JP2001344006A - Device and method for manufacture controlling, and program - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a manufacture controller capable of grasping the producing situations of products in each process in a manufacturing line and reflecting the result through the manufacturing processes. SOLUTION: This device is constituted of an interface (11) for inputting manufacture instruction data from a trunk system (100) for controlling the quantity or manufacturing processes of products to be manufactured, an information controller (12) for controlling data related with each component to be used for manufacture according to the manufacture instruction data and outputting information to be attached to the components, and an information displaying device for generating manufacture information in the manufacturing processes using components based on the data to be controlled by the information controller and displaying the manufacture information as controlling action standard auxiliary information.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a production management system which grasps the production status of products in individual processes on a production line and reflects the result through the production process.
The present invention relates to a manufacturing management method and a storage medium storing software used for the manufacturing management method.

[0002]

2. Description of the Related Art In a conventional manufacturing management system, real-time information and total information are not clearly separated, and the system does not include a management behavior standard.
Even if manufacturing information was displayed, it was difficult to lead to quick management actions.

Further, the conventional method of inputting a quality defect employs a method of selecting a defective item from a list, although the input of the defective item is coded. Therefore, when the number of defective items increases, the operation for inputting the items becomes complicated.

[0004] Recently, technology relating to a manufacturing management system has been developed, and these are disclosed in Japanese Patent Application Laid-Open No. 10-254.
No. 537 and JP-A-9-26588.

[0005]

In the conventional manufacturing management system as described above, real-time information performed on the manufacturing line and aggregated information having a time lag are not clearly separated. In addition, the conventional system
Since the system did not include a specific standard for management behavior of a human system, it was difficult to cause a human system to quickly perform a management operation even when manufacturing information was displayed. Furthermore,
Since a method of selecting and inputting a defect from a list every time a defect is generated on a production line is adopted, there is a problem that the operation for inputting the defect becomes complicated when the number of defect items increases.

Further, the above-mentioned patent publication describes that real-time information and total information are separately and separately displayed in a production management system, and that an appropriate management action can be performed based on real-time information in a production management system. I have.

However, even in the above-mentioned known example, "Who, when,
There is a problem that instructions to the human system have not been issued in a clear form, "Management Code of Conduct that shows how to respond."

According to the present invention, real-time information and total information are clearly separated, and a specific human-based management action standard is displayed, whereby a quick management action based on the displayed manufacturing information can be performed. An object of the present invention is to provide a manufacturing management system.

Further, the present invention provides a manufacturing management system that simplifies the input operation of a plurality of defective items by inputting defective items in order from the upper category and reducing the number of items to be selected by one input. The purpose is to:

It is another object of the present invention to provide a manufacturing management method using the manufacturing management system and a storage medium storing software related to the manufacturing management method.

[0011]

According to the present invention, there is provided an interface for inputting production instruction data from a backbone system for managing the number of production products and the production process, and an individual component used for production in accordance with the production instruction data. An information management device that manages data relating to the component and outputs information for attaching to the component, and generates manufacturing information in a manufacturing process using the component based on the data managed by the information management device. And an information display device for displaying the information in the form of management action standard auxiliary information in a form.

According to the present invention, there is provided a database for storing information generated from a core business system for instructing a production plan of a product, and a label issuing device for issuing a bar code label for each component to each component based on the storage information of the database. Reading a barcode of a barcode label of a component flowing through a manufacturing line, collecting data, and generating a manufacturing information in a manufacturing process based on the information stored in the database, and a data collection device for storing the collected data in the database. And a display device for displaying the production information as management behavior reference auxiliary information.

According to the present invention, there is provided a step of inputting manufacturing instruction data from a core system for managing the number of manufactured products and the manufacturing process, and managing data relating to individual parts used in manufacturing in accordance with the manufacturing instruction data; A data management step of outputting information for attaching to the component,
Generating and displaying manufacturing information in a manufacturing process using the component based on the data managed by the management unit; and determining a management behavior standard with reference to the displayed manufacturing information. Provide a manufacturing control method.

