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Advanced Assembler Language and MVS Interfaces for I.B.M.Systems and Application Programmers 2nd Revised edition [Pehme köide]

  • Formaat: Paperback / softback, 848 pages, kõrgus x laius: 238x191 mm, kaal: 1417 g, Illustrations
  • Ilmumisaeg: 07-Sep-1999
  • Kirjastus: John Wiley & Sons Inc
  • ISBN-10: 0471361763
  • ISBN-13: 9780471361763
Teised raamatud teemal:
Advanced Assembler Language and MVS Interfaces for I.B.M.Systems and Application Programmers 2nd Revised editionSuurem pilt
  • Formaat: Paperback / softback, 848 pages, kõrgus x laius: 238x191 mm, kaal: 1417 g, Illustrations
  • Ilmumisaeg: 07-Sep-1999
  • Kirjastus: John Wiley & Sons Inc
  • ISBN-10: 0471361763
  • ISBN-13: 9780471361763
Teised raamatud teemal:
Püsilink: https://www.kriso.ee/db/9780471361763.html
Märksõnad:
This updated and expanded edition of the #1 guide to advanced Assembler language programming does everything you wish IBM manuals would do, and more. With the help of 225 bug-free coding examples, many taken from real-world implementations, author Carmine Cannatello describes a wide range of essential Assembler coding techniques not found in most books on the subject. He also acquaints you with important MVS facilities and services and their required program interfaces, and shows you step-by-step how to program them.

A complete guide for programmers working on all IBM mainframe systems, from System/360 through System/390 series mainframes, this book covers:
* Testing and debugging
* Assembler algorithms tested on various mainframes
* Reentrant programs, branch tables, external subroutines, and other "exotic" techniques
* 31-bit addressing
* Extended addressability
* Cross-memory services
* Using the Linkage Editor

Visit our Web site at www.wiley.com/compbooks/
Index of Coding Examples, Figures, and Tables xii
Preface to the Second Edition xxiii
Preface to the First Edition xxiv
Acknowledgments xxviii
About the Author xxx
Assembler Language Programming Style and Content
1(32)
Characteristics of Good Assembler Language
1(30)
Has Simple, Easy-to-Understand Logic
2(1)
Uses Mostly Simple Instructions
2(1)
Has No Relative Addressing
3(4)
Uses Subroutines
7(3)
Uses DSECTs
10(1)
Has Efficient Code
10(4)
Does Not Modify Instructions
14(2)
Does Not Abnormally Terminate (ABEND) Due to User Error
16(2)
Requests and Checks Feedback from Macro Instructions
18(1)
Has Internal Tables with the Capacity of Expanding
19(1)
Provides Meaningful Error Messages
20(2)
Uses Only Standard Interfaces
22(1)
Lets the Assembler Determine Lengths
23(3)
Has OP-Codes, Operands, and Comments Aligned
26(1)
Contains Meaningful Comments
27(1)
Uses Meaningful Labels
28(1)
Has Meaningful DS Instructions
29(1)
Does Not Specify BLKSIZE for Files
30(1)
What Is Advanced Assembler Language?
31(1)
Summary
32(1)
Assembler Language Programming Development and Structure
33(36)
Structured Programming
33(1)
Top-Down Programming
34(1)
Writing Meaningful Comments
35(3)
Conventions for General Purpose Register Usage
38(4)
Step-by-Step Development of a Well-Structured Program
42(15)
Suggestions for Debugging Difficult Problems
57(8)
Setting Up a Trace
58(2)
Using the SNAP Macro Instruction
60(1)
Diagnostic Traps
61(1)
TSO TEST Facility
61(4)
Summary of
Chapter 2
65(3)
Bibliography for
Chapter 2
68(1)
The Macro Facility and Conditional Assembler Language
69(60)
Introduction to the Macro Facility
69(17)
What Is a Macro?
69(1)
Structure of a Macro Definition
70(3)
Symbolic Parameters
73(7)
Macro Operand Syntax
80(3)
Comments in Macro Definitions
83(1)
Placement of Macro Definitions
84(1)
Outer and Inner Macros
85(1)
Open Code
85(1)
Uses of Macros
86(1)
Variable Symbols
86(14)
Symbolic Parameters
87(1)
System Variable Symbols
87(3)
SET Symbols
90(9)
Concatenating Variable Symbols
99(1)
Coding Simple Macro Definitions
100(5)
Simple Macros that Generate Tables
101(1)
Simple Macros that Generate Executable Code
102(3)
Conditional Assembler Language
105(10)
What Is Conditional Assembler Language?
