MaxSDK::Graphics Namespace Reference

Namespaces
namespace	HelperFunctionsBaseRaster
namespace	MaterialConversionHelper
	MaterialConversionHelper is a class to convert from a 3ds Max material (Mtl class) into a Viewport material (BaseMaterialHandle class) This viewport material can be assigned with :
namespace	Utilities
namespace	ViewportInstancing
	This API is about having a single INode in the scene, but having many geometries being instantiated at the GPU level in the viewport when the INode is drawn, e.g : a particles system.
namespace	ViewportVolumeDisplay
	Volume Display functions for 3ds Max's viewport This is a set of functions for an Object plug-in to support a volume display in the viewport Link with MaxGraphics.lib when using this header.

Classes
class	ARefObject
	This class implemented IRefObject interfaces. More...
class	AtomicRefCounter
	this class contains an integer which is initialized to zero. More...
class	AutoRestoreRenderNodeMaterial
	This is a utility class for assigning customized solid material to the solid mesh render item of a render node when generating render items from IMeshDisplay2::GetRenderItems() during the execution of BaseObject::UpdatePerNodeItems() More...
class	AutoRestoreWorldMatrix
class	BaseMaterialHandle
	This is base graphics material class. More...
class	BaseRasterHandle
	This is our base graphics raster resource class. More...
class	BlendState
	This class holds the blend state for all render targets. More...
class	ConnectionPoint
	ConnectionPoint is the base class that manages the connections between view fragments. More...
struct	ConsolidationData
	This a structure that holds parameters used for render item consolidation. More...
class	CustomRenderItemHandle
	CustomRenderItemHandle is a wrapper of ICustomRenderItem. More...
class	CustomRenderStageHandle
	CustomRenderStageHandle is the base wrapper class of the custom render stage. More...
class	DefaultLifeTimePolicy
class	DepthStencilState
	This class encapsulates a complete depth buffer and stencil buffer state. More...
struct	DeviceCaps
	This struct is used to store some device related information. More...
class	DisplayCallbackContext
	This class contains context which can be queried in IDisplayCallback. More...
class	DisplayTextureHelper
	Used for creating texture handles (TexHandle) and updating texture data managed by the viewport display system. More...
class	DisplayTextureHelperExt
	DisplayTextureHelperExt extends DisplayTextureHelper to support more textures Used for creating stage texture handles (TexHandle) and updating texture data managed by the viewport display system. More...
class	DrawContext
	Typically ICustomRenderItem::Draw() and ICustomRenderItem::HitTest() bring instance of this class as parameter. More...
class	EffectHandle
	EffectHandle is a class provides features similar as Effect in Direct3D This class is used for viewport display and Quicksilver. More...
class	EffectInstanceHandle
	EffectInstanceHandle is a class which stores values of parameters in an effect. More...
struct	EvaluationContext
	This struct is a collection of elements that are necessary in a render view. More...
class	Fragment
	Fragment is the base computation unit in the view system. More...
class	FragmentGraph
	FragmentGraph is a graph consisting of fragment nodes. More...
struct	FragmentMessageParameter
	Message parameters. More...
class	GenerateMeshRenderItemsContext
	This class contains all information that will be passed to Mesh::GenerateRenderItems() or MNMesh::GenerateRenderItems() to update its display data. More...
class	GeometryRenderItemHandle
	This is a special render item which used only by Mesh/MNMesh. More...
class	HitTestContext
	This is a hit test context class. More...
class	HLSLMaterialHandle
	HLSLMaterialHandle is a material class to support HLSL custom material. More...
class	IActiveShadeFragment
	This class is used to manage ActiveShade in a viewport (called ActiveShadeFragment) A view fragment is a part of the viewport drawing system. More...
class	ICamera
	The interface of a render camera for nitrous viewport. More...
class	IConsolidationKey
	This class is used as a key for a hash table. More...
class	IConsolidationRenderItem
	This class defines a consolidation render item, which is used to improve rendering performance by batching similar render items together. More...
class	IConsolidationStrategy
	This class defines a strategy to consolidate one type of consolidation key. More...
class	ICustomRenderItem
	This class is used to customize the behavior of a render item. More...
class	IDisplayCallback
	A developer would implement this interface to allow immediate mode drawing of primitives, text and markers. More...
class	IDisplayManager
	A core interface for accessing properties of the graphics library introduced in 3ds Max 2012. More...
class	IDisposable
class	IFixedViewportPipeline
	This class provide some facility to add some extended behavior to the fixed render pipeline. More...
class	IHLSLMaterialTranslator
	Facilitates translation of material parameter values to their shaders representation. More...
class	IMeshDisplay2
	Use this interface to query the per node related render items from a mesh or mnesh. More...
class	ImmediateFragment
	ImmediateFragment is a class which let application render primitives outside the render loop. More...
class	ImmediateRenderItemHandle
	This class is used to wrap user defined IDisplayCallback class. More...
class	IndexBufferHandle
	IndexBufferHandle is a memory buffer that contain index data. More...
class	INormalMappingManager
	This interface manages the normal mapping modes that can affect how 3ds Max calculates/interprets the tangent/binormal(bitangent) in vertex/pixel shading level during baking/rendering. More...
class	Input
	Class that stores input information for a fragment. More...
class	IObjectDisplay2
	To give object plugins better control of display, now object plugins can expose IObjectDisplay2 interface. More...
class	IParameterTranslator
	Facilitates translation of material and texture map parameter values to their shaders representation. More...
class	IPerViewportFilter
	The interface for filtering per viewport. More...
class	IPrimitiveRenderer
	This class is used to draw simple primitives, markers, text with given material and transformations. More...
class	IRefObject
	This class is similar to IUnknown in COM. More...
class	IRenderGeometry
	IRenderGeometry is a representation of a geometry. More...
class	IRenderItemContainer
	A render item container, it provides various methods to access the contained render items. More...
class	IRenderStateManager
	IRenderStateManager controls primitive renderer's current render style. More...
class	IRenderView
	This class is a representation of a render view which provides some common functions to manipulate a viewport. More...
class	IRenderView2
	IRenderView2 provide the access to IFixedViewportPipeline with which 3rd party developer can add some extended behavior to the fixed render pipeline. More...
class	IShaderManager
	Represents the programmable shader associated with a material or texture map plug-in. More...
class	IShaderManagerCreator
	Factory class for IShaderManager objects. More...
class	ISimpleMaterial
	ISimpleMaterial provides any material or texture plugin the ability to display itself in the new Viewport Display system in 3ds Max 2012. More...
class	ISimpleMaterialExt
	ISimpleMaterialExt extends ISimpleMaterial to support more textures. More...
class	ITextureDisplay
	This interface enables material and texture map plugins to display textures in the new viewport display system in 3ds Max 2012. More...
class	IVariableDictionary
	IVariableDictionary is a map structure that contains key/variable pairs. More...
class	IView
	This class is a representation of a basic view. More...
class	IViewportFragmentManager
	IViewportFragmentManager is used to manage the view fragment graph for viewports. More...
class	IViewportViewSetting
	Viewport Setting For The Nitrous Graphics Viewport. More...
class	IViewportViewSetting2
	Viewport Setting For The Nitrous Graphics Viewport. More...
class	IVirtualDevice
	This class provides low level access to the GPU device. More...
struct	LockedRect
	Defines a rectangular region that has been locked by a call to TextureHandle::LockRect(). More...
struct	MaterialRequiredStreamElement
	This struct describes a single stream element that will be used by the hardware shader of a material. More...
class	MaterialRequiredStreams
	This class is used for describing the mesh stream requirements of a material. More...
class	Matrix44
class	MemoryTargetHandle
	Application can use this class to create a render target in memory which can be a target input/output for a fragment node. More...
class	MeshElementDescription
	This class describes a single mesh element(which corresponds to a render item) required to be generated by calling Mesh::GenerateRenderItems() or MNMesh::GenerateRenderItems() from the specified mesh(or mnmesh). More...
class	Output
	Class that stores output information for a fragment. More...
class	PresentableTargetHandle
	This class is similar as TargetHandle. More...
struct	Query_Data_SO_Statistics
class	QueryHandle
	QueryHandle is a query object used for submitting hardware queries. More...
class	RasterizerState
	This class encapsulates a complete rasterizer state, like fill mode, cull mode, point size, etc. More...
struct	RectangleSize
	the struct that defines the width and height of one rectangle. More...
class	RefPtr
	This template class act similar as CComPtr. More...
class	RenderItemHandle
	This is the base wrapper class for all viewport render items. More...
class	RenderItemHandleArray
	This is a utility class. More...
class	RenderItemHandleDecorator
	This is a decorator class for RenderItemHandle. More...
class	RenderNodeHandle
	This class describes a graphics node. More...
class	RenderNodeIterator
	RenderNodeIterator is the iterator class to iterate all render nodes in the current render world. More...
struct	RenderRegion
	Note: The render region can set the clipping rectangle,offset and scale of render target in the screen space of render view. More...
class	RenderWorldHandle
	RenderWorldHandle is the base wrapper class of the nitrous world. More...
class	SafeReferenceObjectProxy
	This class is internally used for preventing the AddRef and Release of a pointer returned by RefPtr::operator -> from being called. More...
class	ShadowMapData
	ShadowMapData is used to get the shadow map data associated to an INode which is a light. More...
class	SimpleRenderGeometry
	SimpleRenderGeometry is a simple implementation of IRenderGeometry. More...
struct	SimpleVertexStream
	Used by DrawPrimitive and DrawIndexedPrimitive for vertex data. More...
class	SmartHandle
	This is the base wrapper class for all graphics primitive classes in max viewport: worlds, nodes, render items, materials, etc. More...
class	SolidColorMaterialHandle
	SolidColorMaterialHandle is a material class to support solid color. More...
class	StandardMaterialHandle
	StandardMaterialHandle is a material class to support phong style material . More...
class	StencilOperation
	This class encapsulates a complete set of stencil buffer operations for stencil test. More...
class	TargetBlendState
	This class holds the blend state for single render target. More...
class	TargetHandle
	Application can use this class either as a render target or convert it to texture and assign to model. More...
struct	TextureCoordStream
	This structure is used to define vertex's texture coordinate information. More...
class	TextureHandle
	This is texture class to support texture for material, such as TextureMaterialHandle. More...
class	TextureHandleUtility
	This is utility class to create TextureHandle from Texmap. More...
class	TextureMaterialHandle
	This is material class to support material with texture. More...
class	UpdateDisplayContext
	This class contains all information that will be passed to IObjectDisplay::UpdateDisplay and will be used by plugin to update its display data. More...
class	UpdateNodeContext
	This class contains node dependent information for calling IObjectDisplay2::UpdatePerNodeItems(), and IObjectDisplay2::UpdatePerViewItems() More...
class	UpdateViewContext
	This class contains view dependent information for calling IObjectDisplay2::UpdatePerViewItems() More...
class	Variable
	Variable is a simple class that stores certain data that a developer can decide at runtime. More...
class	VertexBufferHandle
	VertexBufferHandle is a memory buffer that contain vertex data. More...
class	VertexColorMaterialHandle
	VertexColorMaterialHandle is a material class to support vertex color. More...
class	ViewFragment
	Base class of all viewport fragment. More...
class	ViewParameter
	This class wrap up all viewport related parameters. More...

