Multi-optimization power management for chip multiprocessors
Ke Meng, Russ Joseph, Robert P. Dick, Li Shang
Abstract
Ke Meng, Russ Joseph, Robert P. Dick, Li Shang
Abstract
The emergence of power as a first-class design constraint has fueled the proposal of a growing number of run-time power optimizations. Many of these optimizations trade-off power saving opportunity for a variable performance loss which depends on application characteristics and program phase. Furthermore, the potential benefits of these optimizations are sometimes non-additive, and it can be difficult to identify which combinations of these optimizations to apply. Trial-and-error approaches have been proposed to adaptively tune a processor. However, in a chip multiprocessor, the cost of individually configuring each core under a wide range of optimizations might be prohibitive under simple trial-and-error approaches.
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The emergence of power as a first-class design constraint has fueled the proposal of a growing number of run-time power optimizations. Many of these optimizations trade-off power saving opportunity for a variable performance loss which depends on application characteristics and program phase. Furthermore, the potential benefits of these optimizations are sometimes non-additive, and it can be difficult to identify which combinations of these optimizations to apply. Trial-and-error approaches have been proposed to adaptively tune a processor. However, in a chip multiprocessor, the cost of individually configuring each core under a wide range of optimizations might be prohibitive under simple trial-and-error approaches.
Key concepts: Computer science, Multiprocessing, Parallel computing, Constraint (computer-aided design), Chip, Power (physics), Multi-core processor, Range (aeronautics)