bencbartlett

# Electromagnetic simulation at varying timescales - simulation code to make this animation:
# https://twitter.com/bencbartlett/status/1369396941730312193
#
# Animation idea was inspired by u/cenit997's (Twitter: @__cenit) Reddit post:
# https://www.reddit.com/r/Python/comments/hxmhai/a_simulation_of_how_an_incoherent_light_source/


#---
using LinearAlgebra, Base.Threads, BenchmarkTools, LoopVectorization, CSV, DataFrames, Printf, Plots

bencbartlett

SetDirectory[NotebookDirectory[]];

\[Sigma] = 10;
\[Rho] = 28;
\[Beta] = 8/3;
Tmax = 10;

eqn = {
   x'[t] == \[Sigma] (-x[t] + y[t]),
   y'[t] == \[Rho]* x[t] - y[t] - x[t]*z[t],

bencbartlett

<< MaTeX`
SetOptions[MaTeX, "Preamble" -> {"\\usepackage{color,txfonts}"}];
SetDirectory[NotebookDirectory[]];

c = 1;
\[Alpha] = .7;
\[Beta] = .05;
k0 = 7;
\[Omega]0 = 2 c;
vg = c;

bencbartlett

<< MaTeX`
SetOptions[MaTeX, "Preamble" -> {"\\usepackage{color,txfonts}"}];
SetDirectory[NotebookDirectory[]];

Clear[drawLadder];
drawLadder[n_, l_, m_, imsize_: 500] := Module[{maxrungs = 5, mag = 4},
   Graphics[{
     White, Opacity[1], Thickness[.02], Dashing[None],
     Table[Line[{{0, k}, {1, k}}], {k, maxrungs}], (*draw n lines*)
  

bencbartlett

SetDirectory[NotebookDirectory[]];

\[Theta]0 = -.1 \[Pi]; \[Phi]0 = .35*\[Pi];
\[Psi]0 = {Cos[\[Theta]0] Cos[\[Phi]0], Sin[\[Theta]0] Cos[\[Phi]0], 
   Sin[\[Phi]0]};

Clear[BlochSphereVector];
BlochSphereVector[\[Psi]_, imSize_ : 1000, color_ : Gray, 
   opacity_ : 1, \[Phi]view_ : \[Pi]/4, viewdist_ : 100] := Module[{
    tubeball, pointline,

bencbartlett

class Foo {
    constructor() {
        this.bar = "baz";
    }
}
console.log('' + Foo);
// > "class Foo {\n    constructor()...z\";\n    }\n\n}"

bencbartlett

import {$} from '../caching/GlobalCache';

export class Hatchery extends HiveCluster {

    // constructor gets run only on ticks with build() phase
    constructor(colony: Colony, headSpawn: StructureSpawn) {
        super(colony, headSpawn, 'hatchery');
        this.memory = Mem.wrap(this.colony.memory, 'hatchery', HatcheryMemoryDefaults, true);
        // Register physical structure components
        this.spawns = colony.spawns;

bencbartlett

export class $ { // $ = cash = cache... get it? :D

    static set<T extends HasRef, K extends keyof T>(thing: T, key: K,
                                                    callback: () => (T[K] & (undefined | HasID | HasID[])),
                                                    timeout = CACHE_TIMEOUT): void {
        const cacheKey = thing.ref + '$' + key;
        if (!_cache.things[cacheKey] || Game.time > _cache.expiration[cacheKey]) {
            // Recache if new entry or entry is expired
            _cache.things[cacheKey] = callback();
            _cache.expiration[cacheKey] = getCacheExpiration(timeout, Math.ceil(timeout / 10));

bencbartlett

import random
normalizeLengths = True # Set the length of the two input sources to be equal.

# Generate transition matrix
A = "ABCDEFGHIJKLMNOPQRSTUVWXYZ "
charnums = len(A)

# Read through text and index transition matrix
trainingText = " ".join(open("KingJamesBible.txt",'r').read().splitlines())
trainingText2 = " ".join(open("GriffithsQuantumMechanics.txt",'r').read().splitlines())

bencbartlett

# Importations
import os, shutil
import numpy as np
import matplotlib
import matplotlib.pyplot as plt
import matplotlib.mlab as mlab
import pylab
import warnings
from mpl_toolkits.mplot3d import Axes3D, art3d
from matplotlib.offsetbox import TextArea, VPacker, AnnotationBbox