14. Appendix: Math for research - sample lesson plans
Teaching the “math for research” material can clearly be sliced up in many different ways. I have taught it several times, and I always followed a similar logistical format: class length of 1 hour and 15 minutes, and new material once/week, with catch-up sessions twice/week.
But the order in which I teach the various pieces, and the choice of which pieces to teach, depends largely on the makeup of the group of students I work with.
Similarly, the amount of extra background material and the choice of “visions into advanced material” anecdotes depend on the group of students I have.
In this appendix I collect some of the specific lesson plan sequences I have chosen. At this time the most complete listing I have collected is from Spring 2026.
14.1. Winter/Spring 2026
We had a total of ?? lessons, from 2025-02-02 to 2025-??-??.
Opening lesson 1:
Introduce myself, discuss how researchers see mathematics
Dive into visualizing \(\sin(x) \approx 9^{th}\) degree Taylor polynomial
Approximating functions with series. From that chapter we do “Sequences and sums”, “Do sums converge?”, “Approximating pi with series”, up to and including A digression on the factorial.
Lesson 2:
Chapter Approximating functions with series. From here we work up to Experiments with series for sin and cos
Lesson 3:
Review of derivatives.
Calculate coefficients of Taylor series for polynomials. Chapters Calculating Taylor coefficients, and Experiments with series for sin and cos
Calculate coefficients of Taylor series for sin() and cos().
Calculate coefficients of Taylor series for exponentials.
Lesson 4:
Review again how we calculate the series for sin() and cos() (just because repetition is good).
Taylor series for \(e^x\)
Reflections on \(e^x = \cos(x) + i\sin(x)\)
Taylor series for \(\log(1 - x)\)
Taylor series for \(\log(1 + x)\)
From Chapter More taylor series
Lesson 6:
Microscopic introduction to physics - Newton’s first two laws
Microscopic introduction to differential equations
The simple harmonic oscillator with a mass on a sprint
From Chapter Taylor series – applications and intuition
Lesson 7:
Review the microscopic introductions to physics and differential equations
Physics application - the linearized pendulum
This concludes the segment on Taylor Series - discuss what we have just learned.
From Chapter Taylor series – applications and intuition
Lesson 8:
Start Fourier Series
Make this a very visual introduction with \({\rm square}(x)\) and the terms \(\frac{4}{\pi}(\sin(x) + \frac{1}{3}\sin(3x) + \dots)\)
Discuss some reflections on these plots, prompted by the reflections in the book chapter.
From Chapter Fourier series: the “bones” of a function