public void TestApplyTurn(Turn turn, Cardinal a, Cardinal b)
{
var expected = new Position(0, 0, b);
var actual = (new EasterNavigation()).ApplyTurn(new Position(0, 0, a), turn);
Assert.Equal(expected, actual);
}
private void Process(Chunk fromChunk, Cardinal direction)
{
if (fromChunk == null)
{
return;
}
Vector3i chunkIndexAdd;
Vector3i chunkIndexRemove;
SignedVector3i addDelta = Cardinals.VectorFrom(direction) * (World.VIEW_DISTANCE_NEAR_X);
SignedVector3i removeDelta = Cardinals.OppositeVectorFrom(direction) * (World.VIEW_DISTANCE_NEAR_X);
chunkIndexAdd = fromChunk.Index.add(addDelta);
if (world.viewableChunks[chunkIndexAdd.X, chunkIndexAdd.Z] != null)
{
return;
}
chunkIndexRemove = fromChunk.Index.add(removeDelta);
Debug.WriteLine("Process {0} Add at {1}, remove at {2}", direction, chunkIndexAdd, chunkIndexRemove);
//Chunk toRemove = world.viewableChunks[chunkIndexRemove.X, chunkIndexRemove.Z];
//world.viewableChunks.Remove(toRemove.Index.X, toRemove.Index.Z);
world.viewableChunks.Remove(chunkIndexRemove.X, chunkIndexRemove.Z);//null safe
// Instead of removing, Re assign new chunk to opposite chunk
//toRegen.Assign(chunkIndexAdd);
// Generate & Build new chunk
Chunk addedChunk = DoGenerate(chunkIndexAdd);
DoBuild(addedChunk);
}
public static Slider Slide(this Rect r, Cardinal direction)
{
Slider s = new Slider(r);
s.Slide(direction);
return(s);
}
public void TestApplyMagnitude(Cardinal direction, int magnitude, int x, int y)
{
var expected = new Position(x, y, direction);
var actual = (new EasterNavigation()).ApplyMagnitude(new Position(0, 0, direction), magnitude);
Assert.Equal(expected, actual);
}
public List <MapPoint> GetRange(bool forceRebuild = false)
{
if (m_cachedRange == null || forceRebuild)
{
m_cachedRange = new List <MapPoint>();
m_cachedRange.Add(GetMapPos());
for (Cardinal dir = Cardinal.North; dir <= Cardinal.West; dir++)
{
for (int range = 1; range <= m_range; range++)
{
var point = (GameController.CardinalToDelta(dir) * range) + GetMapPos();
// stop when hitting a wall
if (!Map.IsValid(point))
{
break;
}
var tile = Map.GetAt(point);
if (tile == MapTile.Wall)
{
break;
}
// spawn explosion manager
m_cachedRange.Add(point);
// if we're going through a crate, stop here instead (after the explosion was placed)
if (tile == MapTile.Crate)
{
break;
}
}
}
}
return(m_cachedRange);
}
public void Run()
{
int j = 1;
const int startingLocation = 1;
const Cardinal startingDirection = Cardinal.South;
var rover = new Rover(startingLocation, startingDirection);
for (int i = 0; i < j; i++)
{
Console.WriteLine("Please enter the comma separated list of directions for the rover");
string argList = Console.ReadLine();
argList = RemoveWhitespace(argList);
IEnumerable <string> commands = argList.Split(',').AsEnumerable();
var roverCalc = new RoverCoordinateCalculate(commands);
var(Location, Compass) = roverCalc.AddressCommands(rover.Location, rover.CardinalDirection);
rover.Location = Location;
rover.CardinalDirection = Compass;
Console.WriteLine($"Rover is now at {rover.Location}, facing {rover.CardinalDirection}");
Console.WriteLine("Any further commands? Y/N");
string response = Console.ReadLine();
if (RepeatProcess(response))
{
j++;
}
else
{
return;
}
}
}
public static Cardinal AddCardinal(Cardinal c1, Cardinal c2)
{
int cardinalIntResult = (int)c1 + (int)c2;
cardinalIntResult = cardinalIntResult % 4;
return((Cardinal)cardinalIntResult);
}
public override void Update(GameTime gameTime)
{
Chunk currentChunk = world.ChunkAt(camera.Position);
if (currentChunk == null)
{
return; // should not happen when this code will be finished
}
// if (currentChunk.Index != previousChunkIndex )
// {
Cardinal direction = camera.FacingCardinal();
previousChunkIndex = currentChunk.Index;
previousDirection = direction;
Process(currentChunk, direction);
Cardinal[] adjacents = Cardinals.Adjacents(direction);
Chunk adjacentChunk;
//process the adjacent chunks, for example when going north, first process west chunks and then east chunks
foreach (Cardinal adj in adjacents)
{
adjacentChunk = currentChunk;
while (adjacentChunk.GetNeighbour(adj) != null)
{
adjacentChunk = adjacentChunk.GetNeighbour(adj);
//Debug.WriteLine("current[ {0}],adj {1} : {2}",currentChunk, adj, adjacentChunk);
Process(adjacentChunk, direction);
}
}
//}
}
public NewRoverCommand(INasa nasa, IPlateau plateau, Location position, Cardinal cardinal)
{
_nasa = nasa;
_plateau = plateau;
this.position = position;
this.cardinal = cardinal;
}
public Chunk GetNeighbour(Cardinal c)
{
switch (c)
{
case Cardinal.N:
return(N);
case Cardinal.S:
return(S);
case Cardinal.E:
return(E);
case Cardinal.W:
return(W);
case Cardinal.SE:
return(SE);
case Cardinal.SW:
return(SW);
case Cardinal.NE:
return(NE);
case Cardinal.NW:
return(NW);
}
throw new NotImplementedException();
}
/// <summary>
/// Recursive function which visits a specified cell and goes to another cell adjacent until
/// all the cells around it are either connected to the cell, or visited by another path.
