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1. Fracture and Fatigue at the Micro and Nano scales
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2. Risk Based Life Time Management of Engineering Structures
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3. Nanoscale Deformation and Failure
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4. Fracture and Fatigue of Elastomers
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5. Integrity of Dynamical Systems
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6. Fracture and reliability of thin films
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7. Fatigue and Fracture of Aluminium Alloys
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8. Modelling of Material Property Data and Fracture Mechanisms
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9. Micromechanisms in Fracture and Fatigue
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10. Engineering Materials and Structures (Dynamic, high strain rate, or impact fracture)
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11. Deformation and Fracture at the Nano Scale
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12. Interface Fracture and Behavior of Joints
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13. Computational Fracture Mechanics
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14. Cohesive Models of Fracture
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15. Crack Paths and Crack Path Stability
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16. Environment Assisted Fracture
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17. SIM, Philosophy, Instrumentation and Analysis
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18. Fracture of Biomaterials
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19. Structural Integrity Assessment in Theory and Practice
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20. Critical Distance Theories of Fracture
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21. Strength and Fracture of Polymeric Composites
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22. New Investigations on Very High Cycle Fatigue of Materials
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23. Deformation and Fracture of Engineering Materials
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24. Materials Damage Prognosis and Life Cycle Engineering
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25. Mixed-Mode Fracture
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26. Fracture Mechanics Characterization of Wood
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27. Influence of Microstructure on Fracture Properties of Wood
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28. Short Fatigue Crack Growth under Multi-axial Loading Conditions
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29. Reliability and Failure Analysis of Electronics and Mechanical Systems
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30. Integrity of gears
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31. Multiscaling in Molecular and Continuum Mechanics - Scaling in Time and Size from Macro to Nano
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32. Fracture in polymers and composites under high rate, impact or fatigue loading conditions
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33. Fracture and Failure of Natural Building Stones Applications in the Restoration of Ancient Monuments
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34. Cracks in Micro- and Nanoelectronics
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35. High Temperature and Thermomechanical Fatigue
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36. Impact Failure of Laminated and Sandwich Composite Structures
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37. Mesofracture and transferability
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38. Damage in Composites - Damage Development in Composite Materials & Structures - Models of Prediction
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39. Aging Aerostructures
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40. Residual Stress and its Effects on Fatigue and Fracture
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41. Computational Modeling of Multiphysics Degrading Systems (CMMDS)
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42. Scaling and Size Effects
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43. Interfacial Fracture in Composites and Electronic Packaging Materials
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44. Multiple cracking and delamination
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45. Experimental Techniques
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46. Fatigue and Fracture of Engineering Structures
Fracture
and Fatigue at the Micro and Nano scales
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Organized
by
H. D. Espinosa, Northwestern University, USA
Isaac Daniel, Northwestern University, USA
To be held at
The 16th European Conference of Fracture, Alexandroupolis,
Greece, July 3-7, 2006
|
The
purpose of this session is to foster the interaction and networking
of those working throughout universities, industries, and
government laboratories in the general area of micro and nano
systems, and to provide an opportunity for the exchange of
ideas in an interdisciplinary forum.
The
field of nano science and technology is a broad and interdisciplinary
area. Worldwide research and development activities have been
growing rapidly in the past few years, while an understanding
of the range and nature of functionalities that can be accessed
through nanostructuring is just beginning to unfold.
The
understanding and prevention of fracture and fatigue in micro
and nano engineering applications depends upon the integration
of knowledge in materials science, physics, chemistry and
mechanics. Our progress may fundamentally change the way in
which materials and devices will be produced in the future,
and revolutionize segments of the materials manufacturing
industry.
This
session will focus on fracture and fatigue at the nanoscale
within the larger scope of assessing research needs in a variety
of applications of interest.
Topics
of particular interest include, but are not limited to, the
following areas:
•
Fatigue and Fracture in MEMS/NEMS.
• Novel test techniques from nanometer to micrometer
length scales.
• Deformation and fracture of biomolecules
• Mechanisms of surface and thin film coarsening; self-organized
pattern formation in thin films, driven atomic motion.
• Adhesion, fracture and plasticity of thin films and
coatings.
• Modeling mechanical behavior of nanostructured materials;
defect structure and interface structure of nanocomposites.
• In-situ AFM/SEM/HRTEM experiments performed on thin
films and nano tubes.
• Collective dynamics of defects and interplay between
phase composition, phase transformations, and plasticity.
