The program is for working professionals or students who want to know more about additive manufacturing from both a technical and business mindset. This certificate will give the students an introduction to the basic principles. By achieving the certificate, the student will have demonstrated the basic knowledge of what AM is, how it works, the different types of AM materials, the importance of design for additive manufacturing and business and economics principles.
The courses are designed in such a way that people who have no familiarity with AM can get an introduction and those that have some experience will broaden and round out their existing knowledge. This Course content covers AM science, technology, materials, design, and is derived from The Barnes Group Advisors’ industrial practice experience.
Upon completion of these courses, the student will be able to identify and explain essential AM concepts, including how to define AM, how AM works, and different types of AM processes and materials.
The online course content, including lecture videos, was developed by the TBGA subject matter experts in additive manufacturing in collaboration with the highly-experienced Purdue online course development team.
FOR ENGINEERS AND MANAGERS
Engineers and Managers must complete the following courses to receive their Level 1 Certificate:
AM Essentials
AM Technology & Materials
AM Design (Elective)
FOR BUSINESS PROFESSIONALS
Business Professionals must complete the following courses to receive their Level 1 Certificate:
AM Essentials
AM Technology & Materials
AM Business & Economics (Elective)
An Honors Certificate is available for students who want to take all 4 courses (2 Core + 2 Electives).
Continuing Education Units: Students can earn 2.0 CEUs per course for a total of 6.0 CEUs total for either Level 1 Certificate or 8.0 CEUs total for the Honors Certificate.
This course contains (5) Modules:
Module 1: Overview of Additive Manufacturing
Module 2: Industries Using Additive Manufacturing
Module 3: Additive Manufacturing Processes per ASTM F42
Module 4: Additive Manufacturing Advantages for Decision Making
Module 5: Additive Manufacturing Use Cases
Upon completion of this course, a graduate will be able to:
Define commonly used AM terms
List the various industries that use AM
Explain basic steps in each key process of AM
Categorize material types used in AM
Distinguish the advantages of AM over traditional manufacturing
Identify good part candidates for AM
Discuss the impact of both process and material selection in AM decision making
List examples of real-world applications of AM
Describe the workflow and the tools required to turn a concept into a part
Learning activities include:
Video lectures which discuss key topics in the course material
Asynchronous online discussion forums to interact with peers and instructors
Online self-tests
Quizzes
A case study
An online final exam
Learners have continuous access, 24 hours x 7 days a week, from the time of enrollment to complete all learning materials within the course. During the courses, students will manage their own learning pace with the assistance of instructors. The course instructors are highly-qualified additive manufacturing professionals and can be contacted via email during the course for questions.
Continuing Education: Course graduates can earn up to 2 continuing education units (CEUs) for successful completion of the Additive Manufacturing Essentials course.
This course contains (5) Modules:
Module 1:The Current State of Additive Manufacturing
Module 2: Vat Photopolymerization, Material Jetting, and Material Extrusion
Module 3: Powder Bed Fusion and Directed Energy Deposition
Module 4: Binder Jetting and Sheet Lamination
Module 5: Additive Manufacturing Materials
Upon completion of this course, a graduate will be able to:
Define Additive Manufacturing processes per ASTM F42
Describe technology capabilities in Additive Manufacturing
Define commonly used materials in Additive Manufacturing
List the advantages and disadvantages of each process
Discuss technical and commercial considerations of each process in Additive Manufacturing
Learning activities include:
Video lectures which discuss key topics in the course material
Asynchronous online discussion forums to interact with peers and instructors
Online self-tests
Quizzes
A case study
An online final exam
Learners have continuous access, 24 hours x 7 days a week, from the time of enrollment to complete all learning materials within the course. During the courses, students will manage their own learning pace with the assistance of instructors. The course instructors are highly-qualified additive manufacturing professionals and can be contacted via email during the course for questions.
Continuing Education: Course graduates can earn up to 2 continuing education units (CEUs) for successful completion of the Additive Manufacturing Technology & Materials course.
