Keshav B. Patel

First Year PhD Student
University of Utah Dept of Mathematics
he/him/his
patel@math.utah.edu

Curriculum Vitae

Current Research Interests

Advisor: Aaron F. Fogelson

Collagen-Dependent Platelet Activation

In collaboration with Dr. Wolfgang Bergmeier (UNC-CH)

A platelet that finds a newly-formed vascular injury must be able to stop, attach firmly to the vessel wall, and recruit other platelets, all under the high-shear environment of blood flow. The receptor αIIbβ3 is vital to the coagulation process that creates thrombi, but is usually inactive to prevent unwanted blood clots. This project uses a dynamical systems model to examine the intracellular protein kinetics required to activate αIIbβ3 that begin with the binding of collagen to receptors on the platelet's surface.

Past Experiences

University of North Carolina at Chapel Hill

Antibody/Virion Interactions

Advisors: Dr. Samuel K. Lai, Dr. Gregory M. Forest (UNC-CH)
Worked under: Dr. Timothy Wessler (UMich)

Broadly neutrilizing antibodies found in the cervico-vaginal mucus have been shown to have weak affinity to mucin monomers. This project seeks to determine properties of Ab that maximize the trapping and neutrilizing of HIV virions before entering the body.

Molecular Motor Transport

Advisors: Dr. Jay M. Newby (U Alberta), Dr. Gregory M. Forest, Dr. Samuel K. Lai (UNC-CH)
Worked with: Shengtan Mao (UNC-CH)

Kinesin molecular motor proteins transport cargo several times larger than itself by "walking" down microtubules. Single motors are known to detach from the microtubule often, yet the overal transport process is extremely efficient. This project examines the effect of cooperation among molecular motors in transporting cargo from both a stochastic and deterministic standpoint.

Patel KB, Mao S, Lai SK, Forest GM, Newby JM. Limited Processivity of Single Motors Improves Overall Transport Flux of Self-Assembled Motor-Cargo Complexes. Physical Review E. 100:022408, 2019.

Traction Force Microscopy

Advisor: Dr. Wesley R. Legant (UNC-CH)
Worked with: Dr. Regan P. Moore (UNC-CH)

Cells exert forces on their 3-D environments to migrate. The improvements to super-resolution microscopy allows us to examine a cell over time and track motion. This project uses the known mechanical properties of a cell's environment to calculate (via inverse problems) the forces exerted by a cell over time.

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