3D printing technology has begun to revolutionize the way we produce entire physical objects and parts in the last few years. The range of things produced by 3D printing today is vast, and continues to get more innovative. Today we can 3D print anything from simple toys to clothing to tools. We can also use the technology to produce musical instruments and even human body parts and the potential seems endless.
2. Contents
Headings 1. Introduction
2. History of 3D Printing Technology
3. 3D Printing General Principles
4. Methods of 3D Printing
5. 3D Printing Technology Trends
6. Applications and Benefits
7. 3D Printing Technology Challenges
8. Ethical Issues in 3D Printing
10. Potential Impact on Jamaica & its Region
11. References
3. Introduction
3D printing technology has begun to revolutionize the way we produce entire
physical objects and parts in the last few years. The range of things produced
by 3D printing today is vast, and continues to get more innovative. Today we
can 3D print anything from simple toys to clothing to tools. We can also use
the technology to produce musical instruments and even human body parts
and the potential seems endless.
Brief Overview
4. Introduction – Cont’d
3D printing also know as Additive
manufacturing is a process of making a
three-dimensional solid objects of virtually
any shape from a digital model. 3D printing
is achieved using an additive process, where
successive layers of material are laid down in
different shapes.
What is 3D Printing?
5. History of 3D Printing
Technology
1984
Charles Hull, co founder of 3D Systems invents 3D printing and coins the term Stereo Lithography
1986
Charles Hull’s stereolithography 3B printing apparatus got patented
1987
The first SLA-1 3D printer was built by 3D Systems Inc.
1988
Scott and Lisa Crump, co-founders of Stratasys, invent and patent “fused deposition modeling”
1999
First application of 3D printing in the medical field - creating the human bladder
2009
First usable prosthetic leg – this opens the door for customized products using 3D printing
2010
The world first 3D printed car
6. Types of Manufacturing
Subtractive Manufacturing Additive Manufacturing
Producing a part by removing raw
material via: boring, drilling, milling,
sawing, shaping, planning, reaming etc.
3D printing or additive manufacturing is a process of
making three dimensional solid objects from a digital file
by laying down successive layers of material until the
entire object is created.
10. 3D Printing Tech. Trends -
Cont’d
On The Rise
3D Printing Workflow Software
3DP of Consumable Personal
Products
4D Printing
Nanoscale 3DP
3D Printed Wearables
3D-Printed Drugs
3D Bio printed Organ Transplants
IP Protection in 3DP
Macro 3D Printing
Sheet Lamination
3D Printing in Oil and Gas
At the Peak
Powder Bed Fusion
3D Printing in Retail
Classroom 3D Printing
Directed Energy Deposition
3D Printed Surgical Implants
3D Printing in Supply Chain
3D Bioprinting for Life Science
R&D
11. 3D Printing Tech. Trends -
Cont’d
Sliding Into the Trough
3D Printing of Medical Devices
3D Bio printed Human Tissue
Consumer 3D Printing
3D Printing in Manufacturing
Operations
3DP in Aerospace and Defense
Stereolithography
3DP Pre-surgery Anatomical
Models
3D Printed Tooling, Jigs and
Fixtures
3D Printed Electronics and
Fabrication
Climbing the Slope
3D Printing of Dental Devices
Binder Jetting
Material Jetting
3DP in Automotive
Enterprise 3D Printing
Material Extrusion
3D Scanners
3D Print Creation Software
3D Printing Service Bureaus
13. Applications & Benefits – Cont’d
Manufacturing Options:
3D printing provides a wide variety of manufactured products, including customizable
products and even an individual’s personal designs.
Rapid Prototyping:
Products can more quickly go from just a design to an actual prototype.
Manufacturing Speed:
Just like the previous advantage, the manufacturing speed for a large number of final
products is equally fast.
Reduced Costs:
Even though the initial setup costs are higher, 3D printing has become cheaper than
cheap labor in third world countries. Additionally, the costs of 3D printing are still
decreasing, with the potential of 3D printers in homes in the near future.
14. 3D Printing Tech Challenges
1. 3D printing isn’t standardized.
2. Additive manufacturing impacts the environment.
3. Equipment and product costs are high.
4. There’s a 3D printing knowledge gap.
5. Additive manufacturing complicates intellectual
property.
6. 3D printers uses a lot of energy.
15. Ethical Issues in 3D Printing
1. Piracy
2. Bioprinting - Printing organs
3. Unhealthy air emissions
4. Job Security
5. Plastic Reliance
16. Potential Impact in Jamaica & its Region
1. Reduction on skill outsourcing
2. Improve on local expertise
3. Tap into the prosthetics market
4. Reduction on car parts imports
5. Reduction on other imports such as:
Pluming
Kitchen items
Toys
Construction materials
17. References
3D.Systems. (n.d.). Our Story. Retrieved 2017, from 3D
Systems.
Anderson, C. (2012). Makers: The new industrial
revolution . In C. Anderson. Crown Business, an
imprint of the Crown Publishing Group .
Kamran, M., & Saxena, A. (2016). A Comprehensive Study
on 3D Printing Technology. MIT International Journal
of Mechanical Engineering, pp 63-69.
