Inheritance diagram for aspect::BoundaryTemperature::DynamicCore< dim >:

Classes
struct	str_data_OES

Public Member Functions
	DynamicCore ()

double	boundary_temperature (const types::boundary_id boundary_indicator, const Point< dim > &location) const override

double	minimal_temperature (const std::set< types::boundary_id > &fixed_boundary_ids) const override

double	maximal_temperature (const std::set< types::boundary_id > &fixed_boundary_ids) const override

void	parse_parameters (ParameterHandler &prm) override

void	update () override

const internal::CoreData &	get_core_data () const

bool	is_OES_used () const

Public Member Functions inherited from aspect::BoundaryTemperature::Interface< dim >
virtual	~Interface ()=default

virtual void	initialize ()

Public Member Functions inherited from aspect::SimulatorAccess< dim >
	SimulatorAccess ()

	SimulatorAccess (const Simulator< dim > &simulator_object)

virtual	~SimulatorAccess ()=default

virtual void	initialize_simulator (const Simulator< dim > &simulator_object)

const Introspection< dim > &	introspection () const

const Simulator< dim > &	get_simulator () const

const Parameters< dim > &	get_parameters () const

SimulatorSignals< dim > &	get_signals () const

MPI_Comm	get_mpi_communicator () const

TimerOutput &	get_computing_timer () const

const ConditionalOStream &	get_pcout () const

double	get_time () const

double	get_timestep () const

double	get_old_timestep () const

unsigned int	get_timestep_number () const

const TimeStepping::Manager< dim > &	get_timestepping_manager () const

unsigned int	get_nonlinear_iteration () const

const parallel::distributed::Triangulation< dim > &	get_triangulation () const

double	get_volume () const

const Mapping< dim > &	get_mapping () const

std::string	get_output_directory () const

bool	include_adiabatic_heating () const

bool	include_latent_heat () const

bool	include_melt_transport () const

int	get_stokes_velocity_degree () const

double	get_adiabatic_surface_temperature () const

double	get_surface_pressure () const

bool	convert_output_to_years () const

unsigned int	get_pre_refinement_step () const

unsigned int	n_compositional_fields () const

double	get_end_time () const

void	get_refinement_criteria (Vector< float > &estimated_error_per_cell) const

void	get_artificial_viscosity (Vector< float > &viscosity_per_cell, const bool skip_interior_cells=false) const

void	get_artificial_viscosity_composition (Vector< float > &viscosity_per_cell, const unsigned int compositional_variable) const

const LinearAlgebra::BlockVector &	get_current_linearization_point () const

const LinearAlgebra::BlockVector &	get_solution () const

const LinearAlgebra::BlockVector &	get_old_solution () const

const LinearAlgebra::BlockVector &	get_old_old_solution () const

const LinearAlgebra::BlockVector &	get_reaction_vector () const

const LinearAlgebra::BlockVector &	get_mesh_velocity () const

const DoFHandler< dim > &	get_dof_handler () const

const FiniteElement< dim > &	get_fe () const

const LinearAlgebra::BlockSparseMatrix &	get_system_matrix () const

const LinearAlgebra::BlockSparseMatrix &	get_system_preconditioner_matrix () const

const MaterialModel::Interface< dim > &	get_material_model () const

const GravityModel::Interface< dim > &	get_gravity_model () const

const InitialTopographyModel::Interface< dim > &	get_initial_topography_model () const

const GeometryModel::Interface< dim > &	get_geometry_model () const

const AdiabaticConditions::Interface< dim > &	get_adiabatic_conditions () const

bool	has_boundary_temperature () const

const BoundaryTemperature::Manager< dim > &	get_boundary_temperature_manager () const

const BoundaryHeatFlux::Interface< dim > &	get_boundary_heat_flux () const

bool	has_boundary_composition () const

const BoundaryComposition::Manager< dim > &	get_boundary_composition_manager () const

const BoundaryTraction::Manager< dim > &	get_boundary_traction_manager () const

std::shared_ptr< const InitialTemperature::Manager< dim > >	get_initial_temperature_manager_pointer () const

const InitialTemperature::Manager< dim > &	get_initial_temperature_manager () const