• Simulation methods for length scale linking; coupling
quantum to atomistic and atomistic to continuum simulations.
For
More Information, please contact:
ECF16@mail.mech.northwestern.edu
Preliminary
presentation titles should be submitted to Prof.
Horacio D. Espinosa no later than Oct. 15th.
Abstracts should be submitted to the above
e-mail no later than January 30th. |
Professor
Horacio D. Espinosa
Northwestern University
Department of Mechanical Engineering
2145 Sheridan Road
Evanston, IL 60208-3111
Fax: (847) 491-3540
|
Top
Risk
Based Life Time Management of Engineering Structures
Chair:
Laszlo
TOTH Prof., Bay Zoltan Institute for Logistics and Production
Systems, Miskolctapolca, Bay Zoltan Sqr. 1 H-3519
Phone: +36-46-560-110 or +36-30-9-322-690,
fax: +36-46-422-786,
e-mail: tlaszlo@alpha.bzlogi.hu
Co-Chair
(it will be agreed in a short period of time) :
Alexander JOVANOVIC, R-tech, Germany
e-mail: jovanovic@risk-technologies.com
The
basic words of the technical economical life are: Safety,
Reliability and Risk. General tendency of the activities in
the field of real economical life to find the more and more
cost effective solutions for the life cycle engineering which
includes the design, operation and recycling technologies.
The tools are involved into the mentioned periods of the product
life are developing very quickly that is why the risk of different
solutions can be estimated better and better. This situation
provide to implement the risk based approaches in different
field among them in the operating periods of the engineering
productions, structures. This process has been accelerated
in Europe by the results of different European projects financed
by the Framework Programs. The main results, applications
will be presented in this session including the refineries,
chemical plants, power plants.
Top
Nanoscale Deformation and Failure
Organized
by
Min
Zhou
Georgia Institute of Technology
School of Mechanical Engineering
School of Materials Science and Engineering
Atlanta, GA 30332-0405, U.S.A.
min.zhou@me.gatech.edu,
404-894-3294 (Tel),
404-894-0186 (Fax)
The
emergence of novel functional nanocomponents such as nanotubes,
nanobelts, nanodisks, nanowires, nanocoils, and nanocoatings
and nanostructured materials such as nanocrystals and nanocomposites
has excited active research at the nanoscale. Computational
analyses using atomistic and continuum approaches have been
increasingly used along with synthesis and experimental analyses.
One trend is the convergence of physics, mechanics and materials
science. This symposium is intended to bring together researchers
from the mechanics, physics, and materials communities with
a focus on offering a glimpse at some of the state-of-the-art
research on the mechanical and thermal behaviors of materials
at the nanoscale. Topics to be covered include:
• Atomistic & continuum
modeling of nanoscale deformation & failure
• Mechanical & thermal behaviors of nanocomponents
& nanostructured materials
• Experimental characterization of nanoscale deformation,
fracture & fatigue
• Nanoindentation
• Superelasticity & plasticity of nanowires, nanobelts,
& nanotubes
• Size effect at the nanoscale
• Deformation & failure of nanocomposites &
nanostructured materials
• Effects of synthesis & fabrication on nanoscale
behavior
Please send abstracts to Dr. Min Zhou through email
at min.zhou@me.gatech.edu
by March 31, 2005.
Top
Fracture
and Fatigue of Elastomers
Organizer:
Professor Claude Bathias and
Emin Bayraktar, Associate Professor
Conservatoire National des Arts et Métiers
ITMA, 2, rue Conte, Paris 75003, France
Tel, Fax : 33 140272322,
Email : bathias@cnam.fr
This
symposium is devoted to the mechanical behaviour of elastomers
including static fracture and fatigue damage of naturals and
synthetic rubbers. The aim of this event is supported by the
European industry of rubber, suppliers, consumers and technical
centres, in order to increase the reliability of components,
parts and tires, reliability which is more and more important
facing safety and durability versus the cost.
Since the development of this industrial sector is growing
fast, the number of European academic laboratories involved
in this field is certainly insufficient. According this situation,
the following topics of particular interest are opened for
presentation:
-Modelling of mechanicals behaviour
-Monotonic fracture
-Application of fracture mechanics
-Criteria of fracture
-Effect of crystallization on the strength
-Effect of environment
-Effect of hydrostatic pressure
-Initiation of fatigue cracks
-Bi axial fatigue
-Fracture analyse
-Non destructive testing
Abstracts and in formations should be submitted to
the above email: bathias@cnam.fr
Top
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