private static bool ColumnScan(Cell root, ref List <Cell> cellGrouping, Direction startingDirection)
{
var currentDirection = startingDirection;
var currentCell = root;
var result = new List <Cell>();
//A circle has 4 steps of scanning
for (int i = 0; i < 4; i++)
{
if (CellCollection.HasCellAt(currentCell.Step(currentDirection)))
{
var nextCell = CellCollection.cells[currentCell.Step(currentDirection)];
if (!nextCell.HasSameRoom(root))
{
break;
}
currentDirection = currentDirection.Right();
result.Add(currentCell);
currentCell = nextCell;
}
else
{
break;
}
}
if (result.Count == 4)
{
cellGrouping = result;
return(true);
}
return(false);
}
public static Direction DirectionToNeighbor(this Cell cell, Cell targetCell)
{
foreach (var direction in Directionf.Directions())
{
if (CellCollection.HasCellAt(cell.Step(direction)) && CellCollection.cells[cell.Step(direction)] == targetCell)
{
return(direction);
}
}
return(Direction.Up);
}
private static List <Cell> ProjectRoom_PartialBloom(Cell root, ref List <Cell> cellsLeftToClaim, int claimAmount, float claimChance)
{
var result = new List <Cell>()
{
root
};
var claimedAmount = result.Count;
var currentRoots = new List <Cell> {
root
};
while (claimedAmount < claimAmount)
{
var nextRoots = new List <Cell>();
foreach (var currentRoot in currentRoots.ToList())
{
foreach (var direction in Directionf.Directions().Shuffle())
{
var target = currentRoot.Step(direction);
if (CellCollection.HasCellAt(target) && cellsLeftToClaim.Any(x => x.position == target))
{
var chanceRoll = Random.Range(0.0f, 1.0f);
if (chanceRoll <= claimChance)
{
nextRoots.Add(CellCollection.cells[target]);
cellsLeftToClaim.Remove(CellCollection.cells[target]);
claimedAmount++;
result.Add(CellCollection.cells[target]);
}
else
{
claimedAmount--;
}
}
}
if (!nextRoots.Any()) //Ran out of cells to claim, just take what we got
{
return(result);
}
}
currentRoots = nextRoots;
}
return(result);
}
public static List <Cell> NeighborCellsInRegion(this Cell cell)
{
var result = new List <Cell>();
if (cell.regionId == "")
{
return(result);
}
foreach (var direction in Directionf.Directions())
{
if (CellCollection.HasCellAt(cell.Step(direction)) &&
CellCollection.cells[cell.Step(direction)].regionId == cell.regionId)
{
result.Add(CellCollection.cells[cell.Step(direction)]);
}
}
return(result);
}
private static void Wall_ParseMain(Room room, ref Scaffold scaffold)
{
foreach (var cell in room.GetCells())
{
foreach (var direction in Directionf.Directions())
{
if (CellCollection.HasCellAt(cell.Step(direction)))
{
var neighbor = CellCollection.cells[cell.Step(direction)];
if (neighbor.roomId != cell.roomId)
{
RenderWallNode(cell, direction, ref scaffold);
}
}
else
{
RenderWallNode(cell, direction, ref scaffold);
}
}
}
}
public static List <Cell> NeighborCellsOutOfRoom(this Cell cell, bool includeElevation = false)
{
var result = new List <Cell>();
foreach (var direction in Directionf.Directions())
{
if (CellCollection.HasCellAt(cell.Step(direction)) &&
CellCollection.cells[cell.Step(direction)].roomId != cell.roomId)
{
if (!includeElevation && CellCollection.cells[cell.Step(direction)].type == CellType.Elevation)
{
continue;
}
else
{
result.Add(CellCollection.cells[cell.Step(direction)]);
}
}
}
return(result);
}
public static List <Cell> Project(Cell root, ref List <Cell> cellsLeftToClaim, int claimAmount)
{
var result = new List <Cell>()
{
root
};
var claimedAmount = result.Count;
var currentRoots = new List <Cell> {
root
};
while (claimedAmount < claimAmount)
{
var nextRoots = new List <Cell>();
foreach (var currentRoot in currentRoots.ToList())
{
foreach (var direction in Directionf.Directions().Shuffle())
{
var target = currentRoot.Step(direction);
if (CellCollection.HasCellAt(target) && cellsLeftToClaim.Any(x => x.position == target))
