Method and device for tracing the thermal lamination temperature of an electrically conductive adhesive tape

Abstract

The application discloses a hot compounding temperature tracing method and device for electrically conductive adhesive tape, and comprises the following steps: obtaining batch data of raw materials, generating a first two-dimensional code according to the batch data, and printing the first two-dimensional code on the base film of the raw materials; the raw materials are preset into a plurality of pre-cut regions; when the raw materials are hot compounded into semi-finished products, the compounding temperature data and compounding time data of the plurality of pre-cut regions are obtained; the compounding temperature data and compounding time data of the plurality of pre-cut regions are imported into the first two-dimensional code; the data of the first two-dimensional code is obtained; the semi-finished products are die-cut into a plurality of finished products according to the pre-cut regions; and a plurality of prompt data are generated by combining the batch data, the compounding temperature data and the compounding time data of the plurality of pre-cut regions, so that the technical problem that the temperature data of corresponding batches cannot be traced in the generation of electrically conductive adhesive tape is solved.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of generating electrolytic adhesive tape, in particular to a heat compounding temperature tracing method and device for electrolytic adhesive tape. BACKGROUND

[0002] Electrolytic adhesive tape is a special kind of tape, usually made by hot compounding aluminum-plated film (AL-PET) with pressure-sensitive adhesive and EDS adhesive. Its characteristic is that it can lose adhesion after being electrified, so it is often used when bonding mobile phone batteries and mobile phone back covers. When electrolytic adhesive tape is used to bond mobile phone batteries and mobile phone back covers, pressure-sensitive adhesive and EDS adhesive work together to provide strong bonding. When the mobile phone needs to be disassembled for maintenance or battery replacement, by applying appropriate voltage to the aluminum-plated film, current passes through the EDS adhesive, triggering an electrolytic reaction, which changes the molecular structure of the EDS adhesive, significantly reducing its adhesion. At this time, the tape becomes easy to peel off without damaging the battery or mobile phone back cover, and without leaving residue that is difficult to remove.

[0003] When generating electrolytic adhesive tape, the aluminum-plated film needs to be compounded with pressure-sensitive adhesive and EDS adhesive by heating to make them stick together, and then the semi-finished product is cut into multiple finished products. However, the temperature during the heat compounding process must be precisely controlled. If the temperature is too low, the pressure-sensitive adhesive and EDS adhesive will not melt enough, resulting in insufficient adhesion. If the adhesion is too low, the tape cannot effectively fix the battery and back cover, which may cause the components to fall off during assembly or use. However, there is no method to trace the temperature data of the corresponding batch after the current electrolytic adhesive tape is generated, which may cause quality problems such as insufficient adhesion, and it is difficult to determine which batch has abnormal temperature, causing inconvenience in production. SUMMARY

[0004] The present application aims to at least solve one of the technical problems existing in the prior art. To this end, the present application proposes a heat compounding temperature tracing method and device for electrolytic adhesive tape, which can solve the technical problem that the temperature data of the corresponding batch is not traced during the generation of electrolytic adhesive tape.

[0005] The heat compounding temperature tracing method for electrolytic adhesive tape according to the first aspect of the present application comprises:

[0006] Obtaining batch data of raw materials, generating a first two-dimensional code according to the batch data, and printing the first two-dimensional code on the bottom film of the raw materials;

[0007] The raw materials are pre-set into a plurality of pre-cut regions, and when the raw materials are hot compounded into semi-finished products, the compounding temperature data and compounding time data of the plurality of pre-cut regions are obtained;

[0008] The composite temperature data and the composite time data of the plurality of pre-cutting areas are imported into a first two-dimensional code;

[0009] The data of the first two-dimensional code is acquired, the semi-finished product is die-cut into a plurality of finished products according to the pre-cutting areas, the batch data, the composite temperature data and the composite time data of the plurality of pre-cutting areas are used to generate a plurality of prompt data, a plurality of blank second two-dimensional codes are acquired, the plurality of prompt data are imported into the plurality of second two-dimensional codes, and the plurality of second two-dimensional codes are printed on the plurality of finished products respectively.

