CN116932663A - Range diagram system for artificially influencing weather - Google Patents

Abstract

The system comprises an electric servo control device, a data receiving unit, a data analysis unit, a suggestion unit, a query unit, a calculation unit, a control unit and a display unit; the data receiving unit, the data analysis unit, the suggestion unit, the query unit, the calculation unit, the control unit and the display unit are application software installed in a PC (personal computer) of a weather department; the rain-increasing antiaircraft gun equipment is arranged on the electric servo control device. The invention can automatically integrate, analyze and calculate the related airspace meteorological data, give out whether the current artificial rainfall condition exists or not and the predicted effect data which can be achieved by rainfall, automatically adjust the angle position of the rain-increasing antiaircraft gun equipment, generate a range diagram on an interface through a GIS mode and display the range diagram, enable technicians to know various data, enable the workers to know the shooting height of the rain-increasing cannon shell through a screen interface after the rain-increasing cannon shell is transmitted, bring convenience for the related technicians, and ensure that the artificial rainfall reaches the optimal mode.

Description

A radiographic map system for artificial weather modification

Technical field

The invention relates to the technical field related to meteorology, and in particular to a radiographic system for artificially influencing weather.

Background technique

Artificial rainfall is a method in which humans use artificial means to increase the water vapor content in the atmosphere of relevant airspace to promote rainfall. The main principle is to condense water vapor into cloud droplets or precipitation by adding cloud condensation nuclei or cooling substances to the cloud layer. Commonly used artificial rainfall methods include cloud generators, artificial rainfall enhancement, and artificial ice crystal suppression. Cloud generators mainly use launching devices or aircraft spraying to combine various chemical agents and physical means to combine water vapor with cloud condensation nuclei to form liquid droplets with a larger radius, which then coalesce to form cloud droplets. Artificial rain enhancement mainly uses launching devices or aircraft spraying to inject ice nuclei or silver iodide and other particulate matter of a certain particle size into the clouds, causing water vapor in the clouds to condense to form water droplets, and ultimately form precipitation. Artificial ice crystal suppression refers to using launchers or aircraft spraying to inject a certain amount of liquid particulate matter into the clouds to reduce the number of ice crystals in the clouds or inhibit the formation of ice crystals, thereby promoting rainfall.

In fact, the implementation of artificial rainfall also relies on a variety of data in the relevant airspace (such as satellite cloud images, or cloud data collected by high-altitude sounding balloons, etc.), thereby providing basic data for relevant personnel to formulate artificial rainfall. In the existing technology, technicians usually collect a variety of data and then artificially determine whether the corresponding area has artificial rainfall conditions. Especially when artificial rain-enhancing agents are launched through anti-aircraft guns (rain-enhancing shells contain rain-enhancing agents), it is also necessary to Calculate the shooting angle and shooting height of the rain-increasing bomb based on the height and angle of the clouds, humidity, etc., so that the rain-increasing bomb can release the rain-enhancing agent in the best airspace. Since the above method requires manual data collection, analysis and calculation, the amount of data collected, analyzed and calculated is large, which will bring inconvenience to relevant technical personnel and is not conducive to improving work efficiency. In addition, due to technical limitations, after the rain-enhancing bomb is launched, the staff cannot know whether it has released the rain-enhancing agent at the required height. Therefore, the data obtained is relatively simple, and the effective artificial rainfall will be more or less uncertain. bring certain adverse effects. In summary, it is particularly necessary to provide a system that can automatically integrate a variety of data for analysis and calculation, give the optimal launch angle and height of rain-enhancing shells, and know whether the rain-enhancing shells have reached the relevant airspace to release rain-enhancing agents.

