Ecosystems with high biodiversity may be rich sources of bioinspired technologies–from nanostructure and the microstructure of animal and plant tissues right up to the “design” and functional biology of the whole organism. Our research also aims to explore fundamental questions concerning functional biology and biomechanics in a range of projects focusing on the ecology and evolution of plants. Our main objectives are to (1) develop and adapt new methods of analyzing the biophysical properties of plants; (2) characterize the traits and characteristics necessary for biomechanical modeling; (3) develop strategies for the transfer from biological to technological applications through industrial partnerships.
First, to develop new approaches for the study of plant functional traits, particularly in terms of biomechanical properties, for a better understanding of cause and effect interactions between the environment and the development of the whole plant. Second, to integrate and transfer knowledge of functional biology and biomechanics to biomimetics where knowledge of living organisms can be transferred to technical applications.
Plant biomechanics was recently identified as a promising new approach for the development of biomimetics research in France. The key steps we are developing include: (1) discovering and advancing knowledge of potential biological model systems; (2) developing collaborative networks for plant biomimetics and biomechanics in France; (3) establishing national and international industrial partnerships.
Our biomechanics research is carried out using a specialized technical platform specifically catering for biophysics, histology, morphometrics and image analysis. The equipment we use to measure the biophysical properties of plants is suitable for use both in the laboratory and in the field. Our main focus is on the biodiversity of plant growth forms, their ecology and evolution, particularly climbing plants of the tropical rainforest.
Possible bioinspired applications based on the biomechanics of climbing plants include: (a) attachment systems based on hooks, tendrils and adaptive carrabiner-like structures found in climbing plants; (b) tubes, pipes and cable systems and applications based on climbing plant stems that are highly flexible and highly resistant to catastrophic mechanical failure. These two broad examples are only a small sample of the wide range of properties and structures potentially available in diverse tropical plants.
Structures et mécanismes d'ancrage comme source de technologies biomimétiques chez les plantes grimpantes de forêt tropicale humide (a) micro-crochets de "l'herbe rasoir" Scleria secans (Cyperaceae) (b) tige volubile avec micro-crochets de Byttneria cordifolia (Malvaceae) (c) macro-crochets de Mimosa sp. (Mimosaceae) (d) crochets renforcés en silice chez Davilla rugosa (Dilleniaceae) (e) courbe de force de déplacement et propriétés d'anisotropies de Byttneria cordifolia (rouge -contre les crochets, bleu- dans la direction des crochets).
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