void Update()
{
if (RUISOVRManager.ovrHmd != null)
{
Vector3 tempSample = Vector3.zero;
Ovr.Posef headpose = RUISOVRManager.ovrHmd.GetTrackingState().HeadPose.ThePose;
float px = headpose.Position.x;
float py = headpose.Position.y;
float pz = -headpose.Position.z; // This needs to be negated TODO: might change with future OVR version
tempSample = new Vector3(px, py, pz);
tempSample = coordinateSystem.ConvertRawOculusDK2Location(tempSample);
Vector3 convertedLocation = coordinateSystem.ConvertLocation(tempSample, RUISDevice.Oculus_DK2);
this.transform.localPosition = convertedLocation;
if (OVRManager.capiHmd != null)
{
try
{
this.transform.localRotation = OVRManager.capiHmd.GetTrackingState().HeadPose.ThePose.Orientation.ToQuaternion();
}
catch (System.Exception e)
{
Debug.LogError(e.Message);
}
}
}
}
private Vector3 getSample(RUISDevice device)
{
Vector3 sample = new Vector3(0, 0, 0);
Vector3 tempSample;
if (device == RUISDevice.Kinect_1)
{
OpenNI.SkeletonJointPosition jointPosition;
bool success = kinectSelection.GetPlayer(0).GetSkeletonJointPosition(OpenNI.SkeletonJoint.RightHand, out jointPosition);
if (success && jointPosition.Confidence >= 0.5)
{
tempSample = coordinateSystem.ConvertRawKinectLocation(jointPosition.Position);
if (Vector3.Distance(tempSample, lastKinectSample) > 0.1)
{
sample = tempSample;
lastKinectSample = sample;
this.guiTextUpperLocal = "";
}
else
{
this.guiTextUpperLocal = "Not enough hand movement.";
}
}
}
if (device == RUISDevice.Oculus_DK2)
{
Ovr.Posef headpose = RUISOVRManager.ovrHmd.GetTrackingState().HeadPose.ThePose;
float px = headpose.Position.x;
float py = headpose.Position.y;
float pz = -headpose.Position.z; // This needs to be negated TODO: might change with future OVR version
tempSample = new Vector3(px, py, pz);
tempSample = coordinateSystem.ConvertRawOculusDK2Location(tempSample);
if ((Vector3.Distance(tempSample, lastOculusDK2Sample) > 0.1) &&
(RUISOVRManager.ovrHmd.GetTrackingState().StatusFlags & (uint)StatusBits.PositionTracked) != 0) // Code from OVRManager.cs
{
sample = tempSample;
lastOculusDK2Sample = sample;
this.guiTextUpperLocal = "";
}
else
{
this.guiTextUpperLocal = "Not enough hand movement.";
}
}
return(sample);
}
private Vector3 getSample(RUISDevice device)
{
Vector3 sample = new Vector3(0, 0, 0);
Vector3 tempSample;
if (device == RUISDevice.Oculus_DK2)
{
Ovr.Posef headpose = RUISOVRManager.ovrHmd.GetTrackingState().HeadPose.ThePose;
float px = headpose.Position.x;
float py = headpose.Position.y;
float pz = -headpose.Position.z; // This needs to be negated TODO: might change with future OVR version
tempSample = new Vector3(px, py, pz);
tempSample = coordinateSystem.ConvertRawOculusDK2Location(tempSample);
if ((Vector3.Distance(tempSample, lastOculusDK2Sample) > 0.1) &&
(RUISOVRManager.ovrHmd.GetTrackingState().StatusFlags & (uint)StatusBits.PositionTracked) != 0)
{
sample = tempSample;
lastOculusDK2Sample = sample;
this.guiTextUpperLocal = "";
}
else
{
this.guiTextUpperLocal = "Not enough hand movement.";
}
}
if (device == RUISDevice.PS_Move)
{
if (psMoveWrapper.sphereVisible[calibratingPSMoveControllerId] &&
psMoveWrapper.handleVelocity[calibratingPSMoveControllerId].magnitude <= 10.0f)
{
tempSample = coordinateSystem.ConvertRawPSMoveLocation(psMoveWrapper.handlePosition[calibratingPSMoveControllerId]);
if (Vector3.Distance(tempSample, lastPSMoveSample) > 0.1)
{
sample = tempSample;
lastPSMoveSample = sample;
this.guiTextUpperLocal = "";
}
else
{
this.guiTextUpperLocal = "Not enough hand movement.";
}
}
}
return(sample);
}
private static extern void ovrHmd_GetEyeTimewarpMatrices( IntPtr hmd, Eye eye, Posef renderPose, [MarshalAs(UnmanagedType.LPArray, SizeConst = 2)] [Out] Matrix4f_Raw[] twnOut);
/// <summary>
/// Computes timewarp matrices used by distortion mesh shader, these are used to adjust
/// for head orientation change since the last call to ovrHmd_GetEyePoses
/// when rendering this eye. The ovrDistortionVertex::TimeWarpFactor is used to blend between the
/// matrices, usually representing two different sides of the screen.
