Abstract: A method is provided for traffic aggregation in a hitless protected packet switched network having source and destination nodes. The method includes enabling a working path and a protecting path between the source and destination nodes. The working path is non-overlapping with respect to the protecting path. The method includes generating, using a processor, internal marker packets at working and protecting input ports of the source nodes. Each market packet represents a respective marker time period. The method includes transmitting the marker packets to working and protecting output ports of the source nodes, by the working and protecting input ports of the source nodes. The method includes selectively aggregating, at each of the working and protecting output ports of the source nodes, hitless traffic sent from different working and protecting inputs ports of the source nodes to provide an aggregated flow there from, responsive to the marker packets.

Abstract: The subject matter described herein includes methods, systems, and computer readable media for using policy knowledge of or obtained by a policy and charging rules function (PCRF) for needs based forwarding of bearer session traffic to network nodes. One exemplary system includes a PCRF. The PCRF includes a policy engine for identifying, using policy knowledge or obtained by the PCRF, zero or more network nodes hosting applications needed for processing packets of a bearer session. The PCRF further includes an application routing configurator for providing instructions to configure at least one configurable network element to forward bearer session traffic to any of the network nodes determined to be needed for processing packets associated with the bearer session and to bypass any of the network nodes not determined to be needed for processing packets associated with the bearer session.

Abstract: A network node comprises a receiver configured to receive a first packet, a processor coupled to the receiver and configured to process the first packet, and prioritize the first packet according to a scheme, wherein the scheme assigns priority to packets based on phase, and a transmitter coupled to the processor and configured to transmit the first packet. An apparatus comprises a processor coupled to the memory and configured to generate instructions for a packet prioritization scheme, wherein the scheme assigns priority to packet transactions based on closeness to completion, and a memory coupled to the processor and configured to store the instructions. A method comprises receiving a first packet, processing the first packet, prioritizing the first packet according to a scheme, wherein the scheme assigns priority to packets based on phase, and transmitting the first packet.

Abstract: Embodiments are provided herein for a system and methods for real-time video (or other real-time traffic) delivery, e.g., for cellular or wireless networks. The schemes herein address real-time video delivery by a joint design of the radio resource scheduler and the video encoder at the network side, and of the decoder at the users' terminals. The system design reduces frame loss and hence improves user quality of experience. In an embodiment, a radio node detects a frame of a real-time traffic flow. Upon determining that a transmission deadline corresponding to a rate for real-time traffic flow does not support a size of the frame, the transmission deadline is extended according to the size of the frame and a size of a next frame. The frame and the next frame are scheduled for forwarding within the extended transmission deadline.

Abstract: A telecommunications system is provided, including a plurality of different cellular telecommunications networks, an identity module registrable on the plurality of different networks and containing multiple unique identifiers, each unique identifier being associated with a respective network; and, a device, operative in accordance with the identity module, to communicate with the networks when the identity module is registered on that network. The identity module includes a common security key associated with at least two of the unique identifiers such that the identity module is registrable on each one of the plurality of networks when a unique identifier of the identity module and its associated security key are authenticated for that network.

Abstract: Systems, methods and apparatus for wireless communication are provided. In one aspect, the method comprises receiving at least one downlink packet. The method further comprises generating an acknowledge message in response to receiving the at least one downlink packet. The method further comprises prioritizing the acknowledge message in a buffer according to a probability, the probability based at least in part on a current utilization level of the buffer. The method may further comprise one or more of the following: setting the probability to a first value when the utilization level is below a first level, setting the probability to a second value when the utilization level is above the first level and below a second level, and setting the probability to a third value when the utilization level is above the second level. The second value may be adjusted based on feedback corresponding to a downlink throughput.

Abstract: This invention relates to the proposal of component carrier (de)activation message that is allowing a activation or deactivation of one or more component carriers in the uplink or downlink. Furthermore, the invention relates to the use of the new component carrier (de)activation message in methods for (de)activation of downlink component carrier(s) configured for a mobile terminal, a base station and a mobile terminal. To enable efficient and robust (de)activation of component carriers, the invention proposes to use component carrier-specific or cell-RNTI(s) for the scrambling of the CRC of the component carrier (de)activation message, and to explicitly indicate the intended recipient of the component carrier (de)activation message in a corresponding field in the message. Furthermore, the invention further proposes different designs of the component carrier (de)activation message and further uses thereof, so as to trigger CQI reporting and/or SRS transmission by a mobile terminal.

