private static void AssertEqualRelativePaths(
BuildXLContext context,
string objPath,
Remapper remapper,
RelativePath expectedPath,
RelativePath actualPath)
{
if (remapper?.PathAtomStringRemapper != null)
{
var expectedAtoms = expectedPath.GetAtoms();
var actualAtoms = actualPath.GetAtoms();
XAssert.AreEqual(
expectedAtoms.Length,
actualAtoms.Length,
$"{nameof(AbsolutePath)} values don't match for objPath: {objPath}");
for (int i = 0; i < expectedAtoms.Length; ++i)
{
AssertEqualPathAtoms(context, objPath, remapper, expectedAtoms[i], actualAtoms[i]);
}
}
else
{
XAssert.AreEqual(expectedPath, actualPath, $"{nameof(RelativePath)} values don't match for objPath: {objPath}");
}
}
void Update()
{
float mappedValue = Remapper.Remap(player.currentSpeed, speedLimit.x, speedLimit.y, tachoGrenze.x, tachoGrenze.y);
tachoNadel.localRotation = Quaternion.Euler(0f, 0f, -mappedValue);
speedText.text = player.currentSpeed.ToString("0");
}
/* Constructor */
public MainForm()
{
InitializeComponent();
// Setup global keyboard hook
m_GlobalKeyboardHook = new GlobalKeyboardHook();
m_GlobalKeyboardHook.KeyboardPressed += OnKeyPressed;
// Setup global mouse hook
m_GlobalMouseHook = new GlobalMouseHook();
m_GlobalMouseHook.MouseEvent += OnMouseEvent;
// Create macro player
m_MacroPlayer = new MacroPlayer();
m_MacroPlayer.Loop = true;
m_MacroPlayer.RecordShortcut = true;
m_MacroPlayer.PropertyChanged += MacroPlayer_PropertyChanged;
// Create remapper
m_Remapper = new Remapper();
// Create status checker
m_StatusChecker = new StatusChecker();
// Set control mode
SetControlMode(ControlMode.Macro);
// Create save/load helper
m_SaveLoadHelper = new SaveLoadHelper(this, m_MacroPlayer);
m_SaveLoadHelper.PropertyChanged += SaveLoadHelper_PropertyChanged;
// Initialize interceptor
InitInterceptor();
}
private void SetInfluences(params InfluenceDef[] influences)
{
Remapper remap = new Remapper();
remap.Remap(influences);
for (int i = 0; i < remap.RemapTable.Length; ++i)
{
_facePoints[i].InfluenceIndex = remap.RemapTable[i];
}
_influences = new InfluenceDef[remap.ImplementationLength];
for (int i = 0; i < remap.ImplementationLength; ++i)
{
_influences[i] = influences[remap.ImplementationTable[i]];
}
HashSet <string> utilized = new HashSet <string>();
foreach (InfluenceDef inf in _influences)
{
if (inf != null)
{
for (int i = 0; i < inf.WeightCount; ++i)
{
utilized.Add(inf.Weights[i].Bone);
}
}
}
_utilizedBones = utilized.ToArray();
}
/// <summary>
/// Constructor for this class, defines the individual controller.
/// </summary>
public DInputController(SharpDX.DirectInput.DirectInput directInput, Guid deviceGuid) : base(directInput, deviceGuid)
{
// Instantiate the remapper.
Remapper = new Remapper(Remapper.InputDeviceType.DirectInput, this);
// Get the controller key binding.
Remapper.GetMappings();
}
private void Evaluate()
{
//Colors will almost always need remapping
_remapData = new Remapper();
_remapData.Remap(new MemoryList <RGBAPixel>(_pData, _srcCount), null); //Don't bother sorting
int[] imp = _remapData._impTable;
int impLen = imp.Length;
_dstCount = impLen;
//Do we have alpha?
int i = 0;
while (i < _dstCount && _pData[imp[i]].A == 255)
{
i++;
}
_hasAlpha = i < _srcCount;
//Determine format
if (_hasAlpha)
{
_outType = WiiColorComponentType.RGBA8;
}
else
{
_outType = WiiColorComponentType.RGB8;
}
switch (_outType)
{
case WiiColorComponentType.RGB565:
case WiiColorComponentType.RGBA4:
_dstStride = 2;
break;
case WiiColorComponentType.RGB8:
case WiiColorComponentType.RGBA6:
_dstStride = 3;
break;
case WiiColorComponentType.RGBA8:
case WiiColorComponentType.RGBX8:
_dstStride = 4;
break;
}
_dataLen = _dstStride * _dstCount;
GetEncoder();
}
/// <summary>
/// Constructor for this class, defines the individual controller.
/// </summary>
/// <param name="controllerId">Specifies the XInput controller port for the controller to be created.</param>
public XInputController(int controllerId)
{
// Create controller instance and assign controller port.
Controller = new Controller((UserIndex)controllerId);
ControllerId = controllerId;
// Instantiate the remapper.
