RippleCarryAdder::FullAdder::FullAdder(const QString &name, QGraphicsItem *parent) : Component(name, parent)
{
addInput(m_a = new Input("a", 1, this));
addInput(m_b = new Input("b", 1, this));
addInput(m_cin = new Input("cin", 1, this));
addOutput(m_cout = new Output("cout", 1, this));
addOutput(m_s = new Output("s", 1, this));
setLayout(Component::MINIMIZED);
addSubComponent(m_and0 = new AndGate("and_0"));
addSubComponent(m_and1 = new AndGate("and_1"));
addSubComponent(m_xor0 = new XOrGate("xor_0"));
addSubComponent(m_xor1 = new XOrGate("xor_1"));
addSubComponent(m_or = new OrGate("or"));
m_a->from()->connect(m_and0->getInput("a"));
m_b->from()->connect(m_and0->getInput("b"));
m_a->from()->connect(m_xor0->getInput("a"));
m_b->from()->connect(m_xor0->getInput("b"));
m_cin->from()->connect(m_and1->getInput("a"));
m_xor0->getOutput("output")->connect(m_and1->getInput("b"));
m_and0->getOutput("output")->connect(m_or->getInput("a"));
m_and1->getOutput("output")->connect(m_or->getInput("b"));
m_or->getOutput("output")->connect(m_cout->to());
m_xor0->getOutput("output")->connect(m_xor1->getInput("a"));
m_cin->from()->connect(m_xor1->getInput("b"));
m_xor1->getOutput("output")->connect(m_s->to());
}
// ######################################################################
PointCloudSinkModule::PointCloudSinkModule(std::string const & instanceid) :
nrt::Module(instanceid),
itsNameParameter(pointcloudsink::NameDef, this),
itsPointCloudSink(new nrt::PointCloudSink("sink"))
{
addSubComponent( itsPointCloudSink );
}
// ######################################################################
AttentionGuidanceMapSC::AttentionGuidanceMapSC(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName)
: AttentionGuidanceMapNeuralSim(mgr, descrName, tagName), itsSC(new nsu::SupColliculusModule(mgr))
{
addSubComponent(itsSC);
}
// ######################################################################
AttentionGuidanceMapNF::AttentionGuidanceMapNF(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName)
: AttentionGuidanceMapNeuralSim(mgr, descrName, tagName), itsNF(new NeuralFieldModule(mgr))
{
addSubComponent(itsNF);
}
// ######################################################################
Rovio::Rovio(OptionManager& mgr, const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsHttpClient(new HTTPClient(mgr))
{
addSubComponent(itsHttpClient);
}
SimpleLED::SimpleLED(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsSerial(new SerialAdvanced(mgr))
{
addSubComponent(itsSerial);
}
/**
* Constructs a TestComponent.
