To operate the Blended Learning Center(BLC) at optimal level, maintenance will be performed every day at 8:30 AM and at 5:00 PM regularly which can take up to 30 minutes. Please consider scheduling your activity in the BLC platform accordingly.
Topic outline
- General
- Welcome To Computer Graphics
Welcome To Computer Graphics
Click ------------>
Instructor Information:
Nazmun Nessa Moon Assistant Professor
Room-518, CSE Building
01798145670
moon@daffodilvarsity.edu.bd
Course Rationale
Computer Graphics is a 3-credit senior-level course that introduces the
concepts and implementation of computer graphics. As one of the important
subject areas of the study of computer science and information systems, this
course will focus on the theoretical aspects and implementation of computer
graphics using OpenGL.
Course Objectives
- To understand design thinking skills across the disciplines of computer graphics.
- To animate the efficiency of problem solving focus in relate to visualization of the device.
- To develop the effective skills in the implementation on computer graphics for the digital ages.
Course Learning Outcomes(CO's)
| CLO1 |
Able to explain the core concepts of
computer graphics, including output primitives, anti-aliasing, transformation
and viewing in 2D.
|
|
CLO2
|
Able to apply the concepts of 3D display,
projection, perspective, modelling and transformation.
|
|
CLO3
|
Able to describe the fundamentals of
colour models, lighting and shading models, animation, dithering, parametric
curves, hidden surface elimination and rendering.
|
|
CLO4
|
Able to demonstrate effective OpenGL
programs to solve graphics programming issues, including output primitives,
2D and 3D transformation, objects viewing and modelling, colour modelling,
lighting and shading.
|
Assessment Plan
Reference Books/ Materials
1. Schaum's Outline of Computer Graphics by Ray Plastock, Gordon Kalley, Zhiang Xiang,
Zhingang Xiang
2. C Programming Using Turbo C++ by Robert Lafore
3. Fundamentals of Computer Graphics, by Peter Shirley et al., ISBN 978-1568812694
4. Interactive Computer Graphics: A Top-Down Approach with Shader-Based OpenGL by
Shreiner and Angel, Pearson Education ISBN 9780273752264
5. Computer Graphics: Principles and Practice by Foley, Van Dam, Feiner, & Hughes,
Addison-Wesley ISBN 0201848406
- Topic 2
- Week 1
Week 1
Topics for discussion
Lecture 1: Introduction to Computer Graphics
Lecture 2: Video Display Devices: Refresh Cathode Ray Tubes, Raster & Random Scan displays, Color CRT Monitors, DVST & Flat panel displays
Expected Learning Outcome:
- Appreciate the use of Computer Graphics and it's real life Application.
- Able to explain the core concepts of computer graphics, including output primitives, anti-aliasing, transformation and viewing in 2D.
Book Chapter
Chapter 1: A survey of Computer Graphics
Chapter 2: Overview of Graphics SystemLecture-1 
Lecture-2 
How plasma display perform?
- Week 2
Week 2
Topics for discussion
Lecture 3: Points and Lines, Line drawing Algorithm
Lecture 4: DDA Algorithm- example with plot in a graph
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 3: Output Primitives
- Week 3
Week 3
Topics for discussion
Lecture 5: Parameter Description of Bresenham Line Drawing Algorithm
Lecture 6: Bresenham Line Drawing Algorithm Implementation with Example
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 3: Output Primitives
- Presentation
Presentation
Presentation Guide Line
- Evaluation Criteria (Gesture & posture, Body language, English Communication, Eye Contact, Knowledge/content, Handling Q & A )
Presentation Guide Line Details....
- Each Team Contain maximum 3 members.
