Abstract: Systems and methods may provide connectivity to client electronic devices in a wireless communication network aboard aircraft or in another environment. During initial client device association with the wireless network, captive browser use at the client device may be minimized by directing the device to a fully-capable browser. Upon association, subsequent captivity probes transmitted by the client device may be detected and handled so as to prevent undesired re-launching of the captive browser at the client device.

Abstract: Systems and methods are provided for opportunistic load balancing across one or more communication links supported by one or more base stations. As part of the opportunistic load balancing process, a load balancer may measure a performance metric and an idle capacity metric for the one or more communication links. In some embodiments, the load balancer may directionally measure the performance metric and the idle capacity metric. Based on the measured metrics, the load balancer may determine a candidate base station for a network socket. The load balancer may then establish the network socket with the candidate base station. As a result, the load balancer may help alleviate network congestion.

Abstract: A dynamic satellite load balancing system measures geographic position and travel information of in-flight aircraft in a fleet of aircraft equipped to establish in-flight connectivity services from a plurality of satellite beams. The in-flight aircraft include an on-board satellite map program with satellite map parameters to indicate which satellite beam of a group of available satellite beams is the most desirable based on the in-flight aircraft's geographic location. The system selects in-flight aircraft, determines load balanced satellite map parameters for the selected aircraft, and transmits the load balanced satellite map parameters to the aircraft to assemble load balanced satellite map programs to relieve wireless data communication saturation conditions on one or more of the satellite beams.

Abstract: Multimedia content may be delivered to content consumer devices via a content-delivery network. Encrypted content and cryptography keys for decrypting the content may be distributed from a data center to various nodes of the content-delivery network, each node acting as a semi-independent content-delivery system. Each content-delivery system is capable of delivering received content to end-users and implementing a key-management scheme to facilitate secure content-delivery and usage tracking, even when the content-delivery system is disconnected from the data center. In other words, the disclosed systems and methods facilitate the operation of nodes which may operate in “autonomous mode” when disconnected from a larger content-delivery network, thus maintaining content-delivery capabilities despite having little if any connectivity to external networks.

Abstract: Antennas used aboard vehicles to communicate with satellites or ground stations may have complex antenna patterns, which may vary as the vehicle moves throughout a given coverage area. Techniques are disclosed for dynamically adjusting the instantaneous power fed to an antenna system to ensure that the antenna transmits at the regulatory or coordinated effective isotropic radiated power (EIRP) spectral limit. The antenna may transmit, in accordance with vehicle location and attitude, steerable beam patterns at different scan and skew angle combinations, causing variations in antenna gain and fluctuations in the transmitted EIRP. Using on-board navigational data, an antenna gain and ESD limit may be calculated for a particular scan and skew angle, which may be used to adjust power fed to the antenna such that the antenna transmits substantially at maximum allowable EIRP as the steerable beam pattern is adjusted.

Abstract: A self-healing network on-board a vehicle includes multiple wireless devices that are directly and communicatively interconnected via communications backbone(s). One of devices is collectively determined by the other devices to be a lead device of the network, and therefore establishes a wireless link (e.g., an only wireless link) communicatively connecting any of the self-healing network devices to other devices/servers on-board the vehicle and external to the network. Passenger-consumable content may be delivered between any device of the self-healing network and the other on-board, external devices via the lead wireless device, its established wireless link, and the communications backbone(s). Any wireless device of the self-healing network may serve as a hot spare for the lead wireless device, so that the self-healing network may automatically reconfigure to mitigate and recover from faults, e.g.

Abstract: A system, method, and device to enable communication between a first and second satellite station and a controller of a mobile platform. The controller includes a processor, a first modem facilitating communication with the first satellite station via a first frequency over a first communication link, and a map of the one or more networks of satellite stations including the second satellite station. The controller utilizes the map of the one or more networks of satellite stations to determine the second satellite station for communicating with the controller. A second modem is coupled to the controller and facilitates communication with the second satellite station via a second frequency over a second communication link, wherein the controller is configured to calculate a time to handoff communication with the mobile communicator from the first communication link to the second communication link.

Abstract: A method of communicating with multiple satellites includes allocating, based on one or more conditions corresponding to a plurality of spatial channels associated with multiple satellites, each subset of a plurality of subsets of antenna resources of a phased array antenna to a respective different satellite included in the multiple satellites. The method also includes commanding one or more transceivers to establish simultaneous communicative connections to the different satellites via the allocated subsets of antenna resources, and re-allocating, based on a detected change to at least one of the one or more conditions, at least one antenna resource to a respective another different satellite. The method also includes commanding the one or more transceivers to maintain the simultaneous communicative connections to the different satellites using the re-allocated at least one antenna resource.

Abstract: The Automated Content Upload System networks a plurality of aircraft together when they are parked at the gates of an airport. Communications among the aircraft are guided by a Content Manager, resident at or near the airport, which maintains data representative of InFlight Entertainment Content presently stored on each aircraft and the list of scheduled InFlight Entertainment Content available on each aircraft. The Content Manager guides the exchange of InFlight Entertainment Content among the aircraft, as well as from the Content Manager to the aircraft, to automatically distribute InFlight Entertainment Content to the aircraft efficiently and timely. This process includes the ability to multicast data from the Content Manager to multiple aircraft in a single transmission, obtaining content delivery efficiency, populating multiple aircraft via a single transmission from the Content Manager.

Abstract: Systems and methods of policy shaping for an aggregated network include (A) receiving a first request to deliver first content to a first device being transported by a vehicle; (B) receiving a second request to deliver second content to a second device being transported by the vehicle; (C) determining (i) a first communication protocol corresponding to the first request and (ii) a second communication protocol corresponding to the second request; (D) determining (i) a first count corresponding to the first content and (ii) a second count corresponding to the second content; and (E) applying (i) a first policy, based on the first communication protocol and the first count, to a first forward data stream including the first content and (ii) a second policy, based on the second communication protocol and the second count, to a second forward data stream including the second content.