std::shared_ptr< const InitialComposition::Manager< dim > >	get_initial_composition_manager_pointer () const

const InitialComposition::Manager< dim > &	get_initial_composition_manager () const

const std::set< types::boundary_id > &	get_fixed_temperature_boundary_indicators () const

const std::set< types::boundary_id > &	get_fixed_heat_flux_boundary_indicators () const

const std::set< types::boundary_id > &	get_fixed_composition_boundary_indicators () const

const std::set< types::boundary_id > &	get_mesh_deformation_boundary_indicators () const

const BoundaryVelocity::Manager< dim > &	get_boundary_velocity_manager () const

const HeatingModel::Manager< dim > &	get_heating_model_manager () const

const MeshRefinement::Manager< dim > &	get_mesh_refinement_manager () const

const MeltHandler< dim > &	get_melt_handler () const

const VolumeOfFluidHandler< dim > &	get_volume_of_fluid_handler () const

const NewtonHandler< dim > &	get_newton_handler () const

const MeshDeformation::MeshDeformationHandler< dim > &	get_mesh_deformation_handler () const

const LateralAveraging< dim > &	get_lateral_averaging () const

const AffineConstraints< double > &	get_current_constraints () const

bool	simulator_is_past_initialization () const

double	get_pressure_scaling () const

bool	pressure_rhs_needs_compatibility_modification () const

bool	model_has_prescribed_stokes_solution () const

TableHandler &	get_statistics_object () const

const Postprocess::Manager< dim > &	get_postprocess_manager () const

const Particle::World< dim > &	get_particle_world () const

Particle::World< dim > &	get_particle_world ()

bool	is_stokes_matrix_free ()

const StokesMatrixFreeHandler< dim > &	get_stokes_matrix_free () const

RotationProperties< dim >	compute_net_angular_momentum (const bool use_constant_density, const LinearAlgebra::BlockVector &solution, const bool limit_to_top_faces=false) const

Static Public Member Functions
static void	declare_parameters (ParameterHandler &prm)

Static Public Member Functions inherited from aspect::BoundaryTemperature::Interface< dim >
static void	declare_parameters (ParameterHandler &prm)

Static Public Member Functions inherited from aspect::SimulatorAccess< dim >
static void	get_composition_values_at_q_point (const std::vector< std::vector< double >> &composition_values, const unsigned int q, std::vector< double > &composition_values_at_q_point)

Private Member Functions
void	read_data_OES ()

double	get_OES (double t) const

bool	solve_time_step (double &X, double &T, double &R)

double	get_dT (double r) const

double	get_Tc (double r) const

double	get_Ts (double r) const

double	get_solidus (double X, double p) const

double	get_initial_Ri (double T)

double	get_X (double r) const

double	get_Mass (double r) const

double	fun_Sn (double B, double R, double n) const

double	get_Rho (double r) const

double	get_g (double r) const

double	get_T (double Tc, double r) const

double	get_Pressure (double r) const

double	get_gravity_potential (double r) const

void	get_specific_heating (double Tc, double &Qs, double &Es)

void	get_radio_heating (double Tc, double &Qr, double &Er)

void	get_gravity_heating (double Tc, double r, double X, double &Qg, double &Eg)

void	get_adiabatic_heating (double Tc, double &Ek, double &Qk)

void	get_latent_heating (double Tc, double r, double &El, double &Ql)

void	get_heat_solution (double Tc, double r, double X, double &Eh)

double	get_radioheating_rate () const

void	update_core_data ()

Private Attributes
internal::CoreData	core_data

double	inner_temperature

double	outer_temperature

double	init_dT_dt

double	init_dR_dt

double	init_dX_dt

bool	is_first_call

double	Rc

double	CpRho

double	X_init

double	Delta

double	g

double	P_CMB

double	P_Core

double	Tm0

double	Tm1

double	Tm2

double	Theta

bool	composition_dependency

bool	use_bw11

double	K0

double	Alpha

double	Rho_0

double	Rho_cen

double	Lh

double	Rh

double	Beta_c

double	k_c

double	Cp

unsigned int	n_radioheating_elements

std::vector< double >	heating_rate

std::vector< double >	half_life

std::vector< double >	initial_concentration

double	L

double	D

double	Mc

int	max_steps

double	dTa

std::string	name_OES

std::vector< struct str_data_OES >	data_OES

Detailed Description

template<int dim>
class aspect::BoundaryTemperature::DynamicCore< dim >

A class that implements a temperature boundary condition for a spherical shell geometry in which the temperature at the outer surfaces are constant and the core-mantle boundaries (CMB) temperature is calculated by core energy balance. The formulation of the core energy balance is from [1] .

