Acknowledgments
About the author
Focus of this report
Introduction to additive fabrication
PART 1: BACKGROUND
History of additive manufacturing
Introduction of non-SL systems
Introduction of 3D printers
New generation machines
The past 12 months
Early inventions
Industries and regions benefiting
from the technology
How companies are applying AM processes
Installations by country
Applications
Custom manufacturing
Communication
Engineering changes
Powerful ideas and proposals
Concept models
Verifying CAD databases
Styling and ergonomics
Fit and functional testing
Prototyping
Metal castings
Requests for quotes
Tooling
Unlimited potential
PART 2: INDUSTRY GROWTH
Perspective
Revenue growth and forecasts
Products and services
Long-range forecast
Annual revenue growth percentages
Material sales
Revenue from service providers
Secondary market
Revenue from other services
Unit sales growth and forecasts
Long-range forecast
Unit sales growth percentages
Market shares
Systems sold by region
Market shares by manufacturer
Unit sales by manufacturer and year
3D printer sales
Service providers
Growth trends
Popular processes
Changing conditions
The future
Maturation of companies
Consumer-oriented service providers
Outlook
PART 3: SYSTEM MANUFACTURERS
Accufusion
Arcam
Concept Laser
Desktop Factory
DWS
Envisiontec
EOS
New EOSINT
P 800
Ancillary
design improvements
New
materials
Partnerships
Ex One
Fab@Home
Huntsman
Mcor
MTT
New
machines
Selective
laser printing
Objet Geometries
New
machines
Material
developments
New chief
executive
Optomec
Phenix Systems
POM
ReaLizer
Sintermask
Solidica
Solido
Solidscape
Stratasys
Indirect
sales strategy
Dimension activity
Fortus systems
RedEye
3D Systems
Equipment
Other developments
Voxeljet
Z Corp.
ZPrinter
650
Newest
materials
Other
developments
Investor
update
Revenues and earnings
Outlook
PART
4: ASIA AND EUROPE
Asia
Perspective on China
Another perspective on China
Major technology players
Chinese
machines
Korean
machines
India
Japan
Additive manufacturing in Japan
Changing stereolithography landscape
Other AM processes
Laser sintering in Japan
Japanese service providers
The future
Europe
Germany
United Kingdom
Italy
France
Spain
Sweden
The Netherlands
Denmark
Finland
Belgium
Portugal
Slovenia
Other regions
South Africa
Groups and associations
PART
5: METAL PARTS AND TOOLING
Direct metal parts
Laser-based, powder-bed systems
Powder deposition systems
Other approaches
Materials testing and international standards
Indirect metal parts
Investment casting
Sand, V-Process, and plaster mold casting
LS, ProMetal, and ZCast
Die casting
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Tooling solutions
High-performance tooling
Direct tooling approaches
DMLS
Laser consolidation
Indirect tooling approaches
RSP Tooling
Reconfigurable Tooling Systems
Other options
Other options
CNC-machined tooling
Hybrid tooling
PART
6: DIRECT PART PRODUCTION
Transformation is underway
When to use AM for production
Elimination of tooling
Quality and repeatability
Industry standards
Cost analysis and economics
Production implications
Strategic implications
Environmental considerations
Industrial design
Impact of AM for part production
Need for customer interaction
Applications and industries
Aerospace
Military and marine
Motorsports
Automotive
Machinery
Medical and dental
Consumer products
Furniture and home accessories
Art and jewelry
Gifts, awards, and trophies
Museum displays
Challenges and required research
Processes
Materials
Organization, management, and supply chain
issues
Future growth potential
PART
7: OTHER DEVELOPMENTS
Growth of CAD solid modeling
Major trends
CAD/PLM revenues
Seat count estimates
Operating systems
What's next?
Materials
LS powders
SL resins
PolyJet resins
Other materials
Coatings and other treatments
Part production
Medical applications
Anatomical models, surgical models,
etc.
Medical imaging as input to medical models
Medical imaging-processing software
AM materials suited to medical modeling
Additive methods suited to medical
modeling
Personalized metal implant production
Acetabular cups
DMLS for surgical implants
3D scanning and reverse engineering
3D-scanning hardware
Processing software
Applications
Hardware technology and limitations
Software technology
Conclusions
PART
8: RESEARCH AND DEVELOPMENT
Patents
Technology development
Metallic materials
Biomanufacturing
Nanomanufacturing
NanoEngineer-1
Examples
Approaches to nanomanufacturing
Nokia's Morph
World's smallest radio
U.S. government-sponsored R&D
National Science Foundation
Meso, micro, and nanoscale technology
Applications of existing AM technology
Medicine
Education
National Institutes of Health
Department of Defense
NASA
College and university education
and research
Educational activities in additive
manufacturing
Research and teaching
Institutions with capabilities in AM
Future trends and contributions
PART 9: WHERE IT'S ALL HEADED
The impact on manufacturing
AM is driving change
Barriers to growth
Growth in medical
applications
Orthopedic implants
Dental applications
Biomanufacturing
Other possibilities
New kinds of products
Lightweight structures
Electronics
Clothing and protective gear
AM is reaching the consumer
Game figures and collectables
21st century thing maker
Summary
Want to learn more?
APPENDICES
Appendix A: Glossary of terms
Appendix B: System and material manufacturers
Canada
China
England
France
Germany
Ireland
Israel
Italy
Japan
Korea
Sweden
Switzerland
United States
Appendix C: U.S. system specifications
Appendix D: Systems manufactured outside the U.S.
Appendix E: Material properties
Appendix F: Metal fabrication
comparison matrix
Appendix G: 3D scanning systems
Appendix H: 3D scan processing software
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