TWM577993U - Advancing observation system of unmanned aerial vehicle - Google Patents

Abstract

An unmanned aerial vehicle front observation system, which has an unmanned aerial vehicle that discovers a target through a detecting component and generates a target parameter, and the drone is wirelessly transmitted through a first signal transmitting and receiving component Connecting a second signal transceiving component of the observation platform, the position parameter of the UAV and the target parameter data are transmitted to the observation platform, and then calculating a coordinate position of the target object through a calculation component, and displaying the result of the analysis and calculation The display unit is configured to view the position of the target object, thereby performing the search information through the unmanned aerial vehicle, and then performing parameter calculation through the observation platform, and the drone has no geographical limitation characteristic, and the target position can be quickly obtained. Ensure personnel safety and improve observation performance.

Description

UAV pre-observation system

This creation is related to a drone, especially a drone advance observation system.

According to the conventional ground observation method, the target is observed through the enemy's forward position, which is limited by the limited terrain or dangerous area, and increases the danger of the personnel and reduces the observation performance of the target. The personnel measured, so the position coordinates of the target will have errors, which will reduce the effectiveness of the observation. Therefore, after observing the above shortcomings, the creator of the case believes that the conventional observation method is necessary to improve, and the creation of this creation is not necessary. .

The purpose of this creation is to provide an observation system before the drone, and to perform an intelligence investigation task through the drone to collect the target parameter data and improve the observation performance.

In order to achieve the above objective, the present invention provides a UAV forward observation system, which comprises: a UAV having a positioning component, the positioning component generates a UAV position parameter, and the UAV transmits At least one detecting component to generate a target measurement parameter, the UAV includes a first signal transceiving component; and an observation platform having a display component, and the display component is electrically connected to a map database And the observation platform has a second signal transceiver, the second signal transceiver is wirelessly connected to the first signal transceiver, and the second signal transceiver component receives the drone position parameter and the target The object measures the parameter data, and analyzes and calculates the coordinate position of the target object through a computing component, and the computing component is electrically connected to the map database, so that the analysis and calculation result is displayed on the display component.

The drone forward observation system provided by the present invention detects an object through the detecting component through the unmanned aerial vehicle, generates the target measurement parameter, and connects the first wireless transmission and transmission component through the first signal transmitting and receiving component. a second signal transceiving component, wherein the position parameter of the UAV and the target measurement parameter data are transmitted to the observation platform, and then the target coordinate position is analyzed and calculated through the computing component, and the computing component is connected to the map database. And displaying the display component to view the target position, thereby performing the Detective Intelligence through the UAV, and then performing parameter calculation through the observation platform, and the UAV has no geographical limitation characteristics, and can quickly obtain the target. Location to ensure personnel safety and improve observation performance.

Referring to FIG. 1, a system block diagram of a preferred embodiment of the present invention discloses a drone advance observation system 100, which includes:

An unmanned aerial vehicle 10 having a positioning component 11 is a GPS, the positioning component 11 generates a UAV position parameter, and the UAV 10 has a first detecting component 12 and a first a detecting component 13 , the drone 10 discovering an object through the first detecting component 12 and the second detecting component 13 , and generating a target measurement parameter, where the target measurement parameter includes an azimuth In the present embodiment, the first detecting component 12 is a UAV gyroscope, and the UAV direction angle of the target object 200 is obtained, and the second detecting component 13 is a laser range finder. Observing the distance of the target object, and obtaining the pitch angle through the first detecting component 12 and the second detecting component 13 , wherein the drone 10 has a first signal transceiving component 14 and the first signal The transceiver component 14, the positioning component 11, the first detecting component 12, and the second detecting component 13 are electrically connected, and transmit the UAV position parameter and the target measurement through the first signal transceiving component 14. parameter.

An observation platform 20 has a display component 21, the display component 21 is a screen, and the display component 21 is electrically connected to a map database 22, and the observation platform 20 has a second signal transmission and reception. The second signal transceiving component 23 is connected to the first signal transceiving component 14 in a wireless manner, so that the second signal transceiving component 23 receives the UAV position parameter and the target measurement parameter data, and transmits the The computing component 24 performs an analysis and calculation of the target coordinate position, and the computing component 24 is electrically connected to the map database 22, so that the analysis and calculation result is displayed on the display component 21, and the computing component 24 is connected to a target confirmation component. 25, to confirm the target, and the target confirmation component 25 is electrically connected to a named component 26, the named component 26 is named to name the target.

