Home
Research
Publications
People
Internal
Research

robotics · computational biology · others



Geometry and motion are ubiquitous in the physical world, at both macroscopic and microscopic levels. To operate in this world or to simulate it, we need accurate models of the environment, compact data structures to represent the models, and efficient algorithms to compute motion for physical or simulated objects. We are interested in representations and algorithms for synthesizing and analyzing motion and the applications of these techniques in computational biology and robotics.


Robotics

POMDP Planning

Autonomous Target Following

Adaptive Hybrid Sampling (completed)

Single-Query Randomized Path Planning (completed)

Kinodynamic Motion Planning with Moving Obstacles (completed)

Robot Placement (completed)

 

Computational Biology

Pathway Modeling

Protein Flexibility Analysis

Stochastic Roadmap Simulation of Molecular Motion (completed)

Ligand Binding to PXR (completed)

 

Others

Collision Detection (completed)

Motion Synthsis for Character Animation (completed)