149 results about "Bandwidth sharing" patented technology

The present invention relates to PWE3-based communication and discloses a method of implementing PWE3 protocol, with the aim to implement PWE3 architecture over RPR-based MPLS PSN, provide protection and bandwidth sharing capability, and improve quality and efficiency of PWE3 architecture. Said method of implementing PWE3 protocol comprises the following steps: A. Encapsulate data frame on said PWE3 PSN layer into RPR data frame; B. Transmit said RPR data frame to the destination node through RPR; C. Decapsulate said RPR data frame into PSN layer data frame at said destination node.

Methods and apparatus are disclosed for dynamic bandwidth expansion for wireless clients of a wireless wide-area network (WWAN), wherein each client has an allocated bandwidth for communicating over the WWAN and the clients are within wireless signal reception of each other. The WWAN clients may voluntarily or in a predetermined manner join a pool of bandwidth-sharing clients. A wireless aggregation server and a wireless pool boss work in cooperation to utilize unused transmit and receive bandwidth from each of the pool members.

Client devices with wireless functionality, but without wide area network or cellular network functionality, can obtain network access via a host device, where the host device has network access. Such network access can be obtained when a client device of a user is in local range of a host device, e.g., of a different user. The host device may enable network bandwidth sharing with settings that specify a threshold of resource usage (e.g., battery or bandwidth limit). An authentication process can confirm that either one or both of a client device and a host device are registered for the network bandwidth sharing. A server can monitor the amount of resources shared by the host device, and manage incentives to the user of the host device.

Modulated data signal having data fields encoded in a data structure defining a bandwidth sharing object for transmission over communications channels. A first data field contains a first stream of first information having a first bandwidth. A second data field contains a second stream of second information having a second bandwidth. The first stream is transmitted simultaneously with the second stream. One or more additional data fields each contain an additional stream of information having an additional bandwidth. The additional streams are transmitted simultaneously with the first and second stream. A bandwidth number indicated in the object is a function of the bandwidth of the first stream, the second stream, and the one or more additional streams. A bandwidth value indicated in the object is less than the total of the first bandwidth, the second bandwidth, and the total bandwidths of the one or more additional streams.

Techniques for sharing data among a plurality of networked devices, also referred to network nodes, are discussed. To best use an available uploading bandwidth of a device sharing data with a receiving device, a portion of the data is uploaded within the available uploading bandwidth, and another portion of the data is uploaded from another device locally caching the same data. To satisfy the minimum transmission rate of the data to the receiving device, both portions of the data are concurrently uploaded from the two devices to the receiving device. In reference to a predetermined minimum uploading bandwidth and the available uploading bandwidth, the two portions of data are interleaved and must be reassembled to recover the data for consumption in the receiving device. A size of the first portion of the data is determined by a server in view of the available uploading bandwidth a designated supplying box has.

This invention broadly comprises a novel segment protection scheme (survivability framework) for a network, which we refer to as PROMISE (Protection using MultIple SEgments). It combines the best of existing link and path protection schemes (e.g., bandwidth efficiency and fast recovery). The PROMISE approach divides an active path or AP (along which a survivable connection is established) into several, possibly overlapping active segments or ASs, and then protects each AS with a detour called backup segment or BS (instead of protecting the AP as a whole as in path protection schemes). This facilitates the bandwidth sharing not only among the BSs for different APs, but also among those for the same AP. In addition, recovery time can be shortened due to the limited length of each AS and BS. This technology can be applied to MPLS, ATM, SONET, WDM and other high-speed link layers under the evolving G-MPLS framework.

An apparatus and a smethod providing fair bandwidth sharing by adjusting video image quality in a data packet network comprises a network load detection means for detecting a network load and a video encoding control circuit. The network load has an uncongested state, a loaded state, and a congested state. The video encoding control circuit adjusts a video quality to a target video quality, by increasing the video quality when the network load is in the uncongested state and decreasing the video quality when the network load is in the congested state. The video quality is determined as a peak mean squared error between an uncompressed image and a corresponding decoded image. The network load is detected by using a forward explicit congestion notification bit.

The invention discloses a method and a device for achieving differentiated service of packet service. The method comprises the following steps: configuring traffic parameters of a service, allocating corresponding priority or weight to each sub-service according to service identifies of the sub-services, and allocating corresponding sub-token bucket to each sub-service, wherein, the bucket depth of the sub-token bucket is equal to the bucket depth of the service; determining the available tokens of the service according to the traffic parameters of the service at a preset timing time interval; distributing the available tokens to the corresponding sub-token bucket of each sub-service according to the relationship of the priority or the weight of the sub-services; and transmitting messages of each sub-service to corresponding sub-token barrel according to the service identity of each sub-service to carry out dyeing treatment. The device comprises a priority or weight distribution module, a token distribution module, and a dyeing treatment module. The method and the device can realize bandwidth share and bandwidth control for forwarding messages based on priority or weight of the sub-services.

