Flow-induced vibration
Vortex-induced vibration is usually something engineers design against. We study how to enhance and control it so that oscillation becomes usable energy in rivers and canals.
Our work starts with a hard physical question. We model it, test it and only then engineer it.
Vortex-induced vibration is usually something engineers design against. We study how to enhance and control it so that oscillation becomes usable energy in rivers and canals.
Atom interferometers measure a finite-time matter-wave phase, not an instantaneous acceleration. We model platform vibration and structural flexibility inside that phase and correct for it.
Blades that change twist, span, camber and chord on demand for vehicles that move between air and water.
On-device models that own the task queue while heavy tools stay in the cloud — measured by hours returned to the user, not by hype.
Blockchain-based proof of discovery, dataset integrity and transparent review for scientific work.
CFD and multiphysics simulation, validated against experiment, underpin every programme we run.
Each programme moves through gated stages: analytical models and simulation, laboratory or hardware-in-the-loop validation, then pilot deployment. We define go / no-go questions in advance so progress is measurable.
Honeyloop works closely with the Department of Aerospace Engineering at IIT Kharagpur and is listed among ventures associated with the Rajendra Mishra School of Engineering Entrepreneurship.