Directory

In-vivo molecular measurements, anyone?

The Pruitt Lab develops microtechnologies for cellular mechanobiology and mechanical measurements to study how mechanics mediates biological signaling.

Dr. Briggs’ research combines modeling and experiments to understand the factors affecting the dynamics of animal populations.

The Campas Lab studies the role of mechanics in shaping embryonic tissues and organs, as well as the relation between the genetic and mechanical control of embryonic development.

Human stem cell research; Molecular mechanisms of stem cell differentiation; Derivation of ocular cells from stem cells; Soft tissue regeneration.

The goal of our lab is to develop novel single-cell sequencing technologies to understand how variability in the epigenome regulates gene expression heterogeneity and cell fate decisions.

We study molecular circuits controlling how stem and differentiating cells respond to physical cues.

The sub-cellular biological world is full of phenomena that challenge physical intuition: single-molecule machines, self-assembling architectures and spontaneous information processing.

Materials science that integrates fundamental studies with the development of nanostructured systems with advanced properties and functions.

Nanomedicine in Biomedical Discovery, Diagnosis, and Therapeutics that Target the Molecular and Cellular Origins of Disease.

Our research focuses on engineering genetic reporters for imaging what we think of as the "dark matter" of biology - living systems that cannot be readily imaged using existing reporter gene techniques.

Genetic engineering and synthetic biology of non-model microorganisms.

Development and Understanding of Electrokinetic Micro/Nanofluidic Technology for Bioanalytical Applications.

Modeling, simulation and data analytics of multiscale systems in biology and medicine.

The Pincus group is presently concerned with theoretical problems in the physics of multicomponent fluids, including polymer solutions, colloidal dispersions, microemulsions, vesicles, and other surfactant phases.

Saleh's research is focused on the molecular physics underlying biological systems, with particular experience in nucleic acids, protein/DNA interactions, biomolecular elasticity, and self-assembled biomolecular systems.

We're generally interested in how the brain works, at the level of neurons and synapses.

Engineering biomaterials to probe questions in mechanobiology.

Theogarajan is interested in the marriage between materials, electronics and micro/nanofabrication as a means of developing new devices and tools for medical applications.

Prof. Valentine’s research focuses on the mechanics of cells and tissues and the design of bio-inspired materials.

We use photo-switchable proteins from plants to understand and control complex cellular behaviors.

How does life perform computation?

Oversees department operations: Budget & Finance, Academic Personnel, Human Resources, Gifts, Procurement, Student Affairs.

Responsible for coordinating the Ph.D. Optional Bioengineering Emphasis and student affairs advising. Also responsible for student outreach, publicity, and seminar & travel coordination.