Abstract: A method of more efficiently, easily and cost-effectively analyzing the performance of a device model is disclosed. Embodiments enable automated generation of theoretical performance analysis for a device model based upon a workload associated with rendering graphical data and a configuration of the device model. The workload may be independent of design configuration, thereby enabling determination of the workload without simulating the device model. Additionally, the design configuration may be updated or changed without re-determining the workload. Accordingly, the graphical data may comprise a general or random test which is relatively large in size and covers a relatively large operational scope of the design. Additionally, the workload may comprise graphical information determined based upon the graphical data. Further, the theoretical performance analysis may indicate a graphics pipeline unit of the device model causing a bottleneck in a graphics pipeline of the device model.

Abstract: A scalable shader architecture is disclosed. In accord with that architecture, a shader includes multiple shader pipelines, each of which can perform processing operations on rasterized pixel data. Shader pipelines can be functionally removed as required, thus preventing a defective shader pipeline from causing a chip rejection. The shader includes a shader distributor that processes rasterized pixel data and then selectively distributes the processed rasterized pixel data to the various shader pipelines, beneficially in a manner that balances workloads. A shader collector formats the outputs of the various shader pipelines into proper order to form shaded pixel data. A shader instruction processor (scheduler) programs the individual shader pipelines to perform their intended tasks.

Abstract: A scalable shader architecture is disclosed. In accord with that architecture, a shader includes multiple shader pipelines, each of which can perform processing operations on rasterized pixel data. Shader pipelines can be functionally removed as required, thus preventing a defective shader pipeline from causing a chip rejection. The shader includes a shader distributor that processes rasterized pixel data and then selectively distributes the processed rasterized pixel data to the various shader pipelines, beneficially in a manner that balances workloads. A shader collector formats the outputs of the various shader pipelines into proper order to form shaded pixel data. A shader instruction processor (scheduler) programs the individual shader pipelines to perform their intended tasks.