Q. A page fault

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Q. If a block can be placed at every location in the cache, this cache is said to be

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Q. For recording, was the block written, the Opteron keeps

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Q. The information when is written in the cache, both to the block in the cache and the block present in the lower-level memory, refers to

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Q. Average access time of memory for having memory-hierarchy performance is given as

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Q. As segment or a page is normally used for block, page-fault and the address-fault is used for

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Q. The block frame address are divided into the

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Q. The increase in the width of the cache address tag, can be done with the

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Q. The victim buffer's performance and the operation is almost similar to

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Q. Assume that the hit-time is single clock cycle, independent of size of block, and then 16-byte block in a 4 KB cache will be having access-time of

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Q. The virtual memory producing the virtual-addresses, are translated by

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Q. The most obvious architectural parameter is the

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Q. The time of CPU can be modeled as

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Q. The processor protection structure expand memory access protection from two levels to many, the added ones are

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Q. The virtually indexer's limitation, saying that a cache which is direct-mapped can have a size no bigger than the

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Q. IA-32 allows the operating system to maintain the protection level of the called

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Q. Per memory reference, the miss-rate can be turned into the per instruction misses rate by

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Q. The field that is not found in paged systems, which establishes theupper bound of valid offsets for segments is called

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Q. A common optimization for reducing write stalls is a

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Q. Address translation cache is referred to as a

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