KR101328224B1 - Virtual facility system for manufacturing steel and operating method thereof - Google Patents

Abstract

The present invention relates to a virtual facility system for steel processing and its operation method. The virtual facility system for a steel process according to an embodiment of the present invention includes a simulation drive information setting virtual mapper for automatically combining virtually constructed virtual facility data to set virtual facility data related to a factory process, and the set virtual facility data. With respect to the kinematic motion information, it includes an integrated simulation drive engine that simulates the plant process by reflecting at least one of a state change of a product, a state change of a machine, and an interaction between a product and a machine.

Description

VIRTUAL FACILITY SYSTEM FOR MANUFACTURING STEEL AND OPERATING METHOD THEREOF}

The present invention relates to a virtual facility system for steel processing and its operation method.

Conventionally, the following process is developed to develop or modify a machine or control system of a factory process. After designing the mechanical equipment, drawing up the operation plan, designing the control system, installing the actual mechanical equipment, connecting cables to the actual control system, and testing the operation of the control system and equipment. By this series of processes, the verification of the mechanical equipment, control system, and factory process takes place after the equipment is installed. Therefore, it takes a lot of time and money from the start of equipment development to the commissioning.

In addition, since the plant process is commissioned after the installation of the mechanical equipment and the control system, there is a problem that the defect of the mechanical equipment is unknown in the development process of the mechanical equipment.

Therefore, there is an increasing demand for virtual facility systems that pre-check risk analysis and optimal conditions before actual production or field application.

In the art, there is a demand for a virtual installation system for steel processing and its operation method.

In order to solve the said subject, 1st aspect of this invention provides the virtual installation system for steel processing. The virtual plant system for steel process includes a simulation drive information setting virtual mapper for automatically combining virtually constructed virtual facility data to set virtual facility data related to a factory process, and kinematic motion information and Together, it includes an integrated simulation drive engine that simulates the plant process by reflecting at least one of a state change of a product, a state change of a machine, and an interaction between a product and a machine.

A second aspect of the invention provides a method of operating a virtual installation system for a steel process. The operating method of the virtual facility system for steel processing, the process of setting the virtual facility data associated with the factory process by automatically combining the pre-built virtual facility data, and with the kinematic motion information for the set virtual facility data, Simulating a factory process by reflecting at least one of a state change of a product, a state change of a machine, and an interaction between a product and a machine.

In addition, the solution of the above-mentioned problems does not list all the features of the present invention. The various features of the present invention and the advantages and effects thereof will be more fully understood by reference to the following specific embodiments.

A virtual installation system for steel processing and a method of operation thereof may be provided.

1 is a block diagram showing a schematic configuration of a virtual facility system for steel processing according to an embodiment of the present invention, and
Figure 2 is a flow diagram illustrating a method of operation of the virtual facility system for a steel process according to an embodiment of the present invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art can easily carry out the present invention. The present invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. In order to clearly illustrate the present invention, parts not related to the description are omitted, and similar parts are denoted by like reference characters throughout the specification.

Hereinafter, the present invention relates to a virtual facility system for steel processing and its operation method, and in particular, the present invention is to dynamically combine the virtual facilities required for the construction of the virtual factory through the pre-built virtual facility 3D CAD data, kinematic movement In addition to the simulation of information, the present invention provides a virtual facility system for a steel process and a method of operating the same, which can simulate a change in a state of a product and a state of a machine and an interaction between a product and a machine. Through this, the present invention can check risk analysis and optimal condition in advance before actual production or field application in developing facility and control algorithm of steel manufacturing process, and it is required for simulation by replacing real machine test with virtual facility test. It saves time and money, and can meet system requirements in terms of reusing and recycling virtual facilities when building new plants.

1 is a block diagram showing a schematic configuration of a virtual facility system for steel processing according to an embodiment of the present invention.

