Nanometer microcrystalline glass electron optical cover plate production quality detection method based on optics

Abstract

The invention relates to the technical field of production quality information security, in particular to an optics-based production quality detection method for a nano-glass-ceramic electronic optical cover plate, which comprises the following steps of: acquiring a to-be-displaced glass cover plate multi-source mechanism guide rail and a displaced glass cover plate multi-source mechanism guide rail which belong to a quality detection glass displacement range of the same production quality information format; performing request mechanism guide rail logic processing on a to-be-displaced glass cover plate multi-source mechanism guide rail to obtain a to-be-displaced request set; and acquiring an executed displacement request set corresponding to the displacement strategy in the glass cover plate multi-source mechanism guide rail subjected to displacement execution, and based on the matching degree between the executed displacement request set and the to-be-displaced request set, acquiring a displacement request set corresponding to the displacement strategy in the to-be-displaced glass cover plate multi-source mechanism guide rail from the to-be-displaced request set. According to the invention, the quality detection glass carrying multi-source mechanism guide rails in various formats can be effectively and accurately displaced, and a feedback result relatively meeting the displacement requirement is given for a displacement request.

Description

Technical Field

[0001] The present application relates to the field of production quality information security technology, and in particular to an optical-based production quality detection method for nano-ceramic glass electronic optical cover plates. Background Art

[0002] With the development of internet technology, production quality information has become one of a company's core assets, and ensuring its security has become a top priority. Existing technologies typically employ methods such as separating public and private keys, website blocking, or encryption to prevent the leakage of a company's production quality information and ensure its security.

[0003] Nano-ceramic glass is a composite material formed by uniformly distributing nano-scale crystals in a glass matrix. It has excellent optical properties (such as high light transmittance, low scattering, and tunable refractive index). Its optical inspection is used to evaluate material properties and guide process optimization. When using the production quality information model for application analysis of nano-ceramic glass based on optical inspection, it is necessary to perform range shifts on each dimension in the application. However, different applications may contain the same production quality information dimensions. The existing technology performs independent range shifts for different applications. For example, both the company's product quality inspection analysis and the company's product quality analysis require range shifts on the product. These different applications reference the same dimension, requiring repeated setting of the dimension range, which increases the operating steps and maintenance costs of the glass and easily leads to inconsistent definitions of the range production quality information. Summary of the Invention

[0004] To achieve the above objectives, this application provides the following technical solutions:

[0005] An optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates, comprising:

[0006] Obtaining a guide rail of a multi-source mechanism for a glass cover plate to be displaced and a guide rail of a multi-source mechanism for a glass cover plate that has already been displaced, wherein the guide rail of the multi-source mechanism for the glass cover plate to be displaced and the guide rail of the multi-source mechanism for the glass cover plate that has already been displaced belong to a quality inspection glass displacement range in the same production quality information format;

[0007] Performing request mechanism guide rail logic processing on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a set of requests to be displaced;

[0008] Obtaining a set of executed displacement requests corresponding to the displacement strategies in the guide rails of the multi-source mechanism for the executed displacement glass cover plate, and obtaining a set of displacement requests corresponding to the displacement strategies in the guide rails of the multi-source mechanism for the to-be-displaced glass cover plate from the set of to-be-displaced requests based on a matching degree between the executed displacement request set and the set of requests to be displaced.

[0009] Furthermore, the step of obtaining the matching degree between the executed displacement request set and the pending displacement request set includes:

[0010] Obtaining an order of the executed displacement request set based on a displacement history corresponding to the executed displacement request set in the guide rail of the executed displacement glass cover multi-source mechanism;

[0011] Based on the order of the executed displacement request sets, the range production quality information confidentiality of the executed displacement request sets and the range production quality information confidentiality of the request sets to be displaced, the matching degree between the executed displacement request sets and the request sets to be displaced is obtained.

[0012] Furthermore, the displacement history includes a displacement period and a displacement intensity.

[0013] Furthermore, obtaining the sequence of the executed displacement request set based on the displacement history corresponding to the executed displacement request set in the guide rail of the multi-source mechanism for the glass cover plate includes:

[0014] Obtaining a first confidence level of the executed displacement request set based on a displacement period corresponding to the executed displacement request set in the guide rail of the executed displacement glass cover multi-source mechanism;

[0015] Obtaining a second confidence level of the executed displacement request set based on displacement intensities corresponding to the executed displacement request set in the guide rail of the executed displacement glass cover multi-source mechanism;

[0016] Based on the first confidence level and the second confidence level, an order of the executed displacement request sets is obtained.

