Simple meteorological network topology system of cloud proxy server

Abstract

The utility model discloses a simple meteorological network topology system of a cloud proxy server, which comprises a cloud server, a first data operator, a second data operator, a display terminal operator, a telecom operator, a mobile operator and a Unicom operator, the first data operator is in signal connection with a first data acquisition group, the second data operator is in signal connection with a second data acquisition group, the display terminal operator is in signal connection with a display terminal, the telecom operator is in signal connection with a telecom base station, the mobile operator is in signal connection with a mobile base station, and the Unicom operator is in signal connection with a Unicom base station. The centralized star networking is simple, reliable and easy to manage, the meteorological network topology is constructed through the cloud proxy server, accurate meteorological service can be achieved, agricultural enterprises can take measures in advance to deal with natural disasters, losses are reduced, and the yield and quality of agricultural products are improved.

Description

Technical Field

[0001] This utility model relates to the field of agricultural meteorology, specifically a simplified meteorological network topology system for cloud proxy servers. Background Technology

[0002] The plateau region has a terrain that slopes from west to east, with numerous mountains and hills. This topography presents unique challenges and opportunities in agricultural production and disaster prevention. Large-scale mechanized planting is not effectively feasible, hindering the development of modern, high-efficiency mountain agriculture tailored to local conditions. Furthermore, the lack of comprehensive insurance products for agricultural facilities prevents agricultural enterprises from insuring their facilities, resulting in significant economic losses annually due to severe convective weather events such as hail, strong winds, and torrential rains. Therefore, precise and efficient professional meteorological services have become crucial for improving agricultural production efficiency and ensuring stable yields and increased incomes. Utility Model Content

[0003] The purpose of this invention is to provide a simplified meteorological network topology system for cloud proxy servers to solve the problems mentioned in the background art.

[0004] To achieve the above objectives, this utility model provides the following technical solution: a simplified meteorological network topology system using a cloud proxy server, comprising a cloud server, a first data operator, a second data operator, a display terminal operator, a telecommunications operator, a mobile operator, and a Unicom operator. The first data operator, second data operator, display terminal operator, telecommunications operator, mobile operator, and Unicom operator are all connected to the cloud server via signal. The first data operator's signal is connected to a first data acquisition group, the second data operator's signal is connected to a second data acquisition group, the display terminal operator's signal is connected to a display terminal, the telecommunications operator's signal is connected to a telecommunications base station, the mobile operator's signal is connected to a mobile base station, and the Unicom operator's signal is connected to a Unicom base station.

[0005] Preferably, the first data acquisition group includes a temperature and humidity data acquisition device, a wind power data acquisition device, and a barometric pressure data acquisition device. The temperature and humidity data acquisition device, the wind power data acquisition device, and the barometric pressure data acquisition device are all connected to the first data operator's signal. Each acquisition device is used to monitor air parameters within the agricultural land area.

[0006] Preferably, the second data acquisition group includes a radar data acquisition unit, a satellite data acquisition unit, a weather station data acquisition unit, and a soil moisture acquisition unit, and all of these units are connected to the signal of the second data operator. The radar satellite is used to monitor weather conditions.

[0007] Preferably, the display terminal includes a public large-screen display, a user mobile phone terminal, and a user computer terminal. The public large-screen display, the user mobile phone terminal, and the user computer terminal are all connected to the display terminal operator's signal. The display terminal is used by the user to view and understand the weather conditions.

[0008] Preferably, the telecommunications base station includes a first firewall, a web service station, a telecommunications server, and a data management server, all of which are connected to the telecommunications operator's signal. The mobile base station includes a second firewall, an information publishing server, a data acquisition and processing server, and a mobile server, all of which are connected to the mobile operator's signal. The China Unicom operator includes a third firewall, an FTP server, a storage server, and a China Unicom server, all of which are connected to the China Unicom operator's signal.

[0009] Compared with the prior art, the beneficial effects of this utility model are:

[0010] The entire system adopts a star network topology, in which all devices are directly connected to a central node, namely the cloud server. This centralized star network topology is simple, reliable, and easy to manage. In a decentralized network, data storage, processing, and transmission are all handled by multiple nodes, improving system reliability, security, and scalability. Constructing a meteorological network topology through cloud proxy servers enables precise meteorological services. Real-time acquisition of on-site environmental data through the first and second data acquisition groups facilitates the implementation of a "meteorology + agriculture" model. Real-time meteorological monitoring allows users to access information promptly, enabling agricultural enterprises to take proactive measures to cope with natural disasters, reduce losses, and rationally arrange agricultural activities based on meteorological conditions, thereby improving the yield and quality of agricultural products. Attached Figure Description

