bool OSExecutorModule::signal_event( BObjectImp* imp )
{
INC_PROFILEVAR(events);
if (blocked_ && (wait_type == WAIT_EVENT)) // already being waited for
{
/* Now, the tricky part. The value to return on an error or
completion condition has already been pushed onto the value
stack - so, we need to replace it with the real result.
*/
exec.ValueStack.top().set( new BObject( imp ) );
/* This executor will get moved to the run queue at the
next step_scripts(), where blocked is checked looking
for timed out or completed operations. */
revive();
}
else // not being waited for, so queue for later.
{
if (events_.size() < max_eventqueue_size)
{
events_.push( imp );
}
else
{
if (config.discard_old_events)
{
BObject ob( events_.front() );
events_.pop();
events_.push( imp );
}
else
{
if (config.loglevel >= 11)
{
cout << "Event queue for " << exec.scriptname() << " is full, discarding event." << endl;
ExecutorModule* em = exec.findModule( "npc" );
if (em)
{
NPCExecutorModule* npcemod = static_cast<NPCExecutorModule*>(em);
cout << "NPC Serial: " << hexint( npcemod->npc.serial ) <<
" (" << npcemod->npc.x << " " << npcemod->npc.y << " " << (int) npcemod->npc.z << ")" << endl;
}
BObject ob( imp );
cout << "Event: " << ob->getStringRep() << endl;
}
return false;
}
}
}
return true;
}
unsigned
settimer(aug_timers_t timers, idref ref, unsigned ms, std::auto_ptr<T>& x)
{
boxptrptr ob(createboxptr(getmpool(aug_tlx), x));
return verify(aug_settimer(timers, ref.get(), ms,
timermemcb<T>, ob.base()));
}
//--------------------------------------------------------------------------------------------
bool get_depth_2(const oct_bb_t& cv_a, const Vector3f& pos_a, const oct_bb_t& cv_b, const Vector3f& pos_b, bool break_out, oct_vec_v2_t& depth)
{
// Translate the vector positions to octagonal vector positions.
oct_vec_v2_t oa(pos_a), ob(pos_b);
// calculate the depth
bool valid = true;
for (size_t i = 0; i < OCT_COUNT; ++i)
{
depth[i] = std::min(cv_b._maxs[i] + ob[i], cv_a._maxs[i] + oa[i]) -
std::max(cv_b._mins[i] + ob[i], cv_a._mins[i] + oa[i]);
if (depth[i] <= 0.0f)
{
valid = false;
if (break_out) return false;
}
}
// scale the diagonal components so that they are actually distances
depth[OCT_XY] *= Ego::Math::invSqrtTwo<float>();
depth[OCT_YX] *= Ego::Math::invSqrtTwo<float>();
return valid;
}
void verify(T&c) {
std::stringstream file;
ROOT::Reflex::Type type = ROOT::Reflex::Type::ByTypeInfo(typeid(T));
ROOT::Reflex::Object ob(type,&c);
// boost::archive::binary_oarchive oa(file);
boost::archive::text_oarchive oa(file);
oa << ob;
T co;
ROOT::Reflex::Object ib(type,&co);
boost::archive::text_iarchive ia(file);
ia >> ib;
if (co!=c) std::cout << "Error" << std::endl;
std::cout << file.str() << std::endl;
std::ostringstream xfile;
boost::archive::xml_oarchive ox(xfile);
ox << boost::serialization::make_nvp("A",ob);
std::cout << std::endl
<< xfile.str() << std::endl;
}
void checkUpdate(int b, int N, int64 size, bool verbose = false) {
if(verbose) cout << " Testing updates b = "<< b << " N = " << N << " size = " << size << endl;
OlaBuffer< float > ob(b,N);
cout << " beta (number of levels) = " << ob.levels(size) << endl;
for(int64 k = 0 ; k < size ; ++k) {
if(verbose) cout << " =======================" << endl;
if(verbose) cout << " testing update of delta at k = " << k << " N = " << N << " size = " << size << endl;
vector<float> data(size,0);
data[k] = 1;// **
if(verbose) cout << "k = " << k << endl;
counted_ptr<vector<float> > buffer = ob.computeBuffer(data);
ob.updateBuffer(*buffer,k,-1);
for(int i = (int) buffer->size() -1 ; i >= 0 ; --i) {
if(abs((*buffer)[i]) > 0.00001) {
