F
Fang Da
Researcher at Columbia University
Publications - 12
Citations - 335
Fang Da is an academic researcher from Columbia University. The author has contributed to research in topics: Triangle mesh & Vortex. The author has an hindex of 6, co-authored 11 publications receiving 265 citations.
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Coiling of elastic rods on rigid substrates
TL;DR: A computational framework that is widely used in computer animation into engineering is introduced, as a predictive tool for the mechanics of filamentary structures, to investigate the deployment of a thin elastic rod onto a rigid substrate and study the resulting coiling patterns.
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Propulsion and Instability of a Flexible Helical Rod Rotating in a Viscous Fluid.
TL;DR: This work combines experiments with simulations to investigate the fluid-structure interaction of a flexible helical rod rotating in a viscous fluid, under low Reynolds number conditions and quantifies the resulting propulsive force and the buckling instability.
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Multimaterial mesh-based surface tracking
TL;DR: This work presents a triangle mesh-based technique for tracking the evolution of three-dimensional multimaterial interfaces undergoing complex deformations, and is the first non-manifold triangle mesh tracking method to simultaneously maintain intersection-free meshes and support the proposed broad set of multimaterial remeshing and topological operations.
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Surface-only liquids
TL;DR: A novel surface-only technique for simulating incompressible, inviscid and uniform-density liquids with surface tension in three dimensions, using an orthogonal projection technique to remove the divergence while requiring the evaluation of only two boundary integrals.
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Double bubbles sans toil and trouble: discrete circulation-preserving vortex sheets for soap films and foams
TL;DR: A novel circulation-preserving surface-only discretization of foam dynamics driven by surface tension on a non-manifold triangle mesh that is at once simple, robust, and efficient, yet able to capture an array of soap films behaviors including foam rearrangement, catenoid collapse, blowing bubbles, and double bubbles being pulled apart.