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    • 56. 发明申请
    • Memory Chip for High Capacity Memory Subsystem Supporting Multiple Speed Bus
    • 用于支持多速总线的大容量存储器子系统的存储器芯片
    • US20090006715A1
    • 2009-01-01
    • US11769006
    • 2007-06-27
    • Gerald Keith BartleyJohn Michael BorkenhagenPhilip Raymond Germann
    • Gerald Keith BartleyJohn Michael BorkenhagenPhilip Raymond Germann
    • G06F12/00
    • G06F13/4243
    • A memory module contains an interface for receiving memory access commands from an external source, in which a first portion of the interface receives memory access data at a first bus frequency and a second portion of the interface receives memory access data at a second different bus frequency. Preferably, the memory module contains a second interface for re-transmitting memory access data, also operating at dual frequency. The memory module is preferably used in a high-capacity memory subsystem organized in a tree configuration in which data accesses are interleaved. Preferably, the memory module has multiple-mode operation, one of which supports dual-speed buses for receiving and re-transmitting different parts of data access commands, and another of which supports conventional daisy-chaining.
    • 存储器模块包含用于从外部源接收存储器访问命令的接口,其中接口的第一部分以第一总线频率接收存储器访问数据,并且接口的第二部分以第二不同总线频率接收存储器访问数据 。 优选地,存储器模块包含第二接口,用于重新传输也以双频操作的存储器访问数据。 存储器模块优选地用于以树形结构组织的高容量存储器子系统,其中数据访问是交错的。 优选地,存储器模块具有多模式操作,其中之一支持用于接收和重新传送数据访问命令的不同部分的双速总线,另一个支持常规的菊花链。
    • 57. 发明申请
    • Hub for Supporting High Capacity Memory Subsystem
    • 支持高容量内存子系统的集线器
    • US20090006705A1
    • 2009-01-01
    • US11769019
    • 2007-06-27
    • Gerald Keith BartleyJohn Michael BorkenhagenPhilip Raymond Germann
    • Gerald Keith BartleyJohn Michael BorkenhagenPhilip Raymond Germann
    • G06F13/36
    • G06F13/4243
    • A high-capacity memory subsystem architecture utilizes multiple memory modules arranged in one or more clusters, each attached to a respective hub which in turn is attached to a memory controller. Within a cluster, data is interleaved so that each data access command accesses all modules of the cluster. The hub communicates with the memory modules at a lower bus frequency, but the distributing of data among multiple modules enables the cluster to maintain the composite data rate of the memory-controller-to-hub bus. Preferably, the memory system employs buffered memory chips having dual-mode operation, one of which supports a cluster configuration in which data is interleaved and the communications buses operate at reduced bus width and/or reduced bus frequency to match the level of interleaving
    • 高容量存储器子系统架构利用布置在一个或多个簇中的多个存储器模块,每个存储器模块连接到相应的集线器,该集线器又连接到存储器控制器。 在集群内,数据被交织,以便每个数据访问命令访问集群的所有模块。 集线器以较低的总线频率与存储器模块通信,但是在多个模块之间分配数据使集群能够保持存储器 - 控制器到集线器总线的复合数据速率。 优选地,存储器系统采用具有双模操作的缓冲存储器芯片,其中之一支持数据被交错的集群配置,并且通信总线以减小的总线宽度和/或减小的总线频率进行操作以匹配交织电平
    • 59. 发明授权
    • SDRAM address error detection method and apparatus
    • SDRAM地址错误检测方法和装置
    • US06754858B2
    • 2004-06-22
    • US09820436
    • 2001-03-29
    • John Michael BorkenhagenBrian T. Vanderpool
    • John Michael BorkenhagenBrian T. Vanderpool
    • G11C2900
    • G11C11/408G11C7/24
    • Synchronous dynamic random access memory (SDRAM) method and apparatus are provided for implementing address error detection. Addressing errors are detected on the memory interface independent of data ECC, with reduced memory read access latency and improved processor performance. Addressing errors are detected while allowing differentiation between memory addressing failures that are required to stop the system and memory cell failures that allow continued operation. A predefined pattern is generated for a write burst to the SDRAM. The predefined pattern is dependent on a write address. A bit of the predefined pattern is sequentially stored into the SDRAM on each burst transfer of the write burst to the SDRAM. An expected pattern is generated from a read address for a read burst. The stored predefined pattern is retrieved during a read burst. The retrieved predefined pattern is compared to the generated expected pattern for identifying a type of an addressing error.
    • 提供同步动态随机存取存储器(SDRAM)方法和装置,用于实现地址错误检测。 在存储器接口上检测到寻址错误,独立于数据ECC,具有减少的存储器读访问延迟和改进的处理器性能。 检测到寻址错误,同时允许区分停止系统所需的存储器寻址故障和允许继续操作的存储器单元故障。 为SDRAM的写突发生成预定义的模式。 预定义模式取决于写入地址。 在写入突发的每次突发传送到SDRAM时,预定义模式的一部分被顺序地存储到SDRAM中。 从读取脉冲串的读取地址产生预期模式。 在读突发期间检索存储的预定义模式。 将检索到的预定义模式与生成的期望模式进行比较,以识别寻址错误的类型。
    • 60. 发明授权
    • Method and apparatus for selecting thread switch events in a multithreaded processor
    • 用于在多线程处理器中选择线程切换事件的方法和装置
    • US06697935B1
    • 2004-02-24
    • US08958716
    • 1997-10-23
    • John Michael BorkenhagenRichard James EickemeyerWilliam Thomas FlynnAndrew Henry Wottreng
    • John Michael BorkenhagenRichard James EickemeyerWilliam Thomas FlynnAndrew Henry Wottreng
    • G06F1500
    • G06F9/4843G06F9/3851
    • A system and method for performing computer processing operations in a data processing system includes a multithreaded processor and thread switch logic. The multithreaded processor is capable of switching between two or more threads of instructions which can be independently executed. Each thread has a corresponding state in a thread state register depending on its execution status. The thread switch logic contains a thread switch control register to store the conditions upon which a thread switch will occur. The thread switch logic has a time-out register which forces a thread switch when execution of the active thread in the multithreaded processor exceeds a programmable period of time. Thread switch logic also has a forward progress count register to prevent repetitive thread switching between threads in the multithreaded processor. Thread switch logic also is responsive to a software manager capable of changing the priority of the different threads and thus superseding thread switch events.
    • 用于在数据处理系统中执行计算机处理操作的系统和方法包括多线程处理器和线程切换逻辑。 多线程处理器能够在可独立执行的两条或更多条指令线之间进行切换。 每个线程根据执行状态在线程状态寄存器中具有相应的状态。 线程开关逻辑包含一个线程切换控制寄存器,用于存储发生线程切换的条件。 线程开关逻辑具有超时寄存器,当多线程处理器中的活动线程的执行超过可编程时间段时,强制执行线程切换。 线程开关逻辑还具有前进进程计数寄存器,以防止多线程处理器中的线程之间的重复线程切换。 线程切换逻辑还响应于能够改变不同线程的优先级并从而取代线程切换事件的软件管理器。