cout << " buffer should have gone to zero " << endl;
for (int l = 0; l < (int) buffer->size() ; ++l) cout << (*buffer)[l] << " ";
cout << endl;
throw TestFailedException((*buffer)[i]);
}
}
counted_ptr<vector<float> > newbuffer = ob.computeBuffer(data);
ob.updateBuffer(*buffer,k,1.0f);
for(int i = 0; i < (int) buffer->size(); ++i) {
if(abs((*buffer)[i] - (*newbuffer)[i]) > 0.00001) {
cout << " updating should be the same as tranforming " << endl;
for (int l = 0; l < (int) buffer->size() ; ++l) cout << (*buffer)[l] << " ";
cout << endl;
for (int l = 0; l < (int) newbuffer->size() ; ++l) cout << (*newbuffer)[l] << " ";
cout << endl;
throw TestFailedException((*buffer)[i] - (*newbuffer)[i]);
}
}
}
if(verbose) cout << " *Test succesful* " << endl;
}
/**
* This links the udo to the udo at the locator's position.
*
* @param pLocator The locator that has an item to link to.
*/
/*virtual*/ void UserDataObjectLinkProxy::createLinkAtPos(ToolLocatorPtr pLocator)
{
UserDataObjectLinkLocator* locator =
(UserDataObjectLinkLocator*)pLocator.getObject();
ChunkItemPtr chunkItem = locator->chunkItem();
if (chunkItem == NULL)
return;
// The linked udo
EditorChunkItem* item = static_cast<EditorChunkItem*>( chunkItem.getObject() );
if (!item->isEditorUserDataObject())
return;
EditorChunkUserDataObject* ecudo = static_cast<EditorChunkUserDataObject*>( item );
if( !EditorChunkCache::instance( *ecudo->chunk() ).edIsWriteable() )
return;
PropertyIndex propIdx =
linker_->propHelper()->propGetIdx(linkName_);
if ( propIdx.empty() )
//TODO: have a warning or error especially if its not a selection
return;
// Add a link from the linker to ecudo in property propIdx
WorldManager::instance().linkerManager().addLink(
linker_, ecudo->chunkItemLinker(), propIdx );
// Update the property representation
PyObjectPtr ob( linker_->propHelper()->propGetPy( propIdx ), PyObjectPtr::STEAL_REFERENCE );
linkValue_ = UserDataObjectLinkDataType::asString( ob.getObject() );
UndoRedo::instance().barrier(
L( "WORLDEDITOR/WORLDEDITOR/PROPERTIES/STATION_NODE_LINK_PROXY/LINK_NODES" ), false);
}
extern "C" int write_output_(char *out_filename, double *A, int *n)
{
std::ofstream ofs(out_filename);
OpenBabel::OBConversion ob(NULL, &ofs);
OpenBabel::OBAtom atom;
OpenBabel::OBMol mol;
int i;
ob.SetOutFormat("CML");
/* Atom is Iridium */
atom.SetAtomicNum(77);
for (i = 0; i < *n; i++)
{
atom.SetVector(A[i*3], A[i*3+1], A[i*3+2]);
mol.AddAtom(atom);
}
//for (i=0; i < *n; i++)
//{
//for (int j=i; j < *n; j++)
//{
//mol.AddBond(i+1, j+1, 0);
//}
//}
ob.Write(&mol);
ob.CloseOutFile();
}
void checkErrorRange(int b, int N, int64 size, bool verbose = true) {
OlaBuffer< float > ob(b,N);
int64 begin = 0;
for(int64 end = begin + 1 ; end <= size;++end) {
int64 lower = size; int64 higher = 0;
cout << " testing range from " << begin << " to " << end << endl;
RangedCubicPolynomial rcp(1.2,0.9,0,0,begin,end);
cout << " rcp " << endl;
for(int64 k = 0; k < size; ++k) cout << rcp(k) << " " ;
cout << endl;
cout << " interpolate " << endl;
for(int64 k = 0; k < size; ++k) cout << ob.interpolate(k,1,rcp,size) << " " ;
cout << endl;
for(int64 k = 0; k < size ; ++k) {
if(abs(ob.interpolate(k,1,rcp,size) - rcp(k)) > 0.0001) {
if(k < lower) lower = k;
if(k > higher) higher = k;
}
}
++higher ;
cout << " range = ["<<lower << " , " << higher << " ] ( b = "<< b <<", N = "<< N
<< ", size = "<< size << " )" << endl;
cout << endl;
ob.testImperfectRange(end,1,size);
}
}
/**
* Create a copy of the EditorChunkUserDataObject that the UserDataObjectLinkProxy
* is working on, link this copy to the original and return a MatrixProxyPtr
* that can set the position/orientation etc of the copy.
