Abstract: An image processing system including a vector processor and a memory adapted for attaching to the vector processor. The memory is adapted to store multiple image frames. The vector processor includes an address generator operatively attached to the memory to access the memory. The address generator is adapted for calculating addresses of the memory over the multiple image frames. The addresses may be calculated over the image frames based upon an image parameter. The image parameter may specify which of the image frames are processed simultaneously. A scalar processor may be attached to the vector processor. The scalar processor provides the image parameter(s) to the address generator for address calculation over the multiple image frames. An input register may be attached to the vector processor. The input register may be adapted to receive a very long instruction word (VLIW) instruction.

Abstract: A system-on-chip (SoC) with a debugging methodology. The system-on-chip (SoC) includes a central processing unit (CPU) and multiple computing elements connected to the CPU. The CPU is configured to program the computing elements with task descriptors and the computing elements are configured to receive the task descriptors and to perform a computation based on the task descriptors. The task descriptors include a field which specifies a breakpoint state of the computing element. A system level event status register (ESR) attaches to and is accessible by the CPU and the computing elements. Each of the computing elements has a comparator configured to compare the present state of the computing element to the breakpoint state. The computing element is configured to drive a breakpoint event to the event status register (ESR) if the present state of the computing element is the breakpoint state.

Abstract: A system for processing an image including multiple pixels and intensity data thereof. An image memory is adapted for storing the image. An arithmetic core is connectible to the image memory and adapted for inputting the intensity data. The arithmetic core includes a multiple function processing units. One or more of the function processing units includes (i) a processing core adapted for computation of a function of the intensity data and for producing results of the computation, (ii) a first and (iii) a second accumulator for summing the results; and storage adapted to store the results. The function processing units are configured to compute the functions in parallel and sum the results simultaneously for each of the pixels in a single clock cycle.

Abstract: An image processing system including a vector processor and a memory adapted for attaching to the vector processor. The memory is adapted to store multiple image frames. The vector processor includes an address generator operatively attached to the memory to access the memory. The address generator is adapted for calculating addresses of the memory over the multiple image frames. The addresses may be calculated over the image frames based upon an image parameter. The image parameter may specify which of the image frames are processed simultaneously. A scalar processor may be attached to the vector processor. The scalar processor provides the image parameter(s) to the address generator for address calculation over the multiple image frames. An input register may be attached to the vector processor. The input register may be adapted to receive a very long instruction word (VLIW) instruction.

Abstract: A system for processing an image including multiple pixels and intensity data thereof. An image memory is adapted for storing the image. An arithmetic core is connectible to the image memory and adapted for inputting the intensity data. The arithmetic core includes a multiple function processing units. One or more of the function processing units includes (i) a processing core adapted for computation of a function of the intensity data and for producing results of the computation, (ii) a first and (iii) a second accumulator for summing the results; and storage adapted to store the results. The function processing units are configured to compute the functions in parallel and sum the results simultaneously for each of the pixels in a single clock cycle.

Abstract: A system-on-chip (SoC) with a debugging methodology. The system-on-chip (SoC) includes a central processing unit (CPU) and multiple computing elements connected to the CPU. The CPU is configured to program the computing elements with task descriptors and the computing elements are configured to receive the task descriptors and to perform a computation based on the task descriptors. The task descriptors include a field which specifies a breakpoint state of the computing element. A system level event status register (ESR) attaches to and is accessible by the CPU and the computing elements. Each of the computing elements has a comparator configured to compare the present state of the computing element to the breakpoint state. The computing element is configured to drive a breakpoint event to the event status register (ESR) if the present state of the computing element is the breakpoint state.