Robotics Software Engineer · Researcher
I work at the intersection of reinforcement learning, sim-to-real transfer and motion planning — turning manipulation research into robots that operate reliably in the messy real world.
📍 Bengaluru, India
Hi, I'm Priyansh — a Robotics Software Engineer at Clutterbot, where I build RL pipelines, perception, and motion-planning systems for robots that manipulate objects in cluttered, real-world homes.
I completed my MS by Research in Computer Science (Robotics) at IIIT Hyderabad, focusing on contact-rich, non-prehensile mobile manipulation. My work spans asymmetric actor-critic RL, sim-to-real transfer, MoveIt-based planning, and point-cloud perception — from theory to production-grade ROS2 deployments.
The tools I reach for across simulation, learning, planning and real hardware.
From plant-floor automation to cutting-edge manipulation research and production robotics.
Research and engineering across manipulation, perception, planning and learning.
Trajectory-optimization planners for non-prehensile manipulation (e.g. door opening) on a 10-DOF mobile manipulator, with a full navigation stack and low-level controllers. Watch the whole-body controller in action on the right.
▶ Watch full demo
Neural-network residual learning to bridge the sim-to-real gap in manipulator striking actions, reducing control error. In collaboration with Dr. Samarth Brahmbhatt, Intel Labs.

Indoor & outdoor visual odometry using stereo and RGBD cameras, integrating the LightGlue feature matcher into the VO pipeline for robust correspondence.

Sampling-based Model Predictive Control for robot path planning, implementing the Model Predictive Path Integral (MPPI) update rule over a finite time horizon.

Ablation study on a LeRobot arm comparing Action Chunking with Transformers (ACT), SmolVLA and Diffusion Policy; adapted the best performers onto a custom robotic platform.

Friction estimation of objects via an LSTM model to boost task accuracy, plus semantic image segmentation using a Gaussian Mixture Model + KNN for improved classification.

Implementations of gravity-compensation, force-torque, hybrid force-position, null-space and operational-space controllers on manipulators.
Classical machine-learning projects — built from the ground up to understand the algorithms, not just call them.
Predicting whether a tweet goes viral from engagement and content features.
Filtering spam from ham messages using a probabilistic bag-of-words model.
Eigenfaces-based face recognition via dimensionality reduction on image data.
Aligning source and target domains using gradient-reversal back-propagation.
I'm always happy to talk robotics, research collaborations, or interesting manipulation problems. Reach out anytime.