[0011] Figure 1 This is a schematic diagram of the present invention;

[0012] Figure 2 This is a structural diagram of the first data acquisition group of this utility model;

[0013] Figure 3 This is a structural diagram of the second data acquisition group of this utility model;

[0014] Figure 4 This is a structural diagram of the display terminal of this utility model;

[0015] Figure 5 This is a structural diagram of the telecommunications base station of this utility model;

[0016] Figure 6 This is a structural diagram of the mobile base station of this utility model;

[0017] Figure 7 This is a structural diagram of the Unicom base station of this utility model.

[0018] In the diagram: 1. Cloud server; 2. First data operator; 3. Second data operator; 4. Display terminal operator; 5. Telecom operator; 6. Mobile operator; 7. Unicom operator; 8. First data acquisition group; 9. Second data acquisition group; 10. Display terminal; 11. Telecom base station; 12. Mobile base station; 13. Unicom base station; 14. Temperature and humidity data acquisition device; 15. Wind power data acquisition device; 16. Barometric pressure data acquisition device; 17. Radar data acquisition device; 18. Satellite data acquisition device; 19. Weather station data acquisition device; 20. Soil moisture acquisition device; 21. Public large screen display; 22. User mobile terminal; 23. User computer terminal; 24. First firewall; 25. Web service station; 26. Telecom server; 27. Data management server; 28. Second firewall; 29. ​​Information publishing server; 30. Data acquisition and processing server; 31. Mobile server; 32. Third firewall; 33. FTP server; 34. Storage server; 35. Unicom server. Detailed Implementation

[0019] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0020] Please see Figure 1-7 This utility model provides a simplified meteorological network topology system for a cloud proxy server, including a cloud server 1, a first data operator 2, a second data operator 3, a display terminal operator 4, a telecommunications operator 5, a mobile operator 6, and a Unicom operator 7. The first data operator 2, the second data operator 3, the display terminal operator 4, the telecommunications operator 5, the mobile operator 6, and the Unicom operator 7 are all connected to the cloud server 1 by signal. The first data operator 2 is connected to a first data acquisition group 8 by signal. The second data operator 3 is connected to a second data acquisition group 9 by signal. The display terminal operator 4 is connected to a display terminal 10 by signal. The telecommunications operator 5 is connected to a telecommunications base station 11 by signal. The mobile operator 6 is connected to a mobile base station 12 by signal. The Unicom operator 7 is connected to a Unicom base station 13 by signal.

[0021] See Figure 1-7The first data acquisition group 8 includes a temperature and humidity data acquisition device 14, a wind power data acquisition device 15, and a barometric pressure data acquisition device 16. All three data acquisition devices are connected to the first data operator 2. The second data acquisition group 9 includes a radar data acquisition device 17, a satellite data acquisition device 18, a weather station data acquisition device 19, and a soil moisture acquisition device 20. All three data acquisition devices are connected to the second data operator 3. The display terminal 10 includes a public large screen display 21, a user mobile phone terminal 22, and a user computer terminal 23. All three data acquisition devices are connected to the display terminal operator 4.

[0022] In this embodiment, the temperature and humidity data collector 14, wind data collector 15, and air pressure data collector 16 of the first data collection group 8 can acquire the temperature, humidity, wind force, and air pressure conditions around the monitored land. The local weather conditions can be acquired through satellite radar and other means via the second data collection group 9. These data can be forwarded to users through the cloud server 1, allowing them to understand the agricultural land conditions through multiple channels such as the public large screen display 21, user mobile terminal 22, and user computer terminal 23.

[0023] See Figure 1-7 Telecommunication base station 11 includes a first firewall 24, a web service station 25, a telecommunications server 26, and a data management server 27. The first firewall 24, web service station 25, telecommunications server 26, and data management server 27 are all connected to the signal of telecommunications operator 5. Mobile base station 12 includes a second firewall 28, an information publishing server 29, a data acquisition and processing server 30, and a mobile server 31. The second firewall 28, information publishing server 29, data acquisition and processing server 30, and mobile server 31 are all connected to the signal of mobile operator 6. Unicom operator 7 includes a third firewall 32, an FTP server 33, a storage server 34, and a Unicom server 35. The third firewall 32, FTP server 33, storage server 34, and Unicom server 35 are all connected to the signal of Unicom operator 7.

