/**
*
* calculateMatch()
* Calculates the amount of black and white hits when comparing guess with c.
* Returns a Match struct.
*
**/
private Match calculateMatch(ColorSequence guess, ColorSequence c)
{
int blackHits = 0;
int whiteHits = 0;
// compare for black hits
for (int i = 0; i < DEPTH; i++)
{
blackVisited[i] = false;
whiteVisited[i] = false;
// compare the selected color with the code in same location to see if black hit
if (guess[i] == c[i]) {
blackHits++;
blackVisited[i] = true;
continue;
}
}
// compare for white hits
for (int i = 0; i < DEPTH; i++)
{
if (blackVisited[i]) continue; // if guess generated black hit, no need to see if it will be a white hit
// compare with all other colors in code to see if white hit
for (int j = 0; j < DEPTH; j++)
{
if (j == i) continue; // already checked these when looking for black hits above
if (guess[j] != c[i] || blackVisited[j] || whiteVisited[j]) continue;
whiteHits++;
whiteVisited[j] = true;
break;
}
}
return new Match(blackHits, whiteHits);
}
/// <summary>
/// Send a command to the the display controller along with parameters.
/// </summary>
/// <param name="command">Command to send.</param>
/// <param name="data">Span to send as parameters for the command.</param>
private void SendCommand(Ssd1351Command command, Span <byte> data)
{
Span <byte> commandSpan = stackalloc byte[]
{
(byte)command
};
SendSPI(commandSpan, true);
if (data != null && data.Length > 0)
{
SendSPI(data);
// detect certain commands that may alter the state of the device. This is done as the
// SPI device cannot read registers from the ssd1351 and so changes need to be captured
switch (command)
{
// capture changes to the colour depth and colour sequence
case Ssd1351Command.SetRemap:
_colorSequence = (ColorSequence)((data[0] >> 2) & 0x01);
_colorDepth = (ColorDepth)((data[0] >> 6) & 0x03);
break;
}
}
}
}/*testCompareTo*/
private ColorSequence createDefinedColorCombo() {
ColorSequence definedColorCombo = new ColorSequence();
definedColorCombo.addLast(Colors.Yellow);
definedColorCombo.addLast(Colors.Green);
definedColorCombo.addLast(Colors.Blue);
definedColorCombo.addLast(Colors.Red);
return definedColorCombo;
}/*createDefinedColorCombo*/
} /*checkAnswerAndGiveFeedbackFor*/
private bool answerIsAllowed(ColorSequence guess) {
for (byte i = 0; i < guess.Length; i++)
for (byte j = 0; j < guess.Length; j++)
if (i != j && guess.getColorOnPlace(i) == guess.getColorOnPlace(j))
return false;
return true;
} /*answerAllowed*/
} /*Randomizer*/
#endregion Properties
#region Constructors
public GameState(byte tries, byte pins, byte colors, bool computerIsPlaying, ColorSequence secretCombo = null) {
NrOfTries = tries;
NrOfPins = pins;
NrOfAvailableColors = colors;
ComputerIsPlaying = computerIsPlaying;
TurnHistory = new List <ColorSequence>();
FeedbackHistory = new List <Feedback>();
TurnNumber = 1;
SecretCombo = secretCombo ?? createSecretCombo();
} /*GameState*/
public static void WriteColorSequence(EndianAwareBinaryWriter writer, ColorSequence sequence)
{
writer.WriteInt32(sequence.Keypoints.Length);
for (var i = 0; i < sequence.Keypoints.Length; i++)
{
writer.WriteSingle(sequence.Keypoints[i].Time);
writer.WriteSingle(sequence.Keypoints[i].Value.R);
