KillingFloor2/KF2-Dev-Scripts
KillingFloor2/KF2-Dev-Scripts
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KF2-Dev-Scripts/Core/Classes/Object.uc

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/**
* Copyright 1998-2013 Epic Games, Inc. All Rights Reserved.
*/
//=============================================================================
// Object: The base class all objects.
// This is a built-in Unreal class and it shouldn't be modified by mod authors
//=============================================================================
class Object
abstract
native
noexport;
//=============================================================================
// Unreal base structures.
// Temporary UnrealScript->C++ mirrors.
struct pointer
{
var native const int Dummy;
};
//@HSL_BEGIN_XBOX
struct hatpointer
{
var native const int Dummy;
};
//@HSL_END_XBOX
struct {QWORD} qword
{
var() native int A, B;
};
struct {DWORD} dword
{
var() native int A;
};
//=============================================================================
// UObject variables.
// Internal variables.
var native private const editconst noexport pointer VfTableObject;
var native private const editconst pointer HashNext;
var native private const editconst qword ObjectFlags; // This needs to be 8-byte aligned in 32-bit!
var native private const editconst pointer HashOuterNext;
var native private const editconst pointer StateFrame;
var native private const editconst noexport Object Linker;
var native private const editconst noexport pointer LinkerIndex;
var native private const editconst noexport int ObjectInternalInteger;
var native private const editconst noexport int NetIndex;
var native const editconst Object Outer;
var() native const editconst name Name;
var native const editconst class Class;
var() native const editconst Object ObjectArchetype;
////////////////////////////////////////////////////////////////////////////////////////////////
// IMPORTANT: DO NOT ADD _ANY_ MEMBERS AFTER ObjectArchetype! Add ALL members before it, as the
// C++ code expects it to be the final member of UObject! (see UObject::InitProperties)
////////////////////////////////////////////////////////////////////////////////////////////////
//=============================================================================
// Unreal base structures continued.
//@HSL_BEGIN_XBOX
// An IP address.
// @igs(jtl) IPv6 compatible version of FIpAddr. If native uses IPv6, AddrA-D are the IN6_ADDR struct.
// Otherwise, the IPv4 address is in AddrD.
struct {FIpAddr} IpAddr
{
var int AddrA;
var int AddrB;
var int AddrC;
var int AddrD;
var int Port;
};
//@HSL_END_XBOX
struct {DOUBLE} double
{
var native const int A;
var native const int B;
};
struct ThreadSafeCounter
{
var native const int Value;
};
struct BitArray_Mirror
{
var native const pointer IndirectData;
var native const int InlineData[4];
var native const int NumBits;
var native const int MaxBits;
};
struct SparseArray_Mirror
{
var native const array<int> Elements;
var native const BitArray_Mirror AllocationFlags;
var native const int FirstFreeIndex;
var native const int NumFreeIndices;
};
struct Set_Mirror
{
var native const SparseArray_Mirror Elements;
var native const int InlineHash;
var native const pointer Hash;
var native const int HashSize;
};
struct Map_Mirror
{
var native const Set_Mirror Pairs;
};
struct MultiMap_Mirror
{
var native const Set_Mirror Pairs;
};
struct UntypedBulkData_Mirror
{
var native const pointer VfTable;
var native const int BulkDataFlags;
var native const int ElementCount;
var native const int BulkDataOffsetInFile;
var native const int BulkDataSizeOnDisk;
var native const int SavedBulkDataFlags;
var native const int SavedElementCount;
var native const int SavedBulkDataOffsetInFile;
var native const int SavedBulkDataSizeOnDisk;
var native const pointer BulkData;
var native const int LockStatus;
var native const pointer AttachedAr;
var native const int bShouldFreeOnEmpty;
};
struct RenderCommandFence_Mirror
{
var native const transient int NumPendingFences;
};
// needs to match FColorVertexBuffer in C++
struct FColorVertexBuffer_Mirror
{
var native const pointer VfTable;
var native const pointer VertexData;
var private const int Data;
var private const int Stride;
var private const int NumVertices;
};
struct IndirectArray_Mirror
{
// FScriptArray
var native const pointer Data;
var native const int ArrayNum;
var native const int ArrayMax;
};
struct Array_Mirror
{
// FScriptArray
var native const pointer Data;
var native const int ArrayNum;
var native const int ArrayMax;
};
/**
* Structure mirroring an array of pointers using an inline allocator.
*/
struct InlinePointerArray_Mirror
{
var private const pointer InlineData;
var private const Array_Mirror SecondaryData;
};
// A globally unique identifier.
struct immutable Guid
{
var int A, B, C, D;
};
// A point or direction vector in 3d space.
struct immutable Vector
{
var() float X, Y, Z;
};
struct immutable Vector4
{
var() float X, Y, Z, W;
};
struct immutable Vector2D
{
var() float X, Y;
};
struct immutable TwoVectors
{
var() Vector v1, v2;
};
// A plane definition in 3d space.
struct immutable Plane extends Vector
{
var() float W;
};
// An orthogonal rotation in 3d space.
struct immutable Rotator
{
var() int Pitch, Yaw, Roll;
};
// Quaternion
struct immutable Quat
{
var() float X, Y, Z, W;
};
// A packed normal.
struct immutable PackedNormal
{
var() byte X, Y, Z, W;
};
/**
* Screen coordinates
*/
struct immutable IntPoint
{
var() int X, Y;
};
/**
* A vector of spherical harmonic coefficients.
*/
struct SHVector
{
// Note: The number of SH coefficients must match NUM_SH_BASIS in SHMath.h!
// The struct must also be padded to be 16-byte aligned.
var() float V[9];
var float Padding[3];
};
/**
* A vector of spherical harmonic coefficients for each color component.
*/
struct SHVectorRGB
{
var() SHVector R;
var() SHVector G;
var() SHVector B;
};
/**
* Point Of View type.
*/
struct TPOV
{
/** Location */
var() Vector Location;
/** Rotation */
var() Rotator Rotation;
/** FOV angle */
var() float FOV;
structdefaultproperties
{
FOV=90.f
}
};
/** Various ways to interpolate TAlphaBlend. */
enum AlphaBlendType
{
ABT_Linear,
ABT_Cubic,
ABT_Sinusoidal,
ABT_EaseInOutExponent2,
ABT_EaseInOutExponent3,
ABT_EaseInOutExponent4,
ABT_EaseInOutExponent5,
};
/** Structure to encompass Alpha Interpolation. */
struct TAlphaBlend
{
/** Internal Lerped value for Alpha */
var const FLOAT AlphaIn;
/** Resulting Alpha value, between 0.f and 1.f */
var const FLOAT AlphaOut;
/** Target to reach */
var() FLOAT AlphaTarget;
/** Default blend time */
var() FLOAT BlendTime;
/** Time left to reach target */
var const FLOAT BlendTimeToGo;
/** Type of blending used (Linear, Cubic, etc.) */
var() AlphaBlendType BlendType;
structdefaultproperties
{
BlendTime=0.67f
BlendType=ABT_Linear
}
};
// Generic axis enum.
enum EAxis
{
AXIS_NONE, // = 0
AXIS_X, // = 1
AXIS_Y, // = 2
AXIS_BLANK, // = 3. Need this because AXIS enum is used as bitfield in C++...
