TWM586422U - Factory operation and maintenance expert system - Google Patents
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- TWM586422U TWM586422U TW108208896U TW108208896U TWM586422U TW M586422 U TWM586422 U TW M586422U TW 108208896 U TW108208896 U TW 108208896U TW 108208896 U TW108208896 U TW 108208896U TW M586422 U TWM586422 U TW M586422U
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02P—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
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Abstract
本創作係一種工廠操作維修專家系統,至少包含推理引擎、知識庫、事實資料庫、深度學習或機械學習模型以及使用者介面等,其事實資料庫可與維修資訊系統或分散式控制系統相連結,其知識庫的規則可經深度學習模型或機械學習模型所建立,用以供使用者諮詢工廠中至少一設備的操作及維修。因此,本創作能有效保存並傳承操作維修的相關資料及經驗,同時有效分析使用大量歷史維修紀錄及操作數據,進而得出新的想法及觀念,尤其,使用者可藉由使用者介面以搜尋或是問答方式而得到設備故障的真因分析及相關的處理方法或最佳操作條件果。This creation is a plant operation and maintenance expert system, which includes at least an inference engine, a knowledge base, a fact database, a deep learning or mechanical learning model, and a user interface. The fact database can be linked to maintenance information systems or decentralized control systems. The rules of its knowledge base can be established by deep learning models or mechanical learning models for users to consult the operation and maintenance of at least one device in the factory. Therefore, this creation can effectively save and inherit the relevant information and experience of operation and maintenance, and effectively analyze and use a large amount of historical maintenance records and operation data, and then derive new ideas and concepts. In particular, users can search through the user interface Or the question and answer method to get the real cause analysis of the equipment failure and related processing methods or the best operating conditions.
Description
本創作係有關於一種工廠操作維修專家系統,尤其是能有效保存並傳承操作維修的相關資料及經驗,同時有效分析使用大量歷史維修紀錄及操作數據,進而得出新的想法及觀念,使用者可藉搜尋或是問答方式而得到設備故障的真因分析及相關的處理方法或最佳操作條件,分散式控制系統則可藉由通訊協定傳送即時操作數據並得到回饋建議,具體達成工業4.0的智能化效果。This creative department is about a plant operation and maintenance expert system, in particular, it can effectively save and inherit the relevant information and experience of operation and maintenance, and at the same time effectively analyze and use a large number of historical maintenance records and operation data, and then draw new ideas and concepts. Users You can get the real cause analysis of the equipment failure and related processing methods or the best operating conditions by searching or answering questions. The decentralized control system can send real-time operation data and get feedback suggestions through communication protocols. Intelligent effect.
在習知技術中,一般的維修資訊管理系統本身為一獨立系統,可經由廠內人員在判斷設備發生異常後,以手動方式於系統中開立維修工單而提出維修需求,再經由有經驗的維修人員找出故障真因,然後將故障排除後,並於系統中回報結案。In the conventional technology, the general maintenance information management system itself is an independent system. After the plant personnel judges that the equipment is abnormal, they manually open a maintenance work order in the system to raise maintenance requirements, and then have experience The maintenance personnel find out the true cause of the fault, and then troubleshoot it, and report the case to the system.
然而,隨著系統之歷史維修紀錄資料龐大,包含故障真因等資訊儲存於系統資料庫內,卻都僅能以人工加以分析、應用,所以很顯然,傳統的維修資訊管理系統已無法勝任。再者,一般的分散式控制系統(DCS)也僅能達成工業3.0的自動化效果而已。However, with the huge historical maintenance record data of the system, information including the cause of failure is stored in the system database, but they can only be analyzed and applied manually, so it is clear that the traditional maintenance information management system is no longer capable. Moreover, the general distributed control system (DCS) can only achieve the automation effect of Industry 3.0.
另外,要找出設備故障的真因常常是仰賴維修人員的經驗判斷,但是這種經驗不一定能夠妥善傳承下來。針對大數據,單純人工分析的面向及能力變得相當有限,且不易找出其間的相互關係,無法挖掘出有價值的資訊。還有,在無法與大數據分析連結下,是無法達成工業4.0的智能化效果。In addition, to find out the true cause of equipment failure often depends on the experience and judgment of maintenance personnel, but this experience may not be properly passed down. For big data, the facets and capabilities of purely manual analysis have become quite limited, and it is not easy to find the correlation between them, and it is impossible to dig out valuable information. In addition, without the connection with big data analysis, the intelligent effect of Industry 4.0 cannot be achieved.