Referring to FIG. 1, the virtual facility system for a steel process includes a process plan information setting engine 100, a product plan information setting engine 102, a production plan information setting engine 104, and a simulation drive information setting control engine 106. ), Additional simulation driving information document management screen system 108, simulation driving information setting virtual mapper 112, 3D CAD (Computer-Aided Design) data setting virtual mapper 114, kinematic motion information setting virtual for 3D CAD data Mapper 116, Steel Process Analysis and Equation Gateway Engine 118, 3D CAD Data Module Setting Engine 120, 3D CAD Data Model Combination Engine 124, Kinematic Motion Information Setting Engine for 3D CAD Data Module 128 , Kinematic motion information combination engine 132 for 3D CAD data model, steel process analysis and equation information setting engine 136, integrated simulation driving engine 140, integrated simulation visualization engine 142, integrated simulation HMI (Human- Machine Interface 144, integrated simulation warning and alarm engine 146, engineering equipment specification extraction engine 148, engineering equipment information analysis engine 150, simulation operation results analysis engine 152, screen system for integrated simulation results analysis ( 156).

The process plan information setting engine 100 receives the process plan information from a manufacturing execution system (MES) 110 in real time and reflects the process planning in a later simulation, so as to reflect the process planning. The processed process plan information is transferred to the simulation drive information setting control engine 106. The process plan information includes the overall information related to the process plan, such as the type of factory process, the detailed process procedures and processes, the process range for which product production is selected and planned.

The product planning information setting engine 102 sets the simulation drive information setting to receive the product planning information from the MES 110 in real time and reflect the product planning in a later simulation. Transfer to control engine 106. The product planning information includes overall information related to the product, such as steel grade, product code, product length and size for the product.

The production planning information setting engine 104 receives the production planning information from the MES 110 in real time, and sets the simulation driving information by setting the received production planning information in order to reflect the production planning in a later simulation. Transfer to control engine 106. The yield planning information includes overall information related to the yield for the product. Here, the process plan information, product plan information, and yield plan information constitute essential information for driving accurate and effective simulation.

The simulation drive information setting control engine 106 is a simulation drive information, that is, process plan information, product from the process plan information setting engine 100, the product planning information setting engine 102 and the production planning information setting engine 104 Receives plan information and yield planning information, respectively, and dynamically reflects and controls the settings of the received simulation driving information.

Specifically, the simulation drive information setting control engine 106 transfers the received process plan information to the simulation drive information setting virtual mapper 112. Accordingly, the simulation driving information setting virtual mapper 112 includes virtual facility data of a certain process through information on the type of factory process (hot rolling, cold rolling, playing, etc.) selected for product production and included in the process plan information. You can determine if it should be loaded. In addition, the simulation driving information setting virtual mapper 112 may determine what kinematic motion information of the corresponding virtual facility should be loaded through detailed process procedures and process information included in the process plan information. In addition, the simulation driving information setting virtual mapper 112 may grasp the setting range of the virtual facility data to be loaded and the setting range of the kinematic motion information through the process range information included in the process plan information.

In addition, the simulation drive information setting control engine 106 transfers the received process plan information to the steel process analysis and equation gateway engine 118. Accordingly, the steel process analysis and equation gateway engine 118 may determine what process analysis and equation information related to the production of the machine and product of the process through the process plan information. In addition, the simulation drive information setting control engine 106 transmits the input product planning information and the production planning information to the steel process analysis and equation gateway engine 118. Accordingly, the steel process analysis and equation gateway engine 118 may determine which steel process analysis and equations related to product conversion during production of the target product should be loaded through product planning information and yield planning information. That is, the steel process analysis and mathematical gateway engine 118 may set which product and the amount of production to induce a state change of the product.

In addition, the simulation drive information setting control engine 106, in order to obtain additional simulation drive information in addition to the simulation drive information provided by the MES 110, the received process plan information, product planning information and production planning information; The additional simulation drive information document management screen system 108 is transferred to, and the additional simulation drive information document management screen system 108 receives additional simulation drive information matching the received information, and sets the simulation drive information. Transfer to the virtual mapper (112). The additional simulation drive information includes overall information of the machine facilities related to the operation of the virtual machine, such as operating speed, acceleration, direction and range of the machine, the size and volume of the machine, and dynamically adds items to the situation. Changes are possible. The simulation drive information setting control engine 106 checks the additional simulation drive information document, and if there is a change in the received additional simulation drive information, extracts the corresponding change information from the additional simulation drive information document. The simulation driving information may be transmitted to the virtual mapper 112.

