Bool SmplMatrixDialog::InitValues(void)
{
SetInt32(GADGET_SMPL_MATRIX_DOCUMENT_PREVIEW, document_preview);
SetInt32(GADGET_SMPL_MATRIX_TEXTURE_MODE, settings->tile_flags == TILE_REPEAT_BORDER ? 0 : 1);
SetPercent(GADGET_SMPL_MATRIX_SLIDER_MIX, settings->matrix_opacity, 0.0, 100.0, 0.1);
SetFloat(GADGET_SMPL_MATRIX_SLIDER_ANGLE, Rad(settings->angle), Rad(MIN_ANGLE), Rad(MAX_ANGLE), Rad(STEP_ANGLE), FORMAT_DEGREE);
SetInt32(GADGET_SMPL_MATRIX_TYPE_POPUP, settings->type);
return true;
}
void VectorTest::updateFromSliders(){
// Calculate
Vector2D p(sliderX->value(), sliderY->value());
//Trafo2D t = Trafo2D::trans(sliderX->value(), sliderY->value()) * Trafo2D::rot(Rad(sliderRotation->value())) ;
t = Trafo2D::rot(Rad(sliderRotation->value())) * Trafo2D::trans(sliderX->value(), sliderY->value());
//Trafo2D t = Trafo2D::trans(sliderX->value(), sliderY->value());
//Trafo2D t = Trafo2D::rot(Rad(sliderRotation->value())) ;
// for (int j = 0; j < 3; j++){
// for (int k = 0; k < 3; k++){
// std::cout << " " << t.Data[j][k];
// }
// std::cout << std::endl;
// }
// std::cout << std::endl;
//
//p = Trafo2D::rot(30) * p;
//r.rot(20);
//p = r*p;
draw();
}
int All_Date_Time(double jd, const tm* pTM)
{
//cout<<"Current JD is "<<jd<<endl;
//cout<<"GMT is: "<<pTM->tm_hour<<":"<<pTM->tm_min<<":"<<pTM->tm_sec<<endl;
//cout<<"GMT Date-time is: "<<asctime (pTM)<<endl;
double ThetaZero=ThetaG_JD(jd); // in radians
double YLlong =Rad(242.210911);
double LMST=fmod(ThetaZero+YLlong,TWO_PI); // radians
/****************************************
radians to HMS
2pi 360 degrees
15 degrees per hour
86400 seconds per day(24*60*60)
*****************************************/
double H,M,S;
double LMST_HMS=LMST*((360/TWO_PI))/15;
H=LMST_HMS;
double param, fractpart, intpart;
param = H;
fractpart = modf (param , &intpart);
M=fractpart*60;
param=M;
fractpart = modf (param , &intpart);
S=fractpart*60;
//cout<<"LMST= \t"<<(int)H<<":"<<(int)M<<":"<<S<<endl;
return 0;
}
ExpectedMovementTracker::ExpectedMovementTracker(Core *core, long x, long y, double rotation) : MovementTracker("Expected", core) {
transformation = Trafo2D::trans(x,y) * Trafo2D::rot(Rad(rotation)); // Core/COIL has a clockwise positive rotation while the math library has a anti-clockwise rotation...
lastGetDistanceTimestamp = QTime();
lastGetAngleTimestamp = QTime();
wheelSpeed = Vector2D(0,0);
weight = 1;
}
Trade::MeshData3D Capsule3D::solid(UnsignedInt hemisphereRings, UnsignedInt cylinderRings, UnsignedInt segments, Float halfLength, TextureCoords textureCoords) {
CORRADE_ASSERT(hemisphereRings >= 1 && cylinderRings >= 1 && segments >= 3, "Capsule must have at least one hemisphere ring, one cylinder ring and three segments", Trade::MeshData3D(MeshPrimitive::Triangles, std::vector<UnsignedInt>{}, std::vector<std::vector<Vector3>>{}, std::vector<std::vector<Vector3>>{}, std::vector<std::vector<Vector2>>{}));
Implementation::Spheroid capsule(segments, textureCoords == TextureCoords::Generate ?
