会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 6. 发明授权
    • Fast dynamic measurement of connection bandwidth using at least a pair of non-compressible packets having measurable characteristics
    • 使用至少一对具有可测量特性的不可压缩分组来快速动态测量连接带宽
    • US07185082B1
    • 2007-02-27
    • US09636004
    • 2000-08-09
    • David del ValThomas B. BrownTroy D. BatterberryWilliam F. Schiefelbein
    • David del ValThomas B. BrownTroy D. BatterberryWilliam F. Schiefelbein
    • G06F15/16G06F15/173
    • H04L41/0896H04L41/509H04L43/0852H04L43/0882
    • The fast dynamic measurement of connection bandwidth utilizes a single pair of packets to calculate bandwidth between two entities on a network (such as the Internet). This calculation is based upon the packet-pair technique. This bandwidth measurement is extremely quick. On its journey across a network, communication equipment and modems may compress a packet. This compression shrinks the size of the packet; thus, it can distort the bandwidth calculation using such a shrunken packet. To avoid this distortion, the fast dynamic measurement of connection bandwidth employs non-compressible packets. More specifically, it employs highly entropic packets. Therefore, a packet cannot be compressed during its journey. In addition, on its journey across a network, packets may be rerouted, delayed, misrouted, and the like. These momentary delays may result in a momentary bad bandwidth calculation. This problem is ameliorated by using a history list at the client that keeps track of recent measurements. The client returns the median of that list to the server. That median is the specified bandwidth.
    • 连接带宽的快速动态测量利用一对分组来计算网络上的两个实体(如Internet)之间的带宽。 该计算基于分组对技术。 这种带宽测量非常快。 在通过网络的过程中,通信设备和调制解调器可以压缩数据包。 该压缩缩小了数据包的大小; 因此,可以使用这样收缩的分组来扭曲带宽计算。 为了避免这种失真,连接带宽的快速动态测量采用不可压缩数据包。 更具体地,它采用高熵分组。 因此,数据包在其旅程中无法压缩。 此外,在网络上的旅程中,数据包可能被重新路由,延迟,错误路由等。 这些瞬间延迟可能导致暂时的坏带宽计算。 通过使用跟踪最近测量的客户端的历史列表来改善这个问题。 客户端将该列表的中位数返回给服务器。 该中值是指定的带宽。
    • 7. 发明授权
    • System and method for sharing a non-volatile memory element as a boot
device
    • 用于共享非易失性存储器元件作为引导设备的系统和方法
    • US5848367A
    • 1998-12-08
    • US713874
    • 1996-09-13
    • Daniel A. LotockyMichael R. AtkinsonTroy D. Batterberry
    • Daniel A. LotockyMichael R. AtkinsonTroy D. Batterberry
    • G06F11/14G05B15/00H04N7/14
    • G06F11/1417
    • A system and method for multiple processors operating independently from one another to share memory as a boot device. The system includes a plurality of computing systems each including a processor and a local memory element. In response to a boot condition for a selected computing system, its processor begins a boot sequence in which it uses operational code contained within a non-volatile memory element that is shared by each of the computing systems. Arbitration for ownership of a memory bus interconnecting the non-volatile memory element to the processors and organization of a direct memory access transfer between the non-volatile memory element and local memory associated with the processor of the selected computing system is controlled by a memory access coordination circuit coupled between the computing systems and the memory bus.
