/**
Populates the vector of event data buffers (vectors), vector of
event source objects, vector of event source fields and the vector
of event datasets by querying the messages on InputVariables.
*/
void NSDFWriter::openEventData(const Eref &eref)
{
if (filehandle_ <= 0){
return;
}
for (unsigned int ii = 0; ii < eventInputs_.size(); ++ii){
stringstream path;
path << eref.objId().path() << "/" << "eventInput[" << ii << "]";
ObjId inputObj = ObjId(path.str());
Element * el = inputObj.element();
const DestFinfo * dest = static_cast<const DestFinfo*>(el->cinfo()->findFinfo("input"));
vector < ObjId > src;
vector < string > srcFields;
el->getMsgSourceAndSender(dest->getFid(), src, srcFields);
if (src.size() > 1){
cerr << "NSDFWriter::openEventData - only one source can be connected to an eventInput" <<endl;
} else if (src.size() == 1){
eventSrcFields_.push_back(srcFields[0]);
eventSrc_.push_back(src[0].path());
events_.resize(eventSrc_.size());
stringstream path;
path << src[0].path() << "." << srcFields[0];
hid_t dataSet = getEventDataset(src[0].path(), srcFields[0]);
eventDatasets_.push_back(dataSet);
} else {
cerr <<"NSDFWriter::openEventData - cannot handle multiple connections at single input." <<endl;
}
}
}
void Shell::doMove( Id orig, ObjId newParent )
{
if ( orig == Id() ) {
cout << "Error: Shell::doMove: Cannot move root Element\n";
return;
}
if ( newParent.element() == 0 ) {
cout << "Error: Shell::doMove: Cannot move object to null parent \n";
return;
}
if ( Neutral::isDescendant( newParent, orig ) ) {
cout << "Error: Shell::doMove: Cannot move object to descendant in tree\n";
return;
}
const string& name = orig.element()->getName();
if ( Neutral::child( newParent.eref(), name ) != Id() ) {
stringstream ss;
ss << "Shell::doMove: Object with same name already present: '"
<< newParent.path() << "/" << name << "'. Move failed.";
warning( ss.str() );
return;
}
SetGet2< Id, ObjId >::set( ObjId(), "move", orig, newParent );
// innerMove( orig, newParent );
}
void remoteFieldGetVec( const Eref& e, unsigned int bindIndex,
vector< double >& getRecvBuf )
{
static ObjId oi( 3 );
static PostMaster* p = reinterpret_cast< PostMaster* >( oi.data() );
p->remoteFieldGetVec( e, bindIndex, getRecvBuf );
}
void Shell::recvGet( const Eref& e, const Qinfo* q, PrepackedBuffer pb )
{
if ( myNode_ == 0 ) {
if ( gettingVector_ ) {
ObjId tgt = q->src();
// unsigned int linearIndex = q->src().eref().index().value();
unsigned int linearIndex =
tgt.element()->dataHandler()->linearIndex( tgt.dataId );
if ( linearIndex >= getBuf_.size() ) {
if ( linearIndex >= getBuf_.capacity() )
getBuf_.reserve( linearIndex * 2 );
getBuf_.resize( linearIndex + 1 );
}
assert ( linearIndex < getBuf_.size() );
double*& c = getBuf_[ linearIndex ];
c = new double[ pb.dataSize() ];
memcpy( c, pb.data(), pb.dataSize() * sizeof( double ) );
// cout << myNode_ << ":" << q->threadNum() << ": Shell::recvGet[" << linearIndex << "]= (" << pb.dataSize() << ", " << *c << ")\n";
} else {
assert ( getBuf_.size() == 1 );
double*& c = getBuf_[ 0 ];
c = new double[ pb.dataSize() ];
memcpy( c, pb.data(), pb.dataSize() * sizeof( double ) );
handleAck( 0, OkStatus );
}
++numGetVecReturns_;
}
}
void remoteGetVec( const Eref& e, unsigned int bindIndex,
vector< vector< double > >& getRecvBuf,
vector< unsigned int >& numOnNode )
{
static ObjId oi( 3 );
static PostMaster* p = reinterpret_cast< PostMaster* >( oi.data() );
p->remoteGetVec( e, bindIndex, getRecvBuf, numOnNode );
}
ObjId OneToOneDataIndexMsg::findOtherEnd( ObjId f ) const
{
if ( f.element() == e1() )
return ObjId( e2()->id(), f.dataIndex );
else if ( f.element() == e2() )
return ObjId( e1()->id(), f.dataIndex );
return ObjId( 0, BADINDEX );
}
// Utility function: return the compartment in which the specified
// object is located.
