基于实验的反演识别方法与粘接界面力学性能研究
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摘要
粘接结构广泛应用于工业领域,为进一步满足工程应用中对材料力学特性的分析与评价,需要针对实际粘接结构对其界面力学特性进行表征与预估。现代实验力学的发展,可以为界面力学特性表征实验提供丰富的全场信息,但是难以实现粘接界面参量的直接测量。同时,界面力学模型的发展为粘接界面力学分析提供了理论基础。因此,将实验与力学模型有机结合起来,基于实验测试信息,发展一种新的求解技术,使其能够用于非线性、多参量复杂问题的表征与求解。本文以基于实验的一体化反演识别方法与考虑时间相关效应的粘接界面力学性能表征为主要研究内容。
本文提出了一种新的基于实验的一体化反演识别技术框架,以实验测试数据为依据,将力学建模以及反演识别技术路线有机结合起来,搭建了从实验数据空间到模型分析的桥梁,实现粘接结构界面力学特性参数的识别与提取。特别是提出一种独立实验验证方法,通过比较独立实验测试结果与基于识别参数的数值模拟结果的一致性,对识别方法解的准确性进行有效地评价。
本文将这种基于实验的反演识别一体化的技术框架应用于真实金属粘接界面以及软材料粘接界面时间相关的界面力学性能分析中。首先,针对粘接结构中粘接界面具有时间相关的特性,在Needleman内聚力模型的基础上,提出一种新的考虑时间效应的粘接界面力学模型。这一模型通过强度、刚度和粘性系数实现了对复杂粘接结构界面作用区域的参数化表征。基于连续全场实验测试的力学响应数据,结合考虑时间效应的粘接界面理论模型进行有限元数值模拟分析,借助于识别方法,实现了单向拉伸和剪切载荷作用下对粘接件界面相关力学参数的反演识别,有效地解决了粘接结构中对界面力学特性难以实现直接实验测量的困难。最后,通过拉、剪不同加载方式作用下,软硬不同粘接结构界面力学性能结果的综合分析,证明了本文提出的新的粘接界面模型和基于实验的反演识别方法可以有效地表征工程应用中的真实粘接结构。
Adhesive structures have been widely used for technological applications. In order to analyze and estimate the mechanical properties of real adhesive structures, it is necessary to characterize and predict the interfacial mechanical properties. With the development of modern experimental mechanics, the full-field measuring information can be obtained during the interfacial mechanical experiments. However, it is difficult in determining the adhesive interfacial parameters directly from the experimental results. At the same time, based on the development of interfacial mechanical model, theory of the adhesive interfacial mechanical analysis can be provided. Consequently, a new solving technique is developed based on the results of experimental measurement, which can effectively characterize and solve nonlinear, multi-parameter problems, through combining the experimental measurement and numerical simulation. The focus of this paper is to study on the experiment-based inverse/identification method and time-dependent adhesive interfacial mechanical characterization.
Based on the experimental measurement data, a novel experiment-based inverse/identification technique is presented. Combining the mechanical model and inverse/identification technique, the bridge between the data space with the model analysis is constructed for identifying the complex interfacial mechanical parameters. Finally, independent experimental verification is performed and the accuracy of the identification results can be effectively provided by comparing the independent experimental results with the numerical simulation based on the identification parameters.
In this paper, the experiment-based inverse/identification technique is applied to the study of time-dependent interfacial mechanical properties in metal adhesive structure and soft material adhesive structure. First, to describe the time-dependent interfacial mechanical properties in adhesive structure, a novel time-dependent adhesive interfacial mechanical model is provided based on the Needleman cohesive zone model. In this model, the complex adhesive interfacial properties can be characterized as three interfacial parameters, such as cohesive strength, cohesive stiffness and vicious coefficient. Meanwhile, based on the real-time full-field experimental results, combing the numerical simulation results on the basis of the time-dependent adhesive interfacial model and identification technique, the interfacial mechanical parameters under the normal tension and shear loading can be identified. As a result, it is easy to overcome the difficulty of measuring the interfacial mechanical properties in adhesive structure experiment directly. Finally, from the general results of interfacial mechanical properties in soft and mental adhesive structures under tension and shear loading respectively, it is verified that the novel adhesive interfacial model proposed in this paper and the experiment-based inverse/identification are effective to characterize the mechanical properties of the real adhesive structures in technological application.
