1. Planning of the event
15h – 16h30
SIRRIS Introduction Thierry Dormal
Jtekt Jean-Louis Dam
Safran Aero Boosters Olivier Devriendt
Höganas Olof Andersson
SIRRIS AM trends Benjamin Denayer
16h30 – 18h00
Tour and discussion with experts (10 tables)
17h30
Drink
Soon… email with the link to upload the PDF files
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3. 3
1990 – 2015
Rapid Prototyping
Rapid Tooling
Additive Manufacturing
3D Printing
Direct Manufacturing
4. 4
Prototypes Direct Part Production
0
1000
2000
3000
4000
5000
6000
2003 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015
Product and services revenues from AM
Direct part production
Direct Part Production
2010: 20 %
2015: 51 %
Compiled from Wohlers Associates data
M$
5. Evolution of AM
• From prototype to real part production
• From time reduction to higher product performance
• From plastic to high performance alloys
• From shapes to consistent qualified parts
• From 3D Printing to an integrated production process
6. 6
1990
• One of the first stereolithography machine in EU (3DSystems)
1994
• One of the first FDM machine in EU (Stratasys)
• EU projects based on Rapid Tooling & SLA moulds
1996
• SLS : PA Sintering (EOS)
• DMLS: the first direct metal solution (with metal binder)
2000
• Technological breakthrough: Optoform and Prometal
2008
• LBM EBM and Laser cladding – Ti Alu Steel Inconel
• Bi-materials and composite technology (Connex 500)
• Bio-ceramic applications
2015 - 2020
• New strategy towards AM transfer & AM integration
SIRRIS T-ADD - A bit of history
Rapid Prototyping
Rapid Tooling
Rapid Manufacturing
Additive Manufacturing
11. 11
T-ADD 2015 - industrial activity
- 500 industrial projects
- 150 companies
- > 25 new companies / year discovering AM
- Growing demand in
- Performance (materials & processes)
- AM Design of new products or services based on AM
- Technology transfer for specific technology and materials
- Qualification (technology, materials & products)
- Post-processing (surface quality, accuracy,…)
- AM integration (internal needs or service providers)
13. 13
• AM oriented design based on specific AM rules
• Prototypes for development and then real direct AM production
• No way to go back to conventional way of working for series production
• Lattice Structures, topology optimization and components reduction
• After 3 years: 80 % components of the helicopter are produced by AM
Flying Cam
14. 14
Test bench for anti-ice system
• Trials and validation of the anti-ice process in flight condition
• 46 parts & 112 sensors
AM benefits:
• Hollow components with
cables and sensors
• Flexible & functional
• Much faster to build
• No 2D drawings required
Safran Aero Boosters
16. 16
Smart drilling machine for
aerospace applications
•Technical reasons to use AM
Mechanical properties of Titanium
Designed for weight optimization
Integration of functions
Vibration reduction
• New company (integrated in BMT Aerospace)
created for one single product.
AMT Titastar
17. Intervertebral cages with bioceramic material
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• Material formulation : HA/TCP (Bone substitute)
• Process development: paste polymerization
• 0.1mm tolerance / Fully controlled porosity
• ISO13485 compliance
• >10.000 parts / year in 2012 2013 2014
• New company created by Kasios in Gilly for production + Cerhum
Intervertebral bone replacement (HA/TCP)
Kasios
18. 18
Date : 14-07-
15
Validation of LBM with Titanium material for space parts
• Feasibility – Aerospace Qualification – Traceability
• Integration in the building process
• Set up of a certification methodology
• Topology Optimization
• 5 axis Post milling on AM parts for surface quality
and high local accuracy 153 x 144 x 50mm
Vol = 56cm³
Propriété
Thalès Alenia Space
Fabrication: Sirris
Propriété
Thalès Alenia Space
Fabrication: Sirris
Thales Alenia Space
19. Sirris 2016 – Service offering
Explore the potential of AM
- Feasibility study, benchmarking,
- New applications and opportunities, new business models,…
Design for AM
- Design rules for each AM technology,
- Weight reduction, process simulation,
- Topology optimization, lattice structures, channels,…
Optimize, implement & transfer AM Technologies for production
- Enhance the use of AM technologies, materials, powder handling, post processing
- Enhance process reliability and repeatability with certification procedures
- AM integration and automation of the full chain
Reduction of repetitive projects with low added value
>> transfer to Service Providers, creation of new start-up
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