AXIS_Z // 4
};
enum EInputEvent
{
IE_Pressed,
IE_Released,
IE_Repeat,
IE_DoubleClick,
IE_Axis
};
enum EAspectRatioAxisConstraint
{
AspectRatio_MaintainYFOV,
AspectRatio_MaintainXFOV,
AspectRatio_MajorAxisFOV
};
// A color.
struct immutable Color
{
var() byte B, G, R, A;
};
// A linear color.
struct immutable LinearColor
{
var() float R, G, B, A;
structdefaultproperties
{
A=1.f
}
};
// A bounding box.
struct immutable Box
{
var() vector Min, Max;
var byte IsValid;
};
// A bounding box and bounding sphere with the same origin.
struct BoxSphereBounds
{
var() vector Origin;
var() vector BoxExtent;
var() float SphereRadius;
};
// a 4x4 matrix
struct immutable Matrix
{
var() Plane XPlane;
var() Plane YPlane;
var() Plane ZPlane;
var() Plane WPlane;
};
struct Cylinder
{
var float Radius, Height;
};
// Interpolation data types.
enum EInterpCurveMode
{
CIM_Linear,
CIM_CurveAuto,
CIM_Constant,
CIM_CurveUser,
CIM_CurveBreak,
CIM_CurveAutoClamped
};
// Interpolation data types.
enum EInterpMethodType
{
IMT_UseFixedTangentEvalAndNewAutoTangents,
IMT_UseFixedTangentEval,
IMT_UseBrokenTangentEval
};
struct InterpCurvePointFloat
{
var() float InVal;
var() float OutVal;
var() float ArriveTangent;
var() float LeaveTangent;
var() EInterpCurveMode InterpMode;
};
struct InterpCurveFloat
{
var() array<InterpCurvePointFloat> Points;
var EInterpMethodType InterpMethod;
};
struct InterpCurvePointVector2D
{
var() float InVal;
var() vector2d OutVal;
var() vector2d ArriveTangent;
var() vector2d LeaveTangent;
var() EInterpCurveMode InterpMode;
};
struct InterpCurveVector2D
{
var() array<InterpCurvePointVector2D> Points;
var EInterpMethodType InterpMethod;
};
struct InterpCurvePointVector
{
var() float InVal;
var() vector OutVal;
var() vector ArriveTangent;
var() vector LeaveTangent;
var() EInterpCurveMode InterpMode;
};
struct InterpCurveVector
{
var() array<InterpCurvePointVector> Points;
var EInterpMethodType InterpMethod;
};
struct InterpCurvePointTwoVectors
{
var() float InVal;
var() twovectors OutVal;
var() twovectors ArriveTangent;
var() twovectors LeaveTangent;
var() EInterpCurveMode InterpMode;
};
struct InterpCurveTwoVectors
{
var() array<InterpCurvePointTwoVectors> Points;
var EInterpMethodType InterpMethod;
};
struct InterpCurvePointQuat
{
var() float InVal;
var() quat OutVal;
var() quat ArriveTangent;
var() quat LeaveTangent;
var() EInterpCurveMode InterpMode;
};
struct InterpCurveQuat
{
var() array<InterpCurvePointQuat> Points;
var EInterpMethodType InterpMethod;
};
struct InterpCurvePointLinearColor
{
var() float InVal;
var() linearcolor OutVal;
var() linearcolor ArriveTangent;
var() linearcolor LeaveTangent;
var() EInterpCurveMode InterpMode;
};
struct InterpCurveLinearColor
{
var() array<InterpCurvePointLinearColor> Points;
var EInterpMethodType InterpMethod;
};
// Base class for raw (baked out) Distribution type
struct RawDistribution
{
var byte Type;
var byte Op;
var byte LookupTableNumElements;
var byte LookupTableChunkSize;
var array<float> LookupTable;
var float LookupTableTimeScale;
var float LookupTableStartTime;
};
/** A fence used to track rendering thread command execution. */
struct RenderCommandFence
{
var private native const int NumPendingFences;
};
/** Mirror for FElementId used in generic Octree */
struct OctreeElementId
{
var private native const pointer Node;
var private native const int ElementIndex;
};
/** Bone Atom definition */
struct BoneAtom
{
var quat Rotation;
var vector Translation;
var float Scale;
};
//=============================================================================
// Constants.
const MaxInt = 0x7fffffff;
const Pi = 3.1415926535897932;
const RadToDeg = 57.295779513082321600; // 180 / Pi
const DegToRad = 0.017453292519943296; // Pi / 180
const UnrRotToRad = 0.00009587379924285; // Pi / 32768
const RadToUnrRot = 10430.3783504704527; // 32768 / Pi
const DegToUnrRot = 182.0444;
const UnrRotToDeg = 0.00549316540360483;
const INDEX_NONE = -1;
// Aspect ratio constants
const AspectRatio4x3 = 1.33333;
const AspectRatio5x4 = 1.25;
const AspectRatio16x9 = 1.77778;
const InvAspectRatio4x3 = 0.75;
const InvAspectRatio5x4 = 0.8;
const InvAspectRatio16x9 = 0.56249;
//=============================================================================
// Logging Severity Levels.
/**
* Determines which ticking group an Actor/Component belongs to
*/
enum ETickingGroup
{
/**
* Any item that needs to be updated before asynchronous work is done
*/
TG_PreAsyncWork,
/**
* Any item that can be run in parallel of our async work
*/
TG_DuringAsyncWork,
/**
* Any item that needs the async work to be done before being updated
*/
TG_PostAsyncWork,
// NVCHANGE_BEGIN: JCAO - Add second scene for clothing
/**
* Any item that needs being updated after physcis scene was done and before the cloth work started
*/
TG_PostPhysicsPreClothWork,
// NVCHANGE_END: JCAO - Add second scene for clothing
/**
* Any item that needs the update work to be done before being ticked
*/
TG_PostUpdateWork,
/** Special effects that need to be updated last */
TG_EffectsUpdateWork
};
/**
* These are the types of PerfMem RunResults you the system understands and can achieve. They are stored in the table as we
* will get "valid" numbers but we ran OOM. We want to list the numbers in the OOM case because there is probably something that
* jumped up to cause the OOM (e.g. vertex lighting).
**/
enum EAutomatedRunResult
{
ARR_Unknown,
ARR_OOM,
ARR_Passed,
};
/**
* Different modes for the DebugBreak() method.
*/
enum EDebugBreakType
{
DEBUGGER_NativeOnly,
/** not yet implemented */
DEBUGGER_ScriptOnly,
/** not yet implemented */
DEBUGGER_Both,
};
//=============================================================================
// Basic native operators and functions.
//
// Bool operators.
//
native(129) static final preoperator bool ! ( bool A );
native(242) static final operator(24) bool == ( bool A, bool B );
native(243) static final operator(26) bool != ( bool A, bool B );
native(130) static final operator(30) bool && ( bool A, skip bool B );
native(131) static final operator(30) bool ^^ ( bool A, bool B );
native(132) static final operator(32) bool || ( bool A, skip bool B );
//
// Byte operators.
//
native(133) static final operator(34) byte *= ( out byte A, byte B );
native(198) static final operator(34) byte *= ( out byte A, float B );
native(134) static final operator(34) byte /= ( out byte A, byte B );
native(135) static final operator(34) byte += ( out byte A, byte B );
native(136) static final operator(34) byte -= ( out byte A, byte B );
native(137) static final preoperator byte ++ ( out byte A );
native(138) static final preoperator byte -- ( out byte A );
native(139) static final postoperator byte ++ ( out byte A );
native(140) static final postoperator byte -- ( out byte A );
//
// Integer operators.
//
native(141) static final preoperator int ~ ( int A );
native(143) static final preoperator int - ( int A );
native(144) static final operator(16) int * ( int A, int B );
native(145) static final operator(16) int / ( int A, int B );
native(253) static final operator(18) int % ( int A, int B );
native(146) static final operator(20) int + ( int A, int B );
native(147) static final operator(20) int - ( int A, int B );
native(148) static final operator(22) int << ( int A, int B );
native(149) static final operator(22) int >> ( int A, int B );
native(196) static final operator(22) int >>>( int A, int B );
native(150) static final operator(24) bool < ( int A, int B );
native(151) static final operator(24) bool > ( int A, int B );
native(152) static final operator(24) bool <= ( int A, int B );
native(153) static final operator(24) bool >= ( int A, int B );
native(154) static final operator(24) bool == ( int A, int B );
native(155) static final operator(26) bool != ( int A, int B );
native(156) static final operator(28) int & ( int A, int B );
native(157) static final operator(28) int ^ ( int A, int B );
native(158) static final operator(28) int | ( int A, int B );
native(159) static final operator(34) int *= ( out int A, float B );
native(160) static final operator(34) int /= ( out int A, float B );
native(161) static final operator(34) int += ( out int A, int B );
native(162) static final operator(34) int -= ( out int A, int B );
native(163) static final preoperator int ++ ( out int A );
native(164) static final preoperator int -- ( out int A );
native(165) static final postoperator int ++ ( out int A );
native(166) static final postoperator int -- ( out int A );
//
// Integer functions.