105(2)
Compare and Branch Instructions
107(3)
Data Attributes
110(5)
Substring Notation
115(1)
Coding Complex Macro Definitions
115(9)
Guidelines for Generating Labels
116(1)
Generating Messages from a Macro Definition
117(1)
Examples of Complex Macro Definitions
118(6)
Some Useful Macro Definitions
124(4)
The INITL Macro Instruction
124(3)
The RCNTL Macro Instruction
127(1)
Bibliography for
Chapter 3
128(1)
Supervisor Services and Macro Instructions
129(64)
What Are Supervisor Services?
129(1)
Standard, List, and Execute Forms of Macro Instructions
130(1)
The EXTRACT Macro Instruction
130(2)
Program Management
132(3)
The LOAD and DELETE Macro Instructions
135(5)
The LINK Macro Instruction
140(3)
The XCTL Macro Instruction
143(2)
The ATTACH, DETACH, and CHAP Macro Instructions
145(8)
The WAIT and POST Macro Instructions
153(4)
The ENQ and DEQ Macro Instructions
157(5)
The WTO Macro Instruction
162(3)
The WTOR Macro Instruction
165(4)
The GETMAIN and FREEMAIN Macro Instructions
169(4)
The STIMER Macro Instruction
173(4)
The TTIMER Macro Instruction
177(3)
The TIME Macro Instruction
180(1)
The SNAP Macro Instruction
181(8)
The ABEND Macro Instruction
189(2)
Bibliography for
Chapter 4
191(2)
Advanced Assembler Language Techniques
193(80)
Using General Purpose Register 13 as a Base Register
193(1)
Accessing the Data from the PARM Parameter of the JCL EXEC Statement
194(2)
Using DSECTs
196(4)
Converting from Hexadecimal into Character
200(3)
Validating Numeric Data
203(6)
External Subroutines
209(3)
Writing Reuseable Programs
212(8)
Building an Expandable Variable-length Table
220(7)
Multilevel Tables
227(6)
Linked-Lists
233(10)
Branch Tables
243(3)
Communicating with a Problem Program Via System Commands
246(7)
Issuing Commands and Submitting Jobs from a Problem Program
253(16)
Issuing Commands and Submitting Jobs Via the JES2 Internal Reader
254(6)
Issuing Commands Via the MGCR Macro Instruction
260(9)
Obtaining the Addresses of the TCB and the ASCB
269(2)
Bibliography for
Chapter 5
271(2)
Programming ABEND Recovery
273(44)
Recovering from Program Interruption ABENDs
273(14)
Difference between the SPIE and the ESPIE Macro Instructions
275(5)
Using the SPIE Macro Instruction
280(3)
Using the ESPIE Macro Instruction
283(4)
Mixing the SPIE and the ESPIE Macro Instructions
287(1)
Recovering from System and User ABENDs
287(28)
Brief Overview of RTM
287(2)
The ESTAE Macro Instruction
289(2)
The SETRP Macro Instruction
291(3)
Writing an ESTAE Recovery Exit Routine
294(21)
Bibliography for
Chapter 6
315(2)
Programming Dataset Allocation
317(44)
Modifying the Job File Control Block
318(19)
Typical Reasons for Modifying the JFCB
318(1)
The RDJFCB Macro Instruction
319(1)
Setting Up for RDJFCB
319(1)
Required JCL DD Statement for RDJFCB
320(1)
The OPEN and CLOSE Macro Instructions
320(1)
JFCB Modification Coding Examples
321(16)
Dynamic Allocation (SVC 99)
337(22)
Dynamic Allocation
344(5)
Dynamic Unallocation
349(1)
Dynamic Concatenation
350(2)
Dynamic Deconcatenation
352(1)
Dynamic Information Retrieval
353(5)
SVC 99 Feedback
358(1)
Bibliography for
Chapter 7
359(2)
Processing a Partitioned Dataset
361(58)
What Is a Partitioned Dataset?