Remapper = new Remapper(Remapper.InputDeviceType.XInput, this);
// Get the controller key binding.
Remapper.GetMappings();
}
private void Update()
{
float t = Remapper.Remap(player.currentSpeed, player.minSpeed, player.maxSpeed, 0, 1);
//Camera FoV
cameraComponent.fieldOfView = Mathf.Lerp(minFOV, maxFOV, fovCurve.Evaluate(t));
//Camera MotionBlur
motionBlur.shutterAngle.value = Mathf.Lerp(minShutterAngle, maxShutterAngle, motionBlurCurve.Evaluate(t));
//Camera Shake
transform.localPosition = localStartPos + Random.insideUnitSphere * Mathf.Lerp(minShake, maxShake, shakeCurve.Evaluate(t));
}
public IEnumerator SetProgressBar()
{
_currentPos = Player.Instance.transform.position.x;
Vector3 pos = Vector3.one;
CurrentLevelText.text = StageManager.Instance.getCurrentLevel().ToString();
NextLevelText.text = (StageManager.Instance.getCurrentLevel() + 1).ToString();
while (true)
{
pos.x = Remapper.Remap(_currentPos, startPosition, _endPosition, 0, 1);
Bar.transform.localScale = pos;
yield return(new WaitForFixedUpdate());
}
}
/// <summary>
/// Apply brightness and any other things to the image
/// Ok to modify image
/// </summary>
/// <param name="image"></param>
/// <param name="gamma"></param>
/// <param name="useGamma"></param>
/// <returns></returns>
private void PostProcessImage(uint[] image, byte[] gamma, bool useGamma)
{
if (image == null)
{
return;
}
ApplyBrightness(image);
imageFilter(image); // any external filtering
if (device.IsConnected)
{
device.WriteImage(Remapper.MapImage(image, useGamma ? gamma : null));
}
}
private static void AssertEqualLocationData(
BuildXLContext context,
string objPath,
Remapper remapper,
LocationData expectedLocationData,
LocationData actualLocationData)
{
if (remapper?.PathStringRemapper != null)
{
AssertEqualAbsolutePaths(context, objPath, remapper, expectedLocationData.Path, actualLocationData.Path);
XAssert.AreEqual(expectedLocationData.Line, actualLocationData.Line, $"{nameof(LocationData)} values don't match for objPath: {objPath}");
XAssert.AreEqual(expectedLocationData.Position, actualLocationData.Position, $"{nameof(LocationData)} values don't match for objPath: {objPath}");
}
else
{
XAssert.AreEqual(expectedLocationData, actualLocationData, $"{nameof(LocationData)} values don't match for objPath: {objPath}");
}
}
void Update()
{
float playerDistance = Vector3.Distance(player.transform.position, trackStart.position);
//Prewarm Phase
if (playerDistance < 0.5f && !isStarted)
{
isStarted = true;
}
if (isStarted)
{
playerDistance /= trackDistance;
playerDistance = Mathf.Clamp01(playerDistance);
float progess = Remapper.Remap(playerDistance, 0, 1, startPos.position.x + startPos.rect.width / 2, endPos.position.x - endPos.rect.width / 2);
playerIcon.position = new Vector3(progess, playerIcon.position.y, playerIcon.position.z);
}
}
private static void ValidateConfigurationCopyConstructor(bool booleanDefault)
{
var context = BuildXLContext.CreateInstanceForTesting();
var initialInstance = (CommandLineConfiguration)CreateInstance(context, typeof(CommandLineConfiguration), booleanDefault);
string from = A("x");
string to = A("y");
var remapper = new Remapper(new PathTable(), p => p.Replace(from, to), a => a + "_");
var pathRemapper = new PathRemapper(
context.PathTable,
remapper.PathTable,
pathStringRemapper: remapper.PathStringRemapper,
pathAtomStringRemapper: remapper.PathAtomStringRemapper);
var clone = new CommandLineConfiguration(initialInstance, pathRemapper);
ValidateEqual(context, typeof(CommandLineConfiguration), initialInstance, clone, "configuration", remapper);
}
private static void AssertEqualFileArtifacts(
BuildXLContext context,
string objPath,
Remapper remapper,
FileArtifact expectedFile,
FileArtifact actualFile)
{
if (remapper != null)
{
AssertEqualAbsolutePaths(context, objPath, remapper, expectedFile.Path, actualFile.Path);
XAssert.AreEqual(
expectedFile.RewriteCount,
actualFile.RewriteCount,
$"{nameof(FileArtifact)} values don't match for objPath: {objPath}");
}
else
{
XAssert.AreEqual(expectedFile, actualFile, $"{nameof(FileArtifact)} values don't match for objPath: {objPath}");
}
}
public void Reset()
{
this.enabled = true;
meshRend.enabled = true;
currentSpeed = 0;
manager.SwitchGameplay(GameState.PLAY);
rigid.useGravity = true;
isFinished = false;
transform.rotation = Quaternion.identity;
transform.position = startPoint.position;
startRoutine = StartCoroutine(StartSpeedUp());
metalBarRessource = 1f;
rigid.constraints = RigidbodyConstraints.FreezeRotationY & RigidbodyConstraints.FreezeRotationZ;
float value = Remapper.Remap(metalBarRessource, 0, 1, 0, 0.8f);
crowbarMat.SetFloat("_OpacityEmission", value);
timer = 0;
metalbarText.SetActive(false);
metalbar.SetActive(true);
}
private void Evaluate()
{
//Colors will almost always need remapping
_remapData = new Remapper();
_remapData.Remap<RGBAPixel>(new MemoryList<RGBAPixel>(_pData, _srcCount), null); //Don't bother sorting
int[] imp = _remapData._impTable;
int impLen = imp.Length;
_dstCount = impLen;
//Do we have alpha?
