A method includes enabling a power supply of a ground sensor device to provide power to one or more components of the ground sensor device based on one or more rotations of a rotor of the ground sensor device.
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1. A method comprising: enabling a power supply of a ground sensor device to provide power to one or more components of the ground sensor device based on one or more rotations of a rotor of the ground sensor device, wherein the components include a seismic sensor configured to detect seismic waves a
1. A method comprising: enabling a power supply of a ground sensor device to provide power to one or more components of the ground sensor device based on one or more rotations of a rotor of the ground sensor device, wherein the components include a seismic sensor configured to detect seismic waves and to generate seismic data based on the detected seismic waves, and wherein enabling the power supply includes switching the power supply from inactive to active based on the one or more rotations of the rotor. 2. The method of claim 1, further comprising deploying the ground sensor from an aircraft, wherein deploying the ground sensor device automatically causes the rotor to rotate. 3. The method of claim 1, further comprising activating a switch of the ground sensor device based on the one or more rotations of the rotor. 4. The method of claim 3, wherein activating the switch causes the power supply to provide the power to the one or more components. 5. The method of claim 3, wherein the power supply is enabled to provide power to a controller and to a transmitter of the ground sensor device upon activation of the switch. 6. The method of claim 3, wherein the switch is activated when a rate of rotation associated with the one or more rotations of the rotor satisfies a threshold value. 7. A ground sensor device comprising: one or more components including at least one sensor, wherein the at least sensor includes a seismic sensor configured to detect seismic waves and to generate seismic data based on the detected seismic waves;a power supply; anda rotor, wherein the power supply is configured to switch power from inactive to active for the one or more components based on one or more rotations of the rotor. 8. The ground sensor device of claim 7, wherein the power supply is configured to switch the power from inactive to active in response to the rotor rotating at a rate that satisfies a threshold number of revolutions per minute. 9. The ground sensor device of claim 7, wherein the seismic sensor is a micro-electromechanical system (MEMS) seismic sensor. 10. The ground sensor device of claim 7, wherein the at least one sensor includes a temperature sensor, a magnetic field sensor, or a combination thereof. 11. The ground sensor device of claim 7, wherein the power supply includes a battery. 12. The ground sensor device of claim 7, wherein the one or more components further include: a transceiver, wherein the transceiver is configured to wirelessly transmit data associated with the at least one sensor; anda controller, wherein the controller is configured to: receive one or more signals from the at least one sensor;process the one or more signals to generate the data; andprovide the data to a transmitter for wireless transmission of the data. 13. The ground sensor device of claim 7, further comprising an outer body, wherein the one or more components and the power supply are housed in an interior of the outer body, and wherein the rotor is coupled to the outer body. 14. The ground sensor device of claim 13, wherein the rotor is configured to rotate relative to the outer body. 15. The ground sensor device of claim 7, wherein the rotor is configured to freewheel or be driven by a motor. 16. The ground sensor device of claim 7, further comprising a motor, wherein the motor is configured to drive the rotor, and wherein, when the motor is inoperable to drive the rotor, the rotor is enabled to freewheel. 17. The ground sensor device of claim 7, further comprising a switch, wherein the switch is configured to be activated based on the one or more rotations of the rotor, and wherein the power supply is enabled to provide power to the one or more components when the switch is activated. 18. A network comprising: a plurality of ground sensor devices, wherein at least one ground sensor device of the plurality of ground sensor devices comprises: one or more components including at least one sensor, wherein the at least sensor includes a seismic sensor configured to detect seismic waves and to generate seismic data based on the detected seismic waves;a power supply; anda rotor, wherein the power supply is configured to switch power from inactive to active for the one or more components based on one or more rotations of the rotor; anda base station comprising: a transceiver to receive signals corresponding to sensor data transmitted by one or more ground sensor devices of the plurality of ground sensor devices; anda processor to: process the signals received via the transceiver; andidentify an event based on the processed signals. 19. The network of claim 18, wherein the sensor data is associated with the seismic data wherein the at least one ground sensor device further includes a controller, a transmitter, and outer body, and wherein the seismic sensor, the controller, and the transmitter are arranged in a stack configuration within an interior of the outer body. 20. network of claim 18, wherein the transceiver of the base station is configured to send a diagnostic signal to the at least one ground sensor device to test a function of the at least one ground sensor, and wherein the event corresponds to seismic activity detected by one or more of the plurality of ground sensor devices.
Kaiser, Stephen G.; Hischke, Mark D.; Nelson, Shannon Mary; Collar, Stuart J.; Bourbonnais, Dana Lynn, Modular open system architecture for unattended ground sensors.
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