public static void SetStatusTextAndIcon(StatusBarPanel statusBarPanel, SolveState solveState)
{
string str = null;
Icon ic = UI.IMAGES.NOT_SOLVED_ICON;
if (solveState.Equals(SolveState.NotSolved))
{
str = "Not Solved";
ic = UI.IMAGES.NOT_SOLVED_ICON;
}
else if (solveState.Equals(SolveState.PartiallySolved))
{
str = "Partially Solved";
ic = UI.IMAGES.PARTIALLY_SOLVED_ICON;
}
else if (solveState.Equals(SolveState.Solved))
{
str = "Solved";
ic = UI.IMAGES.SOLVED_ICON;
}
else if (solveState.Equals(SolveState.SolveFailed))
{
str = "Solve Failed";
ic = UI.IMAGES.SOLVE_FAILED_ICON;
}
statusBarPanel.Text = str;
statusBarPanel.Icon = ic;
}
private void MainMenu_ButtonClicked(object sender, ButtonClickedEventArgs eventargs)
{
switch (eventargs.Button)
{
case ButtonNames.Play:
var newGameState = new GameState(StateManager.CurrentState, eventargs.Time);
newGameState.LoadButtons();
StateManager.CurrentState = newGameState;
break;
case ButtonNames.Solve:
var newSolveState = new SolveState(StateManager.CurrentState);
newSolveState.LoadButtons();
StateManager.CurrentState = newSolveState;
break;
case ButtonNames.Help:
var newHelpState = new HelpState(StateManager.CurrentState);
newHelpState.LoadButtons();
StateManager.CurrentState = newHelpState;
break;
case ButtonNames.About:
var newAboutState = new AboutState(StateManager.CurrentState);
newAboutState.LoadButtons();
StateManager.CurrentState = newAboutState;
break;
}
}
public AStarPathfinding(Cell[,] _grid)
{
//SetStyle(ControlStyles.OptimizedDoubleBuffer, true);
w = MainForm.gridSize * MainForm.m;
InitializeComponent();
DoubleBuffered = true;
OpenSet = new AVLTree <Cell>();
solveState = SolveState.FIND;
this.ClientSize = new Size(800, w);
this.targetPos = new Point(MainForm.target.X, MainForm.target.Y);
this.startPos = new Point(MainForm.start.X, MainForm.start.Y);
grid = _grid;
speed = (int)Math.Ceiling(MainForm.speed / 10f);
target = grid[targetPos.X, targetPos.Y];
grid[startPos.X, startPos.Y].gScore = 0;
grid[startPos.X, startPos.Y].Open = State.OPENED;
grid[startPos.X, startPos.Y].fScore = grid[startPos.X, startPos.Y].hScore * heuristic + grid[startPos.X, startPos.Y].gScore;
OpenSet.Add(grid[startPos.X, startPos.Y]);
tick_timer.Start();
start = DateTime.Now;
time_record.Start();
}
public MainForm()
{
InitializeComponent();
//SetStyle(ControlStyles.OptimizedDoubleBuffer, true);
DoubleBuffered = true;
OpenSet = new AVLTree <Cell>();
solveState = SolveState.FIND;
gridSize = w / m;
grid = new Cell[gridSize, gridSize];
this.ClientSize = new Size(w, h);
Random rnd = new Random();
for (int i = 0; i < gridSize; i++)
{
for (int k = 0; k < gridSize; k++)
{
grid[i, k] = new Cell(i, k, m, (rnd.Next(1, 100) > 35), new Vec2(i, k));
}
}
target = grid[gridSize - 1, gridSize - 1];
grid[0, 0].walkable = true;
grid[gridSize - 1, gridSize - 1].walkable = true;
grid[0, 0].gScore = 0;
grid[0, 0].Open = State.OPENED;
grid[0, 0].fScore = grid[0, 0].hScore + grid[0, 0].gScore;
OpenSet.Add(grid[0, 0]);
tick_timer.Start();
}
void reset()
{
tick_timer.Stop();
//SetStyle(ControlStyles.OptimizedDoubleBuffer, true);
