SimPEG.flow.richards.SimulationNDCellCentered#

class SimPEG.flow.richards.SimulationNDCellCentered(mesh, hydraulic_conductivity, water_retention, boundary_conditions, initial_conditions, method='mixed', do_newton=False, root_finder_max_iter=30, root_finder_tol=0.0001, **kwargs)[source]#

Bases: SimPEG.simulation.BaseTimeSimulation

Richards Simulation

Attributes

`boundary_conditions`	The boundary conditions.
`debug`	verbose.debug has been deprecated.
`do_newton`	Do a Newton iteration vs.
`hydraulic_conductivity`	hydraulic conductivity function
`initial_conditions`	The initial conditions.
`method`	Formulation used.
`root_finder`	Root-finding Algorithm
`root_finder_max_iter`	Maximum iterations for root_finder iteration.
`water_retention`	water retention curve

Dz
root_finder_tol

Methods

`Jtvec`(m, v[, f])	Jtv = Jtvec(m, v, f=None) Effect of transpose of J(m) on a vector v.
`Jvec`(m, v[, f])	Jv = Jvec(m, v, f=None) Effect of J(m) on a vector v.
`diagsJacobian`(m, hn, hn1, dt, bc)	Diagonals and rhs of the jacobian system
`dpred`(m[, f])	Create the projected data from a model.
`fields`([m])	u = fields(m) The field given the model.
`getResidual`(m, hn, h, dt, bc[, return_g])	Used by the root finder when going between timesteps

Jfull
getBoundaryConditions

Galleries and Tutorials using `SimPEG.flow.richards.SimulationNDCellCentered`#

FLOW: Richards: 1D: Forward Simulation

FLOW: Richards: 1D: Inversion

FLOW: Richards: 1D: Celia1990

SimPEG.flow.richards.SimulationNDCellCentered#

Galleries and Tutorials using SimPEG.flow.richards.SimulationNDCellCentered#

Galleries and Tutorials using `SimPEG.flow.richards.SimulationNDCellCentered`#