Contents of the invention

In order to overcome the shortcomings mentioned in the background due to technical limitations in the existing artificial weather modification rainfall technology, the present invention provides rain-enhancing anti-aircraft gun equipment with servo adjustment angles, etc., which can automatically analyze received satellite cloud images and unmanned aerial vehicles during application. The relevant airspace meteorological data detected by aircraft or sounding balloons are integrated, analyzed and calculated to provide data on whether there are current artificial rainfall conditions and the predicted effect of rainfall. It can also calculate the rain-enhancing anti-aircraft gun equipment based on its own position. The optimal muzzle firing angle and firing height data are then automatically adjusted to the angular position of the rain-enhancing anti-aircraft gun equipment. Various data are generated on the interface through GIS and displayed. Technical personnel can better understand various data and increase After the rain cannonball is launched, the staff can know its shooting height through the screen interface, which brings convenience to the relevant technical personnel and ensures that artificial rainfall reaches the best mode as much as possible. It is an artificial weather-modifying shooting map system.

The technical solutions adopted by the present invention to solve the technical problems are:

A fire boundary map system for artificial weather modification, including an electric servo control device, which is characterized in that it also has a data receiving unit, a data analysis unit, a suggestion unit, a query unit, a calculation unit, a control unit, and a display unit; the data receiving unit The unit, data analysis unit, suggestion unit, query unit, calculation unit, control unit, and display unit are application software installed in the PC of the meteorological department; a support plate is installed horizontally on the upper end of the output shaft of the electric servo control device to increase rainfall. The lower end of the anti-aircraft gun equipment is installed vertically on the support plate. The output shaft of the electric servo control device can drive the rain-increasing anti-aircraft gun equipment to rotate 360 degrees through the support plate, and can drive the rain-increasing anti-aircraft gun equipment to move forward and backward to change the pitch angle. The signal input of the electric servo control device The terminal is connected to the control command signal output terminal of the PC via a data line; the data receiving unit can wirelessly receive relevant airspace cloud data and relevant airspace meteorological data sent by meteorological satellites, drones and sounding balloons respectively, and transmit the data After classification and sorting, it is output to the data analysis unit; the data analysis unit can conduct a comprehensive analysis of the input relevant airspace meteorological data to determine whether the relevant airspace has the conditions for artificial rainfall, the type of rain-enhancing agent used, and predict the performance of artificial rainfall. What rainfall scale data is reached; the suggestion unit can push suggestions to technicians on whether to carry out artificial rainfall based on the data obtained by the data analysis unit; the calculation unit can analyze the data of the data analysis unit, combined with the location of the rain-enhancing anti-aircraft gun equipment and related pre-artificial rain-enhancing airspace height and position, calculate the angle and height data of the rain-enhancing anti-aircraft gun equipment for launching rain-enhancing bombs, and output the final data to the control unit; the control unit can be used to control the electric servo control device The subsystem sends corresponding shooting angle and shooting height adjustment command data of the rain-increasing anti-aircraft gun equipment, and the control subsystem adjusts the pitch angle and circumferential position of the rain-increasing anti-aircraft gun equipment according to the corresponding command data; the image generation sub-unit of the display unit can be on the PC The machine display interface generates GIS image data of the relevant airspace, and superimposes the relevant data of the data receiving unit, data analysis unit, suggestion unit, calculation unit, control unit, as well as the image data of the rain-enhancing anti-aircraft gun equipment and cloud layer data into the image data to generate Radiation diagram, technicians can more intuitively grasp various data. Specifically, technicians can use the mouse and keyboard or touch the display screen to enlarge, edit and perform data statistics on the data displayed on any interface; in the application of the query unit , technical personnel can query historical artificial rainfall data and various data based on GIS image patterns.

Further, the rain-enhancing anti-aircraft gun equipment is equipped with a variety of rain-enhancing bombs. Each rain-enhancing bomb has a different rainfall agent. Each rain-enhancing bomb has a different launch charge and achieves different propulsion. Each rain-enhancing bomb has The upper end of the parachute body of the rain bomb is equipped with an altimeter, a GPRS module, and a micro battery. The two poles of the battery are connected to the altimeter and the power input end of the GPRS module through wires respectively. The altimeter signal output end and the signal input end of the GPRS module are connected through an RS485 data line. connect.

Further, the data receiving unit can receive the rain-enhancing ejection height data output by the altimeter and wirelessly transmitted through the GPRS module, and the data analysis unit can store the highest launch height data of each rain-enhancing bomb.

