public frmMain()
{
InitializeComponent();
ColorCounter CC = getColorCounter(selectedColor);
for (int i = 0; i < 16; i++)
{
for (int y = 0; y < 16; y++)
{
bgColors[i, y] = selectedColor;
CC.incAmount();
}
}
updateColorAmounts();
orderedColors.Add(new KeyValuePair <string, int>("White", 0));
orderedColors.Add(new KeyValuePair <string, int>("Orange", 1));
orderedColors.Add(new KeyValuePair <string, int>("Magenta", 2));
orderedColors.Add(new KeyValuePair <string, int>("LightBlue", 3));
orderedColors.Add(new KeyValuePair <string, int>("Yellow", 4));
orderedColors.Add(new KeyValuePair <string, int>("Lime", 5));
orderedColors.Add(new KeyValuePair <string, int>("Pink", 6));
orderedColors.Add(new KeyValuePair <string, int>("Gray", 7));
orderedColors.Add(new KeyValuePair <string, int>("LightGray", 8));
orderedColors.Add(new KeyValuePair <string, int>("Cyan", 9));
orderedColors.Add(new KeyValuePair <string, int>("Purple", 10));
orderedColors.Add(new KeyValuePair <string, int>("Blue", 11));
orderedColors.Add(new KeyValuePair <string, int>("Brown", 12));
orderedColors.Add(new KeyValuePair <string, int>("Green", 13));
orderedColors.Add(new KeyValuePair <string, int>("Red", 14));
orderedColors.Add(new KeyValuePair <string, int>("Black", 15));
}
void Start()
{
startZoneR = GameObject.Find("StartZoneRobots");
countdownRunning = true;
// Deactivating the countdown script until the game starts
((Countdowns)gameObject.GetComponent <Countdowns>()).enabled = false;
//Texts and Canvas
_remainingTimeText = GameObject.Find("GameCountdown").GetComponent <Text>();
_remainingTimeText.enabled = false;
_countdownText = GameObject.Find("StartCountdown").GetComponent <Text>();
_countdownText.enabled = false;
_gameOverText = GameObject.Find("GameOverText").GetComponent <Text>();
_gameOverText.enabled = false;
QuestionCanvas.SetActive(false);
rectTransform = _gameOverText.GetComponent <RectTransform>();
rectTransform.localPosition = GameOverStartPosition;
//Sound Integration
_throwingSoundRobot = GameObject.Find("Throwing Sound Robot").GetComponent <AudioSource>();
_throwingSoundCube = GameObject.Find("Throwing Sound Cube").GetComponent <AudioSource>();
_fireworkSound = GameObject.Find("Firework Sound").GetComponent <AudioSource>();
_fallingSound = GameObject.Find("Falling Sound").GetComponent <AudioSource>();
_startSound = GameObject.Find("Start Sound").GetComponent <AudioSource>();
_buttonSound = GameObject.Find("Button Sound").GetComponent <AudioSource>();
// Script Integration
ColorCountActivator = FindObjectOfType <ColorCounter>();
BallSpawnActivator = FindObjectOfType <BallSpawner>();
ColorSwitchActivator = FindObjectOfType <BallColorSwitch>();
// get lists for start sequence
scriptM = GameObject.Find("ScriptManager");
boxPlayerList = scriptM.GetComponent <CatchingThrowing>().enemyList;
robotList = scriptM.GetComponent <RobotEnemyManagement>().enemyList;
// find ball and player game object
ball = GameObject.Find("Ball");
player = GameObject.Find("Player");
}
private void decrementColor(Color c)
{
bool found = false;
foreach (ColorCounter CC in usedColors)
{
if (CC.color == c)
{
CC.decAmount();
found = true;
break;
}
}
if (!found)
{
ColorCounter colorC = new ColorCounter(c, 0);
usedColors.Add(colorC);
}
}
internal static void TestWrite()
{
ColorCounter c1 = new ColorCounter();
c1[Color.Red]++;
ColorCounter c2 = new ColorCounter();
c2[Color.Green]++;
c2[Color.Blue]++;
Player[] players =
{
