT
C
30
C
C"
C
40
PAUSE 30
DO LOOP.UNFORMATTED READ. UNFORMATTED WRITE
58
59
00 45 J =1.50.1
Rf.AD (I) (BUFFERII). I =1.50)
WRITE (3) (BUffER(I). I =1.50,1)
CONTIWE
0059 M =12.1.-1
DO 58 N =1.20.5
A3 =FLOAT(M+NI+A3
CONTINUE
CONTINUE
C
C
OPEN MASS STORAGE FILE
45
50
C
60
C
C
C
70
C
C
C
C
C
C
OPEN 2.1.200.B.1
FORMATTED READ ANO WRITE STATEMENTS
(6.2001 (BUFFER(II,I=I.501
WRITE (B.200) (8UFFER(I),I=1.S0)
R~AO
TAPE CONTROL.BACKSPACE.ENDFILE.REWIND
BACKSPACE 6
ENDF"lLE 6
REWIND 6
FUNCTION VALUE RETURN
FTNFCN
RnURN
A3+A1/FLOAT(BUFFER(2011
C
F0RMAT (SO(IX.I211
E"JD
OPT LXKVCO
"SLOCK DATA
C
MSOS VERIFICATION TEST COMPILER SOURCE PROGRAM 4
C
1700 MASS STORAGE OPERATING SYSTEM VERSION 4.1
C
S~ALL COMPUTER DEVELOPMENT DIVISION, LA JOLLA. CALIFORNIA
C
COPYRIGHT CONTROL DATA CORPORATION 1975
200
C
C
C
o
T~IS NONEXECUTA8LE SUBPGM. IS DESIGNED TO EXERCISE THE COMPILER
FTNTST VERIFIES LIST AND HINARY OuTPUT OF BLOCK DATA COMPILATION
CO~~ON IENTER/A.C.D.I.K
DT~ENSION A(41 .B (41 ,C (51.0 (21. I (3) .J (31.K 121
EQUIVALENCE (A.8), (I.J)
"
DATA A( 1 I ,A ( 2) ,A (3) • A141/1. 1 .2.2. J. 3.4. 4/, C Cl I • C (2 I ,C (3 I • C (4) • CIS I
*/l.l.2.2,3.3,4.4.5.5/.DI11.De21/1n.1.10.2/.I(1),Ie21.I(3).KI1I.
*1«21/1.2,3.4.51
ENO
MON
*U
96769410 A
T-3
u
RPG COMPILER VERIFY TEST PROGRAM
bB¥*',
..
9
**
PPG II COMPILER
01101
on02
01)03
0~~10
01'05
01106
0~07
01)08
OC09
01)10
C(lil
0'112
0:)13
F·······································.·············......................
r·
rFrrrrrFF-
r-
onl5
01116
onl7
r-
O~I~
cn~)
on;>10
on25
0~26
01'.27
01173
o~n
CI1)O
00) I
0')32
OC33
00310
0';)0;
0~:!6
01'37
on3~
BCHART
F'IRST CO~PILEO 08/07/76.
GIVEN STATISTICS LISTED BElOit, JOB PREPARES BIORHYTHH CHARTS rOR
ANY NUHBER or PERSONS WITH ACCOMPANYING DOCUMENTATION rOR rACH.
PREPARE INPUT CARDS FOR EACH PERSON TO BE CHARTED AS rOlLOwS ••••
CARD COLUMNS DESCRIPTION
F-
on:,.
nll19
0020
0071
0'122
PAGE 0001
H
F-
01
33
41
47
NA"IE OF PERSON TO BE CHARTED.
OATA or BIRTH ",,,,OOYYYY.
CHART BEGINNING ,..ONTH AND YEAR MHYYYY.
NUMBFR or MONTHS TO BE CHARTED NNNN.
- 32
- 40
- 46
- 50
r··························.······.·· .......· ....· .........................
fr-
frDATACARDIP
rREPORT 0
E
E
E
r
r
80
96
E
E
E
E
·E
E
E
E
E
IDATACARDlA
I
I
I
I
80
2
96
2
MON
12
HCNT
12
PT
20
·ET
20
IT
20
OOC
1
LIN
PHY
E"IT
INT
Co
TyPE
foolrCUI
"RINTER
12 4
12 2 0
23 4
28 4
33 4
79 76
62
1
4
31
4
31
4
31
8 2 0
8 3
0""5
OG46
Oil!. 7
01146
0~4q
O~SO
on51
00S2
0.)53
O~'i:'
0055
1
33 . 340~HONTH
340~
33
35 360ROAY
39 400AlY
37 400'lYEAR
420CHONTH
41
'~---.
