Intelligent wireless communication system based on environment detection

Abstract

The invention discloses an intelligent wireless communication system based on environment detection, and relates to the technical field of environment communication data acquisition and analysis, and the system comprises a data processing terminal, an intelligent communication system, an environment monitoring system, a spraying control system, and a data analysis system. The data processing terminal can acquire corresponding wireless communication transmission data according to authorized permissions, can regularly record and update the data, comprises a plurality of levels of data display terminals and corresponds to different levels of granted permissions; the intelligent communication system is used for providing a wireless communication channel and ensuring that measured data can be transmitted and interacted; the environment monitoring system is used for obtaining initial temperature and humidity data and real-time temperature and humidity data of a spraying environment and conducting data analysis and transmission, the wireless communication system achieves environment monitoring and data detection in the spraying process, and then the spraying effect of workpieces is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of environmental communication data collection and analysis, and in particular to an intelligent wireless communication system based on environmental detection. Background Art

[0002] A wireless communication system refers to a communication system that uses wireless signals such as radio waves to transmit information. It does not require information to be transmitted through wired cables and can realize multiple functions such as mobile communications, remote control, sensor networks, etc. It is also used in multiple fields, such as industrial automation.

[0003] At present, the spraying process is indispensable in the industrial production process of aviation panels. When spraying large batches of flat panels, material spraying will be carried out in the conveying process. When executing the above spraying process, a special spraying room will be set up for workpiece spraying. The environment is relatively large. In the context of reducing manual monitoring, the collection of monitoring data on the spraying environment is crucial.

[0004] Therefore, how to realize intelligent detection and monitoring of the spraying environment under the wireless communication system has become an urgent problem to be solved by people in this field. Summary of the invention

[0005] The purpose of the present invention is to provide an intelligent wireless communication system based on environmental detection to solve the problems raised in the above background technology.

[0006] In order to solve the above technical problems, the present invention provides the following technical solutions: an intelligent wireless communication system based on environmental detection, including a data processing terminal, an intelligent communication system, an environmental monitoring system, a spray control system, and a data analysis system. The data processing terminal is used to start and stop the spraying process and store data, and can obtain corresponding wireless communication transmission data according to the authorized authority, and can record and update data regularly. The data processing terminal includes a multi-level data display terminal corresponding to different levels of granted authority; the intelligent communication system is used to provide a wireless communication channel to ensure that the measured data can be transmitted and interacted; the environmental monitoring system is used to obtain the spray environment Initial temperature and humidity data and real-time temperature and humidity data, and perform data analysis and transmission; the spray control system is used to start the spraying process and detect the spraying effect during the spraying transmission process. The spray control system includes a spray execution unit, a spray detection unit 1, and a spray detection unit 2. The spray execution unit signal is connected to the sprayer, the spray detection unit 1 is used for spraying surface detection after the workpiece is sprayed, and the spray detection unit 2 is used for drying detection of the spray surface; the data analysis system is connected to the signal output end of the environmental monitoring system and the spray control system to analyze the spraying effect, and transmit the analysis results to the data processing terminal through wireless communication technology.

[0007] The present invention further describes that the environmental monitoring system includes a data acquisition unit and a data update unit. The data acquisition unit is used to obtain the initial temperature and humidity and real-time temperature and humidity of the spraying area, and the data acquisition unit signal is connected to a number of temperature and humidity collectors; the data update unit is used to obtain and verify the initial temperature and humidity of all spraying areas, pre-set and input the judgment range of the initial temperature and humidity in the spraying environment, and unify the initial temperature and humidity.

[0008] The present invention further illustrates that the initial temperature and humidity are recorded as H0[T0, S0], where H is a comprehensive representation mark of temperature and humidity, H0 is a comprehensive representation mark of initial temperature and humidity measured in all spraying areas, T0 is initial temperature data, and S0 is initial humidity data.

