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MDDN 342 2021 Assignment 3: Data Mappings
Raw
.block
license: mit
Raw
README.md

2021 MDDN342 Assignment 3: Face Mappings

Debugging Jamie's faces.

Raw
_purview.json
{
"commits": [
{
"sha": "0c6c3cfbf221d991635b1c1946ee777533194f47",
"name": "Face Logic"
},
{
"sha": "8973b99fa773cba2f2575f30c11cf5cff14cd51d",
"name": "Train Neighbors and Quiz"
},
{
"sha": "7adbeed1dabb00bc073f3a59144ca9d139875333",
"name": "first version of training"
},
{
"sha": "0e61ad32bbd42601bd25620421c35100ab813119",
"name": "added image to sample_images.json"
},
{
"sha": "21777e8da0a797bac8f042b3b509266012b28dc1",
"name": "using face positions"
},
{
"sha": "a683736618d1513f1c2477cfe0eade4a202dac8d",
"name": "mickey mouse example"
}
]
}
Raw
anim.html
<head>
<script src="https://cdnjs.cloudflare.com/ajax/libs/p5.js/1.4.0/p5.js"></script>
<script src="https://cdnjs.cloudflare.com/ajax/libs/seedrandom/2.4.3/seedrandom.min.js"></script>
<script src="https://d3js.org/d3-random.v1.min.js"></script>
<script language="javascript" type="text/javascript" src="z_purview_helper.js"></script>
<script language="javascript" type="text/javascript" src="z_focused_random.js"></script>
<script language="javascript" type="text/javascript" src="p5.func.js"></script>
<script type="text/javascript" src="LZWEncoder.js"></script>
<script type="text/javascript" src="NeuQuant.js"></script>
<script type="text/javascript" src="GIFEncoder.js"></script>
<script type="text/javascript" src="b64.js"></script>
<script type="text/javascript" src="z_recorder.js"></script>
<script language="javascript" type="text/javascript" src="simplex-noise.js"></script>
<script language="javascript" type="text/javascript" src="canvas_size.js"></script>
<script language="javascript" type="text/javascript" src="draw_one_frame.js"></script>
<script language="javascript" type="text/javascript" src="anim_runner.js"></script>
<style> body {padding: 0; margin: 0;} </style>
</head>
<body style="background-color:white">
<div class="outer">
<div class="inner">
<div id="canvasContainer"></div>
</div>
</div>
</table>
<br>
<pre>
keys:
spacebar => toggle debugZoom
d => toggle debug view
r => start recording
1,2,3 => change framerate
! = screen grab files
</pre>
<a href="sketch.html">sketch</a><br>
<a href="draw_one_frame.js">source code</a><br>
<a href="preview.jpg">preview image</a><br>
<a href="index.html">(anim [this one])</a><br>
</body>
Raw
anim_runner.js
// these can be customized
const debugViewText = "#ff0000";
const debugZoomBackground = "#555588"
const debugZoomScale = 0.5;
// this can be modified after we discuss in lecture
const buffersPerFrame = 1;
// probably best not to modify anything below this line
const frameMax = 96;
let recording = false;
let gifRecorder = null;
let debugZoom = false;
let debugView = false;
let stickFrame = 0;
// *note: canvasWidth and canvasHeight will be defined before this script runs)
function setup () {
let main_canvas = createCanvas(canvasWidth,canvasHeight);
let r = random(100);
main_canvas.parent('canvasContainer');
frameRate(24 * buffersPerFrame);
}
function mousePressed(){
}
function draw () {
let animation_max_frames = frameMax * buffersPerFrame;
let sticky_max_frames = animation_max_frames + stickFrame;
let cur_frame = frameCount % sticky_max_frames;
if (cur_frame >= animation_max_frames) {
cur_frame = 0;
}
let cur_frac = map(cur_frame, 0, animation_max_frames, 0, 1);
background(debugZoomBackground);
push();
if(debugZoom) {
translate(0.5 * width, 0.5 * height);
scale(debugZoomScale);
translate(0.5 * -width, 0.5 * -height);
}
draw_one_frame(cur_frac);
pop();
if(debugView) {
textSize(28);
fill(debugViewText);
text("" + (cur_frame/buffersPerFrame).toFixed(2) + " / " +
(animation_max_frames/buffersPerFrame).toFixed(2) + " = " +
cur_frac.toFixed(2), 50, 50);
}
if(recording) {
textSize(24);
gifRecorder.addBuffer();
}
}
function keyTyped() {
if (key == '!') {
saveBlocksImages();
}
if (key == ' ') {
debugZoom = !debugZoom;
}
if (key == 'd') {
debugView = !debugView;
}
if (key == '1') {
frameRate(1);
stickFrame = 0;
}
if (key == '2') {
frameRate(5);
stickFrame = 5;
}
if (key == '3') {
frameRate(30);
stickFrame = 0;
}
if (key == 'r') {
if (recording==false){
recording = true;
gifRecorder = new p5recorder (frameMax, 'wallpaper.gif', buffersPerFrame);
}
}
}
Raw
b64.js
function encode64(input) {
var output = "", i = 0, l = input.length,
key = "ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz0123456789+/=",
chr1, chr2, chr3, enc1, enc2, enc3, enc4;
while (i < l) {
chr1 = input.charCodeAt(i++);
chr2 = input.charCodeAt(i++);
chr3 = input.charCodeAt(i++);
enc1 = chr1 >> 2;
enc2 = ((chr1 & 3) << 4) | (chr2 >> 4);
enc3 = ((chr2 & 15) << 2) | (chr3 >> 6);
enc4 = chr3 & 63;
if (isNaN(chr2)) enc3 = enc4 = 64;
else if (isNaN(chr3)) enc4 = 64;
output = output + key.charAt(enc1) + key.charAt(enc2) + key.charAt(enc3) + key.charAt(enc4);
}
return output;
}
Raw
canvas_size.js
var canvasWidth = 960;
var canvasHeight = 540;
Raw
draw_one_frame.js
const ease = new p5.Ease();
function draw_one_frame(cur_frac) {
var addXSingle = width / 960;
var addYSingle = height / 520;
fill(255);
rect(0, 0, width, height);
//drawing the background gradient
c1 = color(240, 254, 254); //very light blue
c2 = color(154, 242, 245); //darker blue
for (let yBG = 0; yBG < height + 1; yBG++) {
n = map(yBG, 0, height, 0, 1);
let newc = lerpColor(c1, c2, n);
stroke(newc);
line(0, yBG, width, yBG);
}
let cur_x = map(cur_frac, 0, 1, 0, width) //- half_width;
//all of my colours to use when I call a leaf function!
var longLeafFill1 = color(167, 212, 138);
var longLeafFill2 = color(134, 181, 103);
var longLeafStroke1 = color(108, 148, 99);
var longLeafFill3 = color(92, 145, 84); //saturated dark green
var longLeafStroke3 = color(92, 145, 84);
var longLeafFill4 = color(49, 94, 89); //darkest green
var longLeafStroke4 = color(49, 94, 89);
var longLeafFill5 = color(83, 144, 111);
var fatLeafFill = color(200, 231, 128);
var darkBlueGreen = color(71, 125, 99);
var teal = color(87, 141, 122);
var slate_green = color(91, 151, 110);
var dull_greren = color(109, 171, 94);
var muted_green = color(102, 159, 90);
var pale_olive_green = color(160, 213, 148);
var pale_olive = color(173, 202, 151);
var flower_fill = color(230, 251, 150);
var medium_spring_bud = color(191, 225, 129);
var oxley = color(105, 159, 132);
var limed_spruce = color(57, 69, 83);
var skinnyLongLeafCol = color(103, 142, 149);
var secondFlowerLeaf = color(115, 166, 137);
let randRoat = getNoiseValue(0, 0, cur_frac, "randRoat", -.3, .3, .1); //random jitter on the long leaf using noise
push(); //fat leaf right at the back on the right
translate(width / 1.23, height / 1);
drawFatLeaf(70, 0.6, -1, darkBlueGreen);
pop();
push(); //fat leaf right at the back on the left
translate(width * .16, height * 1.07);
drawFatLeaf(-43, .8, -1, darkBlueGreen);
pop();
//leaves on the right behind the flowers
push();
translate(width / 1.4, height * 1.04);
drawLongLeaf(0, 0, 1.2, 20, longLeafFill4, longLeafStroke4);
pop();
push();
translate(width / 1.28, height * 1.1);
drawLongLeaf(0, 0, 1.05, 23, longLeafFill3, longLeafStroke3);
pop();
push();
translate(width / 1.45, height * 1.02);
drawLongLeaf(0, 0, 1.05, 0, longLeafFill5, longLeafFill5);
pop();
//setting up the flowers to move back and forth
let going_right = true;
let amount_across = 0;
if (cur_frac < 0.5) {
going_right = true;
amount_across = cur_frac * 2;
} else {
going_right = false;
amount_across = (cur_frac - 0.5) * 2;
}
const ease_amount_across = ease.doubleQuadraticSigmoid(amount_across);
const ease_amount_across_fatLeaf = ease.circularFillet(amount_across);
const ease_amount_acrosslongLeaf = ease.normalizedLogitSigmoid(amount_across);
if (going_right) {
flowerSway = map(ease_amount_across, 0, 0.5, addXSingle * 0, addXSingle * 2)
flower2Sway = map(ease_amount_across, 0, 0.5, addXSingle * 0, addXSingle * .9)
fLSway = map(ease_amount_across_fatLeaf, 0, 0.5, addXSingle * 0, addXSingle * 0.3)
longLeafSway = map(ease_amount_acrosslongLeaf, 0, 0.5, addXSingle * 0, addXSingle * 0.2)
} else {
flowerSway = map(ease_amount_across, 0.5, 1, addXSingle * 2, addXSingle * 0)
flower2Sway = map(ease_amount_across, 0.5, 1, addXSingle * .9, addXSingle * 0)
fLSway = map(ease_amount_across_fatLeaf, 0.5, 1, addXSingle * 0.3, addXSingle * 0)
longLeafSway = map(ease_amount_acrosslongLeaf, 0.5, 1, addXSingle * 0.2, addXSingle * 0)
}
//drawing long leaf with the jitter
push();
translate(width / 1.6, height / 1.02);
rotate(0);
drawLongLeaf(0, 0, 1.2, (randRoat / 3) + longLeafSway, longLeafFill1, longLeafStroke1);
pop();
//setting up the flowers
var flower1StartX = width / 1.2 + flowerSway; //flower sway makes the flower bud AND the stalk move
var flower1StartY = height / 4.9;
var flower2StartX = width *.92 + flower2Sway;
var flower2StartY = height *.33974;
strokeWeight(width / 960 * 2);
stroke(93, 107, 54);
noFill();
beginShape(); //flower 1 stalk
curveVertex(flower1StartX, flower1StartY);
curveVertex(flower1StartX, flower1StartY);
curveVertex(width / 1.2, height *.6);
curveVertex(width / 1.3, height*.89);
curveVertex(width / 1.3, height*.89);
endShape();
//draw the actual flower (biggest one)
push();
translate(flower1StartX, flower1StartY);
rotate(-25);
scale(1.4);
drawFlower(0, 0, flower_fill); //bigger top flower
pop();
//drawing leaves on the biggest flowerr
push();
translate(width / 1.196 + (flowerSway / 2), height / 2.3); //top down
drawSkinnyLongLeaf(-40, .9, skinnyLongLeafCol);
pop();
push();
translate(width / 1.194 + (flowerSway / 2.2), height / 2.15);
drawSkinnyLongLeaf(35, 1, skinnyLongLeafCol);
pop();
push();
translate(width / 1.196 + (flowerSway / 2.6), height / 2.05);
drawSkinnyLongLeaf(-60, 1.1, skinnyLongLeafCol);
pop();
push();
translate(width / 1.194 + (flowerSway / 2.8), height / 1.9);
drawSkinnyLongLeaf(55, 1.08, skinnyLongLeafCol);
pop();
push();
translate(width / 1.196 + (flowerSway / 2.9), height / 1.7);
drawSkinnyLongLeaf(-57, 1.25, skinnyLongLeafCol);
pop();
push();
translate(width / 1.194 + (flowerSway / 2.8), height / 1.65);
drawSkinnyLongLeaf(59, 1.25, skinnyLongLeafCol);
pop();
push();
translate(width / 1.215, height / 1.55);
drawSkinnyLongLeaf(-50, 1.3, skinnyLongLeafCol);
pop();
push();
translate(width / 1.223, height / 1.4);
drawSkinnyLongLeaf(-69, 1.5, skinnyLongLeafCol);
pop();
push();
translate(width / 1.27, height / 1.21);
drawSkinnyLongLeaf(-62, 1.5, skinnyLongLeafCol);
pop();
push(); ////////leaves in the middle of the screen///////
translate(width * .49, height * 1.19);
drawShortWavyLeaf(longLeafFill3, longLeafFill3, 13, 3);
pop();
push();
translate(width * .604, height * 1.047);
drawShortWavyLeaf(teal, oxley, -17, 2.7);
pop();
push();
translate(width * .2, height * 1.1);
drawShortWavyLeaf(longLeafFill2, longLeafFill2, -20, 3);
pop();
//second flower stalk
strokeWeight(width / 960 * 2);
stroke(93, 107, 54);
noFill();
beginShape(); //flower 2 stalk
curveVertex(flower2StartX, flower2StartY);
curveVertex(flower2StartX, flower2StartY);
curveVertex(width *.896, height *.52);
curveVertex(width / 1.3, height *.89);
curveVertex(width / 1.3, height *.89);
endShape();
//second flower
push();
translate(flower2StartX, flower2StartY);
rotate(25);
scale(1);
drawFlower(0, 0, flower_fill); //lower smaller flower
pop();
//ssecond flower leaves
push();
translate(width*.908 + (flower2Sway / 4), height / 2.18);
drawSkinnyLongLeaf(-28, .84, secondFlowerLeaf);
pop();
push();
translate(width *.906 + (flower2Sway / 2.8), height / 2.1);
drawSkinnyLongLeaf(48, .87, secondFlowerLeaf);
pop();
push();
translate(width / 1.13, height / 1.84);
drawSkinnyLongLeaf(-21, 1, secondFlowerLeaf);
pop();
push();
translate(width / 1.15, height / 1.69);
drawSkinnyLongLeaf(70, 1.07, secondFlowerLeaf);
pop();
push();
translate(width / 1.17, height / 1.55);
drawSkinnyLongLeaf(-33, 1.2, secondFlowerLeaf);
pop();
push();
translate(width / 1.2, height / 1.4);
drawSkinnyLongLeaf(63, 1.3, secondFlowerLeaf);
pop();
//draw the two fat leaves in front of the flowers on the RIGHT
push();
translate(width / 1.29, height * 1.03);
drawFatLeaf(45 + fLSway, 0.9, 1, fatLeafFill);
pop();
push();
translate(width / 1.43, height * 1.1);
drawFatLeaf(-15 + (fLSway * 4), 0.9, -1, fatLeafFill);
pop();
const ease_amount_across_fatLeaf2 = ease.circularArcThroughAPoint(amount_across);
const ease_amount_up_down = ease.doubleQuadraticSigmoid(amount_across);
if (going_right) {
flowerSway3 = map(ease_amount_across, 0, 0.5, addXSingle * .5, addXSingle * 0);
fatLeaf2Sway = map(ease_amount_across_fatLeaf2, 0, 0.5, addXSingle * 0.6, addXSingle * 0);
branchupdown = map(ease_amount_up_down, 0, 0.5, addXSingle * 0.6, addXSingle * 0)
} else {
flowerSway3 = map(ease_amount_across, 0, 0.5, addXSingle * 0, addXSingle * .5);
fatLeaf2Sway = map(ease_amount_across_fatLeaf2, 0, 0.5, addXSingle * 0, addXSingle * 0.6);
branchupdown = map(ease_amount_up_down, 0.5, 1, addXSingle * 0, addXSingle * 0.6);
}
/////////behind shrt wavy leaves
push();
translate(width * .43, height * 1.04);
drawLongLeaf(0, 0, 1.18, -23, limed_spruce, limed_spruce);
pop();
push();
translate(width * .42, height * 1.03);
drawLongLeaf(0, 0, 1.1, 1, longLeafFill4, longLeafStroke4);
pop();
push();
translate(width * .30, height * 1.03);
drawLongLeaf(0, 0, 1.2, -30 + longLeafSway / 2, longLeafFill4, longLeafStroke4);
pop();
push();
translate(width * .37, height);
drawLongLeaf(0, 0, 1, -30, longLeafFill2, longLeafStroke1);
pop();
//fly on the left
let flyScale = 0.55;
let flyX;
//setting it up off-beat, so it grows starting at 0.3 cur frac and loops back to then (instead of 0-1)
if (cur_frac >= 0.3) {
flyScale = map(cur_frac, 0.3, 0.5, 0, 0.55);
}
if (cur_frac >= 0.5) {
flyScale = map(cur_frac, 0.5, 1, 0.55, 0.55);
}
if (cur_frac <= 0.3) {
flyScale = map(cur_frac, 0, 0.3, 0.55, 0);
}
if (cur_frac <= 0.3) { //this is for the flies movement
flyX = map(cur_frac, 0, 0.3, addXSingle * 200, addXSingle * 250)
} else if (cur_frac >= 0.3) {
flyX = map(cur_frac, 0.3, 1, addXSingle * 100, addXSingle * 200)
}
push(); //draw the actual fly
translate(width / 1.9 + flyX, height / 1.5); //centre of the screen
drawFly(0, 0, cur_frac, flyScale,1);
pop();
//////////short wavy leaves stalk////////////
stroke(52, 93, 88);
strokeWeight(addXSingle * 3);
noFill();
var endOfBranchX = width * .12;
var endOfBranchY = height / 3.9;
var strokeColWavy1 = color(42, 86, 79);
//main branch (going left)
beginShape();
curveVertex(width / 3, height / 1.7);
curveVertex(width / 3, height / 1.7);
curveVertex(width / 3.8, height / 4.4);
curveVertex(endOfBranchX, endOfBranchY + branchupdown);
curveVertex(endOfBranchX, endOfBranchY + branchupdown);
endShape();
//second branch going right
beginShape();
curveVertex(width * .31, height * .419);
curveVertex(width * .31, height * .419);
curveVertex(width * .34, height * .16);
curveVertex(width * .41, height * .1);
curveVertex(width * .41, height * .1);
endShape();
////first brranch leaves
push();
translate(endOfBranchX, endOfBranchY + branchupdown);
drawShortWavyLeaf(teal, strokeColWavy1, -80 - (branchupdown / 1.5), 1);
pop();
push();
translate(endOfBranchX + addXSingle * 6, endOfBranchY + addYSingle * -1 + branchupdown);
drawShortWavyLeaf(slate_green, slate_green, -120 + (branchupdown / 1.3), .8);
pop();
push();
translate(endOfBranchX + addXSingle * 20, endOfBranchY + addYSingle * -3 + (branchupdown / 1.2));
drawShortWavyLeaf(teal, strokeColWavy1, -170, .8);
pop();
push(); //////behind the other leaves
translate(endOfBranchX + addXSingle * 167, endOfBranchY + addYSingle * 40);
drawShortWavyLeaf(slate_green, slate_green, -80, 0.93);
pop();
push(); //////behind the other leaves on other branch
translate(endOfBranchX + addXSingle * 157, endOfBranchY + addYSingle * 10);
drawShortWavyLeaf(slate_green, slate_green, 19, 0.8);
pop();
push();
translate(endOfBranchX + addXSingle * 100, endOfBranchY + addYSingle * -25 + (branchupdown / 1.9));
drawShortWavyLeaf(teal, strokeColWavy1, -20 - (branchupdown / 2), .75);
pop();
push();
translate(endOfBranchX + addXSingle * 48, endOfBranchY + addYSingle * -20 + (branchupdown / 1.5));
drawShortWavyLeaf(teal, strokeColWavy1, -50 + (branchupdown / 1.8), .82);
pop();
push();
translate(endOfBranchX + addXSingle * 68, endOfBranchY + addYSingle * -20 + (branchupdown / 1.6));
drawShortWavyLeaf(teal, strokeColWavy1, -200 + (branchupdown / 2), .93);
pop();
push();
translate(endOfBranchX + addXSingle * 118, endOfBranchY + addYSingle * -25);
drawShortWavyLeaf(teal, strokeColWavy1, -180, .8);
pop();
push();
translate(endOfBranchX + addXSingle * 180, endOfBranchY + addYSingle * 90);
drawShortWavyLeaf(teal, strokeColWavy1, -100, .94);
pop();
push();
translate(endOfBranchX + addXSingle * 190, endOfBranchY + addYSingle * 120);
drawShortWavyLeaf(teal, strokeColWavy1, 40, 1.06);
pop();
push();
translate(endOfBranchX + addXSingle * 196, endOfBranchY + addYSingle * 150);
drawShortWavyLeaf(teal, strokeColWavy1, -87, 1.1);
pop();
///////////second branch (going right)
push();
translate(endOfBranchX + addXSingle * 187, endOfBranchY + addYSingle * 80);
drawShortWavyLeaf(teal, strokeColWavy1, 60, .9);
pop();
push();
translate(endOfBranchX + addXSingle * 191, endOfBranchY + addYSingle * 40);
drawShortWavyLeaf(teal, strokeColWavy1, 50, 1);
pop();
push();
translate(endOfBranchX + addXSingle * 201, endOfBranchY + addYSingle * -20);
drawShortWavyLeaf(teal, strokeColWavy1, 70, .8);
pop();
push();
translate(endOfBranchX + addXSingle * 191, endOfBranchY + addYSingle * 20);
drawShortWavyLeaf(teal, strokeColWavy1, -35, .86);
pop();
push();
translate(endOfBranchX + addXSingle * 207, endOfBranchY + addYSingle * -45);
drawShortWavyLeaf(teal, strokeColWavy1, -45, .8);
pop();
push();
translate(endOfBranchX + addXSingle * 230, endOfBranchY + addYSingle * -71);
drawShortWavyLeaf(teal, strokeColWavy1, -25, .70);
pop();
push();
translate(endOfBranchX + addXSingle * 260, endOfBranchY + addYSingle * -81);
drawShortWavyLeaf(teal, strokeColWavy1, 5, .55);
pop();
push();
translate(endOfBranchX + addXSingle * 280, endOfBranchY + addYSingle * -84);
drawShortWavyLeaf(teal, strokeColWavy1, 28, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 280, endOfBranchY + addYSingle * -84);
drawShortWavyLeaf(teal, strokeColWavy1, 80, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 271, endOfBranchY + addYSingle * -80);
drawShortWavyLeaf(teal, strokeColWavy1, -250, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 271, endOfBranchY + addYSingle * -80);
drawShortWavyLeaf(teal, strokeColWavy1, -250, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 238, endOfBranchY + addYSingle * -73);
drawShortWavyLeaf(teal, strokeColWavy1, -250, .59);
pop();
//fly 1 (LEFT faster fly)///
//this fly is moving 0-1
flyScale = 0.6;
if (cur_frac <= 0.3) {
flyScale = map(cur_frac, 0, 0.3, 0, 0.6);
} else if (cur_frac >= 0.7) {
flyScale = map(cur_frac, 0.7, 1, 0.6, 0);
}
flyX = map(cur_frac, 0, 1, addXSingle * 300, addXSingle * 0)
push();
translate(width / 5 + flyX, height / 3.4);
drawFly(0, 0, cur_frac, flyScale,-1);
pop();
//////in front of branches on the left
push();
translate(width * .45, height * 1.1);
drawLongLeaf(0, 0, 1, -24, dull_greren, muted_green);
pop();
//short leaves in front on the LEFT //////////////////////////
push();
translate(width * .41, height * 1.1);
drawFatLeaf(-20 + (fatLeaf2Sway / -10), 1, -1, pale_olive);
pop();
push();
translate(width * .43, height * 1.1);
drawFatLeaf(10 + (fatLeaf2Sway / 1.2), 0.9, 1, fatLeafFill);
pop();
push();
translate(width * .37, height * 1.1);
drawFatLeaf(-56 + (fatLeaf2Sway / 1.8), 0.9, -1, fatLeafFill);
pop();
////////bottom left flowers
let backFloStartX = width * .19 + (flowerSway3 / 2.6);
let backFloStartY = height * .75;
//stalk 4 back flower
strokeWeight(addXSingle * 1.5);
stroke(longLeafFill3);
noFill();
beginShape();
curveVertex(backFloStartX - addXSingle * 16, backFloStartY);
curveVertex(backFloStartX - addXSingle * 16, backFloStartY);
curveVertex(width * .15, height * .88);
curveVertex(width * .16, height);
curveVertex(width * .16, height);
endShape();
push();
translate(backFloStartX, backFloStartY);
rotate(30);
scale(1.3);
drawFlower(0, 0, medium_spring_bud);
pop();
let bigFloStartX = width * .1 + flower2Sway;
let bigFloStartY = height * .8;
beginShape();
curveVertex(bigFloStartX, bigFloStartY);
curveVertex(bigFloStartX, bigFloStartY);
curveVertex(width * .135, height * .91);
curveVertex(width * .15, height);
curveVertex(width * .15, height);
endShape();
push();
translate(bigFloStartX, height * .8);
rotate(-40);
scale(1.3);
drawFlower(0, 0, flower_fill);
pop();
var smolFloX = width * .2 + flowerSway / 4;
var smolFloY = height * .85;
beginShape();
curveVertex(smolFloX, smolFloY);
curveVertex(smolFloX, smolFloY);
curveVertex(width * .17, height * .95);
curveVertex(width * .172, height);
curveVertex(width * .172, height);
endShape();
push();
translate(smolFloX, smolFloY);
rotate(10);
scale(1);
drawFlower(0, 0, flower_fill);
pop();
}
function drawShortWavyLeaf(fillCol, strokeColWavy, shortWavyRot, shortWavyScale) {
//drawn on the upper left
var addXSingle = width / 960;
var addYSingle = height / 540;
var shortWavyLeafX = 0;
var shortWavyLeafY = 0;
//
fill(fillCol);
push();
scale(shortWavyScale);
rotate(shortWavyRot);
noStroke();
beginShape();
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX + addXSingle * -9, shortWavyLeafY + addYSingle * -10);
curveVertex(shortWavyLeafX + addXSingle * -11, shortWavyLeafY + addYSingle * -18);
curveVertex(shortWavyLeafX + addXSingle * -8, shortWavyLeafY + addYSingle * -28);
curveVertex(shortWavyLeafX + addXSingle * -10, shortWavyLeafY + addYSingle * -40);
curveVertex(shortWavyLeafX + addXSingle * -12, shortWavyLeafY + addYSingle * -47);
curveVertex(shortWavyLeafX + addXSingle * -13, shortWavyLeafY + addYSingle * -55);
curveVertex(shortWavyLeafX + addXSingle * -11.5, shortWavyLeafY + addYSingle * -60);
curveVertex(shortWavyLeafX + addXSingle * -8, shortWavyLeafY + addYSingle * -65);
curveVertex(shortWavyLeafX + addXSingle * -9.5, shortWavyLeafY + addYSingle * -73);
curveVertex(shortWavyLeafX + addXSingle * -10, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * -8, shortWavyLeafY + addYSingle * -83);
curveVertex(shortWavyLeafX + addXSingle * -3, shortWavyLeafY + addYSingle * -88);
curveVertex(shortWavyLeafX, shortWavyLeafY + addYSingle * -95);
curveVertex(shortWavyLeafX + addXSingle * 2, shortWavyLeafY + addYSingle * -100);
curveVertex(shortWavyLeafX + addXSingle * 5, shortWavyLeafY + addYSingle * -92);
curveVertex(shortWavyLeafX + addXSingle * 10, shortWavyLeafY + addYSingle * -86);
curveVertex(shortWavyLeafX + addXSingle * 16, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * 17.5, shortWavyLeafY + addYSingle * -73);
curveVertex(shortWavyLeafX + addXSingle * 16.5, shortWavyLeafY + addYSingle * -67);
curveVertex(shortWavyLeafX + addXSingle * 15, shortWavyLeafY + addYSingle * -59);
curveVertex(shortWavyLeafX + addXSingle * 18, shortWavyLeafY + addYSingle * -48);
curveVertex(shortWavyLeafX + addXSingle * 16, shortWavyLeafY + addYSingle * -40);
curveVertex(shortWavyLeafX + addXSingle * 13, shortWavyLeafY + addYSingle * -33);
curveVertex(shortWavyLeafX + addXSingle * 15, shortWavyLeafY + addYSingle * -20);
curveVertex(shortWavyLeafX + addXSingle * 13, shortWavyLeafY + addYSingle * -13);
curveVertex(shortWavyLeafX + addXSingle * 5.5, shortWavyLeafY + addYSingle * -6);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
endShape();
fill(strokeColWavy);
stroke(strokeColWavy);
strokeWeight(addXSingle);
beginShape();
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX + addXSingle * -2, shortWavyLeafY + addYSingle * -17);
curveVertex(shortWavyLeafX + addXSingle * 0, shortWavyLeafY + addYSingle * -28);
curveVertex(shortWavyLeafX + addXSingle * -1.3, shortWavyLeafY + addYSingle * -39);
curveVertex(shortWavyLeafX + addXSingle * .4, shortWavyLeafY + addYSingle * -50);
curveVertex(shortWavyLeafX + addXSingle * -.7, shortWavyLeafY + addYSingle * -60);
curveVertex(shortWavyLeafX + addXSingle * 1.7, shortWavyLeafY + addYSingle * -68);
curveVertex(shortWavyLeafX + addXSingle * 1, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * 1.6, shortWavyLeafY + addYSingle * -87);
curveVertex(shortWavyLeafX + addXSingle * 3, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * 4.5, shortWavyLeafY + addYSingle * -68);
curveVertex(shortWavyLeafX + addXSingle * 3.5, shortWavyLeafY + addYSingle * -60);
curveVertex(shortWavyLeafX + addXSingle * 5, shortWavyLeafY + addYSingle * -50);
curveVertex(shortWavyLeafX + addXSingle * 2.3, shortWavyLeafY + addYSingle * -39);
curveVertex(shortWavyLeafX + addXSingle * 3.5, shortWavyLeafY + addYSingle * -28);
curveVertex(shortWavyLeafX + addXSingle * 1, shortWavyLeafY + addYSingle * -17);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
endShape();
pop();
}
function drawFatLeaf(fatLeafRot, fatLeafYScal, negative, fatLeafFill) {
//drawn at the front of the screen normally, bright
push();
var addXSingle = width / 960 * negative;
var addYSingle = height / 540;
var fatLeafX = 0;
var fatLeafY = 0;
fill(fatLeafFill);
noStroke();
rotate(fatLeafRot);
scale(fatLeafYScal)
beginShape();
curveVertex(fatLeafY, fatLeafY);
curveVertex(fatLeafY, fatLeafY);
curveVertex(fatLeafX + addXSingle * -70, fatLeafY + addYSingle * -50);
curveVertex(fatLeafX + addXSingle * -80, fatLeafY + addYSingle * -90);
curveVertex(fatLeafX + addXSingle * -70, fatLeafY + addYSingle * -120);
curveVertex(fatLeafX + addXSingle * -60, fatLeafY + addYSingle * -140);
curveVertex(fatLeafX + addXSingle * -50, fatLeafY + addYSingle * -170);
curveVertex(fatLeafX + addXSingle * -57, fatLeafY + addYSingle * -200);
curveVertex(fatLeafX + addXSingle * -45, fatLeafY + addYSingle * -230);
curveVertex(fatLeafX + addXSingle * -4, fatLeafY + addYSingle * -260);
curveVertex(fatLeafX, fatLeafY + addYSingle * -262);
curveVertex(fatLeafX + addXSingle * 4, fatLeafY + addYSingle * -260);
curveVertex(fatLeafX + addXSingle * 45, fatLeafY + addYSingle * -230);
curveVertex(fatLeafX + addXSingle * 54, fatLeafY + addYSingle * -210);
curveVertex(fatLeafX + addXSingle * 45, fatLeafY + addYSingle * -190);
curveVertex(fatLeafX + addXSingle * 50, fatLeafY + addYSingle * -170);
curveVertex(fatLeafX + addXSingle * 65, fatLeafY + addYSingle * -150);
curveVertex(fatLeafX + addXSingle * 70, fatLeafY + addYSingle * -135);
curveVertex(fatLeafX + addXSingle * 60, fatLeafY + addYSingle * -105);
curveVertex(fatLeafX + addXSingle * 70, fatLeafY + addYSingle * -85);
curveVertex(fatLeafX + addXSingle * 78, fatLeafY + addYSingle * -65);
curveVertex(fatLeafX + addXSingle * 65, fatLeafY + addYSingle * -40);
curveVertex(fatLeafX, fatLeafY);
curveVertex(fatLeafX, fatLeafY);
endShape();
stroke(118, 154, 87);
strokeWeight(height / 520 * 3);
noFill();
beginShape();
curveVertex(fatLeafX, fatLeafY);
curveVertex(fatLeafX, fatLeafY);
curveVertex(fatLeafX + addXSingle * -1, fatLeafY + addYSingle * -35);
curveVertex(fatLeafX + addXSingle * 4, fatLeafY + addYSingle * -75);
curveVertex(fatLeafX + addXSingle * -5, fatLeafY + addYSingle * -115);
curveVertex(fatLeafX + addXSingle * 3, fatLeafY + addYSingle * -150);
curveVertex(fatLeafX + addXSingle * -4, fatLeafY + addYSingle * -175);
curveVertex(fatLeafX + addXSingle * 3, fatLeafY + addYSingle * -195);
curveVertex(fatLeafX + addXSingle * -2, fatLeafY + addYSingle * -210);
curveVertex(fatLeafX + addXSingle * 1, fatLeafY + addYSingle * -225);
//curveVertex(fatLeafX+addXSingle*1,fatLeafY+addYSingle*-225);
curveVertex(fatLeafX + addXSingle * -1, fatLeafY + addYSingle * -240);
curveVertex(fatLeafX + addXSingle, fatLeafY + addYSingle * -250);
curveVertex(fatLeafX + addXSingle, fatLeafY + addYSingle * -250);
endShape();
pop();
}
function drawSkinnyLongLeaf(skinnyLongLeafRot, skinnyLongLeafScale, skinnyLongLeafCol) {
//leaves on the rose branches
var addXSingle = width / 960;
var addYSingle = height / 540;
var skinnyLongLeafX = 0;
var skinnyLongLeafY = 0;
push();
rotate(skinnyLongLeafRot);
scale(skinnyLongLeafScale);
fill(skinnyLongLeafCol);
noStroke();
beginShape();
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
curveVertex(skinnyLongLeafX - addXSingle * 7, skinnyLongLeafY - addYSingle * 51);
curveVertex(skinnyLongLeafX - addXSingle * 1, skinnyLongLeafY - addYSingle * 100);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 105);
curveVertex(skinnyLongLeafX + addXSingle * 1, skinnyLongLeafY - addYSingle * 100);
curveVertex(skinnyLongLeafX + addXSingle * 8, skinnyLongLeafY - addYSingle * 49);
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
endShape();
stroke(45, 78, 109);
noFill();
strokeWeight(addXSingle * .7);
beginShape();
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 21);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 21);
curveVertex(skinnyLongLeafX + addXSingle * 1, skinnyLongLeafY - addYSingle * 49);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 80);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 80);
endShape();
pop();
}
function drawFly(flyX, flyY, cur_frac, flyScale,negative) {
let wingMove; //set up animated wing variable
var addXSingle = width / 960 * negative;
var addYSingle = height / 540;
var flyBodyCol = color(74, 77, 76);
var flyWingCol = color(166, 237, 234, 180);
//setting it up so the flies wings can flap more tha once a second
var wingFlapNum = 360 * 5 //how many times the wing flaps per second , multiples of 360
var flapAmmount = round(sin(map(cur_frac, 0, 1, 1, wingFlapNum)));
var flapAmmountSmooth = sin(map(cur_frac, 0, 1, 1, wingFlapNum));
if (flapAmmount == 0) {
wingMove = map(flapAmmountSmooth, 0, -1, 0, 10);
} else if (flapAmmount == -1) {
wingMove = map(flapAmmountSmooth, -1, 0, 10, 0);
}
noStroke();
fill(flyBodyCol);
scale(flyScale);
ellipse(flyX + addXSingle * 15, flyY, addXSingle * 17, addYSingle * 17); //head
ellipse(flyX, flyY, addXSingle * 30, addYSingle * 22); //body
rect(flyX + addXSingle * 21, flyY + addYSingle * 1, addXSingle * 8, -addYSingle * 4); //snout
ellipse(flyX + addXSingle * 30, flyY - addYSingle * 1, addXSingle * 4, addYSingle * 7) //end of snout
//wings!