Furthermore, the data received by the data receiving unit from meteorological satellites, drones and sounding balloons includes cloud distribution area data, cloud thickness data, cloud humidity data, and on-site wind power, wind direction, and temperature data.

Further, the data analysis unit has a database sub-unit and a judgment sub-unit. The database sub-unit is based on artificial intelligence, and its memory contains various rain-enhancing agents and the dosage of various rain-enhancing agents under various meteorological conditions. Rain agents, the dosage of each rain agent, and the rainfall effect data that can be achieved. There are also data on the rainfall agents, the dosage of each rain agent, and the rainfall effect data that can be achieved in the historical rain enhancement operations in the corresponding area. Then the judgment is made The unit calls up the sub-unit data of the database for comparison to determine whether the relevant airspace has the conditions for artificial rainfall, the type of rain-enhancing agent used, and the prediction data of the rainfall scale that can be achieved after artificial rainfall, and technical personnel can refer to it.

Furthermore, when the suggestion unit advises technicians on whether to carry out artificial rainfall through the interface, it will simultaneously give prompts on the most preferred rain-enhancing agent and the amount of rain-enhancing agent.

Further, the calculation unit stores the current coordinate data of the rain-increasing anti-aircraft gun equipment, and stores the shooting height and shooting angle data that the muzzle of the rain-increasing anti-aircraft gun equipment can achieve at different pitch angles and different circumferential angles based on the coordinate position. In practical applications, based on the data of the data analysis unit, the stored data is retrieved for comparison, and then the angle and height data of the rain-enhancing anti-aircraft gun equipment for launching rain-enhancing bombs are calculated.

Furthermore, the control subsystem in the electric servo control device also has a manual control function. The technician controls the working mode of the pitch electric drive mechanism and the rotation electric drive mechanism of the electric servo control device through the power switch method, thereby realizing the rain-increasing anti-aircraft gun. The device is controlled according to the angle of incidence.

The beneficial effects of the present invention are: (1) The present invention is based on rain-enhancing anti-aircraft gun equipment with servo adjustment angle, etc., and can automatically integrate various meteorological data in relevant airspace detected by received satellite cloud images, drones or sounding balloons during application. Analyze and calculate, and provide data on whether there are current artificial rainfall conditions and the predicted effect of rainfall, for reference by technical personnel. It can also provide specific recommendations for the type and amount of rain-increasing bombs to be used, and can according to the rain-increasing The position of the anti-aircraft gun equipment itself and the optimal muzzle firing angle and firing height data for the rain-enhancing anti-aircraft gun equipment are calculated to ensure that the corresponding rain-enhancing bombs can release rain-enhancing agents in the best airspace as much as possible, improving the success rate of artificial rainfall. and effect. (2) The present invention can automatically adjust the angular position of the rain-increasing anti-aircraft gun equipment, does not require manual operation by technicians, brings convenience to technicians, and improves work efficiency. Various data are displayed on the interface through GIS, and technicians can more easily Can intuitively understand various data, and after the rain-enhancing shell is launched, with the joint action of the altimeter, GPRS module, etc., the staff can understand its shooting height through the screen interface, ensuring that the artificial rainfall reaches the best mode as much as possible.

Description of the drawings

The present invention will be further described below in conjunction with the accompanying drawings and examples.

Figure 1 is a schematic block diagram of the software architecture of the invention.