Implementation::Spheroid::TextureCoords::Generate :
Implementation::Spheroid::TextureCoords::DontGenerate);
Float height = 2.0f+2.0f*halfLength;
Float hemisphereTextureCoordsVIncrement = 1.0f/(hemisphereRings*height);
Rad hemisphereRingAngleIncrement(Constants::pi()/(2*hemisphereRings));
/* Bottom cap vertex */
capsule.capVertex(-height/2, -1.0f, 0.0f);
/* Rings of bottom hemisphere */
capsule.hemisphereVertexRings(hemisphereRings-1, -halfLength, -Rad(Constants::pi())/2+hemisphereRingAngleIncrement, hemisphereRingAngleIncrement, hemisphereTextureCoordsVIncrement, hemisphereTextureCoordsVIncrement);
/* Rings of cylinder */
capsule.cylinderVertexRings(cylinderRings+1, -halfLength, 2.0f*halfLength/cylinderRings, 1.0f/height, 2.0f*halfLength/(cylinderRings*height));
/* Rings of top hemisphere */
capsule.hemisphereVertexRings(hemisphereRings-1, halfLength, hemisphereRingAngleIncrement, hemisphereRingAngleIncrement, (1.0f + 2.0f*halfLength)/height+hemisphereTextureCoordsVIncrement, hemisphereTextureCoordsVIncrement);
/* Top cap vertex */
capsule.capVertex(height/2, 1.0f, 1.0f);
/* Faces */
capsule.bottomFaceRing();
capsule.faceRings(hemisphereRings*2-2+cylinderRings);
capsule.topFaceRing();
return capsule.finalize();
}
Trade::MeshData3D UVSphere::solid(UnsignedInt rings, UnsignedInt segments, TextureCoords textureCoords) {
CORRADE_ASSERT(rings >= 2 && segments >= 3, "UVSphere must have at least two rings and three segments", Trade::MeshData3D(Mesh::Primitive::Triangles, {}, {}, {}, {}));
Implementation::Spheroid sphere(segments, textureCoords == TextureCoords::Generate ?
Implementation::Spheroid::TextureCoords::Generate :
Implementation::Spheroid::TextureCoords::DontGenerate);
Float textureCoordsVIncrement = 1.0f/rings;
Rad ringAngleIncrement(Constants::pi()/rings);
/* Bottom cap vertex */
sphere.capVertex(-1.0f, -1.0f, 0.0f);
/* Vertex rings */
sphere.hemisphereVertexRings(rings-1, 0.0f, -Rad(Constants::pi())/2+ringAngleIncrement, ringAngleIncrement, textureCoordsVIncrement, textureCoordsVIncrement);
/* Top cap vertex */
sphere.capVertex(1.0f, 1.0f, 1.0f);
/* Faces */
sphere.bottomFaceRing();
sphere.faceRings(rings-2);
sphere.topFaceRing();
return sphere.finalize();
}
void RoboPult::RadS()
{
askStena->setChecked(false);
askFree->setChecked(false);
switchButt();
emit Rad();
};
void StructureMap::registerObjectDetected(double distance, double angle, double opacity, int size) {
if (finish) return;
Trafo2D objectLocation = create->tracker->getTransformation() * Trafo2D::rot(Rad(angle)) * Trafo2D::trans(0, distance);
Vector2D p = Vector2D(objectLocation.trans().x(),objectLocation.trans().y());
appendPoint(p);
}
/*====================================================================================================*/
void AHRS_GetQ( Quaternion *pNumQ )
{
fp32 ErrX, ErrY, ErrZ;
fp32 AccX, AccY, AccZ;
fp32 GyrX, GyrY, GyrZ;
fp32 Normalize;
static fp32 exInt = 0.0f, eyInt = 0.0f, ezInt = 0.0f;
