Paris - Porte de Versailles,
Pavillon 1, Place de la Porte de Versailles
April 13-15 2010
- An outstanding and eventful program
- 12 conferences and forums, with 3 brand-new ones in 2010
6 Industry end-user forums:
•Aerospace
•Automotive
•Construction and Civil Engineering
•Marine
•Transportation
•Wind Energy
3 Cross-industry forums:
•Automation
•Bio-Based Materials
•Recycling and Life Cycle Management NEW
3 Technical conferences:
•Composites Design in partnership with Stanford University - Department of Aeronautics & Astronautics
•Composites Simulation in partnership with ESI Group NEW
•Composites Development process with DLR CFRP Research NEW
2. Key Topics
Gain Insight into the JEC 2010 Program ...................................................... p.4
6 Industry end-user forums:
• Aeronautics................................................................................................................ p.14
• Automotive ................................................................................................................ p.8
• Construction/Civil Engineering ................................................................................ p.7
• Marine ........................................................................................................................ p.15
• Rail & Road Transportation ..................................................................................... p.17
• Wind Energy.............................................................................................................. p.16
3 Cross-industry forums:
• Automation................................................................................................................ p.11
• Bio-Based Materials................................................................................................. p.12
• Recycling and Life Cycle Management .................................................................. p.6
3 Technical conferences:
• Composites Design in partnership with Stanford University ............................. p.10
• Composites Simulation in partnership with ESI Group ...................................... p.13
• Composites Development Process in partnership with DLR CFRP Research .. p.9
With the testimony of:
3XN architects • 5D composite A Accudyne Systems • Airbus • Airbus Deutschland GmbH • Airbus Operations Ltd • Ashland Finland Ltd • Audi Lightweight
Center • Automobili Lamborghini S.p.A B BASF SE • Beijing Institute of Aeronautical Materials • Bombardier Aerospace C Carbo-Link • CFK Valley Stade
Recycling • Composites Evolution Ltd • CPIL • CTC GmbH D Daher Socata • Dantec Dynamics GmbH • D’Appolonia S.p.A • Dassault Aviation • Dassault Systèmes
Decathlon / Artengo (Oxylane group) • DLR - The German Aerospace Research Center Dow Deutschland GmbH & Co. OHG • DSM Composite Resins AG • DSM
Composite Resins AG E EADS - Astrium Space Transportation • EADS Deutschland GmbH • Ecole Polytechnique at University of Montreal • EPL Composite
Solutions Ltd. • ESI Group • Eurocopter F Fokker Aerostructures G Gamesa, Gruntech Polymer Consultants • Gurit UK • GWEC H HDS • Huntsman Advanced
Materials I Icolfibra • Ifremer • Invent GmbH • ITCA S.p.A. • I-Trans L LCPC (Laboratoire Central des Ponts et Chaussées) • Lineo M MAG Europe • Mainz
University of Applied Sciences • Mikkeli University of Applied Sciences N National Technical University of Athens • NCD • NpSp P Pôle Européen de la Plasturgie
PPE • Premier Composite Technologies • Premium Aerotec GmbH R Ruredil S Stanford University • Swerea Sicomp AB T Technical University of Munich
The Katholieke Universiteit Leuven (Belgium) • The University of Tokyo • The University of Washington • The University Tokyo • Total Petrochemicals • Toyota
Motor Corporation • Trimarine SRL • TTT The Team Technology GmbH U UAM • University of Bristol • University of Nottingham V Vistagy Aerostructures.
2 www.jeccomposites.com
4. Gain Insight into the JEC 2010 program
AERONAUTICS
Aircraft structures: This Aeronautics forum will look at what has to be done to meet current and likely
Cost control - the new battle future requirements for cost reductions. The recently founded UK National Composi-
Next generation composite wings: tes Centre will be briefly described and its mission to tackle the issues around low
Airbus, Bombardier Aerospace, cost composites will be outlined. Finally, next generation wings at Airbus, Bombar-
Daher-Socata dier Aerospace and Daher-Socata, integrating as much composite in the wing as
New thermoplastic and recyclable possible to make aircraft more fuel efficient, will be presented.
solutions
AUTOMOTIVE
Energy saving strategy 2010 will be the Automotive year at JEC. Come and discover how Audi, Lamborghi-
Cost-effective and lightweight ni, Nissan, Toyota Motor Corporation rely on composite to meet the most stringent
materials and processes environmental regulations.
