A glass production and processing parameter monitoring method and system

Abstract

The present application relates to the technical field of glass processing, and discloses a method and system for monitoring glass production and processing parameters, the method comprising receiving an inflation start signal, and obtaining inflation effect information of a number of detection points of inflated glass; when the detection point corresponding to a preset evaluation ranking number shows inflation effect information that meets the standard, calculating the inflation compliance rates of a number of preceding evaluation rows; calculating the first characteristic value of turbulence and the second characteristic value of turbulence based on each inflation compliance rate to calculate the comprehensive characteristic value of turbulence, and generating a turbulence intervention instruction when the comprehensive characteristic value of turbulence is greater than or equal to the turbulence characteristic threshold; receiving the turbulence intervention instruction, and controlling the temperature control components of the corresponding areas of the preceding evaluation row and the detection points whose ranking numbers are greater than or equal to the evaluation ranking number to perform temperature regulation work, so as to promote the gas flow form in the corresponding area to tend to laminar flow; the present application has the effect of improving the air exhaust efficiency when glass is filled with special gases.

Description

Technical Field

[0001] The present application relates to the technical field of glass processing, and in particular to a method and system for monitoring glass production and processing parameters. Background Art

[0002] As people pursue energy conservation, environmental protection, noise isolation, safety and other requirements for glass products, the demand for argon-filled glass is growing rapidly. At present, the production method for argon-filled glass is mainly to open an air hole at the bottom and top of the double-layer glass, and then fill argon through the bottom air hole and discharge air through the top air hole, thereby completing the argon filling process of the double-layer glass. However, since the air in the double-layer glass is prone to form turbulence during the flow, it is not easy to discharge, which can easily lead to one or more adverse results such as low purity of argon gas inside the argon-filled glass, long time-consuming argon filling process or excessive argon consumption. Therefore, the above-mentioned related technologies have the problem of difficulty in discharging the air in the double-layer glass. Summary of the invention

[0003] In order to improve the air exhaust efficiency when glass is filled with special gas, the present application provides a glass production and processing parameter monitoring method and system.

[0004] The first invention objective of this application is achieved by adopting the following technical solution:

[0005] A method for monitoring glass production and processing parameters, comprising:

[0006] Receiving an inflation start signal, and obtaining inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not;

[0007] When any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows i ;

[0008] Calculating a first turbulence characteristic value and a second turbulence characteristic value based on each inflation compliance rate, calculating a turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generating a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold value;

[0009] Receive turbulence intervention instructions, control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and the detection points whose ranking numbers are greater than or equal to the evaluation ranking numbers to perform temperature regulation work, so as to promote the gas flow form in the corresponding area to tend to laminar flow;

[0010] The first turbulent characteristic value S 1k The calculation formula is:

[0011]

[0012] The second turbulent characteristic value S 2k The calculation formula is:

[0013]

[0014] The turbulence comprehensive characteristic value S k The calculation formula is:

[0015] S k =a1S 1k +a2S 2k

[0016] The inflatable glass is provided with an inflation hole at the bottom, and an exhaust hole at the top; the inflatable glass is provided with a plurality of detection points and temperature control points, and the inflatable glass fixture is provided with a temperature control component at each temperature control point, and each detection point is marked with a corresponding sorting number i and column number j, the sorting number of the detection point close to the ground is greater than the sorting number of the detection point far from the ground, and the column number of the detection point close to the exhaust hole among the detection points with the same sorting number is greater than the column number of the detection point far from the exhaust hole; the preceding evaluation row refers to a plurality of rows of detection points arranged before the evaluation sorting number; wherein n is the number of preceding evaluation rows, a1 is the first characteristic coefficient, and a2 is the second characteristic coefficient.

[0017] By adopting the above technical solution, when the glass starts to be filled with special gases such as argon, a filling start signal is received, the argon concentrations at several detection points on the inflated glass are detected, and corresponding filling effect information is obtained, specifically including whether it meets the standard or not; when any detection point corresponding to the preset evaluation ranking number shows filling effect information that meets the standard, it means that the argon has flowed to the row of detection points with a concentration that meets the standard, and several preceding evaluation rows located in the evaluation ranking number are determined and the filling standard compliance rate of each preceding evaluation row is calculated; based on each filling standard compliance rate, the first eigenvalue of turbulence and the second eigenvalue of turbulence are calculated, wherein the first eigenvalue of turbulence is used to evaluate the disorder of argon in several preceding evaluation rows, and the second eigenvalue of turbulence is used to evaluate the disorder of argon in several preceding evaluation rows. The second eigenvalue is used to evaluate the proportion of argon in several previous evaluation rows, and a weighted sum is performed based on the first eigenvalue of turbulence and the second eigenvalue of turbulence to obtain a comprehensive turbulence eigenvalue. If the comprehensive turbulence eigenvalue is greater than the turbulence characteristic threshold, a turbulence intervention instruction is generated; according to the turbulence intervention instruction, the temperature control points in the area where the previous evaluation row and all detection points with a ranking number greater than or equal to the evaluation ranking number are located are controlled to perform temperature regulation, so as to reduce the Reynolds number of the argon flow in the area by temperature regulation, so as to promote the argon flow form in the area to tend to laminar flow, so as to improve the efficiency of argon filling and air discharge, thereby improving the production efficiency of argon-filled glass.

[0018] In a preferred example of the present application: the fixture for inflatable glass is provided with a gas detector at each detection point;

[0019] The receiving of the inflation start signal and obtaining the inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not, includes:

[0020] Receive the inflation start signal and obtain the target gas concentration at several detection points of the inflated glass through the gas detector;

[0021] Based on the concentration of each target gas and the preset detection standard, when the target gas concentration meets the detection standard, the inflation effect information that meets the standard is generated and associated with the corresponding detection point.