The additional simulation drive information document management screen system 108, when process plan information, product plan information, and yield plan information are input from the simulation drive information setting control engine 106, based on the process, the screen according to the factory process type It dynamically changes to display a screen on which additional simulation driving information matching the received information can be input. For example, when process plan information, product plan information, and yield plan information for a performance are input, the screen is dynamically changed according to the factory process type so that additional simulation driving information related to driving the performance virtual facility can be input. Can be. The additional simulation drive information document management screen system 108 extracts additional simulation drive information matching the input information from the additional simulation drive information document, and extracts the extracted information from the simulation drive information setting control engine 106. ).

When the process plan information is input from the simulation drive information setting control engine 106, the simulation drive information setting virtual mapper 112 may input virtual facility data and corresponding kinematic motion information related to the target process to be simulated based on this. Dynamically load and combine Specifically, the simulation drive information setting virtual mapper 112 dynamically loads and combines 3D CAD data of the virtual facility related to the process to be simulated and kinematic motion information for the 3D CAD data. The simulation driving information setting virtual mapper 112 transfers the loaded 3D CAD data and the kinematic motion information for the 3D CAD data to the integrated simulation driving engine 140. The integrated simulation drive engine 140 transmits 3D CAD data and kinematic motion information for the corresponding 3D CAD data to the integrated simulation HMI system 144 through the integrated simulation visualization engine 142, and thus the integrated simulation HMI system. 144 may perform a 3D shape simulation based on the received information.

The simulation drive information setting virtual mapper 112 operates in conjunction with the 3D CAD data setting virtual mapper 114 and the kinematic motion information setting virtual mapper 116 for 3D CAD data. In detail, the simulation driving information setting virtual mapper 112 provides process plan information input to the 3D CAD data setting virtual mapper 114, and is a target process for simulating from the 3D CAD data setting virtual mapper 114. Receive 3D CAD data related to In addition, the simulation drive information setting virtual mapper 112 provides process plan information input to the kinematic motion information setting virtual mapper 116 for 3D CAD data, and the kinematic motion information setting virtual mapper for 3D CAD data. From 116, the kinematic motion information set in the 3D CAD data is received.

The simulation driving information setting virtual mapper 112 maps and manages attribute information corresponding to each piece of information on the loaded 3D CAD data and the kinematic motion information for the 3D CAD data into a virtual table, and manages the 3D CAD. The data and the kinematic motion information for the corresponding 3D CAD data are transmitted to the integrated simulation driving engine 140. Pre-built 3D CAD data virtually maps physical information such as size and volume determined at the time of drawing design as attribute information, and kinematic motion information for pre-built 3D CAD data includes motion speed, acceleration, direction and range of motion of the mechanism. The vector information and the operation event information of the virtual facility are virtually mapped as attribute information. When a change to each attribute information occurs through the additional simulation driving information document, the simulation driving information setting virtual mapper 112 virtually maps the changed attribute information. Through such virtual mapping, the present invention can perform simulation by virtually changing attributes on the pre-built 3D CAD data. In other words, when the physical information and even the vector information of the mechanical equipment related to the factory process is changed, the relevant parameter information can be changed by reflecting such a situation in the simulation, thereby providing a dynamic simulation system environment that dynamically reflects the environment. have.

When the process plan information is input from the simulation driving information setting virtual mapper 112, the 3D CAD data setting virtual mapper 114 passes to the 3D CAD data module setting engine 120 and the 3D CAD data model combination engine 124. 3D CAD data modules and corresponding 3D CAD data related to a process to be simulated are provided from the 3D CAD data module setting engine 120 and the 3D CAD data model combination engine 124. Each of the associated graph algorithms of the 3D CAD data modules is received and provided to the simulation driving information setting virtual mapper 112. Here, the 3D CAD data module is a 3D CAD design drawing of the unit machines existing in the actual factory process, and targets the unit machines. The set of multiple 3D CAD data modules constitutes one 3D CAD data model, which in turn constitutes a 3D CAD design drawing for one large machine consisting of a set of multiple unit machines. An association of a plurality of unit machines constituting the 3D CAD data model is defined by an association graph algorithm, and the 3D CAD data model is managed through the association graph algorithm.

