Aerial radio monitoring intelligent robot

A radio monitoring and intelligent robot technology, applied in radio wave measurement systems, beacon systems using radio waves, instruments, etc., can solve the problems of high technical requirements for operators, large body, complex structure, etc., to ensure safe flight, The effect of high level of intelligence and simple operation

Active Publication Date: 2015-01-28
CHENG DU DIAN ZHEN TECH +1
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

Since the cost of each flight is more than hundreds of thousands of yuan, and it cannot hover and wait, the fixed-wing aircraft not only has a very high manufacturing cost, but also a very high flight cost. Task
[0006] In 2007, a manned single-rotor helicopter equipped with a radio monitoring system with a cost of more than several million yuan appeared in Shenzhen. The flight cost of the single-rotor helicopter was more than 3,000 yuan per hour; the manufacturing cost was high, and the flight cost was also high
[0007] In 2011, an airship-borne radio monitoring system appeared in Yunnan. Although the airship is safe, the flight cost is relatively high. The cost of each helium filling is usually more than 10,000 yuan.
[0008] In 2012, a single-rotor unmanned helicopter with a cost of more than hundreds of thousands of yuan appeared in China. Low, but it has high technical requirements for operators, which is not conducive to promotion and popularization, and it is prone to crash accidents, which poses a large safety hazard
[0010] 1. The existing aerial radio monitoring system has high manufacturing cost and high flight cost;
[0011] 2. The existing airborne radio monitoring system is difficult to operate and requires well-trained professional pilots or operators, which is not conducive to promotion and popularization;
[0012] 3. The existing airborne radio monitoring system has low safety during operation, and it is difficult to take into account the flexibility required for safety and radio monitoring. Once an accident occurs, the loss will be great;
[0013] 4. The existing aerial radio monitoring system has a complex structure, a large body, and high storage and maintenance costs
[0017] C. The existing aerial radio monitoring system still uses the ground remote controller to control the flight path of the UAV, and it is impossible for the multi-rotor robot to independently plan the flight path according to the direction finding results and monitor the radio signal source through the change of the flight path. position

Method used

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Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0064] Airborne radio monitoring intelligent robots, including:

[0065] airframes for flight;

[0066] A flight control module for controlling the flight of the airframe;

[0067] Receiving antennas for acquiring radio signals;

[0068] An electronic compass used to obtain the direction pointed by the receiving antenna and obtain the azimuth corresponding to the direction in real time;

[0069] a radio monitoring receiving unit for receiving radio signals;

[0070] Central processing unit for managing monitoring tasks, dispatching flight control modules, dispatching radio monitoring receiving units, analyzing monitoring data and recording monitoring data;

[0071] Navigation module for navigation and self-positioning;

[0072] The receiving antenna, the electronic compass, the radio monitoring receiving unit, the central processing unit, the flight control module and the navigation module are all installed on the body, and the central processing unit is connected with the...

Embodiment 2

[0095] Airborne radio monitoring intelligent robots, including:

[0096] airframes for flight;

[0097] A flight control module for controlling the flight of the airframe;

[0098] Receiving antennas for acquiring radio signals;

[0099] An electronic compass used to obtain the direction pointed by the receiving antenna and obtain the azimuth corresponding to the direction in real time;

[0100] a radio monitoring receiving unit for receiving radio signals;

[0101] Central processing unit for managing monitoring tasks, dispatching flight control modules, dispatching radio monitoring receiving units, analyzing monitoring data and recording monitoring data;

[0102] Navigation module for navigation and self-positioning;

[0103] The receiving antenna, the electronic compass, the radio monitoring receiving unit, the central processing unit, the flight control module and the navigation module are all installed on the body, and the central processing unit is connected with the...

Embodiment 3

[0125] Airborne radio monitoring intelligent robots, including:

[0126] airframes for flight;

[0127] A flight control module for controlling the flight of the airframe;

[0128] Receiving antennas for acquiring radio signals;

[0129] An electronic compass used to obtain the direction pointed by the receiving antenna and obtain the azimuth corresponding to the direction in real time;

[0130] a radio monitoring receiving unit for receiving radio signals;

[0131] Central processing unit for managing monitoring tasks, dispatching flight control modules, dispatching radio monitoring receiving units, analyzing monitoring data and recording monitoring data;

[0132] Navigation module for navigation and self-positioning;

[0133] The receiving antenna, the electronic compass, the radio monitoring receiving unit, the central processing unit, the flight control module and the navigation module are all installed on the body, and the central processing unit is connected with the f...

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PUM

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Abstract

The invention discloses an aerial radio monitoring intelligent robot. A receiving antenna, an electronic compass, a radio monitoring receiving unit, a central processing unit, a flight control module and a navigation module are all installed on a robot body. The central processing unit is connected with the flight control module, the electronic compass and the radio monitoring receiving unit. The navigation module is connected with the flight control module. The receiving antenna is connected with the radio monitoring receiving unit. The central processing unit firstly measures the direction of a radio signal source, then controls the robot body to fly through the flight control unit according to a direction measurement result and finally calculates the position of the radio signal source according to data further monitored on a flight track. According to the aerial radio monitoring intelligent robot, the navigation module is connected with the flight control module, and in-chip transmission is conducted on position information, so that pose correction instantaneity is improved, the error rate is reduced, influences of more modules are avoided, the safety of an aircraft is guaranteed, and the fault probability is reduced.

Description

technical field [0001] The invention relates to the field of aerial radio monitoring, in particular to an aerial radio monitoring intelligent robot which utilizes direction finding results to autonomously plan flight paths to locate signal sources. Background technique [0002] As a supplement to the traditional monitoring mode, aerial radio monitoring can form a multi-functional modern three-dimensional monitoring network such as remote control, joint direction finding, and key monitoring on the existing monitoring network, which will realize full-frequency, full-service, Full-time and all-round monitoring coverage, so as to comprehensively improve the level of technical management. The biggest difference between aerial monitoring and previous monitoring methods is the need for the use of carriers suitable for aerial monitoring flights, and different monitoring activities have different requirements for the types of monitoring carriers used in terms of the needs, nature and...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): G01S1/08G05D1/10G05D1/08
CPCG01C21/165G01S5/04G05D1/10
Inventor 白宇军邱承跃裴峥马方立崔铠韬孔明明何永东
Owner CHENG DU DIAN ZHEN TECH
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