public void Init(ZACommons commons, EventDriver eventDriver,
double maxError,
Base6Directions.Direction thrusterDirection = Base6Directions.Direction.Forward)
{
MaxError = maxError;
ThrusterDirection = thrusterDirection;
var shipControl = (ShipControlCommons)commons;
var forward = shipControl.ShipBlockOrientation.TransformDirection(ThrusterDirection);
// Don't really care about "up," just pick a perpindicular direction
seeker.Init(shipControl,
shipUp: Base6Directions.GetPerpendicular(forward),
shipForward: forward);
var gyroControl = shipControl.GyroControl;
gyroControl.Reset();
gyroControl.EnableOverride(true);
LastPosition = shipControl.ReferencePoint;
Enabled = true;
shipControl.ThrustControl.Enable(false);
eventDriver.Schedule(SampleDelay, DetermineVelocity);
}
public void Init(ShipControlCommons shipControl,
Base6Directions.Direction shipUp = Base6Directions.Direction.Up,
Base6Directions.Direction shipForward = Base6Directions.Direction.Forward)
{
ShipForward = shipForward;
ShipUp = shipUp;
ShipLeft = Base6Directions.GetLeft(ShipUp, ShipForward);
var small = shipControl.Reference.CubeGrid.GridSize == 0.5f;
yawPID.Kp = small ? SmallGyroKp : LargeGyroKp;
yawPID.Ti = small ? SmallGyroTi : LargeGyroTi;
yawPID.Td = small ? SmallGyroTd : LargeGyroTd;
pitchPID.Kp = small ? SmallGyroKp : LargeGyroKp;
pitchPID.Ti = small ? SmallGyroTi : LargeGyroTi;
pitchPID.Td = small ? SmallGyroTd : LargeGyroTd;
rollPID.Kp = small ? SmallGyroKp : LargeGyroKp;
rollPID.Ti = small ? SmallGyroTi : LargeGyroTi;
rollPID.Td = small ? SmallGyroTd : LargeGyroTd;
yawPID.Reset();
pitchPID.Reset();
rollPID.Reset();
}
public List<IMyThrust> GetThrusters(Base6Directions.Direction direction,
Func<IMyThrust, bool> collect = null,
bool disable = false)
{
List<IMyThrust> thrusterList;
if (!thrusters.TryGetValue(direction, out thrusterList))
{
thrusterList = new List<IMyThrust>();
thrusters.Add(direction, thrusterList);
}
if (collect == null)
{
return thrusterList;
}
else
{
var result = new List<IMyThrust>();
for (var e = thrusterList.GetEnumerator(); e.MoveNext();)
{
var thruster = (IMyThrust)e.Current;
if (collect(thruster))
{
result.Add(thruster);
}
else if (disable)
{
thruster.SetValue<bool>("OnOff", false);
}
}
return result;
}
}
private void SetAxisDetails(IMyGyro gyro, int axis,
Base6Directions.Direction axisDirection)
{
switch (gyro.Orientation.TransformDirectionInverse(axisDirection))
{
case Base6Directions.Direction.Up:
AxisDetails[axis] = new GyroAxisDetails(Yaw, -1);
break;
case Base6Directions.Direction.Down:
AxisDetails[axis] = new GyroAxisDetails(Yaw, 1);
break;
case Base6Directions.Direction.Left:
AxisDetails[axis] = new GyroAxisDetails(Pitch, -1);
break;
case Base6Directions.Direction.Right:
AxisDetails[axis] = new GyroAxisDetails(Pitch, 1);
break;
case Base6Directions.Direction.Forward:
AxisDetails[axis] = new GyroAxisDetails(Roll, 1);
break;
case Base6Directions.Direction.Backward:
AxisDetails[axis] = new GyroAxisDetails(Roll, -1);
break;
}
}
public void SetLauncherReference(IMyCubeBlock launcherReference,
Base6Directions.Direction direction = Base6Directions.Direction.Forward)
{
LauncherReferencePoint = launcherReference.GetPosition();
var forward3I = launcherReference.Position + Base6Directions.GetIntVector(launcherReference.Orientation.TransformDirection(direction));
var forwardPoint = launcherReference.CubeGrid.GridIntegerToWorld(forward3I);
LauncherReferenceDirection = Vector3D.Normalize(forwardPoint - LauncherReferencePoint);
}
public void Init(ShipControlCommons shipControl,
Base6Directions.Direction localForward = Base6Directions.Direction.Forward)
{
LocalForward = localForward;
LocalBackward = Base6Directions.GetFlippedDirection(LocalForward);
thrustPID.Reset();
}
public void SetOverride(Base6Directions.Direction direction, bool enable = true,
Func<IMyThrust, bool> collect = null)
{
var thrusterList = GetThrusters(direction, collect, true);
thrusterList.ForEach(thruster =>
thruster.SetValue<float>("Override", enable ?
thruster.GetMaximum<float>("Override") :
0.0f));
}
public void SetOverride(Base6Directions.Direction direction, double percent,
Func<IMyThrust, bool> collect = null)
{
percent = Math.Max(percent, 0.0);
percent = Math.Min(percent, 1.0);
var thrusterList = GetThrusters(direction, collect, true);
thrusterList.ForEach(thruster =>
thruster.SetValue<float>("Override",
(float)(thruster.GetMaximum<float>("Override") * percent)));
}
public void Init(ZACommons commons, EventDriver eventDriver,
Vector3D target, double speed,
double delay = 1.0,
Action<ZACommons, EventDriver> doneAction = null,
Base6Directions.Direction localForward = Base6Directions.Direction.Forward)
{
if (!AutopilotEngaged)
{
AutopilotTarget = target;
AutopilotSpeed = speed;
AutopilotEngaged = true;
DoneAction = doneAction;
LocalForward = localForward;
eventDriver.Schedule(delay, Start);
}
}
public GyroDetails(IMyGyro gyro, Base6Directions.Direction shipUp,
Base6Directions.Direction shipForward)
{
Gyro = gyro;
AxisDetails = new GyroAxisDetails[3];
var shipLeft = Base6Directions.GetLeft(shipUp, shipForward);
// Determine yaw axis
SetAxisDetails(gyro, Yaw, shipUp);
// Determine pitch axis
SetAxisDetails(gyro, Pitch, shipLeft);
// Determine roll axis
SetAxisDetails(gyro, Roll, shipForward);
}
public void Init(IEnumerable<IMyTerminalBlock> blocks,
Func<IMyGyro, bool> collect = null,
Base6Directions.Direction shipUp = Base6Directions.Direction.Up,
Base6Directions.Direction shipForward = Base6Directions.Direction.Forward)
{
gyros.Clear();
for (var e = blocks.GetEnumerator(); e.MoveNext();)
{
var gyro = e.Current as IMyGyro;
if (gyro != null &&
gyro.IsFunctional && gyro.IsWorking && gyro.Enabled &&
(collect == null || collect(gyro)))
{
var details = new GyroDetails(gyro, shipUp, shipForward);
gyros.Add(details);
}
}
}
public IMyTerminalBlock SetLauncherReference(ZACommons commons, string groupName,
Base6Directions.Direction direction = Base6Directions.Direction.Forward,
Func<IMyTerminalBlock, bool> condition = null)
{
var group = commons.GetBlockGroupWithName(groupName);
if (group != null)
{
for (var e = group.Blocks.GetEnumerator(); e.MoveNext();)
{
var block = e.Current;
if (condition == null || condition(block))
{
// Use first block that matches condition
SetLauncherReference(block, direction);
return block;
}
}
}
throw new Exception("Cannot set launcher reference from group: " + groupName);
}
public void Init(IEnumerable<IMyTerminalBlock> blocks,
Func<IMyThrust, bool> collect = null,
Base6Directions.Direction shipUp = Base6Directions.Direction.Up,
Base6Directions.Direction shipForward = Base6Directions.Direction.Forward)
{
MyBlockOrientation shipOrientation = new MyBlockOrientation(shipForward, shipUp);
thrusters.Clear();
for (var e = blocks.GetEnumerator(); e.MoveNext();)
{
var thruster = e.Current as IMyThrust;
if (thruster != null && thruster.IsFunctional &&
(collect == null || collect(thruster)))
{
var facing = thruster.Orientation.TransformDirection(Base6Directions.Direction.Forward); // Exhaust goes this way
var thrustDirection = Base6Directions.GetFlippedDirection(facing);
var shipDirection = shipOrientation.TransformDirectionInverse(thrustDirection);
AddThruster(shipDirection, thruster);
}
}
}
public static Vector3D Transform(this Vector3D vector, SerializableBlockOrientation orientation)
{
var matrix = MatrixD.CreateFromDir(Base6Directions.GetVector(orientation.Forward), Base6Directions.GetVector(orientation.Up));
return(Vector3D.Transform(vector, matrix));
}
public static Quaternion ToQuaternion(this SerializableBlockOrientation blockOrientation)
{
var matrix = Matrix.CreateFromDir(Base6Directions.GetVector(blockOrientation.Forward), Base6Directions.GetVector(blockOrientation.Up));
return(Quaternion.CreateFromRotationMatrix(matrix));
}
protected bool GetBlockAddPosition(float gridSize, bool placingSmallGridOnLargeStatic, out MySlimBlock intersectedBlock, out Vector3D intersectedBlockPos, out Vector3D intersectExactPos,
out Vector3I addPositionBlock, out Vector3I addDirectionBlock, out ushort?compoundBlockId)
{
intersectedBlock = null;
intersectedBlockPos = new Vector3D();
intersectExactPos = new Vector3();
addDirectionBlock = new Vector3I();
addPositionBlock = new Vector3I();
compoundBlockId = null;
if (CurrentVoxelBase != null)
{
Vector3 hitInfoNormal = m_hitInfo.Value.HkHitInfo.Normal;
Base6Directions.Direction closestDir = Base6Directions.GetClosestDirection(hitInfoNormal);
Vector3I hitNormal = Base6Directions.GetIntVector(closestDir);
double distance = IntersectionDistance * m_hitInfo.Value.HkHitInfo.HitFraction;
Vector3D rayStart = IntersectionStart;
Vector3D rayDir = Vector3D.Normalize(IntersectionDirection);
Vector3D intersection = rayStart + distance * rayDir;
// Get cube block placement position (add little threshold to hit normal direction to avoid wavy surfaces).