OpenSet = new AVLTree <Cell>();
solveState = SolveState.FIND;
Vec2 t = new Vec2(target.i, target.k);
for (int i = 0; i < MainForm.gridSize; i++)
{
for (int k = 0; k < MainForm.gridSize; k++)
{
grid[i, k] = new Cell(i, k, MainForm.m, grid[i, k].walkable, t);
}
}
target = grid[targetPos.X, targetPos.Y];
grid[startPos.X, startPos.Y].gScore = 0;
grid[startPos.X, startPos.Y].Open = State.OPENED;
grid[startPos.X, startPos.Y].fScore = grid[startPos.X, startPos.Y].hScore * heuristic + grid[startPos.X, startPos.Y].gScore;
OpenSet.Add(grid[startPos.X, startPos.Y]);
this.pathTiles = 0;
this.pathLabel.Text = "0";
this.checkedTiles = 0;
this.checkedLabel.Text = "0";
this.heuristic = heuristicTrackBar.Value / 100;
this.tick_timer.Interval = 1001 - this.speedTrackBar.Value;
tick_timer.Start();
start = DateTime.Now;
time_record.Start();
}
void reset()
{
tick_timer.Stop();
//SetStyle(ControlStyles.OptimizedDoubleBuffer, true);
solveState = SolveState.FIND;
Vec2 t = new Vec2(target.i, target.k);
for (int i = 0; i < MainForm.gridSize; i++)
{
for (int k = 0; k < MainForm.gridSize; k++)
{
grid[i, k] = new Cell(i, k, MainForm.m, grid[i, k].walkable, t);
}
}
this.queue = new Stack <Cell>();
this.target = grid[targetPos.X, targetPos.Y];
speed = (int)Math.Ceiling(MainForm.speed / 10f);
grid[startPos.X, startPos.Y].Open = State.CLOSED;
grid[startPos.X, startPos.Y].gScore = 0;
queue.Push(grid[startPos.X, startPos.Y]);
this.pathTiles = 0;
this.pathLabel.Text = "0";
this.checkedTiles = 0;
this.checkedLabel.Text = "0";
this.tick_timer.Interval = 1001 - this.speedTrackBar.Value;
tick_timer.Start();
start = DateTime.Now;
time_record.Start();
}
private void cyclone_SolveComplete(object sender, SolveState solveState)
{
CycloneRatingModel rating = (sender as Cyclone).CurrentRatingModel;
this.SetInletConfiguration(rating.InletConfiguration);
this.SetParticleTypeGroup(rating.ParticleTypeGroup);
}
private void psychrometricChartModel_SolveComplete(object sender, SolveState solveState)
{
if (solveState.Equals(SolveState.Solved) || solveState.Equals(SolveState.SolvedWithWarning))
{
if (this.psychrometricChartModel.HCType == HCType.GasState)
{
this.UpdateCurrentState();
}
else if (this.psychrometricChartModel.HCType == HCType.IsenthalpicProcess)
{
this.UpdateProcess();
}
}
else
{
this.ResetActivity();
if (this.psychrometricChartModel.HCType == HCType.GasState)
{
this.currentState = new HumidityChartState(HCStateType.CurrentState, flowsheet);
this.UpdateCurrentState();
}
else if (this.psychrometricChartModel.HCType == HCType.IsenthalpicProcess)
{
this.process = new HumidityChartProcess(this.flowsheet);
this.UpdateProcess();
}
}
}
private void heatExchanger_SolveComplete(object sender, SolveState solveState)
{
HXRatingModel ratingModel = (sender as HeatExchanger).CurrentRatingModel as HXRatingModel;
FlowDirectionType flowDirection = ratingModel.FlowDirection;
this.SetFlowDirection(flowDirection);
}
/// <summary>
/// Adds the given direction to the currently active path, and starts a new path if that finishes that pipe.