According to the present invention, there is provided a step of storing information generated from a core business system instructing a production plan of a product in a database, and a step of issuing a bar code label on the part to each part based on the storage information of the database. Reading a barcode of a barcode label of a component flowing through a manufacturing line, collecting data, and storing the collected data in the database; and generating manufacturing information in a manufacturing process based on the information stored in the database. Displaying the manufacturing information on the display device as the management behavior reference auxiliary information.

According to the present invention, a command for inputting manufacturing instruction data from a backbone system for managing the number of manufactured products and a manufacturing process to a computer, and managing data relating to individual parts used in manufacturing in accordance with the manufacturing instruction data are managed. An instruction to output information to be attached to the component to a computer, and causing the computer to generate manufacturing information in a manufacturing process using the component based on data managed by the management unit as management behavior reference auxiliary information,
A storage medium storing a program including an instruction to be displayed is provided.

According to the present invention, there is provided an instruction for storing information generated from a core business system for instructing a production plan of a product in a database of a computer, and a bar code label for the component based on the information stored in the database. An instruction to issue, a command to cause a computer to read a barcode of a barcode label of a component flowing through the manufacturing line, to collect data, and to store the collected data in the database, and in a manufacturing process based on the information stored in the database. A storage medium storing a program including instructions for causing a computer to generate manufacturing information and displaying the manufacturing information on a display device as management behavior reference auxiliary information is provided.

[0017]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS A manufacturing information management system according to a first embodiment of the present invention will be described with reference to FIGS. 1A to 1C. First, the backbone system interface 11 serves to transfer the manufacturing instruction data stored in the backbone integrated system 100 or the like to the manufacturing management system of this embodiment.

As shown in FIG. 1A, a manufacturing instruction from a backbone system (such as a backbone integrated system) 100 is taken into a database 1 via a backbone system interface 11. The data input / output device 12 has a function of inputting a control number and a start instruction data to a manufacturing site, and a function of printing a bar code label of the control number, and fetches the manufacturing command data from the core system from the database 1. Also,
The data input / output device 12 is provided with a start instruction database 2
And has a data management function of issuing number management data relating to the lot number, box number, manufacturing individual identification number, and product individual identification number to the database 3. The numbers are associated in the number management database 3.

As shown in FIG. 1B, product configuration master data is prepared as a configuration master indicating a component configuration for each product type, and stored in the database 4. The product configuration master data is input to the database 4 by the master data input device 14.

Information such as a defect code, its defect content, and a category classification relating to the defect is prepared as defect code master data and stored in the database 5. This data is input to the database 5 by the master data input device 14. Information such as a line configuration and a shift configuration of a manufacturing site such as a factory or a manufacturing shop, and a process configuration in the line are prepared as manufacturing site configuration master data and stored in the database 6. This data is input to the database 6 by the master data input device 14.

As shown in FIG. 1 (c), individual production history data and individual failure history data are stored in the databases 7 and 8, and are labeled with a bar code representing an individual identification number and a bar representing a production instruction number for registration. The production instruction sheet with a code or the like is printed by a label output device (not shown).

The individual manufacturing history data is input to the database 7 by the manufacturing history information input device 15. In the manufacturing history information input device 15, which input item is arranged in which process is set in advance, and the result of passing, starting or completing the process is read by reading the individual identification number barcode, and the individual manufacturing history is input. Database 7
To enter. Here, a configuration example of the individual manufacturing history data is shown in FIG.

The defect information generated in the manufacturing process and the inspection process is input to the individual defect history database 8 via the defect history information input device 16. This data is stored in the individual defect history database 8 in a form attached to the manufacturing individual identification number with reference to the defect code master data 7. FIGS. 2B and 2C show examples of the configuration of the individual failure history data.
Is shown in

Through such processing, the individual manufacturing history data in the individual manufacturing history database 7 and the individual defect history data in the individual defect history database 8 are totaled in the current state database 9 as necessary. The current state data is totaled in the minimum management unit required for manufacturing control in real time. The management unit is configured so that it can be combined according to the production site, such as line, model, day, and shift. FIG. 3 shows a configuration example of the current state database 9.

