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Research & Academic Projects

Masters in Automotive engineering (Autonomous Vehicles)

Research & Academic Projects: Features

Autonomous Planning and Control of F1/tenth cars

Control Implementation - Software

Control Architecture and Results for sinusoidal and pulse reference trajectories

Hardware In Loop Simulation

Hardware in Loop demo between F1/tenth vehicle and SIMULINK using ROS toolbox

Obstacle position detection

Counting the number of obstacles and locating them using 2D LIDAR

Research & Academic Projects: Features

Anticipatory collision avoidance for mobile robots

  • Used Non holonomic time to collision (NH-TTC) approach to generate collision free path for robots with various motion models 

  • Worked on control and simulation of these robots

Gazebo Simulation Scenario 1

Three agents approaching each other

Gazebo Simulation Scenario 2

Agent approaching two agents from the opposite side

Research & Academic Projects: Features

Autonomous Driving of Differential Robots

Worked on ROS platform to develop algorithms for perception, motion planning and control of Turtlebot3 Waffle pi for line following, blob tracking, human tracking and obstacle avoidance.
Simulated on gazebo 7 and then successfully tested on the actual robot.

Human Tracking

Obtained leg pose estimate from the 2D LIDAR data of the turtlebot3 and developed algorithms to track human legs

Obstacle Avoidance

Performed 2D LIDAR SLAM using gmapping and developed algorithms for local obstacle avoidance

Line Following

Used the raspberry camera and OpenCV libraries to develop algorithms for line following and blob tracking of the robot

Research & Academic Projects: Features

Autonomous Drifting of robot car in simulation

  • Developed algorithms for Autonomous Drifting of a robot car using Probabilistic Inference for Learning Control (PILCO)

  • Initiated model learning using Motor Babbling and the model was trained where steering was controlled to initiate the drift at constant
    speed

  • Successfully simulated the trained model in gazebo 7

Research & Academic Projects: Features

Discrete motion planning of a simple car using A*

  • Implemented A* for grid based motion planning of a simple car

  • Implemented algorithm with varying costs on each action (straight, turn right and turn left)

  • Successfully found the optimal path

With unit cost on all three actions or with higher cost on right turn

For cost value of straight, right and left are [1,1,1] or [1,10,1] respectively

With higher cost on turning left

Cost value of straight, right and left are [1,1,10] respectively

Research & Academic Projects: Features

Crowd collision Avoidance

  • Developed crowd collision avoidance algorithm using force based repulsion and time to goal methods

  • Successfully tested multiple agent scenarios

3 agent scenario

8 agents scenario

Crossing agents scenario

Research & Academic Projects: Features

Deep Orange 10

Perception Engineer

  • Autonomous Mobility Concept for Ford motor company.

  • Developed an algorithm for road lane detection using OpenCV libraries, thresholding using sobel absolutes, magnitudes and gradients and HSV color

  • Successfully tested it on the video samples and then tested it on the actual vehicle

Research & Academic Projects: Features

Vehicle Detection using 3D LIDAR data

  • Used VoxelNet architecture for detecting the vehicles using 3D LIDAR data

  • Trained the CNN architecture using Kitti Dataset and successfully tested the architecture using Velodyne VLP 16 3D LIDAR

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Research & Academic Projects: Features
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Autonomous Lawn Mower

  • Worked on developing a robust and a low cost autonomous lawn mower for Samsung

  • ​Worked on Semantic Segmentation of the terrain using deep learning techniques

Research & Academic Projects: Features
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