361(2)
The Structure of the PDS Directory
363(1)
Reading the Entire PDS Directory
364(8)
Reading the PDS Directory Using QSAM
365(3)
Reading the PDS Directory Using BSAM
368(2)
A Macro Definition to Read the PDS Directory
370(2)
Reading Individual Members of a PDS
372(14)
Reading Members Using QSAM
373(4)
Reading members Using BPAM
377(9)
Writing New Members into a PDS
386(12)
Creating New Members Using QSAM
387(2)
Creating New Members Using BPAM
389(9)
Updating Existing Members of a PDS
398(15)
Alias Considerations Updating Members of a PDS
398(1)
Updating (Rewriting) Existing Members Using QSAM
398(5)
Updating (Rewriting) Existing Members Using BPAM
403(4)
Updating In-place Using QSAM
407(2)
Updating In-Place Using BPAM
409(4)
Other PDS Facilities
413(5)
Deleting a Member Name
413(1)
Changing a Member Name
414(1)
Assigning an Alias Name to an Existing Member
414(4)
Providing or Changing User-Data for a Member
415(1)
Bibliography for
Chapter 8
418(1)
Programming Paging Efficiency
419(14)
Brief Overview of MVS Paging
419(3)
Efficient Program Organization
422(1)
Paging Control Macro Instructions
422(5)
The PGRLSE Macro Instruction
423(1)
The PGLOAD Macro Instruction
424(2)
The PGOUT Macro Instruction
426(1)
Using the Paging Control Macro Instructions
427(3)
Using the PGRLSE Macro Instruction
428(1)
Using the PGLOAD Macro Instruction
429(1)
Using the PGOUT Macro Instruction
430(1)
Bibliography for
Chapter 9
430(3)
Selected Advanced Supervisor Services Macros
433(24)
Authorizing a User Program
433(2)
The MODESET Macro Instruction
435(1)
The TESTAUTH Macro Instruction
435(2)
The PGFIX and PGFREE Macro Instructions
437(3)
The REESERVE Marco Instruction
440(4)
The SETLOCK Macro Instruction
444(7)
The SVCUPDTE Macro Instruction
451(2)
The SYSEVENT Macro Instruction
453(2)
Bibliography for
Chapter 10
455(2)
Introduction to Channel Programming
457(62)
What Is Channel Programming?
457(1)
Control Blocks and Instructions Used in Channel Programming
458(10)
Channel Programming for DASD
468(33)
DASD Track and Record Format
468(1)
DASD Exception Conditions
469(1)
Reading Data from a DASD Dataset
470(12)
Writing Data into a DASD Dataset
482(19)
Channel Programming for Magnetic Tape Devices
501(16)
Magnetic Tape Volume Format
502(2)
Magnetic Tape Device Exception Conditions
504(1)
Reading Data from a Magnetic Tape Dataset
505(6)
Writing Data to a Magnetic Tape Dataset
511(6)
Bibliography for
Chapter 11
517(2)
Writing SVC Routines
519(28)
What Is an SVC Routine?
519(1)
Types and Characteristics of SVC Routines
520(1)
Naming SVC Routines
521(1)
Guidelines for Selecting an SVC Type
522(1)
SVC programming Requirements and Considerations
522(3)
SVC Routine Coding Examples
525(13)
Inserting SVC Routines into the Operating System
538(2)
Dynamically Loading SVC Routines
540(5)
Bibliography for
Chapter 12
545(2)
Using the MVS Common Area
547(14)
What Is the Common Area?
