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- Fixed the Curve class Oscillate mode and all Curve tests are now passing!

Browse Source 
- Added the missing Serializable attribute to the Curve class
- Added some more Development attributes
This commit is contained in:
SND\AstrorEnales_cp 2012-10-13 19:43:12 +00:00 committed by Konstantin Koch
parent 4fdad340d3
commit 646c2e5b79
23 changed files with 1089 additions and 623 deletions
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2
ANX.Framework.TestCenter/Strukturen/CurveKeyTest.cs
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@ -32,8 +32,6 @@ namespace ANX.Framework.TestCenter.Strukturen
[TestFixture]
public class CurveKeyTest
{
#region Testdata
static object[] sixteenfloats =
{

1206
ANX.Framework.TestCenter/Strukturen/CurveTest.cs
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File diff suppressed because it is too large Load Diff

4
ANX.Framework/BoundingBox.cs
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@ -1,6 +1,7 @@
#region Using Statements
using System;
using System.Collections.Generic;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -10,6 +11,9 @@ using System.Collections.Generic;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct BoundingBox : IEquatable<BoundingBox>
{
#region public fields

4
ANX.Framework/BoundingSphere.cs
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@ -2,6 +2,7 @@
using System;
using System.Collections.Generic;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -11,6 +12,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct BoundingSphere : IEquatable<BoundingSphere>
{
#region fields

4
ANX.Framework/Color.cs
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@ -1,5 +1,6 @@
using System;
using ANX.Framework.Graphics.PackedVector;
using ANX.Framework.NonXNA.Development;
// This file is part of the ANX.Framework created by the
// "ANX.Framework developer group" and released under the Ms-PL license.
@ -7,6 +8,9 @@ using ANX.Framework.Graphics.PackedVector;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Color : IPackedVector<uint>, IPackedVector, IEquatable<Color>
{
#region Private Members

1
ANX.Framework/ContainmentType.cs
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@ -7,6 +7,7 @@
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("Glatzemann")]
[TestState(TestStateAttribute.TestState.Tested)]
public enum ContainmentType
{