{
nextRoots.Add(CellCollection.cells[target]);
cellsLeftToClaim.Remove(CellCollection.cells[target]);
claimedAmount++;
result.Add(CellCollection.cells[target]);
}
}
if (!nextRoots.Any()) //Ran out of cells to claim, just take what we got
{
return(result);
}
}
currentRoots = nextRoots;
}
return(result);
}
private static void Elevation_Parse(Room room, ref Scaffold scaffold)
{
foreach (var cell in room.GetCells().Where(x => x.type == CellType.Elevation))
{
//Upper Scan
if (CellCollection.HasCellAt(cell.Step(Direction.Up)))
{
var upper = CellCollection.cells[cell.Step(Direction.Up)];
if (!scaffold.elevation.Any(x => x.lower == cell))
{
var node = new Node_Elevation();
node.lower = cell;
node.upper = upper;
node.position = upper.position;
node.rootCells.Add(upper);
node.rootCells.Add(cell);
cell.elevationOverride_Lower = true;
upper.elevationOverride_Upper = true;
scaffold.elevation.Add(node);
}
}
}
}
public static void Proliferate(ref Region region)
{
var cellsWithOpenings = region.GetCells().Where(x => x.NeighborOpenings().Any() && x.type == CellType.Cell).ToList();
var cellsToAdd = new List <Cell>();
foreach (var cell in cellsWithOpenings)
{
//Recheck for openings
var openings = cell.NeighborOpenings();
if (!openings.Any())
{
continue;
}
foreach (var opening in openings)
{
var currentCell = cell;
for (int i = 0; i < region.proliferationAmount; i++)
{
if (CellCollection.HasCellAt(currentCell.Step(opening)))
{
break;
}
else
{
var nextCell = new Cell(CellType.Cell, currentCell.Step(opening));
nextCell.parent = currentCell;
nextCell.regionId = region.id;
cellsToAdd.Add(nextCell);
currentCell = cell;
}
}
}
}
CellCollection.Add(cellsToAdd);
}
public static List <Cell> NeighborCellsInRoom(this Cell cell, bool includeDiagonal = false)
{
var result = new List <Cell>();
foreach (var direction in Directionf.Directions())
{
if (CellCollection.HasCellAt(cell.Step(direction)) &&
CellCollection.cells[cell.Step(direction)].roomId == cell.roomId)
{
result.Add(CellCollection.cells[cell.Step(direction)]);
}
if (includeDiagonal)
{
if (CellCollection.HasCellAt(cell.Step(direction).Step(direction.Right())) &&
CellCollection.cells[cell.Step(direction).Step(direction.Right())].roomId == cell.roomId)
{
result.Add(CellCollection.cells[cell.Step(direction).Step(direction.Right())]);
}
}
}
return(result);
}
public static void Expand(ref Region region)
{
var cellsToAdd = new List <Cell>();
var cells = region.GetCells();
var sequenceLength = cells.Last().sequence;
var sequenceMiddle = cells.Sum(s => s.sequence) / cells.Where(x => x.sequence > 0).Count();
var pathwayCells = cells.Where(x => x.type == CellType.Pathway).ToArray();
foreach (var pathwayCell in pathwayCells) //Ignore elevation cells, those cannot expand
{
cellsToAdd = new List <Cell>();
var expansionAmount = 0;
foreach (var direction in Directionf.Directions())
{
if (region.cellExpansionConstant)
{
expansionAmount = region.cellExpansionAmount;
var currentCell = pathwayCell;
for (int i = 0; i < expansionAmount; i++)
{
if (CellCollection.HasCellAt(currentCell.position.Step(direction)))
{
break;
}
else
{
var cell = new Cell(CellType.Cell, currentCell.position.Step(direction));
cell.parent = currentCell;
cell.regionId = region.id;
cellsToAdd.Add(cell);
currentCell = cell;
}
}
}
else
{
if (pathwayCell.sequence <= sequenceMiddle)
{
expansionAmount = Mathf.FloorToInt(
Mathf.Lerp(region.cellExpansionStart,
region.cellExpansionMiddle,
pathwayCell.sequence / (sequenceLength - sequenceMiddle)));
}
else
{
expansionAmount = Mathf.FloorToInt(
Mathf.Lerp(region.cellExpansionMiddle,
region.cellExpansionEnd,
(pathwayCell.sequence - sequenceMiddle) / (sequenceLength - sequenceMiddle)));
}
var currentCell = pathwayCell;
for (int i = 0; i < expansionAmount; i++)
{
