Abstract:
Example apparatus facilitate couriering (e.g., physically carrying) targeted electronic data between a provider in a first physical location and a recipient in a second physical location. An apparatus may store targeted electronic data or may store metadata concerning the targeted electronic data. The apparatus may also store requests for targeted electronic data or information from which targeted electronic data can be identified. An example apparatus may identify targeted electronic data to be provided and may then acquire the targeted electronic data from a provider. The provider may be another courier, another recipient, a source provider (e.g., database), or other source. The apparatus may provide the targeted electronic data to the recipient using a close-range communication channel that does not use the Internet. The targeted electronic data may be identified based on a state of an operating system, an application, or content at the recipient.
Abstract:
A method for updating location information includes detecting a change in mobility of a second device (block 1505), and determining whether an update condition has been met (block 1510). When the update condition has been met, the method also includes updating a first location management function in accordance with location information of the second device (block 1515), and forwarding the location information of the second device to a second location management function (block 1520).
Abstract:
A communication system is disclosed. In an embodiment, the communication system includes a user node for receiving data from a remote application program, the data including message data for communication to a central application program operatively associated with the remote application program; plurality of geographically distributed gateway nodes; one or more access nodes for receiving the message data from the user node via a first communications interface, and communicating the message data via a second communications interface to one or more of the plurality of geographically distributed gateway nodes; and a hub for communicating with the one or more of the plurality of geographically distributed gateway nodes to receive the message data for communication to the central application.
Abstract:
본 명세서의 일 실시예에 의하면, 셀룰러 기반의 RAT(radio access technology) 및 무선랜 기반의 RAT 중 하나 이상을 통해 UE(User Equipment)에게 서비스를 제공하는 무선 액세스 장치와 이동성 관리 엔티티 간에 인터페이스 설정 방법이 제시된다. 상기 방법은 상기 무선 액세스 장치가 요청 메시지를 이동성 관리 엔티티로 전송하는 단계와 그리고 상기 이동성 관리 엔티티로부터 응답 메시지를 수신하는 단계를 포함할 수 있다.
Abstract:
Apparatus and methods for delivery of content in a packetized network. In one embodiment, content and/or services can be associated with an IP address. The IP address may be assigned to multiple server devices disposed at geographically diverse locations. Delivery caches may advertise, via a routing protocol, one or more addresses to clients of the network. Route selection may be configured based on one or more rules such as geographical proximity, available bandwidth, server availability, server load, delivery cost, client subscription level, licensing rules, and/or other metric. Delivery caches may be configured to control their availability and/or load through IP address withdrawals and announcements. When the "closest'" delivery cache may become unavailable ( e.g. , it is not announcing the IP address for the content the client is trying to obtain, a route to the next "closest" available delivery cache may be utilized.
Abstract:
A system and method for recording media for a contact center where a processor is configured to determine that media exchanged between first and second communication devices during a telephony call is to be recorded; bridge a media path between the first and second communication devices; cause replicating of the media exchanged in the media path; encrypt the replicated media via a first cryptographic key for storing the encrypted media in a data storage device; and encrypt the first cryptographic key via a second cryptographic key for storing the encrypted first cryptographic key as metadata for the encrypted media.
Abstract:
Embodiments are provided for a location-based network discovery and connection establishment, which take advantage of location/positioning technology of user equipment (UE) and resolve issues above of the blind search approaches. The location-based network discovery and connection establishment schemes use UE location information and a network access MAP to speed up network discovery, and remove the need for continuous search and measurement by the UE. The schemes also reduce the search space. A wireless network access map (MAP) is provided to the UE. The UE uses the MAP information with UE current location information to reduce the search space and speed up network discovery and radio connection establishment with the network. Network operators can use this network access MAP to control the network access and manage the network load distribution. The network access MAP can be customized for each UE.
Abstract:
Embodiments described herein use APIs on network devices in a SDN enabled network to monitor the network traffic flowing through the network devices and determine an identity of the client initiating the network traffic. Specifically, the APIs provide a user application with user credentials, IP addresses, MAC addresses, and other identifying information mined from the network flows. Once the identity is found, the application may identify the client's current geographic location. The network devices may continue to monitor the network devices to identify any movement events associated with the client. In response to a movement event, the application may reallocate resources proximate to the new geographic location of the client.
Abstract:
Embodiments of the present disclosure include methods and apparatuses for enabling data path selection. In an EPG, ILNP mobility signaling is received. The ILNP signaling may include a destination locator for a BNG. A signaling message is sent to the BNG in response to the received ILNP signaling. An acknowledgement is received from the BNG. Traffic is tunneled between a mobile device and a RGW over a LTE interface. In a BNG, a signaling message is received. A message is sent to a SDN controller. A notification is received from the SDN controller that configuration of a RGW to tunnel traffic over a LTE interface is complete. An acknowledgement is sent to an EPG. In a RGW, a message is received from a SDN controller. Traffic is tunneled between a NAS and an EPG over a LTE interface based on the message received from the SDN controller.