310
ANX.Framework/Curve.cs
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@ -1,4 +1,5 @@
using System;
using ANX.Framework.NonXNA.Development;
// This file is part of the ANX.Framework created by the
// "ANX.Framework developer group" and released under the Ms-PL license.
@ -6,64 +7,45 @@ using System;
namespace ANX.Framework
{
#if !WINDOWSMETRO // TODO: find replacement for Win8!
[Serializable]
#endif
[PercentageComplete(100)]
[Developer("floAr")]
[TestState(TestStateAttribute.TestState.InProgress)]
public class Curve
{
private CurveKeyCollection keys;
private CurveLoopType preLoop;
private CurveLoopType postLoop;
public CurveLoopType PreLoop { get; set; }
public CurveLoopType PostLoop { get; set; }
public CurveKeyCollection Keys { get; private set; }
public CurveLoopType PreLoop
public bool IsConstant
{
get { return preLoop; }
set { preLoop = value; }
}
public CurveLoopType PostLoop
{
get { return postLoop; }
set { postLoop = value; }
get { return Keys.Count <= 1; }
}
public CurveKeyCollection Keys
public Curve()
{
get
{
return keys;
}
}
public Boolean IsConstant
{
get
{
return this.keys.Count <= 1;
}
Keys = new CurveKeyCollection();
}
public Curve Clone()
{
Curve result = new Curve();
result.keys = this.keys.Clone();
result.preLoop = this.preLoop;
result.postLoop = this.postLoop;
return result;
}
public Curve()
{
this.keys = new CurveKeyCollection();
return new Curve { Keys = Keys.Clone(), PreLoop = PreLoop, PostLoop = PostLoop };
}
#region tangent calculation
#region ComputeTangent
//formulas from: http://msdn.microsoft.com/de-de/library/microsoft.xna.framework.curvetangent%28v=xnagamestudio.40%29.aspx
public void ComputeTangent(Int32 index, CurveTangent tangentInOutType)
public void ComputeTangent(int index, CurveTangent tangentInOutType)
{
if (index < 0 || index >= keys.Count)
if (index < 0 || index >= Keys.Count)
{
throw new ArgumentOutOfRangeException();
}
CurveKey prev = index > 0 ? this.keys[index - 1] : this.keys[index];
CurveKey current = this.keys[index];
CurveKey prev = index > 0 ? this.Keys[index - 1] : this.Keys[index];
CurveKey current = this.Keys[index];
current.TangentIn = 0;
CurveKey next = index < this.keys.Count - 1 ? this.keys[index + 1] : this.keys[index];
CurveKey next = index < this.Keys.Count - 1 ? this.Keys[index + 1] : this.Keys[index];
switch (tangentInOutType)
@ -82,17 +64,18 @@ namespace ANX.Framework
break;
}
}
public void ComputeTangent(Int32 index, CurveTangent tangentInType, CurveTangent tangentOutType)
public void ComputeTangent(int index, CurveTangent tangentInType, CurveTangent tangentOutType)
{
if (index < 0 || index >= keys.Count)
if (index < 0 || index >= Keys.Count)
{
throw new ArgumentOutOfRangeException();
}
CurveKey prev = index > 0 ? this.keys[index - 1] : this.keys[index];
CurveKey current = this.keys[index];
CurveKey prev = index > 0 ? this.Keys[index - 1] : this.Keys[index];
CurveKey current = this.Keys[index];
current.TangentIn = 0;
CurveKey next = index < this.keys.Count - 1 ? this.keys[index + 1] : this.keys[index];
CurveKey next = index < this.Keys.Count - 1 ? this.Keys[index + 1] : this.Keys[index];
switch (tangentInType)
@ -121,165 +104,169 @@ namespace ANX.Framework
}
}
public void ComputeTangents(CurveTangent tangentInOutType)
{
for (int i = 0; i < this.keys.Count; ++i)
for (int i = 0; i < this.Keys.Count; ++i)
{
this.ComputeTangent(i, tangentInOutType);
}
}
public void ComputeTangents(CurveTangent tangentInType, CurveTangent tangentOutType)
{
for (int i = 0; i < this.keys.Count; ++i)
for (int i = 0; i < this.Keys.Count; ++i)
{
this.ComputeTangent(i, tangentInType, tangentOutType);
}
}
#endregion
public Single Evaluate(Single position)
public float Evaluate(float position)
{
if (Keys.Count == 0)
return 0f;
if (Keys.Count == 1)
return Keys[0].Value;
CurveKey firstPointOfCurve = Keys[0];
CurveKey lastPointOfCurve = Keys[Keys.Count - 1];
if (position < firstPointOfCurve.Position)
return EvalualtePreLoop(firstPointOfCurve, lastPointOfCurve, position);
if (position > lastPointOfCurve.Position)
return EvalualtePostLoop(firstPointOfCurve, lastPointOfCurve, position);
return Interpolate(position);
}
#region EvalualtePreLoop
private float EvalualtePreLoop(CurveKey first, CurveKey last, float position)
{
int wraps;
float firstPosition = first.Position;
float lastPosition = last.Position;
// tspan is min 1 to avoid deadlock at constant curves
float timeSpan = Math.Max(1, lastPosition - firstPosition);
// Description from : http://msdn.microsoft.com/en-us/library/microsoft.xna.framework.curvelooptype.aspx
switch (PreLoop)
{
case CurveLoopType.Constant:
// The Curve will evaluate to its first key for positions before the first point in the Curve and to
// the last key for positions after the last point.
return first.Value;
case CurveLoopType.Linear:
// Linear interpolation will be performed to determine the value.
return first.Value - first.TangentIn * (first.Position - position);
case CurveLoopType.Cycle:
// Positions specified past the ends of the curve will wrap around to the opposite side of the Curve.
position -= timeSpan * CountWraps(position);
return Interpolate(position);
case CurveLoopType.CycleOffset:
// Positions specified past the ends of the curv will wrap around to the opposite side of the Curve.
// The value will be offset by the difference between the values of the first and last CurveKey
// multiplied by the number of times the position wraps around. If the position is before the first
// point in the Curve, the difference will be subtracted from its value; otherwise, the difference
// will be added
wraps = CountWraps(position);
float difference = (last.Value - first.Value) * wraps;
position -= timeSpan * CountWraps(position);
return Interpolate(position) + difference;
case CurveLoopType.Oscillate:
// Positions specified past the ends of the Curve act as an offset from the same side of the Curve
// toward the opposite side.
wraps = CountWraps(position);
float offset = position - (first.Position + wraps * timeSpan);
float wrappedPosition = (wraps & 1) != 0 ? (last.Position - offset) : (first.Position + offset);
return Interpolate(wrappedPosition);
}
return Interpolate(position);
}
#endregion
#region EvalualtePostLoop
private float EvalualtePostLoop(CurveKey first, CurveKey last, float position)
{
int wraps;
//Get first and last Point
CurveKey first = keys[0];
float firstPosition = first.Position;
CurveKey last = keys[keys.Count - 1];
float lastPosition = last.Position;
//tspan is min 1 to avoid deadlock at constant curves
