Hehr Adam, Norfolk Mark, Wenning Justin, Sheridan John, Leser Paul, Leser Patrick, Newman John A
Fabrisonic LLC, Columbus, Ohio 43221, USA.
Sheridan Solutions LLC, Saline, MI 48176, USA.
JOM (1989). 2017;70(3):315-320. doi: 10.1007/s11837-017-2709-8. Epub 2017 Dec 21.
Ultrasonic Additive Manufacturing (UAM), a rather new three-dimensional (3D) printing technology, uses ultrasonic energy to produce metallurgical bonds between layers of metal foils near room temperature. This low temperature attribute of the process enables integration of temperature sensitive components, such as fiber optic strain sensors, directly into metal structures. This may be an enabling technology for Digital Twin applications, i.e., virtual model interaction and feedback with live load data. This study evaluates the consolidation quality, interface robustness, and load sensing limits of commercially available fiber optic strain sensors embedded into aluminum alloy (AA) 6061. Lastly, an outlook on the technology and its applications is described.
超声增材制造(UAM)是一种相当新的三维(3D)打印技术,它利用超声能量在接近室温的条件下在金属箔层之间产生冶金结合。该工艺的这种低温特性能够将诸如光纤应变传感器等对温度敏感的组件直接集成到金属结构中。这对于数字孪生应用(即虚拟模型与实时载荷数据的交互和反馈)而言可能是一种使能技术。本研究评估了嵌入铝合金(AA)6061中的商用光纤应变传感器的固结质量、界面强度和载荷传感极限。最后,对该技术及其应用进行了展望。