Liu, Z., & Jiang, Q. (2016). Sustainability of 3D Printing: A
Critical Review and Recommendations. ASME 2016
11th International Manufacturing Science and
Engineering Conference, 2, p. 8.
Matias, E., & Rao, B. (2015). 3D printing: On Its Historical
Evolution and the Implications for Business. New
York USA.
Pandian , A., & Belavek, C. (2016). A review of recent
trends and challenges in 3D printing . Proceedings of
the 2016 ASEE North Central Section Conference .
American Society for Engineering Education.
Pankajbhai, P. D. (n.d.). A Report on 3D Printing .
The build platform is lowered from the top of the resin vat downwards by the layer thickness.
A UV light cures the resin layer by layer. The platform continues to move downwards and additional layers are built on top of the previous.
Some machines use a blade which moves between layers in order to provide a smooth resin base to build the next layer on.
After completion, the vat is drained of resin and the object removed.
FDM
3D printing machines that use FDM Technology build objects layer by layer from the very bottom up by heating and extruding thermoplastic filament. The whole process is a bit similar to stereolithography. Firstly special software “cuts” CAD model into layers and calculates the way printer’s extruder would build each layer. Along to thermoplastic a printer can extrude support materials as well. Then the printer heats thermoplastic till its melting point and extrudes it throughout nozzle onto base, that can also be called a build platform or a table, along the calculated path. A computer of the 3d printer translates the dimensions of an object into X, Y and Z coordinates and controls that the nozzle and the base follow calculated path during printing. To support upper layer the printer may place underneath special material that can be dissolved after printing is completed.
Innovation Trigger – Trends that are on the rise tend to gather a lot of interest due to their potential applications, but mostly only proofs of concept or research exists, not usable technology. 3D printed drugs, bio-printed organ transplants, 3D printing workflow software, 4D printing and 3D printed wearables are all identified as being at this stage.
Peak of Inflated Expectations – The next stage up on the trend is where expectations are at the highest, and successful applications have been implemented. Media catches on, starts covering the topic and highlighting success stories, but also sometimes includes the failures as well.
Trough of Disillusionment – As the technology gained slight adoption from the peak coverage, users recognize the capability isn’t completely there, and the technology fails to deliver. This is were we see producers and developers being to fall off.
Slope of Enlightenment – Trends that are climbing the slope of enlightenment tend to be previously hyped technologies that are now entering the second or third generation of products, with confidence gradually starting to build after some previous setbacks. But, as time goes on and those that held onto the tech begin to see real results and new developments, the true “enterprise benefit” begins to become more understood — more companies will fund pilots at this point.
Plateau of Productivity – Finally, there are a handful of technologies that are now at their peak of productivity, with their adoption being widespread and mainstream adoption begins to rise, and the reality of the technology is being recognized.
Innovation Trigger – Trends that are on the rise tend to gather a lot of interest due to their potential applications, but mostly only proofs of concept or research exists, not usable technology. 3D printed drugs, bio-printed organ transplants, 3D printing workflow software, 4D printing and 3D printed wearables are all identified as being at this stage.
Peak of Inflated Expectations – The next stage up on the trend is where expectations are at the highest, and successful applications have been implemented. Media catches on, starts covering the topic and highlighting success stories, but also sometimes includes the failures as well.
Trough of Disillusionment – As the technology gained slight adoption from the peak coverage, users recognize the capability isn’t completely there, and the technology fails to deliver. This is were we see producers and developers being to fall off.
Slope of Enlightenment – Trends that are climbing the slope of enlightenment tend to be previously hyped technologies that are now entering the second or third generation of products, with confidence gradually starting to build after some previous setbacks. But, as time goes on and those that held onto the tech begin to see real results and new developments, the true “enterprise benefit” begins to become more understood — more companies will fund pilots at this point.
Plateau of Productivity – Finally, there are a handful of technologies that are now at their peak of productivity, with their adoption being widespread and mainstream adoption begins to rise, and the reality of the technology is being recognized.
Innovation Trigger – Trends that are on the rise tend to gather a lot of interest due to their potential applications, but mostly only proofs of concept or research exists, not usable technology. 3D printed drugs, bio-printed organ transplants, 3D printing workflow software, 4D printing and 3D printed wearables are all identified as being at this stage.
Peak of Inflated Expectations – The next stage up on the trend is where expectations are at the highest, and successful applications have been implemented. Media catches on, starts covering the topic and highlighting success stories, but also sometimes includes the failures as well.
Trough of Disillusionment – As the technology gained slight adoption from the peak coverage, users recognize the capability isn’t completely there, and the technology fails to deliver. This is were we see producers and developers being to fall off.
Slope of Enlightenment – Trends that are climbing the slope of enlightenment tend to be previously hyped technologies that are now entering the second or third generation of products, with confidence gradually starting to build after some previous setbacks. But, as time goes on and those that held onto the tech begin to see real results and new developments, the true “enterprise benefit” begins to become more understood — more companies will fund pilots at this point.
Plateau of Productivity – Finally, there are a handful of technologies that are now at their peak of productivity, with their adoption being widespread and mainstream adoption begins to rise, and the reality of the technology is being recognized.