*/
TestComponent::TestComponent(const QString &name, QGraphicsItem *parent) : Component(name, parent)
{
// construct the inputs and add them to the component's list of inputs
addInput(m_input_01 = new Input("input_01", 32, this));
addInput(m_input_02 = new Input("input_02", 32, this));
addInput(m_multiplyFlag = new Input("multiplyFlag", 1, this));
// construct the output and add it to the component's list of outputs
addOutput(m_output = new Output("output", 32, this));
// add the sub-components that will do our computation work
addSubComponent(m_adder = new AdderComponent("adder"));
addSubComponent(m_multiplier = new MultiplierComponent("multiplier"));
// TODO: add a mux to select between addition and multiplication
m_input_01->from()->connect(m_multiplier->getInput("input_01"));
m_input_02->from()->connect(m_multiplier->getInput("input_02"));
m_multiplier->getOutput("output")->connect(m_output->to());
}
BinaryMultiplier::BinaryMultiplier(const QString &name, int width, QGraphicsItem *parent) : Component(name, parent)
{
addInput(m_a = new Input("a", width, this));
addInput(m_b = new Input("b", width, this));
addOutput(m_product = new Output("product", width, this));
addSubComponent(m_bToBools = new IntToBoolsComponent("bToBools", width));
m_b->from()->connect(m_bToBools->getInput("input"));
for(int i = 0; i < width; i++)
{
// make an ander
m_anders.append(new BinaryAnder("ander" + QVariant(i).toString(), width));
addSubComponent(m_anders.last());
// connect the ander to a and bit i of b, effectively "multiplying" a by b[i]
m_a->from()->connect(m_anders.last()->getInput("a"));
m_bToBools->getOutput(QVariant(i).toString())->connect(m_anders.last()->getInput("b"));
// make a bit shifter that shifts by i
m_shifters.append(new BinaryShifter("shifter" + QVariant(i).toString(), width, i));
addSubComponent(m_shifters.last());
// connect the shifter to shift the result of the ander
m_anders.last()->getOutput("output")->connect(m_shifters.last()->getInput("input"));
if(i > 0)
{
// make an adder
m_adders.append(new RippleCarryAdder("adder" + QVariant(i).toString(), width));
addSubComponent(m_adders.last());
if(i == 1)
{
m_adders.last()->setLayout(Component::EXPANDED);
// connect the adder to add the first two bitshifted results together
m_shifters[0]->getOutput("output")->connect(m_adders.last()->getInput("a"));
m_shifters[1]->getOutput("output")->connect(m_adders.last()->getInput("b"));
}
else
{
m_adders.last()->setLayout(Component::MINIMIZED);
// connect the previous adder and the new bitshifted result to the new adder to add the result to the total
m_adders[i - 2]->getOutput("sum")->connect(m_adders.last()->getInput("a"));
m_shifters.last()->getOutput("output")->connect(m_adders.last()->getInput("b"));
}
}
}
// connect the last adder to output the product
m_adders.last()->getOutput("sum")->connect(m_product->to());
}
ScorbotSimple(OptionManager& mgr,
const std::string& descrName = "",
const std::string& tagName = "") :
ModelComponent(mgr, descrName, tagName),
itsSerial(new Serial(mgr))
{
addSubComponent(itsSerial);
itsSerial->configure("/dev/ttyUSB0", 115200, "8N1", false, false, 10000);
}
LEDcontroller::LEDcontroller(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsSerial(new Serial(mgr))
{
addSubComponent(itsSerial);
itsSerial->configureSearch("ledboard",115200);
}
// ######################################################################
// ######################################################################
// ########## AttentionGuidanceMapConfigurator implementation
// ######################################################################
// ######################################################################
AttentionGuidanceMapConfigurator::
AttentionGuidanceMapConfigurator(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsAGMtype(&OPT_AttentionGuidanceMapType, this),
itsAGM(new AttentionGuidanceMapStd(mgr))
{
addSubComponent(itsAGM);
}
// ######################################################################