// Simply traverses the tree toward the root till it finds a
// compartment. Pools use a special msg, but this works for reacs too.
ObjId getCompt( Id id )
{
ObjId pa = Neutral::parent( id.eref() ).id;
if ( pa == ObjId() )
return pa;
else if ( pa.element()->cinfo()->isA( "ChemCompt" ) )
return pa;
return getCompt( pa );
}
void EndoMesh::setSurround( const Eref& e, ObjId v )
{
if ( !v.element()->cinfo()->isA( "ChemCompt" ) ) {
cout << "Warning: 'surround' may only be set to an object of class 'ChemCompt'\n";
cout << v.path() << " is of class " << v.element()->cinfo()->name() << endl;
return;
}
surround_ = v;
parent_ = reinterpret_cast< const MeshCompt* >( v.data() );
}
ObjId OneToAllMsg::findOtherEnd( ObjId f ) const
{
if ( f.element() == e1() ) {
if ( f.dataIndex == i1_ )
return ObjId( e2()->id(), 0 );
} else if ( f.element() == e2() ) {
return ObjId( e1()->id(), i1_ );
}
return ObjId( 0, BADINDEX );
}
// static function, executed by the Synapse Element when a message is
// dropped from the Element. Contracts the parent synapse array to fit.
// Typically the SynHandler won't resize, easier to just leave an
// unused entry. Could even reuse if a synapse is added later, but all
// this policy is independent of the Synapse class.
void Synapse::dropMsgCallback(
const Eref& e, const string& finfoName,
ObjId msg, unsigned int msgLookup )
{
if ( finfoName == "addSpike" ) {
ObjId pa = Neutral::parent( e );
SynHandlerBase* sh =
reinterpret_cast< SynHandlerBase* >( pa.data() );
sh->dropSynapse( msgLookup );
}
}
ObjId OneToAllMsg::findOtherEnd( ObjId f ) const
{
if ( f.id() == e1() ) {
if ( f.dataId == i1_ )
return ObjId( e2()->id(), 0 );
else
return ObjId( e2()->id(), DataId::bad() );
} else if ( f.id() == e2() ) {
return ObjId( e1()->id(), i1_ );
}
return ObjId::bad();
}
// static function, executed by the Synapse Element when a message is
// added to the Element. Expands the parent synapse array to fit.
void Synapse::addMsgCallback(
const Eref& e, const string& finfoName,
ObjId msg, unsigned int msgLookup )
{
if ( finfoName == "addSpike" ) {
ObjId pa = Neutral::parent( e );
SynHandlerBase* sh =
reinterpret_cast< SynHandlerBase* >( pa.data() );
unsigned int synapseNumber = sh->addSynapse();
SetGet2< unsigned int, unsigned int >::set(
msg, "fieldIndex", msgLookup, synapseNumber );
}
}
void dispatchBuffers( const Eref& e, HopIndex hopIndex )
{
static ObjId oi( 3 );
static PostMaster* p = reinterpret_cast< PostMaster* >( oi.data() );
if ( Shell::numNodes() == 1 )
return;
if ( hopIndex.hopType() == MooseSetHop ||
hopIndex.hopType() == MooseGetHop ) {
p->dispatchSetBuf( e );
}
if ( hopIndex.hopType() == MooseSetVecHop ) {
p->dispatchSetBuf( e );
}
// More complicated stuff for get operations.
}
void HDF5DataWriter::recvData(const Eref&e,
ObjId src, const double* start, unsigned int num )
{
string path = src.path();
if (nodemap_.find(path) == nodemap_.end()){
// first time call, initialize entries in map
hid_t dataid = get_dataset(path);
if (dataid < 0){
cerr << "Warning: could not create data set for " << path << endl;
}
nodemap_[path] = dataid;
datamap_[path] = vector<double>();
}
const double * end = start + num;
// append only the new data. old_size is guaranteed to be 0 on
// write and the table vecs will also be cleared.
datamap_[path].insert(datamap_[path].end(), start, end);
SetGet0::set(src, "clearVec"); //Unsure what this is for.
