eOSState cMenuBouquetsList::DeleteBouquet()
{
if (Interface->Confirm(tr("Delete Bouquet?")))
{
cChannel *bouquet = GetBouquet(Current());
cChannel *next = (cChannel *) bouquet->Next();
/* Delete all channels up to the beginning */
/* of the next bouquet */
while (next && !next->GroupSep())
{
cChannel *p = next;
next = (cChannel *) next->Next();
Channels.Del(p);
}
/* Delete the bouquet itself */
Channels.Del(bouquet);
/* Remove the OSD-item */
cOsdMenu::Del(Current());
Propagate();
if (Current() < -1)
SetCurrent(0);
return osContinue;
}
return osContinue;
}
//------------------------------------------------------------------------------
bool RunSimulator::Execute()
{
#ifdef DEBUG_SIMULATOR_EXECUTION
MessageInterface::ShowMessage(wxT("\n\nThe \"%s\" command is running...\n"),
GetTypeName().c_str());
#endif
// Reset the command if called after it has completed execution
// todo: Debug this piece; reentrance in a For loop doesn't work yet
// if (commandComplete)
// TakeAction("Reset");
// Here we should check to see if the command is currently propagating and
// finish that first...
// Respond to the state in the state machine
Solver::SolverState state = theSimulator->GetState();
#ifdef DEBUG_SIMULATOR_EXECUTION
MessageInterface::ShowMessage(wxT("\nSimulator state is %d\n"), state);
#endif
switch (state)
{
case Solver::INITIALIZING:
PrepareToSimulate();
break;
case Solver::PROPAGATING:
Propagate();
break;
case Solver::CALCULATING:
Calculate();
break;
case Solver::LOCATING:
// The LOCATING state shouldn't trigger until we have event location
// implemented, so this case should not fire.
LocateEvent();
break;
case Solver::SIMULATING:
Simulate();
break;
case Solver::FINISHED:
Finalize();
break;
default:
throw CommandException(wxT("Unknown state ")
wxT(" encountered in the RunSimulator command"));
}
state = theSimulator->AdvanceState();
return true;
}
/**
* @brief Propagates all beacons in the world.
*
* Should be called everytime someone joins or leaves a team.
*/
void PropagateAll()
{
for ( gentity_t *ent = nullptr; (ent = G_IterateEntities( ent )); )
{
if ( ent->s.eType != ET_BEACON )
continue;
Propagate( ent );
}
}
void Viewport::Init(Interactor* i, Alignment a) {
SetClassName("Viewport");
background = nil;
align = a;
shape->Rigid(hfil, hfil, vfil, vfil);
perspective = new Perspective;
Propagate(false);
if (i != nil) {
Insert(i);
}
}
void
wxMoColourLevelCtrl::SetColourValue( wxColour p_ColourValue, bool propagate ) {
///necesarry to map m_ColourValue internally to RGB and HSV
UpdateColour( p_ColourValue );
///internal process of colour
ProcessColour();
if (propagate) {
Propagate();
}
}
void NeuralNetwork::Train(FloatsVector& inputs, FloatsVector& desiredOutputs)
{
FloatsVector outputs(outputNeuronCount);
FloatsVector hiddenOutputs(hiddenNeuronCount);
FloatsVector outputDeltas(outputNeuronCount);
FloatsVector hiddenDeltas(hiddenNeuronCount);
const float eta = 0.3;
assert(inputs.size() == inputNeuronCount);
assert(desiredOutputs.size() == outputNeuronCount);
// Feedforward the current values
Propagate(inputs, outputs, hiddenOutputs);
// Calculate the deltas from the output