// ######################################################################
// ######################################################################
SaccadeControllerEyeConfigurator::
SaccadeControllerEyeConfigurator(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsSacCtrlType(&OPT_SaccadeControllerEyeType, this),
itsSC(new StubSaccadeController(mgr, SaccadeBodyPartEye))
{
addSubComponent(itsSC);
}
// ######################################################################
// ######################################################################
// ######################################################################
EyeHeadControllerConfigurator::
EyeHeadControllerConfigurator(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsEHctrlType(&OPT_EyeHeadControllerType, this),
itsEHC(new StubEyeHeadController(mgr))
{
addSubComponent(itsEHC);
}
// ######################################################################
// ######################################################################
// ########## TaskRelevanceMapConfigurator implementation
// ######################################################################
// ######################################################################
TaskRelevanceMapConfigurator::
TaskRelevanceMapConfigurator(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsTRMtype(&OPT_TaskRelevanceMapType, this),
itsTRM(new TaskRelevanceMapStub(mgr))
{
addSubComponent(itsTRM);
}
// ######################################################################
FaceDetector::FaceDetector(OptionManager& mgr,
const std::string& descrName, const std::string& tagName) :
RobotBrainComponent(mgr, descrName, tagName),
itsOfs(new OutputFrameSeries(mgr)),
itsTimer(1000000),
itsCurrImgID(-1),
itsPrevProcImgID(-1)
{
addSubComponent(itsOfs);
}
// ######################################################################
// ######################################################################
// ########## PrefrontalCortexConfigurator implementation
// ######################################################################
// ######################################################################
PrefrontalCortexConfigurator::
PrefrontalCortexConfigurator(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsType(&OPT_PrefrontalCortexType, this),
itsPFC(new PrefrontalCortexStub(mgr))
{
addSubComponent(itsPFC);
}
// ######################################################################
NavBot::NavBot(OptionManager& mgr, const std::string& descrName,
const std::string& tagName,
const char *defdev) :
ModelComponent(mgr, descrName, tagName),
itsSerial(new Serial(mgr))
{
itsSerial->configure (defdev, 115200, "8N1", false, false, 0);
addSubComponent(itsSerial);
}
IMU_SFE_Atomic::IMU_SFE_Atomic(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
ModelComponent(mgr, descrName, tagName),
itsSerial(new Serial(mgr, "IMU", "IMU"))
{
addSubComponent(itsSerial);
itsSerial->configure("/dev/ttyUSB0", 115200);
}
// ######################################################################
HMR3300::HMR3300(OptionManager& mgr, const std::string& descrName,
const std::string& tagName, const char *dev) :
ModelComponent(mgr, descrName, tagName),
itsSerial(new Serial(mgr, descrName+" Serial Port", tagName+"SerialPort")),
itsKeepgoing(true), itsListener(), itsHeading(), itsPitch(), itsRoll()
{
itsSerial->configure(dev, 19200, "8N1", false, false, 0);
addSubComponent(itsSerial);
pthread_mutex_init(&itsLock, NULL);
}
// ######################################################################
void SaccadeControllerEyeConfigurator::
paramChanged(ModelParamBase* const param,
const bool valueChanged,
ParamClient::ChangeStatus* status)
{
ModelComponent::paramChanged(param, valueChanged, status);
// was that a change of our baby's name?
if (param == &itsSacCtrlType) {
// if we had one, let's unregister it (when we later reset() the
// nub::ref, the current SaccadeController will unexport its
// command-line options):
removeSubComponent(*itsSC);