// #ifndef NDEBUG
// // debug leftover entries coming from table
// cout << "HDF5DataWriter::recvData: vec_size=" << vec_size << endl;
// cout << "HDF5DataWriter::recvData: dataSize=" << pb.dataSize() << endl;
// cout << "HDF5DataWriter::recvData: numEntries=" << pb.numEntries() << endl;
// cout << "HDF5DataWriter::recvData: size=" << pb.size() << endl;
// cout << "HDF5DataWriter::recvData: data()" << endl;
// for (int ii = 0; ii <= vec_size; ++ii){
// cout << ii << "\t" << pb.data()[ii] << endl;
// }
// #endif
}
void Neutral::setName( const Eref& e, string name )
{
if ( e.id().value() <= 3 ) {
cout << "Warning: Neutral::setName on '" << e.id().path() <<
"'.Cannot rename core objects\n";
return;
}
ObjId pa = parent( e );
Id sibling = Neutral::child( pa.eref(), name );
if ( sibling == Id() ) { // OK, no existing object with same name.
e.element()->setName( name );
} else {
cout << "Warning: Neutral::setName: an object with the name '" <<
name << "'\n already exists on the same parent. Not changed\n";
}
}
// static function
bool Neutral::isDescendant( Id me, Id ancestor )
{
static const Finfo* pf = neutralCinfo->findFinfo( "parentMsg" );
static const DestFinfo* pf2 = dynamic_cast< const DestFinfo* >( pf );
static const FuncId pafid = pf2->getFid();
Eref e = me.eref();
while ( e.element()->id() != Id() && e.element()->id() != ancestor ) {
ObjId mid = e.element()->findCaller( pafid );
assert( mid != ObjId() );
ObjId fid = Msg::getMsg( mid )->findOtherEnd( e.objId() );
e = fid.eref();
}
return ( e.element()->id() == ancestor );
}
double* addToBuf( const Eref& er, HopIndex hopIndex, unsigned int size )
{
static ObjId oi( 3 );
static PostMaster* p = reinterpret_cast< PostMaster* >( oi.data() );
if ( hopIndex.hopType() == MooseSendHop ) {
return p->addToSendBuf( er, hopIndex.bindIndex(), size );
} else if ( hopIndex.hopType() == MooseSetHop ||
hopIndex.hopType() == MooseSetVecHop ) {
p->clearPendingSetGet(); // Cannot touch set buffer if pending.
return p->addToSetBuf( er, hopIndex.bindIndex(),
size, hopIndex.hopType() );
} else if ( hopIndex.hopType() == MooseTestHop ) {
return addToTestBuf( er, hopIndex.bindIndex(), size );
}
assert( 0 ); // Should not get here.
return 0;
}
void NSDFWriter::writeModelTree()
{
vector< string > tokens;
ObjId mRoot(modelRoot_);
string rootPath = MODELTREEPATH + string("/") + mRoot.element()->getName();
hid_t rootGroup = require_group(filehandle_, rootPath);
hid_t tmp;
htri_t exists;
herr_t status;
deque<Id> nodeQueue;
deque<hid_t> h5nodeQueue;
nodeQueue.push_back(mRoot);
h5nodeQueue.push_back(rootGroup);
// TODO: need to clarify what happens with array elements. We can
// have one node per vec and set a count field for the number of
// elements
while (nodeQueue.size() > 0){
ObjId node = nodeQueue.front();
nodeQueue.pop_front();
hid_t prev = h5nodeQueue.front();;
h5nodeQueue.pop_front();
vector < Id > children;
Neutral::children(node.eref(), children);
for ( unsigned int ii = 0; ii < children.size(); ++ii){
string name = children[ii].element()->getName();
// skip the system elements
if (children[ii].path() == "/Msgs"
|| children[ii].path() == "/clock"
|| children[ii].path() == "/classes"
|| children[ii].path() == "/postmaster"){
continue;
}
exists = H5Lexists(prev, name.c_str(), H5P_DEFAULT);
if (exists > 0){
tmp = H5Gopen2(prev, name.c_str(), H5P_DEFAULT);
} else {
tmp = H5Gcreate2(prev, name.c_str(), H5P_DEFAULT, H5P_DEFAULT, H5P_DEFAULT);
}
writeScalarAttr< string >(tmp, "uid", children[ii].path());
nodeQueue.push_back(children[ii]);
h5nodeQueue.push_back(tmp);
}
status = H5Gclose(prev);
}
}
void Shell::destroy( const Eref& e, ObjId oid)
{
Neutral *n = reinterpret_cast< Neutral* >( e.data() );
assert( n );
// cout << myNode_ << ": Shell::destroy done for element id: " << eid << ", name = " << eid.element()->getName() << endl;
n->destroy( oid.eref(), 0 );
if ( cwe_.id == oid.id )
cwe_ = ObjId();
}
Id ReadCell::startGraftCell( const string& cellPath )
{
/*
* If path exists, return with error. This will also catch the case where
* cellPath is "/", and we will not have to check for this separately
* later.
