A Survey of Process Monitoring Using Computer-Aided Inspection in Laser-Welded Blanks of Light Metals Based on the Digital Twins Concept

IF 1.3 Q3 INSTRUMENTS & INSTRUMENTATION
A. Aminzadeh, Sasan Sattarpanah Karganroudi, M. S. Meiabadi, Dhanesh G. Mohan, Kadiata Ba
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引用次数: 8

Abstract

The benefits of laser welding include higher production values, deeper penetration, higher welding speeds, adaptability, and higher power density. These characteristics make laser welding a superior process. Many industries are aware of the benefits of switching to lasers. For example, metal-joining is migrating to modern industrial laser technology due to improved yields, design flexibility, and energy efficiency. However, for an industrial process to be optimized for intelligent manufacturing in the era of Industry 4.0, it must be captured online using high-quality data. Laser welding of aluminum alloys presents a daunting challenge, mainly because aluminum is a less reliable material for welding than other commercial metals such as steel, primarily because of its physical properties: high thermal conductivity, high reflectivity, and low viscosity. The welding plates were fixed by a special welding fixture, to validate alignments and improve measurement accuracy, and a Computer-Aided Inspection (CAI) using 3D scanning was adopted. Certain literature has suggested real-time monitoring of intelligent techniques as a solution to the critical problems associated with aluminum laser welding. Real-time monitoring technologies are essential to improving welding efficiency and guaranteeing product quality. This paper critically reviews the research findings and advances for real-time monitoring of laser welding during the last 10 years. In the present work, a specific methodology originating from process monitoring using Computer-Aided Inspection in laser-welded blanks is reviewed as a candidate technology for a digital twin. Moreover, a novel digital model based on CAI and cloud manufacturing is proposed.
基于数字孪生概念的轻金属激光焊坯计算机辅助检测过程监控研究
激光焊接的优点包括更高的生产价值、更深的熔透、更高的焊接速度、适应性和更高的功率密度。这些特点使激光焊接成为一种优越的工艺。许多行业都意识到转向激光的好处。例如,由于产量、设计灵活性和能源效率的提高,金属连接正在向现代工业激光技术迁移。然而,为了在工业4.0时代为智能制造优化工业流程,必须使用高质量数据在线捕获。铝合金的激光焊接是一项艰巨的挑战,主要是因为铝是一种不太可靠的焊接材料,而不是其他商业金属,如钢,主要是因为它的物理特性:高导热性,高反射率和低粘度。焊接板采用专用的焊接夹具进行固定,以验证对中效果,提高测量精度,并采用三维扫描的计算机辅助检测(CAI)。某些文献建议实时监控智能技术作为解决与铝激光焊接相关的关键问题的方法。实时监控技术是提高焊接效率、保证产品质量的关键。本文综述了近10年来激光焊接实时监测的研究成果和进展。在目前的工作中,一种特定的方法起源于使用计算机辅助检测激光焊接毛坯的过程监控,作为数字孪生的候选技术进行了审查。提出了一种基于CAI和云制造的新型数字化模型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
2.80
自引率
28.60%
发文量
27
审稿时长
11 weeks
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