ModdingSupport/Uprising/Shaders/Objects.fxh

//////////////////////////////////////////////////////////////////////////////
// ©2008 Electronic Arts Inc
//
// FX Shader for vehicles and structures. Infantry should use Infantry.fx
//////////////////////////////////////////////////////////////////////////////

//#define SUPPORT_RECOLORING 1 // Defined only in faction specific versions
//#define SUPPORT_SPECMAP 1 // Define for objects shader with specularity/envmap/self illumination map
//#define SUPPORT_LIGHTMAP 1 // Define for objects that use a lightmap (supports HDR)
//#define SPECIFY_CUSTOM_ENVMAP 1 // Define to allow environment cube map to be specified in art tool instead of taken from code binding
//#define SUPPORT_DAMAGETEXTURE 1 // Define to allow blending between a damage texture and pristine texture based on vertex or bone based alpha values
//#define SUPPORT_FILLDAMAGETEXTURE 1 // Define to allow blending between a damage texture and pristine texture based on vertex or bone based alpha values
//#define SUPPORT_JAPANBUILDUP 1 // Defined for Japanese Building Construction Shader
//#define SUPPORT_FROZEN 1 // Defined to change appearance of object to ice
//#define SUPPORT_TESLA 1 // It is what you think it is
//#define SUPPORT_ALTMAPPING 1 // Defined to change mapping coords if using Iron Curtain or Chrono Rift
//#define SUPPORT_IRONCURTAIN 1 // Defined to change appearance of object to invulnerable
//#define SUPPORT_CHRONORIFT 1 // Defined to change appearance of object to phased
//#define SUPPORT_CRUSHED 1 // Defined to change the vertex shader over time to a crushed object from Yuriko
//#define SUPPORT_XRAY 1 // Used to automagically fade out objects between Yuriko and the camera; specific to her commando levels
//#define SUPPORT_NOSHADOWS 1 // Used in Yuriko's level to remove shadow casting from specific objects
//#define SUPPORT_REFLECTION 1 // Uses the realtime reflection buffer
//#define SUPPORT_FORMATIONPREVIEW 1 // Defined to change appearance of object for formation preview
//#define SUPPORT_PSYONIC 1 // Defined for Yuriko's super power of lifting objects in the air
//#define SUPPORT_TREAD_SCROLLING 1 // Defined for animating the texcoord 0 based on the bone opacity, used for tank tread animation
//#define SUPPORT_SSAO

#define USE_INTERACTIVE_LIGHTS 1
#define PER_PIXEL_POINT_LIGHT
#define SUPPORT_CLOUDS 1
#define SUPPORT_FOG 1
#define SUPPORT_GLOBAL_LIGHTS 1
#define SUPPORT_LOCAL_LIGHTS 1
#define MaxNumPointLights 8
#define FIRSTPASS 0
#define FROZENPASS 1
#define TESLAPASS 2

#include "Common.fxh"
#include "Gamma.fxh"
#include "SSAO.fxh"
#include "ShadowMap.fxh"
#include "MacroTexture.fxh"

int _SasGlobal : SasGlobal
<
	string UIWidget = "None";
	int3 SasVersion = int3(1, 0, 0);

#if defined(SUPPORT_FORMATIONPREVIEW)	
	string RenderBin = "StaticSort1";
#elif defined(SUPPORT_XRAY)
	string RenderBin = "PartiallyTransparentWall";
#elif defined(SUPPORT_REFLECTION)
	string RenderBin = "TerrainLikeGroundObject";
#endif

	int MaxLocalLights = MaxNumPointLights;
	int MaxSupportedInstancingMode = INSTANCING_MODE_ONE_PER_DRAW_CALL;
> = 0;

#if defined(EA_PLATFORM_WINDOWS) && defined(_3DSMAX_)
// ----------------------------------------------------------------------------
// SAMPLER : nhendricks : had to pull these in here for MAX to compile
// ----------------------------------------------------------------------------
#define SAMPLER_2D_BEGIN(samplerName, annotations) \
	texture samplerName \
	< \
		annotations \
	>; \
	sampler2D samplerName##Sampler = sampler_state \
	{ \
		Texture = < samplerName >;
		
#define SAMPLER_2D_END	};

#define SAMPLER( samplerName )	samplerName##Sampler

#define SAMPLER_CUBE_BEGIN(samplerName, annotations) \
	texture samplerName \
	< \
		annotations \
	>; \
	samplerCUBE samplerName##Sampler = sampler_state \
	{ \
		Texture = < samplerName >;
		
#define SAMPLER_CUBE_END };

#if defined(_3DSMAX_)

	#define DECLARE_MAPPING_TEXCOORD(texcoordIndex) \
		int _3DSTexcoordMapping##texcoordIndex : Texcoord \
		< \
			int Texcoord = texcoordIndex; \
			int MapChannel = 1 + texcoordIndex; \
			string UIWidget = "None"; \
		>;
			
	#define DECLARE_VERTEXCOLOR_INPUT(variableName, firstTexcoordIndex, secondTexCoordIndex) \
		float3 _3DSVertexColor : TEXCOORD##firstTexcoordIndex, \
		float _3DSVertexAlpha : TEXCOORD##secondTexCoordIndex

	#define DECLARE_VERTEXCOLOR_INPUT_STRUCT(variableName, firstTexcoordIndex, secondTexCoordIndex) \
		float3 _3DSVertexColor : TEXCOORD##firstTexcoordIndex; \
		float _3DSVertexAlpha : TEXCOORD##secondTexCoordIndex
#endif

#endif


DECLARE_MAPPING_TEXCOORD(0)
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
DECLARE_MAPPING_TEXCOORD(1)
DECLARE_MAPPING_VERTEXCOLOR(2, 3)
#else
DECLARE_MAPPING_VERTEXCOLOR(1, 2)
#endif


#if defined(SUPPORT_DAMAGETEXTURE)
#define EXPRESSION_EVALUATOR_NAME "Buildings"
#else
#define EXPRESSION_EVALUATOR_NAME "Objects"
#endif

// ----------------------------------------------------------------------------
// Skinning
// ----------------------------------------------------------------------------
#define MaxSkinningBonesPerVertex 1

#include "Skinning.fxh"

// ----------------------------------------------------------------------------
// Light sources
// ----------------------------------------------------------------------------
#define NumDirectionalLightsPerPixel	2
#define NumDirectionalLightsPerPixel_M	1

// ----------------------------------------------------------------------------
// Cloud layer
// ----------------------------------------------------------------------------
SAMPLER_2D_BEGIN( CloudTexture,
	string UIWidget = "None";
	string SasBindAddress = "Terrain.Cloud.Texture";
	string ResourceName = "ShaderPreviewCloud.dds";
	)
	MinFilter = Linear;
	MagFilter = Linear;
	MipFilter = Linear;
    AddressU = Wrap;
    AddressV = Wrap;
SAMPLER_2D_END

// ----------------------------------------------------------------------------
// Environment map
// ----------------------------------------------------------------------------
SAMPLER_CUBE_BEGIN( EnvironmentTexture,
	string UIWidget = "None";
	string SasBindAddress = "Objects.LightSpaceEnvironmentMap";
	string ResourceType = "Cube";
	)
	MinFilter = Linear;
	MagFilter = Linear;
	MipFilter = Linear;
	AddressU = Clamp;
	AddressV = Clamp;
	AddressW = Clamp;
SAMPLER_CUBE_END

// ----------------------------------------------------------------------------
// Japanese Building Construction Mask
// ----------------------------------------------------------------------------
#if defined(SUPPORT_JAPANBUILDUP)
SAMPLER_2D_BEGIN( JapanBuildMaskTexture,
	string UIWidget = "None";
	string SasBindAddress = "WW3D.FXJapanBuildMask";
	)
    MipFilter = Linear;
    MinFilter = Linear;
    MagFilter = Linear;
    AddressU = WRAP;
    AddressV = WRAP;
SAMPLER_2D_END
#endif

// ----------------------------------------------------------------------------
// Frozen shader ice normal map
// ----------------------------------------------------------------------------
#if defined(SUPPORT_FROZEN) || defined(SUPPORT_TESLA)
SAMPLER_2D_BEGIN( FractalNormalMap,
	string UIWidget = "None";
	string SasBindAddress = "WW3D.FXDistortionFractal";
	)
	MinFilter = MinFilterBest;
	MagFilter = MagFilterBest;
	MipFilter = MipFilterBest;
	MaxAnisotropy = 8;
    AddressU = Wrap;
    AddressV = Wrap;
SAMPLER_2D_END
#endif

// ----------------------------------------------------------------------------
// Iron Curtain texture map
// ----------------------------------------------------------------------------
#if defined(SUPPORT_IRONCURTAIN)
	SAMPLER_2D_BEGIN( IronCurtainTexture,
		string UIWidget = "None";
		string SasBindAddress = "WW3D.FXIronCurtain";
		)
		MipFilter = Linear;
		MinFilter = Linear;
		MagFilter = Linear;
		AddressU = WRAP;
		AddressV = WRAP;
	SAMPLER_2D_END
#endif

// ----------------------------------------------------------------------------
// Chrono Rift texture map
// ----------------------------------------------------------------------------
#if defined(SUPPORT_CHRONORIFT)
	SAMPLER_2D_BEGIN( ChronoRiftTexture,
		string UIWidget = "None";
		string SasBindAddress = "WW3D.FXChronoRift";
		)
		MipFilter = Linear;
		MinFilter = Linear;
		MagFilter = Linear;
		AddressU = WRAP;
		AddressV = WRAP;
	SAMPLER_2D_END
#endif

// ----------------------------------------------------------------------------
// Tesla Hit Effect texture map
// ----------------------------------------------------------------------------
#if defined(SUPPORT_TESLA)
	SAMPLER_2D_BEGIN( TeslaTexture,
		string UIWidget = "None";
		string SasBindAddress = "WW3D.FXLightningTeslaHit";
		)
		MipFilter = Linear;
		MinFilter = Linear;
		MagFilter = Linear;
		AddressU = WRAP;
		AddressV = WRAP;
	SAMPLER_2D_END
#endif

// ----------------------------------------------------------------------------
// Xray texture map
// ----------------------------------------------------------------------------
#if defined(SUPPORT_XRAY)
	SAMPLER_2D_BEGIN( XrayTexture,
		string UIWidget = "None";
		string SasBindAddress = "WW3D.FXXrayMask";
		)
		MipFilter = Linear;
		MinFilter = Linear;
		MagFilter = Linear;
		AddressU = CLAMP;
		AddressV = CLAMP;
	SAMPLER_2D_END

	#define XRAY_TRANSPARENCY_THRESHOLD 0.05

#endif

#if defined(SUPPORT_REFLECTION) // Uses the realtime reflection buffer
// ----------------------------------------------------------------------------
// Reflection - uses water reflection buffer
// ----------------------------------------------------------------------------
SAMPLER_2D_BEGIN( ReflectionTexture,
	string UIWidget = "None";
	string SasBindAddress = "Water.ReflectionTexture";
	)
    MipFilter = Point;
    MinFilter = Linear;
    MagFilter = Linear;
    AddressU = CLAMP;
    AddressV = CLAMP;
SAMPLER_2D_END
#endif

// ----------------------------------------------------------------------------
// Editable parameters
// ----------------------------------------------------------------------------
SAMPLER_2D_BEGIN( DiffuseTexture,
	string UIName = "Diffuse Texture";
	)
	MinFilter = MinFilterBest;
	MagFilter = MagFilterBest;
	MipFilter = MipFilterBest;
	MaxAnisotropy = 8;
    AddressU = Wrap;
    AddressV = Wrap;
SAMPLER_2D_END

SAMPLER_2D_BEGIN( NormalMap,
	string UIName = "Normal Texture";
	)
	MinFilter = MinFilterBest;
	MagFilter = MagFilterBest;
	MipFilter = MipFilterBest;
	MaxAnisotropy = 8;
    AddressU = Wrap;
    AddressV = Wrap;
SAMPLER_2D_END