Upon completion of this course, a graduate will be able to:
Discuss in detail the digital process steps of the AM design workflow
Define AM design considerations
Weigh factors across the various additive manufacturing processes to achieve specific design goals
Apply additive manufacturing design principles to standard design features
List disruptive design techniques made possible by additive manufacturing
List design innovation and design mitigation techniques and tools
Learning activities include:
Video lectures which discuss key topics in the course material
Asynchronous online discussion forums to interact with peers and instructors
Online self-tests
Quizzes
A case study
An online final exam
Learners have continuous access, 24 hours x 7 days a week, from the time of enrollment to complete all learning materials within the course. During the courses, students will manage their own learning pace with the assistance of instructors. The course instructors are highly-qualified additive manufacturing professionals and can be contacted via email during the course for questions.
Continuing Education: Course graduates can earn up to 2 continuing education units (CEUs) for successful completion of the Additive Manufacturing Design course.
This course focuses on forming a business case for additive manufacturing. Students will learn to identify cost drivers, to create opportunities for cost savings in additive manufacturing, and to develop core additive manufacturing industrialization strategies.
Upon completion of this course, a graduate will be able to:
Develop a business case for additive manufacturing
Identify business considerations and cost drivers
Discuss capital expenditures vs. outsourcing considerations
Identify business savings sustained by use of additive manufacturing
Discuss benefits of rapid prototyping with additive manufacturing
Distinguish between additive manufacturing for prototyping and additive manufacturing for production.
Learning activities include:
Video lectures which discuss key topics in the course material
Asynchronous online discussion forums to interact with peers and instructors
Online self-tests
Quizzes
A case study
An online final exam
Learners have continuous access, 24 hours x 7 days a week, from the time of enrollment to complete all learning materials within the course. During the courses, students will manage their own learning pace with the assistance of instructors. The course instructors are highly-qualified additive manufacturing professionals and can be contacted via email during the course for questions.
Continuing Education: Course graduates can earn up to 2 continuing education units (CEUs) for successful completion of the Additive Manufacturing Business & Economics course.
Additive Manufacturing Backgrounder. Gain a basic understanding of additive manufacturing, including commonly used terms, key processes, key materials, and key industries using the technology
Benefits of Additive Manufacturing. Understand the advantages of AM over traditional manufacturing and how to identify good candidates for AM
Additive Manufacturing Technologies. Learn about the diverse AM technology space broken down by TBGA’s schema of how the layers are made, the energy applied, and the materials implications. This includes technical and commercial capabilities and limitation considerations
Innovation vs. Mitigation. Distinguish between AM design innovation and AM design mitigation techniques
Additive Manufacturing Design. Evaluate disruptive design techniques made possible by AM
Justifying Additive Manufacturing. Develop a business case for AM, including identifying business considerations and key cost drivers
Prototyping Advantages. Learn the benefits of AM for rapid prototyping, rapid tooling and shop aids
Prototyping vs. Production. Distinguish between AM for prototyping and AM for production
India's first web platform to stay updated with the latest news, insights, case studies, etc. from the Additive Manufacturing / 3D Printing industry.
What is a 3d printer filament?
A 3D filament is a 3D printer plastic that is used to make three-dimensional printing. In 3D printing, the most popular filaments are ABS (Acrylonitrile Butadiene Styrene) and PLA (Polylactic Acid).
A 3D filament is a 3D printer plastic that is used to make three-dimensional printing. In 3D printing, the most popular filaments are ABS (Acrylonitrile Butadiene Styrene) and PLA (Polylactic Acid).
Since most 3D printers use 1.75-mm filament, you're more likely to be paying closer to $30 per kilogram, which is about 50% more than standard PLA.
How long does 3d filament last?
However, I wanted to know how much a standard roll of PLA filament lasts under normal use cases. The short answer: a little more than 100 hours. This means if you're printing every day for 8 hours, you will be out in about 2.5 weeks (Assuming an 8 hour work day and 5 day work week.)
3D printing filament - Wikipedia
3D printing filament is the thermoplastic feedstock for fused deposition modeling 3D printers. There are many types of filament available with different properties, requiring different temperatures to print. Filament is commonly available in the two standard diameters of 1.75 mm and 2.85 mm.
What is a PLA Filament?
PLA (Polylactic acid) is biodegradable thermoplastic derived mostly from corn. Due to its brittle nature, PLA is not recommended for 3D printing. Printed object may break down after a few months.
Furthermore, the material has sharp edges when it breaks, making it a hazard especially when removing the support material from printed parts.