float timeSpan = Math.Max(1, lastPosition - firstPosition);
//wanted point before first point
if (position < first.Position)
switch (PostLoop)
{
// Description from : http://msdn.microsoft.com/en-us/library/microsoft.xna.framework.curvelooptype.aspx
switch (this.PreLoop)
{
case CurveLoopType.Constant:
//The Curve will evaluate to its first key for positions before the first point in the Curve and to the last key for positions after the last point.
return first.Value;
case CurveLoopType.Constant:
// The Curve will evaluate to its first key for positions before the first point in the Curve and to
// the last key for positions after the last point.
return last.Value;
case CurveLoopType.Linear:
// Linear interpolation will be performed to determine the value.
return first.Value - first.TangentIn * (first.Position - position);
case CurveLoopType.Linear:
// Linear interpolation will be performed to determine the value.
return last.Value - last.TangentOut * (last.Position - position);
case CurveLoopType.Cycle:
// Positions specified past the ends of the curve will wrap around to the opposite side of the Curve.
case CurveLoopType.Cycle:
// Positions specified past the ends of the curve will wrap around to the opposite side of the Curve.
position -= timeSpan * CountWraps(position);
return Interpolate(position);
case CurveLoopType.CycleOffset:
// Positions specified past the ends of the curve will wrap around to the opposite side of the Curve.
// The value will be offset by the difference between the values of the first and last CurveKey
// multiplied by the number of times the position wraps around. If the position is before the first
// point in the Curve, the difference will be subtracted from its value; otherwise, the difference
// will be added.
wraps = CountWraps(position);
float difference = (last.Value - first.Value) * wraps;
position -= timeSpan * CountWraps(position);
return Interpolate(position) + difference;
position -= timeSpan * countWraps(position);
return this.interpolate((position));
case CurveLoopType.CycleOffset:
//Positions specified past the ends of the curv will wrap around to the opposite side of the Curve.
//The value will be offset by the difference between the values of the first and last CurveKey
//multiplied by the number of times the position wraps around. If the position is before the first
//point in the Curve, the difference will be subtracted from its value; otherwise, the difference
//will be added
wraps = countWraps(position);
float difference = (this.keys[this.keys.Count - 1].Value - this.keys[0].Value) * wraps;
position -= timeSpan * countWraps(position);
return this.interpolate(position) + difference;
case CurveLoopType.Oscillate:
//Positions specified past the ends of the Curve act as an offset from the same side of the Curve
//toward the opposite side.
wraps = -countWraps(position);
if (wraps % 2 == 1)
{
return this.interpolate(lastPosition - position + firstPosition - (wraps * timeSpan));
}
return this.interpolate(position + (wraps * timeSpan));
}
}
//wanted point behind last point
else if (position > last.Position)
{
switch (this.PostLoop)
{
case CurveLoopType.Constant:
//The Curve will evaluate to its first key for positions before the first point in the Curve and to
//the last key for positions after the last point.
return last.Value;
case CurveLoopType.Linear:
//Linear interpolation will be performed to determine the value.
return last.Value + last.TangentOut * (position - last.Position);
case CurveLoopType.Cycle:
// Positions specified past the ends of the curve will wrap around to the opposite side of the Curve.
position -= timeSpan * countWraps(position);
return this.interpolate((position));
case CurveLoopType.CycleOffset:
//Positions specified past the ends of the curve will wrap around to the opposite side of the Curve.
//The value will be offset by the difference between the values of the first and last CurveKey
//multiplied by the number of times the position wraps around. If the position is before the first
//point in the Curve, the difference will be subtracted from its value; otherwise, the difference
//will be added.
wraps = countWraps(position);
float difference = (this.keys[this.keys.Count - 1].Value - this.keys[0].Value) * wraps;
position -= timeSpan * countWraps(position);
return this.interpolate(position) + difference;
case CurveLoopType.Oscillate:
//Positions specified past the ends of the Curve act as an offset from the same side of the Curve
//toward the opposite side.
wraps = -countWraps(position);
position += timeSpan * wraps;
if (wraps % 2 == 1)
{
return this.interpolate(lastPosition - position + firstPosition - (wraps * timeSpan));
}
return this.interpolate(position + (wraps * timeSpan));
}
case CurveLoopType.Oscillate:
// Positions specified past the ends of the Curve act as an offset from the same side of the Curve
// toward the opposite side.
wraps = CountWraps(position);
float offset = position - (first.Position + wraps * timeSpan);
float wrappedPosition = (wraps & 1) != 0 ? (last.Position - offset) : (first.Position + offset);
return Interpolate(wrappedPosition);
}
//in curve
return interpolate(position);
return Interpolate(position);
}
private int countWraps(float position)
#endregion
private int CountWraps(float position)
{
float wraps = (position - keys[0].Position) / (keys[keys.Count - 1].Position - keys[0].Position);
if (wraps < 0) wraps--;
float timeRange = Keys[Keys.Count - 1].Position - Keys[0].Position;
float wraps = (position - Keys[0].Position) / timeRange;
if (wraps < 0)
wraps--;
return (int)wraps;
}
private float interpolate(float position)
private float Interpolate(float position)
{
//interpolate inside the curve with cubic hermite:
http://forums.create.msdn.com/forums/p/53392/323814.aspx
//interpolate inside the curve with cubic hermite: http://forums.create.msdn.com/forums/p/53392/323814.aspx
//assume position is inside curve
CurveKey a = this.keys[0];
CurveKey a = Keys[0];
CurveKey b;
for (int i = 1; i < this.keys.Count; ++i)
for (int nextKeyIndex = 1; nextKeyIndex < Keys.Count; nextKeyIndex++)
{
b = this.Keys[i];
b = Keys[nextKeyIndex];
if (b.Position >= position)
{
//stepping
if (a.Continuity == CurveContinuity.Step)
{
if (position == b.Position)
{
return b.Position;
}
return a.Value;
return position == b.Position ? b.Value : a.Value;
}
//smooth
//get the location between a and b in [0,1]
float moment = (position - a.Position) / (b.Position - a.Position);
@ -291,6 +278,5 @@ namespace ANX.Framework
}
return 0f;
}
}
}