writer.WriteSingle(sequence.Keypoints[i].Value.G);
writer.WriteSingle(sequence.Keypoints[i].Value.B);
}
}
} /*Mastermind*/
#endregion constructors
#region behavior
internal Feedback checkAnswerAndGiveFeedbackFor(ColorSequence comboToCheck) {
if (!answerIsAllowed(comboToCheck))
throw new ArgumentException();
Feedback fb = getSecretCombo().compareToColorsequence(comboToCheck);
GameState.TurnHistory.Add(comboToCheck);
GameState.FeedbackHistory.Add(fb);
GameState.updateTurn();
return fb;
} /*checkAnswerAndGiveFeedbackFor*/
// recursive approach is easiest way to populate possibilities (colors ^ slots = 8 ^ 5 = 32768)
private void generatePossibilities(ColorSequence c, int n)
{
if (n == DEPTH) {
current_set.Add(c);
return;
}
for(int i = 0; i < COLORS; i++)
{
ColorSequence c2 = (ColorSequence)c.Clone();
c2[n] = (byte)(1 << i);
generatePossibilities(c2, n + 1);
}
}
public void Save(TrailEffect effect)
{
active = effect.active;
ignoreFrames = effect.ignoreFrames;
duration = effect.duration;
continuous = effect.continuous;
smooth = effect.smooth;
checkWorldPosition = effect.checkWorldPosition;
minDistance = effect.minDistance;
worldPositionRelativeOption = effect.worldPositionRelativeOption;
worldPositionRelativeTransform = effect.worldPositionRelativeTransform;
checkScreenPosition = effect.checkScreenPosition;
minPixelDistance = effect.minPixelDistance;
maxStepsPerFrame = effect.maxStepsPerFrame;
checkTime = effect.checkTime;
timeInterval = effect.timeInterval;
checkCollisions = effect.checkCollisions;
orientToSurface = effect.orientToSurface;
ground = effect.ground;
surfaceOffset = effect.surfaceOffset;
collisionLayerMask = effect.collisionLayerMask;
drawBehind = effect.drawBehind;
cullMode = effect.cullMode;
subMeshMask = effect.subMeshMask;
colorOverTime = effect.colorOverTime;
color = effect.color;
colorSequence = effect.colorSequence;
colorCycleDuration = effect.colorCycleDuration;
colorStartPalette = effect.colorStartPalette;
pingPongSpeed = effect.pingPongSpeed;
this.effect = effect.effect;
texture = effect.texture;
scale = effect.scale;
scaleStartRandomMin = effect.scaleStartRandomMin;
scaleStartRandomMax = effect.scaleStartRandomMax;
scaleOverTime = effect.scaleOverTime;
scaleUniform = effect.scaleUniform;
localPositionRandomMin = effect.localPositionRandomMin;
localPositionRandomMax = effect.localPositionRandomMax;
laserBandWidth = effect.laserBandWidth;
laserIntensity = effect.laserIntensity;
laserFlash = effect.laserFlash;
lookTarget = effect.lookTarget;
lookToCamera = effect.lookToCamera;
textureCutOff = effect.textureCutOff;
normalThreshold = effect.normalThreshold;
useLastAnimationState = effect.useLastAnimationState;
maxBatches = effect.maxBatches;
meshPoolSize = effect.meshPoolSize;
animationStates = effect.animationStates;
}
// --------------------------------------------------
// UI message handlers
public void OnClickToConnect()
{
LastUsername = StateFluxClient.Instance.userName = GetLoginUsername();
StateFluxClient.Instance.requestedPlayerColor = ColorSequence.Next();
if (String.IsNullOrWhiteSpace(LastUsername))
{
DebugLog($"LobbyManager.OnClickToConnect no username!");
}
else
{
DebugLog($"LobbyManager.OnClickToConnect as {LastUsername}");