[0022] By adopting the above technical solution, the inflated glass fixture is equipped with a gas detector at each detection point to detect the target gas concentration at each detection point in the inflated glass; the target gas concentration is compared with the preset detection standard to determine the inflation effect information of each detection point, so as to analyze the distribution of the injected target gas inside the inflated glass.

[0023] In a preferred example of the present application: when any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, the inflation standard rate R corresponding to several previous evaluation rows is calculated. i Previously, including:

[0024] Calculate the evaluation ranking number based on the total number of detection points m and the preset starting evaluation ratio value b1 and the previous evaluation ratio value b2 The number of previous evaluation rows

[0025] By adopting the above technical scheme, the evaluation ranking number is calculated according to the total number of rows of detection points and the preset starting evaluation ratio value as the starting condition for starting to execute the work of judging whether there is turbulence of the target gas in the inflatable glass. The number of preceding evaluation rows is calculated according to the total number of rows of detection points and the preset preceding evaluation ratio value to facilitate determining the judgment range when subsequently executing the work of judging whether there is turbulence of the target gas in the inflatable glass.

[0026] In a preferred example of the present application: when any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, the inflation standard rate R corresponding to several previous evaluation rows is calculated. i After that, it also includes:

[0027] If the turbulence comprehensive characteristic value is less than the turbulence characteristic threshold, when any detection point corresponding to the re-evaluation sequence number has the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows. i , the value of the current re-evaluation ranking number is equal to the previous evaluation ranking number plus one or the previous re-evaluation ranking number plus one;

[0028] Calculating a first turbulence reassessment characteristic value and a second turbulence reassessment characteristic value based on each inflation compliance rate, calculating a turbulence reassessment comprehensive characteristic value based on the first turbulence reassessment characteristic value and the second turbulence reassessment characteristic value, and generating a turbulence intervention instruction when the turbulence reassessment comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold value;

[0029] Receive turbulence intervention instructions and control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and whose sorting numbers are greater than or equal to the re-evaluation sorting number to perform temperature regulation.

[0030] By adopting the above technical scheme, if the initial judgment result of whether there is turbulence in the inflatable glass is that the comprehensive characteristic value of turbulence is less than the turbulence characteristic threshold, the previous evaluation ranking number or the previous re-evaluation ranking number will be added by one to determine the current re-evaluation ranking number. When any detection point corresponding to the re-evaluation ranking number shows the inflation effect information that meets the standard, the inflation compliance rates corresponding to several previous evaluation rows are recalculated; the turbulence re-evaluation comprehensive characteristic value is calculated, re-compared and a turbulence intervention instruction is generated when the turbulence re-evaluation comprehensive characteristic value is greater than or equal to the preset turbulence characteristic threshold; the turbulence intervention instruction is received to control the temperature control component in the corresponding area of ​​the detection point to perform temperature regulation, thereby promoting the flow form of the target gas in the inflatable glass to tend to laminar flow. This scheme realizes continuous monitoring of the flow form of the target gas in the inflatable glass by rolling the re-evaluation ranking number.

[0031] In a preferred example of the present application: the inflatable glass fixture is provided with an inflation and deflation assembly, and the inflation and deflation assembly includes an inflation device connected to the inflation hole and a deflation device connected to the deflation hole;

[0032] After receiving the turbulence intervention instruction and controlling the temperature control components in the areas corresponding to the detection points in the preceding evaluation row and the detection points with the ranking numbers greater than or equal to the evaluation ranking numbers to perform temperature adjustment, the method further includes:

[0033] When any detection point corresponding to the preset terminal sequence number z shows the inflation effect information that meets the standard, the temperature value and inflation effect information corresponding to each detection point are obtained to calculate the simulated inflation concentration value C of each detection point. i,j ;

[0034] Count the overall standard quantity E, determine the overall inflation volume F based on the product of the overall standard quantity and the proposed inflation concentration value, and when the overall inflation volume is greater than the preset inflation volume threshold, generate an inflation stop signal and send it to the inflation and deflation component;

[0035] The calculation formula of the proposed inflation concentration value is:

[0036]

[0037] The calculation formula of the overall inflation volume is:

[0038] F=EC i,j

[0039] The terminal sort number is the maximum value of the sort number; D is the characteristic value of the inflation effect. When the inflation effect information is up to standard, D=1, and when the inflation effect information is not up to standard, D=0. α is the expansion coefficient of the target gas, and T i.j is the temperature value of the detection point, and T0 is the preset standard temperature value.

[0040] By adopting the above technical scheme, since gas easily expands with temperature changes, the mass of gas per unit volume after expansion will decrease. Therefore, when any detection point corresponding to the terminal sorting number shows inflation effect information that meets the standard, the simulated inflation concentration value is calculated as the target gas concentration evaluation value at each detection point according to the temperature value, inflation effect information, inflation effect characteristic value and expansion coefficient of the target gas at each detection point; the number of detection points with inflation effect information that meets the standard in the inflatable glass is counted to determine the overall number that meets the standard, and the overall inflation volume is determined according to the product of the overall number that meets the standard and the simulated inflation concentration value. When the overall inflation volume is greater than the inflation volume threshold, it is considered that the amount of target gas in the inflatable glass is sufficient, and an inflation stop signal is generated and sent to the inflation and deflation component to stop inflation.