#if defined(SUPPORT_SPECMAP)
SAMPLER_2D_BEGIN( SpecMap,
	string UIName = "Specular Map";
	)
	MinFilter = MinFilterBest;
	MagFilter = MagFilterBest;
	MipFilter = MipFilterBest;
	MaxAnisotropy = 8;
    AddressU = Wrap;
    AddressV = Wrap;
SAMPLER_2D_END
#endif

// ----------------------------------------------------------------------------
// Light map
// ----------------------------------------------------------------------------

#if defined(SUPPORT_LIGHTMAP)
SAMPLER_2D_BEGIN( LightMap,
	string UIName = "Light Map";
	)
	MinFilter = MinFilterBest;
	MagFilter = MagFilterBest;
	MipFilter = MipFilterBest;
	MaxAnisotropy = 8;
    AddressU = Clamp;
    AddressV = Clamp;
SAMPLER_2D_END
#endif

#if defined(SUPPORT_DAMAGETEXTURE)

SAMPLER_2D_BEGIN( DamagedTexture,
	string UIName = "Damaged Texture";
	)
	MinFilter = MinFilterBest;
	MagFilter = MagFilterBest;
	MipFilter = MipFilterBest;
	MaxAnisotropy = 8;
    AddressU = Wrap;
    AddressV = Wrap;
SAMPLER_2D_END

#if defined(_3DSMAX_)

bool PreviewFullyDamaged
<
	string UIName = "Preview Fully Damaged";
	bool ExportValue = false;
> = false;

#endif // defined(_3DSMAX_)

#endif // defined(SUPPORT_DAMAGETEXTURE)


#if defined(MATERIAL_PARAMS_ALLIED)
// Fixed material parameters for ALLIED
static const float BumpScale = 1.5;
static const float3 AmbientColor = float3(0.1, 0.1, 0.1);
static const float4 DiffuseColor = float4(1.0, 1.0, 1.0, 1.0);
static const float3 SpecularColor = float3(0.8, 0.8, 0.8);
static const float SpecularExponent = 50.0;

#elif defined(MATERIAL_PARAMS_SOVIET)
// Fixed material parameters for SOVIET
static const float BumpScale = 1.5;
static const float3 AmbientColor = float3(0.1, 0.1, 0.1);
static const float4 DiffuseColor = float4(1.0, 1.0, 1.0, 1.0);
static const float3 SpecularColor = float3(0.8, 0.8, 0.8);
static const float SpecularExponent = 45.0;

#elif defined(MATERIAL_PARAMS_JAPAN)
// Fixed material parameters for JAPAN
static const float BumpScale = 1.5;
static const float3 AmbientColor = float3(0.1, 0.1, 0.1);
static const float4 DiffuseColor = float4(1.0, 1.0, 1.0, 1.0);
static const float3 SpecularColor = float3(0.8, 0.8, 0.8);
static const float SpecularExponent = 50.0;

#elif defined(SUPPORT_FROZEN)
// Fixed material parameters for frozen objects
static const float BumpScale = 3;
static const float3 AmbientColor = float3(1, 1, 1);
static const float4 DiffuseColor = float4(1.0, 1.0, 1.0, 1.0);
static const float3 SpecularColor = float3(0.8, 0.8, 0.8);
static const float SpecularExponent = 50.0;

#else
// Material parameters defined by UI
float BumpScale
<
	string UIName = "Bump Height"; 
    string UIWidget = "Slider";
    float UIMin = 0.0;
    float UIMax = 10.0;
    float UIStep = 0.1;
> = 1.0;

float3 AmbientColor
<
	string UIName = "Ambient Color"; 
    string UIWidget = "Color";
> = float3(0.4, 0.4, 0.4);

float4 DiffuseColor
<
	string UIName = "Diffuse Color"; 
    string UIWidget = "Color";
> = float4(1.0, 1.0, 1.0, 1.0);

float3 SpecularColor
<
	string UIName = "Specular Color"; 
    string UIWidget = "Color";
> = float3(0.8, 0.8, 0.8);

float SpecularExponent
<
	string UIName = "Specular Exponent"; 
    string UIWidget = "Slider";
	float UIMax = 200.0f;
	float UIMin = 0;
	float UIStep = 1.0f;
> = 50.0;

#endif // Material parameters defined by UI

#if defined(SUPPORT_SPECMAP)

float EnvMult
<
	string UIName = "Reflection Multiplier"; 
    string UIWidget = "Slider";
	float UIMax = 1.0f;
	float UIMin = 0;
	float UIStep = 0.01f;
> = 1.0;
#endif

#if defined(SUPPORT_DAMAGETEXTURE)
// For damage texture rendering we always need alpha testing to be enabled. So don't offer it as configuration option.
const bool AlphaTestEnable = true;
#else
bool AlphaTestEnable
<
	string UIName = "Alpha Test Enable";
> = false;
#endif

// ----------------------------------------------------------------------------
// Shroud
// ----------------------------------------------------------------------------
ShroudSetup Shroud
<
	string UIWidget = "None";
	string SasBindAddress = "Terrain.Shroud";
> = DEFAULT_SHROUD;

SAMPLER_2D_BEGIN( ShroudTexture,
	string UIWidget = "None";
	string SasBindAddress = "Terrain.Shroud.Texture";
	)
	MinFilter = Linear;
	MagFilter = Linear;
	MipFilter = Linear;
    AddressU = Clamp;
    AddressV = Clamp;
SAMPLER_2D_END

#if !defined(USE_INDIRECT_CONSTANT)
float OpacityOverride
<
	string UIWidget = "None";
	string SasBindAddress = "WW3D.OpacityOverride";
> = 1.0;

float3 TintColor
<
	string UIWidget = "None";
	string SasBindAddress = "WW3D.TintColor";
> = float3(1, 1, 1);
#endif // #if !defined(USE_INDIRECT_CONSTANT)


// ----------------------------------------------------------------------------
// Transformations (world transformations are in skinning header)
// ----------------------------------------------------------------------------
#if defined(_WW3D_)
#if !defined(USE_INDIRECT_CONSTANT)
float4x4 ViewProjection
<
	string UIWidget = "None";
	string SasBindAddress = "Sas.Camera.WorldToProjection";
>;

float3 EyePosition
<
	string UIWidget = "None";
	string SasBindAddress = "Sas.Camera.Position";
>;
#endif // #if !defined(USE_INDIRECT_CONSTANT)

float4x4 GetViewProjection()
{
	return ViewProjection;
}

float3 GetEyePosition()
{
    return EyePosition;
}
#else // #if defined(_WW3D_)
float4x4 View           : View;
float4x3 ViewI          : ViewInverse;
float4x4 Projection     : Projection;

float4x4 GetViewProjection()
{
	return mul(View, Projection);
}

float3 GetEyePosition()
{
    return ViewI[3];
}
#endif // #if defined(_WW3D_)

// Time (ie. material is animated)
float Time : Time;

// ----------------------------------------------------------------------------
// SHADER: Default High LOD
// ----------------------------------------------------------------------------
struct VSOutput_H
{
	float4 Position : POSITION;
	float4 TexCoord0_TexCoord1 : TEXCOORD0;
	float3x3 TangentToWorldSpace : TEXCOORD1_CENTROID;
	float3 WorldPosition : TEXCOORD4;
	float4 ShadowMapTexCoord : TEXCOORD5;
	float4 ShroudTexCoord_CloudTexCoord : TEXCOORD6;
#if defined(SUPPORT_XRAY)	
	float3 ScreenSpaceCoord : TEXCOORD7;
#endif	
	float4 Color : COLOR0;
#if defined(SUPPORT_REFLECTION)	
	float3 VertexColor : COLOR1;
#endif	
};

// ----------------------------------------------------------------------------
// SHADER: VS
// ----------------------------------------------------------------------------
#if defined(EA_PLATFORM_PS3)
VSOutput_H VS_H(VSInputSkinningOneBoneTangentFrame InSkin, 
		float2 TexCoord0 : TEXCOORD0,
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
		float2 TexCoord1 : TEXCOORD1,
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 2, 3),
#else
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 1, 2),
#endif
		uniform int numJointsPerVertex,
		uniform int isMultiPass)
{
 	VSOutput_H Out;

	float3 worldPosition = 0;
	float3 worldNormal = 0;
	float3 worldTangent = 0;
	float3 worldBinormal = 0;

	CalculatePositionAndTangentFrame(InSkin, numJointsPerVertex, worldPosition, worldNormal, worldTangent, worldBinormal);

	// Get the skins opacity value
	VertexColor.w *= GetOpacity(InSkin, numJointsPerVertex);

#if defined(_3DSMAX_) && defined(SUPPORT_DAMAGETEXTURE)
	if (PreviewFullyDamaged)
	{
		VertexColor.w = 0.0;
	}
#endif

#if !defined(SUPPORT_ALTMAPPING)
	#if defined(SUPPORT_CRUSHED)
		Out.Color = float4(AmbientLightColor * AmbientColor, 1);
	#else
		Out.Color = float4(AmbientLightColor * AmbientColor, OpacityOverride);
	#endif
	
	#if !defined(SUPPORT_REFLECTION)
		Out.Color *= VertexColor;
	#endif

#endif // SUPPORT_ALTMAPPING
 
	Out.TexCoord0_TexCoord1.xy = TexCoord0.xy;

	Out.Position = mul(float4(worldPosition, 1), GetViewProjection());

	Out.ShroudTexCoord_CloudTexCoord.xy = CalculateShroudTexCoord(Shroud, worldPosition);

	return Out;
}

#else // EA_PLATFORM_WINDOWS || EA_PLATFORM_XENON

VSOutput_H VS_H(VSInputSkinningOneBoneTangentFrame InSkin, 
		float2 TexCoord0 : TEXCOORD0,
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
		float2 TexCoord1 : TEXCOORD1,
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 2, 3),
#else
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 1, 2),
#endif
		uniform int numJointsPerVertex,
		uniform int isMultiPass)
{
	USE_VERTEXCOLOR(VertexColor);
	USE_TEXCOORD(TexCoord0);
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
	USE_TEXCOORD(TexCoord1);
#endif

	USE_DIRECTIONAL_LIGHT_INTERACTIVE(DirectionalLight, 0);

	VSOutput_H Out;

	float3 worldPosition = 0;
	float3 worldNormal = 0;
	float3 worldTangent = 0;
	float3 worldBinormal = 0;

	CalculatePositionAndTangentFrame(InSkin, numJointsPerVertex,
		worldPosition, worldNormal, worldTangent, worldBinormal);

	// Get the skins opacity value
	VertexColor.w *= GetOpacity(InSkin, numJointsPerVertex);

#if defined(_3DSMAX_) && defined(SUPPORT_DAMAGETEXTURE)
	if (PreviewFullyDamaged)
	{
		VertexColor.w = 0.0;
	}
#endif

#if defined(SUPPORT_TREAD_SCROLLING)
	// Tread scrolling uses the vertex color opacity for animating the U coordinate
	TexCoord0.x += VertexColor.w;
	// Don't use it for opacity then.
	VertexColor.w = 1.0f;
#endif

	if (isMultiPass == FROZENPASS)
	{
		// Extrude geo to create a shell for the ice
		worldPosition += worldNormal * 1.5;
	}
	
	// Build 3x3 tranform from object to tangent space
	Out.TangentToWorldSpace = float3x3(-worldBinormal, -worldTangent, worldNormal);

#if !defined(SUPPORT_ALTMAPPING)
	#if defined(SUPPORT_CRUSHED) || defined(SUPPORT_PSYONIC)
		Out.Color = float4(AmbientLightColor * AmbientColor, 1);
	#else
		Out.Color = float4(AmbientLightColor * AmbientColor, OpacityOverride);
	#endif

	// Compute remaining directional lights per vertex, others will be done in pixel shader
	float3 diffuseLight = 0;
	for (int i = NumDirectionalLightsPerPixel; i < NumDirectionalLights; i++)
	{
		diffuseLight += DirectionalLight[i].Color * max(0, dot(worldNormal, DirectionalLight[i].Direction));
	}

	Out.Color.xyz += diffuseLight * DiffuseColor;