CS~
oo,r,o
01)61
Ol'\,r,~
00,r,9
0070
0071
00 7 2
007)
0074
0"75
on?,>
01\77
~n7ll
01l7,)
OI)~O
CSQ
CSR
CSR
CSR
CSR
CS'l
CSQ
CSR
CSQ
CSR
CSR
CSR
CSQ
CSgNB8
CSQNB8
CSQ 89
CSQ 88
CS~ 94
CSR
CSR 10
CSQ 07
CSR 08
CSR 09
CS'l 10
00'11
on"2
01A)
CS~
oe""
RPIj II COMPILER
96769410 A
END
DOCSR
oocu
CS~
onsq
01)62
0163
en"4
01)65
0(1"'6
OOf,7
NOI
CSR
0~S9
88
PAGE 0002
41
45
43
47
CS~
CSQ
csg
CSR
O'lc::,r,
onS7
CO"O
00101
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00 .. 3
00 .. 4
004S
0046
00 .. 7
0048
0049
32 NAME
1
I
I
I
C
C
C
C
CSQ
CSR
OC33
0:134
0035
0036
OJ37
OOH
0039
01
00)9
on40
1
I
011"1
0.142
1
g;>G II COMPILER
0'143
on44 .
.-
zy
zy
zy
ZY
YZ
yz
06
420C
460CLY
460CYEAR
SOOltMONTH
89
Fl~GSR
TAG
~ovElOOC. YZ
~Oc.Yz
"'Ollf
CC-"" I
co«? 2
I:O"'P J
("0"';> 4
fXCPT
A:)O
I
CC"'P 80
(,0,0 OOC"l
sETor
SFTor
30
YZ
lINE
ZY
20
75
10
02
03
04
05
Co~~
0070
con
YZ
06
0072
0073
0074
0075
0076
0077
0073
0079
0080
0081
020304
05
p~:;s~
C~RTSR
BlY
BYEAR
~EGS~
l-AOOO
Z-ADOO
sETOr
SETO'
OIV 4
,",vR
nIV 400
"V~
BMONTH
BYElR
BMONTH
fAGOI
(O"'P
CO'lP
CO .. P
GOTO
GOTO
GOTO
GOTO
TAG
2
CYEAR
C.. ONTH
TAGOI
TAGO!
TAG2)
TAG08
OOS[)
OOSI
CCSZ
0053
0054.
0055
OOS!>
0057
0056
0059
OO!>O
0:161
C062
0063
0064
0065
0066
0067
O:11,a'
GOTO END.
EXSR OOCSR
(XSR CrlRTSR
TAG
SETo;
Z-:'OOI
0005
0006
0007
0008
0009
0010
0011
0012
0013
0014
0015
0016
OH7
0019
0019
0020
0021
0022
0023
0024
0025
0026
0027
0028
0029
0030
0031
0032
T"IONTH
WORK
40
50
TEST
LEAP
TEST
lEAP
40
40
070809
109294
00~2
94
oe63
0094
OC85
94
92
090710
090810
OC3~
PAGE 0003
0087
0088
0089
0090
0091
0092
0093
0094
U-1
CSR
CSR
CSI?
CSI? 92
CSI?
CSR
CSP 81
CSI?
CSR Clio
CSR 08
CSI? 08 85
CSR 08 85
CSR
CSR 92
CSI?
CSR
C51?
CSR
CSR
CSR
CSq
C5R
CSPN96
C5RN96
CS~ 96
CSR 96
0055
00"6
011117·
OOM
onR9
ooqo
0091
OOQ2
0C'l93
0(191.
0095
0096
01'197
00911
0099
0100
0101
0102
0103
01010
010S
0106
0107
0108
0109
0110
CS~
0111
CSR 95
0112
CS~
0113
CSR 94
0114
CSI-!