/// </summary>
/// <param name="d">The direction to add</param>
public void AddDirectionToCurrentPath(Path.Direction d)
{
pathsOfColors.Last().Add(d);
if (grid[pathsOfColors.Last().lastPoint.Y, pathsOfColors.Last().lastPoint.X] == pathsOfColors.Last().color)
{
if (pathsOfColors.Count < startNodes.Length)
{
pathsOfColors.Add(new Path(startNodes[pathsOfColors.Count], colors[1 + Array.IndexOf(colors, pathsOfColors.Last().color)]));
}
else
{
bool successful = true;
foreach (int i in FlattenGrid())
{
if (i == -1)
{
successful = false;
}
}
if (successful)
{
state = SolveState.Success;
}
else
{
state = SolveState.Failed;
}
}
}
}
private void heatExchanger_SolveComplete(object sender, SolveState solveState)
{
HXRatingModelShellAndTube rating = (sender as HeatExchanger).CurrentRatingModel as HXRatingModelShellAndTube;
this.SetTubeLayout(rating.TubeLayout);
this.SetShellType(rating.ShellType);
}
public static void SetStatusTextAndColor(Label label, SolveState solveState)
{
UI ui = new UI();
string str = null;
Color col = ui.COLOR_NOT_SOLVED;
if (solveState.Equals(SolveState.NotSolved))
{
str = "Not Solved";
col = ui.COLOR_NOT_SOLVED;
}
else if (solveState.Equals(SolveState.SolvedWithWarning))
{
str = "Solved with Warnings";
col = ui.COLOR_SOLVED_WITH_WARNING;
}
else if (solveState.Equals(SolveState.Solved))
{
str = "Solved";
col = ui.COLOR_SOLVED;
}
else if (solveState.Equals(SolveState.SolveFailed))
{
str = "Solve Failed";
col = ui.COLOR_SOLVE_FAILED;
}
label.BackColor = col;
label.Text = str;
}
public static void SetStatusTextAndColor(Label label, SolveState solveState)
{
UI ui = new UI();
string str = null;
Color col = ui.COLOR_NOT_SOLVED;
if (solveState.Equals(SolveState.NotSolved))
{
str = "Not Solved";
col = ui.COLOR_NOT_SOLVED;
}
else if (solveState.Equals(SolveState.PartiallySolved))
{
str = "Partially Solved";
col = ui.COLOR_PARTIALLY_SOLVED;
}
else if (solveState.Equals(SolveState.Solved))
{
str = "Solved";
col = ui.COLOR_SOLVED;
}
else if (solveState.Equals(SolveState.SolveFailed))
{
str = "Solve Failed";
col = ui.COLOR_SOLVE_FAILED;
}
label.BackColor = col;
label.Text = str;
}
//constructor
protected Solvable(string s, UnitOpSystem aSystem) : base()
{
this.name = s;
this.unitOpSystem = aSystem;
this.solveController = aSystem.SequentialSolvingController;
solveState = SolveState.NotSolved;
}
public DFS(Cell[,] _grid)
{
//SetStyle(ControlStyles.OptimizedDoubleBuffer, true);
InitializeComponent();
w = MainForm.gridSize * MainForm.m;
DoubleBuffered = true;
solveState = SolveState.FIND;
this.queue = new Stack <Cell>();
this.grid = _grid;
this.ClientSize = new Size(800, w);
this.targetPos = new Point(MainForm.target.X, MainForm.target.Y);
this.startPos = new Point(MainForm.start.X, MainForm.start.Y);
this.target = grid[targetPos.X, targetPos.Y];
speed = (int)Math.Ceiling(MainForm.speed / 10f);
tick_timer.Start();
start = DateTime.Now;
time_record.Start();
grid[startPos.X, startPos.Y].Open = State.CLOSED;
grid[startPos.X, startPos.Y].gScore = 0;
queue.Push(grid[startPos.X, startPos.Y]);
}
public static void SetStatusTextAndIcon(StatusBarPanel statusBarPanel, SolveState solveState)
{
string str = null;
Icon ic = UI.IMAGES.NOT_SOLVED_ICON;
if (solveState.Equals(SolveState.NotSolved))
{
str = "Not Solved";
ic = UI.IMAGES.NOT_SOLVED_ICON;
}
else if (solveState.Equals(SolveState.SolvedWithWarning))
{
str = "Solved with Warnings";
