Specializing in autonomous systems, motion planning, and control. Passionate about building intelligent robots that bridge the gap between simulation and real-world deployment.
A passionate robotics engineer focused on creating intelligent autonomous systems
I’m a Master’s student in Mechanical Engineering & Applied Mechanics (Mechatronics & Robotics) at the University of Pennsylvania. I build full-stack robotic systems that combine mechanical design, embedded integration, and autonomy software—taking robots from CAD and wiring to ROS 2 deployment in simulation and the real world. Previously, I worked at Engineers India Limited, leading mechatronic integration and automation for large-scale industrial systems, which strengthened my systems engineering and test-driven mindset.
My current work spans mobile robotics and embodied autonomy: perception-driven navigation (LiDAR/vision), state estimation and sensor fusion, and planning/control (MPC, sampling-based planning, MPPI). I also build sim-to-real learning pipelines for drones and manipulation using IsaacLab, with a focus on reliable deployment—safety gating, telemetry, and hardware authority handoff. I’m especially interested in robust autonomy in dynamic environments, where perception, tracking, and control must stay consistent under real-world noise.
I’m looking for robotics roles where I can own systems end-to-end—mechanical design and prototyping, embedded/sensor integration, and autonomy software (ROS 2, planning, control, perception). I enjoy building real robots, validating them with structured testing, and iterating quickly from simulation to hardware. Long-term, I want to work on high-impact autonomous systems in the real world: mobile manipulation, field robotics, industrial automation, or autonomous vehicles.
Mechanical Engineering & Applied Mechanics
University of Pennsylvania
Concentration: Mechatronics & Robotics
Mechanical Engineering
VIT-Vellore Institute of Technology
GPA: 9.73/10.00 • First Class with Distinction
Research and industry experience in robotics and mechatronics
A selection of my research and development projects in robotics and AI
Deployed PyTorch reinforcement learning policies on real quadrotors using ROS 2, Betaflight MSP, and ESP32-based CRSF/RC override with explicit safety and authority handoff mechanisms.
Built a complete LiDAR-only autonomy stack using SICK PicoScan, including SLAM, localization, obstacle avoidance, and ROS 2 navigation for robust real-world deployment.
Developed bimanual manipulation environments in IsaacLab and explored flow-matching policies for coordinated catching, throwing, and interaction without explicit trajectory optimization.
Built a complete ROS 2 autonomy pipeline integrating localization, navigation, and motion planning (RRT, Pure Pursuit, MPC) for holonomic mobile robots.
Implemented 3D path planning, vision-based localization, and PID/MPC controllers in simulation and hardware-in-the-loop testing environments.
Built a decoder-only Transformer with causal masking, BPE tokenization, and autoregressive sampling for LLM. Implemented a VAE and a DDPM for MNIST, logging ELBO terms, loss curves, and denoising trajectories.
Integrated GroundingDINO, SAM, and Kalman Filters into ORB-SLAM3 for dynamic object masking, significantly improving trajectory accuracy and map density.
Implemented Stein Variational Guided MPPI on the F1/10 platform, achieving robust high-speed trajectory tracking at 50 Hz update rates.
Fused IMU, GPS, LiDAR, and encoder data using an Unscented Kalman Filter to minimize localization drift over extended trajectories.
Implemented NeRF in PyTorch for novel-view synthesis with positional encoding, hierarchical sampling, and comprehensive PSNR/SSIM evaluation metrics.
End-to-end robotic system design from CAD to deployment
Designed modular robot with aluminum chassis for custom designed ball caster with integrated electronics bay, sensor mounting, and thermal management. Optimized for 15kg payload while maintaining low center of gravity for dynamic maneuvers. Considered DFM constraints, fastener selection, and wire routing throughout assembly.
Modified commercial Mark4 drone frame, designing custom carbon fiber top plate to accommodate RPi5, GPS module, and telemetry system. Prioritized vibration isolation, heat dissipation, and electromagnetic interference mitigation while maintaining structural rigidity for 3kg MTOW.
Led chassis design and steering geometry for formula-style race car (Team Uttejit FSAE). Implemented space frame construction with optimized node placement via FEA. Designed Ackermann steering with adjustable tie-rod geometry for tunable handling characteristics.
Peer-reviewed research in aerodynamics, materials science, and sustainable systems
Investigated aerodynamic pitch sensitivity of Le Mans Grand Touring Prototype (LMGTP) race cars through CFD simulation. Validated k-omega turbulence model against Ahmed Body studies (1.013% error). Demonstrated 1872N destabilizing lift at +2.5° pitch, informing Formula Student chassis design.
Reviewed nanomaterial composites for automotive body panels, analyzing tribological, electrical, and sustainability tradeoffs. Provided a framework for lightweight and low-carbon vehicle design.
Designed MATLAB/Simulink models for solar-powered EV charging infrastructure. Optimized PV sizing, battery storage, and control strategies for scalable deployment.
Performed FEA-driven optimization of automotive clutch friction linings under combined thermal and torsional loads, identifying optimal material configurations.
A comprehensive toolkit for modern robotics development
Feel free to reach out for collaborations, opportunities, or just to say hello
I'm always open to discussing new projects, creative ideas, or opportunities to be part of your vision. Whether you have a question or just want to connect, feel free to reach out.