float NodeLevelHealthTriggeredIVScaleUpSwitch::getDemographicCoverage( ) const
{
float demographic_coverage = demographic_restrictions.GetDemographicCoverage();
float current_demographic_coverage = demographic_coverage;
switch (demographic_coverage_time_profile)
{
case ScaleUpProfile::Immediate:
LOG_DEBUG("ScaleUpProfile is Immediate, don't need to update demographic coverage by time \n");
current_demographic_coverage = demographic_coverage;
break;
case ScaleUpProfile::Linear:
if (duration <= primary_time_constant)
{
//the increment amount is ((demographic_coverage - initial_demog_coverage)/primary_time_constant) per day
current_demographic_coverage = initial_demographic_coverage + ( (demographic_coverage - initial_demographic_coverage)/primary_time_constant) * duration;
LOG_DEBUG_F("ScaleUpProfile is Linear, duration is %f, rate of %f, coverage is %f \n",
duration,
( (demographic_coverage - initial_demographic_coverage)/primary_time_constant),
current_demographic_coverage);
}
else
{
current_demographic_coverage = demographic_coverage;
}
break;
default:
throw NotYetImplementedException( __FILE__, __LINE__, __FUNCTION__, "Only Immediate and Linear supported currently. \n" );
break;
}
return current_demographic_coverage;
}
QueryResult
TBDrugTypeParameters::QueryInterface(
iid_t iid, void **ppvObject
)
{
throw NotYetImplementedException( __FILE__, __LINE__, __FUNCTION__ );
}
void VectorInterventionsContainer::UpdateProbabilityOfIndRepKilling(
float prob
)
{
if ( prob > 0 )
{
throw NotYetImplementedException( __FILE__, __LINE__, __FUNCTION__, "Individual repellents only currently support blocking but not killing." );
}
p_kill_indrep = prob;
}
FlowGraphNode *irNodeGetEnclosingBlock(IRNode *Node) {
throw NotYetImplementedException("irNodeGetEnclosingBlock");
}
EHRegion *irNodeGetRegion(IRNode *Node) {
throw NotYetImplementedException("irNodeGetRegion");
}
void irNodeInsertAfter(IRNode *InsertionPointTuple, IRNode *NewNode) {
throw NotYetImplementedException("irNodeInsertAfter");
}
void irNodeExceptSetMSILOffset(IRNode *BranchNode, uint32_t Offset) {
throw NotYetImplementedException("irNodeExceptSetMSILOffset");
}
bool irNodeIsHandlerFlowAnnotation(IRNode *Node) {
throw NotYetImplementedException("irNodeIsHandlerFlowAnnotation");
}
IRNode *branchListGetIRNode(BranchList *BranchList) {
throw NotYetImplementedException("branchListGetIRNode");
}
bool irNodeIsBranch(IRNode *Node) {
throw NotYetImplementedException("irNodeIsBranch");
}
IRNode *irNodeGetInsertPointBeforeMSILOffset(IRNode *Node, uint32_t Offset) {
throw NotYetImplementedException("irNodeGetInsertPointBeforeMSILOffset");
}
void fgEdgeListMakeFake(FlowGraphEdgeList *FgEdge) {
throw NotYetImplementedException("fgEdgeListMakeFake");
}
IRNode *irNodeGetNext(IRNode *Node) {
throw NotYetImplementedException("irNodeGetNext");
}
uint32_t fgNodeGetBlockNum(FlowGraphNode *Fg) {
throw NotYetImplementedException("fgNodeGetBlockNum");
}
void fgNodeSetGlobalVerifyData(FlowGraphNode *Fg, GlobalVerifyData *GvData) {
throw NotYetImplementedException("fgNodeSetGlobalVerifyData");
}
GlobalVerifyData *fgNodeGetGlobalVerifyData(FlowGraphNode *Fg) {
throw NotYetImplementedException("fgNodeGetGlobalVerifyData");
}
void ViewImpl::drawTriangle(const VecMath::Vector< 4 >&, const VecMath::Vector< 4 >&,
const VecMath::Vector< 4 >&,
const VecMath::Vector< 3 >&, const VecMath::Vector< 3 >&,
const VecMath::Vector< 3 >&) {
throw NotYetImplementedException("drawTriangle()");
}
void CalendarEventCoordinator::UpdateNodes( float dt )
{
// Now issue events as they come up, including anything currently in the past or present
while( parent->GetSimulationTime().time >= times_and_coverages.begin()->first)
{
int grandTotal = 0;
int limitPerNode = -1;
// intervention class names for informative logging
std::ostringstream intervention_name;
intervention_name << std::string( json::QuickInterpreter(intervention_config._json)["class"].As<json::String>() );
auto qi_as_config = Configuration::CopyFromElement( (intervention_config._json), "campaign" );
_di = InterventionFactory::getInstance()->CreateIntervention(qi_as_config);
// including deeper information for "distributing" interventions (e.g. calendars)
formatInterventionClassNames( intervention_name, &json::QuickInterpreter(intervention_config._json) );
// Only visit individuals if this is NOT an NTI. Check...
