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pranaypalem/README.md
  • 👋 Hi, I’m @pranaypalem
  • 👀 I’m interested in Robotic perception in various environments
  • 🌱 I’m currently learning Robotic simulation and perception

Skill Set

  • Reinforcement Learning (RL):

    • Experienced in designing and training RL algorithms (Q-learning, DQN, PPO, etc.) for robotic control tasks.
    • Implemented RL solutions for path-following, pick-and-place, and motion optimization.
  • SLAM (Simultaneous Localization and Mapping):

    • Familiar with indoor and outdoor mapping and localization tools like GMapping, Hector SLAM, and RTAB-Map.
    • Skilled at integrating sensor data (LIDAR, depth cameras) for robust map building and pose estimation.
  • ROS (Robot Operating System):

    • Proficient in setting up ROS-based development environments, creating custom nodes, and leveraging ROS tools (rviz, rqt, rosbag).
    • Experienced with simulation in Gazebo and real-world deployment on robotic platforms.
  • Robotic Perception:

    • Skilled in using libraries such as OpenCV and PCL for object detection, feature extraction, and point cloud processing.
    • Developed perception pipelines for tasks like environmental mapping and scene understanding.
  • Foldable Robotics:

    • Researched and developed prototypes focusing on foldable mechanisms for efficient manufacturing and compact deployment.
    • Explored novel materials and designs to enable portable, space-saving robotic solutions.
  • Artificial Potential Field (APF):

    • Implemented APF-based navigation for mobile robots, enhancing obstacle avoidance and path planning.
    • Experimented with optimizing APF to mitigate common issues like local minima.

Pinned Loading

  1. foldable-robotics foldable-robotics Public

    A foldable robotics project inspired by basilisk lizard locomotion, featuring four-bar mechanism design, MuJoCo simulations, and adaptive movement optimization.

    Jupyter Notebook 1

  2. RL-ppo-vs-trpo RL-ppo-vs-trpo Public

    A repository comparing Proximal Policy Optimization (PPO) and Trust Region Policy Optimization (TRPO) algorithms through implementation and performance evaluation in reinforcement learning environm…

    Jupyter Notebook 1

  3. artificial-potential-field artificial-potential-field Public

    A multi-robot firefighting system that uses Artificial Potential Field (APF) controllers to autonomously navigate robots, extinguish fires, avoid obstacles, and manage energy efficiently.

    Jupyter Notebook

  4. mujoco-parameter-identification mujoco-parameter-identification Public

    This repository compares real-life oscillation data from Tracker with MuJoCo simulations to estimate and identify the stiffness and damping characteristics of a cardstock material.

    Jupyter Notebook 1

  5. kinematics-analysis kinematics-analysis Public

    This repository will contain a bunch of kinematic analysis on various robots. Some are robots with a four bar mechanism for a leg, and some are foldable robots

    Jupyter Notebook 1

  6. yolov8_tensorrt_docker yolov8_tensorrt_docker Public

    Docker container for high-speed YOLOv8 inference using TensorRT, integrated with ROS Noetic. Supports GPU/CPU fallback, automatic model optimization, and deployment on Jetson and GPU servers.

    Dockerfile 1