[0010] According to some embodiments of the present application, the batch data of the raw material comprises:

[0011] A third two-dimensional code of a roll of the raw material is identified, and the third two-dimensional code comprises batch data.

[0012] According to some embodiments of the present application, the raw material is pre-set into a plurality of pre-cutting areas, which comprises:

[0013] The length of the raw material is acquired.

[0014] A plurality of cutting lines are printed at intervals according to the length of the raw material, and the interval between adjacent cutting lines is the pre-cutting area.

[0015] According to some embodiments of the present application, the length of the raw material is acquired, which comprises:

[0016] Standard raw material length data is acquired, comparison data is generated according to the comparison between the length of the raw material and the standard raw material length data, and the raw material is pre-set with or without a surplus area according to the comparison data.

[0017] According to some embodiments of the present application, the standard raw material length data is acquired, the comparison data is generated according to the comparison between the length of the raw material and the standard raw material length data, and the raw material is pre-set with or without a surplus area according to the comparison data.

[0018] When the length of the raw material is longer than the standard raw material length data, unqualified comparison data is generated, and the raw material is pre-set with a surplus area according to the unqualified comparison data.

[0019] When the length of the raw material is equal to the standard raw material length data, qualified comparison data is generated, and the raw material is not pre-set with a surplus area according to the qualified comparison data.

[0020] According to some embodiments of the present application, the data of the first two-dimensional code is acquired, the semi-finished product is die-cut into a plurality of finished products according to the pre-cutting areas, batch data, composite temperature data and composite time data of a plurality of the pre-cutting areas are used to generate a plurality of prompt data, a plurality of blank second two-dimensional codes are acquired, the plurality of prompt data are imported into the plurality of second two-dimensional codes, and the plurality of second two-dimensional codes are printed on the plurality of finished products, respectively, including:

[0021] The composite temperature data of the pre-cutting areas and standard temperature data are acquired.

[0022] The composite temperature data of the pre-cuting areas are compared with the standard temperature, and temperature prompt data is generated according to a comparison result, and the temperature prompt data is imported into the second two-dimensional code.

[0023] According to some embodiments of the present application, the composite temperature data of the pre-cutting areas are compared with the standard temperature, and temperature prompt data is generated according to a comparison result, and the temperature prompt data is imported into the second two-dimensional code, including:

[0024] When the composite temperature data of the pre-cutting areas is lower than the standard temperature, temperature risk prompt data is generated, and the temperature risk prompt data is imported into the second two-dimensional code.

[0025] When the composite temperature data of the pre-cuting areas is equal to the standard temperature, temperature qualified prompt data is generated, and the temperature qualified prompt data is imported into the second two-dimensional code.

[0026] According to some embodiments of the present application, the data of the first two-dimensional code is acquired, the semi-finished product is die-cut into a plurality of finished products according to the pre-cutting areas, batch data, composite temperature data and composite time data of a plurality of the pre-cutting areas are used to generate a plurality of prompt data, a plurality of blank second two-dimensional codes are acquired, the plurality of prompt data are imported into the plurality of second two-dimensional codes, and the plurality of second two-dimensional codes are printed on the plurality of finished products, respectively, including:

[0027] The composite time data of a plurality of the pre-cutting areas and standard time data are acquired.

[0028] The composite time data of the pre-cutting areas are compared with the standard time, and time prompt data is generated according to a comparison result, and the time prompt data is imported into the second two-dimensional code.

[0029] According to some embodiments of the present application, the composite time data of the pre-cutting areas are compared with the standard time, and time prompt data is generated according to a comparison result, and the time prompt data is imported into the second two-dimensional code, including:

[0030] When the time of the pre-cutting area is less than the standard time, first time risk prompt data is generated, the first time risk prompt data is imported into the second two-dimensional code;

[0031] When the time of the pre-cutting area is greater than the standard time, second time risk prompt data is generated, and the second time risk prompt data is imported into the second two-dimensional code;

[0032] When the time of the pre-cutting area is equal to the standard time, time qualified prompt data is generated, and the time qualified prompt data is imported into the second two-dimensional code.

