// print mechanical properties to the results
void TaitLiquid::PrintMechanicalProperties(void) const
{
// print properties
PrintProperty("K",Kbulk*UnitsController::Scaling(1.e-6),"");
PrintProperty("gam0",gamma0,"");
PrintProperty("a",aI,"");
cout << endl;
int i;
for(i=0;i<numViscosity;i++)
{ PrintProperty("eta",viscosity[i]*UnitsController::Scaling(1.e3),UnitsController::Label(VISCOSITY_UNITS));
if(numViscosity>1)
{ char hline[100];
sprintf(hline,"1/(%s)",UnitsController::Label(TIME_UNITS));
PrintProperty("log(rate)",logShearRate[i],hline);
}
cout << endl;
}
if(function!=NULL)
{ char *expr=function->Expr('#');
cout << "Initial Pressure = " << expr << " " << UnitsController::Label(PRESSURE_UNITS) << " (";
delete [] expr;
cout << "mass adjusted to match)" << endl;
}
}
// print to output window
void HillPlastic::PrintYieldProperties(void) const
{
AnisoPlasticity::PrintYieldProperties();
PrintProperty("K",Khard,"");
PrintProperty("n",nhard,"");
cout << endl;
}
// print mechanical properties to the results
void WoodMaterial::PrintMechanicalProperties(void) const
{
HillPlastic::PrintMechanicalProperties();
PrintProperty("tempC1",tempC1*100,"");
PrintProperty("tempC2",tempC2*100,"C^-1");
cout << endl;
}
// print mechanical properties to the results
void HEMGEOSMaterial::PrintMechanicalProperties(void) const
{
// core properties
PrintProperty("C0",C0,"m/s");
PrintProperty("gam0",gamma0,"");
PrintProperty("K",Kbulk,"");
PrintProperty("G1",G1,"");
cout << endl;
PrintProperty("S1",S1,"");
PrintProperty("S2",S2,"");
PrintProperty("S3",S3,"");
cout << endl;
// effective volumetric CTE (in ppm/K) alpha = rho0 gamma0 Cv / K
double effAlpha = (1.e9*heatCapacity*gamma0)/C0squared;
PrintProperty("a",effAlpha/3.,"");
PrintProperty("T0",thermal.reference,"K");
cout << endl;
plasticLaw->PrintYieldProperties();
// skip super class, but call it's superclass
HyperElastic::PrintMechanicalProperties();
}
// print mechanical properties to the results
void HEIsotropic::PrintMechanicalProperties(void) const
{
PrintProperty("G1",G1*UnitsController::Scaling(1.e-6),"");
PrintProperty("K",Kbulk*UnitsController::Scaling(1.e-6),"");
cout << endl;
double calcE = 9.*Kbulk*G1/(3.*Kbulk+G1);
PrintProperty("E",calcE*UnitsController::Scaling(1.e-6),"");
PrintProperty("nu",(3.*Kbulk-2.*G1)/(6.*Kbulk+2.*G1),"");
cout << endl;
PrintProperty("a",aI,"");
switch(UofJOption)
{ case J_MINUS_1_SQUARED:
PrintProperty("U(J)",UofJOption,"[ = (K/2)(J-1)^2 ]");
break;
case LN_J_SQUARED:
PrintProperty("U(J)",UofJOption,"[ = (K/2)(ln J)^2 ]");
break;
case HALF_J_SQUARED_MINUS_1_MINUS_LN_J:
default:
PrintProperty("U(J)",UofJOption,"[ = (K/2)((1/2)(J^2-1) - ln J) ]");
break;
}
cout << endl;
// JAN: print hardening law properties
plasticLaw->PrintYieldProperties();
// call superclass here if it is not Material base
HyperElastic::PrintMechanicalProperties();
}
// print mechanical properties to output window
void BistableIsotropic::PrintMechanicalProperties(void) const
{
PrintProperty("Initial:",false);
PrintProperty("K",K0*UnitsController::Scaling(1.e-6),"");
PrintProperty("G",G0*UnitsController::Scaling(1.e-6),"");
PrintProperty("a",a0,"");
cout << endl;
PrintProperty("Transformed:",false);
PrintProperty("K",Kd*UnitsController::Scaling(1.e-6),"");
