CN118361947B - Glass fiber net piece aftertreatment stoving control system - Google Patents

Abstract

The present invention belongs to the technical field of post-processing drying control of glass fiber mesh, and relates to a post-processing drying control system for glass fiber mesh. The present invention obtains preset drying curves for post-processing of various types of glass fiber meshes through experiments, which is helpful to realize the standardization, automation and traceability of the production process, improves production efficiency and product quality stability, obtains various abnormal drying equipment through analysis, is conducive to timely discovering problems in the drying process, ensures that the mesh reaches the predetermined quality standard, is conducive to enterprises understanding the operating status of the equipment, avoids the production of a large number of unqualified products, and reduces production losses. By analyzing the abnormal causes of each abnormal drying equipment, adjusting and controlling each abnormal equipment accordingly, it is conducive to timely analyzing the abnormal causes and adjusting and controlling, which is conducive to shortening the fault repair time, and avoiding problems such as energy waste, raw material loss or equipment damage caused by abnormal drying equipment.

Description

A glass fiber mesh post-processing drying control system

Technical Field

The invention belongs to the technical field of glass fiber mesh post-processing drying control and relates to a glass fiber mesh post-processing drying control system.

Background Art

Glass fiber mesh is a non-metallic material, which is made by melting glass at high temperature and pulling it into fine fibers, and then weaving these fibers into a mesh structure. Post-processing drying of glass fiber mesh is a key step in the production process of glass fiber mesh. It mainly refers to the drying process after the glass fiber mesh is made to remove excess moisture and organic solvents in the mesh, as well as to cure coatings or other additives. Therefore, the control method for post-processing drying of glass fiber mesh is of great significance.

The existing control method for post-processing drying of glass fiber mesh can basically meet the needs, but there are still certain shortcomings: on the one hand, the existing control method for post-processing drying of glass fiber mesh monitors and analyzes the temperature and humidity in the drying equipment through temperature sensors, humidity sensors, etc., so as to ensure that the temperature and humidity in the drying equipment can meet the needs of post-processing drying of the glass fiber mesh, but the existing control method for post-processing drying of glass fiber mesh lacks the test of post-processing drying of glass fiber mesh to obtain its preset drying curve, which is not conducive to the automation and standardized production of post-processing drying of glass fiber mesh, and is not conducive to improving production efficiency and product quality stability.

On the other hand, the existing control methods for post-processing drying of glass fiber meshes ignore the monitoring of the actual drying conditions and structures of each drying equipment when post-processing and drying the glass fiber meshes, which is not conducive to timely discovery of problems in the drying process, and is unable to adjust the drying parameters, and is unable to ensure that the mesh meets the predetermined quality standards. It is also not conducive to enterprises understanding the operating status of the equipment, and is unable to provide data support for equipment maintenance, updating or replacement.

Summary of the invention

In view of this, in order to solve the problems raised in the above background technology, a glass fiber mesh post-processing drying control system is now proposed.

The purpose of the present invention can be achieved through the following technical solutions: The present invention provides a glass fiber mesh post-processing drying control system, including: a preset drying curve acquisition module, a drying curve setting module, a drying effect verification module, a control terminal and a database.

The preset drying curve acquisition module includes a physical property acquisition unit, a glass fiber mesh division unit, a drying data detection unit and a drying data analysis unit.

The preset drying curve acquisition module is connected to the drying curve setting module, the drying curve setting module is connected to the drying effect verification module, the drying effect verification module is connected to the control terminal, and the database is connected to the preset drying curve acquisition module and the drying effect verification module respectively.

The physical property acquisition unit is connected to the glass fiber mesh unit division unit, the glass fiber mesh division unit is connected to the drying data detection unit, and the drying data detection unit is connected to the drying data analysis unit.

