CN116932663A - Range diagram system for artificially influencing weather - Google Patents
Range diagram system for artificially influencing weather Download PDFInfo
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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
Technical Field
The invention relates to the technical field of weather correlation, in particular to a range diagram system for artificially influencing weather.
Background
Artificial rainfall is a method for increasing the water vapor content in the atmosphere of a related airspace by human beings through artificial means so as to promote rainfall. The main principle is that by adding cloud nuclei or substances with cooling effect into the cloud layer, water vapor is condensed to form cloud drops or precipitation. Common methods of artificial rainfall include cloud and mist generators, artificial precipitation, artificial ice crystal inhibition, and the like. The cloud and fog generator mainly combines various chemical agents and physical means by using a transmitting device or an airplane spraying mode and the like to form liquid droplets with larger radius by combining water vapor and cloud and fog condensation nuclei, and then coalesces to form cloud droplets. The artificial precipitation mainly comprises the steps of injecting granular substances such as ice cores or silver iodide with certain grain size into a cloud layer by using a transmitting device or an airplane spraying mode and the like, and promoting water vapor in the cloud layer to condense into water drops, so that precipitation is finally formed. The artificial ice crystal inhibition means that a certain amount of liquid particulate matters are injected into the cloud layer by using a transmitting device or an airplane spraying mode, so that the number of ice crystals in the cloud layer is reduced or the formation of the ice crystals is inhibited, and rainfall is promoted.
In practice, the implementation of artificial rainfall depends on various data of the relevant airspace (such as satellite cloud images or cloud layer data acquired by high-altitude detection balloons, etc.), so as to provide basic data for relevant personnel to formulate artificial rainfall. In the prior art, after a technician collects various data, the technician manually determines whether the corresponding area has artificial rainfall conditions, and particularly when the artificial precipitation agent (the precipitation agent is filled in the precipitation shell) is launched in an antiaircraft gun mode, the firing angle and the firing height of the precipitation shell are calculated according to the height, the angle, the humidity and the like of a cloud layer, so that the precipitation shell can release the precipitation agent in an optimal airspace. The above mode needs to manually collect, analyze, calculate and the like data, so that the data quantity of the collection, analysis and calculation is large, inconvenience is brought to relevant technicians, and the improvement of the working efficiency is also not facilitated. In addition, due to the limitation of technology, after the rain-enhancing bullet is emitted, a worker cannot know whether the rain-enhancing agent is released at a required height, so that the obtained data are relatively single, and certain adverse effects are more or less brought to effective artificial rainfall. In summary, it is particularly necessary to provide a system that can automatically integrate multiple data to analyze and calculate, provide an optimal firing angle and height of a precipitation-enhancing projectile, and know whether the precipitation-enhancing projectile reaches a relevant airspace to release a precipitation enhancer.
Disclosure of Invention
In order to overcome the defects of the conventional artificial influence weather rainfall technology, the invention provides a weather-enhancement antiaircraft gun device with a servo adjustment angle and the like based on the defects of the technology, in the application, the integrated analysis and calculation can be automatically carried out on the received satellite cloud image, the unmanned aerial vehicle or the related airspace meteorological data detected by a sounding balloon, the prediction effect data of whether artificial rainfall conditions and rainfall can be achieved at present are given, the optimal muzzle firing angle and the high firing data of the artificial rainfall antiaircraft gun device can be calculated according to the self position of the great-enhancement antiaircraft gun device, the angle position of the great-enhancement antiaircraft gun device is automatically adjusted, a range diagram is generated on an interface in a GIS (geographic information system) mode by various data, and the range diagram is displayed, so that technicians can know various data, and after the great-enhancement antiaircraft gun is launched, workers can know the range of the great-enhancement antiaircraft gun device through a screen interface, thereby bringing convenience to the related technicians, and ensuring the artificial rainfall to reach the optimal mode.