本文提出了一种新的基于实验的一体化反演识别技术框架,以实验测试数据为依据,将力学建模以及反演识别技术路线有机结合起来,搭建了从实验数据空间到模型分析的桥梁,实现粘接结构界面力学特性参数的识别与提取。特别是提出一种独立实验验证方法,通过比较独立实验测试结果与基于识别参数的数值模拟结果的一致性,对识别方法解的准确性进行有效地评价。
本文将这种基于实验的反演识别一体化的技术框架应用于真实金属粘接界面以及软材料粘接界面时间相关的界面力学性能分析中。首先,针对粘接结构中粘接界面具有时间相关的特性,在Needleman内聚力模型的基础上,提出一种新的考虑时间效应的粘接界面力学模型。这一模型通过强度、刚度和粘性系数实现了对复杂粘接结构界面作用区域的参数化表征。基于连续全场实验测试的力学响应数据,结合考虑时间效应的粘接界面理论模型进行有限元数值模拟分析,借助于识别方法,实现了单向拉伸和剪切载荷作用下对粘接件界面相关力学参数的反演识别,有效地解决了粘接结构中对界面力学特性难以实现直接实验测量的困难。最后,通过拉、剪不同加载方式作用下,软硬不同粘接结构界面力学性能结果的综合分析,证明了本文提出的新的粘接界面模型和基于实验的反演识别方法可以有效地表征工程应用中的真实粘接结构。
Adhesive structures have been widely used for technological applications. In order to analyze and estimate the mechanical properties of real adhesive structures, it is necessary to characterize and predict the interfacial mechanical properties. With the development of modern experimental mechanics, the full-field measuring information can be obtained during the interfacial mechanical experiments. However, it is difficult in determining the adhesive interfacial parameters directly from the experimental results. At the same time, based on the development of interfacial mechanical model, theory of the adhesive interfacial mechanical analysis can be provided. Consequently, a new solving technique is developed based on the results of experimental measurement, which can effectively characterize and solve nonlinear, multi-parameter problems, through combining the experimental measurement and numerical simulation. The focus of this paper is to study on the experiment-based inverse/identification method and time-dependent adhesive interfacial mechanical characterization.
Based on the experimental measurement data, a novel experiment-based inverse/identification technique is presented. Combining the mechanical model and inverse/identification technique, the bridge between the data space with the model analysis is constructed for identifying the complex interfacial mechanical parameters. Finally, independent experimental verification is performed and the accuracy of the identification results can be effectively provided by comparing the independent experimental results with the numerical simulation based on the identification parameters.
In this paper, the experiment-based inverse/identification technique is applied to the study of time-dependent interfacial mechanical properties in metal adhesive structure and soft material adhesive structure. First, to describe the time-dependent interfacial mechanical properties in adhesive structure, a novel time-dependent adhesive interfacial mechanical model is provided based on the Needleman cohesive zone model. In this model, the complex adhesive interfacial properties can be characterized as three interfacial parameters, such as cohesive strength, cohesive stiffness and vicious coefficient. Meanwhile, based on the real-time full-field experimental results, combing the numerical simulation results on the basis of the time-dependent adhesive interfacial model and identification technique, the interfacial mechanical parameters under the normal tension and shear loading can be identified. As a result, it is easy to overcome the difficulty of measuring the interfacial mechanical properties in adhesive structure experiment directly. Finally, from the general results of interfacial mechanical properties in soft and mental adhesive structures under tension and shear loading respectively, it is verified that the novel adhesive interfacial model proposed in this paper and the experiment-based inverse/identification are effective to characterize the mechanical properties of the real adhesive structures in technological application.
引文
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