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LibrePilot/ground/openpilotgcs/src/plugins/config/configccpmwidget.cpp
James Cotton 6bd52832be Heli configuration: Now the collective passthrough uses the collective channel
only.  Please note this requires all heli users to scrub their settings and
start over.  Please erase your setting and be careful.  Remove all blades.
2011-09-12 11:47:59 -05:00

1811 lines
72 KiB
C++

/**
******************************************************************************
*
* @file configccpmwidget.cpp
* @author E. Lafargue & The OpenPilot Team, http://www.openpilot.org Copyright (C) 2010.
* @addtogroup GCSPlugins GCS Plugins
* @{
* @addtogroup ConfigPlugin Config Plugin
* @{
* @brief ccpm configuration panel
*****************************************************************************/
/*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY
* or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License
* for more details.
*
* You should have received a copy of the GNU General Public License along
* with this program; if not, write to the Free Software Foundation, Inc.,
* 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*/
#include "configccpmwidget.h"
#include "mixersettings.h"
#include <QDebug>
#include <QStringList>
#include <QtGui/QWidget>
#include <QtGui/QTextEdit>
#include <QtGui/QVBoxLayout>
#include <QtGui/QPushButton>
#include <QBrush>
#include <math.h>
#include <QMessageBox>
#include "mixersettings.h"
#include "systemsettings.h"
#include "actuatorcommand.h"
#define Pi 3.14159265358979323846
ConfigccpmWidget::ConfigccpmWidget(QWidget *parent) : ConfigTaskWidget(parent)
{
int i;
m_ccpm = new Ui_ccpmWidget();
m_ccpm->setupUi(this);
SwashLvlConfigurationInProgress=0;
SwashLvlState=0;
SwashLvlServoInterlock=0;
updatingFromHardware=FALSE;
updatingToHardware=FALSE;
// Now connect the widget to the ManualControlCommand / Channel UAVObject
//ExtensionSystem::PluginManager *pm = ExtensionSystem::PluginManager::instance();
//UAVObjectManager *objManager = pm->getObject<UAVObjectManager>();
// Initialization of the swashplaye widget
m_ccpm->SwashplateImage->setScene(new QGraphicsScene(this));
m_ccpm->SwashLvlSwashplateImage->setScene(m_ccpm->SwashplateImage->scene());
m_ccpm->SwashLvlSwashplateImage->setSceneRect(-50,-50,500,500);
//m_ccpm->SwashLvlSwashplateImage->scale(.85,.85);
//m_ccpm->SwashplateImage->setSceneRect(SwashplateImg->boundingRect());
m_ccpm->SwashplateImage->setSceneRect(-50,-30,500,500);
//m_ccpm->SwashplateImage->scale(.85,.85);
QSvgRenderer *renderer = new QSvgRenderer();
renderer->load(QString(":/configgadget/images/ccpm_setup.svg"));
SwashplateImg = new QGraphicsSvgItem();
SwashplateImg->setSharedRenderer(renderer);
SwashplateImg->setElementId("Swashplate");
SwashplateImg->setObjectName("Swashplate");
//SwashplateImg->setScale(0.75);
m_ccpm->SwashplateImage->scene()->addItem(SwashplateImg);
QFont serifFont("Times", 24, QFont::Bold);
QPen pen; // creates a default pen
pen.setStyle(Qt::DotLine);
pen.setWidth(2);
pen.setBrush(Qt::gray);
pen.setCapStyle(Qt::RoundCap);
pen.setJoinStyle(Qt::RoundJoin);
QBrush brush(Qt::darkBlue);
QPen pen2; // creates a default pen
//pen2.setStyle(Qt::DotLine);
pen2.setWidth(1);
pen2.setBrush(Qt::blue);
//pen2.setCapStyle(Qt::RoundCap);
//pen2.setJoinStyle(Qt::RoundJoin);
//brush.setStyle(Qt::RadialGradientPattern);
QList<QString> ServoNames;
ServoNames << "ServoW" << "ServoX" << "ServoY" << "ServoZ" ;
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
ServoLines[i] = m_ccpm->SwashLvlSwashplateImage->scene()->addLine(0,0,100*i,i*i*100,pen);
Servos[i] = new QGraphicsSvgItem();
Servos[i]->setSharedRenderer(renderer);
Servos[i]->setElementId(ServoNames.at(i));
m_ccpm->SwashplateImage->scene()->addItem(Servos[i]);
ServosText[i] = new QGraphicsTextItem();
ServosText[i]->setDefaultTextColor(Qt::yellow);
ServosText[i]->setPlainText(QString("-"));
ServosText[i]->setFont(serifFont);
ServosTextCircles[i] = new QGraphicsEllipseItem(1,1,30,30);
ServosTextCircles[i]->setBrush(brush);
ServosTextCircles[i]->setPen(pen2);
m_ccpm->SwashplateImage->scene()->addItem(ServosTextCircles[i]);
m_ccpm->SwashplateImage->scene()->addItem(ServosText[i]);
SwashLvlSpinBoxes[i] = new QSpinBox(m_ccpm->SwashLvlSwashplateImage); // use QGraphicsView
m_ccpm->SwashLvlSwashplateImage->scene()->addWidget(SwashLvlSpinBoxes[i]);
SwashLvlSpinBoxes[i]->setMaximum(10000);
SwashLvlSpinBoxes[i]->setMinimum(0);
SwashLvlSpinBoxes[i]->setValue(0);
}
m_ccpm->PitchCurve->setMin(-1);
resetMixer(m_ccpm->PitchCurve, 5);
resetMixer(m_ccpm->ThrottleCurve, 5);
MixerSettings * mixerSettings = MixerSettings::GetInstance(getObjectManager());
Q_ASSERT(mixerSettings);
UAVObjectField * curve2source = mixerSettings->getField("Curve2Source");
Q_ASSERT(curve2source);
QStringList channels;
channels << "Channel1" << "Channel2" << "Channel3" << "Channel4" <<
"Channel5" << "Channel6" << "Channel7" << "Channel8" << "None";
m_ccpm->ccpmEngineChannel->addItems(channels);
m_ccpm->ccpmEngineChannel->setCurrentIndex(8);
m_ccpm->ccpmTailChannel->addItems(channels);
m_ccpm->ccpmTailChannel->setCurrentIndex(8);
m_ccpm->ccpmServoWChannel->addItems(channels);
m_ccpm->ccpmServoWChannel->setCurrentIndex(8);
m_ccpm->ccpmServoXChannel->addItems(channels);
m_ccpm->ccpmServoXChannel->setCurrentIndex(8);
m_ccpm->ccpmServoYChannel->addItems(channels);
m_ccpm->ccpmServoYChannel->setCurrentIndex(8);
m_ccpm->ccpmServoZChannel->addItems(channels);
m_ccpm->ccpmServoZChannel->setCurrentIndex(8);
QStringList Types;
Types << QString::fromUtf8("CCPM 2 Servo 90º") << QString::fromUtf8("CCPM 3 Servo 90º") <<
QString::fromUtf8("CCPM 4 Servo 90º") << QString::fromUtf8("CCPM 3 Servo 120º") <<
QString::fromUtf8("CCPM 3 Servo 140º") << QString::fromUtf8("FP 2 Servo 90º") <<
QString::fromUtf8("Custom - User Angles") << QString::fromUtf8("Custom - Advanced Settings");
m_ccpm->ccpmType->addItems(Types);
m_ccpm->ccpmType->setCurrentIndex(m_ccpm->ccpmType->count() - 1);
requestccpmUpdate();
UpdateCurveSettings();
//disable changing number of points in curves until UAVObjects have more than 5
m_ccpm->NumCurvePoints->setEnabled(0);
UpdateType();
//connect(m_ccpm->saveccpmToSD, SIGNAL(clicked()), this, SLOT(saveccpmUpdate()));
//connect(m_ccpm->saveccpmToRAM, SIGNAL(clicked()), this, SLOT(sendccpmUpdate()));
//connect(m_ccpm->getccpmCurrent, SIGNAL(clicked()), this, SLOT(requestccpmUpdate()));
connect(m_ccpm->ccpmGenerateCurve, SIGNAL(clicked()), this, SLOT(GenerateCurve()));
connect(m_ccpm->NumCurvePoints, SIGNAL(valueChanged(int)), this, SLOT(UpdateCurveSettings()));
connect(m_ccpm->CurveToGenerate, SIGNAL(currentIndexChanged(int)), this, SLOT(UpdateCurveSettings()));
connect(m_ccpm->CurveType, SIGNAL(currentIndexChanged(int)), this, SLOT(UpdateCurveSettings()));
connect(m_ccpm->ccpmAngleW, SIGNAL(valueChanged(double)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmAngleX, SIGNAL(valueChanged(double)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmAngleY, SIGNAL(valueChanged(double)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmAngleZ, SIGNAL(valueChanged(double)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmCorrectionAngle, SIGNAL(valueChanged(double)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmServoWChannel, SIGNAL(currentIndexChanged(int)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmServoXChannel, SIGNAL(currentIndexChanged(int)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmServoYChannel, SIGNAL(currentIndexChanged(int)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmServoZChannel, SIGNAL(currentIndexChanged(int)), this, SLOT(ccpmSwashplateUpdate()));
