5 Commits

32 changed files with 563 additions and 245 deletions

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@ -250,7 +250,9 @@ struct pwInteractionFunctor
real cGFj = coarseGrainFactor_[i]; real cGFj = coarseGrainFactor_[i];
realx3 xi = pos_[i]; realx3 xi = pos_[i];
realx3x3 tri = triangles_(tj); realx3x3 tri = triangles_(tj);
const realx3& normW = triangles_.normal(tj);
real ovrlp; real ovrlp;
realx3 Nij, cp; realx3 Nij, cp;
@ -262,7 +264,7 @@ struct pwInteractionFunctor
int32 mInd = wTriMotionIndex_[tj]; int32 mInd = wTriMotionIndex_[tj];
auto Vw = motionModel_(mInd, cp); auto Vw = motionModel_(mInd, cp, normW);
//output<< "par-wall index "<< i<<" - "<< tj<<endl; //output<< "par-wall index "<< i<<" - "<< tj<<endl;

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@ -238,7 +238,9 @@ struct pwInteractionFunctor
real Rj = 10000.0; real Rj = 10000.0;
realx3 xi = pos_[i]; realx3 xi = pos_[i];
realx3x3 tri = triangles_(tj); const realx3x3 tri = triangles_(tj);
const realx3& normW = triangles_.normal(tj);
real ovrlp; real ovrlp;
realx3 Nij, cp; realx3 Nij, cp;
@ -250,7 +252,7 @@ struct pwInteractionFunctor
int32 mInd = wTriMotionIndex_[tj]; int32 mInd = wTriMotionIndex_[tj];
auto Vw = motionModel_(mInd, cp); auto Vw = motionModel_(mInd, cp, normW);
//output<< "par-wall index "<< i<<" - "<< tj<<endl; //output<< "par-wall index "<< i<<" - "<< tj<<endl;

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@ -85,15 +85,15 @@ public:
~ModelInterface()=default; ~ModelInterface()=default;
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 pointVelocity(uint32 n, const realx3& p)const realx3 pointVelocity(uint32 n, const realx3& p, const realx3& wallNormal)const
{ {
return components_[n].linVelocityPoint(p); return components_[n].linVelocityPoint(p, wallNormal);
} }
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 operator()(uint32 n, const realx3& p)const realx3 operator()(uint32 n, const realx3& p, const realx3& wallNormal)const
{ {
return pointVelocity(n,p); return pointVelocity(n, p, wallNormal);
} }
INLINE_FUNCTION_HD INLINE_FUNCTION_HD

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@ -28,7 +28,7 @@ pFlow::conveyorBelt::conveyorBelt(const dictionary& dict)
if(!read(dict)) if(!read(dict))
{ {
fatalErrorInFunction<< fatalErrorInFunction<<
" error in reading conveyorBelt from dictionary "<< dict.globalName()<<endl; " error in reading from dictionary "<< dict.globalName()<<endl;
fatalExit; fatalExit;
} }
} }
@ -37,7 +37,21 @@ FUNCTION_H
bool pFlow::conveyorBelt::read(const dictionary& dict) bool pFlow::conveyorBelt::read(const dictionary& dict)
{ {
tangentVelocity_ = dict.getVal<realx3>("tangentVelocity"); linearVelocity_ = dict.getVal<real>("linearVelocity");
normal_ = dict.getVal<realx3>("normal");
if(normal_.length() > verySmallValue)
{
normal_.normalize();
}
else
{
fatalErrorInFunction<<
" normal vector in "<<
dict.globalName() <<
" cannot be zero vector "<<endl;
return false;
}
return true; return true;
} }
@ -45,12 +59,19 @@ bool pFlow::conveyorBelt::read(const dictionary& dict)
FUNCTION_H FUNCTION_H
bool pFlow::conveyorBelt::write(dictionary& dict) const bool pFlow::conveyorBelt::write(dictionary& dict) const
{ {
if( !dict.add("tangentVelocity", tangentVelocity_) ) if( !dict.add("linearVelocity", linearVelocity_) )
{ {
fatalErrorInFunction<< fatalErrorInFunction<<
" error in writing tangentVelocity to dictionary "<< dict.globalName()<<endl; " error in writing tangentVelocity to dictionary "<< dict.globalName()<<endl;
return false; return false;
} }
if(!dict.add("normal", normal_))
{
fatalErrorInFunction<<
" error in writing normal to dictionary "<< dict.globalName()<<endl;
return false;
}
return true; return true;
} }
@ -65,6 +86,7 @@ bool pFlow::conveyorBelt::read(iIstream& is)
FUNCTION_H FUNCTION_H
bool pFlow::conveyorBelt::write(iOstream& os)const bool pFlow::conveyorBelt::write(iOstream& os)const
{ {
os.writeWordEntry("tangentVelocity", tangentVelocity_); os.writeWordEntry("linearVelocity", linearVelocity_);
return true; os.writeWordEntry("normal", normal_);
return true;
} }