/// </summary>
/// <param name="x">x Coordinate of the cell.</param>
/// <param name="y">y Coordinate of the cell.</param>
/// <param name="direction">Direction the cell is being visited from.</param>
/// <param name="rand">Passes a random number generator through, to allow the use of a seed throughout the code without a global variable.</param>
private void Generate(int x, int y, Cardinal cardinal, Random rand)
{
Cells[x][y].Visit(cardinal);
cardinal = GetCardinal(rand, x, y);
while (cardinal != Cardinal.NONE)//will visit each direction not currently visited around the current cell.
{
switch (cardinal)
{
case Cardinal.NORTH:
Generate(x, y - 1, Cardinal.SOUTH, rand);
break;
case Cardinal.EAST:
Generate(x + 1, y, Cardinal.WEST, rand);
break;
case Cardinal.SOUTH:
Generate(x, y + 1, Cardinal.NORTH, rand);
break;
case Cardinal.WEST:
Generate(x - 1, y, Cardinal.EAST, rand);
break;
}
Cells[x][y].Visit(cardinal);
cardinal = GetCardinal(rand, x, y);
}
}
private void SetMoveDir()
{
int xDiff = CurrentTile.X - NextTile.X;
if (xDiff != 0)
{
if (xDiff < 0)
{
moveDir = Cardinal.East;
}
else
{
moveDir = Cardinal.West;
}
}
else
{
int yDiff = CurrentTile.Y - NextTile.Y;
if (yDiff < 0)
{
moveDir = Cardinal.North;
}
else
{
moveDir = Cardinal.South;
}
}
}
private bool MakeInteraction()
{
// Returns true if interacted, false if not an interactable
Vector2 center = _collider.bounds.center;
Vector2 direction = Cardinal.vectorForDirection(_lookPosition);
float size = _collider.size.x;
// Disables own collider to prevent colliding on itself
_collider.enabled = false;
RaycastHit2D hit = Physics2D.Raycast(center, direction, size);
_collider.enabled = true;
if (hit.collider != null)
{
// Interactable interactable = hit.transform.GetComponent<Interactable>();
Interactable[] interactables = hit.transform.GetComponents <Interactable>();
if (interactables.Length < 1)
{
// Can't interact with this.
return(false);
}
else
{
// Interaction successful.
