Core Research AreaTheoretical Foundations[Overview] [Faculty] [Projects] [Courses] Theoretical Foundations focuses on formal approaches to modeling the essence of computation problems, developing and analyzing algorithms, and understanding inherent limits of computational models. FacultyNancy Amato, Professor (Motion planning, computational biology, robotics, computational geometry, animation, CAD, VR, parallel and distributed computing, parallel algorithms, performance modeling, and optimization) Jianer Chen, Professor (Algorithms and complexity, computer networks, bioinformatics, computer graphics) Gabriel Dos Reis, Assistant Professor (Computer algebra, mathematical software, computer methods in geometry, programming languages and libraries, compiler construction, generic programming) Don Friesen, Professor (Algorithm analysis, complexity) Anxiao (Andrew) Jiang, Assistant Professor (Information theory, coding for flash memories, wireless and sensor networks, algorithms) John Keyser, Associate Professor (Geometric computing, graphics and visualization, simulation and modeling, and computer algebra) Andreas Klappenecker, Associate Professor (Quantum computing, image processing, cryptography) Sing-Hoi Sze, Associate Professor (Bioinformatics/Computational Biology: multiple sequence alignment, motif finding with applications to predicting transcription factor binding sites, biological network analysis, identification of gene clusters within genomes) Jeffrey Vitter, Professor (Massive data, external memory algorithms; compressed data structures; databases; data compression, including text, image, and video compression; machine learning and prediction; randomized, parallel, and incremental algorithms; computational geometry; computational science; algorithm engineering; combinatorial optimization) Jennifer Welch, Professor (Algorithms and lower bounds for distributed computing systems, in particular mobile ad hoc networks, distributed shared objects, and metamorphic robot systems) Projects
Efficient Massively Parallel Adaptive Algorithm for Time-Dependent
Transport on Arbitrary Spatial Grids, DOE
CAREER: Design of Efficient Quantum Algorithms, NSF
CARGO: Degeneracy Detection for Curved Solids, NSF
Efficient Decoherence Control Algorithms, NSF
Exact Computational Biology Algorithms with Small Parameters, NSF
Exploring the Brain Forest, THECB ATP
ITR: Accurate and Robust Operations on Curved Geometry, NSF
ITR/AP: A Motion Planning Approach for Protein Folding Simulation, NSF
ITR/SY: SmartApps: An Application Centric Approach to Scientific
Computing, NSF
Next Generation Compilers for Emerging Multicore Systems
Parameterized Computation and Applications, NSF
Quantum Computation, TITF
Self-Stabilizing Group Communication for Mobile Environments, NSF
CSCE 121. Introduction to Program Design and Concepts. |