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@ -41,65 +41,76 @@ class conveyorBelt
{ {
private: private:
realx3 tangentVelocity_{0, 0, 0}; /// @brief linear velocity of the conveyor belt
real linearVelocity_{0};
/// normal vector of the velocity plane.
/// The velocity vector is tangent to this plane (velocity plane).
realx3 normal_{1,0,0};
public: public:
TypeInfoNV("conveyorBelt"); TypeInfoNV("conveyorBelt");
FUNCTION_HD FUNCTION_HD
conveyorBelt()=default; conveyorBelt()=default;
FUNCTION_H FUNCTION_H
explicit conveyorBelt(const dictionary& dict); explicit conveyorBelt(const dictionary& dict);
FUNCTION_HD FUNCTION_HD
conveyorBelt(const conveyorBelt&) = default; conveyorBelt(const conveyorBelt&) = default;
conveyorBelt& operator=(const conveyorBelt&) = default; conveyorBelt& operator=(const conveyorBelt&) = default;
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
void setTime(real t) void setTime(real t)
{} {}
INLINE_FUNCTION_HD /*INLINE_FUNCTION_HD
realx3 linVelocityPoint(const realx3 &)const realx3 linVelocityPoint(const realx3 &)const
{ {
return tangentVelocity_; return tangentVelocity_;
} }*/
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 transferPoint(const realx3& p, real)const realx3 linVelocityPoint(const realx3 &, const realx3& wallNormal)const
{ {
return p; return linearVelocity_ * cross(wallNormal, normal_);
} }
// - IO operation INLINE_FUNCTION_HD
FUNCTION_H realx3 transferPoint(const realx3& p, real)const
bool read(const dictionary& dict); {
return p;
}
FUNCTION_H // - IO operation
bool write(dictionary& dict) const; FUNCTION_H
bool read(const dictionary& dict);
FUNCTION_H FUNCTION_H
bool read(iIstream& is); bool write(dictionary& dict) const;
FUNCTION_H FUNCTION_H
bool write(iOstream& os)const; bool read(iIstream& is);
FUNCTION_H
bool write(iOstream& os)const;
}; };
inline iOstream& operator <<(iOstream& os, const conveyorBelt& obj) inline iOstream& operator <<(iOstream& os, const conveyorBelt& obj)
{ {
return os; return os;
} }
inline iIstream& operator >>(iIstream& is, conveyorBelt& obj) inline iIstream& operator >>(iIstream& is, conveyorBelt& obj)
{ {
return is; return is;
} }
} }

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@ -120,7 +120,7 @@ public:
/// Tangential velocity at point p /// Tangential velocity at point p
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 pointTangentialVel(const realx3& p)const realx3 pointTangentialVel(const realx3& p, const realx3& wallNormal)const
{ {
realx3 parentVel(0); realx3 parentVel(0);
auto parIndex = parentAxisIndex(); auto parIndex = parentAxisIndex();
@ -128,11 +128,11 @@ public:
while(parIndex != -1) while(parIndex != -1)
{ {
auto& ax = axisList_[parIndex]; auto& ax = axisList_[parIndex];
parentVel += ax.linVelocityPoint(p); parentVel += ax.linVelocityPoint(p, wallNormal);
parIndex = ax.parentAxisIndex(); parIndex = ax.parentAxisIndex();
} }
return parentVel + rotatingAxis::linVelocityPoint(p); return parentVel + rotatingAxis::linVelocityPoint(p, wallNormal);
} }
/// Translate point p for dt seconds based on the axis information /// Translate point p for dt seconds based on the axis information

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@ -126,7 +126,7 @@ public:
/// Linear tangential velocity at point p /// Linear tangential velocity at point p
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 linVelocityPoint(const realx3 &p)const; realx3 linVelocityPoint(const realx3 &p, const realx3& wallNormal)const;
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 transferPoint(const realx3 p, real dt)const; realx3 transferPoint(const realx3 p, real dt)const;

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@ -20,7 +20,7 @@ Licence:
-----------------------------------------------------------------------------*/ -----------------------------------------------------------------------------*/
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
pFlow::realx3 pFlow::rotatingAxis::linVelocityPoint(const realx3 &p)const pFlow::realx3 pFlow::rotatingAxis::linVelocityPoint(const realx3 &p, const realx3&)const
{ {
if(!inTimeRange()) return {0,0,0}; if(!inTimeRange()) return {0,0,0};

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@ -60,7 +60,7 @@ public:
{} {}
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 linVelocityPoint(const realx3 &)const realx3 linVelocityPoint(const realx3 &, const realx3&)const
{ {
return realx3(0); return realx3(0);
} }