Abstract: Examples are disclosed for hosting a communication session between a computer device and a destination communication device in an Internet Protocol (IP) based packet data network. A computer device receives multiple concurrent IP packet data streams each representative of the same content but received over corresponding multiple communication links. The original IP packet data stream comes from the communications server. At least one IP packet data stream representative of the original IP packet data stream traverses a communication link through a second communication device working in tandem with the communications server before arriving at the computer device. The computer device determines a highest quality packet for each corresponding packet in the multiple concurrent IP packet data streams. The computer device then creates a bonded IP packet data stream by selecting the highest quality packet for each time slot from among corresponding time slots of the multiple concurrent IP packet data streams.

Abstract: A technique includes transmitting traffic to a destination via at least a first path of a plurality of paths to the destination, each path including one or more path segments, a plurality of ports being associated with each path segment, receiving port congestion information for each of the ports, determining whether each of the plurality of path segments is congested based on the port congestion information, making a first determination that the first path is congested and that one or more second paths are not congested, each of the paths is determined to be congested if one or more path segments of the path is congested, and re-routing at least some traffic directed to the destination from the congested first path to one or more of the uncongested second paths in response to the first determination.

Abstract: A first Multi Protocol Label Switching (MPLS) Internet Protocol (IP) data network transmits data to a second MPLS IP network via a legacy network, which would not otherwise be able to handle the required user network interface (UNI) protocol by configuring the legacy network and its connection computing apparatus (CCA) so that they emulate an MPLS network. When a firt network element (NE) receives a connection (UNI) request from the MPLS network under a UNI protocol, the UNI request is passed to the CCA, which then sets the required connection across the legacy network via a second network element (NE) to an NE of the second network. Once the connection has been set, the CCA instructs the NE to send a return signal to the requesting network indicating that the connection has been successfully set. Data packets may then be transmitted across the network.

Abstract: In an approach for providing a dynamic boundary based approach for monitoring and metering, a processor provisions at least one agent to one or more network accessible resources, wherein the at least one agent is configured to allow for monitoring and metering. A processor provides at least one dynamic boundary for monitoring and metering. A processor receives information captured by the at least one agent provisioned to the one or more network accessible resources based on the dynamic boundary for monitoring and metering. A processor causes the information to be available for use.

Abstract: A method and apparatus for enabling prioritization of signaling messages in a communication network are disclosed. For example, the method receives at least one signaling message, and classifies each of the at least one signaling message. The method schedules each of the at least one signaling message for processing, and discards selectively one or more signaling messages that have been scheduled under an overload condition.

Abstract: A network media adapter includes peripheral interfaces for connection to connectors of audio/video (“A/V”) sources and sinks to respectively receive media data from the A/V sources and to transmit media data to the A/V sinks. Components are configured to syntonize or synchronize local media clocks of the A/V sources and sinks to ensure media data integrity affiliated with a protocol of a media network over which the media data is transported. A quality of service (QoS)-compliant media interface is integrated in the network media adapter through which to send and receive processed A/V media data to and from the media network according to the protocol. Other components may be configured to process, encapsulate, and transport over the media network the media data received from the A/V sources. Still other components may be configured to receive media data from the media network and decapsulate, process, and transmit the media data through one or more peripheral interfaces connected to the A/V sinks.

Abstract: A method is provided of transporting data packets over a telecommunications transport network. The data packets are carried by a plurality of bearers, each carrying data packets that relate to different ones of a plurality of services. In the method bandwidth profiling is applied to the data packets of each bearer, independently of the other bearers, to identify and mark the data packets of each of the bearers that are conformant with a predetermined maximum information rate for the bearer. The data packets are forwarded for transport through the transport network, wherein, if there is insufficient bandwidth available in the transport network to transport all data packets, data packets not identified by the profiling as being conformant are discarded, so as not to be transported through the transport network.

Abstract: Devices, such as hardware security modules, are provided as a service. A customer of a computing resource provider is able to request the addition of a device to a network of the customer hosted by the computing resource provider. The computing resource provider reconfigures a set of computing resources so that the devices of the customer are able to communicate with the device as if the device was in the customer's own network.

Abstract: A method and apparatus are provided for regulating transmissions according to a tournament method, implemented by a station having at least one data packet to be transmitted via a wireless communication network having a predetermined bandwidth. The method includes a step during which the station determines whether or not to participate in a tournament, the likelihood of a station participating in a tournament depending on the predetermined bandwidth. Specifically, the likelihood of a station participating in a tournament is selected to be higher as the predetermined bandwidth gets higher.