Further, the real-time management information display function of the information display device 17 displays a difference between the current state and the normal state, which leads to a manufacturing management action using the current state database 9. FIGS. 4A and 4B show examples showing the difference between the current state and the normal state.
Is shown in

The batch total information display function of the information display device 17 totals the defect history data of the past defect data by a specified method for a specified period, and displays the data in the form of a report. As an example of the method specified here, the transition of the pass rate (the ratio of shipment without occurrence of defects) by line or shift for a certain month, and the relationship between the causes of failure in descending order of failure occurrence phenomenon And the like.

The management behavior standard 18 is a matrix of who, what, and how to act, especially when the real-time management information changes, for each management hierarchy. An example of the management behavior standard is shown in FIG. By using the management behavior standard adapted to the management hierarchy of the manufacturing base, it is possible to immediately take a problem solving action using the manufacturing management information displayed by the manufacturing information management system.

A second embodiment of the present invention will be described with reference to FIG. In the production line, products are completed through parts input and parts assembly stations. If any trouble occurs on this production line, for example, between component introduction and component assembly, the production capacity is reduced. As a result, the planned throughput decreases. In this case, a display appears to show that the current throughput is lower than the planned throughput (production efficiency) by the real-time management information display function. The administrator who sees the display of the real-time management display function on the display device 17 immediately takes an action according to the management behavior standard 18 corresponding to his / her role. At the manufacturing site, as a result of a command from a manager, an improvement action regarding this trouble is taken, and quick problem solving is performed.

A third embodiment of the present invention will be described with reference to FIGS. In this embodiment, the defective master data is classified into categories as shown in FIG. As shown in the input screen of FIG. 8, the defect status is input by the defect history information input device 16 according to the management number from the upper category to the lower category, and finally the defect code desired to be input is input.

Finally, by reading the bar code of the bar code label attached to the individual (product) with the manufacturing individual identification number or the product individual identification number, the defect code and the individual identification number are registered in the manufacturing information management system as defect history data. Is done.

Next, a fourth embodiment will be described with reference to FIG. In this embodiment, a core business system 31 for instructing a production plan of a product, a database 32 for storing information generated from the core business system 31, and data collection based on information stored in the database 32 are performed. Executing unit 33 that issues a bar code label and collects manufacturing information, manufacturing instruction issuing unit 34 that sends manufacturing instruction information to manufacturing line 35 based on the information content of database 32, and data that graphically displays the analysis contents A display 36 is provided. The management action table 37 describes an action to be performed by the administrator based on the information displayed on the data display 36, for example, the progress, the quality bulletin, and the failure analysis.

In the configuration shown in FIG.
Upon receiving an instruction from the production manager in a monthly plan or a weekly plan for manufacturing a certain product, for example, 100 personal computers, the production plan information is stored in the database 32 via the interface 38. The core business system interface 38 receives a manufacturing plan from the core business system,
The completion results are sent to 1. The execution unit 33 issues a barcode label for a part corresponding to the product based on the production plan information.

On the other hand, the production instruction issuing section 34 gives a production instruction to the production line 35 based on the production plan information. This causes the part to flow on line 35. At this time, the bar code label is attached to the component.

When a product flows through the production line 35,
The barcode of each product is read by a barcode scanner (not shown). The read barcode information is registered in the database 32. In this case, basic data such as the component configuration of the product corresponding to the bar code label number and when and in which shift it was manufactured are registered in the database 32. In addition, information from the core system is printed on the barcode label, data indicating that the barcode has been issued, and information on what number of barcodes have been issued are stored in the database 32.
Further, information indicating where on the line the product has passed is captured as a manufacturing history. If a defect has occurred, the individual defect data is created using the defect as an input. By taking in these data, the current state data can be created in real time.

By reading the barcode on the barcode label as described above, it is possible to track when and where the product is, and what components are formed. The tracking data is stored in the database 32 in real time. Based on the information stored in the database 32, the manager keeps a delivery date and collects data to obtain information necessary for the manager's factory management in order to improve quality. Visualization, that is, graphing is performed at 36. Looking at this graph, in such a case, incorporate human management standards such as who does what in the system to make the factory floor itself in the factory more efficient and productive .