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@ -39,17 +39,17 @@ class dictionary;
* Creates a sinoidal virating model for a wall. The viration is defined by * Creates a sinoidal virating model for a wall. The viration is defined by
* frequency, amplitude and phase angle. * frequency, amplitude and phase angle.
* \f[ * \f[
\vec{v}(t) = \vec{A} sin(\vec{\omega}(t-startTime)+\vec{\phi}) \vec{v}(t) = \vec{A} sin(\vec{\omega}(t-startTime)+\vec{\phi})
\f] \f]
\verbatim \verbatim
// This creates sinoidal vibration on the wall in x-direction. The viration // This creates sinoidal vibration on the wall in x-direction. The viration
// starts at t = 0 s and ends at t = 10 s. // starts at t = 0 s and ends at t = 10 s.
{ {
angularFreq (10 0 0); angularFreq (10 0 0);
amplitude ( 1 0 0); amplitude ( 1 0 0);
phaseAngle ( 0 0 0); phaseAngle ( 0 0 0);
startTime 0; startTime 0;
endTime 10; endTime 10;
} \endverbatim } \endverbatim
* *
* * * *
@ -64,102 +64,102 @@ class dictionary;
*/ */
class vibrating class vibrating
: :
public timeInterval public timeInterval
{ {
private: private:
// rotation speed // rotation speed
realx3 angularFreq_{0,0,0}; realx3 angularFreq_{0,0,0};
realx3 phaseAngle_{0,0,0}; realx3 phaseAngle_{0,0,0};
realx3 amplitude_{0,0,0}; realx3 amplitude_{0,0,0};
realx3 velocity_{0,0,0}; realx3 velocity_{0,0,0};
realx3 velocity0_{0,0,0}; realx3 velocity0_{0,0,0};
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
void calculateVelocity() void calculateVelocity()
{ {
if(inTimeRange()) if(inTimeRange())
{ {
velocity_ = amplitude_ * sin( angularFreq_*(time()-startTime() ) + phaseAngle_ ); velocity_ = amplitude_ * sin( angularFreq_*(time()-startTime() ) + phaseAngle_ );
}else }else
{ {
velocity_ = {0,0,0}; velocity_ = {0,0,0};
} }
} }
public: public:
TypeInfoNV("vibrating"); TypeInfoNV("vibrating");
FUNCTION_HD FUNCTION_HD
vibrating()=default; vibrating()=default;
FUNCTION_H FUNCTION_H
explicit vibrating(const dictionary& dict); explicit vibrating(const dictionary& dict);
FUNCTION_HD FUNCTION_HD
vibrating(const vibrating&) = default; vibrating(const vibrating&) = default;
vibrating& operator=(const vibrating&) = default; vibrating& operator=(const vibrating&) = default;
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
void setTime(real t) void setTime(real t)
{ {
if( !equal(t, time()) ) velocity0_ = velocity_; if( !equal(t, time()) ) velocity0_ = velocity_;
timeInterval::setTime(t); timeInterval::setTime(t);
calculateVelocity(); calculateVelocity();
} }
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 linVelocityPoint(const realx3 &)const realx3 linVelocityPoint(const realx3 &, const realx3&)const
{ {
return velocity_; return velocity_;
} }
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3 transferPoint(const realx3& p, real dt)const realx3 transferPoint(const realx3& p, real dt)const
{ {
if(!inTimeRange()) return p; if(!inTimeRange()) return p;
return p + static_cast<real>(0.5*dt)*(velocity0_+velocity_); return p + static_cast<real>(0.5*dt)*(velocity0_+velocity_);
} }
// - IO operation // - IO operation
FUNCTION_H FUNCTION_H
bool read(const dictionary& dict); bool read(const dictionary& dict);
FUNCTION_H FUNCTION_H
bool write(dictionary& dict) const; bool write(dictionary& dict) const;
FUNCTION_H FUNCTION_H
bool read(iIstream& is); bool read(iIstream& is);
FUNCTION_H FUNCTION_H
bool write(iOstream& os)const; bool write(iOstream& os)const;
}; };
inline iOstream& operator <<(iOstream& os, const vibrating& obj) inline iOstream& operator <<(iOstream& os, const vibrating& obj)
{ {
if(!obj.write(os)) if(!obj.write(os))
{ {
fatalExit; fatalExit;
} }
return os; return os;
} }
inline iIstream& operator >>(iIstream& is, vibrating& obj) inline iIstream& operator >>(iIstream& is, vibrating& obj)
{ {
if( !obj.read(is) ) if( !obj.read(is) )
{ {
fatalExit; fatalExit;
} }
return is; return is;
} }
} }