0115
C5R
0116
CSQ
0117
CSR
0118
C51?
0119
CSI? 94
0120
CSR
0121
CSR 82
0122
CSR
0123
CS~ 92 94
0124
CSR
OPS
CSR
0126
QPG II COMPILER
CSR
CSR
CSRN92
CSQ 92
CSR
CSR
CSR
CSRNI0
CSRNI0
CS>lNI0 23
CSRNI0
CSR 10
CSR 10
CSR
CSR
CSR
CSR
CSR 71
0127
OHII
0129
0}30
01 Jl
0132
0133
0114
0135
/1136
0137
01311
0139
0140
01101
01"2
OI"J
0144
0145
0146
0147
0148
0149
0150
01'.)1
0152
01«;3
01'.)4
0155
0156
01<;7
015"
0159
01"0
0161
0162
0163
0164
0165
CS~
01~6
0167
0168
QPG
0169
0170
0171
0172
0173
0174
017'.)
0176
0177
0178
0179
0180
U-2
It
CSR
CSR 24
CSR
CSR
CSRNI0
CSRNI0
CSRNI0 28
CSRNI0
CSR 10
CSR 10
CSR
CSR
CSR
CSR
CSR 71
CSR
CSR
CSR 29
CSR
CSR
CSRNI0
CSP.Nl0
CSRNI0 33
COMPILER
CSRNIO.
CSR 10
CSR 10
CS~
CSR
CSR
CSR
CSR 71
CSR
CSR
CSR 34
CSR
MCNT."
WaR I<
WORI(
TAG02
M
M
H
M
WORK
WORK
WO~K
TAG03
TAGOIo
TYEAR
TlY
TYEAR
TYEAR
TYEAR
1101<1(
WORI<
TAG05
TAG06
H
H
M
WORI(
WORI(
TAG07
,",avE
SUB
ADO
AOO
TAG
CO"lP
GOTO
ADO
CaMP
CO .. P
ADO
(jaTO
ADO
SHONTH
BOA'I'
1
1
"
0095
0096
0097
0098
20
WORI<
WORt<
WORK
009~
12
TAGOJ
1·
2
CMONTH
1
TAG08
MCNT .M
jlt)!)
1
GOTO TAG02
TAG
Z-AOOBYEAR
SETOF'
TAG
ADO
1
"aVE TYEAR
CaMP 00
OIV 4
MvR
DIY 400
MYR
CaMP cYEAR
GO TO lAGOS
AOO
ADO
GOTO lAGillo
TAG
7-1.000
HG
ADO
1
c:O"P 2
CaMP C"ONTH
GOTO TAG07
AOO .. CNT ....
ADO
I
(jOTO TAG06
TAG
,,, ..
0100
0101
0102
OIOJ
01010
010S
0106
0107
0108
0109
0110
0111
0112
0113
01110
011S
.0116
0117
0118
0119
0120
0121
0122
0123
81
M
92
85
WORI<
WORK
WORK
TYEAR
40
9294
TYEAR
flY
20
96
TEST
lEAP
H:ST
lEAP
94
94
9S
WORK
WORK
~\~;
H
104
92
82
WORI(
WORK
PAGf; 0004
IIO~I(
TAG08
ADO
TAG
WORI(
~OVE MCNT.C
'40Vf; 29
M!:TEST
METEST
PHY
~avE
WaR I(
AOAY
TAG09
0
0
P
P
P
TAGI0
"ORI(
BOAY
TAG 11
0
0
E
E
E
TAG12
WORI(
MOVE
"aYE'
I',V 23
"vR
Z-A0023
1-AOOO
Z-AOOI
1
TAG
'1)0
1
t.40YE PT.P
CO"lP HE TEST
C;OTO TAG10
ADO
1
COI4P 23
SUB 23
(;OTO TAGOq
TAG
OIV 28
,",VR
Z-A0028
Z-4000
Z-AOOI
o;UB 1
TAG
ADO
1
,",DVE [T.E
CO"lP ,",ETEST
GOTO TAG12
ADO
1
CO,",P 28
SUB
28
GOTO TAGH
TAG
OIV 33
to4VR
Z-AOOJ3
sua
20
E~T
INT
HASH
P
P
0
P
0
50
20
01"~
23
23
0149
0150
0151
0152
0153
0154
0155
015!.