[0017] Furthermore, obtaining a degree of matching between the executed displacement request set and the pending displacement request set based on the order of the executed displacement request set, the range production quality information confidentiality level of the executed displacement request set, and the range production quality information confidentiality level of the pending displacement request set includes:

[0018] Obtaining a weighted feature of the executed displacement request set based on an order of the executed displacement request set and a confidentiality level of quality information of a range of the executed displacement request set;

[0019] An association calculation is performed on the confidentiality level of the range production quality information of the pending displacement request set and the weighted features of the executed displacement request set to obtain a matching degree between the executed displacement request set and the pending displacement request set.

[0020] Furthermore, the multi-source mechanism guide rail of the glass cover to be displaced is subjected to a request mechanism guide rail logic process to obtain a set of requests to be displaced, including:

[0021] Performing a request mechanism guide rail detection on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a plurality of request mechanism guide rails to be displaced;

[0022] The guide rails of the mechanism to be displaced that belong to the same format are set as a group to obtain multiple guide rail groups of the mechanism to be displaced.

[0023] Furthermore, it also includes:

[0024] Based on the request mechanism guide rail format in each request mechanism guide rail group, a matching request mechanism guide rail group is obtained from each request mechanism guide rail group;

[0025] The request mechanism guide rail logic processing is performed between the matched groups of the mechanism guide rails to be moved, and the set of the request to be moved is obtained.

[0026] Furthermore, the step of performing a request mechanism guide rail detection on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a plurality of request mechanism guide rails to be displaced includes:

[0027] Under multiple predetermined request mechanism guide rail formats, sequentially perform request mechanism guide rail detection on the multi-source mechanism guide rail of the glass cover to be displaced to obtain the request mechanism guide rail to be displaced corresponding to each predetermined request mechanism guide rail format;

[0028] The guide rail of the multi-source mechanism of the glass cover plate that has been subjected to displacement is the corresponding displacement range of the quality inspection glass within a predetermined period of time.

[0029] This optical-based method for inspecting the production quality of nano-ceramic glass electronic optical cover plates involves obtaining multi-source mechanism guide rails for glass cover plates to be displaced and those that have already been displaced, both of which fall within the same quality inspection glass displacement range format of production quality information. The method then performs mechanism guide rail logic processing on the multi-source mechanism guide rails for the glass cover plates to be displaced to obtain a set of requests to be displaced. Furthermore, the method obtains a set of executed displacement requests corresponding to the displacement strategies in the multi-source mechanism guide rails for the glass cover plates that have already been displaced, and based on the degree of matching between the executed displacement request set and the set of requests to be displaced, obtains a set of displacement requests corresponding to the displacement strategies in the multi-source mechanism guide rails for the glass cover plates to be displaced from the set of requests to be displaced. The present invention can effectively and accurately displace quality inspection glass equipped with multi-source mechanism guide rails in various formats, and provides feedback results that relatively meet the displacement requirements for the displacement requests. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 This is a workflow diagram of an optical-based method for detecting the production quality of an electronic optical cover plate made of nano-ceramic glass, as claimed in an embodiment of the present application;

[0031] Figure 2A second workflow diagram of an optical-based method for detecting the production quality of an electronic optical cover plate of nano-ceramic glass as claimed in an embodiment of the present application;

[0032] Figure 3 A third workflow diagram of an optical-based method for detecting the production quality of an electronic optical cover plate of nano-ceramic glass as claimed in an embodiment of the present application;

[0033] Figure 4 A fourth workflow diagram of an optical-based method for detecting the production quality of an electronic optical cover plate of nano-ceramic glass as claimed in an embodiment of the present application;

[0034] Figure 5 This is the fifth workflow diagram of an optical-based method for detecting the production quality of an electronic optical cover plate of nano-ceramic glass as claimed in the embodiments of the present application. DETAILED DESCRIPTION

[0035] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0036] The present invention provides an optical-based method for detecting the production quality of a nano-ceramic glass electronic optical cover plate. Figure 1 This is a flow chart of the optical-based method for detecting the production quality of the nano-ceramic glass electronic optical cover provided by the present invention, as shown in FIG. Figure 1 As shown, the method includes the following steps:

[0037] Step 110 , obtaining the guide rails of the multi-source mechanism for the glass cover plate to be displaced and the guide rails of the multi-source mechanism for the glass cover plate that has been displaced, wherein the guide rails of the multi-source mechanism for the glass cover plate to be displaced and the guide rails of the multi-source mechanism for the glass cover plate that has been displaced belong to the same quality inspection glass displacement range of the production quality information format.