/// Must be called on the same thread as ovrHmd_BeginFrameTiming.
/// </summary>
public Matrix4f[] GetEyeTimewarpMatrices(Eye eye, Posef renderPose)
{
Matrix4f_Raw[] rawMats = {new Matrix4f_Raw(), new Matrix4f_Raw()};
ovrHmd_GetEyeTimewarpMatrices(HmdPtr, eye, renderPose, rawMats);
Matrix4f[] mats = {new Matrix4f(rawMats[0]), new Matrix4f(rawMats[1])};
return mats;
}
/// <summary>
/// Ends a frame, submitting the rendered textures to the frame buffer.
/// - RenderViewport within each eyeTexture can change per frame if necessary.
/// - 'renderPose' will typically be the value returned from ovrHmd_GetEyePoses,
/// ovrHmd_GetHmdPosePerEye but can be different if a different head pose was
/// used for rendering.
/// - This may perform distortion and scaling internally, assuming is it not
/// delegated to another thread.
/// - Must be called on the same thread as BeginFrame.
/// - *** This Function will call Present/SwapBuffers and potentially wait for GPU Sync ***.
/// </summary>
public void EndFrame(Posef[] renderPose, Texture[] eyeTexture)
{
Texture_Raw[] raw = new Texture_Raw[eyeTexture.Length];
for (int i = 0; i < eyeTexture.Length; i++)
{
raw[i] = eyeTexture[i].ToRaw();
}
ovrHmd_EndFrame(HmdPtr, renderPose, raw);
}
private Vector3 getSample(RUISDevice device)
{
Vector3 sample = new Vector3(0, 0, 0);
Vector3 tempSample;
updateBodyData();
if (device == RUISDevice.Kinect_2)
{
Kinect.Body[] data = kinect2SourceManager.GetBodyData();
bool trackedBodyFound = false;
int foundBodies = 0;
foreach (var body in data)
{
foundBodies++;
if (body.IsTracked)
{
if (trackingIDtoIndex[body.TrackingId] == 0)
{
trackedBodyFound = true;
if (body.Joints[Kinect.JointType.HandRight].TrackingState == Kinect.TrackingState.Tracked)
{
tempSample = new Vector3(body.Joints[Kinect.JointType.HandRight].Position.X,
body.Joints[Kinect.JointType.HandRight].Position.Y,
body.Joints[Kinect.JointType.HandRight].Position.Z);
tempSample = coordinateSystem.ConvertRawKinect2Location(tempSample);
if (Vector3.Distance(tempSample, lastKinect2Sample) > 0.1)
{
sample = tempSample;
lastKinect2Sample = sample;
device1Error = false;
if (!device2Error)
{
this.guiTextUpperLocal = "";
}
}
else
{
device1Error = true;
this.guiTextUpperLocal = "Not enough hand movement.";
}
}
}
}
}
if (!trackedBodyFound && foundBodies > 1)
{
device1Error = true;
this.guiTextUpperLocal = "Step out of the Kinect's\nview and come back.";
}
}
if (device == RUISDevice.Oculus_DK2)
{
Ovr.Posef headpose = RUISOVRManager.ovrHmd.GetTrackingState().HeadPose.ThePose;
float px = headpose.Position.x;
float py = headpose.Position.y;
float pz = -headpose.Position.z; // This needs to be negated TODO: might change with future OVR version
tempSample = new Vector3(px, py, pz);
tempSample = coordinateSystem.ConvertRawOculusDK2Location(tempSample);
if ((Vector3.Distance(tempSample, lastOculusDK2Sample) > 0.1) &&
(RUISOVRManager.ovrHmd.GetTrackingState().StatusFlags & (uint)StatusBits.PositionTracked) != 0) // Code from OVRManager.cs
{
sample = tempSample;
lastOculusDK2Sample = sample;
device2Error = false;
if (!device1Error)
{
this.guiTextUpperLocal = "";
}
}
else
{
device2Error = true;
this.guiTextUpperLocal = "Not enough hand movement.";
}
}
return(sample);
}
private static extern void ovrHmd_GetEyeTimewarpMatricesDebug(
IntPtr hmd,
Eye eye,
Posef renderPose,
Quatf extraQuat,
[MarshalAs(UnmanagedType.LPArray, SizeConst = 2)]
[Out] Matrix4f_Raw[] twnOut,
double debugTimingOffsetInSeconds);
public Matrix4f[] GetEyeTimewarpMatricesDebug(Eye eye, Posef renderPose, Quatf extraQuat, double debugTimingOffsetInSeconds)
{
Matrix4f_Raw[] rawMats = {new Matrix4f_Raw(), new Matrix4f_Raw()};
ovrHmd_GetEyeTimewarpMatricesDebug(HmdPtr, eye, renderPose, extraQuat, rawMats, debugTimingOffsetInSeconds);
Matrix4f[] mats = {new Matrix4f(rawMats[0]), new Matrix4f(rawMats[1])};
return mats;
}