0157
0159
015:;1
0160·
0161
0162
0163
0164
0165
0166
0167
0168
0169
0170
0171
011Z
0173
0174
0175
0176
0177
0178
20
0
PHY.O
71
P
24
P
HASH
E
E
0
20
28
28
E
0
0
EMT.O
71
E
Z9
E
HASH
I
I
017~
20
l3
33
PAGe: 0005
7-'000
BOAY
TAG13
0
0
7-'001
SUA
TAG
AOr)
MOY[
COI4P
GOTO
ADO
COMP
!;Uq
C;OTO
0
I
I
0
1
0
n.1
METEST
TAGI4
1
33
33
TAG13
0126
0127
012a
0129
0130
0131
0132
0131
0134
0135
0136
0137
0139
013:;1
01 .. 0
0141
0142
014)
0144
0145
011,6
0147
INT.O
71
34
0180
0181
0182
0183
018lo
0185
0186
0187
018a
0189
0190
0.191
0192
0193
0194
0195
96769410 A
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSRN77
CSR 77
CSR 77
CSR 77
CSR
CSR
CSR
CSRS71
CSR 11~18
CSR 71
CSR 77N71i
CSR
CSR
CSR
OIRI
0lA2
OIA)
0184
0lA5
O!M
0181
01R8
01'19
0\90
0\91
0\92
019)
0194
0\95
0196
01'17
01<,;11
01'l9
0700
o:>n
0;>02
0;>0)
C704
0705
0;>06
0;>01
0;>01)
0709
0710
RPG
CS~:o./11
II
CSR 77N78
CSR 11
CSR 11N78
CSR 78
CSR
CSRN7Z
CSR
COMPILER
0711
0212
0;>13
0;>14
07\5
0716
0211
0711\
OZ19
ono
0:>21
0?;>2
0723
022"
072:;
0226
on7
O?:?q
0;>29
0730
0231
OZ)2
0713
07310
02)5
0:>'6
0;>:>7
onH
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR 11
CSR 12
CSR
CSRN7Z
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR
CSR 11
CSR 11 99
CSR llN9q
CSR 12·
CSR 12 98
CS~ 12N98
CSR
0739
0(,40
OZI.1
0=?1.2
021.3
071.10
CS~N72
0;>1.5
CS~
0;>4.6
CSR
0747
CS~
0;>108
CSR
0749
CSR
CSR
0?50
CSR
0;>51
CSR
0252
RPG II COMPILER
0753
07<;4
0;><;<:;
0;><:;6
O;>q
075'1
07!'9
0<,1,0
0;>61
0;>1,2
0;>"3
OZ64
0:>65
07"'1,
0;>1,7
071,11
0?69
0270
0;:>71
0772
077)
0774
0;:>75
0;>76
/)?77
Ond
96769410 A
TAG14
TAG15
0
TL
TR
TL
TR
TAG
I-ADD I
Z-AOOO
TAG
ADD
1
MOVELPHY,O
"OVE PHY,D
CO'IP 17
CO~P 17
"::lVE 0
MOVE ,p
SfTON
MO'/ELEI4T .0
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CO .... P 11
r.O"'P \7
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TL
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X
0
.
ro>,i
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CI)"P ]7
CI)'1P 17
"G'/E I)
..... OyE '1'
C;ETON
AOD
1
CO"4P METEST
GOTO TAGI5
SETON
X
20
019t.
0197
019d
0199
0200
020 I
0202
07.03
020:.
C2e5
78
0
0
TL
TR
20
20
77
77
CO.X
TYPE.X
02~~
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'EEEE - E EMOTIO'lAL'
' I I I I - INTEllECTUAL'
••••• - 2 CYClES CROSS'
••••• - 3 CYClES CROSS'
.CRITICAI OAY'"
33 ••••••••••••••••••••••••••
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BIORHVTH"4IC
THEORY
BIOR.iYT'l'4IC THEORY HOLns TH4T fROM THE MO"4ENT OF BIRTH. OUR PHySICAL.
E"IOTIO'-jAL A"a INTELLECTUAL ENERGIES CAN BE CHARTEa AS F'lXEa.