The kinematic motion information setting virtual mapper 116 for the 3D CAD data, when the process plan information is input from the simulation driving information setting virtual mapper 112, the kinematic motion information setting engine 128 for the 3D CAD data module and Provides the kinematic motion information combination engine 132 for 3D CAD data model, and the kinematic motion information setting engine 128 for the 3D CAD data module and the kinematic motion information combination for 3D CAD data model. As the kinematic motion information set in the 3D CAD data related to the process to be simulated from the engine 132, the kinematic motion information of the 3D CAD data modules and the corresponding 3D CAD data models are respectively received, and the simulation driving information setting virtual is received. It is provided to the mapper 112.

When the 3D CAD data module setting engine 120 receives process plan information from the 3D CAD data setting virtual mapper 114, the 3D CAD data module setting engine 120 simulates the 3D CAD data module database 122 based on the received process plan information. Dynamically load and manage 3D CAD data modules associated with the target process for the 3D CAD data set-up virtual mapper (114). The 3D CAD data module setting engine 120 may determine which 3D CAD data modules should be loaded through the received process plan information.

When the process plan information is input from the 3D CAD data setting virtual mapper 114, the 3D CAD data model combination engine 124 may be configured in the 3D CAD data model combination information database 126 based on the received process plan information. Automatically load the associative graph algorithms of 3D CAD data modules related to the target process for simulation, and link the corresponding data modules according to the associative graph algorithm to dynamically assemble and manage them. In addition, the 3D CAD data model combination engine 124, based on the received process plan information, when it is determined that the target process for simulation is composed of a plurality of large machine facilities, that is, a plurality of 3D CAD data model When it is determined that the data is composed of a set of 3D CAD data model combination database 126, the associated graph algorithm of the 3D CAD data models associated with the target process for simulation is automatically loaded, and the data models according to the associated graph algorithm. Can be combined and managed dynamically. The 3D CAD data model combination engine 124 transfers the associated graph algorithm of the loaded 3D CAD data modules and, if necessary, the associated graph algorithm of the 3D CAD data models to the 3D CAD data setting virtual mapper 114. .

When the kinematic motion information setting engine 128 for the 3D CAD data module receives process plan information from the kinematic kinematic information setting virtual mapper 116 for 3D CAD data, the 3D CAD data module is based on the received process plan information. The kinematic kinematic information database for the CAD data module 130 dynamically loads and manages kinematic kinematic information of the 3D CAD data modules associated with the target process for simulation. The kinematic motion information setting engine 128 for the 3D CAD data module transmits the kinematic motion information of the loaded 3D CAD data modules to the kinematic motion information setting virtual mapper 116 for the 3D CAD data.

When the kinematic motion information combination engine 132 for 3D CAD data model receives process plan information from the kinematic kinematic information setting virtual mapper 116 for 3D CAD data, based on the received process plan information, 3D Kinematic Kinematic Information for CAD Data Model The kinematic kinematic information of the 3D CAD data models related to the target process for simulation is loaded in the combination information database 134 to be dynamically combined and managed. The kinematic motion information combination engine 132 for the 3D CAD data model transmits the kinematic motion information of the loaded 3D CAD data models to the kinematic motion information setting virtual mapper 116 for the 3D CAD data.

When the steel process analysis and equation gateway engine 118 receives process plan information, product plan information, and yield plan information from the simulation drive information setting control engine 106, the steel process analysis and equation information setting information is inputted. Transfer to engine 136. In addition, the steel process analysis and equation gateway engine 118, when the analysis result and the formula calculation result for the information received from the steel process analysis and equation information setting engine 136 is input, the received analysis and equation The calculation result is transmitted to the integrated simulation driving engine 140. The steel process analysis and equation gateway engine 118, in this way can interface with the steel process analysis and equation information setting engine 136 can use the analysis and formula calculation information of the pre-established database, and other commercial direct CAE Computer Aided Engineering analysis and equation calculation software 158 may be used to use non-database analysis and equation calculations.

The steel process analysis and formula information setting engine 136 inputs process plan information, product plan information, and yield plan information from a simulation driving information setting control engine 106 through the steel process analysis and formula gateway engine 118. When the steel process analysis and formula information associated with the received information is dynamically loaded from the steel process analysis and formula information database 138. The steel process analysis and formula information, the analysis and formula information on the change of the product, the analysis and formula information on the interaction between the product and the mechanical equipment constituting the process, the analysis related to the change in the state of the mechanical equipment and kinematic motion information And formula information, various interpretations and formula information necessary to produce the product by a fixed amount of production, and the like. The steel process analysis and formula information setting engine 136 interprets the received information in real time based on the loaded steel process analysis and formula information, calculates a formula, and calculates a result of the corresponding analysis and formula calculation. Process analysis and equations are delivered to the integrated simulation drive engine 140 through the gateway engine 118.