//
/** Rand will give you a value between 0 and Max -1 **/
native(167) static final Function int Rand ( int Max );
native(249) static final function int Min ( int A, int B );
native(250) static final function int Max ( int A, int B );
native(251) static final function int Clamp ( int V, int A, int B );
native static final function string ToHex ( int A );
//
// Float operators.
//
native(169) static final preoperator float - ( float A );
native(170) static final operator(12) float ** ( float Base, float Exp );
native(171) static final operator(16) float * ( float A, float B );
native(172) static final operator(16) float / ( float A, float B );
native(173) static final operator(18) float % ( float A, float B );
native(174) static final operator(20) float + ( float A, float B );
native(175) static final operator(20) float - ( float A, float B );
native(176) static final operator(24) bool < ( float A, float B );
native(177) static final operator(24) bool > ( float A, float B );
native(178) static final operator(24) bool <= ( float A, float B );
native(179) static final operator(24) bool >= ( float A, float B );
native(180) static final operator(24) bool == ( float A, float B );
native(210) static final operator(24) bool ~= ( float A, float B );
native(181) static final operator(26) bool != ( float A, float B );
native(182) static final operator(34) float *= ( out float A, float B );
native(183) static final operator(34) float /= ( out float A, float B );
native(184) static final operator(34) float += ( out float A, float B );
native(185) static final operator(34) float -= ( out float A, float B );
//
// Float functions.
//
native(186) static final function float Abs ( float A );
native(187) static final function float Sin ( float A );
native static final function float Asin ( float A );
native(188) static final function float Cos ( float A );
native static final function float Acos ( float A );
native(189) static final function float Tan ( float A );
native(190) static final function float Atan ( float A );
native static final function float Atan2 ( float A, float B );
native(191) static final function float Exp ( float A );
native(192) static final function float Loge ( float A );
native(193) static final function float Sqrt ( float A );
native(194) static final function float Square( float A );
native(195) static final function float FRand ();
native(244) static final function float FMin ( float A, float B );
native(245) static final function float FMax ( float A, float B );
native(246) static final function float FClamp( float V, float A, float B );
native(247) static final function float Lerp ( float A, float B, float Alpha );
native(199) static final function int Round ( float A );
native static final function int FFloor ( float A );
native static final function int FCeil(float A);
/**
* Cubic Spline interpolation.
* @param P end points
* @param T tangent directions at end points
* @param Alpha distance along spline
* @return evaluated value.
*/
native static final function float FCubicInterp(float P0, float T0, float P1, float T1, float A);
/**
* Interpolates with ease-in (smoothly approaches B).
* @param A Value to interpolate from.
* @param B Value to interpolate to.
* @param Alpha Interpolant.
* @param Exp Exponent. Higher values result in more rapid deceleration.
* @return Interpolated value.
*/
static final function float FInterpEaseIn(float A, float B, float Alpha, float Exp)
{
return Lerp(A, B, Alpha**Exp);
}
/**
* Interpolates with ease-out (smoothly departs A).
* @param A Value to interpolate from.
* @param B Value to interpolate to.
* @param Alpha Interpolant.
* @param Exp Exponent. Higher values result in more rapid acceleration.
* @return Interpolated value.
*/
static final function float FInterpEaseOut(float A, float B, float Alpha, float Exp)
{
return Lerp(A, B, Alpha**(1/Exp));
}
/**
* Interpolates with both ease-in and ease-out (smoothly departs A, smoothly approaches B).
* @param A Value to interpolate from.
* @param B Value to interpolate to.
* @param Alpha Interpolant.
* @param Exp Exponent. Higher values result in more rapid acceleration adn deceleration.
* @return Interpolated value.
*/
native static final function float FInterpEaseInOut(float A, float B, float Alpha, float Exp);
/** Return a random number within the given range. */
static final simulated function float RandRange( float InMin, float InMax )
{
return InMin + (InMax - InMin) * FRand();
}
/**
* Returns the relative percentage position Value is in the range [Min,Max].
* Examples:
* - GetRangeValueByPct( 2, 4, 2 ) == 0
* - GetRangeValueByPct( 2, 4, 4 ) == 1
* - GetRangeValueByPct( 2, 4, 3 ) == 0.5
*
* @param Min Min limit
* @param Max Max limit
* @param Value Value between Range.
*
* @return relative percentage position Value is in the range [Min,Max].
*/
static final simulated function float FPctByRange( float Value, float InMin, float InMax )
{
return (Value - InMin) / (InMax - InMin);
}
/**
* Tries to reach Target based on distance from Current position,
* giving a nice smooth feeling when tracking a position.
* (Doesn't work well when target teleports)
*
* @param Current Actual position
* @param Target Target position
* @param DeltaTime time since last tick
* @param InterpSpeed Interpolation speed
* @return new interpolated position
*/
native static final function float FInterpTo( float Current, float Target, float DeltaTime, float InterpSpeed );
/** Same as above, but using a constant step */
native static final function float FInterpConstantTo( float Current, float Target, float DeltaTime, float InterpSpeed );
//
// Vector operators.
//
native(211) static final preoperator vector - ( vector A );
native(212) static final operator(16) vector * ( vector A, float B );
native(213) static final operator(16) vector * ( float A, vector B );
native(296) static final operator(16) vector * ( vector A, vector B );
native(214) static final operator(16) vector / ( vector A, float B );
native(215) static final operator(20) vector + ( vector A, vector B );
native(216) static final operator(20) vector - ( vector A, vector B );
native(275) static final operator(22) vector << ( vector A, rotator B );
native(276) static final operator(22) vector >> ( vector A, rotator B );
native(217) static final operator(24) bool == ( vector A, vector B );
native(218) static final operator(26) bool != ( vector A, vector B );
native(219) static final operator(16) float Dot ( vector A, vector B );
native(220) static final operator(16) vector Cross ( vector A, vector B );
native(221) static final operator(34) vector *= ( out vector A, float B );
native(297) static final operator(34) vector *= ( out vector A, vector B );
native(222) static final operator(34) vector /= ( out vector A, float B );
native(223) static final operator(34) vector += ( out vector A, vector B );
native(224) static final operator(34) vector -= ( out vector A, vector B );
//
// Vector functions.
//
native(225) static final function float VSize ( vector A );
native static final function float VSize2D ( vector A );
native(228) static final function float VSizeSq ( vector A );
native static final function float VSizeSq2D ( vector A );
native(226) static final function vector Normal ( vector A );
native(227) static final function vector Normal2D(vector A);
native static final function vector VLerp ( vector A, vector B, float Alpha );
native(252) static final function vector VRand ( );
native static final function vector VRandCone ( vector Dir, float ConeHalfAngleRadians );
native static final function vector VRandCone2 ( vector Dir, float HorizontalConeHalfAngleRadians, float VerticalConeHalfAngleRadians );
native(300) static final function vector MirrorVectorByNormal( vector InVect, vector InNormal );
native(1500) static final function Vector ProjectOnTo( Vector x, Vector y );
native(1501) static final function bool IsZero( Vector A );
/**
* Tries to reach Target based on distance from Current position,
* giving a nice smooth feeling when tracking a location.
* (Doesn't work well when target teleports)
*
* @param Current Actual location
* @param Target Target location
* @param DeltaTime time since last tick
* @param InterpSpeed Interpolation speed
* @return new interpolated position
*/
native static final function vector VInterpTo( vector Current, vector Target, float DeltaTime, float InterpSpeed );
/** Clamps a vector to not be longer than MaxLength. */
native static final function vector ClampLength( vector V, float MaxLength );
/** Returns dot product of two vectors while ignoring the Z component. */
native static final function float NoZDot( vector A, vector B );
simulated final function bool InCylinder( Vector Origin, Rotator Dir, float Width, Vector A, optional bool bIgnoreZ )
{
local Vector B;
local Vector VDir;
if( bIgnoreZ )
{
Origin.Z = 0;
Dir.Pitch = 0;
A.Z = 0;
}
VDir = Vector(Dir);
B = (((A - Origin) DOT VDir) * VDir) + Origin;
if( VSizeSq(B-A) <= Width * Width )
{
return TRUE;
}
return FALSE;
}
//
// Rotator operators and functions.