Abstract: An example system includes an in-vehicle content-delivery system (CDS) on a vehicle storing a library of content, and a content server including a content portal. The content portal may receive a request for a customized content manifest from the CDS, identify the vehicle, identify a customized content manifest, and provide the customized content manifest to the CDS. The customized content manifest may include a list of content customized for an itinerary and/or the vehicle, and wherein the customized content manifest differs from another content manifest customized for a different itinerary and/or a different vehicle. The CDS may remove first content from the library of content when the first content is not included in the list of content, and load second content to the library of content when the second content is included in the list of content and not already present in the library of content.

Abstract: Communication systems and methods for routing data selectively via unicast paths and multicast paths are disclosed. An example communication system includes a satellite ground station having a multicast server configured to: access a receive signal-to-noise ratio (SNR) measured for a forward link (FL) between a satellite and a satellite modem; select one of a unicast mode or a multicast mode for the FL based upon the receive SNR; and configure the FL in the selected one of the unicast mode or the multicast mode.

Abstract: Techniques for controlling or managing uplink access of a UE to a base station using unlicensed spectrum includes signaling an indication of different uplink access constraints so the UE connects to the base station when the UE and/or the uplink direction between the UE and the base station meet the uplink access constraints. The indication may be broadcast in a reference or synchronization signal, e.g., by utilizing unused or undesignated bits. Uplink access constraints may include a threshold distance of UEs from the base station, interference in the uplink direction (which may differ from interference in the downlink direction), etc. Based on the indicated constraints, the UE may determine whether or not to consider the base station as a candidate serving cell for wireless network access. The UE may be an in-flight aircraft and the base station may be a logical cell of a network that provides in-flight connectivity services.

Abstract: Systems and methods are described to provide navigational guidance to persons within crowded and unfamiliar environments such as aircraft cabins, stadiums, and theaters. An “activation arrangement” may be created to dynamically activate various lighting devices, personal electronic devices, and/or other devices to usher the person from a current location to a destination, such as a seat, entranceway, or lavatory. These techniques may be customized based upon existing conditions within the environment and/or based upon user-personalized settings to improve the comfort of persons in these environments.

Abstract: A first beam is implemented, from a set of vehicle-based antennas, for current or future communication with a ground-based or satellite-based network via an external antenna (e.g., of a base station or satellite). A second beam may be implemented to detect or determine a better pointing angle for the first beam, thereby “fine tuning” the pointing angle for the first beam. Specifically, the second beam may be “swept” through a range of pointing angles while a signal parameter representing signal quality or strength is measured, detected, or calculated at each pointing angle. The values for the signal parameter may be evaluated to identify a desired value and the pointing angle at which the desired value was obtained. The first beam may be reoriented or repointed at the desired pointing angle, and one or more nodes of vehicle-based communication system may communicate with an external network via the first beam.

Abstract: Techniques for delivering data or information onto a vehicle and for delivering data off of a vehicle include a data distribution system having multiple interfaces that are fixedly connected to the vehicle, and that provide access to multiple types of data bearers connected to external networks. A bearer selector engine may select a particular data bearer for delivery of data based on a set of selection criteria, which may be indicated in a set of selection rules on-board the vehicle. The selection criteria may be based on bearer characteristics, data characteristics, vehicle operating state and/or other current conditions, priority, a feature or service, and/or user preference. Using one or more on-board networks, data may be generated by an on-board originating device and routed for external delivery, or external data may be delivered to an on-board destination device. Data delivery may occur while the vehicle is en route.

Abstract: A method and system facilitate communication between a constellation of satellites and a mobile platform-mounted mobile communicator. The method and system may include the use of a first antenna suited for operation using a first frequency band in a first geographic region and a second antenna suited for operation using either the first or a second frequency band in a second geographic region. The method and system may use a controller to determine which antenna to activate based on one or more of a geographic indicator or a signal indicator. The system used by the method to facilitate the communication may have one or more enclosures over the antennas and controller for mounting to a mobile platform.

Abstract: Communication systems and methods for routing data selecting via unicast paths and multicast path are disclosed. An example communication system includes: a satellite; a satellite modem configured to operate within a movable vehicle, wherein the satellite modem is configured to communicatively couple with the satellite, and wherein the satellite modem is configured to convey data, received from the satellite over a forward link (FL), to a user device within the vehicle; and a satellite ground station having a multicast server, wherein the multicast server is configured to select one of a unicast mode or a multicast mode for the FL based upon a measured receive signal-to-noise ratio (SNR) associated with the satellite modem, wherein the satellite communicates with the satellite modem over the FL in the selected one of the unicast mode or the multicast mode.

Abstract: Systems and methods are provided to authenticating an electronic device with a wireless network using a presence-based authentication process. As part of the presence-based authentication process, an authentication entity may receive a registration message from an electronic device. The authentication entity may respond to the registration message by transmitting an authentication challenge associated with providing access to the wireless network and/or network feature thereof. If the electronic device provides a successful response to the authentication challenge, then the authentication entity may authenticate the electronic device to utilize the wireless network and/or network feature thereof.

Abstract: Systems and methods for detecting and reducing signal interference affecting wireless communication with a mobile vehicle includes generating an interference signature based on a correlation multiple signal-quality characteristics of a desired target-signal that is received at an antenna assembly attached to the mobile vehicle, and adjusting the orientation of the antenna assembly based on a change or degradation in the interference signature to thereby improve wireless communication with the vehicle.