REPETI TI VE CYCLES.
A.
P'lYSICAl CYCLE
T~IS IS THE SHORTEST CYCLE. BEING 23 aAYS IN aURATION.
IT IS
SAID TO AFfECT THE" PHYSICAL CHARACTERISTICCS OF MAN - STRf"lGTH.
E"ERGY. ENDURA"ICE. RESISTA"ICE. ETC.
B.
E"'OTIONAL CYCLE
TIiIS CYCLE IS 28 nAYS lONG ANn CONTROLS THE SUTE OF "'AN'S
E~OTlONS. "10005. SENSITIVITY. MENTAL STABILITy AND CREATIVITY.
II COMPILER
I.
INTELLECTUAL CYCl".
2
TIiIS LONGEST CYCLE. BEING 13 OAYS IN LENGTH. CONTIlOlS THE
2
CONCt:NTRAHO"l. RESPO:-lSIVENE:SS. AND OTHER FUNCTIONS OF
2
THE 1011"0.
2
EACH CYClY 15 DIIIIOEO I"ITO TIilO PARTS.
THE FIRST H"Lf IS USUALLY
3
CALLED TIiE HIGH CYCLE. ALSO ACTIIIE OR POSITIVE CYCLE. DURING THIS
2
HALF OF TIiE CYCLE. THE PHASES ARE SAID TO BE DISCHARGING.
If IT IS
2
THE PHYSIC&.L CYCLE. \olE ARE ACTIVE. EMOTIONAL. M()RE ENH'USlASTlC.
2
INTELLECTUAL. ABLE TO A~SOR9 NEW MA TERI AL.
IN THE SECO'lD ... ALf. KNOWN 2
AS THE LO •• PASSIVE OR NEGAT IVE PHASE. THE CYCLES ARE RECHARG I"JG.
2
EACH CYCLE TAKES THE OPPOSITE CHARACTEI:1ISTIC OF THE HIGH PHASE. THIS 2
IS NOT A ClAD PERIOD IN ThE CYClfS.
SI-jCE THE CYCLES AI:1E DIFFEI:1ENT
2
lENGTH". THEY .dlL £iE IN OIFFEi;ASES ON A GIVEN DATE OR T'lE CYCLE2
WILL BE ON T'"fE L1~E flETwEE'l PHASES. THIS OCCURS T~ICE. ON THE FIRST 2
DAY A~:1 IN TtiE MI01LE OF EACH CYCLf..
THESE DAYS ARE CAllED THI'"
2
CCITICAL DAYS.
IT IS 1)1/ TtiESE OAYS THAT THE CYCLE IS PASSING fROM
2
POSITIVE TO t.£GATlVE OR VICE VfRSA A"40 THE CYClf. IS IN flUlt.
ON
2
TI1ESE O~YS. OU::? REACTII)/jS TO EVENTS t.PQU·.D US M~Y NOT fiE NORMAL.
2
II-IDUSTP!AL STUJIES hAVF S'"fC:oIN ;H4T 60~ <)I' INDUSTRIAL ACCIDENTS
3
CCCl'""ED 1j~1 CRITICAL DlYS. ALTHOUG>; CilITICAl DHS R£PRESENT OIllLY
2
2ei!) OF OU" (lAYS.
IF ACCICE\:TS "ERE EIIP.l.Y OISTRItluTrD THKOUGH~UT
2
OUG LIvfS. O';LY 20~ Sl-f'lI;LD OCCLlR ON CIlITICAL DAYS.
IN OTHER WoKOS. IT2
IS TI1~f.E TI~ES UO~f LIY-F.lY FOR AN ACCIDENT TO OCCUR ON A CRITICAL DAY 2
AS 0111 .i NO'l-CRtTICAl DAY.
2
II. HISTORY
"
THOUC:·H wORt( ING I NOEPEN11F.NTL Y. OR. HI:':RMANN SIiiOROOA. A PROfESSOR OF
2
PSYC",OLOljY AT THE U'/IvC"Q51Ty Of VI"''1NA. ANI) OR. wilHELM fLIESS. A
2
NOSE A"IO TH~i)Ai SPF.CIA1.:ST IN "E~L1N. nISCOVE:~Fn Tti;!:: PHYSICAL AND
2
E"'OTIO'l'l CYCU:S.