//
native(142) static final operator(24) bool == ( rotator A, rotator B );
native(203) static final operator(26) bool != ( rotator A, rotator B );
native(287) static final operator(16) rotator * ( rotator A, float B );
native(288) static final operator(16) rotator * ( float A, rotator B );
native(289) static final operator(16) rotator / ( rotator A, float B );
native(290) static final operator(34) rotator *= ( out rotator A, float B );
native(291) static final operator(34) rotator /= ( out rotator A, float B );
native(316) static final operator(20) rotator + ( rotator A, rotator B );
native(317) static final operator(20) rotator - ( rotator A, rotator B );
native(318) static final operator(34) rotator += ( out rotator A, rotator B );
native(319) static final operator(34) rotator -= ( out rotator A, rotator B );
native static final operator(24) bool ClockwiseFrom( int A, int B );
native(229) static final function GetAxes( rotator A, out vector X, out vector Y, out vector Z );
native(230) static final function GetUnAxes( rotator A, out vector X, out vector Y, out vector Z );
native static final function vector GetRotatorAxis( rotator A, int Axis );
native(320) static final function Rotator RotRand( optional bool bRoll );
native static final function Rotator OrthoRotation( vector X, vector Y, vector Z );
native static final function Rotator Normalize( rotator Rot );
native static final function Rotator RLerp( Rotator A, Rotator B, float Alpha, optional bool bShortestPath );
/** Given rotation R in the space defined by RBasis, return R in "world" space */
native static final function Rotator RTransform(rotator R, rotator RBasis);
/**
* Tries to reach Target based on distance from Current position,
* giving a nice smooth feeling when tracking a position.
* (Doesn't work well when target teleports)
*
* @param Current Actual position
* @param Target Target position
* @param DeltaTime time since last tick
* @param InterpSpeed Interpolation speed, if !bConstantInterpSpeed will perform a continuous lerp, otherwise will interp at constant speed
* @return new interpolated position
*/
native static final function Rotator RInterpTo( rotator Current, rotator Target, float DeltaTime, float InterpSpeed, optional bool bConstantInterpSpeed );
/**
* Returns a Rotator axis within the [-32768,+32767] range in float
*
* @param RotAxis, axis of the rotator
* @return Normalized axis value, within the [-32768,+32767] range.
*/
native static final function int NormalizeRotAxis(int Angle);
/** Gives the rotation difference between two Rotators, taking the shortest route between them (in degrees). */
native static final function float RDiff( Rotator A, Rotator B );
/**
* returns Rotator Size (vector definition applied to rotators)
* @param Rotator R
* @returns mathematical vector length: Sqrt(Pitch^2 + Yaw^2 + Roll^2)
*/
native static final function float RSize(rotator R);
/**
* Clamp a rotation Axis.
* The ViewAxis rotation component must be normalized (within the [-32768,+32767] range).
* This function will set out_DeltaViewAxis to the delta needed to bring ViewAxis within the [MinLimit,MaxLimit] range.
*
* @param ViewAxis Rotation Axis to clamp
* @input out_DeltaViewAxis Delta Rotation Axis to be added to ViewAxis rotation (from ProcessViewRotation).
* Set to be the Delta to bring ViewAxis within the [MinLimit,MaxLimit] range.
* @param MaxLimit Maximum for Clamp. ViewAxis will not exceed this.
* @param MinLimit Minimum for Clamp. ViewAxis will not go below this.
*/
static final simulated function ClampRotAxis
(
int ViewAxis,
out int out_DeltaViewAxis,
int MaxLimit,
int MinLimit
)
{
local int DesiredViewAxis;
ViewAxis = NormalizeRotAxis( ViewAxis );
DesiredViewAxis = ViewAxis + out_DeltaViewAxis;
if( DesiredViewAxis > MaxLimit )
{
DesiredViewAxis = MaxLimit;
}
if( DesiredViewAxis < MinLimit )
{
DesiredViewAxis = MinLimit;
}
out_DeltaViewAxis = DesiredViewAxis - ViewAxis;
}
/**
* Clamp Rotator Axis.
*
* @param Current Input axis angle.
* @param Center Center of allowed angle.
* @param MaxDelta Maximum delta allowed.
* @return axis angle clamped between [Center-MaxDelta, Center+MaxDelta]
*/
static final simulated function int ClampRotAxisFromBase(int Current, int Center, int MaxDelta)
{
local int DeltaFromCenter;
DeltaFromCenter = NormalizeRotAxis(Current - Center);
if( DeltaFromCenter > MaxDelta )
{
Current = Center + MaxDelta;
}
else if( DeltaFromCenter < -MaxDelta )
{
Current = Center - MaxDelta;
}
return Current;
};
/**
* Clamp Rotator Axis.
*
* @param Current Input axis angle.
* @param Min Min allowed angle.
* @param Max Max allowed angle.
* @return axis angle clamped between [Min, Max]
*/
static final simulated function int ClampRotAxisFromRange(int Current, int Min, int Max)
{
local int Delta, Center;
Delta = NormalizeRotAxis(Max - Min) / 2;
Center = NormalizeRotAxis(Max + Min) / 2;
return ClampRotAxisFromBase(Current, Center, Delta);
};
/**
* Smooth clamp a rotator axis.
* This is mainly used to bring smoothly a rotator component within a certain range [MinLimit,MaxLimit].
* For example to limit smoothly the player's ViewRotation Pitch or Yaw component.
*
* @param fDeltaTime Elapsed time since this function was last called, for interpolation.
* @param ViewAxis Rotator's Axis' current angle.
* @input out_DeltaViewAxis Delta Value of Axis to be added to ViewAxis (through PlayerController::ProcessViewRotation().
* This value gets modified.
* @param MaxLimit Up angle limit.
* @param MinLimit Negative angle limit (value must be negative)
* @param InterpolationSpeed Interpolation Speed to bring ViewAxis within the [MinLimit,MaxLimit] range.
*/
static final simulated function bool SClampRotAxis
(
float DeltaTime,
int ViewAxis,
out int out_DeltaViewAxis,
int MaxLimit,
int MinLimit,
float InterpolationSpeed
)
{
local bool bClamped;
// make sure rotation components are normalized
out_DeltaViewAxis = NormalizeRotAxis( out_DeltaViewAxis );
ViewAxis = NormalizeRotAxis( ViewAxis );
// forbid player from going beyond limits through fDeltaViewAxis
if( ViewAxis <= MaxLimit && (ViewAxis + out_DeltaViewAxis) >= MaxLimit )
{
out_DeltaViewAxis = MaxLimit - ViewAxis;
bClamped = TRUE;
}
else if( ViewAxis > MaxLimit )
{
// if players goes counter interpolation, ignore input
if( out_DeltaViewAxis > 0 )
{
out_DeltaViewAxis = 0.f;
}
// if above limit, interpolate back to within limits
if( (ViewAxis + out_DeltaViewAxis) > MaxLimit )
{
out_DeltaViewAxis = FInterpTo(ViewAxis, MaxLimit, DeltaTime, InterpolationSpeed ) - ViewAxis - 1;
}
}
// forbid player from going beyond limits through fDeltaViewAxis
else if( ViewAxis >= MinLimit && (ViewAxis + out_DeltaViewAxis) <= MinLimit )
{
out_DeltaViewAxis = MinLimit - ViewAxis;
bClamped = TRUE;
}
else if( ViewAxis < MinLimit )
{
// if players goes counter interpolation, ignore input
if( out_DeltaViewAxis < 0 )
{
out_DeltaViewAxis = 0.f;
}
// if above limit, interpolate back to within limits
if( (ViewAxis + out_DeltaViewAxis) < MinLimit )
{
out_DeltaViewAxis += FInterpTo(ViewAxis, MinLimit, DeltaTime, InterpolationSpeed ) - ViewAxis + 1;
}
}
return bClamped;
}
/** Create a Rotation from independant Pitch, Yaw, Roll */
static final function Rotator MakeRotator(int Pitch, int Yaw, int Roll)
{
local rotator R;
R.Pitch = Pitch;
R.Yaw = Yaw;
R.Roll = Roll;
return R;
}
//
// String operators.
