As a fair warning to the reader, these primers are a bit more terse than what you’d find in your average textbook. I only introduce the bare minimum required to understand the main content posts, so there are carefully chosen gaps whose exclusion is necessary for time’s sake. If the reader is confused about something, or wants a deeper explanation of a concept we deliberately leave out, feel free to leave a comment asking about it and we will do our best to fill in the gaps.

**Methods of Proof
**Direct Implication

Contrapositive

Contradiction

Induction

Diagonalization

**Abstract Algebra**

Linear Algebra

Inner Product Spaces

Groups (motivations, basic definitions, homomorphisms, quotient groups)

Groups (first isomorphism theorem, presentations, classification theorem, free products)

Rings (basic definitions, zero-divisors, units, examples)

Rings (homomorphisms, ideals, quotients)

Tensor Products

Outer Products

Fields (mostly finite fields)

**Fourier Analysis
**The Fourier Series

The Fourier Transform

Generalized Functions and Tempered Distributions

The Discrete Fourier Transform

**Discrete Math
**Graph Theory (for the math-phobic)

Graph Coloring

Trees and Tree Traversal

**Computing Theory**

Determinism and Finite Automata

Turing Machines

Big-O Notation

Busy Beaver Numbers

P vs. NP (And a Proof Written in Racket)

Other Complexity Classes

Kolmogorov Complexity

Information Distance

Parameterized Complexity of Vertex Cover and Kernelizations

Communication Complexity

A Zero-Knowledge Proof for Graph Isomorphism

**Coding Theory
**A Proofless Introduction to Information Theory

Hamming’s Code

The Codes of Solomon, Reed, and Muller

**Probability and Statistics
**Finite Probability Theory

Conditional Probability

Probabilistic Bounds (Markov, Chebyshev, Chernoff-Hoeffding)

Martingales and the Optional Stopping Theorem

Markov Chain Monte Carlo

**Learning Theory
**Probably Approximately Correct – A Formal Theory of Learning

A problem that’s not properly PAC-learnable

Occam’s Razor and PAC-learning

The Boosting Margin, or Why Boosting Doesn’t Overfit

**Topology**

Metric Spaces

Topological Spaces (motivations, basic definitions, and examples)

Constructing Topological Spaces (subspaces, quotients, and gluing)

The Fundamental Group

Homology (definitions and examples)

**Programming
**A Dash of Python

A Pinch of Python (Random Psychedelic Art)

A Spoonful of Python (and Dynamic Programming)

A Taste of Racket, or How I Learned to Love Functional Programming

A Sample of Standard ML (the TreeSort algorithm, and Monoids)

**Miscellaneous**

Set Theory, Countability

Number Theory

Lagrangians for the Amnesiac

Hi,

I’m impressed. Good introductions to difficult topics. Especially I liked your article about psychodelic pictures or about search engines (Once I developed a search engine myself).

Wish you the Best for the New Year and a lot more of your articles

Thomas Nitsche

LikeLike

Thanks Jeremy!

LikeLike

i love this post! thanks a lot!

LikeLike

Awesome!

2 comments:

What I learned as discrete math in cs classes is what you have here as miscellaneous, and what you have under discrete math I learned under topologies

Second, is it possible to get all the topics in one big pdf? what is your licensing on the content?

LikeLiked by 1 person

Well number theory and set theory are not particularly discrete in nature, at least as they occur in mathematics.

I don’t have all the topics in one big pdf. The licensing on my blog is Creative Commons non-commercial, so you’re welcome to assemble one and distribute it, as long as you give attribution and don’t sell it.

LikeLike

Wow, great post/resource!

LikeLike

would pomax.github.io/bezierinfo (primer on bezier curves) be a userful link here?

LikeLike

This looks like a very great and in-depth tutorial. I am coincidentally just finishing up my own (less detailed) Bezier curve tutorial! I’ll be sure to link to this one in that post.

LikeLike

This is a wonderful blog! You have a fantastic writing style and I especially liked the graph theory post. I remember how much I struggled to explain the Seven Bridges of Konigsberg problem to my sister, and after reading your post about it I feel like exclaiming to the world the wonders of graph theory.

LikeLike

Brilliant! I love it — reminds me of Dijkstra!

LikeLike

Very interesting mathematics and solutions. Well done!

LikeLike

Love it. It reminds me university times! Thank you.

LikeLike

rediculas its good

LikeLike

Some of the left-hand text gets cut off on my 7″ tablet. 😦

Other than that, I really like this blog, the content is absolutely AWESOME.

Just wanted to say that.

LikeLike

These are useful things written very clearly and beautifully. Thank you

LikeLike

I included this website web page to our feed reader, exceptional things. Are not able to get enough!

LikeLike

Hello Jeremy, I’ve always liked your primers. Are you thinking of making any primer on Combinatory Logic?

LikeLike

Dude, you’re the best. This is the best blog I’ve seen

LikeLike

Kalman filters would be keen, from your perspective

LikeLike

Dude, thank you!

LikeLike