    • 一种用于多个处理器的系统和方法,彼此独立地共享作为引导设备的内存。 该系统包括多个计算系统,每个计算系统包括处理器和本地存储器元件。 响应于所选择的计算系统的启动条件,其处理器开始引导序列,其中它使用包含在由每个计算系统共享的非易失性存储器元件内的操作代码。 将非易失性存储器元件与处理器互连的存储器总线的所有权仲裁以及非易失性存储器元件与与所选择的计算系统的处理器相关联的本地存储器之间的直接存储器访问传输的组织的仲裁由存储器访问 耦合在计算系统和存储器总线之间的协调电路。
    • 8. 发明授权
    • Midstream determination of varying bandwidth availability
    • 中游确定不同带宽可用性
    • US07634373B2
    • 2009-12-15
    • US11277056
    • 2006-03-21
    • Troy D. BatterberryAlexandre V. GrigorovitchAnders E. KlemetsJames C. StewartYejin Choi
    • Troy D. BatterberryAlexandre V. GrigorovitchAnders E. KlemetsJames C. StewartYejin Choi
    • G06F15/16
    • H04L65/4084H04L29/06027H04L65/80
    • Systems and methods for midstream determination of varying available bandwidth for streaming content between two network entities are described. During content streaming, a client requests a server to surge the content transmission rate. One or more bandwidth measurements are taken during the surge to determine if the increased transmission rate can be adequately managed. If the increased transmission rate can be adequately managed, the client may request the server to transmit remaining content at a transmission rate that is not greater than the increased, or surged, transmission rate. In a multi-bitrate file scenario, the surge rate may be higher than the rate of the fastest useable stream. In such a case, the fastest useable stream is selected. If the increased transmission rate is not suitable for future transmission, then the rate may remain at the original transmission rate.
    • 描述了用于中间流确定两个网络实体之间的流内容的可变带宽的系统和方法。 在内容流传输期间,客户端请求服务器浪费内容传输速率。 在浪涌期间进行一个或多个带宽测量,以确定是否可以充分地管理增加的传输速率。 如果可以适当地管理增加的传输速率,则客户端可以请求服务器以不大于增加或激增的传输速率的传输速率发送剩余内容。 在多比特率文件场景中,浪涌速率可能高于最快可用流的速率。 在这种情况下,选择最快的可用流。 如果增加的传输速率不适合将来传输,则速率可能保持在原始传输速率。
    • 9. 发明授权
    • Fast dynamic measurement of connection bandwidth using a pair of packets, a packet-pair bandwidth calculation and a list of recent bandwidth measurements
    • 使用一对分组快速动态测量连接带宽,分组对带宽计算和最近的带宽测量列表
    • US07188172B2
    • 2007-03-06
    • US11008509
    • 2004-12-09
    • David del ValThomas B. BrownTroy D. BatterberryWilliam F. Schiefelbein
    • David del ValThomas B. BrownTroy D. BatterberryWilliam F. Schiefelbein
    • G06F15/16G06F15/173
    • H04L41/0896H04L41/509H04L43/0852H04L43/0882
    • The fast dynamic measurement of connection bandwidth utilizes a single pair of packets to calculate bandwidth between two entities on a network (such as the Internet). This calculation is based upon the packet-pair technique. This bandwidth measurement is extremely quick. On its journey across a network, communication equipment and modems may compress a packet. This compression shrinks the size of the packet; thus, it can distort the bandwidth calculation using such a shrunken packet. To avoid this distortion, the fast dynamic measurement of connection bandwidth employs non-compressible packets. More specifically, it employs highly entropic packets. Therefore, a packet cannot be compressed during its journey. In addition, on its journey across a network, packets may be rerouted, delayed, misrouted, and the like. These momentary delays may result in a momentary bad bandwidth calculation. This problem is ameliorated by using a history list at the client that keeps track of recent measurements. The client returns the median of that list to the server. That median is the specified bandwidth.
    • 连接带宽的快速动态测量利用一对分组来计算网络上的两个实体(如Internet)之间的带宽。 该计算基于分组对技术。 这种带宽测量非常快。 在通过网络的过程中,通信设备和调制解调器可以压缩数据包。 该压缩缩小了数据包的大小; 因此,可以使用这样收缩的分组来扭曲带宽计算。 为了避免这种失真,连接带宽的快速动态测量采用不可压缩数据包。 更具体地,它采用高熵分组。 因此,数据包在其旅程中无法压缩。 此外,在网络上的旅程中,数据包可能被重新路由,延迟,错误路由等。 这些瞬间延迟可能导致暂时的坏带宽计算。 通过使用跟踪最近测量的客户端的历史列表来改善这个问题。 客户端将该列表的中位数返回给服务器。 该中值是指定的带宽。