About
Professional Summary
Robotics Software Engineer with experience in medical robotics, autonomous aerial vehicles, embedded systems, control systems, state estimation, EtherCAT, and robotics software architecture. Experienced in developing real-time robotic control software, onboard flight control systems, mathematical modeling, robotic calibration systems, and autonomous navigation algorithms.
Strong background in C++, Python, robotics algorithms, state estimation, embedded programming, and robotic system integration with industrial as well as research experience. Passionate about designing reliable robotic software frameworks for real-time applications.
Education
| Degree / Level | Institute | Course / Department | Year |
|---|---|---|---|
| M.Tech. | Indian Institute of Technology Jodhpur | Advanced Manufacturing & Design | 2022 |
| B.Tech. | Indian Institute of Technology Jodhpur | Mechanical Engineering | 2019 |
| Class XII | Indian Public School, Madhubani | Science & Math | 2014 |
| Class X | Ramakrishna Mission Vidyapith, Deoghar | CBSE | 2012 |
Professional Experience
SS Innovations Pvt. Ltd.
Mechatronics Engineer (Robotics Software Development)
February 2023 – Present
Responsibilities
- Develop robotics software for surgical robotic systems.
- Designed mathematical models for 30+ cable-driven robotic grippers spanning five different mechanisms.
- Developed control systems for various endo-surgical robotic instruments.
- Developed an automatic calibration framework for robotic linear joints using:
- EtherCAT
- State machines
- Automated calibration algorithms
- Standardized production testing procedures for endo-surgical micro-grippers.
IIT Jodhpur
Research Engineer
Robotics Lab | March 2022 – May 2022
Project
SERB-DST funded project on autonomous unmanned rotorcraft navigation.
Contributions
- Integrated flight controller with Single Board Computer (SBC).
- Implemented visual odometry framework.
Interfaced long-range communication module (RFD900) with custom autopilot.
- Developed communication software for transmission, reception and packet-loss analysis.
- Investigated autonomous hovering and waypoint navigation for helicopter platforms.
Student Project Research Associate
Helicopter Lab | October 2020 – July 2022
Responsibilities
- Improved quadrotor orientation and position control.
- Implemented GPS delay compensation using IMU sensor fusion.
- Studied and implemented modern waypoint navigation algorithms.
- Implemented trajectory tracking algorithms for aerial and mobile robotic platforms.
Project Assistant
Helicopter Laboratory | December 2019 – September 2020
DRDO DYSL-AST Sponsored Project
Development of indigenous onboard Flight Control System (FCS)
Responsibilities
- Developed complete flight-control software framework.
- Implemented:
- State estimation
- Flight control
- Sensor interpretation
- Data processing algorithms
- Developed indigenous reusable software libraries.
- Successfully demonstrated autonomous outdoor flight.
- Delivered software and documentation to DRDO.
Additional Responsibilities
Mid-range RF Communication System
- Designed and developed RF transceiver (>10 km range) for nuclear radiation sensors.
Nuclear Sensor Communication
- Developed communication software for DRDO DELRAD nuclear sensors.
- Used TI TIVA CC1310 LaunchPad.
- Implemented wireless communication and sensor data interpretation.
Major Projects
GPS Delay Compensation, Trajectory Tracking & Mini Helicopter Integration
M.Tech Thesis
Supervisor: Prof. C. Venkatesan
August 2021 – July 2022
Highlights
- Estimated GPS latency using cross-correlation techniques.
- Compensated GPS delay using acceleration kinematic models.
- Developed embedded drivers for:
- Sensors
- Communication modules
- Teensy 4.1
- Developed C++ libraries for:
- Complementary Filter
- Kalman Filter
- Full state estimation
- Implemented:
- Outdoor waypoint navigation
- Trajectory tracking
- Performed assembly and integration of Align 470 electric helicopter.
Design of Onboard Flight Control System for Aerial Vehicle
B.Tech Project
Supervisor: Prof. C. Venkatesan
June 2018 – May 2019
Highlights
- Designed complete avionics architecture.
- Integrated:
- IMU
- Servo motors
- Brushless motors
- Radio receiver
- ATmega328 controller
- Implemented onboard flight control software.
