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Overview


Dr. Arpit Mishra is a Postdoctoral Associate in the Department of Mechanical Engineering and Materials Science at Duke University, USA. His research focuses on laser lithotripsy for urolithiasis treatment, combining both experimental and simulation approaches to investigate laser interactions with fluids, bubbles, and solid surfaces. He earned his PhD and M.S. in Mechanical Engineering from the Indian Institute of Technology, Kharagpur, where his dissertation centred on the dynamics of interacting cavitation bubbles. His international research experience includes fellowships as an ETH4D Visiting Researcher at ETH Zurich and a Raman Charpak Fellow at CEA/UGA Grenoble. Dr. Mishra's expertise extends to cryogenic engineering, hydrodynamic cavitation, and laser thermal safety. He has been recognized with several prestigious awards, including the Milton Van Dyke Award from the APS Division of Fluid Dynamics, the T.H.K. Frederking Space Cryogenic Workshop Student Scholarship, and the ETH4D Visiting Student Grant. His work has been featured in the 1st Traveling Gallery of Fluid Motion by the Cultural Programs of the National Academy of Sciences (CPNAS).

In the News


Published August 15, 2024
Curious About Plastic Waste Recycling? See How Liquid Nitrogen Bubbles Do the Job.
Published November 30, 2023
Thulium Fiber Laser Lithotripsy: The Game-Changer in Kidney Stone Dusting
Published March 30, 2023
A new cavitation damage mechanism in treating kidney stones using laser lithotripsy

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Recent Publications


Three-Dimensional Super-Resolution Passive Cavitation Mapping in Laser Lithotripsy.

Journal Article IEEE Trans Ultrason Ferroelectr Freq Control · December 2024 Kidney stone disease is a major public health issue. By breaking stones with repeated laser irradiation, laser lithotripsy (LL) has become the main treatment for kidney stone disease. Laser-induced cavitation is closely associated with stone damage in LL. ... Full text Open Access Link to item Cite

Effect of over-pressure on the dynamics of interacting cavitation bubbles near curved surfaces in sub-cooled liquid nitrogen

Journal Article Physics of Fluids · August 1, 2024 In this study, we conduct direct numerical simulations to investigate the dynamics of interacting cavitation bubbles near a curved surface in liquid nitrogen, which serves as the surrounding fluid medium. Our simulations are carried out under both atmosphe ... Full text Cite
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Recent Grants


Assessment of the Optimal Settings of TFL for Laser Lithotripsy and Associated Thermal Injury Risk

ResearchResearch Scientist · Awarded by National Institutes of Health · 2025 - 2028

Innovations in Shock Wave Lithotripsy Technology

ResearchResearch Scientist · Awarded by National Institute of Diabetes and Digestive and Kidney Diseases · 1997 - 2026

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