The preset drying curve acquisition module is used to randomly select a number of glass fiber meshes from various types of glass fiber meshes, record them as various types of glass fiber meshes corresponding to various test glass fiber meshes, and obtain preset drying curves for post-processing drying of various types of glass fiber meshes through experiments, wherein the drying curves include temperature curves, humidity curves and drying speed curves.

The physical property acquisition unit is used to acquire the physical properties of various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying.

The glass fiber mesh dividing unit is used to divide various types of glass fiber meshes corresponding to various test glass fiber meshes according to various test conditions to obtain various types of glass fiber meshes corresponding to various test conditions.

The drying data detection unit is used to obtain drying data of various types of glass fiber meshes during the post-processing drying process of each test glass fiber mesh corresponding to each test condition.

The drying data analysis unit is used to draw preset drying curves for post-processing of various types of glass fiber meshes.

The drying curve setting module is used to import preset drying curves for post-processing of various types of glass fiber mesh into the control system of the drying equipment.

The drying effect verification module is used to monitor the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying equipment, as well as its before and after size information, and then analyze the drying effect of each drying equipment and obtain each abnormal drying equipment.

The control terminal analyzes the abnormal causes of each abnormal drying equipment and adjusts and controls each abnormal equipment according to the abnormal causes.

The database is used to store the standard moisture content difference before and after post-processing drying of various types of glass fiber meshes, the standard coincidence of standard hardness and size information, the standard coincidence of actual drying curves and preset drying curves of various types of glass fiber meshes after post-processing drying of drying equipment, and the standard shrinkage rate before and after post-processing drying, and the hardness corresponding to each depth of surface indentation of the glass fiber mesh.

Compared with the prior art, the beneficial effects of the present invention are as follows: 1. The present invention obtains the preset temperature curve, preset humidity curve and preset drying speed curve for post-processing of various types of glass fiber meshes through experiments, and uses them as the basis for standardization of the post-processing drying process of the glass fiber mesh, thereby helping to achieve standardization, automation and traceability of the production process, improve production efficiency and product quality stability, improve drying efficiency, and reduce production costs.

2. The present invention monitors the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying equipment, as well as the size information before and after the drying curves, and analyzes the curves to obtain the abnormal drying equipment, which helps to promptly discover the problems in the drying process, thereby adjusting the drying parameters in time to ensure that the mesh meets the predetermined quality standards. It helps enterprises understand the operating status of the equipment, provides data support for equipment maintenance, updating or replacement, avoids the generation of a large number of unqualified products, and reduces production losses.

3. The present invention analyzes the abnormal causes of each abnormal drying equipment and adjusts and controls each abnormal equipment accordingly, thereby ensuring the normal operation of the drying equipment and improving product quality. It is conducive to timely analyzing the abnormal causes and making adjustments and controls, which is beneficial to shortening the fault repair time, reducing production delays, and improving production efficiency, avoiding problems such as energy waste, raw material loss or equipment damage caused by abnormal drying equipment.

BRIEF DESCRIPTION OF THE DRAWINGS

In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

FIG. 1 is a schematic diagram showing the connection of system modules of the present invention.

DETAILED DESCRIPTION

The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. 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.

Please refer to Figure 1, the present invention provides a glass fiber mesh post-processing drying control system, and the specific modules are distributed as follows: a preset drying curve acquisition module, a drying curve setting module, a drying effect verification module, a control terminal and a database. The preset drying curve acquisition module includes a physical property acquisition unit, a glass fiber mesh division unit, a drying data detection unit and a drying data analysis unit.

Among them, the connection method between the modules is: the preset drying curve acquisition module is connected to the drying curve setting module, the drying curve setting module is connected to the drying effect verification module, the drying effect verification module is connected to the control terminal, and the database is connected to the preset drying curve acquisition module and the drying effect verification module respectively.

The connection between the units is as follows: the physical property acquisition unit is connected to the glass fiber mesh unit division unit, the glass fiber mesh division unit is connected to the drying data detection unit, and the drying data detection unit is connected to the drying data analysis unit.