connect(m_ccpm->ccpmEngineChannel, SIGNAL(currentIndexChanged(int)), this, SLOT(UpdateMixer()));
connect(m_ccpm->ccpmTailChannel, SIGNAL(currentIndexChanged(int)), this, SLOT(UpdateMixer()));
connect(m_ccpm->ccpmRevoSlider, SIGNAL(valueChanged(int)), this, SLOT(UpdateMixer()));
connect(m_ccpm->ccpmREVOspinBox, SIGNAL(valueChanged(int)), this, SLOT(UpdateMixer()));
connect(m_ccpm->ccpmCollectiveSlider, SIGNAL(valueChanged(int)), this, SLOT(UpdateMixer()));
connect(m_ccpm->ccpmCollectivespinBox, SIGNAL(valueChanged(int)), this, SLOT(UpdateMixer()));
connect(m_ccpm->ccpmType, SIGNAL(currentIndexChanged(int)), this, SLOT(UpdateType()));
connect(m_ccpm->ccpmSingleServo, SIGNAL(currentIndexChanged(int)), this, SLOT(UpdateType()));
connect(m_ccpm->CurveSettings, SIGNAL(cellChanged (int, int)), this, SLOT(UpdateCurveWidgets()));
connect(m_ccpm->TabObject, SIGNAL(currentChanged ( QWidget * )), this, SLOT(UpdateType()));
// connect(m_ccpm->SwashLvlSwashplateImage, SIGNAL(valueChanged(double)), this, SLOT(ccpmSwashplateRedraw()));
connect(m_ccpm->PitchCurve, SIGNAL(curveUpdated(QList<double>,double)), this, SLOT(updatePitchCurveValue(QList<double>,double)));
connect(m_ccpm->ThrottleCurve, SIGNAL(curveUpdated(QList<double>,double)), this, SLOT(updateThrottleCurveValue(QList<double>,double)));
connect(m_ccpm->SwashLvlStartButton, SIGNAL(clicked()), this, SLOT(SwashLvlStartButtonPressed()));
connect(m_ccpm->SwashLvlNextButton, SIGNAL(clicked()), this, SLOT(SwashLvlNextButtonPressed()));
connect(m_ccpm->SwashLvlCancelButton, SIGNAL(clicked()), this, SLOT(SwashLvlCancelButtonPressed()));
connect(m_ccpm->SwashLvlFinishButton, SIGNAL(clicked()), this, SLOT(SwashLvlFinishButtonPressed()));
connect(m_ccpm->ccpmLinkCyclic, SIGNAL(clicked()), this, SLOT(SetUIComponentVisibilities()));
connect(m_ccpm->ccpmLinkRoll, SIGNAL(clicked()), this, SLOT(SetUIComponentVisibilities()));
ccpmSwashplateRedraw();
}
ConfigccpmWidget::~ConfigccpmWidget()
{
// Do nothing
}
void ConfigccpmWidget::UpdateType()
{
int TypeInt,SingleServoIndex,NumServosDefined;
QString TypeText;
double AdjustmentAngle=0;
UpdateCCPMOptionsFromUI();
SetUIComponentVisibilities();
TypeInt = m_ccpm->ccpmType->count() - m_ccpm->ccpmType->currentIndex()-1;
TypeText = m_ccpm->ccpmType->currentText();
SingleServoIndex = m_ccpm->ccpmSingleServo->currentIndex();
//set visibility of user settings
m_ccpm->ccpmAdvancedSettingsTable->setEnabled(TypeInt==0);
m_ccpm->ccpmAdvancedSettingsTable->clearFocus();;
m_ccpm->ccpmAngleW->setEnabled(TypeInt==1);
m_ccpm->ccpmAngleX->setEnabled(TypeInt==1);
m_ccpm->ccpmAngleY->setEnabled(TypeInt==1);
m_ccpm->ccpmAngleZ->setEnabled(TypeInt==1);
m_ccpm->ccpmCorrectionAngle->setEnabled(TypeInt!=0);
m_ccpm->ccpmServoWChannel->setEnabled(TypeInt>0);
m_ccpm->ccpmServoXChannel->setEnabled(TypeInt>0);
m_ccpm->ccpmServoYChannel->setEnabled(TypeInt>0);
m_ccpm->ccpmServoZChannel->setEnabled(TypeInt>0);
m_ccpm->ccpmSingleServo->setEnabled(TypeInt>1);
m_ccpm->ccpmEngineChannel->setEnabled(TypeInt>0);
m_ccpm->ccpmTailChannel->setEnabled(TypeInt>0);
m_ccpm->ccpmCollectiveSlider->setEnabled(TypeInt>0);
m_ccpm->ccpmCollectivespinBox->setEnabled(TypeInt>0);
m_ccpm->ccpmRevoSlider->setEnabled(TypeInt>0);
m_ccpm->ccpmREVOspinBox->setEnabled(TypeInt>0);
AdjustmentAngle=SingleServoIndex*90;
m_ccpm->CurveToGenerate->setEnabled(1);
m_ccpm->CurveSettings->setColumnHidden(1,0);
m_ccpm->PitchCurve->setVisible(1);
//m_ccpm->customThrottleCurve2Value->setVisible(1);
//m_ccpm->label_41->setVisible(1);
NumServosDefined=4;
//set values for pre defined heli types
if (TypeText.compare(QString::fromUtf8("CCPM 2 Servo 90º"), Qt::CaseInsensitive)==0)
{
m_ccpm->ccpmAngleW->setValue(AdjustmentAngle + 0);
m_ccpm->ccpmAngleX->setValue(fmod(AdjustmentAngle + 90,360));
m_ccpm->ccpmAngleY->setValue(0);
m_ccpm->ccpmAngleZ->setValue(0);
m_ccpm->ccpmAngleY->setEnabled(0);
m_ccpm->ccpmAngleZ->setEnabled(0);
m_ccpm->ccpmServoYChannel->setCurrentIndex(8);
m_ccpm->ccpmServoZChannel->setCurrentIndex(8);
m_ccpm->ccpmServoYChannel->setEnabled(0);
m_ccpm->ccpmServoZChannel->setEnabled(0);
//m_ccpm->ccpmCorrectionAngle->setValue(0);
NumServosDefined=2;
}
if (TypeText.compare(QString::fromUtf8("CCPM 3 Servo 90º"), Qt::CaseInsensitive)==0)
{
m_ccpm->ccpmAngleW->setValue(AdjustmentAngle + 0);
m_ccpm->ccpmAngleX->setValue(fmod(AdjustmentAngle + 90,360));
m_ccpm->ccpmAngleY->setValue(fmod(AdjustmentAngle + 180,360));
m_ccpm->ccpmAngleZ->setValue(0);
m_ccpm->ccpmAngleZ->setEnabled(0);
m_ccpm->ccpmServoZChannel->setCurrentIndex(8);
m_ccpm->ccpmServoZChannel->setEnabled(0);
//m_ccpm->ccpmCorrectionAngle->setValue(0);
NumServosDefined=3;
}
if (TypeText.compare(QString::fromUtf8("CCPM 4 Servo 90º"), Qt::CaseInsensitive)==0)
{
m_ccpm->ccpmAngleW->setValue(AdjustmentAngle + 0);
m_ccpm->ccpmAngleX->setValue(fmod(AdjustmentAngle + 90,360));
m_ccpm->ccpmAngleY->setValue(fmod(AdjustmentAngle + 180,360));
m_ccpm->ccpmAngleZ->setValue(fmod(AdjustmentAngle + 270,360));
//m_ccpm->ccpmCorrectionAngle->setValue(0);
m_ccpm->ccpmSingleServo->setEnabled(0);
m_ccpm->ccpmSingleServo->setCurrentIndex(0);
NumServosDefined=4;
}
if (TypeText.compare(QString::fromUtf8("CCPM 3 Servo 120º"), Qt::CaseInsensitive)==0)
{
m_ccpm->ccpmAngleW->setValue(AdjustmentAngle + 0);
m_ccpm->ccpmAngleX->setValue(fmod(AdjustmentAngle + 120,360));
m_ccpm->ccpmAngleY->setValue(fmod(AdjustmentAngle + 240,360));
m_ccpm->ccpmAngleZ->setValue(0);
m_ccpm->ccpmAngleZ->setEnabled(0);
m_ccpm->ccpmServoZChannel->setCurrentIndex(8);
m_ccpm->ccpmServoZChannel->setEnabled(0);
//m_ccpm->ccpmCorrectionAngle->setValue(0);
NumServosDefined=3;
}
if (TypeText.compare(QString::fromUtf8("CCPM 3 Servo 140º"), Qt::CaseInsensitive)==0)
{
m_ccpm->ccpmAngleW->setValue(AdjustmentAngle + 0);
m_ccpm->ccpmAngleX->setValue(fmod(AdjustmentAngle + 140,360));
m_ccpm->ccpmAngleY->setValue(fmod(AdjustmentAngle + 220,360));
m_ccpm->ccpmAngleZ->setValue(0);
m_ccpm->ccpmAngleZ->setEnabled(0);
m_ccpm->ccpmServoZChannel->setCurrentIndex(8);
m_ccpm->ccpmServoZChannel->setEnabled(0);
//m_ccpm->ccpmCorrectionAngle->setValue(0);
NumServosDefined=3;
}
if (TypeText.compare(QString::fromUtf8("FP 2 Servo 90º"), Qt::CaseInsensitive)==0)
{
m_ccpm->ccpmAngleW->setValue(AdjustmentAngle + 0);
m_ccpm->ccpmAngleX->setValue(fmod(AdjustmentAngle + 90,360));
m_ccpm->ccpmAngleY->setValue(0);
m_ccpm->ccpmAngleZ->setValue(0);
m_ccpm->ccpmAngleY->setEnabled(0);
m_ccpm->ccpmAngleZ->setEnabled(0);
m_ccpm->ccpmServoYChannel->setCurrentIndex(8);
m_ccpm->ccpmServoZChannel->setCurrentIndex(8);
m_ccpm->ccpmServoYChannel->setEnabled(0);
m_ccpm->ccpmServoZChannel->setEnabled(0);
//m_ccpm->ccpmCorrectionAngle->setValue(0);
m_ccpm->ccpmCollectivespinBox->setEnabled(0);
m_ccpm->ccpmCollectiveSlider->setEnabled(0);
m_ccpm->ccpmCollectivespinBox->setValue(0);
m_ccpm->ccpmCollectiveSlider->setValue(0);
m_ccpm->CurveToGenerate->setCurrentIndex(0);
m_ccpm->CurveToGenerate->setEnabled(0);
m_ccpm->CurveSettings->setColumnHidden(1,1);
m_ccpm->PitchCurve->setVisible(0);
//m_ccpm->customThrottleCurve2Value->setVisible(0);
//m_ccpm->label_41->setVisible(0);
NumServosDefined=2;
}
//set the visibility of the swashplate servo selection boxes
m_ccpm->ccpmServoWLabel->setVisible(NumServosDefined>=1);
m_ccpm->ccpmServoXLabel->setVisible(NumServosDefined>=2);
m_ccpm->ccpmServoYLabel->setVisible(NumServosDefined>=3);