7
ANX.Framework/CurveKeyCollection.cs
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@ -1,6 +1,7 @@
using System;
using System.Collections;
using System.Collections.Generic;
using ANX.Framework.NonXNA.Development;
// This file is part of the ANX.Framework created by the
// "ANX.Framework developer group" and released under the Ms-PL license.
@ -8,8 +9,10 @@ using System.Collections.Generic;
namespace ANX.Framework
{
public class CurveKeyCollection : ICollection<CurveKey>,
IEnumerable<CurveKey>, IEnumerable
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public class CurveKeyCollection : ICollection<CurveKey>, IEnumerable<CurveKey>, IEnumerable
{
#region Private
private List<CurveKey> keys;

1
ANX.Framework/GameHost.cs
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@ -11,6 +11,7 @@ using ANX.Framework.NonXNA.Development;
namespace ANX.Framework
{
[Developer("Glatzemann")]
[TestState(TestStateAttribute.TestState.Untested)]
public abstract class GameHost
{
internal event EventHandler<EventArgs> Activated;

1
ANX.Framework/GameWindow.cs
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@ -11,6 +11,7 @@ using ANX.Framework.NonXNA.Development;
namespace ANX.Framework
{
[Developer("Glatzemann")]
[TestState(TestStateAttribute.TestState.Untested)]
public abstract class GameWindow
{
#region Private