[0041] The second invention objective of this application is achieved by the following technical solution:

[0042] A glass production and processing parameter monitoring system, applied to any of the above-mentioned glass production and processing parameter monitoring methods, comprising:

[0043] An inflation effect detection module, used to receive an inflation start signal and obtain inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not;

[0044] The inflation compliance rate calculation module is used to calculate the inflation compliance rates R corresponding to several previous evaluation rows when any detection point corresponding to the preset evaluation sequence number x has inflation effect information that meets the standard. i ;

[0045] a turbulence intervention instruction generating module, configured to calculate a first turbulence characteristic value and a second turbulence characteristic value based on each inflation compliance rate, calculate a turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generate a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold;

[0046] The temperature regulation execution module is used to receive the turbulence intervention instruction, control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and the detection points whose ranking numbers are greater than or equal to the evaluation ranking number to perform temperature regulation work, so as to promote the gas flow form in the corresponding area to tend to laminar flow;

[0047] The first turbulent characteristic value S 1k The calculation formula is:

[0048]

[0049] The second turbulent characteristic value S 2k The calculation formula is:

[0050]

[0051] The turbulence comprehensive characteristic value S k The calculation formula is:

[0052] S k =a1S 1k +a2S 2k

[0053] The inflatable glass is provided with an inflation hole at the bottom, and an exhaust hole at the top; the inflatable glass is provided with a plurality of detection points and temperature control points, and the inflatable glass fixture is provided with a temperature control component at each temperature control point, and each detection point is marked with a corresponding sorting number i and column number j, the sorting number of the detection point close to the ground is greater than the sorting number of the detection point far from the ground, and the column number of the detection point close to the exhaust hole among the detection points with the same sorting number is greater than the column number of the detection point far from the exhaust hole; the preceding evaluation row refers to a plurality of rows of detection points arranged before the evaluation sorting number; wherein n is the number of preceding evaluation rows, a1 is the first characteristic coefficient, and a2 is the second characteristic coefficient.

[0054] In a preferred example of the present application: the inflation effect detection module includes:

[0055] The target gas concentration detection submodule is used to receive the inflation start signal and obtain the target gas concentration at several detection points of the inflated glass through the gas detector;

[0056] The inflation effect association submodule is used to generate inflation effect information that meets the standard and associate it with the corresponding detection point based on the concentration of each target gas and the preset detection standard when the target gas concentration meets the detection standard;

[0057] The gas-filled glass fixture is provided with a gas detector at each detection point.

[0058] In a preferred example, the present application also includes:

[0059] The simulated inflation concentration value calculation submodule is used to obtain the temperature value and inflation effect information corresponding to each detection point when any detection point corresponding to the preset terminal sequence number z has inflation effect information that meets the standard, so as to calculate the simulated inflation concentration value C of each detection point.i,j ;

[0060] The inflation stop signal generating submodule is used to count the overall standard-reaching quantity E, determine the overall inflation volume F based on the product of the overall standard-reaching quantity and the proposed inflation concentration value, and generate an inflation stop signal and send it to the inflation and deflation component when the overall inflation volume is greater than a preset inflation volume threshold;

[0061] The calculation formula of the proposed inflation concentration value is:

[0062]

[0063] The calculation formula of the overall inflation volume is:

[0064] F=EC i,j

[0065] The inflatable glass fixture is provided with an inflating and deflation assembly, which includes an inflating device connected to the inflating hole and a deflation device connected to the deflation hole; the terminal sequence number is the maximum value of the sequence number; D is the characteristic value of the inflating effect, when the inflating effect information is up to standard, D=1, when the inflating effect information is not up to standard, D=0, α is the expansion coefficient of the target gas, and T i.j is the temperature value of the detection point, and T0 is the preset standard temperature value.

[0066] The third invention objective of this application is achieved by the following technical solution:

[0067] A computer device comprises a memory, a processor and a computer program stored in the memory and executable on the processor, wherein the processor implements the steps of the above-mentioned glass production and processing parameter monitoring method when executing the computer program.

[0068] The fourth invention objective of this application is achieved by the following technical solution:

[0069] A computer-readable storage medium stores a computer program, and when the computer program is executed by a processor, the steps of the above-mentioned glass production and processing parameter monitoring method are implemented.

[0070] In summary, the present application includes at least one of the following beneficial technical effects:

[0071] 1. When the glass starts to be filled with special gases such as argon, the inflation start signal is received, the argon concentration of several detection points on the inflated glass is detected, and the corresponding inflation effect information is obtained, including whether it meets the standard or not; when any detection point corresponding to the preset evaluation sequence number shows inflation effect information that meets the standard, it means that the argon has flowed to the row of detection points with a concentration that meets the standard, and several preceding evaluation rows located in the evaluation sequence number are determined and the inflation compliance rate of each preceding evaluation row is calculated; based on each inflation compliance rate, the first eigenvalue of turbulence and the second eigenvalue of turbulence are calculated, wherein the first eigenvalue of turbulence is used to evaluate the disorder of argon in several preceding evaluation rows, and the second eigenvalue of turbulence is used to evaluate the disorder of argon in several preceding evaluation rows, and the second eigenvalue of turbulence is used to evaluate the disorder of argon in several preceding evaluation rows. The value is used to evaluate the proportion of argon in several preceding evaluation rows, and a weighted sum is performed based on the first eigenvalue of turbulence and the second eigenvalue of turbulence to obtain a comprehensive turbulence eigenvalue. If the comprehensive turbulence eigenvalue is greater than the turbulence characteristic threshold, a turbulence intervention instruction is generated. According to the turbulence intervention instruction, the preceding evaluation row and all the detection points whose ranking numbers are greater than or equal to the evaluation ranking number are controlled to perform temperature regulation at the temperature control points in the area where the detection points are located, so as to reduce the Reynolds number of the argon flow in the area by temperature regulation, so as to promote the argon flow form in the area to tend to laminar flow, so as to improve the efficiency of argon filling and air discharge, thereby improving the production efficiency of argon-filled glass.

[0072] 2. The inflatable glass fixture is equipped with a gas detector at each detection point to detect the target gas concentration at each detection point in the inflatable glass; the target gas concentration is compared with the preset detection standard to determine the inflation effect information of each detection point, so as to analyze the distribution of the target gas filled inside the inflatable glass.