m_ccpm->ccpmServoZLabel->setVisible(NumServosDefined>=4);
m_ccpm->ccpmServoWChannel->setVisible(NumServosDefined>=1);
m_ccpm->ccpmServoXChannel->setVisible(NumServosDefined>=2);
m_ccpm->ccpmServoYChannel->setVisible(NumServosDefined>=3);
m_ccpm->ccpmServoZChannel->setVisible(NumServosDefined>=4);
//set the visibility of the swashplate angle selection boxes
m_ccpm->ccpmServoWLabel_2->setVisible(NumServosDefined>=1);
m_ccpm->ccpmServoXLabel_2->setVisible(NumServosDefined>=2);
m_ccpm->ccpmServoYLabel_2->setVisible(NumServosDefined>=3);
m_ccpm->ccpmServoZLabel_2->setVisible(NumServosDefined>=4);
m_ccpm->ccpmAngleW->setVisible(NumServosDefined>=1);
m_ccpm->ccpmAngleX->setVisible(NumServosDefined>=2);
m_ccpm->ccpmAngleY->setVisible(NumServosDefined>=3);
m_ccpm->ccpmAngleZ->setVisible(NumServosDefined>=4);
m_ccpm->ccpmAdvancedSettingsTable->resizeColumnsToContents();
for (int i=0;i<6;i++) {
m_ccpm->ccpmAdvancedSettingsTable->setColumnWidth(i,(m_ccpm->ccpmAdvancedSettingsTable->width()-
m_ccpm->ccpmAdvancedSettingsTable->verticalHeader()->width())/6);
}
//update UI
ccpmSwashplateUpdate();
}
/**
Resets a mixer curve
*/
void ConfigccpmWidget::resetMixer(MixerCurveWidget *mixer, int numElements)
{
mixer->initLinearCurve(numElements,(double)1);
}
void ConfigccpmWidget::UpdateCurveWidgets()
{
int NumCurvePoints,i,Changed;
QList<double> curveValues;
QList<double> OldCurveValues;
double ThisValue;
//get the user settings
NumCurvePoints=m_ccpm->NumCurvePoints->value();
curveValues.clear();
Changed=0;
OldCurveValues=m_ccpm->ThrottleCurve->getCurve();
for (i=0; i<NumCurvePoints; i++)
{
ThisValue=m_ccpm->CurveSettings->item(i, 0 )->text().toDouble();
curveValues.append(ThisValue);
if (ThisValue!=OldCurveValues.at(i))Changed=1;
}
// Setup all Throttle1 curves for all types of airframes
if (Changed==1)m_ccpm->ThrottleCurve->setCurve(curveValues);
curveValues.clear();
Changed=0;
OldCurveValues=m_ccpm->PitchCurve->getCurve();
for (i=0; i<NumCurvePoints; i++)
{
ThisValue=m_ccpm->CurveSettings->item(i, 1 )->text().toDouble();
curveValues.append(ThisValue);
if (ThisValue!=OldCurveValues.at(i))Changed=1;
}
// Setup all Throttle1 curves for all types of airframes
if (Changed==1)m_ccpm->PitchCurve->setCurve(curveValues);
}
void ConfigccpmWidget::updatePitchCurveValue(QList<double> curveValues0,double Value0)
{
Q_UNUSED(curveValues0);
Q_UNUSED(Value0);
int NumCurvePoints,i;
double CurrentValue;
QList<double> internalCurveValues;
//get the user settings
NumCurvePoints=m_ccpm->NumCurvePoints->value();
internalCurveValues=m_ccpm->PitchCurve->getCurve();
for (i=0; i<internalCurveValues.length(); i++)
{
CurrentValue=m_ccpm->CurveSettings->item(i, 1 )->text().toDouble();
if (CurrentValue!=internalCurveValues[i])
{
m_ccpm->CurveSettings->item(i, 1)->setText(QString().sprintf("%.3f",internalCurveValues.at(i)));
}
}
}
void ConfigccpmWidget::updateThrottleCurveValue(QList<double> curveValues0,double Value0)
{
Q_UNUSED(curveValues0);
Q_UNUSED(Value0);
int NumCurvePoints,i;
double CurrentValue;
QList<double> internalCurveValues;
//get the user settings
NumCurvePoints=m_ccpm->NumCurvePoints->value();
internalCurveValues=m_ccpm->ThrottleCurve->getCurve();
for (i=0; i<internalCurveValues.length(); i++)
{
CurrentValue=m_ccpm->CurveSettings->item(i, 1 )->text().toDouble();
if (CurrentValue!=internalCurveValues[i])
{
m_ccpm->CurveSettings->item(i, 0)->setText(QString().sprintf("%.3f",internalCurveValues.at(i)));
}
}
}
void ConfigccpmWidget::UpdateCurveSettings()
{
int NumCurvePoints,i;
double scale;
QString CurveType;
QStringList vertHeaders;
//get the user settings
NumCurvePoints=m_ccpm->NumCurvePoints->value();
CurveType=m_ccpm->CurveType->currentText();
vertHeaders << "-" << "-" << "-" << "-" << "-" << "-" << "-" << "-" << "-" << "-" ;
for (i=0;i<NumCurvePoints;i++)
{
scale =((double)i/(double)(NumCurvePoints-1));
vertHeaders[i] = tr( "%1%" ).arg(100.00*scale, 0, 'f', 1);
}
m_ccpm->CurveSettings->setVerticalHeaderLabels( vertHeaders );
if (m_ccpm->CurveToGenerate->currentIndex()==0)
{
m_ccpm->CurveValue1->setMinimum(0.0);
m_ccpm->CurveValue2->setMinimum(0.0);
m_ccpm->CurveValue3->setMinimum(0.0);
}
else
{
m_ccpm->CurveValue1->setMinimum(-1.0);
m_ccpm->CurveValue2->setMinimum(-1.0);
m_ccpm->CurveValue3->setMinimum(0.0);
}
m_ccpm->CurveValue1->setMaximum(1.0);
m_ccpm->CurveValue2->setMaximum(1.0);
m_ccpm->CurveValue3->setMaximum(100.0);
m_ccpm->CurveValue1->setSingleStep(0.1);
m_ccpm->CurveValue2->setSingleStep(0.1);
m_ccpm->CurveValue3->setSingleStep(1.0);
m_ccpm->CurveValue1->setCorrectionMode(QAbstractSpinBox::CorrectToNearestValue);;
m_ccpm->CurveValue2->setCorrectionMode(QAbstractSpinBox::CorrectToNearestValue);
m_ccpm->CurveValue3->setCorrectionMode(QAbstractSpinBox::CorrectToNearestValue);
if ( CurveType.compare("Flat")==0)
{
m_ccpm->CurveLabel1->setText("Value");
m_ccpm->CurveLabel1->setVisible(true);
m_ccpm->CurveValue1->setVisible(true);
m_ccpm->CurveLabel2->setVisible(false);
m_ccpm->CurveValue2->setVisible(false);
m_ccpm->CurveLabel3->setVisible(false);
m_ccpm->CurveValue3->setVisible(false);
m_ccpm->ccpmGenerateCurve->setVisible(true);
m_ccpm->CurveToGenerate->setVisible(true);
}
if ( CurveType.compare("Linear")==0)
{
m_ccpm->CurveLabel1->setText("Min");
m_ccpm->CurveLabel1->setVisible(true);
m_ccpm->CurveValue1->setVisible(true);
m_ccpm->CurveLabel2->setText("Max");
m_ccpm->CurveLabel2->setVisible(true);
m_ccpm->CurveValue2->setVisible(true);
m_ccpm->CurveLabel3->setVisible(false);
m_ccpm->CurveValue3->setVisible(false);
m_ccpm->ccpmGenerateCurve->setVisible(true);
m_ccpm->CurveToGenerate->setVisible(true);
}
if ( CurveType.compare("Step")==0)
{
m_ccpm->CurveLabel1->setText("Min");
m_ccpm->CurveLabel1->setVisible(true);
m_ccpm->CurveValue1->setVisible(true);
m_ccpm->CurveLabel2->setText("Max");
m_ccpm->CurveLabel2->setVisible(true);
m_ccpm->CurveValue2->setVisible(true);
m_ccpm->CurveLabel3->setText("Step at");
m_ccpm->CurveLabel3->setVisible(true);
m_ccpm->CurveValue3->setVisible(true);
m_ccpm->ccpmGenerateCurve->setVisible(true);
m_ccpm->CurveToGenerate->setVisible(true);
}
if ( CurveType.compare("Exp")==0)
{
m_ccpm->CurveLabel1->setText("Min");
m_ccpm->CurveLabel1->setVisible(true);
m_ccpm->CurveValue1->setVisible(true);
m_ccpm->CurveLabel2->setText("Max");
m_ccpm->CurveLabel2->setVisible(true);
m_ccpm->CurveValue2->setVisible(true);
m_ccpm->CurveLabel3->setText("Strength");
m_ccpm->CurveLabel3->setVisible(true);
m_ccpm->CurveValue3->setVisible(true);
m_ccpm->CurveValue3->setMinimum(1.0);
m_ccpm->CurveValue3->setMaximum(100.0);
m_ccpm->CurveValue3->setSingleStep(1.0);
m_ccpm->CurveValue3->setCorrectionMode(QAbstractSpinBox::CorrectToNearestValue);;
m_ccpm->ccpmGenerateCurve->setVisible(true);
m_ccpm->CurveToGenerate->setVisible(true);
}
if ( CurveType.compare("Log")==0)
{
m_ccpm->CurveLabel1->setText("Min");
m_ccpm->CurveLabel1->setVisible(true);
m_ccpm->CurveValue1->setVisible(true);
m_ccpm->CurveLabel2->setText("Max");
m_ccpm->CurveLabel2->setVisible(true);
m_ccpm->CurveValue2->setVisible(true);
m_ccpm->CurveLabel3->setText("Strength");
m_ccpm->CurveLabel3->setVisible(true);
m_ccpm->CurveValue3->setVisible(true);
m_ccpm->CurveValue3->setMinimum(1.0);
m_ccpm->CurveValue3->setMaximum(100.0);
m_ccpm->CurveValue3->setSingleStep(1.0);
m_ccpm->CurveValue3->setCorrectionMode(QAbstractSpinBox::CorrectToNearestValue);;
m_ccpm->ccpmGenerateCurve->setVisible(true);
m_ccpm->CurveToGenerate->setVisible(true);
}
if ( CurveType.compare("Custom")==0)
{
m_ccpm->CurveLabel1->setVisible(false);