PrintProperty("G",Gd*UnitsController::Scaling(1.e-6),"");
PrintProperty("a",ad,"");
cout << endl;
char mline[200];
if(rule==DILATION_RULE)
{ sprintf(mline,"Dilation transition at dV = %g%c to V offset = %g%c",100.*dVcrit,'%',100.*dVii,'%');
}
else if(rule==DISTORTION_RULE)
{ sprintf(mline,"Distortion transition at sqrt(0.5*e'ij e'ij) = %g%c",100.*dVcrit,'%');
}
else if(rule==VONMISES_RULE)
{ sprintf(mline,"Distortion transition at sqrt(0.5*s'ij s'ij) = %g MPa",rho*dVcrit*UnitsController::Scaling(1.e-6));
}
cout << mline << endl;
if(reversible)
cout << "Reversible" << endl;
else
cout << "Irreversible" << endl;
}
// print to output window
void PressureLaw::PrintMechanicalProperties(void) const
{
if(function==NULL)
{ PrintProperty("Stress",stress1*UnitsController::Scaling(1.e-6),UnitsController::Label(PRESSURE_UNITS));
cout << endl;
}
else
{ char *expr=function->Expr('#');
cout << "Stress = " << expr << endl;
}
if(minCOD>=0.)
{ PrintProperty("Min COD",minCOD,UnitsController::Label(CULENGTH_UNITS));
cout << endl;
}
}
// print mechanical properties to the results
void TaitLiquid::PrintMechanicalProperties(void) const
{
// print properties
PrintProperty("K",Kbulk*UnitsController::Scaling(1.e-6),"");
PrintProperty("eta",viscosity*UnitsController::Scaling(1.e3),UnitsController::Label(VISCOSITY_UNITS));
PrintProperty("a",aI,"");
cout << endl;
PrintProperty("gam0",gamma0,"");
cout << endl;
if(function!=NULL)
{ char *expr=function->Expr('#');
cout << "Initial Pressure = " << expr << " " << UnitsController::Label(PRESSURE_UNITS) << " (";
delete [] expr;
cout << "mass adjusted to match)" << endl;
}
}
HRESULT GetPropertyValue(PCWSTR pszFilename, PCWSTR pszCanonicalName)
{
// Convert the Canonical name of the property to PROPERTYKEY
PROPERTYKEY key;
HRESULT hr = PSGetPropertyKeyFromName(pszCanonicalName, &key);
if (SUCCEEDED(hr))
{
IPropertyStore* pps = NULL;
// Call the helper to get the property store for the initialized item
hr = GetPropertyStore(pszFilename, GPS_DEFAULT, &pps);
if (SUCCEEDED(hr))
{
hr = PrintProperty(pps, key, pszCanonicalName);
pps->Release();
}
else
{
wprintf(L"Error %x: getting the propertystore for the item.\n", hr);
}
}
else
{
wprintf(L"Invalid property specified: %s\n", pszCanonicalName);
}
return hr;
}
static void print_menu()
{
g_printf("\n================================= Location API Test =================================\n");
g_printf("q. Exit\n");
g_printf("1. location_init\n");
g_printf("2. location_new\n");
g_printf("3. location_free\n");
g_printf("4. location_start\n");
g_printf("5. location_stop\n");
g_printf("6. location_get_position\n");
g_printf("6a. location_get_last_position\n");
g_printf("7. location_get_velocity\n");
g_printf("7a. location_get_last_velocity\n");
g_printf("8. location_get_satellite\n");
g_printf("8a. location_get_last_satellite\n");
g_printf("9. location_get_distance\n");
g_printf("10. location_is_supported_method\n");
g_printf("11. location_is_enabled_gps\n");
g_printf("99. location_send_command\n");
g_printf("a?. signals:(1)'service-enabled',(2)'service-disabled',(3)'service-updated',(4)'zone-in',(5)'zone-out'\n");
g_printf("b?. disconnect signals:(1)'service-enabled',(2)'service-disabled',(3)'service-updated',(4)'zone-in',(5)'zone-out'\n");