foreach (Interactable interactable in interactables)
{
interactable.Interact(this.gameObject);
}
return(true);
};
}
return(false);
}
private int SetLocationAdjustment(Cardinal compass, int locationDiff)
{
var newLocation = 0;
switch (compass)
{
case Cardinal.South:
newLocation += (locationDiff * _yScalar); // Add 100 with every meter
break;
case Cardinal.West:
newLocation -= locationDiff; // subtract 1 with every meter
break;
case Cardinal.North:
newLocation -= (locationDiff * _yScalar); // Subtract 100 with every meter
break;
case Cardinal.East:
newLocation += locationDiff; // Add 1 with every meter
break;
}
return(newLocation);
}
public CombinedAxis(Stick stick1, Stick stick2, Stick stick3, Cardinal dimension)
{
_stick1 = stick1;
_stick2 = stick2;
_stick3 = stick3;
_dimension = dimension;
}
public Position ApplyTurn(Position position, Turn turn)
{
Cardinal facing = Cardinal.North;
switch (position.facing)
{
case Cardinal.North:
facing = ApplyTurn(turn, Cardinal.West, Cardinal.East);
break;
case Cardinal.South:
facing = ApplyTurn(turn, Cardinal.East, Cardinal.West);
break;
case Cardinal.East:
facing = ApplyTurn(turn, Cardinal.North, Cardinal.South);
break;
case Cardinal.West:
facing = ApplyTurn(turn, Cardinal.South, Cardinal.North);
break;
default:
facing = Cardinal.North;
break;
}
return(new Position(position.x, position.y, facing));
}
public static void CardinalToDelta(Cardinal dir, out int dx, out int dy)
{
switch (dir)
{
case Cardinal.North:
dx = 0;
dy = 1;
break;
case Cardinal.South:
dx = 0;
dy = -1;
break;
case Cardinal.East:
dx = 1;
dy = 0;
break;
case Cardinal.West:
dx = -1;
dy = 0;
break;
default:
throw new ArgumentException(nameof(dir));
}
}
public static MapPoint CardinalToDelta(Cardinal dir)
{
int dx, dy;
CardinalToDelta(dir, out dx, out dy);
return(new MapPoint(dx, dy));
}
public static SignedVector3i OppositeVectorFrom(Cardinal c)
{
switch (c)
{
case Cardinal.N: return(S);
case Cardinal.NE: return(SW);
case Cardinal.E: return(W);
case Cardinal.SE: return(NW);
case Cardinal.S: return(N);
case Cardinal.SW: return(NE);
case Cardinal.W: return(E);
case Cardinal.NW: return(SE);
default:
break;
}
throw new NotImplementedException("unknown cardinal direction " + c);
}
public static Cardinal[] Adjacents(Cardinal from)
{
switch (from)
{
case Cardinal.N: return(new Cardinal[] { Cardinal.E, Cardinal.W });
case Cardinal.NE: return(new Cardinal[] { Cardinal.S, Cardinal.W, Cardinal.E, Cardinal.N });
case Cardinal.E: return(new Cardinal[] { Cardinal.N, Cardinal.S });
case Cardinal.SE: return(new Cardinal[] { Cardinal.N, Cardinal.W, Cardinal.E, Cardinal.S });
case Cardinal.S: return(new Cardinal[] { Cardinal.E, Cardinal.W });
case Cardinal.SW: return(new Cardinal[] { Cardinal.N, Cardinal.E, Cardinal.W, Cardinal.S });
case Cardinal.W: return(new Cardinal[] { Cardinal.N, Cardinal.S });
case Cardinal.NW: return(new Cardinal[] { Cardinal.S, Cardinal.E, Cardinal.N, Cardinal.W });
default:
break;
}
throw new NotImplementedException("unknown cardinal direction " + from);
}
bool CheckParallel(Cardinal direction, Vector2 startPos, RoomSize roomSize)
{
Vector2 dir = new Vector2(0, 0);
Tile tile;
for (int i = 0; i < (int)roomSize; i++)
{
if (direction == Cardinal.up)
{
dir = Vector2.up;
}
else if (direction == Cardinal.down)
{
dir = Vector2.down;
}
else if (direction == Cardinal.left)
{
dir = Vector2.left;
}
else if (direction == Cardinal.right)
{
dir = Vector2.right;
}
if (tiles.TryGetValue(dir * i + startPos, out tile))
{
return(false);
}
}
return(true);
}
private bool GetPerimeterValidation(Cardinal compass, int location, int boundaryLimit)
{
if (compass == Cardinal.North || compass == Cardinal.West)
{
return(location < boundaryLimit); // Lower boundary
}
return(Math.Abs(location) > boundaryLimit); // Upper boundary
}
public void CardinalMigrateReturnsTrueTest()
{
// Act
Cardinal cardinal = new Cardinal();
// Assert
Assert.True(cardinal.Migrate());
}
public void CardinalColorReturnsRedTest()
{
// Act
Cardinal cardinal = new Cardinal();
// Assert
Assert.Equal("red", cardinal.Color);
}
private void ParseCommand(string command, out int x, out int y, out Cardinal cardinal)
{
var splitCommand = command.Split(' ');
x = int.Parse(splitCommand[0]);
y = int.Parse(splitCommand[1]);
cardinal = Enum.Parse <Cardinal>(splitCommand[2]);
}
private static Command ParsePlaceCommand(string[] arguments)