[0073] 3. Since gas easily expands with temperature changes, the mass of gas per unit volume after expansion will decrease. Therefore, when any detection point corresponding to the terminal sort number shows inflation effect information that meets the standard, the simulated inflation concentration value is calculated as the target gas concentration evaluation value at each detection point according to the temperature value, inflation effect information, inflation effect characteristic value and expansion coefficient of the target gas at each detection point; the number of detection points with inflation effect information that meets the standard in the inflatable glass is counted to determine the overall number that meets the standard, and the overall inflation volume is determined according to the product of the overall number that meets the standard and the simulated inflation concentration value. When the overall inflation volume is greater than the inflation volume threshold, it is considered that the amount of target gas in the inflatable glass is sufficient, and an inflation stop signal is generated and sent to the inflation and deflation component to stop inflation. BRIEF DESCRIPTION OF THE DRAWINGS

[0074] Figure 1 It is a flow chart of the glass production and processing parameter monitoring method in Example 1 of the present application.

[0075] Figure 2It is a principle block diagram of the glass production and processing parameter monitoring system in the second embodiment of the present application.

[0076] Figure 3 It is a schematic diagram of the equipment in Example 3 of the present application. DETAILED DESCRIPTION

[0077] The following is combined with Figures 1 to 3 This application is described in further detail.

[0078] Embodiment 1

[0079] Reference Figure 1 The present application discloses a method for monitoring glass production processing parameters, which is mainly used to monitor and adjust processing parameters in the process of filling a special gas other than air into a double-layer glass. The special gas can be argon, helium and other types of gases. This embodiment takes argon as an example for explanation. The method for monitoring glass production processing parameters specifically includes the following steps:

[0080] S10: receiving an inflation start signal, and obtaining inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not.

[0081] In this embodiment, the inflated glass refers to a double-layer glass placed on a fixture and is being or is about to be filled with a special gas, wherein the structure of the fixture is not the technical solution to be improved in this application, and an existing product on the market can be specifically selected; an inflation hole is provided at the bottom of the inflated glass for filling with a special gas, and an exhaust hole is provided at the top of the inflated glass for discharging or extracting the air in the inflated glass with an exhaust device; the inflated glass is provided with a number of detection points and temperature control points, preferably, the detection points are arranged in a matrix, the number of detection points in each row is equal, and the number of detection points in each column is also equal, and the detection points are used to detect whether the concentration of special gas in the corresponding area of ​​the inflated glass meets the standard; the temperature control point is arranged adjacent to the detection point, and each temperature control point corresponds to a detection point, and the fixture of the inflated glass is provided with a temperature control component and a temperature measuring instrument at each temperature control point, wherein the temperature control component is used to adjust the local temperature of the inflated glass, and a temperature regulating device with heating and cooling functions can be specifically selected.

[0082] Specifically, since different double-layer glass may have different internal smoothness, when special gas enters the double-layer glass from the air inlet hole and air / special gas is discharged from the double-layer glass through the exhaust hole, there are changes in tube diameter and space, which may promote the generation of turbulence; when the glass begins to be filled with special gas such as argon, the inflation start signal is received, the argon concentration at several detection points on the inflated glass is detected, and the corresponding inflation effect information is obtained, including whether it meets the standard or not.

[0083] Wherein, in step S10, it includes:

[0084] S11: receiving a gas filling start signal, and obtaining target gas concentrations at several detection points of the gas-filled glass through a gas detector.

[0085] In this embodiment, the fixture for gas-filled glass is provided with a gas detector at each detection point, wherein the gas detector may specifically be composed of one or more detection devices. Preferably, the gas detector includes an existing argon-filled glass detector on the market.

[0086] Specifically, the jig for the gas-filled glass is provided with a gas detector at each detection point, which is used to detect the target gas concentration at each detection point in the gas-filled glass.

[0087] S12: Based on the concentration of each target gas and the preset detection standard, when the target gas concentration meets the detection standard, the inflation effect information that meets the standard is generated and associated with the corresponding detection point.

[0088] In this embodiment, the method of determining whether the target gas concentration meets the detection standards can specifically be to detect whether the arc emitted by the argon-filled glass detector touches the inner wall on the other side of the double-layer glass to determine whether the target gas concentration meets the detection standards, or it can be determined by detecting whether the brightness of the arc light emitted by the argon-filled glass detector reaches a specific value. Specifically, the judgment can be made by combining image recognition technology and brightness detection technology.

[0089] Specifically, the concentration of each target gas is compared with the preset detection standard. When the target gas concentration meets the detection standard, the inflation effect information that meets the standard is generated. If the target gas concentration does not meet the detection standard, the inflation effect information that does not meet the standard is generated, thereby determining the inflation effect information of each detection point, so as to analyze the distribution of the target gas filled in the inflatable glass.

[0090] S20: When any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows i .

[0091] In this embodiment, each detection point is associated with a corresponding sorting number i and column number j. When the inflatable glass is fixed on the fixture, the sorting number of the detection point close to the ground is greater than the sorting number of the detection point far from the ground. Among several detection points with the same sorting number, the column number of the detection point close to the exhaust hole is greater than the column number of the detection point far from the exhaust hole; the preceding evaluation row refers to several rows of detection points arranged before the evaluation sorting number, and the number of preceding evaluation rows should be determined according to actual needs.

[0092] Specifically, when any detection point corresponding to the preset evaluation ranking number shows the inflation effect information that meets the standard, it means that the argon gas has flowed to the row of detection points at a standard concentration, and several preceding evaluation rows located in the evaluation ranking number are determined and the inflation compliance rate of each preceding evaluation row is calculated.

[0093] Before step S20, the following steps are included:

[0094] S21: Calculate the evaluation ranking number based on the total number of detection points m and the preset starting evaluation ratio value b1 and the previous evaluation ratio value b2 The number of previous evaluation rows

[0095] In this embodiment, preferably, the initial evaluation ratio value b1 is 30%, and the preceding evaluation ratio value b2 is 20%.

[0096] Specifically, based on the total number of rows of detection points and the preset starting evaluation ratio value, the evaluation ranking number is calculated as the starting condition for starting the work of judging whether there is turbulence in the target gas in the inflated glass. Based on the total number of rows of detection points and the preset preceding evaluation ratio value, the number of preceding evaluation rows is calculated to facilitate determining the judgment range when subsequently judging whether there is turbulence in the target gas in the inflated glass.