[0009] The present invention further states that the judgment range of the initial temperature and humidity depends on the ambient temperature and humidity range that the spraying process can adapt to; When the initial temperature and humidity data acquired by the data acquisition unit is within the ambient temperature and humidity range, the data update unit takes the average value of temperature and humidity, and uniformly updates the initial temperature and humidity of several temperature and humidity collectors according to the average value, so as to achieve the unification of H0 values; When the initial temperature and humidity data acquired by the data acquisition unit exceeds the ambient temperature and humidity range, the data update unit transmits the location information of the corresponding spraying area to the data processing terminal through the data analysis system to perform environmental monitoring and check the corresponding temperature and humidity collector.

[0010] The present invention further illustrates that the temperature and humidity collector collects the real-time temperature and humidity in the spraying area, which is recorded as H i [T i , S i ], i is an integer between 1 and n, corresponding to the marking number of the temperature and humidity collector or sprayer or spraying area, and n represents the last marking number of the temperature and humidity collector or sprayer or spraying area.

[0011] The present invention further illustrates that the spray control system also includes a spray adjustment unit, which is signal-connected to the spray execution unit and determines whether to make parameter adjustments to the spray process based on the spray detection data.

[0012] The present invention further illustrates that the data detected by the spray detection unit 1 is recorded as surface defect data X i The spray detection unit 1 is connected to a scanner 1 for detecting defects on the surface of the workpiece after spraying, and the defect data X is determined by calculating the defect area ratio. i , that is, 0≤X i ≤1.

[0013] The present invention further illustrates that the data detected by the spray detection unit 2 is recorded as dry data Y i The second spray detection unit is signal-connected to the second scanner, a detection roller is arranged below the second scanner, and the surface of the detection roller is used to contact the spray surface of the workpiece after drying; When the dry data Y is measured i When it is 0, the drying effect is good, indicating that the drying parameters of the drying equipment are correct; when the drying data Y i When it is not 0, it indicates that the drying parameters of the drying equipment are incorrect, and the data analysis system will transmit instructions to the spray adjustment unit through the data processing terminal to adjust the drying parameters.

[0014] Compared with the prior art, the beneficial effects achieved by the present invention are as follows: the present invention, by providing a data processing terminal, an intelligent communication system, an environmental monitoring system, a spray control system, and a data analysis system, on the one hand, realizes the monitoring of temperature and humidity data under the spraying environment, and also realizes the collection of defect data and drying data. In addition, based on wireless communication technology, the acquired temperature and humidity data and spraying data are subjected to spraying effect analysis and influencing factor analysis, and the analysis results are transmitted to the data processing terminal through wireless communication technology, and adjustments to the spraying process are made, thereby improving the spraying effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings: Figure 1 is a schematic diagram of the configuration of the system of the present invention in the first embodiment; Figure 2 It is a schematic diagram of the configuration of the data processing terminal of the present invention; Figure 3 It is a schematic diagram of the configuration of the intelligent communication system of the present invention; Figure 4 is a schematic diagram of the configuration of the environmental monitoring system of the present invention in the first embodiment; Figure 5 It is a schematic diagram of the setting of the spray control system of the present invention; Figure 6 It is a schematic diagram of the configuration of the system of the present invention in the second embodiment; Figure 7 is a schematic diagram of the configuration of the environmental monitoring system of the present invention in the second embodiment; Figure 8 It is a schematic diagram of the arrangement of the spraying machine and the spraying area of ​​the present invention; In the figure: 1. Data processing terminal; 2. Intelligent communication system; 3. Environmental monitoring system; 301. Data acquisition unit; 302. Data update unit; 303. Environmental analysis unit; 4. Spraying control system; 401. Spraying execution unit; 402. Spraying detection unit 1; 403. Spraying detection unit 2; 404. Spraying adjustment unit; 5. Data analysis system; 6. Environmental adjustment system. DETAILED DESCRIPTION

[0016] The following is a further non-limiting detailed description of the technical solution of the present invention in conjunction with the preferred embodiments and the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0017] For example, see Figure 1 The present invention provides a technical solution: an intelligent wireless communication system based on environmental detection, which can at least be applied to the industrial wireless monitoring direction of spraying of aviation panels, etc., and can monitor the spraying environment and spraying effect in real time, and combine artificial intelligence and wireless communication technology to perform data interaction and data analysis, thereby improving the spraying effect of workpieces in different environments and realizing adaptive adjustment.

