Math 156 - Applied Honors Calculus II
Robert Krasny
University of Michigan

Applied Honors Calculus is a sequence of courses currently being developed in the Mathematics Department. The sequence consists of Math 156/255/256 and is designed for students majoring in science and engineering.

Math 156 is taught in the Fall semester. The students are entering freshmen with AP credit for 1st semester calculus. The prerequisite is a score of 4 or 5 on the AB exam. Math 156 provides students with the math background they need for courses in physics, engineering, etc., as well as for 3rd semester calculus and more advanced math courses. The syllabus covers traditional 2nd semester calculus topics: integration, differential equations, and infinite series. The text is ``Calculus" by James Stewart, although as course coordinator I distribute customized lecture notes to the other instructors.

Math 156 is a balance between application and theory. The course develops the students' skill in computation and analysis. Theorems are carefully stated and several are proven. The proofs are presented in easily understood steps (based on my experience from prior years). Many examples are given to illustrate the theory. At the beginning of the semester, we review the definition of the integral as a limit of Riemann sums and then quickly move on to topics which most students havn't seen before. This includes improper integrals and applications such as work, center of mass, arclength, surface area, hydrostatic pressure and force, and probability density functions. We avoid the traditional chapter on methods of integration for-their-own-sake, and instead discuss the methods as they arise in specific applications. We avoid the more exotic cases (e.g. partial fractions in full generality) in favor of emphasizing the cases that come up most often in applications. Infinite series and Taylor approximation are discussed in depth. The final segment on ordinary differential equations treats exponential growth/decay, Newton's law of heating/cooling, and the logistic equation.

enrollment history
1994 - 102 (3 sections)
1995 - 093 (4 sections)
1996 - 175 (6 sections)
1997 - 144 (5 sections)
1998 - 190 (7 sections)
1999 - 151 (6 sections)
2000 - 105 (6 sections)
2001 - 098 (4 sections)

The students are roughly 1/2 Engineering and 1/2 LSA (Literature, Sciences and the Arts) Honors. The class meets 4 times per week and each class is 50 minutes long. There are uniform weekly homework assignments and uniform exams (two 90 minute midterms and one 2 hour final exam). The homework assignments include problems from the text and customized problems. I try to ensure a close connection between lectures, homework, and exams. The instructors write solutions to the homework problems which made are available to students in the Undergraduate Library.

Additional items:
1. The students receive instruction in MAPLE, a computer software package.
2. There is exposure to special topics such as asymptotic expansions, Bessel function, complex numbers, error function, fractal sets, Gamma function, Laplace transform, polar coordinates.
3. I use an interactive/Socratic/discovery lecture format, i.e. asking the students many questions and encouraging them to ask me questions. My aim is for the students to stay involved and participate in the lecture. I encourage the other instructors to follow a similar format.
4. There is a small amount of group work in class, mostly to break the ice at the beginning of the semester.
5. The students are encouraged to work together on homework, but each student is required to write up and submit their own individual set of homework solutions.