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Course Outline

Introduction to Computer Vision in Autonomous Driving

  • The role of computer vision in autonomous vehicle systems.
  • Challenges and solutions in real-time vision processing.
  • Key concepts: object detection, tracking, and scene understanding.

Image Processing Fundamentals for Autonomous Vehicles

  • Image acquisition from cameras and sensors.
  • Basic operations: filtering, edge detection, and transformations.
  • Preprocessing pipelines for real-time vision tasks.

Object Detection and Classification

  • Feature extraction using SIFT, SURF, and ORB.
  • Classical detection algorithms: HOG and Haar cascades.
  • Deep learning approaches: CNNs, YOLO, and SSD.

Lane and Road Marking Detection

  • Hough Transform for line and curve detection.
  • Region of interest (ROI) extraction for lane marking.
  • Implementing lane detection using OpenCV and TensorFlow.

Semantic Segmentation for Scene Understanding

  • Understanding semantic segmentation in autonomous driving.
  • Deep learning techniques: FCN, U-Net, and DeepLab.
  • Real-time segmentation using deep neural networks.

Obstacle and Pedestrian Detection

  • Real-time object detection with YOLO and Faster R-CNN.
  • Multi-object tracking with SORT and DeepSORT.
  • Pedestrian recognition using HOG and deep learning models.

Sensor Fusion for Enhanced Perception

  • Combining vision data with LiDAR and RADAR.
  • Kalman filtering and particle filtering for data integration.
  • Improving perception accuracy with sensor fusion techniques.

Evaluation and Testing of Vision Systems

  • Benchmarking vision models with automotive datasets.
  • Real-time performance evaluation and optimization.
  • Implementing a vision pipeline for autonomous driving simulation.

Case Studies and Real-World Applications

  • Analyzing successful vision systems in autonomous cars.
  • Project: Implementing a lane and obstacle detection pipeline.
  • Discussion: Future trends in automotive computer vision.

Summary and Next Steps

Requirements

  • Proficiency in Python programming.
  • Fundamental knowledge of machine learning concepts.
  • Familiarity with image processing techniques.

Target Audience

  • AI developers engaged in autonomous driving applications.
  • Computer vision engineers specializing in real-time perception.
  • Researchers and developers with an interest in automotive AI.
 21 Hours

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