Abstract: The present invention relates to methods for searching an enhanced physical downlink control channel (E-PDCCH), and a device for supporting the methods. According to one embodiment of the present invention, a method for searching an enhanced physical downlink control channel (E-PDCCH) in a wireless access system can comprise the steps of: performing a blind decoding on a control channel region and searching a legacy physical downlink control channel (PDCCH); and searching the E-PDCCH on the basis of the searched legacy PDCCH. In this case, in a subframe to which the E-PDCCH is allocated, using all symbols of the subframe from a first symbol to a third symbol is always preferred for allocation of the legacy PDCCH.

Abstract: A packet-filtering device may receive packet-filtering rules configured to cause the packet-filtering device to identify packets corresponding to network-threat indicators. The packet-filtering device may receive packets and, for each packet, may determine that the packet corresponds to criteria specified by a packet-filtering rule. The criteria may correspond to one or more of the network-threat indicators. The packet-filtering device may apply an operator specified by the packet-filtering rule. The operator may be configured to cause the packet-filtering device to either prevent the packet from continuing toward its destination or allow the packet to continue toward its destination.

Abstract: Disclosed is system comprising: a server platform operative to communicate with a wireless communication network; and data storage coupled to the server platform to store a plurality of business rules, wherein the server platform is operative to: generate a first provision instruction to provision a Policy and Charging Rules Function (PCRF) with a first rule set associated with a first set of business rules for wireless usage incurred by a mobile terminal operating in the wireless communication network; generate a first billing instruction based on the first set of business rules and a first data type determined by a packet gateway that inspects packet data communicated to or from the mobile terminal.

Abstract: A system and method for managing wireless devices in a wireless network that performs operation comprising: receiving a diagnostic request to analyze a problem associated with a wireless device operating in the wireless network; retrieving contextual information associated with the wireless device from a database of the wireless network; determining at least one solution for the problem associated with the wireless device based on the contextual information; transmitting the at least one solution; and receiving a confirmation that the problem has been resolved.

Abstract: A congestion control mechanism for TCP communication sessions is described. The congestion control mechanism adjusts the size of the congestion window based on a number, N, of parallel virtual connections. The number N of parallel virtual connections used to determine the congestion window is dynamically adjusted based on an estimation of the network condition.

Abstract: In a bus system including a bus master, a first bus, and a second bus to connect them together, this router is arranged on the second bus to relay packets. The bus master outputs packets including information about at least one of (N+1) predetermined types of quality requirements. The second bus transmits packets designating at most N types of quality requirements. An exemplary router controls sending of the packets, with respect to at most N types of buffers that classify and store the packets by reference to the quality requirement type information and the packets stored in the buffers, so that the packets are sent in the descending order of their level of the quality requirement. The router controls sending schedule of the traffic flows by sensing a difference between the (N+1) different types of quality requirements.

Abstract: A network node, which is designed for switching of time-division multiplex signals; contains a number of line cards (LCI-LCn), a switch fabric (SF) interconnecting the line cards (LCI-LCn), and a control system (CS). The switching fabric (SF) is a cell based switch with one or more switch modules (SET-SEn) adapted to switch cells of a predefined cell format on the basis of addresses contained in cell headers of the cells. The line cards (LCI-LCn) have segmentation and reassembly devices (SARI-SARn) for segmenting input time-division multiplex signals into cells of the preformed cell format and adding address information to each cell and for reassembling cells received from said switch fabric (SF) into output time-division multiplex signals. The control system (CS) is connected to a switched port of the switch fabric (SF) and exchanges with the line cards (LCI-LCn) control and/or Operation, Administration and Maintenance (OAM) messages over the switch fabric (SF) using cells of the preformed cell format.

Abstract: Methods, systems, and computer program products for managing and selectively distributing routing information in a routing node are disclosed. In one implementation, a method for selectively distributing routing information in a routing node includes organizing internal signaling resources are organized so as to facilitate the efficient mapping of signaling system 7 (SS7) message transfer part (MTP) signaling protocol attributes to Internet protocol (IP)-based signaling resources. A routing status information sharing hierarchy is defined, which enables routing status information to be efficiently shared among members of a signaling mateset group. Members of a signaling mateset replicate and distribute SS7 MTP network management information across non-MTP signaling connections, such as IP connections.

