How do toothpicks approximate the value of pi? I'll show you by coding a simulation in p5.js!
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#176 β Buffon's Needle
How do toothpicks approximate the value of pi? I'll show you by coding a simulation in p5.js!
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Take a trip back in time and watch me attempt to build a 3D graphics engine in AppleSoft BASIC on a restored Apple II+ computer! Can I render a spinning cube?
Take a trip back in time and let's learn all about GR (graphics) and HGR (high resolution graphics) in AppleSoft BASIC on a restored Apple II+ computer! Can we render a fractal tree?
Take a trip back in time and let's code the Snake Game in AppleSoft BASIC on a restored Apple II+ computer! GOTO and GOSUB! Line numbers!
This project is a collaboration with Grady Hillhouse at the Practical Engineering YouTube channel. This is my attempt to code a simulation of Horizontal Directional Drilling, laparoscopic surgery for the earth!
Straight out of quantum mechanics, Wave Function Collapse is an algorithm for procedural generation of images. In this video (recorded over 3 live streams) I attempt the tiled model and explore a variety of solutions to the algorithm in JavaScript with p5.js.
It's the Monty Hall Problem! In JavaScript! With p5.js! Yes, you really double your chances of winning by switching doors. I hope to convince you of this in this video!
Happy Pi Day! How many delicious digits of Pi can you catch from the sky? In JavaScript!
It's the Mandelbulb! What happens when you take the original fractal (The Mandelbrot Set) and extend it into 3D space. And how do you visualize it in Processing (Java) as a point cloud?
Why do prime numbers show up as diagonals in a spiral? In this video, I create a visualization in JavaScript (p5.js) of the Ulam Spiral (aka Prime Spiral) named for Polish Mathematician Stanislav Ulan.
Let's make ASCII art in p5.js together! In this video, I demonstrate a variety of techniques for translating the pixels of an image into text and finish with rendering video as text ASCII characters in a DOM.
Let's make a slide puzzle in p5.js together! We'll be using images, nested loops, and arrays, and by the end of our journey, we'll have a fully playable game!
In this video I explore the wonders of the copy() function in the creative coding platform Processing, simulating slitscan photography and bending time itself! This video is thanks to Tim RodenbrΓΆkerβs generous donation to The Processing Foundation!
Have you ever wanted to know more about bΓ©zier curves in p5.js? Thanks to a generous donation from Jason Oswald, I do a deep dive exploring the bΓ©zier curve function and the math behind the algorithm?
It's finally time to attempt a Self-Avoiding Walk! In this video, I quickly visualize a simple JavaScript p5.js implementation of a self-avoiding walk. I then tackle the more complex problem of backtracking to find a solution to a space-filling self-avoiding walk.
π₯§ Happy Pi Day 2021! This year I estimate the digits of Ο with random numbers and the probability of two integers being co-prime.
Boing! Time to simulate a spring force! This challenge fits into chapters 2 and 3 of the Nature of Code and demonstrates how to simulate the oscillating motion of a spring using vectors and forces.
Choo choo! In this challenge, I build on chapter 3 (Oscillating Motion) of the Nature of Code series and simulate a simple pendulum in p5.js via angular acceleration.
In this challenge, I demonstrate the entire process of training and deploying a machine learning classification model in JavaScript β data collection, model training, and prediction!
Liven up your video calls with p5.js, ml5.js, Teachable Machine, and OBS Studio!
In this episode of Coding in the Cabana, Gloria Pickle and I investigate the Marching Squares algorithm and apply it to Open Simplex Noise in Processing.
Coding in the Cabana is a series where I attempt challenges from my garden cabana in Brooklyn, NY. In this episode, I explore the beauty of Worley noise.
π₯§ Happy Pi Day 2020! In this challenge, I build a simple web application using p5.js and node.js to search in the first billion digits of Pi.
Coding in the Cabana is a series where I attempt challenges from my garden cabana in Brooklyn, NY. In this episode, I animate the path of the classic "space filling curve" known as the Hilbert Curve.
Happy holidays! #SupportP5! This video shows an attempt to make a snowflake from a "kaleidoscope painting" effect.
In this challenge I take the Tic Tac Toe game from coding challenge #149 and add an AI opponent for a human player by implenenting the Minimax algorithm.
This challenge uses the pre-trained SketchRNN machine learning model (available with the ml5.js library) to create a p5.js sketch that finishes a person's drawing.
It's the second episode of Coding in the Cabana! Here I attempt to visualize the Collatz Conjecture in Processing.
The RamerβDouglasβPeucker algorithm (aka "iterative end-point fit algorithm"), takes a curve composed of line segments and reduces the fidelty to a "lower fidelity" curve with fewer points.
Coding in the Cabana is a series where I attempt challenges from my garden cabana in Brooklyn, NY. In this episode, I code a visualization of the Maurer Rose pattern in JavaScript (p5.js).
In this challenge, I attempt to create a Ukulele tuner in JavaScript using p5.js, ml5.js and the pre-trained machine learning model CREPE: A Convolutional REpresentation for Pitch Estimation. Can you make one with a more elegant and creative interface?
In this challenge I generate rainbows using the StyleGAN Machine Learning model available in Runway ML and send the rainbows to the browser with p5.js! This challenge is based on the live coding talk from the 2019 Eyeo Festival.
This is a beginner-friendly challenge where I attempt to code a basic version of the game Tic-Tac-Toe using JavaScript and the p5.js library.
In this coding challenge, I implement the βGift Wrapping algorithmβ (aka Jarvis march) for calculating a convex hull in JavaScript. This is a foundational topic in computational geometry!
In this challenge, I attempt to make my own version of Googleβs Dinosaur Game (T-Rex run!) with a unique twist β controlling the dinosaur (unicorn, in this case) with a machine learning Speech Commands model!
Building off of the previous coding challenge (2D Ray Casting) I attempt to make my own version the original Wolfenstein 3D Raycasting engine and visualize the "field of view" of the moving particle.
In this video, I implement a basic ray casting engine with line segment "surfaces" and vector "rays." The result simulates a light source casting shadows in a 2D canvas.
Inspired by the recent image of the Powehi m87 black hole from the Event Horizon Telescope, I visualize the behavior or light (photons) following the path of spacetime around the black hole in p5.js.
Let's try implementing a famously faster sorting algorithm: the Quicksort! And visualize the process with p5.js!
Can I build an interactive 3D Rubik's cube in Processing? Yes! Someday I hope to return to this project and add an AI solver!
Let's celebrate PI Day by approximating the digits of Pi using a special location in the legendary Mandelbrot set fractal!
In this coding challenge, I use the Leibniz formula (aka infinite series) to approximate the digits of Pi and graph the convergence.
Happy Pi Day! To celebrate I attempt to compute the digits of Pi using the βcollisionsβ method, thanks to 3Blue1Brown for the idea!
An attempt to implement the basic mechanics of Angry Birds in JavaScript using p5.js and the matter.js physics engine.
Itβs groundhog day on the coding train as I demonstrate another noise loop GIF technique, this time with 4D OpenSimplex Noise in Processing (Java).
In this multi-part coding challenge I show how to use a noise field and polar coordinates to create a perfect GIF loop.
In this tutorial, I demonstrate how to render a sketch into a perfect, looping GIF with Processing (Java).
In this multi-part challenge, I use a parametric equation (from Wolfram Mathworld) to draw a heart curve in Processing (Java).
In this video, I visualize the "mathematical heart" Cardioid using times tables calculations.
In this video, I follow Mike Ashβs guide to Fluid Simulation and port Jos Stamβs "Real-Time Fluid Dynamics for Games" algorithm and code in Processing (Java).