因此,非常需要一種創新的工廠操作維修專家系統,能有效保存並傳承操作維修的相關資料及經驗,同時有效分析使用大量歷史維修紀錄及操作數據,進而得出新的想法及觀念,尤其,使用者可藉搜尋或是問答方式而得到設備故障的真因分析及相關的處理方法或最佳操作條件,分散式控制系統則可藉由通訊協定傳送即時操作數據並得到回饋建議,具體達成工業4.0的智能化效果,減少維修人員故障真因判斷以及維修時間,提升設備及整廠運轉率及運轉效能,並具有設備異常預警功能,藉以解決上述習用技術的所有問題。Therefore, there is a great need for an innovative plant operation and maintenance expert system that can effectively preserve and inherit relevant data and experience of operation and maintenance, and effectively analyze and use a large number of historical maintenance records and operation data, and then derive new ideas and concepts, especially, using The user can obtain the real cause analysis of the equipment failure and related processing methods or the best operating conditions by searching or answering questions. The decentralized control system can send real-time operation data and get feedback suggestions through the communication protocol, and specifically achieve Industry 4.0. The intelligent effect of the machine reduces the maintenance personnel's fault cause judgment and maintenance time, improves the equipment and the entire plant operation rate and operation efficiency, and has equipment abnormality warning function to solve all the problems of the conventional technology.
本創作之主要目的在於提供一種工廠操作維修專家系統,至少包含推理引擎、知識庫、事實資料庫、深度學習或機械學習模型以及使用者介面,用以供使用者諮詢工廠中至少一設備的操作及維修。The main purpose of this creation is to provide a factory operation and maintenance expert system, which at least includes an inference engine, a knowledge base, a fact database, a deep learning or mechanical learning model, and a user interface for users to consult the operation of at least one device in the factory And maintenance.
使用者可透過使用者介面將問題輸入,經由推理引擎比對判斷事實資料庫以及知識庫中的規則,推理得出問題的可能答案。亦可透過使用者介面對事實資料庫以及知識庫執行新增、編輯、儲存等工作。The user can input the question through the user interface, and compare the rules in the fact database and the knowledge base through the reasoning engine to determine the possible answers to the question. You can also use the user interface to perform additions, edits, and saves on the fact database and knowledge base.
上述事實資料庫的資料來源可與操作維修手冊、維修資訊管理系統或分散式管理系統相連結,知識庫的規則來源可為事實資料庫的資料經由深度學習或機械學習模型所建立之規則。The data source of the above fact database can be linked with the operation and maintenance manual, maintenance information management system or decentralized management system, and the rule source of the knowledge base can be the rules established by the fact database data through deep learning or mechanical learning models.
此外,分散式控制系統亦可以藉由通訊協定連結至使用者介面,傳送即時操作數據,經由推理引擎比對判斷事實資料庫以及知識庫中的規則,以推理得出操作維修的建議,甚至可將對應的指令回傳至分散式控制系統,以控制至少一設備。In addition, the decentralized control system can also connect to the user interface through the communication protocol, transmit real-time operation data, and compare the rules in the fact database and the knowledge base through the inference engine to reason and get recommendations for operation and maintenance. The corresponding instructions are transmitted to the distributed control system to control at least one device.
因此,本創作能有效保存並傳承操作維修的相關資料及經驗,同時有效分析使用大量歷史維修紀錄及操作數據,進而得出新的想法及觀念,尤其,使用者可藉搜尋或是問答方式而得到設備故障的原因分析及相關的處理方法或最佳操作條件,分散式控制系統則可藉由通訊協定傳送即時操作數據並得到回饋建議,具體達成工業4.0的智能化效果。Therefore, this creation can effectively save and inherit the relevant information and experience of operation and maintenance, and effectively analyze and use a large number of historical maintenance records and operation data, and then derive new ideas and concepts. In particular, users can use search or question and answer methods to Obtain the cause analysis of the equipment failure and the related processing methods or the best operating conditions. The distributed control system can send real-time operation data and get feedback suggestions through the communication protocol to achieve the intelligent effect of Industry 4.0.
以下配合圖示及元件符號對本創作之實施方式做更詳細的說明,俾使熟習該項技藝者在研讀本說明書後能據以實施。The following is a more detailed description of the implementation of this creation with illustrations and component symbols, so that those skilled in the art can implement it after studying this manual.
請參考第一圖,本創作實施例工廠操作維修專家系統的示意圖。如第一圖所示,本創作的工廠操作維修專家系統包括知識庫10、推理引擎20、使用者介面30、深度學習或機械學習模型40以及事實資料庫50,用以供使用者U諮詢工廠中至少一設備(圖中未顯示)的操作及維修建議。Please refer to the first figure, the schematic diagram of the factory operation and maintenance expert system of this creative embodiment. As shown in the first figure, the plant operation and maintenance expert system of this creation includes a knowledge base 10, an inference engine 20, a user interface 30, a deep learning or mechanical learning model 40, and a fact database 50 for users U to consult the factory Operation and maintenance recommendations for at least one device (not shown).
