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Computer Animation:  2009-2010

Information

Lecturer

Degrees

Schedule C1Honour School of Computer Science

Part CHonour School of Mathematics and Computer Science

Schedule CMSc in Computer Science

MSc by Research

Term

Overview

Assessment will be by a take-home mini-project.

There will be four practicals. The fourth will be linked to the mini-project, completed over the Easter vacation, and demonstrated at the start of Trinity Term.

Learning outcomes

Prerequisites

No specific pre-requisites, other than familiarity with basic operations on matrices and vectors. Basic knowledge of 3D transformations is useful (e.g., from the Computer Graphics course), but not essential. Rigid-body dynamics will be covered, for which some earlier experience would be useful.

Synopsis

  1. Introduction. Traditional animation. Use of computer animation. [1]
  2. 2. Scene Composition. Revision of rigid-body transformations (notes provided for those who haven't seen this before in, e.g., computer graphics). Information required to render rigid objects. Transformation chains. Scene graphs. Scene description languages. [3]
  3. Basic animation. Time-varying transformations. Interpolation and interpolation functions. Use of quarternions for smooth rotation interpolation. [3]
  4. Frame-based animation. Use of the Blender program. [4]
  5. Moving the camera. Animation tricks. [2]
  6. Collision detection and response. Dealing with simple geometries. The GJK algorithm. Dealing with large scenes. Physical response models. [5]
  7. Challenges and the future of computer animation. [2]

Syllabus

Basic ideas of scene composition in 3D. Time-varying scenes; animation; animation frames and interpolation. Use of cameras. Animation tricks. Other uses of animation and simulation. Collision detection and response. Advanced topics. Challenges and the future.

Reading list

Course text
Highly Recommended