Faculty


photo not avail 2Yuefan Deng
, Professor, Ph.D., 1989, Columbia University: Molecular dynamics; parallel computing
Yuefan Deng’s research involves developing parallel computing algorithms for a wide range of scientific problems.  In particular, he is a specialist in parallelizing the optimization technique of simulated annealing.  Deng has served as a consultant to IBM in refining the Deep Blue chess program and designing the Blue Gene supercomputers and so Craig Venter, who used ‘shot-gun sequencing’ techniques with parallel computers to complete the Human Genome Initiative several years ahead of schedule.
http://www.ams.sunysb.edu/~deng/index.html Office: Math Tower A-135, Phone: 631-632-8614 
    

photo not avail 2James Glimm (Chair), Distinguished Professor, Ph.D., 1959, Columbia Univ: Mathematical physics; nonlinear waves
James Glimm has made fundamental contributions to nonlinear analysis—winning the Amer. Math. Soc. Steele Prize— to quantum field theory—winning the American Physical Soc. Heineman Prize—and to computational fluid dynamics.  The Department of Energy adopted Glimm’s front-track methodology for shock-wave calculations, e.g., simulating weapons performance.  Glimm is a member of the Nat. Academy of Science and Academia Sinica and is a recipient of the National Medal of Science.  In 2007-08, he was President of the Amer. Math Soc.
http://www.ams.sunysb.edu/~glimm/glimm.html
Office: Math Tower P-138B, Phone: 631-632-8355


photo not avail 2Xiangmin Jiao, Associate Professor, Ph.D., 2001, University of Illinois; mesh processing, super computing
Jim Jiao's research interests are in high-performance geometric and numerical computing in science and engineering. His work focuses on developing efficient and robust algorithms and high-performance software implementations for dynamic surfaces, mesh optimization, applied computational and differential geometry, and multi-physics coupling, for applications involving heterogeneous physical systems, such as simulations of solid rocket motors, climate modeling, biological organs, and computer animations.
http://www.ams.sunysb.edu/~jiao/ Office: Math Tower 1-115,  Phone: 631-632-4408

 

photo not avail 2Xiaolin Li, Graduate Director, Professor, Ph.D., 1987, Columbia University: Computational applied mathematics
Xiaolin Li's major research objective is to design and implement a high resolution numerical method, the front tracking method, for the study of fluid interface instabilities such as the Rayleigh-Taylor instability and the Richtmyer-Meshkov instability. His research has involved collaborations with scientists at Los Alamos National Laboratory, Argonne National Laboratory and Brookhaven National Laboratory and the software has been used for research of various scientific problems such as the inertial confinement fusion and the study of fuel injection nozzle.
http://www.ams.sunysb.edu/~linli/
Office: Math Tower P-137,   Phone: 631-632-8354

 

photo not avail 2Brent Lindquist, Distinguished Teaching Professor, Ph.D., 1982, Cornell University: Computational fluid dynamics;
Brent Lindquist's research is focused on: i) our understanding of the fundamental properties of porous media and the relation of these properties to fluid motion; and ii) establishing limits on the accuracy of fluid movement prediction given practical limits on our understanding of the medium properties.  His research has unexpectedly been used by neuroscientists at Cold Spring Harbor Lab. His research tools involve numerical solution of nonlinear PDEs of mixed type, statistics/probability theory, elements of computational geometry, and image analysis.
http://www.ams.sunysb.edu/~lindquis/lindquist.html
Office: Math Tower A-137,  Phone: 631-632-8361

 

Roman Samulyak, Associate Professor, Ph.D., 1995, NJIT, Applied and Computational Mathematics, Fluid Dynamics
Roman Samulyak’s research involves mathematical modeling, numerical algorithms and simulations of complex physics processes in particle accelerators and energy research applications. He has performed numerical studies of liquids mercury targets for future particle accelerators such as the Neutrino Factory/Muon Collider and the Spallation Neutron Source, collective interactions of particles in accelerators, and fueling of thermonuclear fusion devices by the injection of cryogenic pellets.
http://www.ams.sunysb.edu/~rosamu/ Office: Math Tower 1-119, Phone: 631-632-8353