The integrated simulation drive engine 140 serves as a central controller that manages and controls the entire simulation, and starts driving when a user clicks a start simulation button through the integrated simulation HMI system 144. The integrated simulation drive engine 140 transmits a motion control event to the simulation drive information setting virtual mapper 112 to control the 3D CAD data to operate with the kinematic motion information. The integrated simulation driving engine 140 receives 3D CAD data and kinematic motion information for the 3D CAD data from the simulation driving information setting virtual mapper 112 and transmits the same to the integrated simulation visualization engine 142. In addition, the integrated simulation driving engine 140 receives input from the steel process analysis and equation gateway engine 118 to analyze the 3D CAD data and the kinematic motion information for the corresponding 3D CAD data and to calculate the calculated values. The values to be reflected in the simulation visualization are transferred to the integrated simulation visualization engine 142, and when the warnings and alarms are required, the values are transferred to the integrated simulation warning and alarm engine 146. In addition, the integrated simulation driving engine 140 extracts engineering equipment specification when the engineering equipment specification needs to be extracted based on the input 3D CAD data and kinematic motion information, analysis, and calculation result of the corresponding 3D CAD data. Transfer to engine 148. In addition, the integrated simulation driving engine 140 transmits the 3D CAD data and the kinematic motion information, the analysis and the calculation result of the calculation for the 3D CAD data to the simulation operation result analysis engine 152 as the simulation result information.

The integrated simulation visualization engine 142, including a rendering engine, determines whether to perform a rendering process on input information according to an option, and performs a rendering process according to the determination result. Specifically, when the integrated simulation visualization engine 142 receives 3D CAD data and kinematic motion information for the corresponding 3D CAD data from the integrated simulation driving engine 140, the integrated simulation visualization engine 144 transmits the input information to the integrated simulation HMI system 144. It is determined whether to display immediately or through the rendering process to display a more realistic screen, and the rendering process is performed according to the determination result and provided to the integrated simulation HMI system 144. Accordingly, the integrated simulation HMI system 144 may display a process simulation process.

When the integrated simulation warning and alarm engine 146 receives an analysis and mathematical calculation result value from the integrated simulation driving engine 140, the integrated simulation warning and alarm engine 146 compares the input analysis and mathematical calculation result values with warning and alarm reference values. If the alarm threshold is exceeded, it detects the need for warnings and alarms and provides them to the integrated simulation HMI system 144. Accordingly, the integrated simulation HMI system 144 may output warnings and alarms.

The engineering equipment specification extraction engine 148, based on the input information from the integrated simulation drive engine 140, 3D CAD data and kinematic motion information for the 3D CAD data, analysis and calculation results The engineering equipment specification of the process is extracted, and the extracted equipment specification is transmitted to the engineering equipment company information analysis engine 150. In addition, the engineering equipment specification extraction engine 148 stores the extracted equipment specifications in the database 154.

The engineering equipment company information analysis engine 150, when the engineering equipment specification of the process is input from the engineering equipment specification extraction engine 148, based on the input information extracts information about the equipment company selling the equipment Then, the extracted equipment company information is stored in the database 154.

When the simulation result information is input from the integrated simulation driving engine 140, the simulation operation result analysis engine 152 stores the input information in the database 154 so that the simulation result information can be used later.

The integrated simulation result analysis screen system 156 analyzes simulation result information, engineering equipment specifications, and information on equipment companies selling the equipment through the database 154, and extracts desired information to suit the purpose. It is available. This allows for an accurate and fast start of the engineering business. For example, you can create an engineering equipment purchase list document.

As described above, the virtual facility system for steel processing of the present invention, through the simulation drive information setting virtual mapper 112, automatically combines the virtual equipment data that is built in advance to set the virtual equipment data related to the factory process, The integrated simulation drive engine 140 reflects at least one of a state change of a product, a state change of a machine, and an interaction between a product and a machine, with kinematic motion information, with respect to the set virtual facility data. , Simulate the plant process.

