JP2008129888A - Production system preparation system and production system preparation method - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a production system preparation system preparing a production system for an article by freely combining a plurality of various production elements and alternative production elements from a high order to a low order. <P>SOLUTION: In the production system preparation system 10, a computer 15 extracts a plurality of various binary relation and ternary relation necessary for preparing a production system from a configuration master 18 and an alternative master 19, and prepares a variety of production systems by connecting production elements and alternative production elements extracted from each class master 17 in succession from their high order to their low order according to a unified relation. <P>COPYRIGHT: (C)2008,JPO&INPIT

Description

  The present invention relates to a production system creation system and a production system creation method for creating an article production system from a combination of various production elements that branch into a plurality from the upper level to the lower level.

There is a production management system that creates a configuration table of a mechanical device by expanding a plurality of parts constituting the mechanical device into a tree structure (see Patent Document 1). In this system, the data number of the mechanical device is set to 000, the first part number of the first part connected to the nearest lower part thereof is set to 100, 200, 300..., And the first part number 100 connected to the nearest lower part of the first part number 100 is set. The second part numbers of the two parts are 110, 120, 130..., And the third part numbers of the third parts that are immediately below the second part number 110 are 111, 112, 113. The second part numbers connected to the first part number 200 are 210, 220, 230..., And the second part numbers connected to the first part number 300 are 310, 320, 330. Further, the third part numbers that are connected to the second part number 210 are 211, 212, 213, and the third part numbers that are connected to the second part number 310 are 311, 312, 313, and so on. In this system, a first part number is connected to a data number of a machine, a second part number is connected to a first part number, and a third part number is connected to a second part number, thereby forming a plurality of machines. Can be expanded as a tree structure.
JP 2004-62526 A

  In the production management system disclosed in the above publication, the component parts of the mechanical device are managed by part numbers, and the first to third parts specified by the part numbers are arranged in order of numbers, so that they are specified in the immediate lower order of the first part. The second part is connected, and a specific third part is connected immediately below the second part. Therefore, in this system, the first to third parts arranged in a tree shape are uniquely defined, and different types of parts are arranged below the first parts and different kinds of parts are arranged below the second parts. In addition to being able to do this, it is not possible to incorporate production elements other than parts, and it is not possible to create a configuration table in which different types of production elements are freely combined. Further, in this system, there is no means for replacing the first to third parts with other different parts, and the parts forming the configuration table cannot be replaced with other parts. Therefore, if the parts that make up the composition table become unusable, cannot be purchased, or production is discontinued afterwards, it is not possible to create a composition table by substituting that part with another part. As a result, business efficiency is significantly reduced.

  An object of the present invention is to provide a production system creation system and a production system creation method capable of creating a production system for various articles by freely combining a plurality of different types of production elements from upper to lower levels. is there. Another object of the present invention is to provide a production system creation system and a production system creation method capable of creating a production system by replacing production elements with other production elements.

  The premise of the present invention for solving the above-mentioned problem is a production system creation system for creating an article production system from a combination of various production elements that branch into a plurality from the upper level to the lower level.

  The feature of the present invention based on the premise is that production elements are linked by an upper and lower binary relation between an arbitrary first production element and a second production element that is immediately below the first production element, The system is linked by the upper and lower three-term relationship between the second production element and the third production element that is immediately below the second production element, and the system stores a type master that stores various production elements, and a plurality of various 2 The system includes a configuration master storing item relationships and various ternary relationships, and an alternative master storing various alternative production elements that can be used in place of the first to third production elements. A plurality of various ternary relationships necessary for creation are extracted from the configuration master, and a plurality of various production elements corresponding to the first to third production elements forming the extracted ternary relationships are extracted from the type master. Create the first production system that integrates these three-term relationships extracted from the data and connects the production elements extracted from the type master in series from the higher level to the lower level according to the integrated three-term relationship. And a production element substitution means for extracting an alternative production element that can be used in place of the first to third production elements from the substitution master and changing at least one of the first to third production elements to the substitution production element And at least one of the first to third production elements is changed to an alternative production element by the production element substitution means, and then extracted from the configuration master and the substitution master by adding a ternary relationship including the substitution production element There is a second production system creation means for re-integrating these ternary relationships and re-creating a production system according to the re-integrated ternary relationships.

  As an example of the present invention, in the production system creation system, the type master is divided into a plurality of first to nth type masters, and the first to nth type numbers for identifying the types of production elements and the types of alternative production elements are provided. The first and second productions that are individually set for these production factors, and the production factors and alternative production factors are stored in the first to n-th type masters based on the first to n-th type numbers, forming a binary relationship The type number of the element and the type number of the first to third production elements forming the ternary relationship are stored in the relation master, the type number of the alternative production element is stored in the alternative master, A plurality of various production elements corresponding to the first to third production elements that form the extracted three-term relationship are extracted from the first to nth type masters based on the first to nth type numbers, and extracted from the configuration master. First to third production factors related to the three terms Referring to the first to nth type numbers, integrating a plurality of various three-term relationships extracted by combining the production elements having the same type number among the production elements forming the three-term relationships, In the 2 production system creation means, a plurality of various production elements and alternative production elements corresponding to the first to third production elements that form the extracted three-term relationship are first to first based on the first to nth type numbers. The first to nth of the alternative production elements extracted from the alternative master while referring to the first to nth type numbers of the first to third production elements in the three terms extracted from the n type master and extracted from the configuration master By referring to the type numbers, the various three-term relationships extracted by combining the production elements having the same type number among the production elements and alternative production elements that form these three-term relationships are integrated.

  As another example of the present invention, in the production element substitution means, one of the first to third production elements can be changed to two substitution production elements connected vertically.

  As another example of the present invention, in the production element substitution means, one of the first to third production elements can be changed to three substitution production elements connected vertically.

  As another example of the present invention, in the production element substitution means, two of the first to third production elements connected in the vertical direction can be changed to one alternative production element.

  As another example of the present invention, in the production element substitution means, three of the first to third production elements connected to the top and bottom can be changed to one substitute production element.

  As another example of the present invention, in the production element substitution means, three of the first to third production elements connected in the vertical direction can be changed to two alternative production elements connected in the vertical direction.

  As another example of the present invention, in the production element substitution means, two of the first to third production elements connected in the vertical direction can be changed to three alternative production elements connected in the vertical direction.

  As another example of the present invention, in the production system creation system, the first to nth department numbers for classifying the production elements and the alternative production elements by department are individually set to the production elements. From the production system generated by the production system generation means, execute the department-specific production system output means that outputs the production system for each department made from only the necessary production elements and alternative production elements for each department. The production system output means refers to the number of the alternative production element extracted from the alternative master while referring to the numbers of the first to nth departments of the various production elements corresponding to the first to third production elements extracted from the configuration master. With reference to the 1st to nth division numbers, a production system created only from production elements and alternative production elements corresponding to the same division number is output.

  The second aspect of the present invention for solving the above-described problem is that the type master storing a plurality of various production elements, and the upper and lower of any first production element and the second production element connected immediately below the first production element. A plurality of two-term relationships between production elements linked by the two-term relationship are stored, and upper and lower three-term relationships between the first and second production elements and the third production element that is immediately below the second production element. Including a configuration master storing a plurality of ternary relations between various production elements linked together by means of an alternative master storing a plurality of alternative production elements that can be used in place of the first to third production elements. A plurality of various ternary relationships necessary for creation are extracted from the configuration master, and a plurality of various production elements corresponding to the first to third production elements forming the extracted ternary relationships are extracted from the type master, and the configuration master Extracted from A first production system creation process for creating a production system by integrating these ternary relationships, and connecting the production elements extracted from the type master in a series from the higher level to the lower level according to the integrated ternary relationship; A production element change process for extracting an alternative production element that can be used in place of the first to third production elements from the substitution master, and changing at least one of the first to third production elements into an alternative production element; After at least one of the first to third production elements is changed to the alternative production element by the element change process, the three terms extracted from the configuration master and the alternative master by adding the three-term relation including the alternative production element This is a production system creation method that executes a second production system generation process that re-integrates the relationships and generates a production system again according to the integrated ternary relationship.

  According to the production system creation system and the production system creation method according to the present invention, a plurality of various three-term relationships extracted from the configuration master are integrated, and a plurality of various production elements extracted from the type master according to the integrated three-term relationships. Since a production system corresponding to each article is created by connecting them in series from the top to the bottom, different types of production elements can be freely used by using the ternary relation formed from the first to third production elements. A wide variety of production systems can be created in combination. The production system creation system and the production system creation method can share the type master and configuration master across multiple departments that make up a given organization, and can create a production system that can be shared by each department. The production system can be centrally managed as a whole organization by the configuration master and the type master. Therefore, it is not necessary for each department to create its own production system, and it is possible to save wasteful time and labor by individually creating and managing a huge number of different production systems. The production system creation system and the production system creation method extract substitute production elements that can be used instead of the first to third production elements from the substitution master, and substitute production of at least one of the first to third production elements. Since it can be changed to an element, even if a production element becomes unusable, unusable, or discontinued after the fact, it is possible to create a production system by replacing that production element with an alternative production element. Because it is possible, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in the operational efficiency of the entire organization and each department. In this production system creation system and production system creation method, when at least one of the first to third production elements is changed to an alternative production element, a new ternary relationship including the alternative production element is added to the configuration master. Since these three-term relationships extracted from the alternative master are integrated again, and the production system is created again according to the integrated three-term relationship, a wide variety of production systems including alternative production elements can be freely created.

  The production system creation system and the production system creation method that integrate the various ternary relationships extracted by combining the production elements of the same type number can reliably combine the production elements related to each other. Using the ternary relationship, a wide variety of production systems can be created by freely combining a plurality of different types of production elements and alternative production elements. In the production system creation system and the production system creation method, production elements and alternative production elements are distributed to the first to nth type masters according to the first to nth type numbers set in them, and stored in these type masters. , Production elements and alternative production elements that can be shared by each department by the first to nth type masters can be collectively managed for each type, and these production elements can be managed individually by each department Save time and effort. In this production system creation system and production system creation method, each department shares the configuration master, the alternative master, and the first to nth type masters, and the production elements and alternative production elements stored in the first to nth type masters Thus, a production system that can be shared by each department can be created, and the production system can be centrally managed by the configuration master, the alternative master, and the first to nth type masters.

  The production system creation system and the production system creation method that can change one of the first to third production elements into two alternative production elements connected up and down change one production element into two alternative production elements up and down By doing so, one production element can be replaced with an alternative production element linked by a binary relation, and a wide variety of production systems including alternative production elements linked by a binary relation can be easily created. This production system creation system and production system creation method creates a production system by replacing production elements with alternative production elements linked by a binary relationship even if the production elements become unusable, unpurchasable, or production discontinued. Therefore, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in operational efficiency of the entire organization and each department.

  The production system creation system and the production system creation method that can change one of the first to third production elements into three alternative production elements connected up and down, change one production element into three alternative production elements up and down By doing so, one production factor can be replaced with an alternative production factor linked by a ternary relationship, and a wide variety of production systems including alternative production factors linked by a ternary relationship can be easily created. This production system creation system and production system creation method creates a production system by replacing production elements with alternative production elements linked by a ternary relationship even if the production elements become unusable, unpurchasable, production discontinued, etc. Therefore, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in operational efficiency of the entire organization and each department.

  The production system creation system and production system creation method that can change two of the first to third production elements connected to the top and bottom to one alternative production element, change the top and bottom two production elements to one alternative production element By doing so, the production elements linked by the binary relationship can be replaced with one alternative production element, and a wide variety of production systems including one alternative production element can be easily created. This production system creation system and production system creation method creates a production system by substituting production elements with alternative production elements even if production elements linked by binary relations cannot be used, cannot be purchased, or production is discontinued. Therefore, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in operational efficiency of the entire organization and each department.

  The production system creation system and production system creation method that can change three of the first to third production elements connected to the top and bottom to one alternative production element, converts the top and bottom three production elements into one alternative production element By doing so, the production elements linked by the three-term relationship can be changed to one alternative production element, and a wide variety of production systems including one alternative production element can be easily created. This production system creation system and production system creation method creates a production system by replacing those production elements with alternative production elements, even if the production elements linked by the three-term relationship become unusable, unusable, or discontinued. Therefore, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in operational efficiency of the entire organization and each department.

  The production system creation system and the production system creation method that can change three of the first to third production elements connected up and down to two alternative production elements connected up and down, the upper and lower three production elements are replaced by the upper and lower two production elements By converting to production elements, production elements linked by ternary relations can be replaced with alternative production elements linked by binary relations, and various production systems including alternative production elements linked by binary relations are easy. Can be created. In this production system creation system and production system creation method, even if the production elements linked by the ternary relationship become unusable, unpurchasable, production discontinued, etc., alternative production that links these production factors by the binary relationship Since it is possible to create a production system by replacing elements, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in operational efficiency of the entire organization and each department.

  The production system creation system and the production system creation method that can change two of the first to third production elements connected up and down to three alternative production elements connected up and down, the upper and lower two production elements are replaced by the upper and lower three production elements By converting to production elements, production elements linked by binary relations can be replaced with alternative production elements linked by ternary relations, and various production systems including alternative production elements linked by ternary relations are easy. Can be created. This production system creation system and production system creation method is an alternative production element that links production elements by ternary relations even if production elements linked by binary relations become unusable, unpurchasable, production discontinued, etc. Since it is possible to create a production system by replacing, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in operational efficiency of the entire organization and each department.

  Production system creation system and production system for outputting a production system for each department formed from only necessary production elements and alternative production elements for each department based on the first to nth department numbers individually set for the production elements Since the creation method outputs a production system that includes only production elements that need to be displayed in each department and alternative production elements, production elements and alternative production elements that do not need to be displayed in each department can be excluded from the production system. It is possible to provide a real-time production system that is highly usable and easy to use for each department. In this production system creation system and production system creation method, each department can use a production system created only from the production elements necessary for it and the alternative production elements, and the work efficiency of each department can be improved.

  The details of the production system creation system and the production system creation method according to the present invention will be described below with reference to the accompanying drawings. FIG. 1 is a schematic configuration diagram of a production system creation system 10 shown as an example. FIG. 1 illustrates not only the overall production system that has been created, but also the production system for each department that is formed from only the production elements necessary for the design department 11, manufacturing department 12, purchasing department 13, and logistics department 14. ing. The departments are not limited to those shown in the figure, but include all departments (HR department, accounting department, sales department, sales department, general affairs department, etc.) that constitute an organization such as a government office or a company. The production system creation system 10 includes a computer 15 and an integrated management database 16 connected to the computer 15 via an interface (wired or wireless). Although not shown, each department 11, 12, 13, and 14 is provided with a terminal device (computer) connected to the computer 15 via an interface.

  The production element and the alternative production element are each technical information (technical element) indispensable for manufacturing the article. In this embodiment, the production element and the alternative production element are stores, warehouses, products, inspection processes, assembly processes, Examples of machining processes, inspection standards, inspection tools, assembly drawings, in-house parts, purchased parts, lines, jigs, designs, processing, and inventory are shown (see FIGS. 1, 12, and 15). However, the illustrated production elements and alternative production elements are examples, and the production elements are not limited thereto. The production element and the alternative production element include all of them that become the technical information of the article. Products, parts, and inventory belong to items (items) that are component elements of articles, and inspection standards, assembly drawings, and designs belong to deliverables (items) that are design elements of articles. , Process, process, and assembly belong to a process (item) that is a process element of an article. Inspection tools, lines, and jigs / tools belong to resources (items) that are resource elements of goods, and stores and warehouses belong to bases (items) that are place elements. The articles include not only finished products but also semi-finished products.

  For production elements and alternative production elements, type numbers (first to nth type numbers) for specifying the types of the production elements corresponding to various items are individually set. A first type number is set for each member element belonging to the item, a second type number is set for each design element belonging to the deliverable, and a third type number is set for each process element belonging to the process. A fourth type number is set for each resource element belonging to the resource, and a fifth type number is set for the base element belonging to the base. The items to which the production elements and alternative production elements belong are not limited to items, processes, deliverables, resources, and bases. The item to which the production factor and the alternative production factor belong includes all other items necessary for manufacturing the article, and the sixth to nth type numbers for specifying the item are set in the other item.