*
* @return A proxy to set the position/orientation of the linked
* item.
*/
/*virtual*/ MatrixProxyPtr UserDataObjectLinkProxy::createCopyForLink()
{
if ( linker_->chunkItem()->isEditorEntity() )
{
// Not supported in entities at the moment.
return NULL;
}
// Create a copy of node_:
EditorChunkUserDataObject *newNode = new EditorChunkUserDataObject();
DataSectionPtr newSection = new XMLSection("copy");
newSection->copy( linker_->chunkItem()->pOwnSect() );
newSection->delChild( "guid" );
newSection->delChild( "backLinks" );
// delete the link property, or the whole array if it's an array of links
DataSectionPtr propsSection = newSection->openSection( "properties" );
std::string baseLinkName = linkName_;
int pos = baseLinkName.find_first_of( "[" );
if ( pos != std::string::npos )
baseLinkName = baseLinkName.substr( 0, pos );
if ( propsSection != NULL )
propsSection->delChild( baseLinkName );
// and load it.
newNode->load( newSection, linker_->chunkItem()->chunk() );
linker_->chunkItem()->chunk()->addStaticItem( newNode );
newNode->edTransform( linker_->chunkItem()->edTransform(), false );
// set the link in the current node to point to the newNode
PropertyIndex propIdx =
linker_->propHelper()->propGetIdx(linkName_);
WorldManager::instance().linkerManager().addLink(
linker_, newNode->chunkItemLinker(), propIdx );
PyObjectPtr ob( linker_->propHelper()->propGetPy( propIdx ), PyObjectPtr::STEAL_REFERENCE );
linkValue_ = UserDataObjectLinkDataType::asString( ob.getObject() );
// Set the new node as the selection:
std::vector<ChunkItemPtr> items;
items.push_back( newNode );
WorldManager::instance().setSelection( items );
if(PropTable::table()->propertyList())//bobo edit
{
int curSel = PropTable::table()->propertyList()->GetCurSel();
PropTable::table()->propertyList()->selectItem( curSel );
}
newNode->propHelper()->resetSelUpdate( true );
// Return a ChunkItemMatrix for the new node so that its position can be
// edited:
ChunkItemMatrix *result = new ChunkItemMatrix( newNode );
result->recordState();
return result;
}
int main()
{
C3 ob(10);
ob.pisz();
ob.C1::pisz();
ob.pisz_wszystko();
}
/**
* This method returns true if the linker has links to the linker identified
* by "guid"/"chunkId".
*
* @param guid GUID of the linker to search in this linker's properties.
* @param chunkId Chunk if the linker to search in this linker's properties.