Typedefs
typedef MaxSDK::Array< MSTR >	TechniqueNames
typedef RefPtr< Fragment >	FragmentPtr
typedef RefPtr< FragmentGraph >	FragmentGraphPtr
typedef RefPtr< ICamera >	CameraPtr
typedef RefPtr< IConsolidationKey >	IConsolidationKeyPtr
typedef RefPtr< IConsolidationRenderItem >	IConsolidationRenderItemPtr
typedef RefPtr< ICustomRenderItem >	ICustomRenderItemPtr
typedef RefPtr< IDisplayCallback >	IDisplayCallbackPtr
typedef RefPtr< IRefObject >	RefObjectPtr
typedef RefPtr< IRenderGeometry >	IRenderGeometryPtr
typedef MaxSDK::Array< SmartHandle >	SmartHandleArray
typedef MaxSDK::Array< TargetHandle >	TargetHandleArray
typedef unsigned __int64	Identifier
	This is the unique id type of our internal graphics objects.
typedef unsigned long	Bitfields
	record the dirty flags of render view.
typedef MaxSDK::Array< VertexBufferHandle >	VertexBufferHandleArray
typedef MaxSDK::Graphics::RefPtr< ViewParameter >	ViewParameterPtr

Enumerations
enum	FrameType { FrameType_Normal , FrameType_BeginSequence , FrameType_Interactive , FrameType_EndSequence }
	Indicates the type of frame. More...
enum	RenderViewDirtyFlag { RenderViewDirtyFlagViewChanged = 0x1 , RenderViewDirtyFlagFragmentChanged = 0x2 }
	Indicates the dirty flag of render view. More...
enum	FragmentFlags { FragmentFlagsEvaluated = 0x00000001 , FragmentFlagsDirty = 0x00000002 }
	This enum contains flags that specify certain states of a fragment or fragment graph node. More...
enum	FragmentMessageID { FragmentMessageIDTimer , FragmentMessageIDEndFrame , BuiltInFragmentMessageIDCount = 0xFF }
	This enum describes types of messages a fragment could register and receive from the fragment system. More...
enum	VarType {   VT_Char , VT_UnsignedChar , VT_WideChar , VT_Short ,   VT_UnsignedShort , VT_Int , VT_UnsignedInt , VT_Long ,   VT_UnsignedLong , VT_Int64 , VT_UnsignedInt64 , VT_Float ,   VT_Double , VT_StringA , VT_StringW , VT_Dictionary ,   VT_IRefObject }
	built-in variable types. More...
enum	VertexFieldType {   VertexFieldFloat1 = 0 , VertexFieldFloat2 = 1 , VertexFieldFloat3 = 2 , VertexFieldFloat4 = 3 ,   VertexFieldColor = 4 , VertexFieldByte4 = 5 , VertexFieldShort2 = 6 , VertexFieldShort4 = 7 ,   VertexFieldShortFloat2 = 15 , VertexFieldShortFloat4 = 16 , VertexFieldInt = 20 , VertexFieldInt2 = 21 ,   VertexFieldInt3 = 22 , VertexFieldInt4 = 23 , VertexFieldTypeUnknown , VertexFieldTypeCount }
	types available for vertex fields, e.g. More...
enum	VertexFieldUsage {   VertexFieldUsagePosition = 0 , VertexFieldUsageNormal , VertexFieldUsageTexcoord , VertexFieldUsageTangent ,   VertexFieldUsageBitangent , VertexFieldUsageUnknown , VertexFieldUsageCount }
	Indicates the usage of a vertex field of a vertex buffer. More...
enum	MeshChannelCategory {   MeshChannelPosition = 0 , MeshChannelVertexNormal , MeshChannelTexcoord , MeshChannelTangent ,   MeshChannelBitangent , MeshChannelVertexColor , MeshChannelUnknown , MeshChannelFaceMap ,   MeshChannelCategoryCount }
	Indicates the data source of a vertex field of a mesh vertex buffer. More...
enum	IndexType { IndexTypeUnknown , IndexTypeShort , IndexTypeInt , IndexTypeCount }
	Buffers are composed of arrays of elements all of the same type. More...
enum	BufferUsageType {   BufferUsageStatic = 0 , BufferUsageDynamic , BufferUsageStaging , BufferUsageMask = 0xf ,   BufferUsageStreamTexture = 0x10 , BufferUsageTarget = 0x20 , BufferUsageUnorderedAccess = 0x80 , BufferUsageStructure = 0x100 ,   BufferUsageRaw = 0x200 , BufferUsageBuffer = 0x400 }
	BufferUsageType Types for OGS buffer usage. More...
enum	BufferPoolType {   BufferPoolTypeUnKnown = 0 , BufferPoolTypeDiskBuffer = 0x1 , BufferPoolTypeSystemBuffer = 0x1 << 1 , BufferPoolTypeHardwareBuffer = 0x1 << 2 ,   BufferPoolTypeInMemory = BufferPoolTypeSystemBuffer | BufferPoolTypeHardwareBuffer }
enum	VisualStyle {   VisualStyleRealistic = 0 , VisualStyleShaded , VisualStyleFacets , VisualStyleConsistentColor ,   VisualStyleHiddenLine , VisualStyleWireframe , VisualStyleBoundingBox , VisualStyleInk ,   VisualStyleColorInk , VisualStyleAcrylic , VisualStyleTech , VisualStyleGraphite ,   VisualStyleColorPencil , VisualStylePastel , VisualStyleClay , VisualStyleModelAssist ,   VisualStyleCount }
	Enum type for all visual styles of nitrous viewport. More...
enum	ViewportPreset {   ViewportPresetQuality , ViewportPresetStandard , ViewportPresetPerformance , ViewportPresetDXMode ,   ViewportPresetCustomize , ViewportPresetCount }
	Enum type for all presets of nitrous viewport. More...
enum class	BloomQuality {   Gaussian_3x3 , Gaussian_5x5 , Gaussian_7x7 , Gaussian_9x9 ,   NumValues }
	Enum for the kernel filters for the Bloom effect in the viewport. More...
enum class	ColorPipelineTargetFormat : uint8_t { kFormat_FLOAT_32 , kFormat_FLOAT_16 }
enum	ObjectDisplayRequirement { ObjectDisplayRequireLegacyDisplayMode = 0x00000001 , ObjectDisplayRequireUpdatePerViewItems = 0x00000002 }
	This enum contains flags that can be combined together to specify whether or not certain functions of IObjectDisplay2 will be supported. More...
enum	MaterialRequirementFlags { MaterialRequirementSplitByMaterialID = 0x00000001 }
	This enum defines requirement flags of material additional to mesh stream requirements of MaterialRequiredStreams. More...
enum	MeshElementType {   MeshElementTypeSolidMesh , MeshElementTypeVertexTicks , MeshElementTypeEdge , MeshElementTypeDiagonal ,   MeshElementTypeFace , MeshElementTypeNormal }
	This enum describes the type of mesh element to be generated. More...
enum	MeshPart { MeshPartSelected , MeshPartUnselected , MeshPartWhole }
	When a mesh is displayed in any sub-object level, this enum help decide which part of the mesh this mesh element belongs to. More...
enum	BuiltInMeshElementDescription {   ElementDescriptionSolidMesh , ElementDescriptionVetexTicks , ElementDescriptionWireframe , ElementDescriptionSelectedEdge ,   ElementDescriptionDiagonal , ElementDescriptionSelectedDiagonal , ElementDescriptionSelectedFace }
	This enum defines some kinds of built-in mesh element descriptions. More...
enum	NormalBumpMode { NB_3dsMax = 0 , NB_Maya , NB_DirectX , NB_MikkT }
enum	TangentBasisMode { kPerpendicularToFaceNormal = 0 , kPerpendicularToVertexNormal , kMikkT }
enum	PrimitiveType {   PrimitivePointList , PrimitiveLineList , PrimitiveLineStrip , PrimitiveTriangleList ,   PrimitiveTriangleStrip , PrimitiveLineListAdj , PrimitiveLineStripAdj , PrimitiveTriangleListAdj ,   PrimitiveTriangleStripAdj , PrimitivePatchList1 , PrimitivePatchList2 , PrimitivePatchList3 ,   PrimitivePatchList4 , PrimitivePatchList5 , PrimitivePatchList6 , PrimitivePatchList7 ,   PrimitivePatchList8 , PrimitivePatchList9 , PrimitivePatchList10 , PrimitivePatchList11 ,   PrimitivePatchList12 , PrimitivePatchList13 , PrimitivePatchList14 , PrimitivePatchList15 ,   PrimitivePatchList16 , PrimitivePatchList17 , PrimitivePatchList18 , PrimitivePatchList19 ,   PrimitivePatchList20 , PrimitivePatchList21 , PrimitivePatchList22 , PrimitivePatchList23 ,   PrimitivePatchList24 , PrimitivePatchList25 , PrimitivePatchList26 , PrimitivePatchList27 ,   PrimitivePatchList28 , PrimitivePatchList29 , PrimitivePatchList30 , PrimitivePatchList31 ,   PrimitivePatchList32 , PrimitiveTypeCount }
	Supported primitive types. More...
enum	BufferClearFlag { ClearBackbuffer = 0x1 , ClearDepthBuffer = 0x2 , ClearStencilBuffer = 0x4 , ClearAll = 0x7 }
	This flag describes the way to clear the current buffers. More...
enum	BlendSelector {   BlendSelectorBlendFactor , BlendSelectorBothInvSourceAlpha , BlendSelectorBothSourceAlpha , BlendSelectorDestinationAlpha ,   BlendSelectorDestinationColor , BlendSelectorInvBlendFactor , BlendSelectorInvDestinationAlpha , BlendSelectorInvDestinationColor ,   BlendSelectorInvSourceAlpha , BlendSelectorInvSourceColor , BlendSelectorOne , BlendSelectorSourceAlpha ,   BlendSelectorSourceAlphaSat , BlendSelectorSourceColor , BlendSelectorZero }
	blend selector. More...
enum	CullMode { CullModeCW , CullModeCCW , CullModeNone }
	cull type. More...
enum	FillMode { FillSolid , FillWireFrame }
	fill mode for polygons More...
enum	CompareFunction {   CompareFunctionAlways , CompareFunctionEqual , CompareFunctionGreater , CompareFunctionGreaterEqual ,   CompareFunctionLess , CompareFunctionLessEqual , CompareFunctionNever , CompareFunctionNotEqual }
	compare functions More...
enum	ColorWriteEnable {   ColorWriteEnableNone = 0 , ColorWriteEnableAlpha = 0x8 , ColorWriteEnableBlue = 0x4 , ColorWriteEnableGreen = 0x2 ,   ColorWriteEnableRed = 0x1 , ColorWriteEnableRedGreenBlue = 0x7 , ColorWriteEnableRedGreenBlueAlpha = 0xf , WRITEENABLE_FORCE_DWORD = 0x7fffffff }
enum	BlendOperation {   BlendOperationAdd , BlendOperationMax , BlendOperationMin , BlendOperationSubtract ,   BlendOperationReverseSubtract }
	blend operations More...
enum	StencilOperationType {   StencilOperationTypeDecrement = 8 , StencilOperationTypeDecrementSaturation = 5 , StencilOperationTypeIncrement = 7 , StencilOperationTypeIncrementSaturation = 4 ,   StencilOperationTypeInvert = 6 , StencilOperationTypeKeep = 1 , StencilOperationTypeReplace = 3 , StencilOperationTypeZeroStencil = 2 ,   STENCILOP_FORCE_DWORD = 0x7fffffff }
	Stencil buffer operation. More...
enum	AccessType {   AccessTypeNone = 0x0 , ReadAcess = 0x1 , WriteAcess = 0x2 , ReadWriteAcess = ReadAcess | WriteAcess ,   WriteDiscardAcess }
	AccessType Types for accessing buffers. More...
enum	TargetFormat : int {   TargetFormatUnkown , TargetFormatD24S8 , TargetFormatD24X8 , TargetFormatD32 ,   TargetFormatDxt1 , TargetFormatDxt2 , TargetFormatDxt3 , TargetFormatDxt4 ,   TargetFormatDxt5 , TargetFormatA8 , TargetFormatR8 , TargetFormatR16 ,   TargetFormatR16F , TargetFormatA1R5G5B5 , TargetFormatR5G6B5 , TargetFormatR32F ,   TargetFormatR16G16 , TargetFormatR16G16F , TargetFormatA8R8G8B8 , TargetFormatA8B8G8R8 ,   TargetFormatX8B8G8R8 , TargetFormatA2B10G10R10 , TargetFormatR32G32F , TargetFormatA16B16G16R16 ,   TargetFormatA16B16G16R16F , TargetFormatA32B32G32R32F , TargetFormatX8R8G8B8 , TargetFormatR32G32B32F ,   TargetFormatR32UINT , TargetFormatR32SINT , TargetFormatCount }
	TargetFormat indicates which type the target/texture is. More...
enum	GraphicFeatureLevel {   Level_Unknown = 0 , Level_NULL = 5 , Level2_0 = 20 , Level2_1 = 21 ,   Level3_0 = 30 , Level3_1 = 31 , Level4_0 = 40 , Level4_1 = 41 ,   Level4_5 = 45 , Level5_0 = 50 , Level_Count = 9 }
	This enum specifies the feature levels device supported. More...
enum	TextureType {   TextureTypeUnknown = 0 , TextureTypeImage1D = 1 , TextureTypeImage1DArray = 2 , TextureTypeImage2D = 3 ,   TextureTypeImage2DArray = 4 , TextureTypeCubeMap = 5 , TextureTypeVolume = 6 , TextureTypeCount }
	Texture type enums. More...
enum	ResourceUsage {   ResourceUsageNormal = 0 , ResourceUsageDynamic = 1 , ResourceUsageStaging = 2 , ResourceUsageMask = 0xf ,   ResourceUsageStream = 0x10 , ResourceUsageTarget = 0x20 }
	Resource usage, used for texture. More...
enum	QueryType {   QueryType_Event = 8 , QueryType_Occlusion = 9 , QueryType_TimeStamp = 10 , QueryType_Occlusion_Test = 20 ,   QueryType_SO_Overflow_Test = 21 , QueryType_SO_Stats = 22 }
	Enums for QueryHandle, indicates which query types to issue. More...
enum	ZBiasPresets { ZBiasPresets_Default = -1 , ZBiasPresets_Shaded = 0 , ZBiasPresets_Wireframe = 1 , ZBiasPresets_Gizmo = 2 }
enum	RenderItemVisibilityGroup : int { RenderItemVisible_Unknown , RenderItemVisible_Shaded , RenderItemVisible_Wireframe , RenderItemVisible_Gizmo }
	This enum defines in what group a render item is visible. More...
enum	ObjectComponentRequirement {   ObjectComponentSolidMesh = 0x00000001 , ObjectComponentWireframe = 0x00000002 , ObjectComponentVertexTicks = 0x00000004 , ObjectComponentDiagonal = 0x00000008 ,   ObjectComponentSelected = 0x00000010 , ObjectComponentUnselected = 0x00000020 , ObjectComponentBackfaceCull = 0x00000040 , ObjectComponentVertexColorSoftSelection = 0x00000080 }
	This enum contains flags that can be combined together to specify which part is required by the node when updating render items. More...

