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  1. • Lattice Semiconductor introduced Generic Array Logic (GAL) devices in 1985 • Basically a reprogrammable PAL • Complex Programmable Logic Device (CPLD) technology emerged in …

  2. Geometric Arithmetic Parallel Processor - Wikipedia

    In parallel computing, the Geometric Arithmetic Parallel Processor (GAPP), invented by Polish mathematician Włodzimierz Holsztyński in 1981, was patented by Martin Marietta [1] and is …

  3. A 1000× Improvement of the Processor-Memory Gap

    Jun 9, 2020 · Figure 15.19a illustrates the structure as a generic continuous array of cores, each with its own memories on top, and X-Y connectivity structure allowing data transfer between …

  4. TeraNex: Filling the GAPP | The CPU Shack Museum

    Mar 29, 2017 · In the design of GAPP, this data set was the 2D-array of an image, or frame, from a video. The GAPP is at its core a very large array of simple processors, called processor …

  5. Some basic questions on cache design • When do we bring the contents of a memory location into the cache? • Where do we put it? • How do we know it’s there? • What happens if the …

  6. A preliminary evaluation of a massively parallel processor: GAPP

    Jul 1, 1990 · The Geometric Arithmetic Parallel Processor (GAPP) is a systolic planar array processor with 72 (6 × 12) processing elements arranged in a mesh network. It runs at a clock …

  7. The geometric arithmetic parallel processor - IEEE Xplore

    The author describes the geometric arithmetic parallel processor (GAPP) processing element, the array of processors and its control, the system into which any array is embedded, the interface …

  8. Memory circuits are being produced separately by special fabs ded-icated to memory. These are DRAM fabs, which at advanced nodes are currently produced by only three vendors, and …

  9. The GAP Architecture mixes the advantages of a super-scalar processor and those of a coarse-grained dynamically recongurable system. A special conguration unit issues syn-chronously …

  10. – Reduced complexity processors and interconnect Ł 0.66 mm2 per processor in 0.18 µm – Fully independent clocking per processor Ł High performance and energy efficient – 475 MHz …

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