[0097] After step S20, the method further includes:

[0098] S22: If the turbulence comprehensive characteristic value is less than the turbulence characteristic threshold, when any detection point corresponding to the re-evaluation sequence number has the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows. i , the value of the current re-evaluation ranking number is equal to the previous evaluation ranking number plus one or the previous re-evaluation ranking number plus one.

[0099] In this embodiment, the re-evaluation ranking number refers to the ranking number determined by re-evaluating whether turbulence occurs in the special gas flow within the double-glazed glass and is used to determine the timing for starting the re-evaluation work; the previous evaluation ranking number / previous re-evaluation ranking number refers to the evaluation ranking number / re-evaluation ranking number corresponding to the last evaluation work of whether turbulence occurs in the special gas flow.

[0100] Specifically, if the initial judgment on whether there is turbulence in the inflated glass is that the comprehensive turbulence characteristic value is less than the turbulence characteristic threshold, the previous evaluation ranking number or the previous re-evaluation ranking number will be increased by one to determine the current re-evaluation ranking number. When any detection point corresponding to the re-evaluation ranking number shows that the inflation effect information meets the standard, the inflation compliance rates corresponding to several previous evaluation rankings will be recalculated.

[0101] S23: Calculate the first turbulence reassessment characteristic value and the second turbulence reassessment characteristic value based on each inflation compliance rate, calculate the turbulence reassessment comprehensive characteristic value based on the first turbulence reassessment characteristic value and the second turbulence reassessment characteristic value, and generate a turbulence intervention instruction when the turbulence reassessment comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold.

[0102] In this embodiment, the turbulence re-evaluation comprehensive characteristic value refers to the turbulence comprehensive characteristic value corresponding to the re-evaluation work of whether the special gas flow has a turbulence phenomenon.

[0103] Specifically, the turbulence re-evaluation comprehensive characteristic value is calculated, re-compared, and a turbulence intervention instruction is generated when the turbulence re-evaluation comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold.

[0104] S24: receiving a turbulence intervention instruction, and controlling the temperature control components in the areas corresponding to the detection points in the previous evaluation row and whose sequence numbers are greater than or equal to the re-evaluation sequence number to perform temperature regulation.

[0105] Specifically, the turbulence intervention instruction is received to control the temperature control component in the corresponding area of ​​the detection point to perform temperature regulation, thereby promoting the flow form of the target gas in the inflatable glass to tend to laminar flow. This scheme realizes continuous monitoring of the flow form of the target gas in the inflatable glass by rolling the re-evaluation sequence number.

[0106] S30: Calculate the first turbulence characteristic value and the second turbulence characteristic value based on each inflation compliance rate, calculate the turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generate a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold.

[0107] In this embodiment, the first turbulent characteristic value S 1k The calculation formula is:

[0108]

[0109] The second eigenvalue of turbulence S 2k The calculation formula is:

[0110]

[0111] Turbulence comprehensive characteristic value S k The calculation formula is:

[0112] S k =a1S 1k +a2S 2k

[0113] Where n is the number of previous evaluation rows, a1 is the first characteristic coefficient, and a2 is the second characteristic coefficient.

[0114] Specifically, based on each inflation compliance rate, the first turbulence eigenvalue and the second turbulence eigenvalue are calculated, wherein the first turbulence eigenvalue is used to evaluate the disorder of argon in several preceding evaluation rows, and the second turbulence eigenvalue is used to evaluate the proportion of gas volume in several preceding evaluation rows. A weighted summation is performed based on the first turbulence eigenvalue and the second turbulence eigenvalue to obtain a comprehensive turbulence eigenvalue. If the comprehensive turbulence eigenvalue is greater than the turbulence characteristic threshold, a turbulence intervention instruction is generated.

[0115] S40: receiving a turbulence intervention instruction, controlling the temperature control components in the areas corresponding to the detection points in the preceding evaluation row and whose ranking numbers are greater than or equal to the evaluation ranking numbers to perform temperature regulation, so as to promote the gas flow form in the corresponding areas to tend toward laminar flow.

[0116] Specifically, according to the turbulence intervention instruction, the temperature control points in the area where the detection points in the preceding evaluation row and all detection points with ranking numbers greater than or equal to the evaluation ranking number are located are controlled to perform temperature adjustment work, so as to reduce the Reynolds number of the argon flow in the area by temperature adjustment, so as to promote the argon flow form in the area to tend to laminar flow, so as to improve the efficiency of argon filling and air discharge, thereby improving the production efficiency of argon-filled glass.

[0117] Wherein, after step S40, the glass production and processing parameter monitoring method further includes:

[0118] S50: When any detection point corresponding to the preset terminal sequence number z shows the inflation effect information that meets the standard, the temperature value and inflation effect information corresponding to each detection point are obtained to calculate the simulated inflation concentration value C of each detection point. i,j .

[0119] In this embodiment, the calculation formula for the proposed inflation concentration value is:

[0120]

[0121] The terminal sort number is the maximum value of the sort number; D is the characteristic value of the inflation effect. When the inflation effect information is up to standard, D=1, and when the inflation effect information is not up to standard, D=0. α is the expansion coefficient of the target gas, and T i.j is the temperature value of the detection point, and T0 is the preset standard temperature value.

[0122] Specifically, since gas easily expands with changes in temperature, the mass of gas per unit volume after expansion will decrease. Therefore, when any detection point corresponding to the terminal sort number shows inflation effect information that meets the standard, the simulated inflation concentration value is calculated according to the temperature value, inflation effect information, inflation effect characteristic value and expansion coefficient of the target gas at each detection point, which is the target gas concentration evaluation value at each detection point.

