Course Information
Calculus I, Math 170 - Section 3
Fall, 2008 - M,T,W,F 1:00-1:50pm, PS 307
| Professor:
Dr. Cathy Kriloff |
Office/Phone:
PS 316C / 282-3093 |
Math
Dept. Phone: 282-3350 |
| E-mail: krilcath@isu.edu | Web
Page: www.isu.edu/~krilcath |
Math
Dept. Fax: 282-2636 |
Office
Hours: M,W 2:00-3:00pm, F 11:00am-1:00pm, and
by
appointment or e-mail, or feel free to just stop by.
You should
use office
hours (for all your classes) as the first source of assistance whenever
you have questions or difficulties.
Knowing your professor is great motivation and a good way to get
advice on courses and other education and career related decisions.
A second source of help is free tutoring available from the Math Center in the Center for Teaching and Learning, Museum 433 in Pocatello from 9am to 7pm M-Th and 9am to 2pm Friday, CHE Room 220 in Idaho Falls from 9am to 4pm M-Th. More information at www.isu.edu/ctl/math.
Questions: Suppose a device measures exactly how fast a car is going at every instant in time. How might you describe the relationship between time and the car's speed using a graph, table, formula, or words? If the car must first travel half of the distance to its destination, then half of the remaining distance and so on, can it ever reach that destination? How can you tell how quickly the car is accelerating at a given instant? How can you find when it was going the fastest? What would negative acceleration mean? Can you approximate how far the car traveled over a given time interval just from the information on its speed at every instant? How could you improve that approximation and could the distance be computed exactly? Ideas like these are related to the infinite and the infinitesimal, and to discrete and continuous phenomena, and have played a fundamental role throughout the history of mathematics. Paradoxes of the infinite date back to the Greek mathematician Zeno around 450 B.C. and were not fully resolved until the development of calculus by Newton and Liebniz in the 1600s and Cantor's theory of infinite sets in the mid 1800's.
Goals: In this course you will learn how mathematicians view discrete and continuous functions as well as how they deal with the infinitely large or small. You will deepen your ability to work with functions from several perspectives. You will learn to find instantaneous rates of change (derivatives) and accumulated change (integrals), both of which involve taking limits of functions, and explore the relationship between them as given by the Fundamental Theorem of Calculus. This will involve solving problems related to the concepts and to applications of them in physics, engineering, and economics. Emphasis will be placed on material, concepts, and skills needed in Math 175, for which this course is a prerequisite
This course will help you:
Prerequisite: Math 147 or Math 143&144 with a grade of C- or better or demonstrated equivalent proficiency in Precalculus is required. Math 170 assumes and uses most of the ideas from algebra and trigonometry; in particular, the material in Chapter 1 is assumed known - review on your own as needed.
Format and Evaluation
Class time will include a mixture of lectures,
problem solving, and
cooperative
In-Class
group work. Come to each class prepared with questions by
having
read
and thought about the material ahead of
time and attempted some problems in the section marked on the calendar
for that class.
You are responsible for material covered in all class sessions
regardless
of whether you have reason to be absent.
Homework will be assigned and
some will be collected.
Show all work
and include complete, clear explanations. Organize and
present
your
work neatly. Papers should be stapled with no ragged edges.
Quizzes will be given for some sections over
definitions
and problems similar to homework. Calculators may not be
allowed
for some quizzes. Since your lowest quiz and lowest two
homework
grades will be dropped, I
will
accept no late homework and
give no make-up quizzes.
Understanding and being able to
do
mathematics requires consistently working on problems
yourself.
But in addition to doing so you are encouraged to study
together and
discuss problems with others since this can
be
a very effective and rewarding way to learn mathematics. You must write up
solutions
yourself and give written credit for ideas obtained from any
human,
print, or web sources. Violations of ISU's plagiarism policy
will not be
tolerated and will be addressed
according to ISU policy (see the Student
Code of Conduct in the Student Handbook, http://www.isu.edu/studenta/handbook.pdf
and the
section of the Faculty Staff Handbook referenced there,
http://www.isu.edu/fs-handbook/part6/6_9/6_9a.html).
In order to earn a grade of C- or better in Math 170, you must pass a
Mastery Quiz.
This will consist of 8 straightforward differentiation exercises and
will be given in class on October 10. In
order
to pass you must work at least 7 of the 8 problems
perfectly.
You may repeat the quiz as often as necessary (a different version will
be given each
time).
Repeat quizzes will be given by arrangement with me at a time outside
of
class mutually convenient to as many students who have not passed the
test
as possible. If you have not passed the Mastery Test by
December 12,
the
highest grade you can earn in the course is a D+, regardless of your
other scores.
Exams will be
closed
book with graphing calculators allowed. Each will include
some
questions
that involve applying familiar concepts in new situations. Exams can
only be made up in
cases of documented emergencies or exceptional circumstances and you
must notify me as soon as possible and no later than the next class
meeting.
The final date is
firm, so please mark it down now.
Grades of A, B, C, D will be guaranteed by earning overall percentages of 90%, 80%, 70%, 60%. Cutoffs for +/- will be these values +/- 3 percentage points. The grades and comments on individual assignments and exams are intended to provide you with feedback and to help you assess your current state of learning. The final course grade will reflect to what extent you have accomplished the first three goals above on what you should be able to do at the end of the course.
| Homework | 8% | |
| Quizzes | 8% |
|
| In-class work | 8% | |
| Mastery quiz | 3% | Friday, November 10, Sections 3.1-3.6 |
| Exam 1 | 17% | Friday, September 19, Sections 2.1-2.8 |
| Exam 2 | 17% | Friday, October 31, Sections 3.7-4.5 |
| Exam 3 | 17% | Friday, December 5, Sections 4.7-5.5 |
| Final | 22% | Friday December 15, 12:30-2:30pm, Cumulative |
Philosophy: All of you have the potential to succeed in this course and hard work helps dramatically. I continue to learn by expanding my knowledge of mathematics and its connections with other subjects, by doing original mathematical research, by understanding more about learning and teaching, and by working to teach in ever more effective ways. I expect that you will also deepen your knowledge of mathematics and its applications, will learn to formulate questions that lead you to construct your own understanding of mathematics, and will know more about the process of learning and solving problems after you complete this course. The most important skill you can gain in college is the ability to learn independently.
How to Succeed: You will need to work hard and learn a great deal both during class and outside of class. Expect to spend 2-3 hours outside of class for every hour spent in class. College differs from high school in that the pace is faster (perhaps two to three times as fast) and the understanding expected is deeper (beyond working template problems). Some habits that will help you learn actively (both in and outside of class) and succeed in this course are:
I look forward to a successful and rewarding semester of learning together!