*/
Id cellId( cellPath );
if ( cellId.path() == cellPath ) {
cerr << "Warning: ReadCell: cell '" << cellPath << "' already exists.\n";
cerr << "File: " << fileName_ << " Line: " << lineNum_ << endl;
return Id();
}
ObjId parentObjId;
string cellName;
string::size_type pos_1 = cellPath.find_first_of( "/" );
string::size_type pos_2 = cellPath.find_last_of( "/" );
if ( pos_1 != 0 ) {
cerr << "Error: ReadCell: *start_cell should be given absolute path.\n";
cerr << "File: " << fileName_ << " Line: " << lineNum_ << endl;
return Id();
}
if ( pos_2 == 0 ) {
parentObjId = ObjId("/");
cellName = cellPath.substr( 1 );
} else {
string parentPath = cellPath.substr( 0, pos_2 );
parentObjId = ObjId( parentPath );
if ( parentObjId.bad() ) {
cerr << "Error: ReadCell: cell path '" << cellPath
<< "' not found.\n";
cerr << "File: " << fileName_ << " Line: " << lineNum_ << endl;
return Id();
}
cellName = cellPath.substr( pos_2 + 1 );
}
unsigned int size = 1;
return shell_->doCreate( "Compartment", parentObjId, cellName, size, MooseGlobal );
}
// Static function
string Neutral::path( const Eref& e )
{
static const Finfo* pf = neutralCinfo->findFinfo( "parentMsg" );
static const DestFinfo* pf2 = dynamic_cast< const DestFinfo* >( pf );
static const FuncId pafid = pf2->getFid();
vector< ObjId > pathVec;
ObjId curr = e.objId();
stringstream ss;
pathVec.push_back( curr );
while ( curr.id != Id() ) {
ObjId mid = curr.eref().element()->findCaller( pafid );
if ( mid == ObjId() ) {
cout << "Error: Neutral::path:Cannot follow msg of ObjId: " <<
e.objId() << " for func: " << pafid << endl;
break;
}
curr = Msg::getMsg( mid )->findOtherEnd( curr );
pathVec.push_back( curr );
}
if ( pathVec.size() <= 1 )
return "/";
for ( unsigned int i = 1; i < pathVec.size(); ++i ) {
ss << "/";
ObjId& oid = pathVec[ pathVec.size() - i - 1 ];
ss << oid.element()->getName();
if ( !oid.element()->hasFields() )
ss << "[" << oid.dataIndex << "]";
/*
if ( !oid.element()->hasFields() )
ss << "[" << oid.dataIndex << "]";
if ( oid.element()->numData() > 1 )
ss << "[" << oid.dataIndex << "]";
*/
}
// Append braces if Eref was for a fieldElement. This should
// work even if it is off-node.
if ( e.element()->hasFields() ) {
ss << "[" << e.fieldIndex() << "]";
}
return ss.str();
}
ObjId SparseMsg::findOtherEnd( ObjId f ) const
{
if ( f.element() == e1() ) {
const unsigned int* entry;
const unsigned int* colIndex;
unsigned int num = matrix_.getRow( f.dataIndex, &entry, &colIndex );
if ( num > 0 ) { // Return the first matching entry.
return ObjId( e2()->id(), colIndex[0] );
}
return ObjId( 0, BADINDEX );
} else if ( f.element() == e2() ) { // Bad! Slow! Avoid!
vector< unsigned int > entry;
vector< unsigned int > rowIndex;
unsigned int num = matrix_.getColumn( f.dataIndex, entry, rowIndex );
if ( num > 0 ) { // Return the first matching entry.
return ObjId( e1()->id(), DataId( rowIndex[0] ) );
}
}
return ObjId( 0, BADINDEX );
}
/**
* Reads in SynChans and SpikeGens.
*
* Unlike Compartments, HHChannels, etc., neither of these are zombified.
* In other words, their fields are not managed by HSolve, and their "process"
* functions are invoked to do their calculations. For SynChans, the process
* calls are made by their respective clocks, and hence the process message is
* not dropped. On the other hand, we drop the SpikeGen process messages here,
* and explicitly call the SpikeGen process() from the HSolve via a pointer.
