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    • 1. 发明申请
    • ENCAPSULATING CPRI FRAMES
    • 封装CPRI框架
    • US20150249549A1
    • 2015-09-03
    • US14408794
    • 2012-07-23
    • Riccardo MartinottiDiego CavigliaGiulio Bottari
    • Riccardo MartinottiDiego CavigliaGiulio Bottari
    • H04L12/46H04L12/939
    • H04L12/4633H04L49/555
    • A Common Public Radio Interface (CPRI) link involves using a protocol stack having a CPRI layer and an emulation layer to emulate a point to point link, to enable the CPRI link to operate over a packet switched network. The emulation layer can be a pseudowire emulation which encapsulates multiple CPRI frames in a packet with overhead. A multiplexing layer such as Internet Protocol (IP) or Multiprotocol Label Switching (MPLS) can be used, for sending the packet over an Ethernet network. The usual need for a point to point infrastructure for the CPRI link can be avoided and the CPRI link can be implemented over more complex but usually cheaper packet networks, thus reducing costs or enabling more widespread application over existing packet networks. This applies whether the packet network is dedicated to the CPRI link, or shared with other packets. It can be useful for distributed radio base stations.
    • 通用公共无线电接口(CPRI)链路涉及使用具有CPRI层和仿真层的协议栈来模拟点对点链路,以使得CPRI链路能够通过分组交换网络进行操作。 仿真层可以是在具有开销的分组中封装多个CPRI帧的伪线仿真。 可以使用诸如因特网协议(IP)或多协议标签交换(MPLS)的复用层,用于通过以太网发送分组。 可以避免对CPRI链路的点对点基础设施的通常需要,并且可以通过更复杂但通常更便宜的分组网络来实现CPRI链路,从而降低成本或使现有分组网络上的应用更广泛。 这适用于分组网络是专用于CPRI链路还是与其他分组共享。 这对于分布式无线电基站是有用的。
    • 3. 发明授权
    • Apparatus and method for an optical network
    • 光网络的装置和方法
    • US09462358B2
    • 2016-10-04
    • US14239308
    • 2011-10-12
    • Diego CavigliaGiulio BottariRiccardo Martinotti
    • Diego CavigliaGiulio BottariRiccardo Martinotti
    • H04J14/02H04Q11/00
    • H04Q11/0005H04J14/02H04J14/0212H04J14/0284H04J14/0294H04Q2011/0016H04Q2011/0037
    • An optical network is configured to provide an optical reroute over a backup path (2139) during a failure in a signal path (2133). The network comprises a first node (B). A second node (C) is coupled to receive a signal from the first node (B) via the signal path (2133), and a backup signal via the backup path (2139). The network is adapted to transmit a signal and a corresponding backup signal from the first node to the second node even when there is no failure in the signal path (2133), wherein the backup signal is blocked at the second node (C) when there is no failure in the signal path (2133). Embodiments of the invention utilize the broadcast and blocking functionalities of a wavelength selective switch (WSS) device. Such WSS devices enable, in the case of a failure of a link, the fast switchover of optical traffic onto local detours within a reduced time.
    • 光网络被配置为在信号路径(2133)中的故障期间在备用路径(2139)上提供光学重新路由。 网络包括第一节点(B)。 第二节点(C)被耦合以经由信号路径(2133)从第一节点(B)接收信号,以及经由备用路径(2139)的备用信号。 即使在信号路径(2133)中没有故障的情况下,该网络适于将信号和对应的备份信号从第一节点发送到第二节点,其中当第二节点(C))在第二节点(C)处阻止备份信号 在信号路径中没有故障(2133)。 本发明的实施例利用波长选择开关(WSS)装置的广播和阻塞功能。 在链路故障的情况下,这样的WSS设备能够在减少的时间内快速地切换光流量到本地绕行。
    • 4. 发明申请
    • Apparatus and Method For an Optical Network
    • 光网络的装置和方法
    • US20140294383A1
    • 2014-10-02
    • US14239308
    • 2011-10-12
    • Diego CavigliaGiulio BottariRiccardo Martinotti
    • Diego CavigliaGiulio BottariRiccardo Martinotti
    • H04Q11/00H04J14/02
    • H04Q11/0005H04J14/02H04J14/0212H04J14/0284H04J14/0294H04Q2011/0016H04Q2011/0037
    • An optical network is configured to provide an optical reroute over a backup path (2139) during a failure in a signal path (2133). The network comprises a first node (B). A second node (C) is coupled to receive a signal from the first node (B) via the signal path (2133), and a backup signal via the backup path (2139). The network is adapted to transmit a signal and a corresponding backup signal from the first node to the second node even when there is no failure in the signal path (2133), wherein the backup signal is blocked at the second node (C) when there is no failure in the signal path (2133). Embodiments of the invention utilize the broadcast and blocking functionalities of a wavelength selective switch (WSS) device. Such WSS devices enable, in the case of a failure of a link, the fast switchover of optical traffic onto local detours within a reduced time.