addPositionBlock = MyCubeGrid.StaticGlobalGrid_WorldToUGInt(intersection + 0.1f * Vector3.Half * hitNormal * gridSize, gridSize, CubeBuilderDefinition.BuildingSettings.StaticGridAlignToCenter);
addDirectionBlock = hitNormal;
intersectedBlockPos = addPositionBlock - hitNormal;
// Exact intersection in uniform grid coords.
intersectExactPos = MyCubeGrid.StaticGlobalGrid_WorldToUG(intersection, gridSize, CubeBuilderDefinition.BuildingSettings.StaticGridAlignToCenter);
// Project exact intersection to cube face of intersected block.
intersectExactPos = ((Vector3.One - Vector3.Abs(hitNormal)) * intersectExactPos) + ((intersectedBlockPos + 0.5f * hitNormal) * Vector3.Abs(hitNormal));
return(true);
}
Vector3D?intersectedObjectPos = GetIntersectedBlockData(ref m_invGridWorldMatrix, out intersectExactPos, out intersectedBlock, out compoundBlockId);
if (intersectedObjectPos == null)
{
return(false);
}
intersectedBlockPos = intersectedObjectPos.Value;
Vector3I removePos;
if (!GetCubeAddAndRemovePositions(Vector3I.Round(intersectedBlockPos), placingSmallGridOnLargeStatic, out addPositionBlock, out addDirectionBlock, out removePos))
{
return(false);
}
if (!placingSmallGridOnLargeStatic)
{
if (MyFakes.ENABLE_BLOCK_PLACING_ON_INTERSECTED_POSITION)
{
Vector3I newRemovepos = Vector3I.Round(intersectedBlockPos);
if (newRemovepos != removePos)
{
if (m_hitInfo.HasValue)
{
Vector3 hitInfoNormal = m_hitInfo.Value.HkHitInfo.Normal;
Base6Directions.Direction closestDir = Base6Directions.GetClosestDirection(hitInfoNormal);
Vector3I hitNormal = Base6Directions.GetIntVector(closestDir);
addDirectionBlock = hitNormal;
}
removePos = newRemovepos;
addPositionBlock = removePos + addDirectionBlock;
}
}
else
{
if (CurrentGrid.CubeExists(addPositionBlock))
{
return(false);
}
}
}
if (placingSmallGridOnLargeStatic)
{
removePos = Vector3I.Round(intersectedBlockPos);
}
intersectedBlockPos = removePos;
intersectedBlock = CurrentGrid.GetCubeBlock(removePos);
if (intersectedBlock == null)
{
Debug.Assert(false, "No intersected block");
return(false);
}
return(true);
}
private Vector3D GetReferenceVector(ShipControlCommons shipControl,
Base6Directions.Direction direction)
{
var offset = shipControl.Reference.Position + Base6Directions.GetIntVector(direction);
return Vector3D.Normalize(shipControl.Reference.CubeGrid.GridIntegerToWorld(offset) - shipControl.ReferencePoint);
}
// Last-ditch check before inducing spin
private bool HaveWorkingThrusters2(ShipControlCommons shipControl,
Base6Directions.Direction direction)
{
var found = false;
var thrusters = shipControl.ThrustControl.GetThrusters(direction);
thrusters.ForEach(thruster =>
{
if (thruster.IsWorking)
{
// Really make sure it isn't overridden
thruster.SetValue<float>("Override", 0.0f);
found = true;
}
});
return found;
}
/// <summary>
/// Solves the required thrusts to go in targetDirection at max speed. This takes gravity into account.
/// </summary>
/// <param name="g">Gravity and unknown forces</param>
/// <param name="targetDirection">The target direction to go in</param>
/// <param name="maxPercentageThrustToUse">The maximum amount of thrust devoted to going in the target direction.</param>
/// <returns></returns>
public ThrusterGroup SolveMaxThrust(Vector3D minus_g, Vector3D targetDirection,
double maxPercentageThrustToUse = 1)
{
//parent_program.Echo("Starting");
Base6Directions.Direction actual2Di;
Base6Directions.Direction actual3Di;
double t2c;
double t3c;
double Lambda;
ThrusterGroup t1;
ThrusterGroup t2;
ThrusterGroup t3;
if (maxPercentageThrustToUse > 1)
{
maxPercentageThrustToUse = 1;
}
else if (maxPercentageThrustToUse < 0)
{
maxPercentageThrustToUse = 0;
}
foreach (var entry in thrusterGroups)
{
//parent_program.Echo("Loading " + entry.Key.ToString());
t1 = entry.Value;
if (t1.LocalThrustDirection == Base6Directions.Direction.Up ||
t1.LocalThrustDirection == Base6Directions.Direction.Down)
{
t2 = thrusterGroups[Base6Directions.Direction.Left];
t3 = thrusterGroups[Base6Directions.Direction.Forward];
}
else if (t1.LocalThrustDirection == Base6Directions.Direction.Left ||
t1.LocalThrustDirection == Base6Directions.Direction.Right)
{
t2 = thrusterGroups[Base6Directions.Direction.Up];
t3 = thrusterGroups[Base6Directions.Direction.Forward];
}
else if (t1.LocalThrustDirection == Base6Directions.Direction.Forward ||
t1.LocalThrustDirection == Base6Directions.Direction.Backward)
{
t2 = thrusterGroups[Base6Directions.Direction.Up];
t3 = thrusterGroups[Base6Directions.Direction.Left];
}
else
{
parent_program.shipIOHandler.Error(
"Encountered unusual thruster direction.\nIf you've gotten this error in particular,\nplease report it to the script owner, Spug.");
t2 = thrusterGroups[Base6Directions.Direction.Up];
t3 = thrusterGroups[Base6Directions.Direction.Left];
}
//var mat = new double[,] {
//{ t2.WorldThrustDirection.X, t3.WorldThrustDirection.X, -targetDirection.X },
//{ t2.WorldThrustDirection.Y, t3.WorldThrustDirection.Y, -targetDirection.Y },
//{ t2.WorldThrustDirection.Z, t3.WorldThrustDirection.Z, -targetDirection.Z },
//};
t1.matrixM[0, 0] = t2.WorldThrustDirection.X;
t1.matrixM[0, 1] = t3.WorldThrustDirection.X;
t1.matrixM[0, 2] = -targetDirection.X;
t1.matrixM[1, 0] = t2.WorldThrustDirection.Y;
t1.matrixM[1, 1] = t3.WorldThrustDirection.Y;
t1.matrixM[1, 2] = -targetDirection.Y;
t1.matrixM[2, 0] = t2.WorldThrustDirection.Z;
t1.matrixM[2, 1] = t3.WorldThrustDirection.Z;
t1.matrixM[2, 2] = -targetDirection.Z;
t1.ANS[0] = -t1.MaxThrust * t1.WorldThrustDirection.X * maxPercentageThrustToUse - minus_g.X;
t1.ANS[1] = -t1.MaxThrust * t1.WorldThrustDirection.Y * maxPercentageThrustToUse - minus_g.Y;
t1.ANS[2] = -t1.MaxThrust * t1.WorldThrustDirection.Z * maxPercentageThrustToUse - minus_g.Z;
PID.ComputeCoefficients(t1.matrixM, t1.ANS);
t2c = t1.ANS[0];
t3c = t1.ANS[1];
Lambda = t1.ANS[2];
actual2Di = t2.LocalThrustDirection;
actual3Di = t3.LocalThrustDirection;
if (t2c < 0)
{
actual2Di = Base6Directions.GetOppositeDirection(t2.LocalThrustDirection);
t2c *= -1;
}
if (t3c < 0)
{
actual3Di = Base6Directions.GetOppositeDirection(t3.LocalThrustDirection);
t3c *= -1;
}
//// Publish the results
t1.finalThrustForces.X = t1.MaxThrust * maxPercentageThrustToUse;
t1.finalThrustForces.Y = t2c;
t1.finalThrustForces.Z = t3c;
t1.lambdaResult = Lambda;
t1.finalThrusterGroups[0] = t1;
t1.finalThrusterGroups[1] = thrusterGroups[actual2Di];
t1.finalThrusterGroups[2] = thrusterGroups[actual3Di];
t1.finalThrusterGroups[3] =
thrusterGroups[Base6Directions.GetOppositeDirection(t1.LocalThrustDirection)];
t1.finalThrusterGroups[4] =
thrusterGroups[Base6Directions.GetOppositeDirection(t2.LocalThrustDirection)];
t1.finalThrusterGroups[5] =
thrusterGroups[Base6Directions.GetOppositeDirection(t3.LocalThrustDirection)];
//parent_program.Echo("Completed " + entry.Key.ToString());
}
ThrusterGroup bestCandidate = null;
double bestCandidateLambda = -999999999;
foreach (var entry in thrusterGroups)
{
if (entry.Value.lambdaResult > bestCandidateLambda)
{
if (entry.Value.finalThrustForces.Y <= entry.Value.finalThrusterGroups[1].MaxThrust + 1 &&
entry.Value.finalThrustForces.Z <= entry.Value.finalThrusterGroups[2].MaxThrust + 1)
{
bestCandidate = entry.Value;
bestCandidateLambda = entry.Value.lambdaResult;
}
}
}
//parent_program.Echo("Finished");
//parent_program.Echo("Best: " + bestCandidate.LocalThrustDirection.ToString());
return(bestCandidate);
}
protected bool CanPlaceBlock(Vector3I position, MyCubeBlockDefinition definition, Vector3I forward, Vector3I up)
{
Debug.Assert(forward != up);
Debug.Assert(forward != Vector3I.Zero);
Debug.Assert(up != Vector3I.Zero);
MyBlockOrientation blockOrientation = new MyBlockOrientation(Base6Directions.GetDirection(forward), Base6Directions.GetDirection(up));
return(m_grid.CanPlaceBlock(position, position, blockOrientation, definition));
}
private void AddThruster(Base6Directions.Direction direction, IMyThrust thruster)
{
var thrusterList = GetThrusters(direction); // collect must be null to modify original list
thrusterList.Add(thruster);
}
public void Main(string argument, UpdateType updateSource)
{
string[] argInfo = argument.Split(new string[] { "," }, StringSplitOptions.None);
if (argument == "RUN")
{
//Check if can scan, and scan if can.
