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Selected Biographic Information

This includes many, but certainly not all, of the key CP participants. The bibliography and Appendix A cites the full set of CP reports and authors.

Giovanni Aloisio
Dipartimento di Elettrotecnica ed Elettronica
Facolta di Ingegneria-Politecnico di Bari (Italy)
Via Orabona, 4
70125 Bari (Italy)
Aloisio@vaxle.le.infn.it
Worked from (11/86-end of project): Investigating the efficiency of the Hypercube architecture in Real-Time SAR data processing (``SAR Hypercube Project''). Non traditional FFT algorithms, such as the Prime Factor, have been coded to run on the nCUBE, iPSC, and Mark IIIfp hypercubes. The optimal decomposition, on a specific hypercube system, of a complete software package for digital SAR data processing has been determined. This package has been implemented in the sequential version on a VAX-780 at IESI/CNR (Bari-Italy) and has been tested on digital raw data obtained by JPL (SIR-B space Shuttle mission). Now works on: High Performance Distributed Computing (porting of several applications under PVM and Net-EXPRESS. Parallel compilers, such as HPF, will also be tested). A joint project with CCSF is in progress.

Ian Angus
Research Scientist
Boeing Computer Services
P. O. Box 24346, MS 7L-48
Seattle, WA 98124-0346
angus@atc.boeing.com
Worked from (1986-1987): Involved primarily with the implementation of a Hypercube simulator and with the design and first implementation of the Fortran Cubix programming system. Now works on: Programming tools and environments, object oriented approaches to scientific and parallel computing, and compilation of object oriented languages.

John Apostolakis
CERN
CN Division, 513-R-024
CH 1211 GENEVA 23, Switzerland
japost@dxcern.cern.ch
Worked from (9/86-end of project): With lattice gauge theory, lattice spin models, and gravitational lenses and the issues involved in developing efficient parallel programs to simulate them. Now works on: Implementing experimental high energy physics applications on Massively Parallel Processors. Contributed Section 7.4, Statistical Gravitational Lensing

Clive F. Baillie
Research Fellow
Computer Science Department
Campus Box 430
University of Colorado
Boulder CO 80309
clive@kilt.cs.colorado.edu
Worked from (9/86-end of project): Implementations of physics problems, particularly clustering methods and performance studies. Large-scale Monte-Carlo simulations of QCD, XY and O(3) models, 3D Ising model, 2D Potts model and dynamically triangulated random surfaces (DTRS). Now works on: Further work on DTRS, making them self-avoiding to simulate superstrings, and adding Potts models to simulate quantum gravity coupled to matter. Contributed Sections 4.3, Quantum Chromodynamics; 4.4, Spin Models; 7.2, Dynamically Triangulated Random Surfaces; and 12.6, Cluster Algorithms for Spin Models

Vasanth Bala
Member of the Technical Staff
Kendall Square Research
170 Tracer Lane
Waltham, Massachusetts 02154
vas@ksr.com
Worked from (8/89-end of project): With the design of software tools, compiler optimizations, and communication libraries for scalable parallel computers. Now works on: Speculative instruction scheduling for superscalar RISC processors, and general compiler optimization of C, Fortran90/HPF and C++ programs for RISC-based parallel computers. After leaving Caltech CP, was a research staff member at IBM T. J. Watson Research Center (Yorktown Heights, NY) involved in the design of the IBM SP1 parallel computer. Contributed Section 13.2, A Software Tool

Ted Barnes
Staff Physicist
Theoretical Physics Division
Oak Ridge National Laboratory
Oak Ridge, Tennessee 37831-8083

and Associate Professor of Physics
Department of Physics
University of Tennessee
Knoxville, Tennessee 37996
Worked from (1987-1989): Monte Carlo calculations to simulate high-temperature superconductivity. Now works on: QCD spectroscopy, couplings and decays of hadrons, high-temperature superconductivity. Contributed Section 7.3, Numerical Study of High- Spin Systems

