MovingWindow0
{

This is based on movingWindow0.inp.

This input file shows an example of a beam moving in a uniform background.
the geometry is r-z, cylindrical.  All the edges are bounded with conductors:
these boundaries are necessary.

There are equal beams of protons and electrons.

Also, the moving window motion is hard-coded to move to the right, so
rightward-moving particles will stay in the window.  Everything else will
seem to move left.

}
Variables
{
	JMAX = 20
	KMAX = 20
	XMAX = 0.1
	RMAX = 0.02
	DX = XMAX/JMAX
}
Region
{
Grid
{
	J = JMAX
	x1s = 0.0
	x1f = XMAX
	n1 = 1.0
	K = KMAX
	x2s = 0.0
	x2f = RMAX
	n2 = 1.0
}
Control
{
	dt = 1.0E-12
	// movingWindow = 1
}

Species
{
		  name = electron
		  m = 9.5E-31
		  q = -1.6e-19
}

Species
{
		  name = proton
		  m = 1.8E-27
		  q = 1.6e-19
}

Species
{
		  name = deuterium
		  m = 3.6E-27
		  q = 1.6e-19
}

Conductor
{
	j1 = 0
	k1 = 0
	j2 = 0
	k2 = 10
	normal = 1
}
Conductor
{
	j1 = 0
	k1 = 10
	j2 = 0
	k2 = 20
	normal = 1
}
Conductor
{
	j1 = 0
	k1 = 20
	j2 = 20
	k2 = 20
	normal = -1
}
Conductor
{
	j1 = 20
	k1 = 20
	j2 = 20
	k2 = 0
	normal = -1
}

Load
{
	x1MinMKS = 0.033
	x1MaxMKS = 0.067
	x2MinMKS = 0.0
	x2MaxMKS = 0.01
	speciesName = electron
	density = 1.0e17
	np2c = 3e8
	units = EV
	v1drift = 3.0e6
	LoadMethodFlag=1
}

Load
{
	x1MinMKS = 0.033
	x1MaxMKS = 0.067
	x2MinMKS = 0.0
	x2MaxMKS = 0.01
	speciesName = proton
	density = 1.0e17
	np2c = 3e8
	units = EV
	LoadMethodFlag=1
}

CylindricalAxis
{
	j1 = 0
	k1 = 0
	j2 = 20
	k2 = 0
	normal = 1
}
}