  In the production elements and alternative production elements, division numbers (first to nth division numbers) for classifying the production elements by division are individually set. In this embodiment, the department number of the design department 11 is the first, the department number of the manufacturing department 12 is the second, the department number of the purchasing department 13 is the third, and the logistics department 14 The department number is number 4. These production elements and alternative production elements are linked by an upper and lower binary relation between an arbitrary first production element and a second production element that is immediately below the first production element, and the first and second production elements. And the third production element that is immediately below the second production element.

  The computer 15 has a central processing unit (CPU or MPU) and a storage device (memory), and has a built-in large-capacity hard disk (memory). Although not shown, an input device such as a keyboard and a mouse and an output device such as a display and a printer are connected to the computer 15 via an interface. Note that input devices such as a keyboard and a mouse, and output devices such as a display and a printer are also connected to terminal devices installed in each department. In the internal address file of the storage device, a production system creation program for executing each means of this system is stored. The production system creation program is installed in the storage device of the computer 15 from an optical disk (storage medium) such as a CD-ROM storing the production system creation program. In addition to the optical disk, a semiconductor memory or a magnetic disk can be used as the storage medium.

  When the production system creation program is installed in the computer 15, the storage device of the computer 15 or the hard disk built in the computer 15 has items, deliverables, processes, models of items such as bases, and a plurality of various items belonging to these items. A model of production elements and alternative production elements, a classification number corresponding to each item, and a model of each department are stored together with a department number indicating each department. Furthermore, a database file serving as an integrated management database 16 (first to fifth type master 17, configuration master 18, and alternative master 19 described later) is created on the hard disk built in the computer 15. The computer 15 extracts necessary data from the storage device or the integrated management database 16 and stores the data in the storage device or the integrated management database 16 as necessary.

  In this system 10, in addition to existing items, production factors, and alternative production factors, new items, new production factors, new alternative production factors, and new divisions can be freely set. It is also possible to create a production system using alternative production factors. New items, new production factors, new alternative production factors, and new departments are input from the input device to the computer 15 and stored in a storage device or a hard disk. In the system 10, existing items, production factors, alternative production factors, and departments can be deleted from the storage device and the hard disk. It can also be deleted from the hard disk.

  The central processing unit of the computer 15 starts a production system creation program stored in the internal address file of the storage device, and integrates a plurality of binary relations according to the program, and a plurality of various ternary relations. Ternary relationship integration means for integrating the two-term ternary relation integration means for integrating various plural binary relationships and ternary relationships. The central processing unit stores, in its storage device or hard disk, a production system created by the first production system generation means that creates a production system corresponding to each article in real time based on the integrated relationship, and the first production system generation means. First production system output means for outputting the production system created by the first production system storage means and the first production system generation means via the output device is executed.

  The central processing unit of the computer 15 is a production element changing means for changing at least one of the first to third production elements into an alternative production element, and a plurality of binary relations including a binary relation including the alternative production element. Binary relation reintegration means for integrating again, ternary relation reintegrating means for adding again three ternary relations including alternative production elements, and various plural binary relations including alternative production elements The binary and ternary relation re-integrating means is executed for adding the binary and ternary relations and integrating the binary and ternary relations again. The central processing unit stores, in its storage device or hard disk, the production system created by the second production system generation means for creating in real time the production system corresponding to each article based on the reintegrated relationship. The second production system output means for outputting the production system created by the second production system storage means and the second production system generation means through the output device is executed. Furthermore, among the production systems created by the second production system generation means, a first division-specific production system output means for outputting a division-specific production system created from only necessary production elements for each department, A second sector-specific production system output means for outputting a sector-specific production system made only of necessary production elements and alternative production elements for each of 12, 13, 114 is executed.

  The integrated management database 16 centrally manages data such as production factors, alternative production factors, binary relationships, and ternary relationships. The integrated management database 16 includes a plurality of type masters 17 (first to nth type masters) that store data relating to production elements and alternative production elements, and a configuration master 18 that stores binary and ternary relationships between production elements. And an alternative master 19 that stores binary relations and ternary relations between various alternative production elements that can be used in place of the first to third production elements. The integrated management database 16 transfers data to the computer 15 based on a data transfer command from the computer 15 and stores data based on a data storage command from the computer 15.

  The type master 17 is a process corresponding to the item master 20 (first type master) corresponding to the first type number, the product master 21 (second type master) corresponding to the second type number, and the third type number. It is divided into a master 22 (third type master), a resource master 23 (fourth type master) corresponding to the fourth type number, and a base master 24 (fifth type master) corresponding to the fifth type number. . Note that the type master 17 is not limited to these, and the sixth to nth type masters storing other production elements indispensable for manufacturing an article classified by type may be set in the hard disk. is there.

  2 and 3 are diagrams showing examples of various production elements and alternative production elements stored in the various masters 17. An example of a procedure for storing data related to various production factors, which are technical information of a predetermined article, in the type master 17 is as follows. When an item is selected from the types displayed on the display of the computer 15, an item input area that is a production element input area, a department number input area corresponding to the item input area, and an alternative availability symbol input area are displayed on the display (FIG. Not shown). Products (E), parts (purchased products) (δ), in-house parts (ζ), in-stock items (κ) and their product numbers (E), (δ), (ζ) in the item input area via the input device , (Κ) (type identification number), a department-specific number is entered in the department-specific number input area, and an alternative availability symbol (N, Y1) is entered in the alternative availability symbol input area. The substitution possibility symbol (N) indicates that substitution is not possible, and the substitution possibility symbol (Y1) indicates that substitution is possible and a substitution source. The computer 15 determines that each piece of technical information (technical element) in which the substitution possibility symbol (N, Y1) is set is a normal production element. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, and the product (E), the part (δ), the in-house part (ζ), and the inventory (κ) belong to the item. Determine the product (E), parts (δ), in-house parts (ζ), and inventory items (κ) with item data classification (PC001) (first type number), and based on the entered department number Department numbers (1, 2, 3, 4) are assigned to products (E), parts (δ), in-house parts (ζ), and stocks (κ).

  The computer 15 stores the item data classification (PC001) of the product (E), the product number (E) for specifying the product (E), the division number (1, 2, 3, 4) of the product (E), and the product (E). The part number (δ) and the part (δ) for identifying the item data classification (PC001) and part (δ) of the part (purchased product) (δ) are stored in the main file of the item master 20. Are stored in the main file of the item master 20 with the division number (1, 2, 3) and the substitution possibility symbol (Y1) of the part (δ). The computer 15 stores the item data classification (PC001) of the in-house part (ζ), the part number (ζ) for specifying the in-house part (ζ), the department number (1, 2) of the in-house part (ζ), the in-house part A part number (κ), a product number (κ) that identifies the item data classification (PC001) and stock item (κ) of the stock item (κ), and stores the substitute symbol (Y1) of the part (ζ) in the main file of the item master 20 The department number (1, 2) of (κ) and the substitution possibility symbol (Y1) of the inventory (κ) are stored in the main file of the item master 20. The product data includes the contents of the product (E) (name, instructions for use, durable years, amount of money, delivery date, etc.), and part data includes parts (purchased goods) (δ), in-house parts (ζ), The contents (name, production place, instructions for use, durable years, amount of money, delivery date, etc.) of the inventory (κ) are included.

  When a product is selected from the types displayed on the display of the computer 15, a product input area that is a production element input area, a departmental number input area corresponding to the product input area, and an alternative availability symbol input area are displayed on the display. The Enter inspection standards (α), assembly drawings (γ) and their product numbers (α), (γ) type identification numbers) in the product input area via the input device, and by department in the department-specific number input area A number is entered, and an alternative availability symbol (N, Y1) is entered in the alternative availability symbol input area. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, determines that the inspection standard document (α) and assembly drawing (γ) belong to the deliverable, and the inspection standard document (α). , The product data classification (PC002) (second type number) is attached to the assembly drawing (γ), and the division number (1) is added to the inspection standard document (α) and the assembly drawing (γ) based on the input division number , 2).

  The computer 15 includes the product data classification (PC002) and inspection standard (α) of the product data classification (PC) of the inspection standard (α), the department number (2) of the inspection standard (α), the inspection standard A substitute number (Y1) of (α) is stored in the main file of the product master 21, and the product number (γ) and assembly for specifying the product data classification (PC002) and assembly drawing (γ) of the assembly drawing (γ) The division number (1, 2) of the drawing (γ) and the substitution possibility symbol (Y1) of the assembly drawing (γ) are stored in the main file of the product master 21. The inspection standard document data includes the contents of the inspection standard document (α) (standard details, preparation department, illustration of inspection, etc.), and the assembly drawing data includes the contents of the assembly drawing (γ) (details of the drawing, Production department, usage instructions, etc.).

  When a process is selected from the types displayed on the display of the computer 15, a process input area that is a production element input area, a department number input area corresponding to the process input area, and an alternative availability symbol input area are displayed on the display. Inspection process (internal inspection) (a), assembly process (b), machining process (c), machining (ι) and their product numbers (a), (b), (c) are entered into the process input area via the input device. , (Ι) (type identification number), a department-specific number is entered in the department-specific number input area, and an alternative availability symbol (N, Y1) is entered in the alternative availability symbol input area. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, and the inspection process (a), assembly process (b), machining process (c), and machining (ι) belong to the process. Judging and attaching the process data classification (PC003) (third type number) to the inspection process (a), assembly process (b), machining process (c), and machining (ι), and based on the entered department number Department numbers (1, 2) are assigned to the inspection process (a), assembly process (b), machining process (c), and machining (ι).

  The computer 15 includes a process data classification (PC003) of the inspection process (internal inspection) (a), a product number (a) for specifying the inspection process (a), a departmental number (2) of the inspection process (a), an inspection process ( The substitute possibility symbol (Y1) of a) is stored in the main file of the process master 22, and the product number (b) for identifying the process data classification (PC003) and assembly process (b) of the assembly process (b), the assembly process (b ) By department number (1, 2) and the substitutability symbol (N) for the assembly process (b) are stored in the main file of the process master 22. The computer stores the process data category (PC003) of the machining process (c), the product number (c) that identifies the machining process (c), the division number (1, 2) of the machining process (c), and the machining process (c). The substitutability symbol (N) is stored in the main file of the process master 22, and the process data classification (PC003) of the process (ι) and the product number (ι) for specifying the process (ι), and the section number of the process (ι) ( 1, 2) and processing (ι) substitution possibility symbol (Y 1) are stored in the main file of the process master 22. The inspection process data includes the contents of the inspection process (a) (details of the inspection process, inspection location, usage instructions, etc.), and the assembly process data includes the contents of the assembly process (b) (details of the assembly process, assembly) Location, instructions for use, etc.). The machining process data includes the contents of the machining process (c) and machining (ι) (machining process and details of machining, machining location, usage instructions, etc.).

  When a resource is selected from the types displayed on the display of the computer 15, a resource input area that is a production element input area, a department number input area corresponding to the resource input area, and an alternative availability symbol input area are displayed on the display. Enter the inspection tool (β), line (ε), jig (η) and their product numbers (β), (ε), (η) (type identification number) into the resource input area via the input device, A department-specific number is entered in the department-specific number input area, and an alternative availability symbol (N, Y1) is entered in the alternative availability symbol input area. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, determines that the inspection tool (β), the line (ε), and the tool (η) belong to the resource, and the inspection tool ( β), line (ε), tool (η) are assigned resource data classification (PC004) (fourth type number), and the inspection tool (β), line (ε), jig is based on the entered department number. The division number (1, 2, 3) is assigned to the tool (η).

  The computer 15 includes a resource data classification (PC004) of the inspection tool (β), a product number (β) for specifying the inspection tool (β), a department number (2, 3) of the inspection tool (β), and an inspection tool (β). Is stored in the main file of the resource master 23, and the part number (ε) for identifying the resource data classification (PC004) and the line (ε) of the line (ε) and the division number of the line (ε) (1, 2), the substitution possibility symbol (N) of the line (ε) is stored in the main file of the resource master 23. The computer 15 includes a resource data classification (PC004) of the tool (η), a product number (η) for specifying the tool (η), a division number (1, 2, 3) of the tool (η), a tool ( The substitution possibility symbol (N) of η) is stored in the main file of the resource master 23. The inspection tool data includes the contents of the inspection tool (β) (use of the inspection tool, price, durability, etc.), and the line data includes the contents of the line (ε) (name of the line, line location, etc.) Is included. The tool data includes the contents of the tool (η) (tool usage, price, durability, etc.).

  When a base is selected from the type displayed on the display of the computer 15, a base input area that is a production element input area, a department number input area corresponding to the base input area, and an alternative availability symbol input area are displayed on the display. Enter the store (A), warehouse (B) and their product numbers (A), (B) (type identification number) in the base input area via the input device, and enter the department number in the department number input area At the same time, an alternative propriety symbol (N, Y1) is entered in the substituting propriety symbol input area. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, determines that the store (A) and the warehouse (B) belong to the base, and stores them in the store (A) and the warehouse (B). The base data classification (PC005) (fifth type number) is assigned, and the department number (4) is assigned to the store (A) and the warehouse (B) based on the inputted department number.

  The computer 15 stores the base data classification (PC005) of the store (A), the product number (A) that identifies the store (A), the department number (4) of the store (A), and the substitution possibility symbol (N) of the store (A). ) Is stored in the main file of the site master 24, the product number (B) specifying the site data category (PC005) and the warehouse (B) of the warehouse (B), the department number (4) of the warehouse (B), the warehouse ( The substitution possibility symbol (Y1) of B) is stored in the main file of the site master 24. The store data includes the contents of the store (A) (store name, store location, etc.), and the warehouse data includes the contents of the warehouse (B) (warehouse name, warehouse location, etc.).

  An example of a procedure for storing data relating to a plurality of various alternative production elements that can be used in place of production elements in the type master 17 is as follows. When an item is selected from the type displayed on the display of the computer 15 and an alternative is selected, an alternative item input area that becomes an alternative production element input area on the display, a department-specific number input area corresponding to the alternative item input area, and the possibility of substitution The symbol input area is displayed. In-place parts (σ), inventory items (ξ), parts (purchased products) (ζ), inventory items (ρ) and their product numbers (σ), (ξ), ( ζ) and (ρ) (type identification number) are input, a department-specific number is input in the department-specific number input area, and an alternative availability symbol (Y2) is entered in the alternative availability symbol input area. The substitution possibility symbol (Y2) indicates a substitution destination. The computer 15 determines that each piece of technical information (technical element) in which the substitute availability symbol (Y2) is set is a substitute production element. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, and the in-house parts (σ), the inventory (ξ), the parts (purchased) (ζ), and the inventory (ρ) Is assigned to the item, and the item data classification (PC001) (first type number) is assigned to the in-house part (σ), inventory (ξ), part (ζ), and inventory (ρ). Based on the divisional number, the divisional number (1, 2, 3) is assigned to the in-house part (σ), inventory (ξ), part (ζ), and inventory (ρ).

  The computer 15 stores the item data classification (PC001) of the in-house part (σ), the product number (σ) for specifying the in-house part (σ), the department number (1, 2) of the in-house part (σ), the in-house part The part number (σ) substituteability symbol (Y2) is stored in the main file of the item master 20, the item data category (PC001) of the inventory item (ξ), the item number (ξ) specifying the inventory item (ξ), and the inventory item The division number (1, 2) of (ξ) and the substitution possibility symbol (Y2) of the inventory (ξ) are stored in the main file of the item master 20. The computer 15 stores the item data classification (PC001) of the part (purchased product) (ζ), the product number (ζ) for specifying the part (ζ), the division number (1, 2, 3) of the part (ζ), the part ( The substitute availability symbol (Y2) of ζ) is stored in the main file of the item master 20, and the item number (ρ) for specifying the item data classification (PC001) and the inventory item (ρ) of the inventory item (ρ), the inventory item (ρ ), The divisional number (1, 2), and the substitution possibility symbol (Y2) of the inventory (ρ) are stored in the main file of the item master 20. The part data includes the contents (name, production place, usage instructions, durable years, amount of money, delivery date, etc.) of the in-house parts (σ), inventory (ξ), parts (ζ), and inventory (ρ). .