ic = UI.IMAGES.SOLVED_WITH_WARNING_ICON;
}
else if (solveState.Equals(SolveState.Solved))
{
str = "Solved";
ic = UI.IMAGES.SOLVED_ICON;
}
else if (solveState.Equals(SolveState.SolveFailed))
{
str = "Solve Failed";
ic = UI.IMAGES.SOLVE_FAILED_ICON;
}
statusBarPanel.Text = str;
statusBarPanel.Icon = ic;
}
//the scope of this method is internal in stead of protected is because
//PsychrometricChartModel needs to call this method on its streams
internal void OnSolveComplete(SolveState solveState)
{
this.solveState = solveState;
if (SolveComplete != null)
{
SolveComplete(this, solveState);
}
}
private void heatExchanger_SolveComplete(object sender, SolveState solveState)
{
HXRatingModelShellAndTube ratingModel = (sender as HeatExchanger).CurrentRatingModel as HXRatingModelShellAndTube;
this.checkBoxIncludeWallEffect.Checked = ratingModel.IncludeWallEffect;
this.checkBoxIncludeNozzleEffect.Checked = ratingModel.IncludeNozzleEffect;
this.SetRatingType(ratingModel.ShellRatingType);
}
public static SolveState OnMoveSelected(SolveState state, MoveSelectedAction action)
{
return(state with
{
CurrentMove = action.Move,
CurrentMoveIndex = state.Moves.IndexOf(action.Move),
Board = action.Move.Board
});
}
public static SolveState OnSolveAction(SolveState _)
{
var state = GetResetSolveState();
return(state with
{
IsLoading = true
});
}
//the scope of this method is internal in stead of protected is because
//PsychrometricChartModel needs to call this method on its streams
internal void OnSolveComplete(SolveState currentSolveState)
{
//if (currentSolveState != solveState) {
this.solveState = currentSolveState;
if (SolveComplete != null)
{
SolveComplete(this, solveState);
}
//}
}
public static SolveState OnFailedToSolveResult(SolveState _)
{
var state = GetResetSolveState();
return(state with
{
SolutionAttempted = true,
FoundSolution = false
});
}
void Tick_timerTick(object sender, EventArgs e)
{
for (int i = 0; i < 10; i++)
{
if (solveState == SolveState.FIND)
{
Cell current;
if (!OpenSet.GetMin(out current))
{
tick_timer.Stop();
return;
}
current.Open = State.CLOSED;
OpenSet.DeleteMin();
List <Cell> neighbours = getNeighbours(current.i, current.k);
neighbours.ForEach(n => {
int newGScore = current.gScore + Cell.d(current, n);
if (newGScore < n.gScore)
{
n.gScore = newGScore;
n.fScore = n.hScore + n.gScore;
n.parent = current;
if (n.Open == State.UNDEFINED)
{
n.Open = State.OPENED;
OpenSet.Add(n);
}
}
});
if (current == target)
{
solveState = SolveState.TRACE;
trace = target;
trace.Open = State.PATH;
}
}
else
{
if (trace.parent != null)
{
trace.parent.Open = State.PATH;
trace = trace.parent;
}
else
{
tick_timer.Stop();
}
}
}
this.Refresh();
}
public async Task <IActionResult> Solve(string id,
CancellationToken cancellationToken)
{
SolveState state = await _solveStateStore.GetAsync(id,
cancellationToken);
return(new JsonResult(new
{
BoardsExaminedCount = state.BoardsExaminedCount,
Solution = state.Solution?.ToHandInputString()
}));
}
public void RemoveLastAction()
{
state = SolveState.Solving;
if (pathsOfColors.Last().path.Count > 0)
{
pathsOfColors.Last().RemoveLast();
}
else if (pathsOfColors.Count > 1)
{
pathsOfColors.Remove(pathsOfColors.Last());
pathsOfColors.Last().RemoveLast();
}
}
/// <summary>
/// Valide récursivement les petits chiffres seuls
/// </summary>
/// <returns></returns>
private SolveState TreatUniqueSmallNumbers()