* @return true if this linker has links to "guid"
*/
bool EditorChunkItemLinkable::hasLinksTo(const UniqueID& guid, const std::string& chunkId)
{
// look for more links to "guid"
int propCounter = propHelper()->propCount();
for (int i=0; i < propCounter; i++)
{
DataDescription* pDD = propHelper()->pType()->property( i );
if (!pDD->editable())
continue;
// Is this property a user data object link
if (propHelper()->isUserDataObjectLink( i ))
{
PyObjectPtr ob( propHelper()->propGetPy( i ), PyObjectPtr::STEAL_REFERENCE );
std::string propId = PyString_AsString( PyTuple_GetItem( ob.getObject(), 0 ) );
std::string propChunkId = PyString_AsString( PyTuple_GetItem( ob.getObject(), 1 ) );
if ( propId == guid.toString() && propChunkId == chunkId )
return true;
}
// Is this property an array of user data object links
else if (propHelper()->isUserDataObjectLinkArray( i ))
{
PyObjectPtr ob( propHelper()->propGetPy( i ), PyObjectPtr::STEAL_REFERENCE );
SequenceDataType* dataType =
static_cast<SequenceDataType*>( pDD->dataType() );
ArrayPropertiesHelper propArray;
propArray.init(this->chunkItem(),&(dataType->getElemType()), ob.getObject());
// Iterate through the array of links
for(int j = 0; j < propArray.propCount(); j++)
{
PyObjectPtr aob( propArray.propGetPy( j ), PyObjectPtr::STEAL_REFERENCE );
std::string propId = PyString_AsString( PyTuple_GetItem( aob.getObject(), 0 ) );
std::string propChunkId = PyString_AsString( PyTuple_GetItem( aob.getObject(), 1 ) );
if ( propId == guid.toString() && propChunkId == chunkId )
return true;
}
}
}
return false;
}
int main()
{
verybig ob(1);
for(int i=1;i<=6;i++)
ob.multiply(2);
ob.display();
getchar();
return 0;
}
/**
* UserDataObjectLinkProxy constructor.
*
* @param linkName The id linked.
* @param linker The linker object being linked.
*/
/*explicit*/ UserDataObjectLinkProxy::UserDataObjectLinkProxy(
const std::string& linkName,
EditorChunkItemLinkable* linker ) :
linkName_(linkName),
linker_(linker)
{
PropertyIndex index =
linker_->propHelper()->propGetIdx( linkName_ );
PyObjectPtr ob( linker_->propHelper()->propGetPy( index ), PyObjectPtr::STEAL_REFERENCE );
linkValue_ = UserDataObjectLinkDataType::asString( ob.getObject() );
}
void checkConstantInterpolation(int b, int N, int64 size, bool verbose = false) {
OlaBuffer< float > ob(b,N);
RangedCubicPolynomial rcp(1,0,0,0,0,size);
for(int64 k = 0; k < size ; ++k) {
if(abs(ob.interpolate(k,1,rcp,size)-1)> 0.00001) {
cout << "constant b = " << b << " N = "<< N << " size = " << size << endl;
cout << "ob.interpolate("<< k<< ",b,rcp,size) = " << ob.interpolate(k,1,rcp,size) << endl;
throw new TestFailedException(k);
}
}
}
utils::Buffer lElem2Buffer(const LabelElement& lElem)
{
utils::Buffer ob(100);
utils::OBufferStream os(ob);
os << lElem.position() << ' ' << utils::String(lElem.text());
os.flush();
return ob;
}
/**
* This method sets the datasection form of a property.
*
* @param index The index of the property in pType.
* @param pTemp The datasection form of property.
* @return Boolean success or failure.