[0123] S60: Count the overall number of qualified objects E, and determine the overall inflation volume F based on the product of the overall number of qualified objects and the simulated inflation concentration value. When the overall inflation volume is greater than a preset inflation volume threshold, generate an inflation stop signal and send it to the inflation and deflation component.

[0124] In this embodiment, the inflatable glass fixture is provided with an inflating and deflation assembly, which includes an inflating device connected to the inflating hole for filling a special gas and a deflation device connected to the deflation hole; the calculation formula of the overall inflated amount is:

[0125] F=EC i,j

[0126] Specifically, the number of detection points in the inflatable glass that meet the standards is counted to determine the overall standard number, and the overall inflation volume is determined based on the product of the overall standard number and the simulated inflation concentration value. When the overall inflation volume is greater than the inflation volume threshold, it is considered that the amount of target gas in the inflatable glass is sufficient, and an inflation stop signal is generated and sent to the inflation and deflation component to stop inflation.

[0127] It should be understood that the serial numbers of the steps in the above embodiments do not imply a sequence of execution. The execution sequence of each process should be determined by its function and internal logic, and should not constitute any limitation on the implementation process of the embodiments of the present application.

[0128] Embodiment 2

[0129] A glass production and processing parameter monitoring system, which corresponds to the glass production and processing parameter monitoring method in the above embodiment.

[0130] like Figure 2 As shown in the figure, the glass production and processing parameter monitoring system includes an inflation effect detection module, an inflation compliance rate calculation module, a turbulence intervention instruction generation module and a temperature adjustment execution module. The detailed description of each functional module is as follows:

[0131] An inflation effect detection module, used to receive an inflation start signal and obtain inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not;

[0132] The inflation compliance rate calculation module is used to calculate the inflation compliance rates R corresponding to several previous evaluation rows when any detection point corresponding to the preset evaluation sequence number x has inflation effect information that meets the standard. i ;

[0133] a turbulence intervention instruction generating module, configured to calculate a first turbulence characteristic value and a second turbulence characteristic value based on each inflation compliance rate, calculate a turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generate a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold;

[0134] The temperature regulation execution module is used to receive turbulence intervention instructions and control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and whose ranking numbers are greater than or equal to the evaluation ranking numbers to perform temperature regulation work to promote the gas flow form in the corresponding area to tend to laminar flow.

[0135] Among them, the inflation effect detection module also includes:

[0136] The target gas concentration detection submodule is used to receive the inflation start signal and obtain the target gas concentration at several detection points of the inflated glass through the gas detector;

[0137] The inflation effect association submodule is used to generate inflation effect information that meets the standard and associate it with the corresponding detection point based on the concentration of each target gas and the preset detection standard when the target gas concentration meets the detection standard.

[0138] Among them, the inflation compliance rate calculation module also includes:

[0139] The detection parameter setting submodule is used to calculate the evaluation ranking number based on the total number of detection points m and the preset starting evaluation ratio value b1 and the previous evaluation ratio value b2. The number of previous evaluation rows

[0140] The re-evaluation inflation compliance rate calculation submodule is used to calculate the inflation compliance rates R corresponding to several previous evaluation rows if the turbulence comprehensive characteristic value is less than the turbulence characteristic threshold and when any detection point corresponding to the re-evaluation sequence number has inflation effect information that meets the standard. i , the value of the current re-evaluation ranking number is equal to the previous evaluation ranking number plus one or the previous re-evaluation ranking number plus one;

[0141] a turbulence re-evaluation intervention instruction generation submodule, for calculating a turbulence re-evaluation first characteristic value and a turbulence re-evaluation second characteristic value based on each inflation compliance rate, calculating a turbulence re-evaluation comprehensive characteristic value based on the turbulence re-evaluation first characteristic value and the turbulence re-evaluation second characteristic value, and generating a turbulence intervention instruction when the turbulence re-evaluation comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold;

[0142] The re-evaluation temperature regulation execution submodule is used to receive turbulence intervention instructions and control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and whose ranking numbers are greater than or equal to the re-evaluation ranking number to perform temperature regulation work.

[0143] Among them, the glass production and processing parameter monitoring system also includes:

[0144] The simulated inflation concentration value calculation module is used to obtain the temperature value and inflation effect information corresponding to each detection point when any detection point corresponding to the preset terminal sort number z has inflation effect information that meets the standard, so as to calculate the simulated inflation concentration value C of each detection point. i,j ;

[0145] The inflation stop signal generation module is used to count the overall standard quantity E, determine the overall inflation volume F based on the product of the overall standard quantity and the simulated inflation concentration value, and when the overall inflation volume is greater than the preset inflation volume threshold, generate an inflation stop signal and send it to the inflation and deflation component.

[0146] For the specific limitations of the glass production and processing parameter monitoring system, please refer to the limitations of the glass production and processing parameter monitoring method in the above text, which will not be repeated here; the various modules in the above-mentioned glass production and processing parameter monitoring system can be implemented in whole or in part through software, hardware and their combination; the above-mentioned modules can be embedded in or independent of the processor in the computer device in the form of hardware, or can be stored in the memory of the computer device in the form of software, so that the processor can call and execute the corresponding operations of the above-mentioned modules.

[0147] Embodiment 3

[0148] A computer device, which may be a server, may have an internal structure as shown in Figure 3 As shown. The computer device includes a processor, a memory, a network interface and a database connected through a system bus. Among them, the processor of the computer device is used to provide computing and control capabilities. The memory of the computer device includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, a computer program and a database. The internal memory provides an environment for the operation of the operating system and the computer program in the non-volatile storage medium. The database of the computer device is used to store data such as inflation start signal, inflation effect information, evaluation ranking number, inflation compliance rate, turbulence first characteristic value, turbulence second characteristic value, turbulence comprehensive characteristic value, turbulence characteristic threshold, turbulence intervention instruction, etc. The network interface of the computer device is used to communicate with an external terminal through a network connection. When the computer program is executed by the processor, a method for monitoring glass production and processing parameters is implemented.