m_ccpm->CurveValue1->setVisible(false);
m_ccpm->CurveLabel2->setVisible(false);
m_ccpm->CurveValue2->setVisible(false);
m_ccpm->CurveLabel3->setVisible(false);
m_ccpm->CurveValue3->setVisible(false);
m_ccpm->ccpmGenerateCurve->setVisible(false);
m_ccpm->CurveToGenerate->setVisible(false);
}
UpdateCurveWidgets();
}
void ConfigccpmWidget::GenerateCurve()
{
int NumCurvePoints,CurveToGenerate,i;
double value1, value2, value3, scale;
QString CurveType;
QTableWidgetItem *item;
double newValue;
//get the user settings
NumCurvePoints=m_ccpm->NumCurvePoints->value();
value1=m_ccpm->CurveValue1->value();
value2=m_ccpm->CurveValue2->value();
value3=m_ccpm->CurveValue3->value();
CurveToGenerate=m_ccpm->CurveToGenerate->currentIndex();
CurveType=m_ccpm->CurveType->currentText();
for (i=0;i<NumCurvePoints;i++)
{
scale =((double)i/(double)(NumCurvePoints-1));
item =m_ccpm->CurveSettings->item(i, CurveToGenerate );
if ( CurveType.compare("Flat")==0)
{
//item->setText( tr( "%1" ).arg( value1 ) );
item->setText(QString().sprintf("%.3f",value1));
}
if ( CurveType.compare("Linear")==0)
{
newValue =value1 +(scale*(value2-value1));
//item->setText( tr( "%1" ).arg(value1 +(scale*(value2-value1))) );
item->setText(QString().sprintf("%.3f",newValue));
}
if ( CurveType.compare("Step")==0)
{
if (scale*100<value3)
{
//item->setText( tr( "%1" ).arg(value1) );
item->setText(QString().sprintf("%.3f",value1));
}
else
{
//item->setText( tr( "%1" ).arg(value2) );
item->setText(QString().sprintf("%.3f",value2));
}
}
if ( CurveType.compare("Exp")==0)
{
newValue =value1 +(((exp(scale*(value3/10))-1))/(exp((value3/10))-1)*(value2-value1));
//item->setText( tr( "%1" ).arg(value1 +(((exp(scale*(value3/10))-1))/(exp((value3/10))-1)*(value2-value1))) );
item->setText(QString().sprintf("%.3f",newValue));
}
if ( CurveType.compare("Log")==0)
{
newValue = value1 +(((log(scale*(value3*2)+1))/(log(1+(value3*2))))*(value2-value1));
//item->setText( tr( "%1" ).arg(value1 +(((log(scale*(value3*2)+1))/(log(1+(value3*2))))*(value2-value1))) );
item->setText(QString().sprintf("%.3f",newValue));
}
}
for (i=NumCurvePoints;i<10;i++)
{
item =m_ccpm->CurveSettings->item(i, CurveToGenerate );
item->setText( tr( "" ) );
}
UpdateCurveWidgets();
}
void ConfigccpmWidget::ccpmSwashplateRedraw()
{
double angle[CCPM_MAX_SWASH_SERVOS],CorrectionAngle,x,y,w,h,radius,CenterX,CenterY;
int used[CCPM_MAX_SWASH_SERVOS],defined[CCPM_MAX_SWASH_SERVOS],i;
QRectF bounds;
QRect size;
double scale,xscale,yscale;
size = m_ccpm->SwashplateImage->rect();
xscale=size.width();
yscale=size.height();
scale=xscale;
if (yscale<scale)scale=yscale;
scale/=460.00;
m_ccpm->SwashplateImage->resetTransform ();
m_ccpm->SwashplateImage->scale(scale,scale);
size = m_ccpm->SwashLvlSwashplateImage->rect();
xscale=size.width();
yscale=size.height();
scale=xscale;
if (yscale<scale)scale=yscale;
scale/=590.00;
m_ccpm->SwashLvlSwashplateImage->resetTransform ();
m_ccpm->SwashLvlSwashplateImage->scale(scale,scale);
CorrectionAngle=m_ccpm->ccpmCorrectionAngle->value();
CenterX=200;
CenterY=200;
bounds=SwashplateImg->boundingRect();
SwashplateImg->setPos(CenterX-bounds.width()/2,CenterY-bounds.height()/2);
defined[0]=(m_ccpm->ccpmServoWChannel->isEnabled());
defined[1]=(m_ccpm->ccpmServoXChannel->isEnabled());
defined[2]=(m_ccpm->ccpmServoYChannel->isEnabled());
defined[3]=(m_ccpm->ccpmServoZChannel->isEnabled());
used[0]=((m_ccpm->ccpmServoWChannel->currentIndex()<8)&&(m_ccpm->ccpmServoWChannel->isEnabled()));
used[1]=((m_ccpm->ccpmServoXChannel->currentIndex()<8)&&(m_ccpm->ccpmServoXChannel->isEnabled()));
used[2]=((m_ccpm->ccpmServoYChannel->currentIndex()<8)&&(m_ccpm->ccpmServoYChannel->isEnabled()));
used[3]=((m_ccpm->ccpmServoZChannel->currentIndex()<8)&&(m_ccpm->ccpmServoZChannel->isEnabled()));
angle[0]=(CorrectionAngle+180+m_ccpm->ccpmAngleW->value())*Pi/180.00;
angle[1]=(CorrectionAngle+180+m_ccpm->ccpmAngleX->value())*Pi/180.00;
angle[2]=(CorrectionAngle+180+m_ccpm->ccpmAngleY->value())*Pi/180.00;
angle[3]=(CorrectionAngle+180+m_ccpm->ccpmAngleZ->value())*Pi/180.00;
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
radius=210;
x=CenterX-(radius*sin(angle[i]))-10.00;
y=CenterY+(radius*cos(angle[i]))-10.00;
Servos[i]->setPos(x, y);
Servos[i]->setVisible(used[i]!=0);
radius=150;
bounds=ServosText[i]->boundingRect();
x=CenterX-(radius*sin(angle[i]))-bounds.width()/2;
y=CenterY+(radius*cos(angle[i]))-bounds.height()/2;
ServosText[i]->setPos(x, y);
ServosText[i]->setVisible(used[i]!=0);
if (bounds.width()>bounds.height())
{
bounds.setHeight(bounds.width());
}
else
{
bounds.setWidth(bounds.height());
}
x=CenterX-(radius*sin(angle[i]))-bounds.width()/2;
y=CenterY+(radius*cos(angle[i]))-bounds.height()/2;
ServosTextCircles[i]->setRect(bounds);
ServosTextCircles[i]->setPos(x, y);
ServosTextCircles[i]->setVisible(used[i]!=0);
w=SwashLvlSpinBoxes[i]->width()/2;
h=SwashLvlSpinBoxes[i]->height()/2;
radius = (215.00+w+h);
x=CenterX-(radius*sin(angle[i]))-w;
y=CenterY+(radius*cos(angle[i]))-h;
SwashLvlSpinBoxes[i]->move(m_ccpm->SwashLvlSwashplateImage->mapFromScene (x, y));
SwashLvlSpinBoxes[i]->setVisible(used[i]!=0);
radius=220;
x=CenterX-(radius*sin(angle[i]));
y=CenterY+(radius*cos(angle[i]));
ServoLines[i]->setLine(CenterX,CenterY,x,y);
ServoLines[i]->setVisible(defined[i]!=0);
}
//m_ccpm->SwashplateImage->centerOn (CenterX, CenterY);
//m_ccpm->SwashplateImage->fitInView(SwashplateImg, Qt::KeepAspectRatio);
}
void ConfigccpmWidget::ccpmSwashplateUpdate()
{
ccpmSwashplateRedraw();
SetUIComponentVisibilities();
UpdateMixer();
}
void ConfigccpmWidget::ccpmChannelCheck()
{
if((m_ccpm->ccpmServoWChannel->currentIndex()==8)&&(m_ccpm->ccpmServoWChannel->isEnabled()))
{
m_ccpm->ccpmServoWLabel->setText("<font color=red>Servo W</font>");
}
else
{
m_ccpm->ccpmServoWLabel->setText("<font color=black>Servo W</font>");
}
if((m_ccpm->ccpmServoXChannel->currentIndex()==8)&&(m_ccpm->ccpmServoXChannel->isEnabled()))
{
m_ccpm->ccpmServoXLabel->setText("<font color=red>Servo X</font>");
}
else
{
m_ccpm->ccpmServoXLabel->setText("<font color=black>Servo X</font>");
}
if((m_ccpm->ccpmServoYChannel->currentIndex()==8)&&(m_ccpm->ccpmServoYChannel->isEnabled()))
{
m_ccpm->ccpmServoYLabel->setText("<font color=red>Servo Y</font>");
}
else
{
m_ccpm->ccpmServoYLabel->setText("<font color=black>Servo Y</font>");
}
if((m_ccpm->ccpmServoZChannel->currentIndex()==8)&&(m_ccpm->ccpmServoZChannel->isEnabled()))
{
m_ccpm->ccpmServoZLabel->setText("<font color=red>Servo Z</font>");
}
else
{
m_ccpm->ccpmServoZLabel->setText("<font color=black>Servo Z</font>");
}
if((m_ccpm->ccpmEngineChannel->currentIndex()==8)&&(m_ccpm->ccpmEngineChannel->isEnabled()))
{
m_ccpm->ccpmEngineLabel->setText("<font color=red>Engine</font>");
}
else
{
m_ccpm->ccpmEngineLabel->setText("<font color=black>Engine</font>");
}
if((m_ccpm->ccpmTailChannel->currentIndex()==8)&&(m_ccpm->ccpmTailChannel->isEnabled()))
{
m_ccpm->ccpmTailLabel->setText("<font color=red>Tail Rotor</font>");
}
else
{
m_ccpm->ccpmTailLabel->setText("<font color=black>Tail Rotor</font>");
}
}
void ConfigccpmWidget::UpdateMixer()
{
bool useCCPM;
bool useCyclic;
int i,j,ThisEnable[6];
float CollectiveConstant,PitchConstant,RollConstant,ThisAngle[6];
QString Channel;
ccpmChannelCheck();
UpdateCCPMOptionsFromUI();
useCCPM = !(GUIConfigData.heli.ccpmCollectivePassthroughState || !GUIConfigData.heli.ccpmLinkCyclicState);
useCyclic = GUIConfigData.heli.ccpmLinkRollState;
CollectiveConstant = (float)GUIConfigData.heli.SliderValue0 / 100.00;
if (useCCPM)