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@ -25,7 +25,9 @@ set(SourceFiles
operation/PostprocessOperation/PostprocessOperationSum.cpp operation/PostprocessOperation/PostprocessOperationSum.cpp
operation/PostprocessOperation/PostprocessOperationAverage.cpp operation/PostprocessOperation/PostprocessOperationAverage.cpp
operation/PostprocessOperation/PostprocessOperationAvMassVelocity.cpp operation/PostprocessOperation/PostprocessOperationAvMassVelocity.cpp
operation/PostprocessOperation/PostprocessOperationSolidVolFraction.cpp
operation/PostprocessOperation/PostprocessOperationBulkDensity.cpp
operation/includeMask/includeMask.cpp operation/includeMask/includeMask.cpp
operation/includeMask/IncludeMasks.cpp operation/includeMask/IncludeMasks.cpp

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@ -23,106 +23,10 @@ Licence:
/*! /*!
* @class PostprocessOperationAvMassVelocity * @class PostprocessOperationAvMassVelocity
* @brief A class for averaging field values within specified regions during post-processing. * @brief Calculates mass-weighted average velocity of particles in the regions
* *
* @details
* The PostprocessOperationAvMassVelocity class is a specialized post-processing operation that
* calculates the average of field values within specified regions. It inherits from the
* postprocessOperation base class and implements a weighted averaging operation that
* can be applied to scalar (real), vector (realx3), and tensor (realx4) fields.
*
* The average operation follows the mathematical formula:
* \f[
* \text{result} = \frac{\sum_{j \in \text{includeMask}} w_j \cdot \phi_j \cdot \text{field}_j}
* {\sum_{i \in \text{processRegion}} w_i \cdot \phi_i}
* \f]
*
* Where:
* - \f$ i \f$ represents all particles within the specified processing region
* - \f$ j \f$ belongs to a subset of \f$ i \f$ based on an includeMask
* - \f$ w_i \f$ is the weight factor for particle \f$ i \f$
* - \f$ \phi_i \f$ is the value from the phi field for particle \f$ i \f$
* - \f$ \text{field}_j \f$ is the value from the target field for particle \f$ j \f$
*
* The calculation can optionally be divided by the region volume (when divideByVolume is set to yes),
* which allows calculating normalized averages:
* \f[
* \text{result} = \frac{1}{V_{\text{region}}} \frac{\sum_{j \in \text{includeMask}} w_j \cdot \phi_j \cdot \text{field}_j}
* {\sum_{i \in \text{processRegion}} w_i \cdot \phi_i}
* \f]
*
* The averaging can be further filtered using an includeMask to selectively include only
* specific particles that satisfy certain criteria.
*
* This class supports the following field types:
* - real (scalar values)
* - realx3 (vector values)
* - realx4 (tensor values)
*
* @section usage Usage Example
* Below is a sample dictionary showing how to configure and use this class:
* *
* ``` * @see PostprocessOperationAverage
* processMethod arithmetic; // method of performing the sum (arithmetic, uniformDistribution, GaussianDistribution)
* processRegion sphere; // type of region on which processing is performed
*
* sphereInfo
* {
* radius 0.01;
* center (-0.08 -0.08 0.015);
* }
*
* timeControl default;
*
* /// all the post process operations to be done
* operations
* (
* // computes the arithmetic mean of particle velocity
* averageVel
* {
* function average;
* field velocity;
* dividedByVolume no; // default is no
* threshold 3; // default is 1
* includeMask all; // include all particles in the calculation
* }
*
* // computes the fraction of par1 in the region
* par1Fraction
* {
* function average;
* field one; // the "one" field is special - all members have value 1.0
* phi one; // default is "one"
* dividedByVolume no;
* includeMask lessThan;
*
* // diameter of par1 is 0.003, so these settings
* // will select only particles of type par1
* lessThanInfo
* {
* field diameter;
* value 0.0031;
* }
* }
* );
* ```
*
* @section defaults Default Behavior
* - By default, `phi` is set to the field named "one" which contains value 1.0 for all entries
* - `dividedByVolume` is set to "no" by default
* - `threshold` is set to 1 by default
* - `includeMask` can be set to various filters, with "all" being the default to include all particles
*
* @section special Special Fields
* The field named "one" is a special field where all members have the value 1.0. This makes it
* particularly useful for calculating:
*
* 1. Volume or number fractions (as shown in the par1Fraction example)
* 2. Simple counts when used with an appropriate mask
* 3. Normalizing values by particle count
*
* @see postprocessOperation
* @see executeAverageOperation
*/ */
#include <variant> #include <variant>

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@ -161,7 +161,15 @@ bool PostprocessOperationAverage::write(const fileSystem &parDir) const
fileSystem path = parDir+( fileSystem path = parDir+(
processedFieldName()+"_prime2" + ".Start_" + ti.timeName()); processedFieldName()+"_prime2" + ".Start_" + ti.timeName());
os2Ptr_ = makeUnique<oFstream>(path); os2Ptr_ = makeUnique<oFstream>(path);
if(regPoints().scientific())
{
// set output format to scientific notation
os2Ptr_().stdStream()<<std::scientific;
}
os2Ptr_().precision(regPoints().precision());
regPoints().write(os2Ptr_()); regPoints().write(os2Ptr_());
} }

