Research videos
High-speed fluid dynamics, laser-induced phenomena, multiphase simulation, and volumetric OCT imaging of industrial and biological structures.
PNAS supplementary simulation | 2026
Movie S5 shows the first few microseconds of a representative compressible two-phase simulation initialized at the optically predicted laser-induced breakdown site.
Optics Express supplementary media | 2024
Visualizations 2-6 demonstrate stable volumetric imaging of industrial structures, spatial-frequency profiles, and biological surface patterns using the BEMF-triggered multi-MHz endoscopic OCT system.
Visualization 2
A volumetric reconstruction revealing weld-seam geometry and surface detail, demonstrating potential for industrial inspection.
Official media recordVisualization 3
A rotating volumetric view that resolves the fine geometry of a threaded structure.
Official media recordVisualization 4
A three-dimensional reconstruction of a regular profile with a consistent spatial pattern.
Official media recordVisualization 5
A volumetric view capturing structural variations across a changing spatial-frequency pattern.
Official media recordVisualization 6
A volumetric biological-imaging example revealing fingerprint ridge patterns and surface structure.
Official media recordAPS Gallery of Fluid Motion
Shock-driven breakup, vortex-droplet interaction, aerodynamic atomization, and laser-induced fragmentation recorded through high-speed optical diagnostics.
High-speed shadowgraph and Schlieren visualization of wave interaction, deformation, and the transition between droplet-breakup regimes.
A first-author visual study of shock-wave interaction, airflow-driven deformation, mist stripping, and breakup across Weber-number regimes.
High-speed PIV, planar laser-induced fluorescence, and shadowgraphy reveal coupled vortex-ring and droplet dynamics.
A 50,000-frames-per-second view of nanosecond laser-induced deformation, propulsion, and fragmentation of acoustically levitated droplets.
Videos are embedded from the official APS records. Each work is licensed under CC BY-NC 4.0; author credits and source records are linked above.