	Out.Color.xyz /= 2; // Prevent clamping in interpolator

	#if !defined(SUPPORT_REFLECTION)
		Out.Color *= VertexColor;
	#endif
#endif // SUPPORT_ALTMAPPING

	Out.WorldPosition = worldPosition;

	Out.ShadowMapTexCoord = CalculateShadowMapTexCoord(worldPosition);

	if (isMultiPass == TESLAPASS)
	{
		// Hi-jack shadow coords as we dont use them in this pass
		Out.ShadowMapTexCoord.xy = (TexCoord0 * .003) + (worldPosition.xy * .003);
		Out.ShadowMapTexCoord.wz = (TexCoord0 * .5);
		Out.ShadowMapTexCoord.wz += Time * .15;		
	}
	
	// pass texture coordinates for fetching the diffuse and normal maps
	Out.TexCoord0_TexCoord1.xy = TexCoord0.xy;

	if (isMultiPass == FROZENPASS)
	{
		// Use world coords when mapping
		Out.TexCoord0_TexCoord1.xy = worldPosition.xy * .015;
	}

	// transform position to projection space
	ISOLATE Out.Position = mul(float4(worldPosition, 1), GetViewProjection());

#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
	float2 texCoord1 = TexCoord1;
#else
	float2 texCoord1 = TexCoord0;
#endif

	Out.TexCoord0_TexCoord1.zw = texCoord1.yx;

#if defined (SUPPORT_ALTMAPPING)
// -------------------------------------------------------------------------------
// -- Texture Coords and Mapping -------------------------------------------------
// -------------------------------------------------------------------------------

	// Build Tex coords, animate and scale ---------------------------------------
	float texScalar = .75; // Scale
	float texSpeed = Time * .3; // animate coords as a multiplier of Time
	float texDivergenceAngle = 55; // this is the angle difference between the 2 coords
	// Use the tex coords on the model but offset them slightly based on world
	// coords to keep multiple units from animating in sync
	float2 TexCoords = (TexCoord0 + (worldPosition.xy * .003)) * texScalar;

	// Build Texture Rotation Matrix And Convert Degrees to Radians --
	float cosAngle = 0;
	float sinAngle = 0;
	float2x2 uvCoordRotate = { 1.0f, 0.0f, 1.0f, 0.0f };
	sincos (texDivergenceAngle * .017453, sinAngle, cosAngle);
	
	// Build Rotation 	
	uvCoordRotate[0][0] = cosAngle;
	uvCoordRotate[0][1] = -sinAngle;
	uvCoordRotate[1][1] = uvCoordRotate[0][0];
	uvCoordRotate[1][0] = -uvCoordRotate[0][1];

	// Rotate and Animate Divergence Texture Coords --------------------
	float2 TexCoordsDiverge = mul(TexCoords, uvCoordRotate);
	TexCoordsDiverge.x += texSpeed;
	float2 TexCoordsDivergeInv = mul(TexCoords, transpose(uvCoordRotate));	
	TexCoordsDivergeInv.x += texSpeed;
	
	
	Out.TexCoord0_TexCoord1.xy = TexCoordsDiverge;
	Out.TexCoord0_TexCoord1.zw = TexCoordsDivergeInv;
	
	//Hi-jack shadow coords for this shader since we dont use them
	Out.ShadowMapTexCoord.xy = TexCoord0;
	
	Out.Color = 0;
	
#endif //SUPPORT_ALTMAPPING
	
	Out.ShroudTexCoord_CloudTexCoord.xy = CalculateShroudTexCoord(Shroud, worldPosition);
	Out.ShroudTexCoord_CloudTexCoord.zw = CalculateCloudTexCoord(Cloud, worldPosition, Time);

#if defined(SUPPORT_XRAY)

	Out.ScreenSpaceCoord.xy = normalize(mul(float4(worldPosition, 1), GetViewProjection()));
	Out.ScreenSpaceCoord.xy += .5;
	// Generate a scalar based on viewspace to cull the XRay texture from removing objects behind Yuriko
	Out.ScreenSpaceCoord.z = (saturate(length(worldPosition - GetEyePosition()) * .02  - 6));	
#endif

#if defined(SUPPORT_REFLECTION) 	//Pass Vertex Colors to the Pixel Shader
	Out.VertexColor = VertexColor.xyz;
#endif
		
	return Out;
}
#endif

// ----------------------------------------------------------------------------
// SHADER: VS_Xenon
// ----------------------------------------------------------------------------
VSOutput_H VS_Xenon(VSInputSkinningOneBoneTangentFrame InSkin, 
		float2 TexCoord0 : TEXCOORD0,
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
		float2 TexCoord1 : TEXCOORD1,
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 2, 3),
#else
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 1, 2),
#endif
		uniform int isMultiPass)
{
    int joints = NumJointsPerVertex;

	return VS_H( InSkin, TexCoord0, 
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
		TexCoord1,
#endif
		PASS_THROUGH_VERTEXCOLOR(VertexColor), min(joints, 1), isMultiPass);
}

// ----------------------------------------------------------------------------
// SHADER: PS
// ----------------------------------------------------------------------------
#if defined(EA_PLATFORM_PS3)
float4 PS_H(VSOutput_H In, uniform bool hasShadow, uniform bool recolorEnabled, 
			float2 vPos : PIXELLOC, uniform int isMultiPass) COLORTARGET
{
	USE_DIRECTIONAL_LIGHT_INTERACTIVE(DirectionalLight, 0);

	float2 texCoord0 = In.TexCoord0_TexCoord1.xy;
	float2 shroudTexCoord = In.ShroudTexCoord_CloudTexCoord.xy;

   	// Get diffuse color
   	float4 baseTexture = tex2D( SAMPLER(DiffuseTexture), texCoord0);

#if defined(SUPPORT_RECOLORING)
	if (recolorEnabled)
	{
		float4 recolorColor = tex2D( SAMPLER(SpecMap), texCoord0);
		baseTexture.xyz = lerp(baseTexture.xyz,	baseTexture.xyz * RecolorColor * 2, recolorColor.z);
		baseTexture.w = 1;
	}
#endif //defined(SUPPORT_RECOLORING)

	float4 color = baseTexture;
    color.w = In.Color.w;
	
	color.xyz *= tex2D(SAMPLER(ShroudTexture), shroudTexCoord).x;

 	return(color);
}

#else // EA_PLATFORM_WINDOWS || EA_PLATFORM_XENON

float4 PS_H(VSOutput_H In, uniform bool hasShadow, uniform bool recolorEnabled, 
			float2 vPos : PIXELLOC, uniform int isMultiPass) COLORTARGET
{
	USE_DIRECTIONAL_LIGHT_INTERACTIVE(DirectionalLight, 0);

	float2 texCoord0 = In.TexCoord0_TexCoord1.xy;
	float2 texCoord1 = In.TexCoord0_TexCoord1.wz;
	float2 shroudTexCoord = In.ShroudTexCoord_CloudTexCoord.xy;
	float2 cloudTexCoord = In.ShroudTexCoord_CloudTexCoord.zw;
	float3 worldEyeDir = normalize(GetEyePosition() - In.WorldPosition);

	// Get diffuse color
	float4 baseTexture = tex2D( SAMPLER(DiffuseTexture), texCoord0);
	
#if defined(SUPPORT_RECOLORING)
	if (recolorEnabled)
	{
		float4 recolorColor = tex2D( SAMPLER(SpecMap), texCoord0);
		baseTexture.xyz = lerp(baseTexture.xyz,	baseTexture.xyz * RecolorColor * 2, recolorColor.z);
	}
#endif //defined(SUPPORT_RECOLORING)

	baseTexture.xyz = GammaToLinear(baseTexture.xyz);

	float3 diffuse = baseTexture.xyz * DiffuseColor;

	// Get bump map normal
	float3 bumpNormal;
	bumpNormal = (float3)tex2D(SAMPLER(NormalMap), texCoord0) * 2.0 - 1.0;	
	
#if defined(SUPPORT_FROZEN)
	if (isMultiPass == FROZENPASS)
	{
		bumpNormal = (float3)tex2D(SAMPLER(FractalNormalMap), texCoord0) * 2.0 - 1.0;
	}
#endif

#if defined(SUPPORT_ALTMAPPING)
	bumpNormal = (float3)tex2D(SAMPLER(NormalMap), In.ShadowMapTexCoord.xy) * 2.0 - 1.0;
#endif

	// Scale normal to increase/decrease bump effect
	bumpNormal.xy *= BumpScale;
	
	// Bring bump normal into world space
	bumpNormal = mul(bumpNormal, In.TangentToWorldSpace);
	bumpNormal = normalize(bumpNormal);
	
	float4 color = baseTexture;
	color.xyz *= In.Color.xyz;

	float3 specularColor = SpecularColor;
	
	float shadowSampler = 1;
	if (hasShadow)
	{
		shadowSampler = shadow( SAMPLER(ShadowMap), In.ShadowMapTexCoord );
	}
	
#if defined(SUPPORT_PSYONIC)
	// Calculate Fresnel Effect
	float fresnelDiffuse = pow( 1-dot( worldEyeDir, bumpNormal), 4);
	float3 fresnelColor = fresnelDiffuse * float3(2,2,10);
	color.xyz += float3(fresnelColor * OpacityOverride);
#endif	
	
#if defined(SUPPORT_SPECMAP)
	// Read spec map
	float4 specTexture = tex2D(SAMPLER(SpecMap), texCoord0);
	float specularStrength = specTexture.x;  // Specular lighting mask
	
	if (isMultiPass == FROZENPASS)
	{
		specularStrength = 1;
		color.xyz = float3(0, 0, 0);
		diffuse.xyz = float3(.13, .33, .5);
	}

	// Compute view direction in world space
	float3 reflVect = -reflect(worldEyeDir,bumpNormal);
	
	#if defined(SUPPORT_REFLECTION)
		// Calculate reflection texture
		float4 hPosition = mul(float4(In.WorldPosition.xyz, 1), GetViewProjection());
	 	float2 reflectionTexCoord = (0.5 * (hPosition.xy + hPosition.w * float2(1.0, 1.0)) ) / hPosition.w;
		reflectionTexCoord += bumpNormal * .025;

		// Calculate Fresnel Effect
		float fresnelDiffuse = pow( 1-dot( worldEyeDir, bumpNormal), 1.5);

		float3 reflectionColor = tex2D( SAMPLER(ReflectionTexture), reflectionTexCoord.xy );
		color.xyz += reflectionColor * fresnelDiffuse;
	#endif
	
	// Although not technically correct, since we use the Cubemap to fake specular, multiply against the shadow map and add to color
	float3 envcolor = texCUBE( SAMPLER(EnvironmentTexture), reflVect).xyz;
	
	color.xyz += envcolor.xyz * DirectionalLight[0].Color * specularStrength * shadowSampler;
#endif // SUPPORT_SPECMAP


#if !defined(SUPPORT_ALTMAPPING)

	if (isMultiPass != TESLAPASS)
	{
		for (int i = 0; i < NumDirectionalLightsPerPixel; i++)
		{
			// Compute lighting
	        
			float3 cloud = float3(1, 1, 1);			
			if (i == 0)
			{
			#if defined(_WW3D_) && !defined(_W3DVIEW_)
				cloud = GammaToLinear(tex2D( SAMPLER(CloudTexture), cloudTexCoord));
			#endif
				cloud *= shadowSampler;
			}

			float4 diffuseTerm = dot(bumpNormal, DirectionalLight[i].Direction);
			float diffuseLighting = max(0, diffuseTerm);
		
			color.xyz += DirectionalLight[i].Color * cloud * (diffuse * diffuseLighting);
		}

		// Compute point lights
		float3 diffuseLight = 0;
		
		#if !defined(EA_PLATFORM_PS3)		// PS3 TODO - 'sce-cgc.exe' does not like this for some reason :(
			for (int i = 0; i < NumPointLights; i++)
			{
				diffuseLight += CalculatePointLightDiffuse(PointLight[i], In.WorldPosition, bumpNormal);
			}
		#endif