StateFluxClient.Instance.Login();
}
}
} /*updateTurn*/
private ColorSequence createRandomSequence(byte length) {
ColorSequence randomCombo = new ColorSequence();
bool[] used = new bool[NrOfAvailableColors];
for (byte i = 0; i < length; i++) {
int tmp;
do {
tmp = Randomizer.Next(NrOfAvailableColors);
} while (used[tmp]);
randomCombo.addLast((Colors)tmp);
used[tmp] = true;
}
return randomCombo;
} /*createRandomSequence*/
public Player CreatePlayerSession(string playerName)
{
Player player = new Player
{
Name = playerName,
Id = ShortGuid.Generate(),
SessionData = new PlayerSessionData {
SessionId = ShortGuid.Generate(), WebsocketSessionId = this.ID
},
Color = ColorSequence.Next()
};
Server.Instance.playerRepository.InsertPlayer(player);
Server.Instance.Players.Add(player);
LogMessage($"Created player {player.Name} with session '{player.SessionData.SessionId}'. Added to players & saved to database");
return(player);
}
public void Save(BinaryRobloxFileWriter writer)
{
BinaryRobloxFile file = writer.File;
File = file;
INST inst = file.Classes[ClassIndex];
var props = new List <Property>();
foreach (int instId in inst.InstanceIds)
{
Instance instance = file.Instances[instId];
var instProps = instance.Properties;
if (!instProps.TryGetValue(Name, out Property prop))
{
throw new Exception($"Property {Name} must be defined in {instance.GetFullName()}!");
}
else if (prop.Type != Type)
{
throw new Exception($"Property {Name} is not using the correct type in {instance.GetFullName()}!");
}
props.Add(prop);
}
writer.Write(ClassIndex);
writer.WriteString(Name);
writer.Write(TypeId);
switch (Type)
{
case PropertyType.String:
props.ForEach(prop =>
{
byte[] buffer = prop.HasRawBuffer ? prop.RawBuffer : null;
if (buffer == null)
{
string value = prop.CastValue <string>();
buffer = Encoding.UTF8.GetBytes(value);
}
writer.Write(buffer.Length);
writer.Write(buffer);
});
break;
case PropertyType.Bool:
{
props.ForEach(prop =>
{
bool value = prop.CastValue <bool>();
writer.Write(value);
});
break;
}
case PropertyType.Int:
{
var ints = props
.Select(prop => prop.CastValue <int>())
.ToList();
writer.WriteInts(ints);
break;
}
case PropertyType.Float:
{
var floats = props
.Select(prop => prop.CastValue <float>())
.ToList();
writer.WriteFloats(floats);
break;
}
case PropertyType.Double:
{
props.ForEach(prop =>
{
double value = prop.CastValue <double>();
writer.Write(BinaryRobloxFileWriter.GetBytes(value));
});
break;
}
case PropertyType.UDim:
{
var UDim_Scales = new List <float>();
var UDim_Offsets = new List <int>();
props.ForEach(prop =>
{
UDim value = prop.CastValue <UDim>();
UDim_Scales.Add(value.Scale);
UDim_Offsets.Add(value.Offset);
});
writer.WriteFloats(UDim_Scales);
writer.WriteInts(UDim_Offsets);
break;
}
case PropertyType.UDim2:
{
var UDim2_Scales_X = new List <float>();
var UDim2_Scales_Y = new List <float>();
var UDim2_Offsets_X = new List <int>();
var UDim2_Offsets_Y = new List <int>();
props.ForEach(prop =>
{
UDim2 value = prop.CastValue <UDim2>();
UDim2_Scales_X.Add(value.X.Scale);
UDim2_Scales_Y.Add(value.Y.Scale);
UDim2_Offsets_X.Add(value.X.Offset);
UDim2_Offsets_Y.Add(value.Y.Offset);
});
writer.WriteFloats(UDim2_Scales_X);
writer.WriteFloats(UDim2_Scales_Y);
