Agricultural planting management device based on unmanned aerial vehicle and working method thereof
A technology for managing equipment and working methods, applied in non-electric variable control, instruments, control/regulation systems, etc., to solve problems such as inability to perform real-time ventilation, inability to achieve internal air pressure balance, and untimely ventilation
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0052] Such as figure 1 , 2 , 3, 4, and 5, a drone-based agricultural planting management equipment includes a drone, a shed mechanism, a connection mechanism, and a control mechanism. The control mechanism includes a processor 1 and a driving device 2, and the processor 1 Connected with the driving device 2, the shed body mechanism is divided into several planting areas, and the planting area and the drone establish a one-to-one correspondence relationship. The connecting mechanism includes a first connecting device 3 and a second connecting device 4, and the first connecting device 3 is set on At the bottom of the drone, the second connecting device 4 is arranged at the bottom of the shed body mechanism, the first connecting device 3 and the second connecting device 4 are respectively connected to the driving device 2, and the driving device 2 drives the first connecting device 3 to connect with the second connecting device. The device 4 establishes a connection relationshi...
Embodiment 2
[0063] Such as Figure 6 As shown, a working method of agricultural planting management equipment based on drones, including the following working steps:
[0064] a) The illuminance meter 9 detects the light intensity received by the shed body mechanism and sends the light intensity to the processor 1;
[0065] b) Processor 1 judges whether the light intensity meets the sunshine conditions of the crops;
[0066] c) If yes, the processor 1 outputs a first shrinking signal to the driving device 2, and the driving device 2 drives the retractable light-shielding layer 12 to shrink to the inside of the storage cavity 10;
[0067] d) If not, the processor 1 outputs the first elongation signal to the driving device 2, and the driving device 2 drives the retractable light-shielding layer 12 to extend outward;
[0068] e) The temperature sensor 7 detects the temperature value inside the shed mechanism and sends the temperature value to the processor 1;
[0069] f) The humidity senso...
Embodiment 3
[0089] Such as Figure 9 As shown, the first camera device 6 detects the internal environment of the shed mechanism and sends the first captured image to the processor 1;
[0090] Processor 1 analyzes the growth status of crops in each planting area, and judges whether local irrigation is needed;
[0091] If so, the processor 1 extracts the unmanned aerial vehicle corresponding to the planting area, and the first connecting device 3 and the second connecting device 4 corresponding to the unmanned aerial vehicle, and outputs a disconnection signal to the driving device 2, and the driving device 2 drives the second connecting device 4. A connecting device 3 and a second connecting device 4 are disconnected;
[0092] Processor 1 controls the drone to fly to the planting area;
[0093] The second camera device 15 photographs the environment in the planting area and sends the second photographed image to the processor 1;
[0094] The processor 1 further analyzes the detailed gro...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 