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@ -0,0 +1,25 @@
#include "PostprocessOperationBulkDensity.hpp"
namespace pFlow::postprocessData
{
PostprocessOperationBulkDensity::PostprocessOperationBulkDensity
(
const dictionary &opDict,
const regionPoints &regPoints,
fieldsDataBase &fieldsDB
)
:
PostprocessOperationSum
(
opDict,
"mass",
"one",
"all",
regPoints,
fieldsDB
)
{
}
}

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@ -0,0 +1,77 @@
/*------------------------------- phasicFlow ---------------------------------
O C enter of
O O E ngineering and
O O M ultiscale modeling of
OOOOOOO F luid flow
------------------------------------------------------------------------------
Copyright (C): www.cemf.ir
email: hamid.r.norouzi AT gmail.com
------------------------------------------------------------------------------
Licence:
This file is part of phasicFlow code. It is a free software for simulating
granular and multiphase flows. You can redistribute it and/or modify it under
the terms of GNU General Public License v3 or any other later versions.
phasicFlow is distributed to help others in their research in the field of
granular and multiphase flows, but WITHOUT ANY WARRANTY; without even the
implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
-----------------------------------------------------------------------------*/
#ifndef __PostprocessOperationBulkDensity_hpp__
#define __PostprocessOperationBulkDensity_hpp__
/*!
* @class PostprocessOperationBulkDensity
* @brief Calculates bulk density in the regions
*
*
* @see PostprocessOperationSum
*/
#include "PostprocessOperationSum.hpp"
namespace pFlow::postprocessData
{
class PostprocessOperationBulkDensity
:
public PostprocessOperationSum
{
public:
TypeInfo("PostprocessOperation<bulkDensity>");
/// @brief Constructs average operation processor
/// @param opDict Operation parameters dictionary
/// @param regPoints Region points data
/// @param fieldsDB Fields database
PostprocessOperationBulkDensity(
const dictionary& opDict,
const regionPoints& regPoints,
fieldsDataBase& fieldsDB);
/// destructor
~PostprocessOperationBulkDensity() override = default;
/// add this virtual constructor to the base class
add_vCtor
(
postprocessOperation,
PostprocessOperationBulkDensity,
dictionary
);
bool divideByVolume()const override
{
return true;
}
};
}
#endif //__PostprocessOperationSolidVolFraction_hpp__

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@ -0,0 +1,25 @@
#include "PostprocessOperationSolidVolFraction.hpp"
namespace pFlow::postprocessData
{
PostprocessOperationSolidVolFraction::PostprocessOperationSolidVolFraction
(
const dictionary &opDict,
const regionPoints &regPoints,
fieldsDataBase &fieldsDB
)
:
PostprocessOperationSum
(
opDict,
"volume",
"one",
"all",
regPoints,
fieldsDB
)
{
}
}

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@ -0,0 +1,77 @@
/*------------------------------- phasicFlow ---------------------------------
O C enter of
O O E ngineering and
O O M ultiscale modeling of
OOOOOOO F luid flow
------------------------------------------------------------------------------
Copyright (C): www.cemf.ir
email: hamid.r.norouzi AT gmail.com
------------------------------------------------------------------------------
Licence:
This file is part of phasicFlow code. It is a free software for simulating
granular and multiphase flows. You can redistribute it and/or modify it under
the terms of GNU General Public License v3 or any other later versions.
phasicFlow is distributed to help others in their research in the field of
granular and multiphase flows, but WITHOUT ANY WARRANTY; without even the
implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
-----------------------------------------------------------------------------*/
#ifndef __PostprocessOperationSolidVolFraction_hpp__
#define __PostprocessOperationSolidVolFraction_hpp__
/*!
* @class PostprocessOperationSolidVolFraction
* @brief Calculates solid volume fraction in the regions
*
*
* @see PostprocessOperationSum
*/
#include "PostprocessOperationSum.hpp"
namespace pFlow::postprocessData
{
class PostprocessOperationSolidVolFraction
:
public PostprocessOperationSum
{
public:
TypeInfo("PostprocessOperation<solidVolFraction>");
/// @brief Constructs average operation processor
/// @param opDict Operation parameters dictionary
/// @param regPoints Region points data
/// @param fieldsDB Fields database
PostprocessOperationSolidVolFraction(
const dictionary& opDict,
const regionPoints& regPoints,
fieldsDataBase& fieldsDB);
/// destructor
~PostprocessOperationSolidVolFraction() override = default;
/// add this virtual constructor to the base class
add_vCtor
(
postprocessOperation,
PostprocessOperationSolidVolFraction,
dictionary
);
bool divideByVolume()const override
{
return true;
}
};
}
#endif //__PostprocessOperationSolidVolFraction_hpp__