[0018] Specifically, the wireless communication system includes a data processing terminal 1, an intelligent communication system 2, an environmental monitoring system 3, a spray control system 4, and a data analysis system 5; The data processing terminal 1 is usually a data platform, which is used to start and stop the spraying process of the workpiece and store data. At the same time, it can obtain the corresponding wireless communication transmission data according to the authorized authority, and can record and update the data regularly, and the timing frequency is preset by humans; The intelligent communication system 2 is used to provide a wireless communication channel to ensure that the measured data can be transmitted and interacted. The data processing terminal 1 is connected to the environmental monitoring system 3 and the spray control system 4 through the signal of the intelligent communication system 2; The environmental monitoring system 3 is used to obtain the initial and real-time temperature and humidity data of the spraying environment and transmit the data; The spraying control system 4 is used to start the spraying process, which is set in conjunction with the transmission path of the workpiece to achieve spraying of batch workpieces. In addition, during the transmission process after spraying, the spraying effect will be detected, and the detection results will be transmitted to the data analysis system 5; The data analysis system 5 is connected to the signal output ends of the environmental monitoring system 3 and the spray control system 4, performs spray effect analysis and influencing factor analysis on the environmental data and spray data obtained above, and transmits the analysis results to the data processing terminal 1 via wireless communication technology to improve the spray effect.

[0019] refer to Figure 2 The data processing terminal 1 includes a first-level data display terminal, a second-level data display terminal, ..., an m-level data display terminal, which increases in sequence, and m represents the number of levels of the data display terminal, which usually does not exceed five levels, so as to facilitate the management of the data display terminal; wherein, according to the level setting of the data display terminal, different levels of granted permissions will correspond, and the granted permissions are directly related to the data that can be retrieved and displayed through the data display terminal; For example, under the first-level authorization authority, the first-level data display terminal can obtain all feedback data. Therefore, the first-level data display terminal is usually the master control terminal with a limited number of settings. The second-level data display terminal and other data display terminals are usually set as mobile terminals, and so on. The higher the level, the more restrictions the data obtained by the data display terminal of the corresponding level is subject to, thereby improving the security and pertinence of data acquisition.

[0020] refer to Figure 3 The communication modes of the intelligent communication system 2 include but are not limited to communication mode 1, communication mode 2, and communication mode 3. The intelligent communication system 2 mainly adopts wireless communication to perform transmission interaction of detection data to avoid laying a large number of cables; Exemplarily, the communication mode 1 is set as radio communication, the communication mode 2 is set as wireless LAN communication, and the communication mode 3 is set as Bluetooth communication. Radio communication uses modulation and demodulation technology to carry out radio wave communication, which can transmit signals over long distances. Wireless LAN communication is Wi-Fi communication. Bluetooth communication is communication within a certain area with the help of Bluetooth technology. The certain area in this solution is defined as the space where the spray room is located. For example, communication method one is used between the primary data display terminal and the intelligent communication system 2, communication method two or communication method three is used between the secondary data display terminal and the intelligent communication system 2, and in addition, the primary data display terminal also establishes a communication channel with the secondary data display terminal and other data display terminals, using communication method one; among which, communication method one is more stable and has a longer distance than communication method two and other communication methods, and communication method two and other communication methods are more location-flexible and have a shorter distance than communication method one.

[0021] Furthermore, the first-level data display terminal can be used by managers, and the second-level data display terminal and other levels of data display terminals can be used by operators in the spray room to perform authorization and control differentiation.