[0033] According to the second aspect of the present application, the heat compounding temperature tracing device of the adhesive tape, a first acquisition module is used to acquire batch data of raw materials, generate a first two-dimensional code according to the batch data, and print the first two-dimensional code on the bottom film of the raw materials;

[0034] A first processing module is used to pre-set the raw materials into a plurality of pre-cutting areas, and record the compounding temperature data and compounding time data of a plurality of pre-cutting areas when the raw materials are compounded into semi-finished products;

[0035] A second processing module is used to import the compounding temperature data and compounding time data of a plurality of pre-cutting areas into the first two-dimensional code;

[0036] A second acquisition module is used to acquire data of the first two-dimensional code, cut the semi-finished products into a plurality of finished products according to the pre-cutting areas, generate a plurality of second two-dimensional codes by using the batch data, the compounding temperature data and the compounding time data of a plurality of pre-cutting areas, and print a plurality of second two-dimensional codes on a plurality of finished products, respectively.

[0037] According to the heat-combining temperature tracing method and device of the electrically conductive adhesive tape, the following beneficial effects are achieved: the batch data of the raw material are identified and a first two-dimensional code is generated, the generated first two-dimensional code is printed on the base film of the raw material, so that the first two-dimensional code is not easy to fall off or be damaged in the subsequent processing process, and the source of the raw material can be accurately traced; the size and shape of each finished product can meet the predetermined specification standard through the plurality of pre-cutting areas preset in the raw material, and the temperature and time data of each pre-cuting area can be independently monitored in the heat-combining process, so that the production parameters of each area are transparentized, and when the semi-finished product is processed into a finished product, the key parameters (time, temperature and pre-cutting area) in the processing process can be bound with the batch of raw materials, the data is imported into the first two-dimensional code and a second two-dimensional code is generated in the finished product stage, the tracing information is further refined, and the data chain from the raw material to the finished product can be checked. This process not only improves the transparency of production, but also can find quality problems in subsequent use or detection, and the specific batch of raw materials and processing parameters can be quickly traced through scanning the two-dimensional code, so that the problem source can be quickly located, and corresponding corrective measures can be taken.

[0038] Additional aspects and advantages of the application will be set forth in part in the description that follows, and in part will become apparent to those skilled in the art upon examination of the following description and drawings or can be learned by practice of the application. BRIEF DESCRIPTION OF DRAWINGS

[0039] The application will be further described below in conjunction with the drawings and examples, wherein:

[0040] Figure 1 A flow chart of the heat-combining temperature tracing method of the electrically conductive adhesive tape of the application;

[0041] Figure 2 A structure schematic diagram of the heat-combining temperature tracing device of the electrically conductive adhesive tape of the application. DETAILED DESCRIPTION

[0042] The embodiments of the application are described in detail below, examples of which are shown in the drawings, wherein the same or similar reference signs represent the same or similar elements or elements having the same or similar functions throughout. The embodiments described below by reference to the drawings are exemplary and are only used to explain the application, and cannot be understood as a limitation on the application.

[0043] In the description of the application, it should be understood that the orientation description, such as the orientation or position relationship indicated by up, down, front, back, left, right, etc. is based on the orientation or position relationship shown in the drawings, which is only for the convenience of describing the application and simplifying the description, and does not indicate or imply that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation on the application.

[0044] In the description of the present application, the meaning of several is one or more, the meaning of multiple is two or more, greater than, less than, more than, etc. are understood as not including the number, above, below, within, etc. are understood as including the number. If it is described as first, second, it is only used for the purpose of distinguishing technical features, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of indicated technical features or implicitly indicating the sequence of indicated technical features.

[0045] In the description of the present application, unless otherwise explicitly limited, the words such as setting, installing, connecting, etc. should be broadly understood, and those skilled in the art can reasonably determine the specific meaning of the above words in the present application in combination with the specific content of the technical scheme.

[0046] In the description of the present application, the description of the terms "one embodiment", "some embodiments", "exemplary embodiment", "example", "specific example", or "some examples" means that the specific features, structures, materials or characteristics described in combination with the embodiment or example are included in at least one embodiment or example of the present application. In the specification, the exemplary description of the above terms does not necessarily refer to the same embodiment or example. Moreover, the described specific features, structures, materials or characteristics can be combined in any one or more embodiments or examples in a suitable manner.