*/
bool PropertiesHelper::propSet( PropertyIndex index, DataSectionPtr pTemp )
{
if ( pType_ == NULL || index.empty() )
return false;
MF_ASSERT( index.valueAt(0) < (int) pType_->propertyCount() );
DataDescription * pDD = pType_->property( index.valueAt(0) );
if ( index.count() == 1 )
{
propUsingDefault( index.valueAt( 0 ), false );
PyObjectPtr pNewVal = pDD->createFromSection( pTemp );
if (!pNewVal)
{
PyErr_Clear();
return false;
}
PyDict_SetItemString( pDict_,
const_cast<char*>( pDD->name().c_str() ), &*pNewVal );
Py_INCREF( &*pNewVal );
}
else
{
PyObjectPtr ob( propGetPy( index.valueAt(0) ), PyObjectPtr::STEAL_REFERENCE );
if ( PySequence_Check( ob.getObject() ) )
{
SequenceDataType* dataType = static_cast<SequenceDataType*>( pDD->dataType() );
ArrayPropertiesHelper propArray;
propArray.init( pItem(), &(dataType->getElemType()), ob.getObject() );
PropertyIndex arrayIndex = index.tail();
if ( !propArray.propSet( arrayIndex, pTemp ) )
{
//ERROR_MSG( "PropertiesHelper::propSet: Failed to set value in array\n" );
PyErr_Print();
return false;
}
}
else
{
//ERROR_MSG( "PropertiesHelper::propSet: Failed to set value in array (not a sequence)\n" );
PyErr_Print();
return false;
}
}
if ( changedCallback_ != NULL )
(*changedCallback_)( index.valueAt(0) );
return true;
}
MegaNatural operator %(const MegaInteger &ob1, const MegaInteger ob2)
{
if (ob2 == 0)
{
cout << "Error! Incorrect divisor in operation %.";
return 0;
}
MegaNatural ob( ob1.abs.toMegaNatural() % ob2.abs.toMegaNatural() );
if (ob1.isNegative)
ob = ob2.abs - ob;
return ob;
}
bool call_script( const ScriptDef& script,
BObjectImp* param0 )
{
try
{
BObject ob(run_script_to_completion(script,param0));
return ob.isTrue();
}
catch(std::exception&)//...
{
return false;
}
}
int main () {
double vel0[3];
double dt =1e-3;
vel0[0]=vel0[1]=vel0[2]=1.0;
double w0[3];
w0[0]=w0[1]=w0[2]=0.0;
w0[2]=1;
Physics::Obliquous ob(Physics::Vector3D(), Physics::Vector3D(vel0), Physics::Vector3D(w0), 6e-3, 4e-4, dt);
{
ob.pos = Physics::Vector3D();
ob.vel = Physics::Vector3D(vel0);
std::ofstream saida("RK1.dat");
while(ob.pos.GetElem(2) >= 0) {
ob.RK1();
saida << ob.pos << std::endl;
}
}
{
ob.pos = Physics::Vector3D();
ob.vel = Physics::Vector3D(vel0);
std::ofstream saida("RK2.dat");
while(ob.pos.GetElem(2) >= 0) {
ob.RK2();
saida << ob.pos << std::endl;
}
}
{
ob.pos = Physics::Vector3D();
ob.vel = Physics::Vector3D(vel0);
std::ofstream saida("RK4.dat");
while(ob.pos.GetElem(2) >= 0) {
ob.RK4();
saida << ob.pos << std::endl;
}
}
{
ob.pos = Physics::Vector3D();
ob.vel = Physics::Vector3D(vel0);
std::ofstream saida("VelocityVerlet.dat");
while(ob.pos.GetElem(2) >= 0) {
ob.VelocityVerlet();
saida << ob.pos << std::endl;
}
}
}
void rangeSums(int b, int N, int64 size, bool verbose = false) {
if(verbose) cout << " Testing range sums b = "<< b << " N = " << N << " size = " << size << endl;
OlaBuffer< float > ob(b,N);
if (ob.computeRecommendedPaddedLength(size) != size)
cout << " Failure in recommendedPaddedLength size = "<< size
<< " recommended = "<< ob.computeRecommendedPaddedLength(size) << endl;
for(int64 k = 0; k < size; ++k) {
vector<float> data(size,0);
data[k] = 1;// **
if(verbose) cout << "k = " << k << endl;