Abstract: A method for transmitting upper layer application messages into a SCTP packet in which messages are bundled into a packet comprising a SCTP header and a payload. The method comprises receiving messages from an upper layer application; processing messages through a first process stage in which messages may be added to a first buffer for bundling and then to a secondary process stage in which the bundled messages/messages may be further stored in a second buffer until receiver window and congestion window properties are found to be allowable for transmission; transmitting a SCTP packet of bundled messages; receiving an upper layer application message; resolving the time criticality of the message; if high time criticality, transmitting further the message in a payload portion of a SCTP packet to the secondary stage, otherwise processing the message in the first stage so as to potentially bundle the message with other messages.

Abstract: A terminal inter-application network resource allocation method comprises the following steps: a terminal determining, according to a set ratio, an allocation ratio of network bandwidth resources for network applications running at the foreground, and according to a statistical result, obtained by the terminal, of operational behavior performed by a user on each network application, determining an allocation ratio of unallocated network bandwidth resources for each network application; the terminal allocating network bandwidth resources to each network application according to the allocation ratio of the network bandwidth resources for each network application. According to the application, bandwidth allocation can be dynamically adjusted in real time according to user operations, so as to solve the problem that, when multiple applications are enabled, the data communication time of a current application increases because the network resources are occupied by other background applications.

Abstract: In order to transmit data packets in multi-RAT networks, a method and system of network controllers are provided including simultaneous establishment of radio connections over multiple different Radio Access Technologies or RATs, with User Equipment or UE 13, being one radio connection firstly established over one primary RAT under a single PDP context and one or more radio connections established over at least one secondary RAT, different from the primary RAT, and under the same single PDP context; simultaneous transmission of data packets over the different RATs towards the UE 13 and combination of the transmitted data by higher layer protocols at the UE 13. In the present method/system, a connection is established for user plane transmission on the same PDP context between a primary network controller 11 of the primary RAT and the secondary network controller 12 of a secondary RAT. More than one secondary RAT may be involved.

Abstract: A method of aiding uplink transmission is disclosed. One method includes a base station downlink transmitting signals to at least a first terminal, the transmitted signals directed and conveying data to at least the first terminal. The method further includes a second terminal eavesdropping the transmitted signals, and measuring a signal quality. The second terminal estimates uplink channel information based on the measured signal quality, for aiding uplink transmission. Based at least in part on the estimated transmission channel, the second terminal transmits uplink signals to the base station.

Abstract: Systems and methods can provide for packet-rate policing and admission control with optional stress throttling. In some implementations, a broadband device can monitor bandwidth usage and respond after exceeding a maximum packet-rate threshold based on a per-channel basis. In other implementations, a broadband device can monitor bandwidth usage and respond after exceeding a maximum packet-rate threshold based on a per-service-flow basis. In additional implementations, a broadband device processor can feedback data to the packet-rate policer to throttle the packet rate based on processor utilization. Policing data traffic based on packet-rate instead of bandwidth can increase flexibility to service providers as an increasing number of services are deployed to users.

Abstract: Systems and methods for accomplishing charging operations in telecommunications networks that include multiple charging and enforcement components may include configuring a first charging and enforcement component to receive user traffic, determine usage information associated with the received user traffic, send the associated usage information to a charging system component, and send the user traffic and the associated usage information to a second charging and enforcement component. The second charging and enforcement component may be configured to receive the user traffic and usage information, compute updated usage information, and send the updated usage information to the charging system component. The charging system may use this updated usage information to ensure that the subscriber accounts were billed correctly.

Abstract: A first packet of a flow received onto an OpenFlow switch causes a flow entry to be added to a flow table, but the associated action is to perform a TCAM lookup. A request is sent to an OpenFlow controller. A response OpenFlow message indicates an action. The response passes through a special dedicated egress fast-path such that the action is applied and the first packet is injected into the main data output path of the switch. A TCAM entry is also added that indicates the action. A second packet of the flow is then received and a flow table lookup causes a TCAM lookup, which indicates the action. The action is applied to the second packet, the packet is output from the switch, and the lookup table is updated so the flow entry will thereafter directly indicate the action. Subsequent packets of the flow do not involve TCAM lookups.