g_printf("c?. (1)Set boundary, (2)Get boundary, (3) Remove boundary, (4) Remove all boundaries, (5)Set device name, \n");
g_printf(" (6)Set position interval (7) Set velocity interval (8) Set satellite interval\n");
g_printf("==================================== Property ====================================\n");
PrintProperty(location_obj);
g_printf("\n==================================================================================\n");
}
// print mechanical properties output window
void ClampedNeohookean::PrintMechanicalProperties(void) const
{
PrintProperty("Cc",critComp,"");
PrintProperty("Tc",critTens,"");
PrintProperty("xi",hardening,"");
cout << endl;
cout << "Elastic Model: ";
if(elasticModel==ELASTIC_DISNEY)
cout << "Disney" << endl;
else
cout << "Neo-Hookean" << endl;
// call superclass here if it is not Material base
Neohookean::PrintMechanicalProperties();
}
// print mechanical properties to the results
void NewMaterial::PrintMechanicalProperties(void) const
{
// call superclass here if it is not Material base
// add new properties here
PrintProperty("prp",newproperty,"");
cout << endl;
}
// print transport properties to output window - default is isotropic properties
// aniostropic materials must override it
void MaterialBase::PrintTransportProperties(void) const
{
if(Rigid()) return;
// Diffusion constants
if(DiffusionTask::active)
{ PrintProperty("D",diffusionCon,"mm^2/sec");
PrintProperty("csat",concSaturation,"");
cout << endl;
PrintProperty("b",betaI,"1/wt fr");
cout << endl;
}
// Conductivity constants
if(ConductionTask::active)
{ PrintProperty("k",rho*kCond*UnitsController::Scaling(1.e-6),UnitsController::Label(CONDUCTIVITY_UNITS));
PrintProperty("Cv",heatCapacity*UnitsController::Scaling(1.e-6),UnitsController::Label(HEATCAPACITY_UNITS));
PrintProperty("Cp",(heatCapacity+GetCpMinusCv(NULL))*UnitsController::Scaling(1.e-6),UnitsController::Label(HEATCAPACITY_UNITS));
cout << endl;
}
else if(ConductionTask::adiabatic)
{ PrintProperty("Cv",heatCapacity*UnitsController::Scaling(1.e-6),UnitsController::Label(HEATCAPACITY_UNITS));
// Cp only used in conduction so not printed here when conduction is off
cout << endl;
}
}
// Print transport properties
void HEMGEOSMaterial::PrintTransportProperties(void) const
{
// Conductivity constants
if(ConductionTask::active)
{ MaterialBase::PrintTransportProperties();
}
else if(!ConductionTask::adiabatic)
{ PrintProperty("Cv",heatCapacity,"J/(kg-K)");
cout << endl;
}
}
// print to output window
void CubicTraction::PrintMechanicalProperties(void) const
{
PrintProperty("GcI",JIc*UnitsController::Scaling(0.001),UnitsController::Label(ERR_UNITS));
PrintProperty("sigI",stress1*UnitsController::Scaling(1.e-6),UnitsController::Label(PRESSURE_UNITS));
PrintProperty("uI",delIc,UnitsController::Label(CULENGTH_UNITS));
PrintProperty("kI0",kI1*delIc*delIc*UnitsController::Scaling(1.e-6),UnitsController::Label(TRACTIONSLOPE_UNITS));
cout << endl;
PrintProperty("GcII",JIIc*UnitsController::Scaling(0.001),UnitsController::Label(ERR_UNITS));
PrintProperty("sigII",stress2*UnitsController::Scaling(1.e-6),UnitsController::Label(PRESSURE_UNITS));
PrintProperty("uII",delIIc,UnitsController::Label(CULENGTH_UNITS));