counted_ptr<vector<float> > buffer = ob.computeBuffer(data);
if(verbose) {
cout << "------------------" << endl;
cout << "------------------" << endl;
}
if(verbose) {
for(uint j = 0; j < buffer->size(); ++j) cout << "b["<<j<< "]=" << (*buffer)[j]<< " ";
cout << endl;
}
for(int64 begin = 0; begin < size; ++begin) {
for (int64 end = begin + 1 ; end <= size; ++end) {
if(verbose) cout << endl << "======================="<< begin << " --> " << end << "(k="<< k
<< " b="<< b<< " N="<< N<<", size = "<< size<<" )" << endl;
RangedCubicPolynomial rcp(1,0,0,0,begin,end);
if(verbose) {
for(int64 j = begin; j < end; ++j) cout << " rcp(" << j<<") = " << rcp(j) ;
cout << endl;
}
assert(rcp(begin) == 1.0);
float answer = ob.query(rcp , data , * buffer);
if((begin <= k) && (k < end)) {
if( abs(answer - 1.0f) > 0.00001f ) {
cout << "k = "<< k << " is in range f("<<k << " ) = "<< rcp(k)<<endl;
for(uint j = 0; j < buffer->size(); ++j) cout << "b["<<j<< "]=" << (*buffer)[j]<< " ";
cout << endl;
throw new TestFailedException(answer);
}
} else {
if( abs(answer ) > 0.00001f ) {
cout << "k = "<< k << " is NOT in range f("<<k << " ) = "<< rcp(k)<<endl;
for(uint j = 0; j < buffer->size(); ++j) cout << "b["<<j<< "]=" << (*buffer)[j]<< " ";
cout << endl;
throw new TestFailedException(answer);
}
}
}
}
}
if(verbose) cout << " *Test succesful* " << endl;
}
/**
* This method sets the PyObject form of a property.
*
* @param index The index of the property in pType.
* @param pObj The PyObject of the property.
* @return Boolean success or failure.
*/
bool PropertiesHelper::propSetPy( PropertyIndex index, PyObject * pObj )
{
if ( pType_ == NULL || index.empty() )
return false;
MF_ASSERT( index.valueAt(0) < (int) pType_->propertyCount() );
DataDescription * pDD = pType_->property( index.valueAt(0) );
if ( index.count() == 1 )
{
propUsingDefault( index.valueAt( 0 ), false );
// requesting the top-level property directly, even if it's an array
// (sequence), so set it directly.
if (PyDict_SetItemString( pDict_,
const_cast<char*>( pDD->name().c_str() ), pObj ) == -1)
{
//ERROR_MSG( "PropertiesHelper::propSetPy: Failed to set value\n" );
PyErr_Print();
return false;
}
}
else
{
PyObjectPtr ob( propGetPy( index.valueAt(0) ), PyObjectPtr::STEAL_REFERENCE );
if ( PySequence_Check( ob.getObject() ) )
{
SequenceDataType* dataType = static_cast<SequenceDataType*>( pDD->dataType() );
ArrayPropertiesHelper propArray;
propArray.init( pItem(), &(dataType->getElemType()), ob.getObject() );
PropertyIndex arrayIndex = index.tail();
if ( !propArray.propSetPy( arrayIndex, pObj ) )
{
//ERROR_MSG( "PropertiesHelper::propSetPy: Failed to set value in array\n" );
PyErr_Print();
return false;
}
}
else
{
//ERROR_MSG( "PropertiesHelper::propSetPy: Failed to set value in array (not a sequence)\n" );
PyErr_Print();
return false;
}
}
return true;
}
TypWartosci& TADrzewo<TypKlucza, TypWartosci>::operator []
(const TypKlucza &k)
{
try {
Para<TypKlucza, TypWartosci> *cel =
Tab.Dodaj(Para<TypKlucza, TypWartosci> (k));
Rozmiar++;
return cel->Wart;
}
catch (const logic_error &ex) {
Para<TypKlucza, TypWartosci> ob(k);
return (Tab.Znajdz(k))->elem.Wart;
}
}
/////////PUSH PART
void complex_stack::push(const complex new_el){