int i = 0;
while ((i < _dstCount) && (_pData[imp[i]].A == 255)) i++;
_hasAlpha = i < _srcCount;
//Determine format
if (_hasAlpha)
_outType = WiiColorComponentType.RGBA8;
else
_outType = WiiColorComponentType.RGB8;
switch (_outType)
{
case WiiColorComponentType.RGB565:
case WiiColorComponentType.RGBA4:
_dstStride = 2; break;
case WiiColorComponentType.RGB8:
case WiiColorComponentType.RGBA6:
_dstStride = 3; break;
case WiiColorComponentType.RGBA8:
case WiiColorComponentType.RGBX8:
_dstStride = 4; break;
}
_dataLen = _dstStride * _dstCount;
GetEncoder();
}
private static void AssertEqualAbsolutePaths(BuildXLContext context, string objPath, Remapper remapper, AbsolutePath expectedPath, AbsolutePath actualPath)
{
if (remapper?.PathStringRemapper != null)
{
var expectedPathString = remapper.PathStringRemapper(expectedPath.ToString(context.PathTable));
XAssert.AreEqual(
expectedPathString,
actualPath.ToString(remapper.PathTable),
$"{nameof(AbsolutePath)} values don't match for objPath: {objPath}");
}
else
{
XAssert.AreEqual(expectedPath, actualPath, $"{nameof(AbsolutePath)} values don't match for objPath: {objPath}");
}
}
private static void AssertEqualPathAtoms(BuildXLContext context, string objPath, Remapper remapper, PathAtom expectedAtom, PathAtom actualAtom)
{
if (remapper?.PathAtomStringRemapper != null)
{
var expectedAtomString = remapper.PathAtomStringRemapper(expectedAtom.ToString(context.StringTable));
XAssert.AreEqual(
expectedAtomString,
actualAtom.ToString(remapper.PathTable.StringTable),
$"{nameof(PathAtom)} values don't match for objPath: {objPath}");
}
else
{
XAssert.AreEqual(expectedAtom, actualAtom, $"{nameof(PathAtom)} values don't match for objPath: {objPath}");
}
}
public static void ValidateEqual(BuildXLContext context, Type type, object expected, object actual, string objPath, Remapper remapper)
{
type = GetNonNullableType(type);
if (type == typeof(bool))
{
XAssert.AreEqual((bool)expected, (bool)actual, $"{nameof(Boolean)} values don't match for objPath: {objPath}");
return;
}
if (type == typeof(int) || type == typeof(short) || type == typeof(sbyte) || type == typeof(long))
{
XAssert.AreEqual(
Convert.ToInt64(expected),
Convert.ToInt64(actual),
$"Numeric values don't match for objPath: {objPath}");
return;
}
if (type == typeof(uint) || type == typeof(ushort) || type == typeof(byte) || type == typeof(ulong))
{
XAssert.AreEqual(
Convert.ToUInt64(expected),
Convert.ToUInt64(actual),
$"Numeric values don't match for objPath: {objPath}");
return;
}
if (type == typeof(double))
{
XAssert.AreEqual(
Convert.ToDouble(expected),
Convert.ToDouble(actual),
$"Numeric values don't match for objPath: {objPath}");
return;
}
if (type == typeof(string))
{
XAssert.AreEqual((string)expected, (string)actual, $"{nameof(String)} values don't match for objPath: {objPath}");
return;
}
if (type == typeof(ModuleId))
{
XAssert.AreEqual(
(ModuleId)expected,
(ModuleId)actual,
$"{nameof(ModuleId)} id values don't match for objPath: {objPath}");
return;
}
if (type == typeof(LocationData))
{
AssertEqualLocationData(context, objPath, remapper, (LocationData)expected, (LocationData)actual);
return;
}
if (type == typeof(RelativePath))
{
AssertEqualRelativePaths(context, objPath, remapper, (RelativePath)expected, (RelativePath)actual);
return;
}
if (type == typeof(AbsolutePath))
{
AssertEqualAbsolutePaths(context, objPath, remapper, (AbsolutePath)expected, (AbsolutePath)actual);
return;
}
if (type == typeof(FileArtifact))
{
AssertEqualFileArtifacts(context, objPath, remapper, (FileArtifact)expected, (FileArtifact)actual);
return;
}
if (type == typeof(PathAtom))
{
AssertEqualPathAtoms(context, objPath, remapper, (PathAtom)expected, (PathAtom)actual);
return;
}
if (type == typeof(SymbolAtom))
{
XAssert.AreEqual((SymbolAtom)expected, (SymbolAtom)actual, $"{nameof(SymbolAtom)} values don't match for objPath: {objPath}");
return;
}
if (type == typeof(global::BuildXL.Utilities.LineInfo))
{
XAssert.AreEqual(