In practice, who does what is determined based on the graph obtained by the system and makes a table. At the manufacturing site, specific actions are performed by looking at the table. A delay in the production line or the like is determined by referring to the displayed graph, and an alarm is issued when, for example, the degree of delay in the partial graph indicating the delay in the graph of FIG. 4 increases. Or, the size of the progress of production or the incidence of defects,
You can see an increase in the number of products. Defective products can be tracked based on barcode information, so feedback can be provided to component vendors.

Further, for example, a blue bar is used for the actual result and a red bar is used for the prediction. When the actual result is lower than the predicted value, the red bar is protrudingly displayed. In the opposite case, the blue bar protrudes. Thereby, it is determined whether the abnormality is abnormal.

The pass rate is used for the presence or absence of an abnormality. The pass rate is referred to as a one-pass when there is no defect and a single pass, and a non-pass when there is a defect even once. The total number of inputs and the ratio of one pass is called the one pass ratio. The pass rates are individually displayed, and when the pass rates decrease, it is determined that an abnormality has occurred. The defect content is displayed for each line when the pass rate drops.

In this case, the screen of the display 36 is divided into three areas. For example, as shown in FIG. 16, an area is provided on the screen that can display the progress result of each production line, the delay / alarm for each line, and the progress of all the lines. In the display area of the progress result for each production line, only the plan and the result are shown, but other items such as a work in progress and a difference in progress may be displayed. In another display example shown in FIG. 17, areas for displaying the failure status by line, the failure / alarm of the entire line, and the progress status of all lines are provided.

Clicking on the line displayed as described above shows detailed information such as what is defective, what is defective, the progress of production is reduced, and what is the cause of the defect is shown in FIG. Is displayed for each production line.

When the administrator sees the graph and finds that the progress of the production is decreasing, he first decides what to do. At this time, click on the text information to see what is happening. With this, it is possible to see what kind of defects occur frequently and where. Based on this information, the administrator decides where and what to do. In this way, information for taking action in real time can be provided to the manager, and the manager can take action based on the progress of production and the defect rate.

Next, an action to be performed by a manager when a defect occurs will be described.

By looking at the decrease in the pass ratio, it is determined in which step the defect has occurred in the character information. At this time, the number of defective defects is displayed for each process. Among them, the process in which the defect occurs most frequently can be determined. In the process, there is character information indicating the classification of the defect. The pull-down shows which place in which category and what phenomenon it is. Based on this, if it is known in which process, in which step, in which classification, in what place in the process, and what kind of phenomenon, it can be understood that such a defect has occurred in the A product at the M location. Thereby, the administrator can know what has happened in the P process, and the administrator can take measures.

Next, failure analysis performed by the execution unit 33 will be described. Line 3 with bad data for analysis
Input from 5. Screen data for inputting defective data and defective data are stored in the database 32 and registered therein. The failure phenomenon and the cause of the failure are stored roughly.

This failure information is in units of time, line, and process. Then, what kind of defect has occurred and how many have occurred are tabulated. By summing up various data in this way, a failure phenomenon and a cause of the failure are accumulated. This integration is performed in minimum units for all phenomena and causes. The content of one data is which line, which process, which day, what type, what kind of failure phenomenon structure, what kind of failure cause structure, what kind of processing is performed, and where Items in which department are grouped as the minimum management unit and totaled. This is called a data cube. As shown in FIGS. 15 (a) and 15 (b), the data generated in the line is allocated to the primary total data cube at the same time as registering the manufacturing history and the defect history for each product.

Next, information such as what has happened and how many times has been stored in the data cube for counting the defects when the data is registered. The information includes a defect phenomenon, for example, a phenomenon that the screen is not displayed or the power is not turned on. After the failure phenomenon, investigate the cause of failure. For example, the cause is that the power was not turned on because the solder was not attached, the wire was cut off, or a component was wrongly attached. These causes are entered into the database 32 after repair. Two data cubes are created: a data cube in which a defect has occurred (data cube of the phenomenon) and a data cube in which the defect has been repaired (data cube of the cause).