2 is a flowchart illustrating a method of operating a virtual facility system for a steel process according to an embodiment of the present invention.

Referring to FIG. 2, the virtual facility system for steel processing receives process plan information, product plan information, and yield plan information from the MES in step 201. Here, the process plan information includes information on at least one of a kind of a factory process in which product production is selected and planned, a detailed process procedure and process, and a process range. The product planning information includes information on at least one of steel grade, product code, product length and size of the product, and the product planning information includes the product information of the product.

Thereafter, the steel processing virtual facility system loads 3D CAD data of the virtual facility related to the factory process and kinematic motion information for the corresponding 3D CAD data from the database based on the received process plan information in step 203.

In addition, in step 205, the virtual facility system for steel processing extracts additional simulation driving information matching the received process plan information, product plan information, and yield plan information, and the apparatus for the 3D CAD data and the corresponding 3D CAD data. For the kinematic kinetic information, the extracted additional simulation driving information is virtually mapped as attribute information. Here, the additional simulation drive information includes the operating speed, acceleration, operating direction and range of the machine, the size and volume of the machine.

In operation 207, the virtual facility system for steel processing loads the steel process analysis and mathematical information of the virtual facility related to the factory process from a database based on the received process plan information, product plan information, and production plan information. Here, the steel process analysis and formula information, the analysis and formula information on the change of the product, the analysis and formula information on the interaction of the product and the mechanical equipment constituting the process, the change of the state of the mechanical equipment and kinematic motion information and Includes relevant interpretation and formula information, and interpretation and formula information needed to produce a product at a given yield.

In operation 209, the virtual facility system for steel processing analyzes and calculates the received process plan information, product plan information, and production plan information based on the steel process analysis and formula information.

Then, in step 211, the virtual facility system for steel processing uses the virtually mapped 3D CAD data and the kinematic motion information for the 3D CAD data, and the result of the analysis and formula calculation as simulation result information on the simulation screen. Display.

Although not shown, the virtual facility system for steel processing extracts engineering facility specifications of a factory process based on simulation result information, and extracts information on equipment companies that sell corresponding facilities based on the extracted engineering facility specifications. In addition, at least one of the extracted engineering equipment specification and equipment company information may be stored in a database.

While the present invention has been described in connection with what is presently considered to be the most practical and preferred embodiment, it is to be understood that the invention is not limited to the disclosed embodiments, but is capable of various modifications within the scope of the invention. Therefore, the scope of the present invention should not be limited by the illustrated embodiments, but should be determined by the scope of the appended claims and equivalents thereof.

100: process planning information setting engine
102: product planning information setting engine
104: engine setting of production planning information
106: simulation drive information setting control engine
108: Additional simulation driving information document management screen system
110: production management system (MES)
112: simulation drive information setting virtual mapper
114: 3D CAD Data Setup Virtual Mapper
116: Kinematic motion information setting virtual mapper for 3D CAD data
118: steel process analysis and formula gateway engine
120: 3D CAD data module setting engine
122: 3D CAD Data Module Database
124: 3D CAD data model assembly engine
126: 3D CAD data model combination information database
128: Engine for setting kinematic motion information for 3D CAD data modules
130: Kinematic motion information database for 3D CAD data modules
132: Combination engine for kinematic motion information for 3D CAD data models
134: Kinematic motion information combination information database for 3D CAD data models
136: Steel process analysis and formula information setting engine
138: Steel Process Analysis and Formula Information Database
140: integrated simulation drive engine
142: Integrated Simulation Visualization Engine
144: Integrated Simulation HMI System
146: Integrated simulation alert and alarm engine
148: engineering equipment specification extraction engine
150: engineering equipment information analysis engine
152: simulation operation result analysis engine
154: database
156: Screen System for Integrated Simulation Results Analysis
158: Commercial CAE Analysis and Formula Calculation Software

Claims (10)

