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. 发明授权
    • Network system configured for resolving forward error correction during a link training sequence
    • 网络系统配置为在链路训练序列期间解决前向纠错
    • US09455797B2
    • 2016-09-27
    • US13996084
    • 2012-05-07
    • Kent LustedIlango Ganga
    • Kent LustedIlango Ganga
    • H04L1/00
    • H04L1/004H04L1/0009H04L1/0017
    • One embodiment provides a method for resolving a forward error correction (FEC) protocol. The method includes requesting, by a network node element during an auto-negotiation period between the node element and a link partner, to resolve at least one FEC mode during a link training period; wherein the auto-negotiation period and the link training period are defined by an Ethernet communications protocol and the auto-negotiation period occurs before the link training period; determining, by the network node element, at least one channel quality parameter of at least one channel of a communication link between the network node element and the link partner; and determining, by the network node element during the link training period, whether to enable at least one FEC mode for use by the network node element based on, at least in part, the at least one channel quality parameter.
    • 一个实施例提供了一种用于解决前向纠错(FEC)协议的方法。 该方法包括在节点元素和链路伙伴之间的自动协商周期期间由网络节点元素请求在链路训练周期期间解析至少一个FEC模式; 其中所述自动协商周期和所述链路训练周期由以太网通信协议定义,并且所述自动协商周期在所述链路训练周期之前发生; 由所述网络节点元素确定所述网络节点元件和所述链路伙伴之间的通信链路的至少一个信道的至少一个信道质量参数; 以及在所述链路训练周期期间由所述网络节点元素确定是否至少部分地基于所述至少一个信道质量参数来使能所述网络节点元素使用的至少一个FEC模式。
    • 2. 发明申请
    • Dual speed interface between media access control unit and physical unit
    • 介质访问控制单元与物理单元之间的双速接口
    • US20050259685A1
    • 2005-11-24
    • US10851002
    • 2004-05-21
    • Luke ChangIlango Ganga
    • Luke ChangIlango Ganga
    • H04J3/22H04L12/56H04W88/06
    • H04W88/06
    • An apparatus, system, and method to provide a dual speed bi-directional link between a media access control (“MAC”) unit and a physical (“PHY”) unit. The MAC unit controls access to a physical medium and the PHY unit couples to the physical medium. A bi-directional link couples first transmit data paths (“TXDPs”) and first receive data paths (“RXDPs”) of the MAC unit to second TXDPs and second RXDPs of the PHY unit. The MAC and PHY units configured to route data along all of the first and second TXDPs and RXDPs during fast speed operation and to route the data along one of the first and second TXDPs and one of the first and second RXDPs during the slow speed operation.
    • 一种在介质访问控制(“MAC”)单元和物理(“PHY”)单元之间提供双速双向链路的装置,系统和方法。 MAC单元控制对物理介质的访问,并且PHY单元耦合到物理介质。 双向链路将MAC单元的第一发送数据路径(“TXDP”)和第一接收数据路径(“RXDP”)耦合到PHY单元的第二TXDP和第二RXDP。 MAC和PHY单元被配置为在快速操作期间沿着所有第一和第二TXDP和RXDP路由数据,并且在慢速操作期间沿着第一和第二TXDP以及第一和第二RXDP之一路由数据。
    • 4. 发明申请
    • ETHERNET ENHANCEMENTS
    • 以太网增强
    • US20150117177A1
    • 2015-04-30
    • US14496667
    • 2014-09-25
    • Ilango GangaAlain GravelThomas LovettRadia PerlmanGreg RegnierAnil VasudevanHugh Wilkinson
    • Ilango GangaAlain GravelThomas LovettRadia PerlmanGreg RegnierAnil VasudevanHugh Wilkinson
    • H04L12/939H04L12/861H04L1/16
    • H04L49/552H04L1/1621H04L49/251H04L49/9057
    • This disclosure describes enhancements to Ethernet for use in higher performance applications like Storage, HPC, and Ethernet based fabric interconnects. This disclosure provides various mechanisms for lossless fabric enhancements with error-detection and retransmissions to improve link reliability, frame pre-emption to allow higher priority traffic over lower priority traffic, virtual channel support for deadlock avoidance by enhancing Class of service functionality defined in IEEE 802.1Q, a new header format for efficient forwarding/routing in the fabric interconnect and header CRC for reliable cut-through forwarding in the fabric interconnect. The enhancements described herein, when added to standard and/or proprietary Ethernet protocols, broadens the applicability of Ethernet to newer usage models and fabric interconnects that are currently served by alternate fabric technologies like Infiniband, Fibre Channel and/or other proprietary technologies, etc.
    • 本公开描述了对以太网的增强功能,用于诸如Storage,HPC和以太网的架构互连之类的更高性能应用。 本公开提供了用于具有错误检测和重传的无损结构增强的各种机制,以改善链路可靠性,帧优先级以允许在较低优先级业务上的较高优先级业务,通过增强IEEE802.11定义的服务功能类别来提供对死锁避免的虚拟信道支持 Q,用于架构互连中的高效转发/路由的新标题格式,以及用于结构互连中可靠的直通转发的报头CRC。 此处描述的增强功能在添加到标准和/或专有以太网协议时,将以太网适用于当前由诸如Infiniband,光纤通道和/或其他专有技术之类的备用架构技术所服务的较新的使用模式和架构互连。
    • 6. 发明申请
    • NETWORK SYSTEM CONFIGURED FOR RESOLVING FORWARD ERROR CORRECTION DURING A LINK TRAINING SEQUENCE
    • 网络系统配置用于在链路训练序列期间解决前向纠错
    • US20140223265A1
    • 2014-08-07
    • US13996084
    • 2012-05-07
    • Kent LustedIlango Ganga
    • Kent LustedIlango Ganga
    • H04L1/00
    • H04L1/004H04L1/0009H04L1/0017
    • One embodiment provides a method for resolving a forward error correction (FEC) protocol. The method includes requesting, by a network node element during an auto-negotiation period between the node element and a link partner, to resolve at least one FEC mode during a link training period; wherein the auto-negotiation period and the link training period are defined by an Ethernet communications protocol and the auto-negotiation period occurs before the link training period; determining, by the network node element, at least one channel quality parameter of at least one channel of a communication link between the network node element and the link partner; and determining, by the network node element during the link training period, whether to enable at least one FEC mode for use by the network node element based on, at least in part, the at least one channel quality parameter.
    • 一个实施例提供了一种用于解决前向纠错(FEC)协议的方法。 该方法包括在节点元素和链路伙伴之间的自动协商周期期间由网络节点元素请求在链路训练周期期间解析至少一个FEC模式; 其中所述自动协商周期和所述链路训练周期由以太网通信协议定义,并且所述自动协商周期在所述链路训练周期之前发生; 由所述网络节点元素确定所述网络节点元件和所述链路伙伴之间的通信链路的至少一个信道的至少一个信道质量参数; 以及在所述链路训练周期期间由所述网络节点元素确定是否至少部分地基于所述至少一个信道质量参数来使能所述网络节点元素使用的至少一个FEC模式。