Abstract: Apparatus, methods, and systems for use in analyzing a flow of network traffic between a first network and a second network are provided. One example method includes scanning the network traffic between the first and second networks. The network traffic includes a plurality of data packets. The method includes determining a character set included in each of the plurality of data packets, and storing an indication of each character set included in each scanned data packet.

Abstract: A method and system for handover of a User Equipment (UE) from a source packet system to a target packet system in a packet switched domain of a wireless communications network while transferring the UE to a circuit switched domain. The target packet system includes a radio access network portion and a first core network portion. The circuit switched domain includes a second radio access network portion and a second core network portion. The UE performs an attachment/registration/update procedure towards the second core network portion and/or a signaling connection establishment before the handover between the source packet system and the target packet system is executed.

Abstract: A method and system for network interface naming is described.

Abstract: In one embodiment, a system includes a switching processor configured to execute logic, a plurality of ports, at least some of the ports being grouped together in one or more link aggregations (LAGs), logic adapted to create at least a first virtual local area network (VLAN) interface for Ethernet traffic using transmission control protocol/internet protocol (TCP/IP) that is received on at least one of the plurality of ports, and logic adapted to create at least a second VLAN for storage area network (SAN) traffic using Fiber Channel over Ethernet (FCoE) and/or remote direct access memory (RDMA) over Converged Enhanced Ethernet (RoCEE) that is received on at least one of the plurality of ports, wherein no SAN traffic using FCoE and/or RoCEE is assigned to the first VLAN, and wherein no Ethernet traffic using TCP/IP is assigned to the second VLAN.

Abstract: A method for improving ACK/NACK bundling in a user equipment (UE) of a wireless communication system is disclosed. The method includes steps of receiving an uplink grant allocated to an uplink sub-frame, the sub-frame being utilized for transmitting an HARQ feedback corresponding to a plurality of downlink sub-frame, a TDD UL/DL configuration of the UE being set to 0; and determining whether the UE misses any downlink assignment is missing according to a downlink assignment index (DAI) carried in a latest received Physical Downlink Control Channel (PDCCH) for downlink assignment.

Abstract: In one example, a network device includes a network interface that receives a packet, a storage card that stores session data for monitored network sessions, a plurality of service processing cards that process packets of respective subsets of the network sessions, wherein each of the service processing cards comprises a respective memory to store session data for the respective subset of the network sessions processed by the corresponding service processing card, and a switch fabric coupled to the network interface, the storage card, and the plurality of service processing cards. One or more of the plurality of service cards process the received packet based on the session data stored by the storage card. The one or more of the plurality of service cards retrieve the session data for the network session to which the packet corresponds from the storage card and store the retrieved session data in the respective memory.

Abstract: A system is disclosed for concurrently processing order sensitive data packets. A first data packet from a plurality of sequentially ordered data packets is directed to a first offload engine. A second data packet from the plurality of sequentially ordered data packets is directed to a second offload engine, wherein the second data packet is sequentially subsequent to the first data packet. The second offload engine receives information from the first offload engine, wherein the information reflects that the first offload engine is processing the first data packet. Based on the information received at the second offload engine, the second offload engine processes the second data packet so that critical events in the processing of the first data packet by the first offload engine occur prior to critical events in the processing of the second data packet by the second offload engine.

Abstract: A cyclic prioritized multiple access method is disclosed which includes Fixed Deterministic Post-Backoff. Fixed deterministic post-backoff reduces conflicts between access points of overlapping cells. Contention-free sessions can be generated, one from each overlapping cell. Each active access point engages in a fixed deterministic post-backoff. A fixed deterministic backoff delay (Bkoff times a fixed number of idle time slots) is used by all access points, with the value of Bkoff being greater than the number of overlapping cells. The Bkoff should be large enough to enable the traffic that needs to be accommodated by the channel. Each access point has a backoff timer that is counted down using the shortest interframe space possible. A contention-free session is initiated when the backoff timer expires, and it is then reset to the value of Bkoff to start a new cycle.

Abstract: In a hierarchical switching architecture that includes at least one lower level managed switching element that connects to several higher level managed switching elements, some embodiments provide a method of identifying a higher level managed switching element to which the lower level managed switching element forwards a packet for further processing. The method computes a value based on a set of attributes of the packet. The method identifies a record from a hierarchy traversal table based on the computed value. The record specifies (1) a first higher level managed switching element as a primary higher level managed switching element and (2) a second higher level managed switching element as a secondary higher level managed switching element. The primary and secondary higher level managed switching elements are for forwarding the packet for further processing. The method forwards the packet to one of the higher level managed switching elements.

Abstract: Systems and methods can provide for improved impairment discovery for broadband communication systems. In some implementations, such systems and methods can provide cluster outage detection and/or time-stamped outage data and visualization. Improved outage discovery can help operators plan repair and thereby reduce truck rolls and decrease network down-time.

