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Mathematics is something that needs to be practiced to learn and understand it. In
many cases this means that students are given hordes of practice problems and told
to complete them all for a grade; the hope being that you will gain understanding by
repetition. Unfortunately in my experience, students often memorize the process, but
don’t stop to consider why they are doing whatever they are doing (something often
exasperated by not getting a satisfactory answer to the ”why am I doing
this” question). Although there is definitely value in repetitious practice,
the value is usually gained by hoping that the repetition does one of two
things;
(a)
More practice means it is less likely to make simple computational
mistakes. Your teachers/professors are usually not much better at
computation than you are, but they have vastly more experience and
practice, meaning they make far fewer mistakes.
(b)
The “why does this work” will suddenly “click” into place. The hope is
that by repeatedly practicing, the human instinct of pattern recognition
will suddenly pick up on the underlying structure that is making whatever
technique you are practicing suddenly clear as to why it works. Although
this happens (and is often necessary, especially in higher level math) it
can only happen if the student is looking for it. So the “turn my brain off
and get this done” approach is usually rather antithetical to the intent of
the homework.
This means that it is important, not only to practice the skills we discuss, but to
constantly ask yourself the following questions;
Why does this work?
What steps are necessary (and what steps are not necessary), for a given
problem?
What else could I use this technique on?
What does this technique really require?
My teaching philosophy is to put the impetus (responsibility) of learning on the
student. I will answer any questions, and provide limitless practice in the form of
reviews (see the syllabus for more information). Your TAs (and other TAs, and I)
have office hours you can come and ask questions and get more information/help to
understand techniques and content. But in the end it comes down to this: You get
out of this course what you put into it. If you don’t do any optional work,
you will be lucky to pass the class, and you will definitely not pass calculus
1.
The primary purpose of lectures is which of the following?
To do many examples
and demonstrate mechanics and individual steps of new techniques.To introduce
new techniques and give broader context for how and why the technique should be
used.To assess your problem solving skills, originality, and creativity in overcoming
challenges.To assess your mechanical skills and computational skills.To assess
your ability to synthesize (new and old) techniques to solve a given problem.
The primary purpose of recitation is which of the following?
To do many examples
and demonstrate mechanics and individual steps of new techniques.To introduce
new techniques and give broader context for how and why the technique should be
used.To assess your problem solving skills, originality, and creativity in overcoming
challenges.To assess your mechanical skills and computational skills.To assess
your ability to synthesize (new and old) techniques to solve a given problem.