writer.WriteInts(UDim2_Offsets_X);
writer.WriteInts(UDim2_Offsets_Y);
break;
}
case PropertyType.Ray:
{
props.ForEach(prop =>
{
Ray ray = prop.CastValue <Ray>();
Vector3 pos = ray.Origin;
writer.Write(pos.X);
writer.Write(pos.Y);
writer.Write(pos.Z);
Vector3 dir = ray.Direction;
writer.Write(dir.X);
writer.Write(dir.Y);
writer.Write(dir.Z);
});
break;
}
case PropertyType.Faces:
case PropertyType.Axes:
{
props.ForEach(prop =>
{
byte value = prop.CastValue <byte>();
writer.Write(value);
});
break;
}
case PropertyType.BrickColor:
{
var brickColorIds = props
.Select(prop => prop.CastValue <BrickColor>())
.Select(value => value.Number)
.ToList();
writer.WriteInts(brickColorIds);
break;
}
case PropertyType.Color3:
{
var Color3_R = new List <float>();
var Color3_G = new List <float>();
var Color3_B = new List <float>();
props.ForEach(prop =>
{
Color3 value = prop.CastValue <Color3>();
Color3_R.Add(value.R);
Color3_G.Add(value.G);
Color3_B.Add(value.B);
});
writer.WriteFloats(Color3_R);
writer.WriteFloats(Color3_G);
writer.WriteFloats(Color3_B);
break;
}
case PropertyType.Vector2:
{
var Vector2_X = new List <float>();
var Vector2_Y = new List <float>();
props.ForEach(prop =>
{
Vector2 value = prop.CastValue <Vector2>();
Vector2_X.Add(value.X);
Vector2_Y.Add(value.Y);
});
writer.WriteFloats(Vector2_X);
writer.WriteFloats(Vector2_Y);
break;
}
case PropertyType.Vector3:
{
var Vector3_X = new List <float>();
var Vector3_Y = new List <float>();
var Vector3_Z = new List <float>();
props.ForEach(prop =>
{
Vector3 value = prop.CastValue <Vector3>();
Vector3_X.Add(value.X);
Vector3_Y.Add(value.Y);
Vector3_Z.Add(value.Z);
});
writer.WriteFloats(Vector3_X);
writer.WriteFloats(Vector3_Y);
writer.WriteFloats(Vector3_Z);
break;
}
case PropertyType.CFrame:
case PropertyType.Quaternion:
case PropertyType.OptionalCFrame:
{
var CFrame_X = new List <float>();
var CFrame_Y = new List <float>();
var CFrame_Z = new List <float>();
if (Type == PropertyType.OptionalCFrame)
{
writer.Write((byte)PropertyType.CFrame);
}
props.ForEach(prop =>
{
CFrame value = null;
if (prop.Value is Quaternion q)
{
value = q.ToCFrame();
}
else
{
value = prop.CastValue <CFrame>();
}
if (value == null)
{
value = new CFrame();
}
Vector3 pos = value.Position;
CFrame_X.Add(pos.X);
CFrame_Y.Add(pos.Y);
CFrame_Z.Add(pos.Z);
int orientId = value.GetOrientId();
writer.Write((byte)(orientId + 1));
if (orientId == -1)
{
if (Type == PropertyType.Quaternion)
{
Quaternion quat = new Quaternion(value);
writer.Write(quat.X);
writer.Write(quat.Y);
writer.Write(quat.Z);
writer.Write(quat.W);
}
else
{
float[] components = value.GetComponents();
for (int i = 3; i < 12; i++)
{
float component = components[i];
writer.Write(component);
}
}
}
});
writer.WriteFloats(CFrame_X);
writer.WriteFloats(CFrame_Y);
writer.WriteFloats(CFrame_Z);
if (Type == PropertyType.OptionalCFrame)
{
writer.Write((byte)PropertyType.Bool);
props.ForEach(prop =>
{
if (prop.Value is null)
{
writer.Write(false);
return;
}
if (prop.Value is Optional <CFrame> optional)
{
writer.Write(optional.HasValue);
return;
}
var cf = prop.Value as CFrame;
writer.Write(cf != null);
});
}
break;
}
case PropertyType.Enum:
{
var enums = new List <uint>();
props.ForEach(prop =>
{
if (prop.Value is uint raw)