if (CellCollection.HasCellAt(currentCell.position.Step(direction)))
{
break;
}
else
{
var cell = new Cell(CellType.Cell, currentCell.position.Step(direction));
cell.parent = currentCell;
cell.regionId = region.id;
cellsToAdd.Add(cell);
currentCell = cell;
}
}
}
}
try
{
CellCollection.Add(cellsToAdd);
}
catch (Exception e) {
continue;
}
}
}
public static bool BuildPath(ref Region region)
{
//Get direction of pathway
var directions = FindDirectionVector(region.startPosition, region.endPosition);
var xDistance = GetDistance(region.startPosition.x, region.endPosition.x, Cellf.CELL_STEP_OFFSET);
var yDistance = GetDistance(region.startPosition.y, region.endPosition.y, Cellf.CELL_STEP_OFFSET / 2);
var zDistance = GetDistance(region.startPosition.z, region.endPosition.z, Cellf.CELL_STEP_OFFSET);
var retries = RETRIES;
var success = false;
while (retries > 0)
{
retries--;
#region Reset Values
var finishEndCellMetadata = false;
var cellsToAdd = new List <Cell>();
var xTemp = xDistance;
var yTemp = yDistance;
var zTemp = zDistance;
Cell currentCell = null;
Cell lastCell = null;
Cell secondLastCell = null; //Used to prevent the end of a path from being an elevation cell
#endregion
#region Init
//Start cell
if (CellCollection.HasCellAt(region.startPosition)) //If starting from an existing path
{
currentCell = CellCollection.cells[region.startPosition];
}
else
{
var cell = new Cell(CellType.Pathway, region.startPosition);
cell.sequence = sequence++;
cell.regionId = region.id;
cell.parent = currentCell;
cellsToAdd.Add(cell);
currentCell = cell;
}
//Force horizontal start
if (xTemp > 0 || zTemp > 0)
{
var directionsToTry = new List <Direction>();
if (xTemp > 0)
{
directionsToTry.Add(directions.xDirection);
}
if (zTemp > 0)
{
directionsToTry.Add(directions.zDirection);
}
var directionToGo = directionsToTry[Random.Range(0, directionsToTry.Count)];
if (directionToGo == directions.xDirection)
{
xTemp--;
}
else
{
zTemp--;
}
if (CellCollection.HasCellAt(currentCell.Step(directionToGo)))
{
success = false; retries--; continue;
}
var cell = new Cell(CellType.Pathway, currentCell.Step(directionToGo));
cell.sequence = sequence++;
cell.regionId = region.id;
cell.parent = currentCell;
currentCell.children.Add(cell);
cellsToAdd.Add(cell);
currentCell = cell;
}
//End cell
if (CellCollection.HasCellAt(region.endPosition)) //If connecting to an existing path
{
lastCell = CellCollection.cells[region.endPosition];
}
else
{
var cell = new Cell(CellType.Pathway, region.endPosition);
//Sequence and parents will have to be added later
finishEndCellMetadata = true;
cell.regionId = region.id;
cellsToAdd.Add(cell);
lastCell = cell;
}
//Remove a temp increment for the end cell
var directionsForEnd = new List <Direction>();
if (xTemp > 0)
{
directionsForEnd.Add(directions.xDirection);
}
if (zTemp > 0)
{
directionsForEnd.Add(directions.zDirection);
}
var directionToRemoveFrom = directionsForEnd[Random.Range(0, directionsForEnd.Count)];
if (directionToRemoveFrom == directions.xDirection)
{
xTemp--;
}
else
{
zTemp--;
}
//Force horizontal end
if (xTemp > 0 || zTemp > 0)
{
var directionsToTry = new List <Direction>();
if (xTemp > 0)
{
directionsToTry.Add(directions.xDirection.Opposite());
}
if (zTemp > 0)
{
directionsToTry.Add(directions.zDirection.Opposite());
}
var directionToGo = directionsToTry[Random.Range(0, directionsToTry.Count)];
if (directionToGo == directions.xDirection.Opposite())
{
xTemp--;
}
else
{
zTemp--;
}
if (CellCollection.HasCellAt(lastCell.Step(directionToGo)))
{
success = false; retries--; continue;
}
var cell = new Cell(CellType.Pathway, lastCell.Step(directionToGo));
//Sequence and parent will have to be added later
cell.children.Add(lastCell);
cell.regionId = region.id;
cellsToAdd.Add(cell);
lastCell.parent = cell; //End cell parent finalized
