Research Groups

The Dror Lab a highly multidisciplinary group studying the spatial organization and dynamics of biomolecules and cells in order to develop better medicines and quantitatively explain the workings of living systems.

The Bejerano Lab focuses on a fundamental question in Human Genomics: the relationship between geno(me)type and phenotype.

We research innovative computational approaches to help address the societal and environmental challenges of the 21st century.

The Geometric Computation Group, addresses a variety of algorithmic problems in modeling physical objects and phenomena, and studies computation, communication, and sensing as applied to the physical world.

Headed by Oussama Khatib Professor, Computer Science Department Director, Robotics Lab. Oussama has made fundamental contributions to robotics, control, and human motion analysis.

Our work is at the intersection of Robotics, Machine Learning and Computer Vision applied to problems in Autonomous Robotic Manipulation.

ILIAD develops algorithms for autonomous systems that safely and reliably interact with people.

A multiphysics simulation library, capable of simulating rigid & deformable bodies, compressible & incompressible fluids, coupled solids & fluids, coupled rigid & deformable solids, as well as many other natural phenomena.

The Stanford Logic Group is a multidisciplinary research group operating within the Stanford Computer Science Department.

Headed by Noah D. Goodman, Assistant Professor of Psychology, Linguistics (by courtesy), and Computer Science (by courtesy) at Stanford University.

Our research lies at intersection of neuroscience, artificial intelligence, psychology and large-scale data analysis. We seek to "reverse engineer" the algorithms of the brain, both to learn about how our minds work and to build more effective artificial intelligence systems.

The researchers at the Salisbury Robotics Lab undertake a variety of robotics projects in the development of their work. The projects in the Salisbury Robotics Lab fall under five main categories.

SISL researches advanced algorithms and analytical methods for the design of robust decision making systems.

Our mission is to significantly improve people's lives through our work in Artificial Intelligence.

We develop methodologies for the analysis, design and control of autonomous systems, with a particular emphasis on large-scale robotic networks and autonomous aerospace vehicles.

Our lab works on the foundations of the next generation of machine-learned systems, including how machines can learn from increasingly weak forms of supervision and the mathematical foundations of such techniques, as well as how machine learning is changing how we build software and hardware.

The goal of our lab is to recreate coordinated voluntary animal movements in the digital world and on robotic platforms. In particular, we focus on holistic motor behaviors that involve fusing multiple modalities of perception to produce coordinated, balanced, and precise whole-body movements to interact with the world.

The group is one of the leading centers for applied machine learning on networks. Our research focuses on modeling complex, richly labeled graphs and networks at all scales for large complex interconnected systems from information, biomedical, and social domains.

We are interested in the capability of robots and other agents to develop broadly intelligent behavior through learning and interaction. To that end, we work on robotics and machine learning.