["I THE IQ20S. ALF~EI) TELTSc,",,,,R. 'AUSTRIAN OOcTO~
2
OF E',Gh€E-PO;{T IN IIASHIII:C;TON. n.C. CUT ACCIDE~ITS
2
AY "IILf OYE::? A O',E Y£"''' PE,'AI.Y 1'1 T'lIMl HAS HEPORTED A 50"' REDUCTION IN ACCIDENTS.2
III. USES
'
I
THE F'IQST USE. OBVIOULSY. IS TO DETER!04INE THE CCUTICAL DAYS IN EACH
2
MONTH A~D TO TAKE CAllE TO BE MORE CAREfUL THEN IF' ANY DAY IS A
2
PAGE 0011
II COMPILER
M~HOHY.
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OOURLE OR TRIPLE CRITICAL DAY. THAT IS. TWO OR THREE CYCLES CROSSING
T~E LI"E AT THE SA .... E TI~E. ADOITIO"lAL CAI:1E SHOULD BE TAKEN.
SECOND. wE CAN OBSEHIIE HO. THE THREE CYCLES FALL DURING THE HO'JTH.
HlljH 01:1 LOIt. WHEN POS"IBlE. USE THE HIGH PHASE TO OUR ADVANTAr.E AND
BE AIIARE OF THE LOW PHAS'CS. fOR EXAMPLE. THE LOIt PHASE OF THE
IIIITELLECTUAl CYCLE .... Ay NOT AE THE BEST TIME TO START A "lEW PROJECT.
IT ~AS AEEN OBSERVED THAT RAlliES CO'lCElIIED DURNWG A PHYSICAL HIGH
101 ITH T"'E EMOT I O.. AL CYCLE lOll HAVE USUAlL Y B~EN 'lOY5.
WHEN THE
O?"OSITE OCCUR.:lEO. f~OTIO"AL CYCLE HIGH AND PHYSICAL LOll. IT HAS
81;:£"1 A r,IRL.
BOTr1 HIGH OR lOIil HAS BEEN UNPREDICTABLE.
HO-EvEq. BIORHYTHM CHARTS ARE ONLY A GUIDE AS TO HOW YOUR CYCLE'S MAY
BE wnHI(!NG.
IT IS NOT PHEOICTHIG FACT.
THEY MIGHT BE COMPAREn TO A
ROAD "'AP.
IT SHO.S TOU .. OW TO GET TO A GIVEN POINT BUT CANNOT
PREDICT 'tHAT ilill ACTU~LLY HAPPfN IF YOU TAKE A GIVEN ROUTE ALnNG
THE WAY.
ANALYSIS OF THE CHART
0"1 jHE RIGHT HA"'D S I DE OF THE CHART. THERE I S A LEGEND TO DENOTE THE
Tti;{rE CYClrS ON THE GRAPH,
If THE CYCLES GROSS OR ARE IN COMPLETE
PH:' SE WIT "1 O"lE ANDTHEH. A'.' OR •
IS USED. IlELOW THAT. THE
CRITICAL DAYS FO~ THE "'ONTH ARE LISTED wITH A LFTTER. P fOR PHYSIC"L.
THI S TELLS YOU
E FOR E~OT I ONAl. OR I FOR INTELLECTUAL. TO THE RIGHT.
~HAT CYCLE IS CRITICAL THAT DAY.
IF THERE &.RE 1.0 OR THREE LETTERS
T~ERE. THIS IS A OOUIllf OR TRIPLE CRITICAL DAY.
REVIEW THE CHART 'TO
DETERMINE YOUR HIGH AND lOw PHASES FOR THE HONTH
o.
2
2
3
2
2
2
3
2
2
2
3
2
2
2
2
4
2
2
2
2
2
~
2
2
1
THE F'OLLOWING IIIIDICATORS APpEARED IN THIS PROGRAM
01
23
72
99
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03
28
78
04
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81
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0
0515
0516
0517
0518
0519·
0520
0521
0522
0523
0524
0525
0526
0527
052!!