Definition at line 98 of file dynamic_core.h.

Constructor & Destructor Documentation

§ DynamicCore()

template<int dim>

aspect::BoundaryTemperature::DynamicCore< dim >::DynamicCore ( )

Constructor

Member Function Documentation

§ boundary_temperature()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::boundary_temperature	(	const types::boundary_id	boundary_indicator,
		const Point< dim > &	location
	)		const

overridevirtual

Return the temperature that is to hold at a particular location on the boundary of the domain. This function returns the temperatures at the inner and outer boundaries.

Parameters

boundary_indicator	The boundary indicator of the part of the boundary of the domain on which the point is located at which we are requesting the temperature.
location	The location of the point at which we ask for the temperature.

Implements aspect::BoundaryTemperature::Interface< dim >.

§ minimal_temperature()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::minimal_temperature ( const std::set< types::boundary_id > & fixed_boundary_ids ) const

overridevirtual

Return the minimal temperature on that part of the boundary on which Dirichlet conditions are posed.

This value is used in computing dimensionless numbers such as the Nusselt number indicating heat flux.

Implements aspect::BoundaryTemperature::Interface< dim >.

§ maximal_temperature()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::maximal_temperature ( const std::set< types::boundary_id > & fixed_boundary_ids ) const

overridevirtual

Return the maximal temperature on that part of the boundary on which Dirichlet conditions are posed.

This value is used in computing dimensionless numbers such as the Nusselt number indicating heat flux.

Implements aspect::BoundaryTemperature::Interface< dim >.

§ declare_parameters()

template<int dim>

static void aspect::BoundaryTemperature::DynamicCore< dim >::declare_parameters ( ParameterHandler & prm )

static

Declare the parameters this class takes through input files. This class declares the inner and outer boundary temperatures.

§ parse_parameters()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::parse_parameters ( ParameterHandler & prm )

overridevirtual

Read the parameters this class declares from the parameter file.

Reimplemented from aspect::BoundaryTemperature::Interface< dim >.

§ update()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::update ( )

overridevirtual

This function update the core-mantle boundary (CMB) temperature by the core energy balance solver using the core-mantle boundary heat flux.

Reimplemented from aspect::BoundaryTemperature::Interface< dim >.

§ get_core_data()

template<int dim>

const internal::CoreData& aspect::BoundaryTemperature::DynamicCore< dim >::get_core_data ( ) const

Pass core data to other modules

§ is_OES_used()

template<int dim>

bool aspect::BoundaryTemperature::DynamicCore< dim >::is_OES_used ( ) const

Check if other energy source in the core is in use. The 'other energy source' is used for external core energy source. For example if someone want to test the early lunar core powered by precession (Dwyer, C. A., et al. (2011). "A long-lived lunar dynamo driven by continuous mechanical stirring." Nature 479(7372): 212-214.)

§ read_data_OES()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::read_data_OES ( )

private

§ get_OES()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_OES ( double t ) const

private

§ solve_time_step()

template<int dim>

bool aspect::BoundaryTemperature::DynamicCore< dim >::solve_time_step	(	double &	X,
		double &	T,
		double &	R
	)

private

Solve core energy balance for each time step. When solving the change in core-mantle boundary temperature T, inner core radius R, and light component (e.g. S, O, Si) composition X, the following relations has to be respected:

At the inner core boundary the adiabatic temperature should be equal to solidus temperature
The following energy production rate should be balanced in core: Heat flux at core-mantle boundary Q Specific heat Qs*dT/dt Radioactive heating Qr Gravitational contribution Qg*dR/dt Latent heat Ql*dR/dt So that Q+Qs*dT/dt+Qr+Qg*dR/dt*Ql*dR/dt=0
The light component composition X depends on inner core radius (See function get_X() ), and core solidus may dependent on X as well. This becomes a small nonlinear problem. Directly iterate through the above three equations doesn't converge well. Alternatively we solve the inner core radius by bisection method. A single solution between fully liquid and fully solid core is expected. Otherwise this function will throw exception and terminate.

