/**
* <summary>
* This constructor takes a TuioPoint argument and sets its coordinate attributes
* to the coordinates of the provided TuioPoint and its time stamp to the current session time.</summary>
*
* <param name="tpoint">the TuioPoint to assign</param>
*/
public TuioPoint(TuioPoint tpoint)
{
xpos = tpoint.X;
ypos = tpoint.Y;
currentTime = TuioTime.SessionTime;
startTime = new TuioTime(currentTime);
}
/**
* Takes a TuioTime argument and assigns it along with the provided
* X and Y coordinate to the private TuioContainer attributes.
* The speed and accleration values are calculated accordingly.
*
* @param ttime the TuioTime to assign
* @param xp the X coordinate to assign
* @param yp the Y coordinate to assign
*/
public new void update(TuioTime ttime, float xp, float yp)
{
TuioPoint lastPoint = path[path.Count - 1];
base.update(ttime, xp, yp);
TuioTime diffTime = currentTime - lastPoint.getTuioTime();
float dt = diffTime.getTotalMilliseconds() / 1000.0f;
float dx = this.xpos - lastPoint.getX();
float dy = this.ypos - lastPoint.getY();
float dist = (float)Math.Sqrt(dx * dx + dy * dy);
float last_motion_speed = this.motion_speed;
this.x_speed = dx / dt;
this.y_speed = dy / dt;
this.motion_speed = dist / dt;
this.motion_accel = (motion_speed - last_motion_speed) / dt;
path.Add(new TuioPoint(currentTime, xpos, ypos));
if (motion_accel > 0)
{
state = TUIO_ACCELERATING;
}
else if (motion_accel < 0)
{
state = TUIO_DECELERATING;
}
else
{
state = TUIO_STOPPED;
}
}
/**
* <summary>
* Takes a TuioTime argument and assigns it along with the provided
* X and Y coordinate and angle to the private TuioBlob attributes.
* The speed and accleration values are calculated accordingly.</summary>
*
* <param name="ttime">the TuioTime to assign</param>
* <param name="xp">the X coordinate to assign</param>
* <param name="yp">the Y coordinate to assign</param>
* <param name="a">the angle coordinate to assign</param>
* <param name="w">the width to assign</param>
* <param name="h">the height to assign</param>
* <param name="f">the area to assign</param>
*/
public void update(TuioTime ttime, float xp, float yp, float a, float w, float h, float f)
{
TuioPoint lastPoint = path[path.Count - 1];
base.update(ttime, xp, yp);
width = w;
height = h;
area = f;
TuioTime diffTime = currentTime - lastPoint.TuioTime;
float dt = diffTime.TotalMilliseconds / 1000.0f;
float last_angle = angle;
float last_rotation_speed = rotation_speed;
angle = a;
float da = (angle - last_angle) / (2.0f * (float)Math.PI);
if (da > 0.75f)
{
da -= 1.0f;
}
else if (da < -0.75f)
{
da += 1.0f;
}
rotation_speed = da / dt;
rotation_accel = (rotation_speed - last_rotation_speed) / dt;
if ((rotation_accel != 0) && (state != TUIO_STOPPED))
{
state = TUIO_ROTATING;
}
}
public float getAngle(TuioPoint tuioPoint)
{
float side = tuioPoint.getX()-xpos;
float height = tuioPoint.getY()-ypos;
float distance = tuioPoint.getDistance(xpos,ypos);
float angle = (float)(Math.Asin(side/distance)+Math.PI/2);
if (height<0) angle = 2.0f*(float)Math.PI-angle;
return angle;
}
/**
* <summary>
* Takes a TuioTime argument and assigns it along with the provided
* X and Y coordinate to the private TuioContainer attributes.
