Production cycle identification intelligent display platform

Abstract

The invention discloses a production cycle identification intelligent display platform. Comprising a dynamic coding engine system capable of automatically generating a multi-format periodic code from a real-time date, a production state dynamic mapping system capable of realizing automatic judgment and visual rendering of a production state, and a display system capable of visually displaying the month, ten-day, ten-day, ten-day, ten-day, ten-day, ten-day and ten-day states through a dot-matrix graph. The bidirectional dot matrix visualization system is used for enhancing state recognition by combining mirror image mapping according to three types of cycle information; according to the invention, 26 periodic coding formats are automatically generated based on the preset rule base through the dynamic coding engine system and the triggering multi-format coding generation module, the formats do not need to be manually redefined, the dynamic adaptability of a multi-element production scene can be improved, the definition and combinational logic of each coding format is determined through the preset rule base, and the coding efficiency is improved. And the rule description is marked when the coding result is output, a unified periodic coding standard is formed, the compatibility is strong, format confusion can be eliminated, and the consistency of cross-scene and cross-department information transmission is ensured.

Description

TECHNICAL FIELD

[0001] The present application belongs to the technical field of electronic manufacturing industry, and particularly relates to a production cycle identification intelligent display platform. BACKGROUND

[0002] In modern manufacturing and related production fields, production cycle identification, as an important carrier for recording and transmitting key information such as production progress and time nodes, directly affects production management efficiency, information transmission quality, and customer perception and trust of the production process.

[0003] However, the production cycle format of the prior art is often fixed and cannot be flexibly adjusted according to different production scenarios, industry standards or customer needs, resulting in insufficient adaptability of cycle information when facing diversified production plans or cross-field cooperation; at the same time, the coding related to production cycle lacks a unified standard, and different enterprises, or even different production lines within the same enterprise, may use their own independent coding rules, increasing the risk of misunderstanding in the information transmission process.

[0004] In terms of graphical visualization, most systems can only display production cycle information in the form of simple text or tables, and it is difficult to intuitively reflect the dynamic changes of production progress and the status of key nodes. Operators need to spend a lot of time interpreting information, and misreading is likely to occur; and the accuracy of the production state of the existing system cannot be effectively verified in both directions, and data errors or state deviations are difficult to discover and correct in a timely manner, which may affect the production plan. SUMMARY

[0005] The purpose of the present application is to provide a production cycle identification intelligent display platform, which integrates a dynamic coding engine, a bidirectional dot matrix visualization system and a production state dynamic mapping method, to improve the flexibility, standardization, readability and interactivity of production cycle identification, thereby meeting the efficient and accurate needs of modern production management.

[0006] To achieve the above purpose, the present application adopts the following technical solutions: The production cycle identification intelligent display platform comprises a dynamic coding engine system capable of automatically generating multi-format cycle coding from real-time dates, a production state dynamic mapping system for automatically determining and visually rendering the production state; and a bidirectional dot matrix visualization system for intuitively displaying month, decade and week cycle information through dot matrix graphics and strengthening state recognition by mirror mapping, wherein the dynamic coding engine system, the bidirectional dot matrix visualization system and the production state dynamic mapping system are electrically connected.

[0007] Preferably, the dynamic coding engine system comprises a real-time date input module receiving a rolling adjusted real-time date and triggering a coding update event, a base element extraction module extracting standardized base elements from the real-time date, a multi-format coding generation module generating 26 periodic coding formats based on automatic combination of the base elements and a preset rule library, and a coding result output module synchronously displaying the generated multi-format coding in text form and supporting linkage with a dot matrix system. The real-time date input module, the base element extraction module, the multi-format coding generation module, and the coding result output module are electrically connected.

[0008] Preferably, the production status dynamic mapping system comprises: a real-time date analysis module converting a rolling adjusted real-time date into standardized date data; a periodic parameter calculation module calculating a current month, decade, and week periodic parameter based on the date data; a state determination rule module determining each periodic state; a graphical instruction generation module converting a state identifier into coordinate and color instructions of a dot matrix graph; The real-time date analysis module, the periodic parameter calculation module, the state determination rule module, and the graphical instruction generation module are electrically connected.