After these data cubes are created, data to be viewed can be selected on the screen. For example, the data classification of which model of which process of which line, which shift, what kind of defect, from when to when, and the contents of the analysis to be shown in the transition of the pass rate, and analyze Set the type of analysis, such as whether to perform Pareto analysis, or to analyze and see the relationship between phenomena and causes.
Based on such an analysis type, for example, from what time of day to what time of day, the content that the defect rate of which line changes in a day-by-day manner is fetched from the data cube. This content categorizes the failure phenomena in descending order, arranges them in order from the most frequent category, and shows the breakdown of what failures occur as a detailed group. From the "data cube of phenomena", the amount of the five cases in the whole is taken. This time, the failure causes that occurred from when to when from the “data cube of the cause” are arranged in descending order, and the 10 failure causes are subjected to Pareto analysis so that the largest failure cause can be found. This is obtained by investigating the cause of the defect from the defect phenomenon. This time, the classification of what kind of phenomenon occurs with respect to a certain cause will be understood so that if such a phenomenon occurs, there are many such causes. Based on this result, the quality manager determines what to do to improve the quality.

Next, defective code master data stored in the database 32 will be described. When inputting defect information, the defect code master data encodes various defects that occur when a defect is managed at a factory, and determines the code number according to the defect form. For example, there is a defect phenomenon that a product does not move when inspected, for example, a computer screen is not displayed. Then, there is a phenomenon that the screen is not displayed on the defective master data, and the code is a three-digit character code of A15. When this A15 is input, a defect (screen defect) is registered. By looking at this code, the contents of the defect can be grasped later.

Next, a method of registering the data cube described above will be described with reference to FIG. First, the identification number of the individual,
The data of the defective phenomenon occurrence location and the defective phenomenon code are input (S11), and the time and the location master, that is, the location of the location code (line and station) are added to the data (S12). The data to which the time and location masters have been added are divided into minimum units (S13). When this data is generated once, the count is incremented in the minimum unit with reference to the count in the minimum unit (S14). This count-up is registered in the data cube (S15). in this case,
The minimum unit in data registration is determined by referring to various counts when data comes in.
Count based on the minimum unit, register the data cube based on the count. This registration has the same defect phenomenon and cause. The cause structure is configured by a place to be divided into minimum units, a line to be divided, a date to be divided, a slice number when dividing a day by a unit time, and a product.

In the manufacturing management system according to the embodiment of the present invention, all data is stored in the database, and necessary information is displayed from the data. Regardless of whether you are making a computer, building a refrigerator, or making a TV at a factory that makes things, there is a process, a line, a defect, etc. Most items are the same. Until now, if you have a database as a basic function in the database that was made for each factory according to various factories, you can optionally customize only the special parts of the factory. Applicable immediately. Therefore, a table for collecting and recording various data is determined, and by using a template in which all the desired items are written in the items in the table, the table does not change, but the data can be rewritten to suit various factories. This template has the same screen to be displayed, and an action may be taken when an abnormality occurs. Therefore, the screen can be used in common. The screen is also provided. Create things that are in common from the beginning, and only make customizations individually.

The analysis result obtained as described above is displayed on the display 36 as a judgment material for the administrator. 11 to 14 show a pass rate, a failure phenomenon analysis, a failure factor pareto, and a failure phenomenon / factor analysis, respectively.
The administrator judges countermeasures for the above by looking at the displayed analysis results.

In the above, the embodiment of the present invention has been described.
It can also be executed by a commercially available computer in a storage medium such as an optical disk such as D or a semiconductor memory. Of course, the present invention can be variously modified in addition to the above. In the following, it will be described. In the above-described embodiment, the functions belonging to the respective means are shared or separated, but may be separated or combined according to the circumstances of the manufacturing site where the functions are performed.

Further, in the above-described embodiment,
Although an example of the data configuration has been described, it is also possible to register and share data items separately or separately.

In the data input function, bar code input is used, but key input is also possible. Voice or image may be replaced with key input.

Further, although the difference from the scheduled state is described with two graphs, it may be shown by an alarm or other images.