Abstract: In an example embodiment, a computer-implemented method is illustrated that includes receiving first data from a first local area network (LAN) prior to the first data being transmitted across a wide area network (WAN). Also received are second data from a second LAN prior to the second data being transmitted across the WAN. A first optimization operation is performed on the first data to optimize the first data for transmission over the WAN. Also, the first optimization operation is performed using a first operating system executing on the computer system in response to the first data being received from the first LAN. A second optimization operation is performed on the second data using a second operating system in response to the second data being received from the second LAN. The optimized first data and the optimized second data are transmitted across the WAN.

Abstract: Systems and methods are described for providing application and content awareness for self-optimizing networks. A computerized method includes receiving at a mobile gateway a session request from a mobile device, establishing a session between the mobile device and the mobile gateway, receiving a request from the mobile device at the mobile gateway to access a remote resource, establishing a connection between the mobile device and the remote resource via the mobile gateway, detecting application and content information of a service data flow of the connection, and sending the application and content information of the service data flow to a network server for network optimization.

Abstract: A method to predict a driveline lash condition includes monitoring an axle torque request signal, determining a predicted axle torque request value at a lead time based upon the monitored axle torque request signal, and predicting the driveline lash condition at the lead time based upon the predicted axle torque request value indicating an upcoming zero torque condition.

Abstract: A method is provided of managing traffic in a network. The method comprises applying (S5) an indication to a packet being sent through the network, the indication being selected in dependence upon a level of traffic determined (S3) for a subscriber associated with the packet and representing a per-hop behaviour to be applied subsequently to the packet. The indication is applied so as to manage at least to some extent traffic associated with the subscriber.

Abstract: A system includes a storage device for storing details of a plurality of reservations of a hospitality establishment. A particular reservation includes a set of reservation-specific settings affecting behavior of the computer network at the hospitality establishment during the reservation. The settings may include a registered device setting for affecting behavior of a computer network at the hospitality establishment toward a user device having a specified device identifier. The system further includes a clock unit for tracking time, and a system controller coupled to the computer network and having access to the storage device and the clock unit. The system controller automatically configures one or more network components of the computer network when a start time of the particular reservation is reached in order to activate the reservation-specific settings.

Abstract: The exemplary embodiments of the present invention relate to methods and apparatuses enabling reduction of interference in a wireless system in order to assist a user equipment in performing positioning measurements. According to exemplary embodiments of the present invention, a radio network node is configured to: receive a measurement report from the UE comprising signal quality measurements related to interfering cells; to select a set of most interfering cells and to determine a level of reduction of transmission activity to be executed at specific time for a determined duration.

Abstract: A communication apparatus capable of relaying communication between an external apparatus and a communication terminal, determines whether or not a wireless network that enables connection to the external apparatus exists, and decides on a communication mode between the external apparatus and the communication terminal according to a wireless network that was determined as being connectable.

Abstract: A method for operating a communication network includes at least two radio access networks (10-1, 10-2) in which a user equipment (12) can simultaneously be registered and, for each of the at least two radio access networks (10-1, 10-2), a serving entity (14-1, 14-2) in the control plane. The method including the steps of assigning (s16) a master role to one serving entity (14-2) and a slave role to the other serving entity (14-1) or entities; and when a serving entity (14-1) to which a slave role is assigned has to perform control plane signalling (s18), transmitting (s20), by the serving entity, a signalling message to the serving entity (14-2) to which the master role is assigned, so as to perform (s22) the control plane signalling Servers acting as serving entities, systems including such servers, and computer programs executable on the servers are also disclosed.

Abstract: Method and system for a network device are provided. The device includes a port for receiving a multicast packet and a multicast data structure for maintaining information regarding a multicast group to which the multicast packet is to be sent. When the port is a part of a link aggregation group (LAG), then any port that is a member of the LAG is removed from the multicast group such that the multicast packet is not sent to any member of the LAG.

Abstract: Methods and systems for balancing load among firewall security devices (FSDs) are provided. According to one embodiment, session data, including session entries representing previously established traffic sessions from a particular source to a particular destination and forming an association between the previously established session and a particular FSD, is maintained for each port of a session-aware switching device. When a TCP SYN packet is received, the switching device: (i) reduces its vulnerability to a DoS attack by foregoing installation of a forward session entry for the forward traffic session within the session data until a processed TCP SYN/ACK packet associated with the corresponding reverse traffic session is received; (ii) selects an FSD to associate with the forward traffic session and a corresponding reverse traffic session by performing a load balancing function on the TCP SYN packet; and (iii) causes the TCP SYN packet to be processed by the selected FSD.