0529
0530
0531·
0532
0533
0534
0535
0536
0537
0538
0539
0540
0541
0542
0543
0544
0579
0519
0580
0581
0592
05!!3
05!s1o
0565
0586
96769410 A
MACRO ASSEMBLER CODE FORMAT
i_SSE
'Wi
¥&!he-Meilep. 4M!MI§¥**
5'
Macro assembler format consiBts of four fields: the
location field, the operation field, the address field, and
the comments field.
Location
96769410 A
Operation
Address
v
Comments
The total width of all four fieldB combined iB 72 columns.
Each field can be any length. A blank signals the end of a
field. : The next nonblank character begins the next field.
An aBterisk in column 1 indicateB a comment Btatement.
PreBBing LINE FEED, RETURN on the operator'B conBole BignifieB the end of a statement entered from the
console. The end of the card Signifies the end of a Btatement for card input.
V-I
INDEX
eMf't
e
Additions to system 5-1; 6-1; 7~1; 8-1; 9-1; 10-1; 11-1
Allocatable area 4 M-1
Auto data transfer 12-1
Autoload 3-1, 3-5, 3-7, 3-8; F-1
*B P-1; Q-1
BGNMON· B-1; D-1
Bootstraps B-1; D-1
1700/cardreader
3-2
1700/magnetic tape 3-3
CYBER 18-20/card reader 3-4
CYBER 18-20/magnetic tape B-1
Deadstart C-1; D-1
Execution, 1700 3-4
Loaded program 1-1
Loading D-1
Panel mode B-1
Verification, 1700 D-1
Card reader bootstraps 3-4, 3-5
Clock, real-time 12-1
Communications region 4-1
COSY 5-1; 13-1, 13-2
Correction cards 13-1
CREP and CREP1 tables 3-7.
CYBER 18-20 12-1
Deadstart deck 1-1; 3-5; D-1
Debug .3-5; M-1
Diagnostic messages 3-7
Directory listing 4-3; K-1
Disk 7-2; 12-1
Disk pack initialization 3-6; G-1
Driver, per:iphel,"3.1 12-1
Driver, pseudo tape 4-3; 7-9
Editor 12-1
End-of-file card H-1
ENDOV4 .6-13, 6-14; 7-9; 13-1
Equipment code 2-1
Error
Codes, initializer E-l
Messages 4-7; R-l, R-2
Mode 4-6
Recovery 4-7
Executing bootstraps 3-4
96769410 A
jJ
a
Files
Reserved 4-2
Space 7-2 thru 7-6
File manager 4-3; 5-1; M-1
Add to system 7-1
Check files
F-1
Incorporating changes
7-9
Mass-storage resident 7-2
Priority M-1
SYSDAT modification 7-7
System skeleton modification 7-7
Verification test 4-3
Units 7-2 thru 7-5
Flexible disk drive 12-1
Floating point 6-1
FORTRAN 5-1; 13-2; P-1
Add to system 6-1
Compiler 4-2; 6-1, 6-3, 6-9
Compiler test 4-5; R-1; T-1
Double-precision 6-2, 6-14
Double-precision test 4-5, 4-6; R-2
Incorporating changes 6-14
Library 4-2
Library test 4-5; R-l
Re-entrant double-precision test 4-5; R-2
Re-entrant library 6-1, 6-3
SYSDAT modification 6-1
System skeleton modification 6-2
Test 4-5; R-1
Hardware, requirements
2-1
Hollerith source deck 13-2
Initializer program 1-1; 3-1, 3-6
Error codes E-1
Execution 3-6
Initialization G-1
Disk packs (SMD)
G-1
With MSOS 5 3-5
Installation 3-1
17 0o/bootstrap s
3-2
CYBER 18-20/bootstraps 3-4
Existing MSOS 5 3-5
Installation file
1-1;.3-1; 5-1, 5-2; 6-1; 7-1; 8-1; 9-1;
10-1; 11-1
Interrupt 2-1
Index-1
Job processor M-1
Job processor files
7-9
LIBEDT 5-1, 5-2; 9-i, 9-2, 9-4; 10-1, 10-2, 10-4;
11-1 thru 11-4
Printout J-1
IJBILD 5-1, 5-2; 6-14; 7-9; 8-6; 9-1, 9-3; 10-1, 10-3;
11-1, 11... 3; 1~-1
IJBMAC 9-1, 9-3
Library builder
Test 4-5; R-l
Library installation 3-7, J-1
Library, program 2-1; 11-1
Library, system 3-1; 4-2; 7-1, 7-2; M-l
Library unit 7-1, 7-2
Load map 1-1
Logical, units
Assignments 4-1
Listing 4-3; K-1
Macro assembler 5-1; 12-1; 13-2
Add to system 9-1
Code format V-I'
Entry of installation file 9-4
Installation file 9-3
Installation file skeleton 9-3
Test 4-5; S-1
Magnetic tape bootstraps 3-3; R-1
Magnetic tape simulator
'1'est 4-5
.