// instantiate a controller of the appropriate type:
if (itsSacCtrlType.getVal().compare("None") == 0 ||
itsSacCtrlType.getVal().compare("Stub") == 0)
itsSC.reset(new StubSaccadeController(getManager(),
SaccadeBodyPartEye));
else if (itsSacCtrlType.getVal().compare("Trivial") == 0)
itsSC.reset(new TrivialSaccadeController(getManager(),
SaccadeBodyPartEye));
else if (itsSacCtrlType.getVal().compare("Fixed") == 0)
itsSC.reset(new FixedSaccadeController(getManager(),
SaccadeBodyPartEye));
else if (itsSacCtrlType.getVal().compare("Friction") == 0)
itsSC.reset(new FrictionSaccadeController(getManager(),
SaccadeBodyPartEye));
else if (itsSacCtrlType.getVal().compare("Threshold") == 0)
itsSC.reset(new ThresholdSaccadeController(getManager(),
SaccadeBodyPartEye));
else if (itsSacCtrlType.getVal().compare("Threshfric") == 0)
itsSC.reset(new ThresholdFrictionSaccadeController(getManager(),
SaccadeBodyPartEye));
else
LFATAL("Unknown eye SaccadeController type %s",
itsSacCtrlType.getVal().c_str());
// add our baby as a subcomponent of us so that it will become
// linked to the manager through us (hopefully we are registered
// with the manager), which in turn will allow it to export its
// command-line options and get configured:
addSubComponent(itsSC);
// tell the controller to export its options:
itsSC->exportOptions(MC_RECURSE);
// some info message:
LINFO("Selected Eye SC of type %s", itsSacCtrlType.getVal().c_str());
}
}
// ######################################################################
RangeFinder::RangeFinder(OptionManager& mgr, const std::string& descrName,
const std::string& tagName, const char *defdev) :
ModelComponent(mgr, descrName, tagName),
itsPort(new Serial(mgr))
{
// set a default config for our serial port:
itsPort->configure(defdev, 19200, "8N1", false, false, 1);
// attach our port as a subcomponent:
addSubComponent(itsPort);
itsRangeData.resize(74);
}
// #####################################################################
BeoGPS::BeoGPS(OptionManager& mgr,
const std::string& descrName, const std::string& tagName) :
RobotBrainComponent(mgr, descrName, tagName),
itsSerial(new Serial(mgr)),
itsOfs(new OutputFrameSeries(mgr)),
itsDisplayUpdateRate(.05),
// itsSerialDev(&OPT_SerialDev, this, 0),
itsPosition(0.0,0.0,0.0),
itsInitLat(-1.0),
itsInitLon(-1.0),
itsDispImage(512,512,ZEROS),
itsCurrMessageID(0)
{
addSubComponent(itsSerial);
addSubComponent(itsOfs);
itsData.latDD = -1;
itsData.lonDD = -1;
itsBufI = 0;
itsData.lat = -1;
itsData.lon = -1;
itsNewGPSdata = false;
}
// ######################################################################
ND_Navigation::ND_Navigation(OptionManager& mgr,
const std::string& descrName, const std::string& tagName) :
RobotBrainComponent(mgr, descrName, tagName),
itsOfs(new OutputFrameSeries(mgr)),
itsTimer(1000000),
itsNDNavigationAlgorithm(new ND_Navigation_Algorithm())
{
addSubComponent(itsOfs);
// goal is always in front of the robot FOR NOW
// this should be set by the Localizer at some point
itsGoalSector = 141;
itsNDNavigationAlgorithm->setGoalSector(itsGoalSector);
}
// ######################################################################
// implementation of SimulationViewerAdapter
// ######################################################################
SimulationViewerAdapter::SimulationViewerAdapter(OptionManager& mgr,
const std::string& descrName,
const std::string& tagName) :
SimulationViewer(mgr, descrName, tagName),
SIMCALLBACK_INIT(SimEventRetinaImage),
SIMCALLBACK_INIT(SimEventWTAwinner),
itsInverseRetinal(&OPT_SVInverseTransform, this),
itsInput(),
itsCurrFOA(WTAwinner::NONE()),
itsPrevFOA(WTAwinner::NONE()),
itsTransform(new SpaceVariantModule(mgr))
{
addSubComponent(itsTransform);
}
// ######################################################################
void TaskRelevanceMapConfigurator::
paramChanged(ModelParamBase* const param,
const bool valueChanged,
ParamClient::ChangeStatus* status)
{
ModelComponent::paramChanged(param, valueChanged, status);
// was that a change of our baby's name?
