Arizona State University
MS in Robotics and Autonomous Systems
2024 – Present
GPA: 3.9 / 4
I’m a Robotics Engineer passionate about designing intelligent, data-driven systems that merge advanced control, machine learning, and innovative design.
My work spans autonomous drones, biomimetic mechanisms, and intelligent robots, with expertise in simulation, system modeling, and reinforcement learning.
I’m dedicated to building smart, efficient solutions that shape the future of robotics.
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MS in Robotics and Autonomous Systems
2024 – Present
GPA: 3.9 / 4
B.Tech in Mechanical Engineering
2020 – 2024
GPA: 8.59 / 10
Volunteer
Apr 2025 – Present
Working with the Stretch 2 mobile robot, developing autonomous manipulation and perception algorithms using Python for control and vision‑driven planning. Focus areas include robot kinematics, motion planning, sensor fusion, and real‑time environment mapping to enable robust autonomous operation and intelligent task execution.
Intern
Feb 2024 – Jul 2024
Created and optimized complex mechanical assemblies for advanced robotics and precision engineering projects using SOLIDWORKS and simulation tools. Modeled and refined over 2,000 components for the U‑Boat Worx NEMO submarine, enhancing design efficiency and supporting detailed virtual prototyping.
Implemented vision-based flight control on Parrot Mambo drones, enabling dynamic landing and accurate path following. Utilized MATLAB & Simulink for simulations, and to refine algorithms for stable real‑time performance.
Built an enhanced GRU‑based variant of MVSNet to infer high‑resolution depth maps from unstructured multi‑view images. Achieved precise, scalable 3D scene reconstruction faster and more efficiently than traditional approaches.
Designed a GUI-based MATLAB Application to model, simulate, and control robotic end-effectors. Automated manipulator dynamics and integrated PD, Impedance control for smooth and precise motion.
Modeled and simulated the dynamics of a two‑wheeled Segway robot using state‑space methods. Performed stability analysis to ensure robust balance and motion control.
Develeoped a bird-inspired quick-return flap mechanism to enhance flight efficiency. Simulated the mechanism in ADAMS and built a working prototype.
Built a data acquisition and analysis system for gearbox fault detection using LabVIEW. Applied SVC and Random Forest models for reliable classification of fault conditions.