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@ -41,6 +41,49 @@ PostprocessOperationSum::PostprocessOperationSum
} }
} }
PostprocessOperationSum::PostprocessOperationSum
(
const dictionary &opDict,
const word &fieldName,
const word &phiName,
const word &includeName,
const regionPoints &regPoints,
fieldsDataBase &fieldsDB
)
:
postprocessOperation(
opDict,
fieldName,
phiName,
includeName,
regPoints,
fieldsDB)
{
if( fieldType() == getTypeName<real>() )
{
processedRegField_ = makeUnique<processedRegFieldType>(
regionField(processedFieldName(), regPoints, real(0)));
}
else if( fieldType() == getTypeName<realx3>() )
{
processedRegField_ = makeUnique<processedRegFieldType>(
regionField(processedFieldName(), regPoints, realx3(0)));
}
else if( fieldType() == getTypeName<realx4>() )
{
processedRegField_ = makeUnique<processedRegFieldType>(
regionField(processedFieldName(), regPoints, realx4(0)));
}
else
{
fatalErrorInFunction<<" in dictionary "<< opDict.globalName()
<< " field type is not supported for sum operation"
<< " field type is "<< fieldType()
<< endl;
fatalExit;
}
}
/// Performs weighted sum of field values within each region /// Performs weighted sum of field values within each region
bool PostprocessOperationSum::execute bool PostprocessOperationSum::execute
( (

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@ -154,6 +154,14 @@ public:
const regionPoints& regPoints, const regionPoints& regPoints,
fieldsDataBase& fieldsDB); fieldsDataBase& fieldsDB);
PostprocessOperationSum(
const dictionary& opDict,
const word& fieldName,
const word& phiName,
const word& includeName,
const regionPoints& regPoints,
fieldsDataBase& fieldsDB);
/// destructor /// destructor
~PostprocessOperationSum() override = default; ~PostprocessOperationSum() override = default;

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@ -107,6 +107,14 @@ bool postprocessOperation::write(const fileSystem &parDir) const
processedFieldName() + ".Start_" + ti.timeName()); processedFieldName() + ".Start_" + ti.timeName());
osPtr_ = makeUnique<oFstream>(path); osPtr_ = makeUnique<oFstream>(path);
if(regPoints().scientific())
{
// set output format to scientific notation
osPtr_().stdStream()<<std::scientific;
}
osPtr_().precision(regPoints().precision());
regPoints().write(osPtr_()); regPoints().write(osPtr_());
} }

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@ -224,7 +224,8 @@ public:
return threshold_; return threshold_;
} }
/// whether the result is divided by volume of the region /// whether the result is divided by volume of the region
virtual
bool divideByVolume()const bool divideByVolume()const
{ {
return divideByVolume_(); return divideByVolume_();

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@ -157,6 +157,14 @@ bool pFlow::postprocessData::PostprocessComponent<RegionType, ProcessMethodType>
auto osPtr = makeUnique<oFstream>(file); auto osPtr = makeUnique<oFstream>(file);
// set output format to scientific notation
if(regPoints().scientific())
{
osPtr->stdStream() << std::scientific;
}
osPtr().precision(regPoints().precision());
regPoints().write(osPtr()); regPoints().write(osPtr());
for(auto& operation:operatios_) for(auto& operation:operatios_)

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@ -157,6 +157,12 @@ bool pFlow::postprocessData::particleProbePostprocessComponent::write(const file
// file is not open yet // file is not open yet
fileSystem path = parDir + (name_+".Start_"+ti.timeName()); fileSystem path = parDir + (name_+".Start_"+ti.timeName());
osPtr_ = makeUnique<oFstream>(path); osPtr_ = makeUnique<oFstream>(path);
if(regionPointsPtr_().scientific())
{
osPtr_().stdStream() << std::scientific;
}
osPtr_().precision(regionPointsPtr_().precision());
regionPointsPtr_().write(osPtr_()); regionPointsPtr_().write(osPtr_());
} }