(global::BuildXL.Utilities.LineInfo)expected,
(global::BuildXL.Utilities.LineInfo)actual,
$"{nameof(global::BuildXL.Utilities.LineInfo)} values don't match for objPath: {objPath}");
return;
}
if (type == typeof(LineInfo))
{
XAssert.AreEqual(
(LineInfo)expected,
(LineInfo)actual,
$"{nameof(LineInfo)} values don't match for objPath: {objPath}");
return;
}
if (type.GetTypeInfo().IsEnum)
{
XAssert.AreEqual((Enum)expected, (Enum)actual, $"Enum values don't match for objPath: {objPath}");
return;
}
if (type.GetTypeInfo().IsGenericType)
{
var generic = type.GetGenericTypeDefinition();
if (generic == typeof(List <>) || generic == typeof(IReadOnlyList <>))
{
XAssert.IsTrue((expected == null) == (actual == null));
var expectedList = expected as IList;
var actualList = actual as IList;
XAssert.IsTrue(
(expectedList == null) == (actualList == null),
"One of the lists is null, the other isnt for objPath: {0}",
objPath);
if (expectedList != null)
{
XAssert.AreEqual(expectedList.Count, actualList.Count, $"Counts of lists don't match for objPath: {objPath}");
for (int i = 0; i < expectedList.Count; i++)
{
ValidateEqual(
context,
type.GenericTypeArguments[0],
expectedList[i],
actualList[i],
objPath + "[" + i.ToString(CultureInfo.InvariantCulture) + "]",
remapper);
}
}
return;
}
if (generic == typeof(Dictionary <,>) || generic == typeof(IReadOnlyDictionary <,>) || generic == typeof(ConcurrentDictionary <,>))
{
XAssert.IsTrue((expected == null) == (actual == null));
var expectedDictionary = expected as IDictionary;
var actualDictionary = actual as IDictionary;
XAssert.IsTrue(
(expectedDictionary == null) == (actualDictionary == null),
$"One of the dictionaries is null, the other isnt for objPath: {objPath}");
if (expectedDictionary != null)
{
XAssert.AreEqual(
expectedDictionary.Count,
expectedDictionary.Count,
$"Counts of dictionaries don't match for objPath: {objPath}");
foreach (var kv in expectedDictionary)
{
var key = kv.GetType().GetProperty("Key").GetValue(kv);
var value = kv.GetType().GetTypeInfo().GetProperty("Value").GetValue(kv);
var actualValue = actualDictionary[key];
ValidateEqual(context, type.GenericTypeArguments[1], value, actualValue, objPath + "[" + key + "]", remapper);
}
}
return;
}
}
if (type.GetTypeInfo().IsInterface)
{
var actualType = ConfigurationConverter.FindImplementationType(
type,
ObjectLiteral.Create(new List <Binding>(), default(LineInfo), AbsolutePath.Invalid),
// Note we only create a sourceresolver, so no need to fiddle, just compare with SourceResolver.
() => "SourceResolver");
ValidateEqualMembers(context, actualType, expected, actual, objPath, remapper);
return;
}
if (type.GetTypeInfo().IsClass)
{
ValidateEqualMembers(context, type, expected, actual, objPath, remapper);
return;
}
XAssert.Fail($"Don't know how to compare objects of this type '{type}' for objPath: {objPath}");
}
private static void ValidateEqualMembers(BuildXLContext context, Type type, object expected, object actual, string objPath, Remapper remapper)
{
XAssert.IsTrue(type.GetTypeInfo().IsClass);
foreach (var property in type.GetTypeInfo().GetProperties(BindingFlags.Instance))
{
var expectedProperty = property.GetValue(expected);
var actualProperty = property.GetValue(actual);
ValidateEqual(context, property.PropertyType, expectedProperty, actualProperty, objPath + "." + property.Name, remapper);
}
}
public RemapperForm(Remapper remapper)
{
InitializeComponent();
Remapper = remapper;
}
private void Evaluate(bool removeZ)
{
float *fPtr;
int bestScale = 0;
bool sign;
Vector3 min = new Vector3(float.MaxValue), max = new Vector3(float.MinValue);
float * pMin = (float *)&min, pMax = (float *)&max;
float vMin = float.MaxValue, vMax = float.MinValue, vDist;
float val;
//Currently, remapping provides to benefit for vertices/normals
//Maybe when merging is supported this will change
_remap = new Remapper();
//if (_srcElements == 3)
// _remap.Remap<Vector3>(new MemoryList<Vector3>(_pData, _srcCount), null);
//if (_srcElements == 2)