  When a product is selected from the types displayed on the display of the computer 15 and an alternative is selected, an alternative product input area that becomes an alternative production element input area on the display, and a department-specific number input area corresponding to the alternative product input area And an alternative availability symbol input area is displayed. The inspection standard document (λ), assembly drawing (ο), design (θ) and their product numbers (λ), (ο), (θ) (type identification number) are entered in the alternative product input area via the input device. Then, the department number is entered in the department number input area, and the substitution possibility symbol (Y2) is entered in the substitution possibility symbol input area. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, determines that the inspection standard (λ), assembly drawing (ο), and design (θ) belong to the deliverable, and performs the inspection. The product data classification (PC002) (second type number) is attached to the standard document (λ), assembly drawing (ο), and design (θ), and the inspection standard document (λ), assembly based on the entered department number. The department number (1, 2) is attached to the diagram (ο) and design (θ).

  The computer 15 includes the product data classification (PC002) and the inspection standard document (λ) of the product standard (λ), the department number (2) of the inspection standard document (λ), the inspection standard document. Substitute availability symbol (Y2) of (λ) is stored in the main file of the product master 21, and the product number (ο) and assembly for identifying the product data classification (PC002) and assembly drawing (ο) of the assembly drawing (ο) The division number (1, 2) of the figure (ο) and the substitution possibility symbol (Y2) of the assembly drawing (ο) are stored in the main file of the product master 21. The computer 15 outputs the product data classification (PC002) of the design (θ), the product number (θ) for specifying the design (θ), the department number (2) of the design (θ), and the substitution possibility symbol ( Y2) is stored in the main file of the deliverable master 21. The inspection standard document data includes the contents of the inspection standard document (λ) (standard details, preparation department, illustration of inspection, etc.), and the assembly drawing data includes the contents of the assembly drawing (ο) (details of drawings, Production department, usage instructions, etc.). The design data includes the contents of design (θ) (design details, creation department, etc.).

  When a process is selected from the type displayed on the display of the computer 15 and an alternative is selected, an alternative process input area serving as an alternative production element input area on the display, a department-specific number input area corresponding to the alternative process input area, and the possibility of substitution The symbol input area is displayed. The inspection process (external inspection) (d), assembly (ν), assembly (π) and their product numbers (d), (ν), (π) (type identification number) are entered in the alternative process input area via the input device. And a department number in the department number input area, and a substitution possibility symbol (Y2) in the substitution possibility symbol input area. The computer 15 refers to the items, production factors, and type numbers stored in the storage device or the hard disk, and determines that the inspection process (external inspection) (d), assembly (ν), and assembly (π) belong to the process, A process data classification (PC003) (third type number) is assigned to the inspection process (d), assembly (ν), and assembly (π), and the inspection process (d) and assembly (ν) are performed based on the input department number. , The division number (1, 2) is attached to the assembly (π).

  The computer 15 includes an inspection process (external inspection) (d) process data classification (PC003), a product number (d) for specifying the inspection process (d), an inspection process (d) department number (2), an inspection process ( d) Substitutability symbol (Y2) in the main file of the process master 22 is stored in the main file of the process master 22 to identify the process data classification (PC003) and assembly (ν) of the assembly (ν), and the division of the assembly (ν) The alternate number (1, 2) and the substitutability symbol (Y2) for assembly (ν) are stored in the main file of the process master 22. The computer 15 includes an assembly (π) process data classification (PC003), a product number (π) for specifying the assembly (π), a division-specific number (1, 2) for the assembly (π), and a substitute symbol for the assembly (π). (Y2) is stored in the main file of the process master 22. The inspection process data includes the contents of the inspection process (d) (details of the inspection process, inspection location, usage instructions, etc.), and the assembly data includes the contents of assembly (ν) and assembly (π) (details of the assembly). , Assembly location, etc.).

  When a resource is selected from the types displayed on the display of the computer 15 and an alternative is selected, an alternative resource input area serving as an alternative production element input area on the display, a departmental number input area corresponding to the alternative resource input area, and the possibility of substitution The symbol input area is displayed. Enter the inspection tool (μ) and its product number (μ) (type identification number) in the alternative resource input area via the input device, and enter the department-specific number in the department-specific number input area. Enter the substitution possibility symbol (Y2) in the area. The computer 15 refers to the item, production factor, and type number stored in the storage device or the hard disk, determines that the inspection tool (μ) belongs to the resource, and assigns the resource data classification (PC004) (No. 1) to the inspection tool (μ). (4 type number) and a departmental number (2, 3) is assigned to the inspection tool (μ) based on the input department category. The computer 15 includes a resource data classification (PC004) of the inspection tool (μ), a product number (μ) for specifying the inspection tool (μ), a department number (2, 3) of the inspection tool (μ), and an inspection tool (μ). Are stored in the main file of the resource master 23. The inspection tool data includes the contents of the inspection tool (μ) (use of the inspection tool, price, durability, etc.).

  When a base is selected from the type displayed on the display of the computer 15 and alternative is selected, an alternative base input area serving as an alternative production element input area on the display, a department-specific number input area corresponding to the alternative base input area, and the possibility of substitution The symbol input area is displayed. The warehouse (C) and its product number (C) (type identification number) are input to the alternative base input area via the input device, and the department-specific number is input to the department-specific number input area. An alternative propriety symbol (Y2) is entered in. The computer 15 refers to the item, production factor, and type number stored in the storage device or the hard disk, determines that the warehouse (C) belongs to the base, and stores the base data classification (PC005) (fifth type) in the warehouse (C). Number), and the department number (4) is assigned to the warehouse (C) based on the inputted department number. The computer 15 stores the base data classification (PC005) of the warehouse (C), the product number (C) that identifies the warehouse (C), the department number (4) of the warehouse (C), and the substitution possibility symbol (Y2) of the warehouse (C). ) In the main file of the site master 24. The warehouse data includes the contents of the warehouse (C) (warehouse name, warehouse location, etc.).

  4 to 6 are diagrams illustrating an example of a binary relationship and a ternary relationship between production elements stored in the configuration master 18. An example of the procedure for storing the binary and ternary relationships between production elements in the configuration master 18 based on FIGS. 4 to 6 is as follows. The configuration master 18 includes upper and lower binary relationships (parent-child relationship) and upper and lower three-term relationships (parent, middle, and child relationships) as manufacturing department data, and upper and lower binary relationships (parent-child relations) as distribution department data. And upper and lower ternary relationships (parent, intermediate, child relationships) are stored. In the binary relationship, the production elements are linked by an arbitrary first production element (parent production element) and a second production element (child production element) connected immediately below the first production element. By the binary relation, the second production element is specified from the first production element, and the first production element is specified from the second production element. In the three-term relationship, the production elements are connected to an arbitrary first production element (parent production element), a second production element (intermediate production element) that is immediately below the first production element, and a next lowest element of the third production element. Linked with the third production factor (child production factor). By the ternary relationship, the second production element is specified from the first production element, and the third production element is specified from the first and second production elements. Here, when the ternary relation is converted into the binary relation, the second production element (intermediate production element) of the ternary relation becomes the second production element (child production element) of the binary relation. In other words, the binary production element becomes a ternary intermediate production element.

  The configuration master 18 includes a two-term relationship between a store (A) and a warehouse (B), a three-term relationship between a store (A), a warehouse (B), and a product (E), and a product (E) and an inspection process (internal Inspection) (a) Binary relationship, Product (E), Inspection process (a), Inspection criteria (α), ternary relationship, Product (E), Inspection process (a), Inspection tool (β) Ternary relationship between product (E) and assembly process (b), ternary relationship between product (E), assembly process (b) and assembly drawing (γ), product (E) and assembly A ternary relationship between the process (b) and the part (purchased product) (δ) and a ternary relationship between the product (E), the assembly process (b), and the line (ε) are stored. Furthermore, a binary relationship between the assembly process (b) and the assembly drawing (γ), a three-term relationship between the assembly process (b), the assembly drawing (γ), and the design (θ), the product (E) and the machining process (c). ), A three-term relationship between a product (E), a machining step (c), and an internally produced part (ζ), and a three-term relationship between a product (E), a machining step (c), and a tool (η). Relationship, two-term relationship between the machining step (c) and the in-house part (ζ), three-term relationship between the machining step (c), the in-house part (ζ) and the machining (ι), and the in-house part (ζ) A binary relationship with processing (ι), and a three-term relationship with in-house parts (ζ), processing (ι), and inventory (κ) are stored.

  When a relationship is selected from the items displayed on the display of the computer 15, a binary relationship input area (1) to a binary relationship input area (n), a binary relationship input area (1) to a binary relationship input area ( n) A department division input area, an alternative availability symbol input area, and an alternative source number input area are displayed. Store (A) and warehouse (B) are input to the binomial relation input area (1) via the input device, and the department classification (4) is input to the department classification input area corresponding to the binomial relation input area (1). To do. Next, as a product number (A) for specifying the store (A) as a parent product number (first production factor), a base number (PC005) (fifth type number) as a parent data category, and a child product number (second production factor) The product number (B) specifying the warehouse (B) and the base number (PC005) (fifth type number) as the child data classification are input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the binary relation input area (1), and the substitution source number ( 1-1) is input. The substitution possibility symbol (N) indicates that substitution is not possible, and the substitution possibility symbol (Y) indicates that substitution is possible.

  Store (A), warehouse (B), and product (E) are input to the ternary relation input area (1) displayed on the display via the input device, and the department classification corresponding to the ternary relation input area (1). Enter department category (4) in the input area. Next, the product number (A) that identifies the store (A) as the parent product number (first production factor), the base number (PC005) (fifth type number) as the parent data category, and the intermediate product number (second production factor) Part number (B) for identifying the warehouse (B), base number (PC005) (fifth type number) as the intermediate data classification, part number (E) for identifying the product (E) as the sub-part number (third production factor), Enter the item number (PC001) (first type number) as the child data category. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the ternary relation input area (1), and the substitution source number (in the substitution source number input area corresponding to the ternary relation input area (1) is inputted. Enter 1-2). When the data is input, the computer 15 stores the data in the main file of the configuration master 18. In the configuration master 18, the store (A) and the warehouse (B) are linked, and the store (A) and the warehouse (B) are linked based on the binary relation, and the store (A) and the warehouse (B). And the product (E) are linked, and the store (A), the warehouse (B), and the product (E) are linked based on the three-term relationship.

  Here, the relationship between the two-term relationship and the three-term relationship, taking as an example the three-term relationship between the store (A) and the warehouse (B) and the three-term relationship between the store (A), the warehouse (B), and the product (E). Is described as follows. Of the two relations between the store (A) and the warehouse (B), the warehouse (B) which is the second production factor (child production factor) is the store (A), the warehouse (B), and the product (E). It becomes the second production factor (intermediate production factor) in the term relationship. Thereby, not only the connection between the store (A) and the warehouse (B) but also the connection between the warehouse (B) and the product (E) is determined, and the product (E) is determined by the store (A) and the warehouse (B). Is fixed. Therefore, in the two-term relationship between the store (A) and the warehouse (B) and the three-term relationship between the store (A), the warehouse (B), and the product (E), combinations of production factors other than the product (E) are excluded. (See FIG. 4). Similarly, in the following two-term relationship and three-term relationship, the relationship between the production factors is determined by the two-term relationship and the three-term relationship being related to each other.

  Enter the product (E) and the inspection process (internal inspection) (a) via the input device in the binary relation input area (2) displayed on the display, and the division classification corresponding to the binary relation input area (2) Enter department category (2) in the input area. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the child product number (second production factor) The product number (a) for specifying the inspection process (a) and the process number (PC003) (third type number) as the child data classification are input. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the binary relation input area (2), and the substitution source number (in the substitution source number input area corresponding to the binary relation input area (2) is entered. 2-1) is input.

  The product (E), the inspection process (internal inspection) (a), and the inspection standard document (α) are input to the ternary relation input area (2) displayed on the display via the input device. Enter department division (2) in the department division input area corresponding to 2). Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (a) for specifying the inspection process (a), process number (PC003) (third type number) as the intermediate data classification, and part number (α) for specifying the inspection standard (α) as the child part number (third production factor) α), the product number (PC002) (second type number) as the child data classification is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the ternary relation input area (2), and the substitution source number ( Enter 2-2).

  The product (E), inspection process (internal inspection) (a), and inspection tool (β) are input to the ternary relation input area (3) displayed on the display via the input device, and the ternary relation input area (3) ) Enter the department classification (2) in the department classification input area corresponding to. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (a) that identifies the inspection process (a), process number (PC003) (third type number) as the intermediate data classification, and part number (β) that identifies the inspection tool (β) as the child part number (third production element) ), A resource number (PC004) (fourth type number) as a child data section is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the ternary relation input area (3), and the substitution source number ( 2-3) is input.

  When the data is input, the computer 15 stores the data in the main file of the configuration master 18. In the configuration master 18, the product (E) and the inspection process (a) are linked, and the product (E) and the inspection process (a) are linked based on the binary relation, and the product (E) and the inspection process are linked. (A) and the inspection standard document (α) are linked, and the product (E), the inspection process (a), and the inspection standard document (α) are linked based on the three-term relationship. Further, the product (E), the inspection process (a), and the inspection tool (β) are linked, and the product (E), the inspection process (a), and the inspection tool (β) are linked based on the three-term relationship. .

  The product (E) and assembly process (b) are input to the binary relation input area (3) displayed on the display via the input device, and the department is input to the department classification input area corresponding to the binary relation input area (3). Enter the category (2). Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the child product number (second production factor) The product number (b) specifying the assembly process (b) and the process number (PC003) (third type number) as the child data classification are input. Further, an alternative availability symbol (N) is input to the alternative availability symbol input area corresponding to the binary relation input area (3).

  The product (E), the assembly process (b), and the assembly drawing (γ) are input to the ternary relation input area (4) displayed on the display via the input device and correspond to the ternary relation input area (4). Enter the department classification (2) in the department classification input area. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (b) specifying assembly process (b), process number (PC003) (third type number) as intermediate data classification, and part number (γ) specifying assembly drawing (γ) as child part number (third production element) ), The product number (PC002) (second type number) as the child data classification is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the ternary relation input area (4), and the substitution source number ( 3-1) is input.

  The product (E), assembly process (b), and part (purchased product) (δ) are input to the ternary relation input area (5) displayed on the display via the input device, and the ternary relation input area (5). Enter the department classification (2) in the department classification input area corresponding to. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (b) that identifies the assembly process (b), process number (PC003) (third type number) as the intermediate data classification, and part number (δ) that identifies the part (δ) as the child part number (third production element) The item number (PC001) (first type number) as the child data classification is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the ternary relation input area (5), and the substitution source number ( 4-1) and (4-2) are input.

  The product (E), assembly process (b), and line (ε) are input to the ternary relation input area (6) displayed on the display via the input device, and the department corresponds to the ternary relation input area (6). Enter the department category (2) in the category entry area. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (b) specifying assembly process (b), process number (PC003) (third type number) as intermediate data classification, and part number (ε) specifying line (ε) as child part number (third production factor) The resource number (PC004) (fourth type number) as the child data classification is input. Further, an alternative availability symbol (N) is input to the alternative availability symbol input area corresponding to the ternary relation input area (5).

