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Experimental full field analysis for dynamic fracture of elastomer membranes

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Abstract

Crack speed prediction in elastomer membranes under large strain (more than 150%) remains a delicate question which necessitates coupled experimental-theoretical investigations. In order to compare experimental results with theoretical approaches but also to improve the understanding of dynamic crack propagation in soft materials, a crucial step is the measurement and analysis of kinematic and energetic fields in the material configuration during dynamic fracture. In this way, the proposed set-up consists in a two-camera set-up in order to perform digital image correlation during both quasi-static loading and dynamic fracture of the sample. The variety of kinematic and energetic fields that can be computed is illustrated. Finally, two studies highlighting the promises of full-field measurements in large strain fracture mechanics are presented: the computation of the dynamic J-integral and the observation of mechanical waves during high speed crack growth in elastomer membranes.

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Authors and Affiliations

  1. Institut de Recherche en Génie Civil et Mécanique, UMR CNRS 6183, École Centrale de Nantes, France

    T. Corre, M. Coret & E. Verron

  2. Naval Group Research, Technocampus Ocean, rue de l’Halbranne, 44340, Bouguenais, France

    T. Corre, B. Leblé & F. Le Lay

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  1. T. Corre
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  2. M. Coret
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  3. E. Verron
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  4. B. Leblé
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  5. F. Le Lay
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Corre, T., Coret, M., Verron, E. et al. Experimental full field analysis for dynamic fracture of elastomer membranes. Int J Fract 224, 83–100 (2020). https://doi.org/10.1007/s10704-020-00447-1

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