Gravity V;
// 加速度归一化
Normalize = Q_rsqrt(squa(sensor.acc.averag.x)+ squa(sensor.acc.averag.y) +squa(sensor.acc.averag.z));
AccX = sensor.acc.averag.x*Normalize;
AccY = sensor.acc.averag.y*Normalize;
AccZ = sensor.acc.averag.z*Normalize;
// 提取重力分量
V = Quaternion_vectorGravity(&NumQ);
// 向量差乘
ErrX = (AccY*V.z - AccZ*V.y);
ErrY = (AccZ*V.x - AccX*V.z);
ErrZ = (AccX*V.y - AccY*V.x);
exInt = exInt + ErrX * KiDef;
eyInt = eyInt + ErrY * KiDef;
ezInt = ezInt + ErrZ * KiDef;
GyrX = Rad(sensor.gyro.averag.x) + KpDef * VariableParameter(ErrX) * ErrX + exInt;
GyrY = Rad(sensor.gyro.averag.y) + KpDef * VariableParameter(ErrY) * ErrY + eyInt;
GyrZ = Rad(sensor.gyro.averag.z) + KpDef * VariableParameter(ErrZ) * ErrZ + ezInt;
// 一阶龙格库塔法, 更新四元数
Quaternion_RungeKutta(&NumQ, GyrX, GyrY, GyrZ, SampleRateHalf);
// 四元数归一化
Quaternion_Normalize(&NumQ);
}
void Game::mouseMoveEvent(AbstractScreen::MouseMoveEvent& event) {
/** @todo mouse sensitivity */
player->normalizeRotation()->rotateY(-Rad((Constants::pi()*event.relativePosition().x()/500.0f)),
SceneGraph::TransformationType::Local);
Rad angle(-Constants::pi()*event.relativePosition().y()/500.0f);
Matrix4 xRotation = Matrix4::rotationX(angle)*camera->transformation();
/* Don't rotate under the floor */
if(Math::abs(Vector3::dot(xRotation.rotation()*Vector3::yAxis(), Vector3(0.0f, 1.0f, -1.0f).normalized())) > 0.75f)
camera->normalizeRotation()->rotateX(angle);
event.setAccepted();
redraw();
}
void WireframeSpheroid::ring(const Float y) {
/* Ring vertices and indices */
const Rad segmentAngleIncrement(Constants::piHalf()/_segments);
for(UnsignedInt j = 0; j != _segments; ++j) {
for(UnsignedInt i = 0; i != 4; ++i) {
const Rad segmentAngle = Rad(Float(i)*Constants::piHalf()) + Float(j)*segmentAngleIncrement;
if(j != 0) _indices.insert(_indices.end(), {UnsignedInt(_positions.size()-4), UnsignedInt(_positions.size())});
_positions.emplace_back(Math::sin(segmentAngle), y, Math::cos(segmentAngle));
}
}
/* Close the ring */
for(UnsignedInt i = 0; i != 4; ++i)
_indices.insert(_indices.end(), {UnsignedInt(_positions.size())-4+i, UnsignedInt(_positions.size())-4*_segments+(i+1)%4});
}
void RemainingTargets::animationStep(Float time, Float) {
scale = 1.0f + Math::sin(Rad(Constants::pi()*time/duration()))*0.35f;
}
void INDIMountInterface::SkyChart_Paint( Control& sender, const Rect& updateRect )
{
Graphics g( sender );
RGBA darkRed = RGBAColor( 153, 0, 0 );
RGBA darkYellow = RGBAColor( 153, 153, 0 );
RGBA darkGreen = RGBAColor( 0, 153, 0 );
Rect r( sender.BoundsRect() );
int w = r.Width();
int h = r.Height();
int x0 = w >> 1;
int y0 = h >> 1;
g.FillRect( r, 0u );
g.SetBrush( Brush::Null() );
g.SetPen( darkRed );
const int margin = 10;
g.DrawLine( x0, 0+margin, x0, h-margin );
g.DrawLine( 0+margin, y0, w-margin, y0 );
g.EnableAntialiasing();
if ( m_isAllSkyView )
{
double chartRadius = x0 - margin;
g.DrawCircle( x0, y0, chartRadius );