1
ANX.Framework/GraphicsDeviceManager.cs
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@ -15,6 +15,7 @@ using ANX.Framework.NonXNA.Development;
namespace ANX.Framework
{
[Developer("Glatzemann")]
[TestState(TestStateAttribute.TestState.Untested)]
public class GraphicsDeviceManager : IGraphicsDeviceManager, IDisposable, IGraphicsDeviceService
{
#region Constants

8
ANX.Framework/Input/MotionSensing/MotionSensingDevice.cs
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@ -2,6 +2,7 @@
using System;
using ANX.Framework.NonXNA;
using ANX.Framework.Graphics;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -13,7 +14,9 @@ using ANX.Framework.Graphics;
namespace ANX.Framework.Input.MotionSensing
{
public class MotionSensingDevice
[PercentageComplete(100)]
[TestState(TestStateAttribute.TestState.Untested)]
public static class MotionSensingDevice
{
private static readonly IMotionSensingDevice motionSensingDevice;
@ -30,7 +33,8 @@ namespace ANX.Framework.Input.MotionSensing
static MotionSensingDevice()
{
motionSensingDevice = AddInSystemFactory.Instance.GetDefaultCreator<IInputSystemCreator>().MotionSensingDevice;
var creator = AddInSystemFactory.Instance.GetDefaultCreator<IInputSystemCreator>();
motionSensingDevice = creator.MotionSensingDevice;
}
public static MotionSensingDeviceState GetState()

