uint16_t Buzzer::getError(uint16_t time)
{
uint16_t val = time/10;
uint16_t v = val%40;
uint16_t t = val/40;
if(t > 10)
return setOff();
return wave(v, 20);
}
uint16_t Buzzer::getProgramComplete(uint16_t time)
{
uint16_t val = time/10;
uint16_t v = val%40;
uint16_t t = val/40;
if(t > 10)
return setOff();
return wave(v, 20);
}
void HueOutputLightRGB::setColorReal(const ColorValue &c, bool s)
{
if (!s)
{
cDebugDom("hue") << "State OFF ";
setOff();
}
else
{
cDebugDom("hue") << "Hue color: " << c.toString();
setColor(c);
}
}
void glowButton::toggle( )
{
if( state )
{
state = FALSE;
setOff();
}
else
{
state = TRUE;
setOn();
}
}
status_t BnLedService::onTransact(
uint32_t code, const Parcel& data, Parcel* reply, uint32_t flags)
{
switch(code) {
case CONNECT: {
CHECK_INTERFACE(ILedService, data, reply);
return NO_ERROR;
} break;
case LED_ON:
CHECK_INTERFACE(ILedService, data, reply);
int n = data.readInt32();//
status_t result = setOn(n);//
reply->writeInt32(result);//
return NO_ERROR;//
case LED_OFF://
CHECK_INTERFACE(ILedService, data, reply);//
int n = data.readInt32();//
status_t result = setOff(n);//
reply->writeInt32(result);//
return NO_ERROR;//
default:
return BBinder::onTransact(code, data, reply, flags);
}
}
void LED::toggle()
{
isOn() ? setOff() : setOn();
}
// @todo industrialize with Button::onTouch()
bool Toggle::onTouch( TouchEvent event )
{
// if the Toggle is disabled
// we ignore this touch event
if( _state == State::DISABLED )
{
return false;
}
// if the touch event is a CANCEL event
// we just release the Toggle and return
// without consuming the touch event
if (event.getType() == TouchEvent::Type::CANCEL)
{
release();
return false;
}
bool result = false;
// get event data
const TouchEvent::Type eventType = event.getType();
const float eventX = event.getX();
const float eventY = event.getY();
// get this Toggle's bounding box
px::tools::Rect bb = getBoundingBox();
// add the GUI touch margin to the bounding box
bb.setX(bb.getX() - guiButtonTouchMargin);
bb.setY(bb.getY() - guiButtonTouchMargin);
bb.setWidth(bb.getWidth() + 2*guiButtonTouchMargin);
bb.setHeight(bb.getHeight() + 2*guiButtonTouchMargin);
// test if touch event is on the Toggle
if(eventX > bb.getX() && eventX < bb.getX()+bb.getWidth() &&
eventY > bb.getY() && eventY < bb.getY()+bb.getHeight())
{
// event is on the Toggle
// in this case we test only touch DOWN and UP
if( eventType == TouchEvent::Type::DOWN )
{
// we push the Toggle
press();
// we consume the touch event
result = true;
}
else if( eventType == TouchEvent::Type::UP )
{
// Toggle receives a touch up event on it
// but it may be not pushed at this time
// if it was pushed, it's a click action
// if it wasn't it does nothing
if( _state == State::PRESSED )
{
if(_on)
setOff();
else
setOn();
// this is a click action
clickCallback();
// we consume the touch event
result = true;
}
// in both cases, Toggle isn't pushed anymore
release();
}
}
else
{
// event is not on this Toggle object
if( eventType == TouchEvent::Type::UP )
{
// Toggle is no more down, it's a click cancel action
// PXLLOG("Toggle touch UP cancel");
release();
// we do not consume this event because it wasn't on the Toggle
}
}
return result;
}
void ElidedLabel::setHasOffMode(bool v)
{
_hasOffMode = v;
setOff(false);
}
LockController::LockController(const char *name, int flags):Controller(name,flags)
{
setOff();
kind = LOCK_TAG;
}
void Led::toggle()
{
ledIsOn ? setOff() : setOn();
}
Relay::Relay(int mypin) {
pin = mypin;
pinMode(pin, OUTPUT);
setOff();
}
/** Configure a feature for the currently open device.