The invention raises the Internet of a personal video recording system, which comprises of content-services and management platform, the Internet and network personal video recording terminals (Internet PVR). Through the system, multimedia content service providers can provide customized content through content-services management platform, and content will be downloaded via the Internet (or recording to Push VOD) to personal recording terminals. Users can connect to the TV terminal to watch TV and Film, etc. The content services and management platform of this invention uses modular architecture software, including user management, content management, peer-to-peer management, DRM, and other modules. The invention of the Internet with P2P PVR functionality, and a number of Internet PVR through peer-to-peer technology to achieve storage and bandwidth sharing in order to reduce the pressure on network bandwidth improving download speed. Local TV Portal could serve as a platform for local content management and use DRM to manage content rights. PVR management system can control user's download, replay times, the custom and delete programs can also achieve targeted advertising service.

A network device for scheduling packets in a plurality of queues. The network device includes a plurality of configurable mechanisms, each of which is configured to process information in one of a plurality of queues based on a predefined bandwidth. A scheduler services an associated one of the plurality of queues based on the predefined bandwidth. The network device also includes means for tracking whether or not the plurality of queues has exceeded a predefined threshold. If the plurality of queues has exceeded the predefined threshold, a new bandwidth allocation is calculated for each of the plurality of queues. The new bandwidth allocation replaces the predefined bandwidth and is proportional to the predefined bandwidth for each of the plurality of queues.

A communication system includes a plurality of devices, such as cable modems, in communication with a station, such as a cable modem termination system, that provides efficient upstream bandwidth sharing.

In a network of interconnected edge and core routers, where packet data flows are received at edge routers and then transmitted toward intended destinations via a path through one or more core routers, fair bandwidth sharing is achieved without per-flow state monitoring in the interior routers. Each edge router is arranged to divide each input data flow into a set of layers each having an associated level, based on rate. The division process is done without reference to the content of the flow, and can use layers of equal or unequal size. The packets in a flow are marked at an edge router with their layer level, in a globally consistent manner. Each core router maintains a layer level threshold, based upon buffer management conditions, and drops layers whose level exceeds the threshold. During congestion, the level threshold is decreased; when congestion clears, the level threshold is increased.

Methods and systems for call admission control and providing Quality of Service (QoS) in packet-based networks, with emphasis on those utilizing Wireless Broadband Access, are disclosed. This invention presents a mechanism for implementing call admission in packet-based networks. Quality of Service is also provided by implementing key network functions. Although the access network call admission criteria are illustrated over broadband wireless access, the call admission mechanism principle is access technology-agnostic. Broadband wireless is given emphasis because of its bandwidth-sharing property and relative inefficiency in handling small Voice over IP packets. The invention contemplates on a call admission mechanism for providing reliable packet stream service in IP networks and at the same time passing burstable IP data traffic. Whenever convenient, NGN terms are used in the document—which also stresses the fact that the invention provides a mechanism for implementing NGN end-to-end QoS.

Systems and methods for establishing peer-to-peer bandwidth sharing ad hoc networks. A method includes: determining a first location and a second location of data; instructing a first device to download a first portion of the data from the first location; instructing a second device to download a second portion of the data from the second location; and receiving the first portion of the data from the first device and the second portion of the data from the second device.

Method, system, and computer program product for enabling dynamic creation of a coalition of multiplexed ad hoc networks to form larger ad hoc networks for service provisioning, in which multiplexers can be connected together in either a hierarchical structure or a parallel structure. Includes method, system, and computer program product for forming an ad hoc network composed of a multiplexer coupling a borrower to at least one lender and forming a coalition composed of the ad hoc network and at least one other multiplexer.

Said invention provides multi dimension queue scheduling and management systems management systems of network data network data stream for network data network data stream with multi attribute and multi - value taking. Said system has N queue groups equipollent with the number of network data package, each queue group has M i number of queue equal with the number of taking value of attribute i, the arrival network data network data package queuing to make scheduling and administration according to attribute and attribute value in order to provide different service. Said invention only needs NM queues to realize fine queue control. Compared with current queue scheduling technology, said invention simplifies complexity and can realizes multiple system.

Systems and methods for establishing peer-to-peer bandwidth sharing ad hoc networks. A method includes: determining a first location and a second location of data; instructing a first device to download a first portion of the data from the first location; instructing a second device to download a second portion of the data from the second location; and receiving the first portion of the data from the first device and the second portion of the data from the second device.

