timflow.transient.linesink1d.FluxDiffLineSink1D#

class timflow.transient.linesink1d.FluxDiffLineSink1D(model, xls=0, layers=0, label=None, aq=None)#

Bases: LineSink1DBase, timflow.transient.equation.FluxDiffEquation

1D flux-difference linesink element.

Used to ensure continuity of flux in a cross-section model, e.g. at the boundary of an inhomogeneity.

Parameters:
  • model (Model object) – Model to which the element is added

  • xls (float) – x-coordinate of the linesink

  • layers (int, array or list) – layer (int) or layers (list or array) in which linesink is located

  • label (string, optional) – label of the element

Methods#

initialize()

Initialize the element.

plot([ax])

Plot the element.

setflowcoef()

Separate function so that this can be overloaded for other types.

potinf(x[, y, aq])

Can be called with only one x value.

disvecinf(x[, y, aq])

Can be called with only one x,y value.

potential(x, y[, aq])

Returns complex array of size (ngvbc, naq, npval).

unitpotential(x, y[, aq])

Returns complex array of size (naq, npval).

unitpotentialone(x, y, jtime[, aq])

Returns complex array of size (naq, npval).

disvec(x, y[, aq])

Returns 2 complex arrays of size (ngvbc, naq, npval).

unitdisvec(x, y[, aq])

Returns 2 complex arrays of size (naq, npval).

potinflayers(x, y[, layers, aq])

Layers can be scalar, list, or array.

potentiallayers(x, y[, layers, aq])

Returns complex array of size (ngvbc, len(layers),npval).

unitpotentiallayers(x, y[, layers, aq])

Returns complex array of size (len(layers), npval).

disvecinflayers(x, y[, layers, aq])

Layers can be scalar, list, or array.

disveclayers(x, y[, layers, aq])

Returns 2 complex array of size (ngvbc, len(layers), npval).

unitdisveclayers(x, y[, layers, aq])

Returns complex array of size (len(layers), npval).

discharge(t[, derivative])

The discharge in each layer.

dischargeold(t[, derivative])

The discharge in each layer.

run_after_solve()

Function to run after a solution is completed.

equation()

Mix-in class that returns matrix rows for continuity of flow.