Scholarlink

<p>Honeycomb structures exhibit considerable resistance to compressive forces due to their geometric configuration. The existence of hollow cells leads to structural deficiency, specifically, failure under localized compressive stresses, causing the structure to be unable to endure substantial compressive forces. A solution to this problem is to fill the empty cells with reinforcing materials. This research involved initially filling the cells with epoxy resin and then evaluating the structure by numerical and experimental methods. This structure can withstand approximately 280 kilonewtons of stress and absorb 700&#xa0;J of energy before its initial failure. The data obtained from the experimental test have been confirmed using numerical analysis. The significance of the findings was further illustrated by evaluating the structure by finite element methods over various cell configurations, with results compared across them. In the next phase of the investigation, to further expand the field of research, the cells were filled with epoxy resin-containing clay nanoparticles, and the structure was analyzed using experimental approaches.</p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

The effect of epoxy and nanomaterial filling on honeycomb core strength: experimental and numerical studies

  • 期刊论文

  • 发表日期：

    2025年5月26日

查看全文
  • Mohammad Reza Khoshravan Azar,
  • Amir Javadzadeh Khoei,
  • Ramin Hadizadeh,
  • Sakineh Fotouhi

摘要

Honeycomb structures exhibit considerable resistance to compressive forces due to their geometric configuration. The existence of hollow cells leads to structural deficiency, specifically, failure under localized compressive stresses, causing the structure to be unable to endure substantial compressive forces. A solution to this problem is to fill the empty cells with reinforcing materials. This research involved initially filling the cells with epoxy resin and then evaluating the structure by numerical and experimental methods. This structure can withstand approximately 280 kilonewtons of stress and absorb 700 J of energy before its initial failure. The data obtained from the experimental test have been confirmed using numerical analysis. The significance of the findings was further illustrated by evaluating the structure by finite element methods over various cell configurations, with results compared across them. In the next phase of the investigation, to further expand the field of research, the cells were filled with epoxy resin-containing clay nanoparticles, and the structure was analyzed using experimental approaches.