if (cam.CanScan(rayCastDistance))
{
detectedInfo = cam.Raycast(rayCastDistance);
}
else
{
Echo("Can't scan yet!");
}
Echo("INITIATING");
coordinate = Vector3D.Zero; //initating to zero value.
Boolean found = false;
if (detectedInfo.HitPosition != null)
{
coordinate = detectedInfo.HitPosition.Value;
found = true;
}
if (found)
{
Vector3D currentCoords = rc.GetPosition();
//creating unit vector
double denominator = Math.Sqrt(Math.Pow(coordinate.X - currentCoords.X, 2)
+ Math.Pow(coordinate.Y - currentCoords.Y, 2)
+ Math.Pow(coordinate.Z - currentCoords.Z, 2));
double xMultiplier = (coordinate.X - currentCoords.X) / denominator;
double yMultiplier = (coordinate.Y - currentCoords.Y) / denominator;
double zMultiplier = (coordinate.Z - currentCoords.Z) / denominator;
//manipulating target coordinate with unit vector
coordinate.X -= finalDistFromTarget * xMultiplier;
coordinate.Y -= finalDistFromTarget * yMultiplier;
coordinate.Z -= finalDistFromTarget * zMultiplier;
//Setting up backward thrusters list
backwardThrusters = new List <IMyThrust>();
//Obtaining each thruster pointing backward
foreach (IMyThrust thruster in thrusters)
{
if (Base6Directions.GetFlippedDirection(rc.Orientation.Forward) == Base6Directions.GetFlippedDirection(thruster.Orientation.Forward))
{
backwardThrusters.Add(thruster);
}
}
//Obtaining max backward acceleration
MyShipMass myShipMass = rc.CalculateShipMass();
backwardsAcceleration = CalculateAcceleration(myShipMass.TotalMass, backwardThrusters);
//autopilot settings
rc.ClearWaypoints();
rc.AddWaypoint(coordinate, "AUTO DYNAMIC BRAKING SCRIPT COORDINATE");
rc.SetAutoPilotEnabled(true);
rc.SetCollisionAvoidance(false);
rc.SetDockingMode(false); //CHANGE??? or dont?
rc.FlightMode = FlightMode.OneWay;
rc.Direction = Base6Directions.Direction.Forward;
blindMode = false;
}
}
else if (argInfo[0] == "blind".ToLower())
{
int dist = 0;
Boolean passed = Int32.TryParse(argInfo[1], out dist);
if (passed)
{
Vector3D dir = rc.WorldMatrix.Forward;
coordinate = rc.GetPosition();
coordinate.X += dir.X * dist;
coordinate.Y += dir.Y * dist;
coordinate.Z += dir.Z * dist;
Vector3D currentCoords = rc.GetPosition();
//Setting up backward thrusters list
backwardThrusters = new List <IMyThrust>();
//Obtaining each thruster pointing backward
foreach (IMyThrust thruster in thrusters)
{
if (Base6Directions.GetFlippedDirection(rc.Orientation.Forward) == Base6Directions.GetFlippedDirection(thruster.Orientation.Forward))
{
backwardThrusters.Add(thruster);
}
}
//Obtaining max backward acceleration
MyShipMass myShipMass = rc.CalculateShipMass();
backwardsAcceleration = CalculateAcceleration(myShipMass.TotalMass, backwardThrusters);
//autopilot settings
rc.ClearWaypoints();
rc.AddWaypoint(coordinate, "CAPTXAN'S SCRIPT COORDINATE");
rc.SetAutoPilotEnabled(true);
rc.SetCollisionAvoidance(false);
rc.SetDockingMode(false); //CHANGE??? or dont?
rc.FlightMode = FlightMode.OneWay;
rc.Direction = Base6Directions.Direction.Forward;
blindMode = true;
blindCounter = 0;
}
else
{
Echo("2nd parameter is not a number!");
}
}
else
{
//User Feedback
if (!cam.CanScan(rayCastDistance))
{
float percentage = ((cam.TimeUntilScan(rayCastDistance) / 1000) / (rayCastDistance / 2000));
percentage = (1 - percentage) * 100;
Echo("Raycast is recharging " + percentage + "%");
if (!cam.EnableRaycast)
{
cam.EnableRaycast = true;
}
}
else
{
Echo("Ready to Scan");
cam.EnableRaycast = false;
}
//Travelling CHANGE HERE FOR ENABLE / DISABLE AUTOPILOT
if (rc.IsAutoPilotEnabled)
{
travelling = true;
double currentDistanceFromTarget = Vector3D.Distance(coordinate, rc.GetPosition());
Echo("Travelling, ETA: " + (int)(currentDistanceFromTarget / rc.GetShipSpeed()) + "s");
//Calculating stopping distance to determine if thrusters need to be enabled.
Echo("Current Speed: " + (int)rc.GetShipSpeed() + "m/s");
Echo("Ship Speed Limit: " + rc.SpeedLimit + "m/s");
if (rc.GetShipSpeed() > rc.SpeedLimit - 1) //If ship at max speed
{
Vector3D currentTrajectory = Vector3D.Normalize(rc.GetPosition() - prevPosition);
prevPosition = rc.GetPosition();
Vector3D calculatedTrajectory = Vector3D.Normalize(rc.GetPosition() - coordinate);
double accuracyAmount;
if (currentDistanceFromTarget > 15000)
{
accuracyAmount = .99999;
}
else if (currentDistanceFromTarget > 5000)
{
accuracyAmount = .9999;
}
else
{
accuracyAmount = .999;
}
if (currentDistanceFromTarget * .90 > (Math.Pow(rc.GetShipSpeed(), 2) / (2 * backwardsAcceleration)) &&
Math.Abs(currentTrajectory.Dot(calculatedTrajectory)) > accuracyAmount)
{
foreach (IMyThrust thruster in thrusters)
{
thruster.ApplyAction("OnOff_Off");
}
}
else //Curr < stopp
{
foreach (IMyThrust thruster in thrusters)
{
thruster.ApplyAction("OnOff_On");
}
}
}
Echo("Blind Mode: " + blindMode);
if (blindMode)
{
Echo("Blind Counter: " + blindCounter);
Echo("Coll Avoid: " + rc.);
if (cam.CanScan(((Math.Pow(rc.GetShipSpeed(), 2) / (2 * backwardsAcceleration)) * 2)))
{
detectedInfo = cam.Raycast((Math.Pow(maxSpeed, 2) / (2 * backwardsAcceleration)) * 2);
if (detectedInfo.HitPosition != null)
{
rc.SpeedLimit = 3;
rc.SetCollisionAvoidance(true);
blindCounter = 0;
}
else
{
if (blindCounter > 500)
{
rc.SpeedLimit = maxSpeed;
rc.SetCollisionAvoidance(false);
blindCounter = 0;
}
else
{
blindCounter++;
}
}
}
}
}
else if (travelling)
{
foreach (IMyThrust thruster in thrusters)
{
thruster.ApplyAction("OnOff_On");
}
travelling = false;
blindMode = false;
}
}
//Additional Arugment Commands
if (argument == "ABORT")
{
rc.SetAutoPilotEnabled(false);
rc.DampenersOverride = true;
}
}
public void Main(string argument, UpdateType updateSource)
{
List <IMyGyro> gyros = new List <IMyGyro>();
GridTerminalSystem.GetBlocksOfType <IMyGyro>(gyros);
if (Me.CustomData.Length > 0)
{
string[] strs = Me.CustomData.Split(' ');
Vector3 desiredAngleSpeed = new Vector3(float.Parse(strs[0]), float.Parse(strs[1]), float.Parse(strs[2]));
foreach (var gyro in gyros)
{
try {
gyro.Pitch = -desiredAngleSpeed.Dot(Base6Directions.GetVector(gyro.Orientation.Left)) * 60;
gyro.Yaw = desiredAngleSpeed.Dot(Base6Directions.GetVector(gyro.Orientation.Up)) * 60;
gyro.Roll = -desiredAngleSpeed.Dot(Base6Directions.GetVector(gyro.Orientation.Forward)) * 60;
} catch (Exception e) { Echo(e.StackTrace); }
}
}
else
{
foreach (var gyro in gyros)
{
if (gyro.GyroOverride)
{
Echo(gyro.CustomName);
Vector3I forward = Base6Directions.GetIntVector(gyro.Orientation.Forward);
Echo(string.Format("FW: {0:0.0} {1:0.0} {2:0.0}", forward.X, forward.Y, forward.Z));
Vector3I up = Base6Directions.GetIntVector(gyro.Orientation.Up);
Echo(string.Format("UP: {0:0.0} {1:0.0} {2:0.0}", up.X, up.Y, up.Z));
Vector3I left = Base6Directions.GetIntVector(gyro.Orientation.Left);
Echo(string.Format("LF: {0:0.0} {1:0.0} {2:0.0}", left.X, left.Y, left.Z));
}
}
}
List <IMyShipController> controllers = new List <IMyShipController>();
GridTerminalSystem.GetBlocksOfType(controllers);