Roberto Battiti
Assistant Professor of Physics
Universita` di Trento
Dipartimento di Matematica
38050 Povo (Trento), Italy
battiti@itnvax.cineca.it
Worked from (1986-end of project): Parallel implementation of neural nets and vision algorithms; computational complexity of learning algorithms. Now works on: Constructive and destructive learning methods for neural nets, ``natural'' problem solving such as genetic algorithms; application of neural nets in financial and industrial areas. Contributed Sections 6.5, A Hierarchical Scheme for Surface Reconstruction and Discontinuity Detection; 6.7, An Adaptive Multiscale Scheme for Real-Time Motion Field Estimation; 6.8, Collective Stereopsis, and 9.9, Optimization Methods for Neural Nets: Automatic Parameter Tuning and Faster Convergence

Jim Bower
Associate Professor of Biology
Computation and Neural Systems Program
California Institute of Technology
Mail Code 216-76
Pasadena, California 91125
jbower@smaug.bbb.caltech.edu
Worked from (1988-end of project): Using concurrent computers to build large-scale realistic models of the nervous system. We recognized early on that truely realistic models of these complex systems would require the power present in parallel computation. This, in fact, is reflected in the fact that the nervous system itself is probably a parallel device. Leader of GENESIS project described in Section 7.6. Now works on: Current interest remains understanding the relationships between the structure and the function of the nervous system. We have recently published several scientific papers that would have not been possible without the use of the concurrent machines at Caltech.

Eugene D. Brooks, III
Deputy Associate Director
Advanced Technologies Computation Organization
Lawrence Livermore National Laboratory
P. O. Box 808, L-66
Livermore, CA 94550
brooks3@llnl.gov
Worked from (1981-1983): The use of parallel computing to supply a new computational capability for computational physics tasks. Now works on: Parallel computer architecture, parallel languages, computational physics algorithms, and parallelization of computational physics algorithms.

Robert W. Clayton
Professor of Geophysics
California Institute of Technology
Geophysics, 350 S. Mudd
Mail Code 252-21
Pasadena, CA 91125
clay@seismo.gps.caltech.edu
Worked from (1983-end of project): Finite-difference solutions of wave phenomena. Imaging with seismic reflection data. Now works on: Finite-difference solutions of wave phenomena. Imaging with seismic reflection data. Contributed Section 18.2, ISIS: An Interactive Seismic Imaging System

Paul Coddington
Syracuse University
Northeast Parallel Architectures Center
111 College Place, 3-228 CST
Syracuse, New York 13244-4100
paulc@npac.syr.edu
Worked from (1988-end of project): Developed parallel implementations of non-local Monte Carlo algorithms for spin models of magnetism. Now works on: From 1990-92, worked as a Research Associate at NPAC on computational physics applications, including new sequential and parallel Monte Carlo algorithms for spin models and dynamically triangulated random surface models of quantum gravity, as well as parallel algorithms for connected component labeling and graph coloring. Also worked on improved stochastic optimization techniques, such as simulated annealing.

From 1992 until the present, worked as a Research Scientist at NPAC leading a project on the use of parallel computing in the power utility industry. This involves porting existing code to parallel computers, and developing parallel algorithms for sparse matrix computations and differential-algebraic equation solvers.

Dave Curkendall
ALPHA Project Manager and
Advanced Parallel Processing Program Manager
Jet Propulsion Laboratory
4800 Oak Grove Drive, MC 138-310
Pasadena, California 91109
DAVE_CURKENDALL@macq_smtp.Jpl.Nasa.Gov
Worked from (8/84-end of project): As Hypercube Task Manager and later as Hypercube Project Manager, was interested in the hypercube hardware development, its operating system, particularly the asynchronous message-passing developments of Mercury and Centaur, and in the development of large-scale simulations. Now works on: The development of discrete event simulation software for parallel machines and techniques for the remote, interactive exploration of large, image and geographical databases.

Contributed Section 18.3, Parallel Simulations that Emulate Function

Hong-Qiang Ding
Member of Technical Staff
Jet Propulsion Laboratory
4800 Oak Grove Drive
Mail Stop 169-315
Pasadena, California 91109
hding@redwood.jpl.nasa.gov
Worked from (8/87-end of project): Extensive and large-scale simulations QCD and quantum spin models. Now works on: Developing efficient methods for long-range interactions and molecular simulations; simulate model superconductors with parallel machines. Contributed Sections 6.3, Magnetism in the High-Temperature Superconductor Materials; and 6.4, Phase Transitions in Two-dimensional Quantum Spin Systems

