Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Abstract: Embodiments of the present disclosure describe device, methods, computer-readable media and system configurations for providing a device-to-device (“D2D”) tapping service (“DTS”) layer. In various embodiments, a DTS layer of a communication stack of a computing device may receive, from an application executing within an application layer of the communication stack, a request for a resource. In various embodiments, the DTS layer may determine whether the resource is available locally on the computing device. In various embodiments, the DTS layer may issue a domain name system (“DNS”) request through a network layer of the communication stack to facilitate transparent access by the application to the resource on a remote computing device, where it is determined that the resource is unavailable locally on the computing device. Other embodiments may be described and/or claimed.

Abstract: A client-server session is automatically initiated between a client-type device an a cloud-based server in a cloud-based computing environment based on user-defined parameters, thereby providing convenience and ease of use for a user for uploading, sharing and downloading media content to and from a content-sharing website. A user-preference database stores user-preference information, such as information relating to media-content-type information, media-content-source information, media-content-destination information, user-uploading-preference information, and/or uplink-network-preference and downlink-network-preference information. A rule is generated for uploading and/or downloading a designated media-content type to the content-sharing website based on the stored user preference information and at least one calendar event available from a calendar application.

Abstract: An example of this invention provides low latency handovers between Mobile WiMAX and 2G/3G/LTE networks with only a single radio transmitting at any given point in time, by establishing L2 tunnel between 3GPP MME and WiMAX ASN for control plane signaling to perform pre-registration, pre-authentication and context transfer to the target network, while UE maintains its connection to the source network, and by setting up bearer path for packet forwarding between Servicing Gateway and WiMAX ASN. An example of this invention uses a virtual eNB to facilitate low latency L2 handoffs to legacy 2G/3G networks with minimum impact to SGSN and MME.

Abstract: Techniques and mechanisms to communicate end-to-end feature compliance information. Network access requests may be accompanied by compliance/certification/compatibility information for the requesting device as well as intervening devices. A network authentication device may evaluate the request and associated compliance/certification/compatibility information to select one or more network features to allow the requesting device to utilize.

Abstract: A method for IP address allocation is presented. In one embodiment, the method includes receiving DHCP (Dynamic Host Configuration Protocol) information by a driver module operable on a mobile station prior to the mobile station sending a DHCP discovery message. The method includes storing, by the driver module, the DHCP information and redirecting the DHCP discovery message from an operating system DHCP process to the driver module. The method also includes performing DHCP hand-shaking in response to the DHCP discovery message.

Abstract: A method to perform deregistration with context retention is presented. In one embodiment, the method includes storing a context associated with a mobile station in response to a deregistration request from the mobile station. The method includes determining whether or not to accept the deregistration request with context retention and sending a deregistration command message to the mobile station if the deregistration request with context retention is allowed.

Abstract: Apparatuses and methods for field programming a private security key into a mobile station are described herein. The methods may include a server initially accepting in a wireless network a connection from a mobile station that is without a factory programmed subscriber identification module (SIM). The server may then collaborate with the mobile station to field program the mobile station with an international mobile subscriber identification (IMSI) and a private security key (Ki).

Abstract: Embodiments provide components of a communication network that may facilitate efficient optimization of the communication network. In various embodiments, network gateway selection for incoming subscriber stations may be allocated to one or more components that make intelligent allocation determinations. Additionally, in various embodiments, control of the communication network may also be allocated to various components.

Abstract: An example of this invention provides low latency handovers between Mobile WiMAX and 2G/3G/LTE networks with only a single radio transmitting at any given point in time, by establishing L2 tunnel between 3GPP MME and WiMAX ASN for control plane signaling to perform pre-registration, pre-authentication and context transfer to the target network, while UE maintains its connection to the source network, and by setting up bearer path for packet forwarding between Servicing Gateway and WiMAX ASN. An example of this invention uses a virtual eNB to facilitate low latency L2 handoffs to legacy 2G/3G networks with minimum impact to SGSN and MME.

Abstract: A composite quality measure helps determine a target for a vertical handover between different connection types. Various measurements are normalized, weighted and summed to produce composite quality measures. A composite quality measure may be compared to a target value and the corresponding connection may be added to a feasibility table if the composite quality measure is above the target.

Abstract: Embodiments of the present disclosure describe device, methods, computer-readable media and system configurations for providing a device-to-device (“D2D”) tapping service (“DTS”) layer. In various embodiments, a DTS layer of a communication stack of a computing device may receive, from an application executing within an application layer of the communication stack, a request for a resource. In various embodiments, the DTS layer may determine whether the resource is available locally on the computing device. In various embodiments, the DTS layer may issue a domain name system (“DNS”) request through a network layer of the communication stack to facilitate transparent access by the application to the resource on a remote computing device, where it is determined that the resource is unavailable locally on the computing device. Other embodiments may be described and/or claimed.

Abstract: An embodiment of the present invention provides an apparatus, comprising a transceiver operable in a wireless network, wherein the transceiver is configured to enable wireless interception by a predetermined third party without the knowledge of a user of said transceiver, wherein the apparatus uses a secure external interface that is beyond the scope of the 802.16 wireless network, and wherein the operation of the wireless interception includes interception by a law enforcement agency by using a law interception server (LIS), Authentication Authorization and Accounting (AAA), Anchor Auth, Target lawful interception agent LIA and Serving lawful interception agent (LIA) and wherein the LIS first identifies a mobile station (MS) based on input from the law enforcement agency and once the MS is identified, the LIA for the MS is then identified by the LIS and once the LIA is identified, the LIA sends the security association for the MS session to the LIS which then sends this to the law enforcement.