Exascale supercomputers are expected to comprise hundreds of thousands of
heterogeneous compute nodes linked by complex networks. Those compute nodes will …

Extreme-scale computing requires a new perspective on the role of performance
observation in the Exascale system software stack. Because of the anticipated high …

Introducing the MADNESS numerical framework for petascale computing Page 1 Introducing
the MADNESS numerical framework for petascale computing W. Scott Thornton, Nicholas …

One of the core missions of the Department of Energy (DOE) is to move beyond current high
performance computing (HPC) capabilities toward a capable exascale computing …

Extreme scale parallel computing systems will have tens of thousands of optionally
accelerator-equiped nodes with hundreds of cores each, as well as deep memory …

John von Neumann Institute for Computing, Jülich, NIC Series, Vol. 38, ISBN 978-3-
9810843-4-4, pp. 687-688, 2007. Reprinted in: Advances in Parallel Computing, Volume 15 …

Exascale services bring new unique challenges that the current computational, big data and
workflow solutions are unable to meet. The chapter includes a detailed description of …

The scope of our working group is scientific visualization and data analysis. Scientific
visualization refers to the process of transforming scientific simulation and experimental data …

Addressing the major challenges of software productivity and performance portability
becomes necessary to take advantage of emerging extreme-scale computing architectures …

" Physical phenomena can be modeled at varying degrees of complexity and at different
scales. Multiscale modeling provides a framework, based on fundamental principles, for …