具體而言,使用者U可透過使用者介面30將問題輸入,經由推理引擎20比對判斷事實資料庫50以及知識庫10中的規則,推理得出問題的可能答案,呈現於使用者介面30。或者,使用者U亦可透過使用者介面30對事實資料庫50以及知識庫10執行新增、編輯、儲存等工作。Specifically, the user U can input the question through the user interface 30, compare the rules in the fact database 50 and the knowledge base 10 through the inference engine 20, and infer a possible answer to the question, and present it in the user interface 30 . Alternatively, the user U may perform tasks such as adding, editing, and storing the fact database 50 and the knowledge base 10 through the user interface 30.
知識庫10是儲存工廠中至少一設備的操作及維修相關規則,而事實資料庫50是儲存工廠中至少一設備的操作及維修相關資料、文件及數據。推理引擎20連結至知識庫10及事實資料庫50,並讀取事實資料庫50與知識庫10中之規則而比對判斷,推理得出操作或維修建議。The knowledge base 10 stores the operation and maintenance related rules of at least one device in the factory, and the fact database 50 stores the operation, maintenance related data, files and data of at least one device in the factory. The inference engine 20 is connected to the knowledge base 10 and the fact database 50, reads the fact database 50 and the rules in the knowledge base 10 to compare and judge, and infers operation or maintenance suggestions.
上述事實資料庫50的資料來源可與操作維修手冊、維修資訊管理系統70或分散式管理系統60相連結,知識庫10的規則來源可為事實資料庫50的資料經由深度學習或機械學習模型40所建立之規則。The data source of the above fact database 50 can be linked with the operation and maintenance manual, the maintenance information management system 70 or the decentralized management system 60. The rule source of the knowledge database 10 can be the data of the fact database 50 via deep learning or mechanical learning model 40 Established rules.
深度學習或機械學習模型40是與事實資料庫50相連結,將實資料庫50中儲存之工廠中至少一設備的操作及維修相關資料、文件及數據經由深度學習或機械學習的方式,轉換、建立成相關規則,並儲存至知識庫10中。The deep learning or mechanical learning model 40 is connected to the fact database 50, and converts, through deep learning or mechanical learning, data, documents and data related to the operation and maintenance of at least one device in the factory stored in the real database 50. The relevant rules are established and stored in the knowledge base 10.
使用者介面30可用於輸入操作或維修相關問題,傳送至推理引擎20,並用以呈現自推理引擎20所推理得出之操作或維修建議。The user interface 30 can be used to input questions related to operation or maintenance, transmit them to the inference engine 20, and be used to present operation or maintenance suggestions derived from the inference engine 20.
此外,本創作進一步可接收來自分散式控制系統(Distributed Control System,DCS)60的該工廠中該至少一設備的即時或非即時操作數據,藉由通訊協定自動傳送輸入至使用者介面30,經由推理引擎20比對判斷事實資料庫50以及知識庫10中的規則而推理得出操作維修的建議,甚至可將對應的指令回傳至分散式控制系統60,以控制至少一設備。In addition, this creation can further receive real-time or non-real-time operation data from the at least one device in the factory of the Distributed Control System (DCS) 60, and automatically transmit the input to the user interface 30 through a communication protocol. The inference engine 20 compares and judges the rules in the fact database 50 and the knowledge base 10 to infer operation and maintenance recommendations, and may even return corresponding instructions to the distributed control system 60 to control at least one device.
事實資料庫50中之操作及維修資料、文件及數據之來源包括一操作維修手冊、維修資訊管理系統(Maintenace Management Information System,MMIS)70或分散式管理系統60。The sources of the operation and maintenance data, documents and data in the fact database 50 include an operation and maintenance manual, a maintenance management information system (Maintenace Management Information System (MMIS) 70 or a decentralized management system 60).
更加具體而言,推理引擎20可自動接收該至少一設備的操作狀態,比對判事實資料庫50以及知識庫10中的規則而自動判斷並提供故障預警、維修參考或最佳操作指示,呈現至使用者介面30。另外,使用者U還可以透過使用者介面30以搜尋或問答方式,得出關於該至少一設備的故障真因分析。More specifically, the inference engine 20 may automatically receive the operation status of the at least one device, compare the rules in the fact database 50 and the knowledge database 10, and automatically determine and provide fault early warning, maintenance reference or best operation instructions, and present To user interface 30. In addition, the user U can also obtain the cause analysis of the failure of the at least one device in a search or Q & A manner through the user interface 30.