Magnetic Tape Utility Processor (MTUP) 5-1
Add to system 11-1
Installation file
11-3
Installation file entry 11-3
Installation file skeleton 11-1
Main memory L-1
Messages
Diagnostic 3-7
Verification 4-2, 4-4, 4-6; R-1, R-2
MIPRO M-1
Monitor test 4-3
Messages R-1
MSOS 3-1, 3-5; 5-1, 5-2; 12-1; G-1
MTUP . See Magnetic Tape Utility Processor
N4
6-13; 7-9; 8-6; 10-3; M-1
ODE BUG 3-5
Priority M-1
Peripheral drivers 12-1
PRESET 6-1; 7-7; 8-1
IJJiex-2
Program library 3-1; 11-1
Installation 3-1; J-1
Protect F-1
Pseudo tape 4-3; 7-9
Driver 4-1
Test 4-3; R-1
PSR level 4-2; 12-1; 13-1
Real-time clock 12-1
RPG n 1-1; 3-8; 5-1
Add to system 8-1
Incorporating changes 8-6
SYSDAT modification 8-1
System skeleton modification
Test 4-6; F-3; U-1
8-1
SC MM See Small Computer Maintenance Monitor
SKED 5-1, 5-2; 9-1; 10-1; 11-1; 0-1; P-1
Skeleton N-1; 0-1; P-1
Skeleton generation
Macro assembler 9-1
MTUP 11-1
Sort/Merge 10-1
Small Computer Maintenance Monitor M-1
. Sort/Merge 5-1
Add to system 10-1
Entering installation file 10-4
Installation file 10-1
Installation file skele~n 1~1
Test 4-6; R-2
Space requirements
Allocatable area 4 M-1
Main memory 6-14; 8-6; 10-3; 13-1; L-1
Specification 12-1
Storage module disk 12-1; G-1
SYSCOP M-1
SYSDAT 1-1; 5-1, 5-2; 6-1; 7-1; 8-1
System additions 5-1
Method 1 5-1
Method 2 5-1
System initializer 1-1; 5-1
Execution 3-6
System library
Installation 3-1
Ordinals 4-2
Request priorities M-1
Unit 7-1, 7~2
Test executive R-1
Test, monitor 4-3; R-1
Tests, verification 4-1
Text editor 12-1
Timer 4-1; 7-1
96769410 A
Unpatched externals
3-7
Verification 1-1
Communications region 4-1
Description 4-1
Files 1-1
Logical units 4-2
Materials Q-l
Messages 4-2, 4-4
MSOS elements
4-2
Operation 4-2
Ordinals 4-2
Requirements 4-1
Reserved files 4-2
Test errors 4-6
Test example 4-3, 4-4
96769410 A
Tests
Directory 4-3
File manager 4-3
FORTRAN 4-5; T-1
Library builder 4-5
lu 4-3
Macro assembler 4-5; 8-1
Magnetic tape simulator 4-5
Pseudo tape 4-3
RPG n
4-6, U-l
Sort/Merge 4-6
Test messages R-1
Timer 4-1
Verify 4-1
Index-3
COMMENT SHEET
CDC@
5_
Version
MANUAL TrrLE _ _ _ _
_ _MSOS
___
_ _ _.5'
_Installation
_ . . - - - -Handbook
-,..-..,..--------------
PUBLICATION NO. _ _ _
96_7_6_9_4_1_0_ _ _ _ _ _ _ REVISION _ _A_ _ _ _ _ _ _ _ _ _ _ __
NAME: ____________________________________________________
FROM
BUSJNE~
ADDRE~:
__________________________________________________________
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