MATH 302
Modern Geometry
Spring Semester 2007
3:00-3:50pm MWF
Parker Science Building 104
Dr. Kyle Calderhead
111 Parker Science Building
Quick Links:
Instructor
information
Course
Description
Required items
Course goals
Course
assumptions
Grade
determination
Participation
Quizzes
Projects
Homework
Policy
on
cheating and plagiarism
Special Needs
Statement
on
extenuating circumstances
ISBE
standards
Dr.
Kyle Calderhead
111 Parker Science
Building
email:
kcalder@ic.edu
office/voicemail:
245-3279
web:
http://www2.ic.edu/calderhead
Office Hours:
MWF
9-10
Tu 2-3
Th 3-4
Additional hours can be arranged by appointment.
Selected topics from finite geometry, Euclidean geometry, spherical geometry, and hyperbolic geometry. Prerequisites: MATH 233 and MATH 242; or consent of instructor.
Roads
to
Geometry (3rd edition)
by Edward C. Wallace & Stephen
F. West
ISBN
0-13-041396-8
Experiencing
Geometry (3rd edition)
by David W.
Henderson and Daina Taimina
ISBN
0-13-143748-8
Geometer’s
Sketchpad
Many
of the topics covered can be explored using
GSP; in fact, the Postamentier text should include a CD containing
several GSP
illustrations of material covered in the text.
Scientific
Calculator
The need for a
calculator will be minimal; however, aside from basic arithmetic, we
will
occasionally want to use trigonometry.
Grades for the course will be determined using the following scale.
|
Written work |
195 |
|
Board work |
125 |
|
Participation |
30 |
|
Quizzes |
100 |
|
Project |
50 |
|
TOTAL |
500 |
Letter grades will be determined as follows.
|
A |
450-500 |
|
B |
400-449 |
|
C |
350-399 |
|
D |
300-349 |
|
F |
0-299 |
Homework problems will be assigned approximately each week. For each assignment, one day of class will be devoted to student presentation of solutions. Solutions to the remaining homework problems are then to be written out and turned in the following class.
Solutions given at the board should be presented with features typical of good public speaking, including clear speech, good eye-contact, appropriate use of the board, and organized in a way that makes it easy for everyone to follow. The goal is to present the material in a way that the whole class (and not just the instructor) can understand.
Each problem presented on the board will be rated on a 5-point scale.
2 points – Presentation
3 points – Mathematical correctness
Should we get through more than 25 presentations per student, only the best 25 scores will be counted toward the final grade.
Solutions to the problems from an assignment which are not presented on the board are to be written out and turned in at the beginning of the following class on the given due date. These should be neatly written on one side of each page only, free from the jagged edges that result from wire-bound notebooks, and finally stapled (in order to create a more perfect union). Each problem should be clearly labeled.
Additionally, these should be solutions, and not just answers. Many of our problems will be asking for a proof of some mathematical fact, and each should be explained clearly, with no gaps in the reasoning involved. Also, as this class focuses on ideas more than calculations (to a degree you may not be used to), it is important that explanations are given in a form that is not only mathematically correct, but grammatically correct as well.
Each written assignment will be rated on a 15-point scale.
1 point – Presentation
14 points – Mathematical correctness
Should
we have more than 13
written assignments, only the best 13 scores will be counted toward the
final
grade.
All students are expected to maintain the highest standards of academic integrity, in accordance with the Affirmation of Community Responsibility and the Honor Code. Additionally, since the standards of cheating and plagiarism can change depending on the context, please take note of the following specifics.
Any student with special needs of any sort (physical arrangements, academic needs, health-related issues, etc.) should inform the instructor at soon as possible. Every reasonable effort will be made to accommodate those needs, but only if they are made known.
Components of this course may change due to extenuating circumstances (either for the instructor of for some or all of the students). If and when that should be required, those changes will not jeopardize any student in terms of course requirements or time allowed to complete assignments.
Any student majoring (or even just interested) in education should be aware that this course covers the following standards established by the Illinois State Board of Education as important elements of preparation for teaching mathematics.
| Indicator No. | Description |
| Performance Indicators – The competent teacher of mathematics generalizes results of problems and extends them to other problem situations. | |
| 2C | The secondary school mathematics teacher generalizes results of problems and extends them to other problem situations. |
| Knowledge Indicator – The competent teacher of mathematics understands various ways of reasoning with respect to concepts, procedures, and conjectures. | |
| 3A | The secondary school mathematics teacher understands various ways of reasoning with respect to concepts, procedures, and conjectures. |
| Performance Indicators – The competent teacher of mathematics generalizes reasoning skills within the study of mathematics and applies or extends them to other contexts. | |
| 3C | The secondary school mathematics teacher generalizes reasoning skills within the study of mathematics and applies or extends them to other contexts. |
| Knowledge Indicators – The competent teacher of mathematics becomes familiar with the capabilities and benefits of current and emerging technologies. | |
| 5A | The secondary school mathematics teacher becomes familiar with the capabilities and benefits of current and emerging technologies. |
| Knowledge Indicator – The competent teacher of mathematics knows Euclidean and non-Euclidean geometry, coordinate geometry, graph theory, and transformational geometry and relationships among them. | |
| 9B | The secondary school mathematics teacher knows Euclidean and non-Euclidean geometry, coordinate geometry, graph theory, and transformational geometry and relationships among them. |
| Knowledge Indicators – The competent teacher of mathematics understands the process of conjecturing, justifying, and proof. | |
| 9C2 | The secondary school mathematics teacher understands the appropriate uses of different types of proof. |
| 9C3 | The secondary school mathematics teacher extends the understanding of proof to finite and non-Euclidean settings. |
| Performance Indicators – The competent teacher of mathematics uses and applies the properties of geometry. | |
|
9D3 |
The secondary school mathematics teacher applies geometric concepts to solve practical applications. |
| 9D6 | The secondary school mathematics teacher uses and applies the properties of geometry. |
| Performance Indicators – The competent teacher of mathematics identifies, analyzes, categorizes, and applies multi-dimensional figures using spatial visualizations skills and modeling. | |
| 9F4 | The secondary school mathematics teacher gives examples of non-Euclidean geometry. |
| 9F8 | The secondary school mathematics teacher explains relationships that exist between transformations (including matrix representations) as a geometric equivalence of the function concept. |
| Performance Indicators – The competent teacher of mathematics constructs convincing arguments and proofs. | |
| 9G1 | The secondary school mathematics teacher makes and identifies mathematical conjectures and provides justification to support or refute conjectures using manipulatives; constructions; algebraic, coordinate, and transformational methods; interactive technology; and paragraph and two-column proofs. |
| 9G2 | The secondary school mathematics teacher constructs inductive, deductive, and indirect arguments and explains the differences among them. |
| 9G3 | The secondary school mathematics teacher uses a formal axiomatic system to construct and analyze proofs. |
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Maintained by Kyle Calderhead:
kcalder@ic.edu