Constructors experiences:
Audi, Lamborghini, Nissan, Toyota
Motor Corporation
CONSTRUCTION AND CIVIL ENGINEERING
Efficient seismic solutions Designers in Construction and Civil Engineering are getting better and better at
Reinforcements for tunnels integrating all the potential of composites. Composites address very utilitarian
and building needs, notably for earthquake risks. They serve just as well in new constructions,
Case studies: spectacular applications in renovation and rehabilitation. In civil engineering, new modular and lightwei-
ght bridges, that can be assembled and disassembled manually on site, will be
presented.
MARINE
New solutions as part of the industry Given the opportunities for further expansion, the marine industry represents
recovery a highly attractive market for OEMs, material suppliers, engine suppliers and part
Comparative studies of materials suppliers. Resin and reinforcement producers constantly improve their products to
Solutions for quality improvement achieve better strength, fatigue properties, surface quality, lighter products as well
Thermoplastic penetration in Marine as cheaper and healthier manufacturing processes.
RAIL AND ROAD TRANSPORTATION
Green and thermoplastic solutions Reducing the environmental footprint of terrestrial vehicles is the roadmap of the
Agro vehicles innovative cluster I-Trans. In Rail and Road Transportation, composites are in-
Low CO² emissions creasingly used since they have the advantages of strength, durability and corro-
sion resistance together with low weight. This increases the potential useful load
and also helps to save on energy. A new urban collective vehicle, a monocoque
trailer made of carbon composite, a modular bus body and composite cylinders for
automobile and gas transportation, all reap the benefit of the high properties of
composites.
WIND ENERGY
The Global World Energy Council Wind energy growth demands more and more blades being manufactured. At the
market vision same time, wind turbines produce more and more power, which means that the
Automation: better quality at lower blades grow larger and larger. Robustness of the design and the manufacturing
costs processes is becoming more and more critical. Increasing competition forces ma-
nufacturers to increase their throughput while reducing their manufacturing costs.
This forum will demonstrate what wind energy companies can learn from aerospace
composites best practices and how to maximize the efficiency and the robustness
of the manufacturing process by introducing automation.
4 www.jeccomposites.com
5. RECYCLING AND LIFE CYCLE MANAGEMENT
Recycling processes and applications JEC launches the first observance forum on Recycling and Life Cycle Management
Life Cycle Management (LCM). Long-fibre, high-grade carbon is a valuable commodity, costing upwards
Economical and Ecological benefits of £10,000 per ton when new. Add to this fact that consumption is increasing,
offering competitively priced material having minimally impaired mechanical pro-
perties and good surface chemistry is key. Do not miss this forum! This is a unique
opportunity to compare European and Japanese LCM-strategies for carbon fibre
composite aircraft and cars. You will network with all actors: universities, industry
and reclaimers.
BIO-BASED MATERIALS
A booming market With the demand for safer and healthier products enabled by strict environmental
Green materials advances regulations, there is a growing need for Bio-based materials. Different aspects give
Innovative case studies: 3XN architect, the grounds for the choice of these materials: from an environmental, technical
Decathon/Artengo, NPSP and economical point of view. The forum will highlight different innovations case
studies and applications in construction, sports and leisure and transportation.
AUTOMATION
Automation through new materials, Automation is key for reducing the cost of manufacturing composites parts. Europe
processes and equipments has the highest rate of automation with 83% of its processes automated. A
Trends for the future market overview of the Automotive, Aerospace and Wind Energy requirements for
automation will be presented. You will also learn about the most promising tech-
nologies and successful examples.
COMPOSITES DESIGN
Opportunities for composites design Stephen W. Tsai, Professor Research Emeritus and its speakers will present the
Micromechanics and design tools best available theory and also design tools that can be used to implement predic-
Analysis for damage tolerance and repair tions of failure, life and damage tolerance of composites.
Standard master curves for rapid life
prediction
Practice session
COMPOSITES SIMULATION
The complete simulation chain: Despite of great advances demonstrated by the academic world, the Manufactu-
new effective processes ring Process Simulation (MPS) is still in its infancy in the industry. In this forum,
Case study: a wing assembly a case study (composite wing assembly) will enable to introduce to the numerous
challenges of MPS. Then, the presentations will demonstrate the benefits of using
the numerical simulation of manufacturing. The forum will cover the underneath
material modeling and how to use it in simulation like for instance fan blades RTM
manufacturing for an aircraft engine.