[0047] Referring to Figure 1 In some embodiments, the heat compounding temperature tracing method of the electrolytic adhesive tape includes:

[0048] Step 100, obtaining batch data of raw materials, generating a first two-dimensional code according to the batch data, and printing the first two-dimensional code on the bottom film of the raw materials;

[0049] Step 200, presetting the raw materials into a plurality of pre-cut regions, and obtaining compounding temperature data and compounding time data of the plurality of pre-cut regions when the raw materials are heat compounded into a semi-finished product;

[0050] Step 300, importing the compounding temperature data and compounding time data of the plurality of pre-cut regions into the first two-dimensional code;

[0051] Step 400, obtaining data of the first two-dimensional code, cutting the semi-finished product into a plurality of finished products according to the pre-cut regions, generating a plurality of prompt data according to the batch data, the compounding temperature data and the compounding time data of the plurality of pre-cut regions, obtaining a plurality of blank second two-dimensional codes, importing the plurality of prompt data into the plurality of second two-dimensional codes, and printing the plurality of second two-dimensional codes on the plurality of finished products, respectively.

[0052] It can be understood that by identifying the batch data of the raw material and generating the first two-dimensional code, the generated first two-dimensional code is printed on the bottom film of the raw material, which ensures that it is not easy to fall off or be damaged in the subsequent processing process, and the source of the raw material can be accurately traced; through the plurality of pre-cutting areas preset in the raw material, it can be ensured that the size and shape of each finished product meet the predetermined specification standard, and it can be ensured that the temperature data and time data of each pre-cutting area can be independently monitored in the hot compounding process, so that the production parameters of each pre-cutting area are transparent, and when the semi-finished product is processed into a finished product, the key parameters (time, temperature and pre-cutting area) in the processing process can be bound with the raw material batch, these data are imported into the first two-dimensional code and the second two-dimensional code is generated in the finished product stage, which further refines the traceability information, ensures that the whole process data chain from the raw material to the finished product is traceable, this process not only improves the transparency of production, but also can find quality problems in subsequent use or detection, and can quickly trace to the specific raw material batch and processing parameters through scanning the two-dimensional code, so as to quickly locate the problem source and take corresponding corrective measures.

[0053] Among them, the batch data includes supplier, production date, material specification, etc.; and in the hot compounding process, the compounding temperature and time of each pre-cutting area are usually monitored in real time by temperature sensors and timing devices.

[0054] In addition, when the plurality of prompt data is imported into the plurality of second two-dimensional codes, the production parameters in the second two-dimensional code can be stored through encryption or verification mechanism, so as to prevent data from being tampered with or lost, ensure the safety and reliability of the information, and provide credible data support in the analysis of quality problems, reduce the production risk; further, in order to place the two-dimensional code identification error, the two-dimensional code can also be converted into a digital key, through which the corresponding batch data can be queried on the system.

[0055] It should be noted that the function of the bottom film is to protect the raw material, prevent it from being contaminated or damaged during transportation, storage and preparation before use, and in the production process, the bottom film needs to be removed before the die cutting stage, so that the adhesive tape can be accurately die cut into the required size.

[0056] Referring to Figure 1 In some embodiments, obtaining the batch data of the raw material includes:

[0057] Identifying a third two-dimensional code of a roll of the raw material, the third two-dimensional code containing the batch data.

[0058] It can be understood that the raw material is usually in the form of a film, and the reel is used for storage of the raw material winding. Therefore, the third two-dimensional code authenticates the unique identity of each raw material, such as batch number, production date, material type, supplier information, etc. When producing, the reel can be installed on various reel processing equipment to facilitate processing of the raw material. When the reel is sent to the production entrance, the internal two-dimensional code scanning module automatically identifies the third two-dimensional code. The scanning module extracts the batch data in the two-dimensional code through a high-speed reading device and transmits the data to the system. The system stores the batch data and associates it with other parameter data (such as pre-cutting area, hot lamination temperature data, and time data) to form a complete traceability chain.

