Abstract: A bandwidth allocation and quality control system interacts with a manifest for a mobile communication platform (MCP), to identify specific IP addresses designated for bandwidth guarantees and corresponding a particular passenger of the MCP. The system monitors IP addresses of packets communicated between the MCP and a machine communication network external to the MCP, and compares the IP addresses of the packets to the IP addresses corresponding to the particular passenger, and if the packets are from the particular passenger and match one of the corresponding IP addresses, and if a limited duration event is underway for the MCP, to communicate the packets to the external machine network with a bandwidth guarantee.

Abstract: A process for modifying application logic includes establishing a communication connection between the application logic or passenger devices aboard a moving vessel, and control logic aboard the moving vessel. The control logic monitors factors affecting latency of communications to or from the application logic to a network external to the vessel. Features of the application logic are modified to change between free to use and a payment model for use, according to the factors affecting latency. The feature modifications made only to particular application logic of a group of associated application logic on multiple passenger devices.

Abstract: A system includes a local social media context server aboard a vehicle, the local social media context server including logic to implement a local social media context for a passenger aboard the vehicle, the local social media context being configured with a duration commensurate with a duration of a trip by the passenger on the vehicle; an antenna coupled to the local social media context server; and logic to prioritize content posted to the local social media context by the person for promotion to the person's global social media context.

Abstract: A process for managing satellite bandwidth available to a moving vessel includes configuring a satellite to associate the vessel with a group of multiple vessels; configuring the satellite to guarantee a committed information rate (CIR) bandwidth to the vessel and to associate a maximum information rate (MIR) with the vessel, and to combine the CIR of the vessel into a CIR bandwidth pool for the group of vessels, and to combine the MIR of the vessel into a MIR bandwidth pool for the group of vessels, and to provide the vessel with a priority burst rate up to the combined CIR bandwidth of the group of vessels, and to provide the vessel with a burst rate up to the combined MIR bandwidth of the group of vessels, conditional on availability of bandwidth beyond the combined CIR bandwidth of the group of vessels; and re-configuring the satellite to release the guarantee of CIR bandwidth for the vessel upon the vessel gaining access to a terrestrial network connection of higher speed than the satellite connection.

Abstract: A process of forming a wireless communication channel among moveable vessels (MCPs) involves establishing a directed wireless communication chain between the MCP to a fixed antenna, and at least one MCP of the MCPs utilizing two antennas to form the chain.

Abstract: A system includes a local social media context server aboard a vehicle, the local social media context server including logic to implement a local social media context for a passenger aboard the vehicle, the local social media context being configured with a duration commensurate with a duration of a trip by the passenger on the vehicle; an antenna coupled to the local social media context server; and logic to prioritize content posted to the local social media context by the person for promotion to the person's global social media context.

Abstract: A process of transferring data files between a source machine system and a destination machine system includes assigning a transfer time deadline to the data files. As the time deadline approaches or is reached, checking a vehicle route schedule to determine if the data files can be transferred to a vehicle that will be within wireless communication range of the source machine system before the transfer time deadline and which will traverse a route that will bring the vehicle within wireless communication range of the destination machine or an intermediate store and forward relay station. If the data files can be transferred to the vehicle that will be within wireless communication range of the source machine system before the transfer time deadline and which will traverse a route that will bring the vehicle within wireless communication range of the destination machine or an intermediate store and forward relay station, transferring the files to the vehicle.

Abstract: A system includes a mobile communication platform (MCP) with logic to record network performance data along a first route taken by the MCP. The system includes logic to track one or more of MCP location, heading, or speed as MCP circumstances, and to apply the network performance data to predict application usage by passengers aboard the MCP along a second route taken by the MCP. The MCP circumstances may include a time of day, day of the week, calendar date, or weather conditions. The system may adjust a course, speed, or location of the MCP based on the predicted application usage.

Abstract: A system includes a vehicle and logic that performs predictive pairing of multiple antenna of the vehicle with multiple fixed antenna of a port the vehicle is approaching, the predictive pairing performed using data obtained about the multiple fixed antenna obtained via a satellite, the predictive pairing prioritizing maximum spatial diversity in the pairings of the antenna of the vehicle with the fixed antenna.

Abstract: A system includes a vehicle and logic that performs predictive pairing of multiple antenna of the vehicle with multiple fixed antenna of a port the vehicle is approaching, the predictive pairing performed using data obtained about the multiple fixed antenna obtained via a satellite, the predictive pairing prioritizing maximum spatial diversity in the pairings of the antenna of the vehicle with the fixed antenna.

Abstract: A system, methods, and apparatus for dual antenna transfer switching are disclosed. In an example embodiment, a dual antenna system includes antennas, antenna control units, a transfer switch, and a modem. For example, the transfer switch may transfer a connection between antennas based on changing satellite visibility, upon entering a preprogrammed blockage zone or an unexpected loss of satellite visibility. The transfer switch may receive GPS data from an external GPS unit and/or the antenna control units and buffer the GPS data to a modem. The transfer switch may provide a modem receive-lock signal to retarget a line of sight. The transfer switch may transfer the connection between the antennas based on satellite visibility including signal reception quality and/or a modem receive-lock status. The transfer switch may, based on a difference in antenna uplink transmission power, attenuate a higher power antenna to be balanced with a lower power antenna.