[0038] A "performed displacement glass cover multi-source mechanism guide rail" refers to an executed action that includes a displacement strategy. For example, a "performed displacement glass cover multi-source mechanism guide rail" can be an offensive action that includes a displacement strategy executed by the operator. The "to-be-displaced glass cover multi-source mechanism guide rail" and the "performed displacement glass cover multi-source mechanism guide rail" are both part of the same production quality information format for quality inspection glass displacement ranges.

[0039] Step 120 : Performing logic processing of the request mechanism guide rail on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a set of requests to be displaced.

[0040] Specifically, performing logic processing of request mechanism guide rails on the multi-source mechanism guide rails of the glass cover to be displaced refers to detecting the request mechanism guide rails from the multi-source mechanism guide rails of the glass cover to be displaced and processing the intelligence logic between the request mechanism guide rails, and constructing a request set to be displaced based on the detected request mechanism guide rails and the intelligence logic between the request mechanism guide rails.

[0041] It can be understood that since the multi-source mechanism guide rail of the glass cover to be displaced is an execution behavior that requires displacement strategy detection, there may or may not be a displacement strategy in the multi-source mechanism guide rail of the glass cover to be displaced, that is, there may or may not be a displacement request set corresponding to the displacement strategy in the obtained request set to be displaced.

[0042] Among them, when performing request mechanism guide rail logic processing on the multi-source mechanism guide rail of the glass cover to be displaced, the multi-source mechanism guide rail of the glass cover to be displaced can be firstly subjected to request mechanism guide rail detection to obtain multiple request mechanism guide rails to be displaced, and then a classification model is used to obtain the request mechanism guide rail logic between each request mechanism guide rail to be displaced; the logic between the request mechanism guide rails to be displaced and the request mechanism guide rails to be displaced in the multi-source mechanism guide rail of the glass cover to be displaced can also be processed simultaneously, and the embodiment of the present invention does not make specific limitations on this.

[0043] Step 130: Obtain a set of executed displacement requests corresponding to the displacement strategies in the guide rails of the multi-source mechanism for displacing the glass cover plate. Based on the degree of matching between the executed displacement request set and the set of requests to be displaced, obtain a set of displacement request corresponding to the displacement strategies in the guide rails of the multi-source mechanism for displacing the glass cover plate from the set of requests to be displaced.

[0044] Specifically, the executed displacement request set can be understood as the displacement request set corresponding to the displacement strategy in the executed displacement glass cover multi-source mechanism guide rail. In some specific embodiments, the executed displacement glass cover multi-source mechanism guide rail can be subjected to request mechanism guide rail logic processing to obtain a candidate executed displacement request set, and the candidate executed displacement request set is matched with a request library storing a plurality of displacement request sets corresponding to displacement strategies, and the executed displacement request set corresponding to the displacement strategy is obtained from the candidate executed displacement request set. In some specific embodiments, the executed displacement request set corresponding to the displacement strategy can be obtained from the executed displacement glass cover multi-source mechanism guide rail based on the displacement strategy label in the executed displacement glass cover multi-source mechanism guide rail.

[0045] In addition, the matching degree between the executed displacement request set and the pending displacement request set is used to characterize the similarity between the executed displacement request set and the pending displacement request set. The higher the matching degree, the higher the similarity between the executed displacement request set and the pending displacement request set, and the greater the probability that the pending displacement request set contains the displacement strategy in the executed displacement request set.

[0046] Optionally, when the matching degree between any pending displacement request set and the executed displacement request set is greater than a threshold, the corresponding pending displacement request set is obtained as the displacement request set corresponding to the displacement strategy.

