Abstract: A method and apparatus for exchanging information between a source and an aircraft. In response to a request to exchange the information between the aircraft and the source, a number of aircraft is identified to send microwave signals between the source and the aircraft to form a number of identified aircraft based on a location of the aircraft and a location of the source. The number of identified aircraft is configured to send the microwave signals between the source and the aircraft to form a number of configured aircraft. The number of configured aircraft forms a mobile network. The microwave signals are sent between the source and the aircraft using the number of configured aircraft. The information is exchanged between the aircraft and the source using the microwave signals sent through the mobile network.

Abstract: A method for providing information by optimizing the data rate to a vehicle over a three-phase power line utilized to provide power to the vehicle is described. The method includes assigning three separate frequency bands to three respective conductors extending between a ground power system and the vehicle, generating carrier signals in three separate frequency bands and modulating various data onto three carrier signals to generate three transmission signals for sending the various data from the ground power system to the vehicle at frequencies within respective ones of the three separate frequency bands. The frequencies for each of the three separate frequency bands do not overlap one another. The method also includes switching the three transmission signals onto respective conductors of the three-phase power line, demodulating the various data within the vehicle, and providing the various data to one or more vehicle systems.

Abstract: Provided are methods and systems for terrestrial data transmission between aircrafts and external networks connected to gates at airports. This type of data transmission is performed through an electrical power cable that includes multiple conductors interconnecting electrical components of an aircraft and a gate. Each conductor may be used to establish a separate broadband over power line (BPL) communication channel using its own frequency range that does not overlap with frequency ranges of other channels. As such, no radio frequency (RF) shielding is needed in the cable and any standard multi-conductor cable may be used. A channel management unit is used to control allocation of data domains among different communication channels depending on characteristics of the data domains, characteristics of the channels, and other factors. For example, one channel may be designated for secure data transfer of specific data domains, such as aircraft control data.

Abstract: Provided are methods and systems for multiband wireless data transmission between aircraft and ground systems. The transmission uses different wavelength ranges, each wavelength range corresponding to a different data domain and establishing a different communication channel. This wavelength differentiation provides physical separation between different data domains and, as a result, improves data security. Furthermore, a single broadband antenna is used on the exterior of the aircraft for transmitting data sets from different data domains. The single antenna configuration reduces drag and weight and improves structural integrity of the aircraft in comparison to multi-antenna configurations. Different aircraft communication modules, which are connected to different aircraft systems, handle different data domains and operate at different wavelength ranges. These modules are connected to the same antenna using a multiplexer.

Abstract: The present invention generally relates to systems and methods for encrypting data. The disclosed techniques can include tracking a plurality of flight parameter values for a plurality of flight parameters of an aircraft, generating a first cryptographic key from the plurality of flight parameter values, encrypting plaintext using the first cryptographic key to generate a first ciphertext, and sending, from a sender to a receiver, a message comprising the first ciphertext.

Abstract: A radio-frequency identification (RFID) reader is provided The RFID reader includes a transmitter/receiver module configured to transmit a radio signal at a plurality of different power levels, and a control module coupled to the transmitter/receiver module and configured to control the power level at which the radio signal is transmitted based on a number of RFID tags detected when transmitting the radio signal at an initial power level.

Abstract: A system includes a transmitting line replaceable unit (TLRU) configured to receive messages including instructions for avionics receiving line replaceable units (RLRUs). The system further includes a memory configured to store validation data including a set of expected messages. A monitor is further included and is configured to monitor messages received at the TLRU and further configured to determine whether received messages are valid based on at least a portion of the set of expected messages stored in the memory. A plurality of RLRUs are further included and configured to receive message from the TLRU and to execute the instructions included in the received messages.

Abstract: A shared data communications system includes a network file server and two routers, each with its own address. A first router provides wireless access to a first part of the system. A second router provides wireless access to a second part of the same, shared system via the technique known as broadband-over-power line (BPL). In the second part, a first BPL unit is carried by the proximal end of an electrical conductor for receiving and sending signals between it and distal, second BPL unit on the same electrical conductor. The use of separate routers with different addresses and a power line to transmit and receive data to confine the wireless portion of the second part of the system to a smaller area increase the physical security of wireless communications with the second part, making it less likely data communications taking place in the second part will be accessed by others.

Abstract: A method and apparatus for exchanging information between a source and an aircraft. In response to a request to exchange the information between the aircraft and the source, a number of aircraft is identified to send microwave signals between the source and the aircraft to form a number of identified aircraft based on a location of the aircraft and a location of the source. The number of identified aircraft is configured to send the microwave signals between the source and the aircraft to form a number of configured aircraft. The number of configured aircraft forms a mobile network. The microwave signals are sent between the source and the aircraft using the number of configured aircraft. The information is exchanged between the aircraft and the source using the microwave signals sent through the mobile network.

Abstract: A system for evaluating a cyber-attack on an aircraft may include a display associated with the aircraft, a sensor system configured to generate sensor data for a pilot, and a data processing system configured to: (1) generate simulation data, (2) generate a flight simulation from the simulation data, (3) simulate the cyber-attack on at least one aircraft system during the flight simulation, (4) generate virtual flight data during the flight simulation, and (5) present the sensor data and the virtual flight data.

