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Research

My research focuses on analytical and computational modeling of problems in the dynamics of Newtonian and non-Newtonian fluids, and their interaction with suspended microstructures, interfaces, and boundaries. Feel free to reach out directly to me with questions or ideas.

Current research projects

  • Thermal Fluctuations, Microrheology, Active Suspensions in Complex Flow with Scott McKinley (Tulane): rheology is the study of flow and deformation of soft matter in response to applied forces that is widely used to reconstruct a viscoelastic fluid mechanical properties.
  • Elastic Pulsatile Branched Blood Flow Model with Filip Belik, Tyler Schuessler, Henry Crandall, Braxton Osting and Benjamin Sanchez: elasticity in the arterial wall and the oscillatory nature of blood pressure drive flow drive blood in a branched artery.

Completed research projects

  • Newtonian Steady Streaming Flow with Nathan Willis: steady streaming refers to the time independent portion of the secondary flow measured around a cylinder in an oscillatory flow.
  • Fluid Flushing with Surface Tension with Chee Han Tan and Braxton Osting: sloshing refers to the free surface motion of a fluid in a container.
  • Ice Fishing Problem with Nathan Willis, Chee Han Tan, and Braxton Osting: the ice fishing problem refers to the frequency of oscillation of a liquid in a circular hole.
  • Fluid Coupling in Motility Assays with Tamar Shinar (UC Riverside) and Steve Cook (UC Riverside): motility assays are suspensions of molecular motors, and tracks suspended in viscous fluid.
  • Fractal Dimension of Melt Ponds with Ken Golden, Back Ali, and Kyle Steffen: melt ponds are melted water on top of ice which exhibit a fractal dimension.
  • Stability of Active Suspensions with Michael Shelley (Flatiron Institute/NYU): active suspensions are populations of micro swimmer that exhibit instabilities due to their motility and coupling to the fluid
  • Hydrodynamic Coupling in Viscoelastic Fluids with Greg Forest (UNC): chemically coated particles create a depletion layers that can be used to estimate viscoelastic properties.
  • Particle Velocimetry and Wall Slip with Peter Mucha (Dartmouth University) and Miami Yoda (Georgia Tech): uncertainties in measurements leads to apparent wall slip.

Funding

  • with Benjamin Sanchez and Braxton Osting (2023-2026), NSF-CBET
  • RTG: Optimization and Inversion for the 21st Century Workforce with Ken Golden, Akil Narayan, Elena Cherkaev, and Fernando Guevara-Vasquez (2022-2027), NSF-DMS 2136198
  • University of Utah SEED Funding: with Braxton Ostend (2022-2023)
  • Collaborative Research: Diffusion of foreign particles in complex fluids with Scott McKinley (2014-2018), NSF-DMS 14112998
  • Collaborative Grants for Mathematicians, Simons Foundation (2014), 317887

Collaborators

  • Scott McKinley, Department of Mathematics, Tulane University
  • Braxton Osting, Department of Mathematics, University of Utah
  • Benjamin Sanchez, Department of Electrical and Computer Engineering, University of Utah
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