Exascale level computers might be available in less than a decade. Computer architects are already thinking of, and planning to achieve such levels of performance. It is reasonable to expect that researchers and engineers will carry out scientific and engineering computations more complex than ever before, and will attempt breakthroughs not possible today. If the size of the problems solved on such machines scales accordingly, we may face new issues related to precision, accuracy, performance, and programmability. The paper examines some relevant aspects of this problem. I
Recent developments in European supercomputing are reviewed covering both the latest hardware trends...
already exist and run on Petascale class Supercomputers [1]. Modelers, programmers, and computer arc...
became operational in 1997, and it took more than 11 years for a Petaflop/s performance machine, the...
David Keyes, Dean of Mathematical and Computer Sciences and Engineering and a Professor of Applied M...
Scientific computation has come into its own as a mature technology in all fields of science. Never ...
The next generation of supercomputers will break the exascale barrier. Soon we will have systems cap...
From the Foreword: “The authors of the chapters in this book are the pioneers who will explore the e...
The evolution of supercomputing architectures and technologies towardsexascale is dictated by constr...
Developing a computer system that can deliver sustained Exaflop performance is an extremely difficul...
The Department of Energy s Leadership Computing Facility, located at Oak Ridge National Laboratory s...
The next frontier of high performance computing is the Exascale, and this will certainly stand as a ...
Nowadays, the most powerful supercomputers in the world, needed for solving complex models and simu...
Abstract—For many scientific calculations, particularly those involving empirical data, IEEE 32-bit ...
In the light of the current race towards the Exascale, this article highlights the main features of ...
This report investigates the transition of applications from multi-petascale to exascale performance...
Recent developments in European supercomputing are reviewed covering both the latest hardware trends...
already exist and run on Petascale class Supercomputers [1]. Modelers, programmers, and computer arc...
became operational in 1997, and it took more than 11 years for a Petaflop/s performance machine, the...
David Keyes, Dean of Mathematical and Computer Sciences and Engineering and a Professor of Applied M...
Scientific computation has come into its own as a mature technology in all fields of science. Never ...
The next generation of supercomputers will break the exascale barrier. Soon we will have systems cap...
From the Foreword: “The authors of the chapters in this book are the pioneers who will explore the e...
The evolution of supercomputing architectures and technologies towardsexascale is dictated by constr...
Developing a computer system that can deliver sustained Exaflop performance is an extremely difficul...
The Department of Energy s Leadership Computing Facility, located at Oak Ridge National Laboratory s...
The next frontier of high performance computing is the Exascale, and this will certainly stand as a ...
Nowadays, the most powerful supercomputers in the world, needed for solving complex models and simu...
Abstract—For many scientific calculations, particularly those involving empirical data, IEEE 32-bit ...
In the light of the current race towards the Exascale, this article highlights the main features of ...
This report investigates the transition of applications from multi-petascale to exascale performance...
Recent developments in European supercomputing are reviewed covering both the latest hardware trends...
already exist and run on Petascale class Supercomputers [1]. Modelers, programmers, and computer arc...
became operational in 1997, and it took more than 11 years for a Petaflop/s performance machine, the...