With Exascale systems on the horizon, we have ushered in an era with power and energy consumption as the primary concerns for scalable computing. To achieve viable high performance computing, revolutionary methods are required with a stronger integration among hardware features, system software and applications. Equally important are the capabilities for fine-grained spatial and temporal measurement and control to facilitate energy efficient computing accross alllayers. Current approaches for energy efficient computing rely heavily on power efficient hardware in isolation. However, it is pivotal for hardware to expose mechanisms for energy efficiency to optimize power and energy consumption for various workloads. At the same time, high fidelity measurement techniques, typically ignored in data-center level measurement, are of high importance for scalable and energy efficient inter-play in different layers of application, system software and hardware.
This workshop seeks to address the important energy efficiency aspects in the HPC community that have not been previously addressed by aspects covered in the data center or cloud computing communities. Emphasis is given to the applications view related to significant energy efficiency improvements and to the required hardware/software stack that must include necessary power and performance measurement and analysis harnesses.
Current tools are often limited by hardware capabilities and their lack of information about the characteristics of a given workload/application. In the same manner, hardware techniques, like dynamic voltage frequency scaling, are often limited by their granularity (very coarse power management) or by their scope (a very limited system view). More rapid realization of energy savings will require significant increases in measurement resolution and optimization techniques. Moreover, the interplay between performance, power and reliability add another layer of complexity to this already difficult group of challenges.
Tools for analyzing power and energy with different granularities and scope from hardware (e.g. component, core, node, rack, system) or software views (e.g. threads, tasks, processes, etc) or both.
Techniques that enable power and energy optimizations at different scale levels for HPC systems.
Integration of power aware techniques in applications and throughout the software stack of HPC systems.
Characterization of current state-of-the-art HPC system and applications in terms of Power.
Disruptive hardware or infrastructure technologies for energy-efficient supercomputing
Analysis of future technologies that will provide improved energy consumption and management on future HPC systems.
Tools and techniques for exploring trade-offs between energy efficiency and resilience.
11月14日
2016
会议日期
初稿截稿日期
注册截止日期
2017年11月13日 美国
2017年第五届国际节能超级计算机研讨会2015年11月15日 美国
第三届国际节能超级计算机研讨会2014年11月16日 美国
第二届国际高效节能超级计算机研讨会2013年11月17日 美国
2013超级计算能源效率国际研讨会
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