// draw telescope position
StereoProjection::Spherical s;
double hourAngle = (m_TargetRA.ToDouble() - m_lst)*360/24;
double currentAlt = SkyMap::getObjectAltitude( m_TargetDEC.ToDouble(), hourAngle, m_geoLat );
double currentAz = SkyMap::getObjectAzimut( m_TargetDEC.ToDouble(), hourAngle, m_geoLat );
s.phi = Rad( currentAz );
s.theta = Rad( 90 + currentAlt );
StereoProjection::Polar p = s.Projected( chartRadius );
StereoProjection::Rectangular r = p.ToRectangular();
#if 0
Console().WriteLn( String().Format( "x=%f, y=%f, r=%f", r.x, r.y, chartRadius ) );
Console().WriteLn( String().Format( "x0=%d, y0=%d", x0, y0 ) );
Console().WriteLn( String().Format( "w=%d, h=%d", w, h ) );
Console().WriteLn( String().Format( "phi=%f, theta=%f", s.phi, s.theta ) );
Console().WriteLn( String().Format( "r=%f, pphi=%f", p.r, p.phi ) );
#endif
g.DrawCircle( x0+r.x, y0+r.y, 5 );
g.SetPen( darkGreen );
hourAngle = (m_scopeRA - m_lst)*360/24;
currentAlt = SkyMap::getObjectAltitude( m_scopeDEC, hourAngle, m_geoLat );
currentAz = SkyMap::getObjectAzimut( m_scopeDEC, hourAngle, m_geoLat );
s.phi = Rad( currentAz );
s.theta = Rad( 90 + currentAlt );
r = s.Projected( chartRadius ).ToRectangular();
g.DrawCircle( x0+r.x, y0+r.y, 5 );
g.SetPen( darkYellow );
if ( m_skymap != nullptr )
m_skymap->plotStars( m_lst, m_geoLat, x0, y0, chartRadius, g, m_limitStarMag );
}
else
{
if ( m_skymap != nullptr )
{
double CCD_chipHeight = 2200;
double CCD_chipWidth = 2750;
double CCD_pixelSize = 4.54/1000;
double TEL_focalLength = 700;
double FoV_width = CCD_chipWidth*CCD_pixelSize / TEL_focalLength*3438/60;
double FoV_height = CCD_chipHeight*CCD_pixelSize / TEL_focalLength*3438/60;
double scale = 180.0/FoV_width;
// draw scope position
double currentAlt = SkyMap::getObjectAltitude( m_scopeDEC, m_scopeRA*360/24, m_geoLat );
double currentAz = SkyMap::getObjectAzimut( m_scopeDEC, m_scopeRA*360/24, m_geoLat );
StereoProjection::Spherical spherical( Rad( currentAz ), Rad( 90 + currentAlt ) );
StereoProjection::Polar p = spherical.Projected( scale*x0 );
StereoProjection::Rectangular r = p.ToRectangular();
//Console().WriteLn( String().Format( "xx=%f, yy=%f, r=%f", r.x, r.y, scale * x0 ) );
g.DrawCircle( x0, y0, 5 );
// draw alignment deviation
double alignAlt = SkyMap::getObjectAltitude( m_alignedDEC, m_alignedRA*360/24, m_geoLat );
double alignAz = SkyMap::getObjectAzimut( m_alignedDEC, m_alignedRA*360/24, m_geoLat );
StereoProjection::Rectangular rAlign =
StereoProjection::Spherical( Rad( alignAz ), Rad( 90 + alignAlt ) ).Projected( scale*x0 ).ToRectangular();
g.SetPen( darkGreen );
g.DrawLine( x0 - r.x + r.x,
y0 - r.y + r.y,
x0 - r.x + rAlign.x,
y0 - r.y + rAlign.y );
m_skymap->plotFoVStars( m_lst, m_geoLat, x0-r.x, y0-r.y, scale*x0, g, 13 );
}
}
}
// Returns a transformation matrix which represents the
// translation and rotation for the given node at t based
// on the left and right wheelSpline...
