Masterarbeit, 2021
107 Seiten, Note: 3.6
Chapter 1: Introduction
1.1 Research Background and Significance
1.2 Cloud (Online) Manufacturing Overview
1.2.1 Cloud Manufacturing
1.2.2 Conceptual Model of Cloud Manufacturing
1.2.3 Advantages of Cloud Manufacturing
1.3 Research Status at Home and Abroad
1.3.1 Research Status of Cloud Manufacturing
1.3.2 3D Printing Cloud Platform Research Status
1.4 The Main Research Content of the Paper
1.5 Conclusion
Chapter 2: 3D Printing Cloud Platform Overall Architecture
2.1 The Functional Structure of 3D printing Cloud Platform
2.2 3D Printing Cloud Platform Architecture
2.3 Analysis of the functions of each layer of the 3D Printing Cloud Platform Architecture
2.3.1 Basic Technology Support Layer
2.3.2 3D Printing Resource Layer
2.3.3 Virtual Resource Layer
2.3.4 Service Resource Layer
2.3.5 Tools Layer
2.3.6 Application Interface Layer
2.3.7 Access Layer
2.3.8 User Layer
2.4 Analysis of the service structure of the cloud service platform
2.4.1 3D Printing product resource, manufacturing capabilities and manufacturing cloud services
2.4.2 Analysis of the service model and participants of the AM cloud service platform
2.4.3 Analysis of the application mode of 3D Printing cloud service platform for printing products
2.5 Key Functional module structure of 3D printing cloud platform based on design and manufacturing
2.5.1 3D Model Acquisition Module
2.5.2 Printing Material Recommendation Module
2.5.3 Print Service Choosing Module
2.6 Advantages of 3D Printing Cloud Platform
2.7 Conclusion
Chapter 3: Several key technologies and methods of design for manufacturing service platform on 3D printing products
3.1 3D printing design and manufacturing resource package
3.1.1 Virtualization framework of 3D printing Mfg. resources
3.1.2 3D printing virtual manufacturing resources
3.2 Storage of manufacturing resources for 3D printing products
3.2.1 Distributed storage architecture of 3D printing resources
3.2.2 Storage of 3D printing product resources
3.2.3 Access mechanism of 3D printing product resources
3.3 Search matching for 3D printing product cloud services
3.3.1 3D printing product cloud service chooseing mode
3.3.2 3D printing product cloud service choosing process
3.4 Database analysis of service platform for 3D printing products
3.5 Conclusion
Chapter 4: 3D printing product Design and manufacturing through cloud service platform page design
4.1 Development environment of Design and Manufacturing based on AM cloud platform
4.2 Development tools for AM cloud service platforms
4.3 The establishment of cloud database and forms
4.4 Main functional modules of AM cloud platform
4.5 3D printing cloud platform Navigation (Main panel) interface
4.5.1 Design of the top page of the cloud service platform
4.5.2 Design of the main user interface navigation bar on the main page
4.5.3 Design of the main functional modules of the cloud service platform
4.5.4 Design of various service pages in the cloud service platform
4.5.5 Design of the Shop module page of the cloud service platform
4.5.6 Design of the Service module page of the cloud service platform
4.5.7 Design of the Education page of the cloud service platform
4.5.8 Design of the Contact page of the cloud service platform
4.5.9 Conclusion
4.6 3D printing cloud platform operating (User) interface
4.6.1 Design of the User registration page and upgrading of the cloud service platform
4.6.2 Design of the User Management of the cloud service platform
4.6.3 Design of the Upload for 3D model design Request of the cloud service platform
4.6.4 Design of the 3D printing Task matching of the cloud service platform
4.6.5 3D Conclusion
Chapter 5: General Conclusion
5.1 Works Accomplished
5.2 Conclusions , Recommendations and limitations
5.3 Future Research Directions
This thesis aims to develop an intelligent, cloud-based platform for 3D printing to address the limitations of traditional manufacturing models, such as slow service adoption, inefficient resource utilization, and geographical constraints. By integrating additive manufacturing with cloud computing concepts, the research establishes a collaborative design and manufacturing paradigm that optimizes resource management and enhances user accessibility through a sophisticated, multi-layered platform architecture.
