隨著容器技術(Container Technology)日漸成熟使得雲端服務邁向嶄新的道路，各大企業與供應商開始導入容器技術作為客戶解決方案。而在許多容器技術的文獻中，雖有一套基於容器技術之製造服務自動化建造方案(MSACSC)，能將.NET Core、.NET Framework、Python、Java與MATLAB的函式庫包(Library Package)建置為容器化製造服務，並提供通用化方法將EXE應用程式與RESTful網路服務建置成容器化製造服務。然而此方案卻無法將數位孿生(Digital Twin, DT)應用建置為容器化製造服務並維護數量龐大的數位孿生軟體。因此，本論文針對當前MSACSC之上述缺失提出改善對策，使其成為更為通用之容器化製造服務快速建置與維護工具。首先，本論文提出一個容器化數位孿生服務自動化建置與維護之2階段工作流程(Workflow)，分別可用來(1)快速建置數位孿生映像與部署軟體及(2)利用版本控制維護容器化數位孿生軟體。接著，本論文基於MSACSC進行DT服務的擴充，並提出基於容器技術之數位孿生軟體快速建置及維護機制(RDSDT)雲端系統架構，並為RDSDT設計系統運作流程。然後，本論文將MSACSC所提供的Web系統進行改良並重新整合至RDSDT，讓使用者透過網頁即可輕易地操作RDSDT之各項功能。最後，本論文將RDSDT應用在IF-DTiM (A Novel Implementation Framework of Digital Twins for Intelligent Manufacturing)中進行測試與驗證，並在智慧製造數位孿生資通平台上快速建置容器化數位孿生服務、容器化IPMC服務等製造服務。測試結果顯示RDSDT可讓使用者透過操作網頁將數位孿生相關的服務，快速建置為容器化製造服務。因此，經過本研究所改良的RDSDT已經改善現行MSACSC之缺失，成為更加通用之容器化數位孿生服務快速建置與維護工具。它不僅可以大幅減輕開發人員容器化製造服務的時間，同時也降低容器技術應用於數位孿生之門檻，達到促進我國製造業之【智慧製造數位孿生系統】發展之效益。

The emergence of container technology has brought cloud services to a new milestone, and various network service providers have begun to introduce container technology as solutions for customers. In the previous works, a container technology-based manufacturing service automated construction solution, called MSACSC, can transform library packages of .NET Framework,.NET Core, Jar, MATLAB, and Python into containerized manufacturing services. However, the existing MSACSC cannot transforms other types of applications (such as Digital Twin applications) into containerized manufacturing services. Thus, this thesis aims at providing improvement measures for the above-mentioned deficiencies of the current MSACSC, making it a more general tool for rapid construction and maintenance of containerized manufacturing services. First, this thesis proposes a two-stage workflow for the automated construction of containerized Digital Twin services, which can be used to (1) Rapid Construct Digital Twin Images and Deploy Software, and (2) Rapid Maintain containerized digital twins by using version control. Next, this paper expands DT services based on MSACSC, and proposes a cloud system architecture based on container technology-based digital twin software rapid construction and maintenance mechanism (RDSDT), also designs the system operation process for RDSDT. Then, this thesis improves and reintegrates the Web system provided by MSACSC into RDSDT, so that users can easily operate various functions of RDSDT through the webpage. Finally, this thesis applies RDSDT to IF-DTiM for testing and verification. And rapidly build containerized digital twin services, containerized IPMC services and other manufacturing services on the Intelligent manufacturing digital twin information platform. The test results show that RDSDT allows users to rapidly build services related to digital twins into containerized manufacturing services by operating web GUIs. Therefore, the RDSDT has improved the lack of the current MSACSC, and has become a more general tool for rapid construction and maintenance of containerized digital twin services. Not only greatly reduce the time of developers for containerized manufacturing services, but also lower the threshold for container technology to be applied to digital twins, and achieve the benefits of promoting the development of our country's manufacturing industry [Intelligent Manufacturing Digital Twin System].

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