foreach (var controller in controllers)
{
Vector3 speeds = controller.GetShipVelocities().AngularVelocity;
Echo(controller.CustomName);
Echo(string.Format("SPDS: {0:0.0} {1:0.0} {2:0.0}", speeds.X, speeds.Y, speeds.Z));
/*Quaternion quat = Quaternion.CreateFromYawPitchRoll( speeds.X, speeds.Y, speeds.Z );
* Echo( string.Format( "QUAT: {0:0.0} {1:0.0} {2:0.0} {3:0.0}", quat.X, quat.Y, quat.Z, quat.W ) );*/
}
/*Quaternion thisQuat = Quaternion.CreateFromRotationMatrix( Me.CubeGrid.WorldMatrix );
*
* var quatDiff = Quaternion.Divide( thisQuat, previousQuat );
*
* previousQuat = thisQuat;
*
* Echo("Calcualted: ");
* Echo( string.Format( "QUAT: {0:0.00} {1:0.00} {2:0.00} {3:0.00}", thisQuat.X, thisQuat.Y, thisQuat.Z, thisQuat.W ) );
* Echo( string.Format( "DIFF: {0:0.00} {1:0.00} {2:0.00} {3:0.00}", quatDiff.X, quatDiff.Y, quatDiff.Z, quatDiff.W ) );
*
*/
}
private Vector3D GetReferenceVector(Base6Directions.Direction direction)
{
var offset = Reference.Position + Base6Directions.GetIntVector(direction);
return Vector3D.Normalize(Reference.CubeGrid.GridIntegerToWorld(offset) - ReferencePoint);
}
private bool HaveWorkingThrusters(ShipControlCommons shipControl,
Base6Directions.Direction direction)
{
// First pass: Look for a working, non-overridden thruster
var found = false;
var overridden = new List<IMyThrust>();
var thrusters = shipControl.ThrustControl.GetThrusters(direction);
thrusters.ForEach(thruster =>
{
if (thruster.IsWorking)
{
if (thruster.GetValue<float>("Override") > 0.0f)
{
// Thruster is overridden. Keep track of it.
overridden.Add(thruster);
}
else
{
// Found a good thruster
found = true;
}
}
});
// Depending on outcome, disable or zero-out overridden thrusters
overridden.ForEach(thruster =>
{
if (found)
{
// Disable and let good thrusters take care of it
thruster.SetValue<bool>("OnOff", false);
}
else
{
// No good thrusters. Zero-out override.
thruster.SetValue<float>("Override", 0.0f);
found = true;
// Note this means we will zero-out at most 1 thruster.
// For now, this is the desired effect.
}
});
if (!found)
{
// Final desperation move. Enable and zero-out overrides for
// all thrusters on this side.
thrusters.ForEach(thruster =>
{
thruster.SetValue<bool>("OnOff", true);
thruster.SetValue<float>("Override", 0.0f);
});
// Still return false, but we'll check again after a few ticks
}
return found;
}
public static Vector3I Transform(this Vector3I size, SerializableBlockOrientation orientation)
{
var matrix = Matrix.CreateFromDir(Base6Directions.GetVector(orientation.Forward), Base6Directions.GetVector(orientation.Up));
var rotation = Quaternion.CreateFromRotationMatrix(matrix);
return(Vector3I.Transform(size, rotation));
}
private bool ConnectionAllowedInternal(ref Vector3I faceNormal, MyCubeBlockDefinition def)
{
if (IsWorking)
{
return(true);
}
if (def != this.BlockDefinition)
{
return(true);
}
Base6Directions.Direction connectionDirection = Orientation.TransformDirectionInverse(Base6Directions.GetDirection(faceNormal));
if (connectionDirection != m_forward)
{
return(true);
}
return(false);
}
public bool IsInCorridor(IMyCubeBlock block)
{
Vector3I v1 = block.Position - position;
return(Vector3I.Dot(v1, Base6Directions.GetIntVector(core.Orientation.Up)) == 0 && Vector3I.Dot(v1, Base6Directions.GetIntVector(core.Orientation.Left)) == 0);
}
private void HandleFacing(TempData tempData)
{
Vector3 desiredRotSpeed;
if (command == null)
{
desiredRotSpeed = Vector3.Zero;
}
else
{
var navigationData = command.GetNavData(program);
//Vector3 targetDirection = chosenTarget.Position - Me.CubeGrid.GridIntegerToWorld( Me.Position );
//targetDirection.Normalize();
Vector3 des = navigationData.desiredForward.Value;
//VrageMath doesn't have Vector3 * Matrix3x3 multiplication
//navigationData.desiredFacing = new Vector3( Vector3.Dot(des, directionAdjustMatrix.Col0), Vector3.Dot( des, directionAdjustMatrix.Col1 ), Vector3.Dot( des, directionAdjustMatrix.Col2 ) );
List <IMyRadioAntenna> antenna = new List <IMyRadioAntenna>();
GridTerminalSystem.GetBlocksOfType <IMyRadioAntenna>(antenna);
antenna[0].CustomName = "Desired Facing: " + navigationData.desiredForward;
desiredRotSpeed = tempData.facing.Cross(navigationData.desiredForward.Value); //get direction of desired rotation
desiredRotSpeed.Normalize();
//Echo("Dd: " + desiredSpeed);
desiredRotSpeed.Multiply(0.5f - tempData.facing.Dot(navigationData.desiredForward.Value) / 2); //get magnitude of desired rotation
//Echo( "Desired speed: " + desiredSpeed.Length() );
//desiredSpeed = desiredDir - rotSpeed;
//Echo( string.Format( "Facing: {0} TargetDir:{1}", facing, targetDirection ) );
}
Vector3 targetRotation = new Vector3(tempData.facingLeft.Dot(desiredRotSpeed), tempData.facingUp.Dot(desiredRotSpeed), tempData.facing.Dot(desiredRotSpeed));
//targetRotation = new Vector3( 0,targetRotation.Y,0 );
//program.Echo( "TR: " + targetRotation );
if (useControlBlock)
{
List <IMyRemoteControl> control = new List <IMyRemoteControl>();
GridTerminalSystem.GetBlocksOfType <IMyRemoteControl>(control);
if (shouldSetWaypoint == 0)
{
if (control.Count > 0)
{
IMyRemoteControl cntrl = control[0];
cntrl.ControlThrusters = false;
cntrl.ControlWheels = true;
cntrl.ClearWaypoints();
var desiredFacing = command.GetNavData(program).desiredForward.Value;
cntrl.AddWaypoint(Me.CubeGrid.GridIntegerToWorld(cntrl.Position) + desiredFacing * 10000, "dummy rotation target");
cntrl.AddWaypoint(new MyWaypointInfo());
cntrl.SetAutoPilotEnabled(true);
Vector3 target = Me.CubeGrid.GridIntegerToWorld(cntrl.Position) + (desiredFacing * 1000);
program.Echo(string.Format("RC: {0:0.0} {1:0.0} {2:0.0}", target.X, target.Y, target.Z));
}
else
{
program.Echo("Can't find any control blocks");
}
shouldSetWaypoint = 50;
}
else
{
shouldSetWaypoint--;
}
}
else
{
foreach (var gyro in gyros)
{
try {
gyro.SetValueBool("Override", true);
gyro.Pitch = -targetRotation.Dot(Base6Directions.GetVector(gyro.Orientation.Left)) * 60;
gyro.Yaw = targetRotation.Dot(Base6Directions.GetVector(gyro.Orientation.Up)) * 60;
gyro.Roll = -targetRotation.Dot(Base6Directions.GetVector(gyro.Orientation.Forward)) * 60;
} catch (Exception e) { program.Echo(e.StackTrace); }
}
}
}
public MyGeneratedBlockLocation(MySlimBlock refBlock, MyCubeBlockDefinition blockDefinition, Vector3I position, Vector3I forward, Vector3I up, ushort?blockIdInCompound = null, MyGridInfo gridInfo = null)
{
RefBlock = refBlock;
BlockDefinition = blockDefinition;
Position = position;
Orientation = new MyBlockOrientation(Base6Directions.GetDirection(ref forward), Base6Directions.GetDirection(ref up));
BlockIdInCompound = blockIdInCompound;
GridInfo = gridInfo;
GeneratedBlockType = MyStringId.NullOrEmpty;
}
public override bool DebugDraw()
{
if (MyDebugDrawSettings.DEBUG_DRAW_CONNECTORS_AND_MERGE_BLOCKS)
{
Matrix WorldMatrix = m_shipMergeBlock.PositionComp.WorldMatrix;
