Abstract: An apparatus and method are described for texture compression, decompression and filtering. For example, one embodiment of a method comprises: determining distances between each of a plurality of texels of a texture block and each of a plurality of approximation points; generating a decompression matrix comprising a plurality of radial basis function RBF values over the distances using a specified type of RBF; using the decompression matrix to generate a decompression-filtering matrix according to a defined filter function, the decompression-filtering matrix being usable to generate a decompressed and filtered version of the texture block as a result of the filter function being integrated into the decompression-filtering matrix.

Abstract: An apparatus and method are described for texture compression. For example, one embodiment of a method comprises: determining a distance between each of a plurality of texture block texels and each of a plurality of points; determining a set of texel color values sampled over the texture block; and generating a set of approximation coefficients to compress the texture block using the distance between each of the plurality of texture block texels and each of the plurality of points and the set of texel color values sampled over the texture block.

Abstract: An apparatus and method are described for texture compression, decompression and filtering. For example, one embodiment of a method comprises: determining distances between each of a plurality of texels of a texture block and each of a plurality of approximation points; generating a decompression matrix comprising a plurality of radial basis function RBF values over the distances using a specified type of RBF; using the decompression matrix to generate a decompression-filtering matrix according to a defined filter function, the decompression-filtering matrix being usable to generate a decompressed and filtered version of the texture block as a result of the filter function being integrated into the decompression-filtering matrix.

Abstract: Described herein are technologies that facilitate computationally low-intensity creation of additional frames in a sequence of frames created by real-time three-dimensional (3D) rendering. More particularly, the technologies described herein generate an interposed two-dimensional (2D) screen-space projection (e.g., the resulting rendered image) in between a pair of fully rendered surrounding frames in a sequence of rendered frames. The interposed 2D screen-space projection is generated based upon information derived from the pair of surrounding frames.

Abstract: In accordance with some embodiments, a relatively lower capacity 3D rendering engine may be used to create a more visually pleasing scene while operating at a frame rate which normally would not produce a visually pleasing three-dimensional depiction. However by interpolating frames between the frames generated at a relatively lower frame rate, a visually pleasing depiction may be achieved in some embodiments with a relatively lower cost 3D rendering engine.

Abstract: An apparatus, comprising a first router to communicatively couple to a mobility anchor point and one or more further routers to n-cast data items to ones of a plurality of mobile nodes that are experiencing similar radio propagation conditions.

Abstract: Embodiments of systems and methods to provide for increased mobility amongst mobile nodes in a wireless network are generally described herein.