Abstract: A first device may receive data associated with a second device from within a first network and independently of a second network. The second device may include a sensor or an application to form or process a data record. The first device may establish a bearer between the first device and a particular user device, of multiple user devices, in accordance with a bearer policy; and provide the data towards the particular user device via a first sub-network, of multiple sub-networks, of the second network and via the bearer. The first sub-network may be independent of a second sub-network of the multiple sub-networks. The second sub-network may permit user device data to be transmitted between the multiple user devices. The first sub-network and the second sub-network may consume different levels of network resources.

Abstract: A method, node device, and system are disclosed for establishing a label switched path, which belong to the field of communications technologies. Establishing the label switched path between a source node and a sink node utilizes a connection establishment request message that carries bandwidth request information corresponding to different conditions. Based on the bandwidth request information corresponding to the different conditions, various amounts of bandwidth resources corresponding to the different conditions are reserved on local links that establish a connection between the source node and the sink node.

Abstract: A method, system and a computer program product. The method may include: allocating or receiving allocated bit rates to a plurality of streaming media flows, each streaming media flow comprises a plurality of chunks and is expected to flow over a last mile channel that is bandwidth limited; receiving a plurality of chunk requests from clients that are hosted on user devices, each chunk request indicates a requested bit rate for streaming a media chunk that belongs to the streaming media flow; changing at least one chunk request to comply with an allocated bit rate, if the requested bit rate does not comply with the allocated bit rate, to provide at least one new chunk request; and sending the at least one new chunk request to a media streamer that is expected to stream the streaming media flow to the user device.

Abstract: Methods and systems may provide for determining quality of service (QoS) information for a job associated with an application, and determining a condition prediction for a wireless channel of a mobile platform. Additionally, the job may be scheduled for communication over the wireless channel based at least in part on the QoS information and the condition prediction. In one example, scheduling the job includes imposing a delay in the communication if the condition prediction indicates that a throughput of the wireless channel is below a threshold and the delay complies with a latency constraint of the QoS information.

Abstract: Technologies are generally described for an enhanced Quantized Congestion Notification (QCN) congestion control approach, referred to as Fair QCN (FQCN) for enhancing fairness of multiple flows sharing link capacity in a high bandwidth, low latency data center network. QCN messages may be fed back to flow sources (e.g., servers) which send packets with a sending rate over their share of the bottleneck link capacity. By enabling the flow sources to regulate their data traffic based on the QCN messages from a congestion control component, the queue length at the bottleneck link may converge to an equilibrium queue length rapidly and TCP throughput performance may be enhanced substantially in a TCP incast circumstance.

Abstract: A system that incorporates the subject disclosure may include, for example, a device receiving diagnostic information from a plurality of client devices delivering media content, wherein the diagnostic information relates to a media delivery service quality and wherein the diagnostic information is sent automatically by the client devices; performing a data compression procedure for the diagnostic information; transmitting compressed data comprising the diagnostic information to an aggregator device; and sending to the client devices a message to delay or prevent transmission of additional diagnostic information in accordance with an instruction received from the aggregator device. Other embodiments are disclosed.

Abstract: A gateway apparatus (40) for a user equipment (20) which is connected to a radio-access network via a relay node (10) determines that a dedicated bearer is to be created for a specific type of traffic which is to be transmitted on a data radio bearer to be created between the relay node (10) and a donor node (30) of the radio access network, and includes a parameter into a message requesting creation of the dedicated bearer, which indicates that the dedicated bearer is required for integrity protection or used to carry the specific type of traffic. The message is sent from the gateway apparatus (40) to a mobility management apparatus (50) which includes a second parameter in a message requesting setup of a radio access bearer for the type of traffic based on the parameter.

Abstract: The method of operating a network includes receiving a measurement of total traffic intensity, receiving an expected quality of service associated with a packet, and assigning the packet to one of two or more priority queues based on the measurement of total traffic intensity and the expected quality of service, the two or more priority queues having different delay metrics.

Abstract: A system for managing wireless devices in a wireless network comprising: a processor; and a memory coupled with the processor, wherein the memory is configured to provide the processor with instructions which when executed cause the processor to: receive a diagnostic request to analyze a problem associated with a wireless device operating in the wireless network; retrieve diagnostic information associated with the wireless device from the wireless network; retrieve diagnostic information associated with the wireless device from the wireless device; determine at least one solution for the problem associated with the wireless device based on the retrieved diagnostic information from the wireless network and the wireless device; transmit the at least one solution; and receive a confirmation that the problem has been resolved.