if (new_sz == cur_sz)
{
int i;
complex_stack ob(*this);
delete []arr;
new_sz += new_sz; // size*2
arr = new complex[new_sz];
for (i = 0; i < cur_sz; ++i){
arr[i] = ob.arr[i];
}
}
arr[cur_sz] = new_el;
++cur_sz;
}
// _____________________________________________________________________________
vector<QueryPlanner::SubtreePlan> QueryPlanner::getOrderByRow(
const ParsedQuery& pq,
const vector<vector<SubtreePlan>>& dpTab) const {
const vector<SubtreePlan>& previous = dpTab[dpTab.size() - 1];
vector<SubtreePlan> added;
added.reserve(previous.size());
for (size_t i = 0; i < previous.size(); ++i) {
if (pq._orderBy.size() == 1 && !pq._orderBy[0]._desc) {
size_t col = previous[i]._qet.getVariableColumn(
pq._orderBy[0]._key);
if (col == previous[i]._qet.resultSortedOn()) {
// Already sorted perfectly
added.push_back(previous[i]);
} else {
QueryExecutionTree tree(_qec);
Sort sort(_qec, previous[i]._qet, col);
tree.setVariableColumns(
previous[i]._qet.getVariableColumnMap());
tree.setOperation(QueryExecutionTree::SORT, &sort);
tree.setContextVars(previous[i]._qet.getContextVars());
SubtreePlan plan(_qec);
plan._qet = tree;
plan._idsOfIncludedNodes = previous[i]._idsOfIncludedNodes;
plan._idsOfIncludedFilters = previous[i]._idsOfIncludedFilters;
added.push_back(plan);
}
} else {
QueryExecutionTree tree(_qec);
vector<pair<size_t, bool>> sortIndices;
for (auto& ord : pq._orderBy) {
sortIndices.emplace_back(
pair<size_t, bool>{
previous[i]._qet.getVariableColumn(ord._key),
ord._desc});
}
OrderBy ob(_qec, previous[i]._qet, sortIndices);
tree.setVariableColumns(previous[i]._qet.getVariableColumnMap());
tree.setOperation(QueryExecutionTree::ORDER_BY, &ob);
tree.setContextVars(previous[i]._qet.getContextVars());
SubtreePlan plan(_qec);
plan._qet = tree;
plan._idsOfIncludedNodes = previous[i]._idsOfIncludedNodes;
plan._idsOfIncludedFilters = previous[i]._idsOfIncludedFilters;
added.push_back(plan);
}
}
return added;
}
int main()
{
int t;
scanf("%d",&t);
while(t--)
{
verybig ob(1);
int n;
scanf("%d",&n);
for(int i=1;i<=n;i++)
ob.multiply(i);
ob.display();
printf("\n");
}
return 0;
}
/**
* This method returns the index of the named property.
*
* @param name The name of the property.
* @return The index of the named property.
*/
PropertyIndex PropertiesHelper::propGetIdx( const std::string& name ) const
{
// find brackets, in case it's an array element, and if so, extract the
// type name from it.
uint32 bracket = name.find_first_of( '[' );
if ( bracket == std::string::npos )
bracket = name.size();
std::string typeName = name.substr( 0, bracket );
// get the property
PropertyIndex result;
DataDescription* pDD = pType_->findProperty( typeName );
if (pDD)
{
result.append( pDD->index() );
}
// if no brackets, we can return as it's not an array.
if ( bracket == name.size() )
return result;
// find out if it's a valid python sequence
PyObjectPtr ob( const_cast<PropertiesHelper*>(this)->propGetPy( result.valueAt(0) ),
PyObjectPtr::STEAL_REFERENCE );
if ( PySequence_Check( ob.getObject() ) )
{
// it's a sequence, so call propGetIdx in the array using the
// ArrayPropertiesHelper, and append the return value to the result
// PropertyIndex object.