1.1 Research Background and Significance
In recent decades, with the improvement of the overall level of China's manufacturing industry, many industries have increasingly demanded some parts with high precision requirements and unusually complicated spatial shapes. The production of these parts using traditional manufacturing methods usually requires a lot of Process is more difficult. Not only that, the national demand for personalized manufacturing is getting higher and higher, and the traditional manufacturing methods are generally suitable for mass production, the production method is relatively single, it is difficult to meet the flexible and personalized production needs. With the continuous improvement of the level of 3D printing technology, the supplementary effect of 3D printing on the above-mentioned traditional manufacturing deficiencies is more and more obvious, and the market demand for 3D printing is also expanding. 3D printing [1-2] As one of the representatives of emerging intelligent manufacturing technology in the 21st century, it combines advanced material technology and digital manufacturing technology, which is an important content of advanced manufacturing and smart manufacturing. At the end of the 19th century, the core idea of 3D printing originated in the United States [3] By the late 1980s, 3D printing gradually became mature and began to be commercialized. Nowadays, 3D printing has been widely used in molds, automobiles, aviation, medical, Many industries and fields such as cultural creation and education are indispensable processing methods in the manufacturing industry. 3D printing first performs layered slice processing on the three-dimensional model of the entity to be printed, and then stacks the target entity by adding printing materials layer by layer, which is an advanced digital additive manufacturing technology. Compared with the traditional subtractive manufacturing method, 3D printing has the following advantages:
Chapter 1: Introduction: This chapter provides the research background, discusses the current status and significance of 3D printing and cloud manufacturing, and outlines the research content.
Chapter 2: 3D Printing Cloud Platform Overall Architecture: This chapter details the functional structure and the eight-layer architecture of the proposed cloud platform for 3D printing.
Chapter 3: Several key technologies and methods of design for manufacturing service platform on 3D printing products: This chapter focuses on technical methods for virtualization, storage, and search matching of manufacturing resources.
Chapter 4: 3D printing product Design and manufacturing through cloud service platform page design: This chapter presents the development environment, navigation, and specific functional modules of the user interface for the prototype system.
Chapter 5: General Conclusion: This chapter summarizes the research findings, contributions, and potential directions for future study.
3D Printing, Cloud Printing, Cloud Platform, Modeling Method of Resources and Tasks, Collaborative design and manufacturing, Additive Manufacturing, Virtualization, System Architecture, Web Interface Design, Service Matching.
The research addresses the inefficiencies in the domestic 3D printing industry, such as slow growth due to poor service models, lack of resource integration, and difficulty in meeting customized, small-batch manufacturing demands.
The work focuses on the integration of 3D printing with cloud manufacturing, proposing an intelligent platform that emphasizes collaborative design, resource virtualization, and service-oriented manufacturing.
The primary goal is to establish an intelligent, multi-layered cloud platform architecture that enables the rapid, efficient, and flexible scheduling of 3D printing resources for various user needs.
The research adopts a systematic qualitative research method, combining theoretical framework design, architectural analysis, and practical prototyping using web-based technologies (WordPress, PHP, MySQL) to demonstrate the platform's functionality.
The main sections cover the overall system architecture, the eight-layer functional breakdown, technical methods for resource virtualization and matching, and the design of the user-facing interface modules.
The work is characterized by terms such as 3D Printing, Cloud Manufacturing, Resource Virtualization, System Architecture, Collaborative Design, and Service Matching.
The platform uses intelligent matching algorithms that consider both functional requirements (e.g., material properties, dimensions) and non-functional constraints (e.g., cost, time) to connect user requests with available 3D printing service providers.
Unlike traditional websites that are often private or isolated, this cloud-based approach allows for a large-scale, open, and comprehensive integration of distributed manufacturing resources, providing a "one-stop" shop for varied 3D printing services.
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