		#if defined(SUPPORT_LIGHTMAP)
			float3 lightMapTexture = GammaToLinear(tex2D(SAMPLER(LightMap), texCoord1));
			diffuseLight += lightMapTexture.xyz * 10;
		#endif

		color.xyz += diffuseLight * diffuse;
	} // (isMultiPass == FIRSTPASS)

#endif // SUPPORT_ALTMAPPING

#if defined(SUPPORT_FILLDAMAGETEXTURE) && defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float4 damagedTexture = tex2D(SAMPLER(DamagedTexture), texCoord1);
	color *= damagedTexture * (1 - In.Color.w);
#elif defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float4 damagedTexture = tex2D(SAMPLER(DamagedTexture), texCoord1);
	color *= lerp(damagedTexture, 1.0.xxxx, In.Color.w);
#elif !defined(SUPPORT_JAPANBUILDUP) && !defined(SUPPORT_ALTMAPPING)
	color.w *= In.Color.w;
#endif

#if defined(SUPPORT_IRONCURTAIN)
	float3 Texture0 = GammaToLinear(tex2D( SAMPLER(IronCurtainTexture), texCoord0 * 1));
	float3 Texture1 = GammaToLinear(tex2D( SAMPLER(IronCurtainTexture), texCoord1 * 1));
	color.xyz = Texture0 * Texture1 * 30;

	// Compute view direction in world space
	float fresnelDiffuse = pow( 1-dot( worldEyeDir, bumpNormal), 4.0);
	color.xyz += (float3(2.0,0.05,0.025) * fresnelDiffuse);
	color.w = 1;
#endif // SUPPORT_IRONCURTAIN

#if defined(SUPPORT_CHRONORIFT)
	float3 Texture0 = GammaToLinear(tex2D( SAMPLER(ChronoRiftTexture), texCoord0*2));
	float3 Texture1 = GammaToLinear(tex2D( SAMPLER(ChronoRiftTexture), texCoord1*2));
	color.xyz = Texture0 * Texture1 * 50;
	
	// Compute view direction in world space
	float fresnelDiffuse = pow( 1-dot( worldEyeDir, bumpNormal), 2.0);
	color.xyz += fresnelDiffuse * float3(0.3,0.6,3.0);
	color.xyz = min(color.xyz,2);
	color.w = 1;
#endif // SUPPORT_CHRONORIFT

#if defined(SUPPORT_FORMATIONPREVIEW)

	color.xyz = float3(0.0,0.055,0.045);

	// Compute view direction in world space
	float fresnelDiffuse = pow( 1-dot( worldEyeDir, bumpNormal), 2.5);
	color.xyz += (float3(0.0,1.0,0.0) * fresnelDiffuse * 3);
	color.xyz = min(color.xyz,2);
	color.w = OpacityOverride;
#endif // SUPPORT_FORMATIONPREVIEW

#if defined(SUPPORT_JAPANBUILDUP)
	// Get Buildup Mask
	float Mask = smoothstep(.3,.51,texCoord0.y + (In.Color.w * 1.2) - .65);	
	float buildupTexture = tex2D( SAMPLER(JapanBuildMaskTexture), texCoord0 * 50).x + .5;
	buildupTexture = pow(buildupTexture,3)*6;
	float3 maskColor = buildupTexture * float3(.9,3,.9);
	color.xyz = lerp(maskColor,color.xyz, clamp(1,0,Mask));
	clip(Mask - ((float)DEFAULT_ALPHATEST_THRESHOLD / 255));	
#endif

	if (isMultiPass == FIRSTPASS)
	{
		color.xyz *= TintColor;
	}
	
#if defined(SUPPORT_TESLA)
	if (isMultiPass == TESLAPASS)
	{
		float3 Texture0 = GammaToLinear(tex2D( SAMPLER(FractalNormalMap), In.ShadowMapTexCoord.xy));
		Texture0 = Texture0 * 2 - 1;
		float3 Texture1 = GammaToLinear(tex2D( SAMPLER(TeslaTexture), In.ShadowMapTexCoord.zw * 1.5 + (Texture0.xy * .04)));
		Texture1 *= GammaToLinear(tex2D( SAMPLER(TeslaTexture), In.ShadowMapTexCoord.wz * 3 + (Texture0.xy * .04)));
		color.xyz = Texture1 * 50;
		
		// Compute view direction in world space
		float fresnelDiffuse = pow( 1-dot( worldEyeDir, bumpNormal), 4.0);
		color.xyz += fresnelDiffuse * float3(0.07,0.15,.75);
		color.xyz = min(color.xyz,4);
		color.w = 1;
	}
#endif // SUPPORT_TESLA	

#if defined(SUPPORT_XRAY) && !defined(_3DSMAX_)
		float xrayTexture = saturate(tex2D( SAMPLER(XrayTexture), In.ScreenSpaceCoord.xy).x);
		// Use the scalar that we computed in the vertex shader to get a Z-Depth multiplier
		xrayTexture = lerp(In.ScreenSpaceCoord.z,1,xrayTexture);

		clip(xrayTexture - XRAY_TRANSPARENCY_THRESHOLD);

		color.w *= xrayTexture;
#endif

#if defined(SUPPORT_REFLECTION)
		// Do this at the end so that it also affects the reflection and environment passes
		color.xyz *= In.VertexColor;
#endif

#if defined(_WW3D_) && !defined(_W3DVIEW_)
	color.xyz *= tex2D(SAMPLER(ShroudTexture), shroudTexCoord);
#endif

#if SUPPORT_SSAO
	color.xyz *= ComputeSSAO(vPos);
#endif

	return CorrectForFrameBufferGamma(color);
}
#endif

// ----------------------------------------------------------------------------
// SHADER: PS_Xenon
// ----------------------------------------------------------------------------
float4 PS_Xenon( VSOutput_H In, float2 vPos : PIXELLOC, uniform int isMultiPass) : COLOR
{
	return PS_H( In, HasShadow, HasRecolorColors, vPos, isMultiPass);
}


// ----------------------------------------------------------------------------
// Arrays: Default_H
// ----------------------------------------------------------------------------
DEFINE_ARRAY_MULTIPLIER( VS_H_Multiplier_Final = 2 );

#define VS_H_NumJointsPerVertex(isMultiPass) \
	compile VS_3_0 VS_H(0, isMultiPass), \
	compile VS_3_0 VS_H(1, isMultiPass)

#if SUPPORTS_SHADER_ARRAYS
	vertexshader VS_H_Array[VS_H_Multiplier_Final] =
	{
		VS_H_NumJointsPerVertex(FIRSTPASS)
	};

	#if defined(SUPPORT_FROZEN)
		vertexshader VS_H_Frozen_Array[VS_H_Multiplier_Final] =
		{
			VS_H_NumJointsPerVertex(FROZENPASS)
		};
	#endif // SUPPORT_FROZEN
	
	#if defined(SUPPORT_TESLA)
		vertexshader VS_H_Tesla_Array[VS_H_Multiplier_Final] =
		{
			VS_H_NumJointsPerVertex(TESLAPASS)
		};
	#endif // SUPPORT_TESLA	
	
#endif // SUPPORTS_SHADER_ARRAYS

DEFINE_ARRAY_MULTIPLIER( PS_H_Multiplier_NumShadows = 1 );

#define PS_H_NumShadows(recolorEnabled, isMultiPass) \
	compile PS_3_0 PS_H(0, recolorEnabled, isMultiPass), \
	compile PS_3_0 PS_H(1, recolorEnabled, isMultiPass)

DEFINE_ARRAY_MULTIPLIER( PS_H_Multiplier_RecolorEnabled = PS_H_Multiplier_NumShadows * 2 );
	
#define PS_H_RecolorEnabled(isMultiPass) \
	PS_H_NumShadows(false, isMultiPass), \
	PS_H_NumShadows(true, isMultiPass)

DEFINE_ARRAY_MULTIPLIER( PS_H_Multiplier_Final = PS_H_Multiplier_RecolorEnabled * 2 );

#if SUPPORTS_SHADER_ARRAYS
	pixelshader PS_H_Array[PS_H_Multiplier_Final] =
	{
		PS_H_RecolorEnabled(FIRSTPASS)
	};

	#if defined(SUPPORT_FROZEN)
		pixelshader PS_H_Frozen_Array[PS_H_Multiplier_Final] =
		{
			PS_H_RecolorEnabled(FROZENPASS)
		};
	#endif // SUPPORT_FROZEN
	
	#if defined(SUPPORT_TESLA)
		pixelshader PS_H_Tesla_Array[PS_H_Multiplier_Final] =
		{
			PS_H_RecolorEnabled(TESLAPASS)
		};
	#endif // SUPPORT_TESLA	
	
#endif // SUPPORTS_SHADER_ARRAYS

// ----------------------------------------------------------------------------
// Technique: Default
// ----------------------------------------------------------------------------
technique Default
{
	pass p0
#if !defined(SUPPORT_DAMAGETEXTURE) && !defined(SUPPORT_CHRONORIFT) && !defined(SUPPORT_XRAY)
	<
		USE_EXPRESSION_EVALUATOR(EXPRESSION_EVALUATOR_NAME)
	>
#endif
	{
		VertexShader = ARRAY_EXPRESSION_VS( VS_H_Array,
			min(NumJointsPerVertex, 1), 
			compile VS_VERSION VS_Xenon(false) );

		PixelShader = ARRAY_EXPRESSION_PS( PS_H_Array,
			HasShadow * PS_H_Multiplier_NumShadows
			+ HasRecolorColors * PS_H_Multiplier_RecolorEnabled,
			compile PS_VERSION PS_Xenon(false) );

		ZEnable = true;
		ZFunc = ZFUNC_INFRONT;
		ZWriteEnable = true;
		CullMode = CW;

#if defined(SUPPORT_DAMAGETEXTURE)
		AlphaBlendEnable = false;
		
#elif defined(SUPPORT_CHRONORIFT)
		AlphaBlendEnable = true;
		SrcBlend = One;
		DestBlend = One;

#elif defined(SUPPORT_XRAY)		
		AlphaBlendEnable = true;

#else
		#if !EXPRESSION_EVALUATOR_ENABLED		
			AlphaBlendEnable = ( OpacityOverride < 0.99);
		#endif
		SrcBlend = SrcAlpha;
		DestBlend = InvSrcAlpha;
#endif

		AlphaFunc = GreaterEqual;
		AlphaRef = DEFAULT_ALPHATEST_THRESHOLD;

#if defined(SUPPORT_DAMAGETEXTURE)
		AlphaTestEnable = true;

#elif defined(SUPPORT_CHRONORIFT)
		AlphaTestEnable = false;		

#elif defined(SUPPORT_XRAY)		
		AlphaTestEnable = false;		
#else
	#if !EXPRESSION_EVALUATOR_ENABLED		
		AlphaTestEnable = ( AlphaTestEnable );
	#endif
#endif
	}

#if defined(SUPPORT_FROZEN)
	pass p1
	{
		VertexShader = ARRAY_EXPRESSION_VS( VS_H_Frozen_Array,
			min(NumJointsPerVertex, 1), 
			compile VS_VERSION VS_Xenon(FROZENPASS) );

		PixelShader = ARRAY_EXPRESSION_PS( PS_H_Frozen_Array,
			HasShadow * PS_H_Multiplier_NumShadows
			+ HasRecolorColors * PS_H_Multiplier_RecolorEnabled,
			compile PS_VERSION PS_Xenon(FROZENPASS) );

		ZEnable = true;
		ZFunc = ZFUNC_INFRONT;
		ZWriteEnable = false;
		CullMode = CW;

		AlphaBlendEnable = true;
		SrcBlend = One;
		DestBlend = One;

		AlphaTestEnable = false;
	}
#endif // SUPPORT_FROZEN


#if defined(SUPPORT_TESLA)
	pass p1
	{
		VertexShader = ARRAY_EXPRESSION_VS( VS_H_Tesla_Array,
			min(NumJointsPerVertex, 1), 
			compile VS_VERSION VS_Xenon(TESLAPASS) );

