战斗管理机载处理SDI

C. S. Miller
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摘要

解决了舰载战略防御主动作战管理处理问题。简要概述了战时空间处理的一般要求,并讨论了针对作战管理问题的处理要求。研究了采用05 μ m超高速集成电路(VHSIC II)超级芯片单片级集成的处理器结构和实现。给出了VHSIC II和传统LSI实现的尺寸。结论是,采用先进技术和针对具体问题量身定制的体系结构,星载作战管理处理器能够满足困难的SDI中途战争场景所需的吞吐率。功耗对航天器成本的关键影响似乎阻碍了传统处理器架构和LSI实现的使用。通过使用基于超级芯片的分层容错架构,可以满足对生存性和可靠性的苛刻要求。战斗管理处理器的设计,能够每秒超过10亿次操作,体积为2.3英尺/sup /,重量为125磅,功耗为1500瓦。具有相同吞吐量的LSI版本将显着更大,更重,更功耗。超级芯片或同等技术的使用似乎是实现所需高通量和10年在轨寿命的关键。
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Battle management onboard processing for SDI
The problem of the SDI (strategic defense initiative) onboard battle management processing is addressed. A brief overview of the general requirements for wartime space processing is presented, and the processing requirements which are specific to the battle management problem are discussed. Processor architecture and implementation using 05- mu m very high speed integrated circuit II (VHSIC II) superchip monolithic wafer-scale integration are considered. The sizing for both the VHSIC II and conventional LSI implementations is given. It is concluded that a spaceborne battle management processor capable of the throughput rate needed for the difficult SDI midcourse war scenario is feasible using advanced technology and an architecture tailored to the specifics of the problem. The critical effect of power consumption on spacecraft cost appears to militate against the use of conventional processor architectures and LSI implementation. Demanding specifications for survivability and reliability can be met by the use of a hierarchical fault-tolerant architecture based on the superchips. The battle management processor design, capable of over a billion operations per second, has a volume of 2.3 ft/sup 3/, a weight of 125 lb, and a power consumption of 1500 W. An LSI version with the same throughput would be significantly larger, heavier, and more power consumptive. The use of superchip or equivalent technology appears to be the key to achieving both the required high throughput and the 10-yr on-orbit lifetime.<>
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