if (param == &itsTRMtype) {
// if we had one, let's unregister it (when we later reset() the
// nub::ref, the current TaskRelevanceMap will unexport its
// command-line options):
removeSubComponent(*itsTRM);
// instantiate a SM of the appropriate type:
if (itsTRMtype.getVal().compare("None") == 0 ||
itsTRMtype.getVal().compare("Stub") == 0) // no TRM
itsTRM.reset(new TaskRelevanceMapStub(getManager()));
else if (itsTRMtype.getVal().compare("Std") == 0) // standard
itsTRM.reset(new TaskRelevanceMapStd(getManager()));
else if (itsTRMtype.getVal().compare("KillStatic") == 0) // kill-static
itsTRM.reset(new TaskRelevanceMapKillStatic(getManager()));
else if (itsTRMtype.getVal().compare("KillN") == 0) // kill-n
itsTRM.reset(new TaskRelevanceMapKillN(getManager()));
else if (itsTRMtype.getVal().compare("GistClassify") == 0) // gist-classify
itsTRM.reset(new TaskRelevanceMapGistClassify(getManager()));
else if (itsTRMtype.getVal().compare("Tigs") == 0) // Tigs
itsTRM.reset(new TaskRelevanceMapTigs(getManager()));
else if (itsTRMtype.getVal().compare("Tigs2") == 0) // Tigs(gist and pca image)
itsTRM.reset(new TaskRelevanceMapTigs2(getManager()));
else if (itsTRMtype.getVal().compare("Social") == 0) // Social(requires XML of data)
itsTRM.reset(new TaskRelevanceMapSocial(getManager()));
else
LFATAL("Unknown TRM type %s", itsTRMtype.getVal().c_str());
// add our baby as a subcomponent of us so that it will become
// linked to the manager through us (hopefully we are registered
// with the manager), which in turn will allow it to export its
// command-line options and get configured:
addSubComponent(itsTRM);
// tell the controller to export its options:
itsTRM->exportOptions(MC_RECURSE);
// some info message:
LINFO("Selected TRM of type %s", itsTRMtype.getVal().c_str());
}
}
// ######################################################################
BeoBorg::BeoBorg(OptionManager& mgr, const std::string& descrName,
const std::string& tagName, const char *defdev) :
ModelComponent(mgr, descrName, tagName),
itsPort(new Serial(mgr,"beoborg-serial","beoborg-serial"))
{
// set a default config for our serial port:
itsPort->configure(defdev, 115200, "8N1", false, false, 1);
// attach our port as a subcomponent:
addSubComponent(itsPort);
itsSpeed = 0;
itsRadius =0;
itsDist = 0;
itsLeftEncoder = 0;
itsRightEncoder = 0;
itsLeftPWM = 0;
itsRightPWM = 0;
}
/**
* \fun LocaLization Constructor function
* Initializes the Localization class
*
*
*
*/
Localization::Localization(OptionManager& mgr, const std::string& descrName, const std::string& tagName) :
RobotBrainComponent(mgr, descrName, tagName),
itsOfs(new OutputFrameSeries(mgr)),
itsRunning(true),
itsNumParticles(1000),
itsKeepParticles(1000),
generator(42u),
generate_drift(generator, dist_type(M_DRIFT,SIGMA_DRIFT)),
generate_trans(generator, dist_type(M_TRANS,SIGMA_TRANS))
{
//// The images used for plotting the particles
iMap = Image<float > (2000,2000,ZEROS);
originalMap = Image<float > (2000,2000,ZEROS);
addSubComponent(itsOfs);
initPoints(itsNumParticles);
}
// ######################################################################
void AttentionGuidanceMapConfigurator::
paramChanged(ModelParamBase* const param,
const bool valueChanged,
ParamClient::ChangeStatus* status)
{
ModelComponent::paramChanged(param, valueChanged, status);
// was that a change of our baby's name?