		PixelShader = ARRAY_EXPRESSION_PS( PS_H_Tesla_Array,
			HasShadow * PS_H_Multiplier_NumShadows
			+ HasRecolorColors * PS_H_Multiplier_RecolorEnabled,
			compile PS_VERSION PS_Xenon(TESLAPASS) );

		ZEnable = true;
		ZFunc = ZFUNC_INFRONT;
		ZWriteEnable = false;
		CullMode = CW;

		AlphaBlendEnable = true;
		SrcBlend = One;
		DestBlend = One;

		AlphaTestEnable = false;
		
		StencilEnable = false;
	}
#endif // SUPPORT_TESLA

}

#if ENABLE_LOD

// ----------------------------------------------------------------------------
// SHADER: DEFAULT (Medium)
// ----------------------------------------------------------------------------
struct VSOutput_M {

	float4 Position : POSITION;
	float4 TexCoord0_TexCoord1 : TEXCOORD0;
	float4 LightVector[NumDirectionalLightsPerPixel_M] : TEXCOORD1_CENTROID;
	float3 HalfEyeLightVector : TEXCOORD2_CENTROID;
	float4 ShroudTexCoord_CloudTexCoord : TEXCOORD3;
	float4 ShadowMapTexCoord : TEXCOORD4;
	float2 MacroTexCoord : TEXCOORD5;
#if defined(SUPPORT_ALTMAPPING) || defined(SUPPORT_TESLA) || defined(SUPPORT_PSYONIC)
	float3 WorldTangentEyeDir : TEXCOORD6;
#endif
#if defined(SUPPORT_TESLA)
	float4 TeslaTexCoord : TEXCOORD7;
#endif
#if defined(SUPPORT_XRAY)	
	float3 ScreenSpaceCoord : TEXCOORD7;
#endif
	float4 Color : COLOR0;
};

// ----------------------------------------------------------------------------
// SHADER: VS
// ----------------------------------------------------------------------------
VSOutput_M VS_M(VSInputSkinningOneBoneTangentFrame InSkin, 
		float2 TexCoord0 : TEXCOORD0,
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
		float2 TexCoord1 : TEXCOORD1,
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 2, 3),
#else
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 1, 2),
#endif
		uniform int numJointsPerVertex,
		uniform int isMultiPass)
{
	USE_VERTEXCOLOR(VertexColor);
	USE_TEXCOORD(TexCoord0);
#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
	USE_TEXCOORD(TexCoord1);
#endif

	USE_DIRECTIONAL_LIGHT_INTERACTIVE(DirectionalLight, 0);

	VSOutput_M Out;

	float3 worldPosition = 0;
	float3 worldNormal = 0;
	float3 worldTangent = 0;
	float3 worldBinormal = 0;

	CalculatePositionAndTangentFrame(InSkin, numJointsPerVertex,
		worldPosition, worldNormal, worldTangent, worldBinormal);

		// Get the skins opacity value
	VertexColor.w *= GetOpacity(InSkin, numJointsPerVertex);

#if defined(_3DSMAX_) && defined(SUPPORT_DAMAGETEXTURE)
	if (PreviewFullyDamaged)
	{
		VertexColor.w = 0.0;
	}
#endif

#if defined(SUPPORT_TREAD_SCROLLING)
	// Tread scrolling uses the vertex color opacity for animating the U coordinate
	TexCoord0.x += VertexColor.w;
	// Don't use it for opacity then.
	VertexColor.w = 1.0f;
#endif

	if (isMultiPass == FROZENPASS)
	{
		// Extrude geo to create a shell for the ice
		worldPosition += worldNormal * 1.5;
	}
	
	// transform position to projection space
	Out.Position = mul(float4(worldPosition, 1), GetViewProjection());
	
	// Compute view direction in world space
	float3 worldEyeDir = normalize(GetEyePosition() - worldPosition);

	// Build 3x3 tranform from object to tangent space
	float3x3 worldToTangentSpace = transpose(float3x3(-worldBinormal, -worldTangent, worldNormal));

	for (int i = 0; i < NumDirectionalLightsPerPixel_M; i++)
	{
		// Compute lighting direction in tangent space
		Out.LightVector[i] = float4(mul(DirectionalLight[i].Direction, worldToTangentSpace), 0);
	}

	// Compute half direction between view and light direction in tangent space
	Out.HalfEyeLightVector.xyz = normalize(mul(DirectionalLight[0].Direction + worldEyeDir, worldToTangentSpace));

#if !defined(SUPPORT_ALTMAPPING)
	#if defined(SUPPORT_CRUSHED) || defined(SUPPORT_PSYONIC)
		Out.Color = float4(AmbientLightColor * AmbientColor, 1);
	#else
		Out.Color = float4(AmbientLightColor * AmbientColor, OpacityOverride);
	#endif

	// Compute remaining directional lights per vertex, others will be done in pixel shader
	float3 diffuseLight = 0;
	for (int i = NumDirectionalLightsPerPixel_M; i < NumDirectionalLights; i++)
	{
		diffuseLight += DirectionalLight[i].Color * max(0, dot(worldNormal, DirectionalLight[i].Direction));
	}
	
	Out.Color.xyz += diffuseLight * DiffuseColor;

	Out.Color *= VertexColor;
#endif // SUPPORT_ALTMAPPING

	// pass texture coordinates for fetching the diffuse and normal maps
	Out.TexCoord0_TexCoord1.xy = TexCoord0.xy;

	if (isMultiPass == FROZENPASS)
	{
		// Use world coords when mapping
		Out.TexCoord0_TexCoord1.xy = worldPosition.xy * .015;
	}

#if defined(SUPPORT_DAMAGETEXTURE) || defined(SUPPORT_LIGHTMAP)
	float2 texCoord1 = TexCoord1;
#else
	float2 texCoord1 = TexCoord0;
#endif

	Out.TexCoord0_TexCoord1.zw = texCoord1.yx;
	
	Out.ShadowMapTexCoord = CalculateShadowMapTexCoord(worldPosition);

#if defined (SUPPORT_ALTMAPPING)
// -------------------------------------------------------------------------------
// -- Texture Coords and Mapping -------------------------------------------------
// -------------------------------------------------------------------------------

	// Build Tex coords, animate and scale ---------------------------------------
	float texScalar = .75; // Scale
	float texSpeed = Time * .3; // animate coords as a multiplier of Time
	float texDivergenceAngle = 55; // this is the angle difference between the 2 coords
	// Use the tex coords on the model but offset them slightly based on world
	// coords to keep multiple units from animating in sync
	float2 TexCoords = (TexCoord0 + (worldPosition.xy * .003)) * texScalar;

	// Build Texture Rotation Matrix And Convert Degrees to Radians --
	float cosAngle = 0;
	float sinAngle = 0;
	float2x2 uvCoordRotate = { 1.0f, 0.0f, 1.0f, 0.0f };
	sincos (texDivergenceAngle * .017453, sinAngle, cosAngle);
	
	// Build Rotation 	
	uvCoordRotate[0][0] = cosAngle;
	uvCoordRotate[0][1] = -sinAngle;
	uvCoordRotate[1][1] = uvCoordRotate[0][0];
	uvCoordRotate[1][0] = -uvCoordRotate[0][1];

	// Rotate and Animate Divergence Texture Coords --------------------
	float2 TexCoordsDiverge = mul(TexCoords, uvCoordRotate);
	TexCoordsDiverge.x += texSpeed;
	float2 TexCoordsDivergeInv = mul(TexCoords, transpose(uvCoordRotate));	
	TexCoordsDivergeInv.x += texSpeed;
	
	
	Out.TexCoord0_TexCoord1.xy = TexCoordsDiverge;
	Out.TexCoord0_TexCoord1.zw = TexCoordsDivergeInv;
	
	//Hi-jack shadow coords for this shader since we dont use them
	Out.ShadowMapTexCoord.xy = TexCoord0;
	Out.WorldTangentEyeDir = mul(worldEyeDir, worldToTangentSpace);
	
	Out.Color = 0;
	
#endif //SUPPORT_ALTMAPPING

#if defined(SUPPORT_PSYONIC)
	Out.WorldTangentEyeDir = mul(worldEyeDir, worldToTangentSpace);
#endif
	
#if defined(SUPPORT_TESLA)
		Out.WorldTangentEyeDir = mul(worldEyeDir, worldToTangentSpace);
		Out.TeslaTexCoord.xy = (TexCoord0 * .003) + (worldPosition.xy * .003);
		Out.TeslaTexCoord.wz = (TexCoord0 * .5);
		Out.TeslaTexCoord.wz += Time * .15;		
#endif
	
	Out.ShroudTexCoord_CloudTexCoord.xy = CalculateShroudTexCoord(Shroud, worldPosition);
	Out.ShroudTexCoord_CloudTexCoord.zw = CalculateCloudTexCoord(Cloud, worldPosition, Time);
	Out.MacroTexCoord = CalculateMacroTexCoord(worldPosition);

#if defined(SUPPORT_XRAY)
	Out.ScreenSpaceCoord.xy = normalize(mul(float4(worldPosition, 1), GetViewProjection()));	
	Out.ScreenSpaceCoord.xy += .5;
	// Generate a scalar based on viewspace to cull the XRay texture from removing objects behind Yuriko
	Out.ScreenSpaceCoord.z = (saturate(length(worldPosition - GetEyePosition()) * .02  - 6));		
	
#endif		
		
	return Out;
}

// ----------------------------------------------------------------------------
// SHADER: PS
// ----------------------------------------------------------------------------

// This will save us .5ms on the GPU on a 6800 card. Worth it and there is no visual difference.
#define float4 half4
#define float3 half3
#define float2 half2
#define float  half

float4 PS_M(VSOutput_M In, uniform bool hasShadow, uniform bool recolorEnabled, uniform int isMultiPass) COLORTARGET
{
	float2 texCoord0 = In.TexCoord0_TexCoord1.xy;

#if defined(SUPPORT_JAPANBUILDUP)
	// Get Buildup Mask. The pixel can be clipped early to save processing instead of at the end.
	float Mask = smoothstep(.3,.51,texCoord0.y + (In.Color.w * 1.2) - .65);	
	clip(Mask - ((float)DEFAULT_ALPHATEST_THRESHOLD / 255));	
#endif 

	float2 texCoord1 = In.TexCoord0_TexCoord1.wz;
	float2 cloudTexCoord = In.ShroudTexCoord_CloudTexCoord.zw;

	// Get diffuse color
	float4 baseTexture = tex2D( SAMPLER(DiffuseTexture), texCoord0);
	
	float3 specularColor = SpecularColor;

	// ngavalas
	// Yes there is duplicate code here, but duplicating it makes it slightly more understandable
	// as to what is going on. Basically, if we are support recoloring and specular mapping, 
	// we can save a texture read since they use the same texture.
	// If we are using one or the other then we just do the texture read and calculate
	// the values normally.
#if defined(SUPPORT_RECOLORING) && defined(SUPPORT_SPECMAP)
	float4 specTexture = tex2D( SAMPLER(SpecMap), texCoord0);
	float specularStrength = specTexture.x;  // Specular lighting mask
	specularColor = SpecularColor * specularStrength;

	if (recolorEnabled)
	{
		baseTexture.xyz = lerp(baseTexture.xyz,	baseTexture.xyz * RecolorColor * 2, specTexture.z);
	}
#elif defined(SUPPORT_SPECMAP)
	float4 specTexture = tex2D( SAMPLER(SpecMap), texCoord0);
	float specularStrength = specTexture.x;  // Specular lighting mask
	specularColor = SpecularColor * specularStrength;
#elif defined(SUPPORT_RECOLORING)
	float4 specTexture = tex2D( SAMPLER(SpecMap), texCoord0);
	if (recolorEnabled)
	{
		baseTexture.xyz = lerp(baseTexture.xyz,	baseTexture.xyz * RecolorColor * 2, specTexture.z);
	}
#endif

	float3 diffuse = baseTexture.xyz * DiffuseColor;

	// Get bump map normal
	float3 bumpNormal = (float3)tex2D( SAMPLER(NormalMap), texCoord0) * 2.0 - 1.0;