[0047] In some specific implementations, before obtaining the displacement request set corresponding to the displacement strategy in the multi-source mechanism guide rail of the glass cover plate to be displaced from the request set to be displaced based on the matching degree between the executed displacement request set and the request set to be displaced, the request set to be displaced and the executed displacement request set are linked to the request mechanism guide rails in sequence, so that the multi-source mechanism guide rail of the glass cover plate to be displaced and the request mechanism guide rails in the multi-source mechanism guide rail of the executed displacement glass cover plate can be linked to the corresponding request mechanism guide rails in their request library, avoiding the problem that the ambiguity between the request mechanism guide rails affects the accuracy of obtaining the matching degree between the executed displacement request set and the request set to be displaced.

[0048] It can be seen that the optical-based nano-crystalline glass electronic optical cover production quality inspection method provided by the embodiment of the present invention, since the executed displacement request set is the displacement request set corresponding to the displacement strategy, based on the matching degree between the executed displacement request set and the request set to be displaced, can accurately obtain the displacement request set corresponding to the displacement strategy in the guide rail of the multi-source mechanism of the glass cover to be displaced from the request set to be displaced, thereby further improving the detection accuracy of the displacement strategy.

[0049] Based on the above embodiments, Figure 2 is a flow chart of a method for obtaining the matching degree between the executed displacement request set and the pending displacement request set provided by the present invention, such as Figure 2 As shown, the steps of obtaining the matching degree between the executed displacement request set and the pending displacement request set include:

[0050] Step 210: Obtain the order of the executed displacement request sets based on the displacement history corresponding to the executed displacement request sets in the guide rails of the multi-source mechanism for the glass cover plate;

[0051] Step 220: Based on the order of the executed displacement request sets, the range production quality information confidentiality of the executed displacement request sets, and the range production quality information confidentiality of the request sets to be displaced, obtain the matching degree between the executed displacement request sets and the request sets to be displaced.

[0052] The scope production quality information classification of the executed displacement request set is used to characterize the intelligence of the executed displacement request set, while the scope production quality information classification of the pending displacement request set is used to characterize the intelligence of the pending displacement request set. Based on the scope production quality information classification of the executed displacement request set and the scope production quality information classification of the pending displacement request set, the intelligence matching degree between the executed displacement request set and the pending displacement request set can be determined. The greater the intelligence matching degree and the higher the ranking, the higher the matching degree between the executed displacement request set and the pending displacement request set.

[0053] Based on any of the above embodiments, the displacement history includes a displacement period and a displacement intensity;

[0054] Figure 3 is a flow chart of an implementation of step 210 in the method for obtaining the matching degree between the executed displacement request set and the pending displacement request set provided by the present invention, as shown in FIG. Figure 3 As shown, step 210 includes:

[0055] Step 211: Obtain a first confidence level of the executed displacement request set based on the displacement period corresponding to the executed displacement request set in the guide rail of the multi-source mechanism for the executed displacement glass cover;

[0056] Step 212: Obtain a second confidence level of the executed displacement request set based on the displacement strength corresponding to the executed displacement request set in the guide rail of the multi-source mechanism for the glass cover plate;

[0057] Step 213: Based on the first confidence level and the second confidence level, obtain the order of the executed displacement request sets.

[0058] Specifically, the closer the displacement cycle is to the current cycle corresponding to the multi-source mechanism guide rail of the glass cover plate to be displaced, the higher the probability that the operator will displace the multi-source mechanism guide rail of the glass cover plate that has been displaced again, that is, the higher the probability that the multi-source mechanism guide rail of the glass cover plate to be displaced contains the displacement strategy of the multi-source mechanism guide rail of the glass cover plate that has been displaced, and the greater the first confidence level.

[0059] The greater the displacement intensity, the higher the operator's interest in the displacement strategy in the multi-source mechanism guide rail of the glass cover plate that has been displaced. Therefore, the higher the probability that the operator will displace the multi-source mechanism guide rail of the glass cover plate that has been displaced again. That is, the higher the probability that the multi-source mechanism guide rail of the glass cover plate to be displaced contains the displacement strategy in the multi-source mechanism guide rail of the glass cover plate that has been displaced, the greater the second confidence level.

[0060] On this basis, the order of the executed displacement request sets is obtained based on the first confidence level and the second confidence level. Alternatively, the order of the executed displacement request sets can be obtained based on the product of the first confidence level and the second confidence level, or based on the sum of the first confidence level and the second confidence level.