[0009] Preferably, the bidirectional dot matrix visualization system comprises a periodic parameter receiving module receiving periodic parameters as original data for coordinate mapping calculation, and a coordinate mapping calculation module converting the periodic parameters into coordinate positions and color states of a dot matrix; a raw dot matrix drawing module drawing a basic dot matrix graph containing month, decade, and week information; a mirror dot matrix generation module performing horizontal inversion and color conversion on a raw dot matrix to generate a symmetrical mirror image graph, and a state linkage verification module verifying consistency of periodic states of the raw and mirror dot matrices and outputting a verification result; The periodic parameter receiving module, the coordinate mapping calculation module, the raw dot matrix drawing module, the mirror dot matrix generation module, and the state linkage verification module are electrically connected.

[0010] Preferably, the real-time date input module comprises an industrial computer capable of automatically obtaining a real-time date, the industrial computer supporting manual date change through a touch screen or a knob, a CPU of the industrial computer splitting standardized elements from an original date and temporarily storing the extracted elements in a memory for calling by a multi-format coding generation module.

[0011] Preferably, the computing memory of the industrial computer traverses the preset rule library by running a rule matching algorithm, calls the basic elements and splices the basic elements according to the rules, realizes multi-format code generation, and stores the generated code results.

[0012] Preferably, the CPU of the industrial computer reads the code list output by the multi-format code generation module from the RAM through the memory controller, and filters out the codes to be displayed and writes them into the specified cache area of the RAM, so as to realize the output of the code result output module.

[0013] Preferably, the real-time date analysis module receives data from the real-time date input module, and outputs basic date information to the cycle parameter calculation module, the cycle parameter calculation module receives the analyzed date data, and outputs the cycle value to the state judgment rule module, the state judgment rule module receives the cycle parameter, and outputs the state identifier to the graphic instruction generation module, the graphic instruction generation module outputs the drawing parameters to the bidirectional dot matrix visualization system, and drives the graphic rendering.

[0014] Preferably, the cycle parameter receiving module includes an RS485 interface chip for receiving parameters, and the CPU of the industrial computer reads the parameters through the UART interface, performs verification, and the RAM of the industrial computer caches the verified parameters to the specified address.

[0015] Preferably, the original dot matrix drawing module includes an LCD drive chip, which is used for receiving drawing parameters and converting the drawing parameters into pixel level drive signals of the LCD screen, and lighting blue dots at corresponding positions of the LCD screen to form an original dot matrix.

[0016] Compared with the prior art, the production cycle identification intelligent display platform has the following advantages: 1. The dynamic coding engine system of the present application receives the real-time date adjusted in real time through the real-time date input module, triggers the multi-format code generation module to automatically generate 26 kinds of cycle code formats based on the preset rule library, and does not need to manually redefine the format, which can improve the dynamic adaptability of the multi-element production scene.

[0017] 2. The present application defines the definition and combination logic of each code format through the preset rule library, and labels the rule description when the code result is output, forms a unified cycle code standard, and is compatible with the strong ability to eliminate format confusion, and ensures the consistency of cross-scene and cross-department information transmission.

[0018] 3、The application converts the period parameters into dot matrix coordinates and color instructions through the bidirectional dot matrix visualization system, the original dot matrix drawing module lights up the blue dot at the corresponding position of the LCD screen, and intuitively displays the month, decade and week information; meanwhile, the production state dynamic mapping system sets the past period dot matrix to white and the current period to blue through the date-state mapping logic, so that the staff can quickly judge the current production period node through the color and position without complex calculation and interpretation, and the state misjudgment rate can be reduced. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 is a system block diagram of the application; Figure 2 is an original dot matrix diagram of the month and decade of the application; Figure 3 is an original dot matrix diagram of the production month and production week of the application; Figure 4 is an original dot matrix diagram of the comprehensive period node of the application; Figure 5 is a mirror dot matrix diagram of the month and decade of the application; Figure 6 is a mirror dot matrix diagram of the production month and production week of the application; Figure 7 is a mirror dot matrix diagram of the comprehensive period node of the application; Figure 8 is a display interface diagram of the comprehensive period information combined with the bidirectional dot matrix of the application. DETAILED DESCRIPTION

[0020] The technical solutions in the embodiments of the application will be clearly and completely described below with reference to the drawings in the embodiments of the application. Obviously, the described embodiments are only part of the embodiments of the application, rather than all the embodiments of the application. The specific embodiments described herein are only used to explain the application, and are not used to limit the application. Based on the embodiments in the application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of the application.