The technical scheme adopted for solving the technical problems is as follows:
the system comprises an electric servo control device, and is characterized by further comprising 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 upper end of the output shaft of the electric servo control device is horizontally provided with a support plate, the lower end of the rain-increasing antiaircraft gun equipment is vertically arranged on the support plate, the output shaft of the electric servo control device can drive the rain-increasing antiaircraft gun equipment 360 to rotate through the support plate and can drive the rain-increasing antiaircraft gun equipment to move back and forth to change the pitching angle, and the signal input end of the electric servo control device is connected with the control command signal output end of the PC through a data line; the data receiving unit can receive the relevant airspace cloud layer data and the relevant airspace weather data respectively sent by the weather satellite, the unmanned aerial vehicle and the sounding balloon in a wireless mode, and the data is classified and arranged and then is output to the data analysis unit; the data analysis unit can comprehensively analyze the input relevant airspace meteorological data to obtain whether the relevant airspace has artificial rainfall conditions, the type of using a rainfall enhancer and rainfall scale data for predicting how large the artificial rainfall can be achieved; the suggestion unit can push suggestions of whether to carry out artificial rainfall or not to technicians based on the data obtained by the data analysis unit; the calculation unit can analyze the data of the data analysis unit, calculate the angle and the shooting height data of the rain-increasing antiaircraft gun equipment for transmitting the rain-increasing bullet by combining the position of the rain-increasing antiaircraft gun equipment and the height and the position of a relevant pre-artificial rain-increasing airspace, and output the final data to the control unit; the control unit can send out corresponding firing angle and shooting height adjusting instruction data of the rain-increasing antiaircraft gun equipment to a control subsystem in the electric servo control device, and the control subsystem can respectively adjust the pitching angle and the circumferential position of the rain-increasing antiaircraft gun equipment according to the corresponding instruction data; the image generation subunit of the display unit can generate GIS image data of a relevant airspace on a PC display interface, and superimposes the data receiving unit, the data analysis unit, the suggestion unit, the calculation unit and the control unit related data, the image data and cloud layer data of the rain-increasing antiaircraft gun equipment into the image data to generate a range diagram, so that a technician can intuitively grasp various data, and particularly, the technician can carry out amplification editing, data statistics and the like on any interface display data in a mouse and keyboard or touch display screen mode; in the application of the query unit, technicians can query historical artificial precipitation data and can query various data based on GIS image modes.
Further, the rain-increasing antiaircraft gun equipment is matched with a plurality of rain-increasing bullets, each rain-increasing bullet is provided with different rainfall agents, each rain-increasing bullet is provided with different emission charges and different propelling forces, an altimeter, a GPRS module and a miniature storage battery are arranged at the inner upper end of an umbrella body of a parachute mechanism of each rain-increasing bullet, two poles of the storage battery are respectively connected with the power input end of the altimeter and the power input end of the GPRS module through wires, and the signal output end of the altimeter is connected with the signal input end of the GPRS module through an RS485 data wire.
Furthermore, the data receiving unit can receive the height data of the rain-increasing ejection, which is output by the altimeter and transmitted in a wireless mode by the GPRS module, and the data analyzing unit can store the highest ejection height data of each rain-increasing bomb.
Further, the meteorological satellite, the unmanned aerial vehicle and the sounding balloon data received by the data receiving unit comprise cloud layer distribution area data, cloud layer thickness data and cloud layer humidity data, and further comprise site wind power, wind direction and temperature data.
Further, the data analysis unit is provided with a database subunit and a judging subunit, the database subunit is based on artificial intelligence, the database subunit stores the rain increasing effect data which can be achieved by each rain increasing agent and each rain increasing agent in various weather conditions and various rain increasing agent dosage, and also stores the corresponding rain increasing effect data which can be achieved by the corresponding rain increasing agent and the corresponding rain increasing agent dosage in the historical rain increasing operation of the corresponding area, and then the judging subunit retrieves the database subunit data for comparison to obtain whether the relevant airspace has artificial rainfall conditions and the type of the used rain increasing agent, and the rainfall scale prediction data which can be achieved after the artificial rainfall and the technician reference.
Further, the suggestion unit gives a prompt of the most preferable amount of the rain-enhancing agent in synchronization with the suggestion of whether the technician carries out artificial rainfall or not through the interface.
Further, coordinate data of the current rain-increasing antiaircraft gun equipment are stored in the computing unit, and shooting height and shooting angle data which can be achieved by the muzzle of the rain-increasing antiaircraft gun equipment at different pitch angles and different circumferential angles are stored in the computing unit.
Further, the control subsystem in the electric servo control device also has a manual control function, and a technician controls the working modes of the pitching electric drive mechanism and the rotating electric drive mechanism of the electric servo control device in a power switch mode, so that the corresponding firing angle control of the high-altitude gun equipment with increased rain is realized.
