void
avtTraceHistoryFilter::Execute(void)
{
//
// Write out the connectivity. "-1" is the hint to do that.
//
OutputTime(GetTypedInput(), -1);
//
// Pull out just the points.
//
avtDataset_p ds = InitializeDataset();
//
// Put the fields from the current time step on the points and then
// output those fields.
//
PerformIteration(0, ds, false);
OutputTime(ds, 0);
//
// Now iterate through the time slices, displacing and evaluating.
//
for (int i = 0 ; i < atts.GetNumiter() ; i++)
{
ds->SetSource(GetInput()->GetSource());
PerformIteration(i, ds, true);
OutputTime(ds, i+1);
}
// The operator just passes the data through.
GetDataTree() = GetInputDataTree();
}
void
avtLCSFilter::CreateNativeMeshIterativeCalcOutput(std::vector<avtIntegralCurve*> &ics)
{
//accumulate all of the points then do jacobian?
//or do jacobian then accumulate?
//picking the first.
int offset = 0;
double minv = std::numeric_limits<double>::max();
double maxv = -std::numeric_limits<double>::max();
int count = 0;
CreateMultiBlockIterativeCalcOutput(GetInputDataTree(), GetDataTree(),
ics, offset, minv, maxv, count);
int nTuples = (int) ics.size();
if( 1 || count <= nTuples/10 )
{
if( minSizeValue == std::numeric_limits<double>::max() )
minSizeValue = 0.0;
if( maxSizeValue == -std::numeric_limits<double>::max() )
maxSizeValue = 0.0;
char str[1028];
SNPRINTF(str, 1028, "\n%d%% of the nodes (%d of %d nodes) "
"exaimed produced a valid exponent (%f to %f). "
"This may be due to too large of a size limit (%f), "
"too small of an integration step (%f), or "
"too few integration steps (%d out of %d where taken), or "
"simply due to the nature of the data. "
"The size range was from %f to %f. ",
(int) (100.0 * (double) count / (double) nTuples),
count, nTuples,
minv, maxv,
maxSize, maxStepLength, numSteps, maxSteps,
minSizeValue, maxSizeValue );
avtCallback::IssueWarning(str);
}
avtDataAttributes &dataatts = GetOutput()->GetInfo().GetAttributes();
avtExtents* e = dataatts.GetThisProcsActualDataExtents();
double range[2];
range[0] = minv;
range[1] = maxv;
e->Set(range);
e = dataatts.GetThisProcsOriginalDataExtents();
e->Set(range);
e = dataatts.GetThisProcsActualSpatialExtents();
e->Set(global_bounds);
e = dataatts.GetThisProcsOriginalSpatialExtents();
e->Set(global_bounds);
}
wxString uwTreeList::OnGetItemText( wxTreeItemData* item, long column ) const
{
return GetDataTree(item).GetText(column);
//dword index = tree.GetSerialID();
//if ( index != ID_IGNORE ) return Table->GetText( index, column );
//else if ( column == GetMainColumn() ) return GetDataTree(item)->GetCaption();
//else return wxEmptyString;
}
void
avtDatasetToDatasetFilter::PostExecute(void)
{
if (switchVariables)
{
debug5 << GetType() << ": Setting output variable to be "
<< pipelineVariable << " after execution." << endl;
OutputSetActiveVariable(pipelineVariable);
if (removeActiveVariableWhenDone)
{
debug5 << GetType() << ": Removing variable " << activeVariable
<< " after execution." << endl;
avtDataTree_p tree = GetDataTree();
bool success;
tree->Traverse(CRemoveVariable, (void *)activeVariable, success);
GetOutput()->GetInfo().GetAttributes().
RemoveVariable(activeVariable);
}
}
// Iterate through the secondary variables, removing them when needed.
for (int i = 0; i < removeSecondaryVariable.size(); i++)
{
if (removeSecondaryVariable[i] == true)
{
debug5 << GetType() << ": Removing secondary variable "
<< secondaryVarList[i] << " after execution." << endl;
avtDataTree_p tree = GetDataTree();
bool success;
tree->Traverse(CRemoveVariable, (void *)secondaryVarList[i],
success);
GetOutput()->GetInfo().GetAttributes().
RemoveVariable(secondaryVarList[i]);
} else
{
debug5 << GetType() << ": Leaving secondary variable "
<< secondaryVarList[i] << " after execution." << endl;
}
}
avtDatasetToDataObjectFilter::PostExecute();
avtDataObjectToDatasetFilter::PostExecute();
}
bool
avtOriginatingDatasetSource::FetchData(avtDataRequest_p spec)
{
bool rv = false;
rv = FetchDataset(spec, GetDataTree());
avtDataTree_p tree = GetDataTree();
if (!ArtificialPipeline())
{
int nleaves = 0;
vtkDataSet **ds = tree->GetAllLeaves(nleaves);
vector<int> domains;
tree->GetAllDomainIds(domains);
verifier.VerifyDatasets(nleaves, ds, domains);
delete [] ds;
}
return rv;
}
void
avtDataObjectToDatasetFilter::OutputSetActiveVariable(const char *varname)
{
SetActiveVariableArgs args;
args.varname = varname;
args.activeVarDim = -1;
avtDataTree_p tree = GetDataTree();
bool success = false;
tree->Traverse(CSetActiveVariable, (void *) &args, success);
GetOutput()->GetInfo().GetAttributes().SetActiveVariable(varname);
}
void uwTreeList::ExpandPlaceholder( const wxTreeItemId& parent )
{
unDataTree& tree = GetDataTree( parent );
if( tree.Expand() )
{
AddChildren( tree );
if( tree.ShouldSort() )
SortChildren( tree.GetTreeID() );
wxTreeItemIdValue cookie = 0;
wxTreeItemId child = GetFirstChild(parent, cookie);
while( child.IsOk() )
{
unDataTree& tree_child = GetDataTree( child );
if( tree_child.GetAutoExpand() )
{
Expand(child);
}
child = GetNextChild(parent, cookie);
}
}
}
void
avtDataObjectToDatasetFilter::PostExecute(void)
{
avtDataTree_p tree = GetDataTree();
bool dummy;
avtDataAttributes &atts = GetOutput()->GetInfo().GetAttributes();
if ((atts.GetSpatialDimension()==3 && atts.GetTopologicalDimension()<3) ||
(atts.GetSpatialDimension()==2 && atts.GetTopologicalDimension()<2))
{
int t0 = visitTimer->StartTimer();
tree->Traverse(CConvertUnstructuredGridToPolyData, NULL, dummy);
visitTimer->StopTimer(t0, "converting ugrids to polydata in postex");
}
int t0 = visitTimer->StartTimer();
tree->Traverse(CBreakVTKPipelineConnections, (void*)&vtkDebugMode, dummy);
visitTimer->StopTimer(t0, "Breaking pipeline connections in postex");
}
unDataTree& uwTreeList::GetDataTree( const wxTreeItemId& item ) const
{
return GetDataTree(GetItemData(SafeTreeID(item)));
}