//
native(112) static final operator(40) string $ ( coerce string A, coerce string B );
native(168) static final operator(40) string @ ( coerce string A, coerce string B );
native(115) static final operator(24) bool < ( string A, string B );
native(116) static final operator(24) bool > ( string A, string B );
native(120) static final operator(24) bool <= ( string A, string B );
native(121) static final operator(24) bool >= ( string A, string B );
native(122) static final operator(24) bool == ( string A, string B );
native(123) static final operator(26) bool != ( string A, string B );
native(124) static final operator(24) bool ~= ( string A, string B );
native(322) static final operator(44) string $= ( out string A, coerce string B );
native(323) static final operator(44) string @= ( out string A, coerce string B );
native(324) static final operator(45) string -= ( out string A, coerce string B );
//
// String functions.
//
native(125) static final function int Len ( coerce string S );
native(126) static final function int InStr ( coerce string S, coerce string t, optional bool bSearchFromRight, optional bool bIgnoreCase, optional int StartPos );
native(127) static final function string Mid ( coerce string S, int i, optional int j );
native(128) static final function string Left ( coerce string S, int i );
native(234) static final function string Right ( coerce string S, int i );
native(235) static final function string Caps ( coerce string S );
native(238) static final function string Locs ( coerce string S);
native(236) static final function string Chr ( int i );
native(237) static final function int Asc ( string S );
native(201) static final function string Repl ( coerce string Src, coerce string Match, coerce string With, optional bool bCaseSensitive );
/**
* Splits Text on the first Occurrence of Split and returns the remaining
* part of Text.
*/
static final function string Split(coerce string Text, coerce string SplitStr, optional bool bOmitSplitStr)
{
local int pos;
pos = InStr(Text,SplitStr);
if (pos != -1)
{
if (bOmitSplitStr)
{
return Mid(Text,pos+Len(SplitStr));
}
return Mid(Text,pos);
}
else
{
return Text;
}
}
/** Get right most number from an actor name (ie Text == "CoverLink_45" returns "45") */
static final function string GetRightMost( coerce string Text )
{
local int Idx;
Idx = InStr(Text,"_");
while (Idx != -1)
{
Text = Mid(Text,Idx+1,Len(Text));
Idx = InStr(Text,"_");
}
return Text;
}
/**
* Create a single string from an array of strings, using the delimiter specified, optionally ignoring blank members
*
* @param StringArray the array of strings to join into the single string
* @param out_Result [out] will contain a single string containing all elements of the array, separated by the delimiter specified
* @param Delim the delimiter to insert where array elements are concatenated
* @param bIgnoreBlanks TRUE to skip elements which contain emtpy strings
*/
static final function JoinArray(array<string> StringArray, out string out_Result, optional string delim = ",", optional bool bIgnoreBlanks = true)
{
local int i;
out_Result = "";
for (i = 0; i < StringArray.Length; i++)
{
if ( (StringArray[i] != "") || (!bIgnoreBlanks) )
{
if (out_Result != "" || (!bIgnoreBlanks && i > 0) )
out_Result $= delim;
out_Result $= StringArray[i];
}
}
}
/**
* Breaks up a delimited string into elements of a string array.
*
* @param BaseString - The string to break up
* @param Pieces - The array to fill with the string pieces
* @param Delim - The string to delimit on
* @param bCullEmpty - If true, empty strings are not added to the array
*/
native static final function ParseStringIntoArray(string BaseString, out array<string> Pieces, string Delim, bool bCullEmpty);
/**
* Wrapper for splitting a string into an array of strings using a single expression.
*/
static final function array<string> SplitString( string Source, optional string Delimiter=",", optional bool bCullEmpty )
{
local array<string> Result;
ParseStringIntoArray(Source, Result, Delimiter, bCullEmpty);
return Result;
}
/**
* Returns the full path name of the specified object (including package and groups), ie CheckObject::GetPathName().
*/
native static final function string PathName(Object CheckObject);
//
// Object operators and functions.
//
native(114) static final operator(24) bool == ( Object A, Object B );
native(119) static final operator(26) bool != ( Object A, Object B );
native static final operator(24) bool == ( Interface A, Interface B );
native static final operator(26) bool != ( Interface A, Interface B );
/**
* Determine if a class is a child of another class.
*
* @return TRUE if TestClass == ParentClass, or if TestClass is a child of ParentClass; FALSE otherwise, or if either
* the value for either parameter is 'None'.
*/
native(258) static final function bool ClassIsChildOf( class TestClass, class ParentClass );
native(197) final function bool IsA( name ClassName );
//
// Name operators.
//
native(254) static final operator(24) bool == ( name A, name B );
native(255) static final operator(26) bool != ( name A, name B );
//
// Matrix operators and functions
//
native static final operator(34) matrix * (Matrix A, Matrix B);
native static final function vector TransformVector(Matrix TM, vector A);
native static final function vector InverseTransformVector(Matrix TM, vector A);
native static final function vector TransformNormal(Matrix TM, vector A);
native static final function vector InverseTransformNormal(Matrix TM, vector A);
native static final function matrix MakeRotationTranslationMatrix(vector Translation, Rotator Rotation);
native static final function matrix MakeRotationMatrix(Rotator Rotation);
native static final function rotator MatrixGetRotator(Matrix TM);
native static final function vector MatrixGetOrigin(Matrix TM);
native static final function vector MatrixGetAxis(Matrix TM, EAxis Axis);
//
// Quaternion functions
//
native static final function Quat QuatProduct( Quat A, Quat B );
native static final function float QuatDot( Quat A, Quat B );
native static final function Quat QuatInvert( Quat A );
native static final function vector QuatRotateVector( Quat A, vector B );
native static final function Quat QuatFindBetween( Vector A, Vector B );
native static final function Quat QuatFromAxisAndAngle( Vector Axis, Float Angle );
native static final function Quat QuatFromRotator( rotator A );
native static final function rotator QuatToRotator( Quat A );
native static final function Quat QuatSlerp( Quat A, Quat B, float Alpha, optional bool bShortestPath );
native(270) static final operator(16) Quat + (Quat A, Quat B);
native(271) static final operator(16) Quat - (Quat A, Quat B);
//
// Vector2D functions
//
native static final operator(16) vector2d + (vector2d A, vector2d B);
native static final operator(16) vector2d - (vector2d A, vector2d B);
native static final operator(16) vector2d * (vector2d A, float B);
native static final operator(16) vector2d / (vector2d A, float B );
native static final operator(34) vector2d *= (out vector2d A, float B);
native static final operator(34) vector2d /= (out vector2d A, float B);
native static final operator(34) vector2d += (out vector2d A, vector2d B);
native static final operator(34) vector2d -= (out vector2d A, vector2d B);
/**
* Returns the value in the Range, relative to Pct.
* Examples:
* - GetRangeValueByPct( Range, 0.f ) == Range.X
* - GetRangeValueByPct( Range, 1.f ) == Range.Y
* - GetRangeValueByPct( Range, 0.5 ) == (Range.X+Range.Y)/2
*
* @param Range Range of values. [Range.X,Range.Y]
* @param Pct Relative position in range in percentage. [0,1]
*
* @return the value in the Range, relative to Pct.
*/
static final simulated function float GetRangeValueByPct( Vector2D Range, float Pct )
{
return ( Range.X + (Range.Y-Range.X) * Pct );
}
/**
* Returns the relative percentage position Value is in the Range.
