Abstract:
A device for pre-emption in passive optical networks may include a first media access control (MAC) module configured to receive a first type of data traffic and transmit the first type of data traffic to a MAC merge module. The device may further include a second media access control (MAC) module configured to receive a second type of data traffic and transmit the second type of data traffic to the MAC merge module. The device may further include the MAC merge module configured to receive the first and second types of data traffic from the first and second MAC modules, respectively, and provide the first and second types of data traffic for transmission over a port. The MAC merge module may be configured to pre-empt the transmission of the first type of data traffic over the port in favor of the second type of data traffic.
Abstract:
An access node cooperates with a primary modem-router in a packet switched network. The access node comprises communication hardware configured to enable communication through the network by sending and receiving data packets, and encapsulates the data packets in a tunnelling data protocol for sending the data packets to the primary modem-router using a data communication tunnel through a further modem-router. The communication hardware is also configured to retrieve, from the tunnelling data protocol, data packets received from the primary modem-router.
Abstract:
Embodiments disclosed herein provide a hybrid fiber-copper access network in which a main OLT sends data to the DSLAMs via a plurality of point-to-point optical fiber connections. A standby OLT is provided which has a plurality of point-to-multi-point optical fiber connections to the DSLAMs. In the event of a failure, data can be sent to some of the DSLAMs via the standby OLT and the point-to-multi-point optical fiber connections. Following the rectification of the fault, the network can revert to its normal state and transmit data to the DSLAMs via the main OLT and the plurality of point-to-point optical fiber connections.
Abstract:
Disclosed is a scalable, hierarchical, distributed network architecture and processes for the delivery of high-performance, end-to-end online multimedia services, including Internet services such as World Wide Web access. The network architecture connects a high-speed private backbone to multiple network access points of the Internet, to a network operation center, to a back office system, and to multiple regional servers in regional data centers. Each of the regional servers connects to several caching servers in modified head-ends, which in turn connect via fiber optics to many neighborhood nodes. Finally, each node connects via coaxial cable to multiple end-user systems. The processes include those for replicating and caching frequently-accessed content, and multicasting content customized per region or locality.
Abstract:
In general, techniques are described that facilitate scalable wholesale layer two (L2) connectivity between customers and service providers and a demarcation between the L2 wholesale network and one or more ISPs with which customers communicate L2 PDUs. In one example, a network device receives PDU having both a service identifier identifying a service virtual local area network (SVLAN) and a customer identifier identifying a customer VLAN (CVLAN). A virtual switch determines whether an entry of a L2 learning table is associated with both the service identifier and the customer identifier of the PDU. When no such entry exists, a VLAN learning module updates the L2 learning table to create a new entry that maps to a network device interface and is associated with both the service identifier of the PDU and a plurality of customer identifiers that includes the customer identifier of the PDU.
Abstract:
Systems and methods for sending a media message from a communication platform receiving a messaging request to transmit media message to a destination endpoint, wherein the request includes a specified media content universal resource identifier (URI); retrieving a media resource from the URI, wherein the media resource is retrieved from a application layer request including a set of context data relating to the messaging request; transforming the media resource into a messaging formatted media resource; and transmitting the formatted media resource to a destination in a media message.
Abstract:
A method for collecting individualized network usage data includes routing Internet communications between a plurality of local clients and a plurality of remote servers over a common data link between a router device and the Internet. For each of the plurality of clients, characteristics of that client's communications routed over the data link are monitored at the router device. A collection of statistics reflecting the monitored characteristics are maintained. From the router device, the collection of statistics are periodically communicated over the data link to an interested server.
Abstract:
A method, a device, and a network system of establishing a tunnel are provided in embodiments of the present disclosure. The method of establishing the tunnel includes: obtaining, by a WTP, an address of an AC and an address of a BRAS from a DHCP server; using, by the WTP, the address of the AC to establish a CAPWAP control tunnel with the AC; and using, by the WTP, the address of the BRAS to establish a CAPWAP data tunnel with the BRAS. By using the technical scheme provided in the embodiments of the present disclosure, the CAPWAP data tunnel may be established between the WTP and the BRAS.
Abstract:
Systems and methods for sending a media message from a communication platform receiving a messaging request to transmit media message to a destination endpoint, wherein the request includes a specified media content universal resource identifier (URI); retrieving a media resource from the URI, wherein the media resource is retrieved from a application layer request including a set of context data relating to the messaging request; transforming the media resource into a messaging formatted media resource; and transmitting the formatted media resource to a destination in a media message.
Abstract:
To securely transmit data from a communication terminal (TC) to an application server (SA) over a telecommunications network (RT), the communication terminal (TC) being connected to the application server (SA) via an unsecure access network (RAns) and being able to communicate with the application server (SA) via at least one secure access network (RAs), the communication terminal (TC) switches the connection with the application server (SA) from the unsecure access network (RAns) to a secure access network (RAs), when personal data (DonP) is likely to be entered or is entered by the user, transmits the personal data (DonP) to the application server (SA) via the secure access network (RAs), and switches the connection with the application server (SA) from the secure access network (RAs) to an unsecure access network (RAns).