COMPOSITES DEVELOPMENT PROCESS
New energy-efficient design To exploit the full potential of composite materials for high performance lightwei-
and manufacturing techniques ght structures, it is necessary to consider the entire process chain. No single
Research projects: key aerospace process step can be optimized without taking into account the impact to preceding
players testimonials: Airbus, Eurocopter, and subsequent steps. The integration of additional functions into the load carrying
Premium Aerotec structure offers further advantages of composite technology. Some examples from
actual research shall illustrate the potentials and challenges in the composite
development process.
www.jeccomposites.com 5
8. AUTOMOTIVE FORUM
Tuesday, April 13 - 2.30 pm / 5.00 pm In partnership with
Exclusive sponsor
Meeting ever more stringent environmental regulations
The use of state-of-the art and new techno- A project in cooperation with Deltatech S.p.A
MODERATOR logies such as compression injection RTM,
carbon-SMC, 3D curved braiding, 3D stitching, An integrated molding system.
The University of Tokyo molded rigid PU foam cores, thermal plastic
A low-cost semi-impregnated micro-sandwich
Jun Takahashi CFRP, etc.
system for part fabrication.
Professor Department As a result, the CFRP body weighs just 131kg
High-performance release agents to reduce the
of Systems Innovation, including the weight of metallic inserts.
number of surface treatments.
School of Engineering
3. Industrializing CFRP - challenges for the
automotive industry 6. RTM vs. autoclave prepreg process for
Biography: monocoque in road cars: specific analysis for
Jun Takahashi is specialized in mechanical en- Audi Lightweight Center a high-performance vehicle only electrically
gineering and graduated from the University Günter H. Deinzer powered
of Tokyo in 1987, and got a doctorate from the Head of Technology Development
same University in 1992 in the field of fracture YCOM
Composites
mechanics. He worked for a national research Mario Saccone
institute (AIST, METI, Japan) from 1992 to 2000 How the Audi experience in aluminum-lei- Composites Materials Specialist
in the field of composite materials. Then, he was ghtweight-design helps to develop CFRP-
promoted Responsible for national programs applications.
concerning composite materials, such as stan- Roberto Catenaro
Chances generated by industrialization.
dardization of testing method, ultra-high tempe- Consultant at Ycom
rature application, structural health monitoring, CFRP in automotive industry - designed by
recycling, and LCA (life cycle assessment). Now Audi. The new vehicle for 2012: the first supercar
he worked for the University of Tokyo and has
with only 4 electrical engines and featuring
been doing research on energy saving strategy
Out-of-the-autoclave 1,000 horse powers and a joint venture among
in the field of transportation and automotive
several companies each one at the excellence
application of CFRP and CFRTP. Molding Processes in its own industrial field.
4. RTM for primary automotive structures An extensive use of composite solutions all
Global Energy-Saving Strategy around the car in particular for the structural
in Transportation Automobili Lamborghini S.p.A components like the tub.
Luciano De Oto
A detailed analysis between RTM and standard
1. Energy-saving strategy in transportation by Head of BIW&Trim and Composite autoclave process.
using CFRP Engineering and Development
The University of Tokyo Huntsman Advanced Materials
Non-Destructive Inspection
Jun Takahashi Stephan Costantino Techniques
Professor Department of Systems Process Application Specialist
Innovation, School of Engineering 7. Building block approach to composite
Global energy saving strategy in trans- High-performance parts for high-end crashworthiness analysis
portation. automotive.
University of Washington
Effect of weight lightening on energy saving of RTM: a process of choice for parts
Paolo Feraboli
gasoline and/or electric vehicles. manufacturers.
Professor and Director of the
Research trend of CFRP and CFRTP for airplane Development of automotive structural parts Automobili Lamborghini, Advanced
and automobile applications. and resin selection criteria. Composite Structure Laboratory
Cost-effective and repeatable production of How the building block approach is being uti-
structural parts with mechanical and thermal lized at Automobili Lamborghini for the design
From Luxury cars to Mass Production performances comparable with autoclaved of new structural concepts that are being
prepregs. evaluated as technology demonstrators.