MyRenderProxy.DebugDrawLine3D(m_shipMergeBlock.Physics.RigidBody.Position, m_shipMergeBlock.Physics.RigidBody.Position + m_shipMergeBlock.WorldMatrix.Right, Color.Green, Color.Green, false);
MyRenderProxy.DebugDrawSphere(Vector3.Transform(m_shipMergeBlock.Position * m_shipMergeBlock.CubeGrid.GridSize, Matrix.Invert(m_shipMergeBlock.WorldMatrix)), 1, Color.Green, 1, false);
MyRenderProxy.DebugDrawSphere(m_shipMergeBlock.WorldMatrix.Translation, 0.2f, m_shipMergeBlock.InConstraint ? Color.Yellow : Color.Orange, 1, false);
if (m_shipMergeBlock.InConstraint)
{
MyRenderProxy.DebugDrawSphere(m_shipMergeBlock.Other.WorldMatrix.Translation, 0.2f, Color.Yellow, 1, false);
MyRenderProxy.DebugDrawLine3D(m_shipMergeBlock.WorldMatrix.Translation, m_shipMergeBlock.Other.WorldMatrix.Translation, Color.Yellow, Color.Yellow, false);
}
MyRenderProxy.DebugDrawLine3D(WorldMatrix.Translation, WorldMatrix.Translation + m_shipMergeBlock.CubeGrid.WorldMatrix.GetDirectionVector(Base6Directions.GetDirection(m_shipMergeBlock.PositionComp.LocalMatrix.Right)), Color.Red, Color.Red, false);
MyRenderProxy.DebugDrawLine3D(WorldMatrix.Translation, WorldMatrix.Translation + m_shipMergeBlock.CubeGrid.WorldMatrix.GetDirectionVector(Base6Directions.GetDirection(m_shipMergeBlock.PositionComp.LocalMatrix.Up)), Color.Green, Color.Green, false);
MyRenderProxy.DebugDrawLine3D(WorldMatrix.Translation, WorldMatrix.Translation + m_shipMergeBlock.CubeGrid.WorldMatrix.GetDirectionVector(Base6Directions.GetDirection(m_shipMergeBlock.PositionComp.LocalMatrix.Backward)), Color.Blue, Color.Blue, false);
MyRenderProxy.DebugDrawLine3D(WorldMatrix.Translation, WorldMatrix.Translation + m_shipMergeBlock.CubeGrid.WorldMatrix.GetDirectionVector(m_shipMergeBlock.OtherRight), Color.Violet, Color.Violet, false);
MyRenderProxy.DebugDrawText3D(WorldMatrix.Translation, "Bodies: " + m_shipMergeBlock.GridCount, Color.White, 1.0f, false);
if (m_shipMergeBlock.Other != null)
{
float x = (float)Math.Exp(-((WorldMatrix.Translation - m_shipMergeBlock.Other.WorldMatrix.Translation).Length() - m_shipMergeBlock.CubeGrid.GridSize) * 6.0f);
MyRenderProxy.DebugDrawText3D(WorldMatrix.Translation + m_shipMergeBlock.CubeGrid.WorldMatrix.GetDirectionVector(Base6Directions.GetDirection(m_shipMergeBlock.PositionComp.LocalMatrix.Up)) * 0.5f, x.ToString("0.00"), Color.Red, 1.0f, false);
}
}
return(true);
}
public void RotateComponent()
{
var d1 = SpaceEngineersApi.GetCubeDefinition(new MyObjectBuilderType(typeof(MyObjectBuilder_Thrust)), MyCubeSize.Large, "LargeBlockLargeThrust");
Assert.AreEqual("DisplayName_Block_LargeThrust", d1.DisplayNameEnum.Value.String, "Must match");
Assert.AreEqual(MyCubeSize.Large, d1.CubeSize, "Must match");
Assert.AreEqual(3, d1.Size.X, "Must match");
Assert.AreEqual(2, d1.Size.Y, "Must match");
Assert.AreEqual(4, d1.Size.Z, "Must match");
//======//
var orient = new SerializableBlockOrientation(Base6Directions.Direction.Forward, Base6Directions.Direction.Up);
var f = Base6Directions.GetVector(orient.Forward);
var u = Base6Directions.GetVector(orient.Up);
var m = Matrix.CreateFromDir(f, u);
var q = Quaternion.CreateFromRotationMatrix(m);
var nf = Base6Directions.GetForward(q);
var nu = Base6Directions.GetUp(q);
// Test that Space Engineers orientation methods are working as expected. Forward is still Forward, Up is still Up.
Assert.AreEqual(nf, orient.Forward, "Initial Orientation Forward must match.");
Assert.AreEqual(nu, orient.Up, "Initial Orientation Forward must match.");
//======//
var v = d1.Size;
var fV1 = Vector3.Transform(v, m);
// Orientation of Forward/Up should provide the exact same dimentions as the original Component above.
Assert.AreEqual(3, fV1.X, "Must match");
Assert.AreEqual(2, fV1.Y, "Must match");
Assert.AreEqual(4, fV1.Z, "Must match");
//======//
var newOrient = new SerializableBlockOrientation(Base6Directions.Direction.Down, Base6Directions.Direction.Right);
var newM = Matrix.CreateFromDir(Base6Directions.GetVector(newOrient.Forward), Base6Directions.GetVector(newOrient.Up));
var fV2 = Vector3.Transform(v, newM);
// The reoriented Component size should now have changed.
Assert.AreEqual(2, fV2.X, "Must match");
Assert.AreEqual(4, fV2.Y, "Must match");
Assert.AreEqual(3, fV2.Z, "Must match");
//======//
// Reducing complexity of code with Extension.
var direction = new SerializableBlockOrientation(Base6Directions.Direction.Down, Base6Directions.Direction.Right);
var fV3 = d1.Size.Transform(direction);
// The reoriented Component size should now have changed.
Assert.AreEqual(2, fV3.X, "Must match");
Assert.AreEqual(4, fV3.Y, "Must match");
Assert.AreEqual(3, fV3.Z, "Must match");
}
public void Enable(Base6Directions.Direction direction, bool enable,
Func<IMyThrust, bool> collect = null)
{
var thrusterList = GetThrusters(direction, collect, true);
thrusterList.ForEach(thruster => thruster.SetValue<bool>("OnOff", enable));
}
public static void CreateDefaultTriangles(MyObjectBuilder_BlockNavigationDefinition ob)
{
Vector3I size = ob.Size;
Vector3I center = ob.Center;
int triCount = 4 * ((size.X * size.Y) + (size.X * size.Z) + (size.Y * size.Z));
ob.Triangles = new MyObjectBuilder_BlockNavigationDefinition.Triangle[triCount];
int i = 0;
// Coords of the block's real center (i.e. origin) relative to blockDef.Center
Vector3 origin = (size * 0.5f) - center - Vector3.Half;
for (int d = 0; d < 6; ++d)
{
Base6Directions.Direction faceDirection = Base6Directions.EnumDirections[d];
Base6Directions.Direction rightDir, upDir;
Vector3 faceOrigin = origin;
switch (faceDirection)
{
case Base6Directions.Direction.Right:
rightDir = Base6Directions.Direction.Forward;
upDir = Base6Directions.Direction.Up;
faceOrigin += new Vector3(0.5f, -0.5f, 0.5f) * size;
break;
case Base6Directions.Direction.Left:
rightDir = Base6Directions.Direction.Backward;
upDir = Base6Directions.Direction.Up;
faceOrigin += new Vector3(-0.5f, -0.5f, -0.5f) * size;
break;
case Base6Directions.Direction.Up:
rightDir = Base6Directions.Direction.Right;
upDir = Base6Directions.Direction.Forward;
faceOrigin += new Vector3(-0.5f, 0.5f, 0.5f) * size;
break;
case Base6Directions.Direction.Down:
rightDir = Base6Directions.Direction.Right;
upDir = Base6Directions.Direction.Backward;
faceOrigin += new Vector3(-0.5f, -0.5f, -0.5f) * size;
break;
case Base6Directions.Direction.Backward:
rightDir = Base6Directions.Direction.Right;
upDir = Base6Directions.Direction.Up;
faceOrigin += new Vector3(-0.5f, -0.5f, 0.5f) * size;
break;
case Base6Directions.Direction.Forward:
default:
rightDir = Base6Directions.Direction.Left;
upDir = Base6Directions.Direction.Up;
faceOrigin += new Vector3(0.5f, -0.5f, -0.5f) * size;
break;
}
Vector3 rightVec = Base6Directions.GetVector(rightDir);
Vector3 upVec = Base6Directions.GetVector(upDir);
int uMax = size.AxisValue(Base6Directions.GetAxis(upDir));
int rMax = size.AxisValue(Base6Directions.GetAxis(rightDir));
for (int u = 0; u < uMax; ++u)
{
for (int r = 0; r < rMax; ++r)