[0022] refer to Figure 4 , the environmental monitoring system 3 includes a data acquisition unit 301 and a data update unit 302. The data acquisition unit 301 is used to obtain the initial temperature and humidity and the real-time temperature and humidity of the spraying area. Specifically, the data acquisition unit 301 is connected to a plurality of temperature and humidity collectors, and the plurality of temperature and humidity collectors are temperature and humidity collector 1, temperature and humidity collector 2, ..., temperature and humidity collector n, which increase in sequence. n represents the last mark number of the collector and also represents the last mark number of the sprayer. The temperature and humidity collectors are respectively distributed in the corresponding sprayers, wherein; The initial temperature and humidity are recorded as H0[T0, S0], where H is the comprehensive representation mark of temperature and humidity, H0 is the comprehensive representation mark of initial temperature and humidity measured in all spraying areas, T0 is the initial temperature data, and S0 is the initial humidity data; The data updating unit 302 is used to obtain and check the initial temperature and humidity of all spraying areas, pre-set and input the judgment range of the initial temperature and humidity in the spraying environment, which depends on the ambient temperature and humidity range that the spraying process can adapt to, and take the average value of the temperature and humidity within the range. According to the average value, the initial temperature and humidity of several temperature and humidity collectors are uniformly updated to achieve the unification of H0 values, which is convenient for subsequent data collection and unified judgment; In addition, when temperature and humidity data exceeding the above judgment range appear, the data update unit 302 transmits the location information of the corresponding spraying area to the data processing terminal 1 through the data analysis system 5, and arranges the operator to the corresponding spraying machine to perform environmental monitoring and check the corresponding temperature and humidity collector before the spraying process starts; If the problem is with the temperature and humidity collector, the temperature and humidity collector will be replaced; If there are temperature and humidity problems in the area where the sprayer is located, the spraying area will be subjected to targeted dehumidification and heat exchange treatment. It should be noted that each sprayer is equipped with corresponding dehumidification and heat exchange equipment. Considering that the dehumidification and heat exchange after the previous spraying process is not in place, or the location of the sprayer is a problem, refer to Figure 8 The distribution of the sprayer and the corresponding dehumidification and heat exchange settings is only shown as an example. When performing targeted dehumidification and heat exchange, the above-mentioned average temperature and humidity value is used as the standard. When the temperature and humidity measured by the sprayer reach the average value, the dehumidification and heat exchange process is stopped.

[0023] When the spraying process is in progress, the temperature and humidity collector collects the real-time temperature and humidity in the spraying area, which is recorded as H i [T i , S i ], i is an integer between 1 and n, corresponding to the marking number of the temperature and humidity collector or the sprayer.

[0024] refer to Figure 5 The spraying control system 4 includes a spraying execution unit 401, a spraying detection unit 1 402, and a spraying detection unit 2 403. The spraying execution unit 401 is connected to the sprayer signal, and the spraying path and spraying amount are pre-input to ensure the orderly execution of the spraying process; the spraying detection unit 1 402 is used for spraying surface detection after the workpiece is sprayed, and the spraying detection unit 2 403 is used for drying detection of the sprayed surface, because the spraying process of the workpiece includes corresponding drying equipment. If the drying is not in place, it will greatly affect the final spraying effect of the workpiece.

[0025] In addition, the spray control system 4 also includes a spray adjustment unit 404, which is connected to the spray execution unit 401 by signal, and determines whether to make parameter adjustments to the spray process according to the spray detection data to improve the spray effect; The data detected by the spraying detection unit 402 is recorded as surface defect data X i The data detected by the spray detection unit 2 403 is recorded as dry data Y i , i is the marking number of the spray machine, which corresponds to the surface spraying condition of the workpiece processed by the spray machine, so as to facilitate the location determination and tracking of the spray machine.

