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animation_collection.ino
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animation_collection.ino
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void Rotating_Blob() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.01; // speed ratios for the oscillators
timings.ratio[0] = 0.1; // higher values = faster transitions
timings.ratio[1] = 0.03;
timings.ratio[2] = 0.03;
timings.ratio[3] = 0.03;
timings.offset[1] = 10;
timings.offset[2] = 20;
timings.offset[3] = 30;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.scale_x = 0.1;
animation.scale_y = 0.1;
animation.offset_x = 0;
animation.offset_y = 0;
animation.angle = polar_theta[x][y] + move.radial[0];
animation.dist = distance[x][y];
animation.z = move.linear[0];
animation.low_limit = -1;
float show1 = render_value(animation);
animation.angle = polar_theta[x][y] - move.radial[1] + show1/512.0;
animation.dist = distance[x][y] * show1/255.0;
animation.low_limit = 0;
animation.z = move.linear[1];
float show2 = render_value(animation);
animation.angle = polar_theta[x][y] - move.radial[2] + show1/512.0;
animation.dist = distance[x][y] * show1/220.0;
animation.z = move.linear[2];
float show3 = render_value(animation);
animation.angle = polar_theta[x][y] - move.radial[3] + show1/512.0;
animation.dist = distance[x][y] * show1/200.0;
animation.z = move.linear[3];
float show4 = render_value(animation);
// colormapping
pixel.red = (show2+show4)/2;
pixel.green = show3 / 6;
pixel.blue = 0;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Chasing_Spirals() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.01; // speed ratios for the oscillators
timings.ratio[0] = 0.1; // higher values = faster transitions
timings.ratio[1] = 0.13;
timings.ratio[2] = 0.16;
timings.offset[1] = 10;
timings.offset[2] = 20;
timings.offset[3] = 30;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.angle = 3 * polar_theta[x][y] + move.radial[0] - distance[x][y]/3;
animation.dist = distance[x][y];
animation.scale_z = 0.1;
animation.scale_y = 0.1;
animation.scale_x = 0.1;
animation.offset_x = move.linear[0];
animation.offset_y = 0;
animation.offset_z = 0;
animation.z = 0;
float show1 = render_value(animation);
animation.angle = 3 * polar_theta[x][y] + move.radial[1] - distance[x][y]/3;
animation.dist = distance[x][y];
animation.offset_x = move.linear[1];
float show2 = render_value(animation);
animation.angle = 3 * polar_theta[x][y] + move.radial[2] - distance[x][y]/3;
animation.dist = distance[x][y];
animation.offset_x = move.linear[2];
float show3 = render_value(animation);
// colormapping
float radius = 10;
float radial_filter = (radius - distance[x][y]) / radius;
pixel.red = 3*show1 * radial_filter;
pixel.green = show2 * radial_filter / 2;
pixel.blue = show3 * radial_filter / 4;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Rings() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.01; // speed ratios for the oscillators
timings.ratio[0] = 1; // higher values = faster transitions
timings.ratio[1] = 1.1;
timings.ratio[2] = 1.2;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.angle = 5;
animation.scale_x = 0.2;
animation.scale_y = 0.2;
animation.scale_z = 1;
animation.dist = distance[x][y];
animation.offset_y = -move.linear[0];
animation.offset_x = 0;
float show1 = render_value(animation);
// describe and render animation layers
animation.angle = 10;
animation.dist = distance[x][y];
animation.offset_y = -move.linear[1];
float show2 = render_value(animation);
// describe and render animation layers
animation.angle = 12;
animation.dist = distance[x][y];
animation.offset_y = -move.linear[2];
float show3 = render_value(animation);
// colormapping
pixel.red = show1;
pixel.green = show2 / 4;
pixel.blue = show3 / 4;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Waves() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.01; // speed ratios for the oscillators
timings.ratio[0] = 2; // higher values = faster transitions
timings.ratio[1] = 2.1;
timings.ratio[2] = 1.2;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.angle = polar_theta[x][y];