The preset drying curve acquisition module is used to randomly select a number of glass fiber meshes from various types of glass fiber meshes, record them as various types of glass fiber meshes corresponding to various test glass fiber meshes, and obtain preset drying curves for post-processing drying of various types of glass fiber meshes through experiments, wherein the drying curves include temperature curves, humidity curves and drying speed curves.

It needs to be further explained that the test is to perform drying tests on various types of glass fiber meshes corresponding to each test glass fiber mesh in a drying device and record the process.

The preset drying curve acquisition module includes a physical property acquisition unit, a glass fiber mesh division unit, a drying data detection unit and a drying data analysis unit.

The physical property acquisition unit is used to acquire the physical properties of various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying.

As a specific feasible embodiment, the physical properties of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying include moisture content, hardness and size information.

It needs to be further explained that the specific method of obtaining the moisture content of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying is: using a capacitive hygrometer to detect the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying to obtain the moisture content of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying.

The specific method for obtaining the hardness of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying is: using a Shore hardness tester to apply a certain pressure on the surface of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying, and measuring the depth of the surface indentation of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying, and matching it with the hardness corresponding to each depth of the surface indentation of the glass fiber mesh stored in the database, to obtain the hardness of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying.

The specific method for obtaining the size information of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying is: using an image measuring instrument to measure the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying to obtain the size information of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying.

Specifically, the size information includes but is not limited to the length, width and thickness of each grid.

The glass fiber mesh dividing unit is used to divide various types of glass fiber meshes corresponding to various test glass fiber meshes according to various test conditions to obtain various types of glass fiber meshes corresponding to various test conditions.

As a specific feasible embodiment, the test conditions are test conditions obtained by combining various temperatures, humidity and wind speeds in various forms.

As a specific feasible embodiment, the glass fiber meshes of various types corresponding to the test conditions are obtained, and the specific operation method includes: extracting each test condition, and performing statistics on it to obtain the number of test conditions.

The various types of glass fiber meshes corresponding to the various test glass fiber meshes are extracted, and statistics are performed to obtain the number of the various types of glass fiber meshes corresponding to the test glass fiber meshes.

Divide the number of test glass fiber meshes corresponding to each type of glass fiber mesh by the number of test conditions, and use the quotient as the set number of divisions. Then group the test glass fiber meshes corresponding to each type of glass fiber mesh according to the set number of divisions to obtain the glass fiber meshes corresponding to each test condition of each type of glass fiber mesh.

If there is a remainder, it will be eliminated.

The drying data detection unit is used to obtain drying data of various types of glass fiber meshes during the post-processing drying process of each test glass fiber mesh corresponding to each test condition.

As a specific feasible embodiment, the drying data of each type of glass fiber mesh in the post-processing drying process of each test glass fiber mesh corresponding to each test condition includes the temperature, humidity and wind speed corresponding to each time point.

It needs to be further explained that the specific method of obtaining the temperature, humidity and wind speed corresponding to each time point in the post-processing drying process of each test glass fiber mesh corresponding to each test condition is: by real-time recording in the drying equipment the temperature, humidity and wind speed corresponding to each time point in the post-processing drying process of each test glass fiber mesh corresponding to each test condition.

The drying data analysis unit is used to draw preset drying curves for post-processing of various types of glass fiber meshes.

As a specific feasible embodiment, the preset drying curves for post-processing of various types of glass fiber meshes are drawn, and the specific drawing method includes: extracting the temperature, humidity and wind speed corresponding to each time point in the post-processing drying process of each test glass fiber mesh corresponding to each test condition of each type of glass fiber mesh, and further performing mean processing on them to obtain the average temperature, average humidity and average wind speed corresponding to each time point in the post-processing drying process of each type of glass fiber mesh corresponding to each test condition.