secondLastCell = cell; //Save this for metadata finalization at the end
}
#endregion
#region Generate
bool elevationMode = false;
while (xTemp + zTemp + yTemp > 0)
{
var directionsLeft = new List <Direction>();
//Force elevation to all generate at once, don't let it scatter because it is weird and non-sense
if (elevationMode)
{
directionsLeft = GetDirectionsLeft(0, yTemp, 0, directions);
if (!directionsLeft.Any())
{
elevationMode = false;
directionsLeft = GetDirectionsLeft(xTemp, yTemp, zTemp, directions);
}
}
else
{
directionsLeft = GetDirectionsLeft(xTemp, yTemp, zTemp, directions);
}
var currentDirection = directionsLeft[Random.Range(0, directionsLeft.Count)];
if (currentDirection == Direction.Up || currentDirection == Direction.Down)
{
elevationMode = true;
}
var type = (currentDirection == Direction.Up || currentDirection == Direction.Down) ? CellType.Elevation : CellType.Pathway;
if (type == CellType.Elevation) //Retroactivly change the previous generated cell to be an elevation cell as well
{
cellsToAdd.First(x => x == currentCell).type = type;
}
if (CellCollection.HasCellAt(currentCell.position.Step(currentDirection)))
{
success = false; retries--; continue;
}
var cell = new Cell(type, currentCell.position.Step(currentDirection));
cell.parent = currentCell;
currentCell.children.Add(cell);
cell.regionId = region.id;
cell.sequence = sequence++;
cellsToAdd.Add(cell);
currentCell = cell;
switch (currentDirection)
{
case Direction.North:
case Direction.South:
zTemp--;
break;
case Direction.East:
case Direction.West:
xTemp--;
break;
case Direction.Up:
case Direction.Down:
yTemp--;
break;
default:
success = false;
break;
}
if (xTemp + yTemp + zTemp == 0)
{
success = true;
}
}
#endregion
//The last cell generated in the above loop should be the one right before the forced horizontal cell, if that exists
if (secondLastCell != null)
{
cellsToAdd.First(x => x == secondLastCell).sequence = sequence++;
cellsToAdd.First(x => x == secondLastCell).parent = currentCell;
currentCell.children.Add(secondLastCell);
}
cellsToAdd.First(x => x == lastCell).sequence = sequence++;
if (success)
{
CellCollection.Add(cellsToAdd.OrderBy(o => o.sequence).ToList());
break;
}
}
return(success);
}
public bool RenderEntity(LevelRoom room, SuiteEntity entity)
{
if (renderContainer == null)
{
ResetRenderContainer(room);
}
var projectionScaffolds = new List <Scaffold_Node>();
var success = false;
//Shortcut to prevent expensive calculations if something obvious can prevent more computation
if (!ValidateRoom(room))
{
return(false);
}
foreach (var cell in CellCollection.GetByRoom(room.roomId).ToList().Shuffle())
{
foreach (var direction in Directionf.Directions())
{
var projection = entity.BuildProjection(cell.position, direction);
//Projection cannot clip room cell space
if (projection.spaces.Any(x => !CellCollection.HasCellAt(x) || CellCollection.cells[x].roomId != room.roomId))
{
continue;
}
//Projection cannot intersect existing projections
if (nextContainerInstance.cellPositionsTaken.Any(a => projection.spaces.Contains(a)))
{
continue;
}
//Project cannot intersect with existing scaffold claims
if (!VerifyProjectionScaffoldDoesntIntersect(projection, entity, room, cell.position, direction, out projectionScaffolds))
{
continue;
}
//Projection cannot block navigation through room
if (!VerifyProjectionDoesNotBlockRoomPathways(projection))
{
continue;
}
//If we made it this far, this projection is valid, we will claim it
ClaimProjection(projection, projectionScaffolds, cell, direction, entity);
success = true;
break;
}
if (success)
{
renderContainer = nextContainerInstance;
renderContainer.claimedScaffolds.ForEach(x => Level.roomScaffolds[room.roomId].SetNodeClaimed(x.id));
RollbackRenderContainer();
break; //A claim was found
}
}
return(success);
}