{
var triangle = new MyObjectBuilder_BlockNavigationDefinition.Triangle();
triangle.Points = new SerializableVector3[3];
triangle.Points[0] = faceOrigin;
triangle.Points[1] = faceOrigin + rightVec;
triangle.Points[2] = faceOrigin + upVec;
ob.Triangles[i++] = triangle;
triangle = new MyObjectBuilder_BlockNavigationDefinition.Triangle();
triangle.Points = new SerializableVector3[3];
triangle.Points[0] = faceOrigin + rightVec;
triangle.Points[1] = faceOrigin + rightVec + upVec;
triangle.Points[2] = faceOrigin + upVec;
ob.Triangles[i++] = triangle;
faceOrigin += rightVec;
}
faceOrigin -= rightVec * rMax;
faceOrigin += upVec;
}
}
}
public SerializableBlockOrientation(ref Quaternion q)
{
Forward = Base6Directions.GetForward(q);
Up = Base6Directions.GetUp(q);
}
public void InitControl(MyEntity controller)
{
//sets direction of angular force and steering for concrete block based on position in grid
var mat = controller.WorldMatrix * PositionComp.WorldMatrixNormalizedInv;
Vector3 revolveAxis;
if (Base6Directions.GetClosestDirection(mat.Forward) == Base6Directions.Direction.Up || Base6Directions.GetClosestDirection(mat.Forward) == Base6Directions.Direction.Down)
{
revolveAxis = controller.WorldMatrix.Forward;
}
else if (Base6Directions.GetClosestDirection(mat.Up) == Base6Directions.Direction.Up || Base6Directions.GetClosestDirection(mat.Up) == Base6Directions.Direction.Down)
{
revolveAxis = controller.WorldMatrix.Up;
}
else
{
revolveAxis = controller.WorldMatrix.Right;
}
// - "epsilon"
var dotCockpit1 = Vector3.Dot(controller.WorldMatrix.Up, WorldMatrix.Translation - controller.WorldMatrix.Translation) - 0.0001 > 0;
Vector3 steerAxis;
if (Base6Directions.GetClosestDirection(mat.Forward) == Base6Directions.Direction.Forward || Base6Directions.GetClosestDirection(mat.Forward) == Base6Directions.Direction.Backward)
{
steerAxis = controller.WorldMatrix.Forward;
}
else if (Base6Directions.GetClosestDirection(mat.Up) == Base6Directions.Direction.Forward || Base6Directions.GetClosestDirection(mat.Up) == Base6Directions.Direction.Backward)
{
steerAxis = controller.WorldMatrix.Up;
}
else
{
steerAxis = controller.WorldMatrix.Right;
}
// - "epsilon"
if (CubeGrid.Physics != null)
{
var dotMass = Vector3.Dot(controller.WorldMatrix.Forward, (WorldMatrix.Translation - CubeGrid.Physics.CenterOfMassWorld)) - 0.0001;
var dotCockpit = Vector3.Dot(WorldMatrix.Forward, steerAxis);
m_steerInvert = ((dotMass * dotCockpit) < 0) ^ dotCockpit1;
m_revolveInvert = ((WorldMatrix.Up - revolveAxis).Length() > 0.1f) ^ dotCockpit1;
}
}
public void BroadcastAddCubeBlock(CubeBlockEntity cubeBlock)
{
try
{
Type packedStructType = CubeGridEntity.InternalType.GetNestedType(CubeGridEntity.CubeGridPackedCubeBlockClass);
Object packedStruct = Activator.CreateInstance(packedStructType);
MyCubeBlockDefinition def = MyDefinitionManager.Static.GetCubeBlockDefinition(cubeBlock.ObjectBuilder);
//Set def id
BaseObject.SetEntityFieldValue(packedStruct, "35E024D9E3B721592FB9B6FC1A1E239A", (DefinitionIdBlit)def.Id);
//Set position
BaseObject.SetEntityFieldValue(packedStruct, "5C3938C9B8CED1D0057CCF12F04329AB", cubeBlock.Position);
//Set block size
BaseObject.SetEntityFieldValue(packedStruct, "0DDB53EB9299ECC9826DF9A47E5E4F38", new Vector3UByte(def.Size));
//Set block margins
BaseObject.SetEntityFieldValue(packedStruct, "4045ED59A8C93DE0B41218EF2E947E55", new Vector3B(0, 0, 0));
BaseObject.SetEntityFieldValue(packedStruct, "096897446D5BD5243D3D6E5C53CE1772", new Vector3B(0, 0, 0));
//Set block margin scale
BaseObject.SetEntityFieldValue(packedStruct, "E28B9725868E18B339D1E0594EF14444", new Vector3B(0, 0, 0));
//Set orientation
Quaternion rot;
cubeBlock.BlockOrientation.GetQuaternion(out rot);
BaseObject.SetEntityFieldValue(packedStruct, "F1AAFF5C8F200592F313BC7E02140A38", Base6Directions.GetForward(rot));
BaseObject.SetEntityFieldValue(packedStruct, "E80AA7B84131E39F9F88209A109EED59", Base6Directions.GetUp(rot));
//Set color
BaseObject.SetEntityFieldValue(packedStruct, "556976F2528411FF5F95FC75DC13FEED", ColorExtensions.PackHSVToUint(cubeBlock.ColorMaskHSV));
object[] parameters =
{
packedStruct,
new HashSet <Vector3UByte>(),
cubeBlock.EntityId,
MyRandom.Instance.CreateRandomSeed()
};
BaseObject.InvokeEntityMethod(m_netManager, CubeGridNetManagerBroadcastAddCubeBlockMethod, parameters);
}
catch (Exception ex)
{
LogManager.ErrorLog.WriteLine(ex);
}
}
public void InitPressurization()
{
IsCubePressurized = new Dictionary <Vector3I, Dictionary <Vector3I, bool> >();
for (int i = 0; i < Size.X; i++)
{
for (int j = 0; j < Size.Y; j++)
{
for (int k = 0; k < Size.Z; k++)
{
Vector3 originalStartOffset = new Vector3(i, j, k);
Vector3 originalEndOffset = new Vector3(i, j, k) + Vector3.One;
Vector3I intOffset = new Vector3I(i, j, k);
IsCubePressurized[intOffset] = new Dictionary <Vector3I, bool>();
foreach (var direction in Base6Directions.IntDirections)
{
var normal = direction;
IsCubePressurized[intOffset][normal] = false;
if (normal.X == 1 && i != Size.X - 1)
{
continue;
}
if (normal.X == -1 && i != 0)
{
continue;
}
if (normal.Y == 1 && j != Size.Y - 1)
{
continue;
}
if (normal.Y == -1 && j != 0)
{
continue;
}
if (normal.Z == 1 && k != Size.Z - 1)
{
continue;
}
if (normal.Z == -1 && k != 0)
{
continue;
}
foreach (var mountPoint in MountPoints)
{
if (normal == mountPoint.Normal)
{
int wallIndex = MyCubeBlockDefinition.GetMountPointWallIndex(Base6Directions.GetDirection(ref normal));
Vector3I blockSize = Size;
Vector3 originalStart = mountPoint.Start;
Vector3 originalEnd = mountPoint.End;
Vector3 start, end;
MyCubeBlockDefinition.UntransformMountPointPosition(ref originalStart, wallIndex, blockSize, out start);
MyCubeBlockDefinition.UntransformMountPointPosition(ref originalEnd, wallIndex, blockSize, out end);
Vector3 endOffset;
Vector3 startOffset;
MyCubeBlockDefinition.UntransformMountPointPosition(ref originalStartOffset, wallIndex, blockSize, out startOffset);
MyCubeBlockDefinition.UntransformMountPointPosition(ref originalEndOffset, wallIndex, blockSize, out endOffset);
Vector3 eo = new Vector3(Math.Max(startOffset.X, endOffset.X), Math.Max(startOffset.Y, endOffset.Y), Math.Max(startOffset.Z, endOffset.Z));
Vector3 so = new Vector3(Math.Min(startOffset.X, endOffset.X), Math.Min(startOffset.Y, endOffset.Y), Math.Min(startOffset.Z, endOffset.Z));
if (start.X - 0.05 <= so.X && end.X + 0.05 > eo.X &&
start.Y - 0.05 <= so.Y && end.Y + 0.05 > eo.Y)
{
IsCubePressurized[intOffset][normal] = true;
break;
}
}
}
}
}
}
}
}
// Returns a position with the same position and with a flipped direction
// .-------. .-------.
// | | | |
// | o-->| ~> |<--o |
// | | | |
// '-------* .-------.
public ConveyorLinePosition GetFlippedPosition()
{
return(new ConveyorLinePosition(LocalGridPosition, Base6Directions.GetFlippedDirection(Direction)));
}
/// <summary>
/// Returns true if the given small block connects to large one.
