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describes the methods used to implement electronic computer data storage in a manner that is a combination of the fastest, most reliable, most durable, and least expensive way to store and retrieve information. Depending on the specific application, a compromise of one of these requirements may be
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necessary in order to improve another requirement. Memory architecture also explains how binary digits are converted into electric signals and then stored in the memory cells. And also the structure of a memory cell.
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allows for long-term storage over a period of years, but it is much slower than dynamic memory, and the static memory storage cells wear out with frequent use.
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DSP systems usually have a specialized, high bandwidth memory subsystem; with no support for memory protection or virtual memory management. Many
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is often designed to suit specific needs such as serial or parallel data access, and the memory may be designed to provide for
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Robert Oshana. DSP Software
Development Techniques for Embedded and Real-Time Systems. 2006. "5 - DSP Architectures". p. 123.
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have 3 physically separate memories and datapaths -- program storage, coefficient storage, and data storage. A series of
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with a surge of current dozens of time per second, or the stored data will decay and be lost.
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fetch from all three areas simultaneously to efficiently implement audio filters as
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which uses a single memory and data path for both program and data storage.
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due to its fast access speed. However dynamic memory must be repeatedly
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