At the Department of Cell and Developmental Biology, we study the mechanisms of how cells grow and divide, assemble and function to form multicellular organisms. Using multidisciplinary approaches, we investigate the fundamental biological questions relating to chromatin structure and dynamics; gene regulation; proteostatis; RNA biology; signal transduction in mammalian cell growth and differentiation; cytoskeletal organization and cell adhesion; mechanisms of cell determination, repair, regeneration and developmental patterning. Extensive collaboration with physicists, chemists and engineers have made it possible to investigate the internal workings of cells, and how cells respond to external cues. Our mission is to train and educate undergraduate and graduate students, and postdoctoral fellows in the areas of modern molecular and cellular biology, cancer biology, developmental biology and neuro-cognitive sciences.
Supriya Prasanth, Head
Proximity labeling of cell structures followed by mass spectrometry has become an increasingly popular proteomics approach to identify what proteins localize to different cell structures. In practice, however, results are typically confusing, with long lists of hundreds of proteins identified, among which only a small fraction are bona fide components of the target cell structures.
URBANA—University of Illinois professor Andrew Belmont has received two new grants from the National Institutes of Health that will advance his work in understanding nuclear structure and dynamics and gene expression.
New research from University of Illinois professor William Brieher
has uncovered new insights on actin disassembly.
Miniature biological robots are making greater strides than ever, thanks to the spinal cord directing their steps. University of Illinois at Urbana-Champaign researchers developed the tiny walking “spinobots,” powered by rat muscle and spinal cord tissue on a soft, 3D-printed hydrogel skeleton. While previous generations of biological robots, or bio-bots, could move forward by simple muscle contraction, the integration of the spinal cord gives them a more natural walking rhythm, said study leader Martha Gillette
, a professor of Cell and Developmental Biology