- Everyone participation is mandatory
- Time Limit: 12 Minutes each team
- Video Presentation (Google meet), recorded link is submitted to excel sheet and presentation slide is submitted to BLC
- Last date of submission 12th August 2021
- Week 4
Week 4
Topics for discussion
Lecture 7: Properties of Circle, Circle Drawing Algorithm : Midpoint
Lecture 8: Mid point circle drawing Algorithm Implementation
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 3: Output Primitives
- week 5
week 5
Topics for discussion
Lecture 10: Two-Dimensional Geometric Transformation
Lecture 11: Review Class (Previous Lecture)
Expected Learning Outcome:
- To evaluate the transformation of an object and viewing in two dimensional way..
- To perform with the mathematical expression in a computational display.
Book Chapter
Chapter 5: Two-Dimensional Geometric Transformation
- Week 6
Week 6
Topics for discussion
Lecture 9: Antialiasing-Different techniques
Expected Learning Outcome:
- Able to understand the resolution and projection of the output primitives.
- Able to implement the algorithm to pictorial form in the objects.
Book Chapter
Chapter 4: Attributes of Output Primitives
- Week 7
Week 7
Mid Term Syllabus:
1. Application of Computer Graphics
2. Video display devices
3. Line Drawing Algorithm (DDA, Bresenham)
4. Circle algorithm.(Mid Point)
5. 2D Transformation
6. Antialiasing: Different antialiasing techniques.
MID TERM ASSESSMENT PLAN
Total Marks: 25
- week 8
week 8
Topics for discussion
Lecture 19: 3D Geometric Transformation
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 11: Three-Dimensional Geometric & Modeling Transformation
- Week 9
Week 9
Topics for discussion
Lecture 12: Two-Dimensional Viewing, Window-to-Viewport Coordinate Transformation
Lecture 13: Two-Dimensional Clipping, Line Clipping Algorithm: Cohen-Sutherland
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 6: Two-Dimensional viewing
- Week 10
Week 10
Topics for discussion
Lecture 14: Two-Dimensional Clipping, Polygon Clipping Algorithm
Lecture 15: Sutherland Hodgeman- Example
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 6: Two-Dimensional viewing
- week 11
week 11
Topics for discussion
Lecture 16: Two-Dimensional Clipping, Polygon Clipping Algorithm: Weiler -Atherton Polygon Clipping Algorithm
Lecture 17: Example of Weiler- Atherton Polygon Clipping Algorithm
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 6: Two-Dimensional viewing and clipping
- week 12
week 12
Topics for discussion
Lecture 18: Three Dimensional Display Methods, Parallel Projection, Perspective projection
Lecture 19: Depth Cueing, Visible Line and Surface Identification, Surface Rendering
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 9: Three Dimensional Concepts
- Week 13
Week 13
Topics for discussion
lecture 22 : Halftone Pattern and Dithering Techniques
Lecture 23: Color Models and Color Applications
Expected Learning Outcome:
- Able to understand the core concept of output primitives and transformation..
- Able to implement the algorithm rendering the graphics.
Book Chapter
Chapter 14: Illustration Models & surface rendering Methods
Chapter 15: Color Models & Color Applications
- week 14
week 14
Final Exam Syllabus:
1. Transformation-2D and 3D (Five Basic Operations with example)
2. Viewing: Window to viewport mapping
3. Clipping- Cohen Sutherland Line Clipping Algorithm, Polygon Clipping Algorithm: Sutherland Hodgeman ,Weiler-Atherton Polygon Clipping Algorithm.
4. 3D Display: Parallel and perspective projection, Depth Cueing (Definition), Surface rendering (Definition)
5. Color Model: RGB, CMYK
- Topic 18
- Topic 19
- Topic 20
- Topic 21
- Topic 22
- Topic 23
- Topic 24
- Topic 25
- Topic 26
- Topic 27
- Topic 28
- Topic 29
- Topic 30
- Topic 31
- Topic 32
- Topic 33
- Topic 34
- Topic 35
- Topic 36
- Topic 37
- Topic 38
- Topic 39
- Topic 40
- Topic 41
- Topic 42
- Topic 43
- Topic 44
- Topic 45
- Topic 46
- Topic 47
- Topic 48
- Topic 49
- Topic 50