[0056]

According to the present invention described above, real-time information and total information are clearly separated, and the management behavior standard of the human system is included as a part of the system, so that quick management based on the displayed manufacturing information is achieved. Action can be enabled.

Further, the real-time information and the total information are clearly separated, and quick management based on the manufacturing information displayed by the manufacturing system management method using the manufacturing information management system in which the human-based management behavior standard is part of the system. You can take action.

In the data input, while the defect codes grouped hierarchically are provided as defect master data, they are displayed on the screen in order from the upper layer.
Each time the operator selects a screen display item, the process proceeds to a lower hierarchy, and a defect code can be finally input, thereby simplifying the operation of inputting defective data.

[Brief description of the drawings]

FIG. 1 is a conceptual diagram showing a system configuration and a data flow of a manufacturing information management system according to a first embodiment of the present invention.

FIG. 2 is a diagram showing a configuration table showing the configuration of individual manufacturing history data and a configuration of individual failure history data in the data management device according to one embodiment of the present invention.

FIG. 3 is a diagram showing a configuration of current state data in the data management device according to one embodiment of the present invention.

FIG. 4 is a graph showing a normal state and a current state displayed on the information display device according to one embodiment of the present invention.

FIG. 5 is a diagram showing a table of a management behavior standard according to an embodiment of the present invention.

FIG. 6 is a diagram showing a manufacturing system management method using a manufacturing information management system according to one embodiment of the present invention.

FIG. 7 is a diagram showing a defective code master data table in the data management device according to one embodiment of the present invention.

FIG. 8 is a diagram showing a flow of an input method relating to a defective code in one embodiment of the present invention.

FIG. 9 is a schematic block diagram of a production management system according to a fourth embodiment.

FIG. 10 is a flowchart showing a process of registering a failure phenomenon.

FIG. 11 is a graph of a pass rate displayed on a display device.

FIG. 12 is a graph showing a failure phenomenon analysis.

FIG. 13 is a view showing a failure factor Pareto.

FIG. 14 is a diagram showing a failure phenomenon / factor analysis.

FIG. 15 is a diagram showing a data cube.

FIG. 16 illustrates a display example of a display device.

FIG. 17 is a diagram showing another display example of the display device.

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 1 ... Database 2 ... Start instruction database 3 ... Management database 4 ... Product configuration database 5 ... Defect code database 6 ... Manufacturing site configuration database 7 ... Individual production history database 8 ... Individual failure history database 9 ... Current status database 11 ... Basic system interface DESCRIPTION OF SYMBOLS 12 ... Data input / output device 14 ... Master data input device 15 ... Manufacturing history information input device 16 ... Defective history information input device 17 ... Information display device 18 ... Management behavior standard table 31 ... Core business system 32 ... Database 33 ... Execution unit 34 ... Manufacturing instruction issuance section 35 ... Manufacturing line 36 ... Data display 37 ... Management action table

Claims (19)