#if defined(SUPPORT_FROZEN)
	if (isMultiPass == FROZENPASS)
	{
		bumpNormal = (float3)tex2D(SAMPLER(FractalNormalMap), texCoord0) * 2.0 - 1.0;
	}
#endif

#if defined(SUPPORT_ALTMAPPING)
	bumpNormal = (float3)tex2D(SAMPLER(NormalMap), In.ShadowMapTexCoord.xy) * 2.0 - 1.0;
#endif

	// Scale normal to increase/decrease bump effect
	bumpNormal.xy *= BumpScale;
	bumpNormal = normalize(bumpNormal);
	
	float4 color = baseTexture;
	color.xyz *= In.Color.xyz;

#if defined(SUPPORT_FROZEN)
	if (isMultiPass == FROZENPASS)
	{
		specularStrength = 1;
		color.xyz = float3(0, 0, 0);
		diffuse.xyz = float3(.13, .33, .5);
	}
#endif

#if !defined(SUPPORT_ALTMAPPING)
	for (int i = 0; i < NumDirectionalLightsPerPixel_M; i++)
	{
		// Compute lighting
        float3 lightVec = In.LightVector[i].xyz;
        float3 halfVec  = In.HalfEyeLightVector.xyz;

        float4 diffuseTerm = dot( bumpNormal, lightVec );
        float4 specularTerm = dot( bumpNormal, halfVec );

		float4 lighting = lit( diffuseTerm, specularTerm, SpecularExponent );
			
		if (i == 0)
		{
			if (hasShadow)
			{
				lighting.yz *= shadow( SAMPLER(ShadowMap), In.ShadowMapTexCoord );
			}
			
			float3 cloud = float3(1, 1, 1);			
#if defined(_WW3D_) && !defined(_W3DVIEW_)
			cloud = tex2D( SAMPLER(CloudTexture), cloudTexCoord);
#endif

			color.xyz += DirectionalLight[0].Color * cloud	* (diffuse * lighting.y + specularColor * lighting.z);
		}
		else 
		{
	    	color.xyz += DirectionalLight[i].Color * (diffuse * lighting.y);
		}
	}
#endif

#if defined(SUPPORT_PSYONIC)
	// Calculate Fresnel Effect
	float fresnelDiffuse = pow( 1-dot( In.WorldTangentEyeDir, bumpNormal), 4);
	float3 fresnelColor = fresnelDiffuse * float3(2,2,10);
	color.xyz += float3(fresnelColor * OpacityOverride);
#endif	

#if defined(SUPPORT_LIGHTMAP)
	float3 lightMapTexture = tex2D(SAMPLER(LightMap), texCoord1);
	float3 diffuseLight = lightMapTexture.xyz * 10;
	color.xyz += diffuseLight * diffuse;
#endif

// this is ugly but I couldn't think of a better way to do it. -Sean

#if defined(SUPPORT_FILLDAMAGETEXTURE) && defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float4 damagedTexture = tex2D(SAMPLER(DamagedTexture), texCoord1);
//	color *= lerp(damagedTexture,  float4(1.0, 1.0, 1.0, 0.0) , ( In.Color.w));
	color *= damagedTexture * (1 - In.Color.w);
#elif defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float4 damagedTexture = tex2D(SAMPLER(DamagedTexture), texCoord1);
	color *= lerp(damagedTexture, 1.0.xxxx, In.Color.w);
#elif !defined(SUPPORT_JAPANBUILDUP)
	color.w *= In.Color.w;
#endif	

#if defined(SUPPORT_IRONCURTAIN)
	float3 Texture0 = tex2D( SAMPLER(IronCurtainTexture), texCoord0);
	float3 Texture1 = tex2D( SAMPLER(IronCurtainTexture), texCoord1);
	color.xyz = Texture0 * Texture1 * 5;
	
	// Compute view direction in world space
	float fresnelDiffuse = pow( 1-dot( In.WorldTangentEyeDir, bumpNormal), 4.0);
	color.xyz += (float3(2.0,0.05,0.025) * fresnelDiffuse);
	color.w = 1;
#endif // SUPPORT_IRONCURTAIN

#if defined(SUPPORT_CHRONORIFT)
	float3 Texture0 = tex2D( SAMPLER(ChronoRiftTexture), texCoord0*2);
	float3 Texture1 = tex2D( SAMPLER(ChronoRiftTexture), texCoord1*2);
	color.xyz = Texture0 * Texture1 * 2;
	
	// Compute view direction in world space
	float fresnelDiffuse = pow( 1-dot( In.WorldTangentEyeDir, bumpNormal), 2.0);
	color.xyz += fresnelDiffuse * float3(0.3,0.6,3.0);
	color.xyz = min(color.xyz,2);
	color.w = 1;
	
#endif // SUPPORT_CHRONORIFT

#if defined(SUPPORT_FORMATIONPREVIEW)

	color.xyz = float3(0.0,0.055,0.045);

	// Compute view direction in world space
	float fresnelDiffuse = pow( 1-dot( In.WorldTangentEyeDir, bumpNormal), 2.5);
	color.xyz += (float3(0.0,1.0,0.0) * fresnelDiffuse * 3);
	color.xyz = min(color.xyz,2);
	color.w = OpacityOverride;
#endif // SUPPORT_FORMATIONPREVIEW

#if defined(SUPPORT_JAPANBUILDUP)
	float buildupTexture = tex2D( SAMPLER(JapanBuildMaskTexture), texCoord0 * 50).x + .5;
	buildupTexture = pow(buildupTexture,3)*6;
	float3 maskColor = buildupTexture * float3(.9,3,.9);
	color.xyz = lerp(maskColor,color.xyz, clamp(1,0,Mask));
#endif

#if defined(SUPPORT_TESLA)
		float3 Texture0 = tex2D( SAMPLER(FractalNormalMap), In.TeslaTexCoord.xy);
		Texture0 = Texture0 * 2 - 1;
		float3 Texture1 = tex2D( SAMPLER(TeslaTexture), In.TeslaTexCoord.zw * 1.5 + (Texture0.xy * .04));
		Texture1 *= tex2D( SAMPLER(TeslaTexture), In.TeslaTexCoord.wz * 3 + (Texture0.xy * .04));
		color.xyz += Texture1 * 20;
		
		// Compute view direction in world space
		float fresnelDiffuse = pow( 1-dot(In.WorldTangentEyeDir, bumpNormal), 4.0);
		color.xyz += fresnelDiffuse * float3(0.07,0.15,.75);
		color.xyz = min(color.xyz,4);
		color.w = 1;

#endif // SUPPORT_TESLA

	if (isMultiPass == FIRSTPASS)
	{
		color.xyz *= TintColor;
	}

#if defined(SUPPORT_XRAY)
	float xrayTexture = saturate(tex2D( SAMPLER(XrayTexture), In.ScreenSpaceCoord.xy).x);
	// Use the scalar that we computed in the vertex shader to get a Z-Depth multiplier
	xrayTexture = lerp(In.ScreenSpaceCoord.z,1,xrayTexture);

	clip(xrayTexture - XRAY_TRANSPARENCY_THRESHOLD);

	color.w *= xrayTexture;
#endif	
	
#if defined(_WW3D_) && !defined(_W3DVIEW_)
	color.xyz *= tex2D( SAMPLER(ShroudTexture), In.ShroudTexCoord_CloudTexCoord.xy );
#endif

	return color;
}

// We only want to do this for the really expensive part. The rest of the shader can be normal.
#undef float4
#undef float3
#undef float2
#undef float


// ----------------------------------------------------------------------------
// Arrays: Default_M
// ----------------------------------------------------------------------------
DEFINE_ARRAY_MULTIPLIER( VS_M_Multiplier_Final = 2 );

#define VS_M_NumJointsPerVertex(isMultiPass) \
	compile VS_3_0 VS_M(0, isMultiPass), \
	compile VS_3_0 VS_M(1, isMultiPass)

#if SUPPORTS_SHADER_ARRAYS
vertexshader VS_M_Array[VS_M_Multiplier_Final] =
{
	VS_M_NumJointsPerVertex(FIRSTPASS)
};

	#if defined(SUPPORT_FROZEN)
	vertexshader VS_M_Frozen_Array[VS_M_Multiplier_Final] =
	{
		VS_M_NumJointsPerVertex(FROZENPASS)
	};
	#endif // SUPPORT_FROZEN
	
#endif

DEFINE_ARRAY_MULTIPLIER( PS_M_Multiplier_HasShadow = 1 );

#define PS_M_HasShadow(recolorEnabled, isMultiPass) \
	compile PS_3_0 PS_M(false, recolorEnabled, isMultiPass), \
	compile PS_3_0 PS_M(true, recolorEnabled, isMultiPass)

DEFINE_ARRAY_MULTIPLIER( PS_M_Multiplier_RecolorEnabled = PS_M_Multiplier_HasShadow * 2 );
	
#define PS_M_RecolorEnabled(isMultiPass) \
	PS_M_HasShadow(false, isMultiPass), \
	PS_M_HasShadow(true, isMultiPass)

DEFINE_ARRAY_MULTIPLIER( PS_M_Multiplier_Final = PS_M_Multiplier_RecolorEnabled * 2 );

#if SUPPORTS_SHADER_ARRAYS
pixelshader PS_M_Array[PS_M_Multiplier_Final] =
{
	PS_M_RecolorEnabled(FIRSTPASS)
};

	#if defined(SUPPORT_FROZEN)
	pixelshader PS_M_Frozen_Array[PS_M_Multiplier_Final] =
	{
		PS_M_RecolorEnabled(FROZENPASS)
	};
	#endif // SUPPORT_FROZEN

#endif

// ----------------------------------------------------------------------------
// Technique: Default_M
// ----------------------------------------------------------------------------
technique Default_M
{
	pass p0
#if !defined(SUPPORT_DAMAGETEXTURE) && !defined(SUPPORT_CHRONORIFT) && !defined(SUPPORT_XRAY)
	<
		USE_EXPRESSION_EVALUATOR(EXPRESSION_EVALUATOR_NAME)
	>
#endif
	{
		VertexShader = ARRAY_EXPRESSION_VS( VS_M_Array,
			min(NumJointsPerVertex, 1), 
			NO_ARRAY_ALTERNATIVE);

		PixelShader = ARRAY_EXPRESSION_PS( PS_M_Array,
			HasShadow * PS_M_Multiplier_HasShadow
			+ HasRecolorColors * PS_M_Multiplier_RecolorEnabled,
			NO_ARRAY_ALTERNATIVE);

		ZEnable = true;
		ZFunc = ZFUNC_INFRONT;
		ZWriteEnable = true;
		CullMode = CW;

#if defined(SUPPORT_DAMAGETEXTURE)
		AlphaBlendEnable = false;
		
#elif defined(SUPPORT_CHRONORIFT)
		AlphaBlendEnable = true;
		SrcBlend = One;
		DestBlend = One;
		
#elif defined(SUPPORT_XRAY)		
		AlphaBlendEnable = true;
		
#else
		#if !EXPRESSION_EVALUATOR_ENABLED		
			AlphaBlendEnable = ( OpacityOverride < 0.99);
		#endif
		SrcBlend = SrcAlpha;
		DestBlend = InvSrcAlpha;
#endif

		AlphaFunc = GreaterEqual;
		AlphaRef = DEFAULT_ALPHATEST_THRESHOLD;

#if defined(SUPPORT_DAMAGETEXTURE)
		AlphaTestEnable = true;

#elif defined(SUPPORT_CHRONORIFT)
		AlphaTestEnable = false;		

#elif defined(SUPPORT_XRAY)		
		AlphaTestEnable = false;
		
#else
	#if !EXPRESSION_EVALUATOR_ENABLED		
		AlphaTestEnable = ( AlphaTestEnable );
	#endif
#endif
	}

#if defined(SUPPORT_FROZEN)
	pass p1
	{
		VertexShader = ARRAY_EXPRESSION_VS( VS_M_Frozen_Array,
			min(NumJointsPerVertex, 1), 
			NO_ARRAY_ALTERNATIVE);