for (int k = 0; k < outputNeuronCount; k++)
{
outputDeltas[k] = desiredOutputs[k] - outputs[k];
}
// Propagate the deltas back to the hidden layer
for (int j = 0; j < hiddenNeuronCount; j++)
{
for (int k = 0; k < outputNeuronCount; k++) {
hiddenDeltas[j] += outputWeights[k * hiddenNeuronCount + j] * outputDeltas[k];
}
}
// Now update the weights for the input->hidden weights
for (int i = 0; i < inputNeuronCount; i++)
{
for (int j = 0; j < hiddenNeuronCount; j++)
{
float deltaWeight = eta * hiddenDeltas[j] * hiddenOutputs[j] * (1.0 - hiddenOutputs[j]);
inputWeights[j * inputNeuronCount + i] += deltaWeight;
}
}
// And update the hidden->output weights
for (int j = 0; j < hiddenNeuronCount; j++)
{
for (int k = 0; k < outputNeuronCount; k++)
{
float deltaWeight = eta * outputDeltas[k] * outputs[k] * (1.0 - outputs[k]) * hiddenOutputs[j];
outputWeights[k * hiddenNeuronCount + j] += deltaWeight;
}
}
}
bool PointAlgebraReasoner::Close()
{
pair<int, int> ij;
int signal=0;
while(!Queue.empty())
{
ij= Queue.front();
signal= Propagate(ij.first, ij.second);
if(! signal) //contradiction (inconsistent network)
return signal;
Queue.pop();
}
return true;
}
Viewport::Viewport (
Sensor* in, Painter* out, Interactor* i, Alignment a
) : (in, out) {
Init(i, a);
}
void Viewport::Init (Interactor* i, Alignment a) {
SetClassName("Viewport");
align = a;
shape->Rigid(hfil, hfil, vfil, vfil);
perspective = new Perspective;
Propagate(false);
if (i != nil) {
Insert(i);
}
}
int main(int argc, char **argv)
{
MPI_Init(&argc, &argv);
MPI_Comm_size(MPI_COMM_WORLD, &size);
MPI_Comm_rank(MPI_COMM_WORLD, &rank);
GetParam(argc, argv);
if (rank == 0)
OutParam();
MPI_Barrier(MPI_COMM_WORLD);
Allocate();
Propagate();
Finalize();
MPI_Finalize();
}
void cMenuBouquetsList::Move(int From, int To)
{
int CurrentChannelNr = cDevice::CurrentChannel();
cChannel *CurrentChannel = Channels.GetByNumber(CurrentChannelNr);
cChannel *FromChannel = GetBouquet(From);
cChannel *ToChannel = GetBouquet(To);
if (To > From)
for (cChannel * channel = (cChannel *) ToChannel->Next();
channel && !channel->GroupSep(); channel = (cChannel *) channel->Next())
ToChannel = channel;
if (FromChannel && ToChannel && FromChannel != ToChannel)
{
int FromIndex = FromChannel->Index();
int ToIndex = ToChannel->Index();
cChannel *NextFromChannel = NULL;
while (FromChannel && (!FromChannel->GroupSep() || !NextFromChannel))
{
NextFromChannel = (cChannel *) FromChannel->Next();
Channels.Move(FromChannel, ToChannel);
if (To > From)
ToChannel = FromChannel;
FromChannel = NextFromChannel;
}
if (From != To)
{
cOsdMenu::Move(From, To);
Propagate();
isyslog("bouquet from %d moved to %d", FromIndex, ToIndex);
}
if (CurrentChannel && CurrentChannel->Number() != CurrentChannelNr)
{
isyslog("CurrentChannelNr = %d; CurrentChannel::number = %d",
CurrentChannelNr, CurrentChannel->Number());
Channels.SwitchTo(CurrentChannel->Number());
}
}
}
void NeuralNetwork::Propagate(FloatsVector& inputs, FloatsVector& outputs)
{
std::vector<float> hiddenLayerValues(hiddenNeuronCount);
Propagate(inputs, outputs, hiddenLayerValues);
}
/**
* @brief Tags an entity.