David Edelsohn
IBM T. J. Watson Research Center
P. O. Box 218
Yorktown Heights, NY 10598-0218
c1dje@watson.ibm.com
Worked from (1989-end of project): Computational astrophysics simulations of galaxy formation and evolution, and cosmology using concurrent, multiscale, hierarchical N-body and adaptive mesh refinement algorithms. Now works on: As a doctoral candidate at the Northeast Parallel Architectures Center, Syracuse University, his research interests include computational astrophysics simulations of galaxy formation and evolution, and cosmology using concurrent, multiscale, hierarchical N-body and adaptive mesh refinement algorithms; and object-oriented concurrent languages. He is visiting IBM as an IBM Computational Science Graduate Fellow. Contributed Section 12.8, Hierarchical Tree-Structures as Adaptive Meshes

Ed Felten
Assistant Professor
Department of Computer Science
Princeton University
35 Olden Street
Princeton, New Jersey 08544
felten@cs.princeton.edu
Worked from (1984-end of project): Research interests included a variety of issues surrounding how to implement irregular and non-numerical applications on distributed-memory systems. Now works on: How to build system software for parallel machines, and how to construct parallel programs to use this system software. More generally, my research interests include parallel and distributed computing, operating systems, architecture, and performance modeling.

Jon Flower
President
ParaSoft Corporation
2500 E. Foothill Blvd.
Pasadena CA 91107
jwf@parasoft.com
Worked from (1983-end of project): High-energy physics simulations; programming tools, debugging and visualization. Founder and President of ParaSoft Corporation Now works on: Programming environments, tools, libraries for parallel computers. Contributed Sections 5.2, A ``Packet'' History of Message-passing Systems; 5.3, Parallel Debugging; 5.4, Parallel Profiling; and 13.5, ASPAR

Geoffrey C. Fox
Professor of Computer Science and Physics
Director, Northeast Parallel Architectures Center
Syracuse University
111 College Place
Syracuse, New York 13244-4100
gcf@npac.syr.edu
Worked from (1981-end of project): Involved as Principal Investigator with particular attention to applications, algorithms, and software. Developed the theory of problem architecture to describe and classify results of CP. Developed concepts in computational science education based on student involvement in CP and implemented new curricula initially at Caltech and later at Syracuse University. Now works on: From 1990 until the present, directs the project at Syracuse University, which has a similar spirit to CP, but is aimed more at industry than at academic problems. Contributed Chapters 1, 3, 19, and 20; Sections 4.1, 4.2, 5.1, 6.1, 7.1, 9.1, 11.2, 11.3, 12.1, 13.1, 13.3, 13.7, 14.1, 15.1, and 18.1

Sandy Frey
President, Reliable Distributed Information Corporation
Pasadena, CA 91107
sandy@ccsf.caltech.edu
Worked from (1984-1988): Studying the system problems of implementing a teraflop machine with 1980s technology, and the data management problems involved in implementing massive data intensive applications in parallel processing environments, such as hypercubes. Now works on: Data management problems involved in implementing massive data intensive applications in parallel processing environments, such as hypercubes.

Wojtek Furmanski
Research Professor of Physics
Syracuse University
201 Physics Building
Syracuse, New York 13244-1130
furm@npac.syr.edu
Worked from (1986-end of project): Developed a class of optimal collective communication algorithms implemented on Caltech hypercubes, and applied in parallel implementation of neuroscience simulations and machine vision algorithms. Now works on: Based on lessons learned in these early parallel simulations, developed MOVIE system aimed at a general purpose platform for interactive HPCC environments. MOVIE, initially used for terrain image analysis, is now further developed at NPAC. Recently, the HPF interpreter has been constructed on top of MOVIE, and the MOVIE system is now further developed with the aim of integrating HPCC and Virtual Reality software technologies towards the broadband network based televirtuality environment.

Contributed Chapter 17, MOVIE - Multitasking Object-oriented Visual Interactive Environment Jeff Goldsmith
California Institute of Technology
Mail code 350-74
Pasadena, California 91125
jeff@gg.caltech.edu
Worked from (1985-end of project): Computer Graphics. Now works on: Computer Graphics, in particular, computer-designed motion.

