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Høst 2023
TEK-3601 Machine Vision - 10 stp
The course is administrated by
Type of course
Course overlap
Course contents
This course builds on the knowledge gained from Image Analysis and Machine Learning courses.
Fundamentals of technical and scientific report writing with emphasis on performing experiments and data analysis pertaining to image analysis themes.
Introduction to machine vision: fundamentals of image formation and camera parameters. An overview of Image sensing pipeline, Demosaicing, and JPEG compression.
Our visual system, eye tracking, eye tracking technologies, analysis of eye tracking data, visual saliency, and deep visual saliency. Monocular and Binocular cues for depth perception.
Feature extraction methods: RANSAC, SIFT, and HOG.
Fundamentals of Geometric Image Formation, Pinhole camera model, Camera Calibration, Extrinsic and Intrinsic parameters.
A high-level summary of advanced deep learning methods for image analysis such as object detection, inpainting, super-resolution and/or image generation.
Admission requirements
A relevant undergraduate Bachelor Engineering program with minimum 25 credits mathematics, 5 credits statistics, 7,5 credits physics.
Application code: 9371
FYS-2010 Image Analysis, FYS-2006 Signal Processing or FYS-2021 Machine Learning is recommended.
Objective of the course
Knowledge:
This interdisciplinary course should give the candidate a good understanding of machine vision with special focus on a case study in one of the following areas: Machine Learning, Automation, Drone Technology, Medical Informatics & Imaging, Nautical Science, Remote Sensing, and Industrial Applications.
Skills:
- Candidate will build knowledge in image formation, cameras, and vision sensors.
- Candidate will learn about image analysis techniques for eye tracking data analysis and visual saliency.
- Candidate will learn state-of-the-art machine learning methods for image analysis (i.e., pattern detection and recognition).
- Candidate should be able to use state-of-the-art image analysis methods in practical problems.
- Candidate should be able to understand and use the knowledge from machine vision in their selected domain.
- Candidate should be able to demonstrate their knowledge using Python or MATLAB®.
- Candidate should be able to demonstrate scientific analysis of data or experiments in a case study report.