new Player("Hans", new CardStack(new Card[] { new Card(3, Color.Red), new Card(6, Color.Red) }), c1),
new Player("Peter", new CardStack(new Card[] { new Card(2, Color.Green), new Card(7, Color.Blue) }), c2)
};
GameLog g = new GameLog(2, 3, players);
g.Turns.Add(new Turn(0, 1, Color.Green,
new Card[] {
new Card(2, Color.Green),
new Card(3, Color.Red)
}));
g.SaveLog();
}
public Player(WizzardExtreme.Player player)
{
Name = player.Name;
Hand = new CardStack(player.Hand);
Tricks = new ColorCounter(player.Tricks);
}
public Player(string name, CardStack hand, ColorCounter tricks)
{
Name = name;
Hand = hand;
Tricks = tricks;
}
static unsafe int Main(string[] astrArgs)
{
// Command-line argument processing
if (astrArgs.Length == 0) {
PrintHelp();
return 0;
}
for (int i = 0; i < astrArgs.Length; i++) {
switch (astrArgs[i]) {
case "-?":
PrintHelp();
return 0;
case "-i":
giclrInsert = Int32.Parse(astrArgs[++i]);
break;
case "-p":
gcPaletteEntries = Int32.Parse(astrArgs[++i]);
break;
case "-c":
gcColorEntries = Int32.Parse(astrArgs[++i]);
break;
case "-t":
gfEliminateTransparentColor = true;
break;
case "-s":
gfEliminateShadowColor = true;
break;
case "-v":
gfVerbose = true;
break;
case "-u":
gfPrintColorUsers = true;
break;
case "-6":
gf6bitRGB = true;
break;
case "-h":
gfPrintHistogram = true;
break;
case "-a":
gfAnalyse = true;
break;
case "-n":
gfPhotoshopPad = true;
break;
case "-f":
AddFilesFromFile(astrArgs[++i]);
break;
case "-o":
if (i + 1 >= astrArgs.Length) {
Console.WriteLine("Error: -o command requires a filename argument");
return -1;
}
gstrOutputFileName = astrArgs[++i];
break;
default:
if (astrArgs[i][0] == '-') {
Console.WriteLine("Error: invalid flag '{0}'", astrArgs[i]);
return -1;
}
// Assume all 'unassociated' arguments are input filenames (potentially wildcarded)
AddFiles(astrArgs[i]);
break;
}
}
if (gstrcFileNames.Count == 0) {
Console.WriteLine("Error: no files specified");
return -1;
}
// Build a list of the colors used and count of uses for each bitmap
ArrayList alstBitmapColorInfos = new ArrayList();
foreach (string strFileName in gstrcFileNames) {
BitmapColorInfo bci = new BitmapColorInfo();
bci.strFileName = strFileName;
bci.htColorCount = new Hashtable();
// Handle .PALs
if (strFileName.ToLower().EndsWith(".pal")) {
Palette pal = new Palette(strFileName);
int i = 0;
foreach (Color clr in pal.Colors) {
Color clrT = clr;
if (gf6bitRGB)
clrT = Color.FromArgb(clr.R & 0xfc, clr.G & 0xfc, clr.B & 0xfc);
// This hack causes the .PAL colors to be sorted at the head of the
// combined palette while retaining the order they were found in the .PAL.
if (!bci.htColorCount.Contains(clrT))
bci.htColorCount[clrT] = (Int32.MaxValue / 2) - i++;
}
// Handle everything else (bitmaps)
} else {
Bitmap bm = null;
try {
bm = new Bitmap(strFileName);
} catch {
Console.WriteLine("Error: {0} is not a recognized bitmap or palette file", strFileName);
continue;
}
// Prep to filter out the transparent color
Color clrTransparent = Color.GhostWhite;
if (gfEliminateTransparentColor)
clrTransparent = bm.GetPixel(0, 0);
// Prep to filter out the shadow color
Color clrShadow = Color.GhostWhite;
if (gfEliminateShadowColor)
clrShadow = Color.FromArgb(156, 212, 248);
// Keep a per-bitmap list of unique colors and how many times they're used
Hashtable ht = bci.htColorCount;
// Lock down bits for speed
Rectangle rc = new Rectangle(0, 0, bm.Width, bm.Height);
BitmapData bmd = bm.LockBits(rc, ImageLockMode.ReadOnly, PixelFormat.Format24bppRgb);
byte *pbBase = (byte *)bmd.Scan0.ToPointer();