[0149] In one embodiment, a computer device is provided, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the following steps when executing the computer program:

[0150] S10: receiving an inflation start signal, and obtaining inflation effect information of several detection points of the inflatable glass, wherein the inflation effect information includes whether the inflatable glass meets the standard or not;

[0151] S20: When any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows i ;

[0152] S30: calculating a first turbulence characteristic value and a second turbulence characteristic value based on each inflation standard reaching rate, calculating a turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generating a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold value;

[0153] S40: receiving a turbulence intervention instruction, controlling the temperature control components in the areas corresponding to the detection points in the preceding evaluation row and whose ranking numbers are greater than or equal to the evaluation ranking numbers to perform temperature regulation, so as to promote the gas flow form in the corresponding areas to tend toward laminar flow.

[0154] In one embodiment, a computer readable storage medium is provided, on which a computer program is stored, and when the computer program is executed by a processor, the following steps are implemented:

[0155] S10: receiving an inflation start signal, and obtaining inflation effect information of several detection points of the inflatable glass, wherein the inflation effect information includes whether the inflatable glass meets the standard or not;

[0156] S20: When any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows i ;

[0157] S30: calculating a first turbulence characteristic value and a second turbulence characteristic value based on each inflation standard reaching rate, calculating a turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generating a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold value;

[0158] S40: receiving a turbulence intervention instruction, controlling the temperature control components in the areas corresponding to the detection points in the preceding evaluation row and whose ranking numbers are greater than or equal to the evaluation ranking numbers to perform temperature regulation, so as to promote the gas flow form in the corresponding areas to tend toward laminar flow.

[0159] Those skilled in the art can understand that all or part of the processes in the above-mentioned embodiment methods can be completed by instructing the relevant hardware through a computer program, and the computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to memory, storage, database or other media used in the embodiments provided in the present application can include non-volatile and / or volatile memory. Non-volatile memory can include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM) or flash memory. Volatile memory can include random access memory (RAM) or external cache memory. As an illustration and not limitation, RAM is available in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link (Synchlink), DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM).

[0160] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional units and modules is used as an example. In actual applications, the above-mentioned functions can be distributed and completed by different functional units and modules as needed, that is, the internal structure of the device can be divided into different functional units or modules to complete all or part of the functions described above.

[0161] The embodiments described above are only used to illustrate the technical solutions of the present application, rather than to limit them. Although the present application has been described in detail with reference to the aforementioned embodiments, it should be understood by those skilled in the art that the technical solutions described in the aforementioned embodiments may still be modified, or some of the features thereof may be replaced by equivalents. Such 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 application, and should all be included in the protection scope of the present application.

Claims

1. A method for monitoring glass production and processing parameters, characterized in that: include: Receiving an inflation start signal, and obtaining inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not; When any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows i ; Calculating a first turbulence characteristic value and a second turbulence characteristic value based on each inflation compliance rate, calculating a turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generating a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold value; Receive turbulence intervention instructions, control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and the detection points whose ranking numbers are greater than or equal to the evaluation ranking numbers to perform temperature regulation work, so as to promote the gas flow form in the corresponding area to tend to laminar flow; The first characteristic value of turbulence S 1k The calculation formula is: The second turbulent characteristic value S 2k The calculation formula is: The turbulence comprehensive characteristic value S k The calculation formula is: S k =a1S 1k +a2S 2k The bottom of the inflatable glass is provided with an inflation hole, and the top of the inflatable glass is provided with an exhaust hole; the inflatable glass is provided with a plurality of detection points and temperature control points, and the fixture of the inflatable glass is provided with a temperature control component at each temperature control point, and each detection point is marked with a corresponding sorting number i and a column number j, the sorting number of the detection point close to the ground is greater than the sorting number of the detection point far from the ground, and the column number of the detection point close to the exhaust hole among the detection points with the same sorting number is greater than the column number of the detection point far from the exhaust hole; the preceding evaluation row refers to a plurality of rows of detection points arranged before the evaluation sorting number; wherein n is the number of preceding evaluation rows, a1 is the first characteristic coefficient, and a2 is the second characteristic coefficient; When any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, the inflation standard rate R corresponding to several previous evaluation rows is calculated. i Previously, including: Calculate the evaluation ranking number based on the total number of detection points m and the preset starting evaluation ratio value b1 and the previous evaluation ratio value b2 The number of previous evaluation rows 2. A method for monitoring glass production and processing parameters according to claim 1, characterized in that: The jig for inflatable glass is provided with a gas detector at each detection point; The receiving of the inflation start signal and obtaining the inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not, includes: Receive the inflation start signal and obtain the target gas concentration at several detection points of the inflated glass through the gas detector; Based on the concentration of each target gas and the preset detection standard, when the target gas concentration meets the detection standard, the inflation effect information that meets the standard is generated and associated with the corresponding detection point.

3. A method for monitoring glass production and processing parameters according to claim 1, characterized in that: When any detection point corresponding to the preset evaluation sequence number x shows the inflation effect information that meets the standard, the inflation standard rate R corresponding to several previous evaluation rows is calculated. i After that, it also includes: If the turbulence comprehensive characteristic value is less than the turbulence characteristic threshold, when any detection point corresponding to the re-evaluation sequence number has the inflation effect information that meets the standard, calculate the inflation standard rate R corresponding to several previous evaluation rows. i , the value of the current re-evaluation ranking number is equal to the previous evaluation ranking number plus one or the previous re-evaluation ranking number plus one; Calculating a first turbulence reassessment characteristic value and a second turbulence reassessment characteristic value based on each inflation compliance rate, calculating a turbulence reassessment comprehensive characteristic value based on the first turbulence reassessment characteristic value and the second turbulence reassessment characteristic value, and generating a turbulence intervention instruction when the turbulence reassessment comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold value; Receive turbulence intervention instructions and control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and whose sorting numbers are greater than or equal to the re-evaluation sorting number to perform temperature regulation.

