Exploring Adhesive Performance in Horseshoe Bonding Through Advanced Mechanical and Numerical Analysis.

IF 3.9 3区 医学 Q1 ENGINEERING, MULTIDISCIPLINARY Biomimetics Pub Date : 2024-12-24 DOI:10.3390/biomimetics10010002
C M C Ferreira, B D Simões, E A S Marques, R J C Carbas, L F M da Silva
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Abstract

Despite technological advancements in various industries, the equine sector still relies on old methods like horseshoeing. Although traditional, the industry is dynamic and well-funded. Therefore, there is a need to modernize these methods with more reliable and less invasive solutions for attaching horseshoes to horse hooves. There are currently several commercial adhesive solutions in the market specifically tailored to this application. In this work, the mechanical properties of two acrylic adhesives were characterized under quasi-static conditions. In the characterization process, tensile, shear, and fracture properties were determined. Subsequently, in-joint behavior was assessed using single-lap joints (SLJ) for both similar and dissimilar adherends. The adherends' materials included steel (St), aluminum (Al), and horse hoof wall (HW), and the following adherend combinations were tested: St-St, Al-Al, and St-HW. A numerical model of similar joints was developed and validated based on experimental results. After its validation, the next steps are the modelling of the real joint and its simulation by considering realistic loading conditions in order to determine the weakest points of the joint. This exploratory study seeks to establish a foundation for investigating alternative adhesive solutions that could address the limitations identified in the solutions studied in this paper.

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通过先进的力学和数值分析探索马蹄铁粘合的粘合性能。
尽管各个行业的技术都在进步,但马业仍然依赖于像马蹄铁这样的老方法。虽然传统,但这个行业充满活力,资金充足。因此,有必要对这些方法进行现代化改造,采用更可靠、侵入性更小的方法将马蹄铁固定在马蹄上。目前市场上有几种专门为这种应用量身定制的商用粘合剂解决方案。在准静态条件下,对两种丙烯酸胶粘剂的力学性能进行了表征。在表征过程中,测定了拉伸、剪切和断裂性能。随后,使用单搭关节(SLJ)评估相似和不同粘附物的关节内行为。粘附体材料包括钢(St)、铝(Al)和马蹄壁(HW),测试了以下粘附体组合:St-St、Al-Al和St-HW。建立了相似节理的数值模型,并在实验基础上进行了验证。在验证后,下一步是对真实关节进行建模,并考虑实际载荷条件进行仿真,以确定关节的最薄弱点。这项探索性研究旨在为研究替代粘合剂解决方案奠定基础,这些解决方案可以解决本文研究的解决方案中确定的局限性。
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来源期刊
Biomimetics
Biomimetics Biochemistry, Genetics and Molecular Biology-Biotechnology
CiteScore
3.50
自引率
11.10%
发文量
189
审稿时长
11 weeks
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