* Examples:
* - GetRangeValueByPct( Range, Range.X ) == 0
* - GetRangeValueByPct( Range, Range.Y ) == 1
* - GetRangeValueByPct( Range, (Range.X+Range.Y)/2 ) == 0.5
*
* @param Range Range of values. [Range.X,Range.Y]
* @param Value Value between Range.
*
* @return relative percentage position Value is in the Range.
*/
static final simulated function float GetRangePctByValue( Vector2D Range, float Value )
{
return (Range.Y == Range.X) ? Range.X : (Value - Range.X) / (Range.Y - Range.X);
}
/**
* Useful for mapping a value in one value range to a different value range. Output is clamped to the OutputRange.
* e.g. given that velocities [50..100] correspond to a sound volume of [0.2..1.4], find the
* volume for a velocity of 77.
*/
static final simulated native function float GetMappedRangeValue(vector2d InputRange, vector2d OutputRange, float Value);
/** Construct a vector2d variable */
static final function vector2d vect2d( float InX, float InY )
{
local vector2d NewVect2d;
NewVect2d.X = InX;
NewVect2d.Y = InY;
return NewVect2d;
}
/** Evaluate a float curve for an input of InVal */
native static final function float EvalInterpCurveFloat(const out InterpCurveFloat FloatCurve, float InVal);
/** Evaluate a vector curve for an input of InVal */
native static final function vector EvalInterpCurveVector(const out InterpCurveVector VectorCurve, float InVal);
/** Evaluate a vector2D curve for an input of InVal */
native static final function vector2D EvalInterpCurveVector2D(const out InterpCurveVector2D Vector2DCurve, float InVal);
//
// Color functions
//
static final operator(20) color - (color A, color B)
{
A.R -= B.R;
A.G -= B.G;
A.B -= B.B;
return A;
}
static final operator(16) color * (float A, color B)
{
B.R *= A;
B.G *= A;
B.B *= A;
return B;
}
static final operator(16) color * (color A, float B)
{
A.R *= B;
A.G *= B;
A.B *= B;
return A;
}
static final operator(20) color + (color A, color B)
{
A.R += B.R;
A.G += B.G;
A.B += B.B;
return A;
}
/** Create a Color from independant RGBA components */
static final function Color MakeColor(byte R, byte G, byte B, optional byte A)
{
local Color C;
C.R = R;
C.G = G;
C.B = B;
C.A = A;
return C;
}
/** Util to interpolate between two colors */
static final function Color LerpColor(Color A, Color B, float Alpha)
{
local vector FloatA, FloatB, FloatResult;
local float AlphaA, AlphaB, FloatResultAlpha;
local color Result;
FloatA.X = A.R;
FloatA.Y = A.G;
FloatA.Z = A.B;
AlphaA = A.A;
FloatB.X = B.R;
FloatB.Y = B.G;
FloatB.Z = B.B;
AlphaB = B.A;
FloatResult = FloatA + ((FloatB - FloatA) * FClamp(Alpha, 0.0, 1.0));
FloatResultAlpha = AlphaA + ((AlphaB - AlphaA) * FClamp(Alpha, 0.0, 1.0));
Result.R = FloatResult.X;
Result.G = FloatResult.Y;
Result.B = FloatResult.Z;
Result.A = FloatResultAlpha;
return Result;
}
//
// Linear Color Functions
//
/** Create a LinearColor from independant RGBA components. */
static final function LinearColor MakeLinearColor( float R, float G, float B, float A )
{
local LinearColor LC;
LC.R = R;
LC.G = G;
LC.B = B;
LC.A = A;
return LC;
}
/** converts a color to a LinearColor
* @param OldColor the color to convert
* @return the matching LinearColor
*/
static final function LinearColor ColorToLinearColor(color OldColor)
{
return MakeLinearColor(float(OldColor.R) / 255.0, float(OldColor.G) / 255.0, float(OldColor.B) / 255.0, float(OldColor.A) / 255.0);
}
/** multiply the RGB components of a LinearColor by a float */
static final operator(16) LinearColor * (LinearColor LC, float Mult)
{
LC.R *= Mult;
LC.G *= Mult;
LC.B *= Mult;
return LC;
}
/** subtract the RGB components of B from the RGB components of A */
static final operator(20) LinearColor - (LinearColor A, LinearColor B)
{
A.R -= B.R;
A.G -= B.G;
A.B -= B.B;
return A;
}
//=============================================================================
// General functions.
// this define allows us to detect code that is directly calling functions that should only be called through a macro, such as
// LogInternal & WarnInternal
`if(`isdefined(FINAL_RELEASE))
`if(`isdefined(FINAL_RELEASE_DEBUGCONSOLE))
`define prevent_direct_calls
`else
`define prevent_direct_calls private
`endif
`else
`define prevent_direct_calls
`endif
//
// Logging.
//
/**
* Writes a message to the log. This function should never be called directly - use the `log macro instead, which has the following signature:
*
* log( coerce string Msg, optional bool bCondition=true, optional name LogTag='ScriptLog' );
*
* @param Msg the string to print to the log
* @param bCondition if specified, the message is only printed to the log if this condition is satisfied.
* @param LogTag if specified, the message will be prepended with this tag in the log file
*
*/
native(231) final static `{prevent_direct_calls} function LogInternal( coerce string S, optional name Tag );
/**
* Same as calling LogInternal(SomeMsg, 'Warning'); This function should never be called directly - use the `warn macro instead, which has the following signature:
*
* warn( coerce string Msg, optional bool bCondition=true );
*/
native(232) final static `{prevent_direct_calls} function WarnInternal( coerce string S );
native static function string Localize( string SectionName, string KeyName, string PackageName );
/** given a path to a localized key of the form "Package.Section.Name",
* return the appropriate value from the localization file for the current language
*/
static final function string ParseLocalizedPropertyPath(string PathName)
{
local array<string> Pieces;
ParseStringIntoArray(PathName, Pieces, ".", false);
if (Pieces.length >= 3)
{
return Localize(Pieces[1], Pieces[2], Pieces[0]);
}
else
{
return "";
}
}
/**
* Dumps the current script function stack to the log file, useful
* for debugging.
*/
native static final function ScriptTrace();
/**
* Gets the current script function stack back so you can log it to a specific log location (e.g. AILog).
*/
native static final function String GetScriptTrace();
/**
* Script-induced breakpoint. Useful for examining state with the debugger at a particular point in script.
*
* @param UserFlags user-defined flags to be used for e.g. indentifying different calls to DebugBreak in the same session
* @param DebuggerType C++ debugger, UScript debugger, or both
*/
native static final function DebugBreak( optional int UserFlags, optional EDebugBreakType DebuggerType=DEBUGGER_NativeOnly );
/**
* Returns the current calling function's name, useful for
* debugging.
*/
native static final function Name GetFuncName();
/**
* Enables/disables script function call trace logging.
*/
native static final function SetUTracing( bool bShouldUTrace );
/**
* Returns whether script function call trace logging is currently enabled.
*/
native static final function bool IsUTracing();
//
// Goto state and label.
//
/**
* Transitions to the desired state and label if specified,
* generating the EndState event in the current state if applicable
* and BeginState in the new state, unless transitioning to the same
* state.
*
* @param NewState - new state to transition to
*
* @param Label - optional Label to jump to
*
* @param bForceEvents - optionally force EndState/BeginState to be
* called even if transitioning to the same state.
*
* @param bKeepStack - prevents state stack from being cleared
*/
native(113) final function GotoState( optional name NewState, optional name Label, optional bool bForceEvents, optional bool bKeepStack );
/**
* Checks the current state and determines whether or not this object
* is actively in the specified state. Note: This does work with
* inherited states.
*
* @param TestState - state to check for
* @param bTestStateStack - check the state stack? (does *NOT* work with inherited states in the stack)
*
* @return True if currently in TestState
*/
native(281) final function bool IsInState( name TestState, optional bool bTestStateStack );
/**
* Returns true if TestState derives from TestParentState.
*/
native final function bool IsChildState(Name TestState, Name TestParentState);
/**
* Returns the current state name, useful for determining current
* state similar to IsInState. Note: This *doesn't* work with
* inherited states, in that it will only compare at the lowest
* state level.