4. A method for monitoring glass production and processing parameters according to claim 1, characterized in that: The inflatable glass fixture is provided with an inflating and deflation assembly, and the inflating and deflation assembly includes an inflating device connected to the inflating hole and a deflation device connected to the deflation hole; After receiving the turbulence intervention instruction and controlling the temperature control components in the areas corresponding to the detection points in the preceding evaluation row and the detection points with the ranking numbers greater than or equal to the evaluation ranking numbers to perform temperature adjustment, the method further includes: When any detection point corresponding to the preset terminal sequence number z shows the inflation effect information that meets the standard, the temperature value and inflation effect information corresponding to each detection point are obtained to calculate the simulated inflation concentration value C of each detection point. i,j ; Count the overall standard quantity E, determine the overall inflation volume F based on the product of the overall standard quantity and the proposed inflation concentration value, and when the overall inflation volume is greater than the preset inflation volume threshold, generate an inflation stop signal and send it to the inflation and deflation component; The calculation formula of the proposed inflation concentration value is: The calculation formula of the overall inflation volume is: F=EC i,j The terminal sort number is the maximum value of the sort number; D is the characteristic value of the inflation effect. When the inflation effect information is up to standard, D=1, and when the inflation effect information is not up to standard, D=0. α is the expansion coefficient of the target gas, and T i.j is the temperature value of the detection point, and T0 is the preset standard temperature value.

5. A glass production and processing parameter monitoring system, characterized in that: The method for monitoring glass production and processing parameters as described in any one of claims 1 to 4 comprises: An inflation effect detection module, used to receive an inflation start signal and obtain inflation effect information of several detection points of the inflated glass, wherein the inflation effect information includes whether the inflated glass meets the standard or not; The inflation compliance rate calculation module is used to calculate the inflation compliance rates R corresponding to several previous evaluation rows when any detection point corresponding to the preset evaluation sequence number x has inflation effect information that meets the standard. i ; a turbulence intervention instruction generating module, configured to calculate a first turbulence characteristic value and a second turbulence characteristic value based on each inflation compliance rate, calculate a turbulence comprehensive characteristic value based on the first turbulence characteristic value and the second turbulence characteristic value, and generate a turbulence intervention instruction when the turbulence comprehensive characteristic value is greater than or equal to a preset turbulence characteristic threshold; The temperature regulation execution module is used to receive the turbulence intervention instruction, control the temperature control components in the corresponding areas of the detection points in the previous evaluation row and the detection points whose ranking numbers are greater than or equal to the evaluation ranking number to perform temperature regulation work, so as to promote the gas flow form in the corresponding area to tend to laminar flow; The first characteristic value of turbulence S 1k The calculation formula is: The second turbulent characteristic value S 2k The calculation formula is: The turbulence comprehensive characteristic value S k The calculation formula is: S k =a1S 1k +a2S 2k The bottom of the inflatable glass is provided with an inflation hole, and the top of the inflatable glass is provided with an exhaust hole; the inflatable glass is provided with a plurality of detection points and temperature control points, and the fixture of the inflatable glass is provided with a temperature control component at each temperature control point, and each detection point is marked with a corresponding sorting number i and a column number j, the sorting number of the detection point close to the ground is greater than the sorting number of the detection point far from the ground, and the column number of the detection point close to the exhaust hole among the detection points with the same sorting number is greater than the column number of the detection point far from the exhaust hole; the preceding evaluation row refers to a plurality of rows of detection points arranged before the evaluation sorting number; wherein n is the number of preceding evaluation rows, a1 is the first characteristic coefficient, and a2 is the second characteristic coefficient; Among them, the inflation compliance rate calculation module also includes: The detection parameter setting submodule is used to calculate the evaluation ranking number based on the total number of detection points m and the preset starting evaluation ratio value b1 and the previous evaluation ratio value b2. The number of previous evaluation rows 6. A glass production and processing parameter monitoring system according to claim 5, characterized in that: The inflation effect detection module comprises: The target gas concentration detection submodule is used to receive the inflation start signal and obtain the target gas concentration at several detection points of the inflated glass through the gas detector; The inflation effect association submodule is used to generate inflation effect information that meets the standard and associate it with the corresponding detection point based on the concentration of each target gas and the preset detection standard when the target gas concentration meets the detection standard; The gas-filled glass fixture is provided with a gas detector at each detection point.

7. A glass production and processing parameter monitoring system according to claim 5, characterized in that: Also includes: The simulated inflation concentration value calculation module is used to obtain the temperature value and inflation effect information corresponding to each detection point when the inflation effect information that meets the standard appears at any detection point corresponding to the preset terminal sorting number, so as to calculate the simulated inflation concentration value C of each detection point. i,j ; An inflation stop signal generating module is used to count the overall standard-reaching quantity E, determine the overall inflation volume F based on the product of the overall standard-reaching quantity and the proposed inflation concentration value, and generate an inflation stop signal and send it to the inflation and deflation component when the overall inflation volume is greater than a preset inflation volume threshold; The calculation formula of the proposed inflation concentration value is: The calculation formula of the overall inflation volume is: F=EC i,j The inflatable glass fixture is provided with an inflating and deflation assembly, which includes an inflating device connected to the inflating hole and a deflation device connected to the deflation hole; the terminal sequence number is the maximum value of the sequence number; D is the characteristic value of the inflating effect, when the inflating effect information is up to standard, D=1, when the inflating effect information is not up to standard, D=0, α is the expansion coefficient of the target gas, and T i.j is the temperature value of the detection point, and T0 is the preset standard temperature value.

8. A computer device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, characterized in that: When the processor executes the computer program, the steps of the glass production and processing parameter monitoring method according to any one of claims 1 to 4 are implemented.

9. A computer-readable storage medium storing a computer program, characterized in that: When the computer program is executed by a processor, the steps of the method for monitoring glass production processing parameters as claimed in any one of claims 1 to 4 are implemented.

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