  When the data is input, the computer 15 stores the data in the main file of the configuration master 18. In the configuration master 18, the product (E) and the assembly process (b) are linked to each other, and the product (E) and the assembly process (b) are linked based on the binary relationship, and the product (E) and the assembly process. (B) and the assembly drawing (γ) are linked, and the product (E), the assembly step (b), and the assembly drawing (γ) are linked based on the three-term relationship. Furthermore, the product (E), the assembly process (b), and the part (δ) are linked, and the product (E), the assembly process (b), and the part (δ) are linked based on the three-term relationship, The product (E), the assembly process (b), and the line (ε) are linked, and the product (E), the assembly process (b), and the line (ε) are linked based on the three-term relationship.

  The assembly process (b) and assembly drawing (γ) are input to the binary relation input area (4) displayed on the display via the input device, and the department classification input area corresponding to the binary relation input area (4) is entered. Enter the department category (2). Next, the product number (b) that identifies the assembly process (b) as the parent product number (first production element), the process number (PC003) (third type number) as the parent data classification, and the child product number (second production element) The product number (γ) for specifying the assembly drawing (γ) and the product number (PC002) (second type number) as the child data classification are input. Further, a substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the binary relation input area (4), and the substitution source number (in the substitution source number input area corresponding to the binary relation input area (4) is inputted. 3-1) is input.

  The assembly process (b), assembly drawing (γ), and design (θ) are input to the ternary relation input area (7) displayed on the display via the input device, and correspond to the ternary relation input area (7). Enter the department classification (2) in the department classification input area. Next, the product number (b) that identifies the assembly process (b) as the parent product number (first production element), the process number (PC003) (third type number) as the parent data classification, and the intermediate product number (second production element) The product number (γ) for identifying the assembly drawing (γ), the product number (PC002) (second type number) as the intermediate data classification, and the product number for identifying the design (θ) as the child product number (third production element) θ), and a product number (PC002) (second type number) as a child data category is input. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the ternary relation input area (7), and the substitution source number ( 3-1) is input. When the data is input, the computer 15 stores the data in the main file of the configuration master 18. In the configuration master 18, the assembly process (b) and the assembly drawing (γ) are linked, and the assembly process (b) and the assembly drawing (γ) are linked based on the binary relation, and the assembly process (b). The assembly drawing (γ) and the design (θ) are linked to each other, and the assembly process (b), the assembly drawing (γ), and the design (θ) are linked based on the three-term relationship.

  The product (E) and the machining process (c) are input to the binary relation input area (5) displayed on the display through the input device, and the department is input to the department classification input area corresponding to the binary relation input area (5). Enter the category (2). Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the child product number (second production factor) The product number (c) for specifying the processing step (c) and the process number (PC003) (third type number) as the child data classification are input. Further, an alternative availability symbol (N) is input to the alternative availability symbol input area corresponding to the binary relation input area (5).

  Enter the product (E), machining process (c), and in-house production part (ζ) via the input device into the ternary relation input area (8) displayed on the display, and correspond to the ternary relation input area (8). Enter the department classification (2) in the department classification input area. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (c) that identifies the machining step (c), part number (PC003) (third type number) as an intermediate data category, and part number (ζ) that identifies an in-house part (ζ) as a child part number (third production element) ζ), the item number (PC001) (first type number) as the child data classification is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the ternary relation input area (8), and the substitution source number ( Input 5-1).

  The product (E), the machining process (c), and the tool (η) are input to the ternary relation input area (9) displayed on the display via the input device, and correspond to the ternary relation input area (9). Enter the department classification (2) in the department classification input area. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (c) for specifying the machining step (c), part number (η) for specifying the tool (η) as the sub part number (third production factor), the process number (PC003) (third type number) as the intermediate data classification ), A resource number (PC004) (fourth type number) as a child data section is input. Further, an alternative availability symbol (N) is input to an alternative availability symbol input area corresponding to the ternary relation input area (9).

  When the data is input, the computer 15 stores the data in the main file of the configuration master 18. In the configuration master 18, the product (E) and the processing step (c) are linked, and the product (E) and the processing step (c) are linked based on the binary relation, and the product (E) and the processing step are connected. (C) and the in-house part (ζ) are linked, and the product (E), the machining step (c), and the in-house part (ζ) are linked based on the three-term relationship. Further, the product (E), the machining step (c), and the jig (η) are linked, and the product (E), the machining step (c), and the jig (η) are linked based on the three-term relationship. .

  The processing step (c) and the in-house production part (ζ) are input to the binary relation input area (6) displayed on the display via the input device, and the department classification input area corresponding to the binary relation input area (6). Enter the department category (2). Next, the product number (c) that identifies the machining step (c) as the parent product number (first production element), the process number (PC003) (third type number) as the parent data classification, and the child product number (second production element) The product number (ζ) for specifying the in-house part (ζ) and the item number (PC001) (first type number) as the child data classification are input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the binary relation input area (6), and the substitution source number (in the substitution source number input area corresponding to the binary relation input area (6) is entered. Input 5-1).

  Enter the machining process (c), in-house production part (ζ), and machining (ι) via the input device in the ternary relation input area (10) displayed on the display, and correspond to the ternary relation input area (10). Enter the department classification (2) in the department classification input area. Next, a product number (c) that identifies the machining step (c) as the parent product number (first production element), a process number (PC003) (third type number) as the parent data classification, and an intermediate product number (second production element) A product number (ζ) that identifies an in-house part (ζ), an item number (PC001) (first type number) as an intermediate data category, and a product (ι) that identifies a process (ι) as a child product number (third production element) ( ι), a process number (PC003) (third type number) as a child data classification is input. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the ternary relation input area (10), and the substitution source number (in the substitution source number input area corresponding to the ternary relation input area (10) is inputted. Input 5-1) and (5-2).

  The in-house parts (ζ) and machining (ι) are input to the binary relation input area (7) displayed on the display via the input device, and the department classification input area corresponding to the binary relation input area (7) is entered. Enter the department category (2). Next, the product number (ζ) for specifying the in-house part (ζ) as the parent product number (first production element), the item number (PC001) (first type number) as the parent data classification, and the child product number (second production element) ), The product number (ι) for specifying the processing (ι) and the process number (PC003) (third type number) as the child data classification are input. Further, a substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the binary relation input area (7), and a substitution source number (in the substitution source number input area corresponding to the binary relation input area (6) is entered. Input 5-1) and (5-2).

  Enter in-house parts (ζ), machining (ι), and inventory (κ) via the input device in the ternary relation input area (11) displayed on the display, and correspond to the ternary relation input area (10). Enter the department classification (2) in the department classification input area. Next, the product number (ζ) for specifying the in-house part (ζ) as the parent product number (first production element), the item number (PC001) (first type number) as the parent data classification, the intermediate product number (second production element) ) As the product number (ι) for specifying the processing (ι), the process number (PC003) (third type number) as the intermediate data classification, and the product (κ) as the child product number (third production factor) ( κ), an item number (PC001) (first type number) as a child data classification is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the ternary relation input area (11), and the substitution source number ( Input 5-1) and (5-2).

  When the data is input, the computer 15 stores the data in the main file of the configuration master 18. In the configuration master 18, the machining process (c) and the in-house production part (ζ) are linked, and the machining process (c) and the in-house production part (ζ) are linked based on the binary relation, and the machining process ( c), the internal work part (ζ), and the machining (ι) are linked, and the machining process (c), the internal work part (ζ), and the machining (ι) are linked based on the three-term relationship. Furthermore, the in-house part (ζ) and the processing (ι) are linked, and the in-house part (ζ) and the processing (ι) are linked based on the binary relation, and the in-house part (ζ) and the processing are connected. (Ι) and the inventory (κ) are linked, and the in-house part (ζ), processing (ι), and the inventory (κ) are linked based on the three-term relationship.

  The two-term relationship between the store (A) and the warehouse (B) and the three-term relationship between the store (A), the warehouse (B), and the product (E) are handled as data of the logistics department 14 by the department classification (4). . Binary relationship between product (E) and inspection process (a), ternary relationship between product (E), inspection process (a) and inspection standard (α), product (E) and inspection process (a) Three-term relationship with inspection tool (β), two-term relationship between product (E) and assembly process (b), three-term relationship between product (E), assembly process (b), and assembly drawing (γ), product (E), assembly process (b), part (purchased product) (δ), ternary relationship, product (E), assembly process (b), line (ε), ternary relationship, assembly process (b) A binary relationship between an assembly drawing (γ), an assembly process (b), an assembly drawing (γ) and a design (θ), a binary relation between a product (E) and a machining process (c), Three-term relationship between product (E), machining step (c), and internally produced part (ζ), three-term relationship between product (E), machining step (c), and jig (η), machining step (c) Binary relations between parts and in-house parts (ζ), machining process (c) and in-house parts Three-term relationship between product (ζ) and processing (ι), two-term relationship between in-house part (ζ) and processing (ι), in-house part (ζ), processing (ι) and inventory (κ) The three-term relationship is handled as data of the manufacturing department 12 by the department classification (2).

  7 to 9 are diagrams illustrating an example of the binary relationship and the ternary relationship between the alternative production elements stored in the alternative master 19. An example of the procedure for storing the binary and ternary relationships between the alternative production elements in the alternative master 19 based on FIGS. 7 to 9 is as follows. The alternative master 19 includes an upper and lower binary relationship (parent-child relationship) as manufacturing department data and an upper and lower three-term relationship (parent, intermediate, and child relationship), and an upper and lower binary relationship (parent-child relationship) as distribution department data. And upper and lower ternary relationships (parent, intermediate, child relationships) are stored. In the binary relation, these alternative production elements are linked by an arbitrary first production element (parent production element) and a second production element (child production element) connected immediately below the first production element. By the binary relation, the second production element is specified from the first production element, and the first production element is specified from the second production element. In the three-term relationship, these alternative production elements are an arbitrary first production element (parent production element), a second production element (intermediate production element) that is immediately below the first production element, and a immediately lower order of the third production element. Are linked by a third production element (child production element). By the ternary relationship, the second production element is specified from the first production element, and the third production element is specified from the first and second production elements.

  The alternative master 19 includes a two-term relationship between the store (A) and the warehouse (C), a three-term relationship between the store (A), the warehouse (C), and the product (E), and the product (E) and the inspection process (external Binary relationship with inspection (d), ternary relationship between product (E), inspection process (d) and inspection standard (λ), product (E), inspection process (d) and inspection tool (μ) Ternary relationship between product (E), assembly process (b) and assembly drawing (ο), ternary relationship between product (E), assembly process (b) and in-house parts (σ) The binary relation between the assembly process (b) and the in-house part (σ) and the three-term relation between the assembly process (b), the in-house part (σ) and the assembly (ν) are stored. Further, a binary relation between the in-house part (σ) and the assembly (ν), a ternary relation between the in-house part (σ), the assembly (ν), and the inventory (ξ), the assembly process (b) and the in-house work. Three-term relationship between part (σ) and assembly (π), three-term relation between product (E), machining process (c) and part (purchased product) (ζ), machining process (c) and in-house part ( A ternary relationship between ζ) and inventory (ρ) is stored.

  When an alternative relationship is selected from the items displayed on the display of the computer 15, the alternative binary relationship input area (1) to the alternative binary relationship input area (n) and the alternative ternary relationship input area (1) to the alternative 3 are displayed on the display. An item relation input area (n), a department classification input area, an alternative availability symbol input area, and an alternative destination number input area are displayed. Store (A) and warehouse (C) are input to the alternative binary relation input area (1) via the input device, and the department classification (4) is input to the department classification input area corresponding to the alternative binary relation input area (1). Enter. Next, as a product number (A) for specifying the store (A) as a parent product number (first production factor), a base number (PC005) (fifth type number) as a parent data category, and a child product number (second production factor) The product number (C) for specifying the warehouse (C) and the base number (PC005) (fifth type number) as the child data classification are input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the substitution binary relation input area (1), and the substitution source is entered to the substitution destination number input area corresponding to the substitution binary relation input area (1). Enter the number (1-1).

  A store (A), a warehouse (C), and a product (E) are input to the alternative ternary relation input area (1) displayed on the display via the input device, and correspond to the alternative ternary relation input area (1). Enter the department classification (4) in the department classification input area. Next, the product number (A) that identifies the store (A) as the parent product number (first production factor), the base number (PC005) (fifth type number) as the parent data category, and the intermediate product number (second production factor) Part number (C) for identifying the warehouse (C), base number (PC005) (fifth type number) as the intermediate data classification, part number (E) for identifying the product (E) as the child part number (third production factor), Enter the item number (PC001) (first type number) as the child data category. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the substitution ternary relation input area (1), and the substitution destination number is input to the substitution destination number input area corresponding to the substitution ternary relation input area (1). Enter the original number (1-2). When the data is input, the computer 15 stores the data in the main file of the alternative master 19. In the alternative master 19, the store (A) and the warehouse (C) are linked, the store (A) and the warehouse (C) are linked based on the binary relation, and the store (A) and the warehouse (C). And the product (E) are linked, and the store (A), the warehouse (C), and the product (E) are linked based on the three-term relationship.

  The product (E) and the inspection process (external inspection) (d) are input to the alternative binary relation input area (2) displayed on the display via the input device, and correspond to the alternative binary relation input area (2). Enter the department classification (2) in the department classification input area. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the child product number (second production factor) The product number (d) for specifying the inspection process (d) and the process number (PC003) (third type number) as the child data classification are input. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the substitution binary relation input area (2), and the substitution source number is inputted into the substitution destination number input area corresponding to the substitution binary relation input area (2). Enter the number (2-1).

  Enter the product (E), inspection process (external inspection) (d), and inspection criteria (λ) via the input device in the alternative ternary relation input area (2) displayed on the display, and enter the alternative ternary relation input. The department classification (2) is input to the department classification input area corresponding to the area (2). Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (d) for specifying the inspection process (d), process number (PC003) (third type number) as the intermediate data classification, and part number (λ) for specifying the inspection standard document (λ) as the child part number (third production element) λ), the product number (PC002) (second type number) as the child data classification is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the substitution ternary relation input area (2), and the substitution destination number entry area corresponding to the substitution ternary relation input area (2) is substituted. Enter the original number (2-2).

  Enter the product (E), inspection process (external inspection) (d), and inspection tool (μ) via the input device in the alternative ternary relation input area (3) displayed on the display. The department classification (2) is input to the department classification input area corresponding to (3). Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (μ) for specifying inspection part (d), process number (PC003) (third type number) as intermediate data classification, and part number (μ) for specifying inspection tool (μ) as sub part number (third production element) ), A resource number (PC004) (fourth type number) as a child data section is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the substitution ternary relation input area (3), and the substitution destination number is input to the substitution destination number input area corresponding to the substitution ternary relation input area (3). Enter the original number (2-3).

  When the data is input, the computer 15 stores the data in the main file of the alternative master 19. In the alternative master 19, the product (E) and the inspection process (external inspection) (d) are linked, and the product (E) and the inspection process (d) are linked based on the binary relationship, and the product (E ), The inspection process (d), and the inspection standard document (λ) are linked, and the product (E), the inspection process (d), and the inspection standard document (λ) are linked based on the three-term relationship. Further, the product (E), the inspection process (d), and the inspection tool (μ) are linked, and the product (E), the inspection process (d), and the inspection tool (μ) are linked based on the three-term relationship. .

  Enter the product (E), assembly process (b), and assembly drawing (ο) via the input device in the alternative ternary relation input area (4) displayed on the display, and enter the alternative ternary relation input area (4). Enter the department category (2) in the corresponding department category input area. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (b) that identifies the assembly process (b), process number (PC003) (third type number) as the intermediate data classification, and part number (ο) that identifies the assembly drawing (ο) as the child part number (third production element) ), The product number (PC002) (second type number) as the child data classification is input. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the substitution ternary relation input area (4), and the substitution destination number entry area corresponding to the substitution ternary relation input area (4) is substituted. Enter the original number (3-1).

  A product (E), an assembly process (b), and an in-house part (σ) are input to the alternative ternary relation input area (5) displayed on the display via the input device, and the alternative ternary relation input area (5) Enter the department classification (2) in the department classification input area corresponding to. Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (b) that identifies the assembly process (b), process number (PC003) (third type number) as an intermediate data category, and part number (σ) that identifies an in-house part (σ) as a child part number (third production element) [sigma]) and an item number (PC001) (first type number) as a child data category are input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the substitution ternary relation input area (5), and the substitution destination number entry area corresponding to the substitution ternary relation input area (5) is substituted. The original numbers (4-1) and (4-2) are input.

