Target = Format = Type = enum()

InternalFormat = Width = Level = Base = Max = i()

Data = binary()

glu:build1DMipmapLevels/9 builds a subset of prefiltered one-dimensional texture maps of decreasing resolutions called a mipmap. This is used for the antialiasing of texture mapped primitives.

External documentation.

Target = Format = Type = enum()

InternalFormat = Width = i()

Data = binary()

glu:build1DMipmaps/6 builds a series of prefiltered one-dimensional texture maps of decreasing resolutions called a mipmap. This is used for the antialiasing of texture mapped primitives.

External documentation.

Target = Format = Type = enum()

InternalFormat = Width = Height = Level = Base = Max = i()

Data = binary()

glu:build2DMipmapLevels/10 builds a subset of prefiltered two-dimensional texture maps of decreasing resolutions called a mipmap. This is used for the antialiasing of texture mapped primitives.

External documentation.

Target = Format = Type = enum()

InternalFormat = Width = Height = i()

Data = binary()

glu:build2DMipmaps/7 builds a series of prefiltered two-dimensional texture maps of decreasing resolutions called a mipmap. This is used for the antialiasing of texture-mapped primitives.

External documentation.

Target = Format = Type = enum()

InternalFormat = Width = Height = Depth = Level = Base = Max = i()

Data = binary()

glu:build3DMipmapLevels/11 builds a subset of prefiltered three-dimensional texture maps of decreasing resolutions called a mipmap. This is used for the antialiasing of texture mapped primitives.

External documentation.

Target = Format = Type = enum()

InternalFormat = Width = Height = Depth = i()

Data = binary()

glu:build3DMipmaps/8 builds a series of prefiltered three-dimensional texture maps of decreasing resolutions called a mipmap. This is used for the antialiasing of texture-mapped primitives.

External documentation.

ExtName = ExtString = string()

glu:checkExtension/2 returns ?GLU_TRUE if ExtName is supported otherwise ?GLU_FALSE is returned.

External documentation.

Quad = Slices = Stacks = i()

Base = Top = Height = f()

glu:cylinder/6 draws a cylinder oriented along the z axis. The base of the cylinder is placed at z = 0 and the top at z=height. Like a sphere, a cylinder is subdivided around the z axis into slices and along the z axis into stacks.

External documentation.

glu:deleteQuadric/1 destroys the quadrics object (created with glu:newQuadric/0) and frees any memory it uses. Once glu:deleteQuadric/1 has been called, Quad cannot be used again.

External documentation.

Quad = Slices = Loops = i()

Inner = Outer = f()

glu:disk/5 renders a disk on the z = 0 plane. The disk has a radius of Outer and contains a concentric circular hole with a radius of Inner. If Inner is 0, then no hole is generated. The disk is subdivided around the z axis into slices (like pizza slices) and also about the z axis into rings (as specified by Slices and Loops, respectively).

External documentation.

glu:errorString/1 produces an error string from a GL or GLU error code. The string is in ISO Latin 1 format. For example, glu:errorString/1(?GLU_OUT_OF_MEMORY) returns the string out of memory.

External documentation.

glu:getString/1 returns a pointer to a static string describing the GLU version or the GLU extensions that are supported.

External documentation.

EyeX = EyeY = EyeZ = CenterX = CenterY = CenterZ = UpX = UpY = UpZ = f()

glu:lookAt/9 creates a viewing matrix derived from an eye point, a reference point indicating the center of the scene, and an UP vector.

External documentation.

glu:newQuadric/0 creates and returns a pointer to a new quadrics object. This object must be referred to when calling quadrics rendering and control functions. A return value of 0 means that there is not enough memory to allocate the object.

External documentation.

Left = Right = Bottom = Top = f()

glu:ortho2D/4 sets up a two-dimensional orthographic viewing region. This is equivalent to calling gl:ortho/6 with near=-1 and far=1.

External documentation.

Quad = Slices = Loops = i()

Inner = Outer = Start = Sweep = f()

glu:partialDisk/7 renders a partial disk on the z=0 plane. A partial disk is similar to a full disk, except that only the subset of the disk from Start through Start + Sweep is included (where 0 degrees is along the +f2yf axis, 90 degrees along the +x axis, 180 degrees along the -y axis, and 270 degrees along the -x axis).

External documentation.

Fovy = Aspect = ZNear = ZFar = f()

glu:perspective/4 specifies a viewing frustum into the world coordinate system. In general, the aspect ratio in glu:perspective/4 should match the aspect ratio of the associated viewport. For example, aspect=2.0 means the viewer's angle of view is twice as wide in x as it is in y. If the viewport is twice as wide as it is tall, it displays the image without distortion.

External documentation.

X = Y = DelX = DelY = f()

Viewport = {i(), i(), i(), i()}

glu:pickMatrix/5 creates a projection matrix that can be used to restrict drawing to a small region of the viewport. This is typically useful to determine what objects are being drawn near the cursor. Use glu:pickMatrix/5 to restrict drawing to a small region around the cursor. Then, enter selection mode (with gl:renderMode/1) and rerender the scene. All primitives that would have been drawn near the cursor are identified and stored in the selection buffer.

External documentation.

ObjX = ObjY = ObjZ = f()

Model = Proj = matrix()

View = {i(), i(), i(), i()}

Result = {i(), WinX :: f(), WinY :: f(), WinZ :: f()}

glu:project/6 transforms the specified object coordinates into window coordinates using Model, Proj, and View. The result is stored in WinX, WinY, and WinZ. A return value of ?GLU_TRUE indicates success, a return value of ?GLU_FALSE indicates failure.

External documentation.

glu:quadricDrawStyle/2 specifies the draw style for quadrics rendered with Quad. The legal values are as follows:

External documentation.

glu:quadricNormals/2 specifies what kind of normals are desired for quadrics rendered with Quad. The legal values are as follows:

External documentation.

glu:quadricOrientation/2 specifies what kind of orientation is desired for quadrics rendered with Quad. The Orientation values are as follows:

External documentation.

glu:quadricTexture/2 specifies if texture coordinates should be generated for quadrics rendered with Quad. If the value of Texture is ?GLU_TRUE, then texture coordinates are generated, and if Texture is ?GLU_FALSE, they are not. The initial value is ?GLU_FALSE.

External documentation.

Format = TypeIn = TypeOut = enum()

WIn = HIn = WOut = HOut = i()

DataIn = binary()

DataOut = mem()

glu:scaleImage/9 scales a pixel image using the appropriate pixel store modes to unpack data from the source image and pack data into the destination image.

External documentation.

Quad = Slices = Stacks = i()

glu:sphere/4 draws a sphere of the given radius centered around the origin. The sphere is subdivided around the z axis into slices and along the z axis into stacks (similar to lines of longitude and latitude).

External documentation.

Result = {Triangles, VertexPos}

Triangles = [integer()]

VertexPos = binary()

Triangulates a polygon, the polygon is specified by a Normal and Vs a list of vertex positions.

The function returns a list of indices of the vertices and a binary (64bit native float) containing an array of vertex positions, it starts with the vertices in Vs and may contain newly created vertices in the end.

WinX = WinY = WinZ = ClipW = NearVal = FarVal = f()

Model = Proj = matrix()

View = {i(), i(), i(), i()}

Result = {i(), ObjX :: f(), ObjY :: f(), ObjZ :: f(), ObjW :: f()}

glu:unProject/6 maps the specified window coordinates into object coordinates using Model, Proj, and View. The result is stored in ObjX, ObjY, and ObjZ. A return value of ?GLU_TRUE indicates success; a return value of ?GLU_FALSE indicates failure.

External documentation.