ContactTrace Robotics explores simulation, robot-policy benchmarking, failure analysis and sim-to-real validation to make robotic systems more measurable, reproducible and reliable before deployment.
Our work focuses on methods and infrastructure for understanding robot behavior, measuring performance, exposing failure modes and improving deployment readiness.
Physics-based robot and environment simulation for manipulation, navigation and embodied systems.
Automated and repeatable testing of robotic policies across controlled scenarios and environments.
Identifying failure patterns and generating targeted scenarios that expose weaknesses in robotic policies.
Comparing simulation and physical robot behavior to identify fidelity gaps and improve transfer.
Experimental work involving grasping, Cartesian control, interaction and manipulation tasks.
Objective metrics, batch experiments, automated regression testing and structured benchmark reporting.
Robotics systems should be evaluated systematically before hardware deployment rather than relying only on visually successful demonstrations.
Experimental systems exploring robotics simulation, automated evaluation and real-world deployment readiness.
Automated infrastructure for running robot-policy experiments, detecting regressions, classifying failures and producing structured evaluation reports.
Real-world-to-simulation pipeline that reconstructs captured environments and prepares them for physics and robot interaction inside NVIDIA Isaac Sim.
Investigation of automated robot-policy failure discovery and targeted scenario generation for evaluation, debugging and iterative improvement.
ContactTrace Robotics welcomes students, researchers and independent contributors interested in practical robotics research with reproducible experiments and measurable outcomes.
Investigate methods for automatically identifying and classifying robot-policy failures including missed grasps, dropped objects, collisions, alignment errors and timeouts.
Compare simulated and physical robot behavior using trajectory, timing, force, contact and task-performance measurements to identify simulation fidelity gaps.
Generate targeted simulation scenarios by varying object pose, friction, geometry, sensor conditions and environment parameters to expose policy weaknesses.
Develop CI-style robotics testing where candidate controllers or policies are automatically compared against a baseline using repeatable simulation trials.
Explore automated pipelines for converting phone captures or real-world observations into robot-ready simulation scenes with scale, collision geometry and environment structure.
Investigate whether human corrections to failed robot trajectories can be transformed into useful training or policy-improvement signals.
Students and researchers can apply for independent research collaboration. Bachelor's and Master's thesis collaborations may also be possible subject to approval and academic supervision by the student's home university.
Apply for Research →ContactTrace Sim is an emerging research platform concept for connecting real-world scene capture, robot import, simulation, automated policy evaluation and sim-to-real validation through a common workflow.
The long-term goal is to make robotics simulation easier to create, easier to measure and easier to connect with physical deployment.
Extend real-world reconstruction toward automated, robot-ready scene generation from phone captures.
Designed to support robot-description formats such as URDF with links, joints, meshes, limits and collision models.
Explore a common interface capable of targeting multiple simulation backends such as MuJoCo, Gazebo and Isaac Sim.
Run batch experiments, compare candidate policies, classify failures and generate structured evaluation results.
Use ROS 2 interfaces to connect simulated environments and physical robots through shared control workflows.
Explore mobile and browser interfaces for robot teleoperation, demonstrations, scene interaction and experiment control.
ContactTrace Robotics welcomes students, researchers, engineers and potential industry collaborators interested in simulation, robot-policy evaluation, benchmarking, real-world reconstruction and sim-to-real systems.
ContactTrace Robotics is an independent robotics research initiative focused on making robot development more measurable and reproducible.
The platform explores simulation infrastructure, automated testing, failure-aware evaluation, real-world-to-simulation workflows and sim-to-real validation for embodied robotic systems.
Robotics engineer and researcher working on robot simulation, manipulation, automated evaluation, digital twins, robot control and sim-to-real systems.