  The assembly process (b) and the in-house production part (σ) are input to the alternative binary relation input area (3) displayed on the display via the input device, and the department classification corresponding to the alternative binary relation input area (3) Enter department category (2) in the input area. Next, the product number (b) that identifies the assembly process (b) as the parent product number (first production element), the process number (PC003) (third type number) as the parent data classification, and the child product number (second production element) The product number (σ) for specifying the in-house part (σ) and the item number (PC001) (first type number) as the child data classification are input. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the substitution binary relation input area (3), and the substitution source number entry area corresponding to the substitution binary relation input area (3) is substituted. Enter the numbers (4-1) and (4-2).

  The assembly process (b), the in-house production part (σ), and the assembly (ν) are input to the alternative ternary relation input area (6) displayed on the display via the input device, and the alternative ternary relation input area (6) Enter the department classification (2) in the department classification input area corresponding to. Next, the product number (b) that identifies the assembly process (b) as the parent product number (first production element), the process number (PC003) (third type number) as the parent data classification, and the intermediate product number (second production element) The product number (σ) for identifying the in-house part (σ), the item number (PC001) (first type number) as the intermediate data classification, and the product number (ν) for identifying the assembly (ν) as the child product number (third production element) ν), a process number (PC003) (third type number) as a child data classification is input. Further, a substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the substitution ternary relation input area (6), and the substitution destination number entry area corresponding to the substitution ternary relation input area (6) is substituted. Enter the original number (4-1).

  When the data is input, the computer 15 stores the data in the main file of the alternative master 19. In the alternative master 19, the product (E), the assembly process (b), and the assembly drawing (ο) are linked, and the product (E), the assembly process (b), and the assembly drawing (ο) Are linked to each other, and the product (E), the assembly process (b), and the in-house part (σ) are linked, and the product (E), the assembly process (b), and the in-house part (σ) are linked based on the three-term relationship. ). Further, the assembling process (b) and the in-house work part (σ) are linked, and the assembling process (b) and the in-house work part (σ) are linked based on the binary relation, and the assembling process (b) The in-house part (σ) and the assembly (ν) are linked, and the assembly process (b), the in-house part (σ) and the assembly (ν) are linked based on the three-term relationship.

  Input the in-house parts (σ) and assembly (ν) via the input device to the alternative binary relation input area (4) displayed on the display, and input the division classification corresponding to the alternative binary relation input area (4) Enter the department category (2) in the area. Next, the product number (σ) for specifying the in-house part (σ) as the parent product number (first production element), the item number (PC001) (first type number) as the parent data classification, and the child product number (second production element) ), The product number (ν) specifying the assembly (ν) and the process number (PC003) (third type number) as the child data classification are input. Further, the substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the substitution binary relation input area (4), and the substitution source number entry area corresponding to the substitution binary relation input area (4) is substituted. Enter the number (4-1).

  Input the in-house parts (σ), assembly (ν), and inventory (ξ) via the input device into the alternative ternary relation input area (7) displayed on the display, and the alternative ternary relation input area (7) Enter the department category (2) in the department category entry area corresponding to. Next, the product number (σ) for specifying the in-house part (σ) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data classification, the intermediate product number (second production factor) ) As the part number (ν) for identifying the assembly (ν), the process number (PC003) (third type number) as the intermediate data classification, and the part number (ξ) for identifying the inventory (ξ) as the child part number (third production factor) ξ) and an item number (PC001) (first type number) as a child data section. Further, a substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the substitution ternary relation input area (7), and the substitution destination number entry area corresponding to the substitution ternary relation input area (7) is substituted. Enter the original number (4-1).

  Assembling process (b), in-house production part (σ) and assembly (π) are input to the alternative ternary relation input area (8) displayed on the display via the input device, and the alternative ternary relation input area (8) Enter the department classification (2) in the department classification input area corresponding to. Next, the product number (b) that identifies the assembly process (b) as the parent product number (first production element), the process number (PC003) (third type number) as the parent data classification, and the intermediate product number (second production element) The product number (σ) for identifying the in-house part (σ), the item number (PC001) as the intermediate data classification (first type number), and the product number for identifying assembly (π) as the child product number (third production element) π), a process number (PC003) (third type number) as a child data section is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the substitution ternary relation input area (8), and the substitution destination number entry area corresponding to the substitution ternary relation input area (8) is substituted. Enter the original number (4-2).

  When the data is input, the computer 15 stores the data in the main file of the alternative master 19. In the alternative master 19, the in-house part (σ) and the assembly (ν) are linked, the in-house part (σ) and the assembly (ν) are linked based on the binary relation, and the in-house part (σ ), Assembly (ν), and inventory (ξ) are linked, and the internally produced part (σ), assembly (ν), and inventory (ξ) are linked based on the three-term relationship. Further, the assembly process (b), the in-house work part (σ) and the assembly (π) are linked, and the assembly process (b), the in-house work part (σ) and the assembly (π) are based on the ternary relationship. Connect.

  A product (E), a machining process (c), and a part (purchased product) (ζ) are input to the alternative ternary relation input area (9) displayed on the display via the input device, and the alternative ternary relation input area ( Enter the department category (2) in the department category entry area corresponding to 9). Next, as the product number (E) for specifying the product (E) as the parent product number (first production factor), the item number (PC001) (first type number) as the parent data category, and the intermediate product number (second production factor) Part number (c) that identifies the machining step (c), process number (PC003) (third type number) as an intermediate data category, and part number (ζ) that identifies a part (ζ) as a sub-part number (third production element) The item number (PC001) (first type number) as the child data classification is input. Further, a substitution possibility symbol (Y) is inputted into the substitution possibility symbol input area corresponding to the substitution ternary relation input area (9), and the substitution destination number entry area corresponding to the substitution ternary relation input area (9) is substituted. Enter the original number (5-1).

  The machining process (c), the in-house production part (ζ), and the inventory (ρ) are input to the alternative ternary relation input area (10) displayed on the display via the input device, and the alternative ternary relation input area (10 ) Enter the department classification (2) in the department classification input area corresponding to. Next, a product number (c) that identifies the machining step (c) as the parent product number (first production element), a process number (PC003) (third type number) as the parent data classification, and an intermediate product number (second production element) The product number (ζ) for identifying the in-house part (ζ), the item number (PC001) (first type number) as the intermediate data classification, and the product number for identifying the inventory product (ρ) as the child product number (third production element) (Ρ), an item number (PC001) (first type number) as a child data category is input. Further, the substitution possibility symbol (Y) is input to the substitution possibility symbol input area corresponding to the substitution ternary relation input area (10), and the substitution destination number entry area corresponding to the substitution ternary relation input area (10) is substituted. Enter the original number (5-2).

  When the data is input, the computer 15 stores the data in the main file of the alternative master 19. In the alternative master 19, the product (E), the processing step (c), and the part (purchased product) (ζ) are linked, and the product (E), the processing step (c), and the part (ζ ), And the machining step (c), the in-house part (ζ), and the inventory (ρ) are linked, and the machining step (c) and the in-house part (ζ) Stocks (ρ) are linked.

  FIG. 10 is a diagram for explaining an example of relationship integration performed by the computer 15. When a production system creation instruction is given via the input device, the computer 15 extracts from the configuration master 18 the binary relations and the ternary relations that are constituent elements of the production system. The computer 15 extracts the binary relationship between the store (A) and the warehouse (B) and the binary relationship between the store (A), the warehouse (B), and the product (E) from the configuration master 18 as the logistics department data. . Next, the computer 15 replaces the base number (PC005) of the parent data section of the store (A) with the base data section (PC005) of the base master 24, and based on the product number (A) and the base data section (PC005). The data of the store (A) is extracted from the base master 24, the base number (PC005) of the intermediate data section of the warehouse (B) is replaced with the base data section (PC005) (fifth type number) of the base master 24, and the product number ( B) The data of the warehouse (B) is extracted from the site master 24 based on the site data classification (PC005). Further, the item number (PC001) of the child data classification of the product (E) is replaced with the item data classification (PC001) (first type number) of the item master 20, and based on the item number (E) and the item data classification (PC001). The product (E) data is extracted from the item master 20.

  The computer 15 has, as manufacturing department data, a two-term relationship between the product (E) and the inspection process (a) from the configuration master 18, and three terms of the product (E), the inspection process (a), and the inspection standard document (α). A ternary relationship among the relationship, the product (E), the inspection process (a), and the inspection tool (β) is extracted. Next, the computer 15 replaces the process number (PC003) of the intermediate data classification of the inspection process (a) with the process data classification (PC003) (third type number) of the process master 22, and the product number (a) and the process data classification. (PC003) and the data of the inspection process (a) are extracted from the process master 22, and the product number (PC002) of the child data classification of the inspection standard (α) is set as the product data classification ( PC002) (second type number), and the inspection standard (α) data is extracted from the product master 21 based on the product number (α) and the product data classification (PC002), and the inspection tool (β) The resource number (PC004) of the child data classification of the resource master 23 is replaced with the resource data classification (PC004) (fourth type number) of the resource master 23, and the product number (β) and the resource data classification (PC004) ), The data of the inspection tool (β) is extracted from the resource master 23.

  The computer 15 has, as manufacturing department data, a two-term relationship between the product (E) and the assembly process (b) from the configuration master 18, and a three-term relationship between the product (E), the assembly process (b), and the assembly drawing (γ). The three-term relationship between the product (E), the assembly process (b), and the part (δ), and the three-term relationship between the product (E), the assembly process (b), and the line (ε) are extracted. Next, the computer 15 replaces the process number (PC003) of the intermediate data section of the assembly process (b) with the process data section (PC003) (third type number) of the process master 22, and the product number (b) and the process data section. Based on (PC003), the data of the assembly process (b) is extracted from the process master 22, and the product number (PC002) of the child data class of the assembly drawing (γ) is set as the product data class (PC002) of the product master 21. ) (Second type number), and the assembly drawing (γ) data is extracted from the product master 21 based on the product number (γ) and the product data classification (PC002). The computer 15 replaces the item number (PC001) of the child data classification of the part (δ) with the item data classification (PC001) (first type number) of the item master 20, and the product number (δ), the item data classification (PC001), Based on the above, the data of the part (δ) is extracted from the item master 20, and the resource number (PC004) of the child data classification of the line (ε) is read as the resource data classification (PC004) (fourth type number) of the resource master 23 The data of the line (ε) is extracted from the resource master 23 based on the product number (ε) and the resource data classification (PC004).

  The computer 15 has, as manufacturing department data, a two-term relationship between the product (E) and the machining step (c) from the configuration master 18, and three terms of the product (E), the machining step (c), and the in-house part (ζ). A ternary relationship among the relationship, the product (E), the machining step (c), and the jig (η) is extracted. Next, the computer 15 replaces the process number (PC003) of the intermediate data classification of the machining process (c) with the process data classification (PC003) (third type number) of the process master 22, and the product number (c) and the process data classification. Based on (PC003), the data of the machining process (c) is extracted from the process master 22, and the item number (PC001) of the child data classification of the in-house part (ζ) is set as the item data classification (PC001) ( The data is read as “first type number”, and the data of the in-house part (ζ) is extracted from the item master 20 based on the item number (ζ) and the item data classification (PC001). The computer 15 replaces the resource number (PC004) of the child data classification of the tool (η) with the resource data classification (PC004) (fourth type number) of the resource master 23, and the product number (η) and the resource data classification (PC004). Based on the above, data of the tool (η) is extracted from the resource master 23.

  The computer 15 produces, as manufacturing department data, a two-term relationship between the assembly process (b) and the assembly drawing (γ) from the configuration master 18, and three terms of the assembly process (b), the assembly drawing (γ), and the design (θ). Extract relationships. Next, the computer 15 replaces the product number (PC002) of the child data category of the design (θ) with the product data category (PC002) (second type number) of the product master 21, and the product number (θ) and the result. Based on the product data classification (PC002), design (θ) data is extracted from the product master 21.

  The computer 15 produces, as manufacturing department data, a binary relationship between the machining process (c) and the in-house part (ζ) from the configuration master 18, and the machining process (c), the in-house part (ζ) and the process (ι). The three-term relationship, the two-term relationship between the in-house part (ζ) and the machining (ι), and the three-term relation between the in-house part (ζ), the machining (ι), and the inventory (κ) are extracted. Next, the computer 15 replaces the process number (PC003) of the child data classification of the process (ι) with the process data classification (PC003) (third type number) of the process master 22, and the product number (ι) and the process data classification ( PC003) and processing (ι) data are extracted from the process master 22. The computer 15 replaces the item number (PC001) of the child data classification of the inventory (κ) with the item data classification (PC001) (first type number) of the item master 20, and the product number (κ) and the item data classification (PC001). Based on the above, the inventory data (κ) is extracted from the item master 20.

  When extracting a plurality of various binary relationships and various ternary relationships between production elements from the configuration master 18, and extracting various production elements forming the binary and ternary relationships from various masters 17, The computer 15 refers to the parent data division of the first production element and the child data division of the second production element forming the binary relation, and combines the production elements of the same data division in the binary relation. A plurality of binary relations extracted in step (1) are integrated. The computer 15 refers to the parent data section of the first production element that forms the binary relation and the child data section of the second production element, and the parent data section and the second production of the first production element that forms the ternary relation. Refer to the intermediate data division of the element and the child data division of the third production element, and combine various binary relations extracted by combining the production elements of the same data division of these binary relations and ternary relations. And ternary relations. Further, the computer 15 refers to the parent data division of the first production element, the intermediate data division of the second production element, and the child data division of the third production element that form the ternary relation, and the same among the three relations A plurality of various ternary relationships extracted by combining the production elements of the data categories are integrated. A specific example is as follows.

  The computer 15 includes a three-term relationship between the store (A), the warehouse (B), and the product (E), a two-term relationship between the product (E) and the inspection step (a), and the product (E) and the inspection step (a). Reference is made to the three-term relationship between the inspection standard document (α) and the product (E), the inspection process (a) and the inspection tool (β). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( The inspection process (a) is determined to be the same production factor from a).

  The computer 15 combines the products (E) and the inspection process (a) in the binary relationship and the ternary relationship. Thereby, these binary relationships are integrated (binary relationship integrating means), these ternary relationships are integrated (ternary relationship integrating means), and these binary relationships and these ternary relationships are integrated ( (2) (3) relationship integration means) By integrating these relationships, the computer 15 has the warehouse (B) located immediately below the store (A), the product (E) located immediately below the warehouse (B), and the product (E). A system (technical information system) is constructed in which the inspection process (a) is positioned immediately below and the inspection standard document (α) and the inspection tool (β) are positioned in parallel immediately below the inspection process (a).

  The computer 15 has a binary relationship between the product (E) and the inspection process (a), a binary relationship between the product (E) and the assembly process (b), a product (E), an assembly process (b), and an assembly drawing (γ ), Ternary relationship between product (E), assembly process (b), and part (δ), ternary relationship between product (E), assembly process (b), and line (ε), assembly Reference is made to the two-term relationship between the process (b) and the assembly drawing (γ) and the three-term relationship between the assembly step (b), the assembly drawing (γ) and the design (θ). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( From (b), the assembly process (b) is determined as the same production element, and from the data classification (PC002) and the product number (γ), the assembly drawing (γ) is determined as the same production element.

  The computer 15 combines the products (E) in the binary relationship and the ternary relationship, combines the assembly steps (b), and combines the assembly drawings (γ). By integrating these relationships, the computer 15 has the inspection process (a) and the assembly process (b) positioned in parallel immediately below the product (E), and the assembly drawing ( A system (technical information system) is constructed in which γ), part (δ), and line (ε) are positioned in parallel, and design (θ) is positioned immediately below assembly drawing (γ).