for (int y = 0; y < bm.Height; y++) {
for (int x = 0; x < bm.Width; x++) {
byte *pb = pbBase + y * bmd.Stride + x * 3;
Color clr = Color.FromArgb(pb[2], pb[1], pb[0]);
if (gfEliminateTransparentColor && clr == clrTransparent)
continue;
if (gfEliminateShadowColor && clr == clrShadow)
continue;
if (gf6bitRGB)
clr = Color.FromArgb(clr.R & 0xfc, clr.G & 0xfc, clr.B & 0xfc);
object obT = ht[clr];
if (obT == null)
ht[clr] = 1;
else
ht[clr] = 1 + (int)obT;
}
}
bm.UnlockBits(bmd);
}
if (gfVerbose)
Console.WriteLine("{0} uses {1} colors", strFileName, bci.htColorCount.Count);
if (gfPrintHistogram && gfVerbose) {
foreach (DictionaryEntry de in bci.htColorCount) {
Color clr = (Color)de.Key;
Console.WriteLine("{0},{1},{2} : {3} occurances", clr.R, clr.G, clr.B, (int)de.Value);
}
Console.WriteLine();
}
alstBitmapColorInfos.Add(bci);
}
if (alstBitmapColorInfos.Count == 0) {
Console.WriteLine("Error: no valid bitmap files to process, terminating");
return -1;
}
// Combine all the color tables and count data
Hashtable htCombined = new Hashtable();
foreach (BitmapColorInfo bci in alstBitmapColorInfos) {
foreach (DictionaryEntry de in bci.htColorCount) {
Color clr = (Color)de.Key;
ColorCounter clrc = (ColorCounter)htCombined[clr];
if (clrc == null) {
clrc = new ColorCounter();
clrc.cclr = (int)de.Value;
htCombined[clr] = clrc;
} else {
int nAdd = (int)de.Value;
if (nAdd > Int32.MaxValue / 3)
clrc.cclr = (int)de.Value;
else if (clrc.cclr < Int32.MaxValue / 3)
clrc.cclr += nAdd;
}
clrc.alBitmaps.Add(bci.strFileName);
}
}
int cclrCombined = htCombined.Count;
Console.WriteLine("Combined palette has {0} unique colors", cclrCombined);
// Sort everything by # colors used
ColorCounter[] aclrcSorted = new ColorCounter[cclrCombined];
// int i = 0;
// foreach (ColorCounter clrc in htCombined.Values)
// acOccurancesSorted[i++] = clrc.cclr;
htCombined.Values.CopyTo(aclrcSorted, 0);
Color[] aclrSorted = new Color[cclrCombined];
htCombined.Keys.CopyTo(aclrSorted, 0);
Array.Sort(aclrcSorted, aclrSorted);
// Reverse so most-used colors come first
// OPT: could do this inside the Sort above by specifying a custom IComparer
Array.Reverse(aclrcSorted);
Array.Reverse(aclrSorted);
if (gfPrintHistogram || gfPrintColorUsers) {
for (int i = 0; i < cclrCombined; i++) {
Color clr = aclrSorted[i];
int cOccurances = aclrcSorted[i].cclr;
if (cOccurances >= Int32.MaxValue / 3)
Console.WriteLine("{0},{1},{2} : preloaded", clr.R, clr.G, clr.B);
else
Console.WriteLine("{0},{1},{2} : {3} occurances", clr.R, clr.G, clr.B, cOccurances);
if (gfPrintColorUsers) {
foreach (string strFileName in aclrcSorted[i].alBitmaps) {
Console.WriteLine(" {0}", strFileName);
}
}
}
}
// Print warning if # of unique colors is greater than the desired palette size
// Truncate to match the requested size since other tools depend on this
if (cclrCombined > gcColorEntries) {
Console.WriteLine("Warning! {0} unique colors, {1} palette entries reserved. Truncating...", cclrCombined, gcColorEntries);
Color[] aclrSortedT = new Color[gcColorEntries];
Array.Copy(aclrSorted, 0, aclrSortedT, 0, gcColorEntries);
aclrSorted = aclrSortedT;
ColorCounter[] aclrcSortedT = new ColorCounter[gcColorEntries];
Array.Copy(aclrcSorted, 0, aclrcSortedT, 0, gcColorEntries);
aclrcSorted = aclrcSortedT;
cclrCombined = gcColorEntries;
}
// Create the palette. Presorted colors start at 0. New colors start at giclrInsert.
// giclrInsert == -1 means new colors are simply appended to the presorted colors.