{
SolveState finalState = SolveState.Solving;
foreach (SudokuCell cell in sudoku.Grid)
{
SolveState cellState = SolveState.Solving;
//Si la case est modifiable
if (!cell.IsFixed && cell.Number == 0)
{
//Si il y a un seul petit chiffre dans la case, placement du chiffre
if (cell.SmallNumbers.Count == 1)
{
cell.EditNumber(cell.SmallNumbers[0]);
UpdateObservers();
if (sudoku.IsCompleted())
{
//Sudoku terminé
return(SolveState.Solved);
}
else
{
RemoveSmallNumbers(cell.Y, cell.X, cell.Number);
cellState = SolveState.FoundNumber;
}
}
}
//Si la suite n'a rien trouvé et que rien a été trouvé cette fois, retour que rien a été trouvé
switch (cellState)
{
case SolveState.FoundNumber:
case SolveState.Solved:
finalState = cellState;
break;
}
}
if (finalState == SolveState.Solving)
{
return(SolveState.UnableToSolve);
}
else
{
return(finalState);
}
}
public override void SetObjectData()
{
base.SetObjectData();
int persistedClassVersion = (int)info.GetValue("ClassPersistenceVersionSolvable", typeof(int));
if (persistedClassVersion == 1)
{
this.name = (string)info.GetValue("Name", typeof(string));
this.solveState = (SolveState)info.GetValue("SolveState", typeof(SolveState));
this.varList = info.GetValue("VarList", typeof(ArrayList)) as ArrayList;
this.unitOpSystem = (UnitOperationSystem)info.GetValue("UnitOpSystem", typeof(UnitOperationSystem));
}
RecallInitialization();
}
public SolvingGrid(int[,] grid)
{
this.grid = grid;
List <Point> starts = new List <Point>();
endNodes = new List <Point>();
List <int> colorsList = new List <int>();
// find the start nodes, colors, and end nodes
for (int y = 0; y < grid.GetLength(0); y++)
{
for (int x = 0; x < grid.GetLength(1); x++)
{
if (grid[y, x] != -1 && !colorsList.Contains(grid[y, x]))
{
starts.Add(new Point(x, y));
colorsList.Add(grid[y, x]);
}
else if (colorsList.Contains(grid[y, x]))
{
endNodes.Add(new Point(x, y));
}
}
}
startNodes = starts.ToArray();
state = SolveState.Solving;
colors = colorsList.ToArray();
pathsOfColors = new List <Path>();
pathsOfColors.Add(new Path(startNodes[0], colors[0]));
// sort endNodes to correspond correctly with startNodes
List <Point> endNodesSorted = new List <Point>();
for (int i = 0; i < startNodes.Length; i++)
{
for (int j = 0; j < endNodes.Count; j++)
{
if (grid[endNodes[j].Y, endNodes[j].X] == colors[i])
{
endNodesSorted.Add(endNodes[j]);
j = endNodes.Count;
}
}
}
endNodes = endNodesSorted;
}
//Erase all the calculated values in each solvable
internal virtual void EraseCalculatedProcVarValues()
{
foreach (ProcessVar var in varList)
{
if (var.IsCalculated)
{
EraseOldValue(var);
var.State = VarState.Specified;
}
else if (var.IsAlwaysCalculated)
{
EraseOldValue(var);
}
}
solveState = SolveState.NotSolved;
isBeingExecuted = false;
OnSolveComplete(solveState);
}
public static SolveState OnPreviousMove(SolveState state)
{
var prevMoveIndex = state.CurrentMoveIndex - 1;
bool isIndexValid = prevMoveIndex >= 0;
if (!isIndexValid)
{
return(state);
}
var move = state.Moves[prevMoveIndex];
return(state with
{
CurrentMove = move,
CurrentMoveIndex = prevMoveIndex,
Board = move.Board
});
}
/// <summary>
/// Performs a single 'lookahead' logic attempt.
/// </summary>
/// <param name="ys">
/// Y coordinates to try.
/// </param>
/// <param name="xs">
/// X coordinates to try.
/// </param>
/// <param name="values">
/// Values to try in each location.