  The computer 15 includes a binary relationship between the product (E) and the inspection process (a), a binary relationship between the product (E) and the machining process (c), a product (E), the machining process (c), and an in-house part ( ternary relationship with ζ), ternary relationship between product (E), machining step (c) and jig (η), binary relationship between machining step (c) and in-house part (ζ), machining step (C) Three-term relationship between in-house part (ζ) and machining (ι), two-term relation between in-house part (ζ) and machining (ι), in-house part (ζ) and machining (ι) Refer to the ternary relationship with inventory (κ). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( From c), it is determined that the processing step (c) is the same production factor. Further, from the data classification (PC001) and the product number (ι), the in-house part (ζ) is determined as the same production factor in the two-term relationship and the three-term relationship from the data classification (PC001) and the product number (ζ). Process (ι) is judged as the same production factor.

  The computer 15 combines the products (E) in the binary relation and the ternary relation, combines the machining steps (c), combines the in-house parts (ζ), and processes (ι). Combine each other. By integrating these relationships, the computer 15 has the inspection process (a) and the machining process (c) positioned in parallel immediately below the product (E), and the in-house part immediately below the machining process (c). (Ζ) and jig (η) are located in parallel, machining (ι) is located immediately below the in-house part (ζ), and inventory (κ) is located immediately below machining (ι). To build a system (technical information system).

  The computer 15 includes a system of the constructed store (A), warehouse (B), product (E), inspection process (a), inspection standard document (α), inspection tool (β), and the constructed product (E), System of inspection process (a), assembly process (b), assembly drawing (γ), part (δ), line (ε), design (θ), built product (E), inspection process (a), processing Reference is made to the process (c), the in-house part (ζ), the tool (η), the machining (ι), and the stock (κ) system. Next, the computer 15 determines that the product (E) is the same production element in the system from the data division (PC001) and the product number (E), combines the products (E), and sets the data division (PC003) and From the product number (a), the inspection process (a) is determined as the same common production element, and the inspection processes (a) are combined.

  Thereby, the computer 15 has a warehouse (B) below the store (A), a product (E) below the warehouse (B), an inspection step (a) and an assembly step (b) below the product (E). The inspection standard (α) and the inspection tool (β) are below the machining step (c) and the inspection step (a), and the assembly drawing (γ), the part (δ) and the line (ε) are below the assembly step (b). Design (θ) below assembly drawing (γ), internal parts (ζ) and jigs (η) below machining process (c), machining (ι) below machining parts (ζ), machining A system in which inventory items (κ) are connected in series under (ι).

  When the computer 15 integrates the binary relation and the ternary relation and constructs a system that is connected in series from the upper level to the lower level, it incorporates each production element extracted from each type of master into the system, A production system connected in series from the upper level to the lower level is created (first production system creation means). In the created production system, as shown in FIG. 10, the store (A) is at the top, and the warehouse (B), the product (E), the inspection process (a), the assembly process (b), and processing are performed in the lower order. Process (c), inspection standard (α), inspection tool (β), assembly drawing (γ), part (δ), line (ε), design (θ), in-house part (ζ), jig (η ), Processed (ι), and inventory (κ). The computer 15 refers to the substitution possibility symbols of the type master 17 and the configuration master 18 and distinguishes the production elements that can be substituted from the other production elements in the produced production system. As a means for distinguishing the replaceable production element from the others, the replaceable production element and the others are displayed on the display in different colors in the produced production system. Or it displays on a display in the state which set the substitution flag to the production element which can be substituted.

  The computer 15 stores the produced article production system in a storage device or a hard disk (first production system storage means), and outputs the produced article production system via an output device (first production system output means). In addition, after creating the production system of the articles, the production systems from the article (2) to the article (n) are sequentially created, and the produced production systems of the article (2) to the article (n) are stored in the storage device or the hard disk. (Production system storage means), and any one of the produced production systems of the article (2) to the article (n) can be output via an output device (production system output means). In creating a new product production system, not only can existing production elements, binary relationships, and ternary relationships be used, but a variety of newly defined production factors can be used. A plurality of set two-term relationships or three-term relationships can be used.

  FIG. 11 is a diagram illustrating a departmental production system output by department. In this system 10, only the production elements represented by solid lines in FIG. 11 are output from the output devices installed in the respective departments 11, 12, 13, and 14, and the production elements represented by dotted lines are not output in principle. The computer 15 transfers the created entire production system to the terminal devices installed in the respective departments 11, 12, 13, and 14, and based on the departmental numbers (1, 2, 3, 4), the departments 11, 12, A production system for each department formed from only the necessary production elements for each of 13 and 14 is displayed on a display installed in each department 11, 12, 13, 14 (production system for each department production system), and production for each department. The system is printed on a printer installed in each department 11, 12, 13, 14 (production system output means for each department).

  For example, as shown in FIGS. 1 and 11, the display installed in the design department 11 has a product (E), an assembly process (b), a machining process (c), an assembly drawing ( γ), parts (δ), line (ε), design (θ), in-house parts (ζ), jigs (η), processing (ι), stocks (κ) The production system is displayed. On the display installed in the manufacturing department 12, the product (E), the inspection process (a), the assembling process (b), the processing process (c), the inspection standard (α), the inspection with the department number 2 set. From tools (β), assembly drawings (γ), parts (δ), lines (ε), designs (θ), in-house parts (ζ), jigs (η), machining (ι), stocks (κ) The production system of the formed article (1) is displayed. On the display installed in the purchasing department 13, production of an article (1) formed from a product (E), an inspection tool (β), a part (δ), and a jig (η) with a department number 3 set. The system is displayed. On the display installed in the distribution department 14, the production system of the article (1) formed from the store (A), the warehouse (B), and the product (E) in which the department number 4 is set is displayed. In each department 11, 12, 13, 14 it is possible to display the entire production system on the display by selecting the entire display.

  FIG. 12 is a schematic configuration diagram of the production system creation system 10 when a production system is created again after changing a production element to an alternative production element, and FIG. 13 is another example of relational integration performed by the computer 15. FIG. The system 10 can replace at least one of the first and second production elements forming the binary relation with an alternative production element, and can at least one of the first to third production elements forming the ternary relation. One can be replaced with an alternative production factor (production factor substitution means). In this system 10, when at least one of the first to third production elements is changed to the substitute production element, the ternary relation including the substitute production element is added and extracted from the configuration master 18 and the substitute master 19. Each relationship is integrated again (relationship reintegration means), and a production system is created again according to the reintegrated relationship (second production system creation means). An example in which the computer 15 creates the production system again after changing the production factor to the alternative production factor is as follows.

  When the warehouse (B) of the production system in FIG. 1 is clicked, the display shows the warehouse (C), the substitute (Y), and the non-substitute (N) that are substitute production elements of the warehouse (B). When the alternative (Y) is selected, the computer 15 stores the store (A) based on the alternative source numbers (1-1) and (1-2) and the alternative destination numbers (1-1) and (1-2). Instead of the binary relationship between the store (A) and the warehouse (C), the binary relationship between the store (A) and the warehouse (C) is extracted from the alternative master 19, and the store (A), the warehouse (B), and the product (E) Instead of the ternary relationship, the ternary relationship among the store (A), the warehouse (C), and the product (E) is extracted from the alternative master 19.

  The computer 15 replaces the site number (PC005) of the parent data category of the store (A) with the site data category (PC005) of the site master 24, and the site master 24 based on the product number (A) and the site data category (PC005). The data of the store (A) is extracted from the data, the base number (PC005) of the intermediate data section of the warehouse (C) is replaced with the base data section (PC005) (fifth type number) of the base master 24, and the product number (C) Based on the base data classification (PC005), the data of the warehouse (C) is extracted from the base master 24. Further, the item number (PC001) of the child data classification of the product (E) is replaced with the item data classification (PC001) (first type number) of the item master 20, and based on the item number (E) and the item data classification (PC001). The product (E) data is extracted from the item master 20.

  When you click any of the inspection process (a), inspection standard document (α), or inspection tool (β) in the production system of FIG. 1, the inspection process (a), inspection standard document (α), inspection tool is displayed on the display. The inspection process (d), inspection standard document (λ), inspection tool (μ), replacement (Y), and non-replacement (N), which are alternative production elements of (β), are displayed. When the alternative (Y) is selected, the computer 15 substitutes the alternative source numbers (2-1), (2-2), (2-3) and the alternative destination numbers (2-1), (2-2), ( 2-3), the binary relationship between the product (E) and the inspection step (d) is extracted from the alternative master 19 instead of the binary relationship between the product (E) and the inspection step (a), and the product Instead of the three-term relationship between (E), the inspection process (a), and the inspection standard document (α), the three-term relationship between the product (E), the inspection process (d), and the inspection standard document (λ) is replaced with the alternative master 19. The three-term relationship between the product (E), the inspection step (d), and the inspection tool (μ) instead of the three-term relationship between the product (E), the inspection step (a), and the inspection tool (β) Are extracted from the alternative master 19.

  The computer 15 replaces the process number (PC003) of the intermediate data section of the inspection process (d) with the process data section (PC003) (third type number) of the process master 22, and the product number (d) and the process data section (PC003). Based on the above, the data of the inspection process (d) is extracted from the process master 22, and the product number (PC002) of the child data classification of the inspection standard document (λ) is set as the product data classification (PC002) ( The second classification number) is read, and the data of the inspection standard document (λ) is extracted from the product master 21 based on the product number (λ) and the product data classification (PC002). Further, the resource number (PC004) of the child data section of the inspection tool (μ) is replaced with the resource data section (PC004) (fourth type number) of the resource master 23, and the product number (μ) and the resource data section (PC004) are changed. Based on this, the data of the inspection tool (μ) is extracted from the resource master 23.

  When the part (purchased product) (δ) in the production system of FIG. 1 is clicked, the display shows an in-house part (σ), assembly (ν), inventory (ξ), which are alternative production elements of the part (δ), Substitute (Y) and not substitute (N) are displayed. When the alternative (Y) is selected, the computer 15 selects the product (E), the assembly step (b), the part (δ), based on the alternative source number (4-1) and the alternative destination number (4-1). In place of the three-term relationship, the three-term relationship between the product (E), the assembly process (b), and the part (σ) is extracted from the alternative master 19, and the two-term relation between the assembly process (b) and the part (σ). , Ternary relationship between assembly process (b), component (σ) and assembly (ν), binary relationship between component (σ) and assembly (ν), component (σ), assembly (ν) and inventory ( The ternary relationship with ξ) is extracted from the alternative master 19.

  The computer 15 replaces the process number (PC003) of the intermediate data section of the assembly process (b) with the process data section (PC003) (third type number) of the process master 22, and the product number (b) and process data section (PC003). Based on the above, the data of the assembly process (b) is extracted from the process master 22, and the item number (PC001) of the intermediate data classification of the in-house part (σ) is changed to the item data classification (PC001) (first type of the item master 20). No.), and the data of the part (σ) is extracted from the item master 20 based on the item number (σ) and the item data classification (PC001). Further, the process number (PC003) of the child data classification of assembly (ν) is replaced with the process data classification (PC003) (third type number) of the process master 22, and based on the product number (ν) and the process data classification (PC003). Assembling (ν) data is extracted from the process master 22, and the item number (PC001) of the child data category of the inventory (ξ) is read as the item data category (PC001) (first type number) of the item master 20, Based on the item number (ξ) and the item data classification (PC001), the data of the inventory item (ξ) is extracted from the item master 20.

  When you click on any of the in-house parts (ζ), processing (ι), and inventory items (κ) in the production system of Fig. 1, the display shows parts that are substitute production elements for in-house parts (ζ) (purchased goods) ) (Ζ), substitute (Y), and not substitute (N) are displayed. When the alternative (Y) is selected, the computer 15 selects the product (E), the machining step (c), and the in-house part (ζ) based on the alternative source number (5-1) and the alternative destination number (5-1). ), Ternary relationship between machining process (c) and in-house part (ζ), ternary relationship between machining process (c), in-house part (ζ) and machining (ι), in-house work The product (E), the machining process (c) and the part (purchase) are replaced with the binary relation between the part (ζ) and the machining (ι), and the three-term relation between the in-house part (ζ) and the inventory (κ). Product) (ζ) is extracted from the alternative master 19.

  The computer 15 replaces the process number (PC003) of the intermediate data classification of the machining process (c) with the process data classification (PC003) (third type number) of the process master 22, and the product number (c) and the process data classification (PC003). Based on the above, the data of the machining process (c) is extracted from the process master 22, and the item number (PC001) of the child data classification of the part (purchased product) (ζ) is set as the item data classification (PC001) (No. 1 type number), and the data of the part (purchased product) (ζ) is extracted from the item master 20 based on the product number (ζ) and the item data classification (PC001).

  The computer 15 has a binary relationship between the product (E) and the assembly process (b), a three-term relationship between the product (E), the assembly process (b), and the assembly drawing (γ), and the product (E) and the assembly process ( b) Three-term relationship between line (ε), two-term relationship between assembly process (b) and assembly drawing (γ), three-term relationship between assembly process (b), assembly drawing (γ) and design (θ) The binary relationship between the product (E) and the machining step (c) and the three-term relationship between the product (E), the machining step (c), and the jig (η) are extracted from the configuration master 18. The computer 15 replaces the product number (PC002) of the child data category of the assembly drawing (γ) with the product data category (PC002) (second type number) of the product master 21, and the product number (γ) and product data. Based on the category (PC002), the data of the assembly drawing (γ) is extracted from the product master 21, and the product number (PC002) of the child data category of the design (θ) is extracted as the product data category ( PC002) (second type number), and design (θ) data is extracted from the product master 21 based on the product number (θ) and product data classification (PC002). Further, the resource number (PC004) of the child data section of the tool (η) is replaced with the resource data section (PC004) (fourth type number) of the resource master 23, and the product number (η) and the resource data section (PC004) are changed. Based on this, the tool (η) data is extracted from the resource master 23.

  A plurality of various binary factors and various ternary relationships among the production elements are extracted from the configuration master 18 and the alternative master 19 and a plurality of various production factors forming the binary terms and ternary relationships from the various masters 17. Is extracted, the computer 15 integrates a plurality of relations extracted by combining the production elements of the same data section among these relations. The computer 15 includes a three-term relationship between the store (A), the warehouse (C), and the product (E), a two-term relationship between the product (E) and the inspection step (d), and the product (E) and the inspection step (d). Reference is made to the ternary relationship between the inspection standard (λ) and the ternary relationship between the product (E), the inspection step (d), and the inspection tool (μ). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( From d), the inspection process (d) is determined as the same production factor.

  The computer 15 combines the products (E) in the binary relation and the ternary relation, and combines the inspection steps (d). Thereby, these binary relationships are integrated (binary relationship reintegration means), these ternary relationships are integrated (ternary relationship reintegration means), and these binary relationships and these ternary relationships are integrated. (2 item 3 item re-integration means). By integrating these relationships, the computer 15 has the warehouse (C) located immediately below the store (A), the product (E) located immediately below the warehouse (C), and the product (E). A system (technical information system) is constructed in which the inspection process (d) is positioned immediately below and the inspection standard document (λ) and the inspection tool (μ) are positioned in parallel immediately below the inspection process (d).

  The computer 15 includes a binary relationship between the product (E) and the inspection process (d), a binary relationship between the product (E) and the assembly process (b), a product (E), an assembly process (b), and an assembly drawing (γ ), Ternary relationship between product (E), assembly process (b) and in-house part (σ), ternary relationship between product (E), assembly process (b) and line (ε) Two-term relationship between assembly process (b) and assembly drawing (γ), three-term relationship between assembly process (b), assembly drawing (γ) and design (θ), assembly process (b) and in-house parts ( Binary) relation between σ), Assembly process (b), Internal part (σ) and assembly (ν) Three-term relation, Internal part (σ) and Assembly (ν) binary relation, Internal work Reference is made to the ternary relationship among parts (σ), assembly (ν), and inventory (ξ). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( From (b), the assembly process (b) is determined as the same production element, and from the data classification (PC002) and the product number (γ), the assembly drawing (γ) is determined as the same production element. Further, from the data classification (PC001) and the product number (σ), it is determined that the internally produced part (σ) is the same production factor in the binary and ternary relationships, and from the data classification (PC003) and the product number (ν). Assume that assembly (ν) is the same production factor.