*
* @pre feature_set_ initialized
*
* @param feature desired feature number
* @param control [in,out] pointer to control parameter (may change)
* @param value [in,out] pointer to requested parameter value (may
* change depending on device restrictions)
* @param value2 [in,out] optional pointer to second parameter value
* for white balance (may change depending on device
* restrictions). No second value if NULL pointer.
*
* The parameter values are represented as double despite the fact
* that most features on most cameras only allow unsigned 12-bit
* values. The exception is the rare feature that supports
* "absolute" values in 32-bit IEEE float format. Double can
* represent all possible option values accurately.
*/
void Features::configure(dc1394feature_t feature, int *control,
double *value, double *value2)
{
// device-relevant information for this feature
dc1394feature_info_t *finfo =
&feature_set_.feature[feature - DC1394_FEATURE_MIN];
if (!finfo->available) // feature not available?
{
*control = camera1394::Camera1394_None;
return;
}
switch (*control)
{
case camera1394::Camera1394_Off:
setOff(finfo);
break;
case camera1394::Camera1394_Query:
getValues(finfo, value, value2);
break;
case camera1394::Camera1394_Auto:
if (!setMode(finfo, DC1394_FEATURE_MODE_AUTO))
{
setOff(finfo);
}
break;
case camera1394::Camera1394_Manual:
if (!setMode(finfo, DC1394_FEATURE_MODE_MANUAL))
{
setOff(finfo);
break;
}
// TODO: break this into some internal methods
if (finfo->absolute_capable && finfo->abs_control)
{
// supports reading and setting float value
float fmin, fmax;
if (DC1394_SUCCESS ==
dc1394_feature_get_absolute_boundaries(camera_, feature,
&fmin, &fmax))
{
// clamp *value between minimum and maximum
if (*value < fmin)
*value = (double) fmin;
else if (*value > fmax)
*value = (double) fmax;
}
else
{
ROS_WARN_STREAM("failed to get feature "
<< featureName(feature) << " boundaries ");
}
// @todo handle absolute White Balance values
float fval = *value;
if (DC1394_SUCCESS !=
dc1394_feature_set_absolute_value(camera_, feature, fval))
{
ROS_WARN_STREAM("failed to set feature "
<< featureName(feature) << " to " << fval);
}
}
else // no float representation
{
// round requested value to nearest integer
*value = rint(*value);
// clamp *value between minimum and maximum
if (*value < finfo->min)
*value = (double) finfo->min;
else if (*value > finfo->max)
*value = (double) finfo->max;
dc1394error_t rc;
uint32_t ival = (uint32_t) *value;
// handle White Balance, which has two components
if (feature == DC1394_FEATURE_WHITE_BALANCE)
{
*value2 = rint(*value2);
// clamp *value2 between same minimum and maximum
if (*value2 < finfo->min)
*value2 = (double) finfo->min;
else if (*value2 > finfo->max)
*value2 = (double) finfo->max;
uint32_t ival2 = (uint32_t) *value2;
rc = dc1394_feature_whitebalance_set_value(camera_, ival, ival2);
}
else
{
// other features only have one component
rc = dc1394_feature_set_value(camera_, feature, ival);
}
if (rc != DC1394_SUCCESS)
{
ROS_WARN_STREAM("failed to set feature "
<< featureName(feature) << " to " << ival);
}
}
break;
case camera1394::Camera1394_OnePush:
// Try to set OnePush mode
setMode(finfo, DC1394_FEATURE_MODE_ONE_PUSH_AUTO);
// Now turn the control off, so camera does not continue adjusting
setOff(finfo);
break;
case camera1394::Camera1394_None:
// Invalid user input, because this feature actually does exist.
ROS_INFO_STREAM("feature " << featureName(feature)
<< " exists, cannot set to None");
break;
default:
ROS_WARN_STREAM("unknown state (" << *control
<<") for feature " << featureName(feature));
}
// return actual state reported by the device
*control = getState(finfo);
ROS_DEBUG_STREAM("feature " << featureName(feature)
<< " now in state " << *control);
}