* The speed and accleration values are calculated accordingly.</summary>
* <param name="ttime">the TuioTime to assign</param>
* <param name="xp">the X coordinate to assign</param>
* <param name="yp">the Y coordinate to assign</param>
*/
public new void update(TuioTime ttime, float xp, float yp)
{
TuioPoint lastPoint = path.Last.Value;
base.update(ttime, xp, yp);
TuioTime diffTime = currentTime - lastPoint.TuioTime;
float dt = diffTime.TotalMilliseconds / 1000.0f;
float dx = this.xpos - lastPoint.X;
float dy = this.ypos - lastPoint.Y;
float dist = (float)Math.Sqrt(dx * dx + dy * dy);
float last_motion_speed = this.motion_speed;
this.x_speed = dx / dt;
this.y_speed = dy / dt;
this.motion_speed = dist / dt;
this.motion_accel = (motion_speed - last_motion_speed) / dt;
if (motion_accel > 0)
{
state = TUIO_ACCELERATING;
}
else if (motion_accel < 0)
{
state = TUIO_DECELERATING;
}
else
{
state = TUIO_STOPPED;
}
lock (path) {
path.AddLast(new TuioPoint(currentTime, xpos, ypos));
if (path.Count > 128)
{
path.RemoveFirst();
}
}
}
/**
* <summary>
* Takes a TuioPoint argument and updates its coordinate attributes
* to the coordinates of the provided TuioPoint and leaves its time stamp unchanged.</summary>
*
* <param name="tpoint">the TuioPoint to assign</param>
*/
public void update(TuioPoint tpoint)
{
xpos = tpoint.X;
ypos = tpoint.Y;
}
/**
* Takes a TuioTime argument and assigns it along with the provided
* X and Y coordinate to the private TuioContainer attributes.
* The speed and accleration values are calculated accordingly.
*
* @param ttime the TuioTime to assign
* @param xp the X coordinate to assign
* @param yp the Y coordinate to assign
*/
public new void update(TuioTime ttime, float xp, float yp)
{
lastPoint = path[path.Count - 1];
if (path.Count > 1)
lastLastPoint = path[path.Count - 2];
base.update(ttime, xp, yp);
TuioTime diffTime = currentTime - lastPoint.getTuioTime();
float dt = diffTime.getTotalMilliseconds() / 1000.0f;
float dx = this.xpos - lastPoint.getX();
float dy = this.ypos - lastPoint.getY();
float dist = (float)Math.Sqrt(dx * dx + dy * dy);
float last_motion_speed = this.motion_speed;
this.x_speed = dx / dt;
this.y_speed = dy / dt;
this.motion_speed = dist / dt;
this.motion_accel = (motion_speed - last_motion_speed) / dt;
lock (pathSync)
{
path.Add(new TuioPoint(currentTime, xpos, ypos));
}
if (motion_accel > 0) state = TUIO_ACCELERATING;
else if (motion_accel < 0) state = TUIO_DECELERATING;
else state = TUIO_STOPPED;
this.trimPath();
}
/**
* This constructor takes a TuioPoint argument and sets its coordinate attributes
* to the coordinates of the provided TuioPoint and its time stamp to the current session time.
*
* @param tpoint the TuioPoint to assign
*/
public TuioPoint(TuioPoint tpoint)
{
xpos = tpoint.getX();
ypos = tpoint.getY();
currentTime = TuioTime.getSessionTime();
}
public TuioPoint(TuioPoint p)
{
this.xpos = p.getX();
this.ypos = p.getY();
timestamp = TUIO_UNDEFINED;
}
/**
* Assigns the provided X and Y coordinate, X and Y velocity and acceleration
* to the private TuioContainer attributes. The TuioTime time stamp remains unchanged.