A simulation driving information setting virtual mapper which automatically sets the virtual equipment data that is built in advance and sets the virtual equipment data related to the factory process;
An integrated simulation driving engine that simulates a corresponding factory process by reflecting at least one of a state change of a product, a state change of a machine, and an interaction between a product and a machine, with the kinematic motion information. and,
An engineering equipment specification extraction engine that extracts engineering equipment specifications of the plant process based on the simulation result information;
An engineering equipment company information analysis engine for extracting information on equipment companies selling corresponding equipment based on the extracted engineering equipment specifications;
Virtual facility system for a steel process comprising a database for storing at least one of the extracted engineering equipment specifications, information on the equipment company.
The method of claim 1,
It further includes a simulation driving information setting control engine for receiving process planning information from a manufacturing execution system (MES),
Here, the simulation drive information setting virtual mapper loads 3D CAD data of a virtual facility related to a factory process and kinematic motion information for the corresponding 3D CAD data based on the received process plan information.
The process plan information, the production facility is selected and planned at least one of the type of factory process, the detailed process procedures and processes, process range, the process of the virtual facility system for steel process.
3. The method of claim 2,
Loading the steel process analysis and formula information related to the information from a database based on at least one of the process plan information, the product planning information, and the production plan information, and based on the steel process analysis and formula information, the process plan information, Further comprising a steel process analysis and formula gateway engine for analyzing and formulating at least one of product planning information and yield planning information.
Here, the simulation drive information setting control engine receives at least one of product planning information and production quantity planning information from the MES,
The product planning information includes at least one of steel grade, product code, product length and size of the product,
The production planning information includes the production information for the product,
The steel process analysis and formula information, the analysis and formula information on the change of the product, the analysis and formula information on the interaction between the product and the mechanical equipment constituting the process, the analysis related to the change in the state of the mechanical equipment and kinematic motion information And at least one of formula information, analysis and formula information necessary to produce a product by a predetermined amount of production.
The method of claim 3, wherein
The simulation driving information setting control engine extracts additional simulation driving information matching at least one of the received process planning information, product planning information, and production planning information.
The simulation drive information setting virtual mapper virtually maps the extracted additional simulation drive information as attribute information with respect to the kinematic motion information for the 3D CAD data and the 3D CAD data,
The additional simulation driving information may include at least one of an operating speed, an acceleration, an operation direction and a range of a mechanical facility, and a size and a volume of the mechanical facility.
delete Setting up virtual facility data related to a factory process by automatically combining pre-built virtual facility data;
Simulating the factory process with respect to the set virtual facility data by reflecting at least one of a state change of a product, a state change of a mechanical facility, and an interaction between a product and a mechanical facility with kinematic motion information;
Based on the simulation result information, extracting engineering equipment specifications of the plant process,
Extracting information on equipment companies selling corresponding equipments based on the extracted engineering equipment specifications;
And operating at least one of the extracted engineering equipment specifications and information on equipment companies in a database.
The method of claim 6, wherein the setting process,
Receiving process planning information from the Manufacturing Execution System (MES),
Based on the received process plan information, loading the 3D CAD data of the virtual facility related to the factory process and the kinematic motion information for the corresponding 3D CAD data from the database;
Here, the process plan information, a method of operating a virtual facility system for a steel process including at least one of information on the type of factory process, detailed process procedures and processes, process range for which product production is selected and planned.
The method of claim 7, wherein
Receiving at least one of product planning information and production planning information from the MES;
Loading steel process analysis and formula information related to the information from a database based on at least one of the received process plan information, product plan information, and yield plan information;
Further analyzing and formulating at least one of the received process plan information, product plan information, and yield plan information based on the steel process analysis and formula information;
Here, the product planning information includes at least one information of steel grade, product code, product length and size of the product, the production planning information includes the product information of the product,
The steel process analysis and formula information, the analysis and formula information on the change of the product, the analysis and formula information on the interaction between the product and the mechanical equipment constituting the process, the analysis related to the change in the state of the mechanical equipment and kinematic motion information And at least one of formula information, analysis and formula information necessary to produce a product by a predetermined amount of production.
The method of claim 8,
Extracting additional simulation driving information matching at least one of the received process plan information, product plan information, and yield plan information;
And virtually mapping the extracted additional simulation driving information as attribute information with respect to the 3D CAD data and the kinematic motion information for the 3D CAD data.
Here, the additional simulation drive information, at least one of the operating speed, acceleration, operating direction and range of the mechanical equipment, the size and volume of the mechanical equipment.
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