The invention has the beneficial effects that: (1) The invention is based on the high-speed gun equipment with servo angle regulation, and the like, and can automatically integrate, analyze and calculate the received satellite cloud image, unmanned plane or related airspace multiple meteorological data detected by a sounding balloon in application, give out whether the artificial rainfall condition exists and the predicted effect data which can be achieved by rainfall at present, provide reference for technicians, and also specifically give out the type and the drug loading quantity of the high-speed gun equipment recommended to use, and calculate the optimal angle and the high-speed data of the muzzle of the high-speed gun equipment according to the self position of the high-speed gun equipment, thereby ensuring that the corresponding high-speed gun can release the rain-increasing agent in the optimal airspace as far as possible, and improving the success rate and effect of artificial rainfall. (2) The invention can automatically adjust the angle position of the rain-increasing antiaircraft gun equipment, does not need manual operation of technicians, brings convenience to the technicians, improves the working efficiency, displays various data on an interface in a GIS mode, enables the technicians to intuitively know various data, and enables the workers to know the shooting height of the artillery shell under the combined action of an altimeter, a GPRS module and the like under the combined action of the altimeter, the GPRS module and the like after the artillery shell is launched, thereby ensuring the artificial rainfall to reach the optimal mode as much as possible.
Drawings
The invention is further described below with reference to the drawings and examples.
Fig. 1 is a block diagram illustration of an inventive software architecture.
Detailed Description
The system for the range map of the artificial influence weather comprises an electric servo control device, a data receiving unit, a data analyzing unit, a suggesting unit, a inquiring unit, a calculating unit, a control unit and a display unit, wherein the system is shown in fig. 1; the data receiving unit, the data analyzing unit, the suggesting unit, the inquiring unit, the calculating unit, the control unit and the display unit are application software installed in a PC of a weather department. The upper end of the output shaft of the electric servo control device is horizontally provided with a support plate, the lower end of the rain-increasing antiaircraft gun equipment is vertically arranged on the support plate, the output shaft of the electric servo control device can drive the rain-increasing antiaircraft gun equipment to rotate 360 degrees through the support plate and can drive the rain-increasing antiaircraft gun equipment to move back and forth to change the pitching angle, and the signal input end of the electric servo control device is connected with the control command signal output end of the PC through a data line; the control subsystem in the electric servo control device also has a manual control function, and a technician controls the working modes of the pitching electric drive mechanism and the rotating electric drive mechanism of the electric servo control device in a power switch mode, so that the corresponding firing angle control of the high-altitude gun equipment for increasing rain is realized. The device is matched with various rain-increasing bullets, each rain-increasing bullet is provided with different rainfall agents (reaching the best rain-increasing effect corresponding to different meteorological conditions), each rain-increasing bullet is provided with different transmitting charges, different propelling force and shooting height, an altimeter, a GPRS module and a miniature storage battery are arranged at the upper end in an umbrella body of a parachute mechanism of each rain-increasing bullet, two poles of the storage battery are respectively connected with the power input ends of the altimeter and the GPRS module through leads, and the signal output end of the altimeter is connected with the signal input end of the GPRS module through an RS485 data line.
The structure of the electric servo control device shown in fig. 1 comprises a horizontal motor speed reducing mechanism and a supporting plate, wherein the power output shafts of a first motor speed reducing mechanism are vertically distributed, the first motor speed reducing mechanism is installed on a lower supporting plate, a second supporting plate is installed on the power output shaft of the first motor speed reducing mechanism, the second motor speed reducing mechanism is installed on the second supporting plate and horizontally distributed on the power output shaft, a third supporting plate is horizontally installed on the power output shaft of the second motor speed reducing mechanism, and the lower end of the high-altitude gun increasing equipment is vertically installed on the third supporting plate. The power output shaft of the first motor reducing mechanism drives the horizontal 360-degree rotation of the high-altitude antiaircraft gun equipment to any position, and the power output shaft of the second motor reducing mechanism drives the horizontal back-and-forth movement of the high-altitude antiaircraft gun equipment to adjust the pitching angle, so that the aim of adjusting the shooting height and the firing angle is fulfilled.