*
* @param xp the X coordinate to assign
* @param yp the Y coordinate to assign
* @param xs the X velocity to assign
* @param ys the Y velocity to assign
* @param ma the acceleration to assign
*/
public void update(float xp, float yp, float xs, float ys, float ma)
{
lastPoint = path[path.Count - 1];
if (path.Count > 1)
lastLastPoint = path[path.Count - 2];
base.update(xp, yp);
x_speed = xs;
y_speed = ys;
motion_speed = (float)Math.Sqrt(x_speed * x_speed + y_speed * y_speed);
motion_accel = ma;
lock (pathSync)
{
path.Add(new TuioPoint(currentTime, xpos, ypos));
}
if (motion_accel > 0) state = TUIO_ACCELERATING;
else if (motion_accel < 0) state = TUIO_DECELERATING;
else state = TUIO_STOPPED;
this.trimPath();
}
/**
* <summary>
* Returns the distance to the provided TuioPoint</summary>
*
* <param name="tpoint">the distant TuioPoint</param>
* <returns>the distance to the provided TuioPoint</returns>
*/
public float getDistance(TuioPoint tpoint)
{
return getDistance(tpoint.X, tpoint.Y);
}
/// <summary>
/// Checks all current TuioCursors for button presses, and invokes actions if needed.
/// </summary>
private void CheckTuioCursors()
{
foreach (TuioCursor tcur in tuioCursors.Values)
{
int pathCount = tcur.getPath().Count();
// Ignore abnormally long paths
if (pathCount < 100)
{
List<TuioPoint> path;
path = tcur.getPath();
//Debug.WriteLine("Path count: " + path.Count());
// Check to see if cursor has been around long enough, if it started on a button, and is currently on a button
TuioPoint firstPoint = path.First();
TuioPoint lastPoint = path.Last();
long firstTime = firstPoint.getTuioTime().getTotalMilliseconds();
long lastTime;
//// Use the last point in the path as the time of the last point
//lastTime = lastPoint.getTuioTime().getTotalMilliseconds();
//// If tuio cursor is about to be removed, use the current time as the time of the last point
//if (tuioCursorRemoveQueue.Contains(tcur))
//{
// lastTime = TuioTime.getSystemTime().getTotalMilliseconds();
//}
// Use the current time as the time of the last point
lastTime = TuioTime.getSystemTime().getTotalMilliseconds();
//Debug.WriteLine("Tuio cursor path count: " + path.Count());
ZoomCircle firstButtonZoomCircle, lastButtonZoomCircle;
string firstButtonName, lastButtonName;
WouldPushButton(firstPoint, out firstButtonZoomCircle, out firstButtonName);
WouldPushButton(lastPoint, out lastButtonZoomCircle, out lastButtonName);
// Calculate average of all path points
float averageX = 0, averageY = 0;
TuioPoint[] pathArray = new TuioPoint[pathCount];
path.CopyTo(0, pathArray, 0, pathCount); // Copy to a new array before enumerating to avoid concurrency issues
foreach (TuioPoint tpoint in pathArray)
{
averageX += tpoint.getScreenX(Settings.RESOLUTION_X);
averageY += tpoint.getScreenY(Settings.RESOLUTION_Y);
}
averageX /= path.Count;
averageY /= path.Count;
// Check to see if touch starts and ends on a button and lasted long enough
if (firstButtonZoomCircle == lastButtonZoomCircle && firstButtonName == lastButtonName && lastTime - firstTime > Settings.INPUT_TOUCH_TIME)
{
switch (firstButtonName)
{
case "tab1":
firstButtonZoomCircle.AttachedGuide.
