I'm a Research Engineer at the Autonomous Vehicle Laboratory (REEF), University of Florida, where I develop machine learning-based sensor calibration and fusion systems to enhance navigation in GPS-denied environments. My work bridges robotics, perception, and learning-based navigation focusing on radar-only localization, multi-sensor fusion, and robust autonomous systems for both ground and aerial platforms. Previously, I contributed to research at the GAMMA Lab and Bio-Imaging & Machine Vision Lab at the University of Maryland, working on VR-based driving simulation, trajectory prediction, and computer vision for underwater systems. I’m passionate about building reliable, data-driven autonomy by combining classical GNC principles with modern AI techniques.

Publications

Enabling Autonomous Navigation with Radar-Only Perception in GPS-Denied Environments

AIAA SciTech 2026

Enabling Autonomous Navigation with Radar-Only Perception in GPS-Denied Environments

Sandip Sharan Senthil Kumar, et al.

Developed a radar-only perception framework for robust autonomous navigation in GPS-denied environments, leveraging machine learning-based calibration and sensor fusion techniques.

DISC: Dataset for Analyzing Driving Styles in Simulated Crashes for Mixed Autonomy

IEEE ICRA 2025

DISC: Dataset for Analyzing Driving Styles in Simulated Crashes for Mixed Autonomy

Sandip Sharan Senthil Kumar, et al.

Introduced a large-scale dataset for understanding human and autonomous vehicle driving behaviors under crash scenarios using simulation-based experiments.

TRAVERSE: Traffic-Responsive Autonomous Vehicle Experience & Rare-event Simulation for Enhanced Safety

IEEE IROS 2024

TRAVERSE: Traffic-Responsive Autonomous Vehicle Experience & Rare-event Simulation for Enhanced Safety

Sandip Sharan Senthil Kumar, et al.

Proposed a simulation-based framework to generate rare traffic scenarios for evaluating and improving autonomous vehicle safety and responsiveness.

ShellCollect: A Framework for Smart Precision Shellfish Harvesting Using Data Collection Path Planning

IEEE Access 2024

ShellCollect: A Framework for Smart Precision Shellfish Harvesting Using Data Collection Path Planning

Sandip Sharan Senthil Kumar, et al.

Designed an intelligent robotic framework for precision shellfish harvesting using path-planning algorithms and sensor-based environmental data collection.

Experience

Nov 2024 - Present

Research Engineer Autonomous Vehicle Laboratory, REEF, University of Florida

Manager: Dr. Humberto Ramos

• Engineered a machine learning-based calibration system to model and correct sensor inaccuracies and significantly enhance navigation precision and reliability for autonomous ground and aerial robots. • Spearheading the development of an innovative stereo radar navigation solution for GPS-denied environments, leveraging sensor fusion techniques to enable robust autonomous localization. • Refactored legacy ROS codebases to ROS2, aligning with current middleware standards for robotic hardware deployment and maintainability.

Aug 2023 - Nov 2024

Computer Vision Research Associate GAMMA Lab, UMD

Advisor: Dr. Ming C. Lin

• Engineered a high-fidelity VR driving simulator by integrating Unity3D with SUMO traffic models and NHTSA precrash scenarios; conducted a user study to analyze behavioral data for realistic autonomous vehicle simulation. • Designed and trained ML models to classify driving styles and predict vehicle trajectories using MTR, enhancing AV safety and bridging the sim-to-real gap through data-driven behavioral realism.

Sept 2023 - May 2024

Research Assistant Bio-Imaging & Machine Vision Lab, UMD

Advisor: Dr. Tao Yang

• Developed a computer vision framework for real-time GoPro footage analysis, utilizing YOLOv8 for state-of-the-art object detection and tracking, followed by image processing techniques to track and display trajectories. • Implemented a machine learning model for pose estimation of a dredge underwater with 86% accuracy using sonar data.

May 2023 - Aug 2023

Robotics Software Engineer Intern Void Robotics

• Re-engineered the project repository through Docker containerization for seamless operation on the NVIDIA Jetson Nano, leveraging GPU acceleration through CUDA for a 50% improvement in processing speed. • Integrated ROS2 on NVIDIA Jetson Nano via Docker for streamlined communication with ZED2 4.0 stereo cameras, reducing data transfer latency by 60% and improving overall system performance.

Education

2022–2024University of Maryland, College Park logo

University of Maryland, College Park

M.Eng. in Robotics

2018–2022Anna University, Chennai, India logo

Anna University, Chennai, India

B.E. in Mechanical Engineering

Projects

3D Surface Inspection

3D Surface Inspection

PythonPyTorchOpenCV3D VisionNeural Rendering

Formulated a novel 3D inspection framework integrating a modified HF-NeuS model for surface rendering and semantic understanding, along with DeepCrack for neural crack segmentation through 3D reconstruction.

Underwater Image Restoration

Underwater Image Restoration

PythonTensorFlowOpenCVImage ProcessingSea-Thru Algorithm

Developed a deep learning model to predict depth maps from underwater images and utilize neural predictions to eliminate light attenuation and haze, significantly improving visual clarity in underwater imagery.

Gesture-Based Virtual Driving System

Gesture-Based Virtual Driving System

PythonMediaPipeROSGazeboMachine Learning

Constructed a virtual car driving interface using Google MediaPipe for real-time hand gesture recognition and machine learning classification, simulated on TurtleBot and Gazebo for behavior validation.

Brain Cancer Image Synthesis

Brain Cancer Image Synthesis

PythonPyTorchGANsVAEsMedical Imaging

Developed a generative AI model to synthesize brain cancer MRI images for dataset augmentation, enhancing training diversity and improving tumor detection model accuracy.

Autonomous Vehicles at Intersections (Deep Q-Learning)

Autonomous Vehicles at Intersections (Deep Q-Learning)

PythonPyTorchReinforcement LearningOpenAI Gym

Leveraged reinforcement learning techniques, specifically Deep Q-Learning, to optimize autonomous vehicle behavior at intersections, improving traffic flow and safety in mixed autonomy environments.

Leader-Follower Bot

Leader-Follower Bot

ROS2PythonC++LiDARArUco

Implemented a leader-follower system using ArUco markers for leader identification, LiDAR for obstacle detection, and A* path planning for dynamic and efficient navigation control in multi-robot systems.