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 Duration 21 hours (3 days)

Course Outline

Foundations of Artificial Intelligence and Robotics

  • Examination of the integration between contemporary robotics systems and AI methodologies
  • Operational applications in autonomous systems, unmanned aerial vehicles, and service robot platforms
  • Core AI architectural elements: sensory perception, strategic planning, and system control

Configuration of the Technical Development Environment

  • Deployment of Python, ROS 2, OpenCV, and TensorFlow libraries
  • Utilization of Gazebo or Webots platforms for robotic simulation tasks
  • Execution of AI experimental protocols via Jupyter Notebook environments

Perception Systems and Computer Vision Analysis

  • Application of camera arrays and sensor data for environmental perception
  • Execution of image classification, object detection, and segmentation tasks using TensorFlow frameworks
  • Implementation of edge detection and contour tracking algorithms using OpenCV
  • Management of real-time image data streams and processing workflows

Localization Algorithms and Sensor Data Fusion

  • Analysis of probabilistic robotics principles
  • Application of Kalman Filters and Extended Kalman Filters (EKF) for state estimation
  • Deployment of Particle Filters for navigation in non-linear environments
  • Synthesis of LiDAR, GPS, and IMU telemetry for precise localization

Motion Planning and Pathfinding Strategies

  • Evaluation of path planning algorithms: Dijkstra, A*, and RRT*
  • Implementation of obstacle avoidance protocols and environmental mapping
  • Execution of real-time motion control via PID mechanisms
  • Optimization of dynamic paths utilizing AI-driven methods

Reinforcement Learning Applications in Robotics

  • Review of fundamental reinforcement learning theories
  • Design of robotic behavioral models based on reward structures
  • Implementation of Q-learning and Deep Q-Networks (DQN) architectures
  • Integration of RL agents within ROS frameworks for adaptive motion capabilities

Simultaneous Localization and Mapping (SLAM) Systems

  • Conceptual review of SLAM methodologies and operational workflows
  • Implementation of SLAM using ROS packages (gmapping, hector_slam)
  • Development of Visual SLAM systems using OpenVSLAM or ORB-SLAM2
  • Validation of SLAM algorithms within simulated operational environments

Advanced Integration Topics

  • Implementation of speech and gesture recognition for human-robot interaction interfaces
  • Integration with IoT architectures and cloud-based robotics platforms
  • Application of AI-driven predictive maintenance protocols for robotic assets
  • Assessment of ethical standards and safety protocols in AI-enabled robotics

Capstone Project Execution

  • Design and simulation of an intelligent mobile robotic unit
  • Implementation of integrated navigation, perception, and motion control systems
  • Demonstration of real-time decision-making capabilities using AI models

Conclusion and Future Directions

  • Synthesis of primary AI robotics technical methodologies
  • Analysis of emerging trends in autonomous robotics sectors
  • Identification of resources for sustained professional development

Requirements

  • Proficiency in programming with Python or C++
  • Fundamental understanding of computer science and engineering principles
  • Familiarity with probability theory, calculus, and linear algebra

Intended Audience

  • Engineering professionals
  • Robotics specialists and practitioners
  • Researchers in automation and AI sectors

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