IEEE 2401-2019
$117.00
IEEE Standard Format for LSI-Package-Board Interoperable Design
Published By | Publication Date | Number of Pages |
IEEE | 2019 | 293 |
Revision Standard – Active. A method is provided for specifying a common interoperable format for electronic systems design. The format provides a common way to specify information/data about the project management, netlists, components, design rules, and geometries used in the large-scale integration-package-board designs. The method provides the ability to make electronic systems a key consideration early in the design process; design tools can use it to seamlessly exchange information/data.
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE Std 2401™-2019 front cover |
2 | Title page |
12 | 1. Overview 1.1 Scope 1.2 Purpose 1.3 Key characteristics of the LSI-Package-Board Format |
13 | 1.4 Contents of this standard |
14 | 1.5 Word usage 2. Normative references 3. Definitions, acronyms, and abbreviations 3.1 Definitions |
17 | 3.2 Acronyms and abbreviations |
19 | 4. Concept of the LPB Format 4.1 Technical background 4.2 Conventional design |
20 | 4.3 Common problems at the design site 4.4 Concept of LPB interoperable design 4.5 Value creation by LPB interoperable design |
22 | 4.6 LPB Format 4.7 Summary of LPB Format files |
28 | 5. Language basics 5.1 General 5.2 Typographic and syntax conventions |
29 | 5.3 Character information 5.4 Notation of the floating point number 5.5 File naming definitions |
30 | 6. Common elements in M-Format, C-Format, and R-Format 6.1 General 6.2 The element |
31 | 6.3 The
|
33 | 6.4 The element |
49 | 7. M-Format 7.1 M-Format file structure |
50 | 7.2 The element 7.3 The element |
51 | 7.4 The element |
57 | 8. C-Format 8.1 C-Format file structure 8.2 The element |
162 | 8.3 The element |
166 | 9. R-Format 9.1 R-Format file structure |
167 | 9.2 The element |
202 | 9.3 The element |
212 | 10. N-Format 10.1 Purpose of the N-Format file 10.2 How to identify the power/ground network |
213 | 10.3 Example 11. G-Format 11.1 Language basics of G-Format |
214 | 11.2 Structure |
215 | 11.3 Header section |
216 | 11.4 Material section 11.5 Layer section |
217 | 11.6 Shape section |
221 | 11.7 Board geometry section |
222 | 11.8 Padstack section |
223 | 11.9 Part section |
225 | 11.10 Component section |
226 | 11.11 Net attribute section 11.12 Netlist section |
228 | 11.13 Via section |
229 | 11.14 Bondwire section |
230 | 11.15 Route section |
234 | Annex A (informative) Bibliography |
236 | Annex B (informative) Examples of utilization B.1 Understanding the function of the LPB Format B.2 Test bench |
238 | B.3 Design flow example |
270 | B.4 Growth of the sample files in the LPB Format |
274 | B.5 Simulations using the sample files in the LPB Format |
276 | Annex C (informative) XML Encryption |
279 | Annex D (informative) MD5 checksum |
280 | Annex E (informative) Chip-Package Interface Protocol E.1 General E.2 Comparison of C-Format with Chip-Package Interface Protocol |
285 | Annex F (informative) M-Format usage examples F.1 General F.2 Bundling files for a product |
286 | F.3 Bundling files for a library |
288 | F.4 Managing design versions using M-Format |
289 | Annex G (informative) Example of how to express the connector parts as terminals G.1 General |
293 | Back cover |