/// </param>
/// <returns></returns>
private SolveState PassPartLookaheadLogic(List<int> ys, List<int> xs, List<int> values, int lookahead)
{
Board[] boards = new Board[ys.Count];
SolveState[] results = new SolveState[ys.Count];
SolveState result = SolveState.MultipleSolutions;
for (int i = 0; i < boards.Length; i++)
{
boards[i] = this.Clone();
boards[i].maxLookahead = lookahead - 1;
boards[i].scoring = 0;
boards[i].Set(xs[i], ys[i], values[i]+1);
if (scoring == 0 || lookahead > 1)
{
results[i] = boards[i].SolveProper();
}
else
{
for (int j = 0; j < scoring - 1; j++)
{
results[i] = boards[i].PassZeroSlow();
if (results[i] != SolveState.Progressing)
break;
}
}
}
bool allUnsolvable = true;
for (int i = 0; i < results.Length; i++)
{
if (results[i] != SolveState.Unsolvable)
allUnsolvable = false;
else
{
if (!useEliminations)
{
results[i] = SolveState.MultipleSolutions;
allUnsolvable = false;
}
else
{
if (possibles[xs[i], ys[i], values[i]])
{
possibles[xs[i], ys[i], values[i]] = false;
result = SolveState.Progressing;
}
}
}
}
if (allUnsolvable)
return SolveState.Unsolvable;
for (int i = 0; i < width; i++)
{
for (int j = 0; j < width; j++)
{
if (cells[i, j] == 0)
{
for (int k = 0; k < width; k++)
{
if (possibles[i, j, k])
{
bool allFalse = true;
for (int b = 0; b < boards.Length; b++)
{
if (results[b] != SolveState.Unsolvable)
{
if (boards[b].possibles[i, j, k])
allFalse = false;
}
}
if (allFalse)
{
if (scoring != 0)
{
if (useLogging)
{
for (int a = 0; a < xs.Count; a++)
{
log.AppendFormat("({0},{1} {2}) ", xs[a], ys[a], values[a] + 1);
}
if (lookahead <=1)
log.AppendFormat("Eliminated {0},{1} {2} in {3} steps\n", i, j, k + 1, scoring - 1);
else
log.AppendFormat("Eliminated {0},{1} {2} at {3} branches\n", i, j, k + 1, lookahead);
if (scoring > 1)
{
for (int a = 0; a < xs.Count; a++)
{
List<int> peggedxs = new List<int>();
peggedxs.Add(xs[a]);
List<int> peggedys = new List<int>();
peggedys.Add(ys[a]);
List<int> peggedvs = new List<int>();
peggedvs.Add(values[a]+1);
List<int> peggedwhen = new List<int>();
peggedwhen.Add(0);
for (int pegged = 0; pegged < scoring - 1; pegged++)
{
Board tb = this.Clone();
tb.Apply(peggedxs, peggedys, peggedvs);
tb.PassZeroSlow();
List<int> possiblexs = new List<int>(tb.lastxs);
List<int> possibleys = new List<int>(tb.lastys);
List<int> possiblevs = new List<int>(tb.lastvalues);
List<int> bestxs = new List<int>(possiblexs);
List<int> bestys = new List<int>(possibleys);
List<int> bestvs = new List<int>(possiblevs);
for (int trial = possiblexs.Count - 1; trial >= 0; trial--)
{
tb = this.Clone();
tb.Apply(peggedxs, peggedys, peggedvs);
possiblexs.RemoveAt(trial);
possibleys.RemoveAt(trial);
possiblevs.RemoveAt(trial);
tb.Apply(possiblexs, possibleys, possiblevs);
for (int nextp = pegged + 1; nextp < scoring - 1; nextp++)
{
if (tb.PassZeroSlow() != SolveState.Progressing)
break;
}
if (tb.possibles[i, j, k] != false)
{
possiblexs = new List<int>(bestxs);
possibleys = new List<int>(bestys);
possiblevs = new List<int>(bestvs);
}
else
{
bestxs = new List<int>(possiblexs);
bestys = new List<int>(possibleys);
bestvs = new List<int>(possiblevs);
}
}
peggedxs.AddRange(bestxs);
peggedys.AddRange(bestys);
peggedvs.AddRange(bestvs);
for (int index = 0; index < bestvs.Count; index++)
{
peggedwhen.Add(pegged + 1);
}
}
log.AppendFormat("Trial ({0},{1} {2}):\n", xs[a], ys[a], values[a] + 1);
string[] splits = boards[a].Log.Split('\n');
for (int b = 0; b < peggedxs.Count; b++)
{
log.AppendFormat(" {3}: {0}, {1} {2}\n", peggedxs[b], peggedys[b], peggedvs[b], peggedwhen[b]);
}
}
}
}
possibles[i, j, k] = false;
return SolveState.Progressing;
}
possibles[i, j, k] = false;
result = SolveState.Progressing;
}
}
}
}
}
}
return result;
}