[0059] Referring to Figure 1 In some embodiments, the raw material is pre-set into a plurality of pre-cutting areas, including:

[0060] Obtaining the length of the raw material;

[0061] According to the length of the raw material, a plurality of cutting lines are sprayed and printed at intervals, and the interval between adjacent cutting lines defines the pre-cutting area.

[0062] It can be understood that when the raw material enters the production line, the system detects the total length of the raw material in real time. According to the pre-set cutting area interval, the system calculates the specific position of the cutting line, drives the spraying and printing device to accurately spray and print on the surface of the raw material. The interval between adjacent cutting lines defines the range of the pre-cutting area, and the cutting line becomes a clear physical mark of the pre-cutting area, providing a basis for monitoring the range of each subsequent pre-cutting area. After cutting, the operator can also monitor and adjust the cutting position of the die-cutting device by observing the cutting line. If the cutting line is cut off by the die-cutting device, it means that the cutting position of the die-cutting device is accurate. If the cutting line is misaligned with the cutting device of the die-cutting device, the equipment may need to be adjusted to ensure accuracy.

[0063] Referring to Figure 1 In some embodiments, obtaining the length of the raw material includes:

[0064] Obtaining standard raw material length data, comparing the length of the raw material with the standard raw material length data to generate comparison data, and pre-setting the excess material area to or not to the raw material according to the comparison data.

[0065] It can be understood that when the raw material enters the production line, the system will obtain its length in real time, and compare the real-time obtained raw material length with the preset standard raw material length data to generate comparison data. The comparison data reflects the difference between the actual length and the standard length. If the comparison data shows that the actual length is within the tolerance range of the standard length, then the raw material length meets the requirements and the production can proceed according to the normal process. If the comparison data shows that the actual length exceeds the tolerance range of the standard length, then the raw material length does not meet the requirements and further decision needs to be made. According to the comparison result, the setting of the pre-cutting area can be adjusted flexibly to adapt to raw materials of different lengths, thereby improving the adaptability and flexibility of the production line.

[0066] Referring to Figure 1 In some embodiments, the standard raw material length data is obtained, comparison data is generated according to the comparison of the length of the raw material with the standard raw material length data, and the generation or non-generation of the excess material area according to the comparison data includes:

[0067] When the length of the raw material is longer than the standard raw material length data, unqualified comparison data is generated, and the excess material area is preset for the raw material according to the unqualified comparison data;

[0068] When the length of the raw material is equal to the standard raw material length data, qualified comparison data is generated, and the excess material area is not preset for the raw material according to the qualified comparison data.

[0069] It can be understood that when the raw material enters the production line, if the actual length exceeds the standard length, the system generates unqualified comparison data, and the excess material area preset module marks the excess part as the excess material area according to the data, so as to facilitate the subsequent die cutting device to cut off the pre-cutting area. This division ensures that only the part within the standard length range is used in the production link, thereby reducing the processing error. If the actual length is equal to the standard length, the system generates qualified comparison data, the system determines that the length of the raw material meets the production requirements, and does not perform the excess material area division, and directly enters the next processing link. By dynamically generating qualified or unqualified comparison data, the present method accurately divides the part of the raw material exceeding the standard length into the excess material area, ensures that the raw material actually used for production meets the standard requirements, and thereby improves the processing precision and consistency of product quality.

[0070] Referring to Figure 1 In some embodiments, the data of the first two-dimensional code is obtained, the semi-finished product is cut into a plurality of finished products according to the pre-cutting area, a plurality of prompt data are generated from the batch data, the composite temperature data and the composite time data of the plurality of pre-cutting areas, a plurality of blank second two-dimensional codes are obtained, the plurality of prompt data are imported into the plurality of second two-dimensional codes, and the plurality of second two-dimensional codes are printed on the plurality of finished products, including:

[0071] The composite temperature data and the standard temperature data of the plurality of pre-cutting areas are obtained;

[0072] comparing the composite temperature data of the pre-cut area with the standard temperature, and generating temperature prompt data according to the comparison result, and importing the temperature prompt data into the second two-dimensional code.