*/
void HSolveActive::readSynapses()
{
vector< Id > spikeId;
vector< Id > synId;
vector< Id >::iterator syn;
vector< Id >::iterator spike;
SynChanStruct synchan;
for ( unsigned int ic = 0; ic < nCompt_; ++ic )
{
synId.clear();
HSolveUtils::synchans( compartmentId_[ ic ], synId );
for ( syn = synId.begin(); syn != synId.end(); ++syn )
{
synchan.compt_ = ic;
synchan.elm_ = *syn;
synchan_.push_back( synchan );
}
static const Finfo* procDest = SpikeGen::initCinfo()->findFinfo( "process");
assert( procDest );
const DestFinfo* df = dynamic_cast< const DestFinfo* >( procDest );
assert( df );
spikeId.clear();
HSolveUtils::spikegens( compartmentId_[ ic ], spikeId );
// Very unlikely that there will be >1 spikegens in a compartment,
// but lets take care of it anyway.
for ( spike = spikeId.begin(); spike != spikeId.end(); ++spike )
{
spikegen_.push_back(
SpikeGenStruct( &V_[ ic ], spike->eref() )
);
ObjId mid = spike->element()->findCaller( df->getFid() );
if ( ! mid.bad() )
Msg::deleteMsg( mid );
}
}
}
/**
Utility function to delete incoming messages on orig.
To be used in zombifying elements.
*/
void HSolve::deleteIncomingMessages( Element * orig, const string finfo)
{
const DestFinfo * concenDest = dynamic_cast<const DestFinfo*>(orig->cinfo()->findFinfo(finfo));
assert(concenDest);
ObjId mid = orig->findCaller(concenDest->getFid());
while (! mid.bad())
{
const Msg * msg = Msg::getMsg(mid);
assert(msg);
ObjId other = msg->findOtherEnd(orig->id());
Element * otherEl = other.id.element();
if (otherEl && HSolve::handledClasses().find(otherEl->cinfo()->name()) != HSolve::handledClasses().end())
{
Msg::deleteMsg(mid);
}
else
{
break; // Have to do this otherwise it is an infinite loop
}
mid = orig->findCaller(concenDest->getFid());
}
}
/**
* Adds a typical channel to a compartment:
* - Connects up the 'channel' message between chan and compt.
* - Sets the Gbar field on the channel.
*
* Typical channels currently are: HHChannel, HHChannel2D and SynChan. All of
* these have the same "channel" interface, and have a "Gbar" field.
*/
bool ReadCell::addCanonicalChannel(
Id compt,
Id chan,
double value,
double dia,
double length )
{
string className = chan.element()->cinfo()->name();
if (
className == "HHChannel" ||
className == "HHChannel2D" ||
className == "SynChan" ||
className == "NMDAChan"
) {
ObjId mid = shell_->doAddMsg(
"Single",
compt,
"channel",
chan,
"channel"
);
if ( mid.bad() )
cout << "failed to connect message from compt " << compt <<
" to channel " << chan << endl;
if ( value > 0 ) {
value *= calcSurf( length, dia );
} else {
value = -value;
}
if ( !graftFlag_ )
++numChannels_;
return Field< double >::set( chan, "Gbar", value );
}
return 0;
}
bool Shell::innerMove( Id orig, ObjId newParent )
{
static const Finfo* pf = Neutral::initCinfo()->findFinfo( "parentMsg" );
static const DestFinfo* pf2 = dynamic_cast< const DestFinfo* >( pf );
static const FuncId pafid = pf2->getFid();
static const Finfo* f1 = Neutral::initCinfo()->findFinfo( "childOut" );
assert( !( orig == Id() ) );
assert( !( newParent.element() == 0 ) );
ObjId mid = orig.element()->findCaller( pafid );
Msg::deleteMsg( mid );
Msg* m = new OneToAllMsg( newParent.eref(), orig.element(), 0 );
assert( m );
if ( !f1->addMsg( pf, m->mid(), newParent.element() ) ) {
cout << "move: Error: unable to add parent->child msg from " <<
newParent.element()->getName() << " to " <<
orig.element()->getName() << "\n";
return 0;
}
return 1;
}
/**
* Static utility function. Attaches child element to parent element.
* Must only be called from functions executing in parallel on all nodes,
* as it does a local message addition
* MsgIndex is needed to be sure that the same msg identifies parent-child
* connection on all nodes.