		PixelShader = ARRAY_EXPRESSION_PS( PS_M_Frozen_Array,
			HasShadow * PS_M_Multiplier_HasShadow
			+ HasRecolorColors * PS_M_Multiplier_RecolorEnabled,
			NO_ARRAY_ALTERNATIVE);

		ZEnable = true;
		ZFunc = ZFUNC_INFRONT;
		ZWriteEnable = false;
		CullMode = CW;

		AlphaBlendEnable = true;
		SrcBlend = One;
		DestBlend = One;

		AlphaTestEnable = false;
		
		StencilEnable = false;
	}
#endif // SUPPORT_FROZEN

}



// ----------------------------------------------------------------------------
// SHADER: Low
// ----------------------------------------------------------------------------
struct VSOutput_L
{
	float4 Position : POSITION;
	float4 Color : COLOR0;
	float4 TexCoord0_TexCoord1 : TEXCOORD0;
	float2 ShroudTexCoord : TEXCOORD1;
#if defined(SUPPORT_ALTMAPPING) || defined(SUPPORT_PSYONIC)
	float3 FallOffColor : TEXCOORD2;
#endif
#if defined(SUPPORT_XRAY)	
	float3 ScreenSpaceCoord : TEXCOORD3;
#endif	
};

// ----------------------------------------------------------------------------
// SHADER: VS
// ----------------------------------------------------------------------------
VSOutput_L VS_L(VSInputSkinningOneBoneTangentFrame InSkin, 
		float2 TexCoord0 : TEXCOORD0,
#if defined(SUPPORT_DAMAGETEXTURE)
		float2 TexCoord1 : TEXCOORD1,
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 2, 3),
#else
		DECLARE_VERTEXCOLOR_INPUT(VertexColor, 1, 2),
#endif
		uniform int numJointsPerVertex)
{
	USE_VERTEXCOLOR(VertexColor);
	USE_TEXCOORD(TexCoord0);
#if defined(SUPPORT_DAMAGETEXTURE)
	USE_TEXCOORD(TexCoord1);
#endif

	USE_DIRECTIONAL_LIGHT_INTERACTIVE(DirectionalLight, 0);

	VSOutput_L Out;

	float3 worldPosition = 0;
	float3 worldNormal = 0;
	float3 worldTangent = 0;
	float3 worldBinormal = 0;

	CalculatePositionAndTangentFrame(InSkin, numJointsPerVertex,
		worldPosition, worldNormal, worldTangent, worldBinormal);

/*
#if defined(SUPPORT_CRUSHED)
		
		float3 objectCenter = GetFirstBonePosition(0, numJointsPerVertex);
		float crushMask = frac(dot(worldPosition, 1..xxx)*.1);
		crushMask += (TexCoord0.x + TexCoord0.y) * 15;
		crushMask -= OpacityOverride;
		crushMask = clamp(int(crushMask),0,3);
		crushMask *= .33;

		float3 objectSpacePosition = worldPosition - objectCenter;
		float3 objectSpherePosition = normalize(objectSpacePosition) * 10;
		
		objectSpacePosition = lerp(objectSpherePosition, objectSpacePosition, crushMask);
		worldPosition = objectSpacePosition + objectCenter;

#endif // SUPPORT_CRUSHED			
*/		
	// Get the skins opacity value
	VertexColor.w *= GetOpacity(InSkin, numJointsPerVertex);

#if defined(_3DSMAX_) && defined(SUPPORT_DAMAGETEXTURE)
	if (PreviewFullyDamaged)
	{
		VertexColor.w = 0.0;
	}
#endif

#if defined(SUPPORT_TREAD_SCROLLING)
	// Tread scrolling uses the vertex color opacity for animating the U coordinate
	TexCoord0.x += VertexColor.w;
	// Don't use it for opacity then.
	VertexColor.w = 1.0f;
#endif

	// transform position to projection space
	Out.Position = mul(float4(worldPosition, 1), GetViewProjection());

#if !defined (SUPPORT_ALTMAPPING)
	#if defined(SUPPORT_CRUSHED) || defined(SUPPORT_PSYONIC)
		Out.Color = float4(AmbientLightColor * AmbientColor, 1);
	#else
		Out.Color = float4(AmbientLightColor * AmbientColor, OpacityOverride);
	#endif
	
	// Compute remaining directional lights per vertex, others will be done in pixel shader
	float3 diffuseLight = 0;
	for (int i = 0; i < NumDirectionalLights; i++)
	{
		diffuseLight += DirectionalLight[i].Color * max(0, dot(worldNormal, DirectionalLight[i].Direction));
	}
	
	Out.Color.xyz += diffuseLight * DiffuseColor;
	
	Out.Color *= VertexColor;
#endif // SUPPORT_ALTMAPPING

	// pass texture coordinates for fetching the diffuse and normal maps
	Out.TexCoord0_TexCoord1.xy = TexCoord0.xy;

#if defined(SUPPORT_DAMAGETEXTURE)
	float2 texCoord1 = TexCoord1;
#else
	float2 texCoord1 = TexCoord0;
#endif

#if defined (SUPPORT_ALTMAPPING)
// -------------------------------------------------------------------------------
// -- Texture Coords and Mapping -------------------------------------------------
// -------------------------------------------------------------------------------

	// Build Tex coords, animate and scale ---------------------------------------
	float texScalar = .75; // Scale
	float texSpeed = Time * .3; // animate coords as a multiplier of Time
	float texDivergenceAngle = 55; // this is the angle difference between the 2 coords
	// Use the tex coords on the model but offset them slightly based on world
	// coords to keep multiple units from animating in sync
	float2 TexCoords = (TexCoord0 + (worldPosition.xy * .003)) * texScalar;

	// Build Texture Rotation Matrix And Convert Degrees to Radians --
	float cosAngle = 0;
	float sinAngle = 0;
	float2x2 uvCoordRotate = { 1.0f, 0.0f, 1.0f, 0.0f };
	sincos (texDivergenceAngle * .017453, sinAngle, cosAngle);
	
	// Build Rotation 	
	uvCoordRotate[0][0] = cosAngle;
	uvCoordRotate[0][1] = -sinAngle;
	uvCoordRotate[1][1] = uvCoordRotate[0][0];
	uvCoordRotate[1][0] = -uvCoordRotate[0][1];

	// Rotate and Animate Divergence Texture Coords --------------------
	float2 TexCoordsDiverge = mul(TexCoords, uvCoordRotate);
	TexCoordsDiverge.x += texSpeed;
	float2 TexCoordsDivergeInv = mul(TexCoords, transpose(uvCoordRotate));	
	TexCoordsDivergeInv.x += texSpeed;
	
	
	Out.TexCoord0_TexCoord1.xy = TexCoordsDiverge;
	Out.TexCoord0_TexCoord1.zw = TexCoordsDivergeInv;
	
	Out.Color = 0;
	
	// Compute view direction in world space
	float3 worldEyeDir = normalize(GetEyePosition() - worldPosition);
	
#endif //SUPPORT_ALTMAPPING

#if defined(SUPPORT_IRONCURTAIN)
	float worldTangentEyeDir = 1 - dot(worldEyeDir, worldNormal);
	
	// Compute view direction in world space
	Out.FallOffColor = pow(worldTangentEyeDir, 4.0) * float3(2.0,0.05,0.025);
#endif // SUPPORT_IRONCURTAIN

#if defined(SUPPORT_CHRONORIFT)
	float worldTangentEyeDir = 1 - dot(worldEyeDir, worldNormal);
	
	// Compute view direction in world space
	Out.FallOffColor = pow(worldTangentEyeDir, 2.0) * float3(0.3,0.6,3.0);
#endif // SUPPORT_CHRONORIFT

#if defined(SUPPORT_FORMATIONPREVIEW)
	
	float worldTangentEyeDir = 1 - dot(worldEyeDir, worldNormal);
	
	// Compute view direction in world space
	Out.FallOffColor = pow(worldTangentEyeDir, 2.5) * float3(0.0,1.05,0.0);
#endif // SUPPORT_FORMATIONPREVIEW

#if defined(SUPPORT_PSYONIC)

	// Compute view direction in world space
	float3 worldEyeDir = normalize(GetEyePosition() - worldPosition);

	// Calculate Fresnel Effect
	float fresnelDiffuse = pow( 1-dot( worldEyeDir, worldNormal), 4);
	float3 fresnelColor = fresnelDiffuse * float3(2,2,10);
	Out.FallOffColor = float3(fresnelColor * OpacityOverride);
#endif // SUPPORT_PSYONIC

	Out.TexCoord0_TexCoord1.zw = texCoord1.yx;
	Out.ShroudTexCoord = CalculateShroudTexCoord(Shroud, worldPosition);

#if defined(SUPPORT_XRAY)
	Out.ScreenSpaceCoord.xy = normalize(mul(float4(worldPosition, 1), GetViewProjection()));	
	Out.ScreenSpaceCoord.xy += .5;

	// Generate a scalar based on viewspace to cull the XRay texture from removing objects behind Yuriko
	Out.ScreenSpaceCoord.z = (saturate(length(worldPosition - GetEyePosition()) * .02  - 6));		
	
#endif		
		
	return Out;
}

// ----------------------------------------------------------------------------
// SHADER: PS
// ----------------------------------------------------------------------------
float4 PS_L(VSOutput_L In, uniform bool recolorEnabled) COLORTARGET
{
	float2 texCoord0 = In.TexCoord0_TexCoord1.xy;
	float2 texCoord1 = In.TexCoord0_TexCoord1.wz;

	// Get diffuse color
	float4 baseTexture = tex2D( SAMPLER(DiffuseTexture), texCoord0);
	
#if defined(SUPPORT_RECOLORING)
	if (recolorEnabled)
	{
		float4 recolorColor = tex2D( SAMPLER(SpecMap), texCoord0);
		baseTexture.xyz = lerp(baseTexture.xyz,	baseTexture.xyz * RecolorColor * 2, recolorColor.z);
	}
#endif //defined(SUPPORT_RECOLORING)

	float4 color = baseTexture;
	color.xyz *= In.Color.xyz;

// this is ugly but I couldn't think of a better way to do it. -Sean

#if defined(SUPPORT_FILLDAMAGETEXTURE) && defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float4 damagedTexture = tex2D(SAMPLER(DamagedTexture), texCoord1);
	color *= damagedTexture * (1 - In.Color.w);
#elif defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float4 damagedTexture = tex2D(SAMPLER(DamagedTexture), texCoord1);
	color *= lerp(damagedTexture, 1.0.xxxx, In.Color.w);
#elif !defined(SUPPORT_JAPANBUILDUP)
	color.w *= In.Color.w;
#endif	

#if defined(SUPPORT_IRONCURTAIN)
	float3 Texture0 = tex2D( SAMPLER(IronCurtainTexture), texCoord0);
	float3 Texture1 = tex2D( SAMPLER(IronCurtainTexture), texCoord1);
	color.xyz = Texture0 * Texture1 * 5;
	
	// Compute view direction in world space
	color.xyz += In.FallOffColor;
	color.w = 1;
#endif // SUPPORT_IRONCURTAIN

#if defined(SUPPORT_CHRONORIFT)
	float3 Texture0 = tex2D( SAMPLER(ChronoRiftTexture), texCoord0);
	float3 Texture1 = tex2D( SAMPLER(ChronoRiftTexture), texCoord1);
	color.xyz = Texture0 * Texture1 * 2;
	
	color.xyz += In.FallOffColor;
	color.w = 1;
#endif // SUPPORT_CHRONORIFT

#if defined(SUPPORT_FORMATIONPREVIEW)
	color.xyz = float3(0.0,0.22,0.18);
	color.xyz += In.FallOffColor;
	color.xyz = min(color.xyz,2);
	color.w = OpacityOverride;
#endif // SUPPORT_CHRONORIFT

#if defined(SUPPORT_PSYONIC)
	color.xyz += In.FallOffColor;
#endif

	color.xyz *= TintColor;