Tab1ButtonPressed();
break;
case "tab2":
firstButtonZoomCircle.AttachedGuide.Tab2ButtonPressed();
break;
case "tab3":
firstButtonZoomCircle.AttachedGuide.Tab3ButtonPressed();
break;
case "tab4":
firstButtonZoomCircle.AttachedGuide.Tab4ButtonPressed();
break;
case "close":
if (!Settings.INPUT_SWIPES_ONLY)
firstButtonZoomCircle.AttachedGuide.CloseButtonPressed();
break;
case "open":
if (!Settings.INPUT_SWIPES_ONLY)
firstButtonZoomCircle.AttachedGuide.OpenButtonPressed(IsUpsideDown(tcur));
break;
}
}
// Check if touch started on a swipable button, and was swiped in the appropriate direction
else if (firstButtonName == "close" || firstButtonName == "open")
{
// Pass average of path to ZoomCircle for it to check
firstButtonZoomCircle.AttachedGuide.CheckButtonSwipe(firstButtonName, averageX, averageY, IsUpsideDown(tcur));
}
}
}
}
/**
* <summary>
* This constructor takes a TuioPoint argument and sets its coordinate attributes
* to the coordinates of the provided TuioPoint and its time stamp to the current session time.</summary>
*
* <param name="tpoint">the TuioPoint to assign</param>
*/
public TuioPoint(TuioPoint tpoint)
{
xpos = tpoint.X;
ypos = tpoint.Y;
currentTime = TuioTime.SessionTime;
startTime = new TuioTime(currentTime);
}
/**
* <summary>
* Returns the angle to the provided TuioPoint</summary>
*
* <param name="tpoint">the distant TuioPoint</param>
* <returns>the angle to the provided TuioPoint</returns>
*/
public float getAngle(TuioPoint tpoint)
{
return getAngle(tpoint.X, tpoint.Y);
}
public TuioPoint(TuioPoint p)
{
this.xpos = p.getX();
this.ypos = p.getY();
}
public void update(TuioPoint p)
{
this.xpos = p.getX();
this.ypos = p.getY();
}
/**
* This constructor takes a TuioPoint argument and sets its coordinate attributes
* to the coordinates of the provided TuioPoint and its time stamp to the current session time.
*
* @param tpoint the TuioPoint to assign
*/
public TuioPoint(TuioPoint tpoint)
{
xpos = tpoint.getX();
ypos = tpoint.getY();
currentTime = TuioTime.getSessionTime();
}
/**
* <summary>
* Returns the distance to the provided TuioPoint</summary>
*
* <param name="tpoint">the distant TuioPoint</param>
* <returns>the distance to the provided TuioPoint</returns>
*/
public float getDistance(TuioPoint tpoint)
{
return(getDistance(tpoint.X, tpoint.Y));
}
public float getAngleDegrees(TuioPoint tuioPoint)
{
return (getAngle(tuioPoint)/(float)Math.PI)*180.0f;
}
/**
* <summary>
* Returns the angle to the provided TuioPoint</summary>
*
* <param name="tpoint">the distant TuioPoint</param>
* <returns>the angle to the provided TuioPoint</returns>
*/
public float getAngle(TuioPoint tpoint)
{
return(getAngle(tpoint.X, tpoint.Y));
}
/**
* Takes a TuioPoint argument and updates its coordinate attributes
* to the coordinates of the provided TuioPoint and leaves its time stamp unchanged.
