KratosMultiphysics
KRATOS Multiphysics (Kratos) is a framework for building parallel, multi-disciplinary simulation software, aiming at modularity, extensibility, and high performance. Kratos is written in C++, and counts with an extensive Python interface.
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Process to compute element time average of the divergence. More...
#include <weighted_divergence_calculation_process.h>
Public Member Functions | |
Type Definitions | |
KRATOS_CLASS_POINTER_DEFINITION (WeightedDivergenceCalculationProcess) | |
Pointer definition of Process. More... | |
Life Cycle | |
WeightedDivergenceCalculationProcess (ModelPart &rModelPart, Parameters ThisParameters=Parameters(R"({})")) | |
Default constructor. More... | |
~WeightedDivergenceCalculationProcess () override=default | |
Destructor. More... | |
WeightedDivergenceCalculationProcess & | operator= (WeightedDivergenceCalculationProcess const &rOther)=delete |
Assignment operator. More... | |
Operations | |
void | ExecuteInitialize () override |
Function initializing the statistic utilities. More... | |
void | ExecuteFinalizeSolutionStep () override |
Function updating statistics at each time step. More... | |
Input and output | |
std::string | Info () const override |
Turn back information as a string. More... | |
void | PrintInfo (std::ostream &rOStream) const override |
Print information about this object. More... | |
void | PrintData (std::ostream &rOStream) const override |
Print object's data. More... | |
Public Member Functions inherited from Kratos::Process | |
KRATOS_CLASS_POINTER_DEFINITION (Process) | |
Pointer definition of Process. More... | |
Process () | |
Default constructor. More... | |
Process (const Flags options) | |
~Process () override | |
Destructor. More... | |
void | operator() () |
This operator is provided to call the process as a function and simply calls the Execute method. More... | |
virtual Process::Pointer | Create (Model &rModel, Parameters ThisParameters) |
This method creates an pointer of the process. More... | |
virtual void | Execute () |
Execute method is used to execute the Process algorithms. More... | |
virtual void | ExecuteBeforeSolutionLoop () |
This function is designed for being execute once before the solution loop but after all of the solvers where built. More... | |
virtual void | ExecuteInitializeSolutionStep () |
This function will be executed at every time step BEFORE performing the solve phase. More... | |
virtual void | ExecuteBeforeOutputStep () |
This function will be executed at every time step BEFORE writing the output. More... | |
virtual void | ExecuteAfterOutputStep () |
This function will be executed at every time step AFTER writing the output. More... | |
virtual void | ExecuteFinalize () |
This function is designed for being called at the end of the computations. More... | |
virtual int | Check () |
This function is designed for being called after ExecuteInitialize ONCE to verify that the input is correct. More... | |
virtual void | Clear () |
This method clears the assignation of the conditions. More... | |
virtual const Parameters | GetDefaultParameters () const |
This method provides the defaults parameters to avoid conflicts between the different constructors. More... | |
Public Member Functions inherited from Kratos::Flags | |
Flags & | operator= (Flags const &rOther) |
Assignment operator. More... | |
operator bool () const | |
Flags | operator~ () const |
bool | operator! () const |
void | AssignFlags (Flags const &rOther) |
void | Set (const Flags ThisFlag) |
void | Set (const Flags ThisFlag, bool Value) |
void | Reset (const Flags ThisFlag) |
void | Flip (const Flags ThisFlag) |
void | SetPosition (IndexType Position, bool Value=true) |
bool | GetPosition (IndexType Position) const |
void | FlipPosition (IndexType Position) |
void | ClearPosition (IndexType Position) |
void | Clear () |
Flags | AsFalse () const |
bool | Is (Flags const &rOther) const |
bool | IsDefined (Flags const &rOther) const |
bool | IsNot (Flags const &rOther) const |
bool | IsNotDefined (Flags const &rOther) const |
KRATOS_CLASS_POINTER_DEFINITION (Flags) | |
Pointer definition of Flags. More... | |
const Flags & | operator|= (const Flags &Other) |
const Flags & | operator&= (const Flags &Other) |
Flags () | |
Default constructor. More... | |
Flags (Flags const &rOther) | |
Copy constructor. More... | |
virtual | ~Flags () |
Destructor. More... | |
Protected Member Functions | |
Protected Operations | |
double | ComputeAuxiliaryElementDivergence (Vector &grad_x, Vector &grad_y, Vector &grad_z) |
double | ComputeAuxiliaryElementVelocitySeminorm (Vector &grad_x, Vector &grad_y, Vector &grad_z) |
double | ComputeWeightedTimeAverage (const double &old_average, const double ¤t_value) |
Additional Inherited Members | |
Public Types inherited from Kratos::Flags | |
enum | FlagsList { Flag0 = BlockType(1) , Flag1 = BlockType(1) << 1 , Flag2 = BlockType(1) << 2 , Flag3 = BlockType(1) << 3 , Flag4 = BlockType(1) << 4 , Flag5 = BlockType(1) << 5 , Flag6 = BlockType(1) << 6 , Flag7 = BlockType(1) << 7 , Flag8 = BlockType(1) << 8 , Flag9 = BlockType(1) << 9 , Flag10 = BlockType(1) << 10 , Flag11 = BlockType(1) << 11 , Flag12 = BlockType(1) << 12 , Flag13 = BlockType(1) << 13 , Flag14 = BlockType(1) << 14 , Flag15 = BlockType(1) << 15 , Flag16 = BlockType(1) << 16 , Flag17 = BlockType(1) << 17 , Flag18 = BlockType(1) << 18 , Flag19 = BlockType(1) << 19 , Flag20 = BlockType(1) << 20 , Flag21 = BlockType(1) << 21 , Flag22 = BlockType(1) << 22 , Flag23 = BlockType(1) << 23 , Flag24 = BlockType(1) << 24 , Flag25 = BlockType(1) << 25 , Flag26 = BlockType(1) << 26 , Flag27 = BlockType(1) << 27 , Flag28 = BlockType(1) << 28 , Flag29 = BlockType(1) << 29 , Flag30 = BlockType(1) << 30 } |
typedef int64_t | BlockType |
typedef int64_t | FlagType |
typedef std::size_t | IndexType |
Static Public Member Functions inherited from Kratos::Flags | |
static const Flags | AllDefined () |
static const Flags | AllTrue () |
static Flags | Create (IndexType ThisPosition, bool Value=true) |
Process to compute element time average of the divergence.
This process computes the element average in time of the divergence and of the seminorm of the velocity field. We define VELOCITY_H1_SEMINORM as: \left | \nabla u_{h} \right |_{L^2(K)}^2 , and AVERAGED_DIVERGENCE as \left | \nabla \cdot u_{h} \right |_{L^2(K)}^2 , where u is the velocity field and K an element of the domain \Omega. The time average does not consider the transient 20% first part of the simulation.