activity
20152024
most citedA 3-dimensional model of flagellar swimming in a Brinkman fluid

21 citations · 60 across the 6 of their papers we have counts for

collaborators

6 papers

stat.AP2024

Evaluating COVID-19 Surveillance Testing Strategies at Colorado School of Mines: A Stochastic Modeling Approach

Laura Albrecht, Karin Leiderman, Suzanne Sindi +1

This study introduces a stochastic model of COVID-19 transmission tailored to the Colorado School of Mines campus and evaluates surveillance testing strategies within a university…

physics.flu-dyn2023★ 6 cited

clotFoam: An Open-Source Framework to Simulate Blood Clot Formation Under Arterial Flow

David Montgomery, Federico Municchi, Karin Leiderman

Blood clotting involves the coupled processes of platelet aggregation and coagulation. Simulating clotting under flow in complex geometries is challenging due to multiple temporal…

physics.flu-dyn2020★ 13 cited

A Minimal Model of the Hydrodynamical Coupling of Flagella on a Spherical Body with application to Volvox

Forest Mannan, Miika Jarvela, Karin Leriderman

Flagella are hair-like appendages attached to microorganisms that allow the organisms to traverse their fluid environment. The algae Volvox are spherical swimmers with thousands of…

q-bio.CB2020

A Mathematical Model of Platelet Aggregation in an Extravascular Injury Under Flow

Kathryn G. Link, Matthew G. Sorrells, Nicholas A. Danes +3

We present the first mathematical model of flow-mediated primary hemostasis in an extravascular injury, which can track the process from initial deposition to occlusion. The model…

physics.flu-dyn2018★ 21 cited

A 3-dimensional model of flagellar swimming in a Brinkman fluid

Nguyenho Ho, Karin Leiderman, Sarah Olson

We investigate 3-dimensional flagellar swimming in a fluid with a sparse network of stationary obstacles or fibers. The Brinkman equation is used to model the average fluid flow wh…

physics.flu-dyn2015★ 20 cited

Swimming Speeds of Waving Cylindrical Tails in Viscous Fluids with Resistance

Nguyenho Ho, Karin Leiderman, Sarah D. Olson

Many microorganisms swim in a highly heterogeneous environment with obstacles such as fibers or polymers. To better understand how this environment affects microorganism swimming,…