[0061] Based on any of the above embodiments, Figure 4 is a flow chart of an implementation of step 220 in the method for obtaining the matching degree between the executed displacement request set and the pending displacement request set provided by the present invention, as shown in FIG. Figure 4 As shown, step 220 includes:

[0062] Step 221: Obtain weighted features of the executed displacement request set based on the order of the executed displacement request set and the confidentiality level of the range production quality information of the executed displacement request set;

[0063] Step 222: perform correlation calculation on the confidentiality level of the range production quality information of the to-be-displaced request set and the weighted features of the executed displacement request set to obtain the matching degree between the executed displacement request set and the to-be-displaced request set.

[0064] In some specific embodiments, the production quality information security level of the executed displacement request set can be weighted based on the order of the executed displacement request set to obtain a weighted feature of the executed displacement request set. The weighted feature can be used to characterize the probability of a displacement strategy in the executed displacement request set occurring in the guide rail of the multi-source mechanism for the glass cover plate to be displaced.

[0065] By performing an association calculation on the confidentiality level of the range production quality information of the to-be-displaced request set and the weighted characteristics of the executed displacement request set, the matching degree between the executed displacement request set and the to-be-displaced request set can be obtained. The higher the matching degree, the higher the similarity between the to-be-displaced request set and the executed displacement request set, and the greater the probability that the to-be-displaced request set contains the displacement strategy in the executed displacement request set.

[0066] Based on any of the above embodiments, Figure 5 1 is a flow chart of an embodiment of step 120 in the optical-based nano-ceramic glass electronic optical cover production quality inspection method provided by the present invention, as shown in FIG. Figure 5 As shown, step 120 includes:

[0067] Step 121: perform a request mechanism guide rail detection on the multi-source mechanism guide rail of the glass cover to be displaced, and obtain a plurality of request mechanism guide rails to be displaced;

[0068] Step 122: Group the guide rails of the mechanism to be displaced that have the same format into a group, thereby obtaining a plurality of guide rail groups of the mechanism to be displaced;

[0069] Step 123: Based on the request mechanism guide rail format in each request mechanism guide rail group, a matching request mechanism guide rail group is obtained from each request mechanism guide rail group;

[0070] Step 124 : Perform logic processing of the requesting mechanism guide rails between the matching groups of the mechanism guide rails to be displaced, and obtain a set of the requesting mechanism guide rails to be displaced.

[0071] The embodiment of the present invention performs a request mechanism rail detection on the multi-source mechanism rails of the glass cover to be displaced, obtains a plurality of request mechanism rails to be displaced, and sets the request mechanism rails to be displaced that belong to the same format into a group, obtains a plurality of request mechanism rail groups to be displaced, thereby obtaining a matching request mechanism rail group to be displaced from each request mechanism rail group to be displaced based on the request mechanism rail format in each request mechanism rail group to be displaced, and performs request mechanism rail logic processing between the matching request mechanism rail groups to be displaced to obtain a request set to be displaced. Among them, the matching request mechanism rail groups to be displaced can be understood as two request mechanism rail groups to be displaced where there is a request mechanism rail logic between the request mechanism rails between the groups. For example, if request mechanism rail group 1 to be displaced and request mechanism rail group 2 to be displaced are matching request mechanism rail groups to be displaced, then there is a request mechanism rail logic between the request mechanism rail in request mechanism rail group 1 and the request mechanism rail in request mechanism rail group 2.

[0072] In this embodiment of the present invention, the request mechanism rail group corresponding to the person and the request mechanism rail group corresponding to the organization are used as matching request mechanism rail groups. That is, the quality level of the request mechanism rail tags in both request mechanism rail groups is set to 1, and the quality level of the remaining request mechanism rail tags is set to 0. On this basis, the request mechanism rail logic between the request mechanism rails is determined for the request mechanism rail tags with a quality level of 1, while the request mechanism rail logic determination is not performed for the request mechanism rail tags with a quality level of 0.