fill(flyWingCol);
push();
rotate(35*negative + wingMove);
ellipse(flyX - addXSingle * 6, flyY - addYSingle * 1, addXSingle * 20, addYSingle * 10);
rotate(40*negative + wingMove);
ellipse(flyX - addXSingle * 11, flyY - addYSingle * 3, addXSingle * 30, addYSingle * 15);
pop();
}
function drawFlower(flowerBaseX, flowerBaseY, flowerFill) {
noStroke();
var addXSingle = width / 960; //1
var addYSingle = height / 540;
fill(flowerFill);
arc(flowerBaseX, flowerBaseY, addXSingle * 80, addYSingle * 70, 0, 180);
stroke(144, 179, 118);
strokeWeight(addXSingle);
beginShape();
curveVertex(flowerBaseX - addXSingle * 35, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 35, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 28, flowerBaseY - addYSingle * 18);
curveVertex(flowerBaseX - addXSingle * 24, flowerBaseY - addYSingle * 20);
curveVertex(flowerBaseX - addXSingle * 21, flowerBaseY - addYSingle * 19);
curveVertex(flowerBaseX - addXSingle * 17, flowerBaseY - addYSingle * 23);
curveVertex(flowerBaseX - addXSingle * 12, flowerBaseY - addYSingle * 25);
curveVertex(flowerBaseX - addXSingle * 6, flowerBaseY - addYSingle * 22);
curveVertex(flowerBaseX - addXSingle * 1, flowerBaseY - addYSingle * 27);
curveVertex(flowerBaseX + addXSingle * 2, flowerBaseY - addYSingle * 28);
curveVertex(flowerBaseX + addXSingle * 5, flowerBaseY - addYSingle * 27);
curveVertex(flowerBaseX + addXSingle * 10, flowerBaseY - addYSingle * 21);
curveVertex(flowerBaseX + addXSingle * 17, flowerBaseY - addYSingle * 23);
curveVertex(flowerBaseX + addXSingle * 20, flowerBaseY - addYSingle * 20);
curveVertex(flowerBaseX + addXSingle * 26, flowerBaseY - addYSingle * 21);
curveVertex(flowerBaseX + addXSingle * 30, flowerBaseY - addYSingle * 18);
curveVertex(flowerBaseX + addXSingle * 34, flowerBaseY);
curveVertex(flowerBaseX + addXSingle * 34, flowerBaseY);
endShape();
beginShape();
curveVertex(flowerBaseX - addXSingle * 4, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 4, flowerBaseY);
curveVertex(flowerBaseX + addXSingle * 3, flowerBaseY - addYSingle * 12);
curveVertex(flowerBaseX + addXSingle * 9, flowerBaseY - addYSingle * 14);
curveVertex(flowerBaseX + addXSingle * 15, flowerBaseY - addYSingle * 10);
curveVertex(flowerBaseX + addXSingle * 20, flowerBaseY - addYSingle * 14);
curveVertex(flowerBaseX + addXSingle * 24, flowerBaseY - addYSingle * 15);
curveVertex(flowerBaseX + addXSingle * 29, flowerBaseY - addYSingle * 11);
curveVertex(flowerBaseX + addXSingle * 34, flowerBaseY - addYSingle * 15);
curveVertex(flowerBaseX + addXSingle * 38, flowerBaseY - addYSingle * 11);
curveVertex(flowerBaseX + addXSingle * 40, flowerBaseY);
curveVertex(flowerBaseX + addXSingle * 40, flowerBaseY);
endShape();
beginShape();
curveVertex(flowerBaseX - addXSingle * 40, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 40, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 38, flowerBaseY - addYSingle * 10);
curveVertex(flowerBaseX - addXSingle * 32, flowerBaseY - addYSingle * 14);
curveVertex(flowerBaseX - addXSingle * 27, flowerBaseY - addYSingle * 10);
curveVertex(flowerBaseX - addXSingle * 20, flowerBaseY - addYSingle * 16);
curveVertex(flowerBaseX - addXSingle * 14, flowerBaseY - addYSingle * 12);
curveVertex(flowerBaseX - addXSingle * 10, flowerBaseY - addYSingle * 15);
curveVertex(flowerBaseX - addXSingle * 4, flowerBaseY - addYSingle * 11);
curveVertex(flowerBaseX - addXSingle * 2, flowerBaseY - addYSingle * 6);
curveVertex(flowerBaseX + addXSingle * 1, flowerBaseY - addYSingle * 7.5)
curveVertex(flowerBaseX + addXSingle * 6, flowerBaseY - addYSingle * 8);
curveVertex(flowerBaseX + addXSingle * 9, flowerBaseY - addYSingle * 6)
curveVertex(flowerBaseX + addXSingle * 11, flowerBaseY - addYSingle * 1);
curveVertex(flowerBaseX + addXSingle * 17, flowerBaseY - addYSingle * 2);
curveVertex(flowerBaseX + addXSingle * 22, flowerBaseY + addYSingle * 3);
curveVertex(flowerBaseX + addXSingle * 28, flowerBaseY + addYSingle * 3);
curveVertex(flowerBaseX + addXSingle * 36, flowerBaseY + addYSingle * 11);
curveVertex(flowerBaseX + addXSingle * 36, flowerBaseY + addYSingle * 11);
endShape();
}
function drawLongLeaf(longLeafBaseX, longLeafBaseY, longLeafScale, longLLeafRotation, longLeafFill, longLeafStrokeCol) {
//kelp looking leaf
noStroke();
angleMode(DEGREES);
push();
rotate(longLLeafRotation);
var longLeafAddXSingle = width / 960; //1
var longLeafAddYSingle = height / 540; // 1
scale(longLeafScale);
fill(longLeafFill);
beginShape();
curveVertex(longLeafBaseX - (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 50), longLeafBaseY - longLeafAddYSingle * 45);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 36), longLeafBaseY - longLeafAddYSingle * 80);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 41), longLeafBaseY - longLeafAddYSingle * 125);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 27), longLeafBaseY - longLeafAddYSingle * 156);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 31), longLeafBaseY - longLeafAddYSingle * 200);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 18), longLeafBaseY - longLeafAddYSingle * 235);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 22), longLeafBaseY - longLeafAddYSingle * 270);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 13), longLeafBaseY - longLeafAddYSingle * 295);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 11), longLeafBaseY - longLeafAddYSingle * 325);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 2), longLeafBaseY - longLeafAddYSingle * 340);
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 355);
vertex(longLeafBaseX + (longLeafAddXSingle * 14), longLeafBaseY - longLeafAddYSingle * 379);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 26), longLeafBaseY - longLeafAddYSingle * 365);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 24), longLeafBaseY - longLeafAddYSingle * 345);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 28), longLeafBaseY - longLeafAddYSingle * 330);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 25), longLeafBaseY - longLeafAddYSingle * 310);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 35), longLeafBaseY - longLeafAddYSingle * 285);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 30), longLeafBaseY - longLeafAddYSingle * 255);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 228);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 36), longLeafBaseY - longLeafAddYSingle * 200);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 45), longLeafBaseY - longLeafAddYSingle * 165);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 132);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 49), longLeafBaseY - longLeafAddYSingle * 95);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 41), longLeafBaseY - longLeafAddYSingle * 57);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 50), longLeafBaseY - longLeafAddYSingle * 25);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY + longLeafAddYSingle * 12);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY + longLeafAddYSingle * 12);
endShape();
stroke(longLeafStrokeCol);
noFill();
strokeWeight(longLeafAddXSingle * 4.5);
beginShape();
curveVertex(longLeafBaseX, longLeafBaseY + longLeafAddYSingle * 5);
curveVertex(longLeafBaseX, longLeafBaseY + longLeafAddYSingle * 5);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 25);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 54);
curveVertex(longLeafBaseX + longLeafAddXSingle * 6, longLeafBaseY - longLeafAddYSingle * 85);
curveVertex(longLeafBaseX - longLeafAddXSingle * 2, longLeafBaseY - longLeafAddYSingle * 118);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 152);
curveVertex(longLeafBaseX - longLeafAddXSingle * 4, longLeafBaseY - longLeafAddYSingle * 185);
curveVertex(longLeafBaseX + longLeafAddXSingle * 7, longLeafBaseY - longLeafAddYSingle * 211);
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 238);
curveVertex(longLeafBaseX + longLeafAddXSingle * 11, longLeafBaseY - longLeafAddYSingle * 265);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 289);
curveVertex(longLeafBaseX + longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 313);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 335);
curveVertex(longLeafBaseX + longLeafAddXSingle * 12, longLeafBaseY - longLeafAddYSingle * 351);
curveVertex(longLeafBaseX + longLeafAddXSingle * 12, longLeafBaseY - longLeafAddYSingle * 351);
endShape();
noFill();
strokeWeight(longLeafAddXSingle * 3);
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 2, longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX + longLeafAddXSingle * 2, longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX + longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 15);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 20);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 20);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 20);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 20);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 33);
curveVertex(longLeafBaseX - longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 40);
curveVertex(longLeafBaseX - longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 40);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 78);
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 78);
curveVertex(longLeafBaseX + longLeafAddXSingle * 13, longLeafBaseY - longLeafAddYSingle * 85);
curveVertex(longLeafBaseX + longLeafAddXSingle * 33, longLeafBaseY - longLeafAddYSingle * 89);
curveVertex(longLeafBaseX + longLeafAddXSingle * 33, longLeafBaseY - longLeafAddYSingle * 89);
endShape();
beginShape();
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 105);
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 105);
curveVertex(longLeafBaseX - longLeafAddXSingle * 13, longLeafBaseY - longLeafAddYSingle * 120);
curveVertex(longLeafBaseX - longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 122);
curveVertex(longLeafBaseX - longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 122);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 149);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 149);
curveVertex(longLeafBaseX + longLeafAddXSingle * 14, longLeafBaseY - longLeafAddYSingle * 155);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 158);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 158);
endShape();
beginShape();
curveVertex(longLeafBaseX - longLeafAddXSingle * 4, longLeafBaseY - longLeafAddYSingle * 185);
curveVertex(longLeafBaseX - longLeafAddXSingle * 4, longLeafBaseY - longLeafAddYSingle * 185);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 192);
curveVertex(longLeafBaseX - longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 195);
curveVertex(longLeafBaseX - longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 195);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 7, longLeafBaseY - longLeafAddYSingle * 210);
curveVertex(longLeafBaseX + longLeafAddXSingle * 7, longLeafBaseY - longLeafAddYSingle * 210);
curveVertex(longLeafBaseX + longLeafAddXSingle * 14, longLeafBaseY - longLeafAddYSingle * 219);
curveVertex(longLeafBaseX + longLeafAddXSingle * 26, longLeafBaseY - longLeafAddYSingle * 225);
curveVertex(longLeafBaseX + longLeafAddXSingle * 26, longLeafBaseY - longLeafAddYSingle * 225);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 8, longLeafBaseY - longLeafAddYSingle * 255);
curveVertex(longLeafBaseX + longLeafAddXSingle * 8, longLeafBaseY - longLeafAddYSingle * 255);
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 262);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 265);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 265);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 275);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 275);
curveVertex(longLeafBaseX + longLeafAddXSingle * 18, longLeafBaseY - longLeafAddYSingle * 280);
curveVertex(longLeafBaseX + longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 282);
curveVertex(longLeafBaseX + longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 282);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 311);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 311);
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 317);
curveVertex(longLeafBaseX - longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 319);
curveVertex(longLeafBaseX - longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 319);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 327);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 327);
curveVertex(longLeafBaseX + longLeafAddXSingle * 15, longLeafBaseY - longLeafAddYSingle * 332);
curveVertex(longLeafBaseX + longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 334);
curveVertex(longLeafBaseX + longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 334);
endShape();
translate(width / 4, height / 4 * 3);
pop();
}
Raw
draw_one_frame_amber.js
const ease = new p5.Ease();
function draw_one_frame(cur_frac) {
// note: to clear the screen draw a rectangle
// note: all shape sizes, line widths, etc. should be a function of width and height
// note: animation should progress depending on the value of cur_frac which goes from 0 to 1, and it should loop seamlessly
angleMode(DEGREES);
noStroke();
fill(255, 130, 155);
rect(0, 0, width, height); //the background
// let sunR = [228, 255, 255, 255, 255];
// let sunG = [153, 153, 153, 156, 202];
// let sunB = [255, 236, 177, 110, 87];
// let sunPulse = [width*1, width*1.1, width*1.15, width*1.2, width*1.2, width*1.15, width*1.1, width*1];
// let sunScale = [1, 0.95, 0.6, 0.4, 0.2];
//this is the gradient behind the sun
for (i=0; i<50; i++){
fill(255, 188, 64, 15);
push();
let sunScaleFac = i*0.02;
ellipse(width/2, height/1.5, (width*sunScaleFac));
pop();
}
//these are the sunrays
push();
noFill();
strokeWeight(height/20);
translate(width/2, height/1.5);
for(let i=0; i<10; i++){
stroke(254, 255, 166)
rotate(360/10);
sunRay(width/2, height/1.5, cur_frac);
}
pop();
//this is the actual sun
fill(255, 202, 87)
ellipse(width/2, height/1.5, (width*0.2));
//these are the hills I'm drawing, as well as the squiggle lines on top of them
push();
fill(105, 54, 0);
beginShape();
curveVertex(0, height);
curveVertex(-width/20, height/2.6);
curveVertex(width/8, height/2.1);
curveVertex(width/4.5, height/2.05);
curveVertex(width/3, height/1.6);
curveVertex(width/2.1, height/1.4);
curveVertex(width/1.75, height);
curveVertex(width/2, height);
curveVertex(0, height);
curveVertex(0, height);
endShape();
noFill();
stroke(122, 73, 18);
strokeWeight(width/500);
beginShape();
curveVertex(0, height);
curveVertex(-width/20, height/2.2);
curveVertex(width/8, height/1.85);
curveVertex(width/4.5, height/1.75);
curveVertex(width/3, height/1.5);
curveVertex(width/2.6, height/1.35);
curveVertex(width/4.75, height/1.35);
curveVertex(width/8, height/1.3);
curveVertex(0, height/1.5);
curveVertex(0, height/1.7);
endShape();
beginShape();
curveVertex(0, height);
curveVertex(-width/20, height/2.1);
curveVertex(width/8, height/1.75);
curveVertex(width/4.5, height/1.65);
curveVertex(width/3.5, height/1.5);
curveVertex(width/3, height/1.4);
curveVertex(width/4.75, height/1.4);
curveVertex(width/8, height/1.35);
curveVertex(0, height/1.6);
curveVertex(0, height/1.9);
endShape();
beginShape();
curveVertex(0, height);
curveVertex(-width/20, height/2);
curveVertex(width/8, height/1.65);
curveVertex(width/4.5, height/1.55);
curveVertex(width/3.6, height/1.475);
curveVertex(width/3.5, height/1.44);
curveVertex(width/4.75, height/1.475);
curveVertex(width/8, height/1.4);
curveVertex(0, height/1.7);
curveVertex(0, height/2);
endShape();
fill(117, 74, 29);
beginShape();
curveVertex(width/3, height);
curveVertex(width/2.25, height/1.3);
curveVertex(width/1.75, height/1.6);
curveVertex(width/1.3, height/1.7);
curveVertex(width/0.98, height/1.95);
curveVertex(width, height);
curveVertex(width/3, height);
curveVertex(width/3, height);
endShape();
noFill();
stroke(145, 104, 61);
strokeWeight(width/500);
beginShape();
curveVertex(width/0.98, height/1.7);
curveVertex(width/0.8, height/1.33);
curveVertex(width/1.2, height/1.43);
curveVertex(width/1.5, height/1.43);
curveVertex(width/1.6, height/1.43);
curveVertex(width/1.67, height/1.42);
curveVertex(width/1.56, height/1.47);
curveVertex(width/1.3, height/1.47);
curveVertex(width/1.1, height/1.65);
curveVertex(width/0.98, height/1.7);
curveVertex(width/0.98, height/1.7);
endShape();
beginShape();
curveVertex(width/0.98, height/1.75);
curveVertex(width/0.8, height/1.3);
curveVertex(width/1.2, height/1.4);
curveVertex(width/1.5, height/1.4);
curveVertex(width/1.7, height/1.38);
curveVertex(width/1.75, height/1.4);
curveVertex(width/1.56, height/1.5);
curveVertex(width/1.3, height/1.5);
curveVertex(width/1.1, height/1.7);
curveVertex(width/0.98, height/1.75);
curveVertex(width/0.98, height/1.75);
endShape();
beginShape();
curveVertex(width/0.98, height/1.8);
curveVertex(width/0.8, height/1.25);
curveVertex(width/1.2, height/1.35);
curveVertex(width/1.5, height/1.35);
curveVertex(width/1.75, height/1.33);
curveVertex(width/1.8, height/1.45);
curveVertex(width/1.56, height/1.55);
curveVertex(width/1.3, height/1.55);
curveVertex(width/1.1, height/1.75);
curveVertex(width/0.98, height/1.8);
curveVertex(width/0.98, height/1.8);
endShape();
beginShape();
curveVertex(width/0.98, height/1.8);
curveVertex(width/0.8, height/1.2);
curveVertex(width/1.2, height/1.3);
curveVertex(width/1.5, height/1.3);
curveVertex(width/1.75, height/1.28);
curveVertex(width/1.9, height/1.45);
curveVertex(width/1.56, height/1.6);
curveVertex(width/1.3, height/1.6);
curveVertex(width/1.1, height/1.8);
curveVertex(width/0.98, height/1.85);
curveVertex(width/0.98, height/1.85);
endShape();
pop();
//this is the lake
fill(166, 249, 255);
ellipse(width/2, height*1.3, width*2, height)
//these are the clouds
const ease_amount_cloud = ease.cubicInOut(cur_frac);
//this makes the clouds move accross the page
let cloudxPlace = [-width*0.25, 0, width*0.25, width*0.5, width*0.75, width, width*1.25];
let cloudyPlace = [height/8, height/200, height/10, height/12];
for(let i=0; i<cloudxPlace.length-1; i++) {
let cloudXpos1 = map(ease_amount_cloud, 0, 1, cloudxPlace[i], cloudxPlace[i+1])
let cloudYpos1 = map(ease_amount_cloud, 0, 1, cloudyPlace[i], cloudyPlace[i+1])
cloud(cloudXpos1, cloudYpos1);
}
//these are the waves
let waveXoffset = [0, width/20, -width/40];
let waveYoffset = [0, height/20, height/50];
waves(width/4+waveXoffset[0], height/1.1+waveYoffset[0], cur_frac);
waves(width/4+waveXoffset[1], height/1.1+waveYoffset[1], cur_frac);
waves(width/4+waveXoffset[2], height/1.1+waveYoffset[2], cur_frac);
let waveX2offset = [0, width/100];
waves(width/1.8+waveX2offset[0], height/1.17+waveX2offset[0], cur_frac);
waves(width/1.8+waveX2offset[1], height/1.17+waveX2offset[1], cur_frac);
//these are the flowers in the front left
flower2(width/10, height/1.4, cur_frac);
flower3(width/5.5, height/1.35, cur_frac)
flower1(width/100, height/1.3, cur_frac);
flower1(width/8, height/1.2, cur_frac);
flower2(width/4, height/1.18, cur_frac);
flower3(width/30, height/1.1, cur_frac)
//these are the flowers in the front right
flower1(width-width/55, height/1.1, cur_frac);
flower1(width-width/3, height/1.1, cur_frac);
flower1(width-width/10, height/1.4, cur_frac);
flower2(width-width/100, height/1.3, cur_frac);
flower3(width-width/100, height/1.6, cur_frac)
flower2(width-width/5.5, height/1.2, cur_frac);
flower3(width-width/3.75, height/1.13, cur_frac)
flower1(width-width/3, height/1.1, cur_frac);
flower3(width-width/10, height/1.17, cur_frac)
}
//from here down are just the different elements that I put in a function so it was easier to call on them mulitple times
//the names should make it pretty self explanatory
function cloud (x, y) {
fill(255, 227, 238);
push();
scale(2.25, 1.5);
ellipse(x+width/9.5, y+height/11, width/8, width/25);
ellipse(x+width/25, y+height/10, width/9, width/30);
ellipse(x+width/11, y+height/16, width/11, width/22);
ellipse(x+width/17, y+height/15, width/12, width/40);
ellipse(x+width/6.2, y+height/8.5, width/20, width/50);
pop();
}
function sunRay(x, y, cur_frac) {
push();
noFill();
translate(width*0.08, 0);
let squiggle_up = true;
if (cur_frac < 0.5) {
squiggle_up = true;
amount_squiggle = cur_frac * 2;
}
else {
squiggle_up = false;
amount_squiggle = (cur_frac-0.5) * 2;
}
const ease_amount_squiggle = ease.quadraticOut(amount_squiggle);
let strokeTransparencyArray = [225, 75, 125, 175, 200, 75, 125, 175, 200];
let rayOffsetArray = [0, height/12, height/15, height/20, height/30, -height/12, -height/15, -height/20, -height/30];
for(let j=0; j<4; j++){
let rayOffset = rayOffsetArray[j];
strokeWeight(j*height/10+height/50);
stroke(255, 246, 176, 100);
beginShape();
for (let i=0; i<360; i++){
var waveX = map(i, 0, 360, 0, width);
var waveY = sin(i*2.5) * height/10;
let rayYpos;
if(cur_frac<0.5){
rayYpos = map(ease_amount_squiggle, 0, 0.5, -waveY/4, waveY/4);
}
else{
rayYpos = map(ease_amount_squiggle, 0.5, 1, waveY/4, -waveY/4);
}
vertex(waveX, rayYpos);
}
endShape();
}
pop();
}
function flower1 (x, y, cur_frac){
let petalxOffset;
let petalyOffset;
petalxOffset = [0, width/30, width/20, width/30, 0, -width/30, -width/20, -width/30];
petalyOffset = [0, width/50, width/20, width/12.5, width/10, width/12.5, width/20, width/50];
push();
for (let i = 0; i < 8; i++) {
push();
translate(petalxOffset[i], petalyOffset[i]);
noStroke();
fill(99, 45, 93, 100);
ellipse(x+width/200, y+width/200, width/20)
fill(255, 179, 249);
ellipse(x, y, width/20)
pop();
}
let flowerCentre = true;
if (cur_frac < 0.5) {
flowerCentre = true;
amount_scale = cur_frac * 2;
}
else {
flowerCentre = false;
amount_scale = map(cur_frac, 0.5, 1, 1, 0);
}
const ease_amount_scale = ease.cubicInOut(amount_scale);
const ease_amount_alpha = ease.circularInOut(amount_scale);
let flowerSize = width/30
let flowerScale = map(ease_amount_scale, 0, 1, flowerSize/2, flowerSize);
let flowerAlpha = map(ease_amount_alpha, 0, 1, 0, 150);
fill(191, 164, 90, 100);
ellipse(x, y+(0.09*height), width/14);
fill(252, 214, 109);
ellipse(x, y+(0.09*height), width/15);
fill(252, 214, 109, flowerAlpha);
strokeWeight(width/1000);
stroke(237, 162, 0, flowerAlpha);
ellipse(x, y+(0.09*height), flowerScale*2);
stroke(237, 162, 0, flowerAlpha+25);
ellipse(x, y+(0.09*height), flowerScale*1.66);
stroke(237, 162, 0, flowerAlpha+50);
ellipse(x, y+(0.09*height), flowerScale*1.33);
stroke(237, 162, 0, flowerAlpha+100);
ellipse(x, y+(0.09*height), flowerScale);
stroke(237, 162, 0, flowerAlpha+150);
ellipse(x, y+(0.09*height), flowerScale*0.66);
stroke(237, 162, 0, flowerAlpha+200);
ellipse(x, y+(0.09*height), flowerScale*0.33);
ellipse(x, y+(0.09*height), flowerScale*0.1);
ellipse(x, y+(0.09*height), flowerScale*0.05);
pop();
pop();
}
function flower2 (x, y, cur_frac){
let petalxOffset;
let petalyOffset;
noStroke();
petalxOffset = [0, width/37.5, width/22.5, width/22.5, width/37.5, 0, -width/37.5, -width/22.5, -width/22.5, -width/37.5];
petalyOffset = [width/200, width/60, width/25, width/15, width/11, width/10, width/11, width/15, width/25, width/60];
for (let i = 0; i < 10; i++) {
push();
translate(petalxOffset[i], petalyOffset[i]);
noStroke();
fill(99, 45, 93, 100);
ellipse(x+width/200, y+width/200, width/20)
fill(245, 100, 120);
ellipse(x, y, width/25)
pop();
}
let flowerCentre = true;
if (cur_frac < 0.5) {
flowerCentre = true;
amount_scale = cur_frac * 2;
}
else {
flowerCentre = false;
amount_scale = map(cur_frac, 0.5, 1, 1, 0);
}
const ease_amount_scale = ease.circularIn(amount_scale);
const ease_amount_alpha = ease.circularInOut(amount_scale);
let flowerSize = width/30
let flowerScale = map(ease_amount_scale, 0, 1, flowerSize/2, flowerSize);
let flowerAlpha = map(ease_amount_alpha, 0, 1, 0, 150);
fill(74, 53, 27, 100);
ellipse(x, y+(0.09*height), width/14);
fill(138, 110, 77);
ellipse(x, y+(0.09*height), width/15);
fill(138, 110, 77, flowerAlpha);
strokeWeight(width/1000);
stroke(56, 31, 0, flowerAlpha);
ellipse(x, y+(0.09*height), flowerScale*2);
stroke(56, 31, 0, flowerAlpha+25);
ellipse(x, y+(0.09*height), flowerScale*1.66);
stroke(56, 31, 0, flowerAlpha+50);
ellipse(x, y+(0.09*height), flowerScale*1.33);
stroke(56, 31, 0, flowerAlpha+100);
ellipse(x, y+(0.09*height), flowerScale);
stroke(56, 31, 0, flowerAlpha+150);
ellipse(x, y+(0.09*height), flowerScale*0.66);
stroke(56, 31, 0, flowerAlpha+200);
ellipse(x, y+(0.09*height), flowerScale*0.33);
stroke(56, 31, 0, flowerAlpha+200);
ellipse(x, y+(0.09*height), flowerScale*0.1);
pop();
}
function flower3 (x, y, cur_frac){
let petalxOffset;
let petalyOffset;
petalxOffset = [0, width/55, width/35, width/55, 0, -width/55, -width/35, -width/55];
petalyOffset = [width/45, width/35, width/20, width/14, width/12.5, width/14, width/20, width/35];
noStroke();
push();
for (let i = 0; i < 8; i++) {
push();
translate(petalxOffset[i], petalyOffset[i]);
noStroke();
fill(99, 45, 93, 100);
ellipse(x+width/200, y+width/200, width/40)
fill(255);
ellipse(x, y, width/40)
pop();
}
let flowerCentre = true;
if (cur_frac < 0.5) {
flowerCentre = true;
amount_scale = cur_frac * 2;
}
else {
flowerCentre = false;
amount_scale = map(cur_frac, 0.5, 1, 1, 0);
}
const ease_amount_scale = ease.quadraticOut(amount_scale);
const ease_amount_alpha = ease.circularInOut(amount_scale);
let flowerSize = width/45
let flowerScale = map(ease_amount_scale, 0, 1, flowerSize/2, flowerSize);
let flowerAlpha = map(ease_amount_alpha, 0, 1, 0, 150);
fill(191, 164, 90, 100);
ellipse(x, y+(0.09*height), width/20);
fill(252, 214, 109);
ellipse(x, y+(0.09*height), width/22.5);
fill(252, 214, 109, flowerAlpha);
strokeWeight(width/1000);
stroke(237, 162, 0, flowerAlpha);
ellipse(x, y+(0.09*height), flowerScale*2);
stroke(237, 162, 0, flowerAlpha+25);
ellipse(x, y+(0.09*height), flowerScale*1.66);
stroke(237, 162, 0, flowerAlpha+50);
ellipse(x, y+(0.09*height), flowerScale*1.33);
stroke(237, 162, 0, flowerAlpha+100);
ellipse(x, y+(0.09*height), flowerScale);
stroke(237, 162, 0, flowerAlpha+150);
ellipse(x, y+(0.09*height), flowerScale*0.66);
stroke(237, 162, 0, flowerAlpha+200);
ellipse(x, y+(0.09*height), flowerScale*0.33);
ellipse(x, y+(0.09*height), flowerScale*0.1);
ellipse(x, y+(0.09*height), flowerScale*0.05);
pop();
}
function waves (x, y, cur_frac) {
push();
noFill();
let going_up = true;
strokeWeight(height/150);
translate(width*0.08, 0);
if (cur_frac < 0.5) {
going_up = true;
amount_down = cur_frac * 2;
}
else {
going_up = false;
amount_down = (cur_frac-0.5) * 2;
}
const ease_amount_up = ease.quadraticIn(amount_down);
let strokeAlpha = map(amount_down, 0, 1, 200, 100);
stroke(255, 255, 255, strokeAlpha);
beginShape();
var yoff = 0;
let nudgeScale = getNoiseValue(x, y, ease_amount_up, "nudgeScale", 0, height/500, 10);
for (let i=0; i<360; i++){
var waveX1 = map(i, 0, 360, -width/10, 0);
var waveNoiseY = map(noise(yoff), 0, 1, 0, height/50);
var waveSineY = sin(i*3) * height/300 + sin(i*2.5) * height/500;
var waveY = (waveSineY+waveNoiseY+nudgeScale)
let waveYpos;
let waveXpos;
if(cur_frac<0.5){
waveYpos = map(ease_amount_up, 0, 0.5, -waveY/4, waveY/4);
waveX2 = map(ease_amount_up, 0, 0.5, width/11, width/12);
}
else{
waveYpos = map(ease_amount_up, 0.5, 1, waveY/4, -waveY/4);
waveX2 = map(ease_amount_up, 0.5, 1, width/12, width/11);
}
waveXpos = waveX1+waveX2
vertex(waveXpos+x, waveYpos+y);
yoff += 0.01
}
endShape();
pop();
}
Raw
draw_one_frame_kayla.js
const ease = new p5.Ease();
function draw_one_frame(cur_frac) {
var addXSingle = width / 960;
var addYSingle = height / 520;
fill(255);
rect(0, 0, width, height);
//drawing the background gradient
c1 = color(240, 254, 254); //very light blue
c2 = color(154, 242, 245); //darker blue
for (let yBG = 0; yBG < height + 1; yBG++) {
n = map(yBG, 0, height, 0, 1);
let newc = lerpColor(c1, c2, n);
stroke(newc);
line(0, yBG, width, yBG);
}
let cur_x = map(cur_frac, 0, 1, 0, width) //- half_width;
//all of my colours to use when I call a leaf function!