SequenceDataType* dataType = static_cast<SequenceDataType*>( pDD->dataType() );
ArrayPropertiesHelper propArray;
propArray.init( pItem(), &(dataType->getElemType()), ob.getObject() );
PropertyIndex arrayResult = propArray.propGetIdx( name );
if ( !arrayResult.empty() )
{
result.append( arrayResult );
}
}
return result;
}
void transformDeltas(int b, int N, int64 size, bool verbose = false) {
if(verbose) cout << " Testing deltas b = "<< b << " N = " << N << " size = " << size << endl;
OlaBuffer< float > ob(b,N);
for(int64 k = 0; k < size; ++k) {
vector<float> data(size,0);
data[k] = 1;
if(verbose) cout << " k = " << k << " size = " << size << endl;
counted_ptr<vector<float> > buffer = ob.computeBuffer(data);
if(verbose) {
for(uint j = 0; j < buffer->size(); ++j) cout << "b["<<j<< "]=" << (*buffer)[j]<< " ";
cout << endl;
}
float total = 0.0;
for (uint k = 0; k < buffer->size(); ++k) {
total += (*buffer)[k];
}
if( abs(total - 1.0f) > 0.00001f ) throw new TestFailedException(total);
}
if(verbose) cout << " *Test succesful* " << endl;
}
//--------------------------------------------------------------------------------------------
bool test_interaction_2(const oct_bb_t& cv_a, const Vector3f& pos_a, const oct_bb_t& cv_b, const Vector3f& pos_b, int test_platform)
{
// Convert the vector positions to octagonal vector positions.
oct_vec_v2_t oa(pos_a), ob(pos_b);
// calculate the depth
float depth;
for (size_t i = 0; i < OCT_Z; ++i)
{
depth = std::min(cv_b._maxs[i] + ob[i], cv_a._maxs[i] + oa[i]) -
std::max(cv_b._mins[i] + ob[i], cv_a._mins[i] + oa[i]);
if (depth <= 0.0f) return false;
}
// treat the z coordinate the same as always
depth = std::min(cv_b._maxs[OCT_Z] + ob[OCT_Z], cv_a._maxs[OCT_Z] + oa[OCT_Z]) -
std::max(cv_b._mins[OCT_Z] + ob[OCT_Z], cv_a._mins[OCT_Z] + oa[OCT_Z]);
return TO_C_BOOL((0 != test_platform) ? (depth > -PLATTOLERANCE) : (depth > 0.0f));
}
obvious::Matrix ThreadLocalize::tfToObviouslyMatrix3x3(const tf::Transform& tf)
{
obvious::Matrix ob(3,3);
ob.setIdentity();
double theta = tf::getYaw(tf.getRotation());
double x = tf.getOrigin().getX();
double y = tf.getOrigin().getY();
//sin() returns -0.0 -> avoid with +0.0
ob(0,0 ) = cos(theta) + 0.0;
ob(0,1 ) = -sin(theta) + 0.0;
ob(0, 2) = x + 0.0;
ob(1, 0) = sin(theta) + 0.0;
ob(1, 1) = cos(theta) + 0.0;
ob(1, 2) = y + 0.0;
return ob;
}
/**
* This method returns the name of the property at the passed index.
*
* @param index The index of the property in pType.
* @return The name of the property at the passed index in pType.
*/
std::string PropertiesHelper::propName( PropertyIndex index )
{
if ( pType_ == NULL || index.empty() )
return "";
MF_ASSERT( index.valueAt(0) < (int) pType_->propertyCount() );
PyObjectPtr ob( propGetPy( index.valueAt(0) ), PyObjectPtr::STEAL_REFERENCE );
DataDescription* pDD = pType_->property( index.valueAt(0) );
std::string result = pDD->name();
if ( PySequence_Check( ob.getObject() ) && index.count() > 1 )
{
SequenceDataType* dataType = static_cast<SequenceDataType*>( pDD->dataType() );
ArrayPropertiesHelper propArray;
propArray.init( pItem(), &(dataType->getElemType()), ob.getObject() );
PropertyIndex arrayIndex = index.tail();
result = result + propArray.propName( arrayIndex );
}
return result;
}