
The introduction to the course. I tell you about what the course will entail, as well as a little bit about myself.
In this lecture, we discuss using pictures and diagrams to set up problems, and do an example involving laminar flow in a pipe.
In this lecture we discuss identifying variables in a problem, and use this to derive the period of a simple pendulum.
In this lecture we discuss setting aside a clear goal to work towards, and we apply this to deriving the "BAC-CAB" rule.
In this lecture, we discuss the powerful tool of dimensional analysis, and use that tool to find the correct formula for the power emitted by a black body.
In this lecture we discuss breaking problems down into their component parts, and use this technique to devolve a complicated problem down into simpler steps.
In this lecture we discuss using the end result you hope to derive as a tool to get the derivation itself, and we apply this to expanding a commutator.
In this lecture, we talk about ways to move work off of paper, and onto a whiteboard, blackboard, or computer word processor such as LaTeX.
In this lecture we discuss the importance of knowing why you're solving a problem, and how this can be useful to knowing which approach to use. We then apply this to setting up the derivation of the perihelion shift of Mercury.
In this lecture we discuss collaboration, and its value for solving problems in physics.
In this lecture we discuss the technique of deriving the solution to a problem using solely the fundamentals of a theory, and not any higher-level concepts. This is applied to the derivation of the electric field of an infinite line charge from Coulomb's law.
In this lecture, we summarize what we've learned, and conclude the course.
"The only way to learn mathematics is to do mathematics" - Paul Halmos
While this course focuses on physics, the core concept is the same - in order to learn how to solve physics problems, you must do physics problems. However, like with most things in life, the hardest part is to start.
This course isn't designed to be a comprehensive course on physics. It won't turn you into a genius problem whiz overnight.
What it will do, however, is give you the tools to be able to approach any physics problem without fear - whether that's trying to find the net force on a block in your first year, or calculating the various components of the Ricci tensor for the FRW metric in General Relativity.
Examples are given at various levels of physics, so both newcomers and old hands will be faced with engaging examples.
Using the approaches outlined in this lecture series, you will, with enough practice, be able to come to an answer quickly, effectively, and accurately.
Also, not being stuck is a heck of a lot more fun.