{//cyclic = 1 - collective
PitchConstant = 1-CollectiveConstant;
RollConstant = PitchConstant;
}
else
{
PitchConstant = (float)GUIConfigData.heli.SliderValue1 / 100.00;;
if (useCyclic)
{
RollConstant = PitchConstant;
}
else
{
RollConstant = (float)GUIConfigData.heli.SliderValue2 / 100.00;;
}
}
if (GUIConfigData.heli.SwasplateType>0)
{//not advanced settings
//get the channel data from the ui
MixerChannelData[0] = m_ccpm->ccpmEngineChannel->currentIndex();
MixerChannelData[1] = m_ccpm->ccpmTailChannel->currentIndex();
MixerChannelData[2] = m_ccpm->ccpmServoWChannel->currentIndex();
MixerChannelData[3] = m_ccpm->ccpmServoXChannel->currentIndex();
MixerChannelData[4] = m_ccpm->ccpmServoYChannel->currentIndex();
MixerChannelData[5] = m_ccpm->ccpmServoZChannel->currentIndex();
//get the angle data from the ui
ThisAngle[2] = m_ccpm->ccpmAngleW->value();
ThisAngle[3] = m_ccpm->ccpmAngleX->value();
ThisAngle[4] = m_ccpm->ccpmAngleY->value();
ThisAngle[5] = m_ccpm->ccpmAngleZ->value();
//get the angle data from the ui
ThisEnable[2] = m_ccpm->ccpmServoWChannel->isEnabled();
ThisEnable[3] = m_ccpm->ccpmServoXChannel->isEnabled();
ThisEnable[4] = m_ccpm->ccpmServoYChannel->isEnabled();
ThisEnable[5] = m_ccpm->ccpmServoZChannel->isEnabled();
ServosText[0]->setPlainText(QString("%1").arg( MixerChannelData[2]+1 ));
ServosText[1]->setPlainText(QString("%1").arg( MixerChannelData[3]+1 ));
ServosText[2]->setPlainText(QString("%1").arg( MixerChannelData[4]+1 ));
ServosText[3]->setPlainText(QString("%1").arg( MixerChannelData[5]+1 ));
//go through the user data and update the mixer matrix
for (i=0;i<6;i++)
{
if ((MixerChannelData[i]<8)&&((ThisEnable[i])||(i<2)))
{
m_ccpm->ccpmAdvancedSettingsTable->item(i,0)->setText(QString("%1").arg( MixerChannelData[i]+1 ));
//config the vector
if (i==0)
{//motor-engine
m_ccpm->ccpmAdvancedSettingsTable->item(i,1)->setText(QString("%1").arg(127));//ThrottleCurve1
m_ccpm->ccpmAdvancedSettingsTable->item(i,2)->setText(QString("%1").arg(0));//ThrottleCurve2
m_ccpm->ccpmAdvancedSettingsTable->item(i,3)->setText(QString("%1").arg(0));//Roll
m_ccpm->ccpmAdvancedSettingsTable->item(i,4)->setText(QString("%1").arg(0));//Pitch
m_ccpm->ccpmAdvancedSettingsTable->item(i,5)->setText(QString("%1").arg(0));//Yaw
}
if (i==1)
{//tailrotor
m_ccpm->ccpmAdvancedSettingsTable->item(i,1)->setText(QString("%1").arg(0));//ThrottleCurve1
m_ccpm->ccpmAdvancedSettingsTable->item(i,2)->setText(QString("%1").arg(0));//ThrottleCurve2
m_ccpm->ccpmAdvancedSettingsTable->item(i,3)->setText(QString("%1").arg(0));//Roll
m_ccpm->ccpmAdvancedSettingsTable->item(i,4)->setText(QString("%1").arg(0));//Pitch
m_ccpm->ccpmAdvancedSettingsTable->item(i,5)->setText(QString("%1").arg(127));//Yaw
}
if (i>1)
{//Swashplate
m_ccpm->ccpmAdvancedSettingsTable->item(i,1)->setText(QString("%1").arg(0));//ThrottleCurve1
m_ccpm->ccpmAdvancedSettingsTable->item(i,2)->setText(QString("%1").arg((int)(127.0*CollectiveConstant)));//ThrottleCurve2
m_ccpm->ccpmAdvancedSettingsTable->item(i,3)->setText(QString("%1").arg((int)(127.0*(RollConstant)*sin((180+GUIConfigData.heli.CorrectionAngle + ThisAngle[i])*Pi/180.00))));//Roll
m_ccpm->ccpmAdvancedSettingsTable->item(i,4)->setText(QString("%1").arg((int)(127.0*(PitchConstant)*cos((GUIConfigData.heli.CorrectionAngle + ThisAngle[i])*Pi/180.00))));//Pitch
m_ccpm->ccpmAdvancedSettingsTable->item(i,5)->setText(QString("%1").arg(0));//Yaw
}
}
else
{
for (j=0;j<6;j++) m_ccpm->ccpmAdvancedSettingsTable->item(i,j)->setText(QString("-"));
}
}
}
else
{//advanced settings
for (i=0;i<6;i++)
{
Channel =m_ccpm->ccpmAdvancedSettingsTable->item(i,0)->text();
if (Channel == "-") Channel = QString("9");
MixerChannelData[i]= Channel.toInt();
}
}
}
/**************************
* ccpm settings
**************************/
/*
Get the state of the UI check boxes and change the visibility of sliders
typedef struct {
uint SwasplateType:3;
uint FirstServoIndex:2;
uint CorrectionAngle:9;
uint ccpmCollectivePassthroughState:1;
uint ccpmLinkCyclicState:1;
uint ccpmLinkRollState:1;
uint CollectiveChannel:3;
uint padding:12;
} __attribute__((packed)) heliGUISettingsStruct;
*/
void ConfigccpmWidget::UpdateCCPMOptionsFromUI()
{
bool useCCPM;
bool useCyclic;
if (updatingFromHardware) return;
//get the user options
//swashplate config
GUIConfigData.heli.SwasplateType = m_ccpm->ccpmType->count() - m_ccpm->ccpmType->currentIndex()-1;
GUIConfigData.heli.FirstServoIndex = m_ccpm->ccpmSingleServo->currentIndex();
//ccpm mixing options
GUIConfigData.heli.ccpmCollectivePassthroughState = m_ccpm->ccpmCollectivePassthrough->isChecked();
GUIConfigData.heli.ccpmLinkCyclicState = m_ccpm->ccpmLinkCyclic->isChecked();
GUIConfigData.heli.ccpmLinkRollState = m_ccpm->ccpmLinkRoll->isChecked();
useCCPM = !(GUIConfigData.heli.ccpmCollectivePassthroughState || !GUIConfigData.heli.ccpmLinkCyclicState);
useCyclic = GUIConfigData.heli.ccpmLinkRollState;
//correction angle
GUIConfigData.heli.CorrectionAngle = m_ccpm->ccpmCorrectionAngle->value();
//update sliders
if (useCCPM)
{
GUIConfigData.heli.SliderValue0 = m_ccpm->ccpmCollectiveSlider->value();
}
else
{
GUIConfigData.heli.SliderValue0 = m_ccpm->ccpmCollectiveScale->value();
}
if (useCyclic)
{
GUIConfigData.heli.SliderValue1 = m_ccpm->ccpmCyclicScale->value();
}
else
{
GUIConfigData.heli.SliderValue1 = m_ccpm->ccpmPitchScale->value();
}
GUIConfigData.heli.SliderValue2 = m_ccpm->ccpmRollScale->value();
//servo assignments
GUIConfigData.heli.ServoIndexW = m_ccpm->ccpmServoWChannel->currentIndex();
GUIConfigData.heli.ServoIndexX = m_ccpm->ccpmServoXChannel->currentIndex();
GUIConfigData.heli.ServoIndexY = m_ccpm->ccpmServoYChannel->currentIndex();
GUIConfigData.heli.ServoIndexZ = m_ccpm->ccpmServoZChannel->currentIndex();
}
void ConfigccpmWidget::UpdateCCPMUIFromOptions()
{
//swashplate config
m_ccpm->ccpmType->setCurrentIndex(m_ccpm->ccpmType->count() - (GUIConfigData.heli.SwasplateType +1));
m_ccpm->ccpmSingleServo->setCurrentIndex(GUIConfigData.heli.FirstServoIndex);
//ccpm mixing options
m_ccpm->ccpmCollectivePassthrough->setChecked(GUIConfigData.heli.ccpmCollectivePassthroughState);
m_ccpm->ccpmLinkCyclic->setChecked(GUIConfigData.heli.ccpmLinkCyclicState);
m_ccpm->ccpmLinkRoll->setChecked(GUIConfigData.heli.ccpmLinkRollState);
//correction angle
m_ccpm->ccpmCorrectionAngle->setValue(GUIConfigData.heli.CorrectionAngle);
//update sliders
m_ccpm->ccpmCollectiveScale->setValue(GUIConfigData.heli.SliderValue0);
m_ccpm->ccpmCollectiveScaleBox->setValue(GUIConfigData.heli.SliderValue0);
m_ccpm->ccpmCyclicScale->setValue(GUIConfigData.heli.SliderValue1);
m_ccpm->ccpmCyclicScaleBox->setValue(GUIConfigData.heli.SliderValue1);
m_ccpm->ccpmPitchScale->setValue(GUIConfigData.heli.SliderValue1);
m_ccpm->ccpmPitchScaleBox->setValue(GUIConfigData.heli.SliderValue1);
m_ccpm->ccpmRollScale->setValue(GUIConfigData.heli.SliderValue2);
m_ccpm->ccpmRollScaleBox->setValue(GUIConfigData.heli.SliderValue2);
m_ccpm->ccpmCollectiveSlider->setValue(GUIConfigData.heli.SliderValue0);
m_ccpm->ccpmCollectivespinBox->setValue(GUIConfigData.heli.SliderValue0);
//servo assignments
m_ccpm->ccpmServoWChannel->setCurrentIndex(GUIConfigData.heli.ServoIndexW);
m_ccpm->ccpmServoXChannel->setCurrentIndex(GUIConfigData.heli.ServoIndexX);
m_ccpm->ccpmServoYChannel->setCurrentIndex(GUIConfigData.heli.ServoIndexY);
m_ccpm->ccpmServoZChannel->setCurrentIndex(GUIConfigData.heli.ServoIndexZ);
}
void ConfigccpmWidget::SetUIComponentVisibilities()
{
UpdateCCPMOptionsFromUI();
//set which sliders are user...
