Granted Patent B2

US 12,552,559 · App. 17/949,994 · Granted Feb 17, 2026

Inventors: Michael Scott Probasco (Frisco, TX); George Frantz Cummings (Gilbert, AZ); Brett Christian (Independence, MO)

Assignee: T-Mobile USA, Inc.

B64U10/13G01R29/0892G05D1/104B64U2101/00B64U2201/102

Abstract

Claims (63)

1 . A system for testing an antenna of a base station of a telecommunications network, the system comprising:

multiple unmanned aerial vehicles (UAVs) equipped with:

a receiver configured to receive wireless signals emitted by the antenna, and

a spectrum analyzer configured to measure the received wireless signals; and

a control unit,

wherein the control unit is a control UAV of the multiple UAVs, and

wherein the control unit is mobile, thereby providing an extended range for testing the antenna, the control unit including:

a transceiver;

at least one hardware processor; and

at least one non-transitory memory storing instructions, which when executed, cause the control unit to:

receive a measurement result from the multiple UAVs,

wherein the measurement result reflects the wireless signals measured simultaneously by the multiple UAVs at multiple fixed positions, and

wherein the measurement result is provided to the base station to generate a three-dimensional map of energy output of the antenna over a predetermined time period,

transmit a message to the base station to modify transmission or reception parameters of the wireless signals emitted by the antenna based on the measurement result,

wherein the modification is based on the three-dimensional map of the wireless signals emitted by the antenna, and

transmit flight information to the multiple UAVs configured to cause the multiple UAVs to measure the modified wireless signals emitted by the antenna at positions indicated by the flight information,

wherein the flight information is generated based on the measurement result and causes the multiple UAVs to change position from prior positions to the positions indicated by the flight information.

2 . The system of claim 1 , wherein the positions indicated by the flight information correspond to a predetermined pattern and wherein the positions are approximately equidistant from each other.

3 . The system of claim 1 , wherein the control unit is the base station.

4 . The system of claim 1 , wherein the control unit is communicatively coupled to the base station, and wherein executing the instructions further causes the transceiver to:

transmit a calibrated signal to the base station; and

cause the base station to adjust a setting of a receiver of the base station based on the calibrated signal.

5 . The system of claim 1 , wherein multiple drones are further equipped with at least one of: a temperature sensor, a humidity sensor, or a pressure sensor, and wherein the measure of the wireless signals is characterized based on a measurement performed by the temperature sensor, the humidity sensor, or the pressure sensor.

6 . The system of claim 1 , wherein the antenna is configured to transmit the wireless signals in a main channel, and wherein the spectrum analyzer is configured to measure:

a first received power of the main channel,

a second received power of an adjacent channel to the main channel, and

a third received power outside the main channel and the adjacent channel.

7 . The system of claim 1 , wherein the instructions further cause the control unit to:

cause each of the multiple UAVs to transmit test signals to be concurrently received by the antenna in order to test a multiple uplink capability of the base station.

8 . A computer-readable storage medium, excluding transitory signals and carrying instructions, which, when executed by at least one data processor of a system, cause the system to:

generate a flight pattern for multiple unmanned aerial vehicles (UAVs),

wherein the multiple UAVs include a control UAV, and

wherein the control UAV is communicatively coupled to the system and the remaining UAVs of the multiple UAVs;

facilitate deployment of the multiple UAVs in a region surrounding a radio transmitter according to the flight pattern,

wherein the multiple UAVs are equipped with a sensor configured to measure a radio signal emitted by the radio transmitter, and

wherein the control UAV is mobile, thereby providing an extended range for measuring the radio signal;

receive a measurement result of the radio signal from the multiple UAVs,

wherein the measurement result from the multiple UAVs are relayed through the control UAV to the system,

wherein the measurement result reflects the radio signal measured simultaneously by the multiple UAVs at multiple fixed positions, and

wherein the measurement result is provided to the system to generate a three-dimensional map of energy output of the radio transmitter over a predetermined time period; and

transmit a message to the radio transmitter to modify transmission or reception parameters of the signal emitted by the radio transmitter based on the measurement result.

9 . The computer-readable storage medium of claim 8 , wherein the flight pattern indicates positions of the multiple UAVs and wherein the positions are approximately equidistant from each other.

10 . The computer-readable storage medium of claim 8 , wherein the flight pattern is generated using a machine learning model configured to produce an optimized flight pattern using parameters of the radio transmitter as inputs.

11 . An unmanned aerial vehicle (UAV) comprising:

a receiver;

a sensor configured to measure a radio signal emitted by a radio transmitter;

at least one hardware processor; and

at least one non-transitory memory storing instructions, which, when executed by the at least one hardware processor, causes the UAV to:

receive, by the receiver, a flight pattern;

position the UAV in a fixed region proximate to the radio transmitter according to the flight pattern; and

produce, by the sensor, a measurement of the radio signal;

transmit a measurement result to a control unit to be transmitted to a base station to generate a three-dimensional map of energy output of the radio transmitter over a predetermined time period,

wherein the control unit is a control UAV communicatively coupled to a base station and to multiple other UAVs,

wherein the control UAV is mobile, thereby providing an extended range for testing, and

wherein the control UAV is configured to relay instructions from the base station to the multiple other UAVs; and

detect a modified radio signal emitted by the radio transmitter in response to the measurement result being transmitted to the control unit,

wherein the modified radio signal is based on transmission parameters modified based on the three-dimensional map of the radio signals emitted by the radio transmitter.

12 . The UAV of claim 11 , wherein the measurement includes a first received power of a main channel of the radio transmitter and a second received power of an adjacent channel to the main channel, and wherein the UAV is further caused to measure a third received power of a second radio transmitter outside the main channel and the adjacent channel.

13 . The UAV of claim 11 , wherein the UAV is configured to adjust its position according to a machine learning model that is configured to produce an adjusted position using the measurement of the radio signal as an input, and wherein the machine learning model is trained using a training data set that includes target positions and associated radio signal measurement values.

14 . The UAV of claim 11 further caused to:

transmit the measurement of the radio signal to a control unit;

receive an adjusted flight pattern that is generated based on the measurement of the radio signal; and

reposition the UAV according to the adjusted flight pattern.

Assignments (1)

Continuity (1)

References Cited (219)