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@ -138,6 +138,41 @@ Regions define where in the domain the postprocessing operations are applied:
| <td colspan="3">\* Particles selection is done when simulation reaches the time that is specified by `startTime` of the post-process component and this selection remains intact up to the end of simulation. This is very good for particle tracking purposes or when you want to analyze specific particles behavior over time.</td> | | <td colspan="3">\* Particles selection is done when simulation reaches the time that is specified by `startTime` of the post-process component and this selection remains intact up to the end of simulation. This is very good for particle tracking purposes or when you want to analyze specific particles behavior over time.</td> |
| <td colspan="3">\** This region creates a rectangular mesh and particles are located into cells according to their center points. When using `GaussianDistribution` as `processMethod`, a larger neighbor radius is considered for each cell and particles inside this neighbor radius are included in the calculations.</td> | | <td colspan="3">\** This region creates a rectangular mesh and particles are located into cells according to their center points. When using `GaussianDistribution` as `processMethod`, a larger neighbor radius is considered for each cell and particles inside this neighbor radius are included in the calculations.</td> |
### output format
The output format of the postprocessing results can be controlled by the `precision` and `scientific` parameters:
- `precision`: Number of decimal places for the output (defualt is 6).
- `scientific`: Whether to use scientific notation for large numbers (options: `yes`, `no`, default is `yes`).
for example, if you want to use 5 decimal places and no scientific notation, you can set:
```C++
on_single_sphere
{
processMethod arithmetic;
processRegion sphere;
sphereInfo
{
radius 0.01;
center (-0.08 -0.08 0.015);
}
timeControl default;
precision 5; // default is 6
scientific no; // default is yes
operations
(
// a list of operations should be defined here
);
}
```
## 6. Processing Operations for Bulk Properties ## 6. Processing Operations for Bulk Properties
Within each processing region of type `bulk`, you can define multiple operations to be performed: Within each processing region of type `bulk`, you can define multiple operations to be performed:
@ -185,6 +220,8 @@ In addition to the above basic functions, some derived functions are available f
| Function | Property type | Description | Formula | Required Parameters | | Function | Property type | Description | Formula | Required Parameters |
|----------|---------------|-------------|---------|---------------------| |----------|---------------|-------------|---------|---------------------|
|`avMassVelocity` | bulk | Average velocity weighted by mass | $\frac{\sum_{i \in \text{region}} w_i \cdot m_i \cdot v_i}{\sum_{i \in \text{region}} w_i \cdot m_i}$ | - | |`avMassVelocity` | bulk | Average velocity weighted by mass | $\frac{\sum_{i \in \text{region}} w_i \cdot m_i \cdot v_i}{\sum_{i \in \text{region}} w_i \cdot m_i}$ | - |
|`solidVolFraction`| bulk| Volume fraction of solid| $\phi = \frac{\sum_{i \in \text{region}} w_i \cdot V_i}{V_{\text{region}}}$ | - |
|`bulkDensity`| bulk| Bulk density of particles in the region | $\rho_{bulk} = \frac{\sum_{i \in \text{region}} w_i \cdot m_i}{V_{\text{region}}}$ | - |
### 6.4. Available Fields ### 6.4. Available Fields
@ -566,6 +603,7 @@ components
// are selected. Selection occurs at startTime: particles // are selected. Selection occurs at startTime: particles
// that are inside the box at t = startTime. // that are inside the box at t = startTime.
selector box; selector box;
boxInfo boxInfo
{ {
min (0 0 0); min (0 0 0);
@ -574,6 +612,14 @@ components
// center position of selected particles are processed // center position of selected particles are processed
field position; field position;
// precision for output to file (optional: default is 6)
precision 8;
// if the output format of numbers in scientific format
// is required, set scientific to yes, otherwise no
// (optional: default is yes)
scientific no;
timeControl simulationTime; timeControl simulationTime;
// execution starts at 1.0 s // execution starts at 1.0 s
@ -608,6 +654,14 @@ components
cellExtension 3; cellExtension 3;
} }
// precision for output to file (optional: default is 6)
precision 5;
// if the output format of numbers in scientific format
// is required, set scientific to yes, otherwise no
// (optional: default is yes)
scientific no;
operations operations
( (
avVelocity avVelocity

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@ -12,7 +12,10 @@ regionPoints::regionPoints
) )
: :
fieldsDataBase_(fieldsDataBase) fieldsDataBase_(fieldsDataBase)
{} {
precision_ = dict.getValOrSet<int>("precision", 6);
scientific_ = dict.getValOrSet<Logical>("scientific", Logical(true));
}
const Time& regionPoints::time() const const Time& regionPoints::time() const
{ {

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@ -52,7 +52,13 @@ class regionPoints
using PointsTypeHost = typename pointStructure::PointsTypeHost; using PointsTypeHost = typename pointStructure::PointsTypeHost;
/// Reference to the fields database containing simulation data /// Reference to the fields database containing simulation data
fieldsDataBase& fieldsDataBase_; fieldsDataBase& fieldsDataBase_;
/// default precision for output
int precision_ = 6;
/// if scientific notation is used for output
Logical scientific_;
public: public:
@ -74,7 +80,16 @@ public:
/// Returns non-const reference to the fields database /// Returns non-const reference to the fields database
fieldsDataBase& database(); fieldsDataBase& database();
int precision() const
{
return precision_;
}
bool scientific()const
{
return scientific_();
}
/// @brief size of elements /// @brief size of elements
virtual virtual
uint32 size()const = 0; uint32 size()const = 0;