  The computer 15 combines the products (E) in the binary relationship and the ternary relationship, combines the assembly steps (b), and combines the assembly drawings (γ). The computer 15 combines the in-house parts (σ) and the assemblies (ν) in the binary relation and the ternary relation. By integrating these relationships, the computer 15 has the inspection process (d) and the assembly process (b) positioned in parallel immediately below the product (E), and the assembly drawing ( γ), in-house part (σ), and line (ε) are located in parallel, design (θ) is located in the immediate lower part of assembly drawing (γ), and assembly is in the immediate lower part of in-house part (σ). A system (technical information system) is constructed in which (ν) is located and inventory (ξ) is located immediately below assembly (ν).

  The computer 15 includes a binary relationship between the product (E) and the inspection step (a), a binary relationship between the product (E) and the processing step (c), a product (E), a processing step (c), and a part (purchased product). ) (Ζ), and the three-term relationship between the product (E), the machining step (c), and the tool (η). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( From c), it is determined that the processing step (c) is the same production factor. The computer 15 combines the products (E) in the binary relationship and the ternary relationship, and combines the processing steps (c). By integrating these relations, the computer 15 allows the inspection process (d) and the machining process (c) to be positioned in parallel immediately below the product (E), and the component (purchase) immediately below the machining process (c). Product) (ζ) and jig (η) are arranged in parallel (technical information system).

  The computer 15 includes a system of the constructed store (A), warehouse (C), product (E), inspection process (d), inspection standard (λ), inspection tool (μ), and the constructed product (E), System and construction of inspection process (d), assembly process (b), assembly drawing (γ), in-house production part (σ), line (ε), design (θ), assembly (ν), inventory (ξ) Reference is made to the product (E), inspection process (d), machining process (c), parts (purchased product) (ζ), jig (η) system. Next, the computer 15 determines that the product (E) is the same production element in the system from the data section (PC001) and the product number (E), and combines the products (E), and the data section (PC003) and From the product number (d), the inspection process (d) is determined as the same common production element, and the inspection processes (d) are combined. Thereby, the computer 15 has a warehouse (C) below the store (A), a product (E) below the warehouse (B), an inspection step (d) and an assembly step (b) below the product (E). The inspection standard (λ) and the inspection tool (μ) are below the machining step (c) and the inspection step (d), and the assembly drawing (γ), the in-house production part (σ) and the line are below the assembly step (b). ε), design (θ) below assembly drawing (γ), assembly (ν) below internal work component (σ), inventory (ξ) below assembly (ν), subordinate to machining step (c) A system is established in which parts (purchased products) (ζ) and jigs (η) are connected in series.

  When the computer 15 integrates the binary relation and the ternary relation and constructs a system that is connected in series from the upper level to the lower level, the computer 15 incorporates each production element extracted from the various masters 17 into the system, and various types of production elements Creates a production system connected in a series from the top to the bottom (second production system creation means). In the created production system, as shown in FIG. 12, the store (A) is at the top, and the warehouse (C), the product (E), the inspection process (d), the assembly process (b), and the processing are performed downward. Process (c), Inspection Standard Document (λ), Inspection Tool (μ), Assembly Drawing (γ), Internal Work Parts (σ), Line (ε), Design (θ), Assembly (ν), Inventory (ξ ), Parts (purchased products) (ζ), jigs (η) are arranged. The computer 15 stores the created production system in a storage device or a hard disk (second production system storage means), and outputs the produced production system via an output device (second production system output means).

  FIG. 14 is a diagram illustrating a departmental production system output by department. Based on the division number (1, 2, 3, 4), the computer 15 generates a division-specific production system formed from only necessary production elements for each division 11, 12, 13, 14, and each division 11, 12, 13 and 14 are displayed on the display installed in each department (departmental production system output means), and the production system for each department is printed on a printer installed in each department 11, 12, 13, and 14 (departmental production system output means). ). As shown in FIG. 14, on the display installed in the design department 11, the product (E), the assembly process (b), the processing process (c), the assembly drawing (γ) Displays the production system formed from work parts (σ), lines (ε), design (θ), assembly (ν), inventory (ξ), parts (purchased products) (ζ), and jigs (η). The The display installed in the manufacturing department 12 has a product (E), an inspection process (d), an assembly process (b), a machining process (c), an inspection standard document (λ), and an inspection, for which the division number 2 is set. Tool (μ), Assembly drawing (γ), Internal work part (σ), Line (ε), Design (θ), Assembly (ν), Stock (ξ), Part (purchased) (ζ), Tool The production system formed from (η) is displayed. The display installed in the purchasing department 13 is a production system formed from products (E), inspection tools (μ), parts (purchased goods) (ζ), and jigs (η), each of which has a department number 3 set. Is displayed. The display installed in the logistics department 14 displays the production system formed from the store (A), warehouse (C), and product (E) in which the department number 4 is set.

  FIG. 15 is a schematic configuration diagram of the production system creation system 10 when a production system is created again after changing a production element to an alternative production element, and FIG. 16 is another example of relational integration performed by the computer 15. FIG. When one of assembly drawings (γ) and design (θ) of the production system in FIG. 1 is clicked, an assembly drawing (ο), which is an alternative production element of assembly drawing (γ), substitute (Y), (N) which is not substituted is displayed. When the alternative (Y) is selected, the computer 15 determines the product (E), the assembly step (b), and the assembly drawing (γ) based on the alternative source number (3-1) and the alternative destination number (3-1). Instead of the three-term relationship between the assembly process (b) and the assembly drawing (γ), and the three-term relationship between the assembly process (b), the assembly drawing (γ), and the design (θ). ), The assembly process (b), and the assembly drawing (ο) are extracted from the alternative master 19.

  The computer 15 reads the item number (PC001) of the parent data category of the product (E) into the item data category (PC001) of the item master 20, and the item master 20 based on the item number (E) and the item data category (PC001). The product (E) data is extracted from the data, and the process number (PC003) in the intermediate data section of the assembly process (b) is replaced with the process data section (PC003) (third type number) in the process master 22, and the product number (b) And the data of the assembly process (b) are extracted from the process master 22 based on the process data classification (PC003). Further, the product number (PC002) in the child data category of the assembly drawing (ο) is replaced with the product data category (PC002) (second type number) in the product master 21, and the product number (ο) and product data category ( PC002) and the assembly drawing (ο) data are extracted from the deliverable master 21.

  When the part (purchased product) (δ) in the production system shown in FIG. 1 is clicked, the in-house part (σ), assembly (π), and substitute, which are alternative production elements of the part (purchased product) (δ), are displayed on the display. (Y), not substituted (N) are displayed. When the alternative (Y) is selected, the computer 15 selects the product (E), the assembly step (b), the part (δ), based on the alternative source number (4-2) and the alternative destination number (4-2). The three-term relationship between the product (E), the assembly process (b) and the in-house part (σ), the two-term relation between the assembly process (b) and the in-house part (σ), and the assembly process A ternary relationship among (b), the in-house part (σ) and the assembly (π) is extracted from the alternative master 19. The computer 15 replaces the item number (PC001) in the intermediate data category of the in-house part (σ) with the item data category (PC001) (first type number) in the item master 20, and the product number (σ) and the item data category (PC001). ), The data of the in-house part (σ) is extracted from the item master 20, and the process number (PC003) of the child data class of assembly (π) is set as the process data class (PC003) (third type) of the process master 22. No.), and the assembly (π) data is extracted from the process master 22 based on the product number (π) and the process data classification (PC003).

  When you click on all the in-house parts (ζ), processing (ι), and inventory (κ) in the production system of Fig. 1, the display shows the in-house parts (ζ), processing (ι), and in-stock items (κ). The in-house parts (ζ), the inventory (ρ), the substitute (Y), and the non-substitute (N), which are the alternative production elements, are displayed. When the substitute (Y) is selected, the computer 15 performs the machining step (c), the in-house production part (ζ), and the machining (ι) based on the substitution source number (5-2) and the substitution destination number (5-2). ), Ternary relationship between in-house parts (ζ) and machining (ι), and ternary relations between in-house parts (ζ), machining (ι), and inventory (κ) The ternary relationship among the process (c), the in-house production part (ζ) and the inventory (ρ) is extracted from the alternative master 19.

  The computer 15 replaces the process number (PC003) of the parent data classification of the machining process (c) with the process data classification (PC003) (third type number) of the process master 22, and the product number (c) and the process data classification (PC003). Based on the above, the data of the machining process (c) is extracted from the process master 22, and the item number (PC001) of the intermediate data classification of the in-house production part (ζ) is changed to the item data classification (PC001) (first type of the item master 20). No.), and the data of the in-house part (ζ) is extracted from the item master 20 based on the product number (ζ) and the item data classification (PC001). Further, the item number (PC001) of the child data classification of the inventory (ρ) is replaced with the item data classification (PC001) (first type number) of the item master 20, and the item number (ρ) and the item data classification (PC001) are changed. Based on the item master 20, the data of the inventory item (ρ) is extracted.

  The computer 15 includes a two-term relationship between the store (A) and the warehouse (B), a three-term relationship between the store (A), the warehouse (B), and the product (E), and the product (E) and the inspection process (a). The three-term relationship between the product (E), the inspection process (a), and the inspection standard document (α), the three-term relationship between the product (E), the inspection process (a), and the inspection tool (β), Two-term relationship between product (E) and assembly step (b), three-term relationship between product (E), assembly step (b) and line (ε), two terms between product (E) and processing step (c) Term relationship, ternary relationship between product (E), machining step (c) and in-house part (ζ), ternary relationship between product (E), machining step (c) and jig (η), machining step A binary relation between (c) and the in-house part (ζ) is extracted from the configuration master 18. The computer 15 replaces the base number (PC005) of the parent data section of the store (A) with the base data section (PC005) of the base master 24, and the base master 24 based on the product number (A) and the base data section (PC005). The data of the store (A) is extracted from the data, the base number (PC005) of the intermediate data section of the warehouse (B) is replaced with the base data section (PC005) (fifth type number) of the base master 24, and the product number (B) Based on the base data classification (PC005), the data of the warehouse (B) is extracted from the base master 24.

  The computer 15 replaces the process number (PC003) of the intermediate data section of the inspection process (a) with the process data section (PC003) (third type number) of the process master 22, and the product number (a) and the process data section (PC003). Based on the above, the data of the inspection process (a) is extracted from the process master 22, and the product number (PC002) of the child data classification of the inspection standard document (α) is set as the product data classification (PC002) (PC002) ( The second classification number) is read, and the data of the inspection standard document (α) is extracted from the product master 21 based on the product number (α) and the product data classification (PC002), and the child data of the inspection tool (β) The resource number (PC004) of the classification is replaced with the resource data classification (PC004) (fourth type number) of the resource master 23, and the product number (β) and the resource data classification (PC004) are changed. Based on this, the data of the inspection tool (β) is extracted from the resource master 23.

  The computer 15 replaces the resource number (PC004) of the child data section of the line (ε) with the resource data section (PC004) (fourth type number) of the resource master 23, and the product number (ε) and the resource data section (PC004) Based on the above, the data of the line (ε) is extracted from the resource master 23, and the resource number (PC004) of the child data section of the tool (η) is changed to the resource data section (PC004) (fourth type number) of the resource master 23. The data of the tool (η) is extracted from the resource master 23 based on the replacement, the product number (η) and the resource data classification (PC004).

  A plurality of various binary factors and various ternary relationships among the production elements are extracted from the configuration master 18 and the alternative master 19 and a plurality of various production factors forming the binary terms and ternary relationships from the various masters 17. Is extracted, the computer 15 integrates a plurality of relations extracted by combining the production elements of the same data section among these relations. The computer 15 includes a three-term relationship between the store (A), the warehouse (B), and the product (E), a two-term relationship between the product (E) and the inspection step (a), and the product (E) and the inspection step (a). Reference is made to the three-term relationship between the inspection standard document (α) and the product (E), the inspection process (a) and the inspection tool (β). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( The inspection process (a) is determined to be the same production factor from a).

  The computer 15 combines the products (E) and the inspection process (a) in the binary relationship and the ternary relationship. Thereby, these binary relationships are integrated (binary relationship reintegration means), these ternary relationships are integrated (ternary relationship reintegration means), and these binary relationships and these ternary relationships are integrated. (2 item 3 item re-integration means). By integrating these relationships, the computer 15 has the warehouse (B) located immediately below the store (A), the product (E) located immediately below the warehouse (B), and the product (E). A system (technical information system) is constructed in which the inspection process (a) is positioned immediately below and the inspection standard document (α) and the inspection tool (β) are positioned in parallel immediately below the inspection process (a).

  The computer 15 has a binary relationship between the product (E) and the inspection process (a), a binary relationship between the product (E) and the assembly process (b), a product (E), an assembly process (b), and an assembly drawing (ο). ), Ternary relationship between product (E), assembly process (b) and in-house part (σ), ternary relationship between product (E), assembly process (b) and line (ε) Reference is made to the binary relationship between the assembly process (b) and the in-house part (σ) and the ternary relation between the assembly process (b), the in-house part (σ) and the assembly (π). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( From (b), the assembly process (b) is determined as the same production factor, and the in-house part (σ) is determined as the same production factor from the data classification (PC001) and the product number (σ). The computer 15 combines the products (E) in the binary relationship and the ternary relationship, combines the assembly steps (b), and combines the in-house parts (σ). By integrating these relationships, the computer 15 has the inspection process (a) and the assembly process (b) positioned in parallel immediately below the product (E), and the assembly drawing ( A system (technical information system) in which ο), in-house parts (σ), and line (ε) are positioned in parallel, and assembly (π) is positioned immediately below assembly drawing (ο).

  The computer 15 has a binary relation between the product (E) and the inspection process (a), a binary relation between the product (E) and the machining process (c), a product (E), the machining process (c), and an in-house part ( ternary relationship with ζ), ternary relationship between product (E), machining step (c) and jig (η), binary relationship between machining step (c) and in-house part (ζ), machining step Reference is made to the ternary relationship among (c), the in-house part (ζ), and the inventory (ρ). Next, the computer 15 determines that the product (E) is the same production element in the two-term relationship and the three-term relationship from the data category (PC001) and the product number (E), and the data category (PC003) and the product number ( From c), the machining step (c) is determined as the same production factor, and the in-house part (ζ) is determined as the same production factor from the data classification (PC001) and the product number (ζ). The computer 15 combines the products (E) in the two-term relationship and the three-term relationship, combines the machining steps (c), and combines the in-house parts (ζ). By integrating these relationships, the computer 15 has the inspection process (a) and the machining process (c) positioned in parallel immediately below the product (E), and the introductory component immediately below the machining process (c). A system (technical information system) is constructed in which (ζ) and the tool (η) are positioned in parallel, and the inventory (ρ) is positioned immediately below the introductory part (ζ).

  The computer 15 includes a system of the constructed store (A), warehouse (B), product (E), inspection process (a), inspection standard document (α), inspection tool (β), and the constructed product (E), System of inspection process (a), assembly process (b), assembly drawing (ο), in-house production part (σ), line (ε), assembly (π), built product (E), inspection process (a) , Machining process (c), in-house parts (ζ), jigs (η), and stock (ρ) systems. Next, the computer 15 determines that the product (E) is the same production element in the system from the data division (PC001) and the product number (E), combines the products (E), and sets the data division (PC003) and From the product number (a), the inspection process (a) is determined as the same common production element, and the inspection processes (a) are combined. Thereby, the computer 15 has a warehouse (B) below the store (A), a product (E) below the warehouse (B), an inspection step (a) and an assembly step (b) below the product (E). The inspection standard (α) and the inspection tool (β) are below the machining step (c) and the inspection step (a), and the assembly drawing (ο), the in-house production part (σ) and the line are below the assembly step (b). ε), assembly (π) below assembly drawing (ο), in-house parts (ζ) and jigs (η) below machining process (c), inventory items (ρ) below in-house parts (ζ) ) Will build a system connected to a series.