*
* @param tpoint the TuioPoint to assign
*/
public void update(TuioPoint tpoint)
{
xpos = tpoint.getX();
ypos = tpoint.getY();
}
// Check each ZoomedCircle to see if cursor pressed a button
/// <summary>
/// Check all ZoomCircles to see if cursor pressed a button
/// </summary>
/// <param name="tcur">The cursor to check against all ZoomCircles and their buttons</param>
/// <returns>Returns a tuple consisting of a ZoomCircle, and a text description of which button on that ZoomCircle the cursor would press. Otherwise, null and emptry string.</returns>
public void WouldPushButton(TuioPoint tPoint, out ZoomCircle outZoomCircle, out string outButtonName)
{
// Check each ZoomedCircle to see if cursor pressed a button
Vector2 cursorPosition = new Vector2(tPoint.getScreenX(Settings.RESOLUTION_X), tPoint.getScreenY(Settings.RESOLUTION_Y));
foreach (ZoomCircle zoomedCircle in zoomedCircles.Values)
{
Vector2 openButtonPosition, closeButtonPosition, tab1, tab2, tab3, tab4;
if (zoomedCircle.AttachedGuide.IsLeftward)
{
openButtonPosition = Settings.CALLOUT_OPEN_BUTTON_LEFT;
closeButtonPosition = Settings.CALLOUT_CLOSE_BUTTON_LEFT;
if (zoomedCircle.AttachedGuide.IsUpsideDown)
{
tab1 = -Settings.CALLOUT_TAB1_BUTTON;
tab2 = -Settings.CALLOUT_TAB2_BUTTON;
tab3 = -Settings.CALLOUT_TAB3_BUTTON;
tab4 = -Settings.CALLOUT_TAB4_BUTTON;
}
else
{
tab1 = Settings.CALLOUT_TAB1_BUTTON_LEFT;
tab2 = Settings.CALLOUT_TAB2_BUTTON_LEFT;
tab3 = Settings.CALLOUT_TAB3_BUTTON_LEFT;
tab4 = Settings.CALLOUT_TAB4_BUTTON_LEFT;
}
}
else
{
openButtonPosition = Settings.CALLOUT_OPEN_BUTTON;
closeButtonPosition = Settings.CALLOUT_CLOSE_BUTTON;
if (zoomedCircle.AttachedGuide.IsUpsideDown)
{
tab1 = -Settings.CALLOUT_TAB1_BUTTON_LEFT;
tab2 = -Settings.CALLOUT_TAB2_BUTTON_LEFT;
tab3 = -Settings.CALLOUT_TAB3_BUTTON_LEFT;
tab4 = -Settings.CALLOUT_TAB4_BUTTON_LEFT;
}
else
{
tab1 = Settings.CALLOUT_TAB1_BUTTON;
tab2 = Settings.CALLOUT_TAB2_BUTTON;
tab3 = Settings.CALLOUT_TAB3_BUTTON;
tab4 = Settings.CALLOUT_TAB4_BUTTON;
}
}
if (zoomedCircle.AttachedGuide.CurrentState == Guide.GuideState.CLOSED)
{
Vector2 differenceVector = cursorPosition - zoomedCircle.position - openButtonPosition;
// If within a certain radius, trigger callout opening for the matched circle
if ((int)differenceVector.Length() <= Settings.CALLOUT_DETECTION_RADIUS)
{
outZoomCircle = zoomedCircle;
outButtonName = "open";
return;
}
//Debug.WriteLine(differenceVector.Length());
}
else if (zoomedCircle.AttachedGuide.CurrentState == Guide.GuideState.OPEN)
{
Vector2 differenceVector = cursorPosition - zoomedCircle.position - closeButtonPosition;
if ((int)differenceVector.Length() <= Settings.CALLOUT_DETECTION_RADIUS)
{
outZoomCircle = zoomedCircle;
outButtonName = "close";
return;
}
differenceVector = cursorPosition - zoomedCircle.position - tab1;
if ((Math.Abs(differenceVector.X) <= (Settings.CALLOUT_TAB_WIDTH / 2)) && (Math.Abs(differenceVector.Y) <= (Settings.CALLOUT_TAB_HEIGHT / 2)))
{
outZoomCircle = zoomedCircle;
outButtonName = "tab1";
return;
}
differenceVector = cursorPosition - zoomedCircle.position - tab2;
if ((Math.Abs(differenceVector.X) <= (Settings.CALLOUT_TAB_WIDTH / 2)) && (Math.Abs(differenceVector.Y) <= (Settings.CALLOUT_TAB_HEIGHT / 2)))
{
outZoomCircle = zoomedCircle;
outButtonName = "tab2";
return;
}