Detailed ways

As shown in Figure 1, a fire boundary map system for artificial weather modification includes an electric servo control device, and also has a data receiving unit, a data analysis unit, a suggestion unit, a query unit, a calculation unit, a control unit, and a display unit; data reception The unit, data analysis unit, suggestion unit, query unit, calculation unit, control unit, and display unit are application software installed in the PC of the meteorological department. The upper end of the output shaft of the electric servo control device is horizontally installed with a support plate, and the lower end of the rain-enhancing anti-aircraft gun equipment is installed vertically on the support plate. The output shaft of the electric servo control device can drive the rain-enhancing anti-aircraft gun equipment through the support plate to rotate 360 degrees, and can also drive the rain-enhancing anti-aircraft gun equipment. The anti-aircraft gun equipment moves forward and backward to change the pitch angle. The signal input end of the electric servo control device and the control command signal output end of the PC are connected through a data line; the control subsystem in the electric servo control device also has a manual control function. The technicians can The power switch mode controls the working mode of the pitch electric drive mechanism and the rotation electric drive mechanism of the electric servo control device, thereby achieving corresponding shooting angle control of the rain-enhancing anti-aircraft gun equipment. Rain-increasing anti-aircraft gun equipment is equipped with a variety of rain-increasing bombs. Each rain-increasing bomb has a different rainfall agent (corresponding to different meteorological conditions to achieve the best rain-increasing effect). Each rain-increasing bomb has a different launch charge to achieve different effects. Propulsion and shooting height. The upper end of the parachute body of each rain-increasing bomb is equipped with an altimeter, a GPRS module, and a micro-battery. The two poles of the battery are connected to the power input terminals of the altimeter and GPRS module through wires. The altimeter signal output terminal is The signal input end of the GPRS module is connected through the RS485 data line.

As shown in Figure 1, the structure of the electric servo control device includes a horizontal motor reduction mechanism and a support plate. The power output shaft of the first set of motor reduction mechanism is vertically distributed. The first set of motor reduction mechanism is installed on the lower end support plate. A second support plate is installed on the power output shaft of the motor reduction mechanism. The second motor reduction mechanism is installed on the second support plate and the power output shaft is distributed horizontally. The power output shaft of the second motor reduction mechanism is horizontally A third support plate is installed, and the lower end of the rain-increasing anti-aircraft gun equipment is vertically installed on the third support plate. The power output shaft of the first motor reduction mechanism drives the rain-enhancing anti-aircraft gun equipment to rotate 360 degrees horizontally to any position. The power output shaft of the second motor reduction mechanism drives the rain-enhancing anti-aircraft gun equipment to move forward and backward horizontally to adjust the pitch angle to adjust the shooting height. and angle of incidence purposes.

As shown in Figure 1, in the application of the present invention, the steps are as follows. Step 1: The meteorological satellite outputs cloud layer data in the relevant airspace in real time, and the relevant meteorological collection equipment on the unmanned aerial vehicle and sounding balloon released by the technician collects various cloud data in the relevant airspace in real time. Meteorological data, the data receiving unit can wirelessly receive relevant airspace satellite cloud image data and relevant airspace meteorological data sent by meteorological satellites, drones and sounding balloons respectively, and preliminary sort the data and output it to the data analysis unit; specifically, The data received by the data receiving unit from meteorological satellites, drones and sounding balloons includes cloud distribution area data, cloud thickness data, cloud humidity data, as well as on-site wind power, wind direction, temperature data, etc. The various data are more diverse and provide Reliable analysis by the data analysis unit provides data support, making artificial rainfall more effective. Step 2: The data analysis unit conducts a comprehensive analysis of the input relevant airspace meteorological data to determine whether the relevant airspace has the conditions for artificial rainfall, the type of rain-enhancing agent used, and the prediction of how much rainfall scale data can be achieved after artificial rainfall; specific data , the data analysis unit has a database sub-unit and a judgment sub-unit. The database sub-unit is based on artificial intelligence, and its memory contains various rainfall-enhancing agents and dosages of various rainfall-enhancing agents under various meteorological conditions. The amount of rain-enhancing agent and the rain-enhancing effect data that can be achieved are also stored in the historical rain-enhancing operations in the corresponding area. The corresponding rain-enhancing agent, the corresponding rain-enhancing agent dosage, and the rain-enhancing effect data that can be achieved are stored. The judgment sub-unit calls the database sub-unit. By comparing the unit data, we can determine whether the relevant airspace has the conditions for artificial rainfall, the type of rain-enhancing agent used, and the prediction data of the rainfall scale that can be achieved after artificial rainfall for reference by technical personnel.

