
Aditya Kamireddypalli
Robot Learning · Contact-Rich Manipulation · Probabilistic Inference
I am a final-year PhD student in Robot Learning at the University of Edinburgh, advised by Subramanian Ramamoorthy and Steve Tonneau. My research focuses on enabling robots to reliably perform contact-rich manipulation tasks under uncertainty.
I am particularly interested in how robots can use physical interaction as a source of information. While vision provides broad information about the environment, contact provides local and precise information about geometry, pose, and the state of an interaction. My research explores how these complementary sources of information can be combined to improve both perception and control.
A central part of my work is probabilistic inference for robotics. I use Monte Carlo inference methods, including Markov chain Monte Carlo (MCMC) and Sequential Monte Carlo (SMC), to represent and reason about uncertainty. I am particularly interested in combining probabilistic programming languages with simulation-in-the-loop, allowing physics simulators to serve as generative models for inference from visual and contact observations.
I also study how the resulting uncertainty estimates can directly inform robot actions. My work combines probabilistic inference with sampling-based planning and control, using contact information not only to estimate the world but also to adapt how a robot explores and interacts with it.
Overall, my research aims to close the loop between perception, physical interaction, probabilistic inference, and control to make robotic manipulation more robust under uncertainty.
Featured publications
2026

ContactKernels: Adaptive Proposals using Geometry-Conditioned Wrenches for Contact-Rich Manipulation
Under review
TL;DR: Uses sensed contact to adapt sampling-based MPC proposals, improving contact-rich insertion under uncertainty.
Amortising Trajectory Optimisation for Residual MPC via Implicit Contact Differentiation
Under review
TL;DR: Amortises contact-rich trajectory optimisation into a residual MPC policy using implicit contact differentiation.
Talks
ROSCon 2024 — Integrating Drake into MoveIt
Part of my broader work on contact-rich manipulation is enabling robots to plan and execute motions safely around obstacles. Trajectory optimization and model-predictive control provide powerful tools for reasoning about these motions.
As part of this effort, I contributed to integrating Drake's optimization tools into MoveIt, working with Sebastian Castro and Sebastian Jahr. We presented this work at ROSCon 2024.