Trafo2D SplineNavigation::getWheelTransformation(int node, double t) {
Vector2D center = Vector2D(wheelLeftSplineX->getValue(node,t) + wheelRightSplineX->getValue(node,t), wheelLeftSplineY->getValue(node,t) + wheelRightSplineY->getValue(node,t)) / 2; // Center point between left and right spline
double angle = -std::atan2(wheelRightSplineX->getValue(node,t) - wheelLeftSplineX->getValue(node,t), wheelRightSplineY->getValue(node,t) - wheelLeftSplineY->getValue(node,t)) + Rad(90); // Angle between left and right (-90) in rad
return Trafo2D::trans(center.x(), center.y()) * Trafo2D::rot(angle);
}
void VectorTest::btnRot2() {
// Rot Subtract
t = t*t.rot(Rad(-20));
draw();
}
void VectorTest::btnRot1() {
// Rot Add
t = t*t.rot(Rad(20));
draw();
}
template <class P1, class P2> static
void Convolve_2( const GenericImage<P1>& image, GenericImage<P2>& sharp,
pcl_enum interpolation, float dR, float angleD, DPoint center, int c )
{
PixelInterpolation* P = 0;
PixelInterpolation::Interpolator<P1>* interpolator = 0;
try
{
switch ( interpolation )
{
case LSInterpolation::Bilinear:
P = new BilinearPixelInterpolation();
break;
default:
case LSInterpolation::Bicubic:
P = new BicubicPixelInterpolation();
break;
case LSInterpolation::BicubicSpline:
P = new BicubicSplinePixelInterpolation();
break;
case LSInterpolation::BicubicBSpline:
P = new BicubicBSplinePixelInterpolation();
break;
}
interpolator = P->NewInterpolator<P1>( image[c], image.Width(), image.Height() );
int w = image.Width() - 1;
int h = image.Height() - 1;
double fimg, fsharp;
StatusMonitor monitor;
monitor.Initialize( "<end><cbr>High-pass Larson-Sekanina filter", image.NumberOfPixels() );
sharp.Zero();
float dAlpha = Rad( angleD );
for ( int x = 0; x < image.Width(); ++x )
for ( int y = 0; y < image.Height(); ++y, ++monitor )
{
// Get the central value
P1::FromSample( fimg, image.Pixel( x, y, c ) );
fsharp = fimg+fimg;
double r, theta;
ToPolar( x, y, center, r, theta);
DPoint delta;
// Positive differential
ToCartesian( r-dR, theta+dAlpha, center, delta );
if ( delta.x < 0 )
delta.x = Abs( delta.x );
else if ( delta.x > w )
delta.x = 2*w - delta.x;
if ( delta.y < 0 )
delta.y = Abs( delta.y );
else if ( delta.y > h )
delta.y = 2*h - delta.y;
P1::FromSample( fimg, (*interpolator)( delta ) );
fsharp -= fimg;
//Negative differential
ToCartesian( r-dR, theta-dAlpha, center, delta );
if ( delta.x < 0 )
delta.x = Abs( delta.x );
else if ( delta.x > w )
delta.x = 2*w - delta.x;
if ( delta.y < 0 )
delta.y = Abs( delta.y );
else if ( delta.y > h )
delta.y = 2*h - delta.y;
P1::FromSample( fimg, (*interpolator)( delta ) );
fsharp -= fimg;
sharp.Pixel( x, y ) = P2::ToSample( fsharp );
}
delete interpolator;
