Compilers and Operating Systems for Low Power

Benini, Luca, Kandemir, Mahmut, Ramanujam, J.

ISBN 10: 146134879X / ISBN 13: 9781461348795

Editore: Springer (edition Softcover reprint of the original 1st ed. 2003), 2012

Riguardo questo articolo

It's a preowned item in good condition and includes all the pages. It may have some general signs of wear and tear, such as markings, highlighting, slight damage to the cover, minimal wear to the binding, etc., but they will not affect the overall reading experience. Softcover reprint of the original 1st ed. 2003.

Codice articolo 146134879X-11-1

Dati bibliografici

• Titolo: Compilers and Operating Systems for Low Power
• Editore: Springer (edition Softcover reprint of the original 1st ed. 2003)
• Data di pubblicazione: 2012
• Lingua: Inglese
• ISBN 10: 146134879X
• ISBN 13: 9781461348795
• Rilegatura: Paperback
• Condizione: Good

Descrizione articolo

Riassunto

Compilers and Operating Systems for Low Power focuses on both application-level compiler directed energy optimization and low-power operating systems. Chapters have been written exclusively for this volume by several of the leading researchers and application developers active in the field. The first six chapters focus on low energy operating systems, or more in general, energy-aware middleware services. The next five chapters are centered on compilation and code optimization. Finally, the last chapter takes a more general viewpoint on mobile computing. The material demonstrates the state-of-the-art work and proves that to obtain the best energy/performance characteristics, compilers, system software, and architecture must work together. The relationship between energy-aware middleware and wireless microsensors, mobile computing and other wireless applications are covered.

This work will be of interest to researchers in the areas of low-power computing, embedded systems, compiler optimizations, and operating systems.

Contenuti

List of Figures. List of Tables. Contributing Authors. Preface. 1: Low Power Operating System for Heterogeneous Wireless Communication System; Suet-Fei Li, R. Sutton, J. Rabaey. 1. Introduction. 2. Event-driven versus General-purpose OS. 3. Low Power Reactive OS for Heterogeneous Architectures. 4. Conclusion and Future Work. References. 2: A Modified Dual-Priority Scheduling Algorithm for Hard Real-Time Systems to Improve Energy Savings; M.A. Moncusí, A. Arenas, J. Labarta. 1. Introduction. 2. Dual-Priority Scheduling. 3. Power-Low Modified Dual-Priority Scheduling. 4. Experimental Results. 5. Summary. References. 3: Toward the Placement of Power Management Points in Real-Time Applications; N. AbouGhazaleh, D. Mossé, B. Childers, R. Melhem. 1. Introduction. 2. Model. 3. Sources of Overhead. 4. Speed Adjustment Schemes. 5. Optimal Number of PMPs. 6. Conclusion. Appendix: Derivation of Formulas. References. 4: Energy Characterization of Embedded Real-Time Operating Systems; A. Acquaviva, L. Benini, B. Riccó. 1. Introduction. 2. Related Work. 3. System Overview. 4. Characterization Strategy. 5. RTOS Characterization Results. 6. Summary of Findings. 7. Conclusions. References. 5: Dynamic Cluster Reconfiguration for Power and Performance; E. Pinheiro, R. Bianchini, E.V. Carrera, T. Heath. 1.Motivation. 2. Cluster Configuration and Load Distribution. 3. Methodology. 4. Experimental Results. 5. Related Work. 6. Conclusions. References. 6: Energy Management of Virtual Memory on Diskless Devices; J. Hom, U. Kremer. 1. Introduction. 2. Related Work. 3. Problem Formulation. 4. EELRM Prototype Compiler. 5. Experiments. 6. Future Work. 7. Conclusion. References. 7: Propagating Constants Past Software to Hardware Peripherals on Fixed-Application Embedded Systems; G. Stitt, F. Vahid. 1. Introduction. 2. Example. 3. Parameters in Cores. 4. Propagating Constants from Software to Hardware. 5. Experiments. 6. Future Work. 7. Conclusions. References. 8: Constructive Timing Violation for Improving Energy Efficiency; T. Sato, I. Arita. 1. Introduction. 2. Low Power via Fault-Tolerance. 3. Evaluation Methodology. 4. Simulation Results. 5. Related Work. 6. Conclusion and Future Work. References. 9: Power Modeling and Reduction of VLIW Processors; Weiping Liao, Lei He. 1. Introduction. 2. Cycle-Accurate VLIW Power Simulation. 3. Clock Ramping. 4. Experimental Results. 5. Conclusions and Discussion. References. 10: Low-Power Design of Turbo Decoder with Exploration of Energy-Throughput Trade-off; A. Vandecappelle, B. Bougard,