var longLeafFill1 = color(167, 212, 138);
var longLeafFill2 = color(134, 181, 103);
var longLeafStroke1 = color(108, 148, 99);
var longLeafFill3 = color(92, 145, 84); //saturated dark green
var longLeafStroke3 = color(92, 145, 84);
var longLeafFill4 = color(49, 94, 89); //darkest green
var longLeafStroke4 = color(49, 94, 89);
var longLeafFill5 = color(83, 144, 111);
var fatLeafFill = color(200, 231, 128);
var darkBlueGreen = color(71, 125, 99);
var teal = color(87, 141, 122);
var slate_green = color(91, 151, 110);
var dull_greren = color(109, 171, 94);
var muted_green = color(102, 159, 90);
var pale_olive_green = color(160, 213, 148);
var pale_olive = color(173, 202, 151);
var flower_fill = color(230, 251, 150);
var medium_spring_bud = color(191, 225, 129);
var oxley = color(105, 159, 132);
var limed_spruce = color(57, 69, 83);
var skinnyLongLeafCol = color(103, 142, 149);
var secondFlowerLeaf = color(115, 166, 137);
let randRoat = getNoiseValue(0, 0, cur_frac, "randRoat", -.3, .3, .1); //random jitter on the long leaf using noise
push(); //fat leaf right at the back on the right
translate(width / 1.23, height / 1);
drawFatLeaf(70, 0.6, -1, darkBlueGreen);
pop();
push(); //fat leaf right at the back on the left
translate(width * .16, height * 1.07);
drawFatLeaf(-43, .8, -1, darkBlueGreen);
pop();
//leaves on the right behind the flowers
push();
translate(width / 1.4, height * 1.04);
drawLongLeaf(0, 0, 1.2, 20, longLeafFill4, longLeafStroke4);
pop();
push();
translate(width / 1.28, height * 1.1);
drawLongLeaf(0, 0, 1.05, 23, longLeafFill3, longLeafStroke3);
pop();
push();
translate(width / 1.45, height * 1.02);
drawLongLeaf(0, 0, 1.05, 0, longLeafFill5, longLeafFill5);
pop();
//setting up the flowers to move back and forth
let going_right = true;
let amount_across = 0;
if (cur_frac < 0.5) {
going_right = true;
amount_across = cur_frac * 2;
} else {
going_right = false;
amount_across = (cur_frac - 0.5) * 2;
}
const ease_amount_across = ease.doubleQuadraticSigmoid(amount_across);
const ease_amount_across_fatLeaf = ease.circularFillet(amount_across);
const ease_amount_acrosslongLeaf = ease.normalizedLogitSigmoid(amount_across);
if (going_right) {
flowerSway = map(ease_amount_across, 0, 0.5, addXSingle * 0, addXSingle * 2)
flower2Sway = map(ease_amount_across, 0, 0.5, addXSingle * 0, addXSingle * .9)
fLSway = map(ease_amount_across_fatLeaf, 0, 0.5, addXSingle * 0, addXSingle * 0.3)
longLeafSway = map(ease_amount_acrosslongLeaf, 0, 0.5, addXSingle * 0, addXSingle * 0.2)
} else {
flowerSway = map(ease_amount_across, 0.5, 1, addXSingle * 2, addXSingle * 0)
flower2Sway = map(ease_amount_across, 0.5, 1, addXSingle * .9, addXSingle * 0)
fLSway = map(ease_amount_across_fatLeaf, 0.5, 1, addXSingle * 0.3, addXSingle * 0)
longLeafSway = map(ease_amount_acrosslongLeaf, 0.5, 1, addXSingle * 0.2, addXSingle * 0)
}
//drawing long leaf with the jitter
push();
translate(width / 1.6, height / 1.02);
rotate(0);
drawLongLeaf(0, 0, 1.2, (randRoat / 3) + longLeafSway, longLeafFill1, longLeafStroke1);
pop();
//setting up the flowers
var flower1StartX = width / 1.2 + flowerSway; //flower sway makes the flower bud AND the stalk move
var flower1StartY = height / 4.9;
var flower2StartX = width *.92 + flower2Sway;
var flower2StartY = height *.33974;
strokeWeight(width / 960 * 2);
stroke(93, 107, 54);
noFill();
beginShape(); //flower 1 stalk
curveVertex(flower1StartX, flower1StartY);
curveVertex(flower1StartX, flower1StartY);
curveVertex(width / 1.2, height *.6);
curveVertex(width / 1.3, height*.89);
curveVertex(width / 1.3, height*.89);
endShape();
//draw the actual flower (biggest one)
push();
translate(flower1StartX, flower1StartY);
rotate(-25);
scale(1.4);
drawFlower(0, 0, flower_fill); //bigger top flower
pop();
//drawing leaves on the biggest flowerr
push();
translate(width / 1.196 + (flowerSway / 2), height / 2.3); //top down
drawSkinnyLongLeaf(-40, .9, skinnyLongLeafCol);
pop();
push();
translate(width / 1.194 + (flowerSway / 2.2), height / 2.15);
drawSkinnyLongLeaf(35, 1, skinnyLongLeafCol);
pop();
push();
translate(width / 1.196 + (flowerSway / 2.6), height / 2.05);
drawSkinnyLongLeaf(-60, 1.1, skinnyLongLeafCol);
pop();
push();
translate(width / 1.194 + (flowerSway / 2.8), height / 1.9);
drawSkinnyLongLeaf(55, 1.08, skinnyLongLeafCol);
pop();
push();
translate(width / 1.196 + (flowerSway / 2.9), height / 1.7);
drawSkinnyLongLeaf(-57, 1.25, skinnyLongLeafCol);
pop();
push();
translate(width / 1.194 + (flowerSway / 2.8), height / 1.65);
drawSkinnyLongLeaf(59, 1.25, skinnyLongLeafCol);
pop();
push();
translate(width / 1.215, height / 1.55);
drawSkinnyLongLeaf(-50, 1.3, skinnyLongLeafCol);
pop();
push();
translate(width / 1.223, height / 1.4);
drawSkinnyLongLeaf(-69, 1.5, skinnyLongLeafCol);
pop();
push();
translate(width / 1.27, height / 1.21);
drawSkinnyLongLeaf(-62, 1.5, skinnyLongLeafCol);
pop();
push(); ////////leaves in the middle of the screen///////
translate(width * .49, height * 1.19);
drawShortWavyLeaf(longLeafFill3, longLeafFill3, 13, 3);
pop();
push();
translate(width * .604, height * 1.047);
drawShortWavyLeaf(teal, oxley, -17, 2.7);
pop();
push();
translate(width * .2, height * 1.1);
drawShortWavyLeaf(longLeafFill2, longLeafFill2, -20, 3);
pop();
//second flower stalk
strokeWeight(width / 960 * 2);
stroke(93, 107, 54);
noFill();
beginShape(); //flower 2 stalk
curveVertex(flower2StartX, flower2StartY);
curveVertex(flower2StartX, flower2StartY);
curveVertex(width *.896, height *.52);
curveVertex(width / 1.3, height *.89);
curveVertex(width / 1.3, height *.89);
endShape();
//second flower
push();
translate(flower2StartX, flower2StartY);
rotate(25);
scale(1);
drawFlower(0, 0, flower_fill); //lower smaller flower
pop();
//ssecond flower leaves
push();
translate(width*.908 + (flower2Sway / 4), height / 2.18);
drawSkinnyLongLeaf(-28, .84, secondFlowerLeaf);
pop();
push();
translate(width *.906 + (flower2Sway / 2.8), height / 2.1);
drawSkinnyLongLeaf(48, .87, secondFlowerLeaf);
pop();
push();
translate(width / 1.13, height / 1.84);
drawSkinnyLongLeaf(-21, 1, secondFlowerLeaf);
pop();
push();
translate(width / 1.15, height / 1.69);
drawSkinnyLongLeaf(70, 1.07, secondFlowerLeaf);
pop();
push();
translate(width / 1.17, height / 1.55);
drawSkinnyLongLeaf(-33, 1.2, secondFlowerLeaf);
pop();
push();
translate(width / 1.2, height / 1.4);
drawSkinnyLongLeaf(63, 1.3, secondFlowerLeaf);
pop();
//draw the two fat leaves in front of the flowers on the RIGHT
push();
translate(width / 1.29, height * 1.03);
drawFatLeaf(45 + fLSway, 0.9, 1, fatLeafFill);
pop();
push();
translate(width / 1.43, height * 1.1);
drawFatLeaf(-15 + (fLSway * 4), 0.9, -1, fatLeafFill);
pop();
const ease_amount_across_fatLeaf2 = ease.circularArcThroughAPoint(amount_across);
const ease_amount_up_down = ease.doubleQuadraticSigmoid(amount_across);
if (going_right) {
flowerSway3 = map(ease_amount_across, 0, 0.5, addXSingle * .5, addXSingle * 0);
fatLeaf2Sway = map(ease_amount_across_fatLeaf2, 0, 0.5, addXSingle * 0.6, addXSingle * 0);
branchupdown = map(ease_amount_up_down, 0, 0.5, addXSingle * 0.6, addXSingle * 0)
} else {
flowerSway3 = map(ease_amount_across, 0, 0.5, addXSingle * 0, addXSingle * .5);
fatLeaf2Sway = map(ease_amount_across_fatLeaf2, 0, 0.5, addXSingle * 0, addXSingle * 0.6);
branchupdown = map(ease_amount_up_down, 0.5, 1, addXSingle * 0, addXSingle * 0.6);
}
/////////behind shrt wavy leaves
push();
translate(width * .43, height * 1.04);
drawLongLeaf(0, 0, 1.18, -23, limed_spruce, limed_spruce);
pop();
push();
translate(width * .42, height * 1.03);
drawLongLeaf(0, 0, 1.1, 1, longLeafFill4, longLeafStroke4);
pop();
push();
translate(width * .30, height * 1.03);
drawLongLeaf(0, 0, 1.2, -30 + longLeafSway / 2, longLeafFill4, longLeafStroke4);
pop();
push();
translate(width * .37, height);
drawLongLeaf(0, 0, 1, -30, longLeafFill2, longLeafStroke1);
pop();
//fly on the left
let flyScale = 0.55;
let flyX;
//setting it up off-beat, so it grows starting at 0.3 cur frac and loops back to then (instead of 0-1)
if (cur_frac >= 0.3) {
flyScale = map(cur_frac, 0.3, 0.5, 0, 0.55);
}
if (cur_frac >= 0.5) {
flyScale = map(cur_frac, 0.5, 1, 0.55, 0.55);
}
if (cur_frac <= 0.3) {
flyScale = map(cur_frac, 0, 0.3, 0.55, 0);
}
if (cur_frac <= 0.3) { //this is for the flies movement
flyX = map(cur_frac, 0, 0.3, addXSingle * 200, addXSingle * 250)
} else if (cur_frac >= 0.3) {
flyX = map(cur_frac, 0.3, 1, addXSingle * 100, addXSingle * 200)
}
push(); //draw the actual fly
translate(width / 1.9 + flyX, height / 1.5); //centre of the screen
drawFly(0, 0, cur_frac, flyScale,1);
pop();
//////////short wavy leaves stalk////////////
stroke(52, 93, 88);
strokeWeight(addXSingle * 3);
noFill();
var endOfBranchX = width * .12;
var endOfBranchY = height / 3.9;
var strokeColWavy1 = color(42, 86, 79);
//main branch (going left)
beginShape();
curveVertex(width / 3, height / 1.7);
curveVertex(width / 3, height / 1.7);
curveVertex(width / 3.8, height / 4.4);
curveVertex(endOfBranchX, endOfBranchY + branchupdown);
curveVertex(endOfBranchX, endOfBranchY + branchupdown);
endShape();
//second branch going right
beginShape();
curveVertex(width * .31, height * .419);
curveVertex(width * .31, height * .419);
curveVertex(width * .34, height * .16);
curveVertex(width * .41, height * .1);
curveVertex(width * .41, height * .1);
endShape();
////first brranch leaves
push();
translate(endOfBranchX, endOfBranchY + branchupdown);
drawShortWavyLeaf(teal, strokeColWavy1, -80 - (branchupdown / 1.5), 1);
pop();
push();
translate(endOfBranchX + addXSingle * 6, endOfBranchY + addYSingle * -1 + branchupdown);
drawShortWavyLeaf(slate_green, slate_green, -120 + (branchupdown / 1.3), .8);
pop();
push();
translate(endOfBranchX + addXSingle * 20, endOfBranchY + addYSingle * -3 + (branchupdown / 1.2));
drawShortWavyLeaf(teal, strokeColWavy1, -170, .8);
pop();
push(); //////behind the other leaves
translate(endOfBranchX + addXSingle * 167, endOfBranchY + addYSingle * 40);
drawShortWavyLeaf(slate_green, slate_green, -80, 0.93);
pop();
push(); //////behind the other leaves on other branch
translate(endOfBranchX + addXSingle * 157, endOfBranchY + addYSingle * 10);
drawShortWavyLeaf(slate_green, slate_green, 19, 0.8);
pop();
push();
translate(endOfBranchX + addXSingle * 100, endOfBranchY + addYSingle * -25 + (branchupdown / 1.9));
drawShortWavyLeaf(teal, strokeColWavy1, -20 - (branchupdown / 2), .75);
pop();
push();
translate(endOfBranchX + addXSingle * 48, endOfBranchY + addYSingle * -20 + (branchupdown / 1.5));
drawShortWavyLeaf(teal, strokeColWavy1, -50 + (branchupdown / 1.8), .82);
pop();
push();
translate(endOfBranchX + addXSingle * 68, endOfBranchY + addYSingle * -20 + (branchupdown / 1.6));
drawShortWavyLeaf(teal, strokeColWavy1, -200 + (branchupdown / 2), .93);
pop();
push();
translate(endOfBranchX + addXSingle * 118, endOfBranchY + addYSingle * -25);
drawShortWavyLeaf(teal, strokeColWavy1, -180, .8);
pop();
push();
translate(endOfBranchX + addXSingle * 180, endOfBranchY + addYSingle * 90);
drawShortWavyLeaf(teal, strokeColWavy1, -100, .94);
pop();
push();
translate(endOfBranchX + addXSingle * 190, endOfBranchY + addYSingle * 120);
drawShortWavyLeaf(teal, strokeColWavy1, 40, 1.06);
pop();
push();
translate(endOfBranchX + addXSingle * 196, endOfBranchY + addYSingle * 150);
drawShortWavyLeaf(teal, strokeColWavy1, -87, 1.1);
pop();
///////////second branch (going right)
push();
translate(endOfBranchX + addXSingle * 187, endOfBranchY + addYSingle * 80);
drawShortWavyLeaf(teal, strokeColWavy1, 60, .9);
pop();
push();
translate(endOfBranchX + addXSingle * 191, endOfBranchY + addYSingle * 40);
drawShortWavyLeaf(teal, strokeColWavy1, 50, 1);
pop();
push();
translate(endOfBranchX + addXSingle * 201, endOfBranchY + addYSingle * -20);
drawShortWavyLeaf(teal, strokeColWavy1, 70, .8);
pop();
push();
translate(endOfBranchX + addXSingle * 191, endOfBranchY + addYSingle * 20);
drawShortWavyLeaf(teal, strokeColWavy1, -35, .86);
pop();
push();
translate(endOfBranchX + addXSingle * 207, endOfBranchY + addYSingle * -45);
drawShortWavyLeaf(teal, strokeColWavy1, -45, .8);
pop();
push();
translate(endOfBranchX + addXSingle * 230, endOfBranchY + addYSingle * -71);
drawShortWavyLeaf(teal, strokeColWavy1, -25, .70);
pop();
push();
translate(endOfBranchX + addXSingle * 260, endOfBranchY + addYSingle * -81);
drawShortWavyLeaf(teal, strokeColWavy1, 5, .55);
pop();
push();
translate(endOfBranchX + addXSingle * 280, endOfBranchY + addYSingle * -84);
drawShortWavyLeaf(teal, strokeColWavy1, 28, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 280, endOfBranchY + addYSingle * -84);
drawShortWavyLeaf(teal, strokeColWavy1, 80, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 271, endOfBranchY + addYSingle * -80);
drawShortWavyLeaf(teal, strokeColWavy1, -250, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 271, endOfBranchY + addYSingle * -80);
drawShortWavyLeaf(teal, strokeColWavy1, -250, .5);
pop();
push();
translate(endOfBranchX + addXSingle * 238, endOfBranchY + addYSingle * -73);
drawShortWavyLeaf(teal, strokeColWavy1, -250, .59);
pop();
//fly 1 (LEFT faster fly)///
//this fly is moving 0-1
flyScale = 0.6;
if (cur_frac <= 0.3) {
flyScale = map(cur_frac, 0, 0.3, 0, 0.6);
} else if (cur_frac >= 0.7) {
flyScale = map(cur_frac, 0.7, 1, 0.6, 0);
}
flyX = map(cur_frac, 0, 1, addXSingle * 300, addXSingle * 0)
push();
translate(width / 5 + flyX, height / 3.4);
drawFly(0, 0, cur_frac, flyScale,-1);
pop();
//////in front of branches on the left
push();
translate(width * .45, height * 1.1);
drawLongLeaf(0, 0, 1, -24, dull_greren, muted_green);
pop();
//short leaves in front on the LEFT //////////////////////////
push();
translate(width * .41, height * 1.1);
drawFatLeaf(-20 + (fatLeaf2Sway / -10), 1, -1, pale_olive);
pop();
push();
translate(width * .43, height * 1.1);
drawFatLeaf(10 + (fatLeaf2Sway / 1.2), 0.9, 1, fatLeafFill);
pop();
push();
translate(width * .37, height * 1.1);
drawFatLeaf(-56 + (fatLeaf2Sway / 1.8), 0.9, -1, fatLeafFill);
pop();
////////bottom left flowers
let backFloStartX = width * .19 + (flowerSway3 / 2.6);
let backFloStartY = height * .75;
//stalk 4 back flower
strokeWeight(addXSingle * 1.5);
stroke(longLeafFill3);
noFill();
beginShape();
curveVertex(backFloStartX - addXSingle * 16, backFloStartY);
curveVertex(backFloStartX - addXSingle * 16, backFloStartY);
curveVertex(width * .15, height * .88);
curveVertex(width * .16, height);
curveVertex(width * .16, height);
endShape();
push();
translate(backFloStartX, backFloStartY);
rotate(30);
scale(1.3);
drawFlower(0, 0, medium_spring_bud);
pop();
let bigFloStartX = width * .1 + flower2Sway;
let bigFloStartY = height * .8;
beginShape();
curveVertex(bigFloStartX, bigFloStartY);
curveVertex(bigFloStartX, bigFloStartY);
curveVertex(width * .135, height * .91);
curveVertex(width * .15, height);
curveVertex(width * .15, height);
endShape();
push();
translate(bigFloStartX, height * .8);
rotate(-40);
scale(1.3);
drawFlower(0, 0, flower_fill);
pop();
var smolFloX = width * .2 + flowerSway / 4;
var smolFloY = height * .85;
beginShape();
curveVertex(smolFloX, smolFloY);
curveVertex(smolFloX, smolFloY);
curveVertex(width * .17, height * .95);
curveVertex(width * .172, height);
curveVertex(width * .172, height);
endShape();
push();
translate(smolFloX, smolFloY);
rotate(10);
scale(1);
drawFlower(0, 0, flower_fill);
pop();
}
function drawShortWavyLeaf(fillCol, strokeColWavy, shortWavyRot, shortWavyScale) {
//drawn on the upper left
var addXSingle = width / 960;
var addYSingle = height / 540;
var shortWavyLeafX = 0;
var shortWavyLeafY = 0;
//
fill(fillCol);
push();
scale(shortWavyScale);
rotate(shortWavyRot);
noStroke();
beginShape();
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX + addXSingle * -9, shortWavyLeafY + addYSingle * -10);
curveVertex(shortWavyLeafX + addXSingle * -11, shortWavyLeafY + addYSingle * -18);
curveVertex(shortWavyLeafX + addXSingle * -8, shortWavyLeafY + addYSingle * -28);
curveVertex(shortWavyLeafX + addXSingle * -10, shortWavyLeafY + addYSingle * -40);
curveVertex(shortWavyLeafX + addXSingle * -12, shortWavyLeafY + addYSingle * -47);
curveVertex(shortWavyLeafX + addXSingle * -13, shortWavyLeafY + addYSingle * -55);
curveVertex(shortWavyLeafX + addXSingle * -11.5, shortWavyLeafY + addYSingle * -60);
curveVertex(shortWavyLeafX + addXSingle * -8, shortWavyLeafY + addYSingle * -65);
curveVertex(shortWavyLeafX + addXSingle * -9.5, shortWavyLeafY + addYSingle * -73);
curveVertex(shortWavyLeafX + addXSingle * -10, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * -8, shortWavyLeafY + addYSingle * -83);
curveVertex(shortWavyLeafX + addXSingle * -3, shortWavyLeafY + addYSingle * -88);
curveVertex(shortWavyLeafX, shortWavyLeafY + addYSingle * -95);
curveVertex(shortWavyLeafX + addXSingle * 2, shortWavyLeafY + addYSingle * -100);
curveVertex(shortWavyLeafX + addXSingle * 5, shortWavyLeafY + addYSingle * -92);
curveVertex(shortWavyLeafX + addXSingle * 10, shortWavyLeafY + addYSingle * -86);
curveVertex(shortWavyLeafX + addXSingle * 16, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * 17.5, shortWavyLeafY + addYSingle * -73);
curveVertex(shortWavyLeafX + addXSingle * 16.5, shortWavyLeafY + addYSingle * -67);
curveVertex(shortWavyLeafX + addXSingle * 15, shortWavyLeafY + addYSingle * -59);
curveVertex(shortWavyLeafX + addXSingle * 18, shortWavyLeafY + addYSingle * -48);
curveVertex(shortWavyLeafX + addXSingle * 16, shortWavyLeafY + addYSingle * -40);
curveVertex(shortWavyLeafX + addXSingle * 13, shortWavyLeafY + addYSingle * -33);
curveVertex(shortWavyLeafX + addXSingle * 15, shortWavyLeafY + addYSingle * -20);
curveVertex(shortWavyLeafX + addXSingle * 13, shortWavyLeafY + addYSingle * -13);
curveVertex(shortWavyLeafX + addXSingle * 5.5, shortWavyLeafY + addYSingle * -6);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
endShape();
fill(strokeColWavy);
stroke(strokeColWavy);
strokeWeight(addXSingle);
beginShape();
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX + addXSingle * -2, shortWavyLeafY + addYSingle * -17);
curveVertex(shortWavyLeafX + addXSingle * 0, shortWavyLeafY + addYSingle * -28);
curveVertex(shortWavyLeafX + addXSingle * -1.3, shortWavyLeafY + addYSingle * -39);
curveVertex(shortWavyLeafX + addXSingle * .4, shortWavyLeafY + addYSingle * -50);
curveVertex(shortWavyLeafX + addXSingle * -.7, shortWavyLeafY + addYSingle * -60);
curveVertex(shortWavyLeafX + addXSingle * 1.7, shortWavyLeafY + addYSingle * -68);
curveVertex(shortWavyLeafX + addXSingle * 1, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * 1.6, shortWavyLeafY + addYSingle * -87);
curveVertex(shortWavyLeafX + addXSingle * 3, shortWavyLeafY + addYSingle * -80);
curveVertex(shortWavyLeafX + addXSingle * 4.5, shortWavyLeafY + addYSingle * -68);
curveVertex(shortWavyLeafX + addXSingle * 3.5, shortWavyLeafY + addYSingle * -60);
curveVertex(shortWavyLeafX + addXSingle * 5, shortWavyLeafY + addYSingle * -50);
curveVertex(shortWavyLeafX + addXSingle * 2.3, shortWavyLeafY + addYSingle * -39);
curveVertex(shortWavyLeafX + addXSingle * 3.5, shortWavyLeafY + addYSingle * -28);
curveVertex(shortWavyLeafX + addXSingle * 1, shortWavyLeafY + addYSingle * -17);
curveVertex(shortWavyLeafX, shortWavyLeafY);
curveVertex(shortWavyLeafX, shortWavyLeafY);
endShape();
pop();
}
function drawFatLeaf(fatLeafRot, fatLeafYScal, negative, fatLeafFill) {
//drawn at the front of the screen normally, bright
push();
var addXSingle = width / 960 * negative;
var addYSingle = height / 540;
var fatLeafX = 0;
var fatLeafY = 0;
fill(fatLeafFill);
noStroke();
rotate(fatLeafRot);
scale(fatLeafYScal)
beginShape();
curveVertex(fatLeafY, fatLeafY);
curveVertex(fatLeafY, fatLeafY);
curveVertex(fatLeafX + addXSingle * -70, fatLeafY + addYSingle * -50);
curveVertex(fatLeafX + addXSingle * -80, fatLeafY + addYSingle * -90);
curveVertex(fatLeafX + addXSingle * -70, fatLeafY + addYSingle * -120);
curveVertex(fatLeafX + addXSingle * -60, fatLeafY + addYSingle * -140);
curveVertex(fatLeafX + addXSingle * -50, fatLeafY + addYSingle * -170);
curveVertex(fatLeafX + addXSingle * -57, fatLeafY + addYSingle * -200);
curveVertex(fatLeafX + addXSingle * -45, fatLeafY + addYSingle * -230);
curveVertex(fatLeafX + addXSingle * -4, fatLeafY + addYSingle * -260);
curveVertex(fatLeafX, fatLeafY + addYSingle * -262);
curveVertex(fatLeafX + addXSingle * 4, fatLeafY + addYSingle * -260);
curveVertex(fatLeafX + addXSingle * 45, fatLeafY + addYSingle * -230);
curveVertex(fatLeafX + addXSingle * 54, fatLeafY + addYSingle * -210);
curveVertex(fatLeafX + addXSingle * 45, fatLeafY + addYSingle * -190);
curveVertex(fatLeafX + addXSingle * 50, fatLeafY + addYSingle * -170);
curveVertex(fatLeafX + addXSingle * 65, fatLeafY + addYSingle * -150);
curveVertex(fatLeafX + addXSingle * 70, fatLeafY + addYSingle * -135);
curveVertex(fatLeafX + addXSingle * 60, fatLeafY + addYSingle * -105);
curveVertex(fatLeafX + addXSingle * 70, fatLeafY + addYSingle * -85);
curveVertex(fatLeafX + addXSingle * 78, fatLeafY + addYSingle * -65);
curveVertex(fatLeafX + addXSingle * 65, fatLeafY + addYSingle * -40);
curveVertex(fatLeafX, fatLeafY);
curveVertex(fatLeafX, fatLeafY);
endShape();
stroke(118, 154, 87);
strokeWeight(height / 520 * 3);
noFill();
beginShape();
curveVertex(fatLeafX, fatLeafY);
curveVertex(fatLeafX, fatLeafY);
curveVertex(fatLeafX + addXSingle * -1, fatLeafY + addYSingle * -35);
curveVertex(fatLeafX + addXSingle * 4, fatLeafY + addYSingle * -75);
curveVertex(fatLeafX + addXSingle * -5, fatLeafY + addYSingle * -115);
curveVertex(fatLeafX + addXSingle * 3, fatLeafY + addYSingle * -150);
curveVertex(fatLeafX + addXSingle * -4, fatLeafY + addYSingle * -175);
curveVertex(fatLeafX + addXSingle * 3, fatLeafY + addYSingle * -195);
curveVertex(fatLeafX + addXSingle * -2, fatLeafY + addYSingle * -210);
curveVertex(fatLeafX + addXSingle * 1, fatLeafY + addYSingle * -225);
//curveVertex(fatLeafX+addXSingle*1,fatLeafY+addYSingle*-225);
curveVertex(fatLeafX + addXSingle * -1, fatLeafY + addYSingle * -240);
curveVertex(fatLeafX + addXSingle, fatLeafY + addYSingle * -250);
curveVertex(fatLeafX + addXSingle, fatLeafY + addYSingle * -250);
endShape();
pop();
}
function drawSkinnyLongLeaf(skinnyLongLeafRot, skinnyLongLeafScale, skinnyLongLeafCol) {
//leaves on the rose branches
var addXSingle = width / 960;
var addYSingle = height / 540;
var skinnyLongLeafX = 0;
var skinnyLongLeafY = 0;
push();
rotate(skinnyLongLeafRot);
scale(skinnyLongLeafScale);
fill(skinnyLongLeafCol);
noStroke();
beginShape();
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
curveVertex(skinnyLongLeafX - addXSingle * 7, skinnyLongLeafY - addYSingle * 51);
curveVertex(skinnyLongLeafX - addXSingle * 1, skinnyLongLeafY - addYSingle * 100);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 105);
curveVertex(skinnyLongLeafX + addXSingle * 1, skinnyLongLeafY - addYSingle * 100);
curveVertex(skinnyLongLeafX + addXSingle * 8, skinnyLongLeafY - addYSingle * 49);
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
curveVertex(skinnyLongLeafX, skinnyLongLeafY);
endShape();
stroke(45, 78, 109);
noFill();
strokeWeight(addXSingle * .7);
beginShape();
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 21);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 21);
curveVertex(skinnyLongLeafX + addXSingle * 1, skinnyLongLeafY - addYSingle * 49);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 80);
curveVertex(skinnyLongLeafX, skinnyLongLeafY - addYSingle * 80);
endShape();
pop();
}
function drawFly(flyX, flyY, cur_frac, flyScale,negative) {
let wingMove; //set up animated wing variable
var addXSingle = width / 960 * negative;
var addYSingle = height / 540;
var flyBodyCol = color(74, 77, 76);
var flyWingCol = color(166, 237, 234, 180);
//setting it up so the flies wings can flap more tha once a second
var wingFlapNum = 360 * 5 //how many times the wing flaps per second , multiples of 360
var flapAmmount = round(sin(map(cur_frac, 0, 1, 1, wingFlapNum)));
var flapAmmountSmooth = sin(map(cur_frac, 0, 1, 1, wingFlapNum));
if (flapAmmount == 0) {
wingMove = map(flapAmmountSmooth, 0, -1, 0, 10);
} else if (flapAmmount == -1) {
wingMove = map(flapAmmountSmooth, -1, 0, 10, 0);
}
noStroke();
fill(flyBodyCol);
scale(flyScale);
ellipse(flyX + addXSingle * 15, flyY, addXSingle * 17, addYSingle * 17); //head
ellipse(flyX, flyY, addXSingle * 30, addYSingle * 22); //body
rect(flyX + addXSingle * 21, flyY + addYSingle * 1, addXSingle * 8, -addYSingle * 4); //snout
ellipse(flyX + addXSingle * 30, flyY - addYSingle * 1, addXSingle * 4, addYSingle * 7) //end of snout
//wings!
fill(flyWingCol);
push();
rotate(35*negative + wingMove);
ellipse(flyX - addXSingle * 6, flyY - addYSingle * 1, addXSingle * 20, addYSingle * 10);
rotate(40*negative + wingMove);
ellipse(flyX - addXSingle * 11, flyY - addYSingle * 3, addXSingle * 30, addYSingle * 15);
pop();
}
function drawFlower(flowerBaseX, flowerBaseY, flowerFill) {
noStroke();
var addXSingle = width / 960; //1
var addYSingle = height / 540;
fill(flowerFill);
arc(flowerBaseX, flowerBaseY, addXSingle * 80, addYSingle * 70, 0, 180);
stroke(144, 179, 118);
strokeWeight(addXSingle);
beginShape();
curveVertex(flowerBaseX - addXSingle * 35, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 35, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 28, flowerBaseY - addYSingle * 18);
curveVertex(flowerBaseX - addXSingle * 24, flowerBaseY - addYSingle * 20);
curveVertex(flowerBaseX - addXSingle * 21, flowerBaseY - addYSingle * 19);
curveVertex(flowerBaseX - addXSingle * 17, flowerBaseY - addYSingle * 23);
curveVertex(flowerBaseX - addXSingle * 12, flowerBaseY - addYSingle * 25);
curveVertex(flowerBaseX - addXSingle * 6, flowerBaseY - addYSingle * 22);
curveVertex(flowerBaseX - addXSingle * 1, flowerBaseY - addYSingle * 27);
curveVertex(flowerBaseX + addXSingle * 2, flowerBaseY - addYSingle * 28);
curveVertex(flowerBaseX + addXSingle * 5, flowerBaseY - addYSingle * 27);
curveVertex(flowerBaseX + addXSingle * 10, flowerBaseY - addYSingle * 21);
curveVertex(flowerBaseX + addXSingle * 17, flowerBaseY - addYSingle * 23);
curveVertex(flowerBaseX + addXSingle * 20, flowerBaseY - addYSingle * 20);
curveVertex(flowerBaseX + addXSingle * 26, flowerBaseY - addYSingle * 21);
curveVertex(flowerBaseX + addXSingle * 30, flowerBaseY - addYSingle * 18);
curveVertex(flowerBaseX + addXSingle * 34, flowerBaseY);
curveVertex(flowerBaseX + addXSingle * 34, flowerBaseY);
endShape();
beginShape();
curveVertex(flowerBaseX - addXSingle * 4, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 4, flowerBaseY);
curveVertex(flowerBaseX + addXSingle * 3, flowerBaseY - addYSingle * 12);
curveVertex(flowerBaseX + addXSingle * 9, flowerBaseY - addYSingle * 14);
curveVertex(flowerBaseX + addXSingle * 15, flowerBaseY - addYSingle * 10);
curveVertex(flowerBaseX + addXSingle * 20, flowerBaseY - addYSingle * 14);
curveVertex(flowerBaseX + addXSingle * 24, flowerBaseY - addYSingle * 15);
curveVertex(flowerBaseX + addXSingle * 29, flowerBaseY - addYSingle * 11);
curveVertex(flowerBaseX + addXSingle * 34, flowerBaseY - addYSingle * 15);
curveVertex(flowerBaseX + addXSingle * 38, flowerBaseY - addYSingle * 11);
curveVertex(flowerBaseX + addXSingle * 40, flowerBaseY);
curveVertex(flowerBaseX + addXSingle * 40, flowerBaseY);
endShape();
beginShape();
curveVertex(flowerBaseX - addXSingle * 40, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 40, flowerBaseY);
curveVertex(flowerBaseX - addXSingle * 38, flowerBaseY - addYSingle * 10);
curveVertex(flowerBaseX - addXSingle * 32, flowerBaseY - addYSingle * 14);
curveVertex(flowerBaseX - addXSingle * 27, flowerBaseY - addYSingle * 10);
curveVertex(flowerBaseX - addXSingle * 20, flowerBaseY - addYSingle * 16);
curveVertex(flowerBaseX - addXSingle * 14, flowerBaseY - addYSingle * 12);
curveVertex(flowerBaseX - addXSingle * 10, flowerBaseY - addYSingle * 15);
curveVertex(flowerBaseX - addXSingle * 4, flowerBaseY - addYSingle * 11);
curveVertex(flowerBaseX - addXSingle * 2, flowerBaseY - addYSingle * 6);
curveVertex(flowerBaseX + addXSingle * 1, flowerBaseY - addYSingle * 7.5)
curveVertex(flowerBaseX + addXSingle * 6, flowerBaseY - addYSingle * 8);
curveVertex(flowerBaseX + addXSingle * 9, flowerBaseY - addYSingle * 6)
curveVertex(flowerBaseX + addXSingle * 11, flowerBaseY - addYSingle * 1);
curveVertex(flowerBaseX + addXSingle * 17, flowerBaseY - addYSingle * 2);
curveVertex(flowerBaseX + addXSingle * 22, flowerBaseY + addYSingle * 3);
curveVertex(flowerBaseX + addXSingle * 28, flowerBaseY + addYSingle * 3);
curveVertex(flowerBaseX + addXSingle * 36, flowerBaseY + addYSingle * 11);
curveVertex(flowerBaseX + addXSingle * 36, flowerBaseY + addYSingle * 11);
endShape();
}
function drawLongLeaf(longLeafBaseX, longLeafBaseY, longLeafScale, longLLeafRotation, longLeafFill, longLeafStrokeCol) {
//kelp looking leaf
noStroke();
angleMode(DEGREES);
push();
rotate(longLLeafRotation);
var longLeafAddXSingle = width / 960; //1
var longLeafAddYSingle = height / 540; // 1
scale(longLeafScale);
fill(longLeafFill);
beginShape();
curveVertex(longLeafBaseX - (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 50), longLeafBaseY - longLeafAddYSingle * 45);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 36), longLeafBaseY - longLeafAddYSingle * 80);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 41), longLeafBaseY - longLeafAddYSingle * 125);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 27), longLeafBaseY - longLeafAddYSingle * 156);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 31), longLeafBaseY - longLeafAddYSingle * 200);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 18), longLeafBaseY - longLeafAddYSingle * 235);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 22), longLeafBaseY - longLeafAddYSingle * 270);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 13), longLeafBaseY - longLeafAddYSingle * 295);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 11), longLeafBaseY - longLeafAddYSingle * 325);
curveVertex(longLeafBaseX - (longLeafAddXSingle * 2), longLeafBaseY - longLeafAddYSingle * 340);
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 355);
vertex(longLeafBaseX + (longLeafAddXSingle * 14), longLeafBaseY - longLeafAddYSingle * 379);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 26), longLeafBaseY - longLeafAddYSingle * 365);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 24), longLeafBaseY - longLeafAddYSingle * 345);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 28), longLeafBaseY - longLeafAddYSingle * 330);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 25), longLeafBaseY - longLeafAddYSingle * 310);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 35), longLeafBaseY - longLeafAddYSingle * 285);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 30), longLeafBaseY - longLeafAddYSingle * 255);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 228);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 36), longLeafBaseY - longLeafAddYSingle * 200);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 45), longLeafBaseY - longLeafAddYSingle * 165);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY - longLeafAddYSingle * 132);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 49), longLeafBaseY - longLeafAddYSingle * 95);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 41), longLeafBaseY - longLeafAddYSingle * 57);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 50), longLeafBaseY - longLeafAddYSingle * 25);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY + longLeafAddYSingle * 12);
curveVertex(longLeafBaseX + (longLeafAddXSingle * 40), longLeafBaseY + longLeafAddYSingle * 12);
endShape();
stroke(longLeafStrokeCol);
noFill();
strokeWeight(longLeafAddXSingle * 4.5);
beginShape();
curveVertex(longLeafBaseX, longLeafBaseY + longLeafAddYSingle * 5);
curveVertex(longLeafBaseX, longLeafBaseY + longLeafAddYSingle * 5);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 25);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 54);
curveVertex(longLeafBaseX + longLeafAddXSingle * 6, longLeafBaseY - longLeafAddYSingle * 85);
curveVertex(longLeafBaseX - longLeafAddXSingle * 2, longLeafBaseY - longLeafAddYSingle * 118);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 152);
curveVertex(longLeafBaseX - longLeafAddXSingle * 4, longLeafBaseY - longLeafAddYSingle * 185);
curveVertex(longLeafBaseX + longLeafAddXSingle * 7, longLeafBaseY - longLeafAddYSingle * 211);
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 238);
curveVertex(longLeafBaseX + longLeafAddXSingle * 11, longLeafBaseY - longLeafAddYSingle * 265);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 289);
curveVertex(longLeafBaseX + longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 313);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 335);
curveVertex(longLeafBaseX + longLeafAddXSingle * 12, longLeafBaseY - longLeafAddYSingle * 351);
curveVertex(longLeafBaseX + longLeafAddXSingle * 12, longLeafBaseY - longLeafAddYSingle * 351);
endShape();
noFill();
strokeWeight(longLeafAddXSingle * 3);
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 2, longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX + longLeafAddXSingle * 2, longLeafBaseY - longLeafAddYSingle * 5);
curveVertex(longLeafBaseX + longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 15);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 20);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 20);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 20);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 20);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 33);
curveVertex(longLeafBaseX - longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 40);
curveVertex(longLeafBaseX - longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 40);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 78);
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 78);
curveVertex(longLeafBaseX + longLeafAddXSingle * 13, longLeafBaseY - longLeafAddYSingle * 85);
curveVertex(longLeafBaseX + longLeafAddXSingle * 33, longLeafBaseY - longLeafAddYSingle * 89);
curveVertex(longLeafBaseX + longLeafAddXSingle * 33, longLeafBaseY - longLeafAddYSingle * 89);
endShape();
beginShape();
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 105);
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 105);
curveVertex(longLeafBaseX - longLeafAddXSingle * 13, longLeafBaseY - longLeafAddYSingle * 120);
