Overview of the research work of Prof. Koyanagi and the composite materials laboratory

Impact Pub Date : 2024-01-22 DOI:10.21820/23987073.2024.1.43
Jun Koyanagi
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Abstract

Materials at the quantum scale are highly unpredictable, making it impossible to predict certain measurements. There are also limitations to numerical simulations and modelling techniques for understanding advanced materials at the molecular scale. Professor Jun Koyanagi, Koyanagi Laboratory, Tokyo University of Science, Japan, is working to establish a quantitative link that connects the nanoscale simulations to the metre scale. This involves developing methods and techniques that accurately relate the behaviour observed at the molecular level to the macroscopic properties of the material. In order to do this, a comprehensive understanding of the underlying physics and mechanics at each scale is required. Koyanagiâ–™s team is hoping to apply multiscale numerical simulations that will help to ensure the long-term reliability of a range of advanced materials. A key focus of the research is carbon fibre reinforced plastic (CFRP) and Koyanagi wants to pave the way for the widespread use of CFRP in aerovehicles in the near future. The team will conduct multiscale numerical simulations and advanced material development to ensure the reliability and long-term durability of CFRP. This will allow them to confidently incorporate CFRP into the construction of aerovehicles and these will be more sustainable and environmentally friendly as the lightweight nature of CFRP will significantly contribute to enhancing fuel efficiency and reducing emissions. The researchers are using analytical and experimental methods to evaluate the thermal and mechanical properties of composite materials.
小柳教授和复合材料实验室的研究工作概述
量子尺度的材料具有高度不可预测性,因此无法预测某些测量结果。在分子尺度上理解先进材料的数值模拟和建模技术也受到限制。日本东京理科大学小柳实验室的 Jun Koyanagi 教授正在努力建立一种定量联系,将纳米尺度的模拟与米尺度的模拟联系起来。这涉及到开发能将分子层面观察到的行为与材料的宏观特性准确联系起来的方法和技术。为此,需要全面了解每个尺度的基本物理和力学。Koyanagiâ-™ 团队希望应用多尺度数值模拟,帮助确保一系列先进材料的长期可靠性。研究的一个重点是碳纤维增强塑料(CFRP),Koyanagi 希望在不久的将来为碳纤维增强塑料在航空器中的广泛应用铺平道路。研究小组将进行多尺度数值模拟和先进材料开发,以确保 CFRP 的可靠性和长期耐用性。这将使他们有信心将 CFRP 应用于航空飞行器的制造,由于 CFRP 的轻质特性将大大有助于提高燃油效率和减少排放,因此这些飞行器将更具可持续性和环保性。研究人员正在使用分析和实验方法评估复合材料的热性能和机械性能。
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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