2. The development of the new Lexus LFA’s 5. Speedy-infusion for the fabrication of a GT
Also attend
CFRP monocoque car composite underfloor
Toyota Motor Corporation ITCA S.p.A The RECYCLING AND LIFE CYCLE
Nobuya Kawamura Massimo Fazzi MANAGEMENT FORUM (p.6)
Project General Manager Composites Technologies Specialist The COMPOSITES SIMULATION
CONFERENCE (p.13)
Is the LFA’s carbon technology conservative? Roberto Catenaro The RAIL AND ROAD TRANSPORTATION
No! FORUM (p.17)
Technical Director
8 www.jeccomposites.com
9. COMPOSITES DEVELOPMENT PROCESS CONFERENCE
CE
Tuesday, April 13 - 2.30 pm / 5.00 pm In partnership with
Exploring challenges of process chain for CFRP structures
Energy absorption concept validated by
MODERATOR experiments testing triggered sandwich panels Adaptronics
under mixed compression – bending loads.
DLR - The German Aerospace
Research Center Case study: Airbus Deutschland GmbH.
5. Droop nose morphing structure
Martin Wiedemann DLR CFRP Research
Head of Research Composite Design Olaf Heintze
Institute Research Field Leader High Lift
3. Advanced concepts for composite airframe
Biography: door and door surround structures A gapless and flexible wing leading edge
Martin Wiedemann has held the different po- structure strongly supporting airframe reduc-
sitions: Head of DLR Institute for Composite Eurocopter tion and allowing for a wing design with a
Structures and Adaptive Systems (2007), Full Christian Seyffert fully natural laminar flow. Serious reduction of
professor Adaptronics, Technical University flow resistance and, thus, emissions.
Senior Manager Engineering
Braunschweig (2007), Chief-Engineer, A400M Airplane Door Systems A composite design allowing for the union of
Fuselage and Empennage, Airbus, Site Germany
contradicting requirements such as flexibility
(2005-2007), Head of Development Processes DLR CFRP Research
for nose droop and stiffness along the wing
and Payload Accomodation, Airbus, Site France Tobias Stroehlein span for shape conformity.
(2004-2005) and Head of Specific Design Work
Project Coordinator Carbon Fuselage
Structure, Airbus, Site Germany (2001-2004). Full-scale testing in cooperation with Airbus
Major challenges of door and door surround and EADS. A successful application of the hi-
structures in CFRP fuselage, current and future ghly efficient process chain in the Institute of
technical solutions to fulfill the requirements. Composite Structures and Adaptive Systems.
Functional Materials
Interfaces and interactions with the focus on
CFRP concepts highlighted.
1. Fast processing of polymer composites for Production Technologies
New design techniques with state-of-the art
high volume production
software to achieve maximum accuracy of flat
pattern simulation and furthermore reduce 6. Advanced automated fibre placement (AFP)
Dow Deutschland GmbH
the weight and manufacturing costs of the
& Co. OHG technology
highly integral complex door and door surround
Damian Feord structures.
MAG Europe
Epoxy R&D Leader
Christian Boge
Executive Vice President Industry
DLR CFRP Research Composite Manufacturing Team Aerospace
Peter Wierach
Head of Department DLR CFRP Research
4. Sustainable production of high perfor-
Methods to optimize process parameters using Dirk Röstermundt
mance CFRP components
already established resin systems. Research Engineer
Premium AEROTEC GmbH Requirements for improved efficiency of AFP
Overview about possibilities and limits to
Christian Kulik up to the level for future large parts.
realize fast process cycles and meet the
requirements for a high volume production of A large mobile robot based-platform under pre-
polymer composites. paration in cooperation with the company MAG.
DLR CFRP Research
2. Crashworthiness aspects of CFRP airframe Characteristic features.
Markus Kleineberg
panels in fold core design
Head of Department
Foldcore GmbH Energy-efficient manufacturing strategies.
Rainer Kehrle Adaptable mould concepts for flexible compo-
CEO site component manufacturing.
Online monitoring of essential production
Also attend
DLR CFRP Research
parameters.
Ralf Sturm
Research Engineer Custom-tailored automation concepts for effi- The AUTOMOTIVE FORUM (p.8)
cient composite component manufacturing.
Development of a trigger concept for CFRP The AERONAUTICS FORUM (p.14)
composite sandwich structures based on local Challenges for future composite component The COMPOSITES DESIGN
modifications in the fold pattern of the core to manufacturing concepts. CONFERENCE (p.10)
control the failure mode of the sandwich panel.