[0073] It can be understood that the comparison of the composite temperature data and the standard temperature data is the core step of generating the temperature prompt data. During the operation of the production line, the system records the composite temperature data of each pre-cut area in real time, generates the temperature prompt data according to the comparison result, and imports the temperature prompt data into the second two-dimensional code, so that when the adhesion of the finished product appears a problem, the operator can query the processing parameters of the corresponding batch data by scanning the second two-dimensional code.

[0074] Referring to Figure 1 In some embodiments, comparing the composite temperature data of the pre-cut area with the standard temperature, and generating temperature prompt data according to the comparison result, and importing the temperature prompt data into the second two-dimensional code comprises:

[0075] When the composite temperature data of the pre-cut area is lower than the standard temperature, generating temperature risk prompt data, and importing the temperature risk prompt data into the second two-dimensional code;

[0076] When the composite temperature data of the pre-cut area is equal to the standard temperature, generating temperature qualified prompt data, and importing the temperature qualified prompt data into the second two-dimensional code.

[0077] It can be understood that through the real-time comparison of the composite temperature data of the pre-cut area and the standard temperature data, the temperature prompt data closely related to the production process parameters is generated. When the system generates low temperature prompt data, it indicates that there may be a risk of insufficient compounding or adhesion performance decline in this area. The system generates temperature qualified prompt data, which indicates that this area fully meets the process requirements, so that after the finished product is produced, the test personnel can scan the two-dimensional code to obtain the temperature prompt data. If the two-dimensional code displays "low temperature warning", the test personnel will know that there may be a problem in the compounding process of the finished product, which needs to be further checked or processed. If the two-dimensional code displays "normal temperature", it indicates that the finished product meets the process requirements and can enter the next process or be shipped.

[0078] Referring to Figure 1 In some embodiments, obtaining the data of the first two-dimensional code, generating a plurality of prompt data according to the pre-cut area cutting the semi-finished product into a plurality of finished products, the batch data, the composite temperature data and the composite time data of the plurality of pre-cut areas, obtaining a plurality of blank second two-dimensional codes, importing the plurality of prompt data into the plurality of second two-dimensional codes, and printing the plurality of second two-dimensional codes on the plurality of finished products comprises:

[0079] Obtaining the composite time data of the plurality of pre-cut areas and the standard time data;

[0080] comparing the composite time data of the pre-cut area with the standard time, and generating time prompt data according to the comparison result, and importing the time prompt data into the second two-dimensional code.

[0081] It can be understood that when the production line is running, the system records the composite time of each pre-cut area in real time, compares the actual time data with the standard time data, generates time prompt data, and the prompt data reflects the deviation of the actual time from the standard time. The generated time prompt data can reflect the time control in the production process, thereby ensuring that the time parameters of the finished product completely meet the process requirements, and significantly improving the stability and consistency of the production quality.

[0082] Referring to Figure 1 In some embodiments, comparing the composite time data of the pre-cut area with the standard time, and generating time prompt data according to the comparison result, and importing the time prompt data into the second two-dimensional code comprises:

[0083] When the time of the pre-cut area is less than the standard time, first time risk prompt data is generated, and the first time risk prompt data is imported into the second two-dimensional code;

[0084] When the time of the pre-cut area is greater than the standard time, second time risk prompt data is generated, and the second time risk prompt data is imported into the second two-dimensional code;

[0085] When the time of the pre-cut area is equal to the standard time, time qualified prompt data is generated, and the time qualified prompt data is imported into the second two-dimensional code.

[0086] It can be understood that when the production line is running, the system records the composite time data of the pre-cut area in real time, and extracts the standard time data of the corresponding process from the standard time storage module. Compare the two, when the composite time is less than the standard time: the system determines that there may be a risk of incomplete composite in the pre-cut area, generates first time risk prompt data, indicating that the time is insufficient to meet the process requirements, and the composite time less than the standard time may cause the finished product to have insufficient heat composite time, resulting in poor adhesion. When the composite time is greater than the standard time: the system determines that there may be material over-processing or efficiency problems, and generates second time risk prompt data to prompt that the time exceeds the standard range. When the composite time is equal to the standard time: the system determines that the time of the area completely meets the process requirements, and generates time qualified prompt data to identify that the process is qualified. By refining the generation rule of the time prompt data, the present method can clearly reflect the relationship between the composite time and the process standard, and further improve the accuracy and transparency of the production parameter management.