*/
bool Shell::adopt( ObjId parent, Id child, unsigned int msgIndex ) {
static const Finfo* pf = Neutral::initCinfo()->findFinfo( "parentMsg" );
// static const DestFinfo* pf2 = dynamic_cast< const DestFinfo* >( pf );
// static const FuncId pafid = pf2->getFid();
static const Finfo* f1 = Neutral::initCinfo()->findFinfo( "childOut" );
assert( !( child.element() == 0 ) );
assert( !( child == Id() ) );
assert( !( parent.element() == 0 ) );
Msg* m = new OneToAllMsg( parent.eref(), child.element(), msgIndex );
assert( m );
// cout << myNode_ << ", Shell::adopt: mid = " << m->mid() << ", pa =" << parent << "." << parent()->getName() << ", kid=" << child << "." << child()->getName() << "\n";
if ( !f1->addMsg( pf, m->mid(), parent.element() ) ) {
cout << "move: Error: unable to add parent->child msg from " <<
parent.element()->getName() << " to " <<
child.element()->getName() << "\n";
return 0;
}
return 1;
}
ObjId Neutral::parent( ObjId oid )
{
static const Finfo* pf = neutralCinfo->findFinfo( "parentMsg" );
static const DestFinfo* pf2 = dynamic_cast< const DestFinfo* >( pf );
static const FuncId pafid = pf2->getFid();
if ( oid.id == Id() ) {
cout << "Warning: Neutral::parent: tried to take parent of root\n";
return Id();
}
ObjId mid = oid.element()->findCaller( pafid );
assert( mid != ObjId() );
ObjId pa = Msg::getMsg( mid )->findOtherEnd( oid );
return pa;
}
/// non-static func. Returns the Id found by traversing the specified path.
ObjId Shell::doFind( const string& path ) const
{
if ( path == "/" || path == "/root" )
return ObjId();
ObjId curr;
vector< string > names;
vector< unsigned int > indices;
bool isAbsolute = chopPath( path, names, indices );
assert( names.size() == indices.size() );
if ( !isAbsolute )
curr = cwe_;
for ( unsigned int i = 0; i < names.size(); ++i ) {
if ( names[i] == "." ) {
} else if ( names[i] == ".." ) {
curr = Neutral::parent( curr.eref() );
} else {
ObjId pa = curr;
curr = Neutral::child( curr.eref(), names[i] );
if ( curr == ObjId() ) // Neutral::child returned Id(), ie, bad.
return ObjId( 0, BADINDEX );
if ( curr.element()->hasFields() ) {
curr.dataIndex = pa.dataIndex;
curr.fieldIndex = indices[i];
} else {
curr.dataIndex = indices[i];
if ( curr.element()->numData() <= curr.dataIndex )
return ObjId( 0, BADINDEX );
}
}
}
assert( curr.element() );
if ( curr.element()->numData() <= curr.dataIndex )
return ObjId( 0, BADINDEX );
if ( curr.fieldIndex > 0 && !curr.element()->hasFields() )
return ObjId( 0, BADINDEX );
return curr;
}
void ReadCell::addChannelMessage( Id chan )
{
/*
* Get child objects of type Mstring, named addmsg1, 2, etc.
* These define extra messages to be assembled at setup.
* Similar to what was done with GENESIS.
*/
vector< Id > kids;
Neutral::children( chan.eref(), kids );
Shell *shell = reinterpret_cast< Shell* >( Id().eref().data() );
Id cwe = shell->getCwe();
shell->setCwe( chan );
for ( vector< Id >::iterator i = kids.begin(); i != kids.end(); ++i )
{
// Ignore kid if its name does not begin with "addmsg"..
const string& name = i->element()->getName();
if ( name.find( "addmsg", 0 ) != 0 )
continue;
string s = Field< string >::get( *i, "value" );
vector< string > token;
tokenize( s, " ", token );
assert( token.size() == 4 );
ObjId src = shell->doFind( token[0] );
ObjId dest = shell->doFind( token[2] );
// I would like to assert, or warn here, but there are legitimate
// cases where not all possible messages are actually available
// to set up. So I just bail.
if ( src.bad() || dest.bad()) {
#ifndef NDEBUG
/*
cout << "ReadCell::addChannelMessage( " << chan.path() <<
"): " << name << " " << s <<
": Bad src " << src << " or dest " << dest << endl;
*/
#endif
continue;
}
ObjId mid =
shell->doAddMsg( "single", src, token[1], dest, token[3] );
assert( !mid.bad());
}
shell->setCwe( cwe );
}