/// </summary>
/// <param name="smallBlock">small block</param>
/// <param name="smallBlockWorldAabb">small block world AABB</param>
/// <param name="largeBlock">large block</param>
/// <param name="largeBlockWorldAabb">large block wotld AABB</param>
/// <returns>true when connected</returns>
private bool SmallBlockConnectsToLarge(MySlimBlock smallBlock, ref BoundingBoxD smallBlockWorldAabb, MySlimBlock largeBlock, ref BoundingBoxD largeBlockWorldAabb)
{
Debug.Assert(smallBlock.BlockDefinition.CubeSize == MyCubeSize.Small);
Debug.Assert(largeBlock.BlockDefinition.CubeSize == MyCubeSize.Large);
Debug.Assert(!(smallBlock.FatBlock is MyCompoundCubeBlock));
Debug.Assert(!(largeBlock.FatBlock is MyCompoundCubeBlock));
BoundingBoxD smallBlockWorldAabbReduced = smallBlockWorldAabb;
smallBlockWorldAabbReduced.Inflate(-smallBlock.CubeGrid.GridSize / 4);
// Small block aabb penetrates large block aabb (large timbers).
bool penetratesAabbs = largeBlockWorldAabb.Contains(smallBlockWorldAabbReduced) == ContainmentType.Intersects;
if (!penetratesAabbs)
{
Vector3D centerToCenter = smallBlockWorldAabb.Center - largeBlockWorldAabb.Center;
Vector3I addDir = Base6Directions.GetIntVector(Base6Directions.GetClosestDirection(centerToCenter));
// Check small grid mount points
Quaternion smallBlockRotation;
smallBlock.Orientation.GetQuaternion(out smallBlockRotation);
smallBlockRotation = Quaternion.CreateFromRotationMatrix(smallBlock.CubeGrid.WorldMatrix) * smallBlockRotation;
if (!MyCubeGrid.CheckConnectivitySmallBlockToLargeGrid(largeBlock.CubeGrid, smallBlock.BlockDefinition, ref smallBlockRotation, ref addDir))
{
return(false);
}
}
BoundingBoxD smallBlockWorldAabbInflated = smallBlockWorldAabb;
smallBlockWorldAabbInflated.Inflate(2 * smallBlock.CubeGrid.GridSize / 3);
// Trim small block aabb with large block aabb.
BoundingBoxD intersectedBox = smallBlockWorldAabbInflated.Intersect(largeBlockWorldAabb);
Vector3D intersectedBoxCenter = intersectedBox.Center;
HkShape shape = new HkBoxShape((Vector3)intersectedBox.HalfExtents);
Quaternion largeRotation;
largeBlock.Orientation.GetQuaternion(out largeRotation);
largeRotation = Quaternion.CreateFromRotationMatrix(largeBlock.CubeGrid.WorldMatrix) * largeRotation;
Vector3D largeTranslation;
largeBlock.ComputeWorldCenter(out largeTranslation);
bool result = false;
try
{
if (largeBlock.FatBlock != null)
{
MyModel model = largeBlock.FatBlock.Model;
if (model != null)
{
HkShape[] shapes = model.HavokCollisionShapes;
if (shapes == null || shapes.Length == 0)
{
return(false);
}
for (int i = 0; i < shapes.Length; ++i)
{
result = MyPhysics.IsPenetratingShapeShape(shape, ref intersectedBoxCenter, ref Quaternion.Identity, shapes[i], ref largeTranslation, ref largeRotation);
if (result)
{
break;
}
}
}
else
{
HkShape shapeLarge = new HkBoxShape(largeBlock.BlockDefinition.Size * largeBlock.CubeGrid.GridSize / 2);
result = MyPhysics.IsPenetratingShapeShape(shape, ref intersectedBoxCenter, ref Quaternion.Identity, shapeLarge, ref largeTranslation, ref largeRotation);
shapeLarge.RemoveReference();
}
}
else
{
HkShape shapeLarge = new HkBoxShape(largeBlock.BlockDefinition.Size * largeBlock.CubeGrid.GridSize / 2);
result = MyPhysics.IsPenetratingShapeShape(shape, ref intersectedBoxCenter, ref Quaternion.Identity, shapeLarge, ref largeTranslation, ref largeRotation);
shapeLarge.RemoveReference();
}
}
finally
{
shape.RemoveReference();
}
return(result);
}
private void MergeFromAnotherMesh(MyGridNavigationMesh otherMesh, ref MatrixI transform)
{
ProfilerShort.Begin("MergeFromAnotherMesh");
m_mergeHelper.Clear();
// Save the cubes from the other mesh that are touching cubes of this mesh into a helper set.
// Also put the touched cubes from this mesh into the set.
foreach (var position in otherMesh.m_smallTriangleRegistry.Keys)
{
bool add = false;
foreach (var direction in Base6Directions.IntDirections)
{
// CH: TODO: We query the grid so far, but in the future, we should make sure that the access is thread-safe
Vector3I pos = Vector3I.Transform(position + direction, transform);
if (m_cubeSet.Contains(ref pos)) // Test the transformed position...
{
m_mergeHelper.Add(position + direction); // ... but add the original one
add = true;
}
}
if (add)
{
m_mergeHelper.Add(position);
}
}
foreach (var entry in otherMesh.m_smallTriangleRegistry)
{
Vector3I originalCube = entry.Key;
Vector3I tformedCube; Vector3I.Transform(ref originalCube, ref transform, out tformedCube);
// If the cube is one of the touching cubes, we have to intersect the touching triangles
if (m_mergeHelper.Contains(originalCube))
{
// Take the touching pairs one by one and calculate triangulation of the disjoint union of the opposing faces
// Remove the opposing faces from the old block
// Add the triangulation to the mesh
// Add the rest of the navmesh from this block to the mesh
m_tmpTriangleList.Clear();
// CH: TODO. Just remove the triangles now
foreach (var direction in Base6Directions.EnumDirections)
{
Vector3I directionVec = Base6Directions.GetIntVector((int)direction);
Base6Directions.Direction tformedDirection = transform.GetDirection(direction);
Vector3I tformedFlippedVec = Base6Directions.GetIntVector((int)Base6Directions.GetFlippedDirection(tformedDirection));
// Remove face triangles from this mesh
if (m_mergeHelper.Contains(originalCube + directionVec))
{
List <int> triList = null;
if (m_smallTriangleRegistry.TryGetValue(tformedCube - tformedFlippedVec, out triList))
{
foreach (var index in triList)
{
var triangle = GetTriangle(index);
// CH: TODO: This will probably be expensive. Could we precalculate it?
if (IsFaceTriangle(triangle, tformedCube - tformedFlippedVec, tformedFlippedVec))
{
m_tmpTriangleList.Add(new KeyValuePair <MyNavigationTriangle, Vector3I>(triangle, tformedCube - tformedFlippedVec));
}
}
}
}
}
foreach (var triangle in m_tmpTriangleList)
{
RemoveTriangle(triangle.Key, triangle.Value);
}
m_tmpTriangleList.Clear();
int debugCounter = 0;
// CH: TODO: optimize this (actually whole this method)
foreach (var triangleIndex in entry.Value)
{
var triangle = otherMesh.GetTriangle(triangleIndex);
Vector3I pos = entry.Key;
bool addTriangle = true;
foreach (var direction in Base6Directions.EnumDirections)
{
Vector3I dirvec = Base6Directions.GetIntVector((int)direction);
if (m_mergeHelper.Contains(pos + dirvec) && IsFaceTriangle(triangle, pos, dirvec))
{
addTriangle = false;
break;
}
}
if (addTriangle)
{
if (debugCounter == 5)
{
}
CopyTriangle(triangle, pos, ref transform);
debugCounter++;
}
}
}
// Otherwise, we just transform the triangles from the other mesh and add them to this mesh
else
{
foreach (var triangleIndex in entry.Value)
{
var triangle = otherMesh.GetTriangle(triangleIndex);
CopyTriangle(triangle, entry.Key, ref transform);
//if (triangleIndex > 1) break;
}
}
}
m_mergeHelper.Clear();
ProfilerShort.End();
}
private void HandleFacingWithQuat(TempData tempData)
{
Quaternion targetRotation = Quaternion.Identity;
if (tempData.navData.desiredForward.HasValue)
{
if (tempData.navData.desiredUp.HasValue) //forward and up
//inverse quaternion is used to transform world direction to local direction
{
Quaternion Quat_Two = Quaternion.CreateFromForwardUp(tempData.facing, tempData.facingUp);
//var InvQuat = Quaternion.Inverse( Quat_Two );
var InvQuat = Quaternion.Inverse(Quat_Two);
//program.DebugWithAntenna( string.Format( "FW: {0:0.00} {1:0.00} {2:0.00}", tempData.navData.desiredForward.Value.X, tempData.navData.desiredForward.Value.Y, tempData.navData.desiredForward.Value.Z ) );
//program.DebugWithAntenna( string.Format( "UP: {0:0.00} {1:0.00} {2:0.00}", tempData.navData.desiredUp.Value.X, tempData.navData.desiredUp.Value.Y, tempData.navData.desiredUp.Value.Z ) );
//transform to local coordinate system
Vector3 desiredForward = Vector3.Transform(tempData.navData.desiredForward.Value, InvQuat);
Vector3 desiredUp = Vector3.Transform(tempData.navData.desiredUp.Value, InvQuat);
//program.DebugWithAntenna( string.Format( "L FW: {0:0.00} {1:0.00} {2:0.00}", desiredForward.X, desiredForward.Y, desiredForward.Z ) );
//program.DebugWithAntenna( string.Format( "L UP: {0:0.00} {1:0.00} {2:0.00}", desiredUp.X, desiredUp.Y, desiredUp.Z ) );