[0073] It can be seen that the embodiment of the present invention addresses the problem of high time complexity of joint processing. Based on the request mechanism guide track format in each request mechanism guide track group to be displaced, a matching request mechanism guide track group to be displaced is obtained from each request mechanism guide track group to be displaced, and request mechanism guide track logic processing is performed between the matching request mechanism guide track groups to be displaced to obtain a request set to be displaced, which greatly reduces the strength of distinguishing the head request mechanism guide track and the tail request mechanism guide track, reduces the processing complexity, and at the same time, performs request mechanism guide track logic processing between the matching request mechanism guide track groups to be displaced, which greatly improves the accuracy of request mechanism guide track logic processing, and thus can accurately obtain the request set to be displaced.

[0074] Based on any of the above embodiments, a request mechanism guide rail detection is performed on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a plurality of request mechanism guide rails to be displaced, including:

[0075] Under multiple predetermined request mechanism guide rail formats, request mechanism guide rail detection is performed on the multi-source mechanism guide rails of the glass cover to be displaced in sequence to obtain the request mechanism guide rails to be displaced corresponding to each predetermined request mechanism guide rail format.

[0076] The embodiment of the present invention addresses the overlapping phenomenon of request mechanism guide rails and processes the request mechanism guide rails under each predetermined request mechanism guide rail format, which can avoid the problem of missing nested request mechanism guide rails and losing key information, and greatly improves the accuracy of detecting the request mechanism guide rails to be displaced.

[0077] Based on any of the above embodiments, the guide rail of the multi-source mechanism for the glass cover plate that has been displaced corresponds to the displacement range of the quality inspection glass within a predetermined period of time.

[0078] Specifically, the closer the displacement cycle corresponding to the guide rail of the multi-source mechanism of the glass cover plate that has been displaced is to the displacement cycle corresponding to the guide rail of the multi-source mechanism of the glass cover plate to be displaced, the greater the probability that the operator will displace the displacement strategy in the guide rail of the multi-source mechanism of the glass cover plate that has been displaced again. Therefore, the predetermined time period can be set to a time period that is closer to the displacement cycle corresponding to the guide rail of the multi-source mechanism of the glass cover plate to be displaced, so that the displacement strategy of the guide rail of the multi-source mechanism of the glass cover plate to be displaced can be accurately detected, thereby improving the accuracy of the displacement strategy detection result.

[0079] Based on any of the above embodiments, the present invention provides another optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates, including:

[0080] First, obtain the guide rails of the multi-source mechanism for the glass cover plate to be displaced and the guide rails of the multi-source mechanism for the glass cover plate that has been displaced, wherein the guide rails of the multi-source mechanism for the glass cover plate to be displaced and the guide rails of the multi-source mechanism for the glass cover plate that has been displaced belong to the quality inspection glass displacement range of the same production quality information format.

[0081] Next, under multiple predetermined request mechanism guide formats, request mechanism guide detection is performed on the multi-source mechanism guides of the glass cover to be displaced in sequence, obtaining the request mechanism guides to be displaced corresponding to each predetermined request mechanism guide format. The request mechanism guides to be displaced belonging to the same format are grouped together to obtain multiple request mechanism guide groups to be displaced. Based on the request mechanism guide format in each request mechanism guide group to be displaced, matching request mechanism guide groups to be displaced are obtained from each request mechanism guide group to be displaced. Request mechanism guide logic processing is performed between the matching request mechanism guide groups to be displaced to obtain a request set to be displaced. Request mechanism guide linking is performed on the request set to be displaced to map the request set to the expression in the prior request library.

[0082] Key information matching is performed on the executed displacement glass cover multi-source mechanism guide rail to obtain the executed displacement request set corresponding to the displacement strategy in the executed displacement glass cover multi-source mechanism guide rail. The executed displacement request set is linked to the request mechanism guide rail to map the executed displacement request set to the expression in the prior request library.

[0083] After obtaining the executed displacement request set, the order of the executed displacement request set is obtained based on the displacement history corresponding to the executed displacement request set in the guide rail of the executed displacement glass cover multi-source mechanism, and the matching degree between the executed displacement request set and the pending displacement request set is obtained based on the order of the executed displacement request set, the range production quality information level of the executed displacement request set and the range production quality information level of the pending displacement request set.

[0084] Finally, based on the matching degree between the executed displacement request set and the pending displacement request set, the displacement request set corresponding to the displacement strategy in the guide rail of the multi-source mechanism of the glass cover to be displaced is obtained from the pending displacement request set.