At Earth core condition, a inner core is forming at the center of the Earth and surrounded by a liquid outer core. However, the core solidus is influenced by light components (e.g. S) and its slope is very closed to core adiabatic. So there is an alternative scenario that the crystallization happens first at the core mantle boundary instead of at the center, which is called a 'snowing core' (Stewart, A. J., et al. (2007). "Mars: a new core-crystallization regime." Science 316(5829): 1323-1325.). This also provides a valid solution for the solver. So the returning bool is set to true for normal core, and false for 'snowing core'. TODO: The current code is only able to treat normal core scenario, treating 'snowing core' scenario may be possible and could be added.

§ get_dT()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_dT ( double r ) const

private

Compute the difference between solidus and adiabatic at inner core boundary for a given inner core radius.

§ get_Tc()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_Tc ( double r ) const

private

Use energy balance to calculate core mantle boundary temperature with a given inner core radius.

§ get_Ts()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_Ts ( double r ) const

private

Get the solidus temperature at inner core boundary with a given inner core radius.

§ get_solidus()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_solidus	(	double	X,
		double	p
	)		const

private

Compute the core solidus at certain pressure

§ get_initial_Ri()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_initial_Ri ( double T )

private

Get initial inner core radius with given initial core mantle temperature.

§ get_X()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_X ( double r ) const

private

Get the light composition concentration in the outer core from given inner core radius r

§ get_Mass()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_Mass ( double r ) const

private

Compute the mass inside certain radius within the core_data.

§ fun_Sn()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::fun_Sn	(	double	B,
		double	R,
		double	n
	)		const

private

Calculate Sn(B,R), referring to [1] .

§ get_Rho()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_Rho ( double r ) const

private

Calculate density at given r

§ get_g()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_g ( double r ) const

private

Calculate gravitational acceleration at given r

§ get_T()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_T	(	double	Tc,
		double	r
	)		const

private

Calculate the core temperature at given r Tc is the temperature at CMB

§ get_Pressure()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_Pressure ( double r ) const

private

Calculate pressure at given r

§ get_gravity_potential()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_gravity_potential ( double r ) const

private

Calculate the gravitational potential at given r

§ get_specific_heating()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::get_specific_heating	(	double	Tc,
		double &	Qs,
		double &	Es
	)

private

Calculate energy and entropy change rate factor (regarding the core cooling rated Tc/dt) Qs and Es with given core-mantle boundary (CMB) temperature Tc

§ get_radio_heating()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::get_radio_heating	(	double	Tc,
		double &	Qr,
		double &	Er
	)

private

Calculate energy and entropy change rate factor (regarding the radioactive heating rate H) Qr and Er with given CMB temperature Tc

§ get_gravity_heating()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::get_gravity_heating	(	double	Tc,
		double	r,
		double	X,
		double &	Qg,
		double &	Eg
	)

private

Calculate energy and entropy change rate factor (regarding the inner core growth rate dR/dt) Qg and Eg with given Tc(CMB temperature), r(inner core radius), X(light composition concentration)

§ get_adiabatic_heating()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::get_adiabatic_heating	(	double	Tc,
		double &	Ek,
		double &	Qk
	)

private

Calculate energy and entropy change rate factor (regarding the core cooling rate Tc/dt) Qk and Ek with given Tc(CMB temperature)

§ get_latent_heating()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::get_latent_heating	(	double	Tc,
		double	r,
		double &	El,
		double &	Ql
	)

private

Calculate energy and entropy change rate factor (regarding the inner core growth rate dR/dt) Ql and El with given Tc(CMB temperature), r(inner core radius)

§ get_heat_solution()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::get_heat_solution	(	double	Tc,
		double	r,
		double	X,
		double &	Eh
	)

private

Calculate entropy of heat of solution Eh

§ get_radioheating_rate()

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::get_radioheating_rate ( ) const

private

return radio heating rate at certain time

§ update_core_data()

template<int dim>

void aspect::BoundaryTemperature::DynamicCore< dim >::update_core_data ( )

private

Update the data for core dynamic simulation, the data will be used in the next timestep and for postprocess.