m_ccpm->ccpmRevoMixingBox->setVisible(0);
m_ccpm->ccpmPitchMixingBox->setVisible(!GUIConfigData.heli.ccpmCollectivePassthroughState && GUIConfigData.heli.ccpmLinkCyclicState);
m_ccpm->ccpmCollectiveScalingBox->setVisible(GUIConfigData.heli.ccpmCollectivePassthroughState || !GUIConfigData.heli.ccpmLinkCyclicState);
m_ccpm->ccpmLinkCyclic->setVisible(!GUIConfigData.heli.ccpmCollectivePassthroughState);
m_ccpm->ccpmCyclicScalingBox->setVisible((GUIConfigData.heli.ccpmCollectivePassthroughState || !GUIConfigData.heli.ccpmLinkCyclicState) && GUIConfigData.heli.ccpmLinkRollState);
if (!GUIConfigData.heli.ccpmCollectivePassthroughState && GUIConfigData.heli.ccpmLinkCyclicState)
{
m_ccpm->ccpmPitchScalingBox->setVisible(0);
m_ccpm->ccpmRollScalingBox->setVisible(0);
m_ccpm->ccpmLinkRoll->setVisible(0);
}
else
{
m_ccpm->ccpmPitchScalingBox->setVisible(!GUIConfigData.heli.ccpmLinkRollState);
m_ccpm->ccpmRollScalingBox->setVisible(!GUIConfigData.heli.ccpmLinkRollState);
m_ccpm->ccpmLinkRoll->setVisible(1);
}
}
/**
Request the current value of the SystemSettings which holds the ccpm type
*/
void ConfigccpmWidget::requestccpmUpdate()
{
#define MaxAngleError 2
int MixerDataFromHeli[8][5];
quint8 MixerOutputType[8];
int EngineChannel,TailRotorChannel,ServoChannels[4],ServoAngles[4],SortAngles[4],ServoCurve2[4];
int NumServos=0;
if (SwashLvlConfigurationInProgress)return;
if (updatingToHardware)return;
updatingFromHardware=TRUE;
unsigned int i,j;
SystemSettings * systemSettings = SystemSettings::GetInstance(getObjectManager());
Q_ASSERT(systemSettings);
SystemSettings::DataFields systemSettingsData = systemSettings->getData();
Q_ASSERT(SystemSettings::GUICONFIGDATA_NUMELEM ==
(sizeof(GUIConfigData.UAVObject) / sizeof(GUIConfigData.UAVObject[0])));
for(i = 0; i < SystemSettings::GUICONFIGDATA_NUMELEM; i++)
GUIConfigData.UAVObject[i]=systemSettingsData.GUIConfigData[i];
UpdateCCPMUIFromOptions();
// Get existing mixer settings
MixerSettings * mixerSettings = MixerSettings::GetInstance(getObjectManager());
MixerSettings::DataFields mixerSettingsData = mixerSettings->getData();
//go through the user data and update the mixer matrix
for (j=0;j<5;j++)
{
MixerDataFromHeli[0][j] = mixerSettingsData.Mixer1Vector[j];
MixerDataFromHeli[1][j] = mixerSettingsData.Mixer2Vector[j];
MixerDataFromHeli[2][j] = mixerSettingsData.Mixer3Vector[j];
MixerDataFromHeli[3][j] = mixerSettingsData.Mixer4Vector[j];
MixerDataFromHeli[4][j] = mixerSettingsData.Mixer5Vector[j];
MixerDataFromHeli[5][j] = mixerSettingsData.Mixer6Vector[j];
MixerDataFromHeli[6][j] = mixerSettingsData.Mixer7Vector[j];
MixerDataFromHeli[7][j] = mixerSettingsData.Mixer8Vector[j];
}
MixerOutputType[0] = mixerSettingsData.Mixer1Type;
MixerOutputType[1] = mixerSettingsData.Mixer2Type;
MixerOutputType[2] = mixerSettingsData.Mixer3Type;
MixerOutputType[3] = mixerSettingsData.Mixer4Type;
MixerOutputType[4] = mixerSettingsData.Mixer5Type;
MixerOutputType[5] = mixerSettingsData.Mixer6Type;
MixerOutputType[6] = mixerSettingsData.Mixer7Type;
MixerOutputType[7] = mixerSettingsData.Mixer8Type;
EngineChannel =-1;
TailRotorChannel =-1;
for (j=0;j<5;j++)
{
ServoChannels[j]=8;
ServoCurve2[j]=0;
ServoAngles[j]=0;
SortAngles[j]=j;
}
NumServos=0;
//process the data from Heli and try to figure out the settings...
for (i=0;i<8;i++)
{
//check if this is the engine... Throttle only
if ((MixerOutputType[i] == MixerSettings::MIXER1TYPE_MOTOR)&&
(MixerDataFromHeli[i][0]>0)&&//ThrottleCurve1
(MixerDataFromHeli[i][1]==0)&&//ThrottleCurve2
(MixerDataFromHeli[i][2]==0)&&//Roll
(MixerDataFromHeli[i][3]==0)&&//Pitch
(MixerDataFromHeli[i][4]==0))//Yaw
{
EngineChannel = i;
m_ccpm->ccpmEngineChannel->setCurrentIndex(i);
}
//check if this is the tail rotor... REVO and YAW
if ((MixerOutputType[i] == MixerSettings::MIXER1TYPE_SERVO)&&
//(MixerDataFromHeli[i][0]!=0)&&//ThrottleCurve1
(MixerDataFromHeli[i][1]==0)&&//ThrottleCurve2
(MixerDataFromHeli[i][2]==0)&&//Roll
(MixerDataFromHeli[i][3]==0)&&//Pitch
(MixerDataFromHeli[i][4]!=0))//Yaw
{
TailRotorChannel = i;
m_ccpm->ccpmTailChannel->setCurrentIndex(i);
m_ccpm->ccpmRevoSlider->setValue((MixerDataFromHeli[i][0]*100)/127);
m_ccpm->ccpmREVOspinBox->setValue((MixerDataFromHeli[i][0]*100)/127);
}
//check if this is a swashplate servo... Throttle is zero
if ((MixerOutputType[i] == MixerSettings::MIXER1TYPE_SERVO)&&
(MixerDataFromHeli[i][0]==0)&&//ThrottleCurve1
//(MixerDataFromHeli[i][1]==0)&&//ThrottleCurve2
//(MixerDataFromHeli[i][2]==0)&&//Roll
//(MixerDataFromHeli[i][3]==0)&&//Pitch
(MixerDataFromHeli[i][4]==0))//Yaw
{
ServoChannels[NumServos] = i;//record the channel for this servo
ServoCurve2[NumServos]=MixerDataFromHeli[i][1];//record the ThrottleCurve2 contribution to this servo
ServoAngles[NumServos]=NumServos*45;//make this 0 for the final version
NumServos++;
}
}
//get the settings for the curve from the mixer settings
for (i=0;i<5;i++)
{
m_ccpm->CurveSettings->item(i, 0)->setText(QString().sprintf("%.3f",
mixerSettingsData.ThrottleCurve1[i]));
m_ccpm->CurveSettings->item(i, 1)->setText(QString().sprintf("%.3f",
mixerSettingsData.ThrottleCurve2[i]));
}
updatingFromHardware=FALSE;
UpdateCCPMUIFromOptions();
ccpmSwashplateUpdate();
}
/**
Sends the config to the board (ccpm type)
*/
void ConfigccpmWidget::sendccpmUpdate()
{
int i,j;
if (SwashLvlConfigurationInProgress)return;
updatingToHardware=TRUE;
//ShowDisclaimer(1);
UpdateCCPMOptionsFromUI();
// Store the data required to reconstruct
SystemSettings * systemSettings = SystemSettings::GetInstance(getObjectManager());
Q_ASSERT(systemSettings);
SystemSettings::DataFields systemSettingsData = systemSettings->getData();
systemSettingsData.GUIConfigData[0] = GUIConfigData.UAVObject[0];
systemSettingsData.GUIConfigData[1] = GUIConfigData.UAVObject[1];
systemSettings->setData(systemSettingsData);
systemSettings->updated();
MixerSettings * mixerSettings = MixerSettings::GetInstance(getObjectManager());
Q_ASSERT(mixerSettings);
MixerSettings::DataFields mixerSettingsData = mixerSettings->getData();
UpdateMixer();
// Set up some helper pointers
qint8 * mixers[8] = {mixerSettingsData.Mixer1Vector,
mixerSettingsData.Mixer2Vector,
mixerSettingsData.Mixer3Vector,
mixerSettingsData.Mixer4Vector,
mixerSettingsData.Mixer5Vector,
mixerSettingsData.Mixer6Vector,
mixerSettingsData.Mixer7Vector,
mixerSettingsData.Mixer8Vector
};
quint8 * mixerTypes[8] = {
&mixerSettingsData.Mixer1Type,
&mixerSettingsData.Mixer2Type,
&mixerSettingsData.Mixer3Type,
&mixerSettingsData.Mixer4Type,
&mixerSettingsData.Mixer5Type,
&mixerSettingsData.Mixer6Type,
&mixerSettingsData.Mixer7Type,
&mixerSettingsData.Mixer8Type
};
//go through the user data and update the mixer matrix
for (i=0;i<6;i++)
{
if (MixerChannelData[i]<8)
{
//set the mixer type
*(mixerTypes[MixerChannelData[i]]) = i==0 ?
MixerSettings::MIXER1TYPE_MOTOR :
MixerSettings::MIXER1TYPE_SERVO;
//config the vector
for (j=0;j<5;j++)
mixers[MixerChannelData[i]][j] = m_ccpm->ccpmAdvancedSettingsTable->item(i,j+1)->text().toInt();
}
}
//get the user data for the curve into the mixer settings
for (i=0;i<5;i++)
mixerSettingsData.ThrottleCurve1[i] = m_ccpm->CurveSettings->item(i, 0)->text().toDouble();
for (i=0;i<5;i++)
mixerSettingsData.ThrottleCurve2[i] = m_ccpm->CurveSettings->item(i, 1)->text().toDouble();
//mapping of collective input to curve 2...