animation.scale_x = 0.1;
animation.scale_y = 0.1;
animation.scale_z = 0.1;
animation.dist = distance[x][y];
animation.offset_y = 0;
animation.offset_x = 0;
animation.z = 2*distance[x][y] - move.linear[0];
float show1 = render_value(animation);
animation.angle = polar_theta[x][y];
animation.dist = distance[x][y];
animation.z = 2*distance[x][y] - move.linear[1];
float show2 = render_value(animation);
// colormapping
pixel.red = show1;
pixel.green = 0;
pixel.blue = show2;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Center_Field() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.01; // speed ratios for the oscillators
timings.ratio[0] = 1; // higher values = faster transitions
timings.ratio[1] = 1.1;
timings.ratio[2] = 1.2;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.angle = polar_theta[x][y];
animation.scale_x = 0.07;
animation.scale_y = 0.07;
animation.scale_z = 0.1;
animation.dist = 5*sqrtf(distance[x][y]);
animation.offset_y = move.linear[0];
animation.offset_x = 0;
animation.z = 0;
float show1 = render_value(animation);
animation.angle = polar_theta[x][y];
animation.scale_x = 0.07;
animation.scale_y = 0.07;
animation.scale_z = 0.1;
animation.dist = 4*sqrtf(distance[x][y]);
animation.offset_y = move.linear[0];
animation.offset_x = 0;
animation.z = 0;
float show2 = render_value(animation);
// colormapping
pixel.red = show1;
pixel.green = show2;
pixel.blue = 0;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Distance_Experiment() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.01; // speed ratios for the oscillators
timings.ratio[0] = 0.2; // higher values = faster transitions
timings.ratio[1] = 0.13;
timings.ratio[2] = 0.012;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.dist = powf(distance[x][y], 0.5);
animation.angle = polar_theta[x][y] + move.radial[0];
animation.scale_x = 0.07;
animation.scale_y = 0.07;
animation.scale_z = 0.1;
animation.offset_y = move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = 0;
float show1 = render_value(animation);
animation.dist = powf(distance[x][y], 0.6);
animation.angle = polar_theta[x][y] + move.noise_angle[2];
animation.scale_x = 0.07;
animation.scale_y = 0.07;
animation.scale_z = 0.1;
animation.offset_y = move.linear[1];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = 0;
float show2 = render_value(animation);
// colormapping
pixel.red = show1+show2;
pixel.green = show2;
pixel.blue = 0;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Caleido1() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.003; // speed ratios for the oscillators
timings.ratio[0] = 0.02; // higher values = faster transitions
timings.ratio[1] = 0.03;
timings.ratio[2] = 0.04;
timings.ratio[3] = 0.05;
timings.ratio[4] = 0.6;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.dist = distance[x][y] * (2 + move.directional[0]) / 3;
animation.angle = 3 * polar_theta[x][y] + 3 * move.noise_angle[0] + move.radial[4];
animation.scale_x = 0.1;
animation.scale_y = 0.1;
animation.scale_z = 0.1;
animation.offset_y = 2 * move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = move.linear[0];
float show1 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[1]) / 3;
animation.angle = 4 * polar_theta[x][y] + 3 * move.noise_angle[1] + move.radial[4];
animation.offset_x = 2 * move.linear[1];
animation.z = move.linear[1];
float show2 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[2]) / 3;
animation.angle = 5 * polar_theta[x][y] + 3 * move.noise_angle[2] + move.radial[4];
animation.offset_y = 2 * move.linear[2];
animation.z = move.linear[2];
float show3 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[3]) / 3;
animation.angle = 4 * polar_theta[x][y] + 3 * move.noise_angle[3] + move.radial[4];
animation.offset_x = 2 * move.linear[3];
animation.z = move.linear[3];
float show4 = render_value(animation);
// colormapping
pixel.red = show1;
pixel.green = show3 * distance[x][y] / 10;
pixel.blue = (show2 + show4) / 2;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Caleido2() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.002; // speed ratios for the oscillators
