Intelligent functionally graded material: Bamboo

Fumio Nogata, Hideaki Takahashi
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引用次数: 198

Abstract

Since the shape and ingenious construction of biological hard tissues are the result of a continuous process of optimization, their basic characteristics such as microstructures, functions, and modelling systems fascinate the designers of engineering structures. Through the study of functionally graded materials, we hope to develop new superior material/structure concepts by using or modifying the construction of living organisms. The ingenious construction of bamboo was studied herein to help in the understanding of the principles and the design processes found in biological materials which are multi-phased and functionally graded composites. It was found that the ability of a bamboo cell to generate electrical signals when stressed was an apparently similar function to that of the piezoelectric effect in bone which is stressed. It is also suggested in this paper that the electrical properties play an important role in the modelling/remodelling of the skeletal system in biological hard tissues. It is concluded that a bamboo structure is designed to have uniform strength at all positions in both the radial direction on the transverse section and the lengthwise direction, and that bamboo is a self-optimizing graded structure constructed with a cell-based sensing system for external mechanical stimuli.

智能功能分级材料:竹材
由于生物硬组织的形状和巧妙构造是一个持续优化过程的结果,它们的基本特征,如微观结构、功能和建模系统,吸引着工程结构设计师。通过对功能梯度材料的研究,我们希望通过使用或修改生物体的结构来开发新的优越材料/结构概念。本文研究了竹子的巧妙构造,以帮助理解生物材料的原理和设计过程,这些材料是多相和功能梯度复合材料。研究发现,竹子细胞在受到压力时产生电信号的能力与骨骼受到压力时产生压电效应的功能明显相似。本文还指出,电学性质在生物硬组织中骨骼系统的建模/重构中起着重要作用。结果表明,竹材结构在横断面径向和纵向各部位强度均匀,是一种具有细胞感知系统的自优化梯度结构,对外界机械刺激具有感知能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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