IEEE 1481 2000
$137.58
IEEE Standard for Integrated Circuit (IC) Delay and Power Calculation System
Published By | Publication Date | Number of Pages |
IEEE | 2000 | 399 |
New IEEE Standard – Inactive – Superseded. Ways for integrated circuit designers to analyze chip timing and power consistently across a broad set of electric design automation (EDA) applications are covered in this standard. Methods by which integrated circuit vendors can express timing and power information once per given technology are also covered. In addition, this standard covers means by which EDA vendors can meet their application performance and capacity needs.
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | Title Page |
3 | Introduction |
4 | Participants |
6 | CONTENTS |
9 | 1. Overview 1.1 Scope |
10 | 1.2 Purpose 1.3 Contents of this standard |
11 | 2. References 3. Definitions |
19 | 4. Acronyms and abbreviations |
20 | 5. Delay and power calculation system architecture 5.1 Overview |
22 | 5.2 Procedural interface |
23 | 5.3 DPCM-application relationships |
24 | 5.4 Interoperability 6. Delay calculation language (DCL) |
25 | 6.1 Character set 6.2 Lexical elements |
36 | 6.3 Name spaces of identifiers 6.4 Storage durations of objects 6.5 Scope of identifiers |
37 | 6.6 Linkages of identifiers 6.7 DCL data types |
40 | 6.8 Type conversions |
41 | 6.9 Operators |
46 | 6.10 Expressions |
52 | 6.11 Computation order |
54 | 6.12 DCL statements |
65 | 6.13 Tables |
77 | 6.14 Library control statements |
82 | 6.15 Modeling |
99 | 6.16 Embedded C code |
100 | 6.17 Definition of a subrule |
101 | 7. Power modeling and calculation |
102 | 7.1 Power overview |
103 | 7.2 Caching state information 7.3 Caching load and slew information |
105 | 7.4 Simultaneous switching events 7.5 Partial swing events 7.6 Power calculation |
107 | 7.7 Accumulation of power consumption by the design 7.8 Group pin list syntax and semantics |
108 | 7.9 Group condition list syntax and semantics |
109 | 7.10 Sensitivity list syntax and semantics |
110 | 7.11 Group condition language |
115 | 8. Procedural interface (PI) 8.1 Overview |
116 | 8.2 Control and data flow 8.3 Architectural requirements 8.4 Data ownership technique |
118 | 8.5 Application/DPCM interaction |
120 | 8.6 Re-entry requirements 8.7 Application responsibilities when using a DPCM |
122 | 8.8 Application use of the DPCM |
125 | 8.9 DPCM library organization 8.10 DPCM error handling |
126 | 8.11 C-level language for EXPOSE and EXTERNAL functions |
129 | 8.12 PIN and BLOCK data structure requirements 8.13 DCM_STD_STRUCT standard structure |
133 | 8.14 DCMTransmittedInfo structure 8.15 Environment or user variables 8.16 PI functions summary |
143 | 8.17 PI function descriptions |
238 | 8.18 Standard structure (dcmstd_stru.h) file |
255 | 8.19 Standard macros (dcmstd_macs.h) file |
258 | 8.20 Standard interface structures (dcmintf.h) file |
263 | 8.21 Standard loading (dcmload.h) file |
264 | 8.22 Standard debug (dcmdebug.h) file |
280 | 8.23 Standard array (dcmgarray.h) file |
284 | 8.24 DCM user array defines (dcmuarray.h) file |
287 | 8.25 Standard platform-dependency (dcmpltfm.h) file |
293 | 8.26 Standard state variables (dcmstate.h) file |
295 | 8.27 Standard table descriptor (dcmutab.h) |
296 | 9. Parasitics |
297 | 9.1 Introduction 9.2 Targeted applications for SPEF 9.3 SPEF specification |
324 | 9.4 Examples |
341 | 10. Physical design exchange |
342 | 10.1 Introduction |
343 | 10.2 PDEF specification |
381 | 10.3 Examples |
389 | Annex A—Implementation requirements |
391 | Annex B—Calculation of total load capacitance in the DPCS |
394 | Annex C—Hold control |
399 | Annex D—Bibliography |