PrintProperty("kII0",kII1*delIIc*delIIc*UnitsController::Scaling(1.e-6),UnitsController::Label(TRACTIONSLOPE_UNITS));
cout << endl;
PrintProperty("n",nmix,"");
cout << endl;
}
// print mechanical properties output window
void Neohookean::PrintMechanicalProperties(void) const
{
PrintProperty("G",G*UnitsController::Scaling(1.e-6),"");
if(nu<0.5)
{ PrintProperty("K",Kbulk*UnitsController::Scaling(1.e-6),"");
PrintProperty("lam",Lame*UnitsController::Scaling(1.e-6),"");
}
else
cout << "K = lam = infinite";
cout << endl;
PrintProperty("E",Etens*UnitsController::Scaling(1.e-6),"");
PrintProperty("nu",nu,"");
if(nu==0.5) cout << "incompressible";
cout << endl;
PrintProperty("a",aI,"");
PrintProperty("gam0",gamma0,"");
switch(UofJOption)
{ case J_MINUS_1_SQUARED:
PrintProperty("U(J)",UofJOption,"[ = (K/2)(J-1)^2 ]");
break;
case LN_J_SQUARED:
PrintProperty("U(J)",UofJOption,"[ = (K/2)(ln J)^2 ]");
break;
case HALF_J_SQUARED_MINUS_1_MINUS_LN_J:
default:
PrintProperty("U(J)",UofJOption,"[ = (K/2)((1/2)(J^2-1) - ln J) ]");
break;
}
cout << endl;
// call superclass here if it is not Material base
HyperElastic::PrintMechanicalProperties();
}
void chkProperty(fleaCamera* camera, fc2PropertyType type)
{
fc2PropertyInfo info;
fc2Property prop;
info.type = type;
fc2GetPropertyInfo(camera->context, &info);
PrintPropertyInfo(&info);
prop.type = type;
fc2GetProperty(camera->context, &prop);
PrintProperty(&prop);
return;
}
/*----------------------------------------------------------------------
| Listener_OnPropertyChanged
+---------------------------------------------------------------------*/
static void
Listener_OnPropertyChanged(ATX_PropertyListener* _self,
ATX_CString name,
ATX_PropertyType type,
const ATX_PropertyValue* value)
{
Listener* self = ATX_SELF(Listener, ATX_PropertyListener);
ATX_Debug("OnPropertyChanged[%s]: ", ATX_CSTR(self->name));
if (value) {
PrintProperty(name, type, value);
} else {
ATX_Debug("name=%s [REMOVED]\n", name);
}
}
/*----------------------------------------------------------------------
| DumpProperties
+---------------------------------------------------------------------*/
static void
DumpProperties(ATX_Properties* properties)
{
ATX_Iterator* iterator;
ATX_Property* property;
ATX_Debug("[PROPERTIES] -------------------------------\n");
if (ATX_FAILED(ATX_Properties_GetIterator(properties, &iterator))) {
return;
}
while (ATX_SUCCEEDED(ATX_Iterator_GetNext(iterator,
(ATX_Any*)(void*)&property))) {
PrintProperty(property->name, property->type, &property->value);
}
ATX_Debug("--------------------------------------------\n");
ATX_DESTROY_OBJECT(iterator);
}
HRESULT EnumerateProperties(PCWSTR pszFilename)
{
IPropertyStore* pps = NULL;
// Call the helper to get the property store for the initialized item
// Note that as long as you have the property store, you are keeping the file open
// So always release it once you are done.
HRESULT hr = GetPropertyStore(pszFilename, GPS_DEFAULT, &pps);
if (SUCCEEDED(hr))
{
// Retrieve the number of properties stored in the item.
DWORD cProperties = 0;
hr = pps->GetCount(&cProperties);
if (SUCCEEDED(hr))
{
for (DWORD i = 0; i < cProperties; i++)
{
// Get the property key at a given index.