Peter Gorham
Project Manager
University of Hawaii at Manoa
Honolulu, Hawaii 96822
gorham@fermion.phys.Hawaii.Edu
Worked from (1987-end of project): My work with P came about through Tom Prince's involvement with the project. Tom hired me as a postdoc in 1987 and I arrived in February of that year. Tom was beginning a collaboration with Shri Kulkarni of the Caltech Astronomy Department in two areas: first, a program to develop code for bispectral anlaysis of astronomical speckle interferograms taken with the Hale telescope; and second, a search for new radio pulsars using the Arecibo Observatory's transit telescope. In both cases, the telescopes involved were among the largest of their class and the data sets to be produced could only be managed with a supercomputer. Also in both cases, the data analysis lent itself very well to parallel processing techniques.

Both programs were very successful and Tom and I had the pleasure of seeing two graduate students complete their PhD requirements in each of the research areas (Stuart Anderson, pulsars; and Andrea Ghez, infrared speckle interferometry). Something of order a dozen research papers came out of this effort before I left for my present position in July of 1991, and a steady stream of results have come out since. Now works on: The Deep Underwater Muon and Neutrino Detector (DUMAND) project. This project is developing a large, deep ocean Cherenkov detector which will be sensitive to high energy neutrino interactions and will have the capability to produce images of the sky in the ``light'' of neutrinos, with angular resolution of order 1 degree. The motivation behind such research arises from current belief that emission of high energy neutrinos may be a dominant process by which active galactic nuclei and QSOs release energy into their galactic environment. Detection of such neutrinos would provide unique information about the central engine of such galaxies.

Thomas D. Gottschalk
Member of the Professional Staff
California Institute of Technology
Mail code 356-48
Pasadena, California 91125
tdg@cithex.cithep.caltech.edu
tdg@bigbird.jpl.nasa.gov
Worked from (1987-end of project): Concurrent multi-target tracking for SDI scenarios/applications. Now works on: Multi-target tracking (aircraft and space objects), surveillance systems operations, including sensor tasking, and design rule checking for VLSI systems. Contributed Sections 9.8, Munkres Algorithm for Assignment; and 18.4, Multi-Target Tracking

Gary Gutt
Member of the Technical Staff
Jet Propulsion Laboratory
4800 Oak Grove Drive
Mail Stop 183-401
Pasadena, California 91109
gmg@mg.jpl.nasa.gov
Worked from (4/88-5/89): Numerical simulation of granular systems using the lattice grain dynamics paradigm. Now works on: Microgravity containerless materials processing; development of electrostatic and electromagnetic positioning techniques for use in microgravity containerless materials processing. Contributed Section 4.5, An Automata Model for Granular Materials

Peter Halamek
Technical Staff Member
Jet Propulsion Laboratory
Mail Stop 301-125L
Pasadena CA 91109
pxh@hamlet.caltech.edu
Worked from (6/88-1/89): Image processing; determination of 3D physical properties of objects from 2D camera images taken aboard a spacecraft. Now works on: Optical navigation related research: improving accuracy of extended body center-finding on images of celestial bodies.

Paul G. Hipes
Vice President
Salmon Brothers, Inc.
7 World Trade Center
37th Floor
New York, New York 10048
hipes@daffy.sbi.com
Worked from (11/87-end of project): Direct solvers for dense systems of linear equations, special purpose matrix O.D.E. solvers, electron-molecule scattering problems approached with Schwinger variational methods, atom-molecule scattering problems approached by direct expansion methods, and green function Monte Carlo techniques for stationary states of many-electron systems. Now works on: the term structure of interest rates and related topics in fixed income arbitrage.

Alex Ho
Research scientist
IBM Almaden Research Center
K54/802
650 Harry Rd.
San Jose, California 95120-6099
Worked from (7/85-end of project): Pattern recognition, artificial intelligence, neural nets, robot navigation. Now works on: Massively parallel computing, programming models, architectures, fault-tolerance, performance evaluation.

Mark A. Johnson
Senior Engineer/Scientist
IBM Corporation
Internal Zip 4441
11400 Burnet Road
Austin, Texas 78758
maj@austin.ibm.com
Worked from (1983-1986): Pursued research that led to a Ph.D. in Statistical Physics. Primary research interests included studying melting in a two-dimensional system of interacting particles. Now works on: System architecture in the area of High End Technical Systems of the Advanced Workstations and Systems Division of IBM. Contributed Section 14.2, Melting in Two Dimensions