In order to further understand the characteristics of this creation, the use of technical means and the expected results, we will describe the use of this creation, and believe that we can have a deeper and more specific understanding of this creation, as follows:

Referring to FIG. 1 , FIG. 2 and FIG. 3 , firstly, the drone 10 detects the target object 200 through the first detecting component 12 and the second detecting component 13 to obtain the target measurement. Parameter, and wirelessly connecting the second signal transceiving component 23 through the first signal transceiving component 14 to transmit the UAV position parameter and the target measurement parameter data to the observing platform 20, and then through the computing component 24 The target measurement parameter calculation is performed to analyze and calculate the coordinate position of the target object 200, and the computing component 24 is connected to the map database 22 and displayed on the display element 21, as shown in FIG. 4, and then confirmed by the target. The component 25 performs the object confirmation. If the target object is confirmed correctly, the target object is named by the name component 26 and is transmitted back to the rear command center. When the target object is confirmed to be canceled, the drone 10 returns to search for the target object again. Obtaining the target measurement parameter and calculating the target parameter to re-confirm the target 200, thereby performing the Detective Intelligence through the UAV 10, and then transmitting the observation 20-parameter calculation, and the UAV 10 properties without geographical restrictions, quick access to the target location, in order to ensure the safety of personnel to enhance the effectiveness of the observation.

It is worth mentioning that the first detecting component 12 is a UAV gyroscope, so that the first detecting component 12 obtains a UAV azimuth, and the second detecting component 13 is a laser ranging device. a target of the laser ranging observation, wherein the target pitch angle measurement parameter is measured by the first detecting component 12 and the second detecting component 13 and transmitted back to the observation through the first signal transceiving component 14 The platform 20 performs target coordinate calculation and obtains a target coordinate position.

It is worth mentioning that after confirming the target object and naming the target object through the observation platform 20, it is required to transmit the light wave and other carriers through the electric wave to connect to each other to return the rear command center.

Hereby, the characteristics of this creation and its achievable expected effects are stated as follows:

The drone advance observation system provided by the present invention detects the target object 200 through the first detecting component and the second detecting component through the drone 10, and generates the target parameter, and transmits the target parameter A signal transceiving component 14 is connected to the second signal transceiving component 23 by wireless transmission, and transmits the position parameter of the UAV and the target measurement parameter data to the observing platform 20, and then analyzes and calculates the target through the computing component 24. An object coordinate position, and the computing component 24 is connected to the map database 22 and displayed on the display component 21, whereby the unmanned aerial vehicle 10 first performs reconnaissance information, and then performs parameter calculation through the observation platform 20, and The UAV 10 has no geographically restricted features and quickly obtains a target location to ensure personnel safety and improve observation performance.

In summary, this creation has its excellent progress and practicality in similar products. At the same time, it has investigated the technical information about such structures at home and abroad. The same structure has not been found in the literature. This creation has already possessed new types of patent requirements, and applied for it according to law.

However, the above-mentioned ones are only one of the preferred embodiments of the present invention, and the equivalent structural changes in the application of the present specification and the scope of the patent application are intended to be included in the scope of the present patent.

100‧‧‧Unmanned aerial vehicle forward observation system

10‧‧‧ drones

11‧‧‧ Positioning components

12‧‧‧First detection component

13‧‧‧Second detection component

14‧‧‧First signal transceiver component

20‧‧‧ Observing platform

21‧‧‧ Display elements

22‧‧‧Map Database

23‧‧‧Second signal transceiver component

24‧‧‧Computational components

25‧‧‧ Target confirmation component

26‧‧‧Named components

200‧‧‧ Targets

Figure 1 is a block diagram of a system of a preferred embodiment of the present invention. Figure 2 is a schematic flow diagram of a preferred embodiment of the present invention. Figure 3 is a schematic diagram of the unmanned aerial vehicle detection target of the preferred embodiment of the present invention. Figure 4 is a schematic diagram showing the position of the drone and the target object by the observation platform of the preferred embodiment of the present invention.

Claims (5)

A UAV forward observation system includes: a UAV having a positioning component, the positioning component generating a UAV position parameter, and the UAV transmitting at least one detecting component to generate a UAV The target measurement parameter, the UAV includes a first signal transceiving component; an observation platform having a display component, and the display component is electrically connected to a map database, and the observing platform has a second a signal transmitting and receiving unit, the second signal transmitting and receiving unit and the first signal transmitting and receiving unit are connected in a wireless manner, so that the second signal transmitting and receiving unit receives the drone position parameter and the target measuring parameter data, and transmits the calculating component The analysis calculates the target coordinate position, and the computing component is electrically connected to the map database, so that the analysis and calculation result is displayed on the display component. According to the UAV forward observation system of claim 1, wherein the UAV includes a first detecting component and a second detecting component, the first detecting component is a UAV gyroscope. The UAV azimuth of the target object is obtained, and the second detecting component is a laser range finder, and the target distance is observed, and the pitch angle is obtained through the first detecting component and the second detecting component. The UAV forward observation system according to claim 1, wherein the display element is a screen. The UAV forward observation system of claim 1, wherein the computing component is coupled to a target confirmation component to confirm the target. The UAV forward observation system of claim 4, wherein the target confirmation component is electrically connected to a named component to name the target.