public override GVector GetGVector()
{
int[] outBuffer = new int[3];
DeviceIoControl(ACCReadValues, new int[1] { 0 }, outBuffer);
GVector ret = new GVector();
ret.X = outBuffer[1];
ret.Y = outBuffer[0];
ret.Z = -outBuffer[2];
double samsungScaleFactor = 1.0 / 1000.0 * 9.8 * 3.3793103448275862068965517241379;
return ret.Scale(samsungScaleFactor);
}
public override GVector GetGVector()
{
GVector ret = new GVector();
HTCGSensorData data = GetRawSensorData();
ret.X = data.TiltX;
ret.Y = data.TiltY;
ret.Z = data.TiltZ;
// HTC's Sensor returns a vector which is around 1000 in length on average..
// but it really depends on how the device is oriented.
// When simply face up, my Diamond returns a vector of around 840 in length.
// While face down, it returns a vector of around 1200 in length.
// The vector direction is fairly accurate, however, the length is clearly not extremely precise.
double htcScaleFactor = 1.0 / 1000.0 * 9.8;
return ret.Scale(htcScaleFactor);
}
public override GVector GetGVector()
{
int[] outBuffer = new int[3];
DeviceIoControl(ACCReadValues, new int[1] {
0
}, outBuffer);
GVector ret = new GVector();
ret.X = outBuffer[1];
ret.Y = outBuffer[0];
ret.Z = -outBuffer[2];
double samsungScaleFactor = 1.0 / 1000.0 * 9.8 * 3.3793103448275862068965517241379;
return(ret.Scale(samsungScaleFactor));
}
public override GVector GetGVector()
{
GVector ret = new GVector();
HTCGSensorData data = GetRawSensorData();
ret.X = data.TiltX;
ret.Y = data.TiltY;
ret.Z = data.TiltZ;
// HTC's Sensor returns a vector which is around 1000 in length on average..
// but it really depends on how the device is oriented.
// When simply face up, my Diamond returns a vector of around 840 in length.
// While face down, it returns a vector of around 1200 in length.
// The vector direction is fairly accurate, however, the length is clearly not extremely precise.
double htcScaleFactor = 1.0 / 1000.0 * 9.8;
return(ret.Scale(htcScaleFactor));
}