{
enums.Add(raw);
return;
}
int signed = (int)prop.Value;
uint value = (uint)signed;
enums.Add(value);
});
writer.WriteInterleaved(enums);
break;
}
case PropertyType.Ref:
{
var InstanceIds = new List <int>();
props.ForEach(prop =>
{
int referent = -1;
if (prop.Value != null)
{
Instance value = prop.CastValue <Instance>();
if (value.IsDescendantOf(File))
{
string refValue = value.Referent;
int.TryParse(refValue, out referent);
}
}
InstanceIds.Add(referent);
});
writer.WriteInstanceIds(InstanceIds);
break;
}
case PropertyType.Vector3int16:
{
props.ForEach(prop =>
{
Vector3int16 value = prop.CastValue <Vector3int16>();
writer.Write(value.X);
writer.Write(value.Y);
writer.Write(value.Z);
});
break;
}
case PropertyType.NumberSequence:
{
props.ForEach(prop =>
{
NumberSequence value = prop.CastValue <NumberSequence>();
var keyPoints = value.Keypoints;
writer.Write(keyPoints.Length);
foreach (var keyPoint in keyPoints)
{
writer.Write(keyPoint.Time);
writer.Write(keyPoint.Value);
writer.Write(keyPoint.Envelope);
}
});
break;
}
case PropertyType.ColorSequence:
{
props.ForEach(prop =>
{
ColorSequence value = prop.CastValue <ColorSequence>();
var keyPoints = value.Keypoints;
writer.Write(keyPoints.Length);
foreach (var keyPoint in keyPoints)
{
Color3 color = keyPoint.Value;
writer.Write(keyPoint.Time);
writer.Write(color.R);
writer.Write(color.G);
writer.Write(color.B);
writer.Write(keyPoint.Envelope);
}
});
break;
}
case PropertyType.NumberRange:
{
props.ForEach(prop =>
{
NumberRange value = prop.CastValue <NumberRange>();
writer.Write(value.Min);
writer.Write(value.Max);
});
break;
}
case PropertyType.Rect:
{
var Rect_X0 = new List <float>();
var Rect_Y0 = new List <float>();
var Rect_X1 = new List <float>();
var Rect_Y1 = new List <float>();
props.ForEach(prop =>
{
Rect value = prop.CastValue <Rect>();
Vector2 min = value.Min;
Rect_X0.Add(min.X);
Rect_Y0.Add(min.Y);
Vector2 max = value.Max;
Rect_X1.Add(max.X);
Rect_Y1.Add(max.Y);
});
writer.WriteFloats(Rect_X0);
writer.WriteFloats(Rect_Y0);
writer.WriteFloats(Rect_X1);
writer.WriteFloats(Rect_Y1);
break;
}
case PropertyType.PhysicalProperties:
{
props.ForEach(prop =>
{
bool custom = (prop.Value != null);
writer.Write(custom);
if (custom)
{
PhysicalProperties value = prop.CastValue <PhysicalProperties>();
writer.Write(value.Density);
writer.Write(value.Friction);
writer.Write(value.Elasticity);
writer.Write(value.FrictionWeight);
writer.Write(value.ElasticityWeight);
}
});
break;
}
case PropertyType.Color3uint8:
{
var Color3uint8_R = new List <byte>();
var Color3uint8_G = new List <byte>();
var Color3uint8_B = new List <byte>();
props.ForEach(prop =>
{
Color3uint8 value = prop.CastValue <Color3uint8>();
Color3uint8_R.Add(value.R);
Color3uint8_G.Add(value.G);
Color3uint8_B.Add(value.B);
});
byte[] rBuffer = Color3uint8_R.ToArray();
writer.Write(rBuffer);
byte[] gBuffer = Color3uint8_G.ToArray();
writer.Write(gBuffer);
byte[] bBuffer = Color3uint8_B.ToArray();
writer.Write(bBuffer);
break;
}
case PropertyType.Int64:
{
var longs = new List <long>();
props.ForEach(prop =>
{
long value = prop.CastValue <long>();
longs.Add(value);
});
writer.WriteInterleaved(longs, value =>
{
// Move the sign bit to the front.