timings.ratio[0] = 0.02; // higher values = faster transitions
timings.ratio[1] = 0.03;
timings.ratio[2] = 0.04;
timings.ratio[3] = 0.05;
timings.ratio[4] = 0.6;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.dist = distance[x][y] * (2 + move.directional[0]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[0] + move.radial[4];
animation.scale_x = 0.1;
animation.scale_y = 0.1;
animation.scale_z = 0.1;
animation.offset_y = 2 * move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = move.linear[0];
float show1 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[1]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[1] + move.radial[4];
animation.offset_x = 2 * move.linear[1];
animation.z = move.linear[1];
float show2 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[2]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[2] + move.radial[4];
animation.offset_y = 2 * move.linear[2];
animation.z = move.linear[2];
float show3 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[3]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[3] + move.radial[4];
animation.offset_x = 2 * move.linear[3];
animation.z = move.linear[3];
float show4 = render_value(animation);
// colormapping
pixel.red = show1;
pixel.green = show3 * distance[x][y] / 10;
pixel.blue = (show2 + show4) / 2;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Caleido3() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.004; // speed ratios for the oscillators
timings.ratio[0] = 0.02; // higher values = faster transitions
timings.ratio[1] = 0.03;
timings.ratio[2] = 0.04;
timings.ratio[3] = 0.05;
timings.ratio[4] = 0.6;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.dist = distance[x][y] * (2 + move.directional[0]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[0] + move.radial[4];
animation.scale_x = 0.1;// + (move.directional[0] + 2)/100;
animation.scale_y = 0.1;// + (move.directional[1] + 2)/100;
animation.scale_z = 0.1;
animation.offset_y = 2 * move.linear[0];
animation.offset_x = 2 * move.linear[1];
animation.offset_z = 0;
animation.z = move.linear[0];
float show1 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[1]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[1] + move.radial[4];
animation.offset_x = 2 * move.linear[1];
animation.offset_y = show1 / 20.0;
animation.z = move.linear[1];
float show2 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[2]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[2] + move.radial[4];
animation.offset_y = 2 * move.linear[2];
animation.offset_x = show2 / 20.0;
animation.z = move.linear[2];
float show3 = render_value(animation);
animation.dist = distance[x][y] * (2 + move.directional[3]) / 3;
animation.angle = 2 * polar_theta[x][y] + 3 * move.noise_angle[3] + move.radial[4];
animation.offset_x = 2 * move.linear[3];
animation.offset_y = show3 / 20.0;
animation.z = move.linear[3];
float show4 = render_value(animation);
// colormapping
float radius = 8; // radial mask
pixel.red = show1 * (y+1) / num_y;
pixel.green = show3 * distance[x][y] / 10;
pixel.blue = (show2 + show4) / 2;
if (distance[x][y] > radius) {
pixel.red = 0;
pixel.green = 0;
pixel.blue = 0;
}
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Lava1() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.0015; // speed ratios for the oscillators
timings.ratio[0] = 4; // higher values = faster transitions
timings.ratio[1] = 1;
timings.ratio[2] = 1;
timings.ratio[3] = 0.05;
timings.ratio[4] = 0.6;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.dist = distance[x][y] * 0.8;
animation.angle = polar_theta[x][y];
animation.scale_x = 0.15;// + (move.directional[0] + 2)/100;
animation.scale_y = 0.12;// + (move.directional[1] + 2)/100;
animation.scale_z = 0.01;
animation.offset_y = -move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = 30;
float show1 = render_value(animation);
animation.offset_y = -move.linear[1];
animation.scale_x = 0.15;// + (move.directional[0] + 2)/100;
animation.scale_y = 0.12;// + (move.directional[1] + 2)/100;
animation.offset_x = show1 / 100;
