Communicating with unmanned aerial vehicles and air traffic control
The present disclosure includes devices, systems, and methods for communicating with unmanned aerial vehicles. In one embodiment, the present disclosure includes a server including a communication interface, a memory, and an electronic processor communicatively connected to the memory. The electronic processor is configured to communicate with one or more unmanned aerial vehicles via the communication interface and a satellite network, communicate with the one or more unmanned aerial vehicles via the communication interface and a terrestrial network, and communicate with the one or more unmanned aerial vehicles via the communication interface and a combination of the satellite network and the terrestrial network.
1. A server comprising:
a communication interface;
a memory; and
an electronic processor communicatively connected to the memory, the electronic processor configured to
communicate with one or more unmanned aerial vehicles via the communication interface and a satellite network,
communicate with the one or more unmanned aerial vehicles via the communication interface and a terrestrial network,
communicate with the one or more unmanned aerial vehicles via the communication interface and a combination of the satellite network and the terrestrial network,
transmit a voice communication to a VHF-ATC transceiver via the communication interface,
control the VHF-ATC transceiver to transmit the voice communication to an Air Traffic Control (ATC) tower,
receive an input that indicates a selection of one of the one or more unmanned aerial vehicles, and
select the VHF-ATC transceiver from a plurality of VHF-ATC transceivers by executing a push-to-talk program stored in the memory and based on the input,
wherein the push-to-talk program includes a database containing a geographical location of each of the plurality of VHF-ATC transceivers, and
wherein the electronic processor selects the VHF-ATC transceiver with the geographical location that is closest to a geographical position of the one of the one or more unmanned aerial vehicles.
2. The server of claim 1 , wherein the electronic processor is further configured to
receive GPS signals from a plurality of high precision reference stations via the communication interface,
determine a current positioning error in the GPS signals, and
generate a correction vector based on the current positioning error.
3. The server of claim 2 , wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the terrestrial network, the electronic processor is further configured to
output the correction vector to a local-area-network (LAN) antenna via the communication interface, and
control the LAN antenna to transmit the correction vector to the one or more unmanned aerial vehicles.
4. The server of claim 2 , wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the combination of the satellite network and the terrestrial network, the electronic processor is further configured to
output the correction vector to at least one of an earth station or a local-area-network (LAN) antenna via the communication interface,
control the earth station to transmit the correction vector to a satellite,
control the satellite to transmit the correction vector to the one or more unmanned aerial vehicles, and
control the LAN antenna to transmit the correction vector to the one or more unmanned aerial vehicles.
5. The server of claim 2 , wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the combination of the satellite network and the terrestrial network, the electronic processor is further configured to
output the correction vector to at least one of an earth station or one or more terrestrial antennas via the communication interface,
control the earth station to transmit the correction vector to a satellite,
control the satellite to transmit the correction vector to the one or more unmanned aerial vehicles, and
control the one or more terrestrial antennas to transmit the correction vector to the one or more unmanned aerial vehicles.
6. The server of claim 2 , wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the terrestrial network, the electronic processor is further configured to
output the correction vector to a third-party enterprise server via the communication interface, and
request transmission of the correction vector to the one or more unmanned aerial vehicles via a third-party cellular network that is operated by the third-party enterprise server.
7. The server of claim 1 , wherein the electronic processor is further configured to communicate directly with peering services via secure peering connections established by the communication interface, and wherein the peering services include at least one of Air Traffic Control (ATC), Flight Services, or Unmanned Traffic Control (UTM).
8. The server of claim 1 , wherein the electronic processor is further configured to
control the one or more unmanned aerial vehicles to establish a peer-to-peer connection with a second one or more unmanned aerial vehicles, and
control the one or more unmanned aerial vehicles to communicate information to the second one or more unmanned aerial vehicles via the peer-to-peer connection.