{
Cardinal cardinal = GetCardinal(arguments[3]);
return(new PlaceCommand(new PointsTo(cardinal),
int.Parse(arguments[1]),
int.Parse(arguments[2])));
}
public Map(Vector2 pivot, int num)
{
this.pivot = pivot;
this.num = num;
parentCardinal = Cardinal.none;
root = new Dictionary <Cardinal, Map>();
}
public List <PathNode> FindPath(BlockPos start, BlockPos end, int maxFallHeight, float stepHeight, Cuboidf entityCollBox, int searchDepth = 9999, bool allowReachAlmost = false)
{
blockAccess.Begin();
centerOffsetX = 0.35 + api.World.Rand.NextDouble() * 0.35;
centerOffsetZ = 0.35 + api.World.Rand.NextDouble() * 0.35;
NodesChecked = 0;
PathNode startNode = new PathNode(start);
PathNode targetNode = new PathNode(end);
openSet.Clear();
closedSet.Clear();
openSet.Add(startNode);
while (openSet.Count > 0)
{
if (NodesChecked++ > searchDepth)
{
return(null);
}
PathNode nearestNode = openSet.First();
foreach (var node in openSet)
{
if (node.fCost <= nearestNode.fCost && node.hCost < nearestNode.hCost)
{
nearestNode = node;
}
}
openSet.Remove(nearestNode);
closedSet.Add(nearestNode);
if (nearestNode == targetNode || (allowReachAlmost && Math.Abs(nearestNode.X - targetNode.X) <= 1 && Math.Abs(nearestNode.Z - targetNode.Z) <= 1 && nearestNode.Y == targetNode.Y))
{
return(retracePath(startNode, nearestNode));
}
for (int i = 0; i < Cardinal.ALL.Length; i++)
{
Cardinal card = Cardinal.ALL[i];
PathNode neighbourNode = new PathNode(nearestNode, card);
float extraCost = 0;
if (traversable(neighbourNode, stepHeight, maxFallHeight, entityCollBox, card.IsDiagnoal, ref extraCost) && !closedSet.Contains(neighbourNode))
{
addIfNearer(nearestNode, neighbourNode, targetNode, openSet, extraCost);
}
}
}
return(null);
}
public override void AddPieceTypes()
{
base.AddPieceTypes();
AddPieceType(Wizard = new Wizard("Wizard", "W", 460, 460));
AddPieceType(Champion = new Champion("Champion", "C", 475, 475));
// Set the name for the Archbishop (called a Cardinal in Grand Chess)
Cardinal.Name = "Archbishop";
Cardinal.SetNotation("A");
}
private int GetLimitForLatitudinalTravel(Cardinal compass, int location)
{
int column = location == 0 ? 1 : location % 100,
cellRow = (location / 100) + 1,
upperLimit = cellRow * 100,
lowerLimit = upperLimit - 99;
return(compass == Cardinal.East? upperLimit : lowerLimit);
}
public static GUISliderMessage Factory(Rect a, float power, string m, Cardinal direction) {
GameObject g = new GameObject("GUISliderMessage");
GUISliderMessage sm = g.AddComponent<GUISliderMessage>();
sm.slidePower = power;
sm.area = a;
sm.message = m;
sm.direction = direction;
sm.skin = Resources.Load("message", typeof(GUISkin)) as GUISkin;
return sm;
}
public MMCardinal(Cardinal direction)
{
switch (direction)
{
case Cardinal.Down:
dir = VecUtil.GetNormDown();
break;
case Cardinal.Up:
dir = VecUtil.GetNormUP();
break;
case Cardinal.Left:
dir = VecUtil.GetNormLeft();
break;
case Cardinal.Right:
dir = VecUtil.GetNormRight();
break;
}
}
public void ShootWhithCanon(Cardinal cardinal)
{
List<int> m_ListOfCanonToShoot = new List<int>();
switch (cardinal)
{
case Cardinal.North:
m_ListOfCanonToShoot.Add(0);
m_ListOfCanonToShoot.Add(1);
m_ListOfCanonToShoot.Add(16);
break;
case Cardinal.East:
m_ListOfCanonToShoot.Add(1);
m_ListOfCanonToShoot.Add(2);
m_ListOfCanonToShoot.Add(3);
m_ListOfCanonToShoot.Add(4);
m_ListOfCanonToShoot.Add(5);
break;
case Cardinal.South:
m_ListOfCanonToShoot.Add(6);
m_ListOfCanonToShoot.Add(7);
m_ListOfCanonToShoot.Add(8);
m_ListOfCanonToShoot.Add(9);
m_ListOfCanonToShoot.Add(10);
m_ListOfCanonToShoot.Add(11);
break;
case Cardinal.West:
m_ListOfCanonToShoot.Add(12);
m_ListOfCanonToShoot.Add(13);
m_ListOfCanonToShoot.Add(14);
m_ListOfCanonToShoot.Add(15);
m_ListOfCanonToShoot.Add(16);
break;
}
Action(m_ListOfCanonToShoot);
}
public static Slider Slide(this Rect r, Cardinal direction) {
Slider s = new Slider(r);
s.Slide(direction);
return s;
}
public static GUISliderMessage Factory(Rect a, string m, Cardinal direction) { return Factory(a, 1, m, direction); }
public void Slide(Cardinal direction, float power) {
if (direction == Cardinal.Up) { SlideUp(power); }
else if (direction == Cardinal.Down) { SlideDown(power); }
else if (direction == Cardinal.Left) { SlideLeft(power); }
else if (direction == Cardinal.Right) { SlideRight(power); }
}
public void Slide(Cardinal direction) { Slide(direction, 1); }