animation.offset_y += show1/100;
float show2 = render_value(animation);
animation.offset_y = -move.linear[2];
animation.scale_x = 0.15;// + (move.directional[0] + 2)/100;
animation.scale_y = 0.12;// + (move.directional[1] + 2)/100;
animation.offset_x = show2 / 100;
animation.offset_y += show2/100;
float show3 = render_value(animation);
// colormapping
float linear = (y)/(num_y-1.f); // radial mask
pixel.red = linear*show2;
pixel.green = 0.1*linear*(show2-show3);
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Scaledemo1() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.00003; // speed ratios for the oscillators
timings.ratio[0] = 4; // higher values = faster transitions
timings.ratio[1] = 3.2;
timings.ratio[2] = 10;
timings.ratio[3] = 0.05;
timings.ratio[4] = 0.6;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
// describe and render animation layers
animation.dist = 0.3*distance[x][y] * 0.8;
animation.angle = 3*polar_theta[x][y] + move.radial[2];
animation.scale_x = 0.1 + (move.noise_angle[0])/10;
animation.scale_y = 0.1 + (move.noise_angle[1])/10;// + (move.directional[1] + 2)/100;
animation.scale_z = 0.01;
animation.offset_y = 0;
animation.offset_x = 0;
animation.offset_z = 100*move.linear[0];
animation.z = 30;
float show1 = render_value(animation);
animation.angle = 3;
float show2 = render_value(animation);
float dist = (10-distance[x][y])/ 10;
pixel.red = show1*dist;
pixel.green = (show1-show2)*dist*0.3;
pixel.blue = (show2-show1)*dist;
if (distance[x][y] > 8) {
pixel.red = 0;
pixel.green = 0;
pixel.blue = 0;
}
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Yves() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.001; // speed ratios for the oscillators
timings.ratio[0] = 3; // higher values = faster transitions
timings.ratio[1] = 2;
timings.ratio[2] = 1;
timings.ratio[3] = 0.13;
timings.ratio[4] = 0.15;
timings.ratio[5] = 0.03;
timings.ratio[6] = 0.025;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
timings.offset[5] = 500;
timings.offset[6] = 600;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
animation.dist = distance[x][y] ;
animation.angle = polar_theta[x][y] + 2*PI + move.noise_angle[5];
animation.scale_x = 0.08;
animation.scale_y = 0.08;
animation.scale_z = 0.08;
animation.offset_y = -move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = 0;
float show1 = render_value(animation);
animation.dist = distance[x][y];
animation.angle = polar_theta[x][y] + 2*PI + move.noise_angle[6];;
animation.scale_x = 0.08;
animation.scale_y = 0.08;
animation.scale_z = 0.08;
animation.offset_y = -move.linear[1];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = 0;
float show2 = render_value(animation);
animation.angle = polar_theta[x][y] + show1/100 + move.noise_angle[3] + move.noise_angle[4];
animation.dist = distance[x][y] + show2/50;
animation.offset_y = -move.linear[2];
animation.offset_y += show1/100;
animation.offset_x += show2/100;
float show3 = render_value(animation);
animation.offset_y = 0;
animation.offset_x = 0;
float show4 = render_value(animation);
pixel.red = show3;
pixel.green = show3*show4/255;
pixel.blue = 0;
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Spiralus() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.0011; // speed ratios for the oscillators
timings.ratio[0] = 1.5; // higher values = faster transitions
timings.ratio[1] = 2.3;
timings.ratio[2] = 3;
timings.ratio[3] = 0.05;
timings.ratio[4] = 0.2;
timings.ratio[5] = 0.03;
timings.ratio[6] = 0.025;
timings.ratio[7] = 0.021;
timings.ratio[8] = 0.027;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
timings.offset[5] = 500;
timings.offset[6] = 600;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
animation.dist = distance[x][y] ;
animation.angle = 2*polar_theta[x][y] + move.noise_angle[5] + move.directional[3] * move.noise_angle[6]* animation.dist/10;
animation.scale_x = 0.08;
animation.scale_y = 0.08;
animation.scale_z = 0.02;
animation.offset_y = -move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = move.linear[1];
float show1 = render_value(animation);