The AUTOMATION FORUM (p.11)
www.jeccomposites.com 9
10. COMPOSITES DESIGN CONFERENCE
Wednesday, April 14 - 10.30 am / 1.00 pm
In partnership with
Acquiring proficiency in composites design
Stephen W. Tsai Sung K. Ha Daniel Melo
Department of Aeronautics Professor, Dept. of Mechanical Engineering Department of Materials Engineering,
& Astronautics, Stanford University Hanyang University, Korea Federal University of Rio Grande do Norte;
Visiting Professor, Department of Aeronautics Visting Professor, Department of Aeronautics
& Astronautics. Stanford University & Astronautics, Stanford University
Composites Design and Tools Lekhnitskii’s Exact Solutions Test Methods and Error Estimation
This forum provides not only an authoritative Analytical solutions in Lekhnitskii’s Aniso- Widespread use of quasi-isotropic symmetric
book: Strength & Life of Composites, but also tropic Plates cover various applications of laminates known as “black aluminum” makes
a set of software tools with instructions of anisotropic beams and plates. The Stanford composite materials uncompetitive. Additio-
the underlying theory and sample problems. Composite Design Team started a project to nally, many design recommendations have
Materials and process engineers must reach program solutions of nearly all cases pre- been established without scientific basis,
this minimum proficiency level. The tools are sented in this classic book. The first version which further penalize composites. Using
devised for practical design. They can also is now released covering sections on stress uniaxial tests data to generate knock-down
challenges archaic rules that often add mass distribution in a plate with elliptic or circular factors and design allowable cost millions
and cost without rational bases. We believe openings. Arbitrary normal and shear in-plane of dollars and are limited to the specific
in closed-formation and numerical simulation loads can be applied to the orthotropic plate loading conditions. They are often not directly
tools to guide design and testing. In parti- with elastic inclusion. The inclusion in the applicable to structural design. Biaxial test
cular, we recommend 3 ply angles instead of openings can be either open or filled with data using open-hole and smooth specimens
4. We also believe in homogenized laminate elastic or rigid materials. Inner pressure and will be presented. These data indicate
and use ply angles as continuous variables. shear loads and rigid interferences can be that even for simple QI laminates failure
These designs will increase toughness and applied to the holes. Once laminate stresses envelopes are not boxy shaped and cannot
lower cost. They will reduce empiricism and are analytically obtained, each ply stress is be generated by few anchor points. The use
increase confidence in design. This forum is calculated by stress transformation. Finally, of numerical simulations to produce notched
an abbreviated presentation of our biannual strength ratios after failure analyses are strength data for structural design allowable
Stanford-certificated online Composites Design calculated and plotted in Excel worksheets. is encouraged, in combination with biaxial
Workshop that offers 44 hours of intensive These solutions are effective, preliminary test data to verify the predictions. Using few
training delivered live over 11 days. design tool for many problems for bolted ply angles and as continuous variables will
joints, hole repair and others. make laminates competitive. The importance
of using statistical tools for error estimation
3D Beam in test data will be presented.
Modeling of composite structure prior to
end
structural analysis first requires specification
Also attTICS
of geometry, laminations and loads. Such
modeling process can be very tedious and
NAU often requires high-end modeling and analysis
The AERO .14) tools. Now a new 3D Beam, based on FEM,
FORUM (p
15 2010 is developed as an easy-to-use yet power
day, April
Thurs
/ 1:00 pm
tool for analysis and design of composite
10:30 am structures. Modeling time is now reduced by
one or two orders of magnitude compared What you get
to conventional modeling and analysis FEM during the
tools. Successful applications of the 3D Beam conference?
covers various types of structures ranging
from very complicated wind turbine blades Each participant will receive:
and airplane fuselages to simple beams
such as golf shaft and box beam. Vertical 1 disk that will contain all
and in-plane loads and bending and twisting
viewgraphs, and design tools
moments can be applied to any location of
the structure. Once the global deformations
of MicMac-Inplane, MicMac-Hole
are calculated, ply stresses and the failure and 3D Beam.
indices are calculated and plotted. The natural
frequencies and vibration shapes of up to 10
modes can be additionally computed. The 3D
Beam can be also effectively used for error
estimation with selected design experimental
parameters.
10 www.jeccomposites.com