Member Data Documentation

§ core_data

template<int dim>

internal::CoreData aspect::BoundaryTemperature::DynamicCore< dim >::core_data

private

Data for core energy balance it get updated each time step.

Definition at line 179 of file dynamic_core.h.

§ inner_temperature

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::inner_temperature

private

Temperature at the inner boundary.

Definition at line 184 of file dynamic_core.h.

§ outer_temperature

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::outer_temperature

private

Temperatures at the outer boundaries.

Definition at line 189 of file dynamic_core.h.

§ init_dT_dt

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::init_dT_dt

private

Initial CMB temperature changing rate

Definition at line 194 of file dynamic_core.h.

§ init_dR_dt

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::init_dR_dt

private

Initial inner core radius changing rate

Definition at line 199 of file dynamic_core.h.

§ init_dX_dt

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::init_dX_dt

private

Initial light composition changing rate

Definition at line 204 of file dynamic_core.h.

§ is_first_call

template<int dim>

bool aspect::BoundaryTemperature::DynamicCore< dim >::is_first_call

private

Flag for determining the initial call for update().

Definition at line 209 of file dynamic_core.h.

§ Rc

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Rc

private

Core radius

Definition at line 214 of file dynamic_core.h.

§ CpRho

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::CpRho

private

(Heat capacity) * density

Definition at line 219 of file dynamic_core.h.

§ X_init

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::X_init

private

Initial light composition concentration

Definition at line 224 of file dynamic_core.h.

§ Delta

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Delta

private

Partition coefficient of the light element

Definition at line 229 of file dynamic_core.h.

§ g

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::g

private

Gravitational acceleration

Definition at line 234 of file dynamic_core.h.

§ P_CMB

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::P_CMB

private

Pressure at the core mantle boundary

Definition at line 239 of file dynamic_core.h.

§ P_Core

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::P_Core

private

Pressure at the center of the core

Definition at line 244 of file dynamic_core.h.

§ Tm0

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Tm0

private

Parameters for core solidus following: if not dependent on composition Tm(p)= Tm0*(1-Theta)*(1+Tm1*p+Tm2*p^2) if depend on composition X Tm(p)= Tm0*(1-Theta*X)*(1+Tm1*p+Tm2*p^2)

Definition at line 253 of file dynamic_core.h.

§ Tm1

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Tm1

private

Definition at line 254 of file dynamic_core.h.

§ Tm2

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Tm2

private

Definition at line 255 of file dynamic_core.h.

§ Theta

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Theta

private

Definition at line 256 of file dynamic_core.h.

§ composition_dependency

template<int dim>

bool aspect::BoundaryTemperature::DynamicCore< dim >::composition_dependency

private

Definition at line 257 of file dynamic_core.h.

§ use_bw11

template<int dim>

bool aspect::BoundaryTemperature::DynamicCore< dim >::use_bw11

private

If using the Fe-FeS system solidus from Buono & Walker (2011) instead.

Definition at line 262 of file dynamic_core.h.

§ K0

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::K0

private

Compressibility at zero pressure

Definition at line 268 of file dynamic_core.h.

§ Alpha

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Alpha

private

Thermal expansivity

Definition at line 273 of file dynamic_core.h.

§ Rho_0

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Rho_0

private

Density at zero pressure

Definition at line 278 of file dynamic_core.h.

§ Rho_cen

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Rho_cen

private

Density at the center of the planet

Definition at line 283 of file dynamic_core.h.

§ Lh

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Lh

private

Latent heat of fusion

Definition at line 288 of file dynamic_core.h.

§ Rh

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Rh

private

Heat of reaction

Definition at line 293 of file dynamic_core.h.

§ Beta_c

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Beta_c

private

Compositional expansion coefficient

Definition at line 298 of file dynamic_core.h.

