Render¶

LXtRenderOutputProcess
LXtRenderOutputProcessList
ILxRenderBucket

LXiIP_ALL_OPERATORS_ENABLED¶: Image processing operators control how the rendered image is processed, and are non-destructive.

LXiIP_ALL_OPERATORS_DISABLED
LXiIP_NO_OPERATOR_OVERRIDE
LXiIP_STEREO
LXiIP_COMPONENT_STEREO
LXiIP_SOURCE_IMAGE_GAMMA
LXiIP_BLOOM
LXiIP_VIGNETTE
LXiIP_INPUT_BLACK_LEVEL
LXiIP_INPUT_GRAY_LEVEL
LXiIP_INPUT_WHITE_LEVEL
LXiIP_INPUT_MIN_RGB_LEVEL
LXiIP_INPUT_RGB_GRAY_LEVEL
LXiIP_INPUT_MAX_RGB_LEVEL
LXiIP_TONE_MAPPING
LXiIP_HUE_OFFSET
LXiIP_SATURATION
LXiIP_COLORIZATION
LXiIP_OUTPUT_BLACK_LEVEL
LXiIP_OUTPUT_WHITE_LEVEL
LXiIP_OUTPUT_MIN_RGB_LEVEL
LXiIP_OUTPUT_MAX_RGB_LEVEL
LXiIP_OUTPUT_GAMMA
LXiIP_DITHER
LXiIP_USE_DISPLAY_GAMMA_PREF
LXiIP_APPLY_DISPLAY_COLORSPACE

typedef unsigned int LXtImageProcessingOperators¶

LXiSE_LEFT
LXiSE_RIGHT
LXiSE_BOTH

typedef unsigned int LXtStereoEye¶

LXeSC_NO_COMPOSITE
LXeSC_ANAGLYPH_RED_CYAN
LXeSC_ANAGLYPH_GRAYSCALE
LXeSC_ANAGLYPH_RED_CYAN_HALF
LXeSC_ANAGLYPH_RED_CYAN_OPT
LXeSC_ANAGLYPH_RED_BLUE_LS
LXeSC_LAST_ANAGLYPH_MODE
LXeSC_SIDE_BY_SIDE
LXeSC_SIDE_BY_SIDE_FULL_WIDTH
LXeSC_SIDE_BY_SIDE_CROSSED
LXeSC_SIDE_BY_SIDE_CROSSED_FULL
LXeSC_LAST_SIDE_BY_SIDE_MODE
LXeSC_DROPDOWN_COUNT
LXeSC_UNDEFINED

typedef unsigned int LXtStereoComposite¶

LXtRenderOutputProcess ¶

struct st_LXtRenderOutputProcess¶

Public Members

LXtImageProcessingOperators ops¶

int type¶

int typeSize¶

int unpremul¶

int alphaIndex¶

int isFactoryName¶

float sourceImageGamma¶

int sourceImageIsStereoSideBySide¶

int saveProcessed¶

int stereoEye¶

int stereoComposite¶

int bloom¶

float bloomThr¶

float bloomRad¶

float invResX¶

float invResY¶

float vignAmt¶

float inputBlackLevel¶

float inputGrayLevel¶

float invInputGrayLevel¶

float white¶

float exposure¶

float inputMinRedLevel¶

float inputRedGrayLevel¶

float invInputRedGrayLevel¶

float red¶

float redExposure¶

float inputMinGreenLevel¶

float inputGreenGrayLevel¶

float invInputGreenGrayLevel¶

float green¶

float greenExposure¶

float inputMinBlueLevel¶

float inputBlueGrayLevel¶

float invInputBlueGrayLevel¶

float blue¶

float blueExposure¶

int expType¶

float iso¶

float expTime¶

float fStop¶

int toneMap¶

float toneAmt¶

float hueOffset¶

float saturation¶

float colorization¶

LXtVector targetColor¶

LXtVector targetHSV¶

float outputBlackLevel¶

float outputWhiteLevel¶

float outputMinRedLevel¶

float outputMaxRedLevel¶

float outputMinGreenLevel¶

float outputMaxGreenLevel¶

float outputMinBlueLevel¶

float outputMaxBlueLevel¶

float gamma¶

float invGamma¶

const char *colorspace¶

ILxColorMappingID colormapping¶

int colorspaceEmbedding¶

char userName[64]¶

char identity[256]¶

int itemUniqueIndex¶

LXtRenderOutputProcessList ¶

struct st_LXtRenderOutputProcessList¶

Public Members

unsigned count¶

LXtRenderOutputProcess *outputs¶

LXiRENDEROUTPUT_INVALID¶: Render outputs currently have specific type codes for efficiency (avoiding the need for string comparisons).

LXe_GEO_SIZE_LIMIT¶: Geometry caches include memory blocks for fast allocation of geometry elements with fewer system memory calls. This scheme also increases the chances that elements used together will be in the same area of memory and generally results in faster rendering.

ILxRenderBucket ¶

class ILxRenderBucket¶

Public Functions

unsigned int Thread(LXtObjectID self)¶: The bucket is exposed to clients via the render bucket interface, which is actually a packet in the sample vector. The simplest thing the RenderBucket interface can be used for is to get the thread number of the current rendering thread. This will be a value from 0 through n-1, where n is the number of rendering threads.

LxResult SampleVec(LXtObjectID self, void **ppvObj)¶: We can also get the sample vector back from the bucket object.

LxResult PushRay(LXtObjectID self)¶: We can push and pop rays onto the ray stack. These functions are equivalent to those in the Raycast interface.

LxResult PopRay(LXtObjectID self)¶

int GetGIBounce(LXtObjectID self)¶: GetGIBounce will directly return the number of global illumination bounces prior to the current shading evaluation. This will allow a shader to compare it against the maximum global illumination bounces, and exit if it’s already reached the maximum.

void GetPixel(LXtObjectID self, int *x, int *y)¶: GetPixel will indirectly (through the x and y argument pointers) return the current pixel being evaluated by this thread.

void GetSubPixel(LXtObjectID self, float *x, float *y)¶: GetSubPixel will get the position of the current sample being evaluated within the pixel. It indirectly returns the values via the pointers to x and y. The values returned are between 0.0 and 1.0.

float GetTimeOffset(LXtObjectID self)¶: GetTimeOffset will return a value between 0.0 and 1.0 indicating the time within an exposure being currently evaluated (to allow motion / temporal blur in shading, for instance).