2. Additive manufacturing (AM), noun – process of
joining materials to make objects from 3D model
data, usually layer upon layer, as opposed to
subtractive manufacturing methodologies.
Synonyms: additive fabrication, additive processes, additive techniques,
additive layer manufacturing, layer manufacturing and freeform
fabrication.
Rapid prototyping, noun – additive manufacturing of a
design, often iterative, for form, fit or functional
testing or combination thereof.
2
3. As an Enabling Technology AM is used in a
broad spectrum of manufacturing.
Some applications of this technology
include:
3
9. T.E.A.M. is a collaboration of two NSF funded Advanced
Technological Education Centers and a
Professional Organization
The National Resource Center for Materials
Technology Education;
National Center for RapidTechnologies; and
ASTM
Develop Additive Manufacturing (AM) core competencies and
curriculum, based on emerging Global AM Standards.
9
10. Goal 1:
To facilitate creation of Additive Manufacturing
core competencies and to develop uniform
instructional elements and focused educational
and training outcomes,T.E.A.M. will lend its
knowledge and expertise to support F42 and its
stakeholders in the development of Global
Additive Manufacturing Standards.
10
11. Goal 2:
To improve technician education training
programs and to increase student career eligibility
(employability/progression),T.E.A.M. will provide
tools, expertise and a documented process model
that integrates core competencies and relevant
derivatives into manufacturing technician
programs, aligned with the emergence of
standards in real time.
11
12. How will this information be shared?
Dissemination of the core competencies and
curriculum through professional development
opportunities, websites, conferences, professional
organizations and appropriate publications.
ASTM F42 Technical Committee – over 120
members globally.
12
13. American Society for Testing and Materials
International (ASTM)
Is one of the largest voluntary standards
developing organizations in the world.
ASTM’s strength is in developing and publishing
standards based on a proven process.
13
14. Facilitate the development of full-consensus Global
Standards for Additive Manufacturing Technologies
through F42.
Assist with publishing and disseminating a complete
set of Additive Manufacturing Standards.
Connect stakeholders input and review
of competencies for validation.
14
15. ASTM T.E.A.M.
F42 Technical Committee
Sub-Committees
Test Methods
Design
Materials & Processes
Executive
Terminology
Education Working Group
15
16. F42 membership
provides educational
and technical input
F42
Subcommittees
Terminology
Design
Materials/
Processes
Testing
Executive
Following ASTM
consensus protocol,
Standards
developed and
published
T.E.A.M. develops
Core Competencies
Standards provide
basis for Core
Competency
Development
Core
Competencies
Published and
disseminated
T.E.A.M. Assists
schools, colleges and
industry with
integration into
curriculum/training
Competencies used
to develop
instructional tools
T.E.A.M. presents
through websites,
conferences, and
professional
development
opportunities16
17. K = Knowledge
S = Skill
I = Importance (1=Vital, 2=Important, 3=Desirable, 4=unimportant)
St = STEM category (S=Science, T=Technology, M=Math, E=Engineering)
This material is based upon work supported by the National Science Foundation under Grant No. 1003530. Any opinions, findings, and
conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National
Science Foundation.
ASTM F2792 Standard Terminology for Additive Manufacturing Technologies
17
18. Continuing Education Programs.
Industry Training Programs.
Anyone developing an AM program
Example:AM Certificate of Completion
3 quarters; 9 credits
Edmonds Community College
18
19. Certificate of Completion
in
Additive Manufacturing
MST 161 Introduction to Additive Manufacturing 3 Credits
Provides the student with knowledge and skills in Additive Manufacturing technology. Primary topics include additive manufacturing
fundamentals, terminology, main categories of, and Rapid Prototyping machine technology types, advantages vs. disadvantages of varied
Additive Manufacturing technologies, basic skills in 3-D software, and practical application of 3-D printing.
MST 162 Additive Manufacturing, Molding and Casting 3 Credits
Provides the student with knowledge and skills in Additive Manufacturing technology. Primary topics include vacuum forming fundamentals,
silicon molding, urethane, investment casting, CNC operations and post processing of lab created projects.
MST 163 Additive Manufacturing, Metal Printing 3 Credits
Provides the student with knowledge and skills in Additive Manufacturing technology.The primary focus is using the advanced capabilities of
3D modeling software, the operation and theory of metal printing equipment, and the use of scanning equipment in the Additive
Manufacturing industry.
Prerequisites: Satisfactory completion of Engr. 114 (Introduction to Solid Works),or industry experience in CAD/CAM, or 1yr experience
in the Additive Manufacturing industry, or instructor's permission.
Total of 3 quarters/9 credits
19
20. Other Applications:
Can you think of other areas where
the use of AM technology would be
appropriate?
20
25. Join ASTM F42 and work with a subcommittee
to expedite development of AM standards.
Learn about Additive Manufacturing.
Participate in professional development
opportunities offered in AM.
Attend presentations like this.
Visit Additive Manufacturing Websites. (
www.materialseducation.org)
25
26. For Additional Information Contact:
Frank Cox
PI
ProjectT.E.A.M.
Frank.cox@edcc.edu
425-640-1145
Mel Cossette
Co-PI
ProjectT.E.A.M.
mel.cossette@edcc.edu
425-640-1376
This work is part of a larger project funded by the Advanced Technological Education
Program of the National Science Foundation, DUE #1003530
26
Editor's Notes
Possibly, keep in contact with MatEd @ EDCC for new information
