The main interest of Dr. Hestrin's lab is to understand how the properties of neocortical neurons, the circuits they form and the inputs they receive give rise to neuronal activity and behavior.

Dr. Hesselink's research encompasses nano-photonics, ultra high density optical data storage, nonlinear optics, optical super-resolution, materials science, three-dimensional image processing and graphics, and Internet technologies.

Dr. Gross's research focuses on emotion and emotion regulation, and this research employs both experimental and individual-difference methods.

Dr. Grimes's research interests include translation of promising research discoveries into novel therapeutics and diagnostics; discovery and development of new drugs, biologics, and diagnostics; repurposing existing drugs against new targets for new clinical indications; and developing novel therapeutics and diagnostics for neglected global health problems.

Dr. Herzenberg's group has been interested for many years in the genetics and development of the immune system in mice.

Dr. Grill-Spector's research utilizes functional imaging (fMRI),diffusion weighted imaging (DWI), computational techniques, and behavioral methods to investigate the neural mechanisms underlying visual recognition in humans.

Dr. Michael Greicius's research focuses on elucidating the neurobiologic underpinnings of AD. His lab combines cutting edge brain imaging, "deep" phenotyping, and whole-genome sequencing of human subjects to identify novel pathways involved in AD pathogenesis.

Dr. Herschlag studies mechanisms of biological catalysis by RNA and proteins, with the general goal of understanding how RNA and protein enzymes achieve their enormous rate enhancements and exquisite specificity.

Dr. Hentz's current research interests include: Nerve regeneration and repair, evaluation of repair methods, modalities to enhance peripheral nerve regeneration, development of improved methods to analyze nerve regeneration; implementation of functional neuromuscular stimulation to paralytic deformities; and computer modeling of upper limb function.

Dr. Heller is interested how the inner ear forms from an early anlage called the otic placode.