Tutorial11_AxisymmetricWalls.cpp File Reference

#include "Mercury3D.h"
#include "Walls/IntersectionOfWalls.h"
#include "Walls/AxisymmetricIntersectionOfWalls.h"
#include "Species/LinearViscoelasticSpecies.h"

Classes
class	Tutorial11
	[T11:headers] More...

Functions
int	main (int argc, char *argv[])
	[T11:class] More...

Function Documentation

main()

int main	(	int argc	,
		char *	argv[]
	)

[T11:class]

[T11:main]

[T11: domain]

[T11: domain]

[T11: other specifications]

[T11: other specifications]

[T11: species configuration]

[T11: species configuration]

[T11: tests]

[T11: tests]

[T11: time]

[T11: time]

[T11: solve]

[T11: solve]

{
    Mdouble width = 10e-2; // 10cm
    Mdouble height = 60e-2; // 60cm
 
    //Point the object HG to class
    Tutorial11 HG(width,height);
 
    //Specify particle radius:
    //these parameters are needed in setupInitialConditions()
    HG.minParticleRadius = 6e-3; // 6mm
    HG.maxParticleRadius = 10e-3; //10mm
 
    //Specify the number of particles
 
    //specify how big the wedge of the contraction should be
    const Mdouble contractionWidth = 2.5e-2; //2.5cm
    const Mdouble contractionHeight = 5e-2; //5cm
    HG.contractionWidth = contractionWidth;
    HG.contractionHeight = contractionHeight;
 
    //make the species of the particle and wall
    LinearViscoelasticSpecies species;
    species.setDensity(2000);
 
    species.setStiffness(1e5);
    species.setDissipation(0.63);
    HG.speciesHandler.copyAndAddObject(species);
 
 
    //test normal forces
    const Mdouble minParticleMass = species.getDensity() * 4.0 / 3.0 * constants::pi * mathsFunc::cubic(HG.minParticleRadius);
    //Calculates collision time for two copies of a particle of given dissipation_, k, effective mass
    logger(INFO, "minParticleMass = %", minParticleMass);
    //Calculates collision time for two copies of a particle of given dissipation_, k, effective mass
    const Mdouble tc = species.getCollisionTime(minParticleMass);
    logger(INFO, "tc  = %", tc);
    //Calculates restitution coefficient for two copies of given dissipation_, k, effective mass
    const Mdouble r = species.getRestitutionCoefficient(minParticleMass);
    logger(INFO, "restitution coefficient = %", r);
 
    //time integration parameters
    HG.setTimeStep(tc / 10.0);
    HG.setTimeMax(5.0);
    HG.setSaveCount(500);
 
    HG.solve(argc, argv);
    return 0;
}

References Tutorial11::contractionHeight, Tutorial11::contractionWidth, BaseHandler< T >::copyAndAddObject(), mathsFunc::cubic(), e(), LinearViscoelasticNormalSpecies::getCollisionTime(), ParticleSpecies::getDensity(), LinearViscoelasticNormalSpecies::getRestitutionCoefficient(), Global_Physical_Variables::height(), INFO, logger, Tutorial11::maxParticleRadius, Tutorial11::minParticleRadius, constants::pi, UniformPSDSelfTest::r, ParticleSpecies::setDensity(), LinearViscoelasticNormalSpecies::setDissipation(), DPMBase::setSaveCount(), LinearViscoelasticNormalSpecies::setStiffness(), DPMBase::setTimeMax(), DPMBase::setTimeStep(), DPMBase::solve(), and DPMBase::speciesHandler.