110
ANX.Framework/Input/MotionSensing/MotionSensingDeviceState.cs
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@ -1,6 +1,7 @@
#region Using Statements
using System;
using ANX.Framework.Graphics;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -11,41 +12,40 @@ using ANX.Framework.Graphics;
#if XNAEXT
namespace ANX.Framework.Input.MotionSensing
{
[PercentageComplete(100)]
[TestState(TestStateAttribute.TestState.Untested)]
public struct MotionSensingDeviceState
{
private bool connected;
private readonly bool connected;
private Texture2D pRGB;
private Texture2D pDepth;
private readonly Texture2D pRGB;
private readonly Texture2D pDepth;
private Vector3 pHipCenter;
private Vector3 pSpine;
private Vector3 pShoulderCenter;
private Vector3 pHead;
private Vector3 pShoulderLeft;
private Vector3 pElbowLeft;
private Vector3 pWristLeft;
private Vector3 pHandLeft;
private Vector3 pShoulderRight;
private Vector3 pElbowRight;
private Vector3 pWristRight;
private Vector3 pHandRight;
private Vector3 pHipLeft;
private Vector3 pKneeLeft;
private Vector3 pAnkleLeft;
private Vector3 pFootLeft;
private Vector3 pHipRight;
private Vector3 pKneeRight;
private Vector3 pAnkleRight;
private Vector3 pFootRight;
private Vector3 pCount;
private readonly Vector3 pHipCenter;
private readonly Vector3 pSpine;
private readonly Vector3 pShoulderCenter;
private readonly Vector3 pHead;
private readonly Vector3 pShoulderLeft;
private readonly Vector3 pElbowLeft;
private readonly Vector3 pWristLeft;
private readonly Vector3 pHandLeft;
private readonly Vector3 pShoulderRight;
private readonly Vector3 pElbowRight;
private readonly Vector3 pWristRight;
private readonly Vector3 pHandRight;
private readonly Vector3 pHipLeft;
private readonly Vector3 pKneeLeft;
private readonly Vector3 pAnkleLeft;
private readonly Vector3 pFootLeft;
private readonly Vector3 pHipRight;
private readonly Vector3 pKneeRight;
private readonly Vector3 pAnkleRight;
private readonly Vector3 pFootRight;
private readonly Vector3 pCount;
public bool Connected
{
get
{
return this.connected;
}
get { return this.connected; }
}
public Texture2D RGB { get { return this.pRGB; } }
@ -73,37 +73,39 @@ namespace ANX.Framework.Input.MotionSensing
public Vector3 FootRight { get { return this.pFootRight; } }
public Vector3 Count { get { return this.pCount; } }
public MotionSensingDeviceState(bool connected, Texture2D _RGB, Texture2D _Depth, Vector3 _HipCenter, Vector3 _Spine, Vector3 _ShoulderCenter, Vector3 _Head, Vector3 _ShoulderLeft,
Vector3 _ElbowLeft, Vector3 _WristLeft, Vector3 _HandLeft, Vector3 _ShoulderRight, Vector3 _ElbowRight, Vector3 _WristRight, Vector3 _HandRight, Vector3 _HipLeft, Vector3 _KneeLeft, Vector3 _AnkleLeft, Vector3 _FootLeft, Vector3 _HipRight, Vector3 _KneeRight, Vector3 _AnkleRight, Vector3 _FootRight, Vector3 _Count)
public MotionSensingDeviceState(bool connected, Texture2D rgbTexture, Texture2D depthTe, Vector3 hipCenter,
Vector3 spine, Vector3 shoulderCenter, Vector3 head, Vector3 shoulderLeft, Vector3 elbowLeft, Vector3 wristLeft,
Vector3 handLeft, Vector3 shoulderRight, Vector3 elbowRight, Vector3 wristRight, Vector3 handRight,
Vector3 hipLeft, Vector3 kneeLeft, Vector3 ankleLeft, Vector3 footLeft, Vector3 hipRight, Vector3 kneeRight,
Vector3 ankleRight, Vector3 footRight, Vector3 count)
{
this.connected = connected;
pRGB = _RGB;
pDepth = _Depth;
pRGB = rgbTexture;
pDepth = depthTe;
pHipCenter = _HipCenter;
pSpine = _Spine;
pShoulderCenter = _ShoulderCenter;
pHead = _Head;
pShoulderLeft = _ShoulderLeft;
pElbowLeft=_ElbowLeft;
pWristLeft=_WristLeft;
pHandLeft=_HandLeft;
pShoulderRight=_ShoulderRight;
pElbowRight=_ElbowRight;
pWristRight=_WristRight;
pHandRight=_HandRight;
pHipLeft=_HipLeft;
pKneeLeft=_KneeLeft;
pAnkleLeft=_AnkleLeft;
pFootLeft=_FootLeft;
pHipRight=_HipRight;
pKneeRight=_KneeRight;
pAnkleRight=_AnkleRight;
pFootRight=_FootRight;
pCount=_Count;
pHipCenter = hipCenter;
pSpine = spine;
pShoulderCenter = shoulderCenter;
pHead = head;
pShoulderLeft = shoulderLeft;
pElbowLeft = elbowLeft;
pWristLeft = wristLeft;
pHandLeft = handLeft;
pShoulderRight = shoulderRight;
pElbowRight = elbowRight;
pWristRight = wristRight;
pHandRight = handRight;
pHipLeft = hipLeft;
pKneeLeft = kneeLeft;
pAnkleLeft = ankleLeft;
pFootLeft = footLeft;
pHipRight = hipRight;
pKneeRight = kneeRight;
pAnkleRight = ankleRight;
pFootRight = footRight;
pCount = count;
}
}
}

4
ANX.Framework/Input/MotionSensing/MotionSensingDeviceType.cs
View File

@ -1,3 +1,5 @@
using ANX.Framework.NonXNA.Development;
// This file is part of the ANX.Framework created by the
// "ANX.Framework developer group" and released under the Ms-PL license.
// For details see: http://anxframework.codeplex.com/license
@ -5,6 +7,8 @@
#if XNAEXT
namespace ANX.Framework.Input.MotionSensing
{
[PercentageComplete(100)]
[TestState(TestStateAttribute.TestState.Tested)]
public enum MotionSensingDeviceType
{
Kinect,

4
ANX.Framework/Matrix.cs
View File

@ -1,6 +1,7 @@
#region Using Statements
using System;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -10,6 +11,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(70)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Matrix : IEquatable<Matrix>
{
#region Public Fields