In the application of the present invention, as shown in fig. 1, the steps are as follows, step one: the cloud layer data of the relevant airspace are output in real time by the meteorological satellite, various meteorological data of the relevant airspace are collected in real time by the relevant meteorological collection equipment on the unmanned aerial vehicle and the sounding balloon released by a technician, the data receiving unit can receive the cloud image data of the relevant airspace satellite and the meteorological data of the relevant airspace sent by the meteorological satellite, the unmanned aerial vehicle and the sounding balloon respectively in a wireless mode, and the data are classified and primarily arranged and then output to the data analysis unit; specifically, the meteorological satellite, unmanned aerial vehicle and sounding balloon data received by the data receiving unit comprise cloud layer distribution area data, cloud layer thickness data, cloud layer humidity data, site wind power, wind direction, temperature data and the like, various data are more diversified, data support is provided for reliable analysis of the data analysis unit, and artificial rainfall is more effective. Step two: the data analysis unit comprehensively analyzes the input relevant airspace meteorological data to obtain whether the relevant airspace has artificial rainfall conditions, the type of using a rainfall enhancer and rainfall scale data for predicting how large the artificial rainfall can be achieved; specifically, the data analysis unit is provided with a database subunit and a judging subunit, wherein the database subunit is based on artificial intelligence, the database subunit stores the rain increasing effect data which can be achieved by each rain increasing agent and each rain increasing agent in various weather conditions and various rain increasing agent dosage, and also stores the rain increasing effect data which can be achieved by the corresponding rain increasing agent and the corresponding rain increasing agent dosage in the corresponding area historical rain increasing operation, and the judging subunit reads the database subunit data for comparison, so that whether a relevant airspace has artificial rainfall conditions and the type of the used rain increasing agent can be obtained, and the rainfall scale prediction data and technicians can refer to the rainfall scale prediction data after the artificial rainfall.
As shown in fig. 1, step three: the suggestion unit pushes the suggestion of whether to carry out artificial rainfall to the technicians based on the data obtained by the data analysis unit, and when the suggestion unit carries out the suggestion of whether to carry out artificial rainfall to the technicians through the interface, the suggestion unit synchronously gives the most preferable suggestion of the rain-increasing agent, the rain-increasing agent dosage and the rain-increasing bullet loading (different loading amounts generate different thrusts and realize different shooting heights), so that the technicians can select the most proper rain-increasing agent, the most proper rain-increasing agent dosage and the most proper rain-increasing bullet loading suggestion in the current airspace according to the rain-increasing agent, the most proper rain-increasing agent dosage and the most proper rain-increasing bullet loading suggestion, thereby providing technical support for improving the artificial rainfall effect. Step four: the calculation unit analyzes the data of the data analysis unit, calculates the angle and the shooting height data of the rain-increasing high-altitude equipment for transmitting the rain-increasing bullet by combining the position of the rain-increasing high-altitude equipment, the control coordinate data of the electric servo control device and the height and the position of a relevant pre-artificial rain-increasing airspace, and outputs the final data to the control unit; specifically, the coordinate data of the current rain-increasing antiaircraft gun equipment are stored in the computing unit, and the shooting height and the shooting angle data which can be achieved by the muzzle of the rain-increasing antiaircraft gun equipment at different pitch angles and different circumferential angles are stored in the computing unit. Step five: after receiving the instruction sent by the calculating unit, the control unit can send out the angle and shooting height adjusting instruction data of the corresponding relevant airspace of the rain-increasing antiaircraft gun equipment for the control subsystem in the electric servo control device, and the control subsystem respectively adjusts the pitching angle and the circumferential direction position of the rain-increasing antiaircraft gun equipment according to the corresponding instruction data, so that the subsequently-sent rain-increasing bullets of the rain-increasing antiaircraft gun equipment can reach the relevant rain-increasing airspace as far as possible; the control subsystem in the specific electric servo control device also has a manual control function, and a technician controls the working modes of the pitching electric driving mechanism and the rotating electric driving mechanism of the electric servo control device through a power switch mode, so that the corresponding firing angle control of the rain-increasing antiaircraft gun equipment is realized, and the application is more flexible (particularly suitable for the case of control problems of a software system). Step six: after all the steps are completed, a worker puts the rain-increasing bullet into a transmitting tube of the antiaircraft gun equipment, and after the antiaircraft gun equipment transmits the rain-increasing bullet to a relevant rain-increasing airspace, the rainfall agent is released in the relevant airspace through the function of the antiaircraft gun equipment, so that the purpose of artificial rainfall is realized.
