Abstract: Apparatuses, systems, and techniques to perform computational operations in response to one or more compute uniform device architecture (CUDA) programs. In at least one embodiment, one or more computational operations are to cause one or more other computational operations to wait until matrix multiply-accumulate (MMA) memory transactions are performed.

Abstract: Apparatuses, systems, and techniques to perform computational operations in response to one or more compute uniform device architecture (CUDA) programs. In at least one embodiment, one or more computational operations are to indicate whether matrix multiply-accumulate (MMA) memory operations are complete.

Abstract: Apparatuses, systems, and techniques to perform computational operations in response to one or more compute uniform device architecture (CUDA) programs. In at least one embodiment, one or more computational operations are to cause two or more other computational operations to be performed by two or more streaming multiprocessors (SMs).

Abstract: Apparatuses, systems, and techniques to perform computational operations in response to one or more compute uniform device architecture (CUDA) programs. In at least one embodiment, one or more computational operations are to cause one or more other computational operations to wait until a portion of matrix multiply-accumulate (MMA) operations have been performed.

Abstract: An apparatus and system for monitoring and treating cataracts, the apparatus comprising: a monitoring light source configured to monitor cataracts by emitting monitoring light in the wavelength range of 350 to 410 nm to excite fluorescence light in the cataracts, a treating light source configured to treat cataracts by emitting treating light in the wavelength range of 400 to 570 nm to irradiate the cataracts, a wavelength selection system configured to monitor cataracts by selecting wavelengths of the excited fluorescence light in the cataracts and a dichroic beam splitter configured to reflect the monitoring light and the treating light towards the cataracts and the excited fluorescence light in the cataracts towards the wavelength selection system, wherein the monitoring light, the treating light and the excited fluorescence light are reflected by the dichroic beam splitter along a common optical axis and wherein the dichroic beam splitter is arranged at 45 degrees to the common optical axis to transmit wa

Abstract: A system (1) for treating and monitoring the condition of an eye (6) includes a light source, preferably a non-lasing LED (2), for irradiating the eye at a wavelength sufficient to reverse eye damage. The system also includes an excitation light source, preferably a non-lasing LED (4), for exciting fluorescence in the eye and a detector (22) for detecting fluorescence stimulated by the excitation LED (4). The system may also include a second non-lasing light source, preferably a non-lasing LED, for irradiating the eye; and a detector for detecting scatter of light from the eye. Methods for monitoring, diagnosis and treatment of eye conditions such as cataracts are also provided.

Abstract: A system (1) for treating and monitoring the condition of an eye (6) includes a light source, preferably a non-lasing LED (2), for irradiating the eye at a wavelength sufficient to reverse eye damage. The system also includes an excitation light source, preferably a non-lasing LED (4), for exciting fluorescence in the eye and a detector (22) for detecting fluorescence stimulated by the excitation LED (4). The system may also include a second non-lasing light source, preferably a non-lasing LED, for irradiating the eye; and a detector for detecting scatter of light from the eye. Methods for monitoring, diagnosis and treatment of eye conditions such as cataracts are also provided.

Abstract: A system (1) for treating and monitoring the condition of an eye (6) includes a light source, preferably a non-lasing LED (2), for irradiating the eye at a wavelength sufficient to reverse eye damage. The system also includes an excitation light source, preferably a non-lasing LED (4), for exciting fluorescence in the eye and a detector (22) for detecting fluorescence stimulated by the excitation LED (4). The system may also include a second non-lasing light source, preferably a non-lasing LED, for irradiating the eye; and a detector for detecting scatter of light from the eye. Methods for monitoring, diagnosis and treatment of eye conditions such as cataracts are also provided.

Abstract: A method and apparatus for generating a two-dimensional output image of a slab multi-planar reformatting (MPR) volume data set from a selectable view point and view direction is described. The method comprises factorizing a view transform matrix into an intermediate transform matrix and a warp transform matrix. The intermediate transform matrix is such that voxels in the volume data set map to pixels in an intermediate image in which neighboring voxels in a plane of the volume data set which is most parallel to tie plane of the output image are separated by an integer number of pixel along each of tie axes of the intermediate image. The intermediate transform matrix is applied to the data set to provide an intermediate data set. A projection of the intermediate data set along the view direction is performed according to a desired projection algorithm to provide the intermediate image. The wrap transform matrix is then applied to the intermediate image to provide the output image.

Abstract: A method and apparatus for generating a two-dimensional output image of a slab multi-planar reformatting (MPR) volume data set from a selectable view point and view direction is described. The method comprises factorising a view transform matrix into an intermediate transform matrix and a warp transform matrix. The intermediate transform matrix is such that voxels in the volume data set map to pixels in an intermediate image in which neighbouring voxels in a plane of the volume data set which is most parallel to tie plane of the output image are separated by an integer number of pixel along each of tie axes of the intermediate image. The intermediate transform matrix is applied to the data set to provide an intermediate data set. A projection of the intermediate data set along the view direction is performed according to a desired projection algorithm to provide the intermediate image. The wrap transform matrix is then applied to the intermediate image to provide the output image.