README.md

Nature of code

Nature of code examples and exercises implemented in Lisp using trivial-gamekit.

Installation and usage

1. You'll first have to add cl-bodge to quicklisp, as per the install instructions of trivial gamekit: (ql-dist:install-dist "http://bodge.borodust.org/dist/org.borodust.bodge.txt")

2. Make sure quicklisp is able to detect this package (e.g. put it in ~/quicklisp/local-projects).

3. (ql:quickload :nature-of-code)

4. Run a sketch using for example (nature-of-code.introduction.example-1:start-sketch). You can find these snippets in the README of each example.

Some notes:

• trivial-gamekit only supports 2D animations, so examples and exercises involving 3D are omitted.
• The directory structure is set up to be easily browsable. This makes the ASDF definition kinda ugly.

Table of contents

• 0. Introduction
  • Example I.1 - Traditional random walk
  • Example I.2 - Random number distribution
  • Example I.3 - Walker that tends to move to the right
  • Example I.4 - Gaussian distribution
  • Example I.5 - Perlin noise walker
  • Example I.6 - 2D Perlin noise
  • Exercise I.3 - Dynamic walker
  • Exercise I.4 - Gaussian paint
  • Exercise I.5 - Gaussian random walk
  • Exercise I.6 - Custom distribution walk
  • Exercise I.7 - Perlin noise step size walker
  • Exercise I.8 - 2D Perlin noise colour
  • Exercise I.9 - Moving 2D Perlin noise
• 01. Vectors
  • Example 1.1 - Bouncing ball with no vectors
  • Example 1.2 - Bouncing ball with vectors
  • Example 1.3 - Vector subtraction
  • Example 1.4 - Multiplying a vector
  • Example 1.5 - Vector magnitude
  • Example 1.6 - Normalizing a vector
  • Example 1.7 - Motion 101 (velocity)
  • Example 1.8 - Motion 101 (velocity and constant acceleration)
  • Example 1.9 - Motion 101 (velocity and random acceleration)
  • Example 1.10 - Acceleration towards the mouse
  • Example 1.11 - Array of movers accelerating towards the mouse
  • Exercise 1.4 - Vector limit
  • Exercise 1.5 - Car acceleration simulation
  • Exercise 1.6 - Perlin acceleration
  • Exercise 1.8 - Variable acceleration towards the mouse
• 02. Forces
  • Example 2.1 - Forces
  • Example 2.2 - Forces acting on many objects
  • Example 2.3 - Gravity scaled by mass
  • Example 2.4 - Including friction
  • Example 2.5 - Fluid resistance
  • Example 2.6 - Attraction
  • Example 2.7 - Attraction with many movers
  • Exercise 2.1 - Helium-filled balloon
  • Exercise 2.3 - Invisible force
  • Exercise 2.4 - Pockets of friction
  • Exercise 2.5 - Fluid resistance with different heights
  • Exercise 2.6 - Falling boxes
  • Exercise 2.7 - Multiple attractors
  • Exercise 2.9 - Custom force
• 03. Oscillation
  • Example 3.1 - Angular motion
  • Example 3.2 - Forces with (arbitrary) angular motion
  • Exercise 3.1 - Rotation
• 08. Fractals
  • Example 8.1 - Recursive circles I
  • Example 8.2 - Recursion twice
  • Example 8.3 - Recursion four times
  • Example 8.4 - Cantor set
  • Example 8.5 - Koch curve
  • Example 8.6 - Recursive tree
  • Example 8.7 - Dynamic recursive tree
  • Exercise 8.1 - Custom recursion
  • Exercise 8.2 - Koch snowflake
  • Exercise 8.7 - Recursive thinning tree
  • Exercise 8.8 - List tree
  • Exercise 8.9 - Growing tree

Related

Nature of code in Elm