Titlebook: Architecture of High Performance Computers Volume II; Array processors and R. N. Ibbett,N. P. Topham Book 1989 Roland N. Ibbett and Nigel P

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動(dòng)脈

Carminative

昏暗

Nomogram

Multiprocessor Architecture, processor. These techniques included pipelining, multiple function units and a variety of mechanisms designed to meet the necessary memory throughput and latency requirements. However, the so-called ‘von Neumann bottleneck’, which is the fundamental limit imposed on sequential processing by the rat

mastopexy

Shared-memory Multiprocessors,rformance. For some applications SIMD vector or array processors are just not suitable, and a number of distinct instruction streams are required. However, multiprocessor architectures all face the fundamental problem of . and ., problems which can be illustrated by an analogy drawn from the experie

white-matter

確定方向

Multiprocessor Software,gorithms designed for one generation of high performance architectures can often be inherited by a subsequent generation since the . remains sequential, and any changes can usually be hidden from the application. Certain machines augment the sequential model by introducing datarparallel operations,

HEDGE

evasive

Evolutionary Structural Optimizationdamental speed limitation of machines which have physically separate processing and storage units. In such machines the link between the two parts creates a bottleneck, defining an upper-bound on performance. Furthermore, this two-part design produces extremely inefficient architectures when the met