PhD Student · Computer Science · Robotics University of Colorado Boulder

Srikrishna Bangalore Raghu

Portrait of Srikrishna Bangalore Raghu
Focus

Generative Models for Robotics Human-Robot Interaction Motion Planning

Availability

Seeking a Summer 2027 research internship at the intersection of motion planning and robot learning. Reach me at srba2850@colorado.edu.

About

I am a fourth-year PhD student in Computer Science at the University of Colorado Boulder, advised by Alessandro Roncone in the HIRO Group. My research develops learning-based motion generation models, deployed on real manipulator hardware.

Research

Dance2Hesitate: A Multi-Modal Dataset of Dancer-Taught Hesitancy for Understandable Robot Motion

Designing Transparent and Understandable Robots (D-TUR) Workshop at HRI · 2026

An open-source, multi-modal dataset of dancer-generated hesitant motion: 66 kinesthetic-teaching demonstrations on a Franka Emika Panda reaching toward a Jenga tower at three graded hesitancy levels, plus synchronized RGB-D motion capture of 84 upper-limb and 70 whole-body dancer trajectories.

Employing Laban Shape for Generating Emotionally and Functionally Expressive Trajectories in Robotic Manipulators

IEEE International Conference on Robot and Human Interactive Communication (RO-MAN) · 2025

Uses Laban notation to give manipulators functional expressivity: two new variants of hesitant motion, spoke-like and arc-like, that participants associate with reduced robot competency, and Happy, Sad, Shy, and Angry trajectories enhanced with Laban Shape that read as distinct emotions on the valence-arousal-dominance spectrum.

BBoE: Leveraging a Bundle of Edges for Kinodynamic Bidirectional Motion Planning

IEEE Robotics and Automation Letters (RA-L) · 2026 · Accepted

A bidirectional, kinodynamic, sampling-based planner that reuses a precomputed bundle of robot motions to converge quickly in cluttered environments. Across four systems spanning 3D to 6D state spaces, BBoE is the only planner to reach ≥96% success on every system, with the lowest planning time on three of the four.