Get in Touch

Course Outline

Introduction to Computer Vision in Autonomous Driving <\/p>

  • The role of computer vision in autonomous vehicle systems <\/li>
  • Challenges and solutions in real-time vision processing <\/li>
  • Key concepts: object detection, tracking, and scene understanding <\/li> <\/ul>

    Image Processing Fundamentals for Autonomous Vehicles <\/p>

    • Image acquisition from cameras and sensors <\/li>
    • Basic operations: filtering, edge detection, and transformations <\/li>
    • Preprocessing pipelines for real-time vision tasks <\/li> <\/ul>

      Object Detection and Classification <\/p>

      • Feature extraction using SIFT, SURF, and ORB <\/li>
      • Classical detection algorithms: HOG and Haar cascades <\/li>
      • Deep learning approaches: CNNs, YOLO, and SSD <\/li> <\/ul>

        Lane and Road Marking Detection <\/p>

        • Hough Transform for line and curve detection <\/li>
        • Region of interest (ROI) extraction for lane marking <\/li>
        • Implementing lane detection using OpenCV and TensorFlow <\/li> <\/ul>

          Semantic Segmentation for Scene Understanding <\/p>

          • Understanding semantic segmentation in autonomous driving <\/li>
          • Deep learning techniques: FCN, U-Net, and DeepLab <\/li>
          • Real-time segmentation using deep neural networks <\/li> <\/ul>

            Obstacle and Pedestrian Detection <\/p>

            • Real-time object detection with YOLO and Faster R-CNN <\/li>
            • Multi-object tracking with SORT and DeepSORT <\/li>
            • Pedestrian recognition using HOG and deep learning models <\/li> <\/ul>

              Sensor Fusion for Enhanced Perception <\/p>

              • Combining vision data with LiDAR and RADAR <\/li>
              • Kalman filtering and particle filtering for data integration <\/li>
              • Improving perception accuracy with sensor fusion techniques <\/li> <\/ul>

                Evaluation and Testing of Vision Systems <\/p>

                • Benchmarking vision models with automotive datasets <\/li>
                • Real-time performance evaluation and optimization <\/li>
                • Implementing a vision pipeline for autonomous driving simulation <\/li> <\/ul>

                  Case Studies and Real-World Applications <\/p>

                  • Analyzing successful vision systems in autonomous cars <\/li>
                  • Project: Implementing a lane and obstacle detection pipeline <\/li>
                  • Discussion: Future trends in automotive computer vision <\/li> <\/ul>

                    Summary and Next Steps <\/p>

Requirements

  • Proficiency in Python programming <\/li>
  • Foundational understanding of machine learning concepts <\/li>
  • Familiarity with image processing techniques <\/li> <\/ul>

    Target Audience<\/strong> <\/p>

    • AI developers working on autonomous driving applications <\/li>
    • Computer vision engineers focusing on real-time perception <\/li>
    • Researchers and developers interested in automotive AI <\/li> <\/ul>
 21 Hours

Custom Corporate Training

Training solutions designed exclusively for businesses.

  • Customized Content: We adapt the syllabus and practical exercises to the real goals and needs of your project.
  • Flexible Schedule: Dates and times adapted to your team's agenda.
  • Format: Online (live), In-company (at your offices), or Hybrid.
Investment

Price per private group, online live training, starting from 4800 € + VAT*

Contact us for an exact quote and to hear our latest promotions

Testimonials (1)

Provisional Upcoming Courses (Contact Us For More Information)