targetRotation = Quaternion.CreateFromForwardUp(desiredForward, desiredUp);
}
else //just forward
{
targetRotation = Quaternion.CreateFromTwoVectors(tempData.facing, tempData.navData.desiredForward.Value);
}
}
else
{
return;
}
//program.DebugWithAntenna( string.Format( "Quat: {0:0.00} {1:0.00} {2:0.00} {3:0.00}", targetRotation.X, targetRotation.Y, targetRotation.Z, targetRotation.W ) );
Vector3 turningAxis;
float angle;
targetRotation.GetAxisAngle(out turningAxis, out angle);
turningAxis = ToEulerAngles(targetRotation);
//program.DebugWithAntenna( string.Format( "Angle: {0:0.00}", angle ) );
program.DebugWithAntenna(string.Format("Angles: {0:0.00} {1:0.00} {2:0.00}", turningAxis.X, turningAxis.Y, turningAxis.Z));
foreach (var gyro in gyros)
{
try {
gyro.SetValueBool("Override", true);
gyro.Pitch = -turningAxis.Dot(Base6Directions.GetVector(gyro.Orientation.Left)) * angle;
gyro.Yaw = turningAxis.Dot(Base6Directions.GetVector(gyro.Orientation.Up)) * angle;
gyro.Roll = -turningAxis.Dot(Base6Directions.GetVector(gyro.Orientation.Forward)) * angle;
} catch (Exception e) { program.Echo(e.StackTrace); }
}
//program.Echo( string.Format( "DRS: {0:0.00} {1:0.00} {2:0.00}", desiredRotSpeed.X, desiredRotSpeed.Y, desiredRotSpeed.Z ) );
//program.Echo( string.Format( "Quat: {0:0.00} {1:0.00} {2:0.00}", targetRotation.X/targetRotation.W, targetRotation.Y / targetRotation.W, targetRotation.Z / targetRotation.W ) );
//Vector3 adjustedQuaternion = new Vector3( targetRotation.X, targetRotation.Y, targetRotation.Z ) * ( 0.5f - targetRotation.W/2 );
//Vector3 targetRotation = new Vector3( tempData.facingLeft.Dot( adjustedQuaternion ), tempData.facingUp.Dot( adjustedQuaternion ), tempData.facing.Dot( adjustedQuaternion ) );
//targetRotation = new Vector3( 0,targetRotation.Y,0 );
//program.Echo( "TR: " + targetRotation );
/*foreach(var gyro in gyros) {
* try {
* gyro.SetValueBool( "Override", true );
*
* gyro.Pitch = -targetRotation.Dot( Base6Directions.GetVector( gyro.Orientation.Left ) ) * 60;
* gyro.Yaw = targetRotation.Dot( Base6Directions.GetVector( gyro.Orientation.Up ) ) * 60;
* gyro.Roll = -targetRotation.Dot( Base6Directions.GetVector( gyro.Orientation.Forward ) ) * 60;
*
* } catch(Exception e) { program.Echo( e.StackTrace ); }
* }*/
}
protected bool CanPlaceBlock(Vector3I position, MyCubeBlockDefinition definition, Vector3I forward, Vector3I up)
{
MyBlockOrientation orientation = new MyBlockOrientation(Base6Directions.GetDirection(forward), Base6Directions.GetDirection(up));
int?ignoreMultiblockId = null;
return(this.m_grid.CanPlaceBlock(position, position, orientation, definition, ignoreMultiblockId, false));
}
/// <summary>
/// Checks for enough acceleration to move the ship forward and backward with the specified acceleration.
/// </summary>
private bool SufficientAcceleration(float acceleration)
{
return(m_mover.Thrust.CanMoveDirection(Base6Directions.GetClosestDirection(m_navDrill.LocalMatrix.Forward), acceleration) &&
m_mover.Thrust.CanMoveDirection(Base6Directions.GetClosestDirection(m_navDrill.LocalMatrix.Backward), acceleration));
}
public MyGeneratedBlockLocation(MySlimBlock refBlock, MyCubeBlockDefinition blockDefinition, Vector3I position, Vector3I forward, Vector3I up, ushort?blockIdInCompound = new ushort?(), MyAdditionalModelGeneratorBase.MyGridInfo gridInfo = null)
{
this.RefBlock = refBlock;
this.BlockDefinition = blockDefinition;
this.Position = position;
this.Orientation = new MyBlockOrientation(Base6Directions.GetDirection(ref forward), Base6Directions.GetDirection(ref up));
this.BlockIdInCompound = blockIdInCompound;
this.GridInfo = gridInfo;
this.GeneratedBlockType = MyStringId.NullOrEmpty;
}
/// <summary>
/// Returns subblock data from dummy, subblock matrix can be offset (according to useOffset parameter) so the dummy position output is also provided.
/// </summary>
/// <returns>true when dummy is subblock otherwise false</returns>
public static bool GetSubBlockDataFromDummy(MyCubeBlockDefinition ownerBlockDefinition, string dummyName, MyModelDummy dummy, bool useOffset, out MyCubeBlockDefinition subBlockDefinition,
out MatrixD subBlockMatrix, out Vector3 dummyPosition)
{
subBlockDefinition = null;
subBlockMatrix = MatrixD.Identity;
dummyPosition = Vector3.Zero;
if (!dummyName.ToLower().StartsWith(MyCubeBlock.DUMMY_SUBBLOCK_ID))
{
return(false);
}
if (ownerBlockDefinition.SubBlockDefinitions == null)
{
return(false);
}
string dummyNameShort = dummyName.Substring(MyCubeBlock.DUMMY_SUBBLOCK_ID.Length);
MyDefinitionId definitiondId;
if (!ownerBlockDefinition.SubBlockDefinitions.TryGetValue(dummyNameShort, out definitiondId))
{
Debug.Assert(false, "SubBlock definition not found!");
return(false);
}
MyDefinitionManager.Static.TryGetCubeBlockDefinition(definitiondId, out subBlockDefinition);
if (subBlockDefinition == null)
{
Debug.Assert(false, "SubBlock definition not found!");
return(false);
}
const double dotEpsilon = 0.00000001;
subBlockMatrix = MatrixD.Normalize(dummy.Matrix);
Vector3I forward = Base6Directions.GetIntVector(Base6Directions.GetClosestDirection(subBlockMatrix.Forward));
double forwardDot = Vector3D.Dot(subBlockMatrix.Forward, (Vector3D)forward);
if (Math.Abs(1 - forwardDot) <= dotEpsilon)
{
subBlockMatrix.Forward = forward;
}
Vector3I right = Base6Directions.GetIntVector(Base6Directions.GetClosestDirection(subBlockMatrix.Right));
double rightDot = Vector3D.Dot(subBlockMatrix.Right, (Vector3D)right);
if (Math.Abs(1 - rightDot) <= dotEpsilon)
{
subBlockMatrix.Right = right;
}
Vector3I up = Base6Directions.GetIntVector(Base6Directions.GetClosestDirection(subBlockMatrix.Up));
double upDot = Vector3D.Dot(subBlockMatrix.Up, (Vector3D)up);
if (Math.Abs(1 - upDot) <= dotEpsilon)
{
subBlockMatrix.Up = up;
}
dummyPosition = subBlockMatrix.Translation;
if (useOffset)
{
Vector3 offset = MyCubeBlock.GetBlockGridOffset(subBlockDefinition);
subBlockMatrix.Translation -= Vector3D.TransformNormal(offset, subBlockMatrix);
}
return(true);
}
protected void AddGeneratedBlock(MySlimBlock refBlock, MyCubeBlockDefinition generatedBlockDefinition, Vector3I position, Vector3I forward, Vector3I up)
{
MyBlockOrientation orientation = new MyBlockOrientation(Base6Directions.GetDirection(ref forward), Base6Directions.GetDirection(ref up));
if (generatedBlockDefinition.Size == Vector3I.One)
{
ushort?blockIdInCompound = null;
this.m_addLocations.Add(new MyGeneratedBlockLocation(refBlock, generatedBlockDefinition, position, orientation, blockIdInCompound, null));
}
}
protected static bool CheckConnectivityOnGrid(MySlimBlock block, ref MatrixI transform, ref MyGridPlacementSettings settings, MyCubeGrid hitGrid)
{
Vector3I position;
Vector3I.Transform(ref block.Position, ref transform, out position);
Vector3I forward = Base6Directions.GetIntVector(transform.GetDirection(block.Orientation.Forward));
Vector3I up = Base6Directions.GetIntVector(transform.GetDirection(block.Orientation.Up));
MyBlockOrientation blockOrientation = new MyBlockOrientation(Base6Directions.GetDirection(forward), Base6Directions.GetDirection(up));
Quaternion rotation;
blockOrientation.GetQuaternion(out rotation);
return(MyCubeGrid.CheckConnectivity(hitGrid, block.BlockDefinition, ref rotation, ref position));
}
static void GenerateConvexVertices()
{
List <Vector3> tmpHelperVerts = new List <Vector3>(27);
var topologyValues = Enum.GetValues(typeof(MyCubeTopology));
Cache = new List <Vector3> [topologyValues.Length][];
foreach (var topologyObj in topologyValues)
{
var topology = (MyCubeTopology)topologyObj;
GetTopologySwitch(topology, tmpHelperVerts);
Cache[(int)topology] = new List <Vector3> [6 * 6];
foreach (var forward in Base6Directions.EnumDirections)
{
foreach (var up in Base6Directions.EnumDirections)
{
if (forward == up || Base6Directions.GetIntVector(forward) == -Base6Directions.GetIntVector(up))
{
continue;
}
var list = new List <Vector3>(tmpHelperVerts.Count);
Cache[(int)topology][(int)forward * 6 + (int)up] = list;
var orientation = new MyBlockOrientation(forward, up);
foreach (var vert in tmpHelperVerts)
{
list.Add(Vector3.TransformNormal(vert, orientation));
}
}
}
tmpHelperVerts.Clear();
}
}
