#student_spotlight#APSDFD
Read about Ian Ho’s research on Capillary Surfers during his undergraduate research in Harris Lab @FluidDanamics@BrownUniversity. His work delved into fluid-solid interactions at the capillary scale.
https://t.co/OPi072lKmM
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Today's double feature: What can the ''Synchronized Surfing of Self-Propelled Particles'' teach us about active matter? Check out the beautiful work from @FluidDanamics -> Experiment: https://t.co/quoyRx7aqV and Theory https://t.co/T5AhGlTEco. Both featured in @PhysicsMagazine!
Surf's up! 🏄 After being lost at "sea" for several years, our work describing the discovery of the Capillary Surfer system has now made it to shore @PhysRevFluids.
https://t.co/E1YqhM9lAt
Work led by former #harrislab@brownengin postdoc @gpucci_physics and undergrad @H312Ian.
(1/n) What is common between Silk Road, Klein bottle and a human parasite? Continuing series on extreme biological physics - thrilled to share latest preprint on "Extreme cellular hydraulics” - fantastic collaboration with @BhabhaEkiertLab at NYU Langone. https://t.co/AV0iQ1lCa6
Latest work from the #harrislab@brownengin now on @arxiv!
https://t.co/E43DRNArip
Self-generated capillary waves can drive steady rotation of chiral spinners at the interface.
Work led by PhD student @jackwilliamb21 with support from former postdoc @stuartthomson90.
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Introducing Capillary Surfers! Surfers are objects vibrating at a fluid interface that self-propel due to an imbalance in wave momentum flux. Work by @gpucci_physics, @H312Ian, and Anand Oza (NJIT Math). #harrislab@brownengin
https://t.co/jqHsfLZVuh
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(1/n) Excited to share #Pufferfish an open-source full-feature mechanical ventilator reference design capable of volume & pressure control with assist modes, both invasive/non-invasive ventilation & features necessary to support COVID19 patients https://t.co/CATj9GwFbL