PROPERTYKEY key;
hr = pps->GetAt(i, &key);
if (SUCCEEDED(hr))
{
// Get the canonical name of the property
PWSTR pszCanonicalName = NULL;
hr = PSGetNameFromPropertyKey(key, &pszCanonicalName);
if (SUCCEEDED(hr))
{
hr = PrintProperty(pps, key, pszCanonicalName);
CoTaskMemFree(pszCanonicalName);
}
}
}
}
pps->Release();
}
else
{
wprintf(L"Error %x: getting the propertystore for the item.\n", hr);
}
return hr;
}
static
void do_query_font (Display *dpy, char *name)
{
register int i;
register XFontStruct *info = XLoadQueryFont (dpy, name);
if (!info) {
fprintf (stderr, "%s: unable to get info about font \"%s\"\n",
program_name, name);
return;
}
printf ("name: %s\n", name ? name : "(nil)");
printf (" direction:\t\t%s\n", ((info->direction == FontLeftToRight)
? "left to right" : "right to left"));
printf (" indexing:\t\t%s\n",
((info->min_byte1 == 0 && info->max_byte1 == 0) ? "linear" :
"matrix"));
printf (" rows:\t\t\t0x%02x thru 0x%02x (%d thru %d)\n",
info->min_byte1, info->max_byte1,
info->min_byte1, info->max_byte1);
printf (" columns:\t\t0x%02x thru 0x%02x (%d thru %d)\n",
info->min_char_or_byte2, info->max_char_or_byte2,
info->min_char_or_byte2, info->max_char_or_byte2);
printf (" all chars exist:\t%s\n",
(info->all_chars_exist) ? "yes" : "no");
printf (" default char:\t\t0x%04x (%d)\n",
info->default_char, info->default_char);
printf (" ascent:\t\t%d\n", info->ascent);
printf (" descent:\t\t%d\n", info->descent);
ComputeFontType (info);
printf (" bounds:\t\t%s", bounds_metrics_title);
PrintBounds ("min", &info->min_bounds);
PrintBounds ("max", &info->max_bounds);
if (info->per_char && long_list >= L_VERYLONG)
print_character_metrics (info);
printf (" properties:\t\t%d\n", info->n_properties);
for (i = 0; i < info->n_properties; i++)
PrintProperty (&info->properties[i]);
printf ("\n");
XFreeFontInfo (NULL, info, 1);
}
// print mechanical properties to output window
void Viscoelastic::PrintMechanicalProperties(void) const
{
PrintProperty("K",K,"");
PrintProperty("G0",G0,"");
PrintProperty("ntaus",(double)ntaus,"");
cout << endl;
int i;
for(i=0;i<ntaus;i++)
{ PrintProperty("i",(double)i,"");
PrintProperty("Gk",Gk[i],"");
PrintProperty("tauk",1000.*tauk[i],"ms");
cout << endl;
}
PrintProperty("a",aI,"");
cout << endl;
}
// print any properties common to all MPM material types
void MaterialBase::PrintCommonProperties(void) const
{
if(Rigid() || isTractionLaw()) return;
// print density
PrintProperty("rho",rho*UnitsController::Scaling(1000.),"");
cout << endl;
// print growth criterion and relevant material properties for crack growth
cout << "Crack Growth Criterion: ";
PrintCriterion(criterion[0],matPropagateDirection[0]);
// traction mat
if(criterion[0]!=NO_PROPAGATION && tractionMat[0]>0)
cout << " New crack surface has traction material " << tractionMat[0] << endl;
if(criterion[0]!=NO_PROPAGATION && criterion[1]!=NO_PROPAGATION)
{ cout << "Alternate Crack Growth Criterion: ";
PrintCriterion(criterion[1],matPropagateDirection[1]);
// traction mat
if(tractionMat[1]>0)
cout << " New crack surface has traction material " << tractionMat[1] << endl;
}
// artificial visconsity
if(artificialViscosity)
{ PrintProperty("Artificial viscosity on",FALSE);
PrintProperty("AV-A1",avA1,"");
PrintProperty("AV-A2",avA2,"");
cout << endl;
if(ConductionTask::AVHeating)
PrintProperty(" AV heating on",FALSE);
else
PrintProperty(" AV heating off",FALSE);
}
// optional color
if(red>=0.)