A two-dimensional coordinate system is established with the time point as the horizontal coordinate and the average temperature of the test glass fiber mesh as the vertical coordinate. Points are drawn and connected in the established two-dimensional coordinate system to obtain the temperature curves of the test glass fiber meshes corresponding to each test condition for each type of glass fiber mesh. The temperature curves are recorded as the preset temperature curves of the post-treatment of each type of glass fiber mesh corresponding to each test condition. Similarly, the preset humidity curves and preset wind speed curves of the post-treatment of each type of glass fiber mesh corresponding to each test condition can be obtained.

As a specific feasible embodiment, the preset drying curves for post-processing of various types of glass fiber meshes are drawn, and the specific drawing method thereof also includes: extracting the moisture content, hardness and size information of various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing drying, and then obtaining the moisture content, hardness and size information of various types of glass fiber meshes corresponding to each test glass fiber mesh under each test condition before and after post-processing drying.

Compare the size information of various glass fiber meshes before and after post-treatment and drying corresponding to each test condition, and obtain the overlap of the size information of various glass fiber meshes before and after post-treatment and drying corresponding to each test condition. ,in , It is the serial number of various types of glass fiber mesh. , is the number of each test condition, , is the number of each test glass fiber mesh, is the number of glass fiber mesh sheets tested.

It needs to be further explained that the specific method for obtaining the overlap of the size information of each type of glass fiber mesh corresponding to each test glass fiber mesh under each test condition before and after post-processing and drying is: extract the size information of each type of glass fiber mesh corresponding to each test condition before and after post-processing and drying, wherein the size information includes but is not limited to the length, width and thickness of each grid, that is, extract the length, width and thickness of each grid before and after post-processing and drying of each type of glass fiber mesh corresponding to each test condition, and record them as ,in , is the number of each grid of the test glass fiber mesh, To test the number of meshes of the glass fiber mesh, according to the calculation model Obtain the overlap of the size information of various types of glass fiber meshes corresponding to each test condition before and after post-processing and drying of each test glass fiber mesh .

Analyze the evaluation coefficients of the physical properties changes of various types of glass fiber meshes under various test conditions before and after post-treatment and drying ,in Respectively Type 1 glass fiber mesh corresponds to The test conditions belong to The moisture content of the glass fiber mesh before and after post-treatment drying was tested. For the Type 1 glass fiber mesh corresponds to The test conditions belong to The hardness of the glass fiber mesh after post-treatment and drying is tested. The first The standard moisture content difference before and after drying of the glass fiber mesh, the standard hardness and the standard coincidence of the size information, They are the weight factors corresponding to the set moisture content, hardness and size information respectively.

It should be further explained that the weight factors corresponding to the set moisture content, hardness and size information are 0.3, 0.3 and 0.4 respectively.

For glass fiber mesh, the moisture content directly affects its strength, durability and other physical properties. Excessive moisture may cause the mesh to deform, corrode or degrade in performance during use. Therefore, moisture content is a key evaluation indicator. Therefore, the weight factor corresponding to moisture content is set to 0.3.

Hardness reflects the ability of the glass fiber mesh to resist external pressure and deformation. In practical applications, the hardness of the glass fiber mesh determines whether it can withstand the expected load and stress, so it is also an important evaluation parameter. Therefore, the weight factor corresponding to hardness is set to 0.3.

Dimension information plays a decisive role in the installation, matching and use of glass fiber mesh. Accurate size can ensure the compatibility of mesh with other components or systems, and avoid performance problems or safety hazards caused by size mismatch. Therefore, the weight factor corresponding to the size information is set to 0.4.

The evaluation coefficients of changes in physical properties of various types of glass fiber meshes corresponding to each test condition before and after post-processing and drying are screened to obtain the test conditions corresponding to various types of glass fiber meshes with the largest evaluation coefficients of changes in physical properties of the test glass fiber meshes before and after post-processing and drying, and their preset temperature curves, preset humidity curves and preset wind speed curves are used as the preset temperature curves, preset humidity curves and preset drying speed curves for post-processing of various types of glass fiber meshes.