3D Printer Filament Great Prints Start With Great Filament. Nothing will impact your 3D printing results like the kind of filament you use.
Related searches for 3d printer filament, 3D Printer Filament price in India, 3D Printer filament PLA, 3D printer filament manufacturer, 3D Printer Filament buy, Weird 3D printer filament, Cheap 3D Printer Filament, PLA filament, 3D Printer Filament Amazon
Is 3d printing a profitable business?
3D printing business is a whole sector in industry, which already is very profitable and generates huge money, even thou it's still young and new on the market. ... Because market trends for 3D printing are very positive, 3D business has high probability of bringing you wealth and a lot of income.
What companies are using 3d printing?
Huge companies like Volvo, BMW, and Ford have used 3D printers for product development and rapid prototyping of their new and experimental car parts. With 3D printers, these premium car brands are now able to offer their customers spare parts even for cars that are no longer in production.
Is there a demand for 3d printing?
The market for 3D printing materials is growing rapidly. Demand is increasing, with more companies buying additive manufacturing (AM) hardware and scaling their AM usage. In 2019, the AM materials market is valued at $1.5 billion. In the next five years, it's expected to grow into a whopping $4.5 billion opportunity.
3D Printing Companies List - 3D Printing Business Directory
3D Printing Companies List - Take a look at the largest printing business directory online. Always up to date.
Related searches for 3d printing companies, 3D printing companies list in India, 3D printing companies in Mumbai, 3D printing companies Canada, 3D printing companies stock 2020, 3D printing companies to Invest in 2020, 3D printing companies near me, Small 3D printing companies, 3D printing companies UK
What is 3d design and printing?
3D printing is a process whereby a 3D design is turned into a real object. First, software is used to slice the 3D design into layers, and then the design is printed layer by layer on a 3D printer. ... The technical term for 3D printing is Additive Manufacturing.
3D printing, also known as additive manufacturing, is a process by which physical objects are created by depositing materials in layers based on a digital model. All 3D printing processes require software, hardware and materials to work together.
3D printing in construction
Advantages of 3D printing in construction
In terms of materials usage, 3D printing is economical. With additive rather than subtractive processes, less materials are used than traditional manufacturing processes. This reduces the environmental impact as less waste is produced.
3D printing machine
3D printing (or additive manufacturing, AM) is any of various processes used to make a three-dimensional object. ... A 3D printer is a type of industrial robot. 3D printing in the term's original sense refers to processes that sequentially deposit material onto a powder bed with inkjet printer heads.
What material can be used in 3d printing?
Many different materials can be used for 3D printing, such as ABS plastic, PLA, polyamide (nylon), glass filled polyamide, stereolithography materials (epoxy resins), silver, titanium, steel, wax, photopolymers and polycarbonate.
How strong is 3d printed material?
Polycarbonate is the undisputed king of materials for desktop 3D printing. Even we were surprised at polycarbonate's strength. In comparison to nylon at 7,000 psi, polycarbonate's tensile strength of 9,800 psi makes it the ideal choice for high-strength, functional components.
3D printing or additive manufacturing is a process of making three dimensional solid objects from a digital file. The creation of a 3D printed object is achieved using additive processes. In an additive process an object is created by laying down successive layers of material until the object is created.
What technology is used in 3d printing?
1. Fused Deposition Modeling (FDM), sometimes called Fused Filament Fabrication (FFF) is a 3D printing technology that uses a process called Material Extrusion. Material Extrusion devices are the most widely available - and inexpensive - of the types of 3D printing technology in the world today.
What is the 3d technology?
Refers to a variety of technologies that provide a real-life 3D visual appearance that is displayed in print-in a computer-in the movies or television.
Additive Manufacturing Society of India (AMSI) is a leading professional body with an objective to promote state-of-the art 3D Printing and Additive Manufacturing technology and expand collaborative relations with international organizations in all the aspects of additive manufacturing such as R&D, manufacturing, ...
What is additive manufacturing?
Additive manufacturing uses data computer-aided-design (CAD) software or 3D object scanners to direct hardware to deposit material, layer upon layer, in precise geometric shapes. As its name implies, additive manufacturing adds material to create an object.
What are the benefits additive manufacturing?