[0085] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A method for detecting the production quality of an optical nano-glass-ceramic electronic optical cover plate, characterized in that: include: Obtaining a guide rail of a multi-source mechanism for a glass cover plate to be displaced and a guide rail of a multi-source mechanism for a glass cover plate that has already been displaced, wherein the guide rail of the multi-source mechanism for the glass cover plate to be displaced and the guide rail of the multi-source mechanism for the glass cover plate that has already been displaced belong to a quality inspection glass displacement range in the same production quality information format; Performing request mechanism guide rail logic processing on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a set of requests to be displaced; Obtaining a set of executed displacement requests corresponding to the displacement strategies in the guide rails of the multi-source mechanism for the executed displacement glass cover plate, and obtaining a set of displacement requests corresponding to the displacement strategies in the guide rails of the multi-source mechanism for the to-be-displaced glass cover plate from the set of to-be-displaced requests based on a matching degree between the executed displacement request set and the set of requests to be displaced.

2. The optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates according to claim 1, wherein: The step of obtaining the matching degree between the executed displacement request set and the pending displacement request set includes: Obtaining an order of the executed displacement request set based on a displacement history corresponding to the executed displacement request set in the guide rail of the multi-source mechanism for the glass cover plate; Based on the order of the executed displacement request sets, the range production quality information confidentiality of the executed displacement request sets and the range production quality information confidentiality of the request sets to be displaced, the matching degree between the executed displacement request sets and the request sets to be displaced is obtained.

3. The optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates according to claim 2, wherein: The displacement history includes a displacement period and a displacement intensity.

4. The optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates according to claim 3, wherein: The obtaining the sequence of the executed displacement request set based on the displacement history corresponding to the executed displacement request set in the guide rail of the multi-source mechanism for the glass cover plate includes: Obtaining a first confidence level of the executed displacement request set based on a displacement period corresponding to the executed displacement request set in the guide rail of the executed displacement glass cover multi-source mechanism; Obtaining a second confidence level of the executed displacement request set based on displacement intensities corresponding to the executed displacement request set in the guide rail of the multi-source mechanism for the glass cover plate; Based on the first confidence level and the second confidence level, an order of the executed displacement request sets is obtained.

5. The optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates according to claim 2, wherein: The obtaining of a matching degree between the executed displacement request set and the pending displacement request set based on the order of the executed displacement request set, the range production quality information confidentiality level of the executed displacement request set, and the range production quality information confidentiality level of the pending displacement request set includes: Obtaining a weighted feature of the executed displacement request set based on an order of the executed displacement request set and a confidentiality level of quality information of a range of the executed displacement request set; An association calculation is performed on the confidentiality level of the range production quality information of the pending displacement request set and the weighted features of the executed displacement request set to obtain a matching degree between the executed displacement request set and the pending displacement request set.

6. The optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates according to claim 2, wherein: The step of performing a request mechanism guide rail logic processing on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a set of requests to be displaced includes: Performing a request mechanism guide rail detection on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a plurality of request mechanism guide rails to be displaced; The guide rails of the mechanism to be displaced that belong to the same format are set as a group to obtain multiple guide rail groups of the mechanism to be displaced.

7. The optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates according to claim 6, wherein: Also includes: Based on the request mechanism guide rail format in each request mechanism guide rail group, a matching request mechanism guide rail group is obtained from each request mechanism guide rail group; The request mechanism guide rail logic processing is performed between the matched groups of the mechanism guide rails to be moved, and the set of the request to be moved is obtained.

8. The optical-based method for detecting the production quality of nano-ceramic glass electronic optical cover plates according to claim 4, wherein: The step of performing a request mechanism guide rail detection on the multi-source mechanism guide rail of the glass cover to be displaced to obtain a plurality of request mechanism guide rails to be displaced comprises: Under multiple predetermined request mechanism guide rail formats, sequentially perform request mechanism guide rail detection on the multi-source mechanism guide rail of the glass cover to be displaced to obtain the request mechanism guide rail to be displaced corresponding to each predetermined request mechanism guide rail format; The guide rail of the multi-source mechanism of the glass cover plate that has been subjected to displacement is the corresponding displacement range of the quality inspection glass within a predetermined period of time.

Images