The present invention obtains preset temperature curves, preset humidity curves and preset drying speed curves for post-processing of various types of glass fiber meshes through experiments, and uses them as a standardized basis for the post-processing drying process of the glass fiber mesh, thereby helping to achieve standardization, automation and traceability of the production process, improve production efficiency and product quality stability, improve drying efficiency, and reduce production costs.

The drying curve setting module is used to import preset drying curves for post-processing of various types of glass fiber mesh into the control system of the drying equipment.

The drying effect verification module is used to monitor the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying equipment, as well as its before and after size information, and then analyze the drying effect of each drying equipment and obtain each abnormal drying equipment.

As a specific feasible embodiment, the drying effect of each drying device is specifically analyzed in the following manner: extracting the actual drying curve of each glass fiber mesh corresponding to the post-treatment drying of each glass fiber mesh belonging to each drying device, comparing it with the preset drying curve of each glass fiber mesh post-treatment of the corresponding drying device, and obtaining the degree of overlap between the actual drying curve of each glass fiber mesh corresponding to the post-treatment drying of each glass fiber mesh belonging to each drying device and the preset drying curve. ,in , is the number of each drying equipment, , It is the serial number of various types of glass fiber meshes belonging to the drying equipment. The number of glass fiber mesh sheets of the drying equipment category. , is the number of each glass fiber mesh, is the number of glass fiber mesh sheets.

It needs to be further explained that the specific method for obtaining the degree of overlap between the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying device and the preset drying curves of each drying device is: extract the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying device and the preset drying curves of each drying device, compare them, and obtain the distance difference between each monitoring point in the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying device and the corresponding monitoring point in the preset drying curve in the corresponding drying device. ,in , is the number of each monitoring point, is the number of monitoring points, according to the calculation model Obtain the degree of overlap between the actual drying curve and the preset drying curve of each glass fiber mesh post-processing drying corresponding to each type of glass fiber mesh belonging to each drying equipment ,in is the set allowable distance difference.

Extract the size information of each type of glass fiber mesh belonging to each drying equipment before and after post-processing and drying, compare them, and then obtain the shrinkage rate of each type of glass fiber mesh belonging to each drying equipment before and after post-processing and drying .

It should be further explained that the specific method for obtaining the shrinkage rate of each glass fiber mesh of each drying device before and after post-treatment drying is as follows: extract the length, width and thickness of each grid of each glass fiber mesh of each drying device before and after post-treatment drying, respectively. ,in , is the number of each grid of the glass fiber mesh, is the number of meshes in the glass fiber mesh, according to the calculation model Get the shrinkage rate of each glass fiber mesh before and after post-processing drying of each glass fiber mesh belonging to each drying equipment .

Analyze the drying effect evaluation coefficient of each drying equipment ,in They are the drying equipment extracted from the database. The standard coincidence between the actual drying curve of the post-processing drying of the glass fiber mesh and the preset drying curve, as well as the standard shrinkage rate before and after the post-processing drying.

As a specific feasible embodiment, the specific method of obtaining each abnormal drying device includes: comparing the drying effect evaluation coefficient of each drying device with the set drying effect evaluation coefficient threshold, screening out the drying devices whose drying effect evaluation coefficient is less than the drying effect evaluation coefficient threshold, and recording them as abnormal drying devices.

The present invention monitors the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying equipment, as well as the size information before and after the drying curves, and analyzes them to obtain each abnormal drying equipment, which helps to promptly discover problems in the drying process, thereby adjusting the drying parameters in time to ensure that the mesh meets the predetermined quality standards, helps enterprises understand the operating status of the equipment, provides data support for equipment maintenance, updating or replacement, avoids the generation of a large number of unqualified products, and reduces production losses.

The control terminal analyzes the abnormal causes of each abnormal drying equipment and adjusts and controls each abnormal equipment according to the abnormal causes.