Functions
FragmentGraphAPI bool	IsNumberType (VarType type)
	Checks if the given type is number type.
FragmentGraphAPI bool	IsCompatibleType (VarType lhs, VarType rhs)
	Checks if two types can be converted to each other.
DataBridgeAPI size_t	GetVertexStride (const VertexFieldType type)
	Get the vertex stride by a given vertex type, in bytes.
DataBridgeAPI size_t	GetIndexStride (const IndexType type)
	Get the index stride by a given index type, in bytes.
GraphicsDriverAPI size_t	CombineHashCode (size_t seed, size_t hashCode)
	A utility function for generating hash code.
UtilExport MaxSDK::Graphics::IDisplayManager *	GetIDisplayManager ()
	Helper function to access the IDisplayManager core interface.
bool	IsRetainedModeEnabled ()
	Helper function to test whether the new viewport graphics system is running.
bool	IsHardwareHitTesting (ViewExp *vpt)
	Helper function to test whether the new viewport graphics system is performing hardware hit testing.
template<class RefObjectType, class SafeRefObjectType, class LifeTimePolicy>
bool	operator== (void *pPtr, const RefPtr< RefObjectType, SafeRefObjectType, LifeTimePolicy > &pInterface)
template<class RefObjectType, class SafeRefObjectType, class LifeTimePolicy>
bool	operator!= (void *pPtr, const RefPtr< RefObjectType, SafeRefObjectType, LifeTimePolicy > &pInterface)
Point4	operator* (const Matrix44 &M, const Point4 &p)
Point4	operator* (const Matrix44 &M, const Point3 &p)
GraphicsDriverAPI void	MaxWorldMatrixToMatrix44 (Matrix44 &outMatrix, const Matrix3 &inMatrix)
	Convert Matrix3 to Matrix44.
GraphicsDriverAPI void	Matrix44ToMaxWorldMatrix (Matrix3 &outMatrix, const Matrix44 &inMatrix)
	Convert Matrix44 to Matrix3.
GraphicsDriverAPI const MeshElementDescription &	GetBuiltInMeshElementDescription (BuiltInMeshElementDescription type)
	Get a specified built-in mesh element description.
GraphicsDriverAPI DWORD	GetDeviceCompatibleARGBColor (DWORD color)
	Use this function for TargetFormatA8R8G8B8 only.
GraphicsDriverAPI size_t	GetTargetFormatPixelSize (TargetFormat format)
	Get the number of bytes for each pixel by a given target format.
GraphicsDriverAPI VertexBufferHandle	GenerateInstanceData (Matrix3 *worldTransforms, size_t count)
	Generate the instance data from a Matrix3 array.
GraphicsDriverAPI VertexBufferHandle	GenerateInstanceData (Point3 *UVs, Matrix3 *worldTransforms, size_t count)
	Generate the instance data from a texture coordinates array and a Matrix3 array.
GraphicsDriverAPI bool	GenerateInstanceRenderItem (RenderItemHandle &hInstanceRenderItem, const RenderItemHandle &hTupleMeshHandle, const VertexBufferHandle &hInstanceData)
	Generate the instance render item from a tuple mesh and a Matrix3 array.
GraphicsDriverAPI bool	GenerateInstanceRenderItem (RenderItemHandle &hInstanceRenderItem, const RenderItemHandle &hTupleMeshHandle, const ViewportInstancing::InstanceDisplayGeometry *pInstanceDisplayGeometry)
	Generate the instance render item from a tuple mesh which is a ViewportInstancing::InstanceDisplayGeometry class.
IViewportFragmentManager *	GetIViewportFragmentManager ()
	Helper function to retrieve a pointer on the IViewportFragmentManager interface.
UtilExport bool	IsGpuPresent ()
	Method that verifies if at least one GPU is present on the current system.

Variables
FragmentGraphAPI Class_ID	TYPE_ID_Char
	Built-in char input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_UnsignedChar
	Built-in unsigned char input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_WideChar
	Built-in wchar_t input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_Short
	Built-in short input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_UnsignedShort
	Built-in unsigned short input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_Int
	Built-in int input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_UnsignedInt
	Built-in unsigned int input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_Long
	Built-in long input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_UnsignedLong
	Built-in unsigned long input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_Int64
	Built-in __int64 input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_UnsignedInt64
	Built-in unsigned __int64 input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_Float
	Built-in float input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_Double
	Built-in double input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_StringA
	Built-in multi-byte string input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_StringW
	Built-in Unicode string input/output type.
FragmentGraphAPI Class_ID	TYPE_ID_Dictionary
	Built-in dictionary input/output type.
const size_t	TIMER_NONE = (size_t)-1
	Use this value to unregister a timer with a fragment.
GraphicsDriverAPI IndexBufferHandle	EmptyIndexBufferHandle
GraphicsDriverAPI MaxSDK::Array< SmartHandle >	EmptySmartHandleArray
GraphicsDriverAPI TargetHandle	EmptyTargetHandle
const Identifier	NIL_ID = (Identifier)-1
	Invalid id value.
GraphicsDriverAPI VertexBufferHandle	EmptyVertexBufferHandle
GraphicsDriverAPI MaxSDK::Array< VertexBufferHandle >	EmptyVertexBufferHandleArray

Typedef Documentation

TechniqueNames

typedef MaxSDK::Array<MSTR> TechniqueNames

FragmentPtr

typedef RefPtr<Fragment> FragmentPtr

FragmentGraphPtr

typedef RefPtr<FragmentGraph> FragmentGraphPtr

CameraPtr

typedef RefPtr<ICamera> CameraPtr

IConsolidationKeyPtr

typedef RefPtr<IConsolidationKey> IConsolidationKeyPtr

IConsolidationRenderItemPtr

typedef RefPtr<IConsolidationRenderItem> IConsolidationRenderItemPtr

ICustomRenderItemPtr

typedef RefPtr<ICustomRenderItem> ICustomRenderItemPtr

IDisplayCallbackPtr

typedef RefPtr<IDisplayCallback> IDisplayCallbackPtr

RefObjectPtr

typedef RefPtr<IRefObject> RefObjectPtr

IRenderGeometryPtr

typedef RefPtr<IRenderGeometry> IRenderGeometryPtr

SmartHandleArray

typedef MaxSDK::Array<SmartHandle> SmartHandleArray

TargetHandleArray

typedef MaxSDK::Array<TargetHandle> TargetHandleArray

Identifier

typedef unsigned __int64 Identifier

This is the unique id type of our internal graphics objects.

Bitfields

typedef unsigned long Bitfields

record the dirty flags of render view.

See the enumeration RenderViewDirtyFlag.

VertexBufferHandleArray

typedef MaxSDK::Array<VertexBufferHandle> VertexBufferHandleArray

ViewParameterPtr

typedef MaxSDK::Graphics::RefPtr<ViewParameter> ViewParameterPtr

Enumeration Type Documentation

FrameType

enum FrameType

Indicates the type of frame.

Enumerator
FrameType_Normal	Same as REDRAW_NORMAL i.e., we will perform a complete redraw.
FrameType_BeginSequence	Same as REDRAW_BEGIN which indicates the beginning of a continuous render sequence(for e.g., start dragging the view cube).
FrameType_Interactive	Same as REDRAW_INTERACTIVE which indicates the continuous state of a render sequence(for e.g., while we are dragging the view cube).
FrameType_EndSequence	Same as REDRAW_END which indicates the end of a render sequence (for e.g.,when we stop dragging the view cube).

{
    FrameType_Normal, 
    FrameType_BeginSequence, 
    FrameType_Interactive,
    FrameType_EndSequence
};

RenderViewDirtyFlag

enum RenderViewDirtyFlag

Indicates the dirty flag of render view.

Enumerator
RenderViewDirtyFlagViewChanged	View elements such as width,height or position are changed.
RenderViewDirtyFlagFragmentChanged	Fragment elements such as input,out or connection are changed.

{
    RenderViewDirtyFlagViewChanged        = 0x1,

    RenderViewDirtyFlagFragmentChanged    = 0x2,
};

FragmentFlags

enum FragmentFlags

This enum contains flags that specify certain states of a fragment or fragment graph node.

Enumerator
FragmentFlagsEvaluated	Indicates whether this fragment has already been evaluated during a recursive call to FragmentGraph::Evaluate(). If this flag is true, we simply ignore evaluating this fragment an additional time.
FragmentFlagsDirty	Indicates whether this fragment is dirty and needs to be evaluated once more. Note this flag is mainly used to indicate if a viewport redraw is required.

    {
        FragmentFlagsEvaluated = 0x00000001,
        FragmentFlagsDirty = 0x00000002,
    };

FragmentMessageID

enum FragmentMessageID

This enum describes types of messages a fragment could register and receive from the fragment system.

