Abstract: Methods, apparatuses and systems for location discovery, electronic payment and multicast broadcast in a wireless broadband network disclosed.

Abstract: Techniques to permit scheduling of mixed radio access technologies. In some cases, a first radio access technology mode of a base station is scheduled during a first time region and a second radio access technology mode of a base station is scheduled during a sleep mode of the first radio access technology mode. In some cases, a first radio access technology mode of a base station is scheduled during a first time region and a second radio access technology mode of a base station is scheduled during an unused portion of the first time region. In some cases, a femto-base station is scheduled to snoop for local mobile stations during a sleep mode. Inactive regions of mobile stations are scheduled during a portion of sleep modes of the radio access technology modes.

Abstract: Embodiments herein may use first and second path loss values L1 and L2 to calculate first and second distances R1 and R2 between the MS and first and second base stations BS1 and BS2, respectively, in a wireless packet-carrying network. L1 and L2 may comprise values of a reduction in signal strength of signals as transmitted by the BS1 and the BS2 and as received by the MS. The MS may triangulate its position relative to a grid using R1 and R2. Other embodiments may be described and claimed.

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: Methods are provided to enable a roaming Wireless Local Access Network (WLAN) customer to select from multiple PLMNs using a single standard SSID. The methods include addition of a Mobile Country Code (MCC) to the SSID; addition of an MCC and a series of Mobile Network Codes (MNC) to the SSID; and reverse Domain Name Server (DNS) lookup for the gateway IP address through the designated DNS server.

Abstract: Briefly, in accordance with one or more embodiments, a handover of a wireless device from a first network to a second network may be implemented via operation of a single radio in the wireless device. A network architecture capable of implementing such a single radio handover operation may comprise a mobility management entity of a first network and an interworking function device capable of emulating an authenticator and/or protocol translation device of the first network or a second network. First switching logic is capable of exchanging information between the mobile station and the internetworking function device during a handover operation, and second switching logic is capable of exchanging information between the internetworking function device and an ASN, RNC, and/or SGSN of the target network.

Abstract: A method of switching a device from a source network to a target network, the source network being one of a WiMAX network and a 3GPP network and the target network being another of the WiMAX network and the 3GPP network, may include receiving information from the device about the source network and about the target network. The information received from the device may be monitored to determine whether parameters of the source network have crossed a handoff threshold. The information received from the device also may be monitored to determine whether parameters of the target network are suitable for handoff. The method may also include instructing the device to perform a handover of communications to a radio associated with the target network based on the parameters of the source network, the parameters of the target network, and a handoff policy.

Abstract: A method for performing an IPSec tunneling operation is disclosed, which enables the ToS parameter of the QoS parameter in an inner packet to be copied to an outer packet before transmission across an un-trusted network. The QoS parameter is part of an IP header of the inner packet being transmitted. The copy of the ToS parameter is stored in the IP header of the outer packet. The ToS parameter may be stored in the outer packet IP header before or after ICV calculation under the AH protocol is performed.

Abstract: Embodiments of methods and apparatus for discovering a bootstrapping server by a mobile station, and bootstrapping the mobile station are disclosed. In some embodiments, a mobile station discovers a remotely disposed bootstrapping server; transmits wirelessly a bootstrap request to the bootstrapping server; and receive wirelessly a bootstrap response from the bootstrapping server in response to the transmitted bootstrap request. Additional variants and embodiments are also disclosed.

Abstract: A method and apparatus for emergency call services for wireless network roaming. An embodiment of a method includes receiving a request for an emergency telephone call from a mobile device, the mobile device communication over the Internet, the mobile device roaming in a visited wireless network when the emergency call is made. The method further includes establishing a session for an emergency services call and connecting the mobile device to emergency services.

Abstract: Methods and apparatus for moving or transferring a mobile station from one type of wireless network to another type of wireless network are described herein. The methods may include employing a source radio access technology (RAT) device, a target RAT device, and a cross wireless network type inter-RAT server to collaboratively communicate with each other to move the mobile station between the different types of wireless networks.

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: 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.

Abstract: Embodiments of the invention relate to wireless communications. More particularly, embodiments of the invention relate to generic discovery mechanisms that may be utilized in wireless communications.

Abstract: An embodiment of the present invention provides an apparatus, comprising a mobile station (MS) operable to communicate with an application service provider (ASP) in a wireless network, the wireless network including a Universal Services Interface (USI); and wherein the MS includes a USI client adapted to store some or all USI context as required by said ASP and wherein when a user accesses the ASP using something other than a web-browser, the USI client inserts relevant USI context as part of an ASP request message.

Abstract: An embodiment of the present invention provides an apparatus, comprising a mobile station (MS) operable to communicate in a wireless network, the wireless network including a Universal Services Interface (USI) and wherein the MS includes a USI client adapted to monitor external IP addresses of the MS and if the MS enters a virtual private network (VPN) via a VPN tunnel, the external IP address of the VPN tunnel is cached.

Abstract: Briefly, in accordance with one or more embodiments, in wireless network, keep-alive type packets may be received from a remote application for a mobile station. A determination may be made whether the mobile station is in an idle mode. If the mobile station is in an idle mode, a determination may be made whether a port in a keep-alive type packet is recognized. If the port is recognized, an application server may respond to the keep-alive type packet on behalf of the mobile station so that the mobile station is not required to exit the idle mode to respond to the keep-alive type packets.

Abstract: A hierarchical cell structure that may be applicable to any wireless communications network utilizing cells. One or more characteristics associated with a mobile device configured to communicate with the base stations via a wireless communications protocol are determined while the mobile device is communicating with a base station. The one or more characteristics are utilized to determine a subsequent base station to be the target of a handoff procedure.

Abstract: Techniques for mobility protocol switching for wireless networks are described. An apparatus may comprise a convergence gateway having a protocol converter, the protocol converter to receive as input a first set of control plane protocol signals and a first set of user plane protocol signals from a first network, convert the first set of control plane protocol signals to a second set of control plane protocol signals and the first set of user plane protocol signals to a second set of user plane protocol signals, and to send as output the second set of control plane protocol signals and the second set of user plane protocol signals to a second network. Other embodiments are described and claimed.

Abstract: Embodiments herein may use first and second path loss values L1 and L2 to calculate first and second distances R1 and R2 between the MS and first and second base stations BS1 and BS2, respectively, in a wireless packet-carrying network. L1 and L2 may comprise values of a reduction in signal strength of signals as transmitted by the BS1 and the BS2 and as received by the MS. The MS may triangulate its position relative to a grid using R1 and R2. Other embodiments may be described and claimed.