[0026] The spray detection unit 1 402 is connected to a scanner 1, which has the functions of shooting and data transmission, and is set at the spray output end. The spray output end is the front end of the drying equipment, which is used to detect defects on the surface of the workpiece after spraying, and the defect data X is determined by calculating the defect area ratio. i , that is, 0≤X i ≤1; It should be noted that defects include but are not limited to bubbles, leaks, and cracks. The above uses artificial intelligence algorithm recognition to continuously learn and update the defect judgment. The total defect area obtained is recorded as x i , the total spraying area of ​​the workpiece is recorded as x´, then X i =x i / x´; The spray detection unit 2 403 signal is connected to the scanner 2, and a detection roller is arranged below the scanner 2. The surface of the detection roller is used to contact the spray surface of the workpiece after drying. The detection roller bearing is connected to the upper side of the workpiece spray surface, and the detection roller is made of elastic material. When in contact with the spray surface of the workpiece, the workpiece is conveyed in the discharge direction, and the detection roller contacts the workpiece surface and rotates at a synchronous distance. It should be noted that the height at which the detection roller is set does not interfere with the transmission of the workpiece. When the workpiece does not contact the workpiece surface, the detection roller also stops rotating synchronously. When the self-detection roller starts to rotate, the second scanner detects the surface it rotates over to detect whether the surface is contaminated with the undried spray liquid and determine the contaminated area. The newly obtained contaminated area value is subtracted from the contaminated area value obtained last time to obtain the above-mentioned drying data Y i , and can judge whether it is a newly stained spray liquid area according to the color depth. When the surface of the detection roller is not stained with spray liquid, it is determined to be a qualified spray drying process.

[0027] In this embodiment, in the first step, the data processing terminal 1 and the intelligent communication system 2 are started, the data transmission channel is opened, and the authorization rights of different data display terminals are determined to obtain the corresponding data rights; For example, the first-level data display terminal can obtain the temperature and humidity data and spraying detection data of all sprayers in the spraying room; the second-level data display terminal and other data display terminals can obtain several temperature and humidity data as a group or individually as well as spraying detection data, complete data overall control and sub-control, and better meet production needs.

[0028] In the second step, the environmental monitoring system 3 is started. On the one hand, it unifies all the initial temperature and humidity data in the spraying environment. On the other hand, during the spraying process, several temperature and humidity collectors respectively collect real-time temperature and humidity data in their spraying areas to perform real-time temperature and humidity monitoring during spraying.

[0029] The environmental monitoring system 3 transmits the measured real-time temperature and humidity data to the data analysis system 5 and to the data processing terminal 1. Each data display terminal will obtain the real-time temperature and humidity data in the corresponding spraying area according to the authorized authority. The real-time temperature and humidity are recorded as H i [T i , S i ], which allows the operator to quickly identify and control the temperature and humidity data in the corresponding spraying area.

[0030] In the third step, the spray control system 4 is started to start the workpiece spraying process in each spraying area; The spraying control system 4 transmits the surface defect data X obtained in each spraying area to the data analysis system 5 i And the drying data Y i ; Each data display terminal will obtain the surface defect data in the corresponding spraying area according to the authorized authority X i And the drying data Y i ; In the fourth step, the data analysis system 5 performs surface defect data and drying data analysis, and sets the surface defect limit θ through the data processing terminal 1. When the measured X i When θ>θ, it indicates that the defect is serious and there is a problem with the spraying parameters of the sprayer in the spraying area with serial number i. The data processing terminal 1 transmits an adjustment instruction to the spraying control system 4, that is, the spraying parameters are adjusted first. When X is measured, i When ≤θ, it means that the spraying effect of the sprayer in the spraying area with serial number i is qualified, the measured defects are negligible, and there is no need to adjust the spraying parameters; Spraying detection unit 2 403 performs drying data Y i When obtaining X, the data analysis system 5 first analyzes the measured X i The workpiece with a value greater than θ is subjected to noise elimination, because the drying test based on the spraying defect has the problem of inaccurate data. The detection roller is set to be connected by a lifting structure. When a workpiece with serious defects appears, the data processing terminal 1 controls the drying equipment to stop working, the detection roller moves up, the spraying detection unit 2 stops working, and the workpiece is quickly unloaded, and the spraying process of the next workpiece is carried out; When the workpiece is measured X i ≤θ, the preset drying process is executed, and the spray detection unit 2 acquires the drying data. When the drying data Y is measured iWhen it is 0, the drying effect is good, indicating that the drying parameters of the drying equipment are correct and the preset drying parameters will be maintained. i When it is not 0, it indicates that the drying parameters of the drying equipment are incorrect, and the data analysis system 5 will transmit instructions to the spray adjustment unit through the data processing terminal 1 to adjust the drying parameters.