delete P;
}
catch ( ... )
{
if ( interpolator != 0 )
delete interpolator;
if ( P != 0 )
delete P;
throw;
}
}
int main(int argc, char* argv[])
{
#ifdef __linux__
struct sigaction sig_struct;
sig_struct.sa_handler = sig_handler;
sig_struct.sa_flags = 0;
sigemptyset(&sig_struct.sa_mask);
if (sigaction(SIGINT, &sig_struct, NULL) == -1)
{
cout << "Problem with sigaction" << endl;
exit(1);
}
#endif // __linux__
/// === File read needed if moving something from PC to here
// myFP = fopen(netname, "a+");
// if(myFP == NULL)
// {
// cout<<"ERROR opening"<<endl;
// exit(1);
// }
// fread(read_buf, 1, 100, myFP);
// int buffersize = strlen(read_buf);
// fclose(myFP);
// cout<<"read the file: "<<read_buf<<endl;
// =============================================================
int lcdp=lcd_open();
int adcp=ADS1015_Init("/dev/i2c-1");
PCA9685 myPCA={0x40, 0, 69, 0, 0, 0x11, 0x4, 50, 0x79,}; // control structure
myPCA.file=PCA_Init("/dev/i2c-1");
PCA9685_start(myPCA.file);
//adcresult=read_convert_register(adcp);
//sprintf(dis_buf, "ADC: %6.3f V", adcresult);
//lcd_write(dis_buf);
lcd_write("Hello from Steve's\nLCD stuff");
lcd_clear();
get_NIST();
mcp23s17_enable_interrupts(GPIO_INTERRUPT_PIN);
//mcp23s17_enable_interrupts(SW_GPIO_INTERRUPT_PIN);
cout.setf(ios::fixed);
//=== SET CURRENT TIME ==========================
struct tm *newtime; //--- for time now
time_t long_time; //--- Get time as long integer.
double DeltaT=0.0; //--- time since is in minutes
Observer PLACENTIA={"Yorba Linda",Rad(33.909),Rad(-117.782),30.0,0};
//Observer PHILLY={"Philly",Rad(40.0),Rad(-75.0),0.0,0};
double sdctime;
SATELSET Eset;
SATPOS satpos;
//ELLIPSE myEllipse;
//double SP,JDG,E2JD,JDN;
double JDG,E2JD,JDN;
VectorIJK test,test1; //ptest;
//VectLook testlook;
SATSUB SB;
clock_t goal;
clock_t wait=(clock_t)2 * CLOCKS_PER_SEC; // change the 2 for update rate, 2= about 2 seconds
Read_TLE(argv[1], Eset); // read the 2 line data
do
{
time( &long_time );
newtime=gmtime( &long_time ); // time, expressed as a UTC time, GMT timezone
JDN=JD_Now(newtime); //--- JD based on system clock as GMT
JDG=ThetaG_JD(JDN); //--- in radians
E2JD=Epoch2JD(Eset.iEpochYear,Eset.dEpochDay); //--- JD based on TLE epoch
double local_time=0.0;
double test_time=0.0;
local_time=newtime->tm_yday+1+(newtime->tm_hour+(newtime->tm_min+newtime->tm_sec/60.0)/60.0)/24.0;
test_time=local_time-Eset.dEpochDay;
//cout<<"test_time delta days "<<test_time<<endl;
test_time*=1440.0;
//cout<<"test_time delta minutes "<<test_time<<endl;
/**************************************
local_time minus Eset.dEpochDay matches JDN-E2JD.
And is easier to check and calculate and no need for
all the JD and JD0 code.