*
* @return Name of the current state
*/
native(284) final function name GetStateName();
/**
* Pushes the new state onto the state stack, setting it as the
* current state until a matching PopState() is called. Note that
* multiple states may be pushed on top of each other.
* You may not push the same state multiple times.
*
* This will call PushedState when entering the state that was just
* pushed on the state stack. It will not call BeginState.
* @see event PushedState
* @see event ContinuedState
*
* @param NewState - name of the state to push on the stack
*
* @param NewLabel - optional name of the state label to jump to
*/
native final function PushState(Name NewState, optional Name NewLabel);
/**
* Pops the current pushed state, returning execution to the previous
* state at the same code point. Note: PopState() will have no effect
* if no state has been pushed onto the stack.
*
* This will call PoppedState when entering the state that was just
* pushed on the state stack. It will not call EndState.
* @see event PoppedState
* @see event PausedState
*
* @param bPopAll - optionally pop all states on the stack to the
* originally executing one
*/
native final function PopState(optional bool bPopAll);
/**
* Logs the current state stack for debugging purposes.
*/
native final function DumpStateStack();
//
// State notification events
//
/**
* Called immediately when entering a state, while within the
* GotoState() call that caused the state change (before any
* state code is executed).
*/
event BeginState(Name PreviousStateName);
/**
* Called immediately before going out of the current state, while
* within the GotoState() call that caused the state change, and
* before BeginState() is called within the new state.
*/
event EndState(Name NextStateName);
/**
* Called immediately in the new state that was pushed onto the
* state stack, before any state code is executed.
*/
event PushedState();
/**
* Called immediately in the current state that is being popped off
* of the state stack, before the new state is activated.
*/
event PoppedState();
/**
* Called on the state that is being paused because of a PushState().
*/
event PausedState();
/**
* Called on the state that is no longer paused because of a PopState().
*/
event ContinuedState();
//
// Probe messages.
//
native(117) final function Enable( name ProbeFunc );
native(118) final function Disable( name ProbeFunc );
//
// Object handling.
//
native static final function name GetEnum( object E, coerce int i );
native static final function object DynamicLoadObject( string ObjectName, class ObjectClass, optional bool MayFail );
native static final function object FindObject( string ObjectName, class ObjectClass );
//
// Configuration.
//
native(536) final function SaveConfig();
native static final function StaticSaveConfig();
/**
* Import property values from JSON formatted string
*
* @param PropertyName name of the property owned by this object
* @param JSON string that contains JSON format property values
*/
native static final function ImportJSON(string PropertyName, const out string JSON);
/*
/**
* Saves the current value for all configurable properties in this object to the .ini file. The values for any global config
* properties will be propagated to all child classes.
*
* @param bRefreshInstances if TRUE, all instances of this class will re-load the values for their configurable properties
* from the .ini. THIS WILL CLOBBER ANY EXISTING VALUES!
* @param PropertyName if specified, only this property's value will be saved.
*/
native(536) final function SaveConfig( optional bool bRefreshInstances, optional string PropertyName );
/**
* Saves the default values for all configurable properties in this object's class to the .ini file. The values for any global config
* properties will be propagated to all child classes.
*
* @param bRefreshInstances if TRUE, all instances of this class will re-load the values for their configurable properties
* from the .ini. THIS WILL CLOBBER ANY EXISTING VALUES!
* @param PropertyName if specified, only this property's value will be saved.
*/
native static final function StaticSaveConfig( optional bool bRefreshInstances, optional string PropertyName );
/**
* Resets the values for configurable properties in this object's class back to the values in the corresponding Default*.ini file.
*
* @param bRefreshInstances if TRUE, all instances of this class will re-load the values for their configurable properties
* from the .ini. THIS WILL CLOBBER ANY EXISTING VALUES!
* @param PropertyName if specified, only this property's value will be reset.
*/
native static final function ResetConfig( optional bool bRefreshInstances, optional string PropertyName );
/**
* Removes the values for all configurable properties in this object's class from the .ini file.
*
* @param PropertyName if specified, only this property's value will be removed.
*/
native(537) final function ClearConfig( optional string PropertyName );
/**
* Removes the values for all configurable properties in this object's class from the .ini file.
*
* @param PropertyName if specified, only this property's value will be removed.
*/
native static final function StaticClearConfig( optional string PropertyName );
*/
/**
* Retrieve the names of sections which contain data for the specified PerObjectConfig class.
*
* @param SearchClass the PerObjectConfig class to retrieve sections for.
* @param out_SectionNames will receive the list of section names that correspond to PerObjectConfig sections of the specified class
* @param ObjectOuter the Outer to use for determining which file to look in. Specify the same object that is used when creating the PerObjectConfig
* objects that sections are being retrieved for. (PerObjectConfig data is generally stored in a file named after the Outer used when
* creating those objects, unless the PerObjectConfig class specifies a config file in its class declaration);
* specify None to use the transient package as the Outer.
* @param MaxResults the maximum number of section names to retrieve
*
* @return TRUE if the file specified was found and it contained at least 1 section for the specified class
*/
native static final function bool GetPerObjectConfigSections( class SearchClass, out array<string> out_SectionNames, optional Object ObjectOuter, optional int MaxResults=1024 );
//
// Maths
//
/**
* Calculates the distance of a given Point in world space to a given line,
* defined by the vector couple (Origin, Direction).
*
* @param Point point to check distance to Axis
* @param Line unit vector indicating the direction to check against
* @param Origin point of reference used to calculate distance
* @param OutClosestPoint optional point that represents the closest point projected onto Axis
*
* @return distance of Point from line defined by (Origin, Direction)
*/
native final function float PointDistToLine(vector Point, vector Line, vector Origin, optional out vector OutClosestPoint);
/**
* Returns closest distance from a point to a segment.
*
* @param Point point to check distance for
* @param StartPoint StartPoint of segment
* @param EndPoint EndPoint of segment
* @param OutClosestPoint Closest point on segment.
*
* @return closest distance from Point to segment defined by (StartPoint, EndPoint).
*/
native final function float PointDistToSegment(Vector Point, Vector StartPoint, Vector EndPoint, optional out Vector OutClosestPoint);
/**
* Calculates the distance of a given point to the given plane. (defined by a combination of vector and rotator)
* Rotator.AxisX = U, Rotator.AxisY = Normal, Rotator.AxisZ = V
*
* @param Point Point to check distance to Orientation
* @param Orientation Rotator indicating the direction to check against
* @param Origin Point of reference used to calculate distance
* @param out_ClosestPoint Optional point that represents the closest point projected onto Plane defined by the couple (Origin, Orientation)
*
* @return distance of Point to plane
*/
simulated final function float PointDistToPlane( Vector Point, Rotator Orientation, Vector Origin, optional out vector out_ClosestPoint )
{
local vector AxisX, AxisY, AxisZ, PointNoZ, OriginNoZ;
local float fPointZ, fProjDistToAxis;
// Get orientation axis'
GetAxes(Orientation, AxisX, AxisY, AxisZ);
// Remove Z component of Point Location
fPointZ = Point dot AxisZ;
PointNoZ = Point - fPointZ * AxisZ;
// Remove Z component of Origin
OriginNoZ = Origin - (Origin dot AxisZ) * AxisZ;
// Projected distance of Point onto AxisX.
fProjDistToAxis = (PointNoZ - OriginNoZ) Dot AxisX;
out_ClosestPoint = OriginNoZ + fProjDistToAxis * AxisX + fPointZ * AxisZ;
// return distance to closest point
return VSize(out_ClosestPoint-Point);
}
/**
* Calculates a point's projection onto a plane
* @param Point point to project onto the plane
* @param A point on plane
* @param B point on plane
* @param C point on plane
* @return projection of point onto the plane defined by ABC
*/
native static final function Vector PointProjectToPlane(Vector Point, Vector A, Vector B, Vector C);
/**
* Calculates the dotted distance of vector 'Direction' to coordinate system O(AxisX,AxisY,AxisZ).