curveVertex(longLeafBaseX - longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 122);
curveVertex(longLeafBaseX - longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 122);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 149);
curveVertex(longLeafBaseX + longLeafAddXSingle * 5, longLeafBaseY - longLeafAddYSingle * 149);
curveVertex(longLeafBaseX + longLeafAddXSingle * 14, longLeafBaseY - longLeafAddYSingle * 155);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 158);
curveVertex(longLeafBaseX + longLeafAddXSingle * 30, longLeafBaseY - longLeafAddYSingle * 158);
endShape();
beginShape();
curveVertex(longLeafBaseX - longLeafAddXSingle * 4, longLeafBaseY - longLeafAddYSingle * 185);
curveVertex(longLeafBaseX - longLeafAddXSingle * 4, longLeafBaseY - longLeafAddYSingle * 185);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 192);
curveVertex(longLeafBaseX - longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 195);
curveVertex(longLeafBaseX - longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 195);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 7, longLeafBaseY - longLeafAddYSingle * 210);
curveVertex(longLeafBaseX + longLeafAddXSingle * 7, longLeafBaseY - longLeafAddYSingle * 210);
curveVertex(longLeafBaseX + longLeafAddXSingle * 14, longLeafBaseY - longLeafAddYSingle * 219);
curveVertex(longLeafBaseX + longLeafAddXSingle * 26, longLeafBaseY - longLeafAddYSingle * 225);
curveVertex(longLeafBaseX + longLeafAddXSingle * 26, longLeafBaseY - longLeafAddYSingle * 225);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 8, longLeafBaseY - longLeafAddYSingle * 255);
curveVertex(longLeafBaseX + longLeafAddXSingle * 8, longLeafBaseY - longLeafAddYSingle * 255);
curveVertex(longLeafBaseX, longLeafBaseY - longLeafAddYSingle * 262);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 265);
curveVertex(longLeafBaseX - longLeafAddXSingle * 10, longLeafBaseY - longLeafAddYSingle * 265);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 275);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 275);
curveVertex(longLeafBaseX + longLeafAddXSingle * 18, longLeafBaseY - longLeafAddYSingle * 280);
curveVertex(longLeafBaseX + longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 282);
curveVertex(longLeafBaseX + longLeafAddXSingle * 24, longLeafBaseY - longLeafAddYSingle * 282);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 311);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 311);
curveVertex(longLeafBaseX + longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 317);
curveVertex(longLeafBaseX - longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 319);
curveVertex(longLeafBaseX - longLeafAddXSingle * 3, longLeafBaseY - longLeafAddYSingle * 319);
endShape();
beginShape();
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 327);
curveVertex(longLeafBaseX + longLeafAddXSingle * 9, longLeafBaseY - longLeafAddYSingle * 327);
curveVertex(longLeafBaseX + longLeafAddXSingle * 15, longLeafBaseY - longLeafAddYSingle * 332);
curveVertex(longLeafBaseX + longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 334);
curveVertex(longLeafBaseX + longLeafAddXSingle * 19, longLeafBaseY - longLeafAddYSingle * 334);
endShape();
translate(width / 4, height / 4 * 3);
pop();
}
Raw
draw_one_frame_rosa.js
const ease = new p5.Ease();
function draw_one_frame(cur_frac) {
angleMode(DEGREES);
noStroke();
fill(191, 228, 255);
rect(0, 0, width, height); //background
noFill();
stroke(168, 207, 237); //tile shadows
strokeWeight(height*0.015);
for (let ii=0; ii<4; ii++){
for (let i=0; i<7; i++) {
line(width/14.8+width/7*i, 0, width/14.8+width/7*i, height);
line(0, width/14.8+width/7*ii, width, width/14.8+width/7*ii);
}
}
stroke(224, 242, 255); //tile grout
strokeWeight(height*0.005);
for (let ii=0; ii<4; ii++){
for (let i=0; i<7; i++) {
line(width/14+width/7*i, 0, width/14+width/7*i, height);
line(0, width/14+width/7*ii, width, width/14+width/7*ii);
}
}
let row1_x = 0.45 * width; //small row position
let sml2offset = 0.2 * width; //2nd small row offset
let sml3offset = -0.33 * width; //3rd small row offset
let row2_x = 0.3 * width; //medium row position
let mid2offset = 0.45 * width; //2nd medium row offset
let mid3offset = 0.5 * width; //3rd medium row offset
let row3_x = 0.6 * width; //big row position
let b1_size = height/10; //bubble sizes
let b2_size = height/7;
let b3_size = height/4.1;
const ease_frac = ease.smootherStep(cur_frac); //eased frames 0-1
let grid_points1 = [ //points along the path of bubbles
1.25 * height,
1.00 * height,
0.75 * height,
0.50 * height,
0.25 * height,
0.0 * height,
-0.25 * height
]
let wave_grid_points1 = []; //adjust grid points into wave pattern using noise
for (let i=0; i<grid_points1.length; i++) {
let wave = getNoiseValue(grid_points1[i], row1_x, 0, "wave_grid_points1", -b1_size*0.75, b1_size*0.75, 100);
wave_grid_points1.push(row1_x + wave);
}
let wave_grid_points1a = []; //another set of wave points for variation
for (let i=0; i<grid_points1.length; i++) {
let wave1 = getNoiseValue(grid_points1[i], row1_x, 0, "wave_grid_points1a", -b1_size*0.75, b1_size*0.75, 100);
wave_grid_points1a.push(row1_x + wave1);
}
//draw small bubbles
for(let i=0; i<grid_points1.length-1; i++) {
let cur_y_pos = map(cur_frac, 0, 1, grid_points1[i], grid_points1[i+1]);
let cur_x_pos = map(ease_frac, 0, 1, wave_grid_points1[i], wave_grid_points1[i+1]);
let cur_x_pos2 = map(ease_frac, 0, 1, wave_grid_points1a[i], wave_grid_points1a[i+1]);
drawBubble(cur_x_pos2, cur_y_pos, b1_size);
drawBubble(cur_x_pos+sml2offset, cur_y_pos-height*0.2, b1_size);
drawBubble(cur_x_pos+sml3offset, cur_y_pos-height*0.1, b1_size);
}
let grid_points2 = [
1.05 * height,
0.70 * height,
0.35 * height,
0 * height,
-0.35 * height
]
let wave_grid_points2 = [];
for (let i=0; i<grid_points2.length; i++) {
let wave2 = getNoiseValue(grid_points2[i], row2_x, 0, "wave_grid_points2", -b2_size*0.5, b2_size*0.5, 100);
wave_grid_points2.push(row2_x + wave2);
}
let wave_grid_points2a = [];
for (let i=0; i<grid_points2.length; i++) {
let wave2a = getNoiseValue(grid_points2[i], row2_x, 0, "wave_grid_points2a", -b2_size*0.5, b2_size*0.5, 100);
wave_grid_points2a.push(row2_x + wave2a);
}
//draw medium bubbles
for(let i=0; i<grid_points2.length-1; i++) {
let cur_y_pos = map(cur_frac, 0, 1, grid_points2[i], grid_points2[i+1]);
let cur_x_pos = map(ease_frac, 0, 1, wave_grid_points2[i], wave_grid_points2[i+1]);
let cur_x_pos2 = map(ease_frac, 0, 1, wave_grid_points1a[i], wave_grid_points1a[i+1]);
let cur_x_pos3 = map(ease_frac, 0, 1, wave_grid_points2a[i], wave_grid_points2a[i+1]);
drawBubble(cur_x_pos3, cur_y_pos, b2_size);
drawBubble(cur_x_pos+mid2offset, cur_y_pos+height*0.2, b2_size);
drawBubble(cur_x_pos2+mid3offset, cur_y_pos+height*0.1, b2_size);
}
let grid_points3 = [
1.10 * height,
0.60 * height,
0.10 * height,
-0.40 * height
]
let wave_grid_points3 = [];
for (let i=0; i<grid_points3.length; i++) {
let wave3 = getNoiseValue(grid_points3[i], row3_x, 0, "wave_grid_points3", -b3_size*0.35, b3_size*0.35, 100);
wave_grid_points3.push(row3_x + wave3);
}
//draw big bubbles
for(let i=0; i<grid_points3.length-1; i++) {
let cur_y_pos = map(cur_frac, 0, 1, grid_points3[i], grid_points3[i+1]);
let cur_x_pos = map(ease_frac, 0, 1, wave_grid_points3[i], wave_grid_points3[i+1]);
drawBubble(cur_x_pos, cur_y_pos, b3_size);
}
//drawing the cat
push();
scale(1.2);
translate(0,-height*0.15);
let change_direction = true; //set up variables for 50/50 back and forth
let amount_along = 0;
if (cur_frac < 0.5) {
change_direction = true;
amount_along = cur_frac * 2;
}
else {
change_direction = false;
amount_along = (cur_frac-0.5) * 2;
}
const eye_min = height*0.732;
const eye_max = height*0.768;
const ease_amount_along = ease.circularInOut(amount_along);
const ease_eyes = ease.circularInOut(cur_frac);
if(cur_frac <= 0.25){ //eyes move down for 1/4, up for 3/4
eye_y_pos = map(ease_amount_along, 0, 1, eye_min, eye_max);
}
else{
eye_y_pos = map(ease_eyes, 0, 1, eye_max, eye_min);
}
if(change_direction) { //tail flicking back and forth
tail_pos1 = map(ease_amount_along, 0, 1, height*0.325, height*0.375);
tail_pos2 = map(ease_amount_along, 0, 1, height*0.37, height*0.33);
tail_pos3 = map(ease_amount_along, 0, 1, height*0.36, height*0.34);
}
else {
tail_pos1 = map(ease_amount_along, 0, 1, height*0.375, height*0.325);
tail_pos2 = map(ease_amount_along, 0, 1, height*0.33, height*0.37);
tail_pos3 = map(ease_amount_along, 0, 1, height*0.34, height*0.36);
}
let catGrey = color(115, 131, 158);
let catLight = color(153, 170, 196);
let lightGreen = color(111, 189, 158);
let darkGreen = color(10, 144, 90);
noStroke();
fill(155, 194, 224, 185); //shadows
let shadowX = height*0.025;
let shadowY = height*0.05;
beginShape(); //ears shadow
curveVertex(height*0.08+shadowX, height*0.52+shadowY);
curveVertex(height*0.08+shadowX, height*0.52+shadowY);
curveVertex(height*0.23+shadowX, height*0.55+shadowY);
curveVertex(height*0.155+shadowX, height*0.625+shadowY);
curveVertex(height*0.155+shadowX, height*0.625+shadowY);
endShape(CLOSE);
beginShape();
curveVertex(height*0.08+shadowX, height*0.84+shadowY);
curveVertex(height*0.08+shadowX, height*0.84+shadowY);
curveVertex(height*0.23+shadowX, height*0.8+shadowY);
curveVertex(height*0.155+shadowX, height*0.735+shadowY);
curveVertex(height*0.155+shadowX, height*0.735+shadowY);
endShape(CLOSE);
fill(155, 194, 224, 205);
ellipse(width*0.005+shadowX, height*0.68+shadowY, height*0.31, height*0.36); //head shadow
noFill();
stroke(155, 194, 224, 185); //tail shadow
strokeWeight(height*0.07);
beginShape();
curveVertex(-height*0.05+shadowX, height*0.35+shadowY);
curveVertex(-height*0.05+shadowX, height*0.35+shadowY);
curveVertex(height*0.12+shadowX, tail_pos1+shadowY);
curveVertex(height*0.25+shadowX, tail_pos2+shadowY);
curveVertex(height*0.3+shadowX, tail_pos3+shadowY);
curveVertex(height*0.3+shadowX, tail_pos3+shadowY);
endShape();
strokeWeight(height*0.007); //whisker shadow
line(width*0.015+shadowX, height*0.858+shadowY, width*0.02+shadowX, height*0.88+shadowY);
line(width*0.001+shadowX, height*0.858+shadowY, width*0.005+shadowX, height*0.89+shadowY);
//end of shadows
noStroke();
fill(catGrey);
beginShape(); //ears
curveVertex(height*0.08, height*0.52);
curveVertex(height*0.08, height*0.52);
curveVertex(height*0.23, height*0.55);
curveVertex(height*0.13, height*0.64);
curveVertex(height*0.13, height*0.64);
endShape(CLOSE);
beginShape();
curveVertex(height*0.08, height*0.84);
curveVertex(height*0.08, height*0.84);
curveVertex(height*0.23, height*0.8);
curveVertex(height*0.13, height*0.72);
curveVertex(height*0.13, height*0.72);
endShape(CLOSE);
fill(103, 118, 143); //ear shading
beginShape();
curveVertex(height*0.08, height*0.84);
curveVertex(height*0.08, height*0.84);
curveVertex(height*0.23, height*0.8);
curveVertex(height*0.09, height*0.75);
curveVertex(height*0.09, height*0.75);
endShape(CLOSE);
push();
fill(catLight);
scale(0.6);
beginShape(); //inner ears
curveVertex(height*0.15, height*0.91);
curveVertex(height*0.15, height*0.91);
curveVertex(height*0.35, height*0.94);
curveVertex(height*0.25, height*1.03);
curveVertex(height*0.25, height*1.03);
endShape(CLOSE);
beginShape();
curveVertex(height*0.15, height*1.355);
curveVertex(height*0.15, height*1.355);
curveVertex(height*0.35, height*1.315);
curveVertex(height*0.25, height*1.235);
curveVertex(height*0.25, height*1.235);
endShape(CLOSE);
fill(143, 160, 186); //inner ear shading
beginShape();
curveVertex(height*0.15, height*1.355);
curveVertex(height*0.15, height*1.355);
curveVertex(height*0.35, height*1.317);
curveVertex(height*0.23, height*1.27);
curveVertex(height*0.23, height*1.27);
endShape(CLOSE);
pop();
fill(103, 118, 143); //head shading
ellipse(width*0.005, height*0.68, height*0.31, height*0.36);
fill(catGrey); //head
ellipse(width*0.005, height*0.67, height*0.295, height*0.345);
push();
translate(-height*0.003, height*0.012); //tail shading
noFill();
stroke(103, 118, 143);
strokeWeight(height*0.074);
beginShape();
curveVertex(-height*0.05, height*0.35);
curveVertex(-height*0.05, height*0.35);
curveVertex(height*0.12, tail_pos1);
curveVertex(height*0.25, tail_pos2);
curveVertex(height*0.3, tail_pos3);
curveVertex(height*0.3, tail_pos3);
endShape();
stroke(143, 160, 186);
strokeWeight(height*0.075);
strokeCap(SQUARE);
beginShape();
curveVertex(height*0.09, tail_pos1);
curveVertex(height*0.25, tail_pos2);
curveVertex(height*0.3, tail_pos3);
curveVertex(height*0.3, tail_pos3);
endShape();
noStroke();
fill(143, 160, 186);
ellipse(height*0.3, tail_pos3, height*0.075);
pop();
noFill();
stroke(catGrey); //drawing tail
strokeWeight(height*0.07);
beginShape();
curveVertex(-height*0.05, height*0.35);
curveVertex(-height*0.05, height*0.35);
curveVertex(height*0.12, tail_pos1);
curveVertex(height*0.25, tail_pos2);
curveVertex(height*0.3, tail_pos3);
curveVertex(height*0.3, tail_pos3);
endShape();
noStroke();
fill(143, 160, 186); //extra shading
ellipse(height*0.25, tail_pos2+height*0.033, height*0.031);
noFill();
stroke(catLight); //lighter end of tail
strokeWeight(height*0.071);
strokeCap(SQUARE);
beginShape();
curveVertex(height*0.09, tail_pos1);
curveVertex(height*0.25, tail_pos2);
curveVertex(height*0.3, tail_pos3);
curveVertex(height*0.3, tail_pos3);
endShape();
noStroke();
fill(catLight); //extra circles for end of tail
ellipse(height*0.3, tail_pos3, height*0.071);
ellipse(height*0.25, tail_pos2, height*0.031);
ellipse(height*0.25, tail_pos2+height*0.02, height*0.031);
ellipse(height*0.25, tail_pos2-height*0.02, height*0.031);
noStroke();
fill(lightGreen); //eyes
ellipse(width*0.025, height*0.75, height*0.055, height*0.06);
ellipse(width*0.025, height*0.61, height*0.055, height*0.06);
fill(lerpColor(lightGreen,darkGreen,0.25)); //eye gradient
ellipse(width*0.025, eye_y_pos, height*0.048, height*0.053);
ellipse(width*0.025, eye_y_pos-height*0.14, height*0.048, height*0.053);
fill(lerpColor(lightGreen,darkGreen,0.5));
ellipse(width*0.025, eye_y_pos, height*0.043, height*0.048);
ellipse(width*0.025, eye_y_pos-height*0.14, height*0.043, height*0.048);
fill(lerpColor(lightGreen,darkGreen,0.75));
ellipse(width*0.025, eye_y_pos, height*0.038, height*0.043);
ellipse(width*0.025, eye_y_pos-height*0.14, height*0.038, height*0.043);
fill(darkGreen);
ellipse(width*0.025, eye_y_pos, height*0.033, height*0.038);
ellipse(width*0.025, eye_y_pos-height*0.14, height*0.033, height*0.038);
fill(10); //pupils
ellipse(width*0.025, eye_y_pos, height*0.04, height*0.015);
ellipse(width*0.025, eye_y_pos-height*0.14, height*0.04, height*0.015);
fill(240, 245, 255); //shine
ellipse(width*0.023, height*0.73, height*0.01, height*0.015);
ellipse(width*0.023, height*0.59, height*0.01, height*0.015);
noFill(); //circle around eyes to cover extra circles
strokeWeight(height*0.05);
stroke(catGrey);
ellipse(width*0.025, height*0.75, height*0.105, height*0.11);
ellipse(width*0.025, height*0.61, height*0.105, height*0.11);
stroke(catLight); //whiskers
strokeCap(ROUND);
strokeWeight(height*0.007);
line(-width*0.018, height*0.72, width*0.02, height*0.88);
line(-width*0.018, height*0.72, width*0.005, height*0.89);
line(-width*0.018, height*0.64, width*0.02, height*0.48);
line(-width*0.018, height*0.64, width*0.005, height*0.47);
pop();
}
function drawBubble(x,y,s){
angleMode(DEGREES);
let b1_size = height/10; //bubble sizes
let b2_size = height/7;
let b3_size = height/4.1;
let green = color(82, 235, 150, 50);
let blue = color(70, 154, 250, 50);
let purple = color(191, 106, 247, 50);
let pink = color(252, 109, 248, 50);
noStroke();
fill(168, 207, 237, 150);
if(s==b3_size){
fill(168, 207, 237, 115);
ellipse(x+height*0.06,y+height*0.1,s*0.9);
}
else if(s==b2_size){
ellipse(x+height*0.04,y+height*0.054,s*0.9);
}
else{
ellipse(x+height*0.015,y+height*0.03,s*0.9);
}
noFill();
//colour gradient
strokeWeight(s*0.1);
stroke(green);
ellipse(x,y,s*0.3);
ellipse(x,y,s*0.333);
stroke(lerpColor(green,blue,0.33));
ellipse(x,y,s*0.366);
ellipse(x,y,s*0.4);
stroke(lerpColor(green,blue,0.66));
ellipse(x,y,s*0.433);
ellipse(x,y,s*0.466);
ellipse(x,y,s*0.5);
stroke(blue);
ellipse(x,y,s*0.533);
ellipse(x,y,s*0.566);
ellipse(x,y,s*0.6);
stroke(lerpColor(blue,purple,0.33));
ellipse(x,y,s*0.633);
ellipse(x,y,s*0.666);
ellipse(x,y,s*0.7);
ellipse(x,y,s*0.733);
stroke(lerpColor(blue,purple,0.66));
ellipse(x,y,s*0.766);
ellipse(x,y,s*0.8);
ellipse(x,y,s*0.833);
stroke(purple);
ellipse(x,y,s*0.866);
ellipse(x,y,s*0.9);
stroke(lerpColor(purple,pink,0.5));
ellipse(x,y,s*0.933);
stroke(pink);
strokeWeight(s*0.05);
ellipse(x,y,s*1);
//white highlights
stroke(255,230);
strokeWeight(s*0.05);
arc(x,y,s,s,-185,-70);
arc(x,y,s,s,-210,-200);
arc(x,y,s,s,25,80);
stroke(255,240);
strokeWeight(s*0.225);
arc(x,y,s/2,s/2,-180,-80);
strokeWeight(s*0.2);
arc(x,y,s/2,s/2,35,60);
}
Raw
face.js
/*
* FaceMap class - holds all informaiton about one mapped
* face and is able to draw itself.
*/
// remove this or set to false to enable full program (load will be slower)
var DEBUG_MODE = true;
// this can be used to set the number of sliders to show
var NUM_SLIDERS = 3;
// other variables can be in here too
const fg_color = [255];
// example of a global function
// given a segment, this returns the average point [x, y]
function segment_average(segment) {
let sum_x = 0;
let sum_y = 0;
let s_len = segment.length;
for (let i=0; i<s_len; i++) {
sum_x = sum_x + segment[i][0];
sum_y = sum_y + segment[i][1];
}
return [sum_x / s_len , sum_y / s_len ];
}
// This where you define your own face object
function Face() {
// these are state variables for a face
// (your variables should be different!)
this.eye_type = 1; // can be either 1 (cyclops) or 2 (two eyes)
this.eye_shift = -1; // range is -10 to 10
this.mouth_value = 1; // range is 0.5 to 8
// example of a function *inside* the face object.
// this draws a segment, and do_loop will connect the ends if true
this.draw_segment = function(segment, do_loop) {
for(let i=0; i<segment.length; i++) {
let px = segment[i][0];
let py = segment[i][1];
if(i < segment.length - 1) {
let nx = segment[i+1][0];
let ny = segment[i+1][1];
ellipse(px,py,.1)
line(px, py, nx, ny);
}
else if(do_loop) {
let nx = segment[0][0];
let ny = segment[0][1];
line(px, py, nx, ny);
}
}
};
/*
* Draw the face with position lists that include:
* chin, right_eye, left_eye, right_eyebrow, left_eyebrow
* bottom_lip, top_lip, nose_tip, nose_bridge,
*/
this.draw = function(positions) {
rectMode(CENTER)
strokeWeight(.01);
// eyebrows
stroke(fg_color);
let left_eyebrow_pos = segment_average(positions.left_eyebrow);
this.draw_segment(positions.left_eyebrow);
let right_eyebrow_pos = segment_average(positions.right_eyebrow);
this.draw_segment(positions.right_eyebrow);
// draw segments of face using points
stroke(fg_color);
this.draw_segment(positions.chin);
stroke(fg_color);
this.draw_segment(positions.nose_bridge);
let nose_tip_pos = segment_average(positions.nose_tip);
this.draw_segment(positions.nose_tip);
stroke(fg_color);
this.draw_segment(positions.top_lip);
let top_lip_pos = segment_average(positions.top_lip);
this.draw_segment(positions.bottom_lip);
stroke(fg_color);
let left_eye_pos = segment_average(positions.left_eye);
this.draw_segment(positions.left_eye, true);
let right_eye_pos = segment_average(positions.right_eye);
this.draw_segment(positions.right_eye, true);
// eyes
noStroke();
let curEyeShift = 0.04 * this.eye_shift;
fill(fg_color);
ellipse(left_eye_pos[0] + curEyeShift, left_eye_pos[1], 0.18);
ellipse(right_eye_pos[0] + curEyeShift, right_eye_pos[1], 0.18);
var gridSize = 3;
var cellSize = .75;
/*** TOM ADDED THIS LOOP #1 to "color in" the face ***/
// this is a lookup table that keeps track of previous cells
let leftmost_cell_in_row = [];
for (let y = -gridSize; y < gridSize; y+=cellSize) {
// each row we'll draw one line from left_x to right_x
let left_x = null;
let right_x = null;
for (let x = -gridSize; x < gridSize; x+=cellSize) {
let lastX = null;
let lastY = null;
for (let i = 0; i < positions.chin.length; i++) {
if (positions.chin[i][0] > (x - cellSize/2) && positions.chin[i][0] < (x + cellSize/2) && positions.chin[i][1] > (y - cellSize/2) && positions.chin[i][1] < (y + cellSize/2)) {
if (x != lastX && y != lastY) {
lastX = x;
lastY = y;
// first check if this is the first one
if (left_x == null) {
// just record this for both left and right
left_x = x;
right_x = x;
}
else if(x < left_x) {
// new left_x
left_x = x;
}
else if(x > right_x) {
right_x = x;
}
}
}
}
noFill();
stroke(200,50)
rect(x, y, cellSize, cellSize);
}
if (left_x != null) {
// now draw the line (series of cells)
fill(255,255,0);
stroke(200,10)
for(let j=left_x; j<=right_x; j+=cellSize) {
rect(j, y, cellSize, cellSize);
}
}
}
/*** END OF TOM'S ADDITONS ***/
for (let x = -gridSize; x < gridSize; x+=cellSize) {
for (let y = -gridSize; y < gridSize; y+=cellSize) {
let lastX = null;
let lastY = null;
if (left_eye_pos[0] > (x - cellSize/2) && left_eye_pos[0] < (x + cellSize/2) && left_eye_pos[1] > (y - cellSize/2) && left_eye_pos[1] < (y + cellSize/2)) {
if (this.eye_type === 1) {
eye1(x,y);
} else {
eye2(x,y);
}
} else if (right_eye_pos[0] > (x - cellSize/2) && right_eye_pos[0] < (x + cellSize/2) && right_eye_pos[1] > (y - cellSize/2) && right_eye_pos[1] < (y + cellSize/2)) {
if (this.eye_type === 1) {
eye1(x,y);
} else {
eye2(x,y);
}
} else if (positions.nose_bridge[0][0] > (x - cellSize/2) && positions.nose_bridge[0][0] < (x + cellSize/2) && positions.nose_bridge[0][1] > (y - cellSize/2) && positions.nose_bridge[0][1] < (y + cellSize/2)) {
noseBridge(x, y);
} else if (positions.nose_bridge[3][0] > (x - cellSize/2) && positions.nose_bridge[3][0] < (x + cellSize/2) && positions.nose_bridge[3][1] > (y - cellSize/2) && positions.nose_bridge[3][1] < (y + cellSize/2)) {
noseTip(x, y)
} else if (top_lip_pos[0] > (x - cellSize/2) && top_lip_pos[0] < (x + cellSize/2) && top_lip_pos[1] > (y - cellSize/2) && top_lip_pos[1] < (y + cellSize/2)) {
mouth(x, y);
} else if (left_eyebrow_pos[0] > (x - cellSize/2) && left_eyebrow_pos[0] < (x + cellSize/2) && left_eyebrow_pos[1] > (y - cellSize/2) && left_eyebrow_pos[1] < (y + cellSize/2)) {
eyebrow(x, y);
} else if (right_eyebrow_pos[0] > (x - cellSize/2) && right_eyebrow_pos[0] < (x + cellSize/2) && right_eyebrow_pos[1] > (y - cellSize/2) && right_eyebrow_pos[1] < (y + cellSize/2)) {
eyebrow(x, y);
} else {
for (let i = 0; i < positions.chin.length; i++) {
if (positions.chin[i][0] > (x - cellSize/2) && positions.chin[i][0] < (x + cellSize/2) && positions.chin[i][1] > (y - cellSize/2) && positions.chin[i][1] < (y + cellSize/2)) {
if (x != lastX && y != lastY) {
fill(255,0,0);
stroke(200,10)
lastX = x;
lastY = y;
rect(x, y, cellSize, cellSize);
}
}
}
}
noFill();
stroke(200,50)
rect(x, y, cellSize, cellSize);
}
}
// print(this.eye_type)
function eye1(x, y) {
fill(255, 0, 0);
beginShape()
vertex(x - cellSize/2, y - cellSize/2);
vertex(x + cellSize/2, y - cellSize/2);
vertex(x + cellSize/2, y + cellSize/2);
vertex(x - cellSize/2, y + cellSize/2);
endShape(CLOSE);
fill(255);
beginShape();
vertex(x - cellSize/2, y);
bezierVertex(x - cellSize/4, y, x - cellSize/4, y + cellSize/4, x, y + cellSize/4);
bezierVertex(x + cellSize/4, y + cellSize/4, x + cellSize/4, y, x + cellSize/2, y);
bezierVertex(x + cellSize/4, y, x + cellSize/4, y - cellSize/4, x, y - cellSize/4);
bezierVertex(x - cellSize/4, y - cellSize/4, x - cellSize/4, y, x - cellSize/2, y);
endShape();
fill(0)
ellipse(x,y,cellSize/4)
}
function eye2(x, y) {
fill(255, 0, 0);
beginShape()
vertex(x - cellSize/2, y - cellSize/2);
vertex(x + cellSize/2, y - cellSize/2);
vertex(x + cellSize/2, y + cellSize/2);
vertex(x - cellSize/2, y + cellSize/2);
endShape(CLOSE);
fill(255);
ellipse(x, y, cellSize)
fill(0)
ellipse(x,y,cellSize/4)
}
function noseBridge(x,y) {
fill(255,0,0)
beginShape();
vertex(x - cellSize/2, y - cellSize/2);
vertex(x + positions.nose_bridge[0][0], y - cellSize/2);
vertex(x + positions.nose_bridge[0][0], y + cellSize/2);
vertex(x - cellSize/2, y + cellSize/2);
endShape(CLOSE);
fill(255);
beginShape();
vertex(x + cellSize/2, y - cellSize/2);
vertex(x + positions.nose_bridge[0][0], y - cellSize/2);
vertex(x + positions.nose_bridge[0][0], y + cellSize/2);
vertex(x + cellSize/2, y + cellSize/2);
endShape(CLOSE);
}
function noseTip(x,y) {
fill(255,0,0)
beginShape();
vertex(x - cellSize/2, y + nose_tip_pos[1]);
vertex(x + cellSize/2, y + nose_tip_pos[1]);
vertex(x + cellSize/2, y + cellSize/2);
vertex(x - cellSize/2, y + cellSize/2);
endShape(CLOSE);
fill(255);
beginShape();
vertex(x - cellSize/2, y + nose_tip_pos[1]);
vertex(x + cellSize/2, y + nose_tip_pos[1]);
vertex(x + cellSize/2, y - cellSize/2);
vertex(x - cellSize/2, y - cellSize/2);
endShape(CLOSE);
}
function mouth(x,y) {
fill(255,0,0)
beginShape();
vertex(x - cellSize/2, y + cellSize/8);
vertex(x + cellSize/2, y + cellSize/8);
vertex(x + cellSize/2, y + cellSize/2);
vertex(x - cellSize/2, y + cellSize/2);
endShape(CLOSE);
fill(255,0,0)
beginShape();
vertex(x - cellSize/2, y - cellSize/8);
vertex(x + cellSize/2, y - cellSize/8);
vertex(x + cellSize/2, y - cellSize/2);
vertex(x - cellSize/2, y - cellSize/2);
endShape(CLOSE);
fill(255)
beginShape();
vertex(x - cellSize/2, y + cellSize/8);
vertex(x - cellSize/2, y - cellSize/8);
vertex(x + cellSize/2, y - cellSize/8);
vertex(x + cellSize/2, y + cellSize/8);
endShape(CLOSE);
}
function eyebrow(x,y) {
fill(255)
beginShape();
vertex(x - cellSize/2, y + cellSize/8);
vertex(x - cellSize/2, y - cellSize/8);
vertex(x + cellSize/2, y - cellSize/8);
vertex(x + cellSize/2, y + cellSize/8);
endShape(CLOSE);
}
}
/* set internal properties based on list numbers 0-100 */
this.setProperties = function(settings) {
this.eye_type = int(map(settings[0], 0, 100, 1, 2));
this.eye_shift = map(settings[1], 0, 100, -2, 2);
this.mouth_value = map(settings[2], 0, 100, 0.5, 8);
}
/* get internal properties as list of numbers 0-100 */
this.getProperties = function() {
let settings = new Array(3);
settings[0] = map(this.eye_type, 1, 2, 0, 100);
settings[1] = map(this.eye_shift, -2, 2, 0, 100);
settings[2] = map(this.mouth_value, 0.5, 8, 0, 100);
return settings;
}
}
Raw
GIFEncoder.js
/**
* This class lets you encode animated GIF files
* Base class : http://www.java2s.com/Code/Java/2D-Graphics-GUI/AnimatedGifEncoder.htm
* @author Kevin Weiner (original Java version - [email protected])
* @author Thibault Imbert (AS3 version - bytearray.org)
* @author Kevin Kwok (JavaScript version - https://github.com/antimatter15/jsgif)
* @version 0.1 AS3 implementation
*/
GIFEncoder = function() {
for (var i = 0, chr = {}; i < 256; i++)
chr[i] = String.fromCharCode(i);
function ByteArray() {
this.bin = [];
}
ByteArray.prototype.getData = function() {
for (var v = '', l = this.bin.length, i = 0; i < l; i++)
v += chr[this.bin[i]];
return v;
};
ByteArray.prototype.writeByte = function(val) {
this.bin.push(val);
};
ByteArray.prototype.writeUTFBytes = function(string) {
for (var l = string.length, i = 0; i < l; i++)
this.writeByte(string.charCodeAt(i));
};
ByteArray.prototype.writeBytes = function(array, offset, length) {
for (var l = length || array.length, i = offset || 0; i < l; i++)
this.writeByte(array[i]);
};
var exports = {};
var width; // image size
var height;
var transparent = null; // transparent color if given
var transIndex; // transparent index in color table
var repeat = -1; // no repeat
var delay = 0; // frame delay (hundredths)
var started = false; // ready to output frames
var out;
var image; // current frame
var pixels; // BGR byte array from frame
var indexedPixels; // converted frame indexed to palette
var colorDepth; // number of bit planes
var colorTab; // RGB palette
var usedEntry = []; // active palette entries
var palSize = 7; // color table size (bits-1)
var dispose = -1; // disposal code (-1 = use default)
var closeStream = false; // close stream when finished
var firstFrame = true;
var sizeSet = false; // if false, get size from first frame
var sample = 10; // default sample interval for quantizer
var comment = "Generated by jsgif (https://github.com/antimatter15/jsgif/)"; // default comment for generated gif
/**
* Sets the delay time between each frame, or changes it for subsequent frames
* (applies to last frame added)
* int delay time in milliseconds
* @param ms
*/
var setDelay = exports.setDelay = function setDelay(ms) {
delay = Math.round(ms / 10);
};
/**
* Sets the GIF frame disposal code for the last added frame and any
*
* subsequent frames. Default is 0 if no transparent color has been set,
* otherwise 2.
* @param code
* int disposal code.
*/
var setDispose = exports.setDispose = function setDispose(code) {
if (code >= 0) dispose = code;
};
/**
* Sets the number of times the set of GIF frames should be played. Default is
* 1; 0 means play indefinitely. Must be invoked before the first image is
* added.
*
* @param iter
* int number of iterations.
* @return
*/
var setRepeat = exports.setRepeat = function setRepeat(iter) {
if (iter >= 0) repeat = iter;
};
/**
* Sets the transparent color for the last added frame and any subsequent
* frames. Since all colors are subject to modification in the quantization
* process, the color in the final palette for each frame closest to the given
* color becomes the transparent color for that frame. May be set to null to
* indicate no transparent color.
* @param
* Color to be treated as transparent on display.
*/
var setTransparent = exports.setTransparent = function setTransparent(c) {
transparent = c;
};
/**
* Sets the comment for the block comment
* @param
* string to be insterted as comment
*/
var setComment = exports.setComment = function setComment(c) {
comment = c;
};
/**
* The addFrame method takes an incoming BitmapData object to create each frames
* @param
* BitmapData object to be treated as a GIF's frame
*/
var addFrame = exports.addFrame = function addFrame(im, is_imageData) {
if ((im === null) || !started || out === null) {
throw new Error("Please call start method before calling addFrame");
}
var ok = true;
try {
if (!is_imageData) {
image = im.getImageData(0, 0, im.canvas.width, im.canvas.height).data;
if (!sizeSet) setSize(im.canvas.width, im.canvas.height);
} else {
if(im instanceof ImageData) {
image = im.data;
if(!sizeset || width!=im.width || height!=im.height) {
setSize(im.width,im.height);
} else {
}
} else if(im instanceof Uint8ClampedArray) {
if(im.length==(width*height*4)) {
image=im;
} else {
console.log("Please set the correct size: ImageData length mismatch");
ok=false;
}
} else {
console.log("Please provide correct input");
ok=false;
}
}
getImagePixels(); // convert to correct format if necessary
analyzePixels(); // build color table & map pixels
if (firstFrame) {
writeLSD(); // logical screen descriptior
writePalette(); // global color table
if (repeat >= 0) {
// use NS app extension to indicate reps
writeNetscapeExt();
}
}
writeGraphicCtrlExt(); // write graphic control extension
if (comment !== '') {
writeCommentExt(); // write comment extension
}
writeImageDesc(); // image descriptor
if (!firstFrame) writePalette(); // local color table
writePixels(); // encode and write pixel data
firstFrame = false;
} catch (e) {
ok = false;
}
return ok;
};
/**
* @description: Downloads the encoded gif with the given name
* No need of any conversion from the stream data (out) to base64
* Solves the issue of large file sizes when there are more frames
* and does not involve in creation of any temporary data in the process
* so no wastage of memory, and speeds up the process of downloading
* to just calling this function.
* @parameter {String} filename filename used for downloading the gif
*/
var download = exports.download = function download(filename) {
if(out===null || closeStream==false) {
console.log("Please call start method and add frames and call finish method before calling download");
} else {
filename= filename !== undefined ? ( filename.endsWith(".gif")? filename: filename+".gif" ): "download.gif";
var templink = document.createElement("a");
templink.download=filename;
templink.href= URL.createObjectURL(new Blob([new Uint8Array(out.bin)], {type : "image/gif" } ));
templink.click();
}
}
/**
* Adds final trailer to the GIF stream, if you don't call the finish method
* the GIF stream will not be valid.
*/
var finish = exports.finish = function finish() {
if (!started) return false;
var ok = true;
started = false;
try {
out.writeByte(0x3b); // gif trailer
closeStream=true;
} catch (e) {
ok = false;
}
return ok;
};
/**
* Resets some members so that a new stream can be started.
* This method is actually called by the start method
*/
var reset = function reset() {
// reset for subsequent use
transIndex = 0;
image = null;
pixels = null;
indexedPixels = null;
colorTab = null;
closeStream = false;
firstFrame = true;
};
/**
* * Sets frame rate in frames per second. Equivalent to
* <code>setDelay(1000/fps)</code>.
* @param fps
* float frame rate (frames per second)
*/
var setFrameRate = exports.setFrameRate = function setFrameRate(fps) {
if (fps != 0xf) delay = Math.round(100 / fps);
};
/**
* Sets quality of color quantization (conversion of images to the maximum 256
* colors allowed by the GIF specification). Lower values (minimum = 1)
* produce better colors, but slow processing significantly. 10 is the
* default, and produces good color mapping at reasonable speeds. Values
* greater than 20 do not yield significant improvements in speed.
* @param quality
* int greater than 0.
* @return
*/
var setQuality = exports.setQuality = function setQuality(quality) {
if (quality < 1) quality = 1;
sample = quality;
};
/**
* Sets the GIF frame size. The default size is the size of the first frame
* added if this method is not invoked.
* @param w
* int frame width.
* @param h
* int frame width.
*/
var setSize = exports.setSize = function setSize(w, h) {
if (started && !firstFrame) return;
width = w;
height = h;
if (width < 1) width = 320;
if (height < 1) height = 240;
sizeSet = true;
};
/**
* Initiates GIF file creation on the given stream.
* @param os
* OutputStream on which GIF images are written.
* @return false if initial write failed.
*/
var start = exports.start = function start() {
reset();
var ok = true;
closeStream = false;
out = new ByteArray();
try {
out.writeUTFBytes("GIF89a"); // header
} catch (e) {
ok = false;
}
return started = ok;
};
var cont = exports.cont = function cont() {
reset();
var ok = true;
closeStream = false;
out = new ByteArray();
return started = ok;
};
/**
* Analyzes image colors and creates color map.