*/
void Tag( gentity_t *ent, team_t team, bool permanent )
{
int data;
vec3_t origin, mins, maxs;
bool dead, player;
gentity_t *beacon, **attachment;
team_t targetTeam;
// Get the beacon attachment owned by the tagging team.
switch( team ) {
case TEAM_ALIENS: attachment = &ent->alienTag; break;
case TEAM_HUMANS: attachment = &ent->humanTag; break;
default: return;
}
// Just refresh existing tags.
if ( *attachment ) {
RefreshTag( *attachment, true );
return;
}
switch( ent->s.eType ) {
case ET_BUILDABLE:
targetTeam = ent->buildableTeam;
data = ent->s.modelindex;
dead = G_Dead( ent );
player = false;
BG_BuildableBoundingBox( ent->s.modelindex, mins, maxs );
break;
case ET_PLAYER:
targetTeam = (team_t)ent->client->pers.team;
dead = G_Dead( ent );
player = true;
BG_ClassBoundingBox( ent->client->pers.classSelection, mins, maxs, nullptr, nullptr, nullptr );
// Set beacon data to class (aliens) or weapon (humans).
switch( targetTeam ) {
case TEAM_ALIENS: data = ent->client->ps.stats[ STAT_CLASS ]; break;
case TEAM_HUMANS: data = BG_GetPlayerWeapon( &ent->client->ps ); break;
default: return;
}
break;
default:
return;
}
// Don't tag dead targets.
if ( dead ) return;
// Set beacon origin to center of target bounding box.
VectorCopy( ent->s.origin, origin );
BG_MoveOriginToBBOXCenter( origin, mins, maxs );
// Create new beacon and attach it.
beacon = New( origin, BCT_TAG, data, team );
beacon->tagAttachment = attachment;
*attachment = beacon;
beacon->s.bc_target = ent - g_entities;
// Reset the entity's tag score.
ent->tagScore = 0;
// Set flags.
if( player ) beacon->s.eFlags |= EF_BC_TAG_PLAYER;
if( team != targetTeam ) beacon->s.eFlags |= EF_BC_ENEMY;
// Set expiration time.
if( permanent ) beacon->s.bc_etime = 0;
else RefreshTag( beacon, true );
// Update the base clusterings.
if ( ent->s.eType == ET_BUILDABLE ) BaseClustering::Update( beacon );
Propagate( beacon );
}
/**
* @brief Tags an entity.
* @todo Don't create a new beacon entity if retagged since that triggers regeneration of base
* clusterings.
*/
void Tag( gentity_t *ent, team_t team, int owner, qboolean permanent )
{
int i, data;
vec3_t origin, mins, maxs;
qboolean dead, player;
gentity_t *beacon, **attachment;
team_t targetTeam;
switch( ent->s.eType )
{
case ET_BUILDABLE:
targetTeam = ent->buildableTeam;
BG_BuildableBoundingBox( ent->s.modelindex, mins, maxs );
data = ent->s.modelindex;
dead = ( ent->health <= 0 );
player = qfalse;
break;
case ET_PLAYER:
targetTeam = (team_t)ent->client->pers.team;
BG_ClassBoundingBox( ent->client->pers.classSelection, mins, maxs, NULL, NULL, NULL );
dead = ( ent->client && ent->client->ps.stats[ STAT_HEALTH ] <= 0 );
player = qtrue;
// data is the class (aliens) or the weapon number (humans)
switch( targetTeam )
{
case TEAM_ALIENS:
data = ent->client->ps.stats[ STAT_CLASS ];
break;
case TEAM_HUMANS:
data = BG_GetPlayerWeapon( &ent->client->ps );
break;
default:
return;
}
break;
default:
return;
}
for( i = 0; i < 3; i++ )
origin[ i ] = ent->s.origin[ i ] + ( mins[ i ] + maxs[ i ] ) / 2.0;
switch( team )
{
case TEAM_ALIENS:
attachment = &ent->alienTag;
break;
case TEAM_HUMANS:
attachment = &ent->humanTag;
break;
default:
return;
}
if ( *attachment )
Delete( *attachment );
beacon = New( origin, BCT_TAG, data, team, owner );
beacon->tagAttachment = attachment;
beacon->s.otherEntityNum2 = ent - g_entities;
ent->tagScore = 0;
if( player )
beacon->s.eFlags |= EF_BC_TAG_PLAYER;
if( team != targetTeam )
beacon->s.eFlags |= EF_BC_ENEMY;
if( permanent )
beacon->s.time2 = 0;
else
RefreshTag( beacon, true );
if( dead )
Delete( beacon, true );
else
{
*attachment = beacon;
if ( ent->s.eType == ET_BUILDABLE ) BaseClustering::Update( beacon );
}
Propagate( beacon );
}