// _remap.Remap<Vector2>(new MemoryList<Vector2>(_pData, _srcCount), null);
int[] imp = null;
int impLen = _srcCount;
//Remapping is useless if there is no savings
if (_remap._impTable != null && _remap._impTable.Length < _srcCount)
{
imp = _remap._impTable;
impLen = imp.Length;
}
_min = new Vector3(float.MaxValue);
_max = new Vector3(float.MinValue);
_dstCount = impLen;
_type = 0;
//Get extents
fPtr = _pData;
for (int i = 0; i < impLen; i++)
{
if (imp != null)
{
fPtr = &_pData[imp[i] * _srcElements];
}
for (int x = 0; x < _srcElements; x++)
{
val = *fPtr++;
if (val < pMin[x])
{
pMin[x] = val;
}
if (val > pMax[x])
{
pMax[x] = val;
}
if (val < vMin)
{
vMin = val;
}
if (val > vMax)
{
vMax = val;
}
}
}
_min = min;
_max = max;
if (removeZ && (_srcElements == 3) && (min._z == 0) && (max._z == 0))
{
_dstElements = 2;
}
else
{
_dstElements = _srcElements;
}
_hasZ = _dstElements > 2;
vDist = Math.Max(Math.Abs(vMin), Math.Abs(vMax));
if (!_forceFloat)
{
//Is signed? If so, increase type
if (sign = (vMin < 0))
{
_type++;
}
int divisor = 0;
float rMin = 0.0f, rMax;
for (int i = 0; i < 2; i++)
{
float bestError = _maxError;
float scale, maxVal;
if (i == 0)
{
if (sign)
{
rMax = 127.0f; rMin = -128.0f;
}
else
{
rMax = 255.0f;
}
}
else
if (sign)
{
rMax = 32767.0f; rMin = -32768.0f;
}
else
{
rMax = 65535.0f;
}
maxVal = rMax / vDist;
while ((divisor < 32) && ((scale = VQuant.QuantTable[divisor]) <= maxVal))
{
float worstError = float.MinValue;
fPtr = _pData;
for (int y = 0; y < impLen; y++)
{
if (imp != null)
{
fPtr = &_pData[imp[i] * _srcElements];
}
for (int z = 0; z < _srcElements; z++)
{
if ((val = *fPtr++) == 0)
{
continue;
}
val *= scale;
if (val > rMax)
{
val = rMax;
}
else if (val < rMin)
{
val = rMin;
}
int step = (int)((val * scale));
//int step = (int)((val * scale) + (val > 0 ? 0.5f : -0.5f));
float error = Math.Abs((step / scale) - val);
if (error > worstError)
{
worstError = error;
}
if (error > bestError)
{
goto Check;
}
}
}
//for (fPtr = sPtr; fPtr < fCeil; )
//{
// if ((val = *fPtr++) == 0)
// continue;
// val *= scale;
// if (val > rMax) val = rMax;
// else if (val < rMin) val = rMin;
// int step = (int)((val * scale);// + (val > 0 ? 0.5f : -0.5f));
// float error = Math.Abs((step / scale) - val);
// if (error > worstError)
// worstError = error;
// if (error > bestError)
// break;
//}
Check:
if (worstError < bestError)
{
bestScale = divisor;
bestError = worstError;
if (bestError == 0)
{
goto Next;
}
}
divisor++;
}
if (bestError < _maxError)
{
goto Next;
}
_type += 2;
}
}
_type = WiiVertexComponentType.Float;
_scale = 0;
Next:
_scale = bestScale;
_dstStride = _dstElements << ((int)_type >> 1);
_dataLen = _dstCount * _dstStride;
_quantScale = VQuant.QuantTable[_scale];
GetEncoder();
}
public void Start(HypnoLsdController device, Remapper remapper, int mbaud, Action <uint[]> imageFilterIn = null)
{
this.device = device;
Remapper = remapper;
Width = remapper.Width;
Height = remapper.Height;
if (imageFilterIn != null)
{
this.imageFilter = imageFilterIn;
}
else
{
this.imageFilter = b => { }
}; // identity
AddDemos();
// get attention
device.WriteString("\r\n");
Thread.Sleep(250);
//device.ConnectionSpeed = 1000000; // 1 Mbaud for testing
//Thread.Sleep(100);
//Thread.Sleep(1000);
//device.Drawing = true;
//Thread.Sleep(1000);
//device.Drawing = false;
//Thread.Sleep(1000);
device.WriteString("\r\n");
device.ConnectionSpeed = mbaud; // 12000000;// 3000000;// 12000000; // 12 Mbaud for testing
Thread.Sleep(500);
const int delay = 200;
device.Drawing = false;
Thread.Sleep(delay);
device.Drawing = true;
Thread.Sleep(delay);
device.Drawing = false;
Thread.Sleep(delay);
if (remapper.SupportedStrands.Contains(remapper.Strands))
{
device.SetSize(remapper.Strands, remapper.Width * remapper.Height / remapper.Strands);
}
else
{
throw new NotImplementedException("Remapper does not support " + remapper.Strands + " strands");
}
// some context switches to ensure we're at the top in case we disconnected early last time.