Fragment::OnMessage is invoked whenever a fragment receives the registered messages from the fragment system.

Enumerator
FragmentMessageIDTimer	The timer message. A fragment may call Fragment::SetTimerTicks to register a timer. When the timer ticks, Fragment::OnMessage is invoked.
FragmentMessageIDEndFrame	The end frame message. A fragment will receive this message at the end of each frame.
BuiltInFragmentMessageIDCount	Preserved count of built-in message.

    {
        FragmentMessageIDTimer,
        FragmentMessageIDEndFrame,
        BuiltInFragmentMessageIDCount = 0xFF
    };

VarType

enum VarType

built-in variable types.

For more details please see class Variable.

Enumerator
VT_Char	A single char type.
VT_UnsignedChar	unsigned char type.
VT_WideChar	wchar_t type.
VT_Short	short type.
VT_UnsignedShort	unsigned short type.
VT_Int	int type.
VT_UnsignedInt	unsigned int type.
VT_Long	long type.
VT_UnsignedLong	unsigned long type.
VT_Int64	__int64 type.
VT_UnsignedInt64	unsigned __int64 type.
VT_Float	float type.
VT_Double	double type.
VT_StringA	Ascii string type.
VT_StringW	Unicode string type.
VT_Dictionary	dictionary type. If a variable is this type, it is actually a map. The key is a multi-byte string, while the value is another variable.
VT_IRefObject	A IRefObject type. The variable will hold a reference of that object.

    {
        VT_Char, 
        VT_UnsignedChar, 
        VT_WideChar, 
        VT_Short, 
        VT_UnsignedShort, 
        VT_Int, 
        VT_UnsignedInt, 
        VT_Long, 
        VT_UnsignedLong, 
        VT_Int64, 
        VT_UnsignedInt64, 
        VT_Float, 
        VT_Double, 
        VT_StringA, 
        VT_StringW, 
        VT_Dictionary, 
        VT_IRefObject, 
    };

VertexFieldType

enum VertexFieldType

types available for vertex fields, e.g.

Float4

Enumerator
VertexFieldFloat1	single float field see DXGI_FORMAT_R32_FLOAT
VertexFieldFloat2	double float field. x,y see DXGI_FORMAT_R32G32_FLOAT
VertexFieldFloat3	triple float field see DXGI_FORMAT_R32G32B32_FLOAT
VertexFieldFloat4	quad float field see DXGI_FORMAT_R32G32B32A32_FLOAT
VertexFieldColor	color field see DXGI_FORMAT_R8G8B8A8_UNORM
VertexFieldByte4	unsigned byte 4 field see DXGI_FORMAT_R8G8B8A8_UINT
VertexFieldShort2	short 2 field see DXGI_FORMAT_R16G16_SINT
VertexFieldShort4	short 4 field see DXGI_FORMAT_R16G16B16A16_SINT
VertexFieldShortFloat2	FP16 x 2 type see DXGI_FORMAT_R16G16_FLOAT.
VertexFieldShortFloat4	FP16 x 4 type see DXGI_FORMAT_R16G16B16A16_FLOAT.
VertexFieldInt	int field see DXGI_FORMAT_R32_SINT
VertexFieldInt2	int2 field see DXGI_FORMAT_R32G32_SINT
VertexFieldInt3	int3 field see DXGI_FORMAT_R32G32B32_SINT
VertexFieldInt4	int4 field see DXGI_FORMAT_R32G32B32A32_SINT
VertexFieldTypeUnknown	unknown field
VertexFieldTypeCount

    {
        VertexFieldFloat1 = 0, 

        VertexFieldFloat2 = 1, 

        VertexFieldFloat3 = 2, 

        VertexFieldFloat4 = 3, 

        VertexFieldColor = 4, 

        VertexFieldByte4 = 5, 

        VertexFieldShort2 = 6, 

        VertexFieldShort4 = 7, 
        VertexFieldShortFloat2 = 15, 

        VertexFieldShortFloat4 = 16,

        VertexFieldInt = 20,
        VertexFieldInt2 = 21,
        VertexFieldInt3 = 22,
        VertexFieldInt4 = 23,

        VertexFieldTypeUnknown, 
 
        VertexFieldTypeCount, 
    };

VertexFieldUsage

enum VertexFieldUsage

Indicates the usage of a vertex field of a vertex buffer.

This enum is used to make hardware shaders understand the usage of vertex buffer.

Enumerator
VertexFieldUsagePosition	Position.
VertexFieldUsageNormal	Normal.
VertexFieldUsageTexcoord	Texture coordinate.
VertexFieldUsageTangent	tangent
VertexFieldUsageBitangent	bitangent
VertexFieldUsageUnknown	Unknown usage.
VertexFieldUsageCount

    {
        VertexFieldUsagePosition = 0, 

        VertexFieldUsageNormal, 

        VertexFieldUsageTexcoord, 

        VertexFieldUsageTangent, 

        VertexFieldUsageBitangent, 
        
        VertexFieldUsageUnknown, 
 
        VertexFieldUsageCount, 
    };

MeshChannelCategory

enum MeshChannelCategory

Indicates the data source of a vertex field of a mesh vertex buffer.

e.g. Position, Normal, Texture, etc.

Enumerator
MeshChannelPosition	position
MeshChannelVertexNormal	vertex normal components
MeshChannelTexcoord	texture coordinate components
MeshChannelTangent	tangent components
MeshChannelBitangent	bitangent components
MeshChannelVertexColor	vertex color components
MeshChannelUnknown	Unknown data source.
MeshChannelFaceMap	face map components
MeshChannelCategoryCount

    {
        MeshChannelPosition = 0, 

        MeshChannelVertexNormal, 

        MeshChannelTexcoord, 
        MeshChannelTangent, 

        MeshChannelBitangent, 
        
        MeshChannelVertexColor, 
    
        MeshChannelUnknown, 

        MeshChannelFaceMap, 
 
        MeshChannelCategoryCount, 
    };

IndexType

enum IndexType

Buffers are composed of arrays of elements all of the same type.

This enum describes the size and interpretation of the elements in the buffer. Index buffers can have ushort or uint elements.

Enumerator
IndexTypeUnknown	not defined
IndexTypeShort	unsigned 16 bit short integer, used for index buffers.
IndexTypeInt	unsigned 32 bit integer, used for index buffers.
IndexTypeCount

    {
        IndexTypeUnknown,

        IndexTypeShort, 

        IndexTypeInt, 
 
        IndexTypeCount, 
    };

BufferUsageType

enum BufferUsageType

BufferUsageType Types for OGS buffer usage.

Enumerator
BufferUsageStatic	static usage type. Data stores in GPU memory.
BufferUsageDynamic	Dynamic buffer. If the resource contents are to be changed often, EDynamicUsage is recommended to achieve fast update. Used with the correct map flag( WriteDiscard or WriteNoOverwrite), maximum performance to change the contents will be achieved. Meaning of WriteNoOverwrite: WriteNoOverwrite signifies that the application promises not to write to data that the GPU is using. In exchange, the GPU allows the application to write to other parts of the same buffer. The application must ensure that it does not write over any data in use by the GPU. Common Usage of WriteDiscard with WriteNoOverwrite as map flags: WriteDiscard and WriteNoOverwrite are normally used in conjunction with dynamic index/vertex buffers, although they can also be used with dynamic textures. A common use of these two flags involves filling dynamic index/vertex buffers with geometry that can be seen from the camera's current position. The first time that data is entered into the buffer on a given frame, Map is called with WriteDiscard; doing so invalidates the previous contents of the buffer. The buffer is then filled with all available data. Subsequent writes to the buffer within the same frame should use WriteNoOverwrite. This will enable the CPU to access a resource that is potentially being used by the GPU as long as the restrictions described previously are respected.
BufferUsageStaging
BufferUsageMask
BufferUsageStreamTexture	Usage for stream output for vb & ibs, may be used as a texture.
BufferUsageTarget	Usage for render target, it means the resouce created from video memory and can be used as render-target for vb & ibs & textures, may be used as a render target/stream output buffer.
BufferUsageUnorderedAccess	Usage for unordered access of the resource. This allows the resource to be both read and written by a shader, through the use of atomic functions. Check the device capabilities to determine support.
BufferUsageStructure	Usage for structured buffer. If this flag is specified, the buffer must use BufferPoolTypeHardwareBuffer for pool type
BufferUsageRaw	Usage for bytes address buffer.
BufferUsageBuffer	Usage for standard buffer type If this flag is specified, user must specify dataType parameter of VertexBufferHandle::Initialize()

    {
        BufferUsageStatic = 0,
        
        BufferUsageDynamic,
 
        /* Staging usage, means it's a system memory resource
        */
        BufferUsageStaging,
 
        /*for anding off the high bits
        */
        BufferUsageMask = 0xf,       

        BufferUsageStreamTexture = 0x10,

        BufferUsageTarget = 0x20,

        BufferUsageUnorderedAccess = 0x80,

        BufferUsageStructure = 0x100,

        BufferUsageRaw = 0x200,

        BufferUsageBuffer = 0x400
    };

BufferPoolType

enum BufferPoolType

Enumerator
BufferPoolTypeUnKnown	Buffer state unknown.
BufferPoolTypeDiskBuffer	Buffer on disk.
BufferPoolTypeSystemBuffer	Buffer in system memory.
BufferPoolTypeHardwareBuffer	Buffer on GPU memory.
BufferPoolTypeInMemory	Buffer in memory mask, both system and GPU memory.

    {   
        BufferPoolTypeUnKnown = 0,

        BufferPoolTypeDiskBuffer = 0x1,

        BufferPoolTypeSystemBuffer = 0x1 << 1 ,

        BufferPoolTypeHardwareBuffer = 0x1 << 2,

        BufferPoolTypeInMemory = BufferPoolTypeSystemBuffer | BufferPoolTypeHardwareBuffer,
    };

VisualStyle

enum VisualStyle

Enum type for all visual styles of nitrous viewport.

Enumerator
VisualStyleRealistic	The realistic visual style.
VisualStyleShaded	The shaded visual style.
VisualStyleFacets	The facet visual style.
VisualStyleConsistentColor	The consistent color visual style.
VisualStyleHiddenLine	The hidden line visual style.
VisualStyleWireframe	The wireframe visual style.
VisualStyleBoundingBox	The bounding box visual style.
VisualStyleInk	The ink visual style for NPR.
VisualStyleColorInk	The color ink visual style of NPR.
VisualStyleAcrylic	The acrylic stylized visual style.
VisualStyleTech	The tech stylized visual style.
VisualStyleGraphite	The graphite stylized visual style.
VisualStyleColorPencil	The color pencil stylized visual style.
VisualStylePastel	The pastel stylized visual style.
VisualStyleClay	The clay visual style.
VisualStyleModelAssist	The Model Assist visual style from Max 2016 (smoothing using invisible edge and not smooth only groups) MAXX-34246.
VisualStyleCount	The count of all visual styles.

    {
        VisualStyleRealistic = 0,
        VisualStyleShaded,
        VisualStyleFacets,
        VisualStyleConsistentColor,
        VisualStyleHiddenLine,
        VisualStyleWireframe,
        VisualStyleBoundingBox,
        VisualStyleInk,
        VisualStyleColorInk,
        VisualStyleAcrylic,
        VisualStyleTech,
        VisualStyleGraphite,
        VisualStyleColorPencil,
        VisualStylePastel,
        VisualStyleClay,
        VisualStyleModelAssist,
        VisualStyleCount,
    };

ViewportPreset

enum ViewportPreset

Enum type for all presets of nitrous viewport.