    • 光网络被配置为在信号路径(2133)中的故障期间在备用路径(2139)上提供光学重新路由。 网络包括第一节点(B)。 第二节点(C)被耦合以经由信号路径(2133)从第一节点(B)接收信号,以及经由备用路径(2139)的备用信号。 即使在信号路径(2133)中没有故障的情况下,该网络适于将信号和对应的备份信号从第一节点发送到第二节点,其中当第二节点(C))备份信号在第二节点 在信号路径中没有故障(2133)。 本发明的实施例利用波长选择开关(WSS)装置的广播和阻塞功能。 在链路故障的情况下,这样的WSS设备能够在减少的时间内快速地切换光流量到本地绕行。
    • 6. 发明申请
    • WSON RESTORATION
    • WSON恢复
    • US20150244453A1
    • 2015-08-27
    • US14344973
    • 2011-10-12
    • Giulio BottariDiego CavigliaDaniele Ceccarelli
    • Giulio BottariDiego CavigliaDaniele Ceccarelli
    • H04B10/032H04Q11/00H04J14/02H04B10/2575
    • H04B10/032H04B10/2575H04J14/00H04J14/0209H04J14/0212H04J14/0217H04J14/0257H04J14/0267H04J14/0268H04J14/0271H04J14/0284H04Q11/0005H04Q2011/0043
    • Dynamic restoration involves routing and bandwidth assignment of an unplanned restoration path in a wavelength switched optical network (20), having regeneration nodes (60), nodes each having a ROADM (62) having drop paths and add paths. An electrical switch (68) provides configurable regeneration capacity by coupling selected drop paths to selected add paths. Some of the configurable regeneration capacity is kept for unplanned restoration paths. A PCE determines (120) routing and bandwidth assignments for an unplanned restoration path for the traffic flow to avoid a fault, and sends (130) configuration messages to the nodes to set up the unplanned restoration path dynamically and to configure the electrical switch to provide regeneration on the path. Keeping some reconfigurable regeneration capacity enables much longer unplanned paths to be found to avoid faults, and enables wavelength conversion if needed. Thus the reliability of finding at least one path avoiding the fault can be increased.
    • 动态恢复涉及在具有再生节点(60)的波长交换光网络(20)中的非计划恢复路径的路由和带宽分配,每个节点具有具有丢弃路径和添加路径的ROADM(62)。 电开关(68)通过将所选择的放置路径耦合到所选择的附加路径来提供可配置的再生能力。 一些可配置的再生能力被保留用于非计划的恢复路径。 PCE确定(120)用于业务流的非计划恢复路径的路由和带宽分配以避免故障,并且向节点发送(130)配置消息以动态地建立非计划恢复路径并且配置电开关以提供 在路上再生。 保持一些可重新配置的再生能力可以实现更长的非计划路径,以避免故障,并在需要时实现波长转换。 因此,可以增加找到至少一个避免故障的路径的可靠性。
    • 7. 发明申请
    • Designing a Network
    • US20110004455A1
    • 2011-01-06
    • US12678278
    • 2008-09-24
    • Diego CavigliaGiulio Bottari
    • Diego CavigliaGiulio Bottari
    • G06F17/50
    • H04L41/145H04L41/12
    • A method of designing a network given a set of network nodes, a set of adjacencies defining which nodes can be connected together directly and so are topologically adjacent and a traffic matrix comprising a plurality of entries each indicating a source node, a destination node and a number being the number of connections from the source node to the destination node that are to be present in the network; the method comprising the steps of: simulating the network nodes and the adjacencies thereof to generate a simulated network; simulating applying the traffic matrix entry by entry, each application of an entry causing a number of links consistent with the entry to be simulated between the source and destination nodes indicated in the entry, via a chain of topologically adjacent nodes; simulating the effect of at least one failure on the simulated network, including simulating the re-routing of the links onto a replacement chain where the chain is broken; determining the number of links between each pair of topologically adjacent nodes; repeating these steps for a plurality of iterations, the order in which the entries in the traffic matrix and the faults are applied being different in different iterations; for each iteration and for each topologically adjacent pair of nodes, determining an average number of links between the pair of nodes for all iterations so far; for each iteration and for each pair of topologically adjacent pair of nodes, determining a variance in the average number of links for all iterations so far; for each iteration, determining an average variance in the average number of links for all iterations so far, the average being taken across the entire network; for each iteration, determining a variance in the variances in the average number of links for all iterations so far, the variance being taken across the entire network; determining when to cease iterating based upon the variance in the variances in the average number of links.