// new TestXPattern(glucose),
// new TestYPattern(glucose),
// new TestZPattern(glucose),
+// new TestProjectionPattern(glucose),
+
};
}
}
}
}
+
+class TestProjectionPattern extends SCPattern {
+
+ final Projection projection;
+ final SawLFO angle = new SawLFO(0, TWO_PI, 9000);
+ final SinLFO yPos = new SinLFO(-20, 40, 5000);
+
+ TestProjectionPattern(GLucose glucose) {
+ super(glucose);
+ projection = new Projection(model);
+ addModulator(angle).trigger();
+ addModulator(yPos).trigger();
+ }
+
+ public void run(int deltaMs) {
+ // Note: logically, you typically apply the transformations in reverse order
+ projection.reset(model)
+ .translate(-model.xMax/2., -model.yMax/2. + yPos.getValuef(), -model.zMax/2.)
+ .rotate(angle.getValuef(), 1, 0, 0)
+ .scale(1, 1.5, 1);
+
+ for (Coord c : projection) {
+ float d = sqrt(c.x*c.x + c.y*c.y + c.z*c.z); // distance from origin
+ // d = abs(d-60) + max(0, abs(c.z) - 20); // life saver / ring thing
+ d = max(0, abs(c.y) - 10 + .3*abs(c.z) + .08*abs(c.x)); // plane / spear thing
+ colors[c.index] = color(
+ (lx.getBaseHuef() + .6*abs(c.x) + abs(c.z)) % 360,
+ 100,
+ constrain(140 - 10*d, 0, 100)
+ );
+ }
+ }
+}
import glucose.*;
import glucose.control.*;
import glucose.effect.*;
+import glucose.model.*;
import glucose.pattern.*;
+import glucose.transform.*;
import glucose.transition.*;
-import glucose.model.*;
import heronarts.lx.*;
import heronarts.lx.control.*;
import heronarts.lx.effect.*;
-import heronarts.lx.pattern.*;
import heronarts.lx.modulator.*;
+import heronarts.lx.pattern.*;
import heronarts.lx.transition.*;
import ddf.minim.*;
import ddf.minim.analysis.*;