*/
var analyzePixels = function analyzePixels() {
var len = pixels.length;
var nPix = len / 3;
indexedPixels = [];
var nq = new NeuQuant(pixels, len, sample);
// initialize quantizer
colorTab = nq.process(); // create reduced palette
// map image pixels to new palette
var k = 0;
for (var j = 0; j < nPix; j++) {
var index = nq.map(pixels[k++] & 0xff, pixels[k++] & 0xff, pixels[k++] & 0xff);
usedEntry[index] = true;
indexedPixels[j] = index;
}
pixels = null;
colorDepth = 8;
palSize = 7;
// get closest match to transparent color if specified
if (transparent !== null) {
transIndex = findClosest(transparent);
}
};
/**
* Returns index of palette color closest to c
*/
var findClosest = function findClosest(c) {
if (colorTab === null) return -1;
var r = (c & 0xFF0000) >> 16;
var g = (c & 0x00FF00) >> 8;
var b = (c & 0x0000FF);
var minpos = 0;
var dmin = 256 * 256 * 256;
var len = colorTab.length;
for (var i = 0; i < len;) {
var dr = r - (colorTab[i++] & 0xff);
var dg = g - (colorTab[i++] & 0xff);
var db = b - (colorTab[i] & 0xff);
var d = dr * dr + dg * dg + db * db;
var index = i / 3;
if (usedEntry[index] && (d < dmin)) {
dmin = d;
minpos = index;
}
i++;
}
return minpos;
};
/**
* Extracts image pixels into byte array "pixels
*/
var getImagePixels = function getImagePixels() {
var w = width;
var h = height;
pixels = [];
var data = image;
var count = 0;
for (var i = 0; i < h; i++) {
for (var j = 0; j < w; j++) {
var b = (i * w * 4) + j * 4;
pixels[count++] = data[b];
pixels[count++] = data[b + 1];
pixels[count++] = data[b + 2];
}
}
};
/**
* Writes Graphic Control Extension
*/
var writeGraphicCtrlExt = function writeGraphicCtrlExt() {
out.writeByte(0x21); // extension introducer
out.writeByte(0xf9); // GCE label
out.writeByte(4); // data block size
var transp;
var disp;
if (transparent === null) {
transp = 0;
disp = 0; // dispose = no action
} else {
transp = 1;
disp = 2; // force clear if using transparent color
}
if (dispose >= 0) {
disp = dispose & 7; // user override
}
disp <<= 2;
// packed fields
out.writeByte(0 | // 1:3 reserved
disp | // 4:6 disposal
0 | // 7 user input - 0 = none
transp); // 8 transparency flag
WriteShort(delay); // delay x 1/100 sec
out.writeByte(transIndex); // transparent color index
out.writeByte(0); // block terminator
};
/**
* Writes Comment Extention
*/
var writeCommentExt = function writeCommentExt() {
out.writeByte(0x21); // extension introducer
out.writeByte(0xfe); // comment label
out.writeByte(comment.length); // Block Size (s)
out.writeUTFBytes(comment);
out.writeByte(0); // block terminator
};
/**
* Writes Image Descriptor
*/
var writeImageDesc = function writeImageDesc() {
out.writeByte(0x2c); // image separator
WriteShort(0); // image position x,y = 0,0
WriteShort(0);
WriteShort(width); // image size
WriteShort(height);
// packed fields
if (firstFrame) {
// no LCT - GCT is used for first (or only) frame
out.writeByte(0);
} else {
// specify normal LCT
out.writeByte(0x80 | // 1 local color table 1=yes
0 | // 2 interlace - 0=no
0 | // 3 sorted - 0=no
0 | // 4-5 reserved
palSize); // 6-8 size of color table
}
};
/**
* Writes Logical Screen Descriptor
*/
var writeLSD = function writeLSD() {
// logical screen size
WriteShort(width);
WriteShort(height);
// packed fields
out.writeByte((0x80 | // 1 : global color table flag = 1 (gct used)
0x70 | // 2-4 : color resolution = 7
0x00 | // 5 : gct sort flag = 0
palSize)); // 6-8 : gct size
out.writeByte(0); // background color index
out.writeByte(0); // pixel aspect ratio - assume 1:1
};
/**
* Writes Netscape application extension to define repeat count.
*/
var writeNetscapeExt = function writeNetscapeExt() {
out.writeByte(0x21); // extension introducer
out.writeByte(0xff); // app extension label
out.writeByte(11); // block size
out.writeUTFBytes("NETSCAPE" + "2.0"); // app id + auth code
out.writeByte(3); // sub-block size
out.writeByte(1); // loop sub-block id
WriteShort(repeat); // loop count (extra iterations, 0=repeat forever)
out.writeByte(0); // block terminator
};
/**
* Writes color table
*/
var writePalette = function writePalette() {
out.writeBytes(colorTab);
var n = (3 * 256) - colorTab.length;
for (var i = 0; i < n; i++) out.writeByte(0);
};
var WriteShort = function WriteShort(pValue) {
out.writeByte(pValue & 0xFF);
out.writeByte((pValue >> 8) & 0xFF);
};
/**
* Encodes and writes pixel data
*/
var writePixels = function writePixels() {
var myencoder = new LZWEncoder(width, height, indexedPixels, colorDepth);
myencoder.encode(out);
};
/**
* Retrieves the GIF stream
*/
var stream = exports.stream = function stream() {
return out;
};
var setProperties = exports.setProperties = function setProperties(has_start, is_first) {
started = has_start;
firstFrame = is_first;
};
return exports;
};
Raw
index.html
<head>
<script src="https://cdnjs.cloudflare.com/ajax/libs/p5.js/1.4.0/p5.js"></script>
<script src="https://cdnjs.cloudflare.com/ajax/libs/seedrandom/2.4.3/seedrandom.min.js"></script>
<script src="https://d3js.org/d3-random.v1.min.js"></script>
<script language="javascript" type="text/javascript" src="p5.func.js"></script>
<script type="text/javascript" src="LZWEncoder.js"></script>
<script type="text/javascript" src="NeuQuant.js"></script>
<script type="text/javascript" src="GIFEncoder.js"></script>
<script type="text/javascript" src="b64.js"></script>
<script type="text/javascript" src="z_recorder.js"></script>
<script language="javascript" type="text/javascript" src="simplex-noise.js"></script>
<script language="javascript" type="text/javascript" src="canvas_size.js"></script>
<script language="javascript" type="text/javascript" src="draw_one_frame.js"></script>
<script src="z_clmtrackr.js"></script>
<script src="z_model_pca_20_svm.js"></script>
<script language="javascript" type="text/javascript" src="z_purview_helper.js"></script>
<script language="javascript" type="text/javascript" src="z_focused_random.js"></script>
<script language="javascript" type="text/javascript" src="z_face_system.js"></script>
<script language="javascript" type="text/javascript" src="z_kdTree.js"></script>
<script language="javascript" type="text/javascript" src="z_face-api.js"></script>
<script language="javascript" type="text/javascript" src="z_training_images.js"></script>
<script language="javascript" type="text/javascript" src="z_testing_images.js"></script>
<script language="javascript" type="text/javascript" src="face.js"></script>
<script language="javascript" type="text/javascript" src="system_runner.js"></script>
<style>
body { padding: 0; margin: 0; }
.inner { position: absolute; }
#controls {
font: 300 12px "Helvetica Neue";
padding: 5;
margin: 5;
background: #f0f0f0;
opacity: 0.0;
-webkit-transition: opacity 0.2s ease;
-moz-transition: opacity 0.2s ease;
-o-transition: opacity 0.2s ease;
-ms-transition: opacity 0.2s ease;
}
#controls:hover { opacity: 0.9; }
</style>
</head>
<body style="background-color:white">
<div class="outer">
<div class="inner" id="controls" height="500">
<table>
<tr>
<td>setting 1</td>
<td id="slider1Container"></td>
</tr>
<tr>
<td>setting 2</td>
<td id="slider2Container"></td>
</tr>
<tr>
<td>setting 3</td>
<td id="slider3Container"></td>
</tr>
<tr>
<td>setting 4</td>
<td id="slider4Container"></td>
</tr>
<tr>
<td>setting 5</td>
<td id="slider5Container"></td>
</tr>
<tr>
<td>setting 6</td>
<td id="slider6Container"></td>
</tr>
<tr>
<td>setting 7</td>
<td id="slider7Container"></td>
</tr>
<tr>
<td>setting 8</td>
<td id="slider8Container"></td>
</tr>
<!-- YOU CAN ADD MORE SLIDERS HERE, LIKE THIS
<tr>
<td>setting 9</td>
<td id="slider9Container"></td>
</tr>
<tr>
<td>setting 10</td>
<td id="slider10Container"></td>
</tr>
<tr>
<td>setting 11</td>
<td id="slider11Container"></td>
</tr>
<tr>
<td>setting 12</td>
<td id="slider12Container"></td>
</tr>
... AND KEEP GOING
-->
<tr>
</tr>
<tr>
<td>show target</td>
<td id="sliderTintContainer"></td>
</tr>
<tr>
<td>Draw function</td>
<td id="selector1Container"></td>
</tr>
<tr>
<td>Face Draw</td>
<td id="checkbox1Container"></td>
</tr>
<tr>
<td>Face Targets</td>
<td id="checkbox2Container"></td>
</tr>
<tr>
<td>Face Points</td>
<td id="checkbox3Container"></td>
</tr>
<tr>
<td></td>
<td id="button1Container"></td>
</tr>
<tr>
<td></td>
<td id="button2Container"></td>
</tr>
<tr>
<td></td>
<td id="button3Container"></td>
</tr>
<tr>
<td></td>
<td id="button4Container"></td>
</tr>
</table>
</div>
<div>
<div id="canvasContainer"></div>
<a href="face.js">face code</a><br>
<a href="sketch.html">sketches</a>
</div>
</div>
<pre>
<p id="output">
</p>
</pre>
</body>
Raw
LZWEncoder.js
/**
* This class handles LZW encoding
* Adapted from Jef Poskanzer's Java port by way of J. M. G. Elliott.
* @author Kevin Weiner (original Java version - [email protected])
* @author Thibault Imbert (AS3 version - bytearray.org)
* @author Kevin Kwok (JavaScript version - https://github.com/antimatter15/jsgif)
* @version 0.1 AS3 implementation
*/
LZWEncoder = function() {
var exports = {};
var EOF = -1;
var imgW;
var imgH;
var pixAry;
var initCodeSize;
var remaining;
var curPixel;
// GIFCOMPR.C - GIF Image compression routines
// Lempel-Ziv compression based on 'compress'. GIF modifications by
// David Rowley ([email protected])
// General DEFINEs
var BITS = 12;
var HSIZE = 5003; // 80% occupancy
// GIF Image compression - modified 'compress'
// Based on: compress.c - File compression ala IEEE Computer, June 1984.
// By Authors: Spencer W. Thomas (decvax!harpo!utah-cs!utah-gr!thomas)
// Jim McKie (decvax!mcvax!jim)
// Steve Davies (decvax!vax135!petsd!peora!srd)
// Ken Turkowski (decvax!decwrl!turtlevax!ken)
// James A. Woods (decvax!ihnp4!ames!jaw)
// Joe Orost (decvax!vax135!petsd!joe)
var n_bits; // number of bits/code
var maxbits = BITS; // user settable max # bits/code
var maxcode; // maximum code, given n_bits
var maxmaxcode = 1 << BITS; // should NEVER generate this code
var htab = [];
var codetab = [];
var hsize = HSIZE; // for dynamic table sizing
var free_ent = 0; // first unused entry
// block compression parameters -- after all codes are used up,
// and compression rate changes, start over.
var clear_flg = false;
// Algorithm: use open addressing double hashing (no chaining) on the
// prefix code / next character combination. We do a variant of Knuth's
// algorithm D (vol. 3, sec. 6.4) along with G. Knott's relatively-prime
// secondary probe. Here, the modular division first probe is gives way
// to a faster exclusive-or manipulation. Also do block compression with
// an adaptive reset, whereby the code table is cleared when the compression
// ratio decreases, but after the table fills. The variable-length output
// codes are re-sized at this point, and a special CLEAR code is generated
// for the decompressor. Late addition: construct the table according to
// file size for noticeable speed improvement on small files. Please direct
// questions about this implementation to ames!jaw.
var g_init_bits;
var ClearCode;
var EOFCode;
// output
// Output the given code.
// Inputs:
// code: A n_bits-bit integer. If == -1, then EOF. This assumes
// that n_bits =< wordsize - 1.
// Outputs:
// Outputs code to the file.
// Assumptions:
// Chars are 8 bits long.
// Algorithm:
// Maintain a BITS character long buffer (so that 8 codes will
// fit in it exactly). Use the VAX insv instruction to insert each
// code in turn. When the buffer fills up empty it and start over.
var cur_accum = 0;
var cur_bits = 0;
var masks = [0x0000, 0x0001, 0x0003, 0x0007, 0x000F, 0x001F, 0x003F, 0x007F, 0x00FF, 0x01FF, 0x03FF, 0x07FF, 0x0FFF, 0x1FFF, 0x3FFF, 0x7FFF, 0xFFFF];
// Number of characters so far in this 'packet'
var a_count;
// Define the storage for the packet accumulator
var accum = [];
var LZWEncoder = exports.LZWEncoder = function LZWEncoder(width, height, pixels, color_depth) {
imgW = width;
imgH = height;
pixAry = pixels;
initCodeSize = Math.max(2, color_depth);
};
// Add a character to the end of the current packet, and if it is 254
// characters, flush the packet to disk.
var char_out = function char_out(c, outs) {
accum[a_count++] = c;
if (a_count >= 254) flush_char(outs);
};
// Clear out the hash table
// table clear for block compress
var cl_block = function cl_block(outs) {
cl_hash(hsize);
free_ent = ClearCode + 2;
clear_flg = true;
output(ClearCode, outs);
};
// reset code table
var cl_hash = function cl_hash(hsize) {
for (var i = 0; i < hsize; ++i) htab[i] = -1;
};
var compress = exports.compress = function compress(init_bits, outs) {
var fcode;
var i; /* = 0 */
var c;
var ent;
var disp;
var hsize_reg;
var hshift;
// Set up the globals: g_init_bits - initial number of bits
g_init_bits = init_bits;
// Set up the necessary values
clear_flg = false;
n_bits = g_init_bits;
maxcode = MAXCODE(n_bits);
ClearCode = 1 << (init_bits - 1);
EOFCode = ClearCode + 1;
free_ent = ClearCode + 2;
a_count = 0; // clear packet
ent = nextPixel();
hshift = 0;
for (fcode = hsize; fcode < 65536; fcode *= 2)
++hshift;
hshift = 8 - hshift; // set hash code range bound
hsize_reg = hsize;
cl_hash(hsize_reg); // clear hash table
output(ClearCode, outs);
outer_loop: while ((c = nextPixel()) != EOF) {
fcode = (c << maxbits) + ent;
i = (c << hshift) ^ ent; // xor hashing
if (htab[i] == fcode) {
ent = codetab[i];
continue;
}
else if (htab[i] >= 0) { // non-empty slot
disp = hsize_reg - i; // secondary hash (after G. Knott)
if (i === 0) disp = 1;
do {
if ((i -= disp) < 0)
i += hsize_reg;
if (htab[i] == fcode) {
ent = codetab[i];
continue outer_loop;
}
} while (htab[i] >= 0);
}
output(ent, outs);
ent = c;
if (free_ent < maxmaxcode) {
codetab[i] = free_ent++; // code -> hashtable
htab[i] = fcode;
}
else cl_block(outs);
}
// Put out the final code.
output(ent, outs);
output(EOFCode, outs);
};
// ----------------------------------------------------------------------------
var encode = exports.encode = function encode(os) {
os.writeByte(initCodeSize); // write "initial code size" byte
remaining = imgW * imgH; // reset navigation variables
curPixel = 0;
compress(initCodeSize + 1, os); // compress and write the pixel data
os.writeByte(0); // write block terminator
};
// Flush the packet to disk, and reset the accumulator
var flush_char = function flush_char(outs) {
if (a_count > 0) {
outs.writeByte(a_count);
outs.writeBytes(accum, 0, a_count);
a_count = 0;
}
};
var MAXCODE = function MAXCODE(n_bits) {
return (1 << n_bits) - 1;
};
// ----------------------------------------------------------------------------
// Return the next pixel from the image
// ----------------------------------------------------------------------------
var nextPixel = function nextPixel() {
if (remaining === 0) return EOF;
--remaining;
var pix = pixAry[curPixel++];
return pix & 0xff;
};
var output = function output(code, outs) {
cur_accum &= masks[cur_bits];
if (cur_bits > 0) cur_accum |= (code << cur_bits);
else cur_accum = code;
cur_bits += n_bits;
while (cur_bits >= 8) {
char_out((cur_accum & 0xff), outs);
cur_accum >>= 8;
cur_bits -= 8;
}
// If the next entry is going to be too big for the code size,
// then increase it, if possible.
if (free_ent > maxcode || clear_flg) {
if (clear_flg) {
maxcode = MAXCODE(n_bits = g_init_bits);
clear_flg = false;
} else {
++n_bits;
if (n_bits == maxbits) maxcode = maxmaxcode;
else maxcode = MAXCODE(n_bits);
}
}
if (code == EOFCode) {
// At EOF, write the rest of the buffer.
while (cur_bits > 0) {
char_out((cur_accum & 0xff), outs);
cur_accum >>= 8;
cur_bits -= 8;
}
flush_char(outs);
}
};
LZWEncoder.apply(this, arguments);
return exports;
};
Raw
NeuQuant.js
/*
* NeuQuant Neural-Net Quantization Algorithm
* ------------------------------------------
*
* Copyright (c) 1994 Anthony Dekker
*
* NEUQUANT Neural-Net quantization algorithm by Anthony Dekker, 1994. See
* "Kohonen neural networks for optimal colour quantization" in "Network:
* Computation in Neural Systems" Vol. 5 (1994) pp 351-367. for a discussion of
* the algorithm.
*
* Any party obtaining a copy of these files from the author, directly or
* indirectly, is granted, free of charge, a full and unrestricted irrevocable,
* world-wide, paid up, royalty-free, nonexclusive right and license to deal in
* this software and documentation files (the "Software"), including without
* limitation the rights to use, copy, modify, merge, publish, distribute,
* sublicense, and/or sell copies of the Software, and to permit persons who
* receive copies from any such party to do so, with the only requirement being
* that this copyright notice remain intact.
*/
/*
* This class handles Neural-Net quantization algorithm
* @author Kevin Weiner (original Java version - [email protected])
* @author Thibault Imbert (AS3 version - bytearray.org)
* @author Kevin Kwok (JavaScript version - https://github.com/antimatter15/jsgif)
* @version 0.1 AS3 implementation
*/
NeuQuant = function() {
var exports = {};
var netsize = 256; /* number of colours used */
/* four primes near 500 - assume no image has a length so large */
/* that it is divisible by all four primes */
var prime1 = 499;
var prime2 = 491;
var prime3 = 487;
var prime4 = 503;
var minpicturebytes = (3 * prime4); /* minimum size for input image */
/*
* Program Skeleton ---------------- [select samplefac in range 1..30] [read
* image from input file] pic = (unsigned char*) malloc(3*width*height);
* initnet(pic,3*width*height,samplefac); learn(); unbiasnet(); [write output
* image header, using writecolourmap(f)] inxbuild(); write output image using
* inxsearch(b,g,r)
*/
/*
* Network Definitions -------------------
*/
var maxnetpos = (netsize - 1);
var netbiasshift = 4; /* bias for colour values */
var ncycles = 100; /* no. of learning cycles */
/* defs for freq and bias */
var intbiasshift = 16; /* bias for fractions */
var intbias = (1 << intbiasshift);
var gammashift = 10; /* gamma = 1024 */
var gamma = (1 << gammashift);
var betashift = 10;
var beta = (intbias >> betashift); /* beta = 1/1024 */
var betagamma = (intbias << (gammashift - betashift));
/* defs for decreasing radius factor */
var initrad = (netsize >> 3); /* for 256 cols, radius starts */
var radiusbiasshift = 6; /* at 32.0 biased by 6 bits */
var radiusbias = (1 << radiusbiasshift);
var initradius = (initrad * radiusbias); /* and decreases by a */
var radiusdec = 30; /* factor of 1/30 each cycle */
/* defs for decreasing alpha factor */
var alphabiasshift = 10; /* alpha starts at 1.0 */
var initalpha = (1 << alphabiasshift);
var alphadec; /* biased by 10 bits */
/* radbias and alpharadbias used for radpower calculation */
var radbiasshift = 8;
var radbias = (1 << radbiasshift);
var alpharadbshift = (alphabiasshift + radbiasshift);
var alpharadbias = (1 << alpharadbshift);
/*
* Types and Global Variables --------------------------
*/
var thepicture; /* the input image itself */
var lengthcount; /* lengthcount = H*W*3 */
var samplefac; /* sampling factor 1..30 */
// typedef int pixel[4]; /* BGRc */
var network; /* the network itself - [netsize][4] */
var netindex = [];
/* for network lookup - really 256 */
var bias = [];
/* bias and freq arrays for learning */
var freq = [];
var radpower = [];
var NeuQuant = exports.NeuQuant = function NeuQuant(thepic, len, sample) {
var i;
var p;
thepicture = thepic;
lengthcount = len;
samplefac = sample;
network = new Array(netsize);
for (i = 0; i < netsize; i++) {
network[i] = new Array(4);
p = network[i];
p[0] = p[1] = p[2] = (i << (netbiasshift + 8)) / netsize;
freq[i] = intbias / netsize; /* 1/netsize */
bias[i] = 0;
}
};
var colorMap = function colorMap() {
var map = [];
var index = new Array(netsize);
for (var i = 0; i < netsize; i++)
index[network[i][3]] = i;
var k = 0;
for (var l = 0; l < netsize; l++) {
var j = index[l];
map[k++] = (network[j][0]);
map[k++] = (network[j][1]);
map[k++] = (network[j][2]);
}
return map;
};
/*
* Insertion sort of network and building of netindex[0..255] (to do after
* unbias)
* -------------------------------------------------------------------------------
*/
var inxbuild = function inxbuild() {
var i;
var j;
var smallpos;
var smallval;
var p;
var q;
var previouscol;
var startpos;
previouscol = 0;
startpos = 0;
for (i = 0; i < netsize; i++) {
p = network[i];
smallpos = i;
smallval = p[1]; /* index on g */
/* find smallest in i..netsize-1 */
for (j = i + 1; j < netsize; j++) {
q = network[j];
if (q[1] < smallval) { /* index on g */
smallpos = j;
smallval = q[1]; /* index on g */
}
}
q = network[smallpos];
/* swap p (i) and q (smallpos) entries */
if (i != smallpos) {
j = q[0];
q[0] = p[0];
p[0] = j;
j = q[1];
q[1] = p[1];
p[1] = j;
j = q[2];
q[2] = p[2];
p[2] = j;
j = q[3];
q[3] = p[3];
p[3] = j;
}
/* smallval entry is now in position i */
if (smallval != previouscol) {
netindex[previouscol] = (startpos + i) >> 1;
for (j = previouscol + 1; j < smallval; j++) netindex[j] = i;
previouscol = smallval;
startpos = i;
}
}
netindex[previouscol] = (startpos + maxnetpos) >> 1;
for (j = previouscol + 1; j < 256; j++) netindex[j] = maxnetpos; /* really 256 */
};
/*
* Main Learning Loop ------------------
*/
var learn = function learn() {
var i;
var j;
var b;
var g;
var r;
var radius;
var rad;
var alpha;
var step;
var delta;
var samplepixels;
var p;
var pix;
var lim;
if (lengthcount < minpicturebytes) samplefac = 1;
alphadec = 30 + ((samplefac - 1) / 3);
p = thepicture;
pix = 0;
lim = lengthcount;
samplepixels = lengthcount / (3 * samplefac);
delta = (samplepixels / ncycles) | 0;
alpha = initalpha;
radius = initradius;
rad = radius >> radiusbiasshift;
if (rad <= 1) rad = 0;
for (i = 0; i < rad; i++) radpower[i] = alpha * (((rad * rad - i * i) * radbias) / (rad * rad));
if (lengthcount < minpicturebytes) step = 3;
else if ((lengthcount % prime1) !== 0) step = 3 * prime1;
else {
if ((lengthcount % prime2) !== 0) step = 3 * prime2;
else {
if ((lengthcount % prime3) !== 0) step = 3 * prime3;
else step = 3 * prime4;
}
}
i = 0;
while (i < samplepixels) {
b = (p[pix + 0] & 0xff) << netbiasshift;
g = (p[pix + 1] & 0xff) << netbiasshift;
r = (p[pix + 2] & 0xff) << netbiasshift;
j = contest(b, g, r);
altersingle(alpha, j, b, g, r);
if (rad !== 0) alterneigh(rad, j, b, g, r); /* alter neighbours */
pix += step;
if (pix >= lim) pix -= lengthcount;
i++;
if (delta === 0) delta = 1;
if (i % delta === 0) {
alpha -= alpha / alphadec;
radius -= radius / radiusdec;
rad = radius >> radiusbiasshift;
if (rad <= 1) rad = 0;
for (j = 0; j < rad; j++) radpower[j] = alpha * (((rad * rad - j * j) * radbias) / (rad * rad));
}
}
};
/*
** Search for BGR values 0..255 (after net is unbiased) and return colour
* index
* ----------------------------------------------------------------------------
*/
var map = exports.map = function map(b, g, r) {
var i;
var j;
var dist;
var a;
var bestd;
var p;
var best;
bestd = 1000; /* biggest possible dist is 256*3 */
best = -1;
i = netindex[g]; /* index on g */
j = i - 1; /* start at netindex[g] and work outwards */
while ((i < netsize) || (j >= 0)) {
if (i < netsize) {
p = network[i];
dist = p[1] - g; /* inx key */
if (dist >= bestd) i = netsize; /* stop iter */
else {
i++;
if (dist < 0) dist = -dist;
a = p[0] - b;
if (a < 0) a = -a;
dist += a;
if (dist < bestd) {
a = p[2] - r;
if (a < 0) a = -a;
dist += a;
if (dist < bestd) {
bestd = dist;
best = p[3];
}
}
}
}
if (j >= 0) {
p = network[j];
dist = g - p[1]; /* inx key - reverse dif */
if (dist >= bestd) j = -1; /* stop iter */
else {
j--;
if (dist < 0) dist = -dist;
a = p[0] - b;
if (a < 0) a = -a;
dist += a;
if (dist < bestd) {
a = p[2] - r;
if (a < 0) a = -a;
dist += a;
if (dist < bestd) {
bestd = dist;
best = p[3];
}
}
}
}
}
return (best);
};
var process = exports.process = function process() {
learn();
unbiasnet();
inxbuild();
return colorMap();
};
/*
* Unbias network to give byte values 0..255 and record position i to prepare
* for sort
* -----------------------------------------------------------------------------------
*/
var unbiasnet = function unbiasnet() {
var i;
var j;
for (i = 0; i < netsize; i++) {
network[i][0] >>= netbiasshift;
network[i][1] >>= netbiasshift;
network[i][2] >>= netbiasshift;
network[i][3] = i; /* record colour no */
}
};
/*
* Move adjacent neurons by precomputed alpha*(1-((i-j)^2/[r]^2)) in
* radpower[|i-j|]
* ---------------------------------------------------------------------------------
*/
var alterneigh = function alterneigh(rad, i, b, g, r) {
var j;
var k;
var lo;
var hi;
var a;
var m;
var p;
lo = i - rad;
if (lo < -1) lo = -1;
hi = i + rad;
if (hi > netsize) hi = netsize;
j = i + 1;
k = i - 1;
m = 1;
while ((j < hi) || (k > lo)) {
a = radpower[m++];
if (j < hi) {
p = network[j++];
try {
p[0] -= (a * (p[0] - b)) / alpharadbias;
p[1] -= (a * (p[1] - g)) / alpharadbias;
p[2] -= (a * (p[2] - r)) / alpharadbias;
} catch (e) {} // prevents 1.3 miscompilation
}
if (k > lo) {
p = network[k--];
try {
p[0] -= (a * (p[0] - b)) / alpharadbias;
p[1] -= (a * (p[1] - g)) / alpharadbias;
p[2] -= (a * (p[2] - r)) / alpharadbias;
} catch (e) {}
}
}
};
/*
* Move neuron i towards biased (b,g,r) by factor alpha
* ----------------------------------------------------
*/
var altersingle = function altersingle(alpha, i, b, g, r) {
/* alter hit neuron */
var n = network[i];
n[0] -= (alpha * (n[0] - b)) / initalpha;
n[1] -= (alpha * (n[1] - g)) / initalpha;
n[2] -= (alpha * (n[2] - r)) / initalpha;
};
/*
* Search for biased BGR values ----------------------------
*/
var contest = function contest(b, g, r) {
/* finds closest neuron (min dist) and updates freq */
/* finds best neuron (min dist-bias) and returns position */
/* for frequently chosen neurons, freq[i] is high and bias[i] is negative */
/* bias[i] = gamma*((1/netsize)-freq[i]) */
var i;
var dist;
var a;
var biasdist;
var betafreq;
var bestpos;
var bestbiaspos;
var bestd;
var bestbiasd;
var n;
bestd = ~ (1 << 31);
bestbiasd = bestd;
bestpos = -1;
bestbiaspos = bestpos;
for (i = 0; i < netsize; i++) {
n = network[i];
dist = n[0] - b;
if (dist < 0) dist = -dist;
a = n[1] - g;
if (a < 0) a = -a;
dist += a;
a = n[2] - r;
if (a < 0) a = -a;
dist += a;
if (dist < bestd) {
bestd = dist;
bestpos = i;
}
biasdist = dist - ((bias[i]) >> (intbiasshift - netbiasshift));
if (biasdist < bestbiasd) {
bestbiasd = biasdist;
bestbiaspos = i;
}
betafreq = (freq[i] >> betashift);
freq[i] -= betafreq;
bias[i] += (betafreq << gammashift);
}
freq[bestpos] += beta;
bias[bestpos] -= betagamma;
return (bestbiaspos);
};
NeuQuant.apply(this, arguments);
return exports;
};
Raw
p5.func.js
/*! p5.func.js v0.0.1 2017-05-27 */
/**
* @module p5.func
* @submodule p5.func
* @for p5.func
* @main
*/
/**
* p5.func
* R. Luke DuBois ([email protected])
* Integrated Digital Media / Brooklyn Experimental Media Center
* New York University
* The MIT License (MIT).
*
* https://github.com/IDMNYU/p5.js-func
*
* the p5.func module contains five new objects for extending p5.js :
* p5.Gen() : function generators (waveforms, curves, window functions, noise, etc.)
* p5.Ease() : easing / interpolation functions
* p5.ArrayEval() : equation evaluator to generate pre-computed arrays
* p5.Filt() : biquadratic filter object
* p5.FastFourierTransform() : signal neutral FFT implementation
*
* p5.func also contains some miscellaneous functions:
* imap() : constrainted integer mapping function
* wrap() : wrapping function
* fold() : folding function
* createArray()/normalizeArray()/resizeArray()/multiplyArray()/addArray()/subtractArray()/divideArray()/moduloArray()/sumArray() : array functions
* f2ib() / ib2f() : int<->float coercion with bit parity
* sinc() : sinc (sinus cardinalis) function
* besselI0() : Bessel function
* fplot() : formattable console plot of any array
*
* primary sources:
* RTcmix Scorefile Commands: http://rtcmix.org/reference/scorefile/
* Robert Penner's Easing Functions: http://robertpenner.com/easing/
* Golan Levin's Pattern Master: https://github.com/golanlevin/Pattern_Master
* Robert Bristow-Johnson's Audio EQ Cookbook: http://www.musicdsp.org/files/Audio-EQ-Cookbook.txt
* Corban Brook's dsp.js: https://github.com/corbanbrook/dsp.js/
*/
(function (root, factory) {
if (typeof define === 'function' && define.amd)
define('p5.func', ['p5'], function (p5) { (factory(p5));});
else if (typeof exports === 'object')
factory(require('../p5'));
else
factory(root['p5']);
}(this, function (p5) {
// =============================================================================
// p5.Gen
// =============================================================================
/**
* Base class for a function generator
*
* @class p5.Gen
* @constructor
*/
p5.Gen = function() {
//
// this object implements GEN table-style
// algorithms adapted from MUSICN languages
// (e.g. Csound, RTcmix, ChucK, Supercollider, Max).
// these algorithms are solved by direct (0.-1.)
// evaluation with utility functions to compute arrays.
//
// some code below is adapted from RTcmix :
// https://github.com/RTcmix/RTcmix
// Copyright (C) 2005 The RTcmix Development Team, released under the Apache 2.0 License
//
this.version = 0.01; // just some crap for constructor
var that = this; // some bullshit
}; // end p5.Gen constructor
// harmonic / periodic wave from a list of partial strengths.
// Csound / RTcmix GEN10, ported from RTcmix.
p5.Gen.prototype.harmonics = function(_x, _args) {
var u = true; // single value?
if(!Array.isArray(_x) && _x.constructor !== Float32Array && _x.constructor !== Float64Array) {
_x = [_x]; // process all values as arrays
u = false;
}
if(!Array.isArray(_args)) _args = [_args]; // catch single harmonic
var _sum; // match type:
if(Array.isArray(_x)) _sum = new Array(_x.length);
else if(_x.constructor === Float32Array) _sum = new Float32Array(_x.length);
else if(_x.constructor === Float64Array) _sum = new Float64Array(_x.length);
for(var i in _x) {
var j = _args.length;
_sum[i] = 0.0;
while (j--) {
if (_args[j] != 0) {
var _val = TWO_PI * _x[i] * (j + 1);
_sum[i] += (sin(_val) * _args[j]);
}
}
}
return(u ? _sum : _sum[0]);
};
// wave from triples (ratio, amp, phase).
// Csound / RTcmix GEN09, ported from RTcmix.
p5.Gen.prototype.triples = function(_x, _args) {
var u = true; // single value?
if(!Array.isArray(_x) && _x.constructor !== Float32Array && _x.constructor !== Float64Array) {
_x = [_x]; // process all values as arrays
u = false;
}
if(_args.length<2) {
console.log("p5.Gen : we need at least 3 arguments!")
return(0.);
}
else if(_args.length%3!=0) {
console.log("p5.Gen : incomplete <partial, amp, phase> triplet!");
}
var _sum; // match type:
if(Array.isArray(_x)) _sum = new Array(_x.length);
else if(_x.constructor === Float32Array) _sum = new Float32Array(_x.length);
else if(_x.constructor === Float64Array) _sum = new Float64Array(_x.length);
for(i in _x) {
_sum[i] = 0.0;
for (var j = _args.length - 1; j > 0; j -= 3) {
if (_args[j - 1] != 0.0) {
var val;
if (_args[j - 2] == 0.0) val = 1.0; // BGG: harmonic 0 (DC)
else {
val = sin(TWO_PI * (_x[i] / (1.0 / _args[j - 2]) + _args[j] / 360.0));
}
_sum[i] += (val * _args[j - 1]);
}
}
}
return(u ? _sum : _sum[0]);
};
// transfer function from chebyshev polynomials.
// Csound / RTcmix GEN17, ported from RTcmix.
p5.Gen.prototype.chebyshev = function(_x, _args) {
var u = true; // single value?
if(!Array.isArray(_x) && _x.constructor !== Float32Array && _x.constructor !== Float64Array) {
_x = [_x]; // process all values as arrays
u = false;
}
if(!Array.isArray(_args)) _args = [_args]; // catch single value
// compute the transfer function using the chebyshev equation...
var _sum // match type:
if(Array.isArray(_x)) _sum = new Array(_x.length);
else if(_x.constructor === Float32Array) _sum = new Float32Array(_x.length);
else if(_x.constructor === Float64Array) _sum = new Float64Array(_x.length);
for(var i in _x) {
var v=_x[i]*2.-1.;
_sum[i]=0.;
var Tn1=1;
var Tn=v;
for(var j=0; j<_args.length;j++) {
_sum[i]+=_args[j]*Tn;
Tn2=Tn1;
Tn1=Tn;
Tn=2*v*Tn1-Tn2;
}
}
return(u ? _sum : _sum[0]);
}
// linear breakpoint function (time, value pairs with y normalization).
// Csound GEN27 / RTcmix GEN24, rewritten by rld.
p5.Gen.prototype.bpf = function(_x, _args) {
var u = true; // single value?
if(!Array.isArray(_x) && _x.constructor !== Float32Array && _x.constructor !== Float64Array) {
_x = [_x]; // process all values as arrays
u = false;
}
if(_args.length%2!=0) {
console.log("p5.Gen : incomplete <time, value> pair!")
return(0.);
}
var endtime = _args[_args.length - 2];
var starttime = _args[0];
if (endtime - starttime <= 0.0) {
console.log("p5.Gen : bpf times must be in ascending order!");
return(0.);
}
var scaler = 1.0 / (endtime - starttime);
var thistime = 0;
var nexttime = 0;
var thisval = 0;
var nextval = 0;
var _y // match type:
if(Array.isArray(_x)) _y = new Array(_x.length);
else if(_x.constructor === Float32Array) _y = new Float32Array(_x.length);
else if(_x.constructor === Float64Array) _y = new Float64Array(_x.length);
for(i in _x)
{
for (var k = 1; k < _args.length; k += 2) {
thistime = _args[k-1]*scaler;
thisval = _args[k];
if(k<_args.length-1) {
nexttime = _args[k+1]*scaler;
nextval = _args[k+2];
}
else {
nexttime = thistime;
nextval = thisval;
}
if(nexttime - thistime < 0.0) { // okay for them to be the same
console.log("p5.Gen : bpf times music be in ascending order!");
return(0.);
}
if(_x[i]>=thistime && _x[i]<=nexttime) // this point in bpf
{
var _thisval = _args[k+1];
_y[i] = map(_x[i], thistime, nexttime, thisval, nextval);
break;
}
}
}
return(u ? _y : _y[0]);
}
// common random number distributions.
// Csound GEN21 / RTcmix GEN20, written by rld.
// if no seed, auto-generated from millis().
// algorithms adapted from dodge and jerse (1985).
// inspired by denis lorrain's
// 'a panoply of stochastic cannons' (1980):
// http://www.jstor.org/stable/3679442
p5.Gen.prototype.random = function(_x, _type) {
// distributions based on RTcmix GEN20:
// even distribution ["even" or "linear"]
// low weighted linear distribution ["low"]
// high weighted linear distribution ["high"]
// triangle linear distribution ["triangle"]
// gaussian distribution ["gaussian"]
// cauchy distribution ["cauchy"]
//
// a -1 in the seed parameter (or missing) will
// instruct the algorithm to use the millisecond
// clock for a random seed.
var u = true; // single value?
var _s = 0.;
if(!_x) // no arguments, so do linear with random seed
{
_type = 'linear';
_x = [millis()];
u = false;
}
else if(typeof(_x)!='string') // first argument is a number, so seed
{
if(!Array.isArray(arguments[0]) && arguments[0].constructor !== Float32Array && arguments[0].constructor !== Float64Array) {
_x = [_x]; // process all values as arrays
u = false;
}
}
else // argument is a string, so type
{
_type=_x; // it's the type, not the seed
_x = [millis()]; // random seed
u = false;
}
var _v; // match type:
if(Array.isArray(_x)) _v= new Array(_x.length);
else if(_x.constructor === Float32Array) _v = new Float32Array(_x.length);
else if(_x.constructor === Float64Array) _v = new Float64Array(_x.length);
if(_x[0]===-1) randomSeed(millis()*100000.);
for(var i in _x)
{
if(_x[i]!=-1) randomSeed(_x[i]*100000.);
switch(_type) {
case "linear":
case "even":
_v[i] = random();
break;
case "low":
_v[i] = min(random(), random());
break;
case "high":
_v[i] = max(random(), random());
break;
case "triangle":
_v[i] = (random()+random())/2.0;
break;
case "gaussian":
var n = 12;
var sigma = 0.166666;
var randnum = 0.0;
for (var j = 0; j < n; j++) {
randnum += random();
}
_v[i] = sigma * (randnum - n/2) + 0.5;
break;
case "cauchy":
var alpha = 0.00628338;
do {
do {
_v[i] = random();
} while (_v[i] == 0.5);
_v[i] = (alpha * tan(_v[i] * PI)) + 0.5;
} while (_v[i] < 0.0 || _v[i] > 1.0);
break;
default:
_v[i] = random();
break;
}
}
return(u ? _v : _v[0]);
}
// common window functions for signal processing.
