Submersible drone devices and systems
In accordance with at least one aspect of this disclosure, a crustacean trap can include a cage configured to trap one or more crustaceans, and a propulsion system connected to the cage and configured to provide propulsion to the cage. In certain embodiments, the trap can include a controller configured to control the propulsion system to autonomously pilot the trap.
1. A crustacean trap, comprising:
a cage configured to trap one or more crustaceans; and
a propulsion system connected to the cage and configured to provide propulsion to the cage, wherein the propulsion system includes three or more rotors positioned to provide 3-axis control configured to at least provide directional and orientation control in motion.
2. The trap of claim 1 , further including at least one controller configured to control the propulsion system to autonomously pilot the trap.
3. The trap of claim 2 , wherein the propulsion system includes at least one rotor connected to the cage.
4. The trap of claim 2 , wherein the propulsion system includes at least one propeller connected to the cage.
5. The trap of claim 4 , wherein a thrust vector is moveable relative to the cage, wherein the controller is configured to control a direction of the thrust vector of to provide a directional control of the trap.
6. The trap of claim 1 , wherein the propulsion system includes:
at least one electric motor connected to each rotor and/or each propeller;
at least one battery electrically connected to the at least one electric motor; and
wherein the controller is operatively connected to each electric motor to control each rotor and/or propeller.
7. The trap of claim 1 , further including an inflatable ballast system connected to the cage and configured to provide lifting force to the trap under water.
8. The trap of claim 7 , further including a controller configured to control the propulsion system and the inflatable ballast system to autonomously pilot the trap.
9. The trap of claim 8 , wherein the inflatable ballast system includes:
at least one pressure vessel;
at least one gas supply; and
at least one valve operatively connected to the controller and configured to permit gas from the gas supply into the at least one pressure vessel in an open position, and to prevent gas from the gas supply from entering the at least one pressure vessel in a closed position.
10. The trap of claim 9 , wherein the controller is configured to control the at least one valve to allow enough gas into the at least one pressure vessel to provide a predetermined lifting force.
11. The trap of claim 10 , wherein the controller is configured to control the at least one valve to allow enough gas to create equal lifting force to the weight of the trap to create a zero weight condition under water or to create greater lifting force then the weight of the trap to cause the trap to rise.
12. The trap of claim 11 , further comprising a compressor configured to recompress gas in the pressure vessel back into the gas supply.
13. The trap of claim 11 , further comprising one or more release valves configured to release gas from the at least one pressure vessel into the atmosphere and/or to flood the pressure vessel with water.
14. The trap of claim 8 , further comprising at least one state sensor operatively disposed on the trap in communication with the controller and configured to determine at least one state of the trap.
15. The trap of claim 14 , wherein the at least one state sensor includes at least one of a position sensor, a speed sensor, an attitude sensor, a roll sensor, a yaw sensor, a pitch sensor, an altimeter, or an accelerometer.
16. The trap of claim 15 , wherein the controller is configured to receive signals from the at least one state sensor and to control the propulsion system and/or the ballast system a function of the received signals from the at least one state sensor.
17. A crustacean trap, comprising:
a cage configured to trap one or more crustaceans;
a propulsion system connected to the cage and configured to provide propulsion to the cage, wherein the propulsion system includes at least one propeller connected to the cage; and
at least one controller configured to control the propulsion system to autonomously pilot the trap, wherein a thrust vector is moveable relative to the cage, wherein the controller is configured to control a direction of the thrust vector to provide a directional control of the trap.
18. A crustacean trap, comprising:
a cage configured to trap one or more crustaceans;
a propulsion system connected to the cage and configured to provide propulsion to the cage;
an inflatable ballast system connected to the cage and configured to provide lifting force to the trap under water;
a controller configured to control the propulsion system and the inflatable ballast system to autonomously pilot the trap, wherein the inflatable ballast system includes:
at least one pressure vessel;
at least one gas supply; and
at least one valve operatively connected to the controller and configured to permit gas from the gas supply into the at least one pressure vessel in an open position, and to prevent gas from the gas supply from entering the at least one pressure vessel in a closed position.
19. The trap of claim 18 , wherein the controller is configured to control the at least one valve to allow enough gas into the at least one pressure vessel to provide a predetermined lifting force.
20. The trap of claim 19 , wherein the controller is configured to control the at least one valve to allow enough gas to create equal lifting force to the weight of the trap to create a zero weight condition under water or to create greater lifting force then the weight of the trap to cause the trap to rise.
21. The trap of claim 18 , further comprising a compressor configured to recompress gas in the pressure vessel back into the gas supply.
22. The trap of claim 18 , further comprising one or more release valves configured to release gas from the at least one pressure vessel into the atmosphere and/or to flood the pressure vessel with water.