differenceVector = cursorPosition - zoomedCircle.position - tab3;
if ((Math.Abs(differenceVector.X) <= (Settings.CALLOUT_TAB_WIDTH / 2)) && (Math.Abs(differenceVector.Y) <= (Settings.CALLOUT_TAB_HEIGHT / 2)))
{
outZoomCircle = zoomedCircle;
outButtonName = "tab3";
return;
}
differenceVector = cursorPosition - zoomedCircle.position - tab4;
if ((Math.Abs(differenceVector.X) <= (Settings.CALLOUT_TAB_WIDTH / 2)) && (Math.Abs(differenceVector.Y) <= (Settings.CALLOUT_TAB_HEIGHT / 2)))
{
outZoomCircle = zoomedCircle;
outButtonName = "tab4";
return;
}
}
}
outZoomCircle = null;
outButtonName = "";
}
/**
* Returns the angle to the provided TuioPoint
*
* @param tpoint the distant TuioPoint
* @return the angle to the provided TuioPoint
*/
public float getAngle(TuioPoint tpoint)
{
return(getAngle(tpoint.getX(), tpoint.getY()));
}
/**
* <summary>
* Takes a TuioPoint argument and updates its coordinate attributes
* to the coordinates of the provided TuioPoint and leaves its time stamp unchanged.</summary>
*
* <param name="tpoint">the TuioPoint to assign</param>
*/
public void update(TuioPoint tpoint)
{
xpos = tpoint.X;
ypos = tpoint.Y;
}
/**
* Takes the atttibutes of the provided TuioContainer
* and assigs these values to this TuioContainer.
* The TuioTime time stamp of this TuioContainer remains unchanged.
*
* @param tcon the TuioContainer to assign
*/
public void update(TuioContainer tcon)
{
lastPoint = path[path.Count - 1];
if (path.Count > 1)
lastLastPoint = path[path.Count - 2];
base.update(tcon.getX(), tcon.getY());
x_speed = tcon.getXSpeed();
y_speed = tcon.getYSpeed();
motion_speed = (float)Math.Sqrt(x_speed * x_speed + y_speed * y_speed);
motion_accel = tcon.getMotionAccel();
lock (pathSync)
{
path.Add(new TuioPoint(currentTime, xpos, ypos));
}
if (motion_accel > 0) state = TUIO_ACCELERATING;
else if (motion_accel < 0) state = TUIO_DECELERATING;
else state = TUIO_STOPPED;
this.trimPath();
}
public float getDistance(TuioPoint pt)
{
float dx = xpos-pt.getX();
float dy = ypos-pt.getY();
return (float)Math.Sqrt(dx*dx+dy*dy);
}
/**
* Returns the angle to the provided TuioPoint
*
* @param tpoint the distant TuioPoint
* @return the angle to the provided TuioPoint
*/
public float getAngle(TuioPoint tpoint)
{
return getAngle(tpoint.getX(),tpoint.getY());
}
/**
* Returns the distance to the provided TuioPoint
*
* @param tpoint the distant TuioPoint
* @return the distance to the provided TuioPoint
*/
public float getDistance(TuioPoint tpoint)
{
return(getDistance(tpoint.getX(), tpoint.getY()));
}
/**
* Returns the distance to the provided TuioPoint
*
* @param tpoint the distant TuioPoint
* @return the distance to the provided TuioPoint
*/
public float getDistance(TuioPoint tpoint)
{
return getDistance(tpoint.getX(),tpoint.getY());
}
/**
* Returns the angle in degrees to the provided TuioPoint
*
* @param tpoint the distant TuioPoint
* @return the angle in degrees to the provided TuioPoint
*/
public float getAngleDegrees(TuioPoint tpoint)
{
return((getAngle(tpoint) / (float)Math.PI) * 180.0f);
}
/**
* Takes a TuioPoint argument and updates its coordinate attributes
* to the coordinates of the provided TuioPoint and leaves its time stamp unchanged.
*
* @param tpoint the TuioPoint to assign
*/
public void update(TuioPoint tpoint)
{
xpos = tpoint.getX();
ypos = tpoint.getY();
}