Shown in fig. 1, step seven: the device comprises a plurality of rain-increasing bullets (a power switch can be arranged at one end of the outer side of each single body, and the power switch can be turned on to achieve the purpose of saving electricity when the device is used), when the device works, the height of each rain-increasing bullet can be acquired through a altimeter in real time, then data are transmitted to a data receiving unit on the ground in a wireless mode through a GPRS (general packet radio service) module, after the data receiving unit receives the rain-increasing ejection height data which are output by the altimeter and are transmitted in a wireless mode through the GPRS module, the data analyzing unit can store the highest ejection height data of each rain-increasing bullet, and ground personnel can know the rain-increasing ejection height data in real time; in the invention, a GPRS module, an altimeter and the like are arranged in the parachute body of each parachute mechanism of the rain-increasing bomb, because the bomb body is made of metal materials and has shielding effect on wireless signals (the ground receives data or has little influence), when the rain-increasing bomb reaches the highest point to release the rain-increasing agent, the parachute is opened, and the data receiving unit of the ground can be transmitted in real time because the height signal of the bomb body is not blocked.
Shown in fig. 1, step eight: the image generation subunit of the display unit can generate GIS image data of a relevant airspace on a PC display interface, superimposes the image data of the data receiving unit, the data analysis unit, the suggestion unit, the calculation unit and the control unit and the image data of the rain-increasing antiaircraft gun equipment into the image data to generate a range diagram, so that a technician can intuitively grasp various data, and particularly, the technician can carry out amplification editing, data statistics and the like on any interface display data in a mouse and keyboard or touch display screen mode. Step nine: the technician can inquire the historical artificial rainfall enhancement data through the inquiry unit and can inquire various data based on the GIS image mode, and convenience is provided for solving the rainfall enhancement data of the corresponding area.
According to the technical scheme, as shown in fig. 1, based on the rain-increasing antiaircraft gun equipment with a servo adjustment angle and the like, in application, the method can automatically integrate, analyze and calculate various meteorological data of a relevant airspace detected by a received satellite cloud image, an unmanned aerial vehicle or a sounding balloon, give out whether the current raining condition exists and the rainfall can reach prediction effect data for technicians to refer to, specifically give out the type, the drug loading and the like of a rain-increasing bullet proposed to be used, calculate the optimal firing angle and the high firing data of a muzzle of the rain-increasing antiaircraft gun equipment according to the position of the rain-increasing antiaircraft gun equipment, ensure that the corresponding rain-increasing bullet can release a rain-increasing agent in the optimal airspace as much as possible, and improve the success rate and effect of artificial rainfall; the angle position of the rain-increasing antiaircraft gun equipment can be automatically adjusted, the manual operation of a technician is not needed, convenience is brought to the technician, the working efficiency is improved, various data are displayed on an interface in a GIS mode, the technician can intuitively know various data, after the rain-increasing cannonball is transmitted, under the combined action of an altimeter, a GPRS module and the like, the worker can know the shooting height of the rain-increasing antiaircraft gun equipment through the screen interface, the best mode of artificial rainfall is ensured as much as possible, and the beneficial technical support is provided for improving the artificial rain increasing effect.
While the fundamental and principal features of the invention and advantages of the invention have been shown and described, it will be apparent to those skilled in the art that the invention is limited to the details of the foregoing exemplary embodiments, and that the invention may be embodied in other specific forms without departing from the spirit or essential characteristics thereof. The present embodiments are, therefore, to be considered in all respects as illustrative and not restrictive, the scope of the invention being indicated by the appended claims rather than by the foregoing description, and all changes which come within the meaning and range of equivalency of the claims are therefore intended to be embraced therein.
Furthermore, it should be understood that although the present disclosure describes embodiments, the embodiments do not include only a single embodiment, and this description is for clarity only, and those skilled in the art should consider the disclosure as a whole, and embodiments may be suitably combined to form other embodiments that will be understood by those skilled in the art.