[0024] In this embodiment, cloud server 1 is a cloud proxy server. In the entire system architecture, only cloud server 1 is exposed to the public network, while the target server is hidden behind the proxy server. This reduces the risk of direct exposure to potential attackers. This not only increases the difficulty for attackers to discover and attack the target server, but also means that external network users accessing the internal server through the proxy can only see the IP address and port number of the proxy server. The internal server is completely invisible to the external network. Furthermore, the proxy server does not store any information resources; all data resources are stored on the internal server. Attacks on the proxy server cannot damage the actual data information system. This improves the security of the internal server, enhances its protection capabilities, and protects the security of user data.

[0025] In practical use, this utility model's simplified meteorological network topology system for cloud proxy servers adopts a star network topology. In this topology, all devices are directly connected to a central node, namely cloud server 1. This central node is typically responsible for connecting all devices and handling data transmission between them. When a device needs to communicate with other devices, it first sends data to the central node, cloud server 1, through the corresponding operator. After receiving the data, cloud server 1 forwards it to the appropriate target device through the corresponding operator based on the target address. Similarly, when a target device needs to send data, it also sends data to the central node. The centralized star topology, with forwarding handled by a central node, is simple, reliable, and easy to manage. In a decentralized network, data storage, processing, and transmission are all accomplished by multiple nodes, which improves system reliability, security, and scalability. Constructing a meteorological network topology through a cloud proxy server enables precise meteorological services. Real-time acquisition of on-site environmental data through the first data acquisition group 8 and the second data acquisition group 9 facilitates the realization of the "meteorology + agriculture" model. Real-time meteorological monitoring is readily available to users, allowing agricultural enterprises to take preventative measures against natural disasters, reduce losses, and rationally arrange agricultural activities based on meteorological conditions to improve the yield and quality of agricultural products.

Claims

1. A simplified meteorological network topology system using a cloud proxy server, comprising a cloud server (1), a first data operator (2), a second data operator (3), a display terminal operator (4), a telecommunications operator (5), a mobile operator (6), and a Unicom operator (7), characterized in that: The first data operator (2), the second data operator (3), the display terminal operator (4), the telecom operator (5), the mobile operator (6), and the Unicom operator (7) are all connected to the cloud server (1) by signal. The first data operator (2) is connected to the first data acquisition group (8), the second data operator (3) is connected to the second data acquisition group (9), the display terminal operator (4) is connected to the display terminal (10), the telecom operator (5) is connected to the telecom base station (11), the mobile operator (6) is connected to the mobile base station (12), and the Unicom operator (7) is connected to the Unicom base station (13).

2. The simplified meteorological network topology system for a cloud proxy server according to claim 1, characterized in that: The first data acquisition group (8) includes a temperature and humidity data acquisition device (14), a wind power data acquisition device (15), and a barometric pressure data acquisition device (16), all of which are connected to the first data operator (2) via signal.

3. The simplified meteorological network topology system for a cloud proxy server according to claim 1, characterized in that: The second data acquisition group (9) includes a radar data acquisition unit (17), a satellite data acquisition unit (18), a weather station data acquisition unit (19), and a soil moisture acquisition unit (20), and the radar data acquisition unit (17), the satellite data acquisition unit (18), the weather station data acquisition unit (19), and the soil moisture acquisition unit (20) are all signal connected to the second data operator (3).

4. The simplified meteorological network topology system for a cloud proxy server according to claim 1, characterized in that: The display terminal (10) includes a public large screen display (21), a user mobile phone terminal (22) and a user computer terminal (23), and the public large screen display (21), the user mobile phone terminal (22) and the user computer terminal (23) are all connected to the display terminal operator (4) via signal.

5. A simplified meteorological network topology system for a cloud proxy server according to claim 1, characterized in that: The telecommunications base station (11) includes a first firewall (24), a web service station (25), a telecommunications server (26), and a data management server (27). The first firewall (24), the web service station (25), the telecommunications server (26), and the data management server (27) are all connected to the signal of the telecommunications operator (5).

6. The simplified meteorological network topology system for a cloud proxy server according to claim 1, characterized in that: The mobile base station (12) includes a second firewall (28), an information publishing server (29), a data acquisition and processing server (30), and a mobile server (31). The second firewall (28), the information publishing server (29), the data acquisition and processing server (30), and the mobile server (31) are all connected to the signal of the mobile operator (6).

7. A simplified meteorological network topology system for a cloud proxy server according to claim 1, characterized in that: The Unicom operator (7) includes a third firewall (32), an FTP server (33), a storage server (34), and a Unicom server (35), all of which are connected to the Unicom operator (7) via signal.

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