animation.angle = 2*polar_theta[x][y] + move.noise_angle[7] + move.directional[5] * move.noise_angle[8]* animation.dist/10;
animation.offset_y = -move.linear[1];
animation.z = move.linear[2];
float show2 = render_value(animation);
animation.angle = 2*polar_theta[x][y] + move.noise_angle[6] + move.directional[6] * move.noise_angle[7]* animation.dist/10;
animation.offset_y = move.linear[2];
animation.z = move.linear[0];
float show3 = render_value(animation);
float f = (20-distance[x][y])/20;
pixel.red = f*(show1+show2);
pixel.green = f*(show1-show2);
pixel.blue = f*(show3-show1);
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Spiralus2() {
a = micros(); // for time measurement in report_performance()
timings.master_speed = 0.0011; // speed ratios for the oscillators
timings.ratio[0] = 1.5; // higher values = faster transitions
timings.ratio[1] = 2.3;
timings.ratio[2] = 3;
timings.ratio[3] = 0.05;
timings.ratio[4] = 0.2;
timings.ratio[5] = 0.03;
timings.ratio[6] = 0.025;
timings.ratio[7] = 0.021;
timings.ratio[8] = 0.027;
timings.offset[0] = 0;
timings.offset[1] = 100;
timings.offset[2] = 200;
timings.offset[3] = 300;
timings.offset[4] = 400;
timings.offset[5] = 500;
timings.offset[6] = 600;
calculate_oscillators(timings); // get linear movers and oscillators going
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
animation.dist = distance[x][y] ;
animation.angle = 2*polar_theta[x][y] + move.noise_angle[5] + move.directional[3] * move.noise_angle[6]* animation.dist/10;
animation.scale_x = 0.08;
animation.scale_y = 0.08;
animation.scale_z = 0.02;
animation.offset_y = -move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = move.linear[1];
float show1 = render_value(animation);
animation.angle = 3*polar_theta[x][y] + move.noise_angle[7] + move.directional[5] * move.noise_angle[8]* animation.dist/10;
animation.offset_y = -move.linear[1];
animation.z = move.linear[2];
float show2 = render_value(animation);
animation.angle = 4*polar_theta[x][y] + move.noise_angle[6] + move.directional[6] * move.noise_angle[7]* animation.dist/10;
animation.offset_y = move.linear[2];
animation.z = move.linear[0];
animation.dist = distance[x][y] *0.8;
float show3 = render_value(animation);
float f = (20-distance[x][y])/20;
pixel.red = f*(show1+show2);
pixel.green = f*(show1-show2);
pixel.blue = f*(show3-show1);
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Hot_Blob() { // nice one
a = micros();
run_default_oscillators();
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
animation.dist = distance[x][y] ;
animation.angle = polar_theta[x][y];
animation.scale_x = 0.07 + move.directional[0]*0.002;
animation.scale_y = 0.07;
animation.offset_y = -move.linear[0];
animation.offset_x = 0;
animation.offset_z = 0;
animation.z = 0;
animation.low_limit = -1;
float show1 = render_value(animation);
animation.offset_y = -move.linear[1];
float show3 = render_value(animation);
animation.offset_x = show3/20;
animation.offset_y = -move.linear[0]/2 + show1/70;
animation.low_limit = 0;
float show2 = render_value(animation);
animation.offset_x = show3/20;
animation.offset_y = -move.linear[0]/2 + show1/70;
animation.z = 100;
float show4 = render_value(animation);
float radius = 11; // radius of a radial brightness filter
float radial = (radius-animation.dist)/animation.dist;
float linear = (y+1)/(num_y-1.f);
pixel.red = radial * show2;
pixel.green = linear * radial* 0.3* (show2-show4);
pixel = rgb_sanity_check(pixel);
leds[xy(x, y)] = CRGB(pixel.red, pixel.green, pixel.blue);
}
}
b = micros(); // for time measurement in report_performance()
FastLED.show();
c = micros(); // for time measurement in report_performance()
EVERY_N_MILLIS(500) report_performance(); // check serial monitor for report
}
void Zoom() { // nice one
a = micros();
run_default_oscillators();
timings.master_speed = 0.003;
calculate_oscillators(timings);
for (int x = 0; x < num_x; x++) {
for (int y = 0; y < num_y; y++) {
animation.dist = distance[x][y] * distance[x][y];
animation.angle = polar_theta[x][y];
animation.scale_x = 0.01;
animation.scale_y = 0.01;
animation.offset_y = -10*move.linear[0];
animation.offset_x = 0;