I’m a Robotics Software Engineer on the Autonomy Team at Bear Robotics. I’m interested in how robots can anticipate the people around them, and use that to move safely and naturally in shared spaces: human intent inference, behavior prediction, and socially aware planning and control.
Before Bear, I built autonomy and human following for service robots in hospitals and public spaces, and was a research fellow at NIOSH with Dr. Marvin Cheng, working on human-following control and human-subject studies.
I have an MSc in Robotics from the University of Michigan, where I did research with Prof. Christoforos Mavrogiannis and Prof. Ram Vasudevan. Before that, I earned a B.Tech in Mechanical Engineering from Amrita School of Engineering and worked as a mechanical engineer at Volvo Group.
How can a robot adapt when a human partner steps into a shared task, without disrupting their flow, and still complete the task? In collaborative stacking, a vision-language-action policy (SmolVLA) performs the stacking while a planner and monitor track what the human has changed and re-plan the remaining steps. Built in Isaac Sim on a Franka arm and trained on scripted expert demonstrations. Evaluation with human interjections is in progress, for submission to HRI 2027 Late-Breaking Reports.
MAMPC is a human-following controller with temporal memory: a sliding window of recent optimal control inputs and their collision costs lets the MPC refine high-risk parts of its horizon and follow more smoothly. An elliptical personal-space model (personal, robot-buffer and social zones) sets how close the robot may come. In simulation (2D and Gazebo, Freight100 robot), across 150 trials in six cluttered environments, MAMPC succeeded in 98% of trials versus 20% for standard MPC, keeping a 2.5 ± 0.3 m following distance.
Designed the motion-planning and control pipeline for a proxemics study that combines motion capture and physiological sensing to measure interpersonal spacing and perceived comfort around a mobile robot. Led a VR study on how drone noise and visual cues affect attention in high-risk environments, using physiological, biomechanical, and task-performance measures.
Explored whether gaze features (fixation duration, saccade direction, goal bias) help predict where a person will walk, using the MoGaze and THÖR-MAGNI motion-capture and eye-tracking datasets. The main challenges were noisy gaze signals and the scarcity of open datasets that capture gaze during navigation, which limited what could be concluded and pointed to the need for richer real-world gaze data.
Optimized zonotope-based Forward Reachable Set computation and slicing in the REFINE planner for real-time safe trajectory planning, cutting FRS computation time by 58.6%.
Developed and flight-tested motion planning and control for a custom PX4 VTOL tailsitter, including INDI-based gust stabilization, and designed waypoint-navigation missions.
RGB-D perception, camera calibration, and inverse kinematics (DH and PoX) on an RX200 arm for pick-and-place and color/shape sorting in cluttered scenes. Placed 3rd of 12 teams in a multi-event manipulation challenge.