As a specific feasible implementation example, the abnormal causes of each abnormal drying device are analyzed, and the specific analysis includes: A1, extracting the overlap between the actual drying curve and the preset drying curve of each glass fiber mesh post-processing drying corresponding to each type of glass fiber mesh belonging to each abnormal drying device, and then obtaining the qualified rate corresponding to the overlap between the actual drying curve and the preset drying curve of each abnormal drying device. If it is less than the set qualified rate threshold, it means that the abnormal cause of each abnormal drying device is that the actual drying curve is unqualified. Otherwise, execute A2.

A2. Extract the shrinkage rates of various types of glass fiber meshes belonging to each abnormal drying device before and after post-processing drying of each glass fiber mesh, and then obtain the corresponding qualified rate of the shrinkage rates of the glass fiber meshes before and after post-processing drying of each abnormal drying device. If it is less than the set qualified rate threshold, it means that the abnormal reason for the abnormal drying device is that the requirements for post-processing drying of various types of glass fiber meshes do not match their preset drying curves.

As a specific feasible embodiment, the adjustment and control of each abnormal device according to the abnormal cause includes: if the abnormal cause of each abnormal drying device is that the actual drying curve is unqualified, the number of each abnormal drying device is fed back and repaired.

If the abnormal reason of each abnormal drying device is that the requirements for post-processing drying of various glass fiber mesh sheets do not match their preset drying curves, the preset drying curve acquisition module is re-executed.

The database is used to store the standard moisture content difference, standard hardness and standard coincidence of size information of various types of glass fiber meshes before and after post-processing drying, store the standard coincidence of actual drying curves and preset drying curves of various types of glass fiber meshes after post-processing drying of the drying equipment, and the standard shrinkage rate before and after post-processing drying, and store the hardness corresponding to each depth of surface indentation of the glass fiber mesh.

The present invention analyzes the abnormal causes of each abnormal drying equipment and adjusts and controls each abnormal equipment accordingly, thereby ensuring the normal operation of the drying equipment and improving product quality. It is beneficial to timely analyze the abnormal causes and make adjustments and controls, which is beneficial to shortening the fault repair time, reducing production delays, and improving production efficiency, avoiding problems such as energy waste, raw material loss or equipment damage caused by the abnormality of the drying equipment.

The above contents are merely examples and explanations of the concept of the present invention. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the concept of the invention or exceed the scope defined by the present invention, they should all fall within the protection scope of the present invention.

Claims (6)