8
ANX.Framework/Plane.cs
View File

@ -1,6 +1,7 @@
#region Using Statements
using System;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -10,6 +11,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Plane : IEquatable<Plane>
{
#region fields
@ -17,7 +21,6 @@ namespace ANX.Framework
public Vector3 Normal;
#endregion
#region constructors
public Plane(float a, float b, float c, float d)
{
@ -43,7 +46,6 @@ namespace ANX.Framework
}
#endregion
#region public methods
public float Dot(Vector4 value)
{
@ -343,7 +345,6 @@ namespace ANX.Framework
}
#endregion
#region IEquatable implementation
public override bool Equals(Object obj)
{
@ -356,7 +357,6 @@ namespace ANX.Framework
}
#endregion
#region operator overloading
public static bool operator ==(Plane lhs, Plane rhs)
{

4
ANX.Framework/Point.cs
View File

@ -8,9 +8,9 @@ using ANX.Framework.NonXNA.Development;
namespace ANX.Framework
{
[PercentageComplete(100)]
[TestState(TestStateAttribute.TestState.Untested)]
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Point : IEquatable<Point>
{
#region Constants

7
ANX.Framework/Quaternion.cs
View File

@ -1,6 +1,8 @@
#region Using Statements
using System;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
// This file is part of the ANX.Framework created by the
@ -9,6 +11,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Quaternion : IEquatable<Quaternion>
{
#region fields
@ -418,7 +423,7 @@ namespace ANX.Framework
#region IEquatable implementation
public override bool Equals(Object obj)
{
return (obj is Quaternion) ? this.Equals((Quaternion)obj) : false;
return (obj is Quaternion) && this.Equals((Quaternion)obj);
}
public bool Equals(Quaternion other)
{

8
ANX.Framework/Ray.cs
View File

@ -1,4 +1,5 @@
using System;
using ANX.Framework.NonXNA.Development;
// This file is part of the ANX.Framework created by the
// "ANX.Framework developer group" and released under the Ms-PL license.
@ -6,6 +7,9 @@ using System;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Ray : IEquatable<Ray>
{
#region fields
@ -20,7 +24,6 @@ namespace ANX.Framework
public Vector3 Position;
#endregion
#region constructors
/// <summary>
/// Initializes a new instance of the <see cref="Ray"/> struct.
@ -34,7 +37,6 @@ namespace ANX.Framework
}
#endregion
#region public methods
/// <summary>
/// Returns a hash code for this instance.
@ -179,7 +181,6 @@ namespace ANX.Framework
}
#endregion
#region operator overloading
/// <summary>
/// Implements the operator ==.
@ -207,7 +208,6 @@ namespace ANX.Framework
}
#endregion
#region IEquatable implementation
/// <summary>
/// Determines whether the specified <see cref="System.Object"/> is equal to this instance.

4
ANX.Framework/Rectangle.cs
View File

@ -1,5 +1,6 @@
using System;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
// This file is part of the ANX.Framework created by the
// "ANX.Framework developer group" and released under the Ms-PL license.
@ -7,6 +8,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Rectangle : IEquatable<Rectangle>
{
#region fields

4
ANX.Framework/Vector2.cs
View File

@ -1,5 +1,6 @@
using System;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
// This file is part of the ANX.Framework created by the
// "ANX.Framework developer group" and released under the Ms-PL license.
@ -7,6 +8,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Vector2 : IEquatable<Vector2>
{
#region fields

4
ANX.Framework/Vector3.cs
View File

@ -1,6 +1,7 @@
#region Using Statements
using System;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -10,6 +11,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Vector3 : IEquatable<Vector3>
{
#region Private Static Fields

6
ANX.Framework/Vector4.cs
View File

@ -1,6 +1,7 @@
#region Using Statements
using System;
using System.Globalization;
using ANX.Framework.NonXNA.Development;
#endregion // Using Statements
@ -10,6 +11,9 @@ using System.Globalization;
namespace ANX.Framework
{
[PercentageComplete(100)]
[Developer("???")]
[TestState(TestStateAttribute.TestState.InProgress)]
public struct Vector4 : IEquatable<Vector4>
{
#region Fields
@ -625,7 +629,7 @@ namespace ANX.Framework
public override bool Equals(Object obj)
{
return (obj is Vector4) ? this.Equals((Vector4)obj) : false;
return (obj is Vector4) && this.Equals((Vector4)obj);
}