[0087] Referring to Figure 2 In some embodiments, the heat composite temperature tracing device of the adhesive tape,

[0088] The first acquisition module 500 is configured to acquire batch data of the raw material, generate a first two-dimensional code according to the batch data, and print the first two-dimensional code on a bottom film of the raw material.

[0089] The first processing module 600 is configured to preset the raw material into a plurality of pre-cut regions, and record composite temperature data and composite time data of the plurality of pre-cut regions when the raw material is hot-composed into a semi-finished product.

[0090] The second processing module 700 is configured to import the composite temperature data and the composite time data of the plurality of pre-cut regions into the first two-dimensional code.

[0091] The second acquisition module 800 is configured to acquire data of the first two-dimensional code, cut the semi-finished product into a plurality of finished products according to the pre-cut regions, generate a plurality of second two-dimensional codes according to the batch data, the composite temperature data and the composite time data of the plurality of pre-cut regions, and print the plurality of second two-dimensional codes on the plurality of finished products, respectively.

[0092] The specific implementation of the hot-composite temperature tracing device of the adhesive tape with electrolyte is basically the same as the specific embodiments of the hot-composite temperature tracing method of the adhesive tape with electrolyte, and will not be repeated here.

[0093] The embodiments of the present application are described in detail above in combination with the drawings, but the present application is not limited to the above embodiments, and various changes can be made within the knowledge range of ordinary skilled in the art without departing from the purpose of the present application. In addition, the embodiments of the present application and the features in the embodiments can be combined with each other without conflict.

Claims

1. A method for thermal bonding temperature tracing of an electrolytic viscose tape, characterized in that, The method comprises the following steps: Obtaining batch data of raw materials, generating a first two-dimensional code according to the batch data, and printing the first two-dimensional code on the bottom film of the raw materials; Pre-setting the raw materials into a plurality of pre-cutting areas, and obtaining composite temperature data and composite time data of the plurality of pre-cutting areas when the raw materials are hot-combined into a semi-finished product; Importing the composite temperature data and the composite time data of the plurality of pre-cutting areas into the first two-dimensional code; Obtaining data of the first two-dimensional code, die-cutting the semi-finished product into a plurality of finished products according to the pre-cutting areas, generating a plurality of prompt data from the batch data, the composite temperature data and the composite time data of the plurality of pre-cutting areas, obtaining a plurality of blank second two-dimensional codes, importing the plurality of prompt data into the plurality of second two-dimensional codes, and printing the plurality of second two-dimensional codes on the plurality of finished products, respectively.

2. The thermal compounding temperature tracing method of the viscose tape by passing electric current through an electrolyte according to claim 1, characterized in that, The method for obtaining batch data of raw materials comprises the following steps: Identifying a third two-dimensional code of a roll of the raw materials, wherein the third two-dimensional code contains batch data.

3. The thermal compounding temperature tracing method of the viscose tape by passing electric current through the electrolyte according to claim 1, characterized in that, The method for pre-setting the raw materials into a plurality of pre-cutting areas comprises the following steps: Obtaining the length of the raw materials; According to the length of the raw materials, printing a plurality of cutting lines at intervals, and the interval between adjacent cutting lines is the pre-cutting area.

4. The thermal compounding temperature tracing method of the viscose tape by passing electric current through the electrolyte according to claim 3, characterized in that, The method for obtaining the length of the raw materials comprises the following steps: Obtaining standard raw material length data, comparing the length of the raw materials with the standard raw material length data to generate comparison data, and pre-setting a surplus area of the raw materials according to the comparison data or not.

5. The thermal compounding temperature tracing method of the viscose tape by passing electric current through the electrolyte according to claim 4, characterized in that, The method for obtaining standard raw material length data, comparing the length of the raw materials with the standard raw material length data to generate comparison data, and generating or not generating a surplus area according to the comparison data comprises the following steps: When the length of the raw materials is longer than the standard raw material length data, generating unqualified comparison data, and pre-setting a surplus area of the raw materials according to the unqualified comparison data; When the length of the raw materials is equal to the standard raw material length data, generating qualified comparison data, and not pre-setting a surplus area of the raw materials according to the qualified comparison data.