device.Drawing = true;
Thread.Sleep(delay);
}
public PrimitiveData(VertexShaderDesc info, IEnumerable <Vertex> points, EPrimitiveType type)
{
_bufferInfo = info;
_type = type;
_influences = null;
List <Vertex> vertices = points.ToList();
Remapper remapper = null;
switch (_type)
{
case EPrimitiveType.Triangles:
remapper = SetTriangleIndices(vertices);
break;
case EPrimitiveType.Lines:
remapper = SetLineIndices(vertices);
break;
default:
//case EPrimitiveType.Points:
remapper = SetPointIndices(vertices);
break;
}
int[] firstAppearanceArray = null;
if (remapper == null)
{
firstAppearanceArray = new int[vertices.Count];
for (int i = 0; i < vertices.Count; ++i)
{
firstAppearanceArray[i] = i;
}
}
else
{
firstAppearanceArray = remapper.ImplementationTable;
}
CreateFacePoints(firstAppearanceArray.Length);
if (info.HasSkinning)
{
SetInfluences(firstAppearanceArray.Select(x => vertices[x].Influence).ToArray());
}
for (int i = 0; i < info.MorphCount + 1; ++i)
{
var data = firstAppearanceArray.Select(x => vertices[x].Position).ToList();
AddBuffer(data, EBufferType.Position);
}
if (info.HasNormals)
{
for (int i = 0; i < info.MorphCount + 1; ++i)
{
var data = firstAppearanceArray.Select(x => vertices[x].Normal).ToList();
AddBuffer(data, EBufferType.Normal);
}
}
if (info.HasBinormals)
{
for (int i = 0; i < info.MorphCount + 1; ++i)
{
var data = firstAppearanceArray.Select(x => vertices[x].Binormal).ToList();
AddBuffer(data, EBufferType.Binormal);
}
}
if (info.HasTangents)
{
for (int i = 0; i < info.MorphCount + 1; ++i)
{
var data = firstAppearanceArray.Select(x => vertices[x].Tangent).ToList();
AddBuffer(data, EBufferType.Tangent);
}
}
for (int i = 0; i < info.ColorCount; ++i)
{
var data = firstAppearanceArray.Select(x => vertices[x].Color).ToList();
AddBuffer(data, EBufferType.Color);
}
for (int i = 0; i < info.TexcoordCount; ++i)
{
var data = firstAppearanceArray.Select(x => vertices[x].TexCoord).ToList();
AddBuffer(data, EBufferType.TexCoord);
}
}
private void Evaluate(bool removeZ)
{
float* fPtr;
int bestScale = 0;
bool sign;
Vector3 min = new Vector3(float.MaxValue), max = new Vector3(float.MinValue);
float* pMin = (float*)&min, pMax = (float*)&max;
float vMin = float.MaxValue, vMax = float.MinValue, vDist;
float val;
//Currently, remapping provides to benefit for vertices/normals
//Maybe when merging is supported this will change
_remap = new Remapper();
//if (_srcElements == 3)
// _remap.Remap<Vector3>(new MemoryList<Vector3>(_pData, _srcCount), null);
//if (_srcElements == 2)
// _remap.Remap<Vector2>(new MemoryList<Vector2>(_pData, _srcCount), null);
int[] imp = null;
int impLen = _srcCount;
//Remapping is useless if there is no savings
if (_remap._impTable != null && _remap._impTable.Length < _srcCount)
{
imp = _remap._impTable;
impLen = imp.Length;
}
_min = new Vector3(float.MaxValue);
_max = new Vector3(float.MinValue);
_dstCount = impLen;
_type = 0;
//Get extents
fPtr = _pData;
for (int i = 0; i < impLen; i++)
{
if (imp != null)
fPtr = &_pData[imp[i] * _srcElements];
for (int x = 0; x < _srcElements; x++)
{
val = *fPtr++;
if (val < pMin[x]) pMin[x] = val;
if (val > pMax[x]) pMax[x] = val;
if (val < vMin) vMin = val;
if (val > vMax) vMax = val;
}
}
_min = min;
_max = max;
if (removeZ && (_srcElements == 3) && (min._z == 0) && (max._z == 0))
_dstElements = 2;
else
_dstElements = _srcElements;
_hasZ = _dstElements > 2;
vDist = Math.Max(Math.Abs(vMin), Math.Abs(vMax));
if (!_forceFloat)
{
//Is signed? If so, increase type
if (sign = (vMin < 0))
_type++;
int divisor = 0;
float rMin = 0.0f, rMax;
for (int i = 0; i < 2; i++)
{
float bestError = _maxError;
float scale, maxVal;
if (i == 0)
if (sign)
{ rMax = 127.0f; rMin = -128.0f; }
else
rMax = 255.0f;
else
if (sign)