547(1)
Contents of the Common Area
547(1)
Requirements to Use the Common Area
548(4)
Coding Examples of Using the CSA
552(6)
Uses of the CSA
558(1)
Bibliography for
Chapter 13
558(3)
Programming Using 31-Bit Addressing
561(50)
Introduction to 31-Bit Addressing Mode
563(1)
Requirements, Rules, and Conventions of 31-Bit Addressing Mode
564(1)
Machine Instruction Considerations
565(2)
Instructions Sensitive to Addressing Mode
565(1)
Instructions That Manipulate Addressing Mode
566(1)
Addressing Mode and Residency Mode
567(5)
Meaning of AMODE/RMODE Attributes
567(1)
Values and Valid Combinations of AMODE/RMODE
567(1)
Assignment of AMODE/RMODE Via the Assembler
568(1)
Assignment of AMODE/RMODE Via the Linkage Editor
569(1)
Assignment of AMODE/RMODE Via the Loader
570(1)
MVS Services Support of AMODE/RMODE Attributes
570(2)
Dynamically Setting AMODE
572(1)
Allocating Virtual Storage Via GETMAIN
572(2)
Establishing Linkage between Programs with Different Addressing Modes
574(12)
Using the BASSM and the BSM Machine Instructions
574(1)
Supervisor-Assisted Linkage
575(1)
Pointer-Defined Linkage
575(3)
Linkage Assist Routines
578(4)
Capping (Prologue and Epilogue)
582(4)
Typical Program Linkage Situations
586(2)
Using Virtual Storage above the 16MB Line by 24-Bit Addressing Mode Programs
588(4)
Performing I/O by 31-Bit Addressing Mode Programs
592(11)
The PGSER Macro Instruction
603(3)
Converting Existing Programs into 31-Bit Addressing Mode
606(2)
Writing New Programs
608(1)
Writing New Programs in 24-Bit Addressing Mode
609(1)
Writing New Programs in 31-Bit Addressing Mode
609(1)
Bibliography for
Chapter 14
609(2)
Inter-Address Space Communications
611(82)
Inter-Address Space Communications via Shared DASD
611(1)
Inter-Address Space Communications via the Common Area
612(1)
Inter-Address Space Communications via SRBs
612(27)
Requirements for Using SRBs
613(3)
Using SRB Routines
616(23)
Advantages of Using SRBs
639(1)
Inter-Address Space Communications via CMS
639(52)
CMS Terminology
640(2)
Macro and Machine Instructions Used with CMS
642(2)
Requirements to Set Up a Cross-Memory Environment
644(1)
Cross-Memory Authorization
644(3)
Cross-Memory Linkage
647(5)
Linkage Conventions
652(2)
Releasing the Cross-Memory Environment
654(1)
Using Cross-Memory Services
655(1)
Calling a Program in Another Address Space
655(20)
Passing Data Directly between Address Spaces
675(15)
Advantages of Using CMS
690(1)
Bibliography for
Chapter 15
691(2)
Extended Addressability
693(64)
Address Space Control Mode
693(2)
Primary Code
694(1)
AR Mode
694(1)
Issuing Macros Instructions in AR Mode
695(1)
Using Access Registers
695(3)
Data Spaces
698(38)
Data Space Ownership and Availability
698(2)
Scope of a Data Space
700(1)
Creating a Data Space
701(4)
Gaining Access to a Data Space
705(2)
Moving Data Into and Out of a Data Space
707(5)
Dumping the Virtual Storage of a Data Space
712(3)
Passing ALETs across Address Spaces
715(7)
Sharing Data Spaces across Address Spaces
722(10)
Using Data Spaces Efficiently
732(1)
Increasing the Size of a Data Space
733(1)
Releasing Data from a Data Space
734(1)
Deleting a Data Space
734(1)
Data Space Usage Considerations
735(1)
Hiperspaces
736(16)
Hiperspace Ownership and Availability
736(1)
Types of Hiperspaces
737(1)
Creating a Hiperspace
738(2)
Gaining Access to a Hiperspace
740(1)
Moving Data Into and Out of a Hiperspace
741(8)
Sharing Hiperspaces across Address Spaces
749(1)
Using Hiperspaces Efficiently
750(1)
Hiperspace Usage Considerations
751(1)
When to Use Extended Addressability
752(2)
Data Space and Hiperspace Differences
752(1)
When to Use a Data Space
752(1)
When to Use a Hiperspace
753(1)
Relationship of Extended Addressability to VIO
753(1)
Bibliography for
Chapter 16
754(3)
Appendix A The Assembler 757(14)
A.1 Required JCL for the Assembler
757(2)
A.2 Invoking the Assembler from a Problem Program
759(10)
Bibliography for Appendix A
769(2)
Appendix B The Linkage Editor 771(34)
B.1 Basic Program and Linkage Editor Terms
771(2)
B.2 Linkage Editor Functions
773(1)
B.3 Input to the Linkage Editor
774(6)
B.4 Naming the Load Module
780(1)
B.4 Selected Linkage Editor Options
781(1)
B.6 Selected Linkage Editor Control Statements
782(10)
B.7 Required JCL for the Linkage Editor
792(1)
B.8 Invoking the Linkage Editor from a Problem Program
793(11)
Bibliography for Appendix B
804(1)
Bibliography 805(4)
MVS and Assembler Language Programming
805(1)
IBM Manuals
805(4)
Index 809


CARMINE A. CANNATELLO is a computer consultant specializing in systems programming in the areas of MVS, CICS, and VTAM/NCP. He has a BS in mathematics from Manhattan College and is a former evening instructor at the School of Continuing and Professional Studies at New York University.