After a brief introduction of the World's first Petaflop/s Machine RoadRunner, which was designed by IBM for Los Alamos, we will discuss opportunities in computational science based on large-scale particle methods such as molecular dynamics (MD), direct simulation Monte-Carlo (DSMC), and agent-based models. Examples will include material science applications including metals under extreme pressure and temperature conditions [1,2], fluid dynamics challenges [3,4], and epidemiological models that help to explore mitigation strategies for possible pandemic outbreaks such as bird-flu [5]
The field of high-performance computing is developing at an extremely rapid pace. Massively parallel...
Abstract. Petascale computing is currently a common topic of discussion in the high performance comp...
Exascale computing has been a dream for ages and is close to becoming a reality that will impact how...
Scientific applications in nanoscience, combustion modeling, fusion energy simulations, climate mode...
On January 25, and 26, 2007, an NWChem meeting was held that was attended by 65 scientists from 29 i...
We develop scalable algorithms and object-oriented code frameworks for terascale scientific simulati...
Exascale computing has been a dream for ages and is close to becoming a reality that will impact how...
Showcases the conceptual advantages of modeling which, coupled with the unprecedented computing powe...
The first chapter provides an overview of the development of a novel agent-based simulation model of...
The goal of this paper is to expand on why we need to develop a petaflop computational fluid dynamic...
Although the challenges to achieving petascale computing within the next decade are daunting, severa...
Scientific computation has come into its own as a mature technology in all fields of science. Never ...
Abstract — We present our perspective and goals on highperformance computing for nanoscience in acco...
The advent of the age of petascale computing brings un-precedented opportunities for breakthroughs i...
In the century-long development of fluidization technology, simulation methods have evolved in respo...
The field of high-performance computing is developing at an extremely rapid pace. Massively parallel...
Abstract. Petascale computing is currently a common topic of discussion in the high performance comp...
Exascale computing has been a dream for ages and is close to becoming a reality that will impact how...
Scientific applications in nanoscience, combustion modeling, fusion energy simulations, climate mode...
On January 25, and 26, 2007, an NWChem meeting was held that was attended by 65 scientists from 29 i...
We develop scalable algorithms and object-oriented code frameworks for terascale scientific simulati...
Exascale computing has been a dream for ages and is close to becoming a reality that will impact how...
Showcases the conceptual advantages of modeling which, coupled with the unprecedented computing powe...
The first chapter provides an overview of the development of a novel agent-based simulation model of...
The goal of this paper is to expand on why we need to develop a petaflop computational fluid dynamic...
Although the challenges to achieving petascale computing within the next decade are daunting, severa...
Scientific computation has come into its own as a mature technology in all fields of science. Never ...
Abstract — We present our perspective and goals on highperformance computing for nanoscience in acco...
The advent of the age of petascale computing brings un-precedented opportunities for breakthroughs i...
In the century-long development of fluidization technology, simulation methods have evolved in respo...
The field of high-performance computing is developing at an extremely rapid pace. Massively parallel...
Abstract. Petascale computing is currently a common topic of discussion in the high performance comp...
Exascale computing has been a dream for ages and is close to becoming a reality that will impact how...