Experimental investigation on the surface and volume homogeneity of additive manufactured fused silica components in the Laser Glass Deposition process

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Abstract

Laser Glass Deposition is an additive manufacturing method to produce individualized structural components out of glass. A CO2 laser is utilized as a heat source to melt fused silica filaments and transform them into a formable viscous state. The fiber filament is fed laterally under a defined angle into the process zone. The viscous filament is deposited layer-by-layer using a 3-axis linear system with an integrated rotational axis. To investigate the surface and volume quality of the additively manufactured fused silica components, fully dense test specimens are analyzed in this paper. Quality characteristics such as surface roughness, formation of boundary layers and optical transparency constitute the focus of the investigations. Consequently, fully dense glass components with homogeneous volume structures without pores and boundary layers and a surface roughness of less than 30 nm were printed successfully.

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激光玻璃沉积工艺中添加剂制造的熔融石英部件的表面和体积均匀性实验研究
激光玻璃沉积是一种用玻璃生产个性化结构部件的快速成型制造方法。利用二氧化碳激光器作为热源,熔化熔融石英长丝并将其转化为可成型的粘性状态。纤维丝以规定的角度横向送入加工区。粘性长丝通过一个带有集成旋转轴的三轴线性系统逐层沉积。为了研究快速成型熔融石英部件的表面和体积质量,本文分析了完全致密的试样。表面粗糙度、边界层的形成和光学透明度等质量特性是研究的重点。结果,成功印制出了体积结构均匀、无气孔和边界层、表面粗糙度小于 30 纳米的全致密玻璃组件。
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Editorial Preface Editorial Editorial Off-axis monitoring of the melt pool spatial information in Laser Metal Deposition process
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