Geometry Presentations, Interim 2005
PRESENTATION GUIDELINES
Each group is responsible for a 45-60 minute class presentation on
one of the topics listed below. These topics are integral to the course
so presentations must be informative and professionally done. Certain
material, as indicated by the instructor, must be included in your
presentation.
Guidelines:
It is essential to maintain class interest (class involvement is a
plus when it can be accomplished without sacrificing
intellectual content). To facilitate class understanding, each
presentation should include the distribution of a written outline
and/or summary of the content of the presentation. This handout should
also include a bibliography of two or three of the most pertinent
sources.
Presenters should make every attempt to present the topic in an
instructive and professional manner using appropriate terminology and
illustrations. Presentations will be graded on understanding and
communication of content, depth of research, effectiveness of
presentation, and evidence of active involvement by all members of the
group.
Suggestions for Preparing Presentations:
- Assign research responsibilities to each member of the group.
- Define specific goals for the presentation (What do you want to
convey to the audience?)
- Decide what materials are needed for the presentation.
- Outline and prepare a class handout.
- Assign presentation responsibilities to each member of the group.
- Meet with the instructor at least one day prior to the
presentation to review your plans.
- Practice the presentation several times so you can avoid reading
notes and check your timing.
- RELAX.
Resources:
A bibliography and other resources for each topic will be
distributed at
the initial presentation meeting with the instructor. If you need
supplies for the presentation, see the instructor at least one day
in advance.
Topics:
Each group must choose one of the topics listed below. The listed
subtopics give an indication of the types of ideas that should be
included.
- Early Geometry: Euclid and Before (Jan. 11):
- Methods and contributions of ancient civilizations - both
western and non-western.
- Mathematics of ancient Greece (the role of geometry,
Pythagoreans, 3 classical construction problems, axiomatic method)
- Euclid's work as a "culmination" of previous western geometry.
- Include a timeline in your presentation.
- Development of non-Euclidean geometry (Jan. 11):
- Early questions about independence of fifth postulate.
- Major contributions of Saccheri, Gauss, Bolyai, Lobachevsky
and others.
- Final answer to the question, reasons for the delay, etc..
- Effects of this answer on understanding of mathematical and
philosophical "truth".
- Include a timeline in your presentation.
- Symmetry in Culture, Art, Science, Nature, Music, etc. (Jan. 17)
- What is symmetry? How has the meaning of the term evolved?
- Role of symmetry in perception.
- Significance in the areas mentioned.
- Specific examples in one or two of these areas.
- Golden ratio.
- Its increasing importance in mathematics.
- Mathematics of paper folding (Jan. 18):
- Construction of conic sections via paper folding
- Use to determine all possible Platonic solids
- Other polyhedra
- Demonstration of theorems from Euclidean geometry
- Frieze and Wallpaper Patterns -- Plane Tilings -- (Jan. 18)
- See 3.10 and 3.11 for background
- Identification of Types of frieze and wall patterns
- Generating various frieze and wall patterns
- Use of periodic tilings in creating Escher-type designs
- Tilings of the hyperbolic plane.
- Intro to Projective Geometry: Art to Math --(Jan. 19)
- Origins in an artistic problem, attempts at solutions
- Introduction of vanishing point, horizon line, observation
point,
one, two and three point perspective using Cabri
- Perspective views of common objects
- Introductory overview of projective geometry
- Introduction to Intuitive Topology -- (Jan. 19)
- Intuitive description of topology and topological
transformations
- Variants and invariants under topological transformations
(including no. of sides, edges, genus)
- Presentation of several famous topological problems
- Dimension Four and More (Jan. 21):
- Early literary references, occurrences in art
- Review and description of Abbot's Flatland
- Generation of a hypercube by a cube
- Applications of higher dimensions in mathematics and physics
(e.g. string theory)
- Fractals in Culture, Art, Science, Nature, Music, etc. (Jan. 25)
- Cultures in which fractals have played significant roles.
- Significance of fractals in other areas mentioned.
- Specific examples in one or two of these areas.
- Their use in movies.
Disclaimer
Disclaimer