Jai Sam Kim
Associate Professor, Department of Physics
Pohang Institute of Science and Technology
Hyoja-dong San 31
Pohang 780-784, S. KOREA
jsk@vision.postech.ac.kr
Worked from (1986-1988): Involved in the development of the hypercube simulator NSIM. Later, he parallelized the FFT codes with Italian visitors Aloisio and collaborators. Their work on the prime factor DFT code demonstrated the usefulness of Crystal_Router and also the limitations with the store-and-forward routing method. He wrote the FORTRAN application codes that were included in Solving Problems on Concurrent Processors, Vol. 2 [Angus:90a]. Now works on: Shortly before he returned to his home country Korea, he joined the interactive parallelizer project described in Chapter 13. He has not been heard from for some time, but has recently parallelized some working PDE codes used by mechanical engineers both on NSIM and PVM. Adam Kolawa
Chairman/CEO ParaSoft Corporation
2500 E. Foothill Blvd., Suite 104
Pasadena, California 91107
ukola@flea.parasoft.com
Worked from (1983-end of project): Development of system software for parallel computers. Now works on: Development of software tools.

Jeff Koller
Computer Scientist
Information Sciences Institute
4676 Admiralty Way
Marina del Rey, California 90292
koller@isi.edu
Worked from (1987-1989): MOOS II operating system, application of novel optimization techniques to dynamic load balancing and compiler optimization. Now works on: VLSI design and system software for next-generation parallel machines. Contributed Sections 13.4, Optimizing Compilers by Neural Networks; and 15.2, MOOS II: An Operating System for Dynamic Load Balancing on the iPSC/1

Aron Kuppermann
Professor
California Institute of Technology
Mail Code 127-72
Pasadena, California 91125
aron@caltech.edu
Worked from (from beginning to end of project): Quantum mechanical reaction dynamics; reactive scattering methodologies suitable for MIMD machines. Now works on: Adapting quantum mechanical reaction dynamics codes to new parallel machines. Contributed Section 8.2, Quantum Mechanical Reactive Scattering using a High Performance Parallel Computer

Paulette C. Liewer
Member of the Technical Staff
Jet Propulsion Laboratory
4800 Oak Grove Drive
Mail Stop 198-231
Pasadena, California 91109
pauly@hyper-spaceport.jpl.nasa.gov

and Visiting Associate in Applied Physics
California Institute of Technology
Mail Code 128-95
Pasadena, California 91125
Worked from (1986-end of project): Concurrent algorithms for particle-in-cell codes. Now works on: 3D plasma particle-in-cell codes; application of concurrent PIC codes to problems in solar, space and laboratory plasmas. Contributed Section 9.3, Plasma Particle-in-Cell Simulation of an Electron Beam Plasma Instability

Gregory A. Lyzenga
Associate Professor of Physics
Harvey Mudd College
Physics Department
Claremont, California 91711
lyzenga@hmcvax.ac.hmc.edu
Worked from (1985-end of project): Parallel solution of fine element problems as applied to geophysics, solid mechanics, fluid mechanics, and electromagnetics. Now works on: Solid earth geophysics; mechanics of earthquakes and tectonic deformation

Miloje Makivic
Computational Research Scientist
Northeast Parallel Architectures Center
111 College Place
Syracuse, New York 13244-4100
miloje@npac.syr.edu
Worked from (1988-end of project): As graduate student in the Division of Mathematics, Physics and Astronomy at Caltech, collaborated with the CP group. After 1990, used parallel resources at CP to develop computational physics algorithms, specifically Monte Carlo methods on parallel processors for strongly correlated quantum systems: Spin systems, high-temperature superconductors, disordered superconducting thin films, and general quantum critical phenomena. Also worked on self-consistent perturbation theory approach to heavy fermions and low-dimensional magnets. Now works on: From 1990 until September 1993, worked as post-doctoral research in the Physics Department of Ohio State University. Presently, working at Syracuse University (NPAC) on the application of parallel computing in industry and science. Current projects include atmospheric data assimilation and financial modelling.