[0021] The application provides a production period identification intelligent display platform as shown in Figures 1-8 , which comprises a dynamic coding engine system capable of automatically generating multi-format period codes from real-time dates, a production state dynamic mapping system for automatically determining and visually rendering the production state, and a bidirectional dot matrix visualization system for intuitively displaying three types of period information, i.e., month, decade and week, through dot matrix graphics and combining mirror mapping to strengthen state recognition. The dynamic coding engine system, the bidirectional dot matrix visualization system and the production state dynamic mapping system are electrically connected.

[0022] The dynamic coding engine system comprises a real-time date input module receiving a rolling adjustment of a real-time date and triggering a coding update event, a basic element extraction module extracting standardized basic elements from the real-time date, such as years, months, weeks, days, shifts, etc., a multi-format coding generation module automatically combining the basic elements with a preset rule library to generate 26 kinds of periodic coding formats, and a coding result output module synchronously displaying the generated multi-format coding in a text form and supporting linkage with a dot matrix system. The real-time date input module, the basic element extraction module, the multi-format coding generation module and the coding result output module are electrically connected.

[0023] The real-time date input module comprises an industrial computer capable of automatically acquiring a real-time date, the industrial computer supports manual date change through a touch screen or a key knob, a CPU of the industrial computer splits standardized elements from an original date, realizes basic element extraction, and temporarily stores the extracted elements in a memory for calling by the multi-format coding generation module.

[0024] Date input and update triggering serve as a trigger source of dynamic coding, realize acquisition and adjustment of a real-time date, and ensure that date change can instantly drive coding update.

[0025] Date acquisition mode: automatic loading: when the system starts, the local real-time date is acquired through a development language native date interface, and is automatically filled into an interface "current date column", and the current date is generated by default; Manual adjustment: a "rolling calendar control" is provided, such as pull-down selection and drag adjustment, after the user modifies the date through rolling operation, the control triggers a DateChanged event, and synchronizes the new date to the basic date element extraction module.

[0026] Update triggering mechanism: no matter "automatic loading" or "manual rolling adjustment", a "coding update signal" is triggered immediately after the date changes, and the "element extraction-coding generation" process is forcibly re-executed, to ensure that the coding is synchronized with the date without delay; The computing memory of the industrial computer traverses a preset rule library by running a rule matching algorithm, such as "WWYY=year week+short year", to analyze the element combination logic of each coding; calls basic elements such as year week=26 and short year=25, and splices according to the rules, such as 26+25=2625, to realize multi-format coding generation and store the coding result.

[0027] The CPU of the industrial computer reads the coding list output by the multi-format coding generation module from the RAM, such as 26 kinds of coding, and filters out the coding to be displayed and writes it into the specified cache area of the RAM, such as address 0x1000-0x2000, to realize the output of the coding result output module.

[0028] For example: automatically generate 7 types of period codes according to the date, code snippet: txtPeriodInfo2.Text = CStr(weekOfYear) & yearStr'format: week number + year (22) txtPeriodInfo22.Text = shortYearStr & weekOfYear & "-" & dayOfWeek & shiftCode'format: year + week number - week day + shift (22W25-31) Single algorithm supports 26+ coding rules, generates all formats of codes, and marks "customer adaptation label", such as customer A commonly uses WWYY / YYWW, and customer B commonly uses YYDDD / MMYY, to facilitate subsequent output filtering of irrelevant formats and to adapt to different customer needs.

[0029] The generated 26+ period codes are output to the platform interface in the form of "text box + customer adaptation filtering", and are linked with the bidirectional dot matrix system to realize the operation demand of "synchronous display of all formats, forms and graphical period information".

[0030] According to the "period format" list layout, an independent text box is allocated for each coding format, and three parts of information are marked, including "coding identification", "rule description" and "current coding value". The coding output and the bidirectional dot matrix visualization system share the "real-time date" data source, ensuring that the coding text, such as "June" corresponding to MMYY=0625, is completely consistent with the dot matrix graph, and the period information of the blue dot in June is completely consistent, realizing the synchronous update of "text + graph".

[0031] The production state dynamic mapping system comprises: A real-time date analysis module converts the rolling adjusted real-time date into standardized date data; A period parameter calculation module calculates the current month, decade and week period parameters based on the date data; A state determination rule module determines the state of each period; A graphical instruction generation module converts the state identifier into coordinate and color instructions of the dot matrix graph; The real-time date analysis module, the period parameter calculation module, the state determination rule module and the graphical instruction generation module are electrically connected.

[0032] The real-time date analysis module receives data from the real-time date input module, outputs the basic date information to the period parameter calculation module, the period parameter calculation module receives the analyzed date data, outputs the period value to the state determination rule module, the state determination rule module receives the period parameter, outputs the state identifier to the graphical instruction generation module, and the graphical instruction generation module outputs the drawing parameters to the bidirectional dot matrix visualization system to drive the graphical rendering.

[0033] The overall process follows the standardized linear logic of analysis- parameter calculation- state determination- instruction generation- graphic rendering.

[0034] Specifically: receiving the original date of the real-time date input module, such as the system date automatically obtained by the industrial computer, the manually adjusted date, and disassembling it into standardized basic elements such as "year, month, day, week, and ten", etc. to provide a unified data source for subsequent calculation; Get the automatic date by calling the system API through C# / C++, or read the manually adjusted date input by the touch screen, and format it as "YYYY-MM-DD"; Data analysis: disassemble the date string and extract the basic elements: Year: year = DateTime.Now.Year, such as 2025; Month: month = DateTime.Now.Month, such as 6; Day: day = DateTime.Now.Day, such as 25; Decade: according to the day, 1-10 days = 1 (first ten days), 11-20 days = 2 (middle ten days), 21 days to the end of the month = 3 (last ten days); Week: call the Calendar.GetWeekOfYear method to calculate the week of the year, such as 2025-06-25 is the 26th week, and the week of the month, such as 6-25 is the 5th week of the month; Data output: encapsulate the parsed basic elements into JSON and pass them to the periodic parameter calculation module through shared memory, such as RAM specified address 0x1000-0x10FF, and trigger the "parameter update signal" at the same time.

[0035] Periodic parameter calculation module performs data reading and periodic value screening calculation, when the date update signal is triggered, read JSON data from shared memory 0x1000-0x10FF, and deserialize it into basic date elements.

[0036] According to the preset production needs, such as "electronic manufacturing industry needs to focus on 'production month, production ten, production week'", extract the key periodic parameters: Month parameter: directly reuse Month, such as 6; Ten-day parameter: directly reuse TenDayPeriod, such as 3, representing the last ten days; Week parameter: according to the production plan, select "week of the month" or "week of the year", such as select WeekOfMonth = 5; Data output: store the filtered period values, such as [6, 3, 5], in another designated buffer area of the RAM, 0x1100-0x110F, and send a "period value ready signal" to the state determination rule module; State determination rule module: output state identification according to period value: Determine the period value according to the preset production period rule, such as "June 2025 is the current production month, May is the past period, and July is the future period", and output the "past / current / future" state identification to provide the basis for graphic rendering.

[0037] Rule library preset: load the preset production period rule during system initialization, example rule: Past period: period value < current production period reference value, such as current production month is 6, and months 5 and below are "past"; Current period: period value = current production period reference value, such as month = 6 is "current"; Future period: period value > current production period reference value, such as 7 and above months are "future"; Receive the period value of the period parameter calculation module, and output the state identification after matching the rule library.

[0038] The graphic instruction generation module generates "coordinate + color" drawing parameters according to the state identification and the preset "dot matrix coordinate mapping table", such as "month 1 corresponds to LCD screen coordinates (1, 1), month 2 corresponds to (2, 1) …", to drive the bidirectional dot matrix visualization system to render graphics; The bidirectional dot matrix visualization system includes a period parameter receiving module that receives period parameters to provide raw data for coordinate mapping calculation, a coordinate mapping calculation module that converts period parameters into dot matrix coordinate positions and color states, a raw dot matrix drawing module that draws a basic dot matrix graph containing month, decade, and week information, a mirror dot matrix generation module that performs horizontal inversion and color conversion on the raw dot matrix to generate a symmetrical mirror image, and a state linkage verification module that compares the period states of the raw and mirror dot matrices and outputs the verification result; The period parameter receiving module, coordinate mapping calculation module, raw dot matrix drawing module, mirror dot matrix generation module, and state linkage verification module are electrically connected.

[0039] The period parameter receiving module includes an RS485 interface chip that receives parameters, and the CPU of the industrial computer reads the parameters through the UART interface and performs verification, such as determining whether July is within the range of 1-12, and the RAM of the industrial computer caches the verified parameters to a designated address.

[0040] The period parameter receiving module receives three types of period parameters, i.e., month, decade and week, from the production state dynamic mapping system, receives data through an interface chip and performs verification, and caches to a specified RAM address of an industrial computer to provide "error-free original data" for coordinate mapping calculation. The coordinate mapping calculation module reads the parameters cached by the period parameter receiving module, combines the "preset coordinate mapping table" and "production state color rule", converts the "month, decade and week" parameters into "pixel coordinates + color instructions" on the LCD screen, and provides instructions for dot matrix drawing.

[0041] Coordinate mapping table: set to period type (month / decade / week) + parameter value (month or week) + LCD screen coordinates (X, Y) example; Color rule: "past period = white, current / future period = blue": Past period (parameter value < current production period): color value 0xFFFFFF (white); Current period (parameter value = current production period): color value 0x0000FF (blue); Future period (parameter value > current production period): color value 0x0000FF (blue).

[0042] The original dot matrix drawing module includes an LCD driving chip SSD1963, which is used to receive drawing parameters and convert the drawing parameters "coordinates (0, 6), blue" into pixel level driving signals of the LCD screen, and light up blue dots at the corresponding positions of the LCD screen to form an original dot matrix, such as 7th month blue dots and upper decade blue dots.

[0043] After the original dot matrix drawing module detects the "drawing instruction ready signal", it reads the "coordinates + color" instructions from the RAM address 0x1200, calls the SSD1963 chip driving function, converts the "coordinates + color" instructions into pixel level driving signals of the LCD screen (such as blue corresponding to high level and white corresponding to low level), and lights up pixel points at the corresponding coordinate positions of the LCD screen, for example: Light up blue dots at (40, 20) to represent June; Light up blue dots at (80, 20) to represent the lower decade; Light up blue dots at (50, 40) to represent the 5th week of the month, after the dot matrix drawing is completed, send the "original dot matrix ready signal" to the "mirror dot matrix generation module", and mark "TOP" at the top of the LCD screen.

[0044] The mirror dot matrix generation module takes the horizontal center line of the LCD screen as the axis and reverses the X-axis value of the original coordinates, the formula is: mirror X coordinate = screen width - original X coordinate, assuming the screen width is 128 and the original X is 40→ mirror X is 88, Color rules: original blue (0x0000FF) -> mirror red (0xFF0000), original white (0xFFFFFF) -> mirror white (0xFFFFFF, no change after period color), original graph "TOP" mark, mirror graph "BOT" mark.

[0045] After drawing, send "mirror dot matrix ready signal" to "state linkage verification module".

[0046] Production state dynamic mapping method, dot matrix state determination logic, code snippet: If i < selectedMonth Then 'past month -> hide picDiagram.FillColor = vbWhite ElseIf i = selectedMonth Then If period = 1 And j = 1 Then vbWhite 'current decade hide Else vbBlue 'future month display blue dot. Through date-coordinate mapping relationship, realize production state automatic visualization.

[0047] State linkage verification module reads "period parameter mapping relationship" of original dot matrix and mirror dot matrix respectively, such as original graph coordinate -> June, mirror graph coordinate -> June, verify whether the corresponding period parameters are consistent, for example: The original graph matches "June" through coordinate (40, 20), and the mirror graph matches "June" through coordinate (88, 20), so the months are consistent. The original graph matches "lower decade" through (80, 20), and the mirror graph matches "lower decade" through (48, 20), so the decades are consistent. The original graph matches "5th week" through (50, 40), and the mirror graph matches "5th week" through (78, 40), so the weeks are consistent.

[0048] If all period parameters are consistent: display "verification passed" at the bottom of the LCD screen, and send "state normal" signal to the industrial computer main system; if there is inconsistency, display "verification failed".

[0049] Finally, it should be pointed out that the above only describes the preferred embodiments of the present application and is not intended to limit the present application. Although the present application has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent replacements to some technical features, as long as they are within the spirit and principles of the present application. Any modification, equivalent replacement, improvement, etc. made within the scope of the present application should be included in the protection scope of the present application.

Claims

1. A production cycle identification intelligent display platform, characterized by: This includes a dynamic encoding engine system that can automatically generate multi-format periodic codes from real-time dates, and a dynamic mapping system for production status that enables automatic determination and visual rendering of production status. A bidirectional dot matrix visualization system that intuitively displays monthly, ten-day, and three-week cycle information through dot matrix graphics and enhances state recognition by combining mirror mapping is provided. The dynamic coding engine system, the bidirectional dot matrix visualization system, and the production state dynamic mapping system are electrically connected.

2. The intelligent display platform for production cycle identification according to claim 1, characterized in that: The dynamic encoding engine system includes a real-time date input module that receives the real-time date that is being rolled and adjusts and triggers encoding update events; a basic element extraction module that parses and extracts standardized basic elements from the real-time date; a multi-format encoding generation module that automatically combines the basic elements with a preset rule base to generate 26 periodic encoding formats; and an encoding result output module that synchronously displays the generated multi-format encodings in text form and supports linkage with a dot matrix system. The real-time date input module, basic element extraction module, multi-format encoding generation module, and encoding result output module are electrically connected.

3. The intelligent display platform for production cycle identification according to claim 2, characterized in that: The production status dynamic mapping system includes: The real-time date parsing module converts the dynamically adjusted real-time date into standardized date data. The cycle parameter calculation module calculates the current month, ten-day period, and week cycle parameters based on date data. The state determination rule module determines the state of each cycle. The graphics instruction generation module converts status identifiers into coordinate and color instructions for dot matrix graphics; The real-time date parsing module, periodic parameter calculation module, status determination rule module, and graphic instruction generation module are all electrically connected.

4. The intelligent display platform for production cycle identification according to claim 3, characterized in that: The bidirectional dot matrix visualization system includes a periodic parameter receiving module that receives periodic parameters to provide raw data for coordinate mapping calculation, and a coordinate mapping calculation module that converts the periodic parameters into the coordinate position and color state of the dot matrix. A module for drawing the original dot matrix diagram containing information on months, ten-day periods, and weeks; A mirror matrix generation module performs horizontal inversion and color conversion on the original matrix to generate a symmetrical mirror image, and a state linkage verification module compares the periodic state consistency between the original and mirror matrix and outputs the verification result. The periodic parameter receiving module, coordinate mapping calculation module, original dot matrix drawing module, mirror dot matrix generation module, and state linkage verification module are all electrically connected.

5. The intelligent display platform for production cycle identification according to claim 4, characterized in that: The real-time date input module includes an industrial computer that can automatically acquire the real-time date. The industrial computer supports manual date changes via a touchscreen or buttons / knobs. The CPU of the industrial computer extracts standardized elements from the original date and temporarily stores the extracted elements in memory for use by the multi-format encoding generation module.

6. The intelligent display platform for production cycle identification according to claim 5, characterized in that: The industrial computer's computing memory traverses a preset rule base by running a rule matching algorithm, calls basic elements, and concatenates the basic elements according to rules to generate multi-format codes and store the generated encoding results.

7. The intelligent display platform for production cycle identification according to claim 6, characterized in that: The CPU of the industrial computer reads the encoding list output by the multi-format encoding generation module from the RAM through the memory controller, and selects the encodings to be displayed and writes them into the designated cache area of ​​the RAM, thereby realizing the output of the encoding result output module.

8. The intelligent display platform for production cycle identification according to claim 4, characterized in that: The real-time date parsing module receives data from the real-time date input module and outputs basic date information to the periodic parameter calculation module. The periodic parameter calculation module receives the parsed date data and outputs a periodic value to the status determination rule module. The status determination rule module receives the periodic parameter and outputs a status identifier to the graphics instruction generation module. The graphics instruction generation module outputs drawing parameters to the bidirectional dot matrix visualization system to drive graphics rendering.

9. The intelligent display platform for production cycle identification according to claim 4, characterized in that: The periodic parameter receiving module includes an RS485 interface chip for receiving parameters. The CPU of the industrial computer reads the parameters through the UART interface, performs verification, and the RAM of the industrial computer caches the verified parameters to a specified address.

10. The intelligent display platform for production cycle identification according to claim 4, characterized in that: The original dot matrix drawing module includes an LCD driver chip, which is used to receive drawing parameters and convert the drawing parameters into pixel level driving signals for the LCD screen, and to light up blue dots at corresponding positions on the LCD screen to form an original dot matrix image.

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