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When it comes time to upload an example plasma physics model:
For models which employ the Heidler model as input, we should save the data for the initial distribution of current density.
Assuming cylindrical symmetry:
We must observe an exponential decay in the positive "rho" direction everywhere, and exponential decay in the positive z-direction above a chosen altitude, typically 10 [km].
If current density is given as a so-called "flattened form", then we can elegantly test for this behavior by computing "divergence", which for a dual 1-Form we can interpret as $\star \cdot d$. One can visually debug a plot generated from such a quantity, but this should be automated, of course.
This should be managed via DrWatson.jl.
See below an example plot of $\star(d(J_{s0}))$:
The text was updated successfully, but these errors were encountered:
When it comes time to upload an example plasma physics model:
For models which employ the Heidler model as input, we should save the data for the initial distribution of current density.
Assuming cylindrical symmetry:
We must observe an exponential decay in the positive "rho" direction everywhere, and exponential decay in the positive z-direction above a chosen altitude, typically 10 [km].
If current density is given as a so-called "flattened form", then we can elegantly test for this behavior by computing "divergence", which for a dual 1-Form we can interpret as$\star \cdot d$ . One can visually debug a plot generated from such a quantity, but this should be automated, of course.
This should be managed via DrWatson.jl.
See below an example plot of$\star(d(J_{s0}))$ :
The text was updated successfully, but these errors were encountered: