void mouse(int button, int state, int x, int y)
{
switch (button) {
case GLUT_LEFT_BUTTON:
if (state == GLUT_DOWN) {
resetCount();
dm = DrawXOY;
glutPostRedisplay();
glutSwapBuffers();
}
break;
case GLUT_MIDDLE_BUTTON:
if (state == GLUT_DOWN) {
resetCount();
dm = DrawXOZ;
glutPostRedisplay();
glutSwapBuffers();
}
break;
case GLUT_RIGHT_BUTTON:
if (state == GLUT_DOWN) {
resetCount();
dm = DrawYOZ;
glutPostRedisplay ( );
glutSwapBuffers ( );
}
break;
default:
break;
}
}
void ewol::compositing::Drawing::lineTo(const vec3& _dest) {
resetCount();
internalSetColor(m_color);
//EWOL_VERBOSE("DrawLine : " << m_position << " to " << _dest);
if (m_position.x() == _dest.x() && m_position.y() == _dest.y() && m_position.z() == _dest.z()) {
//EWOL_WARNING("Try to draw a line width 0");
return;
}
//teta = tan-1(oposer/adjacent)
float teta = 0;
if (m_position.x() <= _dest.x()) {
teta = atan((_dest.y()-m_position.y())/(_dest.x()-m_position.x()));
} else {
teta = M_PI + atan((_dest.y()-m_position.y())/(_dest.x()-m_position.x()));
}
if (teta < 0) {
teta += 2*M_PI;
} else if (teta > 2*M_PI) {
teta -= 2*M_PI;
}
//EWOL_DEBUG("teta = " << (teta*180/(M_PI)) << " deg." );
float offsety = sin(teta-M_PI/2) * (m_thickness/2);
float offsetx = cos(teta-M_PI/2) * (m_thickness/2);
setPoint(vec3(m_position.x() - offsetx, m_position.y() - offsety, m_position.z()) );
setPoint(vec3(m_position.x() + offsetx, m_position.y() + offsety, m_position.z()) );
setPoint(vec3(_dest.x() + offsetx, _dest.y() + offsety, m_position.z()) );
setPoint(vec3(_dest.x() + offsetx, _dest.y() + offsety, _dest.z()) );
setPoint(vec3(_dest.x() - offsetx, _dest.y() - offsety, _dest.z()) );
setPoint(vec3(m_position.x() - offsetx, m_position.y() - offsety, _dest.z()) );
// update the system position :
m_position = _dest;
}
void cAlarmData::setTime(OsTime now)
{
// For alarm filtering; if "now" is newer than the threshold, reset counts
if (now-lastTime > TIME_THRESH_OS)
{
resetCount();
};
lastTime=now;
}
void ewol::compositing::Drawing::rectangle(const vec3& _dest) {
resetCount();
internalSetColor(m_color);
/* Bitmap position
* xA xB
* yC *------*
* | |
* | |
* yD *------*
*/
float dxA = m_position.x();
float dxB = _dest.x();
if (dxA > dxB) {
// inverse order :
float tmp = dxA;
dxA = dxB;
dxB = tmp;
}
float dyC = m_position.y();
float dyD = _dest.y();
if (dyC > dyD) {
// inverse order :
float tmp = dyC;
dyC = dyD;
dyD = tmp;
}
if (true == m_clippingEnable) {
if (dxA < m_clippingPosStart.x()) {
dxA = m_clippingPosStart.x();
}
if (dxB > m_clippingPosStop.x()) {
dxB = m_clippingPosStop.x();
}
if (dyC < m_clippingPosStart.y()) {
dyC = m_clippingPosStart.y();
}
if (dyD > m_clippingPosStop.y()) {
dyD = m_clippingPosStop.y();
}
}
if( dyC >= dyD
|| dxA >= dxB) {
return;
}
setPoint(vec3(dxA, dyD, 0) );
setPoint(vec3(dxA, dyC, 0) );
setPoint(vec3(dxB, dyC, 0) );
setPoint(vec3(dxB, dyC, 0) );
setPoint(vec3(dxB, dyD, 0) );
setPoint(vec3(dxA, dyD, 0) );
}
MockTestResult(TestOutput& p) :
TestResult(p)
{
resetCount();
}
void main(){
//Control LEDs
P1_5=0x00;
P1_4=0x00;
P1_3=0x00;
P1_2=0x00;
P1_1=0x00;
P1_0=0xff; // Ready Status
//Byte LEDs
P0_0 = 0x00;
P0_1 = 0x00;
P0_2 = 0x00;
P0_3 = 0x00;
P0_4 = 0x00;
P0_5 = 0x00;
P0_6 = 0x00;
P0_7 = 0x00;
while(1){
if(P3_3 == 0x00 && byteLock <= 2){
currentKey = 1;
inputByte();
}else if(P3_4 == 0x00 && byteLock <= 2){
currentKey = 0;
inputByte();