{ rMax = 32767.0f; rMin = -32768.0f; }
else
rMax = 65535.0f;
maxVal = rMax / vDist;
while ((divisor < 32) && ((scale = VQuant.QuantTable[divisor]) <= maxVal))
{
float worstError = float.MinValue;
fPtr = _pData;
for (int y = 0; y < impLen; y++)
{
if (imp != null)
fPtr = &_pData[imp[i] * _srcElements];
for (int z = 0; z < _srcElements; z++)
{
if ((val = *fPtr++) == 0)
continue;
val *= scale;
if (val > rMax) val = rMax;
else if (val < rMin) val = rMin;
int step = (int)((val * scale));
//int step = (int)((val * scale) + (val > 0 ? 0.5f : -0.5f));
float error = Math.Abs((step / scale) - val);
if (error > worstError)
worstError = error;
if (error > bestError)
goto Check;
}
}
//for (fPtr = sPtr; fPtr < fCeil; )
//{
// if ((val = *fPtr++) == 0)
// continue;
// val *= scale;
// if (val > rMax) val = rMax;
// else if (val < rMin) val = rMin;
// int step = (int)((val * scale);// + (val > 0 ? 0.5f : -0.5f));
// float error = Math.Abs((step / scale) - val);
// if (error > worstError)
// worstError = error;
// if (error > bestError)
// break;
//}
Check:
if (worstError < bestError)
{
bestScale = divisor;
bestError = worstError;
if (bestError == 0)
goto Next;
}
divisor++;
}
if (bestError < _maxError)
goto Next;
_type += 2;
}
}
_type = WiiVertexComponentType.Float;
_scale = 0;
Next:
_scale = bestScale;
_dstStride = _dstElements << ((int)_type >> 1);
_dataLen = _dstCount * _dstStride;
_quantScale = VQuant.QuantTable[_scale];
GetEncoder();
}
public List <PrimitiveGroup> GroupPrimitives(Facepoint[] points, out int pointCount, out int faceCount)
{
pointCount = 0;
faceCount = 0;
List <PrimitiveClass> fpPrimitives = new List <PrimitiveClass>();
if (_useStrips)
{
//Remap points so there is only one id per individual point
Remapper remapData = new Remapper();
remapData.Remap <Facepoint>(points, null);
//Set up tristripper with remapped point ids
TriStripper stripper = new TriStripper(
remapData._remapTable.Select(x => (uint)x).ToArray(),
points.Select(x => x.NodeID).ToArray(),
remapData._impTable);
stripper.SetCacheSize(_cacheSize);
stripper.SetMinStripSize(_minStripLen);
stripper.SetPushCacheHits(_pushCacheHits);
//Backward search doesn't work,
//but generally won't improve the optimization with the cache on anyway
//stripper.SetBackwardSearch(_backwardSearch);
//Create strips using ids
List <Primitive> primArray = stripper.Strip();
//Recollect facepoints with new indices and get point/face count
for (int i = 0; i < primArray.Count; i++)
{
Primitive p = primArray[i];
if (p.Type == PrimType.TriangleList)
{
int count = p.Indices.Count / 3;
faceCount += count;
for (int r = 0; r < count; r++)
{
fpPrimitives.Add(new PointTriangle(
points[remapData._impTable[p.Indices[r * 3 + 0]]],
points[remapData._impTable[p.Indices[r * 3 + 1]]],
points[remapData._impTable[p.Indices[r * 3 + 2]]]));
}
}
else
{
faceCount += p.Indices.Count - 2;
fpPrimitives.Add(new PointTriangleStrip()
{
_points = p.Indices.Select(x => points[remapData._impTable[x]]).ToList()
});
}
pointCount += p.Indices.Count;
}
}
else
{
faceCount = (pointCount = points.Length) / 3;
for (int r = 0; r < faceCount; r++)
{
fpPrimitives.Add(new PointTriangle(
points[r * 3 + 0],
points[r * 3 + 1],
points[r * 3 + 2]));
}
}
//Group primitives by each point's influence id
fpPrimitives.Sort(PrimitiveClass.Compare);
List <PrimitiveGroup> groups = new List <PrimitiveGroup>();
foreach (PrimitiveClass p in fpPrimitives)
{
bool added = false;
foreach (PrimitiveGroup g in groups)
{
if (added = g.TryAdd(p))
{
break;
}
}
if (!added)
{
PrimitiveGroup g = new PrimitiveGroup();
g.TryAdd(p);
groups.Add(g);
}
}
return(groups);
}
private void Update()
{
if (startRoutine != null)
{
return;
}
if (IsJumping || isFinished)
{
return;
}
if (currentSpeed > killSpeed)
{
manager.SwitchGameplay(GameState.LOST);