Enumerator
ViewportPresetQuality	The quality preset.
ViewportPresetStandard	The standard preset.
ViewportPresetPerformance	The performance preset.
ViewportPresetDXMode	The DX mode preset.
ViewportPresetCustomize	The user customize preset.
ViewportPresetCount	The count of all presets.

                        {
        ViewportPresetQuality,
        ViewportPresetStandard,
        ViewportPresetPerformance,
        ViewportPresetDXMode,
        ViewportPresetCustomize,
        ViewportPresetCount
    };

BloomQuality

enum class BloomQuality

strong

Enum for the kernel filters for the Bloom effect in the viewport.

Enumerator
Gaussian_3x3
Gaussian_5x5
Gaussian_7x7
Gaussian_9x9
NumValues

    {
        Gaussian_3x3,
        Gaussian_5x5,
        Gaussian_7x7,
        Gaussian_9x9,
 
        NumValues,
    };

ColorPipelineTargetFormat

enum class ColorPipelineTargetFormat : uint8_t

strong

Enumerator
kFormat_FLOAT_32
kFormat_FLOAT_16

{
    kFormat_FLOAT_32,   // 32 bits float per component, the default format used in viewport color pipeline.
    kFormat_FLOAT_16,   // 16 bits float per component, use this for saving GPU memory with lower color fidelity in viewport color pipeline.
};

ObjectDisplayRequirement

enum ObjectDisplayRequirement

This enum contains flags that can be combined together to specify whether or not certain functions of IObjectDisplay2 will be supported.

Enumerator
ObjectDisplayRequireLegacyDisplayMode	Check if this plugin contains legacy display code and want legacy code to be called as well. Signal this bit if contains legacy display code. Default value for this bit is false.
ObjectDisplayRequireUpdatePerViewItems	Trying to update items on per view basis is very time consuming. So only signal this bit if there are actual per view-dependent render items to update. Otherwise call to UpdatePerViewItems will be ignored. Default value for this bit is false.

{
    ObjectDisplayRequireLegacyDisplayMode = 0x00000001,
    ObjectDisplayRequireUpdatePerViewItems = 0x00000002,
};

MaterialRequirementFlags

enum MaterialRequirementFlags

This enum defines requirement flags of material additional to mesh stream requirements of MaterialRequiredStreams.

Enumerator
MaterialRequirementSplitByMaterialID	Plug-in needs to split mesh to sub meshes according to face material id. This flag is on when the material is multi/sub material.

{
    MaterialRequirementSplitByMaterialID        = 0x00000001, 
};

MeshElementType

enum MeshElementType

This enum describes the type of mesh element to be generated.

Each mesh element corresponds to a specific render item generated by calling Mesh::GenerateRenderItems() or MNMesh::GenerateRenderItems().

Enumerator
MeshElementTypeSolidMesh	Solid Mesh, it could be: vertex color mesh or general mesh. This will be displayed in any viewport that requires smooth mesh.
MeshElementTypeVertexTicks	Vertex ticks. This will be displayed when the node has "Vertex Ticks" display option on or the vertex tick sub-object be selected.
MeshElementTypeEdge	Edge mesh, this layer includes the edges. This will be displayed in viewport that has "wireframe" or "hidden line" on or when the edge sub-object level is selected.
MeshElementTypeDiagonal	Diagonal Mesh. This is the dotted edge lines when user turn off "edges only" display property of a node and enable the wireframe mode of viewport.
MeshElementTypeFace	Face Mesh. This is the face render item of the mesh when this mesh is displayed in face sub-object level.
MeshElementTypeNormal	Mesh normals. This mesh element is required when we need to show all normals of selected face.

{
    MeshElementTypeSolidMesh,
    MeshElementTypeVertexTicks,
    MeshElementTypeEdge,
    MeshElementTypeDiagonal, 
    MeshElementTypeFace,
    MeshElementTypeNormal
};

MeshPart

enum MeshPart

When a mesh is displayed in any sub-object level, this enum help decide which part of the mesh this mesh element belongs to.

Enumerator
MeshPartSelected	Selected part. Only the selected part of the mesh will be displayed. Remarks For an edge/diagonal/face mesh element, this value indicates that the mesh element only includes the selected edges/diagonals/faces of the mesh. For a vertex ticks mesh element, it will include the whole of the mesh. But selected vertices will be displayed in red(indicating they're selected).
MeshPartUnselected	Unselected part. Only the unselected part of the mesh will be displayed. Remarks For an edge/diagonal/face mesh element, this value indicates that the render item only include the unselected edges/diagonals/faces of the mesh. For a vertex ticks mesh element, it will include the whole of the mesh. But selected vertices won't be displayed in red.
MeshPartWhole	Whole part. This value indicates an render item includes the whole of the mesh.

{
    MeshPartSelected,
    MeshPartUnselected,
    MeshPartWhole
};

BuiltInMeshElementDescription

enum BuiltInMeshElementDescription

This enum defines some kinds of built-in mesh element descriptions.

Developer may query a built-in mesh element description by calling MeshElementDescription::GetBuiltInMeshElementDescription() using any enum value below.

Enumerator
ElementDescriptionSolidMesh	The mesh element description of a solid mesh. MeshElementType : MeshElementTypeSolidMesh MeshPart : MeshPartWhole UseSoftSelectionColor : false BackfaceCull : false
ElementDescriptionVetexTicks	The mesh element description of vertex ticks. MeshElementType : MeshElementTypeVertexTicks MeshPart : MeshPartWhole UseSoftSelectionColor : false BackfaceCull : false
ElementDescriptionWireframe	The mesh element description of a wireframe mesh. MeshElementType : MeshElementTypeEdge MeshPart : MeshPartWhole UseSoftSelectionColor : false BackfaceCull : false
ElementDescriptionSelectedEdge	The mesh element description of selected edges. MeshElementType : MeshElementTypeEdge MeshPart : MeshPartSelected UseSoftSelectionColor : false BackfaceCull : false
ElementDescriptionDiagonal	The mesh element description of diagonals. MeshElementType : MeshElementTypeDiagonal MeshPart : MeshPartWhole UseSoftSelectionColor : false BackfaceCull : false
ElementDescriptionSelectedDiagonal	The mesh element description of selected diagonals. MeshElementType : MeshElementTypeDiagonal MeshPart : MeshPartSelected UseSoftSelectionColor : false BackfaceCull : false
ElementDescriptionSelectedFace	The mesh element description of selected faces. MeshElementType : MeshElementTypeFace MeshPart : MeshPartSelected UseSoftSelectionColor : false BackfaceCull : false

{
    ElementDescriptionSolidMesh,

    ElementDescriptionVetexTicks,

    ElementDescriptionWireframe,

    ElementDescriptionSelectedEdge,

    ElementDescriptionDiagonal,

    ElementDescriptionSelectedDiagonal,

    ElementDescriptionSelectedFace
};

NormalBumpMode

enum NormalBumpMode

Enumerator
NB_3dsMax	3ds Max Mode In this mode, the vertex tangent and binormal(bitangent) are perpendicular to the face normal. The face normal is always perpendicular to the triangle face. During pixel shading, the tangent and binormal interpolated from triangle vertices are used in the normal bump calculation.
NB_Maya	Maya Mode In this mode, the vertex tangent and binormal(bitangent) are perpendicular to the vertex normal. Vertex normals take their smoothing group into account. During pixel shading, the tangent and binormal interpolated from triangle vertices are orthogonalized against the normal before the normal bump calculation.
NB_DirectX	DirectX Mode In this mode, the vertex tangent and binormal(bitangent) are perpendicular to the vertex normal. During pixel shading, the tangent and binormal interpolated from triangle vertices are used in the normal bump calculation.
NB_MikkT	MikkT Mode - by Morten S. Mikkelsen In this mode, the same vertex tangent and binormal(bitangent) are generated even if there is a change in index list(s), ordering of faces/vertices of a face, and/or the removal of degenerate primitives. During pixel shading, the tangent interpolated from vertices is used in the normal bump calculation, however, the binormal(bitangent) could be either interpolated from vertices or re-caluclated against the pixel normal and tangent, depends on CalculateBitangentPerPixel flag is enabled or not.

                    {
    NB_3dsMax = 0,
    NB_Maya,
    NB_DirectX,
    NB_MikkT
};

TangentBasisMode

enum TangentBasisMode

Enumerator
kPerpendicularToFaceNormal	Tangent basis mode that requires the tangent and binormal are perpendicular to face normal.
kPerpendicularToVertexNormal	Tangent basis mode that requires the tangent and binormal are perpendicular to vertex normal.
kMikkT	Tangent basis mode that's aligned with MikkT.

                      {
    kPerpendicularToFaceNormal = 0, 
    kPerpendicularToVertexNormal,   
    kMikkT                          
};

PrimitiveType

enum PrimitiveType

Supported primitive types.

Enumerator
PrimitivePointList	A list of independent points.
PrimitiveLineList	A list of unconnected two-point line segments, such that the number of lines is the the total number of points divided by two.
PrimitiveLineStrip	A polyline, where each point is connected to the previous vertex, yielding a single polyline with (vertex_count - 1) two-point line segments.
PrimitiveTriangleList	A list of unconnected triangles, yielding (vertex_count / 3) triangles.
PrimitiveTriangleStrip	A strip of connected triangles, such that each vertex after the first three vertices defines a new triangle, yielding (vertex_count - 1) connected triangles. Remarks Strips of even a small number of triangles provides better performance and reduced memory consumption relative to the same geometry represented with a triangle list. There is substantial research and software devoted to generating optimal triangle strips. See http://en.wikipedia.org/wiki/Triangle_strip for details.
PrimitiveLineListAdj	A line list with adjacency information.
PrimitiveLineStripAdj	A line strip with adjacency information.
PrimitiveTriangleListAdj	A triangle list with adjacency information.
PrimitiveTriangleStripAdj	A triangle strip with adjacency information.
PrimitivePatchList1	A patch list with 1 control point.
PrimitivePatchList2	A patch list with 2 control point.
PrimitivePatchList3	A patch list with 3 control point.
PrimitivePatchList4	A patch list with 4 control point.
PrimitivePatchList5	A patch list with 5 control point.
PrimitivePatchList6	A patch list with 6 control point.
PrimitivePatchList7	A patch list with 7 control point.
PrimitivePatchList8	A patch list with 8 control point.
PrimitivePatchList9	A patch list with 9 control point.
PrimitivePatchList10	A patch list with 10 control point.
PrimitivePatchList11	A patch list with 11 control point.
PrimitivePatchList12	A patch list with 12 control point.
PrimitivePatchList13	A patch list with 13 control point.
PrimitivePatchList14	A patch list with 14 control point.
PrimitivePatchList15	A patch list with 15 control point.
PrimitivePatchList16	A patch list with 16 control point.
PrimitivePatchList17	A patch list with 17 control point.
PrimitivePatchList18	A patch list with 18 control point.
PrimitivePatchList19	A patch list with 19 control point.
PrimitivePatchList20	A patch list with 20 control point.
PrimitivePatchList21	A patch list with 21 control point.
PrimitivePatchList22	A patch list with 22 control point.
PrimitivePatchList23	A patch list with 23 control point.
PrimitivePatchList24	A patch list with 24 control point.
PrimitivePatchList25	A patch list with 25 control point.
PrimitivePatchList26	A patch list with 26 control point.
PrimitivePatchList27	A patch list with 27 control point.
PrimitivePatchList28	A patch list with 28 control point.
PrimitivePatchList29	A patch list with 29 control point.
PrimitivePatchList30	A patch list with 30 control point.
PrimitivePatchList31	A patch list with 31 control point.
PrimitivePatchList32	A patch list with 32 control point.
PrimitiveTypeCount

    {
        PrimitivePointList,

        PrimitiveLineList,

        PrimitiveLineStrip,

        PrimitiveTriangleList,

        PrimitiveTriangleStrip,
        
        PrimitiveLineListAdj,

        PrimitiveLineStripAdj,

        PrimitiveTriangleListAdj,

        PrimitiveTriangleStripAdj,

        PrimitivePatchList1,

        PrimitivePatchList2,

        PrimitivePatchList3,

        PrimitivePatchList4,

        PrimitivePatchList5,

        PrimitivePatchList6,

        PrimitivePatchList7,

        PrimitivePatchList8,

        PrimitivePatchList9,

        PrimitivePatchList10,

        PrimitivePatchList11,

        PrimitivePatchList12,

        PrimitivePatchList13,

        PrimitivePatchList14,

        PrimitivePatchList15,

        PrimitivePatchList16,

        PrimitivePatchList17,

        PrimitivePatchList18,

        PrimitivePatchList19,

        PrimitivePatchList20,

        PrimitivePatchList21,

        PrimitivePatchList22,

        PrimitivePatchList23,

        PrimitivePatchList24,

        PrimitivePatchList25,

        PrimitivePatchList26,

        PrimitivePatchList27,

        PrimitivePatchList28,

        PrimitivePatchList29,

        PrimitivePatchList30,

        PrimitivePatchList31,

        PrimitivePatchList32,
 
        PrimitiveTypeCount, 
    };

BufferClearFlag

enum BufferClearFlag

This flag describes the way to clear the current buffers.

