This course unites topics in computer graphics, computer vision and human perception, explaining their relations at hand of practical and state-of-the-art examples.
The lectures introduce computer graphics from a human-centric point of view. Human perception motivates the design of extended reality devices and efficient computer graphics algorithms. How can we simulate how light propagates in real time by exploiting the limitations of the human visual system? In turn, the computer graphics models are used for 3D computer vision by inverse graphics, the analysis by synthesis principle. How can we invert the image, which measures light intensity?
The basic building blocks for visual computing applications that are taught are: rendering techniques for computer graphics (ray-tracing, splatting, rasterization), representations for objects (sum of Gaussians), and 3D geometry (perspective projection, optimization). Practical experiences are gained in the assignments and tutorials.
The following slides provide additional details and context to the existing visual computing modules at Bielefeld University:
https://docs.google.com/presentation/d/e/2PACX-1vRGyE0j_cU324qp-vOEE4hEBPn3HdwliZQqeg_vT0w7Yt9EUXmgFB6NamL_ynqeBMYRgD-cdvfvXobA/pub?start=false&loop=false&delayms=3000
The course builds upon the programming skills, mathematical models, and concepts learned in the introductory Programming and Math courses.
Required are basic programming skills (in python) and basic mathematics (in particular linear algebra, some integral calculus, little probability theory).
Prior knowledge of PyTorch from machine learning is a plus but not required.
The course material is largely self-contained and refers to external sources where not. The https://scratchapixel.com/ website is an excellent resource for self study of the covered materials and beyond. A script covering the core methodologies may be provided in future iterations of this course.
Rhythmus | Tag | Uhrzeit | Format / Ort | Zeitraum |
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Modul | Veranstaltung | Leistungen | |
---|---|---|---|
39-Inf-VC Visual Computing | Visual Computing | Studieninformation | |
- | benotete Prüfungsleistung | Studieninformation | |
39-M-Inf-ASE-app-foc Applied Autonomous Systems Engineering (focus) | Applied Autonomous Systems Engineering (focus): Vorlesung | Studieninformation | |
- | benotete Prüfungsleistung | Studieninformation | |
39-M-Inf-ASE-bas Basics of Autonomous Systems Engineering | Basics of Autonomous Systems Engineering: Vorlesung | Studieninformation | |
- | unbenotete Prüfungsleistung | Studieninformation | |
39-M-Inf-INT-app-foc Applied Interaction Technology (focus) | Applied Interaction Technology (focus): Vorlesung | Studieninformation | |
- | benotete Prüfungsleistung | Studieninformation | |
39-M-Inf-INT-bas Basics of Interaction Technology | Basics of Interaction Technology: Vorlesung | Studieninformation | |
- | unbenotete Prüfungsleistung | Studieninformation |
Die verbindlichen Modulbeschreibungen enthalten weitere Informationen, auch zu den "Leistungen" und ihren Anforderungen. Sind mehrere "Leistungsformen" möglich, entscheiden die jeweiligen Lehrenden darüber.
The course has a strong practical component, with live coding during lectures and weekly assignments that cover the learned material step-by-step.
Zu dieser Veranstaltung existiert ein Lernraum im E-Learning System. Lehrende können dort Materialien zu dieser Lehrveranstaltung bereitstellen: