Monitoring and early warning system for anodic oxidation production line
By designing the monitoring and early warning system of the anodized production line, the production process parameters are collected and analyzed in real time, and the problems of difficult parameter recording and poor monitoring and early warning performance in the anodized production process are solved, and intelligent digital monitoring is realized, which reduces on-site management personnel and reduces the cost.
Patent Information
- Application Number
- CN202411329943.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-24
- Publication Date
- 2025-01-03
AI Technical Summary
The existing anodized production process parameters require manual recording, resulting in difficult process traceability, poor monitoring and early warning performance, and inability to record and analyze in real time, resulting in a large number of on-site managers and high employment costs.
A monitoring and early warning system for anodic oxidation production line is designed, including a logical database, anode tracking system, anode product measurement system, anode line monitoring system, anode line monitoring system, open source visual chart library and production workshop monitoring system kanban, for real-time acquisition and analysis of production processes The parameters such as temperature, concentration, time, and pH are output and warning through visual charts.
Real-time traceability, monitoring and analysis of the anode production process is realized, which reduces on-site management personnel and reduces personnel costs, and provides visual analysis through intelligent management optimization processes.
Smart Images

Figure CN119243281A_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of industrial production line monitoring, and in particular relates to a monitoring and early warning system for an anodizing production line. Background Art
[0002] The application field of anodizing is very wide, including electronic products, construction products, automotive products, aerospace products and other fields. For example, when metal aluminum and its alloys are prepared in the corresponding electrolyte and under specific process conditions, a layer of oxide film is formed on the surface of the aluminum product (anode). This process is called anodizing production. This process can make up for the defects of metal or alloy surface hardness, wear resistance, etc., expand the scope of application and extend the service life.
[0003] However, the existing anode production process parameters have always been in a state of manual recording and paper file storage, and the process traceability is difficult. In addition, the existing anode production process has poor monitoring and early warning performance. The parameters of each functional slot of the anode cannot be recorded in real time during the manual recording process; and it is impossible to trace, monitor, and analyze the parameters of the product production process in real time according to the product production requirements, which leads to the inability to achieve the purpose of the monitoring process, and ultimately leads to a large number of on-site management personnel and a high labor cost. Therefore, in order to solve the above problems, the present technical solution proposes a monitoring and early warning system for an anodizing production line. Summary of the invention
[0004] The object of the present invention is to provide a monitoring and early warning system for an anodizing production line, so as to solve the problem proposed in the above-mentioned background technology that the parameters of the anode production process have always been in the state of manual recording, paper file storage, and difficult process traceability, and the existing monitoring and early warning performance of the anode production process is poor, and the parameters of each functional slot of the anode cannot be recorded in real time during the manual recording process; and it is impossible to trace, monitor and analyze the parameters of the product production process in real time according to the product production requirements, which leads to the inability to achieve the purpose of the monitoring process, which ultimately leads to the problem of a large number of on-site management personnel and high employment costs.
[0005] To achieve the above object, the present invention provides the following technical solution: a monitoring and early warning system for anodizing production line, comprising: Logical database, used to store monitoring data of anodizing production line; The anode tracking system collects anode process parameters, which is used to monitor and collect process parameter data of temperature, concentration, time, pH value and conductivity during the production process; The anode tracking system for collecting anode process parameters includes a product information acquisition module, a Lab laboratory data acquisition module, a tank temperature data acquisition module, a tank time data acquisition module, and a tank concentration data acquisition module; The post-anodization product measurement system is used to collect data on the color and gloss of the product after production. The post-anodization product measurement system includes a post-polishing gloss data collection module and a post-dyeing color data collection module; Anode line monitoring system, used to monitor data during product production, including anode production equipment monitoring, chemical analysis monitoring, chemical polishing tank monitoring, anode tank monitoring, dyeing tank monitoring, post-dyeing color monitoring, product parameter early warning system monitoring, and color yield analysis monitoring; Open source visualization chart library, used to organize monitoring data and build data models; The production workshop monitoring system dashboard is used to collect and output the data model built by the open source visualization chart library as visual content. The production workshop monitoring system dashboard includes a production equipment monitoring dashboard, a chemical analysis monitoring dashboard, a chemical polishing tank monitoring dashboard, an anode tank monitoring dashboard, a dyeing tank monitoring dashboard, a post-dyeing color monitoring dashboard, a product parameter early warning system monitoring dashboard, and a color yield analysis monitoring dashboard; The data upload module is used to save the collected data and upload it to the logical database.
[0006] Preferably, the product information collection module is used to collect data about the product itself, and the Lab laboratory data collection module is used to collect data about product experiments.
[0007] Preferably, the anode production equipment monitoring collects the production status data of the product, and organizes the production status data into a three-dimensional simulation diagram and transmits it to the production equipment monitoring board.
[0008] Preferably, the chemical analysis monitoring is used to collect data on chemical raw materials in slots, and organize the data on chemical raw materials into visual charts and transmit them to a chemical analysis monitoring dashboard.
[0009] Preferably, the tank body temperature data acquisition module is used to collect temperature information of the chemical polishing tank, the anode tank, and the dyeing tank; The tank body temperature data acquisition module transmits the temperature information collected by the chemical throwing tank to the chemical throwing tank monitoring, and the chemical throwing tank monitoring organizes the temperature information of the chemical throwing tank into a visual chart and transmits it to the chemical throwing tank monitoring dashboard; The tank body temperature data acquisition module transmits the temperature information collected by the anode tank to the anode tank monitoring module, and the anode tank monitoring module organizes the anode tank temperature information into a visual chart and transmits it to the anode tank monitoring dashboard; The tank body temperature data acquisition module transmits the temperature information collected from the dyeing tank to the dyeing tank monitoring module, and the dyeing tank monitoring module organizes the temperature information of the dyeing tank into a visual chart and transmits it to the dyeing tank monitoring dashboard.
[0010] Preferably, the tank time data collection module is used to collect time information of the chemical throwing tank, the anode tank, and the dyeing tank; The tank body time data acquisition module transmits the time information collected by the chemical throwing tank to the chemical throwing tank monitoring, and the chemical throwing tank monitoring organizes the chemical throwing tank time information into a visual chart and transmits it to the chemical throwing tank monitoring dashboard; The tank body time data acquisition module transmits the time information collected by the anode tank to the anode tank monitoring module, and the anode tank monitoring module organizes the anode tank time information into a visual chart and transmits it to the anode tank monitoring dashboard; The tank time data acquisition module transmits the time information collected from the dyeing tank to the dyeing tank monitoring module, and the dyeing tank monitoring module organizes the anode tank time information into a visual chart and transmits it to the dyeing tank monitoring dashboard.
[0011] Preferably, the tank concentration data acquisition module is used to collect concentration information of the chemical polishing tank, the anode tank, and the dyeing tank; The tank body concentration data acquisition module transmits the concentration information collected by the chemical throwing tank to the chemical throwing tank monitoring module, and the chemical throwing tank monitoring module organizes the concentration information of the chemical throwing tank into a visual chart and transmits it to the chemical throwing tank monitoring dashboard; The tank body concentration data acquisition module transmits the concentration information collected by the anode tank to the anode tank monitoring module, and the anode tank monitoring module organizes the anode tank concentration information into a visual chart and transmits it to the anode tank monitoring dashboard; The tank concentration data acquisition module transmits the concentration information collected from the dyeing tank to the dyeing tank monitoring module, and the dyeing tank monitoring module organizes the dyeing tank concentration information into a visual chart and transmits it to the dyeing tank monitoring dashboard.
[0012] Preferably, the product color data acquisition module after dyeing detects and collects the color information of the product after dyeing, and the color monitoring after dyeing organizes the color information of the product after dyeing into a visual chart and transmits it to the color monitoring dashboard after dyeing.
[0013] Preferably, the product parameter early warning system monitors and collects parameters of the product production process, compares the data with the product data collected by the product information collection module, and forms a visual chart and transmits it to the product parameter early warning system monitoring dashboard.
[0014] Preferably, the color yield analysis monitoring collects parameters of the product production process, compares the data with the data collected by the product experiment of the Lab laboratory data acquisition module, and forms a visual chart and transmits it to the color yield analysis monitoring dashboard.
[0015] Compared with the prior art, the present invention has the following beneficial effects: Each monitoring module in the system of the present invention collects the parameters of each functional slot in the anode production process and imports the parameters into the production monitoring and early warning system. The overall anode line production monitoring system then traces, monitors, and analyzes the product production process parameters in real time to achieve the purpose of intelligent digital monitoring process, effectively reduce on-site management personnel, reduce personnel costs, and provide visual analysis by intelligent management to guide on-site process optimization. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 It is a schematic diagram of the overall structure of the anode monitoring system in the present invention; Figure 2 This is a flow chart of the operation of the anode monitoring system in the present invention; Figure 3 The chart data in the logic database for monitoring the anode production equipment in the present invention; Figure 4 This is a monitoring display diagram of the anode production equipment in the present invention; Figure 5 A data display diagram of the chemical analysis monitoring screen in the present invention; Figure 6 It is a slot status display diagram of the chemical analysis monitoring screen in the present invention; Figure 7 It is a life cycle display diagram of the chemical analysis monitoring screen in the present invention; Figure 8 A concentration trend display diagram of the chemical analysis monitoring screen in the present invention; Fig. 9 It is a graph showing the data of the chemical throwing tank monitoring screen in the present invention; Fig.10 It is a data analysis diagram of the chemical throwing tank monitoring screen in the present invention; Fig.11 It is a graph showing the data of the anode tank monitoring screen in the present invention; Fig.12 This is a data analysis diagram of the anode tank monitoring screen in the present invention; Fig.13 It is a graph showing the data of the dyeing tank monitoring screen in the present invention; Fig.14 This is a data analysis diagram of the dyeing tank monitoring screen in the present invention; Fig.15 It is a graph showing the data of the color monitoring screen after dyeing in the present invention; Fig.16 This is a data analysis diagram of the color monitoring screen after dyeing in the present invention; Fig.17 It is a graph showing the production parameter warning status data of the product parameter warning system monitoring screen in the present invention; Fig.18This is a data analysis diagram of the production parameter warning status of the product parameter warning system monitoring screen in the present invention; Fig.19 It is a color yield analysis monitoring screen data chart display diagram in the present invention; Fig. 20 This is a data analysis chart of the daily yield of the color yield analysis monitoring screen in the present invention; Fig.21 This is a data analysis diagram of the slot yield in the color yield analysis monitoring screen in the present invention; Fig. 22 This is a data analysis diagram of the position yield in the color yield analysis monitoring screen of the present invention; Fig.23 This is a position data analysis diagram in the color yield analysis monitoring screen of the present invention; Fig.24 A distribution diagram of color and gloss in the color yield analysis monitoring screen of the present invention; Fig.25 This is a box plot of color and gloss in the color yield analysis monitoring screen of the present invention. DETAILED DESCRIPTION
[0017] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.
[0018] See also Figures 1 to 25 , an embodiment provided by the present invention: a monitoring and early warning system for an anodizing production line, comprising a logic database 4 for storing monitoring data of the anodizing production line; An anode tracking system 1 for collecting anode process parameters is used to monitor and collect process parameter data of temperature, concentration, time, pH value, and conductivity during the production process. The anode tracking system 1 for collecting anode process parameters includes a product information collection module 101, a Lab laboratory data collection module 102, a tank temperature data collection module 103, a tank time data collection module 104, and a tank concentration data collection module 105; The post-anodization product measurement system 2 is used to collect data on the color and gloss of the product after production. The post-anodization product measurement system 2 includes a post-polishing gloss data collection module 201 and a post-dyed product color data collection module 202; Anode line monitoring system 3, used for monitoring data in the product production process, said anode line monitoring system 3 includes anode production equipment monitoring 301, chemical analysis monitoring 302, chemical polishing tank monitoring 303, anode tank monitoring 304, dyeing tank monitoring 305, post-dyeing color monitoring 306, product parameter early warning system monitoring 307, and color yield analysis monitoring 308; Open source visualization chart library5, used to organize the monitored data and build data models; The production workshop monitoring system dashboard 6 is used to collect and output the data model built by the open source visualization chart library 5 as visualization content. The production workshop monitoring system dashboard 6 includes a production equipment monitoring dashboard 601, a chemical analysis monitoring dashboard 602, a chemical polishing tank monitoring dashboard 603, an anode tank monitoring dashboard 604, a dyeing tank monitoring dashboard 605, a post-dyeing color monitoring dashboard 606, a product parameter early warning system monitoring dashboard 607, and a color yield analysis monitoring dashboard 608.
[0019] See also Figure 1 to Figure 2 , Figure 1 and Figure 2 It is the main structure and main operation process of the present invention. The monitoring and early warning system of the anodizing production line includes an anode tracking system 1 for collecting anode process parameters, an anode post-product measurement system 2 for uploading color and gloss measurement data, an anode line monitoring system 3, a logic database 4, an open source visualization chart library 5 for combing the monitored data and building a data model, a production workshop monitoring system dashboard 6 for collecting and outputting the built data model as visualization content, and a data upload module 7 for saving the collected data and uploading it to the logic database 4. The logic database 4 is used to save the monitoring data of the anodizing production line. The logic database 4 uses a programming language to comb and build logic data, and can be written in JS language; This system uses the anode tracking system 1 to collect parameters in the anode process. The anode tracking system 1 uses programming to sort out logical data and build data models. It can be written in JS language and uses the open source Web UI component library to process the open source visualization chart library 5 and output visualized dashboard information. The above-mentioned open source Web UI component library can be Layui software, which guides production managers to adjust the current anode production parameters of the anode in time, and a monitoring system for early warning classification of finished products.
[0020] See also Figure 3 and Figure 4 The anode production equipment monitoring 301 collects the production status data of the product, and organizes the production status data into a three-dimensional simulation diagram and transmits it to the production equipment monitoring dashboard 601.
[0021] See also Figures 5 to 8 The chemical analysis monitoring 302 is used to collect data on the slot status, chemical slot replacement status, and functional slot concentration in the slot, and organize the data on the slot status, chemical slot replacement status, and functional slot concentration into a visual chart and transmit it to the chemical analysis monitoring dashboard 602.
[0022] See also Fig. 9 and Fig.10 The tank temperature data acquisition module 103 is used to collect the temperature information of the chemical polishing tank, the anode tank, and the dyeing tank; The tank body temperature data collection module 103 transmits the temperature information collected from the chemical throwing tank to the chemical throwing tank monitoring 303, and the chemical throwing tank monitoring 303 organizes the chemical throwing tank temperature information into a visual chart and transmits it to the chemical throwing tank monitoring dashboard 603; The tank body temperature data acquisition module 103 transmits the temperature information collected by the anode tank to the anode tank monitoring 304, and the anode tank monitoring 304 organizes the anode tank temperature information into a visual chart and transmits it to the anode tank monitoring dashboard 604; The tank body temperature data collection module 103 transmits the temperature information collected from the dyeing tank to the dyeing tank monitoring 305 , and the dyeing tank monitoring 305 organizes the temperature information of the dyeing tank into a visual chart and transmits it to the dyeing tank monitoring dashboard 605 .
[0023] See also Fig.11 and Fig.12 The tank time data collection module 104 is used to collect the time information of the chemical throwing tank, the anode tank, and the dyeing tank; The tank time data collection module 104 transmits the time information collected by the chemical throwing tank to the chemical throwing tank monitoring 303, and the chemical throwing tank monitoring 303 organizes the chemical throwing tank time information into a visual chart and transmits it to the chemical throwing tank monitoring dashboard 603; The tank body temperature data collection module 104 transmits the time information collected by the anode tank to the anode tank monitoring 304, and the anode tank monitoring 304 organizes the anode tank time information into a visual chart and transmits it to the anode tank monitoring dashboard 604; The tank time data collection module 104 transmits the time information collected from the dyeing tank to the dyeing tank monitoring 305 , and the dyeing tank monitoring 305 organizes the dyeing tank time information into a visual chart and transmits it to the dyeing tank monitoring dashboard 605 .
[0024] See also Fig.13 and Fig.14 , the tank concentration data acquisition module 105 is used to collect the concentration information of the chemical polishing tank, the anode tank, and the dyeing tank; The tank body concentration data acquisition module 105 transmits the concentration information collected by the chemical throwing tank to the chemical throwing tank monitoring 303, and the chemical throwing tank monitoring 303 organizes the concentration information of the chemical throwing tank into a visual chart and transmits it to the chemical throwing tank monitoring dashboard 603; The tank concentration data acquisition module 105 transmits the concentration information collected by the anode tank to the anode tank monitoring 304, and the anode tank monitoring 304 organizes the anode tank concentration information into a visual chart and transmits it to the anode tank monitoring dashboard 604; The tank concentration data acquisition module 105 transmits the concentration information collected from the dyeing tank to the dyeing tank monitoring 305 , and the dyeing tank monitoring 305 organizes the anode tank concentration information into a visual chart and transmits it to the dyeing tank monitoring dashboard 605 .
[0025] See also Fig.15 and Fig.16 The product color data collection module 202 detects and collects the color information of the product after dyeing, and the color monitoring 306 after dyeing organizes the color information of the product after dyeing into a visual chart and transmits it to the color monitoring dashboard 606 after dyeing; The product color data collection module 202 after dyeing performs PLC data collection on the processing parameters of each process of the anode line. These data include the color L*, a*, b* after dyeing and DL*, Da*, Db* after anode completion. The color L*, a*, b* after dyeing and DL*, Da*, Db* after anode completion are compared and analyzed, and the real-time collected data is compared with the standard range to achieve early warning and immediate alarm; and a timing mechanism is formulated to automatically write the anode tracking trace system and MES system data slices into the logical database 4.
[0026] See also Fig.17 and Fig.18 The product parameter early warning system monitoring 307 collects the parameters of the product production process, compares its data with the product data collected by the product information collection module 101, and forms a visual chart and transmits it to the product parameter early warning system monitoring dashboard 607.
[0027] See also Figures 19 to 25 , the color yield analysis monitoring 308 collects the parameters of the product production process, compares its data with the data collected by the product experiment of the Lab laboratory data acquisition module 102, and forms a visual chart and transmits it to the color yield analysis monitoring dashboard 608; Color yield analysis monitoring 308 includes product color daily yield monitoring, color slot daily yield monitoring, color slot position daily yield graphic analysis monitoring, color slot position data graphic analysis monitoring, color slot position data distribution analysis monitoring, and color production batch data quadrant diagram analysis monitoring.
[0028] In summary, each monitoring module in the system collects the parameters of each functional tank in the anode production process, imports the parameters into the production monitoring and early warning system, and displays the graphical styles of each parameter in the production process on the equipment monitoring board 601, the chemical analysis monitoring board 602, the chemical polishing tank monitoring board 603, the anode tank monitoring board 604, the dyeing tank monitoring board 605, the post-dyeing color monitoring board 606, the product parameter early warning system monitoring board 607 and the color yield analysis monitoring board 608 according to the product production requirements; This setting enables the overall anode wire production monitoring system to trace, monitor and analyze product production process parameters in real time, achieving the purpose of intelligent digital monitoring process, effectively reducing on-site management personnel, reducing personnel costs, and providing visual analysis through intelligent management guidance for on-site process optimization.
[0029] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.
Claims
1. A monitoring and early warning system for anodizing production lines, characterized in that: include: A logic database (4) for storing monitoring data of the anodizing production line; An anode tracking system (1) for collecting anode process parameters, used to monitor and collect process parameter data of temperature, concentration, time, pH value, and conductivity during the production process; The anode tracking system (1) for collecting anode process parameters comprises a product information collection module (101), a Lab laboratory data collection module (102), a tank temperature data collection module (103), a tank time data collection module (104), and a tank concentration data collection module (105); A post-anodizing product measurement system (2) is used to collect data on the color and gloss of the product after production. The post-anodizing product measurement system (2) comprises a post-polishing gloss data collection module (201) and a post-dying color data collection module (202); An anode line monitoring system (3) is used to monitor data during the product production process, wherein the anode line monitoring system (3) includes anode production equipment monitoring (301), chemical analysis monitoring (302), chemical polishing tank monitoring (303), anode tank monitoring (304), dyeing tank monitoring (305), post-dyeing color monitoring (306), product parameter early warning system monitoring (307), and color yield analysis monitoring (308); Open source visualization chart library (5), used to organize monitoring data and build data models; A production workshop monitoring system dashboard (6) is used to collect and output a data model constructed by an open source visualization chart library (5) as visualization content, wherein the production workshop monitoring system dashboard (6) includes a production equipment monitoring dashboard (601), a chemical analysis monitoring dashboard (602), a chemical polishing tank monitoring dashboard (603), an anode tank monitoring dashboard (604), a dyeing tank monitoring dashboard (605), a post-dyeing color monitoring dashboard (606), a product parameter early warning system monitoring dashboard (607), and a color yield analysis monitoring dashboard (608).
2. The monitoring and early warning system for anodizing production line according to claim 1, characterized in that: The product information collection module (101) is used to collect data on the product itself, and the Lab laboratory data collection module (102) is used to collect data on product experiments.
3. The monitoring and early warning system for an anodizing production line according to claim 1 is characterized in that: The anode production equipment monitoring (301) collects the production status data of the product, and organizes the production status data into a three-dimensional simulation diagram and transmits it to the production equipment monitoring dashboard (601).
4. The monitoring and early warning system for an anodizing production line according to claim 3 is characterized in that: The chemical analysis monitoring (302) is used to collect data on chemical raw materials in the slots, and organize the data on the chemical raw materials into visual charts and transmit them to the chemical analysis monitoring dashboard (602).
5. The monitoring and early warning system for anodizing production line according to claim 4 is characterized in that: The tank body temperature data acquisition module (103) is used to collect temperature information of the chemical polishing tank, the anode tank, and the dyeing tank; The tank body temperature data acquisition module (103) transmits the temperature information collected by the chemical throwing tank to the chemical throwing tank monitoring (303), and the chemical throwing tank monitoring (303) organizes the chemical throwing tank temperature information into a visual chart and transmits it to the chemical throwing tank monitoring dashboard (603); The tank body temperature data acquisition module (103) transmits the temperature information collected by the anode tank to the anode tank monitoring (304), and the anode tank monitoring (304) organizes the anode tank temperature information into a visual chart and transmits it to the anode tank monitoring dashboard (604); The tank body temperature data collection module (103) transmits the temperature information collected from the dyeing tank to the dyeing tank monitoring (305), and the dyeing tank monitoring (305) organizes the temperature information of the dyeing tank into a visual chart and transmits it to the dyeing tank monitoring dashboard (605).
6. The monitoring and early warning system for anodizing production line according to claim 5, characterized in that: The tank time data collection module (104) is used to collect time information of the chemical throwing tank, the anode tank, and the dyeing tank; The tank time data collection module (104) transmits the time information collected from the chemical throwing tank to the chemical throwing tank monitoring (303), and the chemical throwing tank monitoring (303) organizes the chemical throwing tank time information into a visual chart and transmits it to the chemical throwing tank monitoring dashboard (603); The tank body temperature data acquisition module (104) transmits the time information collected by the anode tank to the anode tank monitoring (304), and the anode tank monitoring (304) organizes the anode tank time information into a visual chart and transmits it to the anode tank monitoring dashboard (604); The tank time data collection module (104) transmits the time information collected from the dyeing tank to the dyeing tank monitoring (305), and the dyeing tank monitoring (305) organizes the dyeing tank time information into a visual chart and transmits it to the dyeing tank monitoring dashboard (605).
7. The monitoring and early warning system for anodizing production line according to claim 6 is characterized by: The tank concentration data collection module (105) is used to collect concentration information of the chemical polishing tank, the anode tank, and the dyeing tank; The tank body concentration data acquisition module (105) transmits the concentration information collected by the chemical throwing tank to the chemical throwing tank monitoring (303), and the chemical throwing tank monitoring (303) organizes the chemical throwing tank time information into a visual chart and transmits it to the chemical throwing tank monitoring dashboard (603); The tank concentration data acquisition module (105) transmits the concentration information collected by the anode tank to the anode tank monitoring (304), and the anode tank monitoring (304) organizes the anode tank time information into a visual chart and transmits it to the anode tank monitoring dashboard (604); The tank concentration data collection module (105) transmits the concentration information collected from the dyeing tank to the dyeing tank monitoring (305), and the dyeing tank monitoring (305) organizes the dyeing tank concentration information into a visual chart and transmits it to the dyeing tank monitoring dashboard (605).
8. The monitoring and early warning system for anodizing production line according to claim 7, characterized in that: The product post-dyeing color data collection module (202) detects and collects product color information after dyeing, and the post-dyeing color monitoring (306) organizes the product color information after dyeing into a visual chart and transmits it to the post-dyeing color monitoring dashboard (606).
9. The monitoring and early warning system for anodizing production line according to claim 2, characterized in that: The product parameter early warning system monitoring (307) collects parameters of the product production process, compares its data with the product data collected by the product information collection module (101), and forms a visual chart that is transmitted to the product parameter early warning system monitoring dashboard (607).
10. The monitoring and early warning system for anodizing production line according to claim 9, characterized in that: The color yield analysis monitoring (308) collects parameters of the product production process, compares its data with the data collected by the product experiment of the Lab laboratory data acquisition module (102), and forms a visual chart and transmits it to the color yield analysis monitoring dashboard (608).