Color[] aclrPalette = aclrSorted;
if (giclrInsert != -1) {
// Init to transparent
aclrPalette = new Color[gcColorEntries];
for (int i = 0; i < aclrPalette.Length; i++)
aclrPalette[i] = Color.FromArgb(255, 0, 255);
// Insert new colors appropriately
int iclrBase = -1;
for (int i = 0; i < cclrCombined; i++) {
if (aclrcSorted[i].cclr >= Int32.MaxValue / 3) {
aclrPalette[i] = aclrSorted[i];
continue;
}
if (iclrBase == -1)
iclrBase = i;
int iclrNew = giclrInsert + (i - iclrBase);
if (iclrNew < aclrPalette.Length)
aclrPalette[iclrNew] = aclrSorted[i];
}
}
// Write the output palette file, if requested
if (gstrOutputFileName != null) {
Palette pal = new Palette(aclrPalette);
if (gfPhotoshopPad)
pal.Pad(gcPaletteEntries, pal[pal.Length - 1]);
else
pal.Pad(gcPaletteEntries, Color.FromArgb(255, 0, 255));
pal.SaveJasc(gstrOutputFileName);
}
if (gfAnalyse) {
Palette pal = new Palette(aclrPalette);
// For each color find the nearest color in RGB space and print
// the pair as well as the distance between them.
for (int iclrA = 0; iclrA < aclrPalette.Length; iclrA++) {
Color clrA = aclrPalette[iclrA];
// Find the entry, the long way
int nLowest = 256 * 256 * 3;
int iLowest = 0;
for (int iclr = 0; iclr < aclrPalette.Length; iclr++) {
if (iclr == iclrA)
continue;
Color clrPal = aclrPalette[iclr];
int dR = clrPal.R - clrA.R;
int dG = clrPal.G - clrA.G;
int dB = clrPal.B - clrA.B;
int nD = dR * dR + dG * dG + dB * dB;
if (nD < nLowest) {
nLowest = nD;
iLowest = iclr;
}
}
Color clrB = aclrPalette[iLowest];
double n = Math.Sqrt(nLowest);
Console.WriteLine("{8:#.##}\t[{3}] {0},{1},{2} \t[{7}] {4},{5},{6}",
clrA.R, clrA.G, clrA.B, iclrA, clrB.R, clrB.G, clrB.B, iLowest, n);
}
}
return 0;
}
static unsafe int Main(string[] astrArgs)
{
// Command-line argument processing
if (astrArgs.Length == 0)
{
PrintHelp();
return(0);
}
for (int i = 0; i < astrArgs.Length; i++)
{
switch (astrArgs[i])
{
case "-?":
PrintHelp();
return(0);
case "-i":
giclrInsert = Int32.Parse(astrArgs[++i]);
break;
case "-p":
gcPaletteEntries = Int32.Parse(astrArgs[++i]);
break;
case "-c":
gcColorEntries = Int32.Parse(astrArgs[++i]);
break;
case "-t":
gfEliminateTransparentColor = true;
break;
case "-s":
gfEliminateShadowColor = true;
break;
case "-v":
gfVerbose = true;
break;
case "-u":
gfPrintColorUsers = true;
break;
case "-6":
gf6bitRGB = true;
break;
case "-h":
gfPrintHistogram = true;
break;
case "-a":
gfAnalyse = true;
break;
case "-n":
gfPhotoshopPad = true;
break;
case "-f":
AddFilesFromFile(astrArgs[++i]);
break;
case "-o":
if (i + 1 >= astrArgs.Length)
{
Console.WriteLine("Error: -o command requires a filename argument");
return(-1);
}
gstrOutputFileName = astrArgs[++i];
break;
default:
if (astrArgs[i][0] == '-')
{
Console.WriteLine("Error: invalid flag '{0}'", astrArgs[i]);
return(-1);
}
// Assume all 'unassociated' arguments are input filenames (potentially wildcarded)
AddFiles(astrArgs[i]);
break;
}
}
if (gstrcFileNames.Count == 0)
{
Console.WriteLine("Error: no files specified");
return(-1);
}
// Build a list of the colors used and count of uses for each bitmap
ArrayList alstBitmapColorInfos = new ArrayList();
foreach (string strFileName in gstrcFileNames)
{
BitmapColorInfo bci = new BitmapColorInfo();
bci.strFileName = strFileName;
bci.htColorCount = new Hashtable();
// Handle .PALs
if (strFileName.ToLower().EndsWith(".pal"))
{
Palette pal = new Palette(strFileName);
int i = 0;
foreach (Color clr in pal.Colors)
{
Color clrT = clr;
if (gf6bitRGB)
{
clrT = Color.FromArgb(clr.R & 0xfc, clr.G & 0xfc, clr.B & 0xfc);
}
// This hack causes the .PAL colors to be sorted at the head of the
// combined palette while retaining the order they were found in the .PAL.