- Successfully validated through autonomous flight experiments.
Quadrotor Mounted with Manipulator Arm
Supervisor: Prof. Suril V. Shah
January 2017 – April 2018
Highlights
- Developed mathematical dynamics of quadrotor-manipulator system.
- Simulated dynamic inversion and PID control in MATLAB.
- Controlled hardware using:
- Pixhawk
- ROS
- Vicon Motion Capture
- Built prototype using Arduino Uno.
Two-Wheel Self-Balancing Robot
Summer Project
Supervisor: Prof. B. Ravindra
April 2016 – June 2016
Highlights
- Built complete balancing robot prototype.
- Developed:
- PID stabilization
- Odometry estimation
- Velocity control
- Used:
- Arduino Mega
- ESP32
- Raspberry Pi
- ROS
- Simulated robot in Simulink using CAD-derived parameters.
Collaborative Control & Teleoperation of Robotic Swarm
Highlights
- Designed framework for controlling four TurtleBot3 robots.
- Implemented:
- Consensus algorithms
- Aggregation
- Dispersion
- Homing
- Obstacle avoidance
Obstacle Avoidance & Path Tracking of Mobile Robot
Highlights
- Differential drive waypoint navigation.
- Implemented:
- Artificial Potential Field
- Rapidly Exploring Random Tree (RRT)
- Pure Pursuit Controller
- Stanley Controller
Teleoperation of 6-DOF Manipulator with Force Feedback
Highlights
- Kinematic analysis of UR5 manipulator.
- Developed ROS-based teleoperation software.
- Integrated:
- UR5
- Phantom Omni
- Multi-axis joystick
- Implemented:
- Jacobian-based position control
- Force feedback
- Workspace confinement
- RViz visualization
- Gazebo simulation
Technical Skills
Programming
- C, C++
- Python
- Embedded C
Robotics
- ROS, ROS2
- RViz
- Gazebo
- EtherCAT
- State Machines
- Motion Control
- Robot Kinematics
- Robot Dynamics
- Trajectory Planning
Control & Estimation
- PID
- Complementary Filter
- Kalman Filter
- Sensor Fusion
- State Estimation
Embedded Platforms
- AVR
- Arduino
- Teensy
- STM32 Nucleo
- Raspberry Pi
- Pixhawk
CAD & Simulation
- SolidWorks
- MATLAB
- Scilab
- Octave
- Simulink
- Adams View (Basic)
- ANSYS Static Structural (Basic)
- Lotus Suspension
- Cinderella
Relevant Coursework
- Introduction to Robotics
- Introduction to Aerial Robotics
- Swarm Robotics
- Mechatronics
- Mechanical Vibrations
- Sensors and Instrumentation
- Kinematics and Dynamics of Machines
- Multibody Dynamics
- Linear Algebra
Publication
Abhinay Kumar and Prof. C. Venkatesan, “Development and Performance Evaluation of Onboard Auto-pilot System for an Aerial Vehicle”, 28th IEEE International Conference on Robot & Human Interactive Communication (RO-MAN), New Delhi, India, October 2019. Accepted as LBR (Late Breaking Report)
Achievements
IIT R&D Fair 2022
- Selected for the PAN IIT R&D Fair.
- Demonstrated indigenous autopilot system.
- Recognized among the Top 5 Defense & Aerospace Projects across all IITs.
- Represented IIT Jodhpur before officials from:
- Ministry of Home Affairs
- Industry
- Startups
- Academic Institutions
SAE BAJA 2017
- Secured 63rd Rank among 400+ teams.
- Designed:
- Front upright
- Rear upright
- Suspension linkages
- Performed suspension optimization using Lotus Suspension.
- Conducted structural analysis using ANSYS.
- Optimized design to:
- Factor of Safety > 2
- Weight < 500 g
Areas of Interest
- Surgical Robotics
- Medical Robotics
- Autonomous Systems
- Embedded Systems
- Robot Control
- Motion Planning
- Flight Control Systems
- State Estimation
- Robot Software Architecture
- EtherCAT
- Real-Time Robotics
You can reach out to me on the following link
Contact