9. A system comprising:
a plurality of VHF-ATC transceivers including a VHF-ATC transceiver,
an Air Traffic Control (ATC) tower;
one or more unmanned aerial vehicles; and
a server comprising:
a communication interface,
a memory, and
an electronic processor communicatively connected to the memory, the electronic processor configured to
communicate with the one or more unmanned aerial vehicles via the communication interface and a satellite network,
communicate with the one or more unmanned aerial vehicles via the communication interface and a terrestrial network,
communicate with the one or more unmanned aerial vehicles via the communication interface and a combination of the satellite network and the terrestrial network,
transmit a voice communication to the VHF-ATC transceiver via the communication interface,
control the VHF-ATC transceiver to transmit the voice communication to the ATC tower,
receive an input that indicates a selection of one of the one or more unmanned aerial vehicles, and
select the VHF-ATC transceiver from the plurality of VHF-ATC transceivers by executing a push-to-talk program stored in the memory and based on the input,
wherein the push-to-talk program includes a database containing a geographical location of each of the plurality of VHF-ATC transceivers, and
wherein the electronic processor selects the VHF-ATC transceiver from the plurality of VHF-ATC transceivers based on the geographical location that is closest to a geographical location of the one of the one or more unmanned aerial vehicles.
10. The system of claim 9 , further comprising a plurality of high precision reference stations,
wherein the electronic processor is further configured to
receive GPS signals from the plurality of high precision reference stations via the communication interface,
determine a current positioning error in the GPS signals, and
generate a correction vector based on the current positioning error.
11. The system of claim 10 , further comprising a local-area-network (LAN) antenna,
wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the terrestrial network, the electronic processor is further configured to
output the correction vector to the LAN antenna via the communication interface, and
control the LAN antenna to transmit the correction vector to the one or more unmanned aerial vehicles.
12. The system of claim 10 , further comprising:
an earth station;
a local-area-network (LAN) antenna; and
a satellite,
wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the combination of the satellite network and the terrestrial network, the electronic processor is further configured to
output the correction vector to at least one of the earth station or the local-area-network (LAN) antenna via the communication interface,
control the earth station to transmit the correction vector to the satellite,
control the satellite to transmit the correction vector to the one or more unmanned aerial vehicles, and
control the LAN antenna to transmit the correction vector to the one or more unmanned aerial vehicles.
13. The system of claim 10 , further comprising:
an earth station;
one or more terrestrial antennas; and
a satellite,
wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the combination of the satellite network and the terrestrial network, the electronic processor is further configured to
output the correction vector to at least one of the earth station or the one or more terrestrial antennas via the communication interface,
control the earth station to transmit the correction vector to the satellite,
control the satellite to transmit the correction vector to the one or more unmanned aerial vehicles, and
control the one or more terrestrial antennas to transmit the correction vector to the one or more unmanned aerial vehicles.
14. The system of claim 10 , further comprising:
a third-party enterprise server; and
a third-party cellular network that is operated by the third-party enterprise server,
wherein, to communicate with the one or more unmanned aerial vehicles via the communication interface and the terrestrial network, the electronic processor is further configured to
output the correction vector to the third-party enterprise server via the communication interface, and
request transmission of the correction vector to the one or more unmanned aerial vehicles via the third-party cellular network.
15. A method comprising:
receiving, with an electronic processor, an input that indicates a selection of one of one or more unmanned aerial vehicles;
selecting, with the electronic processor, a VHF-ATC transceiver from a plurality of VHF-ATC transceivers by executing a push-to-talk program stored in a memory and based on the input, wherein the push-to-talk program includes a database containing a geographical location of each of the plurality of VHF-ATC transceivers, and wherein selecting the VHF-ATC transceiver from the plurality of VHF-ATC transceivers by executing the push-to-talk program further includes selecting the VHF-ATC transceiver with the geographical location that is closest to a geographical position of the one of the one or more unmanned aerial vehicles;
controlling, with the electronic processor, a communication interface to transmit a voice communication to the VHF-ATC transceiver with the geographical location that is closest to the geographical position of the one of the one or more unmanned aerial vehicles; and
controlling the VHF-ATC transceiver to transmit the voice communication to an Air Traffic Control (ATC) tower.