Methods and apparatus are disclosed for dynamic bandwidth expansion for wireless clients of a wireless wide-area network (WWAN), wherein each client has an allocated bandwidth for communicating over the WWAN and the clients are within wireless signal reception of each other. The WWAN clients may voluntarily or in a predetermined manner join a pool of bandwidth-sharing clients. A wireless aggregation server and a wireless pool boss work in cooperation to utilize unused transmit and receive bandwidth from each of the pool members.

In a method and multi-queue packet scheduling system for managing network packet traffic, each of a plurality of output buffer queues is assigned with a reserved weight in bandwidth sharing of an output link, is associated with a respective service class, and may be optionally assigned with a maximum rate to constrain packet transmission therethrough. The output buffer queues are adapted for enqueueing incoming packets therein according to associated service classes of the incoming packets. A shared bandwidth rate calculator determines in real-time shared bandwidth rates of maximum-rate constrained backlogged output buffer queues with reference to the reserved weights and such that the shared bandwidth rates do not exceed the assigned maximum rates. A packet scheduler transmits outgoing packets from the backlogged output buffer queues in accordance with a schedule that is based on the shared bandwidth rates determined by the shared bandwidth rate calculator.

A method and apparatus for congestion control of a Transmission Control Protocol (TCP) connection. A TCP source monitors received acknowledgments (ACKs) and uses header information associated with the ACKs to determine an amount of data delivered at a TCP receiver. The amount of delivered data, divided by the time requited to deliver the data, gives a measure of instant data rate. The instant data rate is input to a filtering and averaging process to generate an estimate of the end-to-end bandwidth share or data rate of the connection. For the entire duration of the connection, the TCP source updates its estimate of the end-to-end bandwidth share every time an ACK is received. The estimate of the end-to-end bandwidth share is used the reset a congestion window and a slow start threshold whenever packet loss is indicated such as whenever a timeout expires or whenever three (3) duplicate ACKs are received.

The invention provides a method and a system for controlling the quality of a multi-service portfolio and relates to the field of communication. The method for controlling the quality of the multi-service portfolio comprises the following steps that: an authentication, authorization, accounting (AAA) server authenticates and determines services requested to access according to a service information database, wherein the service information database comprises a service quality of service (QoS) strategy template and a package QoS strategy template, the service QoS strategy template comprises the rate information of the services, and the package QoS strategy template comprises the overall rate information of the services in a package and association information among all the services in the package; the AAA server and a service bandwidth resource management device transmit service strategy attribute information to a multi-service access gateway according to the service types contained in bandwidth resource inquiry requests after the AAA server is authorized; and the multi-service access gateway performs scheduling and quality control on the services requested to access according to the service strategy attribute information. The method and the system can realize bandwidth sharing and service quality control among multiple services in the package.

The invention provides a flexible bandwidth configuration method based on Linux flow control, and the method comprises the following steps: S1, obtaining a router where a plurality of floating ips are located, wherein the plurality of floating ips are ready to be shared by a lessee; S2, employing an iptables command to mark a data package sent by a lessee virtual machine with a lessee flag value for recognizing the lessee, and enabling the source address of the data package to be replaced by a floating ip address; S3, building an HTB queue and default classification on an extranet card; S4, building lessee classification in the HTB queue, and setting a corresponding bandwidth value; S5, building a filter corresponding to the classification according to the lessee flag value. According to the invention, when one lessee applies for a plurality of public network IP address, the method achieve a flexible bandwidth sharing function, solves a problem of the waste of the lessee bandwidth resources, and reduces the use cost of the lessee.

A smart premise system has a router having a processor, connection to a data repository, a primary port to Internet connection on a primary path, and wired connection or wireless coupling to individual ones of a plurality of bandwidth-using devices forming a local premise network, bandwidth-using devices sharing bandwidth on the primary port, and software executing on the processor from a non-transitory medium, execution of the software providing a default bandwidth share and a set of rules for registered users and registered devices in the smart premise system, the default share managed by the router according to the default rules for each user of the system using a registered device, and a mechanism for individual users to monitor their own bandwidth share in real time, and to request additional bandwidth from the system.

Embodiments of the present invention described and shown in the specification and drawings facilitate data packet transportation. One aspect of the invention multiplexes time-sensitive TDM (Time Division Multiplexed) and other synchronous data, and asynchronous data traffic, onto a communication channel in a manner that minimizes jitter in the delivery of the TDM data traffic while efficiently transporting asynchronous data traffic. Another aspect of the invention provides dynamic bandwidth sharing on a communication ring. The dynamic bandwidth sharing aspect of the present invention facilitates the efficient utilization of bandwidth of communication rings, particularly in those rings that cover large geographic areas.