| 英文摘要 |
Honeycomb structures, renowned for their remarkable combination of strength, lightweight nature, and efficient space utiliza¬tion, are found ubiquitously in both natural and engineered settings. With origins in biological systems—most notably within bee hives and plant tissues—these hexagonal cell configurations have captivated the attention of scientists and engineers alike due to their inherent stability and multifaceted potential applications. This study provides an in-depth exploration of honeycomb struc¬tures, examining their historical evolution, intricate geometry, and unique mechanical properties that contribute to their robustness and adaptability. Beyond structural applications, natural honeycomb exhibits exceptional adsorption capabilities, positioning it as a promising adsorbent for environmental and industrial applications. This paper investigates the physical and chemical attributes of honeycomb that enhance its effectiveness in adsorbing diverse pollutants, including heavy metals, organic compounds, and airborne contaminants. Experimental analyses are presented to evaluate its adsorption efficiency across various substances, elucidating key factors such as surface area, pore distribution, and chemical functional groups that contribute to its high adsorption performance. The findings underscore the versatility of honeycomb structures as sustainable and efficient adsorbents, highlighting their potential across diverse fields such as environmental remediation, biomedical engineering, and advanced material design. By expanding our understanding of honeycomb’s adsorption mechanisms and exploring potential technological applications, this study contributes valuable insights into harnessing natural architectures for innovative scientific and industrial solutions. |
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