}else if(P3_6 == 0x00 && byteCount >= 8){
byteCount = 10; //Enter
P1_1=0xff; // busy status on
if(P1_2==0x00){
P1_2=0xff; // byte A ready
byteLock = 1;
resetCount();
}else if(byteLock==1){
P1_3=0xff; // byte B ready
byteLock = 2;
resetCount();
}else if(byteLock==2){
P1_4=0xff; // byte C ready
resetCount();
}
}else if(P3_5 == 0x00 && byteCount == 0){
inputByte();
}else{
P1_1=0x00; // busy status off
db = 0;
}
}
}
void keyboard (unsigned char key, int x, int y)
{
switch (key) {
case (27):
cleanJulia();
exit(0);
case ('w'):
if (eye_z >= 256.) {
eye_x -= 1.0;
eye_z -= 1.0;
}
break;
case ('x'):
if (eye_z <= 512.) {
eye_x += 1.0;
eye_z += 1.0;
}
break;
case ('a'):
rotate_y_angle += 0.5;
if (rotate_y_angle > 360.) {
rotate_y_angle -= 360.0;
}
break;
case ('d'):
rotate_y_angle -= 0.5;
if (rotate_y_angle < 0.) {
rotate_y_angle += 360.0;
}
break;
case ('q'):
rotate_x_angle += 0.5;
if (rotate_x_angle > 360.) {
rotate_x_angle -= 360.0;
}
break;
case ('e'):
rotate_x_angle -= 0.5;
if (rotate_x_angle < 0.) {
rotate_x_angle += 360.;
}
break;
case ('z'):
rotate_z_angle += 0.5;
if (rotate_z_angle > 360.) {
rotate_z_angle -= 360.;
}
break;
case ('c'):
rotate_z_angle -= 0.5;
if (rotate_z_angle < 0.0) {
rotate_z_angle += 360.0;
}
break;
case ('s'):
resetCount();
dm = DrawAll;
break;
default:
break;
}
}
void ewol::compositing::Drawing::circle(float _radius, float _angleStart, float _angleStop) {
resetCount();
if (_radius<0) {
_radius *= -1;
}
_angleStop = _angleStop-_angleStart;
int32_t nbOcurence = _radius;
if (nbOcurence < 10)
{
nbOcurence = 10;
}
// display background :
if (m_colorBg.a()!=0) {
internalSetColor(m_colorBg);
for (int32_t iii=0; iii<nbOcurence; iii++) {
setPoint(vec3(m_position.x(),
m_position.y(),
0) );
float angleOne = _angleStart + (_angleStop* iii / nbOcurence) ;
float offsety = sin(angleOne) * _radius;
float offsetx = cos(angleOne) * _radius;
setPoint(vec3(m_position.x() + offsetx,
m_position.y() + offsety,
0) );
float angleTwo = _angleStart + (_angleStop* (iii+1) / nbOcurence) ;
offsety = sin(angleTwo) * _radius;
offsetx = cos(angleTwo) * _radius;
setPoint(vec3(m_position.x() + offsetx,
m_position.y() + offsety,
0) );
}
}
// show if we have a border :
if( m_thickness == 0
|| m_color.a() == 0) {
return;
}
internalSetColor(m_color);
for (int32_t iii=0; iii<nbOcurence; iii++) {
float angleOne = _angleStart + (_angleStop* iii / nbOcurence) ;
float offsetExty = sin(angleOne) * (_radius+m_thickness/2);
float offsetExtx = cos(angleOne) * (_radius+m_thickness/2);
float offsetInty = sin(angleOne) * (_radius-m_thickness/2);
float offsetIntx = cos(angleOne) * (_radius-m_thickness/2);
float angleTwo = _angleStart + (_angleStop* (iii+1) / nbOcurence );
float offsetExt2y = sin(angleTwo) * (_radius+m_thickness/2);
float offsetExt2x = cos(angleTwo) * (_radius+m_thickness/2);
float offsetInt2y = sin(angleTwo) * (_radius-m_thickness/2);
float offsetInt2x = cos(angleTwo) * (_radius-m_thickness/2);
setPoint(vec3(m_position.x() + offsetIntx, m_position.y() + offsetInty, 0));
setPoint(vec3(m_position.x() + offsetExtx, m_position.y() + offsetExty, 0));
setPoint(vec3(m_position.x() + offsetExt2x, m_position.y() + offsetExt2y, 0));
setPoint(vec3(m_position.x() + offsetExt2x, m_position.y() + offsetExt2y, 0));
setPoint(vec3(m_position.x() + offsetInt2x, m_position.y() + offsetInt2y, 0));
setPoint(vec3(m_position.x() + offsetIntx, m_position.y() + offsetInty, 0));
}
}