Vincent McKoy
Professor
California Institute of Technology
Mail Code 127-72
Pasadena, California 91125
bvm@citchem.bitnet
Worked from (3/89-9/89): Studies of collisions of electrons with polyatomic molecules. Now works on: Using variational procedures to obtain cross-sections for electronic excitation of molecules by electron impact. Contributed Section 8.3, Studies of Electron-Molecule Collisions on Distributed-memory Parallel Computers

Paul Messina
CCSF Executive Director
California Institute of Technology
Mail Code 158-79
Pasadena, California 91125
messina@CCSF.Caltech.edu
Worked from (1987-end of project): Involved as Co-Investigator with particular emphasis on acquiring and managing the computing facilities, and on the systems issues of concurrent computing environments. Now works on: From 1990 until the present, directs the Caltech Concurrent Supercomputing Facilities, which have pushed to higher limits of performance the approaches conceived in CP. Also, manages the CASA gigabit network testbed project, which explores issues on distributed supercomputing. Contributed Chapter 2, Technical Backdrop

Steve Otto
Assistant Professor
Department of Computer Science and Engineering
Oregon Graduate Institute of Science and Technology
20000 NW Walker Rd., P. O. Box 91000
Portland, Oregon 97291-1000
otto@cse.ogi.edu
Worked from (1981-1989): QCD, Computer chess, fine-grained parallel systems, combinatoric optimization schemes. Now works on: Parallel languages and compilation techniques for scalable parallel architectures; new combinatoric optimization algorithms. Contributed Sections 6.6, Character Recognition by Neural Nets; 7.5, Parallel Random Number Generators; 11.4, An Improved Method for the Traveling Salesman Problem; 12.7, Sorting; 13.6, Coherent Parallel C; and 14.3, Computer Chess

Jean Patterson
Technical Group Supervisor for
Remote Sensing Analysis Systems and Modeling Group
Jet Propulsion Laboratory
4800 Oak Grove Drive
Mail Code 198-231
Pasadena, California 91109
jep@yosemite.Jpl.Nasa.Gov
Worked from (1984-end of project): Remote sensing data analysis and modeling for remote sensing applications. These applications use high-performance parallel processing systems for the analysis. In particular, involved has been with electromagnetic scattering and radiation analysis, atmospheric radiative transfer, and synthetic aperture radar processing. Now works on: Continues with electromagnetics and atmospheric radiative transfer modeling. Key participants involved in the finite element work include Tom Cwik, Robert Ferraro, Nathan Jacobi, Paulette Liewer, Greg Lyzenga, and Jay Parker Contributed Section 9.4, Computational Electromagnetics

Francois Pepin
Staff Member
Canadair Aerospace Group
11324 Meunier
Montreal H3L 2Z6, Canada
Worked from (6/87-end of project): Simulation of viscous incompressible flows using vortex methods; fast algorithms for N-body problems. Now works on: Simulation of compressible flows over transport aircraft. Contributed Section 12.5, Fast Vortex Algorithm and Parallel Computing Tom Prince
Professor of Physics
California Institute of Technology
Mail Code 220-47
Pasadena, California 91125
prince@caltech.edu
Worked from (1985-end of project): Diffraction-limited imaging with large ground-based optical and infrared telescopes, very-high sensitivity searches for pulsars in globular clusters, and searches for pulsars in short-orbit binary systems. Now works on: Very-high speed data acquisition and analysis, image enhancement of astronomical infrared maps, and pulsar search and detection.

Peter Reiher
Member of the Technical Staff
Jet Propulsion Laboratory
4800 Oak Grove Drive
Mail Stop 525-3660
Pasadena, California 91109
Worked from (11/87-1989): The TimeWarp operating system, parallel programming synchronization methods. Now works on: Parallel and distributed operating systems. Contributed Section 15.3, Time Warp

Ken Rose
Assistant Professor
University of California at Santa Barbara
Department of Electrical and Computer Engineering
Santa Barbara, California 93106
rose@ece.ucsb.edu
Worked from (7/89-end of project): Combinatin of principles of information theory with tools from statistical physics for solving hard optimization problems. Particular applications included fuzzy and hard clustering (pttern recognition and neural networks), vector quantization (coding/communications), and tracking. Now works on: Information theory (particularly rate-distortion theory), pattern recognition, source coding, communications, signal processing, and nonconvex optimization.