As shown in Figure 1, step three: the suggestion unit pushes the technicians' suggestions on whether to carry out artificial rainfall based on the data obtained by the data analysis unit. When the suggestion unit faces the technicians' suggestions on whether to carry out artificial rainfall through the interface, it will synchronize and give the best choice. Rain-enhancing agent, amount of rain-enhancing agent, and rain-enhancing bomb charge (different charges produce different thrusts and achieve different shooting heights). In this way, technicians can adjust the rain-enhancing agent, amount of rain-enhancing agent, and load of rain-enhancing bombs. It is recommended to select the most suitable rain-enhancing agent, rain-enhancing agent dosage, and rain-enhancing bomb charge in the current airspace, which provides technical support for improving the effect of artificial rainfall. Step 4: The calculation unit analyzes the data from the data analysis unit, and combines the position of the rain-enhancing anti-aircraft gun equipment, the control coordinate data of the electric servo control device and the relevant pre-artificial rain-enhancing airspace height and position to calculate the rain-enhancing bombs fired by the rain-enhancing anti-aircraft gun equipment. angle and shooting height data, and output the final data to the control unit; specifically, the calculation unit has the current coordinate data of the rain-increasing anti-aircraft gun equipment, and based on this coordinate position, the muzzle of the rain-increasing anti-aircraft gun equipment is at different pitch angles, Data on the shooting height and shooting angle that can be achieved at different angles in the circumferential direction. In practical applications, according to the data of the data analysis unit, the stored data is retrieved for comparison, and then the angle and shooting angle of the rain-increasing anti-aircraft gun equipment for launching rain-increasing bombs can be calculated. High data. Step 5: After receiving the instruction from the computing unit, the control unit can issue the firing angle and firing height adjustment command data of the rain-increasing anti-aircraft gun equipment corresponding to the relevant airspace to the control subsystem in the electric servo control device. The control subsystem will follow the corresponding instructions. The data respectively adjusts the pitch angle and circumferential position of the rain-enhancing anti-aircraft gun equipment so that subsequent rain-enhancing bombs launched by the rain-enhancing anti-aircraft gun equipment can reach the relevant rain-enhancing airspace as much as possible; the control subsystem in the specific electric servo control device also has manual control functions , technicians control the working mode of the pitch electric drive mechanism and the rotation electric drive mechanism of the electric servo control device through the power switch method, thereby realizing the corresponding shooting angle control of the rain-increasing anti-aircraft gun equipment, and the application is more flexible (especially suitable for when control problems occur in the software system ). Step 6: After all the above steps are completed, the staff will put the rain-increasing bombs into the launch tube of the anti-aircraft gun equipment. After the anti-aircraft gun equipment launches the rain-increasing bombs into the relevant rain-enhancing airspace, it will release rainfall agents in the relevant airspace through its own functions to achieve artificial rainfall. Purpose.

As shown in Figure 1, Step 7: Rain-increasing bomb (a power switch can be set at the outer end of the unit, and it is turned on only when in use to save power). When working, the height of the rain-increasing bomb will be collected in real time through the altimeter, and then the data will be collected via GPRS The module wirelessly transmits it to the data receiving unit on the ground. After the data receiving unit receives the rain-increasing ejection height data output by the altimeter and transmitted wirelessly through the GPRS module, the data analysis unit can analyze the maximum launch height data of each rain-increasing bomb. Store, ground personnel can understand the rain-increasing ejection height data in real time; in the present invention, a GPRS module and an altimeter are installed inside the parachute mechanism of each rain-increasing bomb because the missile body is made of metal and has shielding for wireless signals (ground The received data is somewhat affected). When the rain-enhancing bomb reaches the highest point and releases the rain-enhancing agent, the parachute opens. Since there is no obstruction by the missile body, the height signal can be transmitted to the data receiving unit on the ground in real time.

As shown in Figure 1, Step 8: The image generation sub-unit of the display unit can generate GIS image data of the relevant airspace on the PC display interface, and transfer relevant data to the data receiving unit, data analysis unit, suggestion unit, calculation unit, and control unit. , and the image data of the rain-increasing anti-aircraft gun equipment is superimposed on the image data to generate a fire boundary map, and the technicians can more intuitively grasp various data. Specifically, the technicians can use the mouse and keyboard or touch the display screen to control any interface. Display data for zoom editing and data statistics, etc. Step 9: Technicians query historical artificial rainfall data through the query unit, and can query various data based on GIS image modes, which provides convenience for understanding rainfall data in corresponding areas.