// Csound GEN20 / RTcmix GEN25 (paris smaragdis / dave topper)
// and Pattern Master by @golanlevin .
// rewritten / ported from C and Java by rld.
// equations from Wikipedia: https://en.wikipedia.org/wiki/Window_function
p5.Gen.prototype.window = function(_x, _type, _args) {
// flag order based on CSOUND GEN20:
// 1 = hamming
// 2 = hanning
// 3 = bartlett (triangle)
// 4 = blackman (3-term)
// 5 = blackman-harris (4-term)
// 6 = gaussian
// 7 = kaiser
// 8 = rectangle
// 9 = sinc
// these and others are addressible by name.
var u = true; // single value?
if(!Array.isArray(_args)) _args = [_args]; // catch single value
if(!Array.isArray(_x) && _x.constructor !== Float32Array && _x.constructor !== Float64Array) {
_x = [_x]; // process all values as arrays
u = false;
}
var _y; // match type:
if(Array.isArray(_x)) _y= new Array(_x.length);
else if(_x.constructor === Float32Array) _y = new Float32Array(_x.length);
else if(_x.constructor === Float64Array) _y = new Float64Array(_x.length);
var i;
switch(_type) {
// proposed by richard wesley hamming (1915-1998).
// optimized to quash the nearest sidelobe.
case 1:
case "hamming":
var alpha = 0.54;
var beta = 0.46;
for(i in _x) _y[i] = alpha - beta * cos(TWO_PI * _x[i]);
break;
// named for julius von hann (1839-1921).
// sidelobes fall at 18db/oct.
case 2:
case "hanning": // not the guy's actual name
case "vonhann": // the guy's actual name
case "hann": // sort of the guy's actual name
case "hannsolo": // no
case "hanningvonhannmeister": // very much no
for(i in _x) _y[i] = 0.5 * (1-cos(TWO_PI*_x[i]));
break;
// proposed by m.s. bartlett (1910-2002).
// also by lipót (leopold) fejér (1880-1959).
// triangular (2nd order b-spline) window.
case 3:
case "bartlett":
case "fejer":
case "fejér": // get the accent right
case "triangle":
for(i in _x) _y[i] = 1.0 - abs((_x[i]-0.5)/0.5);
break;
// bartlett-hann window.
case "bartlett-hann":
var a0 = 0.62;
var a1 = 0.48;
var a2 = 0.38;
for(i in _x) _y[i] = a0 - a1*abs(_x[i] - 0.5) - a2*cos(2*PI*_x[i]);
break;
case 4:
// proposed by ralph beebe blackman (1904-1990).
// 'exact' blackman kills sidelobes 3 and 4, but only 6db/oct damping.
// 'unqualified' blackman still has the sidelobes, but an 18db/oct damping.
case "blackman":
// 'exact' blackman:
var a0 = 7938/18608;
var a1 = 9240/18608;
var a2 = 1430/18608;
// 'unqualified' blackman:
// var a0 = 0.42;
// var a1 = 0.5;
// var a2 = 0.08;
for(i in _x) _y[i] = a0 - a1 * cos(2.*PI*_x[i]) + a2 * cos(4.*PI*_x[i]);
break;
// generalized (variable center) blackman.
case "generalizedblackman":
if(!_args[0]) _args[0] = 0.5; // default center
var _a = _args[0];
var a0 = (1.0 - _a)/2.0;
var a1 = 0.5;
var a2 = _a / 2.0;
for(i in _x)
{
var pix = PI*_x[i];
_y[i] = a0 - a1*cos(2*pix) + a2*cos(4*pix);
}
break;
// blackman window improved by fred harris (brooklyn poly '61):
// http://web.mit.edu/xiphmont/Public/windows.pdf
// 4-term sinc functions to minimize sidelobes.
case 5:
case "blackman-harris":
var a0 = 0.35875;
var a1 = 0.48829;
var a2 = 0.14128;
var a3 = 0.01168;
for(i in _x) _y[i] = a0 - a1 * cos(2.*PI*_x[i]) + a2 * cos(4.*PI*_x[i]) + a3 * cos(6.*PI*_x[i]);
break;
// 4-term blackman-nuttal (same as BH with different coefficients).
case "blackman-nuttal":
var a0 = 0.3635819;
var a1 = 0.4891775;
var a2 = 0.1365995;
var a3 = 0.0106411;
for(i in _x) _y[i] = a0 - a1 * cos(2.*PI*_x[i]) + a2 * cos(4.*PI*_x[i]) + a3 * cos(6.*PI*_x[i]);
break;
// 4-term nuttal (same as BH with different coefficients).
case "nuttal":
var a0 = 0.355768;
var a1 = 0.487396;
var a2 = 0.144232;
var a3 = 0.012604;
for(i in _x) _y[i] = a0 - a1 * cos(2.*PI*_x[i]) + a2 * cos(4.*PI*_x[i]) + a3 * cos(6.*PI*_x[i]);
break;
// gaussians are eigenfunctions of fourier transforms.
// gaussian window needs to be zeroed at the ends.
// parabolic.
case 6:
case "gaussian":
if(!_args[0]) _args[0] = 0.4; // default sigma
var sigma = _args[0];
for(i in _x) _y[i] = exp(-0.5 * ((_x[i]-0.5) / (sigma*0.5)) * ((_x[i]-0.5) / (sigma*0.5)));
break;
// jim kaiser's 1980 approximation of a DPSS /
// slepian window using bessel functions,
// developed at bell labs for audio coding.
// concentrates the energy in the main lobe.
case 7:
case "kaiser":
var alpha = 3.;
for(i in _x) {
var above = PI * alpha * sqrt(1.0 - (2. * _x[i] - 1.0) * (2. * _x[i] - 1.0));
var below = PI * alpha;
_y[i] = besselI0(above) / besselI0(below);
}
break;
// an 'unwindow'. all samples within window envelope are at unity.
// bad signal-to-noise ratio. lots of scalloping loss.
// sometimes named for peter gustav lejeune dirichlet (1805-1859).
case 8:
case "rectangle":
case "boxcar":
case "dirichlet":
for(i in _x) _y[i] = 1.; // nothing to it
break;
// cosine window
case "cosine":
for(i in _x) _y[i] = sin(PI*_x[i]);
break;
// named for cornelius lanczos (1906-1974).
// a normalized (double-window) sinc function is often
// used as a kernel for interpolation / low-pass filtering.
case 9:
case "sinc":
case "sync": // learn to spell
case "lanczos":
for(i in _x) _y[i] = sinc(2*_x[i]-1.0);
break;
// flat top window.
case "flattop":
var a0 = 1.000;
var a1 = 1.930;
var a2 = 1.290;
var a3 = 0.388;
var a4 = 0.032;
for(i in _x) {
_y[i] = a0 - a1*cos(2*PI*_x[i]) + a2*cos(4*PI*_x[i]) - a3*cos(6*PI*_x[i]) + a4*cos(8*PI*_x[i]);
_y[i] /= (a0 + a1 + a2 + a3 + a4);
}
break;
// tukey window courtesy of @golanlevin :
// The Tukey window, also known as the tapered cosine window,
// can be regarded as a cosine lobe of width \tfrac{\alpha N}{2}
// that is convolved with a rectangle window of width \left(1 -\tfrac{\alpha}{2}\right)N.
// At alpha=0 it becomes rectangular, and at alpha=1 it becomes a Hann window.
case "tukey":
if(!_args[0]) _args[0] = 0.5; // default center
var _a = _args[0];
var ah = _a/2.0;
var omah = 1.0 - ah;
for(i in _x)
{
_y[i] = 1.0;
if (_x[i] <= ah) {
_y[i] = 0.5 * (1.0 + cos(PI*((2*_x[i]/_a)-1.0)));
}
else if (_x[i] > omah) {
_y[i] = 0.5 * (1.0 + cos(PI*((2*_x[i]/_a)-(2/_a)+1.0)));
}
}
break;
// adjustable sliding gaussian courtesy of @golanlevin .
case "slidinggaussian":
if(!_args[0]) _args[0] = 0.5; // default center
if(!_args[1]) _args[1] = 0.4; // default sigma
var dx = 2.0*(_args[0] - 0.5);
var sigma = _args[1] * 2.;
for(var i in _x) _y[i] = exp(0.0 - (sq(_x[i]*2.-1.0-dx) / (2.0*sigma*sigma)));
break;
// adjustable center cosine window courtesy of @golanlevin .
case "adjustablecosine":
if(!_args[0]) _args[0] = 0.5; // default center
var _a = _args[0];
var ah = _a/2.0;
var omah = 1.0 - ah;
for(i in _x)
{
_y[i] = 1.0;
if (_x[i] <= _a) {
_y[i] = 0.5 * (1.0 + cos(PI*((_x[i]/_a)-1.0)));
}
else {
_y[i] = 0.5 * (1.0 + cos(PI*(((_x[i]-_a)/(1.0-_a)))));
}
}
break;
// adjustable center elliptic window courtesy of @golanlevin .
case "elliptic":
if(!_args[0]) _args[0] = 0.5; // default center
var _a = _args[0];
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
for(i in _x)
{
_y[i] = 0;
if (_x[i]<=_a){
_y[i] = (1.0/_a) * sqrt(sq(_a) - sq(_x[i]-_a));
}
else {
_y[i] = (1.0/(1-_a)) * sqrt(sq(1.0-_a) - sq(_x[i]-_a));
}
}
break;
// adjustable center hyperelliptic window courtesy of @golanlevin .
case "hyperelliptic":
if(!_args[0]) _args[0] = 0.5; // default center
if(!_args[1]) _args[1] = 3; // default order
var _a = _args[0];
var _n = _args[1];
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
for(i in _x)
{
_y[i] = 0;
var pwn = _n * 2.0;
if (_x[i]<=_a){
_y[i] = (1.0/_a) * pow( pow(_a, pwn) - pow(_x[i]-_a, pwn), 1.0/pwn);
}
else {
_y[i] = ((1.0/ (1-_a))) * pow( pow(1.0-_a, pwn) - pow(_x[i]-_a, pwn), 1.0/pwn);
}
}
break;
// adjustable center squircular window courtesy of @golanlevin .
case "squircular":
if(!_args[0]) _args[0] = 0.5; // default center
if(!_args[1]) _args[1] = 3; // default order
var _a = _args[0];
var _n = _args[1];
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
for(i in _x)
{
_y[i] = 0;
var pwn = max(2, _n * 2.0);
if (_x[i]<=_a){
_y[i] = (1-_a) + pow( pow(_a, pwn) - pow(_x[i]-_a, pwn), 1.0/pwn);
}
else {
_y[i] = _a + pow( pow(1.0-_a, pwn) - pow(_x[i]-_a, pwn), 1.0/pwn);
}
}
break;
// poisson window functions courtesy of @golanlevin .
case "poisson":
if(!_args[0]) _args[0] = 0.5; // default center
var tau = max(_args[0], Number.EPSILON);
for(var i in _x) _y[i] = exp (0.0 - (abs(_x[i] - 0.5))*(1.0/tau));
break;
case "hann-poisson":
case "poisson-hann":
case "hannpoisson":
case "poissonhann":
if(!_args[0]) _args[0] = 0.5; // default center
var tau = 25.0 * max(_args[0]*_args[0]*_args[0]*_args[0], Number.EPSILON); // nice control
for(i in _x) {
var hy = 0.5 * (1.0 - cos(TWO_PI*_x[i]));
var py = exp (0.0 - (abs(_x[i] - 0.5))*(1.0/tau));
_y[i] = hy * py;
}
break;
case "slidinghann-poisson":
case "slidingpoisson-hann":
case "slidinghannpoisson":
case "slidingpoissonhann":
if(!_args[0]) _args[0] = 0.5; // default center
if(!_args[1]) _args[1] = 0.5; // default sigma
var tau = 25.0 * max(_args[1]*_args[1]*_args[1]*_args[1], Number.EPSILON); // nice control
for(i in _x) {
var newx = constrain(_x[i] + (0.5 - _args[0]), 0, 1);
var hy = 0.5 * (1.0 - cos(TWO_PI*newx));
var py = exp (0.0 - (abs(newx - 0.5))*(1.0/tau));
_y[i] = hy * py;
}
break;
for(i in _x) _y[i] = _x[i];
default:
}
return(u ? _y : _y[0]);
}
// common waveform functions (0-1 evaluation).
p5.Gen.prototype.waveform = function(_x, _type) {
// algorithms:
// sine
// cosine
// saw / sawup
// sawdown
// phasor (ramp 0.-1.)
// square
// rect / rectangle
// pulse
// tri / triangle
// buzz
var u = true; // single value?
if(!Array.isArray(_x) && _x.constructor !== Float32Array && _x.constructor !== Float64Array) {
_x = [_x]; // process all values as arrays
u = false;
}
var _y // match type:
if(Array.isArray(_x)) _y = new Array(_x.length);
else if(_x.constructor === Float32Array) _y = new Float32Array(_x.length);
else if(_x.constructor === Float64Array) _y = new Float64Array(_x.length);
var i;
switch(_type) {
// sine wave 0. to 1. to -1. to 0.
case "sine":
case "sin":
_y = this.harmonics(_x, [1.]);
break;
// cosine wave 1. to -1. to 1.
case "cosine":
case "cos":
_y = this.triples(_x, [1., 1., 90]);
break;
// rising saw -1. to 1.
case "saw":
case "sawtooth":
case "sawup":
_y = this.bpf(_x, [0, -1., 1, 1.]);
break;
// falling saw 1. to -1.
case "sawdown":
_y = this.bpf(_x, [0, 1., 1, -1.]);
break;
// phasor ramp 0. to 1.
case "phasor":
_y = this.bpf(_x, [0, 0., 1, 1.]);
break;
// square wave 1. to -1. (equal duty cycle)
case "square":
_y = this.bpf(_x, [0, 1., 1, 1., 1, -1., 2, -1]);
break;
// rectangle wave 1. to -1. (10% duty cycle)
case "rect":
case "rectangle":
_y = this.bpf(_x, [0, 1., 1, 1., 1, -1., 10, -1]);
break;
// pulse wave 1. to -1. (1% duty cycle)
case "pulse":
_y = this.bpf(_x, [0, 1., 1, 1., 1, -1., 100, -1]);
break;
// triangle wave 0. to 1. to -1. to 0.
case "tri":
case "triangle":
_y = this.bpf(_x, [0, 0, 1, 1, 2, 0, 3, -1, 4, 0]);
break;
// buzz wave (10 harmonics at equal amplitude) 0. to 1. to -1. to 0.
case "buzz":
_y = this.harmonics(_x, [0.1, 0.1, 0.1, 0.1, 0.1, 0.1, 0.1, 0.1, 0.1, 0.1]);
break;
default:
}
return(u ? _y : _y[0]);
}
// list algorithms
p5.Gen.prototype.listAlgos = function() {
var _styles = new Array();
for(var i in this.__proto__) {
var _t = true;
if(i=="listAlgos") _t=false;
else if(i=="fillArray") _t=false;
else if(i=="fillFloat32Array") _t=false;
else if(i=="fillFloat64Array") _t=false;
if(_t) _styles.push(i);
}
return(_styles);
}
// array xfer (for pre-rendered use)
p5.Gen.prototype.fillArray = function(_algo, _len, _args, _seed) {
var _p = new Array(_len);
var _dest = new Array(_len);
if(_algo==='random') { // 4th argument is seed
for(var i = 0;i<_len;i++)
{
if(_seed) _p[i] = i/(_len-1)*10000.+_seed;
else _p[i] = '-1';
}
}
else {
for(var i = 0;i<_len;i++)
{
_p[i] = i/(_len-1); // 0.-1.
}
}
_dest = this[_algo](_p, _args, _seed);
return(_dest);
}
// array xfer (for pre-rendered use)
p5.Gen.prototype.fillFloat32Array = function(_algo, _len, _args, _seed) {
var _p = new Float32Array(_len);
var _dest = new Float32Array(_len);
if(_algo==='random') { // 4th argument is seed
for(var i = 0;i<_len;i++)
{
if(_seed) _p[i] = i/(_len-1)*10000.+_seed;
else _p[i] = '-1';
}
}
else {
for(var i = 0;i<_len;i++)
{
_p[i] = i/(_len-1); // 0.-1.
}
}
_dest = this[_algo](_p, _args, _seed);
return(_dest);
}
// array xfer (for pre-rendered use)
p5.Gen.prototype.fillFloat64Array = function(_algo, _len, _args, _seed) {
var _p = new Float64Array(_len);
var _dest = new Float64Array(_len);
if(_algo==='random') { // 4th argument is seed
for(var i = 0;i<_len;i++)
{
if(_seed) _p[i] = i/(_len-1)*10000.+_seed;
else _p[i] = '-1';
}
}
else {
for(var i = 0;i<_len;i++)
{
_p[i] = i/(_len-1); // 0.-1.
}
}
_dest = this[_algo](_p, _args, _seed);
return(_dest);
}
// =============================================================================
// p5.Ease
// =============================================================================
/**
* Base class for an easing function
*
* @class p5.Ease
* @constructor
*/
p5.Ease = function() {
//
// this object generates easing / tweening functions
// through direct (0.-1.) evaluation, with utilities
// to pre-evaluate functions into lookup tables.
//
// algorithms based on:
//
// robert penner's algorithms discussed in
// 'programming macromedia flash mx' (2002).
// Copyright (C) 2001 Robert Penner, released under the BSD License
//
// golan levin's Pattern_Master functions:
// https://github.com/golanlevin/Pattern_Master
// Copyright (C) 2006 Golan Levin
//
// some functions have additional parameters,
// such as an order of interpolation (n) or up to four
// coefficients (a, b, c, d) which will change the
// behavior of the easing function.
//
this.version = 0.01; // just some crap for constructor
var that = this; // some bullshit
}; // end p5.Ease constructor
// Penner's Easing Functions:
// line y = x
p5.Ease.prototype.linear = function(_x) {
return(_x);
};
// parabola y = x^2
p5.Ease.prototype.quadraticIn = function(_x) {
return(_x * _x);
};
// parabola y = -x^2 + 2x
p5.Ease.prototype.quadraticOut = function(_x) {
return(-(_x * (_x - 2)));
}
// piecewise quadratic
// y = (1/2)((2x)^2) ; [0, 0.5)
// y = -(1/2)((2x-1)*(2x-3) - 1) ; [0.5, 1]
p5.Ease.prototype.quadraticInOut = function(_x) {
if(_x < 0.5)
{
return(2 * _x * _x);
}
else
{
return((-2 * _x * _x) + (4 * _x) - 1);
}
}
// cubic y = x^3
p5.Ease.prototype.cubicIn = function(_x) {
return(_x * _x * _x);
}
// cubic y = (x - 1)^3 + 1
p5.Ease.prototype.cubicOut = function(_x) {
var _v = (_x - 1);
return(_v * _v * _v + 1);
}
// piecewise cubic
// y = (1/2)((2x)^3) ; [0, 0.5)
// y = (1/2)((2x-2)^3 + 2) ; [0.5, 1]
p5.Ease.prototype.cubicInOut = function(_x) {
if(_x < 0.5)
{
return(4 * _x * _x * _x);
}
else
{
var _v = ((2 * _x) - 2);
return(0.5 * _v * _v * _v + 1);
}
}
// quartic x^4
p5.Ease.prototype.quarticIn = function(_x) {
return(_x * _x * _x * _x);
}
// quartic y = 1 - (x - 1)^4
p5.Ease.prototype.quarticOut = function(_x) {
var _v = (_x - 1);
return(_v * _v * _v * (1 - _x) + 1);
}
// piecewise quartic
// y = (1/2)((2x)^4) ; [0, 0.5)
// y = -(1/2)((2x-2)^4 - 2) ; [0.5, 1]
p5.Ease.prototype.quarticInOut = function(_x) {
if(_x < 0.5)
{
return(8 * _x * _x * _x * _x);
}
else
{
var _v = (_x - 1);
return(-8 * _v * _v * _v * _v + 1);
}
}
// quintic y = x^5
p5.Ease.prototype.quinticIn = function(_x) {
return(_x * _x * _x * _x * _x);
}
// quintic y = (x - 1)^5 + 1
p5.Ease.prototype.quinticOut = function(_x) {
var _v = (_x - 1);
return(_v * _v * _v * _v * _v + 1);
}
// piecewise quintic
// y = (1/2)((2x)^5) ; [0, 0.5)
// y = (1/2)((2x-2)^5 + 2) ; [0.5, 1]
p5.Ease.prototype.quinticInOut = function(_x) {
if(_x < 0.5)
{
return(16 * _x * _x * _x * _x * _x);
}
else
{
var _v = ((2 * _x) - 2);
return(0.5 * _v * _v * _v * _v * _v + 1);
}
}
// quarter-cycle sine
p5.Ease.prototype.sineIn = function(_x) {
return(sin((_x - 1) * HALF_PI) + 1);
}
// quarter-cycle cosine
p5.Ease.prototype.sineOut = function(_x) {
return(sin(_x * HALF_PI));
}
// half sine
p5.Ease.prototype.sineInOut = function(_x) {
return(0.5 * (1 - cos(_x * PI)));
}
// shifted quadrant IV of unit circle
p5.Ease.prototype.circularIn = function(_x) {
return(1 - sqrt(1 - (_x * _x)));
}
// shifted quadrant II of unit circle
p5.Ease.prototype.circularOut = function(_x) {
return(sqrt((2 - _x) * _x));
}
// piecewise circular function
// y = (1/2)(1 - sqrt(1 - 4x^2)) ; [0, 0.5)
// y = (1/2)(sqrt(-(2x - 3)*(2x - 1)) + 1) ; [0.5, 1]
p5.Ease.prototype.circularInOut = function(_x) {
if(_x < 0.5)
{
return(0.5 * (1 - sqrt(1 - 4 * (_x * _x))));
}
else
{
return(0.5 * (sqrt(-((2 * _x) - 3) * ((2 * _x) - 1)) + 1));
}
}
// exponential function y = 2^(10(x - 1))
p5.Ease.prototype.exponentialIn = function(_x) {
return((_x == 0.0) ? _x : pow(2, 10 * (_x - 1)));
}
// exponential function y = -2^(-10x) + 1
p5.Ease.prototype.exponentialOut = function(_x) {
return((_x == 1.0) ? _x : 1 - pow(2, -10 * _x));
}
// piecewise exponential
// y = (1/2)2^(10(2x - 1)) ; [0,0.5)
// y = -(1/2)*2^(-10(2x - 1))) + 1 ; [0.5,1]
p5.Ease.prototype.exponentialInOut = function(_x) {
if(_x == 0.0 || _x == 1.0) return _x;
if(_x < 0.5)
{
return(0.5 * pow(2, (20 * _x) - 10));
}
else
{
return(-0.5 * pow(2, (-20 * _x) + 10) + 1);
}
}
// damped sine wave y = sin(13pi/2*x)*pow(2, 10 * (x - 1))
p5.Ease.prototype.elasticIn = function(_x) {
return(sin(13 * HALF_PI * _x) * pow(2, 10 * (_x - 1)));
}
// damped sine wave y = sin(-13pi/2*(x + 1))*pow(2, -10x) + 1
p5.Ease.prototype.elasticOut = function(_x) {
return(sin(-13 * HALF_PI * (_x + 1)) * pow(2, -10 * _x) + 1);
}
// piecewise damped sine wave:
// y = (1/2)*sin(13pi/2*(2*x))*pow(2, 10 * ((2*x) - 1)) ; [0,0.5)
// y = (1/2)*(sin(-13pi/2*((2x-1)+1))*pow(2,-10(2*x-1)) + 2) ; [0.5, 1]
p5.Ease.prototype.elasticInOut = function(_x) {
if(_x < 0.5)
{
return(0.5 * sin(13 * HALF_PI * (2 * _x)) * pow(2, 10 * ((2 * _x) - 1)));
}
else
{
return(0.5 * (sin(-13 * HALF_PI * ((2 * _x - 1) + 1)) * pow(2, -10 * (2 * _x - 1)) + 2));
}
}
// overshooting cubic y = x^3-x*sin(x*pi)
p5.Ease.prototype.backIn = function(_x) {
return(_x * _x * _x - _x * sin(_x * PI));
}
// overshooting cubic y = 1-((1-x)^3-(1-x)*sin((1-x)*pi))
p5.Ease.prototype.backOut = function(_x) {
var f = (1 - _x);
return(1 - (f * f * f - f * sin(f * PI)));
}
// piecewise overshooting cubic function:
// y = (1/2)*((2x)^3-(2x)*sin(2*x*pi)) ; [0, 0.5)
// y = (1/2)*(1-((1-x)^3-(1-x)*sin((1-x)*pi))+1) ; [0.5, 1]
p5.Ease.prototype.backInOut = function(_x) {
if(_x < 0.5)
{
var f = 2 * _x;
return(0.5 * (f * f * f - f * sin(f * PI)));
}
else
{
var f = (1 - (2*_x - 1));
return(0.5 * (1 - (f * f * f - f * sin(f * PI))) + 0.5);
}
}
// penner's four-part bounce algorithm
p5.Ease.prototype.bounceIn = function(_x) {
return(1 - this.bounceOut(1 - _x));
}
// penner's four-part bounce algorithm
p5.Ease.prototype.bounceOut = function(_x) {
if(_x < 4/11.0)
{
return((121 * _x * _x)/16.0);
}
else if(_x < 8/11.0)
{
return((363/40.0 * _x * _x) - (99/10.0 * _x) + 17/5.0);
}
else if(_x < 9/10.0)
{
return((4356/361.0 * _x * _x) - (35442/1805.0 * _x) + 16061/1805.0);
}
else
{
return((54/5.0 * _x * _x) - (513/25.0 * _x) + 268/25.0);
}
}
// piecewise penner's four-part bounce algorithm
p5.Ease.prototype.bounceInOut = function(_x) {
if(_x < 0.5)
{
return(0.5 * this.bounceIn(_x*2));
}
else
{
return(0.5 * this.bounceOut(_x * 2 - 1) + 0.5);
}
}
// Golan's Pattern Master Functions:
// bryce summers' cubic easing function (@Bryce-Summers)
p5.Ease.prototype.brycesCubic = function(_x, _n)
{
if(!_n) _n = 3; // default
var p = pow(_x, _n-1);
var xn = p * _x;
return(_n*p - (_n-1)*xn);
}
// staircase function - n is # of steps
p5.Ease.prototype.staircase = function(_x, _n)
{
if(!_n) _n = 3; // default
var _y = floor(_x*_n) / (_n-1);
if(_x>=1.) _y=1.;
return(_y);
}
// staircase function with smoothing - a is smoothing, n is # of steps
p5.Ease.prototype.exponentialSmoothedStaircase = function(_x, _a, _n)
{
if(!_a) _a = 0.25; // default
if(!_n) _n = 3; // default
// See http://web.mit.edu/fnl/volume/204/winston.html
var fa = sq (map(_a, 0,1, 5,30));
var _y = 0;
for (var i=0; i<_n; i++){
_y += (1.0/(_n-1.0))/ (1.0 + exp(fa*(((i+1.0)/_n) - _x)));
}
_y = constrain(_y, 0,1);
return(_y);
}
// gompertz curve
// http://en.wikipedia.org/wiki/Gompertz_curve
p5.Ease.prototype.gompertz = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var min_param_a = 0.0 + Number.EPSILON;
_a = max(_a, min_param_a);
var b = -8.0;
var c = 0 - _a*16.0;
var _y = exp( b * exp(c * _x));
var maxVal = exp(b * exp(c));
var minVal = exp(b);
_y = map(_y, minVal, maxVal, 0, 1);
return(_y);
}
// clamped processing map function with terms reordered:
// min in, max in, min out, max out
p5.Ease.prototype.generalizedLinearMap = function(_x, _a, _b, _c, _d)
{
if(!_a) _a = 0.; // default
if(!_b) _b = 0.; // default
if(!_c) _c = 1.; // default
if(!_d) _d = 1.; // default
var _y = 0;
if (_a < _c) {
if (_x <= _a) {
_y = _b;
}
else if (_x >= _c) {
_y = _d;
}
else {
_y = map(_x, _a, _c, _b, _d);
}
}
else {
if (_x <= _c) {
_y = _d;
}
else if (_x >= _a) {
_y = _b;
}
else {
_y = map(_x, _c, _a, _d, _b);
}
}
return(_y);
}
// double-(odd) polynomial ogee
// what the hell is an ogee, you may ask?
// https://en.wikipedia.org/wiki/Ogee
p5.Ease.prototype.doubleOddPolynomialOgee = function(_x, _a, _b, _n)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
if(!_n) _n = 3; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0;
var max_param_b = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
var p = 2*_n + 1;
var _y = 0;
if (_x <= _a) {
_y = _b - _b*pow(1-_x/_a, p);
}
else {
_y = _b + (1-_b)*pow((_x-_a)/(1-_a), p);
}
return(_y);
}
// double-linear interpolator
p5.Ease.prototype.doubleLinear = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var _y = 0;
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0;
var max_param_b = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
if (_x<=_a) {
_y = (_b/_a) * _x;
}
else {
_y = _b + ((1-_b)/(1-_a))*(_x-_a);
}
return(_y);
}
// triple-linear interpolator
p5.Ease.prototype.tripleLinear = function(_x, _a, _b, _c, _d)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
if(!_c) _c = 0.75; // default
if(!_d) _d = 0.25; // default
var _y = 0;
if (_a < _c) {
if (_x <= _a) {
_y = map(_x, 0, _a, 0, _b);
}
else if (_x >= _c) {
_y = map(_x, _c, 1, _d, 1);
}
else {
_y = map(_x, _a, _c, _b, _d);
}
}
else {
if (_x <= _c) {
_y = map(_x, 0, _c, 0, _d);
}
else if (_x >= _a) {
_y = map(_x, _a, 1, _b, 1);
}
else {
_y = map(_x, _c, _a, _d, _b);
}
}
return(_y);
}
// variable staircase interpolator
p5.Ease.prototype.variableStaircase = function(_x, _a, _n)
{
if(!_a) _a = 0.25; // default
if(!_n) _n = 3; // default
var aa = (_a - 0.5);
if (aa == 0) {
return(_x);
}
var x0 = (floor (_x*_n))/ _n;
var x1 = (ceil (_x*_n))/ _n;
var y0 = x0;
var y1 = x1;
var px = 0.5*(x0+x1) + aa/_n;
var py = 0.5*(x0+x1) - aa/_n;
var _y = 0;
if ((_x < px) && (_x > x0)) {
_y = map(_x, x0, px, y0, py);
}
else {
_y = map(_x, px, x1, py, y1);
}
return(_y);
}
// quadratic bezier staircase function
p5.Ease.prototype.quadraticBezierStaircase = function(_x, _a, _n)
{
if(!_a) _a = 0.25; // default
if(!_n) _n = 3; // default
var aa = (_a - 0.5);
if (aa == 0) {
return(_x);
}
var x0 = (floor (_x*_n))/ _n;
var x1 = (ceil (_x*_n))/ _n;
var y0 = x0;
var y1 = x1;
var px = 0.5*(x0+x1) + aa/_n;
var py = 0.5*(x0+x1) - aa/_n;
var p0x = (x0 + px)/2.0;
var p0y = (y0 + py)/2.0;
var p1x = (x1 + px)/2.0;
var p1y = (y1 + py)/2.0;
var _y = 0;
var denom = (1.0/_n)*0.5;
if ((_x <= p0x) && (_x >= x0)) {
// left side
if (floor (_x*_n) <= 0){
_y = map(_x, x0, px, y0, py);
} else {
if (abs(_x - x0) < Number.EPSILON){
// problem when x == x0 !
}
var za = (x0 - (p1x - 1.0/_n))/denom;
var zb = (y0 - (p1y - 1.0/_n))/denom;
var zx = (_x - (p1x - 1.0/_n))/denom;
var om2a = 1.0 - 2.0*za;
var interior = max (0, za*za + om2a*zx);
var t = (sqrt(interior) - za)/om2a;
var zy = (1.0-2.0*zb)*(t*t) + (2*zb)*t;
zy *= (p1y - p0y);
zy += p1y; //(p1y - 1.0/n);
if (_x > x0){
zy -= 1.0/_n;
}
_y = zy;
}
}
else if ((_x >= p1x) && (_x <= x1)) {
// right side
if (ceil(_x*_n) >= _n) {
_y = map(_x, px, x1, py, y1);
}
else {
if (abs(_x - x1) < Number.EPSILON){
// problem when x == x1 !
