Tick | Memory Performance of Prolog Architectures | E-Book | www.sack.de
E-Book

E-Book, Englisch, Band 40, 232 Seiten, eBook

Reihe: The Springer International Series in Engineering and Computer Science

Tick Memory Performance of Prolog Architectures


1988
ISBN: 978-1-4613-2017-3
Verlag: Springer US
Format: PDF
Kopierschutz: 1 - PDF Watermark

E-Book, Englisch, Band 40, 232 Seiten, eBook

Reihe: The Springer International Series in Engineering and Computer Science

ISBN: 978-1-4613-2017-3
Verlag: Springer US
Format: PDF
Kopierschutz: 1 - PDF Watermark



One suspects that the people who use computers for their livelihood are growing more "sophisticated" as the field of computer science evolves. This view might be defended by the expanding use of languages such as C and Lisp in contrast to the languages such as FORTRAN and COBOL. This hypothesis is false however - computer languages are not like natural languages where successive generations stick with the language of their ancestors. Computer programmers do not grow more sophisticated - programmers simply take the time to muddle through the increasingly complex language semantics in an attempt to write useful programs. Of course, these programmers are "sophisticated" in the same sense as are hackers of MockLisp, PostScript, and Tex - highly specialized and tedious languages. It is quite frustrating how this myth of sophistication is propagated by some industries, universities, and government agencies. When I was an undergraduate at MIT, I distinctly remember the convoluted questions on exams concerning dynamic scoping in Lisp - the emphasis was placed solely on a "hacker's" view of computation, i. e. , the control and manipulation of storage cells. No consideration was given to the logical structure of programs. Within the past five years, Ada and Common Lisp have become programming language standards, despite their complexity (note that dynamic scoping was dropped even from Common Lisp). Of course, most industries' selection of programming languages are primarily driven by the requirement for compatibility (with previous software) and performance.

Tick Memory Performance of Prolog Architectures jetzt bestellen!

Zielgruppe


Research


Autoren/Hrsg.


Weitere Infos & Material


1. Introduction.- 1.1. What is Prolog?.- 1.2. Why Prolog?.- 1.2.1. Reduced Instruction Set Architectures.- 1.2.2. Parallel Logic Programming Languages.- 1.2.3. Lisp.- 1.3. Previous Work.- 1.3.1. Architectures.- 1.3.2. Benchmarking.- 1.3.3. Memory Organization.- 1.4. Book Outline.- 2. Prolog Architectures.- 2.1. Canonical Prolog Architectures.- 2.1.1. CIF Data Encoding.- 2.1.2. Naive and Traditional Prolog CIFs.- 2.1.3. Register-Based CIF.- 2.1.4. Other CIF Metrics: Stability.- 2.1.5. Summary.- 2.2. Environment Stacking Architectures.- 2.2.1. DEC-10 Prolog Abstract Machine.- 2.2.2. Warren Abstract Machine.- 2.2.3. Comparison Between Prolog-10 and WAM.- 2.2.4. Lcode Architecture.- 2.3. Restricted AND-Parallel Prolog Architecture.- 2.4. Summary.- 3. Prolog Architecture Measurements.- 3.1. Methodology.- 3.1.1. Compiler.- 3.1.2. Assembler.- 3.1.3. Emulator.- 3.1.4. Simulators.- 3.2. Benchmarks.- 3.3. WAM Referencing Characteristics.- 3.3.1. Data Referencing.- 3.3.2. Instruction Referencing.- 3.4. CIF Referencing Characteristics.- 3.5. PWAM Referencing Characteristics.- 3.6. Summary.- 4. Uniprocessor Memory Organizations.- 4.1. Memory Model.- 4.2. Data Referencing.- 4.2.1. Choice Point Buffer.- 4.2.2. Stack Buffer.- 4.2.3. Environment Stack Buffer.- 4.2.4. Copyback Cache.- 4.2.5. Smart Cache.- 4.2.6. Comparison of Data Memories.- 4.3. Instruction Referencing.- 4.3.1. Instruction Buffer.- 4.3.2. Instruction Caches.- 4.4. Local Memory Configurations.- 4.5. Main Memory Design.- 4.5.1. General Queueing Model.- 4.5.2. Memory Bus Model.- 4.5.3. Copyback I/D Cache System.- 4.5.4. Stack and Instruction Buffer System.- 4.6. Summary.- 5. Multiprocessor Memory Organizations.- 5.1. Memory Model.- 5.2. The Consistency Problem.- 5.2.1. Broadcast Cache Coherency.- 5.2.2. Locking in Broadcast Caches.- 5.2.3. Hybrid Cache Coherency.- 5.3. Coherent Cache Measurements.- 5.4. Shared Memory Design.- 5.4.1. Shared Memory and Bus Queueing Models.- 5.4.2. Measurements.- 5.5. Summary.- 6. Conclusions and Future Research.- 6.1. Conclusions.- 6.2. Future Research.- Appendix A. Glossary of Notation.- Appendix B. Lcode Instruction Set Summary.- Appendix C Local Memory Management Algorithms.- References.



Ihre Fragen, Wünsche oder Anmerkungen
Vorname*
Nachname*
Ihre E-Mail-Adresse*
Kundennr.
Ihre Nachricht*
Lediglich mit * gekennzeichnete Felder sind Pflichtfelder.
Wenn Sie die im Kontaktformular eingegebenen Daten durch Klick auf den nachfolgenden Button übersenden, erklären Sie sich damit einverstanden, dass wir Ihr Angaben für die Beantwortung Ihrer Anfrage verwenden. Selbstverständlich werden Ihre Daten vertraulich behandelt und nicht an Dritte weitergegeben. Sie können der Verwendung Ihrer Daten jederzeit widersprechen. Das Datenhandling bei Sack Fachmedien erklären wir Ihnen in unserer Datenschutzerklärung.