As shown in Figure 1, through the above technical solution, the present invention is based on rain-increasing anti-aircraft gun equipment with servo adjustment angle. In application, it can automatically perform various meteorological data on the received satellite cloud images, relevant airspace detected by drones or sounding balloons. Integrate analysis and calculations to provide data on whether there are current artificial rainfall conditions and the predicted effect of rainfall for technical personnel to refer to. It can also provide specific recommendations for the type and amount of rain-increasing bombs to be used, and can provide information based on the increase in rainfall. Rain anti-aircraft gun equipment's own position, calculate the optimal muzzle firing angle and firing height data for the rain-enhancing anti-aircraft gun equipment, and ensure that the corresponding rain-enhancing bombs can release rain-enhancing agents in the best airspace as much as possible, improving the success of artificial rainfall rate and effect; it can automatically adjust the angular position of rain-enhancing anti-aircraft gun equipment without requiring manual operation by technicians, which brings convenience to technicians and improves work efficiency. Various data are displayed on the interface through GIS, making technicians more able Intuitively understand various data, and after the rain-enhancing shell is launched, with the joint action of the altimeter, GPRS module, etc., the staff can understand its shooting height through the screen interface, ensuring that the artificial rainfall reaches the best mode as much as possible, in order to improve the artificial rainfall The effect has been beneficial technical support.

The basic principles and main features of the present invention and the advantages of the present invention have been shown and described above. It is obvious to those skilled in the art that the present invention is limited to the details of the above exemplary embodiments without departing from the spirit or basic characteristics of the present invention. In this case, the present invention can be implemented in other specific forms. Therefore, the embodiments should be regarded as illustrative and non-restrictive from any point of view, and the scope of the present invention is defined by the appended claims rather than the above description, and it is therefore intended that all claims falling within the claims All changes within the meaning and scope of equivalent elements are included in the present invention.

In addition, it should be understood that although this specification is described in terms of implementations, it does not mean that the implementations only include an independent technical solution. This description of the description is only for the sake of clarity. Those skilled in the art should take the description as a whole and implement it. The technical solutions in the examples can also be appropriately combined to form other implementations that can be understood by those skilled in the art.

Claims (8)

