void localMotion(EasyInput.Core.Motion motion)
{
userAccelXValue.text = motion.currentRawUserAcceleration.x.ToString();
userAccelYValue.text = motion.currentRawUserAcceleration.y.ToString();
userAccelZValue.text = motion.currentRawUserAcceleration.z.ToString();
gravityXValue.text = motion.currentRawGravity.x.ToString();
gravityYValue.text = motion.currentRawGravity.y.ToString();
gravityZValue.text = motion.currentRawGravity.z.ToString();
smoothUserAccelXValue.text = motion.currentSmoothedUserAcceleration.x.ToString();
smoothUserAccelYValue.text = motion.currentSmoothedUserAcceleration.y.ToString();
smoothUserAccelZValue.text = motion.currentSmoothedUserAcceleration.z.ToString();
smoothGravityXValue.text = motion.currentSmoothedGravity.x.ToString();
smoothGravityYValue.text = motion.currentSmoothedGravity.y.ToString();
smoothGravityZValue.text = motion.currentSmoothedGravity.z.ToString();
velocityXValue.text = motion.currentVelocity.x.ToString();
velocityYValue.text = motion.currentVelocity.y.ToString();
velocityZValue.text = motion.currentVelocity.z.ToString();
positionXValue.text = motion.currentRelativePositionSinceReset.x.ToString();
positionYValue.text = motion.currentRelativePositionSinceReset.y.ToString();
positionZValue.text = motion.currentRelativePositionSinceReset.z.ToString();
orientationXValue.text = motion.currentOrientation.x.ToString();
orientationYValue.text = motion.currentOrientation.y.ToString();
orientationZValue.text = motion.currentOrientation.z.ToString();
rotationXValue.text = motion.currentRotationRate.x.ToString();
rotationYValue.text = motion.currentRotationRate.y.ToString();
rotationZValue.text = motion.currentRotationRate.z.ToString();
totVelocityXValue.text = motion.totalVelocitySinceReset.x.ToString();
totVelocityYValue.text = motion.totalVelocitySinceReset.y.ToString();
totVelocityZValue.text = motion.totalVelocitySinceReset.z.ToString();
totRotationXValue.text = motion.totalRotationRateSinceReset.x.ToString();
totRotationYValue.text = motion.totalRotationRateSinceReset.y.ToString();
totRotationZValue.text = motion.totalRotationRateSinceReset.z.ToString();
}
void trackThrow(EasyInput.Core.Motion motion)
{
if (throwInProcess)
{
//there are a couple of factors that you see in a bowling motion if you look at the telemetry
//left or right handed can be determined from the x axis user acceleration during the backswing (doesn't matter in this demo but if we had animation of a player could be used for that)
//hardness of throw can use the user acceleration z axis during the forward swing (higher value harder throw)
//spin can be determined from the x and z axis during forward part of the throw
//aim of shot is the hardest as some drift will have already occured (the aim is really only dictated by
//the direction going the last few frames before release of the button) best place to gauge this is the velocity
//vector but there will have been some drift and in tests the sensors on board aren't good enough
//so instead user will actually pick aim before throw
//base hardness off current velocity.z (light throw tends to be around 1.0 and really hard around 3.0)
//in terms of the game the lightest throw should be 450 and the hardest be 700
if (motion.totalVelocitySinceReset.magnitude > 10f)
{
currentThrow.z = 365f + (85f * motion.currentVelocity.z);
}
else
{
//we hit and released the button but we didn't really do the motion
currentThrow.z = 10f;
}
//calculate the x component off the previously detemined aim (degreesOff)
currentThrow.x = degreesOff * (currentThrow.z / 100);
//base spin off of currentorientation.x (none = < 5f)
if (motion.currentOrientation.x < 20f && motion.currentOrientation.x > -20f)
{
currentTorque.z = 0f;
}
else
{
currentTorque.z = motion.currentOrientation.x / 8f;
}
}
else if (!throwInProcess && !preventThrowAgain)
{
if (motion.currentOrientation.x < aimDegreesClamp && motion.currentOrientation.x > -aimDegreesClamp)
{
temp = aimArrow.localRotation.eulerAngles;
temp.y = 270f - motion.currentOrientation.x;
aimArrow.localRotation = Quaternion.Euler(temp);
//aim will get expressed in the x component of currentThrow and is a percentage of the z component
//number of degrees of aim arrow is rotation times current throw z component divided by 100
//we won't know the z component until we throw the ball
degreesOff = aimArrow.localRotation.eulerAngles.y - 270f;
}
}
}