About Me

I'm Akshit Raizada, a Master's student in Robotic Systems Development at Carnegie Mellon University. I completed my B.Tech in Mechanical Engineering at IIT Indore, where I developed a strong foundation in robotics, automation and AI.

My work spans robot learning, manipulation, SLAM and perception. This summer I was a Robotics Engineer Intern at Noble Machines, building VLA benchmarking and data pipelines for a humanoid robot. My MRSD capstone is ORIO, a dual-arm robot that organizes operating-room inventory with UPMC. I enjoy bridging research with real-world deployment, from perception stacks and state estimation to learned policies running on hardware.

I'm always excited to connect with people whether it's for collaboration, research or just sharing ideas.

Experience

Noble Machines humanoid carrying a pipe

Noble Machines (Robotics Engineer Intern)

May 2026 – Aug 2026
  • Built a VR-teleop-to-MimicGen pipeline that multiplies a handful of demonstrations into hundreds of training trajectories, then post-trained VLA and world-model checkpoints on a custom humanoid and deployed the policies on physical hardware.
  • Engineered a plug-and-play VLA benchmarking harness whose modular plugin interface makes new models and evaluation environments swappable without touching the core pipeline.
  • Owned the full real-to-sim development process, validating that in-simulation success rates tracked real-world outcomes.

Artificial Intelligence & Robotics Lab, IISc (Research Intern)

May 2024 – Sep 2024
  • Designed a self-supervised, real-time off-road perception model fusing thermal, RGB and velocity data into traversability costmaps that stay reliable from day into night, learned with no manual labels.
  • Curated and open-sourced the first off-road dataset to pair calibrated thermal and RGB imagery with a full multi-LiDAR, IMU and GNSS suite, released in KITTI and NuScenes formats.
  • Benchmarked continual test-time-adaptation methods on synthetic fog, rain and snow, cutting worst-case costmap error by ~33% over the source model.

AutoMind Dynamics (Project Intern)

Oct 2024 – Nov 2024
  • Integrated BEVFusion, a multi-sensor (LiDAR-camera-radar) 3D object-detection network, into ROS for real-time detection from live sensor streams on a ground robot.
  • Packaged the ROS-integrated stack as a Dockerized, one-command-deployable codebase and shipped it to an external customer, running on their robot’s compute-constrained hardware.

Projects

ORIO: Operating Room Inventory Organization (MRSD Capstone)

UPMC & Carnegie Mellon · Dec 2025 – present
  • Building a dual-arm Franka robot with custom suction grippers that autonomously picks and labels operating-room inventory and keeps the hospital’s inventory database current.
  • Built the perception-to-grasp pipeline: open-vocabulary detection and segmentation (Grounding DINO + SAM), PRM motion planning validated in a MuJoCo twin, and learning-based DexNet grasping for clutter.
  • Built the SQL-backed RFID tracking subsystem on a custom low-level Impinj driver, with expiry alerts for staff.
  • 94% detection accuracy
  • 95.7% grasp reliability
  • >90% labels applied
  • 80+ items tracked

Humanoid Soccer: Unitree G1s Learning 3v3 with Deep RL

Deep RL project · Sep 2026 – present
  • Built a hierarchical deep-RL system where simulated Unitree G1 humanoids play 3v3 soccer, running in batched GPU MuJoCo at ~26k environment steps per second.
  • Trained five low-level skills (run, get-up, dribble, strike, receive) with SAC and PPO on recorded hand-over states, so the robots switch reliably between them.
  • Trained a high-level PPO team policy that picks a skill and target for each robot at 5 Hz, using self-play against a pool of past selves and scripted opponents.
  • 86% wins vs. scripted coach
  • 96% wins vs. ball-chaser
  • 99.7% ball control while dribbling
  • 96.5% standing within 4 s of a fall

MAC-VIO: Learned Stereo VO + IMU Factor Graph

16-833 Robot Localization & Mapping · Mar – Apr 2026
  • Built a visual-inertial SLAM stack pairing a learned stereo VO frontend (MAC-VO) with a GTSAM factor-graph backend (IMU preintegration, iSAM2 smoothing), benchmarked on 10 EuRoC and TUM-VI sequences.
  • Built trajectory alignment/comparison and interactive visualization tooling to diagnose drift and degenerate-motion failure modes.
  • Traced and fixed a one-second camera/IMU timestamp misalignment in the data loaders, and wrote TUM-VI support from scratch.
  • ~30% lower online ATE vs. vision-only
  • better on 9 / 10 EuRoC and TUM-VI sequences

Combined Task & Motion Planning

16-782 Planning · Nov – Dec 2025
  • Designed a geometry-aware STRIPS planner that embeds robot motion costs (via analytical inverse kinematics) directly into A* action evaluation, solving tangram rearrangement end-to-end in ROS/Gazebo.
  • Implemented hierarchical geometric collision checking, cutting motion cost 26–37% with sub-second planning time.

Hybrid Vertical-Axis Wind Turbine

Mechatronics course project
  • Designed and fabricated a hybrid vertical-axis wind turbine combining Darrieus and Savonius rotor features, with automatic blade alignment to maximize torque and energy generation.
  • Analysed and optimized the design with CFD in Ansys Fluent.
NXP AIM race track in Gazebo

Autonomous Race Car

NXP AI in Mobility · Rank 2 of 950+ teams · Best Coding Award
  • Deployed high-speed real-time planning and control algorithms in ROS 2/Gazebo for an autonomous race car.
  • Handled dynamic traffic, elevation changes, realistic obstacles and traffic-sign compliance.

Formation Control of MAVs

Inter IIT Tech Meet 11.0 · Bronze medal
  • Wrote a multi-threaded Python wrapper to programmatically control a fleet of Drona Aviation’s Pluto drones.
  • Implemented PID position control from ArUco-marker feedback, stable hovering and multi-agent waypoint navigation for the swarm.

LiDAR-Based Dynamic Obstacle Avoidance

IITI Summer of Code · 1st place
  • Developed an obstacle-avoidance system combining 3D SLAM, AMCL and LiDAR-based human detection via point-cloud clustering for real-time navigation.
  • Integrated A* global and TEB local planners for dynamic trajectory planning among moving people.

Academic History

Carnegie Mellon University

Aug 2025 - May 2027 | Pittsburgh, PA, USA

Carnegie Mellon University seal Pursuing M.S. in Robotic Systems Development | GPA: 4.0/4.0
Coursework: Robot Localization & Mapping (A+), Robot Autonomy, Manipulation Estimation & Control (A+), Robot Mobility (A+), Planning for Robotics, Systems Engineering.
Ongoing: Deep Reinforcement Learning, Generative AI, MRSD Project II


Indian Institute of Technology Indore (IIT Indore)

Nov 2021 - July 2025 | Indore, India

IIT Indore Logo B.Tech in Mechanical Engineering | GPA: 8.31/10
Coursework: Computer Vision, Spacecraft Attitude Dynamics, Control & Pointing, Kinematics & Dynamics of Machines, Finite Element Methods.

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