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    • 5. 发明授权
    • Caching protocol method and system based on request frequency and relative storage duration
    • 基于请求频率和相对存储持续时间的缓存协议方法和系统
    • US06425057B1
    • 2002-07-23
    • US09140977
    • 1998-08-27
    • Ludmila CherkasovaMartin F. ArlittRichard J. FriedrichTai Jin
    • Ludmila CherkasovaMartin F. ArlittRichard J. FriedrichTai Jin
    • G06F1212
    • G06F17/30607G06F12/121G06F12/122
    • A method and system for caching objects and replacing cached objects in an object-transfer environment maintain a dynamic indicator (Pr(f)) for each cached object, with the dynamic indicator being responsive to the frequency of requests for the object and being indicative of the time of storing the cached object relative to storing other cached objects. In a preferred embodiment, the size of the object is also a factor in determining the dynamic indicator of the object. In the most preferred embodiment, the cost of obtaining the object is also a factor. A count of the frequency of requests and the use of the relative time of storage counterbalance each other with respect to maintaining a cached object in local cache. That is, a high frequency of requests favors maintaining the object in cache, but a long period of cache favors evicting the object. Thus, cache pollution is less likely to occur.
    • 用于缓存对象并替换对象传送环境中的缓存对象的方法和系统为每个缓存对象维护动态指示符(Pr(f)),动态指示符响应于对象的请求频率, 存储缓存对象相对于存储其他缓存对象的时间。 在优选实施例中,对象的大小也是确定对象的动态指示符的因素。 在最优选的实施例中,获得对象的成本也是一个因素。 关于在本地高速缓存中维护缓存的对象,请求的频率的计数和相对于存储的相对时间的使用相互平衡。 也就是说,高频率的请求有利于将对象保持在缓存中,但长时间的缓存有利于驱逐对象。 因此,缓存污染不太可能发生。
    • 7. 发明授权
    • System and method for continuously measuring quality of service in a
federated application environment
    • 在联合应用环境中持续测量服务质量的系统和方法
    • US6003079A
    • 1999-12-14
    • US807073
    • 1997-02-27
    • Richard J. FriedrichJerome Rolia
    • Richard J. FriedrichJerome Rolia
    • H04L12/24H04B3/46
    • H04L41/5009H04L41/5035
    • A system and method for measuring quality-of-service in a federated application environment is described. One or more administrative domains are provided with each administrative domain being interconnected with at least one other administrative domain to form the federated application environment. One or more interconnected network nodes are situated within each administrative domain with each network node including at least one capsule interface within which a managed method is executed. Instrumentation is associated with each capsule interface of each network node with the instrumentation collecting performance data on the managed method being executed within the capsule interface. A count sensor determines a processing time with the instrumentation within the capsule interface for each managed method. A network sensor determines send and receive bandwidth demand information with the instrumentation within the capsule interface for each managed method. A demand sensor determines physical host resource demands as needed to satisfy invocations of the managed method with the instrumentation within the capsule interface for each managed method. An interval sensor determines response times with the instrumentation within the capsule interface for each managed method. A display displays the throughput metrics, bandwidth demand metrics, service demand metrics and response time metrics.
    • 描述了用于测量联合应用环境中的服务质量的系统和方法。 提供一个或多个管理域,每个管理域与至少一个其他管理域互连以形成联合应用环境。 一个或多个互连的网络节点位于每个管理域内,每个网络节点包括至少一个胶囊接口,在其中执行被管理的方法。 仪器与每个网络节点的每个胶囊接口相关联,仪器集中在胶囊接口中执行的管理方法上的性能数据。 计数传感器使用每个管理方法的胶囊接口内的仪器来确定处理时间。 网络传感器通过每个管理方法的胶囊接口内的仪器来确定发送和接收带宽需求信息。 需求传感器根据需要确定物理主机资源需求,以满足对于每个管理方法的胶囊接口内的仪器的托管方法的调用。 间隔传感器通过每个管理方法的胶囊接口内的仪器来确定响应时间。 显示器显示吞吐量指标,带宽需求指标,服务需求指标和响应时间指标。
    • 8. 发明授权
    • System and method for efficiently monitoring quality of service in a
distributed processing environment
    • 在分布式处理环境中有效监控服务质量的系统和方法
    • US5958009A
    • 1999-09-28
    • US807734
    • 1997-02-27
    • Richard J. FriedrichJoseph J. MatinkaTracy F. Sienknecht
    • Richard J. FriedrichJoseph J. MatinkaTracy F. Sienknecht
    • H04L12/26G06F13/00
    • H04L43/00H04L12/2602H04L43/10H04L43/028H04L43/12H04L43/16
    • A measurement system and method of instrumenting a computer program for efficiently monitoring the quality of service in a distributed processing environment are described. A plurality of interconnected network nodes in a computer system with an application process operating on each network node is provided. At least one intelligent sensor is associated with each application process. Each intelligent sensor selectively collects data about at least one of the network node upon which the associated application process operates and the associated application process. An observer is associated with each application process and filters out unchanged and zero values from the data collected by the at least one intelligent sensor. A collector is logically associated with each network node. The intervalized collected data is asynchronously received into the collector periodically pushed from the observer. An analyzer is associated with the distributed processing environment and correlates the intervalized collected data. The intervalized collected data is asynchronously received into the analyzer periodically pushed from the collector.
    • 描述了在分布式处理环境中有效监视服务质量的计算机程序的测量系统和方法。 提供了具有在每个网络节点上运行的应用进程的计算机系统中的多个互连的网络节点。 至少一个智能传感器与每个应用过程相关联。 每个智能传感器选择性地收集关于相关联的应用进程操作的网络节点中的至少一个以及相关联的应用进程的数据。 观察者与每个应用过程相关联,并且从由至少一个智能传感器收集的数据中滤除不变的零值。 收集器与每个网络节点逻辑关联。 间隔收集的数据被异步地接收到从观察者周期性推送的收集器中。 分析器与分布式处理环境相关联,并将间隔收集的数据相关联。 间隔收集的数据被异步地收集到从收集器周期性地推送到分析器中。