1. A glass fiber mesh post-processing drying control system, characterized in that it includes: A preset drying curve acquisition module is used to randomly select a number of glass fiber meshes from various types of glass fiber meshes, record them as various types of glass fiber meshes corresponding to various test glass fiber meshes, and obtain preset drying curves for post-processing drying of various types of glass fiber meshes through experiments, wherein the drying curves include temperature curves, humidity curves and drying speed curves; The preset drying curve acquisition module includes a physical property acquisition unit, a glass fiber mesh division unit, a drying data detection unit and a drying data analysis unit; The physical property acquisition unit is used to obtain the physical properties of various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-processing and drying; The glass fiber mesh division unit is used to divide various types of glass fiber meshes corresponding to various test glass fiber meshes according to various test conditions to obtain various types of glass fiber meshes corresponding to various test conditions; The drying data detection unit is used to obtain drying data of various types of glass fiber meshes during the post-processing drying process of each test glass fiber mesh corresponding to each test condition; The drying data analysis unit is used to draw preset drying curves for post-processing of various types of glass fiber meshes; A drying curve setting module is used to import preset drying curves for post-processing of various types of glass fiber mesh into the control system of the drying equipment; The drying effect verification module is used to monitor the actual drying curves of the post-processing drying of each glass fiber mesh corresponding to each type of glass fiber mesh belonging to each drying device, as well as the size information before and after the drying, and then analyze the drying effect of each drying device and obtain each abnormal drying device; The control terminal analyzes the abnormal causes of each abnormal drying equipment and adjusts and controls each abnormal equipment according to the abnormal causes; A database for storing the standard moisture content difference before and after post-processing drying of various types of glass fiber meshes, the standard coincidence of standard hardness and size information, the standard coincidence of the actual drying curve and the preset drying curve of various types of glass fiber meshes after post-processing drying of the drying equipment, and the standard shrinkage rate before and after post-processing drying, and the hardness corresponding to each depth of the surface indentation of the glass fiber mesh; The physical properties of the various types of glass fiber meshes corresponding to each test glass fiber mesh before and after post-treatment and drying include moisture content, hardness and size information; The drying data of each glass fiber mesh in the post-processing drying process of each test glass fiber mesh corresponding to each test condition include the temperature, humidity and wind speed corresponding to each time point; The specific drawing method of drawing the preset drying curves for post-processing of various types of glass fiber meshes includes: Extract the temperature, humidity and wind speed corresponding to each time point in the post-treatment drying process of each test glass fiber mesh corresponding to each test condition of each type of glass fiber mesh, and further perform mean processing on them to obtain the average temperature, average humidity and average wind speed corresponding to each time point in the post-treatment drying process of each type of glass fiber mesh corresponding to each test condition of each type of glass fiber mesh; A two-dimensional coordinate system is established with the time point as the abscissa and the average temperature of the test glass fiber mesh as the ordinate, and points are drawn and connected in the established two-dimensional coordinate system to obtain the temperature curves of the test glass fiber meshes corresponding to each test condition for each type of glass fiber mesh, which are recorded as the preset temperature curves of the post-treatment of each type of glass fiber mesh corresponding to each test condition. Similarly, the preset humidity curves and preset wind speed curves of the post-treatment of each type of glass fiber mesh corresponding to each test condition can be obtained; The specific drawing method of drawing the preset drying curves for post-processing of various types of glass fiber meshes also includes: Extract the moisture content, hardness and size information of each type of glass fiber mesh corresponding to each test glass fiber mesh before and after post-treatment and drying, and then obtain the moisture content, hardness and size information of each type of glass fiber mesh corresponding to each test condition before and after post-treatment and drying; Compare the size information of various glass fiber meshes before and after post-treatment and drying corresponding to each test condition, and obtain the overlap of the size information of various glass fiber meshes before and after post-treatment and drying corresponding to each test condition. ,in , It is the serial number of various types of glass fiber mesh. , is the number of each test condition, , is the number of each test glass fiber mesh, The number of glass fiber mesh sheets tested; Analyze the evaluation coefficients of the physical properties changes of various types of glass fiber meshes under various test conditions before and after post-treatment and drying ,in Respectively Type 1 glass fiber mesh corresponds to The test conditions belong to The moisture content of the glass fiber mesh before and after post-treatment drying was tested. For the Type 1 glass fiber mesh corresponds to The test conditions belong to The hardness of the glass fiber mesh after post-treatment and drying is tested. The first The standard moisture content difference before and after drying of the glass fiber mesh, the standard hardness and the standard