Speed and lower costs may result from the application of AM to design and manufacturing applications, but the unmatched benefits are the combination of efficiency with low-volume, high-complexity, and ever-changing parts. This is the fundamental value proposition of additive manufacturing.
How does additive manufacturing work?
Additive manufacturing is the process of creating an object by building it one layer at a time. It is the opposite of subtractive manufacturing, in which an object is created by cutting away at a solid block of material until the final product is complete.
Is additive manufacturing the same as 3d printing?
Between the terms 3D printing and additive manufacturing, there is no difference. 3D printing and additive manufacturing are synonyms for the same process. ... In other words, 3D printing/additive manufacturing is the process, and rapid prototyping is the end result.
Related searches for additive manufacturing, Types of additive manufacturing, Additive manufacturing wikipedia, Additive manufacturing technologies, Additive manufacturing techniques, Additive Manufacturing ppt, Additive manufacturing PDF, Additive manufacturing meaning, Additive manufacturing journal
The term “additive manufacturing” references technologies that grow three-dimensional objects one superfine layer at a time. Each successive layer bonds to the preceding layer of melted or partially melted material. Objects are digitally defined by computer-aided-design (CAD) software that is used to create .
Additive manufacturing technologies: An overview · Introduction · Vat Photopolymerization · Powder Bed Fusion · Material Extrusion · Material Jetting · Binder Jetting.
Related searches for additive manufacturing, Types of additive manufacturing technologies, Additive Manufacturing technologies PDF, Latest additive manufacturing technologies, Additive manufacturing wiki, Additive manufacturing definition, 3D Hubs Additive manufacturing technologies, Comparison of additive manufacturing processes, Classification of additive manufacturing
Applications for metal Additive Manufacturing technology
From prototyping and tooling to direct part manufacturing in industrial sectors such as architectural, medical, dental, aerospace, automotive, furniture and jewellery, new and innovative applications are constantly being developed.
Related searches for applications of additive manufacturing, List of application of additive manufacturing, Applications of Additive Manufacturing ppt, Applications of additive manufacturing PDF, Applications of additive manufacturing in aerospace, Future applications of additive manufacturing, Applications of additive manufacturing in automotive, General application of Additive manufacturing, Benefits and applications of additive manufacturing
What is a industrial 3d scanner?
3D scanning is the process of analyzing a real-world object or environment to collect data on its shape and possibly its appearance (e.g. colour). The collected data can then be used to construct digital 3D models. ... Many limitations in the kind of objects that can be digitised are still present.
For the 3D printing industry, 3D scanners have become an important, if not essential part of the process of designing and modeling a piece
Industry 4.0 is the digital transformation of manufacturing/production and related industries and value creation processes. Industry 4.0 is used interchangeably with the fourth industrial revolution and represents a new stage in the organization and control of the industrial value chain.
What are industry 4.0 technologies?
The rise of new digital industrial technology, known as Industry 4.0, is a transformation that makes it possible to gather and analyze data across machines, enabling faster, more flexible, and more efficient processes to produce higher-quality goods at reduced costs.
What does 4.0 mean?
Industry 4.0 refers to a new phase in the Industrial Revolution that focuses heavily on interconnectivity, automation, machine learning, and real-time data.
What does industry 4.0 mean to supply chain?
First defined in 2011 by Siegfried Russwurm, German professor and chief technology officer of Siemens, Industry 4.0 refers to the fourth phase of the industrial evolution. This era is characterized by interconnectivity between equipment and facilities throughout supply chains made possible by the Internet.
How does industry 4.0 affect industry?
Industry 4.0 is making it easier for companies to collaborate and share data among customers, manufacturers, suppliers and other parties in supply chain. It improves productivity and competitiveness, enables the transition to a digital economy, and provides opportunities to achieve economic growth and sustainability.
What are the 4 main areas of digital transformation?
There are four types of digital transformation: business process, business model, domain, and cultural/organizational. We often see corporations focused solely on process or organizational transformation.
AM Chronicle is a neutral information and content platform for the Additive Manufacturing & 3D Printing industry. AM Chronicle is the media vertical of Indian 3D Printing Network.
Subscribe to the AM Chronicle mailer to receive latest tech updates and insights from global industry experts.