return((value << 1) ^ (value >> 63));
});
break;
}
case PropertyType.SharedString:
{
var sharedKeys = new List <uint>();
SSTR sstr = file.SSTR;
if (sstr == null)
{
sstr = new SSTR();
file.SSTR = sstr;
}
props.ForEach(prop =>
{
var shared = prop.CastValue <SharedString>();
if (shared == null)
{
byte[] empty = Array.Empty <byte>();
shared = SharedString.FromBuffer(empty);
}
string key = shared.Key;
if (!sstr.Lookup.ContainsKey(key))
{
uint id = (uint)sstr.Lookup.Count;
sstr.Strings.Add(id, shared);
sstr.Lookup.Add(key, id);
}
uint hashId = sstr.Lookup[key];
sharedKeys.Add(hashId);
});
writer.WriteInterleaved(sharedKeys);
break;
}
case PropertyType.ProtectedString:
{
props.ForEach(prop =>
{
var protect = prop.CastValue <ProtectedString>();
byte[] buffer = protect.RawBuffer;
writer.Write(buffer.Length);
writer.Write(buffer);
});
break;
}
case PropertyType.UniqueId:
{
props.ForEach(prop =>
{
var guid = prop.CastValue <Guid>();
byte[] buffer = guid.ToByteArray();
writer.Write(buffer);
});
break;
}
default:
{
RobloxFile.LogError($"Unhandled property type: {Type} in {this}!");
break;
}
}
}
} /*MSolver*/
#endregion Properties
#region constructors
public Mastermind(byte tries, byte pins, byte colors, bool computerIsPlaying, ColorSequence secretCombo)
: this(new GameState(tries, pins, colors, computerIsPlaying, secretCombo)) {
}
/**
* Shows the AI's guess on the screen, with the appropriate pegs for the match it received.
* The bool return value signifies whether game is over or not, which is handled by play(), this function's caller.
*/
private bool showOnGui(ColorSequence guess, Match m)
{
int x;
// show the guess on the screen
for (x = 0; x < DEPTH; x++)
{
mastermind.holes[x, mastermind.activeRow].Image = mastermind.images[log2(guess[x])];
}
// show appropriate pins for the match
x = 0;
for (int i = 0; i < m.blackHits; i++)
mastermind.pegs[x++, mastermind.activeRow - 1].Image = mastermind.blackPegImage;
for (int i = 0; i < m.whiteHits; i++)
mastermind.pegs[x++, mastermind.activeRow - 1].Image = mastermind.whitePegImage;
for (; x < DEPTH; x++)
mastermind.pegs[x, mastermind.activeRow - 1].Image = mastermind.emptyPegImage;
for (x = 0; x < DEPTH; x++)
mastermind.pegs[x, mastermind.activeRow - 1].Visible = true;
mastermind.Refresh();
// check for game end conditions
if (m.blackHits == DEPTH)
{
cleanUp();
TimeSpan ts = stopWatch.Elapsed;
MessageBox.Show("The AI cracked the code in " + ( 9 - mastermind.activeRow) + " attempts! Processing took " + ts.Minutes + ":" + ts.Seconds + "." + ts.Milliseconds, "Computer wins!", MessageBoxButtons.OK, MessageBoxIcon.Information);
return true;
}
else
{
mastermind.progressBar.Location = new Point(mastermind.progressBar.Location.X, mastermind.progressBar.Location.Y - 55);
mastermind.lblPossibilities.Location = new Point(mastermind.lblPossibilities.Location.X, mastermind.lblPossibilities.Location.Y - 55);
if (--mastermind.activeRow == 0) // ran out of attempts, they lose
{
cleanUp();
TimeSpan ts = stopWatch.Elapsed;
MessageBox.Show("The AI failed to crack the code in 8 attempts. Bad luck!Processing took " + ts.Minutes + ":" + ts.Seconds + "." + ts.Milliseconds, "Computer loses!", MessageBoxButtons.OK, MessageBoxIcon.Information);
return true;
}
}
return false;
}
// play the game!
