WS 18/19

Image Processing and Computer Graphics

Lecture: Monday 10-12, 082 00 006. Tuesday 10-12, 082 00 006.

Tutorial: Tuesday 10-12, 082 00 021, 082 00 028, 082 00 029.

Simulation in Computer Graphics

Lecture: Monday 16-18, 106 00 007.

Tutorial: Wednesday 16-18, 106 00 007.

Advanced Topics in Rendering

Seminar: Wednesday 10-12, 101 01 016.

Ausgewählte Themen der Computergraphik

Seminar: Tuesday 12-14, 052 02 017.

Computer Graphics (Rendering Track / Simulation Track)

Bachelor-Project: by appointment.

Lab Course: by appointment.

Advanced Computer Graphics (Rendering Track / Simulation Track)

Master-Project: by appointment.

Bildverarbeitung, Computersehen und Computergraphik.

Seminar: Tuesday 16-18, 052 02 017.

Computer Graphics Reading Group.

Seminar: Tuesday 14-16, 052 01 005.

Bachelor Thesis, Master Thesis.

By appointment.

Office hour.

Tuesday 9-10, 052 01 005, during term time.

Material

Image Processing and Computer Graphics - Lecture

Introduction (Dec 3)  /  Guest lecture (Dr. Ihmsen) (Dec 10)  /  Ray Casting (Dec 11)  /  Shading (Dec 17)  /  Homogeneous Notation (Dec 18)  /  Projection (Jan 7)  /  Exercise (Jan 8)  /  Rasterization (Jan 14)  /  Exercise (Jan 15)  /  Surfaces (Jan 21)  /  Exercise (Jan 22)  /  Sampling (Jan 28)  /  Exercise (Jan 29)  /  Particle Fluids (Feb 04)  /  Evaluation, Q & A, Outlook (Feb 5)  /  Test exam  /  Solution  /  Point on a Line at Infinity

Image Processing and Computer Graphics - Tutorial

Tom Dalling provides an excellent tutorial as an introduction to OpenGL >3.0. A copy of the tutorial embedded in a cmake environment with some tasks can be downloaded here and the solution here.

Advanced Computer Graphics - Lecture

Introduction  /  Radiometry  /  Materials  /  Radiosity  /  Stochastic Raytracing

Advanced Computer Graphics - Tutorial

Framework 1 (Stefan Band)  /  Framework 2 (Philipp Bausch / Christoph Gissler)

Simulation in Computer Graphics - Lecture

Introduction  /  Particle Motion  /  Elastic Solids  /  Particle Fluids  /  Grid Fluids  /  Rigid Bodies  /  Bounding Volume Hierarchies

Simulation in Computer Graphics - Tutorial

Coin 3.1.3: VS2013, Coin sources, SoWin sources, Readme Windows, Readme Linux

Notes: Introduction, Numerical Integration, Elastic Solids

Particles: Description, Exercise, Solution, VTK ParticleViewer (Sinje Balzer)

Fireworks: Description, Exercise, Solution

Mass-spring systems: Description, Exercise, Solution, Matrix-free CG (Stefan Band)

Mass-spring systems: Implicit Euler Implementation Notes

Rigid bodies: Description, Exercise, Solution

Space Partitioning: Description, Exercise, Solution

SPH fluids (Stefan Band): Introduction, Source code

Advanced Topics in Rendering

Schedule  /  Topics  /  Introduction  /  Template  /  Introduction to Powerpoint

Advanced Topics in Animation

Schedule  /  Topics  /  Introduction  /  Template  /  Introduction to Powerpoint

Ausgewählte Themen der Computergraphik

Termine  /  Themen  /  Einführung  /  Formatvorlage  /  Powerpoint-Einführung

Previous Material

Algorithmen und Datenstrukturen

Einführung  /  Beschreibung  /  Korrektheit  /  Effizienz  /  Laufzeit  /  Teile und Herrsche  /  Entwurfsmuster  /  Datenstrukturen  /  Sortieren  /  Suchen  /  Hashverfahren  /  Suchbaum  /  AVL-Baum  /  Bereichsbaum  /  Graph  /  Zusammenfassung

Graphikprogrammierung

Themen  /  Einführung  /  Formatvorlage  /  Powerpoint-Einführung

Image Processing and Computer Graphics - Tutorial

This is an OpenGL <3.0 implementation of shadow maps and shadow volumes.
Exercise 1: Transformations, Code VS2010, Code VS2013, Solution
Exercise 2: Shadow Prerequisites, Code VS2010, Code VS2013, Solution VS2010, Solution VS2013
Exercise 3: Shadow Volumes, Code VS2010, Code VS2013, Solution VS2010, Solution VS2013
Exercise 4: Shadow Maps, Code VS2010, Code VS2013, Solution VS2010, Solution VS2013