Comparative modal analysis on fishing rod made of functionally graded composite material using finite element analysis

S. Asiri
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Abstract

The use of smart and advanced composite materials instead of conventional metals is foreseen in material sciences due to the development of novel manufacturing techniques. In this regard, a novel type of composite materials “functionally graded materials (FGM)” has attained great attention owing to their intrinsic mechanical characteristics. FGM have been the focus for researchers for analytical formulation, static structural (large deformation, material nonlinearity) analysis as well as for dynamic analysis on simple beams and on structure having non-uniform tapered rectangular profile considering different boundary conditions. No focus is made to thin structure having non-uniform circular cross-sections. This study aims to deal with analyzing the “dynamic behavior of thin circular non-uniform truncated conical section” which is mostly used for manufacturing of fishing rod. This works primarily compares the static, modal, and harmonic analysis under the application of loads of 50 N acting on fishing rod made up of conventional steel, composite (carbon fiber) steel, and functionally graded material (FGM) with the help of ANSYS®. Firstly, static analysis performed to analyze the structural behavior under the application of static loadings. After that modal analysis performed and first five modes selected for Steel; from 0 to 600 Hz, for Carbon Fiber; from 0 to 850 Hz and for FGM; from 0 to 900 Hz for harmonic analysis. Maximum defection at resonance for steel is 7.94 mm, for composite is 74.4 mm, and for FGM is just 0.032 mm. The comparison of these results clearly depicts that FGM is having excellent vibration suppression performance as compared to other two materials under consideration. This confirms that thin structure (non-uniform circular profile) made of FGM can be used efficiently for the intended applications in future.
用有限元方法对功能梯度复合材料鱼竿进行模态比较分析
由于新型制造技术的发展,材料科学预计将使用智能和先进的复合材料来代替传统金属。在这方面,一种新型的复合材料“功能梯度材料(FGM)”由于其固有的力学特性而受到了极大的关注。FGM一直是研究人员在分析公式、静态结构(大变形、材料非线性)分析以及在考虑不同边界条件的情况下对简支梁和具有非均匀锥形矩形轮廓的结构进行动态分析方面的重点。没有关注具有非均匀圆形横截面的薄结构。本研究旨在分析主要用于制造鱼竿的“薄圆形非均匀截锥截面的动力学行为”。本工作主要比较了50荷载作用下的静态、模态和谐波分析 在ANSYS®的帮助下,N作用在由传统钢、复合(碳纤维)钢和功能梯度材料(FGM)组成的鱼竿上。首先,进行了静力分析,分析了在静载荷作用下的结构性能。之后进行了模态分析,并为钢选择了前五种模态;从0到600 Hz,用于碳纤维;从0到850 Hz和FGM;从0到900 Hz用于谐波分析。钢材共振时的最大缺陷为7.94 mm,复合材料为74.4 mm,而FGM仅为0.032 这些结果的比较清楚地表明,与所考虑的其他两种材料相比,FGM具有优异的振动抑制性能。这证实了由FGM制成的薄结构(非均匀圆形轮廓)可以有效地用于未来的预期应用。
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来源期刊
Journal of Applied Biomaterials & Biomechanics
Journal of Applied Biomaterials & Biomechanics 生物-材料科学:生物材料
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