1. A fire boundary map system for artificial weather modification, including an electric servo control device, which is characterized in that it also has a data receiving unit, a data analysis unit, a suggestion unit, a query unit, a calculation unit, a control unit, and a display unit; The data receiving unit, data analysis unit, suggestion unit, query unit, calculation unit, control unit, and display unit are application software installed in the PC of the meteorological department; a support plate is installed horizontally on the upper end of the output shaft of the electric servo control device. The lower end of the rain-enhancing anti-aircraft gun equipment is installed vertically on the support plate. The output shaft of the electric servo control device can drive the rain-enhancing anti-aircraft gun equipment through the support plate to rotate 360 degrees, and can drive the rain-enhancing anti-aircraft gun equipment to move forward and backward to change the pitch angle. The electric servo control device The signal input end and the control instruction signal output end of the PC are connected through a data line; the data receiving unit can wirelessly receive relevant airspace cloud data and relevant airspace meteorological data sent by meteorological satellites, drones and sounding balloons respectively, and The data is classified and sorted and then output to the data analysis unit; the data analysis unit can conduct a comprehensive analysis of the input relevant airspace meteorological data to determine whether the relevant airspace has the conditions for artificial rainfall, the type of rain-enhancing agent used, and the prediction of artificial rainfall. How much rainfall scale data can be achieved in the end; the suggestion unit can push suggestions to technicians on whether to carry out artificial rainfall based on the data obtained by the data analysis unit; the calculation unit can analyze the data of the data analysis unit, combined with the rain-increasing anti-aircraft gun The equipment position and related pre-artificial rain enhancement airspace height and position are used to calculate the angle and height data of the rainfall enhancement anti-aircraft gun equipment for launching rainfall enhancement bombs, and the final data is output to the control unit; the control unit can be an electric servo control device. The control subsystem sends corresponding shooting angle and shooting height adjustment instruction data of the rain-increasing anti-aircraft gun equipment, and the control subsystem adjusts the pitch angle and circumferential direction position of the rain-increasing anti-aircraft gun equipment according to the corresponding command data; the image generation subunit of the display unit can Generate GIS image data of the relevant airspace on the PC display interface, and superimpose the relevant data of the data receiving unit, data analysis unit, suggestion unit, calculation unit, control unit, as well as the image data of the rain-enhancing anti-aircraft gun equipment and cloud layer data into the image data , generate a radiation diagram, and technicians can more intuitively grasp various data. Specifically, technicians can use the mouse and keyboard or touch the display screen to enlarge, edit, and perform data statistics on the data displayed on any interface; the query unit In the application, technicians can query historical artificial rainfall data and various data based on GIS image patterns. 2. A fire boundary map system for artificial weather modification according to claim 1, characterized in that the rain-enhancing anti-aircraft gun equipment is equipped with a variety of rain-enhancing bombs, each rain-enhancing bomb has a different rainfall agent, and each rain-enhancing bomb has a different rainfall agent. Rain bombs have different launch charges and achieve different propulsion forces. The upper end of the parachute body of each rain bomb is equipped with an altimeter, a GPRS module, and a micro battery. The battery poles and the power input terminals of the altimeter and GPRS module are respectively Through wire connection, the altimeter signal output terminal and the signal input terminal of the GPRS module are connected via an RS485 data line. 3. A fire boundary map system for artificial weather modification according to claim 1, characterized in that the data receiving unit can receive the rainfall enhancement ejection height data output by the altimeter and transmitted wirelessly through the GPRS module, and the data analysis unit can Store the maximum shooting height data of each rain-increasing bomb. 4. A fire boundary map system for artificial weather modification according to claim 1, characterized in that the meteorological satellite, unmanned aerial vehicle and sounding balloon data received by the data receiving unit include cloud layer distribution area data and cloud layer thickness data. , cloud humidity data, and also has on-site wind power, wind direction, and temperature data. 5. A fire boundary map system for artificially influencing weather according to claim 1, characterized in that the data analysis unit has a database sub-unit and a judgment sub-unit, and the database sub-unit is based on artificial intelligence and has various meteorological conditions in its memory. Under the circumstances, among the various rain-enhancing agents and the dosage of various rain-enhancing agents, the rain-enhancing effect data that can be achieved by each rain-enhancing agent and the dosage of each rain-enhancing agent are also stored in the historical rain-enhancing operations in the corresponding area, and the corresponding increase Rain agents, corresponding amounts of rain agents, and the achieved rainfall effect data, and then the judgment sub-unit calls the database sub-unit data for comparison to determine whether the relevant airspace has the conditions for artificial rainfall, the type of rain agents used, and artificial rainfall The prediction data of the rainfall scale that can be achieved after rainfall will be used for reference by technical personnel. 6. A radiographic system for artificial weather modification according to claim 1, characterized in that when the suggestion unit advises technicians via the interface on whether to carry out artificial rainfall, it will simultaneously provide the most preferred rain-enhancing agent, Rain agent dosage tips. 7. A fire boundary map system for artificial weather modification according to claim 1, characterized in that the calculation unit stores the current coordinate data of the rain-enhancing anti-aircraft gun equipment, and based on the coordinate position, the muzzle of the rain-enhancing anti-aircraft gun equipment is stored. The data on the shooting height and shooting angle that can be achieved at different pitch angles and different circumferential direction angles. In practical applications, based on the data of the data analysis unit, the stored data is retrieved for comparison, and then the rain-enhancing anti-aircraft gun equipment is used to calculate the rain-enhancing bombs fired. angle and shooting height data. 8. A fire boundary map system for artificial weather modification according to claim 1, characterized in that the control subsystem in the electric servo control device also has a manual control function, and technicians control the electric servo control device through a power switch. The working mode of the pitch electric drive mechanism and the rotation electric drive mechanism is used to achieve corresponding shooting angle control of the rain-enhancing anti-aircraft gun equipment.