Abstract: The communication management device includes a logical-ring configuring unit that determines a transmission order of a token frame in a network and configures a logical ring; a multicast-address generating unit that generates a multicast address from a MAC address of the communication management device; a multicast-address notifying unit that notifies a slave station configuring the logical ring of the multicast address; and a token-frame processing unit and a data-frame-communication processing unit that transmit a frame having a destination address to which the multicast address is set, and not performing a receiving process of a frame when a destination address of the received frame does not coincide with the multicast address.

Abstract: A wireless access point configured to support a wireless home network among multiple wireless devices contending with one another for access to a shared wireless communication medium. The wireless access point comprises a link monitor and a link manager. The link monitor monitors communication links with each of the wireless devices and for detects oversubscription of the wireless communication medium by the communication links. The link manager couples to the link monitor and is responsive to an oversubscription indication therefrom to arbitrate access to the shared wireless communication medium among the contending wireless devices.

Abstract: The method includes creating a master copy of a header for all packets of a data transmission event, the master copy including a plurality of intact constant header information, the plurality of intact constant header information being constant for all packets of the data transmission event, storing unique header information for all packets of the data transmission event, the unique header information including information unique to at least one packet of the data transmission event, tokenizing identities of each packet of the data transmission event to create a tokenized packet ID for each packet, and indexing the stored unique header information based on the tokenizing. A computer program product for directing a computer processor to perform a method. According to the method, at packet read-time, unique header information associated with the packet is overlayed onto the master copy to create a unique packet.

Abstract: A multi-stage switch fabric (SF) is provided. The multi-stage SF includes a line card chassis (LCC) and a fabric card chassis (FCC). The FCC includes a stage-1 switch element (S1), a stage-2 switch element (S2), and a stage-3 switch element (S3), where the S3 corresponds to the S1, and the S2 is coupled to the S1 and S3 respectively. The LCC includes an interface component and a line card (LC) coupled to the interface component, where the interface component is coupled to the S1 and S3 in the FCC respectively. Through the technical solution under the present invention, when a switch element generates flow control information and requires another switch element or an LC to respond to the flow control information, a timely response can be received.

Abstract: A base station device is provided with features in which multicast data can be prevented from deterioration in the accuracy of channel estimation due to interference of a unicast data pilot signal when multicast data and unicast data are multiplexed for transmission. In this device, a unicast pilot signal generating unit (105-1) generates a unicast data pilot signal, a multicast pilot signal generating unit (105-2) generates a multicast data pilot signal, a disposing unit (106) disposes a unicast data symbol, a multicast data symbol, the unicast data pilot signal, and the multicast pilot signal at either position on a two-dimensional plane comprised of a frequency axis and a time axis to output them to an IFFT unit (107). In this case, the disposing unit (106) disposes the multicast data pilot signal at a position on the two-dimensional plane comprised of the frequency axis and the time axis where the unicast data pilot signal does not interfere with it.

Abstract: A routing device includes means for executing a function of translation between at least one address of a first network and at least one address of a second network; means for receiving an association request from a terminal of said first network; means for generating a second request by substituting a source address in the association request by an address of the routing device in the second network; means for sending the second request to an address translation server of the second network; and means for sending said terminal, in response to said association request, a response received from said address translation server in response to sending said second request.

Abstract: A first adaptor implements a first communication protocol and a second adaptor implements a converged network protocol, which facilitates communication of packets encoded with a second communication protocol with a third communication protocol network. Parameters are configured in a memory for communication between the first adaptor and the second adaptor in the converged network protocol to indicate to the second adaptor that the converged network protocol is supported, wherein the first adaptor does not support the converged network protocol. A packet is received at the first adaptor encoded in the second communication protocol and forwarded to the second adaptor to forward to the third communication protocol network. A command is received at the second adaptor, directed to the first adaptor, to implement a function in the converged network protocol using the parameters in the memory to support transmission of packets between the first and the second adaptors.

Abstract: The systems and methods described herein allow for the scaling of output-buffered switches by decoupling the data path from the control path. Some embodiment of the invention include a switch with a memory management unit (MMU), in which the MMU enqueues data packets to an egress queue at a rate that is less than the maximum ingress rate of the switch. Other embodiments include switches that employ pre-enqueue work queues, with an arbiter that selects a data packet for forwarding from one of the pre-enqueue work queues to an egress queue.

Abstract: A method and system may transmit during a traffic indication window, such as an ATIM window, a frame indicating a power management mode and may then transition to the power management mode, possibly before the end of the traffic indication window. Another method and system may receive or transmit during a beacon interval an indicator of a desire to enter a sleep state, then transmit or receive an indicator of a desire to enter the sleep state, and then enter the sleep state prior to the end of the beacon interval. Other embodiments are described and claimed.

Abstract: In a communication system, a method and an apparatus provide for efficient communications of data rate control information. A mobile station communicates a request on a data channel for reception of a data file on a traffic channel. The mobile station communicates data rate control information on a data rate control channel. The communication of data rate control information on the data rate control channel is ceased if the delivery of the data file on the traffic channel from a base station to the mobile station or a reverse traffic channel from the mobile station to the base station is concluded.