//This projection type will attempt to claim the most successful projection that claims the most cells possible
private static List <Cell> ProjectionAttempt(Cell root, ref List <Cell> cellsLeftToClaim, int claimAmount, float claimChance, Direction primaryDirection, Direction secondaryDirection)
{
bool terminate = false;
#region Step 1
var result = new List <Cell>()
{
root
};
var claimedAmount = result.Count;
cellsLeftToClaim.Remove(root);
if (claimedAmount >= claimAmount)
{
return(result);
}
#endregion
#region Step 2
var steps = new List <Vector3>()
{
root.Step(primaryDirection), //2_1
root.Step(secondaryDirection) //2_2
};
foreach (var step in steps)
{
if (CellCollection.HasCellAt(step) && cellsLeftToClaim.Contains(CellCollection.cells[step]))
{
var cell = CellCollection.cells[step];
result.Add(cell);
cellsLeftToClaim.Remove(cell);
claimedAmount = result.Count;
}
else
{
terminate = true;
}
}
if (terminate || result.Count >= claimAmount)
{
return(result);
}
#endregion
#region Step 3
steps = new List <Vector3>()
{
root.Step(primaryDirection).Step(secondaryDirection), //3_1
root.Step(primaryDirection.Opposite()).Step(secondaryDirection), //3_2
root.Step(primaryDirection).Step(secondaryDirection.Opposite()), //3_3
};
foreach (var step in steps)
{
if (CellCollection.HasCellAt(step) && cellsLeftToClaim.Contains(CellCollection.cells[step]))
{
var cell = CellCollection.cells[step];
result.Add(cell);
cellsLeftToClaim.Remove(cell);
claimedAmount = result.Count;
}
else
{
terminate = true;
}
}
if (terminate || result.Count >= claimAmount)
{
return(result);
}
#endregion
#region Step 4
steps = new List <Vector3>()
{
root.Step(primaryDirection.Opposite()), //4_1
root.Step(secondaryDirection.Opposite()) //4_2
};
foreach (var step in steps)
{
if (CellCollection.HasCellAt(step) && cellsLeftToClaim.Contains(CellCollection.cells[step]))
{
var cell = CellCollection.cells[step];
result.Add(cell);
cellsLeftToClaim.Remove(cell);
claimedAmount = result.Count;
}
else
{
terminate = true;
}
}
if (terminate || result.Count >= claimAmount)
{
return(result);
}
#endregion
#region Step 5
steps = new List <Vector3>()
{
root.Step(primaryDirection.Opposite()).Step(secondaryDirection.Opposite())//5_1
};
foreach (var step in steps)
{
if (CellCollection.HasCellAt(step) && cellsLeftToClaim.Contains(CellCollection.cells[step]))
{
var cell = CellCollection.cells[step];
result.Add(cell);
cellsLeftToClaim.Remove(cell);
claimedAmount = result.Count;
}
else
{
terminate = true;
}
}
if (terminate || result.Count >= claimAmount)
{
return(result);
}
#endregion
#region Step 6
steps = new List <Vector3>()
{
root.Step(primaryDirection, 2), //6_1
root.Step(secondaryDirection, 2), //6_2
root.Step(primaryDirection, 2).Step(secondaryDirection), //6_3
root.Step(primaryDirection).Step(secondaryDirection, 2), //6_4
root.Step(primaryDirection.Opposite()).Step(secondaryDirection, 2), //6_5
root.Step(primaryDirection, 2).Step(secondaryDirection.Opposite()), //6_6
};
foreach (var step in steps)
{
if (CellCollection.HasCellAt(step) && cellsLeftToClaim.Contains(CellCollection.cells[step]))
{
var cell = CellCollection.cells[step];
result.Add(cell);
cellsLeftToClaim.Remove(cell);
claimedAmount = result.Count;
}
else
{
terminate = true;
}
}
if (terminate || result.Count >= claimAmount)
{
return(result);
}
#endregion
#region Step 7
steps = new List <Vector3>()
{
root.Step(primaryDirection, 2).Step(secondaryDirection, 2) //7_1
};
foreach (var step in steps)
{
if (CellCollection.HasCellAt(step) && cellsLeftToClaim.Contains(CellCollection.cells[step]))
{
var cell = CellCollection.cells[step];
result.Add(cell);
cellsLeftToClaim.Remove(cell);
claimedAmount = result.Count;
}
else
{
terminate = true;
}
}
if (terminate || result.Count >= claimAmount)
{
return(result);
}
#endregion
return(result);
}