//MixerSettings.Curve2Source = Throttle,Roll,Pitch,Yaw,Accessory0,Accessory1,Accessory2,Accessory3,Accessory4,Accessory5
//check if we are using throttle or directly from a channel...
if (GUIConfigData.heli.ccpmCollectivePassthroughState)
mixerSettingsData.Curve2Source = MixerSettings::CURVE2SOURCE_COLLECTIVE;
else
mixerSettingsData.Curve2Source = MixerSettings::CURVE2SOURCE_THROTTLE;
mixerSettings->setData(mixerSettingsData);
mixerSettings->updated();
updatingToHardware=FALSE;
}
/**
Send ccpm type to the board and request saving to SD card
*/
void ConfigccpmWidget::saveccpmUpdate()
{
if (SwashLvlConfigurationInProgress)return;
ShowDisclaimer(0);
// Send update so that the latest value is saved
sendccpmUpdate();
UAVDataObject* obj = dynamic_cast<UAVDataObject*>(getObjectManager()->getObject(QString("MixerSettings")));
Q_ASSERT(obj);
saveObjectToSD(obj);
}
void ConfigccpmWidget::resizeEvent(QResizeEvent* event)
{
Q_UNUSED(event);
// Make the custom table columns autostretch:
m_ccpm->ccpmAdvancedSettingsTable->resizeColumnsToContents();
for (int i=0;i<6;i++) {
m_ccpm->ccpmAdvancedSettingsTable->setColumnWidth(i,(m_ccpm->ccpmAdvancedSettingsTable->width()-
m_ccpm->ccpmAdvancedSettingsTable->verticalHeader()->width())/6);
}
ccpmSwashplateRedraw();
}
void ConfigccpmWidget::showEvent(QShowEvent *event)
{
Q_UNUSED(event)
m_ccpm->ccpmAdvancedSettingsTable->resizeColumnsToContents();
for (int i=0;i<6;i++) {
m_ccpm->ccpmAdvancedSettingsTable->setColumnWidth(i,(m_ccpm->ccpmAdvancedSettingsTable->width()-
m_ccpm->ccpmAdvancedSettingsTable->verticalHeader()->width())/6);
}
ccpmSwashplateRedraw();
}
void ConfigccpmWidget::SwashLvlStartButtonPressed()
{
QMessageBox msgBox;
int i;
msgBox.setText("<h1>Swashplate Leveling Routine</h1>");
msgBox.setInformativeText("<b>You are about to start the Swashplate levelling routine.</b><p>This process will start by downloading the current configuration from the GCS to the OP hardware and will adjust your configuration at various stages.<p>The final state of your system should match the current configuration in the GCS config gadget.<p>Please ensure all ccpm settings in the GCS are correct before continuing.<p>If this process is interrupted, then the state of your OP board may not match the GCS configuration.<p><i>After completing this process, please check all settings before attempting to fly.</i><p><font color=red><b>Please disconnect your motor to ensure it will not spin up.</b></font><p><hr><i>Do you wish to proceed?</i>");
msgBox.setStandardButtons(QMessageBox::Yes | QMessageBox::Cancel);
msgBox.setDefaultButton(QMessageBox::Cancel);
msgBox.setIcon(QMessageBox::Information);
int ret = msgBox.exec();
UAVObjectField* MinField;
UAVObjectField* NeutralField;
UAVObjectField* MaxField;
UAVDataObject* obj;
ExtensionSystem::PluginManager *pm;
UAVObjectManager *objManager;
switch (ret) {
case QMessageBox::Yes:
// Yes was clicked
SwashLvlState=0;
//remove Flight control of ActuatorCommand
enableSwashplateLevellingControl(true);
m_ccpm->SwashLvlStartButton->setEnabled(false);
m_ccpm->SwashLvlNextButton->setEnabled(true);
m_ccpm->SwashLvlCancelButton->setEnabled(true);
m_ccpm->SwashLvlFinishButton->setEnabled(false);
//clear status check boxes
m_ccpm->SwashLvlStepList->item(0)->setCheckState(Qt::Unchecked);
m_ccpm->SwashLvlStepList->item(1)->setCheckState(Qt::Unchecked);
m_ccpm->SwashLvlStepList->item(2)->setCheckState(Qt::Unchecked);
m_ccpm->SwashLvlStepList->item(3)->setCheckState(Qt::Unchecked);
//download the current settings to the OP hw
sendccpmUpdate();
//change control mode to gcs control / disarmed
//set throttle to 0
//save off the old ActuatorSettings for the swashplate servos
pm = ExtensionSystem::PluginManager::instance();
objManager = pm->getObject<UAVObjectManager>();
// Get the channel assignements:
obj = dynamic_cast<UAVDataObject*>(objManager->getObject(QString("ActuatorSettings")));
Q_ASSERT(obj);
// obj->requestUpdate();
MinField = obj->getField(QString("ChannelMin"));
NeutralField = obj->getField(QString("ChannelNeutral"));
MaxField = obj->getField(QString("ChannelMax"));
//channel assignments
oldSwashLvlConfiguration.ServoChannels[0]=m_ccpm->ccpmServoWChannel->currentIndex();
oldSwashLvlConfiguration.ServoChannels[1]=m_ccpm->ccpmServoXChannel->currentIndex();
oldSwashLvlConfiguration.ServoChannels[2]=m_ccpm->ccpmServoYChannel->currentIndex();
oldSwashLvlConfiguration.ServoChannels[3]=m_ccpm->ccpmServoZChannel->currentIndex();
//if servos are used
oldSwashLvlConfiguration.Used[0]=((m_ccpm->ccpmServoWChannel->currentIndex()<8)&&(m_ccpm->ccpmServoWChannel->isEnabled()));
oldSwashLvlConfiguration.Used[1]=((m_ccpm->ccpmServoXChannel->currentIndex()<8)&&(m_ccpm->ccpmServoXChannel->isEnabled()));
oldSwashLvlConfiguration.Used[2]=((m_ccpm->ccpmServoYChannel->currentIndex()<8)&&(m_ccpm->ccpmServoYChannel->isEnabled()));
oldSwashLvlConfiguration.Used[3]=((m_ccpm->ccpmServoZChannel->currentIndex()<8)&&(m_ccpm->ccpmServoZChannel->isEnabled()));
//min,neutral,max values for the servos
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
oldSwashLvlConfiguration.Min[i]=MinField->getValue(oldSwashLvlConfiguration.ServoChannels[i]).toInt();
oldSwashLvlConfiguration.Neutral[i]=NeutralField->getValue(oldSwashLvlConfiguration.ServoChannels[i]).toInt();
oldSwashLvlConfiguration.Max[i]=MaxField->getValue(oldSwashLvlConfiguration.ServoChannels[i]).toInt();
}
//copy to new Actuator settings.
memcpy((void*)&newSwashLvlConfiguration,(void*)&oldSwashLvlConfiguration,sizeof(SwashplateServoSettingsStruct));
//goto the first step
SwashLvlNextButtonPressed();
break;
case QMessageBox::Cancel:
// Cancel was clicked
SwashLvlState=0;
//restore Flight control of ActuatorCommand
enableSwashplateLevellingControl(false);
m_ccpm->SwashLvlStartButton->setEnabled(true);
m_ccpm->SwashLvlNextButton->setEnabled(false);
m_ccpm->SwashLvlCancelButton->setEnabled(false);
m_ccpm->SwashLvlFinishButton->setEnabled(false);
break;
default:
// should never be reached
break;
}
}
void ConfigccpmWidget::SwashLvlNextButtonPressed()
{
//ShowDisclaimer(2);
SwashLvlState++;
int i;
switch (SwashLvlState)
{
case 0:
break;
case 1: //Neutral levelling
m_ccpm->SwashLvlStepList->setCurrentRow(0);
//set spin boxes and swashplate servos to Neutral values
setSwashplateLevel(50);
//disable position slider
m_ccpm->SwashLvlPositionSlider->setEnabled(false);
m_ccpm->SwashLvlPositionSpinBox->setEnabled(false);
//set position slider to 50%
m_ccpm->SwashLvlPositionSlider->setValue(50);
m_ccpm->SwashLvlPositionSpinBox->setValue(50);
//connect spinbox signals to slots and ebnable them
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
connect(SwashLvlSpinBoxes[i], SIGNAL(valueChanged(int)), this, SLOT(SwashLvlSpinBoxChanged(int)));
SwashLvlSpinBoxes[i]->setEnabled(true);
}
//issue user instructions
m_ccpm->SwashLvlStepInstruction->setHtml("<h2>Neutral levelling</h2><p>Using adjustment of:<ul><li>servo horns<li>link lengths and<li>Neutral timing spinboxes to the right</ul><br>ensure that the swashplate is in the center of desired travel range and is level.");
break;
case 2: //Max levelling
//check Neutral status as complete
m_ccpm->SwashLvlStepList->item(0)->setCheckState(Qt::Checked);
m_ccpm->SwashLvlStepList->setCurrentRow(1);
//set spin boxes and swashplate servos to Max values
setSwashplateLevel(100);
//set position slider to 100%
m_ccpm->SwashLvlPositionSlider->setValue(100);
m_ccpm->SwashLvlPositionSpinBox->setValue(100);
//issue user instructions
m_ccpm->SwashLvlStepInstruction->setText("<h2>Max levelling</h2><p>Using adjustment of:<ul><li>Max timing spinboxes to the right ONLY</ul><br>ensure that the swashplate is at the top of desired travel range and is level.");
break;
case 3: //Min levelling
//check Max status as complete
m_ccpm->SwashLvlStepList->item(1)->setCheckState(Qt::Checked);
m_ccpm->SwashLvlStepList->setCurrentRow(2);
//set spin boxes and swashplate servos to Min values
setSwashplateLevel(0);
//set position slider to 0%
m_ccpm->SwashLvlPositionSlider->setValue(0);
m_ccpm->SwashLvlPositionSpinBox->setValue(0);
//issue user instructions
m_ccpm->SwashLvlStepInstruction->setText("<h2>Min levelling</h2><p>Using adjustment of:<ul><li>Min timing spinboxes to the right ONLY</ul><br>ensure that the swashplate is at the bottom of desired travel range and is level.");
break;
case 4: //levelling verification
//check Min status as complete
m_ccpm->SwashLvlStepList->item(2)->setCheckState(Qt::Checked);
m_ccpm->SwashLvlStepList->setCurrentRow(3);
//enable position slider
m_ccpm->SwashLvlPositionSlider->setEnabled(true);
m_ccpm->SwashLvlPositionSpinBox->setEnabled(true);
//make heli respond to slider movement
connect(m_ccpm->SwashLvlPositionSlider, SIGNAL(valueChanged(int)), this, SLOT(setSwashplateLevel(int)));
//disable spin boxes
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
SwashLvlSpinBoxes[i]->setEnabled(false);
}
//issue user instructions
m_ccpm->SwashLvlStepInstruction->setText("<h2>levelling verification</h2><p>Adjust the slider to the right over it's full range and observe the swashplate motion. It should remain level over the entire range of travel.");
break;
case 5: //levelling complete
//check verify status as complete
m_ccpm->SwashLvlStepList->item(3)->setCheckState(Qt::Checked);
//issue user instructions
m_ccpm->SwashLvlStepInstruction->setText("<h2>levelling complete</h2><p>Press the Finish button to save these settings to the SD card<p>Press the cancel button to return to the pre-levelling settings");
//disable position slider
m_ccpm->SwashLvlPositionSlider->setEnabled(false);
m_ccpm->SwashLvlPositionSpinBox->setEnabled(false);
//disconnect levelling slots from signals
disconnect(m_ccpm->SwashLvlPositionSlider, SIGNAL(valueChanged(int)), this, SLOT(setSwashplateLevel(int)));
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
disconnect(SwashLvlSpinBoxes[i], SIGNAL(valueChanged(int)), this, SLOT(SwashLvlSpinBoxChanged(int)));
}
m_ccpm->SwashLvlStartButton->setEnabled(false);
m_ccpm->SwashLvlNextButton->setEnabled(false);
m_ccpm->SwashLvlCancelButton->setEnabled(true);
m_ccpm->SwashLvlFinishButton->setEnabled(true);
default:
//restore collective/cyclic setting
//restore pitch curve
//clear spin boxes
//change control mode to gcs control (OFF) / disarmed
//issue user confirmation
break;
}
}
void ConfigccpmWidget::SwashLvlCancelButtonPressed()
{
int i;
SwashLvlState=0;
UAVObjectField* MinField;
UAVObjectField* NeutralField;
UAVObjectField* MaxField;
m_ccpm->SwashLvlStartButton->setEnabled(true);
m_ccpm->SwashLvlNextButton->setEnabled(false);
m_ccpm->SwashLvlCancelButton->setEnabled(false);
m_ccpm->SwashLvlFinishButton->setEnabled(false);
m_ccpm->SwashLvlStepList->item(0)->setCheckState(Qt::Unchecked);
m_ccpm->SwashLvlStepList->item(1)->setCheckState(Qt::Unchecked);
m_ccpm->SwashLvlStepList->item(2)->setCheckState(Qt::Unchecked);
m_ccpm->SwashLvlStepList->item(3)->setCheckState(Qt::Unchecked);
//restore old Actuator Settings
ExtensionSystem::PluginManager *pm = ExtensionSystem::PluginManager::instance();
UAVObjectManager *objManager = pm->getObject<UAVObjectManager>();
UAVDataObject* obj = dynamic_cast<UAVDataObject*>(objManager->getObject(QString("ActuatorSettings")));
Q_ASSERT(obj);
//update settings to match our changes.