}
var za = (x1 - p1x)/denom;
var zb = (y1 - p1y)/denom;
var zx = (_x - p1x)/denom;
if (za == 0.5) {
za += Number.EPSILON;
}
var om2a = 1.0 - 2.0*za;
if (abs(om2a) < Number.EPSILON) {
om2a = ((om2a < 0) ? -1:1) * Number.EPSILON;
}
var interior = max (0, za*za + om2a*zx);
var t = (sqrt(interior) - za)/om2a;
var zy = (1.0-2.0*zb)*(t*t) + (2*zb)*t;
zy *= (p1y - p0y);
zy += p1y;
_y = zy;
}
}
else {
// center
var za = (px - p0x)/denom;
var zb = (py - p0y)/denom;
var zx = (_x - p0x)/denom;
if (za == 0.5) {
za += Number.EPSILON;
}
var om2a = 1.0 - 2.0*za;
var t = (sqrt(za*za + om2a*zx) - za)/om2a;
var zy = (1.0-2.0*zb)*(t*t) + (2*zb)*t;
zy *= (p1y - p0y);
zy += p0y;
_y = zy;
}
return(_y);
}
// symmetric double-element sigmoid function (a is slope)
// https://en.wikipedia.org/wiki/Sigmoid_function
p5.Ease.prototype.doubleExponentialSigmoid = function(_x, _a)
{
if(!_a) _a = 0.75; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
_a = 1-_a;
var _y = 0;
if (_x<=0.5){
_y = (pow(2.0*_x, 1.0/_a))/2.0;
}
else {
_y = 1.0 - (pow(2.0*(1.0-_x), 1.0/_a))/2.0;
}
return(_y);
}
// double-element sigmoid function with an adjustable center (b is center)
p5.Ease.prototype.adjustableCenterDoubleExponentialSigmoid = function(_x, _a, _b)
{
if(!_a) _a = 0.75; // default
if(!_b) _b = 0.5; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
_a = 1-_a;
var _y = 0;
var w = max(0, min(1, _x-(_b-0.5)));
if (w<=0.5){
_y = (pow(2.0*w, 1.0/_a))/2.0;
}
else {
_y = 1.0 - (pow(2.0*(1.0-w), 1.0/_a))/2.0;
}
return(_y);
}
// quadratic sigmoid function
p5.Ease.prototype.doubleQuadraticSigmoid = function(_x)
{
var _y = 0;
if (_x<=0.5){
_y = sq(2.0*_x)/2.0;
}
else {
_y = 1.0 - sq(2.0*(_x-1.0))/2.0;
}
return(_y);
}
// double polynomial sigmoid function
p5.Ease.prototype.doublePolynomialSigmoid = function(_x, _n)
{
if(!_n) _n = 3; // default
var _y = 0;
if (_n%2 == 0){
// even polynomial
if (_x<=0.5){
_y = pow(2.0*_x, _n)/2.0;
}
else {
_y = 1.0 - pow(2*(_x-1.0), _n)/2.0;
}
}
else {
// odd polynomial
if (_x<=0.5){
_y = pow(2.0*_x, _n)/2.0;
}
else {
_y = 1.0 + pow(2.0*(_x-1.0), _n)/2.0;
}
}
return(_y);
}
// double elliptic ogee
// http://www.flong.com/texts/code/shapers_circ/
p5.Ease.prototype.doubleEllipticOgee = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
var _y = 0;
if (_x<=_a){
_y = (_b/_a) * sqrt(sq(_a) - sq(_x-_a));
}
else {
_y = 1.0 - ((1.0-_b)/(1.0-_a))*sqrt(sq(1.0-_a) - sq(_x-_a));
}
return(_y);
}
// double-cubic ogee
p5.Ease.prototype.doubleCubicOgee = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0;
var max_param_b = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
var _y = 0;
if (_x <= _a){
_y = _b - _b*pow(1.0-_x/_a, 3.0);
}
else {
_y = _b + (1.0-_b)*pow((_x-_a)/(1.0-_a), 3.0);
}
return(_y);
}
// double circular sigmoid function
p5.Ease.prototype.doubleCircularSigmoid = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var _y = 0;
if (_x<=_a) {
_y = _a - sqrt(_a*_a - _x*_x);
}
else {
_y = _a + sqrt(sq(1.0-_a) - sq(_x-1.0));
}
return(_y);
}
// double squircular sigmoid function
p5.Ease.prototype.doubleSquircularSigmoid = function(_x, _a, _n)
{
if(!_a) _a = 0.25; // default
if(!_n) _n = 3; // default
var pwn = max(2, _n * 2.0);
var _y = 0;
if (_x<=_a) {
_y = _a - pow( pow(_a,pwn) - pow(_x,pwn), 1.0/pwn);
}
else {
_y = _a + pow(pow(1.0-_a, pwn) - pow(_x-1.0, pwn), 1.0/pwn);
}
return(_y);
}
// double quadratic bezier curve
// http://engineeringtraining.tpub.com/14069/css/14069_150.htm
p5.Ease.prototype.doubleQuadraticBezier = function(_x, _a, _b, _c, _d)
{
// produces mysterious values when a=0,b=1,c=0.667,d=0.417
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
if(!_c) _c = 0.75; // default
if(!_d) _d = 0.25; // default
var xmid = (_a + _c)/2.0;
var ymid = (_b + _d)/2.0;
xmid = constrain (xmid, Number.EPSILON, 1.0-Number.EPSILON);
ymid = constrain (ymid, Number.EPSILON, 1.0-Number.EPSILON);
var _y = 0;
var om2a;
var t;
var xx;
var aa;
var bb;
if (_x <= xmid){
xx = _x / xmid;
aa = _a / xmid;
bb = _b / ymid;
om2a = 1.0 - 2.0*aa;
if (om2a == 0) {
om2a = Number.EPSILON;
}
t = (sqrt(aa*aa + om2a*xx) - aa)/om2a;
_y = (1.0-2.0*bb)*(t*t) + (2*bb)*t;
_y *= ymid;
}
else {
xx = (_x - xmid)/(1.0-xmid);
aa = (_c - xmid)/(1.0-xmid);
bb = (_d - ymid)/(1.0-ymid);
om2a = 1.0 - 2.0*aa;
if (om2a == 0) {
om2a = Number.EPSILON;
}
t = (sqrt(aa*aa + om2a*xx) - aa)/om2a;
_y = (1.0-2.0*bb)*(t*t) + (2*bb)*t;
_y *= (1.0 - ymid);
_y += ymid;
}
return(_y);
}
// double-elliptic sigmoid function
p5.Ease.prototype.doubleEllipticSigmoid = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var _y = 0;
if (_x<=_a){
if (_a <= 0){
_y = 0;
} else {
_y = _b * (1.0 - (sqrt(sq(_a) - sq(_x))/_a));
}
}
else {
if (_a >= 1){
_y = 1.0;
} else {
_y = _b + ((1.0-_b)/(1.0-_a))*sqrt(sq(1.0-_a) - sq(_x-1.0));
}
}
return(_y);
}
// simplified double-cubic ogee
p5.Ease.prototype.doubleCubicOgeeSimplified = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
_b = 1 - _b; //reverse, for intelligibility.
var _y = 0;
if (_x<=_a){
if (_a <= 0){
_y = 0;
} else {
var val = 1 - _x/_a;
_y = _b*_x + (1-_b)*_a*(1.0- val*val*val);
}
}
else {
if (_a >= 1){
_y = 1;
} else {
var val = (_x-_a)/(1-_a);
_y = _b*_x + (1-_b)*(_a + (1-_a)* val*val*val);
}
}
return(_y);
}
// raised inverted cosine function
p5.Ease.prototype.raisedInvertedCosine = function(_x)
{
var _y = (1.0 - cos(PI*_x))/2.0;
return(_y);
}
// blinn / wyvill's cosine approximation
// http://www.flong.com/texts/code/shapers_poly/
p5.Ease.prototype.cosineApproximation = function(_x)
{
var x2 = _x*_x;
var x4 = x2*x2;
var x6 = x4*x2;
var fa = (4.0/9.0);
var fb = (17.0/9.0);
var fc = (22.0/9.0);
var _y = fa*x6 - fb*x4 + fc*x2;
return(_y);
}
// smoothstep function
// https://en.wikipedia.org/wiki/Smoothstep
p5.Ease.prototype.smoothStep = function(_x)
{
return(_x*_x*(3.0 - 2.0*_x));
}
// ken perlin's 'smoother step' smoothstep function
// https://www.amazon.com/Texturing-Modeling-Third-Procedural-Approach/dp/1558608486
p5.Ease.prototype.smootherStep = function(_x)
{
return(_x*_x*_x*(_x*(_x*6.0 - 15.0) + 10.0));
}
// maclaurin cosine approximation
// http://blogs.ubc.ca/infiniteseriesmodule/units/unit-3-power-series/taylor-series/the-maclaurin-expansion-of-cosx/
p5.Ease.prototype.maclaurinCosine = function(_x)
{
var nTerms = 6; // anything less is fouled
_x *= PI;
var xp = 1.0;
var x2 = _x*_x;
var sig = 1.0;
var fact = 1.0;
var _y = xp;
for (var i=0; i<nTerms; i++) {
xp *= x2;
sig = 0-sig;
fact *= (i*2+1);
fact *= (i*2+2);
_y += sig * (xp / fact);
}
_y = (1.0 - _y)/2.0;
return(_y);
}
// paul bourke's catmull rom spline
// https://en.wikipedia.org/wiki/Centripetal_Catmull%E2%80%93Rom_spline
// from http://paulbourke.net/miscellaneous/interpolation/
p5.Ease.prototype.catmullRomInterpolate = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var y0 = _a;
var y3 = _b;
var x2 = _x*_x;
var a0 = -0.5*y0 + 0.5*y3 - 1.5 ;
var a1 = y0 - 0.5*y3 + 2.0 ;
var a2 = -0.5*y0 + 0.5 ;
var _y = a0*_x*x2 + a1*x2 + a2*_x;
return(constrain(_y, 0, 1));
}
// hermite polynomial function
// https://en.wikipedia.org/wiki/Hermite_polynomials
// from http://musicdsp.org/showArchiveComment.php?ArchiveID=93
// by Laurent de Soras
p5.Ease.prototype.hermite = function(_x, _a, _b, _c, _d)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.; // default - ???
if(!_c) _c = 1.; // default - ???
if(!_d) _d = 0.25; // default
_a = map(_a, 0,1, -1,1);
_c = map(_c, 0,1, -1,1);
var hC = (_c - _a) * 0.5;
var hV = (_b - _c);
var hW = hC + hV;
var hA = hW + hV + (_d - _b) * 0.5;
var hB = hW + hA;
var _y = (((hA * _x) - hB) * _x + hC) * _x + _b;
return(_y);
}
// hermite polynomial function
// from http://paulbourke.net/miscellaneous/interpolation/
p5.Ease.prototype.hermite2 = function(_x, _a, _b, _c, _d)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
if(!_c) _c = 0.75; // default
if(!_d) _d = 0.25; // default
//
// Tension: 1 is high, 0 normal, -1 is low
// Bias: 0 is even, positive is towards first segment, negative towards the other
//
var tension = map (_c, 0,1, -1,1);
var bias = map (_d, 0,1, -1,1);
var y0 = 2.0 * (_a - 0.5); //? a
var y1 = 0.0;
var y2 = 1.0;
var y3 = _b;
var x2 = _x * _x;
var x3 = x2 * _x;
var m0, m1;
m0 = (y1-y0)*(1.0+bias)*(1.0-tension)/2.0;
m0 += (y2-y1)*(1.0-bias)*(1.0-tension)/2.0;
m1 = (y2-y1)*(1.0+bias)*(1.0-tension)/2.0;
m1 += (y3-y2)*(1.0-bias)*(1.0-tension)/2.0;
var a0 = 2.0*x3 - 3.0*x2 + 1.0;
var a1 = x3 - 2.0*x2 + _x;
var a2 = x3 - x2;
var a3 = -2.0*x3 + 3.0*x2;
var _y = a0*y1 + a1*m0 + a2*m1 + a3*y2;
return(_y);
}
// error function
// http://en.wikipedia.org/wiki/Error_function
// Note that this implementation is a shifted, scaled and normalized error function!
p5.Ease.prototype.normalizedErf = function(_x)
{
var erfBound = 2.0; // set bounds for artificial "normalization"
var erfBoundNorm = 0.99532226501; // this = erf(2.0), i.e., erf(erfBound)
var z = map(_x, 0.0, 1.0, 0-erfBound, erfBound);
var z2 = z*z;
var a = (8.0*(PI-3.0)) / ((3*PI)*(4.0-PI));
var _y = sqrt (1.0 - exp(0 - z2*( (a*z2 + 4.0/PI) / (a*z2 + 1.0))));
if (z < 0.0) _y = 0-_y;
_y /= erfBoundNorm;
_y = (_y+1.0) / 2.0;
return(_y);
}
// inverse error function
p5.Ease.prototype.normalizedInverseErf = function(_x)
{
var erfBound = 2.0;
var erfBoundNorm = 0.99532226501; // this = erf(2.0), i.e., erf(erfBound)
var z = map(_x, 0, 1, -erfBoundNorm, erfBoundNorm);
var z2 = z*z;
var a = (8.0*(PI-3.0)) / ((3*PI)*(4.0-PI));
var A = (2.0 / (PI *a)) + (log(1.0-z2) / 2.0);
var B = (log(1.0-z2) / a);
var _y = sqrt( sqrt(A*A - B) - A );
if (z < 0.0) _y = 0-_y;
_y /= erfBound;
_y = (_y+1.0);
_y /= 2.0;
_y = constrain(_y, 0, 1); // necessary
return(_y);
}
// exponential emphasis function
p5.Ease.prototype.exponentialEmphasis = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
if (_a < 0.5) {
// emphasis
_a = 2*(_a);
var _y = pow(_x, _a);
return(_y);
}
else {
// de-emphasis
_a = 2*(_a-0.5);
var _y = pow(_x, 1.0/(1-_a));
return(_y);
}
}
// iterative square root
// http://en.wikipedia.org/wiki/Methods_of_computing_square_roots
// ancient babylonian technology
p5.Ease.prototype.iterativeSquareRoot = function(_x)
{
var _y = 0.5;
var n = 6;
for (var i=0; i<n; i++) {
_y = (_y + _x/_y)/2.0;
}
return(_y);
}
// fast inverse square root
// http://en.wikipedia.org/wiki/Fast_inverse_square_root
// http://stackoverflow.com/questions/11513344/how-to-implement-the-fast-inverse-square-root-in-java
p5.Ease.prototype.fastSquareRoot = function(_x)
{
var xhalf = 0.5 * _x;
var i = f2ib(_x);
i = 0x5f3759df - (i>>1);
_x = ib2f(i);
_x = _x*(1.5 - xhalf*_x*_x);
return(1.0/_x);
}
// symmetric double-exponential ogee
p5.Ease.prototype.doubleExponentialOgee = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
var _y = 0;
if (_x<=0.5){
_y = (pow(2.0*_x, 1.0-_a))/2.0;
}
else {
_y = 1.0 - (pow(2.0*(1.0-_x), 1.0-_a))/2.0;
}
return(_y);
}
// joining two lines with a circular arc fillet
// Adapted from robert d. miller / graphics gems
// http://www.realtimerendering.com/resources/GraphicsGems/gemsiii/fillet.c
p5.Ease.prototype.circularFillet = function(_x, _a, _b, _c)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
if(!_c) _c = 0.75; // default
var arcStartAngle = 0;
var arcEndAngle = 0;
var arcStartX = 0;
var arcStartY = 0;
var arcEndX = 0;
var arcEndY = 0;
var arcCenterX = 0;
var arcCenterY = 0;
var arcRadius = 0;
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0 + Number.EPSILON;
var max_param_b = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
var R = _c;
// helper function:
// return signed distance from line Ax + By + C = 0 to point P.
function linetopoint(a, b, c, ptx, pty) {
var lp = 0.0;
var d = sqrt((a*a)+(b*b));
if (d != 0.0) {
lp = (a*ptx + b*pty + c)/d;
}
return(lp);
}
// compute fillet parameters:
computefillet: {
var p1x = 0;
var p1y = 0;
var p2x = _a;
var p2y = _b;
var p3x = _a;
var p3y = _b;
var p4x = 1;
var p4y = 1;
var r = R;
var c1 = p2x*p1y - p1x*p2y;
var a1 = p2y-p1y;
var b1 = p1x-p2x;
var c2 = p4x*p3y - p3x*p4y;
var a2 = p4y-p3y;
var b2 = p3x-p4x;
if ((a1*b2) == (a2*b1)) { /* Parallel or coincident lines */
break computefillet;
}
var d1, d2;
var mPx, mPy;
mPx= (p3x + p4x)/2.0;
mPy= (p3y + p4y)/2.0;
d1 = linetopoint(a1, b1, c1, mPx, mPy); /* Find distance p1p2 to p3 */
if (d1 == 0.0) {
break computefillet;
}
mPx= (p1x + p2x)/2.0;
mPy= (p1y + p2y)/2.0;
d2 = linetopoint(a2, b2, c2, mPx, mPy); /* Find distance p3p4 to p2 */
if (d2 == 0.0) {
break computefillet;
}
var c1p, c2p, d;
var rr = r;
if (d1 <= 0.0) {
rr= -rr;
}
c1p = c1 - rr*sqrt((a1*a1)+(b1*b1)); /* Line parallel l1 at d */
rr = r;
if (d2 <= 0.0) {
rr = -rr;
}
c2p = c2 - rr*sqrt((a2*a2)+(b2*b2)); /* Line parallel l2 at d */
d = (a1*b2)-(a2*b1);
var pCx = (c2p*b1-c1p*b2)/d; /* Intersect constructed lines */
var pCy = (c1p*a2-c2p*a1)/d; /* to find center of arc */
var pAx = 0;
var pAy = 0;
var pBx = 0;
var pBy = 0;
var dP, cP;
dP = (a1*a1) + (b1*b1); /* Clip or extend lines as required */
if (dP != 0.0) {
cP = a1*pCy - b1*pCx;
pAx = (-a1*c1 - b1*cP)/dP;
pAy = ( a1*cP - b1*c1)/dP;
}
dP = (a2*a2) + (b2*b2);
if (dP != 0.0) {
cP = a2*pCy - b2*pCx;
pBx = (-a2*c2 - b2*cP)/dP;
pBy = ( a2*cP - b2*c2)/dP;
}
var gv1x = pAx-pCx;
var gv1y = pAy-pCy;
var gv2x = pBx-pCx;
var gv2y = pBy-pCy;
var arcStart = atan2(gv1y, gv1x);
var arcAngle = 0.0;
var dd = sqrt(((gv1x*gv1x)+(gv1y*gv1y)) * ((gv2x*gv2x)+(gv2y*gv2y)));
if (dd != 0.0) {
arcAngle = (acos((gv1x*gv2x + gv1y*gv2y)/dd));
}
var crossProduct = (gv1x*gv2y - gv2x*gv1y);
if (crossProduct < 0.0) {
arcStart -= arcAngle;
}
var arc1 = arcStart;
var arc2 = arcStart + arcAngle;
if (crossProduct < 0.0) {
arc1 = arcStart + arcAngle;
arc2 = arcStart;
}
arcCenterX = pCx;
arcCenterY = pCy;
arcStartAngle = arc1;
arcEndAngle = arc2;
arcRadius = r;
arcStartX = arcCenterX + arcRadius*cos(arcStartAngle);
arcStartY = arcCenterY + arcRadius*sin(arcStartAngle);
arcEndX = arcCenterX + arcRadius*cos(arcEndAngle);
arcEndY = arcCenterY + arcRadius*sin(arcEndAngle);
}
// end compute
var t = 0;
var y = 0;
_x = constrain(_x, 0, 1);
if (_x <= arcStartX) {
if (arcStartX < Math.EPSILON){
_y = 0;
} else {
t = _x / arcStartX;
_y = t * arcStartY;
}
}
else if (_x >= arcEndX) {
t = (_x - arcEndX)/(1 - arcEndX);
_y = arcEndY + t*(1 - arcEndY);
}
else {
if (_x >= arcCenterX) {
_y = arcCenterY - sqrt(sq(arcRadius) - sq(_x-arcCenterX));
}
else {
_y = arcCenterY + sqrt(sq(arcRadius) - sq(_x-arcCenterX));
}
}
return(_y);
}
// circular arc through a point
// adapted from paul bourke
// http://paulbourke.net/geometry/circlesphere/Circle.cpp
p5.Ease.prototype.circularArcThroughAPoint = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var m = {};
m.centerX = 0;
m.centerY = 0;
m.dRadius = 0;
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0 + Number.EPSILON;
var max_param_b = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
_x = constrain(_x, 0+Number.EPSILON,1-Number.EPSILON);
var pt1x = 0;
var pt1y = 0;
var pt2x = _a;
var pt2y = _b;
var pt3x = 1;
var pt3y = 1;
// helper functions:
// check if the lines defined by the given points are perpendicular
// to the x or y axis - used as a check before calcCircleFrom3Points()
// from paul bourke's Circle.cpp
function isPerpendicular(pt1x, pt1y, pt2x, pt2y, pt3x, pt3y)
{
var yDelta_a = pt2y - pt1y;
var xDelta_a = pt2x - pt1x;
var yDelta_b = pt3y - pt2y;
var xDelta_b = pt3x - pt2x;
// checking whether the line of the two pts are vertical
if (abs(xDelta_a) <= Number.EPSILON && abs(yDelta_b) <= Number.EPSILON){
return(false);
}
if (abs(yDelta_a) <= Number.EPSILON){
return(true);
}
else if (abs(yDelta_b) <= Number.EPSILON){
return(true);
}
else if (abs(xDelta_a)<= Number.EPSILON){
return(true);
}
else if (abs(xDelta_b)<= Number.EPSILON){
return(true);
}
else return(false);
}
// from paul bourke's Circle.cpp
function calcCircleFrom3Points(pt1x, pt1y, pt2x, pt2y, pt3x, pt3y, m)
{
var yDelta_a = pt2y - pt1y;
var xDelta_a = pt2x - pt1x;
var yDelta_b = pt3y - pt2y;
var xDelta_b = pt3x - pt2x;
if (abs(xDelta_a) <= Number.EPSILON && abs(yDelta_b) <= Number.EPSILON){
m.centerX = 0.5*(pt2x + pt3x);
m.centerY = 0.5*(pt1y + pt2y);
m.dRadius = sqrt(sq(m.centerX-pt1x) + sq(m.centerY-pt1y));
return;
}
// isPerpendicular() assures that xDelta(s) are not zero
var aSlope = yDelta_a / xDelta_a;
var bSlope = yDelta_b / xDelta_b;
if (abs(aSlope-bSlope) <= Number.EPSILON){ // checking whether the given points are colinear.
return;
}
// calc center
m.centerX = (aSlope*bSlope*(pt1y - pt3y) + bSlope*(pt1x + pt2x)- aSlope*(pt2x+pt3x) )/(2* (bSlope-aSlope) );
m.centerY = -1*(m.centerX - (pt1x+pt2x)/2)/aSlope + (pt1y+pt2y)/2;
m.dRadius = sqrt(sq(m.centerX-pt1x) + sq(m.centerY-pt1y));
}
if (!isPerpendicular(pt1x,pt1y, pt2x,pt2y, pt3x,pt3y) ) calcCircleFrom3Points (pt1x,pt1y, pt2x,pt2y, pt3x,pt3y, m);
else if (!isPerpendicular(pt1x,pt1y, pt3x,pt3y, pt2x,pt2y) ) calcCircleFrom3Points (pt1x,pt1y, pt3x,pt3y, pt2x,pt2y, m);
else if (!isPerpendicular(pt2x,pt2y, pt1x,pt1y, pt3x,pt3y) ) calcCircleFrom3Points (pt2x,pt2y, pt1x,pt1y, pt3x,pt3y, m);
else if (!isPerpendicular(pt2x,pt2y, pt3x,pt3y, pt1x,pt1y) ) calcCircleFrom3Points (pt2x,pt2y, pt3x,pt3y, pt1x,pt1y, m);
else if (!isPerpendicular(pt3x,pt3y, pt2x,pt2y, pt1x,pt1y) ) calcCircleFrom3Points (pt3x,pt3y, pt2x,pt2y, pt1x,pt1y, m);
else if (!isPerpendicular(pt3x,pt3y, pt1x,pt1y, pt2x,pt2y) ) calcCircleFrom3Points (pt3x,pt3y, pt1x,pt1y, pt2x,pt2y, m);
else {
return 0;
}
// constrain
if ((m.centerX > 0) && (m.centerX < 1)){
if (_a < m.centerX){
m.centerX = 1;
m.centerY = 0;
m.dRadius = 1;
} else {
m.centerX = 0;
m.centerY = 1;
m.dRadius = 1;
}
}
//------------------
var _y = 0;
if (_x >= m.centerX){
_y = m.centerY - sqrt(sq(m.dRadius) - sq(_x-m.centerX));
}
else{
_y = m.centerY + sqrt(sq(m.dRadius) - sq(_x-m.centerX));
}
return(_y);
}
// bezier shapers
// adapted from BEZMATH.PS (1993)
// by don lancaster, SYNERGETICS inc.
// http://www.tinaja.com/text/bezmath.html
p5.Ease.prototype.quadraticBezier = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var min_param_a = 0.0;
var max_param_a = 1.0;
var min_param_b = 0.0;
var max_param_b = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
if (_a == 0.5){
_a += Number.EPSILON;
}
// solve t from x (an inverse operation)
var om2a = 1.0 - 2.0*_a;
var t = (sqrt(_a*_a + om2a*_x) - _a)/om2a;
var _y = (1.0-2.0*_b)*(t*t) + (2*_b)*t;
return(_y);
}
// cubic bezier shaper
p5.Ease.prototype.cubicBezier = function(_x, _a, _b, _c, _d)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
if(!_c) _c = 0.75; // default
if(!_d) _d = 0.25; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0;
var max_param_b = 1.0;
var min_param_c = 0.0 + Number.EPSILON;
var max_param_c = 1.0 - Number.EPSILON;
var min_param_d = 0.0;
var max_param_d = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
_c = constrain(_c, min_param_c, max_param_c);
_d = constrain(_d, min_param_d, max_param_d);
//-------------------------------------------
var y0a = 0.00; // initial y
var x0a = 0.00; // initial x
var y1a = _b; // 1st influence y
var x1a = _a; // 1st influence x
var y2a = _d; // 2nd influence y
var x2a = _c; // 2nd influence x
var y3a = 1.00; // final y
var x3a = 1.00; // final x
var A = x3a - 3*x2a + 3*x1a - x0a;
var B = 3*x2a - 6*x1a + 3*x0a;
var C = 3*x1a - 3*x0a;
var D = x0a;
var E = y3a - 3*y2a + 3*y1a - y0a;
var F = 3*y2a - 6*y1a + 3*y0a;
var G = 3*y1a - 3*y0a;
var H = y0a;
// Solve for t given x (using Newton-Raphelson), then solve for y given t.
// Assume for the first guess that t = x.
var currentt = _x;
var nRefinementIterations = 5;
for (var i=0; i<nRefinementIterations; i++){
var currentx = A*(currentt*currentt*currentt) + B*(currentt*currentt) + C*currentt + D;
var currentslope = 1.0/(3.0*A*currentt*currentt + 2.0*B*currentt + C);
currentt -= (currentx - _x)*(currentslope);
currentt = constrain(currentt, 0,1.0);
}
//------------
var _y = E*(currentt*currentt*currentt) + F*(currentt*currentt) + G*currentt + H;
return(_y);
}
// parabola through a point
p5.Ease.prototype.parabolaThroughAPoint = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0;
var max_param_b = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
var A = (1-_b)/(1-_a) - (_b/_a);
var B = (A*(_a*_a)-_b)/_a;
var _y = A*(_x*_x) - B*(_x);
_y = constrain(_y, 0,1);
return(_y);
}
// damped sine wave
// n.b. decays to 0 at x=1
// http://en.wikipedia.org/wiki/Damped_sine_wave
p5.Ease.prototype.dampedSinusoid = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var omega = 100*_a;
var lambda = -6.90775527; // ln(lambda) = 0.001 // decay constant
var phi = 0;
var e = 2.718281828459045;
var t = _x;
var _y = pow(e, lambda*t) * cos(omega*t + phi);
return(_y);
}
// damped sine wave (reversed)
p5.Ease.prototype.dampedSinusoidReverse = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var omega = 100*_a;
var lambda = -6.90775527; // ln(lambda) = 0.001
var phi = 0;
var e = 2.718281828459045;
var t = 1.0-_x;
var _y = pow(e, lambda*t) * cos(omega*t + phi);
return(_y);
}
// cubic bezier through two points
p5.Ease.prototype.cubicBezierThrough2Points = function(_x, _a, _b, _c, _d)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
if(!_c) _c = 0.75; // default
if(!_d) _d = 0.25; // default
var _y = 0;
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var min_param_b = 0.0 + Number.EPSILON;
var max_param_b = 1.0 - Number.EPSILON;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
var x0 = 0;
var y0 = 0;
var x4 = _a;
var y4 = _b;
var x5 = _c;
var y5 = _d;
var x3 = 1;
var y3 = 1;
var x1,y1,x2,y2; // to be solved.
var t1 = 0.3;
var t2 = 0.7;
var B0t1 = (1-t1)*(1-t1)*(1-t1);
var B1t1 = 3*t1*(1-t1)*(1-t1);
var B2t1 = 3*t1*t1*(1-t1);
var B3t1 = t1*t1*t1;
var B0t2 = (1-t2)*(1-t2)*(1-t2);
var B1t2 = 3*t2*(1-t2)*(1-t2);;
var B2t2 = 3*t2*t2*(1-t2);;
var B3t2 = t2*t2*t2;
var ccx = x4 - x0*B0t1 - x3*B3t1;
var ccy = y4 - y0*B0t1 - y3*B3t1;
var ffx = x5 - x0*B0t2 - x3*B3t2;
var ffy = y5 - y0*B0t2 - y3*B3t2;
x2 = (ccx - (ffx*B1t1)/B1t2) / (B2t1 - (B1t1*B2t2)/B1t2);
y2 = (ccy - (ffy*B1t1)/B1t2) / (B2t1 - (B1t1*B2t2)/B1t2);
x1 = (ccx - x2*B2t1) / B1t1;
y1 = (ccy - y2*B2t1) / B1t1;
x1 = constrain(x1, 0+Number.EPSILON,1-Number.EPSILON);
x2 = constrain(x2, 0+Number.EPSILON,1-Number.EPSILON);
_y = this.cubicBezier (_x, x1,y1, x2,y2);
_y = constrain(_y,0,1);
return(_y);
}
// double circular ogee
p5.Ease.prototype.doubleCircularOgee = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var min_param_a = 0.0;
var max_param_a = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
var _y = 0;
if (_x<=_a){
_y = sqrt(sq(_a) - sq(_x-_a));
}
else {
_y = 1 - sqrt(sq(1-_a) - sq(_x-_a));
}
return(_y);
}
// double squircular ogee
p5.Ease.prototype.doubleSquircularOgee = function(_x, _a, _n)
{
if(!_a) _a = 0.25; // default
if(!_n) _n = 3; // default
var min_param_a = 0.0;
var max_param_a = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
var pown = 2.0 * _n;
var _y = 0;
if (_x<=_a){
_y = pow( pow(_a,pown) - pow(_x-_a, pown), 1.0/pown);
}
else {
_y = 1.0 - pow( pow(1-_a,pown) - pow(_x-_a, pown), 1.0/pown);
}
return(_y);
}
// generalized combo sigmoid / logit function
p5.Ease.prototype.generalSigmoidLogitCombo = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var _y = 0;
if (_a < 0.5){
// Logit
var dy = _b - 0.5;
_y = dy + this.normalizedLogit (_x, 1.0-(2.0*_a));
} else {
// Sigmoid
var dx = _b - 0.5;
_y = this.normalizedLogitSigmoid (_x+dx, (2.0*(_a-0.5)));
}
_y = constrain(_y, 0, 1);
return(_y);
}
// normalized logistic sigmoid function
p5.Ease.prototype.normalizedLogitSigmoid = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var emph = 5.0;
_a = constrain(_a, min_param_a, max_param_a);
_a = (1.0/(1.0-_a) - 1.0);
_a = emph * _a;
var _y = 1.0 / (1.0 + exp(0 - (_x-0.5)*_a ));
var miny = 1.0 / (1.0 + exp( 0.5*_a ));
var maxy = 1.0 / (1.0 + exp( -0.5*_a ));
_y = map(_y, miny, maxy, 0, 1);
return(_y);
}
// logit function
// https://en.wikipedia.org/wiki/Logit
p5.Ease.prototype.normalizedLogit = function(_x, _a)
{
if(!_a) _a = 0.25; // default
var min_param_a = 0.0 + Number.EPSILON;
var max_param_a = 1.0 - Number.EPSILON;
var emph = 5.0;
_a = constrain(_a, min_param_a, max_param_a);
_a = (1/(1-_a) - 1);
_a = emph * _a;
var minx = 1.0 / (1.0 + exp( 0.5*_a ));
var maxx = 1.0 / (1.0 + exp( -0.5*_a ));
_x = map(_x, 0,1, minx, maxx);
var _y = log (_x / (1.0 - _x)) ;
_y *= 1.0/_a;
_y += 0.5;
_y = constrain (_y, 0, 1);
return(_y);
}
// quartic easing function
p5.Ease.prototype.generalizedQuartic = function(_x, _a, _b)
{
if(!_a) _a = 0.25; // default
if(!_b) _b = 0.75; // default
var min_param_a = 0.0;
var max_param_a = 1.0;
var min_param_b = 0.0;
var max_param_b = 1.0;
_a = constrain(_a, min_param_a, max_param_a);
_b = constrain(_b, min_param_b, max_param_b);
_a = 1.0-_a;
var _w = (1-2*_a)*(_x*_x) + (2*_a)*_x;
var _y = (1-2*_b)*(_w*_w) + (2*_b)*_w;
return(_y);
}
// boxcar function (normalized heaviside step function)
// http://mathworld.wolfram.com/BoxcarFunction.html
// https://en.wikipedia.org/wiki/Heaviside_step_function
p5.Ease.prototype.boxcar = function(_x)
{
return(_x>=0.5);
}
// list algorithms
p5.Ease.prototype.listAlgos = function() {
var _styles = new Array();
for(var i in this.__proto__) {
var _t = true;
if(i=="listAlgos") _t=false;
else if(i=="fillArray") _t=false;
else if(i=="fillFloat32Array") _t=false;
else if(i=="fillFloat64Array") _t=false;
if(_t) _styles.push(i);
}
return(_styles);
}
// array xfer (for pre-rendered use)
p5.Ease.prototype.fillArray = function(_algo, _len, _args) {
var _dest = new Array(_len);
for(var i = 0;i<_len;i++)
{
var _p = i/(_len-1); // 0.-1.
_dest[i] = this[_algo](_p, _args);
}
return(_dest);
}
// array xfer (for pre-rendered use)
p5.Ease.prototype.fillFloat32Array = function(_algo, _len, _args) {
var _dest = new Float32Array(_len);
for(var i = 0;i<_len;i++)
{
var _p = i/(_len-1); // 0.-1.
_dest[i] = this[_algo](_p, _args);
}
return(_dest);
}
// array xfer (for pre-rendered use)
p5.Ease.prototype.fillFloat64Array = function(_algo, _len, _args) {
var _dest = new Float64Array(_len);
for(var i = 0;i<_len;i++)
{
var _p = i/(_len-1); // 0.-1.
_dest[i] = this[_algo](_p, _args);
}
return(_dest);
}
// =============================================================================
// p5.ArrayEval
// =============================================================================
/**
* Base class for an array evaluator
*
* @class p5.Gen
* @constructor
*/
p5.ArrayEval = function() {
//
// this object implements an 'eval'-style
// equation evaluator across n-dimensional arrays.
// insired by the 'exprfill' / [jit.expr] functionality
// in Max/MSP.
//
// note that the javascript eval() function is *not*
// considered to be particularly secure, as it can
// easily be used to execute arbitrary code.
//
// see here for an exhausting discussion of the issue:
// https://stackoverflow.com/questions/86513/why-is-using-the-javascript-eval-function-a-bad-idea
//
// the p5.ArrayEval object has three methods to create
// 1-, 2-, and 3- dimensional javascript arrays based on
// a formula encoded in a string.
// the letters u, v, and w will be replaced with various
// 'normal' maps based on their cell positions.
// * u, v, w will unwrap to 0. to 1. across dimension 1, 2, and 3
// * su, sv, sw will unwrap to -1. to 1.
// * cu, cv, cw will unwrap to their integer position in the array
// * du, dv, dw gets replaced with the length of the array in that dimension
//
// the object returns an array that solves the equation, so...
// if you instantiate an object...
// var e = new p5.ArrayEval();
// then...
// e.eval('u', 40);
// will return a one-dimensional array with 40 values from 0. to 1.
// and...
// e.eval2d('su*sv', 20, 20);
// will return a two-dimensional array with 20x20 values from -1. to 1. multiplied together.
//
// because the eval() is run in the browser, any code included will add
// functionality to the p5.ArrayEval object, e.g. p5.js math functions
// (sin(), cos(), etc.) will work correctly.