6. The thermal compounding temperature tracing method of the viscose tape by passing electric current through the electrolyte according to claim 1, characterized in that, The method for obtaining data of the first two-dimensional code, die-cutting the semi-finished product into a plurality of finished products according to the pre-cutting areas, generating a plurality of prompt data from the batch data, the composite temperature data and the composite time data of the plurality of pre-cutting areas, obtaining a plurality of blank second two-dimensional codes, importing the plurality of prompt data into the plurality of second two-dimensional codes, and printing the plurality of second two-dimensional codes on the plurality of finished products, respectively, comprises the following steps: Obtaining composite temperature data and standard temperature data of the plurality of pre-cutting areas; Comparing the composite temperature data of the pre-cutting areas with the standard temperature, and generating temperature prompt data according to the comparison result, and importing the temperature prompt data into the second two-dimensional code.

7. The thermal compounding temperature tracing method of the viscose tape by passing electric current through the electrolyte according to claim 6, characterized in that, The method for comparing the composite temperature data of the pre-cutting areas with the standard temperature, and generating temperature prompt data according to the comparison result, and importing the temperature prompt data into the second two-dimensional code comprises the following steps: When the composite temperature data of the pre-cutting areas is lower than the standard temperature, generating temperature risk prompt data, and importing the temperature risk prompt data into the second two-dimensional code; When the composite temperature data of the pre-cutting area is equal to the standard temperature, generate temperature qualified prompt data, and import the temperature qualified prompt data into the second two-dimensional code.

8. The thermal compounding temperature tracing method of the viscose tape by passing electric current through the electrolyte according to claim 1, characterized in that, The data of the first two-dimensional code is acquired, and the semi-finished product is cut into a plurality of finished products according to the pre-cutting area. Batch data, composite temperature data and composite time data of a plurality of pre-cutting areas are used to generate a plurality of prompt data. A plurality of blank second two-dimensional codes are acquired, and a plurality of prompt data are imported into a plurality of second two-dimensional codes. A plurality of second two-dimensional codes are printed on a plurality of finished products, respectively, including: Acquiring the composite time data of a plurality of pre-cutting areas and standard time data; Comparing the composite time data of the pre-cutting area with the standard time, and generating time prompt data according to the comparison result, and importing the time prompt data into the second two-dimensional code.

9. The thermal compounding temperature tracing method of the viscose tape by passing electric current through the electrolyte according to claim 8, characterized in that, The comparison of the composite time data of the pre-cutting area with the standard time, and the generation of time prompt data according to the comparison result, and the import of the time prompt data into the second two-dimensional code include: When the time of the pre-cutting area is less than the standard time, generate first time risk prompt data, and import the first time risk prompt data into the second two-dimensional code; When the time of the pre-cutting area is greater than the standard time, generate second time risk prompt data, and import the second time risk prompt data into the second two-dimensional code; When the time of the pre-cutting area is equal to the standard time, generate time qualified prompt data, and import the time qualified prompt data into the second two-dimensional code.

10. A hot composite temperature tracing device for an adhesive tape by electrolysis, characterized in that, The first acquisition module is configured to acquire batch data of raw materials, and generate a first two-dimensional code according to the batch data, and print the first two-dimensional code on the bottom film of the raw materials. The first processing module is configured to preset the raw materials into a plurality of pre-cutting areas, and record the composite temperature data and the composite time data of a plurality of pre-cutting areas when the raw materials are hot-composited into semi-finished products. The second processing module is configured to import the composite temperature data and the composite time data of a plurality of pre-cutting areas into the first two-dimensional code. The second acquisition module is configured to acquire data of the first two-dimensional code, cut the semi-finished product into a plurality of finished products according to the pre-cutting area, generate a plurality of second two-dimensional codes from batch data, composite temperature data and composite time data of a plurality of pre-cutting areas, and print a plurality of second two-dimensional codes on a plurality of finished products, respectively.

Images