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@ -46,6 +46,9 @@ private:
deviceViewType1D<realx3> dPoints_; deviceViewType1D<realx3> dPoints_;
deviceViewType1D<uint32x3> dVectices_; deviceViewType1D<uint32x3> dVectices_;
deviceViewType1D<realx3> dNormals_;
public: public:
INLINE_FUNCTION_H INLINE_FUNCTION_H
@ -53,12 +56,14 @@ public:
uint32 numPoints, uint32 numPoints,
deviceViewType1D<realx3> points, deviceViewType1D<realx3> points,
uint32 numTrianlges, uint32 numTrianlges,
deviceViewType1D<uint32x3> vertices ) deviceViewType1D<uint32x3> vertices,
deviceViewType1D<realx3> normals )
: :
numPoints_(numPoints), numPoints_(numPoints),
numTriangles_(numTrianlges), numTriangles_(numTrianlges),
dPoints_(points), dPoints_(points),
dVectices_(vertices) dVectices_(vertices),
dNormals_(normals)
{} {}
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
@ -91,11 +96,17 @@ public:
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
realx3x3 operator[](uint32 i)const { return triangle(i); } realx3x3 operator[](uint32 i)const { return triangle(i); }
INLINE_FUNCTION_HD
const realx3& normal(uint32 i)const
{
return dNormals_[i];
}
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
uint32 numPoints()const { return numPoints_; } uint32 numPoints()const { return numPoints_; }
INLINE_FUNCTION_HD INLINE_FUNCTION_HD
uint32 numTrianlges()const { return numTriangles_;} uint32 numTriangles()const { return numTriangles_;}
}; };
@ -224,7 +235,8 @@ public:
points_.size(), points_.size(),
points_.deviceViewAll(), points_.deviceViewAll(),
vertices_.size(), vertices_.size(),
vertices_.deviceViewAll()); vertices_.deviceViewAll(),
normals_.deviceViewAll() );
} }
//// - IO operations //// - IO operations

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@ -7,14 +7,18 @@ objectType dictionary;
fileFormat ASCII; fileFormat ASCII;
/*---------------------------------------------------------------------------*/ /*---------------------------------------------------------------------------*/
// motion model can be rotatingAxis or stationary or vibrating
motionModel conveyorBelt; motionModel conveyorBelt;
conveyorBeltInfo conveyorBeltInfo
{ {
conveyorBelt1 conveyorBelt1
{ {
tangentVelocity (0.5 0 0); // linear velocity of belt
linearVelocity 0.5;
// normal vector of velocity plate
// The velocity vector is tangent to this plane
normal (0 -1 0);
} }
} }

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@ -34,7 +34,7 @@ writeFormat ascii; // data writting format (ascii
timersReport Yes; // report timers timersReport Yes; // report timers
timersReportInterval 0.01; // time interval for reporting timers timersReportInterval 0.1; // time interval for reporting timers

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@ -38,7 +38,7 @@ surfaces
type stlWall; // type of the wall type stlWall; // type of the wall
file shell.stl; // file name in stl folder file shell.stl; // file name in stl folder
material prop1; // material name of this wall material prop1; // material name of this wall
motion none; // this surface is not moving ==> none motion none; // this surface is not movng ==> none
} }
} }

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@ -225,8 +225,9 @@ bool pFlow::PFtoVTK::addUndstrcuturedGridField(
os << "DATASET UNSTRUCTURED_GRID\n"; os << "DATASET UNSTRUCTURED_GRID\n";
if (numPoints == 0) // this is commented to resolve the problem of no particle in paraview
return true; //if (numPoints == 0)
// return true;
os << "POINTS " << numPoints << " float"<<'\n'; os << "POINTS " << numPoints << " float"<<'\n';
if(bindaryOutput__) if(bindaryOutput__)
@ -349,8 +350,8 @@ bool pFlow::PFtoVTK::addRealPointField(
const real *field, const real *field,
uint32 numData) uint32 numData)
{ {
if (numData == 0) //if (numData == 0)
return true; // return true;
os << "FIELD FieldData 1\n" os << "FIELD FieldData 1\n"
<< fieldName << " 1 " << numData << " float\n"; << fieldName << " 1 " << numData << " float\n";
@ -380,8 +381,8 @@ bool pFlow::PFtoVTK::addRealx3PointField(
const realx3 *field, const realx3 *field,
uint32 numData) uint32 numData)
{ {
if (numData == 0) //if (numData == 0)
return true; // return true;
os << "FIELD FieldData 1\n" os << "FIELD FieldData 1\n"
<< fieldName << " 3 " << numData << " float\n"; << fieldName << " 3 " << numData << " float\n";

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@ -131,8 +131,8 @@ namespace pFlow::PFtoVTK
uint32 numData) uint32 numData)
{ {
if (numData == 0) //if (numData == 0)
return true; // return true;
if(std::is_same_v<IntType, int> || std::is_same_v<IntType, const int> ) if(std::is_same_v<IntType, int> || std::is_same_v<IntType, const int> )
{ {