Sobre o conteúdo
The goal of this course is to give you solid foundations for developing, analyzing, and implementing parallel and locality-efficient algorithms. This course focuses on theoretical underpinnings. To give a practical feeling for how algorithms map to and behave on real systems, we will supplement algorithmic theory with hands-on exercises on modern HPC systems, such as Cilk Plus or OpenMP on shared memory nodes, CUDA for graphics co-processors (GPUs), and MPI and PGAS models for distributed memory systems. This course is a graduate-level introduction to scalable parallel algorithms. “Scale” really refers to two things: efficient as the problem size grows, and efficient as the system size (measured in numbers of cores or compute nodes) grows. To really scale your algorithm in both of these senses, you need to be smart about reducing asymptotic complexity the way you’ve done for sequential algorithms since CS 101; but you also need to think about reducing communication and data movement. This course is about the basic algorithmic techniques you’ll need to do so. The techniques you’ll encounter covers the main algorithm design and analysis ideas for three major classes of machines: for multicore and many core shared memory machines, via the work-span model; for distributed memory machines like clusters and supercomputers, via network models; and for sequential or parallel machines with deep memory hierarchies (e.g., caches). You will see these techniques applied to fundamental problems, like sorting, search on trees and graphs, and linear algebra, among others. The practical aspect of this course is implementing the algorithms and techniques you’ll learn to run on real parallel and distributed systems, so you can check whether what appears to work well in theory also translates into practice. (Programming models you’ll use include Cilk Plus, OpenMP, and MPI, and possibly others.)
Programa de estudos
- Rich Vuduc - Rich Vuduc an associate professor in the School of Computational Science and Engineering (CSE) atGeorgia Tech. His research is in the area of high-performance computing. This year, Professor Vuduc is also serving as both the Associate Chair of Academic Affairs in the School of CSE and as the Director of CSE Programs. Research: The HPC Garage [@hpcgarage]. Professor Vuduc’s lab is developing automated tools and techniques to tune, to analyze, and to debug software for parallel machines, including emerging high-end multi/manycore architectures and accelerators. They focus on applying these methods to CSE applications, which include computer-based simulation of natural and engineered systems and data analysis.
Criador do conteúdo
O Georgia Institute of Technology, também conhecido por Georgia Tech ou GT, é uma universidade pública de investigação mista situada em Atlanta, Geórgia, EUA. Faz parte da rede alargada do Sistema Universitário da Geórgia. O Georgia Tech tem escritórios em Savannah (Geórgia, EUA), Metz (França), Athlone (Irlanda), Xangai (China) e Singapura.
A reputação da Georgia Tech assenta nos seus programas de engenharia e ciências informáticas, que se encontram entre os melhores do mundo5,6. A oferta de cursos é complementada por programas nas áreas das ciências, arquitetura, humanidades e gestão.
Udacity est une entreprise fondé par Sebastian Thrun, David Stavens, et Mike Sokolsky offrant cours en ligne ouvert et massif.
Selon Thrun, l'origine du nom Udacity vient de la volonté de l'entreprise d'être "audacieux pour vous, l'étudiant ". Bien que Udacity se concentrait à l'origine sur une offre de cours universitaires, la plateforme se concentre désormais plus sur de formations destinés aux professionnels.