if (!bci.htColorCount.Contains(clrT))
{
bci.htColorCount[clrT] = (Int32.MaxValue / 2) - i++;
}
}
// Handle everything else (bitmaps)
}
else
{
Bitmap bm = null;
try {
bm = new Bitmap(strFileName);
} catch {
Console.WriteLine("Error: {0} is not a recognized bitmap or palette file", strFileName);
continue;
}
// Prep to filter out the transparent color
Color clrTransparent = Color.GhostWhite;
if (gfEliminateTransparentColor)
{
clrTransparent = bm.GetPixel(0, 0);
}
// Prep to filter out the shadow color
Color clrShadow = Color.GhostWhite;
if (gfEliminateShadowColor)
{
clrShadow = Color.FromArgb(156, 212, 248);
}
// Keep a per-bitmap list of unique colors and how many times they're used
Hashtable ht = bci.htColorCount;
// Lock down bits for speed
Rectangle rc = new Rectangle(0, 0, bm.Width, bm.Height);
BitmapData bmd = bm.LockBits(rc, ImageLockMode.ReadOnly, PixelFormat.Format24bppRgb);
byte * pbBase = (byte *)bmd.Scan0.ToPointer();
for (int y = 0; y < bm.Height; y++)
{
for (int x = 0; x < bm.Width; x++)
{
byte *pb = pbBase + y * bmd.Stride + x * 3;
Color clr = Color.FromArgb(pb[2], pb[1], pb[0]);
if (gfEliminateTransparentColor && clr == clrTransparent)
{
continue;
}
if (gfEliminateShadowColor && clr == clrShadow)
{
continue;
}
if (gf6bitRGB)
{
clr = Color.FromArgb(clr.R & 0xfc, clr.G & 0xfc, clr.B & 0xfc);
}
object obT = ht[clr];
if (obT == null)
{
ht[clr] = 1;
}
else
{
ht[clr] = 1 + (int)obT;
}
}
}
bm.UnlockBits(bmd);
}
if (gfVerbose)
{
Console.WriteLine("{0} uses {1} colors", strFileName, bci.htColorCount.Count);
}
if (gfPrintHistogram && gfVerbose)
{
foreach (DictionaryEntry de in bci.htColorCount)
{
Color clr = (Color)de.Key;
Console.WriteLine("{0},{1},{2} : {3} occurances", clr.R, clr.G, clr.B, (int)de.Value);
}
Console.WriteLine();
}
alstBitmapColorInfos.Add(bci);
}
if (alstBitmapColorInfos.Count == 0)
{
Console.WriteLine("Error: no valid bitmap files to process, terminating");
return(-1);
}
// Combine all the color tables and count data
Hashtable htCombined = new Hashtable();
foreach (BitmapColorInfo bci in alstBitmapColorInfos)
{
foreach (DictionaryEntry de in bci.htColorCount)
{
Color clr = (Color)de.Key;
ColorCounter clrc = (ColorCounter)htCombined[clr];
if (clrc == null)
{
clrc = new ColorCounter();
clrc.cclr = (int)de.Value;
htCombined[clr] = clrc;
}
else
{
int nAdd = (int)de.Value;
if (nAdd > Int32.MaxValue / 3)
{
clrc.cclr = (int)de.Value;
}
else if (clrc.cclr < Int32.MaxValue / 3)
{
clrc.cclr += nAdd;
}
}
clrc.alBitmaps.Add(bci.strFileName);
}
}
int cclrCombined = htCombined.Count;
Console.WriteLine("Combined palette has {0} unique colors", cclrCombined);
// Sort everything by # colors used
ColorCounter[] aclrcSorted = new ColorCounter[cclrCombined];
// int i = 0;
// foreach (ColorCounter clrc in htCombined.Values)
// acOccurancesSorted[i++] = clrc.cclr;
htCombined.Values.CopyTo(aclrcSorted, 0);
Color[] aclrSorted = new Color[cclrCombined];
htCombined.Keys.CopyTo(aclrSorted, 0);
Array.Sort(aclrcSorted, aclrSorted);
// Reverse so most-used colors come first
// OPT: could do this inside the Sort above by specifying a custom IComparer