綜上所述,本創作的特點在於能有效保存並傳承操作維修的相關資料及經驗,同時有效分析使用大量歷史維修紀錄及操作數據,進而得出新的想法及觀念,尤其,可藉搜尋或是問答方式而得到設備故障的真因分析及相關的處理方法,還可將分散式控制系統藉由通訊協定傳送即時操作數據並得到回饋建議,具體達成工業4.0的智能化效果。In summary, the characteristics of this creation are that it can effectively save and inherit relevant information and experience of operation and maintenance, and at the same time effectively analyze and use a large number of historical maintenance records and operation data, and then derive new ideas and concepts. In particular, you can search or It is a question-and-answer method to obtain the real cause analysis of the equipment failure and related processing methods. The distributed control system can also send real-time operation data through communication protocols and get feedback suggestions to achieve the intelligent effect of Industry 4.0.
此外,本創作還可減少維修人員故障真因判斷以及維修時間,提升設備及整廠運轉率及運轉效能,具有設備異常預警功能。In addition, this creation can also reduce the maintenance personnel's fault cause judgment and maintenance time, improve the equipment and the entire plant operating rate and operating efficiency, with equipment abnormal warning function.
以上所述者僅為用以解釋本創作之較佳實施例,並非企圖據以對本創作做任何形式上之限制,是以,凡有在相同之創作精神下所作有關本創作之任何修飾或變更,皆仍應包括在本創作意圖保護之範疇。The above are only for explaining the preferred embodiment of the creation, and are not intended to restrict the creation in any form. Therefore, any modification or change related to the creation under the same spirit of creation , Should still be included in the scope of protection of this creative intention.
10‧‧‧知識庫
20‧‧‧推理引擎
30‧‧‧使用者介面
40‧‧‧深度學習或機械學習模型
50‧‧‧事實資料庫
60‧‧‧分散式控制系統(DCS)
70‧‧‧維修資訊管理系統(MMIS)
U‧‧‧使用者
10‧‧‧ Knowledge Base
20‧‧‧Inference Engine
30‧‧‧user interface
40‧‧‧ Deep Learning or Machine Learning Model
50‧‧‧ fact database
60‧‧‧ Distributed Control System (DCS)
70‧‧‧ Maintenance Information Management System (MMIS)
U‧‧‧User
第一圖顯示依據本創作實施例工廠操作維修專家系統的示意圖。The first figure shows a schematic diagram of a plant operation and maintenance expert system according to this creative embodiment.
Claims (3)
一知識庫,用以儲存該工廠中該至少一設備的操作及維修相關規則;
一事實資料庫,用以儲存該工廠中該至少一設備的操作及維修相關資料、文件及數據;
一推理引擎,係連結至該知識庫及事實資料庫,並讀取該事實資料庫,與知識庫中之規則而比對判斷,推理得出操作或維修建議;
一深度學習或機械學習模型,與該事實資料庫相連結,用以將該事實資料庫中儲存之該工廠中該至少一設備的操作及維修相關資料、文件及數據經由深度學習或機械學習的方式,轉換建立成相關規則,並儲存至該知識庫中;以及
一使用者介面,用以輸入操作或維修相關問題,傳送至該推理引擎,並用以呈現自該推理引擎推理得出之操作或維修建議。 A plant operation and maintenance expert system is used to consult the operation and maintenance suggestions of at least one device in a plant, including:
A knowledge base for storing rules related to the operation and maintenance of the at least one device in the plant;
A fact database for storing data, documents and data related to the operation and maintenance of the at least one device in the plant;
An inference engine is connected to the knowledge base and fact database, reads the fact database, compares and judges with the rules in the knowledge base, and infers operation or maintenance recommendations;
A deep learning or mechanical learning model is linked to the fact database to use the deep learning or mechanical learning data, files and data related to the operation and maintenance of the at least one device in the factory stored in the fact database. Methods, conversions are established into relevant rules, and stored in the knowledge base; and a user interface is used to input operation or maintenance related issues, transmitted to the inference engine, and used to present operations or inferences derived from the inference engine. Maintenance recommendations.
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CN114877468A (en) * | 2022-05-28 | 2022-08-09 | 河南省人民医院 | Operating room air purification management system based on deep learning |
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CN114877468A (en) * | 2022-05-28 | 2022-08-09 | 河南省人民医院 | Operating room air purification management system based on deep learning |
CN114877468B (en) * | 2022-05-28 | 2024-05-24 | 河南省人民医院 | Operating room air purification management system based on deep learning |
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