Enumerator
ClearBackbuffer	clear the target
ClearDepthBuffer	clear the zbuffer
ClearStencilBuffer	clear the stencil
ClearAll	clear the zbuffer, target & stencil

    {
        ClearBackbuffer = 0x1, 
        ClearDepthBuffer = 0x2, 
        ClearStencilBuffer = 0x4, 
        ClearAll = 0x7,
    };

BlendSelector

enum BlendSelector

blend selector.

selects a blend source/destination

Enumerator
BlendSelectorBlendFactor	use blend factor in blend state
BlendSelectorBothInvSourceAlpha	use inverse source alpha
BlendSelectorBothSourceAlpha	use source aplha
BlendSelectorDestinationAlpha	use the destination alpha
BlendSelectorDestinationColor	use the destination color
BlendSelectorInvBlendFactor	use inversed blend factor
BlendSelectorInvDestinationAlpha	use the inverse destination alpha
BlendSelectorInvDestinationColor	use the inverse destination color
BlendSelectorInvSourceAlpha	use inverse source alpha
BlendSelectorInvSourceColor	use inverse source color
BlendSelectorOne	always 1,1,1
BlendSelectorSourceAlpha	use the source alpha
BlendSelectorSourceAlphaSat	use the source alpha and saturate it
BlendSelectorSourceColor	use the source color
BlendSelectorZero	always 0

    {
        BlendSelectorBlendFactor,
        BlendSelectorBothInvSourceAlpha,
        BlendSelectorBothSourceAlpha,
        BlendSelectorDestinationAlpha,
        BlendSelectorDestinationColor,
        BlendSelectorInvBlendFactor,
        BlendSelectorInvDestinationAlpha,
        BlendSelectorInvDestinationColor,
        BlendSelectorInvSourceAlpha,
        BlendSelectorInvSourceColor,
        BlendSelectorOne,
        BlendSelectorSourceAlpha,
        BlendSelectorSourceAlphaSat,
        BlendSelectorSourceColor,
        BlendSelectorZero
 
    };

CullMode

enum CullMode

cull type.

Enumerator
CullModeCW	cull backfaces of CW polygons
CullModeCCW	cull backfaces of CCW polygons
CullModeNone	don't cull backfaces

    {
        CullModeCW, 
        CullModeCCW,
        CullModeNone
    };

FillMode

enum FillMode

fill mode for polygons

Enumerator
FillSolid	draw as a solid object
FillWireFrame	draw as a wireframe object

    {
        FillSolid, 
        FillWireFrame
    } ;

CompareFunction

enum CompareFunction

compare functions

Enumerator
CompareFunctionAlways	always true
CompareFunctionEqual	true if equal
CompareFunctionGreater	true if greater
CompareFunctionGreaterEqual	true if greater or equal
CompareFunctionLess	true if less
CompareFunctionLessEqual	true if less or equal
CompareFunctionNever	never true
CompareFunctionNotEqual	true if not equal

    {
        CompareFunctionAlways,
        CompareFunctionEqual,
        CompareFunctionGreater, 
        CompareFunctionGreaterEqual,
        CompareFunctionLess,
        CompareFunctionLessEqual,
        CompareFunctionNever,
        CompareFunctionNotEqual
    };

ColorWriteEnable

enum ColorWriteEnable

Enumerator
ColorWriteEnableNone	None, all off.
ColorWriteEnableAlpha	Write alpha. Same as d3d.ColorWriteEnable.Alpha,
ColorWriteEnableBlue	Write blue. Same as d3d.ColorWriteEnable.Blue,
ColorWriteEnableGreen	Write green. Same as d3d.ColorWriteEnable.Green,
ColorWriteEnableRed	Write red. Same as d3d.ColorWriteEnable.Red,
ColorWriteEnableRedGreenBlue	Write RGB but no alpha. Same as d3d.ColorWriteEnable.RedGreenBlue,
ColorWriteEnableRedGreenBlueAlpha	Write all RGBA. Same as d3d.ColorWriteEnable.RedGreenBlueAlpha,
WRITEENABLE_FORCE_DWORD

    {
        ColorWriteEnableNone = 0,
        ColorWriteEnableAlpha = 0x8, 
        ColorWriteEnableBlue = 0x4, 
        ColorWriteEnableGreen = 0x2, 
        ColorWriteEnableRed = 0x1, 
        ColorWriteEnableRedGreenBlue = 0x7, 
        ColorWriteEnableRedGreenBlueAlpha = 0xf, 
 
        WRITEENABLE_FORCE_DWORD      = 0x7fffffff, /* force 32-bit size enum */
    };

BlendOperation

enum BlendOperation

blend operations

Enumerator
BlendOperationAdd	add the source and destination together
BlendOperationMax	max of the source and destination
BlendOperationMin	min of the source and destination
BlendOperationSubtract	dest gets dest minus source
BlendOperationReverseSubtract	dest gets source minus dest

    {
        BlendOperationAdd,
        BlendOperationMax,
        BlendOperationMin, 
        BlendOperationSubtract,
        BlendOperationReverseSubtract,
    };

StencilOperationType

enum StencilOperationType

Stencil buffer operation.

Enumerator
StencilOperationTypeDecrement	Decrement the stencil buffer entry, wrapping to the maximum value if the new value is less than zero. Same as d3d.StencilOperation.Decrement,
StencilOperationTypeDecrementSaturation	Decrement the stencil buffer entry, clamping to zero. Same as d3d.StencilOperation.DecrementSaturation,
StencilOperationTypeIncrement	Increment the stencil buffer entry, wrapping to zero if the new value exceeds the maximum value. Same as d3d.StencilOperation.Increment,
StencilOperationTypeIncrementSaturation	Increment the stencil buffer entry, clamping to the maximum value. Same as d3d.StencilOperation.IncrementSaturation,
StencilOperationTypeInvert	Invert the bits in the stencil-buffer entry. Same as d3d.StencilOperation.Invert
StencilOperationTypeKeep	Do not update the entry in the stencil buffer. This is the default value. Same as d3d.StencilOperation.Keep,
StencilOperationTypeReplace	Replace the stencil-buffer entry with a reference value. Same as d3d.StencilOperation.Replace,
StencilOperationTypeZeroStencil	Set the stencil-buffer entry to 0. Same as d3d.StencilOperation.Zero,
STENCILOP_FORCE_DWORD

    {
        StencilOperationTypeDecrement = 8, 
        StencilOperationTypeDecrementSaturation = 5, 
        
        StencilOperationTypeIncrement = 7, 
        
        StencilOperationTypeIncrementSaturation = 4, 
        
        StencilOperationTypeInvert = 6, 
        
        StencilOperationTypeKeep = 1, 
        
        StencilOperationTypeReplace = 3, 

        StencilOperationTypeZeroStencil = 2, 
 
        STENCILOP_FORCE_DWORD      = 0x7fffffff, /* force 32-bit size enum */
 
    };

AccessType

enum AccessType

AccessType Types for accessing buffers.

Enumerator
AccessTypeNone	Data is not accessed yet.
ReadAcess	Data will only be read.
WriteAcess	Data will only be written.
ReadWriteAcess
WriteDiscardAcess	To be used by dynamic buffer for write-discard access.

    {
        AccessTypeNone = 0x0,
        ReadAcess = 0x1,
        WriteAcess = 0x2,
        /* Data will be read and written.
        */
        ReadWriteAcess = ReadAcess | WriteAcess,  //0x3
        WriteDiscardAcess
    };

TargetFormat

enum TargetFormat : int

TargetFormat indicates which type the target/texture is.

Enumerator
TargetFormatUnkown	Unknown target format.
TargetFormatD24S8	depth 24, stencil 8
TargetFormatD24X8	depth 24, no stencil
TargetFormatD32	depth 32, no stencil
TargetFormatDxt1	compressed format dxt1, no alpha
TargetFormatDxt2	compressed format dxt2, premultiplied alpha, otherwise same as dxt3
TargetFormatDxt3	compressed format dxt3, has alpha
TargetFormatDxt4	compressed format dxt4, premultiplied alpha otherwise same as dxt5
TargetFormatDxt5	compressed format dxt5, has alpha
TargetFormatA8	8 bit alpha texture
TargetFormatR8	8 bit one-channel texture
TargetFormatR16	16 bit int one-channel texture
TargetFormatR16F	16 bit float one-channel texture
TargetFormatA1R5G5B5	one bit alpha, 5 bits each for RGB. The layout of the short is: 15 14 10 5 0 | A | R | G | B |
TargetFormatR5G6B5	no alpha, 5 bits each for R and B, 6 bits for G. The layout of the short is: 15 11 5 0 | R | G | B |
TargetFormatR32F	one-channel 32 bit float
TargetFormatR16G16	two-channel, 16 bit int
TargetFormatR16G16F	two-channel, 16 bit float
TargetFormatA8R8G8B8	8 bit int for each of RGB and A, with byte ordering ARGB
TargetFormatA8B8G8R8	8 bit int for each of RGB and A, with byte ordering ABGR
TargetFormatX8B8G8R8	8 bit int for each of RGB, no alpha
TargetFormatA2B10G10R10	2 bit alpha, 10 bits for each of RGB, with byte ordering ABGR
TargetFormatR32G32F	two-channel 32 bit float
TargetFormatA16B16G16R16	four-channel, 16 bit int for each of RGB and A, with byte ordering ABGR
TargetFormatA16B16G16R16F	four-channel, 16 bit float for each of RGB and A, with byte ordering ABGR
TargetFormatA32B32G32R32F	32 bit float for each of RGB and A, with byte ordering ABGR
TargetFormatX8R8G8B8	8 bit int for each of RBA, no alpha
TargetFormatR32G32B32F	three-channel, 32 bit float for each of RGB
TargetFormatR32UINT	32bit unsigned int format
TargetFormatR32SINT	32bit signed int format
TargetFormatCount

    {
        TargetFormatUnkown, 
        TargetFormatD24S8, 
        TargetFormatD24X8, 
        TargetFormatD32, 
        TargetFormatDxt1, 
        TargetFormatDxt2, 
        TargetFormatDxt3, 
        TargetFormatDxt4, 
        TargetFormatDxt5, 
        TargetFormatA8, 
        TargetFormatR8, 
        TargetFormatR16, 
        TargetFormatR16F, 
        TargetFormatA1R5G5B5, 
        TargetFormatR5G6B5, 
        TargetFormatR32F, 
        TargetFormatR16G16, 
        TargetFormatR16G16F, 
        TargetFormatA8R8G8B8, 
        TargetFormatA8B8G8R8, 
        TargetFormatX8B8G8R8, 
        TargetFormatA2B10G10R10, 
        TargetFormatR32G32F, 
        TargetFormatA16B16G16R16, 
        TargetFormatA16B16G16R16F, 
        TargetFormatA32B32G32R32F, 
        TargetFormatX8R8G8B8, 
        TargetFormatR32G32B32F, 

        TargetFormatR32UINT, 

        TargetFormatR32SINT, 
 
        TargetFormatCount, 
    };

GraphicFeatureLevel

enum GraphicFeatureLevel

This enum specifies the feature levels device supported.

