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
    • 1. 发明申请
    • Q-in-Q Ethernet rings
    • Q-in-Q以太网振铃
    • US20100238813A1
    • 2010-09-23
    • US11477975
    • 2006-06-29
    • David AllanNigel BraggMarc Holness
    • David AllanNigel BraggMarc Holness
    • H04L12/28H04L12/26
    • H04L41/0668H04L12/437H04L12/4641H04L12/465H04L2012/421
    • A resilient virtual Ethernet ring has nodes interconnected by working and protection paths. Each node has a set of VLAN IDs (VIDs) for tagging traffic entering the ring by identifying the ingress node and whether the traffic is on the working or protection path. MAC addresses are learned in one direction around the ring. A port aliasing module records in a forwarding table a port direction opposite to a learned port direction. Each node can also cross-connect working and protection paths. If a span fails, the two nodes immediately on either side of the failure are cross-connected to fold the ring working-path traffic is cross-connected onto the protection path at the first of the two nodes and is then cross-connected back onto the working path at the second of the two nodes so that traffic always ingresses and egresses the ring from the working path.
    • 一个有弹性的虚拟以太网环具有通过工作和保护路径互连的节点。 每个节点都有一组VLAN ID(VID),用于通过识别入口节点来识别进入环的流量,以及流量是否在工作或保护路径上。 MAC地址是围绕环的一个方向学习的。 端口混叠模块在转发表中记录与学习端口方向相反的端口方向。 每个节点还可以交叉连接工作​​和保护路径。 如果跨度故障,则立即在故障两侧的两个节点交叉连接以折叠环工作路径业务交叉连接到两个节点中的第一个的保护路径上,然后交叉连接回 在两个节点的第二个处的工作路径,使得流量总是从工作路径进入和离开环。
    • 2. 发明申请
    • Provider backbone bridging - provider backbone transport internetworking
    • 提供商骨干桥接 - 供应商骨干网传输网络互连
    • US20070076719A1
    • 2007-04-05
    • US11479694
    • 2006-06-30
    • David AllanNigel BraggMarc HolnessRobert FriskneySimon Parry
    • David AllanNigel BraggMarc HolnessRobert FriskneySimon Parry
    • H04L12/56
    • H04L49/604H04L12/4662H04L12/66H04L45/22H04L45/28
    • An Ethernet virtual switched sub-network (VSS) is implemented as a virtual hub and spoke architecture overlaid on hub and spoke connectivity built of a combination of Provider Backbone Transport (spokes) and a provider backbone bridged sub-network (hub). Multiple VSS instances are multiplexed over top of the PBT/PBB infrastructure. A loop free resilient Ethernet carrier network is provided by interconnecting Provider Edge nodes through access sub-networks to Provider Tandems to form Provider Backbone Transports spokes with a distributed switch architecture of the Provider Backbone Bridged hub sub-network. Provider Backbone transport protection groups may be formed from the Provider Edge to diversely homed Provider Tandems by defining working and protection trunks through the access sub-network. The Provider Backbone Transport trunks are Media Access Control (MAC) addressable by the associated Provider Edge address or by a unique address associated with the protection group in the Provider Backbone Bridged network domain.
    • 以太网虚拟交换子网(VSS)被实现为覆盖在由提供商骨干传输(辐射)和提供商骨干桥接子网(集线器))组合的集线器和辐条连接上的虚拟集线器和分支架构。 多个VSS实例在PBT / PBB基础结构的顶部进行复用。 通过将Provider Edge节点通过接入子网络互连到Provider Tandem来提供无循环的弹性以太网运营商网络,以形成具有提供商骨干桥接子网络的分布式交换机架构的Provider Backbone Transports辐条。 提供商骨干传输保护组可以通过在接入子网中定义工作和保护中继,从提供商边缘形成多样化的提供商串联。 提供商骨干传输干线是可由相关联的提供商边缘地址寻址的媒体访问控制(MAC)或通过与提供商骨干桥接网络域中的保护组相关联的唯一地址。
    • 8. 发明授权
    • Systems and methods for scaling performance of Ethernet ring protection protocol
    • 以太网环保护协议扩展性能的系统和方法
    • US08509061B2
    • 2013-08-13
    • US13070098
    • 2011-03-23
    • Marc HolnessJie Hu
    • Marc HolnessJie Hu
    • H04L12/56H04L12/24
    • H04L12/437
    • The present disclosure provides systems and methods for scaling performance of Ethernet Ring Protection Protocol. Specifically, the systems and methods may apply to G.8032 and may provide protection switching control plane performance scaling benefits. In an exemplary embodiment, the present invention summarizes the per “virtual” ring control plane protocol into a single logical ring control plane protocol. Advantageously, the present invention transforms the G.8032 protocol from a per-virtual ring protocol to a per-logical ring control protocol. The mechanism/methodology that is used is to include minimal per-virtual ring instance information in to the Ring Automated Protection Switching (R-APS) (control) frames. Additionally, the present invention cleanly decouples the placement of the R-APS (control) channel block location on the ring from that of the virtual channel data blocks. Current G.8032 specifications tightly couple the location of each R-APS (control) channel block and the virtual channel block that it is managing.