*
* Orientation: (consider 'O' the first person view of the player, and 'Direction' a vector pointing to an enemy)
* - positive azimuth means enemy is on the right of crosshair. (negative means left).
* - positive elevation means enemy is on top of crosshair, negative means below.
*
* @Note: 'Azimuth' (.X) sign is changed to represent left/right and not front/behind. front/behind is the funtion's return value.
*
* @param OutDotDist .X = 'Direction' dot AxisX relative to plane (AxisX,AxisZ). (== Cos(Azimuth))
* .Y = 'Direction' dot AxisX relative to plane (AxisX,AxisY). (== Sin(Elevation))
* @param Direction direction of target.
* @param AxisX X component of reference system.
* @param AxisY Y component of reference system.
* @param AxisZ Z component of reference system.
*
* @return true if 'Direction' is facing AxisX (Direction dot AxisX >= 0.f)
*/
native static final function bool GetDotDistance
(
out Vector2D OutDotDist,
Vector Direction,
Vector AxisX,
Vector AxisY,
Vector AxisZ
);
/**
* Calculates the angular distance of vector 'Direction' to coordinate system O(AxisX,AxisY,AxisZ).
*
* Orientation: (consider 'O' the first person view of the player, and 'Direction' a vector pointing to an enemy)
* - positive azimuth means enemy is on the right of crosshair. (negative means left).
* - positive elevation means enemy is on top of crosshair, negative means below.
*
* @param out_AngularDist .X = Azimuth angle (in radians) of 'Direction' vector compared to plane (AxisX,AxisZ).
* .Y = Elevation angle (in radians) of 'Direction' vector compared to plane (AxisX,AxisY).
* @param Direction Direction of target.
* @param AxisX X component of reference system.
* @param AxisY Y component of reference system.
* @param AxisZ Z component of reference system.
*
* @output true if 'Direction' is facing AxisX (Direction dot AxisX >= 0.f)
*/
native static final function bool GetAngularDistance
(
out Vector2D OutAngularDist,
Vector Direction,
Vector AxisX,
Vector AxisY,
Vector AxisZ
);
/**
* Converts Dot distance to angular distance.
* @see GetAngularDistance() and GetDotDistance().
*
* @param OutAngDist Angular distance in radians.
* @param DotDist Dot distance.
*/
native static final function GetAngularFromDotDist( out Vector2D OutAngDist, Vector2D DotDist );
/* transforms angular distance in radians to degrees */
static final simulated function GetAngularDegreesFromRadians( out Vector2D OutFOV )
{
OutFOV.X = OutFOV.X*RadToDeg;
OutFOV.Y = OutFOV.Y*RadToDeg;
}
/**
* Returns world space angle (in radians) of given vector
*
* @param Dir Vector to be converted into heading angle
*/
static final simulated function float GetHeadingAngle( Vector Dir )
{
local float Angle;
Angle = Acos( FClamp( Dir.X, -1.f, 1.f ) );
if( Dir.Y < 0.f )
{
Angle *= -1.f;
}
return Angle;
}
/**
* Gets the difference in world space angles in [-PI,PI] range
*
* @param A1 First angle
* @param A2 Second angle
*/
static final simulated function float FindDeltaAngle( float A1, float A2 )
{
local float Delta;
// Find the difference
Delta = A2 - A1;
// If change is larger than PI
if( Delta > PI )
{
// Flip to negative equivalent
Delta = Delta - (PI * 2.f);
}
else if( delta < -PI )
{
// Otherwise, if change is smaller than -PI
// Flip to positive equivalent
Delta = Delta + (PI * 2.f);
}
// Return delta in [-PI,PI] range
return Delta;
}
static final simulated function float UnwindHeading( float a )
{
while( a > PI )
{
a -= (PI * 2.0f);
}
while( a < -PI )
{
a += (PI * 2.0f);
}
return a;
}
/**
* Converts a float value to a 0-255 byte, assuming a range of
* 0.f to 1.f.
*
* @param inputFloat - float to convert
*
* @param bSigned - optional, assume a range of -1.f to 1.f
*
* @return byte value 0-255
*/
simulated final function byte FloatToByte(float inputFloat, optional bool bSigned)
{
if (bSigned)
{
// handle a 0.02f threshold so we can guarantee valid 0/255 values
if (inputFloat > 0.98f)
{
return 255;
}
else if (inputFloat < -0.98f)
{
return 0;
}
else
{
return byte((inputFloat+1.f)*128.f);
}
}
else
{
if (inputFloat > 0.9961f)
{
return 255;
}
else if (inputFloat < 0.004f)
{
return 0;
}
else
{
return byte(inputFloat*255.f);
}
}
}
/**
* Converts a 0-255 byte to a float value, to a range of 0.f
* to 1.f.
*
* @param inputByte - byte to convert
*
* @param bSigned - optional, spit out -1.f to 1.f instead
*
* @return newly converted value
*/
simulated final function float ByteToFloat(byte inputByte, optional bool bSigned)
{
if( bSigned )
{
return ((float(inputByte)/128.f)-1.f);
}
else
{
return (float(inputByte)/255.f);
}
}
/**
* Returns whether the object is pending kill and about to have references to it NULLed by
* the garbage collector.
*
* @return TRUE if object is pending kill, FALSE otherwise
*/
native final function bool IsPendingKill();
/** @return the name of the package this object resides in */
final function name GetPackageName()
{
local Object O;
O = self;
while (O.Outer != None)
{
O = O.Outer;
}
return O.Name;
}
/**
* Script hook to FRotationMatrix::TransformFVector().
*/
native final function vector TransformVectorByRotation(rotator SourceRotation, vector SourceVector, optional bool bInverse);
/**
* Returns a string containing a system timestamp
*/
native final function string TimeStamp();
/**
* Return the system time components.
*/
native final function GetSystemTime( out int Year, out int Month, out int DayOfWeek, out int Day, out int Hour, out int Min, out int Sec, out int MSec );
/** @return the current engine version number for this build */
native final function int GetEngineVersion();
/** @return the changelist number that was used when generating this build */
native final function int GetBuildChangelistNumber();
final function int GetRandomOptionSumFrequency( const out array<float> FreqList )
{
local float FreqSum, RandVal;
local int Idx;
for( Idx = 0; Idx < FreqList.Length; Idx++ )
{
FreqSum += FreqList[Idx];
}
RandVal = FRand() * FreqSum;
FreqSum = 0;
for( Idx = 0; Idx < FreqList.Length; Idx++ )
{
FreqSum += FreqList[Idx];
if( RandVal < FreqSum )
{
return Idx;
}
}
return -1;
}
/** @return the three character language identifier currently in use */
native static final function string GetLanguage();
/**
* Invalidate the specified Guid (sets all values to zero)
*
* @param InGuid Guid to invalidate
*/
native static final function InvalidateGuid( out Guid InGuid );
/**
* Determine if the specified Guid is valid or not
*
* @param InGuid Guid to check the validity of
*
* @return True if the specified Guid is valid, false if it is not
*/
native static final function bool IsGuidValid( const out Guid InGuid );
/** Create a new Guid */
native static final function Guid CreateGuid();
/**
* Construct a Guid from the specified string, if possible
*
* @param InGuidString String to construct the Guid from (should be in a format matching the output of GetStringFromGuid)
*
* @return A Guid constructed from the specified string, if possible; Otherwise, an invalid Guid (all zeroes)
*/
native static final function Guid GetGuidFromString( const out string InGuidString );
/**
* Get the string representation of the specified Guid
*
* @param InGuid Guid to get the string representation of
*
* @return The string representation of the specified Guid
*/
native static final function string GetStringFromGuid( const out guid InGuid );
native static final function int ProfNodeStart(string TimerName);
native static final function ProfNodeStop(optional int AssumedTimerIndex = -1);
native static final function ProfNodeSetTimeThresholdSeconds(float Threshold);
native static final function ProfNodeSetDepthThreshold(int Depth);
native static final function ProfNodeEvent(string EventName);
defaultproperties
{
}
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