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Organismal-Environmental Interactions & Volumetric Fluid Dynamics

Using a 3-dimensional approach to fluid dynamics, allows us to see complex volumetric  interaction effects of multiple body parts - something that can't be accomplished in standard planar particle image velocimetry.

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Denticle orientation circulates flow in shark nostrils

Webber-Schultz et al. 2025. Who nose what flows: Shark narial denticle morphology and hydrodynamic implications. Integrative & Comparative Biology. icb/icaf104

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A change in tail stiffness allows sharks to generate continuous thrust

Flammang et al. 2011. Volumetric imaging of shark tail hydrodynamics reveals a three-dimensional dual-ring vortex wake structure. Proceedings of the Royal Society B 278(1725):3670-3678. PDFMovie S1Movie S2add'l Video

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Crayfish use their swimmerets to amplify escape propulsion

Hunyadi et al. 2020. Morphology, performance, and fluid dynamics of the crayfish escape response. Journal of Experimental Biology 223(15): jeb.219873. Featured in Inside JEB

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We found significant flow interactions among fish fins

Flammang et al. 2011. Volumetric imaging of fish locomotion. Biology Letters 7:695-698. PDFSupplement

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Carp have a unique filtration method to maximize food intake

Cohen et al. 2018. Channeling vorticity: Modeling the filter-feeding mechanism in silver carp using µCT and 3D PIV. Journal of Experimental Biology 221 jeb183350. PDF JEB Outstanding Paper Prize shortlist

Press

National Geographic's When Sharks Attack

Dr. Flammang on season 5, episode 5

Dan Rather Reports -  March 2013

Interview with Dr. Flammang

Science podcast - 2 Dec 2011
Discovery Channel - 30 Nov 2011

"Daily Planet" interview with Dr. Flammang

ScienceNOW - 29 Nov 2011
Harvard Gazette - 20 Apr 2011

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