STEP 1: Specifying Input Parameters

Plasma: Plasma-producing gas Plasma pressure (bar)
Cathode: Material Radius (m) Height (m) Temperature of the base (K)
Radiation:  .t.   .f.
Insulated lateral surface:  .t.   .f.
Thermionic emission parameters will be taken from the internal database:     
Content of sodium: (NH, MH, and XH plasmas)
Content of thallium: (MH and XH plasmas)
Content of dysprosium: (MH and XH plasmas)
Content of scandium: (MH and XH plasmas)
Content of cesium: (CH, MH, and XH plasmas)
Content of zinc: (XH plasma)
Content of indium: (XH plasma)
Content of thorium: (XH plasma)
Content of iodine: (XH plasma)
Show prompts:  .t.   .f.
Time limit:
distributions of q and Te:  .t.   .f.

STEP 2: Generating a starting-point solution

The default numerical grid will be used (recommended):
Near-cathode voltage corresponding to the desired starting point: V
Generating starting-point solution automatically:
Number of steps in which a starting-point solution will be generated automatically:
Generating starting-point solution from a manually-defined initial approximation:

Generate a starting-point solution

STEP 3: Performing Simulations

Near-cathode voltage corresponding to the starting point: V
Near-cathode voltage corresponding to the last point: V
Number of steps between the starting and last points:
Number of the bifurcation point (enter -1 if you are not interested in stability of the diffuse mode or bifurcations of 3D spot modes):
Do you want to use the solution corresponding to the last point as a starting point for further calculations?  Yes  No 

Program output

Integral characteristics

Distributions