The Cache Coherence Problem in Shared–Memory Multiprocessors. Software Solutions. Systems

  • ID: 2178207
  • Book
  • 358 Pages
  • John Wiley and Sons Ltd
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Almost all software solutions are developed through academic research and implemented only in prototype machines, thus leaving the field of software techniques for maintaining the cache coherence widely open for new research and development. This book is a collection of all the representative approaches to software coherence maintenance and includes a number of related studies in the performance evaluation field.

The illustrates state–of–the–art software solutions for cache coherence maintenance in shared–memory multiprocessors. It begins with a set of four overview of the cache coherence problem and introduces software solutions to the problem. The text defines and details static and dynamic software schemes, techniques for modeling performance evaluation mechanisms, and performance evaluation studies.

The book is intended for the experienced reader in computer engineering but possibly a novice in the topic of cache coherence. It also provides an in–depth understanding of the problem as well as a comprehensive overview for multicomputer designers, computer architects, and compiler writers. In addition, it is a software coherence reference handbook for advanced undergraduate and typical graduate students in multiprocessing and multiprogramming areas.

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Chapter 1: Introductory Readings.

How to Make a Multiprocessor Computer that Correctly Executes Multiprocess Programs (L. Lamport).

Synchronization, Coherence, and Event Ordering in Multiprocessors (M. Dubois, C. Scheurich, and F.A. Briggs).

Cache Coherence in Large–Scale Shared–Memory Multiprocessors: Issues and Comparisons (D. Lilja).

Software Cache Consistency in Shared–Memory Multiprocessors: A Survey of Approaches and Performance Evaluation Studies (I. Tartalja and V. Milutinovic).

Chapter 2: Static Software Cache Coherence Schemes.

Compiler–Directed Cache Management in Multiprocessors (H. Cheong and A.V. Veidenbaum).

RP3 Processor–Memory Element (W.C. Brantley, K.P. McAuliffe, and J. Weiss).

A Compiler–Assisted Cache Coherence Solution for Multiprocessors (A.V. Veidenbaum).

A Cache Coherence Scheme With Fast Selective Invalidation (H. Cheong and A.V. Veidenbaum).

Automatic Management of Programmable Caches (R. Cytron, S. Karlovsky, and K.P. McAuliffe).

A Version Control Approach to Cache Coherence (H. Cheong and A.V. Veidenbaum).

Design and Analysis of a Scalable Cache Coherence Scheme Based on Clocks and Timestamps (S.L. Min and J.–L. Baer).

A Generational Algorithm to Multiprocessor Cache Coherence (T.C. Chiueh).

Cache Coherence Using Local Knowledge (E. Darnell and K. Kennedy).

Chapter 3: Dynamic Software Cache Coherence Schemes.

Software–Controlled Caches in the VMP Multiprocessor (D.R. Cheriton, G.A. Slavenburg, and P.D. Boyle).

CPU Cache Consistency with Software Support and Using "One Time Identifiers" (A.J. Smith).

An Approach to Dynamic Software Cache Consistency Maintenance Based on Conditional Invalidation (I. Tartalja and V. Milutinovic).

Adaptive Software Cache Management for Distributed Shared Memory Architectures (J.K. Bennett, J.B. Carter, and W. Zwaenepoel).

Chapter 4: Techniques for Modeling and Performance Evaluation of Cache Memories and Cache Coherence Maintenance Mechanisms.

Analysis of Multiprocessors with Private Cache Memories (J.H. Patel).

Effectiveness of Private Caches in Multiprocessor Systems with Parallel–Pipelined Memories (F.A. Briggs and M. Dubois).

On the Validity of Trace–Driven Simulation for Multiprocessors (E.J. Koldinger, S.J. Eggers, and H.M. Levy).

Multiprocessor Cache Simulation Using Hardware Collected Address Traces (A.W. Wilson).

Cache Invalidation Patterns in Shared–Memory Multiprocessors (A. Gupta and W.–D. Weber).

Benchmark Characterization for Experimental System Evaluation (T.M. Conte and W.W. Hwu).

A Model of Workloads and Its Use in Miss–Rate Prediction for Fully Associative Caches (J.P. Singh. H.S. Stone, and D.F. Thiebaut).

Chapter 5: Performance Evaluation Studies of Software Coherence Schemes).

A Performance Comparison of Directory–Based and Timestamp–Based Cache Coherence Schemes (S.L. Min and J.–L. Baer).

Evaluating the Performance of Software Cache Coherence (S. Owicki and A. Agarwal).

Comparison of Hardware and Software Cache Coherence Schemes (S.V. Adve, V.S. Adve, M.D. Hill, and M.K. Vernon).

About the Author.
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Igort Tartalja is currently with the Department of Computer Engineering, Schools of Electrical Engineering, University of Belgrade. He received the BSEE in 1984 and MSEE in 1989, both from the School of Electrical Engineering, University of Belgrade, Belgrade, Serbia, Yugoslavia. He is in the final phase of finishing his PhD thesis on dynamic software maintenance of cache coherence in shared–memory multiprocessors. From 1984 to 1989 he was with the Laboratory for Computer Engineering, Institute for Nuclear Sciences, Vinca, Serbia, Yugoslavia, working primarily on the development of a real–time computer for applications in biophysics and distributed operating system for a special–purpose multicomputer. His current research interests include multiprocessor and multicomputer architectures, heterogeneous processing, and system software support for shared–memory multiprocessors and distributed systems.

Veljko Milutinovic has been the Department of Computer Engineering, Schools of Electrical Engineering, University of Belgrade, Belgrade, Serbia Yugoslavia since 1990. From 1982 to 1990 he was on the faculty of the School of Electrical and Computer Engineering, Purdue University, West Lafayette, Indiana. He has been active in the RISC field for the last decade and in technology–related research (32–bit GaAS RISC for RCA) and application–related research (multimedia–oriented RISC–based multiprocessors efforts of NCR). He has published 40 papers in IEEE journals and presented over 200 invited talks all over the world. He is a senior member of the IEEE.
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