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    • 74. 发明授权
    • Controlling admission of data streams onto a network based on end-to-end measurements
    • 基于端到端测量控制数据流到网络的准入
    • US07239611B2
    • 2007-07-03
    • US10378532
    • 2003-03-03
    • Ashish KhistiChristian HuitemaAditya Dube
    • Ashish KhistiChristian HuitemaAditya Dube
    • H04J1/16H04J3/14
    • H04L43/50H04L12/56
    • Appropriate determinations in a series of tests, which transition from more passive tests to more active tests, control the admission of data streams onto a network data path. More passive tests can include promiscuous mode and packet-pair tests. When the results of more passive tests indicate a reduce likelihood of a data stream causing a network data path to transition into a congested state, the network data path can be actively probed to make a more precise determination on the likelihood of congestion. A train of diagnostic data packets is transmitted at a diagnostic data transfer rate having a significantly reduced chance of causing congestion. A train of target data packets is transmitted at a requested application transfer data rate. The number of target data packets received within a specified delay threshold is compared to the number of diagnostic data packets receive with the delay threshold.
    • 在一系列测试中进行适当的确定,从更多的被动测试转换到更活跃的测试,控制数据流进入网络数据路径。 更多的被动测试可以包括混杂模式和分组对测试。 当被动测试的结果表明数据流的可能性降低导致网络数据路径转变到拥塞状态时,网络数据路径可以被主动地探测以对拥塞的可能性做出更准确的确定。 一系列诊断数据分组以诊断数据传输速率发送,具有显着减少引起拥塞的几率。 以所请求的应用传输数据速率发送一串目标数据分组。 将指定延迟阈值内接收到的目标数据包的数量与延迟阈值接收的诊断数据包的数量进行比较。
    • 78. 发明申请
    • Peer-to-peer name resolution protocol (PNRP) and multilevel cache for use therewith
    • 对等名称解析协议(PNRP)和与其一起使用的多级缓存
    • US20050267993A1
    • 2005-12-01
    • US11152588
    • 2005-06-13
    • Christian HuitemaJohn Miller
    • Christian HuitemaJohn Miller
    • H04L12/56G06F17/30H04L29/08H04L29/12G06F15/16
    • H04L29/12066H04L29/12811H04L61/1511H04L61/6009H04L67/104H04L67/1065
    • A serverless name resolution protocol ensures convergence despite the size of the network, without requiring an ever-increasing cache and with a reasonable numbers of hops. This convergence is ensured through a multi-level cache and a proactive cache initialization strategy. The multi-level cache is built based on a circular number space. Each level contains information from different levels of slivers of the circular space. A mechanism is included to add a level to the multi-level cache when the node determines that the last level is full. A peer-to-peer name resolution protocol (PNRP) includes a mechanism to allow resolution of names which are mapped onto the circular number space through a hash function. Further, the PNRP may also operate with the domain name system by providing each node with an identification consisting of a domain name service (DNS) component and a unique number.
    • 无需服务器的名称解析协议确保收敛,尽管网络的大小,而不需要越来越多的缓存和合理的跳数。 这种融合通过多级缓存和主动缓存初始化策略来确保。 多级缓存基于循环数字空间构建。 每个级别都包含来自不同级别的圆形空间的信息。 当节点确定最后一个级别已满时,包括一个机制来向多级缓存添加级别。 对等名称解析协议(PNRP)包括允许通过散列函数映射到循环号码空间的名称的解析机制。 此外,PNRP还可以通过为每个节点提供由域名服务(DNS)组件和唯一号码组成的标识来与域名系统一起操作。
    • 79. 发明申请
    • Peer-to-peer cloud-split detection and repair methods
    • 对等云分割检测和修复方法
    • US20050157659A1
    • 2005-07-21
    • US10696776
    • 2003-10-30
    • Christian Huitema
    • Christian Huitema
    • H04L12/28H04L29/06H04L29/08H04L29/14
    • H04L67/104H04L63/0823H04L67/1048H04L69/40
    • A method for detecting and repairing cloud splits in a distributed system such as a peer-to-peer (P2P) system is presented. Nodes in a cloud maintain a multilevel cache of entries for a subset of nodes in the cloud. The multilevel cache is built on a circular number space, where each node in the cloud is assigned a unique identifier (ID). Nodes are recorded in levels of the cache according to the distance from the host node. The size of the cloud is estimated using the cache, and cloud-split tests are performed with a frequency inversely proportional to the size of the cloud. Cloud splits are initially detected by polling a seed server in the cloud for a node N having an ID equal to the host ID+1. The request is redirected to another node in the cloud, and a best match for N is resolved. If the best-match is closer to the host than any node in the host's cache, a cloud split is presumed. The cloud split is repaired by flooding the host's address to the newly found node and sending repair messages to nodes in the host's top cache level. Each node receiving a repair message repeats a similar process, and sends repair messages to nodes in its next lower cache level.
    • 提出了一种在分布式系统(如P2P)系统中检测和修复云分割的方法。 云中的节点维护云中节点子集的条目的多级缓存。 多层缓存构建在循环数字空间上,云中的每个节点都分配有唯一的标识符(ID)。 节点根据与主机节点的距离记录在高速缓存的级别中。 使用缓存估计云的大小,并且以与云的大小成反比的频率执行云分割测试。 最初通过轮询云中的种子服务器来检测具有等于主机ID + 1的ID的节点N的云分割。 该请求被重定向到云中的另一个节点,并且N的最佳匹配被解决。 如果最佳匹配比主机缓存中的任何节点更接近主机,则假定云分割。 通过将主机地址淹没到新发现的节点并将修复消息发送到主机顶部缓存级别的节点来修复云分割。 接收修复消息的每个节点重复类似的过程,并将修复消息发送到其下一个较低高速缓存级别的节点。