private void play()
{
// convert GUI representation of code to AI representation of code
byte[] seq = new byte[5];
for(int i = 0; i < DEPTH; i++)
{
seq[i] = (byte)(1 << mastermind.code[i]);
}
ColorSequence code = new ColorSequence(seq);
// first guess is always the same because it is proven to be best in worst-case
byte[] firstGuess = {1,1,2,4,8};
ColorSequence guess = new ColorSequence(firstGuess);
Match m = calculateMatch(code, guess);
if (showOnGui(guess, m))
return;
current_set = restrictSet(guess, m.whiteHits, m.blackHits);
for (int i = 1; i <= 8; i++)
{
mastermind.lblPossibilities.Text = "Possibilities: " + current_set.Count;
mastermind.progressBar.Maximum = current_set.Count;
mastermind.progressBar.Value = 0;
Possibility bestPossibility = new Possibility(int.MaxValue, null, 0, 0);
foreach (ColorSequence possibility in current_set)
{
Possibility profile = profilePossibility(possibility, bestPossibility);
if (profile.worstCaseSetCount < bestPossibility.worstCaseSetCount) // found a better possibility
{
bestPossibility = profile;
}
//Console.WriteLine(bestPossibility.ToString());
mastermind.progressBar.Value += 1;
Application.DoEvents();
}
//Console.WriteLine(bestPossibility);
m = calculateMatch(code, bestPossibility.sequence);
if (showOnGui(bestPossibility.sequence, m))
return;
current_set = restrictSet(bestPossibility.sequence, m.whiteHits, m.blackHits);
}
}
private int calculatePossibilitiesLeftAfterAssumedResponse(ColorSequence c, int w, int b, int currentBest)
{
int count = 0;
foreach (ColorSequence possibility in current_set)
{
Match m = calculateMatch(possibility, c);
if (m.blackHits == b && m.whiteHits == w)
count++;
if (count >= currentBest) // already worse than best, so just return now
return count;
}
return count;
}
/**
* profilePossibility
* This takes a ColorSequence and profiles the possibility.
* This means that it calculates the worst-case scenario, where guessing this possibility leads to the largest number of remaining possible sequences.
*/
private Possibility profilePossibility(ColorSequence possibility, Possibility bestPossibility)
{
int maxPossibilities = 0;
int maxW = 0;
int maxB = 0;
for (int w = 0; w <= 5; w++)
{
for (int b = 0; b <= 5; b++)
{
if (w + b > 5) continue; // skip the white/black combination if it's not possible
int possibilitiesRemaining = calculatePossibilitiesLeftAfterAssumedResponse(possibility, w, b, bestPossibility.worstCaseSetCount);
if (possibilitiesRemaining >= bestPossibility.worstCaseSetCount)
{
// aready worse than best possibility's count, so no point in continuing
return new Possibility(possibilitiesRemaining, possibility, w, b);
}
if (possibilitiesRemaining > maxPossibilities)
{
maxPossibilities = possibilitiesRemaining;
maxW = w;
maxB = b;
}
}
}
return new Possibility(maxPossibilities, possibility, maxW, maxB);
}
/**
* restricts current_set to only those sequences which would hold true if the guess "c"
* returns w white hits and b black hits.
* Returns a new set containing these, which is promptly discarded if it doesn't minimize possibilities.