[0031] Repeating the third step to the fifth step, the data analysis system 5 completes the spraying process correction in the spraying area and performs a more accurate spraying process until the defect is negligible and the drying effect is good. In addition, when the number of spray areas that have been calibrated accounts for more than half of the total number of spray areas in operation, the data processing terminal 1 will send an inspection instruction to the corresponding data display terminal via wireless communication for the spray areas whose spray data correction has not yet been completed, and dispatch operators to retrieve data from the spray machine and suspend the spraying process, thereby reducing the increase in scrap rate through manual intervention and problem finding.

[0032] Example 2, reference Figure 6-Figure 7 , based on the first embodiment, an environment adjustment system 6 is added, and an environment analysis unit 303 is added to the environment monitoring system 3; After the spraying process is executed for a period of time T, the spraying control system 4 again detects and transmits the surface defect data and drying data in each spraying area, and the judgment method is the same as above, but the spraying parameters or drying parameters are not adjusted first; The environment analysis unit 303 is used to receive the above real-time temperature and humidity H i [T i , S i ], after the spraying process is executed for T time, determine whether the real-time temperature and humidity have an impact on the spraying effect; That is, when the data analysis system 5 obtains X i ≤θ、Y i When the data is 0, the environment analysis unit 303 determines that the spraying and drying effects are maintained in the spraying area corresponding to the serial number within the T time period, and there is no need to adjust the environment in the spraying area; Otherwise, the environmental analysis unit 303 will determine that the spraying area of ​​the corresponding serial number has problems with poor spraying effect and / or drying effect due to changes in temperature and humidity. The environmental analysis unit 303 is connected to the environmental adjustment system 6 by signal. When the above problem is found, the environmental monitoring system 3 will transmit the environmental adjustment instruction to the environmental adjustment system 6. The environmental adjustment system 6 first controls the dehumidification and heat exchange equipment in the corresponding spraying area to adjust the ambient temperature and humidity to determine whether the spraying effect has deteriorated due to changes in ambient temperature and humidity. After the adjustment is completed, if the data analysis system 5 still concludes that the spraying effect and / or drying effect is poor, the data display terminal of the corresponding spraying area will alarm and suspend the spraying process; if the data analysis system 5 concludes that the spraying effect and / or drying effect is good, the spraying process of the workpiece will continue.

[0033] Finally, it should be pointed out that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit them. Although the present invention has been described in detail with reference to the above embodiments, a person skilled in the art should understand that the technical solutions described in the above embodiments can still be modified, or some of the technical features can be replaced by equivalents, and these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. An intelligent wireless communication system based on environmental detection, characterized in that: include: The data processing terminal is used to start and stop the spraying process and store data. At the same time, it can obtain the corresponding wireless communication transmission data according to the authorized authority, and can record and update the data regularly. The data processing terminal includes a multi-level data display terminal corresponding to different levels of granted authority; Intelligent communication system, used to provide wireless communication channels to ensure that the measured data can be transmitted and interacted; Environmental monitoring system, used to obtain the initial temperature and humidity data of the spraying environment and the real-time temperature and humidity data, and perform data analysis and transmission; A spraying control system is used to start the spraying process and detect the spraying effect during the spraying transmission process. The spraying control system includes a spraying execution unit, a spraying detection unit 1, and a spraying detection unit 2. The spraying execution unit signal is connected to the sprayer. The spraying detection unit 1 is used to detect the spraying surface of the workpiece after spraying, and the spraying detection unit 2 is used to detect the dryness of the spraying surface; The data analysis system is connected to the signal output terminals of the environmental monitoring system and the spray control system to analyze the spray effect and transmit the analysis results to the data processing terminal through wireless communication technology.

