Investigation of the Interfacial Adhesion Strength of Parts Additively Manufactured on Fabrics

Maxwell Blais, Scott M Tomlinson, Bashir Khoda
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Abstract

This research first presents a method of peel testing developed by the researchers to characterize the strength of the interface between fabric and additively manufactured material. Experimentation is next presented that characterizes the interfacial strength relative to a set of parameters which include fabric fiber morphology, thickness of sizing applied to fabric, 3D printer bed temperature, and angle of additive manufacturing relative to the fabric warp direction. The interface strength within the parameter space presented was then searched and found to have a maximum of 5.18 N/mm using a novel set of parameters. This interface strength indicates the method of additive manufacturing direction on fabric may be suitable for use in a broader range of applications than previously proven feasible. Relatively rough, thick, and loose weave fabrics were found to promote interface strength compared to smoother, thinner, and finer woven fabrics. Relatively higher bed temperatures also promoted higher interface strength. Sizings on the fabric were found to promote interface strength with relatively smooth, thin, or fine fabrics which do not themselves promote high mechanical interlocking. Using these research findings, interface strength between fabric and additively manufactured material can be modified to suit the application.
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织物增材制造零件界面粘接强度的研究
这项研究首先提出了一种由研究人员开发的剥离测试方法,用于表征织物和增材制造材料之间界面的强度。接下来的实验描述了界面强度与一系列参数的关系,这些参数包括织物纤维形态、织物上浆厚度、3D打印机床层温度和增材制造角度与织物经纱方向的关系。然后,在给出的参数空间内搜索界面强度,并使用一组新的参数发现界面强度最大值为5.18 N/mm。这种界面强度表明,在织物上进行增材制造方向的方法可能适用于比以前证明可行的更广泛的应用。与更光滑、更薄、更精细的织物相比,相对粗糙、厚实和松散的织物可以提高界面强度。相对较高的床层温度也促进了界面强度的提高。织物上的浆料可以提高与相对光滑、薄或细的织物的界面强度,而这些织物本身并不会促进高机械联锁。利用这些研究成果,可以对织物与增材制造材料之间的界面强度进行改性,以适应应用。
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