Array.Reverse(aclrcSorted);
Array.Reverse(aclrSorted);
if (gfPrintHistogram || gfPrintColorUsers)
{
for (int i = 0; i < cclrCombined; i++)
{
Color clr = aclrSorted[i];
int cOccurances = aclrcSorted[i].cclr;
if (cOccurances >= Int32.MaxValue / 3)
{
Console.WriteLine("{0},{1},{2} : preloaded", clr.R, clr.G, clr.B);
}
else
{
Console.WriteLine("{0},{1},{2} : {3} occurances", clr.R, clr.G, clr.B, cOccurances);
}
if (gfPrintColorUsers)
{
foreach (string strFileName in aclrcSorted[i].alBitmaps)
{
Console.WriteLine(" {0}", strFileName);
}
}
}
}
// Print warning if # of unique colors is greater than the desired palette size
// Truncate to match the requested size since other tools depend on this
if (cclrCombined > gcColorEntries)
{
Console.WriteLine("Warning! {0} unique colors, {1} palette entries reserved. Truncating...", cclrCombined, gcColorEntries);
Color[] aclrSortedT = new Color[gcColorEntries];
Array.Copy(aclrSorted, 0, aclrSortedT, 0, gcColorEntries);
aclrSorted = aclrSortedT;
ColorCounter[] aclrcSortedT = new ColorCounter[gcColorEntries];
Array.Copy(aclrcSorted, 0, aclrcSortedT, 0, gcColorEntries);
aclrcSorted = aclrcSortedT;
cclrCombined = gcColorEntries;
}
// Create the palette. Presorted colors start at 0. New colors start at giclrInsert.
// giclrInsert == -1 means new colors are simply appended to the presorted colors.
Color[] aclrPalette = aclrSorted;
if (giclrInsert != -1)
{
// Init to transparent
aclrPalette = new Color[gcColorEntries];
for (int i = 0; i < aclrPalette.Length; i++)
{
aclrPalette[i] = Color.FromArgb(255, 0, 255);
}
// Insert new colors appropriately
int iclrBase = -1;
for (int i = 0; i < cclrCombined; i++)
{
if (aclrcSorted[i].cclr >= Int32.MaxValue / 3)
{
aclrPalette[i] = aclrSorted[i];
continue;
}
if (iclrBase == -1)
{
iclrBase = i;
}
int iclrNew = giclrInsert + (i - iclrBase);
if (iclrNew < aclrPalette.Length)
{
aclrPalette[iclrNew] = aclrSorted[i];
}
}
}
// Write the output palette file, if requested
if (gstrOutputFileName != null)
{
Palette pal = new Palette(aclrPalette);
if (gfPhotoshopPad)
{
pal.Pad(gcPaletteEntries, pal[pal.Length - 1]);
}
else
{
pal.Pad(gcPaletteEntries, Color.FromArgb(255, 0, 255));
}
pal.SaveJasc(gstrOutputFileName);
}
if (gfAnalyse)
{
Palette pal = new Palette(aclrPalette);
// For each color find the nearest color in RGB space and print
// the pair as well as the distance between them.
for (int iclrA = 0; iclrA < aclrPalette.Length; iclrA++)
{
Color clrA = aclrPalette[iclrA];
// Find the entry, the long way
int nLowest = 256 * 256 * 3;
int iLowest = 0;
for (int iclr = 0; iclr < aclrPalette.Length; iclr++)
{
if (iclr == iclrA)
{
continue;
}
Color clrPal = aclrPalette[iclr];
int dR = clrPal.R - clrA.R;
int dG = clrPal.G - clrA.G;
int dB = clrPal.B - clrA.B;
int nD = dR * dR + dG * dG + dB * dB;
if (nD < nLowest)
{
nLowest = nD;
iLowest = iclr;
}
}
Color clrB = aclrPalette[iLowest];
double n = Math.Sqrt(nLowest);
Console.WriteLine("{8:#.##}\t[{3}] {0},{1},{2} \t[{7}] {4},{5},{6}",
clrA.R, clrA.G, clrA.B, iclrA, clrB.R, clrB.G, clrB.B, iLowest, n);
}
}
return(0);
}
