Figures. IBM z/OS Version 2 Release 3
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Figures
2. Format of the Format 5 save area (F5SA) 10
3. Format of the Format 8 save area (F8SA)
4. Format of the Format 4 Save Area (F4SA)
5. Format of the Format 7 save area (F7SA)
6. Primary Mode Parameter List EXEC PGM=
7. AR Mode Parameter List when Not AMODE
8. Levels of Tasks in a Job Step .
9. Assembler Definition of AMODE/RMODE 33
10. Example of Addressing Mode Switch .
11. Passing Control in a Simple Structure .
12. Passing Control With a Parameter List .
13. Passing Control With Return .
14. Passing Control With CALL .
16. Return Code Test Using Branching Table 44
17. Establishing a Return Code .
20. Search for Module, EP or EPLOC Parameter
With DCB=0 or DCB Parameter Omitted .
21. Search for Module, EP or EPLOC Parameters
With DCB Parameter Specifying Private
22. Search for Module Using DE Parameter
23. Use of the LINK Macro with the Job or Link
24. Use of the LINK Macro with a Private Library 55
26. The LINK Macro with a DE Parameter
27. Misusing Control Program Facilities Causes
28. Processing flow for the CSVINFO macro and the caller's MIPR .
29. Two Gigabyte Virtual Storage Map .
30. Maintaining Correct Interfaces to Modules that
31. AMODE and RMODE Combinations .
32. AMODE and RMODE Processing by the
33. AMODE and RMODE Processing by the
34. Mode Switching to Retrieve Data from Above
35. Linkage Between Modules with Different
36. BRANCH and SAVE and Set Mode
37. Branch and Set Mode Description .
39. Example of Pointer-Defined Linkage .
40. Example of Supervisor-Assisted Linkage 95
41. Example of a Linkage Assist Routine .
42. Cap for an AMODE 24 Module .
© Copyright IBM Corp. 1988, 2017
43. Performing I/O while residing above 16 megabytes .
44. Event Control Block (ECB) .
45. Using LINKAGE=SYSTEM on the WAIT and
46. Pause and Release Example .
47. Release and Pause Example .
48. Transfer without Pause Example .
51. Two Requests For Two Resources .
52. One Request For Two Resources .
53. Work Area Contents for GQSCAN with a
Scope of STEP, SYSTEM, SYSTEMS, or ALL . 136
55. Mainline Routine with One Recovery Routine 154
56. Mainline Routine with Several Recovery
57. Example of Using the GETMAIN Macro 216
59. Using the List and the Execute Forms of the
60. The 64-bit address space .
62. Mapping from an address space .
63. Mapping from a data space or hiperspace 267
65. Using an ALET to Identify an Address Space or a Data Space .
66. An Illustration of a DU-AL .
67. Using Instructions in AR Mode .
68. Accessing Data in a Data Space .
69. Accessing Data in a Hiperspace .
70. Example of Specifying the Size of a Data
71. Example of Extending the Current Size of a
72. Example of Using Callable Cell Pool Services for Data Spaces .
73. Two Problem Programs Sharing a
74. Example of Scrolling through a Standard
75. Illustration of the HSPSERV Write and Read
76. Example of Creating a Standard Hiperspace and Transferring Data.
77. Example of Mapping a Data-in-Virtual Object to a Hiperspace .
78. A Standard Hiperspace as a Data-in-Virtual
79. Structure of a Data Object .
80. Mapping a Permanent Object That Has No
81. Mapping a Permanent Object That Has A
ix
82. Mapping a Temporary Object .
83. Mapping an Object To Multiple Windows 337
84. Mapping Multiple Objects .
85. Using the Name and the Token .
86. Using the Task Level in a Single Address
87. Using Home-Level and Task-Level
88. Releasing Virtual Storage .
89. Example of using REFPAT with a Large Array 365
90. Illustration of a Reference Pattern with a Gap 367
91. Illustration of Forward Direction in a
92. Illustration of Backward Direction in a
93. Two Typical Reference Patterns .
94. Data Sharing with IARVSERV .
95. Sharing Storage with IARVSERV .
98. Writing to the Operator With a Reply 392
99. Preparing Messages for Translation .
100. Sample job to invoke IDCAMS to obtain a data set for the run-time message files .
101. Using JCL to Invoke the Compiler with a single PDS as input .
102. Using JCL to Invoke the Compiler with a concatenation of partitioned Data Sets as input .
103. Using a TSO/E CLIST to Invoke the
Compiler with a single PDS input .
104. Using a TSO/E CLIST to Invoke the
Compiler with a concatenation of partitioned
105. Using a REXX exec to Invoke the Compiler with a single PDS as input .
107. Using the TRANMSG Macro .
108. Contiguous Symbol Table .
109. Non-contiguous Symbol Table .
110. System Logger Log Stream .
111. Log Stream Data on the Coupling Facility and
112. Log Stream Data in Local Storage Buffers and
113. A Complete Coupling Facility Log Stream
114. A DASD-Only Configuration .
115. Define a Log Stream as a Model and then
116. Searching for a Log Block by Time .
117. Deleting a Range of Log Blocks .
118. How Source and Target Log Streams Can Get
120. Requesting function code 0 (check groups)
121. Requesting function code 1 (check units)
122. Requesting function code 2 (return unit name) .
123. Output from Function Code 2 (Return Unit
124. Requesting function code 3 (return UCB addresses) .
125. Output from Function Code 3 (Return UCB
126. Requesting function code 4 (return group ID) 538
127. Output from Function Code 4 (Return Group
128. Requesting function code 5 (indicate unit name is a look-up value).
129. Requesting function code 6 (return look-up value) .
130. Output from Function Code 6 (Return
131. Requesting function code 7 (convert device type to look-up value) .
132. Output from Function Code 7 (Convert
Device Type to Look-up Value) .
133. Requesting function code 8 (return attributes) 542
134. Requesting function code 10 (specify subpool for returned storage) .
135. Requesting Function Code 11 (Return Unit
136. Output from Function Code 11 (Return Unit
137. Input for Function Codes 0 and 1 .
138. Output from Function Codes 0 and 1 545
139. Input for Function Codes 3 and 10 .
140. Output from Function Codes 3 and 10 545
141. Input for Function Codes 1 and 5 .
142. Output from Function Codes 1 and 5 546
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z/OS MVS Assembler Services Guide
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