  When the computer 15 integrates the binary relation and the ternary relation and constructs a system that is connected in series from the upper level to the lower level, the computer 15 incorporates each production element extracted from the various masters 17 into the system, and various types of production elements Creates a production system connected in a series from the top to the bottom (second production system creation means). In the produced production system, as shown in FIG. 16, the store (A) is at the top, and the warehouse (B), the product (E), the inspection process (a), the assembly process (b), and the processing are performed downward. Process (c), Inspection Standard (α), Inspection Tool (β), Assembly Drawing (ο), Internal Work Part (σ), Line (ε), Assembly (π), Internal Work Part (ζ), Tool (Η) and inventory (ρ) are lined up. The computer 15 stores the created production system in a storage device or a hard disk (second production system storage means), and outputs the produced production system via an output device (second production system output means).

  FIG. 17 is a diagram showing a departmental production system output by department. Based on the division number (1, 2, 3, 4), the computer 15 generates a division-specific production system formed from only necessary production elements for each division 11, 12, 13, 14, and each division 11, 12, 13 and 14 are displayed on the display installed in each department (departmental production system output means), and the production system for each department is printed on a printer installed in each department 11, 12, 13, and 14 (departmental production system output means). ). As shown in FIG. 17, the display installed in the design department 11 includes a product (E), an assembly process (b), a machining process (c), an assembly drawing (ο), and the like in which the department number 1 is set. A production system formed from work parts (σ), lines (ε), assembly (π), in-house work parts (ζ), jigs (η), and inventory goods (ρ) is displayed. On the display installed in the manufacturing department 12, the product (E), the inspection process (a), the assembling process (b), the processing process (c), the inspection standard (α), the inspection with the department number 2 set. Formed from tools (β), assembly drawings (ο), in-house parts (σ), lines (ε), assembly (π), in-house parts (ζ), jigs (η), and inventory items (ρ) The production system is displayed. On the display installed in the purchasing department 13, the production system formed from the product (E), the inspection tool (β), and the jig (η) set with the department number 3 is displayed. On the display installed in the logistics department 14, the production system formed from the store (A), warehouse (B), and product (E) in which the department number 4 is set is displayed.

  The production system creation system 10 and the production system creation method integrate various plural binary relationships, integrate various plural ternary relationships, and integrate various plural binary relationships and ternary relationships. A production system corresponding to each article can be created by connecting a plurality of various production elements extracted from the type master 17 in series from the upper level to the lower level in accordance with the binary relationship, the integrated ternary relationship, or the integrated binary ternary relationship. Since it is created, different types of production elements can be freely combined by using the binary relation formed from the first and second production elements and the ternary relation formed from the first to third production elements. A wide variety of production systems can be created. In addition, when a production system is constructed only by the binary relationship, a plurality of second production elements of different types are linked immediately below the first production element, and a plurality of different production systems are constructed for the same article. The production system for each specific condition cannot be expressed. However, the production system creation system 10 and the production system creation method add a ternary relation to a binary relation, so that a specific second production element is linked immediately below the first production element, and the second production element A specific third production element is linked in the immediate lower order, and only production systems with specific conditions corresponding to various articles can be constructed using these production elements.

  The production system creation system 10 and the production system creation method can change production elements to alternative production elements, and can easily create a wide variety of production systems including alternative production elements. The production system creation system 10 and the production system creation method can create a production system by substituting these production elements with alternative production elements even if the production elements are unusable or unpurchasable or production is discontinued. Therefore, it is not necessary to recreate the production system from the beginning, and it is possible to prevent a decrease in the operational efficiency of the entire organization and each department.

  The production system creation system 10 and the production system creation method refer to the classification numbers of the first and second production elements in the binary relationship and the classification numbers of the first to third production elements in the three terms relationship. Extracted by combining various binary relations extracted by combining production elements of the same type number, and combining production elements of the same type number of those three-term relations Integrating binary relations and ternary relations by combining production elements with the same type number among binary relations and ternary relations while integrating multiple ternary relations Production elements can be reliably combined with each other, and a production system in which production elements, which are technical information of articles, are connected in series can be reliably created.

  In the production system creation system 10 and the production system creation method, each production element is assigned to the first to fifth type masters 17 according to the first to fifth type numbers set therein, and stored in the type masters 17. The first to fifth type masters 17 can collectively manage each production element that can be shared by each department for each type. Also, various plural binary relationships and various plural ternary relationships are centrally managed by the configuration master 18 and the alternative master 19, and each department 11, 12, 13, 14 is the first to fifth type master 17 and the configuration master. 18 and the alternative master 19, and each department 11 from each production element stored in the first to fifth type masters 17 and the binary and ternary relationships stored in the configuration master 18 and the alternative master 19. , 12, 13, and 14 can be created, the production system can be managed centrally, and the created production system is provided to each department 11, 12, 13, and 14 in real time. be able to. Therefore, it is not necessary for each department 11, 12, 13, 14 to manage each production element individually, or it is not necessary for each department 11, 12, 13, 14 to create its own production system. It is possible to save wasteful time and labor by creating and managing a huge number of production systems 14 different from each other.

  The production system creation system 10 and the production system creation method are based on the first to fourth department numbers (first to nth department numbers) set individually for the production elements. Since the production system for each department formed only from the production elements necessary for the production is output, the production elements that are not required to be displayed in the respective departments 11, 12, 13, and 14 can be excluded from the production system. , 13, and 14 can provide a real-time production system that has a high utility value and is easy to use. In the production system creation system 10 and the production system creation method, each department 11, 12, 13, 14 can use a production system made only from the production elements necessary for each department 11, 12, 13, 14 business efficiency can be improved.

The schematic block diagram of the production system creation system shown as an example. The figure which shows an example of the various some production element and alternative production element which were stored in each classification master. The figure which shows an example of the various some production element and alternative production element which were stored in each classification master. The figure which shows an example of 2 term relationship and 3 term relationship between the production elements stored in the structure master. The figure which shows an example of 2 term relationship and 3 term relationship between the production elements stored in the structure master. The figure which shows an example of 2 term relationship and 3 term relationship between the production elements stored in the structure master. The figure which shows an example of 2 term relationship and 3 term relationship between alternative production elements stored in the alternative master. The figure which shows an example of 2 term relationship and 3 term relationship between alternative production elements stored in the alternative master. The figure which shows an example of 2 term relationship and 3 term relationship between alternative production elements stored in the alternative master. The figure explaining an example of the relationship integration performed by a computer. The figure showing the production system classified by department outputted for every department. The schematic block diagram of a production system creation system when a production system is created again after changing a production element to an alternative production element. The figure explaining another example of the relationship integration performed by a computer. The figure showing the production system classified by department outputted for every department. The schematic block diagram of the production system creation system at the time of producing a production system again after changing a production element into an alternative production element. The figure explaining another example of the relationship integration performed by a computer. The figure showing the production system classified by department outputted for every department.

Explanation of symbols

DESCRIPTION OF SYMBOLS 10 Production system creation system 11 Design department 12 Manufacturing department 13 Purchasing department 14 Logistics department 15 Computer 16 Integrated management database 17 Type master 18 Configuration master 19 Alternative master 20 Item master (1st type master)
21 Deliverable master (second type master)
22 Process master (3rd type master)
23 Resource master (4th type master)
24 base master (5th type master)

Claims (18)

In a production system creation system that creates a production system of goods from a combination of various production elements that branch into a plurality from the top to the bottom,
The production elements are linked by an upper and lower binary relationship between an arbitrary first production element and a second production element that is immediately below the first production element, and the first and second production elements and the second production element. 2 connected to each other by the upper and lower three-term relationship with the third production element that is immediately below the production element, the system stores a plurality of types of the production elements, and a plurality of types of the two-term relationships and a plurality of types A configuration master storing the three-term relationship, and an alternative master storing various alternative production elements that can be used in place of the first to third production elements,
The system extracts a plurality of various ternary relationships necessary for creating the production system from the configuration master and a plurality of various production elements corresponding to the first to third production elements forming the extracted ternary relationships. Are extracted from the type master, the ternary relationships extracted from the configuration master are integrated, and the production elements extracted from the type master are connected in series from the upper level to the lower level according to the integrated ternary relationship. And a first production system creation means for creating the production system, and an alternative production element that can be used instead of the first to third production elements is extracted from the substitution master, and among the first to third production elements A production element substitution means for changing at least one of the production element to the substitution production element, and at least one of the first to third production elements by the production element substitution means is After the change to the replacement production element, the ternary relation including the alternative production element is added, the ternary relations extracted from the configuration master and the alternative master are integrated again, and the production system is changed according to the re-integrated ternary relation. A production system creation system comprising second production system creation means for creating again. In the production system creation system, the type master is divided into a plurality of first to nth type masters, and the first to nth type numbers for specifying the types of the production elements and the types of the alternative production elements are the productions. The first and the nth items that are individually set to the elements, the production elements and the alternative production elements are stored in the first to nth type masters based on the first to nth type numbers, and form the binary relationship The type number of the second production element and the type number of the first to third production elements forming the three-term relationship are stored in the relation master, the type number of the alternative production element is stored in the alternative master,
In the first production system creation means, the first to nth types of production elements corresponding to the first to third production elements that form the extracted three-term relationship are selected based on the first to nth type numbers. Extracting from the n type master, and referring to the first to nth type numbers of the first to third production elements of the three-term relationship extracted from the configuration master, the same among the production elements that form these three-term relationships Integrate multiple ternary relationships extracted by combining production elements with type numbers of
In the second production system creation means, a plurality of various production elements and alternative production elements corresponding to the first to third production elements forming the extracted three-term relationship are selected based on the first to nth type numbers. Alternative production elements extracted from the alternative master while referring to the first to nth type numbers of the first to third production elements of the three terms extracted from the first to nth type masters and extracted from the configuration master The first to nth type numbers are referred to, and a plurality of three-term relationships extracted by combining the production elements having the same type number among the production elements and alternative production elements forming the three-term relation The production system creation system according to claim 1 to be integrated.   The production system creation system according to claim 1 or 2, wherein the production element substitution means can change one of the first to third production elements into two substitution production elements connected vertically.   The production system creation according to any one of claims 1 to 3, wherein the production element substitution means can change one of the first to third production elements into three substitution production elements connected vertically. system.   The production system creation according to any one of claims 1 to 4, wherein the production element substitution means can change two of the first to third production elements connected to the upper and lower sides into one alternative production element. system.   The production system creation according to any one of claims 1 to 5, wherein the production element substitution means can change three of the first to third production elements connected to the top and bottom to one substitute production element. system.   The said production element alternative means can change three things connected to the upper and lower ones of the said 1st to 3rd production elements into two alternative production elements connected up and down. Production system creation system.   The said production element alternative means can change two things connected to the upper and lower ones of the said 1st to 3rd production elements into three alternative production elements connected up and down. Production system creation system. In the production system creation system, first to nth department numbers for classifying the production elements and the alternative production elements by department are individually set to the production elements, and the first and second production system generation means Among the production systems generated by, execute the departmental production system output means that outputs the production system for each department made only from the necessary production elements and alternative production elements for each department,
The department-specific production system output means extracts from the alternative master while referring to the first to n-th department numbers of various production elements corresponding to the first to third production elements extracted from the configuration master. 9. The system according to any one of claims 1 to 8, wherein the first to nth division numbers of the alternative production elements are referred to, and a production system created only from the production elements corresponding to the same division number and the alternative production elements is output. The production system creation system described. In a production system creation method for creating an article production system from a combination of various production elements that use computer resources and branch into multiple from the top to the bottom,
The production system creation method is linked by an upper and lower binary relationship between a type master storing a plurality of the various production elements, an arbitrary first production element, and a second production element connected immediately below the first production element. The plurality of binary relations between the production elements to be stored are stored and linked by the upper and lower three-term relations between the first and second production elements and the third production element that is immediately below the second production element. A configuration master storing a plurality of the three-term relationships among the production elements, and an alternative master storing a plurality of alternative production elements that can be used in place of the first to third production elements,
In the production system creation method, a plurality of various ternary relationships necessary for creating the production system are extracted from the configuration master, and various types corresponding to the first to third production elements that form the extracted ternary relationships. The production elements are extracted from the type master, the three-term relations extracted from the configuration master are integrated, and the production elements extracted from the type master are serialized from the higher order to the lower order according to the integrated three-term relation. The first production system creation process for creating the production system by connecting to the first production system, and the alternative production elements that can be used in place of the first to third production elements are extracted from the alternative master, and the first to third productions are extracted. A production element change process for changing at least one of the elements to the alternative production element, and among the first to third production elements by the production element change process After at least one is changed to the alternative production element, the ternary relation including the alternative production element is added and the ternary relations extracted from the configuration master and the alternative master are integrated again, and the ternary relation is integrated according to the integrated ternary relation. A production system creation method characterized by executing a second production system generation process for generating a production system again. In the production system creation method, the type master is divided into a plurality of first to nth type masters, and the first to nth type numbers for specifying the types of the production elements and the types of the alternative production elements are the productions. The first and the nth items that are individually set to the elements, the production elements and the alternative production elements are stored in the first to nth type masters based on the first to nth type numbers, and form the binary relationship The type number of the second production element and the type number of the first to third production elements forming the three-term relationship are stored in the relation master, the type number of the alternative production element is stored in the alternative master,
In the first production system creation process, a plurality of various production elements corresponding to the first to third production elements forming the extracted three-term relationship are selected based on the first to nth type numbers. Extracting from the n type master, and referring to the first to nth type numbers of the first to third production elements of the three-term relationship extracted from the configuration master, the same among the production elements that form these three-term relationships Integrate multiple ternary relationships extracted by combining production elements with type numbers of
In the second production system creation process, a plurality of various production elements and alternative production elements corresponding to the first to third production elements forming the extracted three-term relationship are selected based on the first to nth type numbers. Alternative production elements extracted from the alternative master while referring to the first to nth type numbers of the first to third production elements of the three terms extracted from the first to nth type masters and extracted from the configuration master The first to nth type numbers are referred to, and a plurality of three-term relationships extracted by combining the production elements having the same type number among the production elements and alternative production elements forming the three-term relation The production system creation system according to claim 10 to be integrated.   The production system creation method according to claim 10 or 11, wherein, in the production element substitution process, one of the first to third production elements can be changed to two substitution production elements connected vertically.   The production system creation according to any one of claims 10 to 12, wherein, in the production element substitution process, one of the first to third production elements can be changed to three substitution production elements connected vertically. Method.   The production system creation according to any one of claims 10 to 13, wherein, in the production element substitution process, two of the first to third production elements connected in the vertical direction can be changed to one substitution production element. Method.   The production system creation according to any one of claims 10 to 14, wherein, in the production element substitution process, three of the first to third production elements connected in the vertical direction can be changed to one substitution production element. Method.   16. The production element substitution process according to claim 10, wherein three of the first to third production elements connected in the vertical direction can be changed to two alternative production elements connected in the vertical direction. Production system creation method.   17. The production element substitution process according to claim 10, wherein two of the first to third production elements connected in the vertical direction can be changed to three alternative production elements connected in the vertical direction. Production system creation method. In the production system creation method, first to n-th department numbers for classifying the production elements and the alternative production elements by department are individually set to the production elements, and the first and second production system generation means Execute the production system output process for each department that outputs the production system for each department created from only the necessary production elements and alternative production elements for each department among the production systems generated by
In the divisional production system output process, extracted from the alternative master while referring to the first to nth division numbers of various production elements corresponding to the first to third production elements extracted from the configuration master 18. The production system created from only the production elements corresponding to the same division number and the alternative production elements is output with reference to the first to nth division numbers of the alternative production elements. The production system creation method described.

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