Abstract: Methods and systems for use in exchanging information between aircraft at an airport are provided. The system includes a power system capable of providing power to each of the plurality of vehicles via an electric cable, at least one off-board broadband over power lines (BPL) module coupled to the power system. The at least one off-board BPL module is capable of communicating via the electric cable with an onboard BPL module on each of the plurality of vehicles. The system also includes a network coupled to each of the at least one off-board BPL modules for communicatively coupling each of the at least one off-board BPL modules such that the plurality of vehicles can exchange information via the network.

Abstract: Provided are methods and systems for multiband wireless data transmission between aircraft and ground systems. The transmission uses different wavelength ranges, each wavelength range corresponding to a different data domain and establishing a different communication channel. This wavelength differentiation provides physical separation between different data domains and, as a result, improves data security. Furthermore, a single broadband antenna is used on the exterior of the aircraft for transmitting data sets from different data domains. The single antenna configuration reduces drag and weight and improves structural integrity of the aircraft in comparison to multi-antenna configurations. Different aircraft communication modules, which are connected to different aircraft systems, handle different data domains and operate at different wavelength ranges. These modules are connected to the same antenna using a multiplexer.

Abstract: An inline ARINC data authenticity inspection module, method and computer program product are provided. In the context of a method, ARINC data that is transmitted via an ARINC bus is received into a buffer partition. The method also includes inspecting the ARINC data from the buffer partition within an inspection partition. The method further includes determining, as a result of having inspected the ARINC data within the inspection partition, whether the ARINC data is authentic. In an instance in which the ARINC data is determined to not be authentic, the method logs receipt of the ARINC data that is determined to not be authentic. However, in an instance in which the ARINC data is determined to be authentic, the method permits data corresponding to the ARINC data to be transmitted to an intended destination.

Abstract: A vehicle that includes an onboard connector including a conductive portion and an optical communication portion. The vehicle further includes an optical interface coupled in communication with the onboard connector and onboard systems of the vehicle. The optical interface is configured to at least one of receive or transmit optical signals via the optical communication portion. When a ground-system connector is connected to the onboard connector, data included in the optical signals is communicated between the ground system connector and the onboard systems of the vehicle.

Abstract: A method for providing information by optimizing the data rate to a vehicle over a three-phase power line utilized to provide power to the vehicle is described. The method includes assigning three separate frequency bands to three respective conductors extending between a ground power system and the vehicle, generating carrier signals in three separate frequency bands and modulating various data onto three carrier signals to generate three transmission signals for sending the various data from the ground power system to the vehicle at frequencies within respective ones of the three separate frequency bands. The frequencies for each of the three separate frequency bands do not overlap one another. The method also includes switching the three transmission signals onto respective conductors of the three-phase power line, demodulating the various data within the vehicle, and providing the various data to one or more vehicle systems.

Abstract: Methods and systems for communicating data between a vehicle and a ground system are described. The system includes an integrated power and communications connector that couples to the vehicle so that power is supplied to at least selected systems on-board the vehicle. In addition, data is communicated between the vehicle on-board systems and the ground system via the integrated connector.

Abstract: A method and apparatus for exchanging information between a source and an aircraft. In response to a request to exchange the information between the aircraft and the source, a number of aircraft is identified to send microwave signals between the source and the aircraft to form a number of identified aircraft based on a location of the aircraft and a location of the source. The number of identified aircraft is configured to send the microwave signals between the source and the aircraft to form a number of configured aircraft. The number of configured aircraft forms a mobile network. The microwave signals are sent between the source and the aircraft using the number of configured aircraft. The information is exchanged between the aircraft and the source using the microwave signals sent through the mobile network.

Abstract: Systems and methods to exchange data between a vehicle and a remote computer system, are disclosed. In one embodiment, a system to exchange data between a vehicle and a remote computer system comprises at least one power line adapted to couple to the vehicle, a local area network, a modem coupled to the local area network and the at least one power line, and a power line interference server comprising logic to allocate communication channels within a specified frequency range on the power line. Other embodiments may be described.

Abstract: This disclosure relates to updating information in devices of remote systems over a network. A method includes receiving, via a first switch, a first selection. The method also includes activating, based on the first selection, a data partition in a storage device corresponding to the first device. The method further includes deactivating based on the first selection, data partitions in the storage device corresponding to non-selected devices. Additionally, the method includes storing information in the data partition corresponding to the first device. Moreover, the method includes receiving, via a second switch, a second selection. The method also includes determining that the first selection matches the second selection. The method further includes retrieving, based on the determining, the information from said activated data partition. Additionally, the method includes providing the retrieved information to a first device that corresponds to the first selection and the second selection.

Abstract: A method and system for securely wirelessly communicating between a vehicle and a source are provided. Information regarding a vehicle or a source is provided with at least one information device. Wireless communications of data between a first wireless communication device of the vehicle and a second wireless communication device of the source are only allowed when security parameters are met based on the information provided by the at least one information device.