Directory

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

Responsible for the overall management of all graduate services, including the Biological Engineering PhD Program, the Bioengineering Graduate Emphasis, and the NSF and NIH training grants.

Program coordinator for Biological Engineering and its training programs. Responsible for program administration and student coordination for the NSF Research Traineeship (NRT) program in Data Driven Biology and the NIH T32 training grant in Quantitative Mechanobiology.

The Pruitt Lab studies how mechanics mediates biological signaling using microtechnologies for cellular mechanobiology and mechanical measurements.

The Dewey Lab engineers biomaterials with extracellular vesicles towards skeletal repair. Specifically, we examine a new class of extracellular vesicle residing in the extracellular matrix, termed matrix-bound nanovesicles. Using these tools we answer basic science questions and create translational therapies related to bone cancer, improving bone repair, preventing bone infection, and repairing coral reefs.

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.

The Hanein Lab is exploring the structural functional complexities of the macromolecular machines that drive our biological processes—this includes imaging them in three-dimension and high resolution while at work in isolation, as well as within cells, organoids and tissues.

The Mills lab is focused on the study and engineering of protein assemblies to address challenges in plastic waste remediation, biological liquid-liquid phase separation, and oral vaccine development. Leveraging combined expertise in protein engineering, soft matter, and synthetic biology, we aim to engineer microbial and biomolecular solutions to pressing global challenges that are low-cost and accessible.

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.

In-vivo molecular measurements, anyone?

Engineering biomaterials to probe questions in mechanobiology.

Haptics, Robotics, Tactile Sensing, Soft Electronics, Soft Robotics, Bioinspired Systems, Computational Acoustics

Focuses on the development and application of innovative new computational, artificial intelligence, and data science tools to bridge information between the atomic and cellular scales, covering more than six orders of magnitude from Ångstroms to tens of microns