public void DisplayRobotState(IRobotState robotState, IRobotPose robotPose)
{
//Debug.WriteLine("RobotDashboard: DisplayRobotState() state: " + robotState.ToString());
robotStateDashboard1.StateDataBlock.Post(robotState);
robotStateDashboard1.PoseDataBlock.Post(robotPose);
}
public void DisplayRobotState(IRobotState robotState, IRobotPose robotPose)
{
//Debug.WriteLine("RobotDashboard: DisplayRobotState() state: " + robotState.ToString());
robotStateDashboard1.StateDataBlock.Post(robotState);
robotStateDashboard1.PoseDataBlock.Post(robotPose);
}
/// <summary>
/// given current robot location, goal bearing and distance, compute and fill goalGeoPosition
/// </summary>
public void computeGoalGeoPosition(IRobotPose currentPose)
{
var pos = new GeoPosition(currentPose.geoPosition);
pos.translateToDirection(new Direction()
{
heading = goalBearingDegrees
}, new Distance(goalDistanceMeters.Value));
goalGeoPosition = pos;
}
public void DisplayRobotPose(IRobotPose robotPose)
{
//Debug.WriteLine("RobotDashboard: DisplayRobotPose() pose: " + robotPose.ToString());
//xLast = robotPose.X;
//yLast = robotPose.Y;
//thetaLast = robotPose.Theta;
//mainWindow1.AddMapable(new TrackPointData(xLast, yLast, Colors.Red));
}
public void DisplayRobotPose(IRobotPose robotPose)
{
//Debug.WriteLine("RobotDashboard: DisplayRobotPose() pose: " + robotPose.ToString());
//xLast = robotPose.X;
//yLast = robotPose.Y;
//thetaLast = robotPose.Theta;
//mainWindow1.AddMapable(new TrackPointData(xLast, yLast, Colors.Red));
}
/// <summary>
/// calculates robot pose change based on current wheel encoders ticks
/// </summary>
/// <param name="robotPose">Used to retrieve current position only. Will be adjusted in SLAM based on wheels travel.</param>
/// <param name="encoderTicks">raw data - wheel encoder ticks - left, right... - ignored if using hardwareBrickOdometry</param>
/// <returns>Displacement - to be applied in SLAM module. Can return null if there is no displacement</returns>
public IDisplacement OdometryCompute(IRobotPose robotPose, long[] encoderTicks)
{
IDisplacement ret = null; // null will be returned if there is no displacement
if (hardwareBrickOdometry != null)
{
// already calculated odometry comes from the hardware brick (i.e. Arduino)
double dx = hardwareBrickOdometry.XMeters - robotPose.XMeters;
double dy = hardwareBrickOdometry.YMeters - robotPose.YMeters;
double dz = 0.0d;
double dth = hardwareBrickOdometry.ThetaRadians - robotPose.ThetaRadians;
if (dx != 0.0d || dy != 0.0d || dz != 0.0d || dth != 0.0d)
{
ret = new Displacement(dx, dy, dz, dth);
}
}
else
{
// we have wheels encoders data and must calculate odometry here:
DisplacementOdometry disp = odometry.Process(encoderTicks);
if (disp.halfPhi != 0.0d || disp.dCenter != 0.0d)
{
double thetaMid = robotPose.ThetaRadians + disp.halfPhi; // radians in the middle of the turn
// calculate displacement in the middle of the turn:
double dx = disp.dCenter * Math.Cos(thetaMid); // meters
double dy = disp.dCenter * Math.Sin(thetaMid); // meters
double dz = 0.0d;
double dThetaRadians = disp.halfPhi * 2.0d; // actual turn
ret = new Displacement(dx, dy, dz, dThetaRadians);
}
}
return(ret);
}
/// <summary>
/// given current robot location, goal bearing and distance, compute and fill goalGeoPosition
/// </summary>
public void computeGoalGeoPosition(IRobotPose currentPose)
{
var pos = new GeoPosition(currentPose.geoPosition);
pos.translateToDirection(new Direction() { heading = goalBearingDegrees }, new Distance(goalDistanceMeters.Value));
goalGeoPosition = pos;
}
public void DisplayRobotState(IRobotState robotState, IRobotPose robotPose)
{
Debug.WriteLine("HttpServer: DisplayRobotState() state: " + robotState.ToString());
}
/// <summary>
/// calculates robot pose change based on current wheel encoders ticks
/// </summary>
/// <param name="robotPose">will be adjusted based on wheels travel</param>
/// <param name="encoderTicks">wheel encoder ticks - left, right...</param>
public void OdometryCompute(IRobotPose robotPose, long[] encoderTicks)
{
if (hardwareBrickOdometry != null)
{
robotPose.XMeters = hardwareBrickOdometry.XMeters;
robotPose.YMeters = hardwareBrickOdometry.YMeters;
robotPose.ThetaRadians = hardwareBrickOdometry.ThetaRadians;
}
else
{
Displacement disp = odometry.Process(encoderTicks);
if (disp.halfPhi != 0.0d || disp.dCenter != 0.0d)
{
double theta = robotPose.ThetaRadians + disp.halfPhi; // radians
// calculate displacement in the middle of the turn:
double dX = disp.dCenter * Math.Cos(theta); // meters
double dY = disp.dCenter * Math.Sin(theta); // meters
robotPose.translate(dX, dY);
robotPose.rotate(disp.halfPhi * 2.0d);
}
}
}
public void DisplayRobotState(IRobotState robotState, IRobotPose robotPose)
{
Debug.WriteLine("HttpServer: DisplayRobotState() state: " + robotState.ToString());
}