Impact Resistance of Composite Materials under Biaxial Preloading

Christian Garnier; Toufik Djilali; Romain Brault; Sébastien Mistou

doi:10.4028/www.scientific.net/KEM.482.39

Paper Titles

An Analytical Method for Free Vibration Analysis of Composite Beams Subjected to Initial Thermal Stresses
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Polynomial Approach Modeling of Resonator Piezoelectric Disc
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Study of the Transmission of Ultrasonic Guided Wave at the Junction of Two Different Elastic Plates with the Presence of a Defect
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Identification of the Dynamic Coefficients of Hybrid Bearings
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Impact Resistance of Composite Materials under Biaxial Preloading
p.39

Characterization of Grains Size by Ultrasounds
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Identification of Materials Properties Using Displacement Field Measurement
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Physical and Mechanical Properties of the Reinforced Polyester: Characterization - Probabilistic Analysis
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Seismic Vulnerability Assessment Using the Instrumentation of an Existing Building
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HomeKey Engineering MaterialsKey Engineering Materials Vol. 482Impact Resistance of Composite Materials under...

Impact Resistance of Composite Materials under Biaxial Preloading

Abstract:

The first aim of this study is to analyze the impact behavior of pre-loaded composite. Indeed, a bi-axial load is applied to the composite specimen, in order to keep in touch with a real case of composite fuselage. Then, this pre-loaded specimen is impacted by a pendulum. The used energy and velocity are weak in order to be in the case of low-energy and low-velocity impact. The second aim of this study is to develop and design a pendulum device to be integrated to the bi-axial fatigue loading. Moreover, two Non Destructive Inspections (Sonoscan and InfraRed Thermography) is used in order to establish links between pre-load and induced impact damage.

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Periodical:

Key Engineering Materials (Volume 482)

Pages:

39-48

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.482.39

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Online since:

June 2011

Authors:

Christian Garnier, Toufik Djilali, Romain Brault, Sébastien Mistou

Keywords:

Bi-Axial Preloading, Composite, Infrared Thermography (IRT), Low Velocity Impact (LVI), Sonoscan

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