// Check to see if intervention is an INodeDistributable...
INodeDistributableIntervention *ndi = InterventionFactory::getInstance()->CreateNDIIntervention(qi_as_config);
INodeDistributableIntervention *ndi2 = nullptr;
LOG_DEBUG_F("[UpdateNodes] limitPerNode = %d\n", limitPerNode);
for (auto nec : cached_nodes)
{
if (ndi)
{
throw NotYetImplementedException( __FILE__, __LINE__, __FUNCTION__ );
#if 0
ndi2 = InterventionFactory::getInstance()->CreateNDIIntervention( qi_as_config );
if(ndi2)
{
float duration = -1;
if (times_and_coverages.size() > 1)
{
auto iter = times_and_coverages.end();
//A node-targeted intervention issued through the calender coordinator lasts until the next NDI.
//Is there an overlap of one day here? Should there be a -1?
duration = (float)(prev(iter,2)->first - prev(iter, 1)->first);
}
INodeDistributableInterventionParameterSetterInterface* pNDIPSI = nullptr;
if (s_OK == ndi2->QueryInterface(GET_IID(INodeDistributableInterventionParameterSetterInterface), (void**)&pNDIPSI) )
{
pNDIPSI->SetDemographicCoverage(times_and_coverages.begin()->second);
pNDIPSI->SetMaxDuration(duration);
}
if (!ndi2->Distribute( nec, this ) )
{
LOG_INFO_F("UpdateNodes() distributed '%s' intervention to node %d\n", intervention_name.str().c_str(), nec->GetId().data );
}
ndi2->Release();
}
#endif
}
else
{
try
{
// For now, distribute evenly across nodes.
int totalIndivGivenIntervention = nec->VisitIndividuals( this, limitPerNode );
grandTotal += totalIndivGivenIntervention;
LOG_INFO_F( "UpdateNodes() gave out %d interventions at node %d\n", totalIndivGivenIntervention, nec->GetId().data );
}
catch( const json::Exception &e )
{
throw GeneralConfigurationException( __FILE__, __LINE__, __FUNCTION__, e.what() );
}
}
}
delete qi_as_config;
qi_as_config = nullptr;
times_and_coverages.erase(times_and_coverages.begin());
LOG_DEBUG_F("%d Distributions remaining from CalendarEventCoordinator\n", times_and_coverages.size());
if( times_and_coverages.empty() )
{
LOG_DEBUG_F("Signaling for disposal of CalendarEventCoordinator\n");
distribution_complete = true; // we're done, signal disposal ok
break;
}
}
return;
}
void ViewImpl::drawPolygon(const std::vector< VecMath::Vector< 4 > >&,
const std::vector< VecMath::Vector< 3 > >&) {
throw NotYetImplementedException("drawPolygon()");
}
const vector<vector<float>>& PairFormationParametersImpl::OrthogonalBasisForATranspose() const
{
throw NotYetImplementedException( __FILE__, __LINE__, __FUNCTION__, "OrthogonalBasisForATranspose() is not supported." );
}
IRNode *
irNodeGetFirstLabelOrInstrNodeInEnclosingBlock(IRNode *HandlerStartNode) {
throw NotYetImplementedException(
"irNodeGetFirstLabelOrInstrNodeInEnclosingBlock");
}
BranchList *branchListGetNext(BranchList *BranchList) {
throw NotYetImplementedException("branchListGetNext");
}
const vector<vector<float>>& PairFormationParametersImpl::AperpPseudoInverse() const
{
throw NotYetImplementedException( __FILE__, __LINE__, __FUNCTION__, "AperpPseudoInverse() is not supported." );
}
uint32_t irNodeGetMSILOffset(IRNode *Node) {
throw NotYetImplementedException("irNodeGetMSILOffset");
}
const vector<float>& PairFormationParametersImpl::SingularValues() const
{
throw NotYetImplementedException( __FILE__, __LINE__, __FUNCTION__, "SingularValues() is not supported." );
}
void irNodeLabelSetMSILOffset(IRNode *Node, uint32_t LabelMSILOffset) {
throw NotYetImplementedException("irNodeLabelSetMSILOffset");
}