Enumerator
Level_Unknown	Unknown feature level.
Level_NULL	NULL feature level.
Level2_0	Feature Level 2_0.
Level2_1	Feature Level 2_1.
Level3_0	Feature Level 3_0.
Level3_1	Feature Level 3_1.
Level4_0	Feature Level 4_0.
Level4_1	Feature Level 4_1 Notes: Feature Level4_1 corresponds to the NV DX10+ device, which supports some of DX10.1 features.
Level4_5	Feature Level 4_5 Notes: Feature Level4_5 corresponds to DX10.1 device, which supports all of DX10.1 features. The OS must be Vista SP1 or above.
Level5_0	Feature Level 5_0 Notes: Feature Level5_0 corresponds to DX11 device, which supports all of DX11 features. The OS must be "Vista SP2 + Platform update" or above.
Level_Count	Feature Level count.

    {
        Level_Unknown = 0,
        Level_NULL = 5,
        Level2_0   = 20,
        Level2_1   = 21,
        Level3_0   = 30,
        Level3_1   = 31,
        Level4_0   = 40,
        Level4_1   = 41,
        Level4_5   = 45,
        Level5_0   = 50,

        Level_Count = 9
    };

TextureType

enum TextureType

Texture type enums.

Enumerator
TextureTypeUnknown	unknown texture type
TextureTypeImage1D	1d bitmap texture
TextureTypeImage1DArray	1d bitmap texture array
TextureTypeImage2D	bitmap texture
TextureTypeImage2DArray	bitmap texture
TextureTypeCubeMap	cube map texture
TextureTypeVolume	volume texture
TextureTypeCount

    {
        TextureTypeUnknown = 0,
        
        TextureTypeImage1D = 1,

        TextureTypeImage1DArray = 2,
        
        TextureTypeImage2D = 3,

        TextureTypeImage2DArray = 4,
        
        TextureTypeCubeMap = 5,
        
        TextureTypeVolume = 6,
 
        TextureTypeCount
    }; 

ResourceUsage

enum ResourceUsage

Resource usage, used for texture.

Enumerator
ResourceUsageNormal	Normal usage, means it's a video memory resource Immutable or default depending on access.
ResourceUsageDynamic	If the resource contents are to be changed often, ResourceUsageDynamic is recommended to achieve fast update. Used with the correct map flag( WriteDiscard or WriteNoOverwrite), maximum performance to change the contents will be achieved. Meaning of WriteNoOverwrite: WriteNoOverwrite signifies that the application promises not to write to data that the GPU is using. In exchange, the GPU allows the application to write to other parts of the same buffer. The application must ensure that it does not write over any data in use by the GPU. Common Usage of WriteDiscard with WriteNoOverwrite as map flags: WriteDiscard and WriteNoOverwrite are normally used in conjunction with dynamic index/vertex buffers, although they can also be used with dynamic textures. A common use of these two flags involves filling dynamic index/vertex buffers with geometry that can be seen from the camera's current position. The first time that data is entered into the buffer on a given frame, Map is called with WriteDiscard; doing so invalidates the previous contents of the buffer. The buffer is then filled with all available data. Subsequent writes to the buffer within the same frame should use WriteNoOverwrite. This will enable the CPU to access a resource that is potentially being used by the GPU as long as the restrictions described previously are respected.
ResourceUsageStaging	Staging usage, means it's a system memory resource on each devices. For cpu readback
ResourceUsageMask	Usage mask. For anding off the high bits
ResourceUsageStream	Usage for stream output. For vb & ibs, may be used as a texture
ResourceUsageTarget	Usage for render target, it means the resource created from video memory and can be used as render-target for vb & ibs & textures, may be used as a render target/stream output buffer.

    {
        ResourceUsageNormal = 0,

        ResourceUsageDynamic = 1,

        ResourceUsageStaging = 2,

        ResourceUsageMask = 0xf,       

        ResourceUsageStream = 0x10,

        ResourceUsageTarget = 0x20,
    };

QueryType

enum QueryType

Enums for QueryHandle, indicates which query types to issue.

Refer D3D11_QUERY in DirectX Graphics Document for detail.

Enumerator
QueryType_Event	Same as D3D11_QUERY_EVENT Determines whether or not the GPU is finished processing commands.
QueryType_Occlusion	Same as D3D11_QUERY_OCCLUSION Get the number of samples that passed the depth and stencil tests in between QueryHandle::Begin() and QueryHandle::End().
QueryType_TimeStamp	Same as D3D11_QUERY_TIMESTAMP Get a timestamp value from QueryHandle::GetData()
QueryType_Occlusion_Test	Same as D3D11_QUERY_OCCLUSION_PREDICATE Return BOOL in QueryHandle::GetData(), indicates any pixels passes depth and stencil tests.
QueryType_SO_Overflow_Test	Same as D3D11_QUERY_SO_OVERFLOW_PREDICATE Indicates whether or not any of the streaming output buffers overflowed between QueryHandle::Begin() and QueryHandle::End().
QueryType_SO_Stats	Same as D3D11_QUERY_SO_STATISTICS Get streaming output statistics, such as the number of primitives streamed out in between QueryHandle::Begin() and QueryHandle::End().

    {
        QueryType_Event = 8,
        QueryType_Occlusion = 9,
        QueryType_TimeStamp = 10,
        QueryType_Occlusion_Test = 20,
        QueryType_SO_Overflow_Test = 21,
        QueryType_SO_Stats = 22
    };

ZBiasPresets

enum ZBiasPresets

Enumerator
ZBiasPresets_Default
ZBiasPresets_Shaded
ZBiasPresets_Wireframe
ZBiasPresets_Gizmo

{
    ZBiasPresets_Default = -1, //Auto z bias set by system
    ZBiasPresets_Shaded = 0,
    ZBiasPresets_Wireframe = 1,
    ZBiasPresets_Gizmo = 2
};

RenderItemVisibilityGroup

enum RenderItemVisibilityGroup : int

This enum defines in what group a render item is visible.

Enumerator
RenderItemVisible_Unknown	By default, all render items are in default visible group. That means the system will determine when the render item will be displayed based on the render item traits. If the render item is mesh, it will be displayed in shaded/realistic mode. If the render item is lines, it will be displayed in wireframe/edged faces mode. Any other render items including display callbacks will be displayed as gizmos.
RenderItemVisible_Shaded	This kind of render item will only be visible if visual style is shaded or realistic.
RenderItemVisible_Wireframe	This kind of render item is visible in wireframe visual style, or edged faces is on, or "wireframe selected" is on and the node is selected.
RenderItemVisible_Gizmo	This kind of render item is always visible, no matter what the visual style is.

{
    RenderItemVisible_Unknown, 

    RenderItemVisible_Shaded, 

    RenderItemVisible_Wireframe, 

    RenderItemVisible_Gizmo, 
};

ObjectComponentRequirement

enum ObjectComponentRequirement

This enum contains flags that can be combined together to specify which part is required by the node when updating render items.

Enumerator
ObjectComponentSolidMesh	Require solid mesh, it could be: vertex color mesh or general mesh. This will be displayed in any viewport that requires smooth mesh.
ObjectComponentWireframe	Require wireframe mesh, this layer includes the edges. This will be displayed in viewport that has "wireframe" or "hidden line" on.
ObjectComponentVertexTicks	Require vertex ticks. This will be displayed when the node has "Vertex Ticks" display option on or the vertex tick sub-object be selected.
ObjectComponentDiagonal	Require diagonals. This is the dotted edge lines when user enabled "show edges" of a node and enable the wireframe mode of viewport.
ObjectComponentSelected	one or more of the node is selected
ObjectComponentUnselected	one or more of the node is not selected
ObjectComponentBackfaceCull	one or more of the node has the object property "Backface Cull" on.
ObjectComponentVertexColorSoftSelection	one or more of the node has the object property "Vertex Channel Display" on and the active channel is soft selection

{
    ObjectComponentSolidMesh = 0x00000001,
    ObjectComponentWireframe = 0x00000002,
    ObjectComponentVertexTicks = 0x00000004,
    ObjectComponentDiagonal = 0x00000008,
    ObjectComponentSelected = 0x00000010,
    ObjectComponentUnselected = 0x00000020,
    ObjectComponentBackfaceCull = 0x00000040, 
    ObjectComponentVertexColorSoftSelection = 0x00000080, 
};

Function Documentation

IsNumberType()

FragmentGraphAPI bool IsNumberType

(

VarType

type

)

Checks if the given type is number type.

Parameters

[in]

type

type value.

Returns

true if the type is a number type, (for example, char, wide char, int, double), false otherwise.

IsCompatibleType()

FragmentGraphAPI bool IsCompatibleType	(	VarType	lhs,
		VarType	rhs )

Checks if two types can be converted to each other.

Parameters

[in]	lhs	The first type.
[in]	rhs	The second type.

Returns

true if two types are equal or both are numbers, false otherwise.

GetVertexStride()

DataBridgeAPI size_t GetVertexStride

(

const VertexFieldType

type

)

Get the vertex stride by a given vertex type, in bytes.

Parameters

type	the vertex type.

Returns

the vertex stride, in bytes.

GetIndexStride()

DataBridgeAPI size_t GetIndexStride

(

const IndexType

type

)

Get the index stride by a given index type, in bytes.

Parameters

type	the index type.

Returns

the index stride, in bytes.

CombineHashCode()

GraphicsDriverAPI size_t CombineHashCode	(	size_t	seed,
		size_t	hashCode )

A utility function for generating hash code.

Interface_ID id = PLUGIN_CONSOLIDATION_INTERFACE_ID;
size_t key = CombineHashCode(0, id.PartA()); //Initialize a new key
mHashKey = CombineHashCode(key, id.PartB()); //Combine new data with existing key

Returns

new code from seed and hash code.

GetIDisplayManager()

UtilExport IDisplayManager * GetIDisplayManager

(

)

Helper function to access the IDisplayManager core interface.

Returns

A pointer to IDisplayManager

IsRetainedModeEnabled()

bool IsRetainedModeEnabled ( )

inline

Helper function to test whether the new viewport graphics system is running.

Returns

TRUE if new viewport graphics is active

{
    IDisplayManager* pGraphicsManager = GetIDisplayManager();
    return nullptr != pGraphicsManager && pGraphicsManager->IsRetainedModeEnabled();
}

IsHardwareHitTesting()

bool IsHardwareHitTesting ( ViewExp * vpt )

inline

Helper function to test whether the new viewport graphics system is performing hardware hit testing.

Parameters

vpt	The specific viewport in which we want to know whether we are performing hardware hit testing.

Returns

TRUE if new viewport graphics is performing hardware hit testing.

