/// <summary>
/// Handle the interaction of charged particles.
/// </summary>
/// <param name="dEEPGravitationalObject"></param>
private void ProcessElectricalInteraction(DEEPElectricalObject otherObject)
{
/* Calculate the gravitational force. */
double m1 = this.mass;
double m2 = otherObject.mass;
double q1 = this.charge;
double q2 = otherObject.charge;
DenseVector p1 = this.GetPosition();
DenseVector p2 = otherObject.GetPosition();
/* Calculate the Cartesian distance between the two points. */
double r = (p2 - p1).L2Norm();
double F = (k_e * q1 * q2) / Math.Pow(r, 2d);
/* Calculate the acceleration magnitude. */
double a1 = F / m1;
double a2 = F / m2;
/* Multiply by direction unit vectors in the respective directions. */
DenseVector n1 = p1 - p2;
DenseVector un1 = n1 / n1.Norm(2d);
DenseVector accel1 = a1 * un1;
DenseVector n2 = p2 - p1;
DenseVector un2 = n2 / n2.Norm(2d);
DenseVector accel2 = a2 * un2;
/* Apply the acceleration over one timestep to get the change in velocity. */
DenseVector deltaV1 = accel1 * internalRefreshRate;
DenseVector deltaV2 = accel2 * internalRefreshRate;
/* Apply the velocity change to the objects. */
this.velocity += deltaV1;
otherObject.velocity += deltaV2;
}
/// <summary>
/// Handle the interaction of charged particles.
/// </summary>
/// <param name="dEEPGravitationalObject"></param>
private void ProcessElectricalInteraction(DEEPElectricalObject otherObject)
{
/* Calculate the gravitational force. */
double m1 = this.mass;
double m2 = otherObject.mass;
double q1 = this.charge;
double q2 = otherObject.charge;
DenseVector p1 = this.GetPosition();
DenseVector p2 = otherObject.GetPosition();
/* Calculate the Cartesian distance between the two points. */
double r = (p2 - p1).L2Norm();
double F = (k_e * q1 * q2) / Math.Pow(r, 2d);
/* Calculate the acceleration magnitude. */
double a1 = F / m1;
double a2 = F / m2;
/* Multiply by direction unit vectors in the respective directions. */
DenseVector n1 = p1 - p2;
DenseVector un1 = n1 / n1.Norm(2d);
DenseVector accel1 = a1 * un1;
DenseVector n2 = p2 - p1;
DenseVector un2 = n2 / n2.Norm(2d);
DenseVector accel2 = a2 * un2;
/* Apply the acceleration over one timestep to get the change in velocity. */
DenseVector deltaV1 = accel1 * internalRefreshRate;
DenseVector deltaV2 = accel2 * internalRefreshRate;
/* Apply the velocity change to the objects. */
this.velocity += deltaV1;
otherObject.velocity += deltaV2;
}