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    • 2. 发明授权
    • Dynamic I/O data address relocation facility
    • 动态I / O数据地址搬迁设施
    • US5584042A
    • 1996-12-10
    • US71160
    • 1993-06-01
    • Roger L. CormierSteven G. GlassenMoon J. KimAllen H. Preston
    • Roger L. CormierSteven G. GlassenMoon J. KimAllen H. Preston
    • G06F12/10G06F12/02G06F13/12G06F13/00
    • G06F12/0284
    • For parallel, massively parallel and data server networks a zone relocation facility and dynamic I/O data address relocation facility which allows the relocation of memory space for partitions for on or more clients or guests while the client guest and one or more of the server/host or another client guest are actively executing I/O instructions. An I/O data address relocation facility includes an operation request block in the local storage of a client/guest with a second copy of the operation request block in a server/host located in the main store, and a comparator in the system channel subsystem. An application locates CCWs and IDAWS anywhere and the server/host will relocate data to its partition. The partition size can be expanded to allow dynamic response to a need for memory by changing the partition and moving data to the expanded partition while other activities are being processed.
    • 对于并行,大规模并行和数据服务器网络,区域重定位设施和动态I / O数据地址重定位设施允许客户机访客和一个或多个服务器/ 主机或其他客户端客户正在主动执行I / O指令。 I / O数据地址重定位设备包括在位于主存储器中的服务器/主机中的客户端/客户机的本地存储器中的操作请求块的第二副本的操作请求块,以及系统信道子系统中的比较器 。 应用程序将CCW和IDAWS位于任何位置,服务器/主机将将数据重新分配到其分区。 可以扩展分区大小,以便通过在处理其他活动时更改分区并将数据移动到扩展分区,从而满足对内存需求的动态响应。
    • 5. 发明授权
    • Method for establishing variable path group associations and
affiliations between
    • 在“非静态”MP系统和共享设备之间建立可变路径组关联和关联的方法
    • US4455605A
    • 1984-06-19
    • US286396
    • 1981-07-23
    • Roger L. CormierRobert J. DuganRichard R. GuyettePaul J. WanishCarl Zeitler, Jr.
    • Roger L. CormierRobert J. DuganRichard R. GuyettePaul J. WanishCarl Zeitler, Jr.
    • G06F13/12G06F13/14G06F13/40G06F15/177H04L29/00H04L29/04G06F3/04G06F13/00
    • G06F13/4022G06F15/177
    • Multiprocessing systems having changeable CPU configurations generate unique changeable identifications (ID's). These are presented by I/O channels over various I/O connection paths, in association with special path defining commands and function data. Related path state indications are stored peripherally in path map tables and define path group associations for sustaining path-independent I/O operations. When a device is reserved via one path in a path group the reserve affiliation is extended automatically (in the path tables ) to each path in the group, thereby rendering each path accessible in a reserved mode. The path defining commands are used for adding paths to, resigning paths from and disbanding groups. Special sensing commands are used for sensing path reservation and grouping states. When a command for adding or resigning a path is presented to a reserved device via one path in a group the reserve is automatically realigned to the enlarged or reduced group. When a command for disbanding a group is presented to a reserved device the reserve is realigned to apply only to the path on which the command is presented. The foregoing special commands are required to be obeyed by the device even if it currently has a conflicting allegiance to the same system or another system. Consequently, paths can be added to an established path group without requiring potentially premature release of any allegiance.
    • 具有可更改CPU配置的多处理系统可生成唯一可更改的标识(ID)。 这些通过各种I / O连接路径的I / O通道与特殊路径定义命令和功能数据相关联。 相关路径状态指示外围存储在路径映射表中,并定义用于维持与路径无关的I / O操作的路径组关联。 当通过路径组中的一个路径保留设备时,保留联盟将自动扩展(在路径表中)到组中的每个路径,从而使每个路径在保留模式下可访问。 路径定义命令用于添加路径,撤销和解散组的路径。 特殊传感命令用于感测路径预留和分组状态。 当通过组中的一个路径将添加或重新命名路径的命令呈现给保留设备时,保留将自动重新对准放大或缩小的组。 当将分组解除组的命令呈现给保留设备时,保留被重新对齐以仅应用于显示命令的路径。 上述特殊命令需要被设备遵守,即使它当前对相同的系统或其他系统具有冲突的效忠。 因此,可以将路径添加到已建立的路径组中,而不需要潜在地过早释放任何效忠。
    • 6. 发明授权
    • Block transfers of information in data processing networks
    • 阻止数据处理网络中的信息传输
    • US4445176A
    • 1984-04-24
    • US107806
    • 1979-12-28
    • John L. BurkRoger L. CormierMichael H. HartungRay A. LarnerDonald J. LucasKenneth R. LynchBrian B. MooreHoward L. PageDavid H. WansorCarl Zeitler, Jr.
    • John L. BurkRoger L. CormierMichael H. HartungRay A. LarnerDonald J. LucasKenneth R. LynchBrian B. MooreHoward L. PageDavid H. WansorCarl Zeitler, Jr.
    • G06F13/00G06F13/12G06F15/167
    • G06F15/167G06F13/122
    • Secondary storage subsystems exchange messages and data with host data processing systems and also forward messages between host systems. Host systems thereby communicate with each other in addition to having access to data in subsystem storage. Access to subsystem storage is initiated by a "request" sent from a host to the subsystem. Each request is a message containing an array of one or more commands, each command specifying a transfer of data or a control function to be performed by the subsystem. A subsystem may process more than one request at a time. It also may process the commands in a request in an arbitrary sequence suited to the availability of subsystem resources and data links to host systems. After all commands in a request have been processed the subsystem transmits an associated "completion" message to the host system which originated the request. The completion message indicates the status of completion or abnormal termination of each command in the associated request. An "adapter" processor associated with each host and subsystem operates on an asynchronous basis to transfer messages and data relative to the associated host or subsystem. One or more processing "engines" in each adapter communicates with one or more CPU's in the associated host or subsystem through an associated "adapter store". A portion of each adapter store is used as a buffer pool for constructing "subchannel control spaces" to control transers of messages and data. Elements of each subchannel control space are returned to free status as soon as they are not needed for sustaining associated transfers.
    • 辅助存储子系统与主机数据处理系统交换消息和数据,并在主机系统之间转发消息。 因此,主机系统除了能够访问子系统存储器中的数据之外还相互通信。 通过从主机发送到子系统的“请求”启动对子系统存储的访问。 每个请求是包含一个或多个命令的数组的消息,每个命令指定要由子系统执行的数据传送或控制功能。 子系统可以一次处理多个请求。 它还可以以适合于子系统资源的可用性和到主机系统的数据链路的任意顺序处理请求中的命令。 在处理请求中的所有命令之后,子系统向发起请求的主机系统发送关联的“完成”消息。 完成消息指示相关请求中的每个命令的完成状态或异常终止。 与每个主机和子系统相关联的“适配器”处理器在异步的基础上操作以相对于相关联的主机或子系统传送消息和数据。 每个适配器中的一个或多个处理“引擎”通过相关联的“适配器存储”与相关主机或子系统中的一个或多个CPU进行通信。 每个适配器存储的一部分用作缓冲池,用于构建“子信道控制空间”来控制消息和数据的传输。 每个子通道控制空间的元素一旦不需要维持相关的传输就返回到空闲状态。