{
    IDisplayManager* pGraphicsManager = GetIDisplayManager();
    return nullptr != pGraphicsManager && pGraphicsManager->IsHardwareHitTesting(vpt);
}

operator==()

template<class RefObjectType, class SafeRefObjectType, class LifeTimePolicy>

bool operator== ( void * pPtr, const RefPtr< RefObjectType, SafeRefObjectType, LifeTimePolicy > & pInterface )

inline

{
    return pPtr == pInterface.GetPointer();
}

operator!=()

template<class RefObjectType, class SafeRefObjectType, class LifeTimePolicy>

bool operator!= ( void * pPtr, const RefPtr< RefObjectType, SafeRefObjectType, LifeTimePolicy > & pInterface )

inline

{
    return pPtr != pInterface.GetPointer();
}

operator*() [1/2]

Point4 operator* ( const Matrix44 & M, const Point4 & p )

inline

{
    Point4 result;
    result[0] = M.m[0][0]*p[0] + M.m[1][0]*p[1] + M.m[2][0]*p[2] + M.m[3][0]*p[3];
    result[1] = M.m[0][1]*p[0] + M.m[1][1]*p[1] + M.m[2][1]*p[2] + M.m[3][1]*p[3];
    result[2] = M.m[0][2]*p[0] + M.m[1][2]*p[1] + M.m[2][2]*p[2] + M.m[3][2]*p[3];
    result[3] = M.m[0][3]*p[0] + M.m[1][3]*p[1] + M.m[2][3]*p[2] + M.m[3][3]*p[3];
    return result;
}

operator*() [2/2]

Point4 operator* ( const Matrix44 & M, const Point3 & p )

inline

{
    return M * Point4(p, 1.f);
}

MaxWorldMatrixToMatrix44()

GraphicsDriverAPI void MaxWorldMatrixToMatrix44	(	Matrix44 &	outMatrix,
		const Matrix3 &	inMatrix )

Convert Matrix3 to Matrix44.

Parameters

outMatrix	the Matrix44 output
inMatrix	the source Matrix3

Matrix44ToMaxWorldMatrix()

GraphicsDriverAPI void Matrix44ToMaxWorldMatrix	(	Matrix3 &	outMatrix,
		const Matrix44 &	inMatrix )

Convert Matrix44 to Matrix3.

Parameters

outMatrix	the Matrix3 output
inMatrix	the source Matrix44

GetBuiltInMeshElementDescription()

GraphicsDriverAPI const MeshElementDescription & GetBuiltInMeshElementDescription

(

BuiltInMeshElementDescription

type

)

Get a specified built-in mesh element description.

Parameters

type	the kind of built-in mesh element description

Returns

the specified mesh element description.

GetDeviceCompatibleARGBColor()

GraphicsDriverAPI DWORD GetDeviceCompatibleARGBColor

(

DWORD

color

)

Use this function for TargetFormatA8R8G8B8 only.

DX10/11 doesn't support A8R8G8B8 which is only supported in DX9. So when we're using DX10/11 device, we will meet with color shift issue with the A8R8G8B8 format. So for a TargetHandle of TargetFormatA8R8G8B8, you may call this function to get a device compatible color.

Parameters

color

The original color data.

Returns

the original color for a DX9 device. For DX10/DX11 device, returns a color with red and blue channels swapped.

GetTargetFormatPixelSize()

GraphicsDriverAPI size_t GetTargetFormatPixelSize

(

TargetFormat

format

)

Get the number of bytes for each pixel by a given target format.

Parameters

format

The given target format.

Returns

The number of bytes for each pixel by that given target format.

GenerateInstanceData() [1/2]

GraphicsDriverAPI VertexBufferHandle GenerateInstanceData	(	Matrix3 *	worldTransforms,
		size_t	count )

Generate the instance data from a Matrix3 array.

Remarks

The input matrix array should contain object-to-world matrices. Each matrix is used to render an mesh instance. The return object VertexBufferHandle is needed by GenerateInstanceRenderItem(). Multiple instance render items can share the same VertexBufferHandle. The returned vertex buffer contains world matrices and inverse transpose world matrices. This function automatically compute inverse transpose world matrices from world matrices and then fill the buffer.

Parameters

worldTransforms	pointer to world transform matrices. Each matrix is a instance of Mesh.
count	the number of the instances

Returns

the instance data handle.

GenerateInstanceData() [2/2]

GraphicsDriverAPI VertexBufferHandle GenerateInstanceData	(	Point3 *	UVs,
		Matrix3 *	worldTransforms,
		size_t	count )

Generate the instance data from a texture coordinates array and a Matrix3 array.

Remarks

The input matrix array should contain object-to-world matrices. Each matrix is used to render an mesh instance which can have different texture coordinate. The return object VertexBufferHandle is needed by GenerateInstanceRenderItem(). Multiple instance render items can sharing the same VertexBufferHandle. The returned vertex buffer contains texture coordinate, world matrices and inverse transpose world matrices. This function automatically compute inverse transpose world matrices from world matrices and then fill the buffer.

Parameters

UVs	pointer to texture coordinate array.Each texture coordinate pair is for an instance of Mesh.
worldTransforms	pointer to world transform matrices. Each matrix is an instance of Mesh.
count	the number of the instances

Returns

the instance data handle.

GenerateInstanceRenderItem() [1/2]

GraphicsDriverAPI bool GenerateInstanceRenderItem	(	RenderItemHandle &	hInstanceRenderItem,
		const RenderItemHandle &	hTupleMeshHandle,
		const VertexBufferHandle &	hInstanceData )

Generate the instance render item from a tuple mesh and a Matrix3 array.

Remarks

Instance rendering is a way to draw many objects that use the same geometry. These objects shares same materials and modifiers. The only difference between objects is world transformation. You can specify a matrix array for the mesh, then the mesh will be drawn for many times. Each corresponds to a matrix in the array. Typical usage of these instance functions should like following:

//Sample code fragment in IDisplay::UpdateDisplay()
//1. Generate render items from mesh.
mesh.GenerateRenderItems(tempRenderItemArray, generateRenderItemsContext);
 
//2. Generate instance data. The data can be shared by multiply instance render items.
MaxSDK::Graphics::VertexBufferHandle hInstanceData = 
MaxSDK::Graphics::GenerateInstanceData(Matrices, NumberOfMatrices);
 
//3. Check all of the render items and covert them to instance render item.
for (size_t i = 0; i < tempRenderItemArray.length(); ++i)
{
    MaxSDK::Graphics::RenderItemHandle hInstanceItem;
    //4. Try to generate instance render item. Only tuple mesh render item can convert to instance render item
    if (MaxSDK::Graphics::GenerateInstanceRenderItem(hInstanceItem, tempRenderItemArray[i], hInstanceData))
    {
        //If the function succeeded, add the generated instance render item to final render item array(mRenderItemHandles).
        mRenderItemHandles.append(hInstanceItem) ;
    }
    else
    {
        //If the function failed, add original render item to the final array(mRenderItemHandles).
        //Typically this render item is other render item type like immediate render item.
        mRenderItemHandles.append(tempRenderItemArray[i]);
    }
}

Parameters

hInstanceRenderItem	the instance render item handle which can replace original tuple mesh render item.
hTupleMeshHandle	handle of a tuple mesh render item
hInstanceData	handle generated by GenerateInstanceData

Returns

true if successful created the instance render item.

GenerateInstanceRenderItem() [2/2]

GraphicsDriverAPI bool GenerateInstanceRenderItem	(	RenderItemHandle &	hInstanceRenderItem,
		const RenderItemHandle &	hTupleMeshHandle,
		const ViewportInstancing::InstanceDisplayGeometry *	pInstanceDisplayGeometry )

Generate the instance render item from a tuple mesh which is a ViewportInstancing::InstanceDisplayGeometry class.

This is an extension of the bool GenerateInstanceRenderItem(RenderItemHandle& hInstanceRenderItem, const RenderItemHandle& hTupleMeshHandle, const VertexBufferHandle& hInstanceData) function with more overridable data for instances. The previous method could only override the transform matrix in world space and UV from the map channel #1. The MaxSDK::Graphics::ViewportInstancing::InstanceDisplayGeometry class lets you override more data per instance. For more details, please see the header file maxsdk\include\Graphics\InstanceDisplayGeometry.h.

Parameters

hInstanceRenderItem	the instance render item handle which can replace original tuple mesh render item.
hTupleMeshHandle	handle of a tuple mesh render item
pInstanceDisplayGeometry	: an InstanceDisplayGeometry*

Returns

true if successful created the instance render item.

GetIViewportFragmentManager()

IViewportFragmentManager * GetIViewportFragmentManager ( )

inline

Helper function to retrieve a pointer on the IViewportFragmentManager interface.

Returns

a pointer on IViewportFragmentManager, the pointer cannot be null.

{
    return static_cast<IViewportFragmentManager*>(GetCOREInterface(VIEWPORT_FRAGMENT_MANAGER_INTERFACE_ID));
}

IsGpuPresent()

UtilExport bool IsGpuPresent

(

)

Method that verifies if at least one GPU is present on the current system.

Returns

true if at least one GPU is present, false otherwise

Variable Documentation

TYPE_ID_Char

FragmentGraphAPI Class_ID TYPE_ID_Char

extern

Built-in char input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_UnsignedChar

FragmentGraphAPI Class_ID TYPE_ID_UnsignedChar

extern

Built-in unsigned char input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_WideChar

FragmentGraphAPI Class_ID TYPE_ID_WideChar

extern

Built-in wchar_t input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_Short

FragmentGraphAPI Class_ID TYPE_ID_Short

extern

Built-in short input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_UnsignedShort

FragmentGraphAPI Class_ID TYPE_ID_UnsignedShort

extern

Built-in unsigned short input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_Int

FragmentGraphAPI Class_ID TYPE_ID_Int

extern

Built-in int input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_UnsignedInt

FragmentGraphAPI Class_ID TYPE_ID_UnsignedInt

extern

Built-in unsigned int input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_Long

FragmentGraphAPI Class_ID TYPE_ID_Long

extern

Built-in long input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_UnsignedLong

FragmentGraphAPI Class_ID TYPE_ID_UnsignedLong

extern

Built-in unsigned long input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_Int64

FragmentGraphAPI Class_ID TYPE_ID_Int64

extern

Built-in __int64 input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_UnsignedInt64

FragmentGraphAPI Class_ID TYPE_ID_UnsignedInt64

extern

Built-in unsigned __int64 input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_Float

FragmentGraphAPI Class_ID TYPE_ID_Float

extern

Built-in float input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_Double

FragmentGraphAPI Class_ID TYPE_ID_Double

extern

Built-in double input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_StringA

FragmentGraphAPI Class_ID TYPE_ID_StringA

extern

Built-in multi-byte string input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_StringW

FragmentGraphAPI Class_ID TYPE_ID_StringW

extern

Built-in Unicode string input/output type.

This can be used in the constructor of class Input/Output.

TYPE_ID_Dictionary

FragmentGraphAPI Class_ID TYPE_ID_Dictionary

extern

Built-in dictionary input/output type.

This can be used in the constructor of class Input/Output.

TIMER_NONE

const size_t TIMER_NONE = (size_t)-1

Use this value to unregister a timer with a fragment.

See also

Fragment::SetTimerTicks(DWORD timerTicks)

EmptyIndexBufferHandle

GraphicsDriverAPI IndexBufferHandle EmptyIndexBufferHandle

extern

EmptySmartHandleArray

GraphicsDriverAPI MaxSDK::Array<SmartHandle> EmptySmartHandleArray

extern

EmptyTargetHandle

GraphicsDriverAPI TargetHandle EmptyTargetHandle

extern

NIL_ID

const Identifier NIL_ID = (Identifier)-1

Invalid id value.

EmptyVertexBufferHandle

GraphicsDriverAPI VertexBufferHandle EmptyVertexBufferHandle

extern

EmptyVertexBufferHandleArray

GraphicsDriverAPI MaxSDK::Array<VertexBufferHandle> EmptyVertexBufferHandleArray

extern