MinField = obj->getField(QString("ChannelMin"));
NeutralField = obj->getField(QString("ChannelNeutral"));
MaxField = obj->getField(QString("ChannelMax"));
//min,neutral,max values for the servos
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
MinField->setValue(oldSwashLvlConfiguration.Min[i],oldSwashLvlConfiguration.ServoChannels[i]);
NeutralField->setValue(oldSwashLvlConfiguration.Neutral[i],oldSwashLvlConfiguration.ServoChannels[i]);
MaxField->setValue(oldSwashLvlConfiguration.Max[i],oldSwashLvlConfiguration.ServoChannels[i]);
}
obj->updated();
//restore Flight control of ActuatorCommand
enableSwashplateLevellingControl(false);
m_ccpm->SwashLvlStepInstruction->setText("<h2>Levelling Cancelled</h2><p>Previous settings have been restored.");
}
void ConfigccpmWidget::SwashLvlFinishButtonPressed()
{
int i;
UAVObjectField* MinField;
UAVObjectField* NeutralField;
UAVObjectField* MaxField;
m_ccpm->SwashLvlStartButton->setEnabled(true);
m_ccpm->SwashLvlNextButton->setEnabled(false);
m_ccpm->SwashLvlCancelButton->setEnabled(false);
m_ccpm->SwashLvlFinishButton->setEnabled(false);
//save new Actuator Settings to memory and SD card
ExtensionSystem::PluginManager *pm = ExtensionSystem::PluginManager::instance();
UAVObjectManager *objManager = pm->getObject<UAVObjectManager>();
UAVDataObject* obj = dynamic_cast<UAVDataObject*>(objManager->getObject(QString("ActuatorSettings")));
Q_ASSERT(obj);
//update settings to match our changes.
MinField = obj->getField(QString("ChannelMin"));
NeutralField = obj->getField(QString("ChannelNeutral"));
MaxField = obj->getField(QString("ChannelMax"));
//min,neutral,max values for the servos
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++)
{
MinField->setValue(newSwashLvlConfiguration.Min[i],newSwashLvlConfiguration.ServoChannels[i]);
NeutralField->setValue(newSwashLvlConfiguration.Neutral[i],newSwashLvlConfiguration.ServoChannels[i]);
MaxField->setValue(newSwashLvlConfiguration.Max[i],newSwashLvlConfiguration.ServoChannels[i]);
}
obj->updated();
saveObjectToSD(obj);
//restore Flight control of ActuatorCommand
enableSwashplateLevellingControl(false);
m_ccpm->SwashLvlStepInstruction->setText("<h2>Levelling Completed</h2><p>New settings have been saved to the SD card");
ShowDisclaimer(0);
//ShowDisclaimer(2);
}
int ConfigccpmWidget::ShowDisclaimer(int messageID)
{
QMessageBox msgBox;
msgBox.setText("<font color=red><h1>Warning!!!</h2></font>");
int ret;
switch (messageID) {
case 0:
// Basic disclaimer
msgBox.setInformativeText("<h2>This code has many configurations.</h2><p>Please double check all settings before attempting flight!");
msgBox.setStandardButtons(QMessageBox::Ok);
msgBox.setDefaultButton(QMessageBox::Ok);
msgBox.setIcon(QMessageBox::Information);
ret = msgBox.exec();
return 0;
break;
case 1:
// Not Tested disclaimer
msgBox.setInformativeText("<h2>The CCPM mixer code needs more testing!</h2><p><font color=red>Use it at your own risk!</font><p>Do you wish to continue?");
msgBox.setStandardButtons(QMessageBox::Yes | QMessageBox::Cancel);
msgBox.setDefaultButton(QMessageBox::Cancel);
msgBox.setIcon(QMessageBox::Warning);
ret = msgBox.exec();
switch (ret)
{
case QMessageBox::Cancel: return -1;
case QMessageBox::Yes: return 0;
}
break;
case 2:
// DO NOT use
msgBox.setInformativeText("<h2>The CCPM swashplate levelling code is NOT complete!</h2><p><font color=red>DO NOT use it for flight!</font>");
msgBox.setStandardButtons(QMessageBox::Ok);
msgBox.setDefaultButton(QMessageBox::Ok);
msgBox.setIcon(QMessageBox::Critical);
ret = msgBox.exec();
return 0;
break;
default:
// should never be reached
break;
}
return -1;
}
/**
Toggles the channel testing mode by making the GCS take over
the ActuatorCommand objects
*/
void ConfigccpmWidget::enableSwashplateLevellingControl(bool state)
{
ExtensionSystem::PluginManager *pm = ExtensionSystem::PluginManager::instance();
UAVObjectManager *objManager = pm->getObject<UAVObjectManager>();
UAVDataObject* obj = dynamic_cast<UAVDataObject*>(objManager->getObject(QString("ActuatorCommand")));
UAVObject::Metadata mdata = obj->getMetadata();
if (state)
{
SwashLvlaccInitialData = mdata;
mdata.flightAccess = UAVObject::ACCESS_READONLY;
mdata.flightTelemetryUpdateMode = UAVObject::UPDATEMODE_ONCHANGE;
mdata.gcsTelemetryAcked = false;
mdata.gcsTelemetryUpdateMode = UAVObject::UPDATEMODE_ONCHANGE;
mdata.gcsTelemetryUpdatePeriod = 100;
SwashLvlConfigurationInProgress=1;
m_ccpm->TabObject->setTabEnabled(0,0);
m_ccpm->TabObject->setTabEnabled(2,0);
m_ccpm->TabObject->setTabEnabled(3,0);
m_ccpm->ccpmType->setEnabled(0);
}
else
{
mdata = SwashLvlaccInitialData; // Restore metadata
SwashLvlConfigurationInProgress=0;
m_ccpm->TabObject->setTabEnabled(0,1);
m_ccpm->TabObject->setTabEnabled(2,1);
m_ccpm->TabObject->setTabEnabled(3,1);
m_ccpm->ccpmType->setEnabled(1);
}
obj->setMetadata(mdata);
}
/**
Sets the swashplate level to a given value based on current settings for Max, Neutral and Min values.
level ranges -1 to +1
*/
void ConfigccpmWidget::setSwashplateLevel(int percent)
{
if (percent<0)return;// -1;
if (percent>100)return;// -1;
if (SwashLvlConfigurationInProgress!=1)return;// -1;
int i;
double value;
double level = ((double)percent /50.00) - 1.00;
SwashLvlServoInterlock=1;
ActuatorCommand * actuatorCommand = ActuatorCommand::GetInstance(getObjectManager());
ActuatorCommand::DataFields actuatorCommandData = actuatorCommand->getData();
for (i=0;i<CCPM_MAX_SWASH_SERVOS;i++) {
if (level==0)
value = newSwashLvlConfiguration.Neutral[i];
else if (level > 0)
value = (newSwashLvlConfiguration.Max[i] - newSwashLvlConfiguration.Neutral[i])*level + newSwashLvlConfiguration.Neutral[i];
else if (level < 0)
value = (newSwashLvlConfiguration.Neutral[i] - newSwashLvlConfiguration.Min[i])*level + newSwashLvlConfiguration.Neutral[i];
actuatorCommandData.Channel[newSwashLvlConfiguration.ServoChannels[i]] = value;
SwashLvlSpinBoxes[i]->setValue(value);
}
actuatorCommand->setData(actuatorCommandData);
actuatorCommand->updated();
SwashLvlServoInterlock=0;
return;
}
void ConfigccpmWidget::SwashLvlSpinBoxChanged(int value)
{
Q_UNUSED(value);
int i;
if (SwashLvlServoInterlock==1)return;
ActuatorCommand * actuatorCommand = ActuatorCommand::GetInstance(getObjectManager());
ActuatorCommand::DataFields actuatorCommandData = actuatorCommand->getData();
for (i = 0; i < CCPM_MAX_SWASH_SERVOS; i++) {
value = SwashLvlSpinBoxes[i]->value();
switch (SwashLvlState)
{
case 1: //Neutral levelling
newSwashLvlConfiguration.Neutral[i]=value;
break;
case 2: //Max levelling
newSwashLvlConfiguration.Max[i] = value;
break;
case 3: //Min levelling
newSwashLvlConfiguration.Min[i]= value;
break;
case 4: //levelling verification
break;
case 5: //levelling complete
break;
default:
break;
}
actuatorCommandData.Channel[newSwashLvlConfiguration.ServoChannels[i]] = value;
}
actuatorCommand->setData(actuatorCommandData);
actuatorCommand->updated();
return;
}