//
this.version = 0.01; // just some crap for constructor
var that = this; // some bullshit
// global dims
var l1 = 0;
var l2 = 0;
var l3 = 0;
}; // end p5.ArrayEval constructor
// array return - 1d
p5.ArrayEval.prototype.eval = function(_evalstr, _l1) {
this.l1 = _l1; // make global
var multi = 0; // default one output
var e;
if(Array.isArray(_evalstr)) multi = 1; // array per result
var _dest;
if(multi) _dest = createArray(_l1, _evalstr.length);
else _dest = createArray(_l1);
// string expansion:
// u unwraps to 0-1
// su unwraps to -1 to 1
// cu unwraps to cell value (0 to dim-1)
// du unwraps to a constant representing the dimension (size)
if(multi)
{
for(e in _evalstr)
{
_evalstr[e] = _evalstr[e].replace(/cu/g, "i");
_evalstr[e] = _evalstr[e].replace(/du/g, "l1");
_evalstr[e] = _evalstr[e].replace(/su/g, "(i/(l1-1)*2.-1.)");
_evalstr[e] = _evalstr[e].replace(/u/g, "(i/(l1-1))");
}
}
else {
_evalstr = _evalstr.replace(/cu/g, "i");
_evalstr = _evalstr.replace(/du/g, "l1");
_evalstr = _evalstr.replace(/su/g, "(i/(l1-1)*2.-1.)");
_evalstr = _evalstr.replace(/u/g, "(i/(l1-1))");
}
//console.log(_evalstr);
for(var i = 0;i<this.l1;i++)
{
if(multi)
{
for(e = 0;e<_evalstr.length;e++)
{
_dest[i][e] = eval('with(this) { ' + _evalstr[e] + ' }');
}
}
else _dest[i] = eval('with(this) { ' + _evalstr + ' }');
}
return(_dest);
}
// function synonym
p5.ArrayEval.prototype.eval1d = function(_evalstr, _l1)
{
return(this.eval(_evalstr, _l1));
}
// array return - 2d
p5.ArrayEval.prototype.eval2d = function(_evalstr, _l1, _l2) {
this.l1 = _l1; // make global
this.l2 = _l2; // make global
var multi = 0; // default one output
var e;
if(Array.isArray(_evalstr)) multi = 1; // array per result
var _dest;
if(multi) _dest = createArray(_l1, _l2, _evalstr.length);
else _dest = createArray(_l1, _l2);
// string expansion:
// u unwraps to 0-1
// su unwraps to -1 to 1
// cu unwraps to cell value (0 to dim-1)
// du unwraps to a constant representing the dimension (size)
// v unwraps to 0-1
// sv unwraps to -1 to 1
// cv unwraps to cell value (0 to dim-1)
// dv unwraps to a constant representing the dimension (size)
if(multi)
{
for(e in _evalstr)
{
_evalstr[e] = _evalstr[e].replace(/cu/g, "i");
_evalstr[e] = _evalstr[e].replace(/du/g, "l1");
_evalstr[e] = _evalstr[e].replace(/su/g, "(i/(l1-1)*2.-1.)");
_evalstr[e] = _evalstr[e].replace(/u/g, "(i/(l1-1))");
_evalstr[e] = _evalstr[e].replace(/cv/g, "j");
_evalstr[e] = _evalstr[e].replace(/dv/g, "l2");
_evalstr[e] = _evalstr[e].replace(/sv/g, "(j/(l2-1)*2.-1.)");
_evalstr[e] = _evalstr[e].replace(/v/g, "(j/(l2-1))");
}
}
else {
_evalstr = _evalstr.replace(/cu/g, "i");
_evalstr = _evalstr.replace(/du/g, "l1");
_evalstr = _evalstr.replace(/su/g, "(i/(l1-1)*2.-1.)");
_evalstr = _evalstr.replace(/u/g, "(i/(l1-1))");
_evalstr = _evalstr.replace(/cv/g, "j");
_evalstr = _evalstr.replace(/dv/g, "l2");
_evalstr = _evalstr.replace(/sv/g, "(j/(l2-1)*2.-1.)");
_evalstr = _evalstr.replace(/v/g, "(j/(l2-1))");
}
//console.log(_evalstr);
for(var i = 0;i<this.l1;i++)
{
for(var j = 0;j<this.l2;j++)
{
if(multi)
{
for(e = 0;e<_evalstr.length;e++)
{
_dest[i][j][e] = eval('with(this) { ' + _evalstr[e] + ' }');
}
}
else _dest[i][j] = eval('with(this) { ' + _evalstr + ' }');
}
}
return(_dest);
}
// array return - 3d
p5.ArrayEval.prototype.eval3d = function(_evalstr, _l1, _l2, _l3) {
this.l1 = _l1; // make global
this.l2 = _l2; // make global
this.l3 = _l3; // make global
var multi = 0; // default one output
var e;
if(Array.isArray(_evalstr)) multi = 1; // array per result
var _dest;
if(multi) _dest = createArray(_l1, _l2, _l3, _evalstr.length);
else _dest = createArray(_l1, _l2, _l3);
// string expansion:
// u unwraps to 0-1
// su unwraps to -1 to 1
// cu unwraps to cell value (0 to dim-1)
// du unwraps to a constant representing the dimension (size)
// v unwraps to 0-1
// sv unwraps to -1 to 1
// cv unwraps to cell value (0 to dim-1)
// dv unwraps to a constant representing the dimension (size)
// w unwraps to 0-1
// sw unwraps to -1 to 1
// cw unwraps to cell value (0 to dim-1)
// dw unwraps to a constant representing the dimension (size)
if(multi)
{
for(e in _evalstr)
{
_evalstr[e] = _evalstr[e].replace(/cu/g, "i");
_evalstr[e] = _evalstr[e].replace(/du/g, "l1");
_evalstr[e] = _evalstr[e].replace(/su/g, "(i/(l1-1)*2.-1.)");
_evalstr[e] = _evalstr[e].replace(/u/g, "(i/(l1-1))");
_evalstr[e] = _evalstr[e].replace(/cv/g, "j");
_evalstr[e] = _evalstr[e].replace(/dv/g, "l2");
_evalstr[e] = _evalstr[e].replace(/sv/g, "(j/(l2-1)*2.-1.)");
_evalstr[e] = _evalstr[e].replace(/v/g, "(j/(l2-1))");
_evalstr[e] = _evalstr[e].replace(/cw/g, "k");
_evalstr[e] = _evalstr[e].replace(/dw/g, "l3");
_evalstr[e] = _evalstr[e].replace(/sw/g, "(k/(l3-1)*2.-1.)");
_evalstr[e] = _evalstr[e].replace(/w/g, "(k/(l3-1))");
}
}
else {
_evalstr = _evalstr.replace(/cu/g, "i");
_evalstr = _evalstr.replace(/du/g, "l1");
_evalstr = _evalstr.replace(/su/g, "(i/(l1-1)*2.-1.)");
_evalstr = _evalstr.replace(/u/g, "(i/(l1-1))");
_evalstr = _evalstr.replace(/cv/g, "j");
_evalstr = _evalstr.replace(/dv/g, "l2");
_evalstr = _evalstr.replace(/sv/g, "(j/(l2-1)*2.-1.)");
_evalstr = _evalstr.replace(/v/g, "(j/(l2-1))");
_evalstr = _evalstr.replace(/cw/g, "k");
_evalstr = _evalstr.replace(/dw/g, "l3");
_evalstr = _evalstr.replace(/sw/g, "(k/(l3-1)*2.-1.)");
_evalstr = _evalstr.replace(/w/g, "(k/(l3-1))");
}
//console.log(_evalstr);
for(var i = 0;i<this.l1;i++)
{
for(var j = 0;j<this.l2;j++)
{
for(var k = 0;k<this.l3;k++)
{
if(multi)
{
for(e = 0;e<_evalstr.length;e++)
{
_dest[i][j][k][e] = eval('with(this) { ' + _evalstr[e] + ' }');
}
}
else _dest[i][j][k] = eval('with(this) { ' + _evalstr + ' }');
}
}
}
return(_dest);
}
// =============================================================================
// p5.Filt
// =============================================================================
/**
* Base class for a time-domain filter
*
* @class p5.Filt
* @constructor
*/
p5.Filt = function(_fs) {
//
// this object implements time-domain filtering based on
// robert bristow-johnson's cookbook formulae for
// biquadratic (2 pole, 2 zero) filters :
// http://www.musicdsp.org/files/Audio-EQ-Cookbook.txt
// Copyright (C) 2003 Robert Bristow-Johnson
//
// we are using his general 2p2z / biquad formula:
// y[n] = (b0/a0)*x[n] + (b1/a0)*x[n-1] + (b2/a0)*x[n-2] - (a1/a0)*y[n-1] - (a2/a0)*y[n-2]
//
// this is the same algorithm used in the [biquad~] object in PureData and Max/MSP,
// the [2p2z~] object in Max/FTS, the BiQuad.cpp ugen in the STK (ChucK, etc.),
// SOS in SuperCollider, the biquada opcode in CSOUND, etc. etc. etc.
//
// the biquadratic filter equation is pretty standard, insofar as you can
// construct any 'simple' filter (lowpass, highpass, bandpass, bandstop,
// allpass, etc.) with independent gain controls (coefficients) for the
// input (x[n]), (usually) the overall output (y[n]), and four samples
// of memory - the two previous input samples (x[n-1], x[n-2]), and the
// two previous output samples (y[n-1], y[n-2]).
//
// so this filter has both 2nd-order FIR (feedforward) and 2nd-order IIR
// (feedback) capabilities. you set the coefficients by running some
// trig against your desired filter characteristics...
// * type
// * cutoff / center frequency
// * Q / resonance
// * gain (for some filters)
// ...and the known sample rate (Fs).
//
// more complex filters can be constructed by 'cascading' biquad filters
// in series, e.g. for butterworth / chebyshev filters that require a
// more flat frequency response than a simple biquad can offer.
//
// you can find lots of info about this filter by searching for
// 'biquad' on your internet machine. however...
//
// some people, they will flip their 'a' and 'b' coefficients.
// some people, they will skip a0 and use 5 coefficients for biquad formulae.
// some people, they like to go out dancing.
//
// p5.Filt is offered here as a module to allow for filter design
// independent of the Web Audio framework used by p5.sound / Tone.js.
// there are lots of other things one might want to 'filter' besides sound.
// the defaults provided here are against the nominal graphics frame rate
// for p5.js (60Hz), giving an effective nyquist (upper frequency limit)
// of 30Hz. try running a random() generator through it, or using it
// to smooth out a noisy signal coming from a sensor or a network API.
// it wil process input sample-by-sample through the tick() method or
// process arrays vector-by-vector through the process() method.
//
if(!_fs) _fs = 60.; // nominal p5 default framerate
this.version = 0.01; // just some crap for constructor
var that = this; // some bullshit
// biquad / 2p2z coefficients
this.a0 = 1.; // denominator gain for filter output (y[n] term)
this.b0 = 1.; // gain for current input (x[n] term)
this.a1 = 0.; // gain for previous input (x[n-1] term)
this.b1 = 0.; // gain for previous previous input (x[n-2] term)
this.a2 = 0.; // gain for previous output (y[n-1] term)
this.b2 = 0.; // gain for previous previous output (y[n-2] term)
// sample memory
this.xn = 0.; // x[n] (input)
this.yn = 0.; // y[n] (output)
this.xpn = 0.; // x[n-1] (previous input)
this.ypn = 0.; // y[n-1] (previous output)
this.xppn = 0.; // x[n-2] (previous previous input)
this.yppn = 0.; // y[n-2] (previous previous output)
// parameters
this.fs = _fs; // sampling rate
this.type = "LPF"; // default to lowpass filter
this.f0 = this.fs/4.; // center/cutoff frequency; default to fs/4 (half nyquist)
this.dB = 0.; // gain for peaking / shelving
this.Q = 1.; // width / resonance of filter
// intermediates
this.A; // amplitude
this.w0; // filter increment in radians
this.cw0; // cosine of w0 - precompute
this.sw0; // sine of w0 - precompute
this.alpha; // alpha term - precompute
this.soff; // shelving offset - precompute
// compute coefficients based on default parameters
this.precalc();
}; // end p5.Filt constructor
// define the filter characteristics all at once.
p5.Filt.prototype.set = function(_type, _f0, _Q, _dB)
{
if(_type) this.type = _type;
if(_f0) this.f0 = _f0;
if(_Q) this.Q = _Q;
if(_dB) this.dB = _dB; // only matters for shelving filters
this.precalc();
}
// set the sampling rate (fs) of the filter.
p5.Filt.prototype.setFs = function(_fs)
{
if(_fs) this.fs = _fs;
this.precalc();
}
// set the type of the filter.
p5.Filt.prototype.setType = function(_type)
{
if(_type) this.type = _type;
this.precalc();
}
// set the cutoff/center frequency.
p5.Filt.prototype.setFreq = function(_f0)
{
if(_f0) this.f0 = _f0;
this.precalc();
}
// set the Q(uality) of the filter.
p5.Filt.prototype.setQ = function(_Q)
{
if(_Q) this.Q = _Q;
this.precalc();
}
// set the gain (in decibels).
p5.Filt.prototype.setGain = function(_dB)
{
if(_dB) this.dB = _dB;
this.precalc();
}
// set the bandwidth in Hz (inverse of Q).
p5.Filt.prototype.setBW = function(_bw)
{
// technically...
// this.Q = 1.0/(2*Math.sinh(log(2)/2*_bw*this.w0/this.sw0));
// but YOLO...
if(_bw) this.Q = this.f0/_bw;
this.precalc();
}
// process multiple values as a single vector;
// n.b. filter will retain memory... use a clear()
// beforehand if you want the filter zeroed.
p5.Filt.prototype.process = function(_x)
{
var _y; // output
// figure out input type
if(Array.isArray(_x)) _y = new Array(_x.length);
if(_x.constructor == Float32Array) _y = new Float32Array(_x.length);
if(_x.constructor == Float64Array) _y = new Float64Array(_x.length);
for(var i in _x)
{
_y[i] = this.tick(_x[i]);
}
// output
return(_y);
}
// process sample-by-sample, STK style.
p5.Filt.prototype.tick = function(_x)
{
// input
this.xn = _x;
// biquad - the only line in this whole situation that really matters:
this.yn = (this.b0/this.a0)*this.xn + (this.b1/this.a0)*this.xpn + (this.b2/this.a0)*this.xppn - (this.a1/this.a0)*this.ypn - (this.a2/this.a0)*this.yppn;
// shift
this.xppn = this.xpn;
this.xpn = this.xn;
this.yppn = this.ypn;
this.ypn = this.yn;
// output
return(this.yn);
}
// clear biquad memory -
// useful if the filter becomes unstable and you start getting NaNs as output.
p5.Filt.prototype.clear = function()
{
// clear samples
this.xn = 0; // x[n] (input)
this.yn = 0; // y[n] (output)
this.xpn = 0; // x[n-1]
this.ypn = 0; // y[n-1]
this.xppn = 0; // x[n-2]
this.yppn = 0; // y[n-2]
}
// set coefficients 'by hand' -
// useful for cascade (butterworth / chebyshev) filtering
p5.Filt.prototype.coeffs = function(_a0, _b0, _b1, _b2, _a1, _a2)
{
if(arguments.length!=6)
{
console.log("p5.Filt needs six coefficients for raw biquad:");
console.log(" a0 -> denominator gain for filter (y[n] term).");
console.log(" b0 -> gain for current input (x[n] term).");
console.log(" b1 -> gain for previous input (x[n-1] term).");
console.log(" b2 -> gain for previous previous input (x[n-2] term).");
console.log(" a1 -> gain for previous output (y[n-1] term).");
console.log(" a2 -> gain for previous previous output (y[n-2] term).");
console.log("when working with 5-coefficient biquad formulae set a0 to 1.0.");
console.log("n.b. some systems will refer to y terms as 'b' and x terms as 'a'.");
}
else
{
this.a0 = _a0; // y[n] (overall gain)
this.b0 = _b0; // x[n]
this.b1 = _b1; // x[n-1]
this.b2 = _b2; // x[n-2]
this.a1 = _a1; // y[n-1]
this.a2 = _a2; // y[n-2]
}
}
// calculate filter coefficients from parameters
p5.Filt.prototype.precalc = function()
{
// intermediates
this.A = sqrt(pow(10, this.dB/20)); // amplitude
this.w0 = 2*PI*this.f0/this.fs; // filter increment in radians
this.cw0 = cos(this.w0); // cosine of w0 - precompute
this.sw0 = sin(this.w0); // sine of w0 - precompute
this.alpha = sin(this.w0)/(2*this.Q); // alpha term - precompute
this.soff = 2*sqrt(this.A)*this.alpha; // shelving offset - precompute
switch(this.type) {
case "LPF":
case "lowpass":
this.b0 = (1 - this.cw0)/2;
this.b1 = 1 - this.cw0;
this.b2 = (1 - this.cw0)/2;
this.a0 = 1 + this.alpha;
this.a1 = -2 * this.cw0;
this.a2 = 1 - this.alpha;
break;
case "HPF":
case "highpass":
this.b0 = (1 + this.cw0)/2;
this.b1 = -(1 + this.cw0);
this.b2 = (1 + this.cw0)/2;
this.a0 = 1 + this.alpha;
this.a1 = -2 * this.cw0;
this.a2 = 1 - this.alpha;
break;
case "BPF":
case "bandpass":
this.b0 = this.sw0/2;
this.b1 = 0;
this.b2 = -this.sw0/2;
this.a0 = 1 + this.alpha;
this.a1 = -2 * this.cw0;
this.a2 = 1 - this.alpha;
break;
case "BPF0": // constant 0 peak gain
case "resonant":
this.b0 = this.alpha;
this.b1 = 0;
this.b2 = -this.alpha;
this.a0 = 1 + this.alpha;
this.a1 = -2 * this.cw0;
this.a2 = 1 - this.alpha;
break;
case "notch":
case "bandreject":
case "bandstop":
this.b0 = 1;
this.b1 = -2 * this.cw0;
this.b2 = 1;
this.a0 = 1 + this.alpha;
this.a1 = -2 * this.cw0;
this.a2 = 1 - this.alpha;
break;
case "APF":
case "allpass":
this.b0 = 1 - this.alpha;
this.b1 = -2 * this.cw0;
this.b2 = 1 + this.alpha;
this.a0 = 1 + this.alpha;
this.a1 = -2 * this.cw0;
this.a2 = 1 - this.alpha;
break;
case "peakingEQ":
case "peaknotch":
this.b0 = 1 + this.alpha*this.A;
this.b1 = -2 * this.cw0;
this.b2 = 1 - this.alpha*this.A;
this.a0 = 1 + this.alpha/this.A;
this.a1 = -2 * this.cw0;
this.a2 = 1 - this.alpha/this.A;
break;
case "lowShelf":
case "lowshelf":
this.b0 = this.A*((this.A+1) - (this.A-1)*this.cw0 + this.soff);
this.b1 = 2*this.A*((this.A-1) - (this.A+1)*this.cw0);
this.b2 = this.A*((this.A+1) - (this.A-1)*this.cw0 - this.soff);
this.a0 = (this.A+1) + (this.A-1)*this.cw0 + this.soff;
this.a1 = -2*((this.A-1) + (this.A+1)*this.cw0);
this.a2 = (this.A+1) + (this.A-1)*this.cw0 - this.soff;
break;
case "highShelf":
case "highshelf":
this.b0 = this.A*((this.A+1) + (this.A-1)*this.cw0 + this.soff);
this.b1 = -2*this.A*((this.A-1) + (this.A+1)*this.cw0);
this.b2 = this.A*((this.A+1) + (this.A-1)*this.cw0 - this.soff);
this.a0 = (this.A+1) - (this.A-1)*this.cw0 + this.soff;
this.a1 = 2*((this.A-1) - (this.A+1)*this.cw0);
this.a2 = (this.A+1) - (this.A-1)*this.cw0 - this.soff;
break;
default: // pass through
this.b0 = 1.;
this.b1 = 0.;
this.b2 = 0.;
this.a0 = 1.;
this.a1 = 0.;
this.a2 = 0.;
break;
}
}
// =============================================================================
// p5.FastFourierTransform
// =============================================================================
/**
* Base class for an FFT (non-signal) module
*
* @class p5.FastFourierTranform
* @constructor
*/
p5.FastFourierTransform = function(_bufsize, _fs, _hopsize) {
//
// this object implements a simple FFT (fast fourier transform)
// module using the 1965 cooley-tukey FFT algorithm:
// http://www.ams.org/journals/mcom/1965-19-090/S0025-5718-1965-0178586-1/S0025-5718-1965-0178586-1.pdf
//
// there's a great breakdown of how the FFT algorithm works here:
// https://www.cs.cmu.edu/afs/andrew/scs/cs/15-463/2001/pub/www/notes/fourier/fourier.pdf
//
// the code below is adapted from the FFT module in dsp.js written by @corbanbrook :
// https://github.com/corbanbrook/dsp.js/
// Copyright (c) 2010 Corban Brook, released under the MIT license
//
// p5.FastFourierTransform runs completely independent of the Web Audio
// framework used by p5.sound / Tone.js, which allows you to analyze
// and synthesize frequency-domain data regardless of whether it counts
// as 'sound' or runs at audio rate.
//
// how many samples are we analyzing?
// should be a power of 2.
this.bufferSize = _bufsize ? _bufsize : 512;
// what's our hopsize?
// if nothing's there, set it to the FFT size.
this.hopSize = _hopsize ? _hopsize : this.bufferSize;
// fourier transforms are 'rate' agnostic...
// the algorithm doesn't care how fast the signal is, so
// the sampling rate here is simply to calculate
// getBandFrequency() as a utility function so we can
// find out, e.g. the center frequency of a specific FFT bin.
this.sampleRate = _fs ? _fs : 60;
// FFT fundamental / bandwidth: used for
// getBandFrequency() and calculateFrequency()
this.bandwidth = this.sampleRate / this.bufferSize;
// data arrays for the raw real/imaginary FFT data.
this.real = new Float64Array(this.bufferSize);
this.imag = new Float64Array(this.bufferSize);
// spectrum compute flag and data arrays for the magnitude / phase.
// note that the spectrum (correctly) only needs a half frame of
// data, as the FFT output is mirrored for bins above nyquist (SR/2).
this.doSpectrum = true;
this.magnitude = new Float64Array(this.bufferSize/2);
this.phase = new Float64Array(this.bufferSize/2);
// compute flag and data arrays for instantaneous frequency estimation
this.doFrequency = false;
this.runningphase = new Float64Array(this.bufferSize/2);
this.previousphase = new Float64Array(this.bufferSize/2);
this.frequency = new Float64Array(this.bufferSize/2);
// the calculateSpectrum() method will stash the 'loudest'
// bin, as well as its value.
this.peakBand = 0; // peak band (FFT bin)
this.peak = 0.; // peak value.
// calculate the FFT 'reverse table'.
// the reverse table is a super groovy hack that helps put the
// 'fast' in fast fourier transform.
//
// to quote jim noxon at texas instruments :
// "The purpose of having this table is due to a quirk of the FFT algorithm.
// As it turns out, the indexing done in the FFT algorithm (and the IFFT too)
// relates the input index to the output index in a manner where reversing
// the bits of the input index creates the appropriate index for the output.
// As you can see the inner for() loop would have to be run for every
// input to output index operation of the FFT algorithm so by creating a table
// up front, the FFT algorithm can be run multiple times and only needs to
// be calculated once. Further, if this table is calculated at compile time,
// then there is no dynamic initialization necessary at all. Now, it is
// simply a look up into the table using the input index to generate the
// output index. Some DSPs have a special addressing mode that does this
// automatically eliminating the need for the table all together."
//
this.reverseTable = new Uint32Array(this.bufferSize);
var limit = 1;
var bit = this.bufferSize >> 1;
var i;
while (limit < this.bufferSize) {
for (i = 0; i < limit; i++) {
this.reverseTable[i + limit] = this.reverseTable[i] + bit;
}
limit = limit << 1;
bit = bit >> 1;
}
// precompute sine and cosine sampling increment (SI) arrays.
this.sinTable = new Float64Array(this.bufferSize);
this.cosTable = new Float64Array(this.bufferSize);
for (i = 0; i < this.bufferSize; i++) {
// we never call index 0, which is NaN
this.sinTable[i] = sin(-PI/i);
this.cosTable[i] = cos(-PI/i);
}
}; // end p5.FastFourierTransform constructor
// query the center frequency of a specific FFT band (e.g. the peakBand).
// remember that this is the frequency of the *filter*, not necessarily
// the signal that is actuating the filter. to find that out you would
// compute running phase off of sequential frames of data to see whether
// the phase in the bin is rising or falling, and use that to compute
// the frequency differential between the band and the actuating signal
// (see below... calculateFrequency(), for an implementation).
p5.FastFourierTransform.prototype.getBandFrequency = function(_index) {
return this.bandwidth * _index;
}
// calculate the spectrum (magnitude / phase) from the cartesian
// (real / imaginary - x / y) raw FFT output. this is basically a
// pythagorean transformation, with the magnitudes scaled to ranges
// based on the FFT size.
p5.FastFourierTransform.prototype.calculateSpectrum = function() {
var rval, ival, mag, phase;
var bSi = 2 / this.bufferSize; // scaling factor for magnitudes
this.peakBand = 0; // reset each spectral frame
this.peak = 0; // reset each spectral frame
for (var i = 0, N = this.bufferSize/2; i < N; i++) {
rval = this.real[i]; // x
ival = this.imag[i]; // y
mag = bSi * sqrt(rval * rval + ival * ival);
phase = atan2(ival, rval);
if (mag > this.peak) {
this.peakBand = i;
this.peak = mag;
}
this.magnitude[i] = mag;
this.phase[i] = phase;
}
if(this.doFrequency) this.calculateFrequency();
}
// computes instantaneous frequency based on running phase.
p5.FastFourierTransform.prototype.calculateFrequency = function() {
var temp = Array.from(this.phase);
this.runningphase = subtractArray(temp, this.previousphase); // compute running phase
this.runningphase = addArray(this.runningphase,TWO_PI+PI);
this.runningphase = moduloArray(this.runningphase, TWO_PI);
this.runningphase = subtractArray(this.runningphase, PI);
this.previousphase = temp;
// compute frequencies:
for(i in this.frequency)
{
this.frequency[i] = this.bandwidth*i + this.runningphase[i]*this.sampleRate/(TWO_PI*this.hopSize);
}
}
// performs a forward FFT transform on a sample buffer.
// this converts the data from the time domain into the frequency domain.
// fills up the real and imag buffers in the object's data structure,
// and also runs calculateSpectrum() to get the magnitude and phase.
p5.FastFourierTransform.prototype.forward = function(_buffer) {
var k = floor(log(this.bufferSize) / Math.LN2);
if (pow(2, k) !== this.bufferSize) { throw "buffer size must be a power of 2."; }
if (this.bufferSize !== _buffer.length) { throw "buffer is not the same size as defined FFT. FFT: " + bufferSize + " buffer: " + buffer.length; }
var halfSize = 1;
var phaseShiftStepReal, phaseShiftStepImag;
var currentPhaseShiftReal, currentPhaseShiftImag;
var tr, ti;
var tmpReal;
var i, o;
// STEP 1 - fill up the 'real' array with the signal according to the reverseTable ordering
// makes it faster for memory access later as it's already copied in there and we can adjustable
// iterate through it.
for (i = 0; i < this.bufferSize; i++) {
this.real[i] = _buffer[this.reverseTable[i]];
this.imag[i] = 0;
}
// STEP 2 - do the actual discrete fourier transform (DFT).
// halfSize will increment in powers of two up to half of the FFT size (nyquist)
// so for a 1024-sample FFT, we're doing 10 outer loops (1, 2, 4, 8, 16, 32, 64, 128, 256, 512).
while (halfSize < this.bufferSize) {
// figure out the phase increment necessary for each sample size
phaseShiftStepReal = this.cosTable[halfSize];
phaseShiftStepImag = this.sinTable[halfSize];
// starting x,y positions
currentPhaseShiftReal = 1;
currentPhaseShiftImag = 0;
// intermediate loop - fftStep will increment from 0 to halfSize-1,
// i.e. number of fftStep loops equals to halfSize each time.
// each one of these passes is a DFT.
for (var fftStep = 0; fftStep < halfSize; fftStep++) {
i = fftStep;
// inner loop - i and o will integrate the convolution of the input signal
// with cosine and sine functions at a period equal to the fftStep
while (i < this.bufferSize) {
o = i + halfSize;
// uncomment the line below to see what's going on:
// console.log('halfSize : ' + halfSize + ', fftStep : ' + fftStep + ', i : ' + i + ', o : ' + o + ', psr : ' + currentPhaseShiftReal + ', psi : ' + currentPhaseShiftImag);
tr = (currentPhaseShiftReal * this.real[o]) - (currentPhaseShiftImag * this.imag[o]);
ti = (currentPhaseShiftReal * this.imag[o]) + (currentPhaseShiftImag * this.real[o]);
this.real[o] = this.real[i] - tr;
this.imag[o] = this.imag[i] - ti;
this.real[i] += tr;
this.imag[i] += ti;
i += halfSize << 1;
}
// increment the sampling interval for the next DFT in the loop:
tmpReal = currentPhaseShiftReal;
currentPhaseShiftReal = (tmpReal * phaseShiftStepReal) - (currentPhaseShiftImag * phaseShiftStepImag);
currentPhaseShiftImag = (tmpReal * phaseShiftStepImag) + (currentPhaseShiftImag * phaseShiftStepReal);
}
// shift up halfSize for next outer loop
halfSize = halfSize << 1;
}
if(this.doSpectrum) this.calculateSpectrum(); // calculate mag/phase from real/imag
}
// performs an inverse FFT transform (an IFFT) on either real/imag
// data passed into the function or, if called without arguments,
// the current spectral frame stored in the object.
// this converts the data from the frequency domain into the time domain.
// the function returns a buffer containing the time-domain signal.
p5.FastFourierTransform.prototype.inverse = function(_real, _imag) {
_real = _real || this.real;
_imag = _imag || this.imag;
var halfSize = 1;
var phaseShiftStepReal, phaseShiftStepImag;
var currentPhaseShiftReal, currentPhaseShiftImag;
var off;
var tr, ti;
var tmpReal;
var i;
for (i = 0; i < this.bufferSize; i++) {
_imag[i] *= -1;
}
var revReal = new Float64Array(this.bufferSize);
var revImag = new Float64Array(this.bufferSize);
for (i = 0; i < _real.length; i++) {
revReal[i] = _real[this.reverseTable[i]];
revImag[i] = _imag[this.reverseTable[i]];
}
_real = revReal;
_imag = revImag;
while (halfSize < this.bufferSize) {
phaseShiftStepReal = this.cosTable[halfSize];
phaseShiftStepImag = this.sinTable[halfSize];
currentPhaseShiftReal = 1;
currentPhaseShiftImag = 0;
for (var fftStep = 0; fftStep < halfSize; fftStep++) {
i = fftStep;
while (i < this.bufferSize) {
off = i + halfSize;
tr = (currentPhaseShiftReal * _real[off]) - (currentPhaseShiftImag * _imag[off]);
ti = (currentPhaseShiftReal * _imag[off]) + (currentPhaseShiftImag * _real[off]);
_real[off] = _real[i] - tr;
_imag[off] = _imag[i] - ti;
_real[i] += tr;
_imag[i] += ti;
i += halfSize << 1;
}
tmpReal = currentPhaseShiftReal;
currentPhaseShiftReal = (tmpReal * phaseShiftStepReal) - (currentPhaseShiftImag * phaseShiftStepImag);
currentPhaseShiftImag = (tmpReal * phaseShiftStepImag) + (currentPhaseShiftImag * phaseShiftStepReal);
}
halfSize = halfSize << 1;
}
var buffer = new Float64Array(this.bufferSize); // this should be reused instead
for (i = 0; i < this.bufferSize; i++) {
buffer[i] = _real[i] / this.bufferSize;
}
return buffer;
}
// =============================================================================
// Luke's Misc. Utilities (extends p5.js)
// =============================================================================
// constrained integer mapping function (useful for array lookup).
// similar to the Max [zmap] object when used with integers.
// syntactically equivalent to the p5.js / processing map() function.
p5.prototype.imap = function(_x, _a, _b, _c, _d) {
return(constrain(floor(map(_x, _a, _b, _c, _d)), min(_c,_d), max(_c, _d)-1));
}
// number wrapping (courtesy of @pd-l2ork puredata [pong])
p5.prototype.wrap = function(_x, _min, _max) {
_a = min(_min, _max);
_b = max(_min, _max);
var _y;
var _r = _b-_a; // range
if(_x < _b && _x >= _a) { // normal
return(_x);
}
else if(_a==_b) { // catch
return(_a);
}
else {
if(_x < _a) {
_y = _x;
while(_y < _a){
_y += _r;
};
}
else {
_y = ((_x-_a)%_r) + _a;
}
}
return(_y);
}
// number folding (courtesy of @pd-l2ork puredata [pong])
p5.prototype.fold = function(_x, _min, _max) {
_a = min(_min, _max);
_b = max(_min, _max);
var _y;
var _r = _b-_a; // range
if(_x < _b && _x >= _a) { // normal
return(_x);
}
else if(_a==_b) { // catch
return(_a);
}
else {
if(_x < _a) {
var _d = _a - _x; // diff between input and minimum (positive)
var _m = floor(_d/_r); // case where input is more than a range away from minval
if(_m % 2 == 0) { // even number of ranges away = counting up from min
_d = _d - _m*_r;
_y = _d + _a;
}
else { // odd number of ranges away = counting down from max
_d = _d - _m*_r;
_y = _b - _d;
}
}
else { // input > maxval
var _d = _x - _b; // diff between input and max (positive)
var _m = floor(_d/_r); // case where input is more than a range away from maxval
if(_m % 2 == 0) { // even number of ranges away = counting down from max
_d = _d - _m*_r;
_y = _b - _d;
}
else { //odd number of ranges away = counting up from min
_d = _d - _m*_r;
_y = _d + _a;
}
}
}
return(_y);
}
// create n-dimensional arrays
p5.prototype.createArray = function(_len)
{
var _arr = new Array(_len || 0).fill(0),
i = _len;
if (arguments.length > 1) {
var args = Array.prototype.slice.call(arguments, 1);
while(i--) _arr[_len-1 - i] = this.createArray.apply(this, args);
}
return _arr;
}
// normalize a numerical array to absmax=1.0 without shifting DC
p5.prototype.normalizeArray = function(_array) {
var _max = max(max(_array), abs(min(_array)));
return(_array.map(function(_v) { return _v/_max; }));
}
// resize a numerical array to a new size with linear interpolation
p5.prototype.resizeArray = function(_array, _newlen) {
var _out = [];
for(var i = 0;i<_newlen;i++)
{
var aptr = map(i, 0, _newlen-1, 0, _array.length-1);
var a = floor(aptr);
var b = ceil(aptr);
var l = aptr%1.0;
_out[i] = lerp(_array[a], _array[b], l);
}
return(_out);
}
// multiply two arrays
p5.prototype.multiplyArray = function(_a1, _a2) {
if(!Array.isArray(_a2)) _a2 = [_a2]; // allow scalars
var _out = [];
if(_a1.length!=_a2.length) _a2 = resizeArray(_a2, _a1.length);
for(var i = 0;i<_a1.length;i++)
{
_out[i] = _a1[i] * _a2[i];
}
return(_out);
}
// add two arrays
p5.prototype.addArray = function(_a1, _a2) {
if(!Array.isArray(_a2)) _a2 = [_a2]; // allow scalars
var _out = [];
if(_a1.length!=_a2.length) _a2 = resizeArray(_a2, _a1.length);
for(var i = 0;i<_a1.length;i++)
{
_out[i] = _a1[i] + _a2[i];
}
return(_out);
}
// subtract two arrays
p5.prototype.subtractArray = function(_a1, _a2) {
if(!Array.isArray(_a2)) _a2 = [_a2]; // allow scalars
var _out = [];
if(_a1.length!=_a2.length) _a2 = resizeArray(_a2, _a1.length);
for(var i = 0;i<_a1.length;i++)
{
_out[i] = _a1[i] - _a2[i];
}
return(_out);
}
// divide two arrays
p5.prototype.divideArray = function(_a1, _a2) {
if(!Array.isArray(_a2)) _a2 = [_a2]; // allow scalars
var _out = [];
if(_a1.length!=_a2.length) _a2 = resizeArray(_a2, _a1.length);
for(var i = 0;i<_a1.length;i++)
{
_out[i] = _a1[i] / _a2[i];
}
return(_out);
}
// modulo two arrays
p5.prototype.moduloArray = function(_a1, _a2) {
if(!Array.isArray(_a2)) _a2 = [_a2]; // allow scalars
var _out = [];
if(_a1.length!=_a2.length) _a2 = resizeArray(_a2, _a1.length);
for(var i = 0;i<_a1.length;i++)
{
_out[i] = _a1[i] % _a2[i];
}
return(_out);
}
// return the sum of an array
p5.prototype.sumArray = function(_a) {
var _s = _a.reduce(function(_acc, _val) {
return(_acc+_val);
});
return(_s);
}
// Java Float.floatToIntBits() IEEE 754 / 32-bit (h/t @mattdesl):
p5.prototype.f2ib = function(_x)
{
var int8 = new Int8Array(4);
var int32 = new Int32Array(int8.buffer, 0, 1);
var float32 = new Float32Array(int8.buffer, 0, 1);
float32[0] = _x;
return(int32[0]);
}
// Java Float.intBitstoFloat() IEEE 754 / 32-bit (h/t @mattdesl):
p5.prototype.ib2f = function(_x)
{
var int8 = new Int8Array(4);
var int32 = new Int32Array(int8.buffer, 0, 1);
var float32 = new Float32Array(int8.buffer, 0, 1);
int32[0] = _x;
return(float32[0]);
}
// normalized sinc function (integral equals 1, not PI)
// the normalized sinc is the FT of the rectangular function.
// 'sinc' is short for sinus cardinalis (woodward '52):
// http://www.norbertwiener.umd.edu/crowds/documents/Woodward52.pdf
p5.prototype.sinc = function(_x) {
return(sin(PI*_x)/(PI*_x));
}
// besselI0 - regular modified cylindrical Bessel function (Bessel I)
// https://en.wikipedia.org/wiki/Bessel_function
// ported from kbdwindow.cpp by craig stuart sapp @ CCRMA ca. 2001
p5.prototype.besselI0 = function(_x) {
var denominator;
var numerator;
var z;
if (_x == 0.0) {
return(1.0);
} else {
z = _x * _x;
numerator = (z* (z* (z* (z* (z* (z* (z* (z* (z* (z* (z* (z* (z*
(z* 0.210580722890567e-22 + 0.380715242345326e-19 ) +
0.479440257548300e-16) + 0.435125971262668e-13 ) +
0.300931127112960e-10) + 0.160224679395361e-7 ) +
0.654858370096785e-5) + 0.202591084143397e-2 ) +
0.463076284721000e0) + 0.754337328948189e2 ) +
0.830792541809429e4) + 0.571661130563785e6 ) +
0.216415572361227e8) + 0.356644482244025e9 ) +
0.144048298227235e10);
denominator = (z*(z*(z-0.307646912682801e4)+
0.347626332405882e7)-0.144048298227235e10);
}
return(-numerator/denominator);
}
// plot an array to the console as if it were a VT100 terminal.
// ported from a copy of fplot.c found on luke's NeXTstation.
// fplot.c seems rewritten from FORTRAN, presumably by
// paul lansky, while porting MIX to C in 83/84.
// man page last troff'ed january 31, 1987, 6:56PM by paul lansky.
// c code last modified october 18, 1990, 2:26PM by brad garton.
p5.prototype.fplot = function(_array, _css) {
var a;
if(!Array.isArray(_array)) a = [_array]; // single value
if(Array.isArray(_array)) a = _array; // normal array
if(_array.constructor == Float32Array) a = Array.prototype.slice.call(_array);
if(_array.constructor == Float64Array) a = Array.prototype.slice.call(_array);
var TERMWIDTH = 80; // columns (1 additional will be used for left margin)
var TERMHEIGHT = 23; // VT100 is 24 rows ('take back one kadam...')
var out = [];
var si, phase;
var i, j, k, len, wave;
var line = '';
len = _array.length;
// decimate or interpolate array to TERMWIDTH values, scale to absmax=1.
out = resizeArray(a, TERMWIDTH);
out = normalizeArray(out);
// plot the fucker
si = 1./((TERMHEIGHT-1)/2.);
phase = 1.;
for(i = 0; i < TERMHEIGHT; i++) {
k = 0;
// add alternator to left margin of line - prevents browser consoles
// from interpreting duplicate lines and only printing them once:
if(i%2) line= '~'; else line='|';
// format line based on function being within phase boundary
for(j = 0; j < TERMWIDTH-1; j++) {
if(isNaN(out[j])) out[j] = 0; // filter out garbage
if((out[j]>=phase) && (out[j]<phase+si)) {
line+= (out[j+1] > phase+si) ? '/' : '-';
if(out[j+1] < phase) line+= '\\';
k = j;
}
else if (((out[j]<phase)&&(out[j+1]>phase+si)) ||
((out[j]>phase+si)&&(out[j+1]<phase))) {
line+= '|';
k = j;
}
else line+= ' '; // function isn't within range... fill with space
}
// center line
if ((0>=phase) && (0<phase+si)) {
line = '~'; // alternator
for(j = 0; j < TERMWIDTH; j++) line+= '-';
k = TERMWIDTH-2;
}
console.log('%c'+line, _css); // print, including CSS
phase-= si; // decrement phase
}
return(0);
}
}));
/*
todo:
*/
// EOF
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