if (param == &itsAGMtype) {
// if we had one, let's unregister it (when we later reset() the
// nub::ref, the current AttentionGuidanceMap will unexport its
// command-line options):
removeSubComponent(*itsAGM);
// instantiate a SM of the appropriate type:
if (itsAGMtype.getVal().compare("Std") == 0) // standard
itsAGM.reset(new AttentionGuidanceMapStd(getManager()));
else if (itsAGMtype.getVal().compare("Opt") == 0) // optimized
itsAGM.reset(new AttentionGuidanceMapOpt(getManager()));
#ifdef INVT_USE_CPP11//we need c++ 0X features for this to work
else if (itsAGMtype.getVal().compare("SC") == 0) // superior colliculus
itsAGM.reset(new AttentionGuidanceMapSC(getManager()));
else if (itsAGMtype.getVal().compare("NF") == 0) // neural field
itsAGM.reset(new AttentionGuidanceMapNF(getManager()));
#endif
else
LFATAL("Unknown AGM type %s", itsAGMtype.getVal().c_str());
// add our baby as a subcomponent of us so that it will become
// linked to the manager through us (hopefully we are registered
// with the manager), which in turn will allow it to export its
// command-line options and get configured:
addSubComponent(itsAGM);
// tell the controller to export its options:
itsAGM->exportOptions(MC_RECURSE);
// some info message:
LINFO("Selected AGM of type %s", itsAGMtype.getVal().c_str());
}
}
// ######################################################################
void EyeHeadControllerConfigurator::
paramChanged(ModelParamBase* const param,
const bool valueChanged,
ParamClient::ChangeStatus* status)
{
ModelComponent::paramChanged(param, valueChanged, status);
// was that a change of our baby's name?
if (param == &itsEHctrlType) {
// if we had one, let's unregister it (when we later reset() the
// nub::ref, the current EyeHeadController will unexport its
// command-line options):
removeSubComponent(*itsEHC);
// instantiate a controller of the appropriate type:
if (itsEHctrlType.getVal().compare("None") == 0 ||
itsEHctrlType.getVal().compare("Stub") == 0)
itsEHC.reset(new StubEyeHeadController(getManager()));
else if (itsEHctrlType.getVal().compare("Simple") == 0)
itsEHC.reset(new SimpleEyeHeadController(getManager()));
else if (itsEHctrlType.getVal().compare("EyeTrack") == 0)
itsEHC.reset(new EyeTrackerEyeHeadController(getManager()));
else if (itsEHctrlType.getVal().compare("Monkey") == 0)
itsEHC.reset(new MonkeyEyeHeadController(getManager()));
else
LFATAL("Unknown eye EyeHeadController type %s",
itsEHctrlType.getVal().c_str());
// add our baby as a subcomponent of us so that it will become
// linked to the manager through us (hopefully we are registered
// with the manager), which in turn will allow it to export its
// command-line options and get configured:
addSubComponent(itsEHC);
// tell the controller to export its options:
itsEHC->exportOptions(MC_RECURSE);
// some info message:
LINFO("Selected Eye/Head Controller of type %s",
itsEHctrlType.getVal().c_str());
}
}
// ######################################################################
void PrefrontalCortexConfigurator::paramChanged(ModelParamBase* const param,
const bool valueChanged,
ParamClient::ChangeStatus* status)
{
ModelComponent::paramChanged(param, valueChanged, status);
// was that a change of our baby's name?
if (param == &itsType) {
// let's unregister our existing PrefrontalCortex:
removeSubComponent(*itsPFC);
// instantiate a PrefrontalCortex of the appropriate type (when the old
// PrefrontalCortex is destroyed, it will un-export its command-line
// options):
if (itsType.getVal().compare("Stub") == 0) // stub
itsPFC.reset(new PrefrontalCortexStub(getManager()));
else if (itsType.getVal().compare("OG") == 0) // Optimal Gains
itsPFC.reset(new PrefrontalCortexOG(getManager()));
else if (itsType.getVal().compare("GS") == 0) // Guided Search
itsPFC.reset(new PrefrontalCortexGS(getManager()));
else if (itsType.getVal().compare("SB") == 0) // SalBayes
itsPFC.reset(new PrefrontalCortexSB(getManager()));
else
LFATAL("Unknown PrefrontalCortex type %s", itsType.getVal().c_str());
// add our baby as a subcomponent of us so that it will become
// linked to the manager through us (hopefully we are registered
// with the manager), which in turn will allow it to export its
// command-line options and get configured:
addSubComponent(itsPFC);
// tell the controller to export its options:
itsPFC->exportOptions(MC_RECURSE);
// some info message:
LINFO("Selected PFC of type %s", itsType.getVal().c_str());
}
}