com.jme3.effect.shapes.EmitterShape java code examples

Common ways to obtain EmitterShape

private void myMethod () {
 EmitterShape e =InputCapsule inputCapsule;String str;Savable defVal;(EmitterShape) inputCapsule.readSavable(str, defVal)
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}

shape = shape.deepClone();
particleInfluencer = particleInfluencer.clone();

@Override
public void influenceParticle(Particle particle, EmitterShape emitterShape) {
  emitterShape.getRandomPoint(particle.position);
  this.applyVelocityVariation(particle);
}

@Override
public void influenceParticle(Particle particle, EmitterShape emitterShape) {
  emitterShape.getRandomPointAndNormal(particle.position, particle.velocity);
  // influencing the particle's velocity
  if (surfaceTangentFactor == 0.0f) {
    particle.velocity.multLocal(normalVelocity);
  } else {
    // calculating surface tangent (velocity contains the 'normal' value)
    temp.set(particle.velocity.z * surfaceTangentFactor, particle.velocity.y * surfaceTangentFactor, -particle.velocity.x * surfaceTangentFactor);
    if (surfaceTangentRotation != 0.0f) {// rotating the tangent
      Matrix3f m = new Matrix3f();
      m.fromAngleNormalAxis(FastMath.PI * surfaceTangentRotation, particle.velocity);
      temp = m.multLocal(temp);
    }
    // applying normal factor (this must be done first)
    particle.velocity.multLocal(normalVelocity);
    // adding tangent vector
    particle.velocity.addLocal(temp);
  }
  if (velocityVariation != 0.0f) {
    this.applyVelocityVariation(particle);
  }
}

clone.shape = shape.deepClone();

@Override
public void influenceParticle(Particle particle, EmitterShape emitterShape) {
  emitterShape.getRandomPoint(particle.position);
  this.applyVelocityVariation(particle);
}

@Override
public void influenceParticle(Particle particle, EmitterShape emitterShape) {
  emitterShape.getRandomPointAndNormal(particle.position, particle.velocity);
  // influencing the particle's velocity
  if (surfaceTangentFactor == 0.0f) {
    particle.velocity.multLocal(normalVelocity);
  } else {
    // calculating surface tangent (velocity contains the 'normal' value)
    temp.set(particle.velocity.z * surfaceTangentFactor, particle.velocity.y * surfaceTangentFactor, -particle.velocity.x * surfaceTangentFactor);
    if (surfaceTangentRotation != 0.0f) {// rotating the tangent
      Matrix3f m = new Matrix3f();
      m.fromAngleNormalAxis(FastMath.PI * surfaceTangentRotation, particle.velocity);
      temp = m.multLocal(temp);
    }
    // applying normal factor (this must be done first)
    particle.velocity.multLocal(normalVelocity);
    // adding tangent vector
    particle.velocity.addLocal(temp);
  }
  if (velocityVariation != 0.0f) {
    this.applyVelocityVariation(particle);
  }
}

shape = shape.deepClone();

@Override
public void influenceParticle(Particle particle, EmitterShape emitterShape) {
  emitterShape.getRandomPoint(particle.position);
  this.applyVelocityVariation(particle);
}

@Override
public void influenceParticle(Particle particle, EmitterShape emitterShape) {
  emitterShape.getRandomPointAndNormal(particle.position, particle.velocity);
  // influencing the particle's velocity
  if (surfaceTangentFactor == 0.0f) {
    particle.velocity.multLocal(normalVelocity);
  } else {
    // calculating surface tangent (velocity contains the 'normal' value)
    temp.set(particle.velocity.z * surfaceTangentFactor, particle.velocity.y * surfaceTangentFactor, -particle.velocity.x * surfaceTangentFactor);
    if (surfaceTangentRotation != 0.0f) {// rotating the tangent
      Matrix3f m = new Matrix3f();
      m.fromAngleNormalAxis(FastMath.PI * surfaceTangentRotation, particle.velocity);
      temp = m.multLocal(temp);
    }
    // applying normal factor (this must be done first)
    particle.velocity.multLocal(normalVelocity);
    // adding tangent vector
    particle.velocity.addLocal(temp);
  }
  if (velocityVariation != 0.0f) {
    this.applyVelocityVariation(particle);
  }
}

shape = shape.deepClone();
particleInfluencer = particleInfluencer.clone();

shape = shape.deepClone();
particleInfluencer = particleInfluencer.clone();

clone.shape = shape.deepClone();

@Override
public ParticleEmitter clone(boolean cloneMaterial) {
  ParticleEmitter clone = (ParticleEmitter) super.clone(cloneMaterial);
  clone.shape = shape.deepClone();

shape = shape.deepClone();

shape = shape.deepClone();

Javadoc

This interface declares methods used by all shapes that represent particle emitters.

Most used methods

deepClone
This method creates a deep clone of the current instance of the emitter shape.
getRandomPoint
This method fills in the initial position of the particle.
getRandomPointAndNormal
This method fills in the initial position of the particle and its normal vector.

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How to useEmitterShape in com.jme3.effect.shapes

Best Java code snippets using com.jme3.effect.shapes.EmitterShape (Showing top 15 results out of 315)

How to use
EmitterShape
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com.jme3.effect.shapes