IPS*1100

Structure of Matter

Student Presentations


Course Home Page

Course Description

Lecture Topics

Tutorial Schedule

Reading Guides/Problems

Quizzes

Answers to Quizzes

Enriched Science and Math Program (MPC2)

Dept. of Chem. and Biochem.

Dept. of Physics

College of Physical and Engineering Science

University of Guelph

The object of the Student Presentation assignment is to gain experience in the delivery of a presentation on a scientific topic. In addition, the presentations introduce the class to a topic in science which might not be covered in lectures. They may also spark new interests in various, possibly interdisciplinary, fields of science. Each student is required to give a lecture on a separate topic, either chosen from a list of possible topics or a topic which is acceptable to the course instructors.

Each presentation is to be a maximum of 15 minutes long (plus five minutes for questions). This includes the introduction and all explanations and demonstrations. Part of your presentation mark will depend on your ability to stay within the time limit and how well you use that time.

A one page, pre-lecture handout is essential and the use of overheads and/or short demonstrations is encouraged as it will make it easier to communicate the ideas to the other students and it will reduce the time needed for the presentations. We will supply you with the necessary transparencies to make the overheads and can do the photocopying for you, if you get it to us early enough.

One week after the lecture is presented, an essay covering the same material is required to be submitted. The text of the essay is to be an absolute maximum of 5 pages single spaced (10 pages double spaced). In addition to the text, you are encouraged to include any figures that may help in your explanations. A bibliography and/or list of references is required. Hand in two copies of your essay, one for each instructor.

Remember that one of the purposes of the essay/presentation is to demonstrate that you know what you are writing/talking about; don't go in over your head. Attempt to present the lecture and write the essay in such a way that everyone will understand it, even if they have no prior knowledge of the topic.

Student lecture material is fair game for the FINAL EXAM. Therefore, it is in everyone's best interest to attend all the lectures and to get a grasp of all the topics. This means that you should keep any handouts from the other students' presentations. You are encouraged to ask questions about any part of a lecture you don't understand (it may be important and other people probably do not understand it either).

Below are some suggested topics. If you have another idea, check it out first with the course instructors. Once a student has selected a topic, it will be highlighted in red. Don't choose a topic that has already been selected.

The Microchip
Observing Single Molecules
Neutrinos in Radioactive Decay
Holography (JE)
Fibre Optics
Liquid Crystals (HC)
Fluorocarbons and the Ozone Hole
Superconductors
Solar Energy Cells
Biochemistry of Taste and Smell (MT)
Nuclear Dating Methods
Metallurgy
The Aurora Borealis (PS)
Triboluminescence (Tribology) (MC)
Matter and Anti-matter
Elasticity and Plasticity of Matter
Symmetry in Crystals
Nonlinear Optical Materials
Zeolites and Molecular Sieves
Structure of the Biological Membrane
Magnetic Resonance Imaging
Dark Matter (LC)
X-ray Lasers (JO)
Quantum Computers (AC)

Molecular Symmetry and Structure
Ion Engines (EL)
Insulators
Genetic Diseases of Hemoglobin
Quasi-Crystals (ER)
Semiconductors
Brownian Motion and Molecular Motion
The Structure of Water and Ice (AW)
Molecules in Space
Lasers
Black Holes / Neutron Stars (SM)
Nuclear Magnetic Resonance
Electron Spin Resonance
Muon Spin Resonance
Plant Natural Products in Medicine
Polymers
Quantum Effect Electronics (MB)
The Big Bang (AP)
Radio Astronomy
Chemistry and Physics of Photography
Relativity (applied Structure of Matter)
The Formation of Stars
Scanning Tunneling Microscopy (STM)
Gene Therapy (SC)
Bell's Theorem (BD)

Buckyballs and Buckytubes (NL)
DNA Fingerprinting
Biological Effects of Radiation
Artificial Blood
Achieving Ultralow Temperatures
Structure Determination by Electron Diffraction
Laser Control of Chemical Reactions
String Theory (SG)
Nanotechnology (TS)
Cosmic Background Radiation
Highly Excited (Rydberg) Atoms & Molecules
Profile of a Famous Scientist
Inclusion Compounds
Computational Chemistry
Supercritical Fluids
The Cosmological Constant
Molecular Self-Assembly
The Causes of Color
Bose-Einstein Condensation
Sonoluminescence
Quantum Dots and Quantum Wires
Unified Field Theory (AD)

Presentation Schedule

October 21

Evan Lau - "Ion Engines"

Adam Dick - "Unified Field Theory"

Elissa Ross - "Quasi-Crystals"

Shannon Costigan - "Gene Therapy"

November 4

Andrew Phillips - "The Big Bang"

Hugh Crawford - "Liquid Crystals"

Nathan Lockey - "Buckminister Fullerenes"

Tristram Southey - "Nanotechnology"

November 11

Sally Murdock - "Black Holes and Neutron Stars"

Mark Cunningham - "Triboluminescence"

Matthew Boissineau - "Quantum Effect Electronics"

Ben Doyle - "Bell's Theorem"

November 18

Andrew Clements - "Quantum Computers"

Jon O'Hara - "X-ray Lasers"

Murray Tong - "Biochemistry of Tate and Smell"

Pierre Sinajon - "The Aurora Borealis"

James Dyer - "????????????????????????????????????????"

November 25

Jordan Ellis - "Holography"

Landon Clarkson - "Dark Matter"

Sean Graham - "String Theory"

Amy Ward - "The Structure of Water and Ice"

Last update: 28 October 1999
Comments to: Dan Thomas