John Salmon
Research Fellow
California Institute of Technology
Mail Code 206-49
Pasadena, California 91125
johns@ccsf.caltech.edu
Worked from (8/83-end of project): As a graduate student and post-doc, research interests included astrophysical applications, Fourier transforms, ray-tracing, parallel I/O, and operating systems. Still working with the current incarnations of CP at Caltech. Now works on: Fast tree-based methods for N-body problems and other applications (hydrodynamics, panel methods, random fields) have dominated recent attention. Work with the current incarnations of CP are still being continued at present. Contributed Section 12.4, Tree Codes for N-body Simulations Anthony Skjellum
Assistant Professor of Computer Science
NSF Engineering Research Center for Computational Field Simulation
and Computer Science Department
Mississippi State University
P. O. Drawer CS
300 Butler Hall
Mississippi State, Mississippi 39762-5623
tony@cs.msstate.edu
Worked from (9/87-end of project): Parallel libraries, message-passing systems, portability, chemical engineering applications-flowsheeting. Now works on: Same as above, plus standards in message passing (message-passing interface forum), heterogeneous high-performance clusters Contributed Sections 9.5, LU Factorization of Sparse, Unsymmetric Jacobi Matrices; 9.6, Concurrent DASSL Applied to Dynamic Distillation Column Simulation; and Chapter 16, The Zipcode Message-passing System

Michael D. Speight
Registrar in Medical Radiodiagnosis, Royal Infirmary of Edinburgh
c/o Medical Statistics Unit
University of Edinburgh
Teviot Place
Edinburgh EH8 9AG, Scotland
mds3@edinburgh.ac.uk
Worked from (1989-end of project): Biologically realistic neural simulation on parallel computers. Most recent involvement was via Jim Bower's group doing neural simulation work on the Intel Touchstone Delta. Now works on: Virtual reality systems and parallel computing for manipulating medical images (e.g., human brain MRI scans). Contributed Section 7.6, Parallel Computing in Neurobiology: The GENESIS Project Eric Van de Velde
Senior Research Fellow
California Institute of Technology
Mail Code 217-50
Pasadena, California 91125
evdv@ama.caltech.edu
Worked from (6/86-end of project): Algorithms for concurrent scientific computing; multigrid and linear algebra algorithms. Now works on: Multigrid, linear algebra, fluid flow, reaction-diffusion equations. Contributed Section 9.7, Adaptive Multigrid David Walker
Member of the Technical Staff
Building 9207A, MS-8083
P.O. Box 2009
Oak Ridge National Laboratory
Oak Ridge, TN 37831-8083
walker@msr.epm.ornl.gov
Worked from (3/86-8/88): Parallel linear algebra, parallel CFD, benchmarking, programming paradigms, parallel FFT algorithms. Now works on: Linear algebra software for MIMD machines, concurrent particle-in-cell algorithms for plasma simulations, benchmarking, molecular dynamics. Contributed Sections 6.2, Convectively-Dominated Flows and the Flux-Corrected Transport Technique; and 8.1, Full and Banded Matrix Algorithms

Brad Werner
Assistant Professor
University of California at San Diego
Scripps Institution of Oceanography
Center for Coastal Studies
Mail Code 0209
9500 Gilman Drive
La Jolla, California 92093-0209
werner@hayek.ucsd.edu
Worked from (1983-1987): Simulation of the dynamics of granular materials. Now works on: Quantitative geomorphology, nearshore and desert processes, granular materials, computer simulation, pattern formation. Contributed Section 9.2, Geomorphology by Micromechanical Simulations

Roy Williams
Senior Staff Scientist
Concurrent Supercomputing Facilities
California Institute of Technology
Mail Code 206-49
Pasadena, California 91125
roy@ccsf.caltech.edu
Worked from (2/86-end of project): Programming paradigms and algorithms for unstructured triangular meshes. Now works on: General unstructured meshes; finite-element and finite-volume methods; reaction-diffusion equations; mesh generation in complex geometries. Contributed Chapter 10, DIME Programming Environment; Sections 11.1, Load Balancing as an Optimization Problem, 12.2, Simulation of the Electrosensory System of the Fish Gnathonemus petersii; and 12.3, Transonic Flow

Carl Winstead
Assistant Scientist
California Institute of Technology
Mail Code 127-72
Pasadena, California 91125
clw@cco.caltech.edu
Worked from (3/89-9/89): Computation of electron-molecule collision cross-sections with parallel machines. Now works on: Electron-molecule collision cross-sections relevant to low-temperature plasmas; improving methods and algorithms in such calculations.



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Next: References Up: Parallel Computing Works Previous: 20.2 Computational Science



Guy Robinson
Wed Mar 1 10:19:35 EST 1995