3:15 PM - 5:15 PM
Room: Atlanta A
For Part I, see MS2
Molecular dynamics (MD) simulations, which model the motion of atoms within a molecular system, can serve as a computational “microscope” onto phenomena that are difficult to observe experimentally. Thanks to improvements in both algorithms and computational hardware, accurate MD simulations will soon be able to access the microsecond and millisecond time scales characteristic of some of the biochemical events of greatest scientific and pharmaceutical interest. The huge computational requirements of such simulations demand parallel computation, as well as new algorithms and implementations that efficiently parallelize the various components of the interatomic force calculation. In this minisymposium, we examine the latest progress in several high-performance approaches to MD simulation. These approaches include parallel supercomputers using processors specifically designed for MD, new implementations using commodity graphics processors, and novel algorithms for general-purpose supercomputers and clusters.
Organizer:
David E. Shaw
D. E. Shaw Research and Columbia University
Edmond Chow
D. E. Shaw Research
Ron O. Dror
D. E. Shaw Research
3:15-3:40
Scaling Classical Molecular Dynamics to O(1) Atom per Node
3:45-4:10
Petascale Special-Purpose Computer for Molecular Dynamics Simulations: MDGRAPE-3 and Beyond
4:15-4:40
Accelerating NAMD with Graphics Processors
4:45-5:10
Anton: A Special-purpose Machine for Molecular Dynamics Simulation