{ char mline[200];
sprintf(mline,"color= %g, %g, %g, %g",red,green,blue,alpha);
cout << mline << endl;
}
}
// print mechanical properties to output window
void Viscoelastic::PrintMechanicalProperties(void) const
{
if(pressureLaw==LINEAR_PRESSURE)
{ cout << "Pressure law: linear elastic" << endl;
PrintProperty("K",K*UnitsController::Scaling(1.e-6),"");
PrintProperty("a",aI,"");
cout << endl;
}
else
{ // core properties
cout << "Pressure law: MG-EOS" << endl;
PrintProperty("C0",C0*UnitsController::Scaling(1.e-3),UnitsController::Label(ALTVELOCITY_UNITS));
PrintProperty("gam0",gamma0,"");
PrintProperty("K",K*UnitsController::Scaling(1.e-6),"");
cout << endl;
PrintProperty("S1",S1,"");
PrintProperty("S2",S2,"");
PrintProperty("S3",S3,"");
cout << endl;
// effective volumetric CTE (in ppm/K) alpha = rho0 gamma0 Cv / K
PrintProperty("aI",1.e6*CTE,"");
PrintProperty("T0",thermal.reference,"K");
cout << endl;
}
PrintProperty("G0",G0*UnitsController::Scaling(1.e-6),"");
PrintProperty("ntaus",(double)ntaus,"");
cout << endl;
int i;
for(i=0;i<ntaus;i++)
{ PrintProperty("i",(double)(i+1),"");
PrintProperty("Gk",Gk[i]*UnitsController::Scaling(1.e-6),"");
PrintProperty("tauk",tauk[i],UnitsController::Label(TIME_UNITS));
cout << endl;
}
// For information, E and nu at time 0
PrintProperty("E(0)",9.*Kered*Gered*rho/(3.*Kered+Gered)*UnitsController::Scaling(1.e-6),"");
PrintProperty("nu(0)",(3.*Kered-2.*Gered)/(6.*Kered+2.*Gered),"");
cout << endl;
}
// print mechanical properties to output window
void Orthotropic::PrintMechanicalProperties(void) const
{
PrintProperty("E1",Ex,"");
PrintProperty("E2",Ey,"");
PrintProperty("E3",Ez,"");
PrintProperty("v12",nuxy,"");
cout << endl;
PrintProperty("v13",nuxz,"");
PrintProperty("v23",nuyz,"");
PrintProperty("G12",Gxy,"");
PrintProperty("G13",Gxz,"");
cout << endl;
PrintProperty("G23",Gyz,"");
cout << endl;
PrintProperty("a1",ax,"");
PrintProperty("a2",ay,"");
PrintProperty("a3",az,"");
cout << endl;
}
// print mechanical properties to output window
void Orthotropic::PrintMechanicalProperties(void) const
{
PrintProperty("E1",Ex*UnitsController::Scaling(1.e-6),"");
PrintProperty("E2",Ey*UnitsController::Scaling(1.e-6),"");
PrintProperty("E3",Ez*UnitsController::Scaling(1.e-6),"");
PrintProperty("v12",nuxy,"");
cout << endl;
PrintProperty("v13",nuxz,"");
PrintProperty("v23",nuyz,"");
PrintProperty("G12",Gxy*UnitsController::Scaling(1.e-6),"");
PrintProperty("G13",Gxz*UnitsController::Scaling(1.e-6),"");
cout << endl;
PrintProperty("G23",Gyz*UnitsController::Scaling(1.e-6),"");
cout << endl;
PrintProperty("a1",ax,"");
PrintProperty("a2",ay,"");
PrintProperty("a3",az,"");
cout << endl;
}
// print fraction criterion
void MaterialBase::PrintCriterion(int thisCriterion,int thisDirection) const
{
char mline[200];
switch(thisCriterion)
{ case NO_PROPAGATION:
cout << "No propagation" << endl;
break;
case MAXHOOPSTRESS:
cout << "Maximum hoop stess" << PreferredDirection(thisDirection) << endl;
PrintProperty("KIc",KIc*UnitsController::Scaling(31.62277660168379e-9),UnitsController::Label(STRESSINTENSITY_UNITS));
cout << endl;
break;
case CRITICALERR:
cout << "Critical Energy Release Rate" << PreferredDirection(thisDirection) << endl;
PrintProperty("Jc",JIc*UnitsController::Scaling(0.001),UnitsController::Label(ERR_UNITS));
cout << endl;
break;
case STEADYSTATEGROWTH:
cout << "Constant crack speed" << PreferredDirection(thisDirection) << endl;
if(initTime<0.)