coincidence of the size information, They are the weight factors corresponding to the set moisture content, hardness and size information respectively; The various glass fiber meshes corresponding to the various test conditions and the physical property change evaluation coefficients of the test glass fiber meshes before and after post-treatment and drying are screened to obtain the various glass fiber meshes corresponding to the test conditions with the largest physical property change evaluation coefficients before and after post-treatment and drying, and use the preset temperature curves, preset humidity curves and preset wind speed curves thereof as the preset temperature curves, preset humidity curves and preset drying speed curves for post-treatment of the various glass fiber meshes; The specific analysis method of the drying effect of each drying equipment includes: The actual drying curves of various types of glass fiber meshes corresponding to the post-treatment drying of each glass fiber mesh belonging to each drying equipment are extracted, and compared with the preset drying curves of various types of glass fiber meshes corresponding to the post-treatment drying of each glass fiber mesh belonging to the corresponding drying equipment, and the overlap between the actual drying curves and the preset drying curves of various types of glass fiber meshes corresponding to the post-treatment drying of each glass fiber mesh belonging to each drying equipment is obtained. ,in , is the number of each drying equipment, , It is the serial number of various types of glass fiber meshes belonging to the drying equipment. The number of glass fiber mesh sheets of the drying equipment category. , is the number of each glass fiber mesh, is the number of glass fiber meshes; Extract the size information of each type of glass fiber mesh belonging to each drying equipment before and after post-processing and drying, compare them, and then obtain the shrinkage rate of each type of glass fiber mesh belonging to each drying equipment before and after post-processing and drying ; Analyze the drying effect evaluation coefficient of each drying equipment ,in They are the drying equipment extracted from the database. The standard coincidence between the actual drying curve of the post-processing drying of the glass fiber mesh and the preset drying curve, as well as the standard shrinkage rate before and after the post-processing drying. 2. A glass fiber mesh post-processing drying control system according to claim 1, characterized in that: the various test conditions are test conditions obtained by combining various temperatures, humidity and wind speeds in various forms. 3. A glass fiber mesh post-processing drying control system according to claim 1, characterized in that: the specific operation method of obtaining various types of glass fiber meshes corresponding to each glass fiber mesh under each test condition includes: Extract each test condition and count them to get the number of test conditions; Extract various types of glass fiber meshes corresponding to various test glass fiber meshes, and perform statistics on them to obtain the number of various types of glass fiber meshes corresponding to the test glass fiber meshes; The number of test glass fiber meshes corresponding to each type of glass fiber mesh is divided by the number of test conditions, and the quotient is used as the set number of divisions, and then each type of glass fiber mesh corresponding to each test glass fiber mesh is grouped according to the set number of divisions to obtain each glass fiber mesh corresponding to each test condition of each type of glass fiber mesh; If there is a remainder, it will be eliminated. 4. A glass fiber mesh post-processing drying control system according to claim 1, characterized in that: the specific method of obtaining each abnormal drying equipment includes: comparing the drying effect evaluation coefficient of each drying equipment with the set drying effect evaluation coefficient threshold, screening out each drying equipment whose drying effect evaluation coefficient is less than the drying effect evaluation coefficient threshold, and recording it as each abnormal drying equipment. 5. A glass fiber mesh post-processing drying control system according to claim 1, characterized in that: the abnormal reasons of each abnormal drying equipment are analyzed, and the specific analysis includes: A1. Extract the overlap between the actual drying curve and the preset drying curve of each glass fiber mesh post-processing drying corresponding to each type of glass fiber mesh belonging to each abnormal drying device, and then obtain the pass rate corresponding to the overlap between the actual drying curve and the preset drying curve of each abnormal drying device. If it is less than the set pass rate threshold, it means that the abnormal reason of each abnormal drying device is that the actual drying curve is unqualified. Otherwise, execute A2. A2. Extract the shrinkage rates of various types of glass fiber meshes belonging to each abnormal drying device before and after post-processing drying of each glass fiber mesh, and then obtain the corresponding qualified rate of the shrinkage rates of the glass fiber meshes before and after post-processing drying of each abnormal drying device. If it is less than the set qualified rate threshold, it means that the abnormal reason for the abnormal drying device is that the requirements for post-processing drying of various types of glass fiber meshes do not match their preset drying curves. 6. A glass fiber mesh post-processing drying control system according to claim 1, characterized in that: the adjustment and control of each abnormal device according to the abnormal cause includes: If the abnormal reason of each abnormal drying equipment is that the actual drying curve is unqualified, the number of each abnormal drying equipment will be fed back and repaired; If the abnormal reason of each abnormal drying device is that the requirements for post-processing drying of various glass fiber mesh sheets do not match their preset drying curves, the preset drying curve acquisition module is re-executed.