*/
private HashSet<ColorSequence> restrictSet(ColorSequence c, int w, int b)
{
HashSet<ColorSequence> new_set = new HashSet<ColorSequence>(csc);
foreach(ColorSequence possibility in current_set)
{
Match m = calculateMatch(possibility, c);
if (m.blackHits == b && m.whiteHits == w)
new_set.Add(possibility);
}
return new_set;
}
public void WriteProperty(Property prop, XmlDocument doc, XmlNode node)
{
ColorSequence value = prop.CastValue <ColorSequence>();
node.InnerText = value.ToString() + ' ';
}
/// <summary>
/// This command changes the mapping between the display data column address and the segment driver.
/// It allows flexibility in OLED module design. This command only affects subsequent data input.
/// Data already stored in GDDRAM will have no changes.
/// </summary>
/// <param name="colorDepth">Number of colors displayed. (defaults to 0x65K)</param>
/// <param name="commonSplit">Defines if to split commons odd then even columns. (defaults to odd/even)</param>
/// <param name="seg0Common">Column address 0 is mapped to SEG0 when set to Column0. Column address 127 is mapped to SEG0 when set to Column127. (defaults to Segment0 = Column0)</param>
/// <param name="colorSequence">Colors are ordered R->G->B when set to RGB. Colors are ordered B->G->A when set to BGR. (defaults to BGR)</param>
public void SetSegmentReMapColorDepth(ColorDepth colorDepth = ColorDepth.ColourDepth65K, CommonSplit commonSplit = CommonSplit.OddEven, Seg0Common seg0Common = Seg0Common.Column0, ColorSequence colorSequence = ColorSequence.BGR)
{
if (colorDepth == ColorDepth.ColourDepth262K16Bit)
{
throw new ArgumentException("Color depth 262k format 2 is not supported via the SPI interface.", nameof(colorDepth));
}
if (colorDepth == ColorDepth.ColourDepth256)
{
throw new ArgumentException("Color depth 256 not supported.", nameof(colorDepth));
}
SendCommand(Ssd1351Command.SetRemap, (byte)(((int)colorDepth << 6) + ((int)commonSplit << 5) + ((int)seg0Common << 4) + ((int)colorSequence << 2)));
}
public void btnGuess_Click(object sender, EventArgs e) {
if (!Mastermind.gameIsOver()) {
try {
ColorSequence guess = new ColorSequence();
for (int i = 0; i < Mastermind.GameState.NrOfPins; i++)
guess.addLast(
ClrPicker.parseEnum <Colors>(
CtrlController.LblArrayPlayer[Mastermind.GameState.TurnNumber - 1, i].BackColor.ToKnownColor().ToString()));
passGuessAndGetFeedback(guess);
} catch (ArgumentException) {
MessageBox.Show(
string.Format("Every pin must have a color and a color can't be used twice..."), string.Format("Error"));
}
}
} /*btnGuess_Click*/
} /*showOptions*/
private void passGuessAndGetFeedback(ColorSequence guess) {
Feedback feedback = Mastermind.checkAnswerAndGiveFeedbackFor(guess);
int tmp = 0;
for (byte j = 0; j < feedback.CorrectPositionAndColor; j++) {
CtrlController.LblArrayFeedBackPins[Mastermind.GameState.TurnNumber - 2, tmp].BackColor = Color.Black;
tmp++;
}
for (byte j = 0; j < feedback.CorrectColor; j++) {
CtrlController.LblArrayFeedBackPins[Mastermind.GameState.TurnNumber - 2, tmp].BackColor = Color.White;
tmp++;
}
if (Mastermind.gameIsOver()) {
MessageBox.Show(Mastermind.GameState.Won ? "Won" : "Lost");
CtrlController.unvealSecret();
} else {
if (CtrlController.BtnGuess != null) CtrlController.BtnGuess.Top += 50;
pnlPlace.ScrollControlIntoView(CtrlController.LblArrayPlayer[Mastermind.GameState.TurnNumber - 1, 0]);
CtrlController.highlightAccesiblePlayerLabels();
}
} /*passGuessAndGetFeedback*/