[Claims] An interface for inputting manufacturing instruction data from a core system for managing the number of manufactured products and a manufacturing process; and managing data relating to individual parts used in manufacturing in accordance with the manufacturing instruction data; An information management device that outputs information to be attached to, and manufacturing information in a manufacturing process using the component based on data managed by the information management device, and displays the manufacturing information as management behavior standard auxiliary information An information display device, and a manufacturing management device comprising: 2. The data management device according to claim 1, wherein the start instruction data, management data relating to a lot number, a box number, a manufacturing individual identification number, and a product individual identification number; product configuration master data; 2. The manufacturing management apparatus according to claim 1, wherein the manufacturing management apparatus manages configuration data, individual manufacturing history data, individual failure history data, and current state data. 3. The input device according to claim 1, wherein the input device has a function of inputting a control number and a start instruction to a manufacturing site, a master data input function, a manufacturing history data input function, and a failure history data input function. Management device. 4. The manufacturing management device according to claim 1, wherein the information display device has a batch total information display function and a real-time management information display function. 5. The manufacturing management apparatus according to claim 1, wherein the information management apparatus has a function of printing a barcode label as information for attaching parts to the manufacturing information. 6. A database for storing information generated from a core business system for instructing a production plan of a product, a label issuing device for issuing a barcode label for each component to each component based on information stored in the database, A bar code of a bar code label of a part flowing on a line is read, data is collected, and a data collection device that stores the collected data in the database; and manufacturing information in a manufacturing process is generated based on the information stored in the database. And a display device for displaying the manufacturing information as the management behavior standard auxiliary information. 7. The data collection device fetches information indicating where a part has passed on a line as manufacturing history information, and when a defect has occurred, inputs the defect and creates individual defect data. 7. The manufacturing management apparatus according to claim 6, wherein data of a current state is generated in real time by taking in the data. 8. The manufacturing management device according to claim 7, wherein the data collection device totals the manufacturing history information and the defect data, and graphs the totaling information and displays the graph on the display device. 9. The information display device includes an area for displaying a progress status or a failure status for all lines, an area for displaying a delay occurrence alarm or a failure alarm for each line, and a progress status for each of the lines. The manufacturing management device according to claim 1, further comprising an area for displaying a defect status. 10. A manufacturing management method using the manufacturing management device according to claim 1 to cause an action related to manufacturing management based on a display on the information display device. 11. A step of inputting manufacturing instruction data from a core system for managing the number of manufactured products and the manufacturing process, and managing data relating to individual parts used in manufacturing in accordance with the manufacturing instruction data. A data management step of outputting information to be attached to; a step of generating and displaying manufacturing information in a manufacturing process using the component based on the data managed by the management unit; and displaying the displayed manufacturing information. Determining a management behavior standard by referring to the production management method. 12. A failure code display step of, when entering failure history data in a data input step, displaying failure codes categorized in a hierarchical manner as failure code master data and displaying the failure codes in order from an upper hierarchy. 12. The manufacturing management according to claim 11, further comprising: a hierarchy selecting step of proceeding to a lower hierarchy every time the displayed defect code is selected by the operator; and a defect code input step of finally inputting a predetermined defect code. Method. 13. A step of storing, in a database, information generated from a core business system instructing a production plan of a product, a step of issuing a barcode label on the part to each part based on information stored in the database, Reading a barcode of a barcode label of a part flowing on a line, collecting data, and storing the collected data in the database; and generating manufacturing information in a manufacturing process based on the information stored in the database. And displaying on the display device as management behavior standard auxiliary information. 14. The data collecting step takes in information indicating where the part has passed on the line as manufacturing history information, and when a defect has occurred, creates a defect data by inputting the defect. 14. The manufacturing management method according to claim 13, wherein the data of the current state is generated in real time by capturing the data. 15. The manufacturing management method according to claim 14, wherein, in the data collecting step, the manufacturing history information and the failure data are totalized, and the totaling information is displayed in a graph on the display device. 16. The display step includes a screen showing a progress status or a failure status for all lines, a screen showing a delay occurrence alarm or a failure alarm for each line, and a progress status or a failure status for each of the lines. 14. The manufacturing management method according to claim 13, further comprising the step of displaying together a screen indicating the following on the display device. 17. A command for causing a computer to input manufacturing instruction data from a core system that manages the number of manufactured products and manufacturing processes, and manages data relating to individual components used in manufacturing in accordance with the manufacturing instruction data. An instruction to output information to be attached to the part to a computer, and the computer generates and displays manufacturing information in a manufacturing process using the part as management action standard auxiliary information based on data managed by the management means. Instructions and a program containing 18. A command for causing a computer to store information generated from a core business system instructing a production plan of a product in a database, and causing each computer to issue a barcode label on the component to the computer based on the storage information in the database. Instructions, causing a computer to read a barcode of a barcode label of a component flowing through the manufacturing line, collect data, and store the collected data in the database; and manufacturing information in a manufacturing process based on the information stored in the database. And a command to cause a computer to generate the information and display the manufacturing information on a display device as management behavioral standard auxiliary information. 19. The display command includes a screen showing a progress status or a failure status for all lines, a screen showing a delay occurrence alarm or a failure alarm for each line, and a progress status or a failure status for each of the lines. 20. The program product according to claim 18, further comprising an instruction to cause the display device to display together with a screen indicating the following.