rigid.velocity = Vector3.zero;
rigid.useGravity = false;
return;
}
frameInput = Vector3.zero;
float t = Remapper.Remap(currentSpeed, minSpeed, maxSpeed, 0, 1);
float handling = Mathf.Lerp(minHandling, maxHandling, handlingCurve.Evaluate(t));
//Button Down Timer
if (Input.GetKeyDown(KeyCode.A) || Input.GetKeyDown(KeyCode.LeftArrow))
{
lastLeftDownTime = Time.time;
}
if (Input.GetKeyDown(KeyCode.D) || Input.GetKeyDown(KeyCode.RightArrow))
{
lastRightDownTime = Time.time;
}
//Left Right Movement
if (metalBarRessource > 0.0f && (Input.GetKey(KeyCode.A) || Input.GetKey(KeyCode.LeftArrow)))
{
frameInput += Vector3.left * handling * Mathf.Lerp(1, 0, lastLeftDownTime / (Time.time * decreaseFactor));
metalBarRessource -= Time.deltaTime * movementDecreaseFactor;
currentCrowbarRot += Time.deltaTime * crowbarRotSpeed;
currentCrowbarRot = Mathf.Clamp(currentCrowbarRot, -30f, 30f);
crowbar.localRotation = Quaternion.Euler(0f, 0f, currentCrowbarRot);
playerVFX.crowbarSparksLeft.Play();
playerVFX.crowbarSparksLeft.transform.rotation = Quaternion.Euler(0f, -90f, 0f);
if (!steeringAudio.isPlaying)
{
Debug.Log("Audio");
steeringAudio.Play();
}
}
else if (metalBarRessource > 0.0f && (Input.GetKey(KeyCode.D) || Input.GetKey(KeyCode.RightArrow)))
{
frameInput += Vector3.right * handling * Mathf.Lerp(1, 0, lastRightDownTime / (Time.time * decreaseFactor));
metalBarRessource -= Time.deltaTime * movementDecreaseFactor;
currentCrowbarRot -= Time.deltaTime * crowbarRotSpeed;
currentCrowbarRot = Mathf.Clamp(currentCrowbarRot, -30f, 30f);
crowbar.localRotation = Quaternion.Euler(0f, 0f, currentCrowbarRot);
playerVFX.crowbarSparksRight.Play();
playerVFX.crowbarSparksRight.transform.rotation = Quaternion.Euler(0f, -270f, 0f);
if (!steeringAudio.isPlaying)
{
Debug.Log("Audio");
steeringAudio.Play();
}
}
else
{
steeringAudio.Stop();
if (currentCrowbarRot > 0)
{
currentCrowbarRot -= Time.deltaTime * crowbarRotSpeed * 2;
currentCrowbarRot = Mathf.Clamp(currentCrowbarRot, 0, 30f);
crowbar.localRotation = Quaternion.Euler(0f, 0f, currentCrowbarRot);
}
else
{
currentCrowbarRot += Time.deltaTime * crowbarRotSpeed * 2;
currentCrowbarRot = Mathf.Clamp(currentCrowbarRot, -30f, 0);
crowbar.localRotation = Quaternion.Euler(0f, 0f, currentCrowbarRot);
}
}
//Speedbooster
if (isOnSpeedbooster)
{
currentSpeed += Time.deltaTime / boostDiv;
}
//Braking or Acceleration
if (metalBarRessource > 0.0f && (Input.GetKey(KeyCode.W) || Input.GetKey(KeyCode.UpArrow)))
{
OnBrakeKey();
lastBrakeTime = Time.time;
currentSpeed -= Time.deltaTime * breakMultiplier;
metalBarRessource -= Time.deltaTime * breakDecreaseFactor;
playerVFX.breakSparks.Play();
}
else
{
//When braking the acceleration is slowed for brakeGraceDuration
if (lastBrakeTime + brakeGraceDuration > Time.time)
{
if (!breakAudio.isPlaying)
{
breakAudio.Play();
}
currentSpeed += Time.deltaTime * brakeGraceModifier;
}
//Normal acceleration
else
{
currentSpeed += Time.deltaTime / accelDiv;
breakAudio.Stop();
}
}
if (metalBarRessource > 0)
{
timer = 0;
if (metalbarText.activeSelf)
{
metalbarText.SetActive(false);
}
float value = Remapper.Remap(metalBarRessource, 0, 1, 0, 0.8f);
crowbarMat.SetFloat("_OpacityEmission", value);
}
else
{
timer += Time.deltaTime;
if (timer % 1f < 0.5f)
{
metalbarText.SetActive(true);
}
else
{
metalbarText.SetActive(false);
}
}
currentSpeed = Mathf.Clamp(currentSpeed, minSpeed, maxSpeed);
rigid.velocity += frameInput;
rigid.velocity = new Vector3(rigid.velocity.x, rigid.velocity.y, currentSpeed);
//Press player down
if (isOnSpeedbooster)
{
rigid.velocity += transform.up * -2f;
}
if (Vector3.Dot(Vector3.up, rigid.velocity.normalized) > 0f)
{
Debug.Log("Pushing Down");
rigid.AddForce(transform.up * -1000f, ForceMode.Acceleration);
}
}