Jennifer Franck

Assistant Professor

University of Wisconsin-Madison

United States

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Dr. Jennifer Franck is an Assistant Professor at the University of Wisconsin-Madison, USA. Her research focuses on the dynamics and efficiency of cross-flow turbines, surface water wave interactions affecting cyanobacterial blooms, and advanced flow visualization techniques. Recent articles include studies on blade-level forces in turbines, energy harvesting models, and the effects of shedding frequency modulation in biomimetic structures.

Articles (18)

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2025

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2021

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2020

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2020

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2020

Collaborators (3)

Yunxing Su

Assistant Professor

University of Minnesota Duluth

UNITED STATES

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Nimish Pujara

Assistant Professor

University of Wisconsin-Madison

UNITED STATES

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Kenneth Breuer

Brown University

UNITED STATES

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Jennifer Franck

Research Interests

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About

Articles (18)

The role of surface water waves on cyanobacterial blooms in lakes

Experimental identification of blade-level forces, torque, and pitching moment for cross-flow turbines

Dynamics of intracycle angular velocity control applied to cross-flow turbines

Wavelength-induced shedding frequency modulation of seal whisker inspired cylinders

Multicolor dye-based flow structure visualization for seal-whisker geometry characterized by computer vision

Prediction of energy harvesting efficiency through a wake–foil interaction model for oscillating foil arrays

Prediction of energy harvesting efficiency through a wake-foil interaction model for oscillating foil arrays

Multicolor dye-based flow structure visualization for seal-whisker geometry characterized by computer vision

Wavelength-induced shedding frequency modulation of seal whisker inspired cylinders

Analysis of dynamic stall development on a cross-flow turbine blade

Analysis of dynamic stall development on a cross-flow turbine blade

Leading edge vortex formation and wake trajectory: Synthesizing measurements, analysis, and machine learning

Simulations of flow over a bio-inspired undulated cylinder with dynamically morphing topography

Wake-foil interactions and energy harvesting efficiency in tandem oscillating foils

Unsupervised clustering and performance prediction of vortex wakes from bio-inspired propulsors

Flow over seal whiskers: Importance of geometric features for force and frequency response

Variable thrust and high efficiency propulsion with oscillating foils at high Reynolds numbers

Vortex dynamics and Reynolds number effects of an oscillating hydrofoil in energy harvesting mode

Collaborators (3)

Yunxing Su

Nimish Pujara

Kenneth Breuer

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