{ PrintProperty("Jc",JIc*UnitsController::Scaling(0.001),UnitsController::Label(ERR_UNITS));
PrintProperty("initSpeed",initSpeed*UnitsController::Scaling(0.001),"m/s");
}
else
{ PrintProperty("ti",initTime*UnitsController::Scaling(1.e3),"ms");
PrintProperty("initSpeed",initSpeed*UnitsController::Scaling(0.001),"m/s");
}
cout << endl;
if(maxLength>0.)
{ PrintProperty("max length",maxLength,"mm");
cout << endl;
}
if(constantDirection && thisDirection==DEFAULT_DIRECTION)
{ sprintf(mline,"direction = (%9.5f,%9.5f)",growDir.x,growDir.y);
cout << mline << endl;
}
break;
case STRAINENERGYDENSITY:
cout << "Minmum strain energy density" << PreferredDirection(thisDirection) << endl;
PrintProperty("KIc",KIc*UnitsController::Scaling(31.62277660168379e-9),UnitsController::Label(STRESSINTENSITY_UNITS));
cout << endl;
break;
case EMPIRICALCRITERION:
cout << "Empirical criterion" << PreferredDirection(thisDirection) << endl;
sprintf(mline,"KIc=%12.3f %s KIIc=%12.3f %s KIexp=%12.3f KIIexp=%12.3f",
KIc*UnitsController::Scaling(31.62277660168379e-9),UnitsController::Label(STRESSINTENSITY_UNITS),
KIIc*UnitsController::Scaling(31.62277660168379e-9),UnitsController::Label(STRESSINTENSITY_UNITS),
KIexp,KIIexp);
cout << mline << endl;
break;
case MAXCTODCRITERION:
cout << "Maximum CTOD" << PreferredDirection(thisDirection) << endl;
sprintf(mline,"delIc=%12.6f mm delIIc=%12.6f mm",delIc,delIIc);
cout << mline << endl;
break;
default:
cout << "Unknown" << endl;
}
}
// print to output window
void TrilinearTraction::PrintMechanicalProperties(void) const
{
PrintProperty("GcI",JIc*UnitsController::Scaling(0.001),UnitsController::Label(ERR_UNITS));
PrintProperty("sigI1",stress1*UnitsController::Scaling(1.e-6),UnitsController::Label(PRESSURE_UNITS));
if(kI1>0.)
PrintProperty("kI",kI1*UnitsController::Scaling(1.e-6),UnitsController::Label(TRACTIONSLOPE_UNITS));
PrintProperty("upkI1",umidI,UnitsController::Label(CULENGTH_UNITS));
cout << endl;
PrintProperty("sigI2",sI2*UnitsController::Scaling(1.e-6),UnitsController::Label(PRESSURE_UNITS));
PrintProperty("upkI2",uI2,UnitsController::Label(CULENGTH_UNITS));
PrintProperty("uIc",delIc,UnitsController::Label(CULENGTH_UNITS));
cout << endl;
PrintProperty("GcII",JIIc*UnitsController::Scaling(0.001),UnitsController::Label(ERR_UNITS));
PrintProperty("sigII1",stress2*UnitsController::Scaling(1.e-6),UnitsController::Label(PRESSURE_UNITS));
if(kII1>0.)
PrintProperty("kII",kII1*UnitsController::Scaling(1.e-6),UnitsController::Label(TRACTIONSLOPE_UNITS));
PrintProperty("upkII1",umidII,UnitsController::Label(CULENGTH_UNITS));
cout << endl;
PrintProperty("sigII2",sII2*UnitsController::Scaling(1.e-6),UnitsController::Label(PRESSURE_UNITS));
PrintProperty("upkII2",uII2,UnitsController::Label(CULENGTH_UNITS));
PrintProperty("uIIc",delIIc,UnitsController::Label(CULENGTH_UNITS));
cout << endl;
PrintProperty("n",nmix,"");
cout << endl;
}