High Performance Computing (HPC) and, in general, Parallel and Distributed Computing (PDC) has become pervasive, from supercomputers and server farms containing multicore CPUs and GPUs, to individual PCs, laptops, and mobile devices. Even casual users of computers now depend on parallel processing. Therefore it is important for every computer user (and especially every programmer) to understand how parallelism and distributed computing affect problem solving. It is essential for educators to impart a range of PDC and HPC knowledge and skills at multiple levels within the educational fabric woven by Computer Science (CS), Computer Engineering (CE), and related computational curricula including data science. Companies and laboratories need people with these skills, and, as a result, they are finding that they must now engage in extensive on-the-job training. Nevertheless, rapid changes in hardware platforms, languages, and programming environments increasingly challenge educators to decide what to teach and how to teach it, in order to prepare students for careers that are increasingly likely to involve PDC and HPC.
This workshop invites unpublished manuscripts from academia, industry, and government laboratories on topics pertaining to the needs and approaches for augmenting undergraduate and graduate education in Computer Science and Engineering, Computational Science, and computational courses for both STEM and business disciplines with PDC and HPC concepts. We also encourage papers on large-scale data science.
The workshop is particularly dedicated to bringing together stakeholders from industry (both hardware vendors and employers), government labs, and academia in the context of SC-17. The goal is for each to hear the challenges faced by others, to learn about various approaches to addressing these challenges, and to have opportunities to exchange ideas and solutions. In addition to contributed talks, this workshop may feature invited talks on opportunities for collaboration, resource sharing, educator training, internships, and other means of increasing cross-fertilization between industry, government, and academia.
Topics of interest include, but are not limited to:
1. Pedagogical issues in incorporating PDC and HPC in undergraduate and graduate education, especially in core courses
2. Novel ways of teaching PDC and HPC topics
3. Data Science and Big Data aspects of teaching HPC/PDC including early experience with data science degree programs.
4. Experience with incorporating PDC and HPC topics into core CS/CE courses and in domain Computational Science and Engineering courses
5. Pedagogical tools, programming environments, infrastructures, languages, and projects for PDC and HPC
6. Employers' experiences with and expectation of the level of PDC and HPC proficiency among new graduates
7. Education resources based on higher-level programming languages, models, and environments such as PGAS, X10, Chapel, Haskell, Python, Cilk, CUDA, OpenCL, OpenACC, and Hadoop
8. Parallel and distributed models of programming and computation suitable for teaching, learning, and workforce development.
9. Projects or units that introduce students to concepts relevant to Internet of Things, networking, or other topics in mobile devices or sensor networks.
10. Issues and experiences addressing the gender gap in computing and broadening participation of underrepresented groups
11月13日
2017
会议日期
注册截止日期
2016年11月14日 美国 Salt Lake City,USA
2016年高性能计算教育研讨会2015年11月16日 美国
2015高性能计算教育研讨会
留言