2. The intelligent wireless communication system based on environmental detection according to claim 1, characterized in that: The environmental monitoring system comprises: A data acquisition unit, used to acquire the initial temperature and humidity and the real-time temperature and humidity of the spraying area, wherein the data acquisition unit is signal-connected to a plurality of temperature and humidity collectors; The data updating unit is used to obtain and check the initial temperature and humidity of all spraying areas, pre-set and input the judgment range of the initial temperature and humidity in the spraying environment, and unify the initial temperature and humidity.

3. The intelligent wireless communication system based on environmental detection according to claim 2, characterized in that: The initial temperature and humidity are recorded as H0[T0, S0], where H is a comprehensive representation mark of temperature and humidity, H0 is a comprehensive representation mark of initial temperature and humidity measured in all spraying areas, T0 is initial temperature data, and S0 is initial humidity data.

4. The intelligent wireless communication system based on environmental detection according to claim 3 is characterized in that: The determination range of the initial temperature and humidity depends on the ambient temperature and humidity range that the spraying process can adapt to; When the initial temperature and humidity data acquired by the data acquisition unit is within the ambient temperature and humidity range, the data update unit takes the average value of temperature and humidity, and uniformly updates the initial temperature and humidity of several temperature and humidity collectors according to the average value, so as to achieve the unification of H0 values; When the initial temperature and humidity data acquired by the data acquisition unit exceeds the ambient temperature and humidity range, the data update unit transmits the location information of the corresponding spraying area to the data processing terminal through the data analysis system to perform environmental monitoring and check the corresponding temperature and humidity collector.

5. The intelligent wireless communication system based on environmental detection according to claim 4, characterized in that: The temperature and humidity collectors collect the real-time temperature and humidity in the spraying area, denoted as H i [T i , S i ], i is an integer between 1 and n, corresponding to the marking number of the temperature and humidity collector or sprayer or spraying area, and n represents the last marking number of the temperature and humidity collector or sprayer or spraying area.

6. The intelligent wireless communication system based on environmental detection according to claim 5, characterized in that: The spray control system further comprises a spray adjustment unit, which is connected to the spray execution unit by signal and determines whether to make parameter adjustment to the spray process according to the spray detection data.

7. The intelligent wireless communication system based on environmental detection according to claim 6, characterized in that: The data detected by the spraying detection unit 1 is recorded as surface defect data X i The spray detection unit 1 is connected to a scanner 1 for detecting defects on the surface of the workpiece after spraying, and the defect data X is determined by calculating the defect area ratio. i , that is, 0≤X i ≤1.

8. The intelligent wireless communication system based on environmental detection according to claim 7, characterized in that: The data detected by the spray detection unit 2 is recorded as dry data Y i The second spray detection unit is signal-connected to the second scanner, a detection roller is arranged below the second scanner, and the surface of the detection roller is used to contact the spray surface of the workpiece after drying; When the dry data Y is measured i When it is 0, the drying effect is good, indicating that the drying parameters of the drying equipment are correct; When the dry data Y is measured i When it is not 0, it indicates that the drying parameters of the drying equipment are incorrect, and the data analysis system will transmit instructions to the spray adjustment unit through the data processing terminal to adjust the drying parameters.

9. The intelligent wireless communication system based on environmental detection according to claim 8, characterized in that: The environmental monitoring system also includes an environmental analysis unit, which is used to receive the real-time temperature and humidity and determine whether the real-time temperature and humidity have an impact on the spraying effect after the spraying process is executed for T time.

10. The intelligent wireless communication system based on environmental detection according to claim 9, characterized in that: It also includes an environmental adjustment system for adjusting the environment in the spraying area and being able to determine whether changes in ambient temperature and humidity will cause changes in the spraying effect.

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