WEI CAI

Assistant Professor, Mechanical Engineering,
Stanford University

(650) 736-1671

caiwei@stanford.edu

http://me.stanford.edu/me_profile.php?sunetid=caiwei

Project 2–5: Nanoscale Dislocation Dynamics in Crystals

Predicting mechanical strength of materials through theory and simulations of defect microstructures across atomic, mesoscopic and continuum scales. Developing new atomistic simulation methods for long time-scale processes, such as crystal growth and self-assembly. Introducing magnetic field in quantum simulations of electronic structure and transport.

JEANINE COOK

Associate Professor, Klipsch School of Electrical and Computer Engineering,

New Mexico State University

(575) 646-3153

jecook@nmsu.edu

http://www.ece.nmsu.edu/~jecook

Project 4–7: Evaluating Heterogeneous High Performance Computing for Use in Field-Deployable Systems

Director, NMSU Advanced Computer Architecture Performance and Simulation Laboratory. Research interests in microarchitecture simulation techniques, performance modeling and analysis, workload characterization, and microarchitectural power optimizations.

WILLIAM DALLY

Willard R. and Inez Kerr Bell Professor of Computer Science and Electrical Engineering and Chairman of the Computer Science Department,
Stanford University

(650) 725-8945

billd@csl.stanford.edu

http://cva.stanford.edu/billd_webpage_new.html

Project 4–1: Stream Programming for High Performance Computing

Streaming supercomputer development; scalability from a single chip to thousands of chips; improving performance at least an order of magnitude per unit cost on a wide range of demanding numerical computations compared to conventional cluster-based supercomputers through combining stream processing with a high-performance network to access a globally shared memory.

ERIC DARVE

Assistant Professor, Mechanical Engineering, Institute for Computational and Mathematical Engineering, Stanford University

(650) 725-2560

darve@stanford.edu.

http://me.stanford.edu/me_profile.php?sunetid=darve

Projects 2–2: Micro- and Nanofluidic Devices for Sorting and Sensing BWAs and Engineering Blood Additives;
2–3: Molecular Dynamics of Antimicrobial Agents;
2–6: Multiscale Modeling of Materials (2010)
4–5: PFMMPACK (2007-2009)

Numerical method development for large-scale scientific computing. Applications in biomolecular simulations, electrodynamics, and acoustics. Numerical techniques to reduce computational expense and enable the simulation of large-scale systems over realistic time scales. Fast multipole method, molecular dynamics of proteins, integral equations for fluid flow and acoustics, computational linear algebra, and multi-scale time integrators.

Lecturer, Electrical and Computer Engineering, Morgan State University

(443) 885-4746

Richard.Dean@ morgan.edu

Project 3–4: Robust Wireless Communications in Complex Environments

Exploring how fixed and mobile ad hoc networks can be integrated and enhanced for tactical communications.