Claims (8)
1. The system comprises an electric servo control device, and is characterized by further comprising 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 upper end of the output shaft of the electric servo control device is horizontally provided with a support plate, the lower end of the rain-increasing antiaircraft gun equipment is vertically arranged on the support plate, the output shaft of the electric servo control device can drive the rain-increasing antiaircraft gun equipment 360 to rotate through the support plate and can drive the rain-increasing antiaircraft gun equipment to move back and forth to change the pitching angle, and the signal input end of the electric servo control device is connected with the control command signal output end of the PC through a data line; the data receiving unit can receive the relevant airspace cloud layer data and the relevant airspace weather data respectively sent by the weather satellite, the unmanned aerial vehicle and the sounding balloon in a wireless mode, and the data is classified and arranged and then is output to the data analysis unit; the data analysis unit can comprehensively analyze the input relevant airspace meteorological data to obtain whether the relevant airspace has artificial rainfall conditions, the type of using a rainfall enhancer and rainfall scale data for predicting how large the artificial rainfall can be achieved; the suggestion unit can push suggestions of whether to carry out artificial rainfall or not to technicians based on the data obtained by the data analysis unit; the calculation unit can analyze the data of the data analysis unit, calculate the angle and the shooting height data of the rain-increasing antiaircraft gun equipment for transmitting the rain-increasing bullet by combining the position of the rain-increasing antiaircraft gun equipment and the height and the position of a relevant pre-artificial rain-increasing airspace, and output the final data to the control unit; the control unit can send out corresponding firing angle and shooting height adjusting instruction data of the rain-increasing antiaircraft gun equipment to a control subsystem in the electric servo control device, and the control subsystem can respectively adjust the pitching angle and the circumferential position of the rain-increasing antiaircraft gun equipment according to the corresponding instruction data; the image generation subunit of the display unit can generate GIS image data of a relevant airspace on a PC display interface, and superimposes the data receiving unit, the data analysis unit, the suggestion unit, the calculation unit and the control unit related data, the image data and cloud layer data of the rain-increasing antiaircraft gun equipment into the image data to generate a range diagram, so that a technician can intuitively grasp various data, and particularly, the technician can carry out amplification editing, data statistics and the like on any interface display data in a mouse and keyboard or touch display screen mode; in the application of the query unit, technicians can query historical artificial precipitation data and can query various data based on GIS image modes.
2. The weather modification shooting range diagram system of claim 1, wherein the rain-increasing antiaircraft gun equipment is matched with a plurality of rain-increasing bullets, each rain-increasing bullet is provided with different rainfall agents, each rain-increasing bullet is provided with different emission charges and realizes different propelling forces, the upper end in the parachute body of each rain-increasing bullet parachute mechanism is provided with an altimeter, a GPRS module and a miniature storage battery, two poles of the storage battery are respectively connected with the power input ends of the altimeter and the GPRS module through wires, and the signal output end of the altimeter is connected with the signal input end of the GPRS module through an RS485 data wire.
3. The weather modification range map system of claim 1, wherein the data receiving unit is capable of receiving altimeter output and wirelessly transmitting the enhanced rain ejection height data via the GPRS module, and the data analyzing unit is capable of storing the highest ejection height data of each enhanced rain ejection.
4. The weather modification range map system of claim 1, wherein the meteorological satellite, the unmanned aerial vehicle and the sounding balloon data received by the data receiving unit include cloud distribution area data, cloud thickness data, cloud humidity data, and also have on-site wind power, wind direction and temperature data.
5. The system according to claim 1, wherein the data analysis unit comprises a database subunit and a judging subunit, the database subunit is based on artificial intelligence, and the database subunit is used for storing various weather conditions, various rain enhancers and various rain enhancer dosages, each rain enhancer and each rain enhancer dosage, the obtained rain enhancement effect data and the comparison of the database subunit data by the judging subunit, so as to obtain the condition of whether the relevant airspace has artificial rainfall, the type of the used rain enhancers, and the rainfall scale prediction data of how large the artificial rainfall can reach after the artificial rainfall, and the technician reference.
6. The weather modification system of claim 1, wherein the advice unit is configured to provide the most preferred agent and the amount of agent to be used in synchronization with the advice of whether or not the technician is being subjected to the artificial rainfall via the interface.
7. The weather modification shooting range map system according to claim 1, wherein the calculation unit stores coordinate data of the current precipitation enhancement antiaircraft gun equipment, and stores shooting height and firing angle data which can be achieved by the precipitation enhancement antiaircraft gun equipment muzzle at different pitch angles and different circumferential angles on the basis of the coordinate data.
8. The system of claim 1, wherein the control subsystem in the electric servo control device further has a manual control function, and a technician controls the working modes of a pitching electric driving mechanism and a rotating electric driving mechanism of the electric servo control device in a power switch mode, so as to realize corresponding firing angle control of the rain-increasing antiaircraft gun equipment.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202310977302.3A CN116932663A (en) | 2023-08-04 | 2023-08-04 | Range diagram system for artificially influencing weather |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202310977302.3A CN116932663A (en) | 2023-08-04 | 2023-08-04 | Range diagram system for artificially influencing weather |
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| CN116932663A true CN116932663A (en) | 2023-10-24 |
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| CN202310977302.3A Pending CN116932663A (en) | 2023-08-04 | 2023-08-04 | Range diagram system for artificially influencing weather |
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| Country | Link |
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| CN (1) | CN116932663A (en) |
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2023
- 2023-08-04 CN CN202310977302.3A patent/CN116932663A/en active Pending
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