§ k_c

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::k_c

private

Heat conductivity of the core

Definition at line 303 of file dynamic_core.h.

§ Cp

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Cp

private

Heat capacity

Definition at line 308 of file dynamic_core.h.

§ n_radioheating_elements

template<int dim>

unsigned int aspect::BoundaryTemperature::DynamicCore< dim >::n_radioheating_elements

private

Number of radioheating element in core

Definition at line 313 of file dynamic_core.h.

§ heating_rate

template<int dim>

std::vector<double> aspect::BoundaryTemperature::DynamicCore< dim >::heating_rate

private

Heating rates of different elements

Definition at line 318 of file dynamic_core.h.

§ half_life

template<int dim>

std::vector<double> aspect::BoundaryTemperature::DynamicCore< dim >::half_life

private

Half life of different elements

Definition at line 323 of file dynamic_core.h.

§ initial_concentration

template<int dim>

std::vector<double> aspect::BoundaryTemperature::DynamicCore< dim >::initial_concentration

private

Initial concentration of different elements

Definition at line 328 of file dynamic_core.h.

§ L

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::L

private

Two length scales in [1] .

Definition at line 333 of file dynamic_core.h.

§ D

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::D

private

Definition at line 334 of file dynamic_core.h.

§ Mc

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::Mc

private

Mass of the core

Definition at line 339 of file dynamic_core.h.

§ max_steps

template<int dim>

int aspect::BoundaryTemperature::DynamicCore< dim >::max_steps

private

Max iterations for the core energy balance solver.

Definition at line 344 of file dynamic_core.h.

§ dTa

template<int dim>

double aspect::BoundaryTemperature::DynamicCore< dim >::dTa

private

Temperature correction value for adiabatic

Definition at line 349 of file dynamic_core.h.

§ name_OES

template<int dim>

std::string aspect::BoundaryTemperature::DynamicCore< dim >::name_OES

private

Other energy source into the core, e.g. the mechanical stirring of the moon.

Definition at line 354 of file dynamic_core.h.

§ data_OES

template<int dim>

std::vector<struct str_data_OES> aspect::BoundaryTemperature::DynamicCore< dim >::data_OES

private

Definition at line 360 of file dynamic_core.h.

The documentation for this class was generated from the following file:

/home/bob/source/include/aspect/boundary_temperature/dynamic_core.h

Classes

Public Member Functions

Static Public Member Functions

Private Member Functions

Private Attributes

Detailed Description

template<int dim> class aspect::BoundaryTemperature::DynamicCore< dim >

Constructor & Destructor Documentation

§ DynamicCore()

Member Function Documentation

§ boundary_temperature()

§ minimal_temperature()

§ maximal_temperature()

§ declare_parameters()

§ parse_parameters()

§ update()

§ get_core_data()

§ is_OES_used()

§ read_data_OES()

§ get_OES()

§ solve_time_step()

§ get_dT()

§ get_Tc()

§ get_Ts()

§ get_solidus()

§ get_initial_Ri()

§ get_X()

§ get_Mass()

§ fun_Sn()

§ get_Rho()

§ get_g()

§ get_T()

§ get_Pressure()

§ get_gravity_potential()

§ get_specific_heating()

§ get_radio_heating()

§ get_gravity_heating()

§ get_adiabatic_heating()

§ get_latent_heating()

§ get_heat_solution()

§ get_radioheating_rate()

§ update_core_data()

Member Data Documentation

§ core_data

§ inner_temperature

§ outer_temperature

§ init_dT_dt

§ init_dR_dt

§ init_dX_dt

§ is_first_call

§ Rc

§ CpRho

§ X_init

§ Delta

§ g

§ P_CMB

§ P_Core

§ Tm0

§ Tm1

§ Tm2

§ Theta

§ composition_dependency

§ use_bw11

§ K0

§ Alpha

§ Rho_0

§ Rho_cen

§ Lh

§ Rh

§ Beta_c

§ k_c

§ Cp

§ n_radioheating_elements

§ heating_rate

§ half_life

§ initial_concentration

§ L

§ D

§ Mc

§ max_steps

template<int dim>
class aspect::BoundaryTemperature::DynamicCore< dim >