Luca Rettenberger, Nils Beyer, Ingo Sieber, Markus Reischl
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引用次数: 0
摘要
熔融长丝制造是一种流行的三维打印工艺,使用多层可熔塑料长丝来制造工件。然而,高人工维护需求限制了它的潜力。鉴于打印部件中缺陷的常见发生率,在打印过程中检测这些错误的自动化解决方案对每个从业者都大有裨益。目前的研究主要集中在监控和优化制造工艺和印刷参数,或使用额外的传感器直接观察印刷过程并识别错误。然而,目前还没有一套成熟的程序,可以使用最少的附加传感器来实时评估印刷质量。我们提出的基于计算机视觉的深度学习系统克服了以往的局限性,只需使用一个摄像头就能检测 3D 打印中的错误并实时评估打印部件的质量。我们记录并提供了一个多类图像数据集,其中包括不同的打印几何形状、错误类别和打印条件变化。我们的广泛评估表明,考虑各种几何形状和印刷条件对于检测印刷错误至关重要。我们提出的基于计算机视觉的深度学习系统通过自动检测错误来增强三维打印功能,使从业人员能够提高效率并打印出高质量的工件。
Fused filament fabrication is a popular 3D printing process where layers of fusible plastic filament are used to build a workpiece. However, the high manual maintenance needs limit its potential. Given the common incidence of defects in the printed components, automated solutions detecting these errors while printing are of great benefit to every practitioner. Current research primarily focuses on monitoring and optimizing manufacturing processes and printing parameters or using additional sensors to directly observe the printing process and identify errors. However, there is no established procedure for assessing print quality in real time with minimal additional sensors. Our proposed computer vision-based deep-learning system overcomes previous limitations by detecting errors in 3D printing and assessing the quality of printed parts in real time using only a single camera. We record and provide a multi-class image dataset that encompasses different printed geometries, error classes, and printing condition variations. Our extensive evaluation shows that considering various geometries and printing conditions is vital for detecting printing errors. Our proposed computer vision-based deep-learning system enhances 3D printing by automating error detection, enabling practitioners to increase efficiency and print high-quality workpieces.