*************************************/
sdctime=JDN-E2JD; //--- delta days
sdctime*=1440.0; // delta minutes
//sdctime=fmod(sdctime,60);
//cout<<"Current sdctime "<<sdctime<<endl;
DeltaT=sdctime;
//satpos=SatPos(DeltaT, &Eset); //--- get satellite position
satpos=clean_SatPos(DeltaT, &Eset);
cout<<"=====Satellite ECI position============================\n"<<satpos;
test=Obs_Position(PLACENTIA,JDG); //--- get observer position
//test1=Obs_to_ECI(PHILLY,JDG); //-- test data from TS Kelso
test1=Obs_to_ECI(PLACENTIA,JDG);
testlook=LookAngles(satpos, PLACENTIA,JDG); //--- get look angles
SB= SatSubPoint(satpos,JDG);
cout<<"=====Observer ECI====================\n"<<test1;
cout<<"=====Observer Look angles============\n"<<testlook; // for antenna tracker
cout<<"=====Sat Sub Point===================\n"<<SB;
/// used before
//int s_count=read_convert_register_count(adcp);
//set_count(myPCA.file, 0, 5, s_count); // file channel, start count, end count
/// LCD setup and stuff
adcresult=read_convert_register_volts(adcp);
sprintf(dis_buf, "ADC: %6.3f V", adcresult);
lcd_write(dis_buf);
/// aztovolts is the target reference position
double aztovolts = (Deg(testlook.AZ)) * (3.2/360.0);
/// wtf is the difference of the pot input, adcresults, and reference
double wtf = aztovolts - adcresult; /// double - float
printf("\nVOLTS ADC: %6.3f V\n",adcresult);
printf("AZ Degrees: %6.3f \n",Deg(testlook.AZ));
printf("AZ to volts: %6.3f V\n",aztovolts);
printf("DELTA: %6.3f \n",wtf);
/**
volts 0 1.6 3.2
count 200 320 450
max left no motion max right
1 ms 1.5 ms 2ms
50 hz timing
**/
/// for applying delta Vin
//float PCAcount = (wtf*80)+320; ///this is for 0 - 3.2 Vin
float PCAcount = (wtf*80)+300; ///this is for 0 - 3.2 Vin, 340 from measurements
if(wtf< -1.25)
PCAcount = 240;
else if(wtf> 1.25)
PCAcount = 425;
//set_count(myPCA.file, 0, 5, PCAcount); // file channel, start count, end count
set_count(myPCA.file, 0, 1, PCAcount); // file channel, start count, end count
//set_count(myPCA.file, 1, 1, PCAcount); // file channel, start count, end count
printf("MOTOR count: %6.3f \n",PCAcount);
//#define TRACK 0
//#define LOCATION 1
//#define SATDATA 2
//#define NIST 3
if(display_count < 5)
{
display_control(TRACK, PLACENTIA, SB, Eset, testlook);
display_count++;
LED_off(GPIO_INTERRUPT_PIN);
}
else
{
display_control(LOCATION, PLACENTIA, SB, Eset, testlook);
display_count++;
LED_on(GPIO_INTERRUPT_PIN);
}
if(display_count > 10)
{
display_count = 0;
}
/**
====================
Look angles:visible
AZ:123456 EL:123456
Sat LAT/LONG
LT:123456 LG:123456
====================
Location Yorba Linda
LT:123456 LG:123456
Range: 123456
====================
Tracking:ISS (ZARYA)
Incl:12345
MM: 123456
MA: 123456
**/
/// LCD done
goal = wait + clock();
while( goal > clock() );
#ifdef __linux__
if(ctrl_c_pressed)
{
cout << "Ctrl^C Pressed" << endl;
cout << "unexporting pins" << endl;
//gpio26->unexport_gpio();
//gpio16->unexport_gpio();
mcp23s17_disable_interrupts(GPIO_INTERRUPT_PIN);
//mcp23s17_disable_interrupts(SW_GPIO_INTERRUPT_PIN);
cout << "deallocating GPIO Objects" << endl;
//delete gpio26;
//gpio26 = 0;
//delete gpio16;
//gpio16 =0;
break;
}
#endif // __linux__
}
#ifdef __linux__
while(1);
#elif _WIN32
while(!(_kbhit()));
#else
#endif
//while(1);
//while(!(_kbhit()));
//pthread_exit(NULL);
set_all(myPCA.file, 0, 0); /// kill the servos
lcd_close(); /// kill the LCD
return 0;
}