    • 本公开提供了用于缩放以太网环保护协议的性能的系统和方法。 具体来说,系统和方法可能适用于G.8032,并可提供保护切换控制平面性能扩展的好处。 在示例性实施例中,本发明将每个“虚拟”环控制平面协议总结为单个逻辑环控制平面协议。 有利地,本发明将G.8032协议从每虚拟环协议转换为每逻辑环控制协议。 使用的机制/方法是将最小的每个虚拟环形实例信息包括在环自动保护倒换(R-APS)(控制)帧中。 此外,本发明将环上的R-APS(控制)信道块位置的布置与虚拟信道数据块的位置干净地去耦。 目前的G.8032规范紧密耦合每个R-APS(控制)信道块的位置和它所管理的虚拟通道块。
    • 9. 发明申请
    • TEN GIGABIT ETHERNET PORT PROTECTION SYSTEMS AND METHODS
    • 十个GIGABIT以太网端口保护系统和方法
    • US20120092985A1
    • 2012-04-19
    • US12907165
    • 2010-10-19
    • Ross CairdMichael WatfordOnder YazarMarc Holness
    • Ross CairdMichael WatfordOnder YazarMarc Holness
    • G06F11/00
    • H04L45/22H04L41/0213H04L41/0663H04L43/0811H04L45/245H04L45/28Y02D50/30
    • The present disclosure provides protection systems and methods for Ethernet ports. In particular, the present invention may provide a form of facility protection for any two facilities, located on any two cards. The facilities are provisioned as a protected pair and using automatic ITU-T Y.1731 control frames for control. In an exemplary embodiment, provisioning includes creation of an L2 protection service and associating it to a pair of facilities. One facility is identified as a working facility and the other as a protection facility. Under normal conditions (i.e., no facility fault), the working facility is in an active state and not conditioning while the protection facility is in a standby state and transmitting conditioning to subtending equipment. If a facility fault is detected at the working facility, then the working facility transmits condition Remote Fault (RF) and the protection facility removes it's transmit conditioning and becomes the active facility.
    • 本公开提供了用于以太网端口的保护系统和方法。 特别地,本发明可以为位于任何两张卡上的任何两个设施提供一种设施保护形式。 这些设施被配置为受保护对,并使用自动的ITU-T Y.1731控制帧进行控制。 在示例性实施例中,供应包括创建L2保护服务并将其与一对设施相关联。 一个设施被确定为工作设施,另一个设施被确定为保护设施。 在正常情况下(即没有设备故障),工作设备处于活动状态,而不是在保护设备处于待机状态时进行调理,并且将调理传送到对准设备。 如果在工作场所检测到设备故障,则工作设备传送条件远程故障(RF),保护设备将其发送调理移除,成为主动设备。
    • 10. 发明授权
    • Systems and methods for dynamic operations, administration, and management
    • 用于动态操作,管理和管理的系统和方法
    • US09264328B2
    • 2016-02-16
    • US13290947
    • 2011-11-07
    • Jie HuMarc HolnessCory GordonMradula NeginhalMadhavi R. JoshiAsheesh Jadav
    • Jie HuMarc HolnessCory GordonMradula NeginhalMadhavi R. JoshiAsheesh Jadav
    • H04L12/26H04L12/24
    • H04L43/103H04L41/0816H04L41/0886H04L43/04H04L43/0811H04L43/16
    • Systems and methods with dynamic Connectivity Fault Management (CFM) and Continuity Check Messages (CCMs) that enable dynamic configurations to avoid limitations associated with static reconfigurations. Variously, a network, a method, and a network element are configured to implement a dynamic CFM method for dynamic notifications and actions taken based thereon between Maintenance End Points (MEPs). The systems and methods may also include a CCM attribute adjustment method between two MEPs, a CCM suspension and/or resumption method between two MEPs, and a MEP auto-discovery and leaving method. Advantageously, the systems and methods may be utilized in a variety of contexts including controlled maintenance, in-service software upgrades, network congestion, discovery of new remote MEPs, and the like to enable dynamic configurations between MEPs. The systems and methods may also apply to Carrier Ethernet, Multiprotocol Label Switching-Transport Profile (MPLS-TP), and the like.
    • 具有动态连接故障管理(CFM)和连续性检查消息(CCM)的系统和方法,使动态配置能够避免与静态重新配置相关的限制。 不同的是,网络,方法和网络元件被配置为实现用于动态通知的动态CFM方法和基于维护终点(MEP)之间的动作通知。 系统和方法还可以包括两个MEP之间的CCM属性调整方法,两个MEP之间的CCM暂停和/或恢复方法以及MEP自动发现和离开方法。 有利地,系统和方法可以在各种上下文中使用,包括受控维护,在役软件升级,网络拥塞,新的远程MEP的发现等,以实现MEP之间的动态配置。 系统和方法也可以应用于电信级以太网,多协议标签交换传输模式(MPLS-TP)等。