#if defined(SUPPORT_XRAY)
	float xrayTexture = saturate(tex2D( SAMPLER(XrayTexture), In.ScreenSpaceCoord.xy).x);
	// Use the scalar that we computed in the vertex shader to get a Z-Depth multiplier
	xrayTexture = lerp(In.ScreenSpaceCoord.z,1,xrayTexture);	

	clip(xrayTexture - XRAY_TRANSPARENCY_THRESHOLD);

	color.w *= xrayTexture;
#endif		
	
#if defined(_WW3D_) && !defined(_W3DVIEW_)
	color.xyz *= tex2D( SAMPLER(ShroudTexture), In.ShroudTexCoord );
#endif

#if defined(SUPPORT_JAPANBUILDUP)
	// Get Buildup Mask
	float Mask = smoothstep(.3,.51,texCoord0.y + (In.Color.w * 1.2) - .65);	
	float buildupTexture = tex2D( SAMPLER(JapanBuildMaskTexture), texCoord0 * 50).x + .5;
	buildupTexture = pow(buildupTexture,3)*6;
	float3 maskColor = buildupTexture * float3(.9,3,.9);
	color.xyz = lerp(maskColor,color.xyz, clamp(1,0,Mask));
	clip(Mask - ((float)DEFAULT_ALPHATEST_THRESHOLD / 255));	
#endif

	return color;
}

// ----------------------------------------------------------------------------
// Arrays: Default_L
// ----------------------------------------------------------------------------
DEFINE_ARRAY_MULTIPLIER( VS_L_Multiplier_Final = 2 );

#define VS_L_NumJointsPerVertex \
	compile VS_2_0 VS_L(0), \
	compile VS_2_0 VS_L(1)

#if SUPPORTS_SHADER_ARRAYS
vertexshader VS_L_Array[VS_L_Multiplier_Final] =
{
	VS_L_NumJointsPerVertex
};
#endif

DEFINE_ARRAY_MULTIPLIER( PS_L_Multiplier_RecolorEnabled = 1 );
	
#define PS_L_RecolorEnabled \
	compile PS_2_0 PS_L(false), \
	compile PS_2_0 PS_L(true)

DEFINE_ARRAY_MULTIPLIER( PS_L_Multiplier_Final = PS_L_Multiplier_RecolorEnabled * 2 );

#if SUPPORTS_SHADER_ARRAYS
pixelshader PS_L_Array[PS_L_Multiplier_Final] =
{
	PS_L_RecolorEnabled
};
#endif

// ----------------------------------------------------------------------------
// Technique: Default_L
// ----------------------------------------------------------------------------
technique Default_L
{
	pass p0
#if !defined(SUPPORT_DAMAGETEXTURE) && !defined(SUPPORT_CHRONORIFT) && !defined(SUPPORT_XRAY)
	<
		USE_EXPRESSION_EVALUATOR(EXPRESSION_EVALUATOR_NAME)
	>
#endif
	{
		VertexShader = ARRAY_EXPRESSION_VS( VS_L_Array,
			min(NumJointsPerVertex, 1), 
			NO_ARRAY_ALTERNATIVE);

		PixelShader = ARRAY_EXPRESSION_PS( PS_L_Array,
			HasRecolorColors * PS_L_Multiplier_RecolorEnabled,
			NO_ARRAY_ALTERNATIVE);

		ZEnable = true;
		ZFunc = ZFUNC_INFRONT;
		ZWriteEnable = true;
		CullMode = CW;

#if defined(SUPPORT_DAMAGETEXTURE)
		AlphaBlendEnable = false;
		
#elif defined(SUPPORT_CHRONORIFT)
		AlphaBlendEnable = true;
		SrcBlend = One;
		DestBlend = One;

#elif defined(SUPPORT_XRAY)		
		AlphaBlendEnable = true;
		
#else
		#if !EXPRESSION_EVALUATOR_ENABLED		
			AlphaBlendEnable = ( OpacityOverride < 0.99);
		#endif
		SrcBlend = SrcAlpha;
		DestBlend = InvSrcAlpha;
#endif

		AlphaFunc = GreaterEqual;
		AlphaRef = DEFAULT_ALPHATEST_THRESHOLD;

#if defined(SUPPORT_DAMAGETEXTURE)
		AlphaTestEnable = true;

#elif defined(SUPPORT_CHRONORIFT)
		AlphaTestEnable = false;
		
#elif defined(SUPPORT_XRAY)		
		AlphaTestEnable = false;		

#else
	#if !EXPRESSION_EVALUATOR_ENABLED		
		AlphaTestEnable = ( AlphaTestEnable );
	#endif
#endif
	}
}

#endif // ENABLE_LOD

// ----------------------------------------------------------------------------
// SHADER: CreateShadowMapVS
// ----------------------------------------------------------------------------
struct VSOutput_CreateShadowMap
{
	float4 Position : POSITION;
	float2 TexCoord0 : TEXCOORD0;
#if defined(SUPPORT_DAMAGETEXTURE)
	float2 TexCoord1 : TEXCOORD2;
#endif
	float Depth : TEXCOORD1;
	float Opacity : COLOR0;
};

// ----------------------------------------------------------------------------
VSOutput_CreateShadowMap CreateShadowMapVS(VSInputSkinningOneBoneTangentFrame InSkin,
	float2 TexCoord0 : TEXCOORD0,
#if defined(SUPPORT_DAMAGETEXTURE)
	float2 TexCoord1 : TEXCOORD1,
#endif
	float4 VertexColor: COLOR0,
	uniform int numJointsPerVertex)
{
	VSOutput_CreateShadowMap Out;

	float3 worldPosition = 0;
	float3 worldNormal = 0;
	float3 worldTangent = 0;
	float3 worldBinormal = 0;

	CalculatePositionAndTangentFrame(InSkin, numJointsPerVertex,
		worldPosition, worldNormal, worldTangent, worldBinormal);

/*
#if defined(SUPPORT_CRUSHED)
		
		float3 objectCenter = GetFirstBonePosition(0, numJointsPerVertex);
		float crushMask = frac(dot(worldPosition, 1..xxx)*.1);
		crushMask += (TexCoord0.x + TexCoord0.y) * 15;
		crushMask -= OpacityOverride;
		crushMask = clamp(int(crushMask),0,3);
		crushMask *= .33;

		float3 objectSpacePosition = worldPosition - objectCenter;
		float3 objectSpherePosition = normalize(objectSpacePosition) * 10;
		
		objectSpacePosition = lerp(objectSpherePosition, objectSpacePosition, crushMask);
		worldPosition = objectSpacePosition + objectCenter;

#endif // SUPPORT_CRUSHED			
*/		
	// Get the skins opacity value, used later as blend factor for the damage texture
	VertexColor.w *= GetOpacity(InSkin, numJointsPerVertex);

#if defined(_3DSMAX_)
	// Default vertex color is 0 in Max, that's bad.
	VertexColor = 1.0;
#endif

#if defined(SUPPORT_TREAD_SCROLLING)
	// Tread scrolling uses the vertex color opacity for animating the U coordinate
	TexCoord0.x += VertexColor.w;
	// Don't use it for opacity then.
	VertexColor.w = 1.0f;
#endif

	// Transform position to projection space
	ISOLATE Out.Position = mul(float4(worldPosition, 1), GetViewProjection());	
	Out.Depth = Out.Position.z / Out.Position.w;	
	Out.Opacity = OpacityOverride * VertexColor.w;
	Out.TexCoord0 = TexCoord0;	

#if defined(SUPPORT_DAMAGETEXTURE)
	Out.TexCoord1 = TexCoord1;
#endif

	return Out;
}

// ----------------------------------------------------------------------------
float4 CreateShadowMapPS(VSOutput_CreateShadowMap In, uniform bool alphaTestEnable) COLORTARGET
{
#if defined(SUPPORT_JAPANBUILDUP)
	// Get Buildup Mask
	float Mask = smoothstep(.4,.51,In.TexCoord0.y + (In.Opacity * 1.2) - .65);	
	clip(Mask - ((float)DEFAULT_ALPHATEST_THRESHOLD / 255));
#else
	float opacity = tex2D(SAMPLER(DiffuseTexture), In.TexCoord0).w;
	
#if defined(SUPPORT_FILLDAMAGETEXTURE) && defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float damagedTexture = tex2D(SAMPLER(DamagedTexture), In.TexCoord1).w;
	opacity *= damagedTexture * (1 - In.Opacity);
#elif defined(SUPPORT_DAMAGETEXTURE)
	// Get Damaged Texture on 2nd UV Coords
	float damagedTexture = tex2D(SAMPLER(DamagedTexture), In.TexCoord1).w;
	opacity *= lerp(damagedTexture, 1.0, In.Opacity);
#elif !defined(SUPPORT_JAPANBUILDUP)
	opacity *= In.Opacity;
#endif

	if (alphaTestEnable)
	{
		// Simulate alpha testing for floating point render target
		clip(opacity - ((float)DEFAULT_ALPHATEST_THRESHOLD / 255));
	}
#endif //SUPPORT_JAPANBUILDUP

	return In.Depth;
}

// ----------------------------------------------------------------------------
// SHADER: CreateShadowMapVS_Xenon
// ----------------------------------------------------------------------------
VSOutput_CreateShadowMap CreateShadowMapVS_Xenon(VSInputSkinningOneBoneTangentFrame InSkin,
		float2 TexCoord : TEXCOORD0,
#if defined(SUPPORT_DAMAGETEXTURE)
		float2 TexCoord1 : TEXCOORD1,
#endif
		float4 VertexColor: COLOR0)
{
	return CreateShadowMapVS( InSkin,
		TexCoord,
#if defined(SUPPORT_DAMAGETEXTURE)
		TexCoord1,
#endif
		VertexColor, min(NumJointsPerVertex, 1) );
}

// ----------------------------------------------------------------------------
float4 CreateShadowMapPS_Xenon(VSOutput_CreateShadowMap In) : COLOR
{
	return CreateShadowMapPS(In, AlphaTestEnable);
}

// ----------------------------------------------------------------------------
// Technique _CreateShadowMap
// ----------------------------------------------------------------------------
DEFINE_ARRAY_MULTIPLIER( VSCreateShadowMap_Multiplier_Final = 2 );

#define VSCreateShadowMap_NumJointsPerVertex \
	compile VS_2_0 CreateShadowMapVS(0), \
	compile VS_2_0 CreateShadowMapVS(1)

#if SUPPORTS_SHADER_ARRAYS
vertexshader VSCreateShadowMap_Array[VSCreateShadowMap_Multiplier_Final] =
{
	VSCreateShadowMap_NumJointsPerVertex
};
#endif

#define PSCreateShadowMap_AlphaTestEnable \
	compile PS_2_0 CreateShadowMapPS(false), \
	compile PS_2_0 CreateShadowMapPS(true)

DEFINE_ARRAY_MULTIPLIER( PSCreateShadowMap_Multiplier_Final = 2 );

#if SUPPORTS_SHADER_ARRAYS
pixelshader PSCreateShadowMap_Array[PSCreateShadowMap_Multiplier_Final] =
{
	PSCreateShadowMap_AlphaTestEnable
};
#endif

// ----------------------------------------------------------------------------
#if defined(SUPPORT_FORMATIONPREVIEW) || defined(SUPPORT_CHRONORIFT) || defined(SUPPORT_NOSHADOWS)
technique _CreateDepthMap // Don't cast a shadow, but still render to the depth map
#else
technique _CreateShadowMap
#endif
{
	pass p0
	{
		VertexShader = ARRAY_EXPRESSION_VS( VSCreateShadowMap_Array,
			min(NumJointsPerVertex, 1),
			compile VS_VERSION CreateShadowMapVS_Xenon() );
			
		PixelShader = ARRAY_EXPRESSION_PS( PSCreateShadowMap_Array,
			AlphaTestEnable,
			compile PS_VERSION CreateShadowMapPS_Xenon() );

		ZEnable = true;
		ZFunc = ZFUNC_INFRONT;
		ZWriteEnable = true;
		CullMode = CW;
		
		AlphaBlendEnable = false;
		AlphaTestEnable = false;
	}
}