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Friction-based processes for hybrid multi-material joining

机译:混合多材料加入的摩擦工艺

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摘要

The adoption of multi-material lightweight structures has been recognized as one of the most effective and promising solutions to improve fuel efficiency and accelerate the electrification of future transportation systems. A wider application of multi-material lightweight structures has been limited by our capability to fabricate them reliably and cost-effectively at a commercial scale. In the last decade, many friction-based joining processes have been developed and demonstrated their advantages over mechanical fastening and adhesive bonding processes in fabricating future multi-material lightweight structures. This article provides a comprehensive review on the recent advances of five promising friction-based joining processes (friction assisted joining, friction lap welding, friction spot joining, friction riveting, and ultrasonic welding) on the aspects of facilities, joining process, joining mechanism, applicable materials, surface pretreatments, and the influence of process parameters on the performance of the produce joints. This article also provides a summary of the performance of the produced joints under static load, dynamic load, various thermal cycles, or harsh chemical environments. The main similarities and differences among the joining processes are discussed. The paper points out the main knowledge gaps that need to be filled and the research that needs to be conducted to further advance the joining process. This review article will place the friction-based joining process at a new starting point with accelerated developing speed towards higher technical maturity to make the processes available for certifiable industrial applications.
机译:采用多材料轻质结构已被认为是提高燃料效率最有效和最有希望的解决方案之一,并加快未来运输系统的电气化。更广泛地应用多材料轻质结构的限制,我们的能力以商业规模可靠且成本有效地制造它们。在过去的十年中,已经开发出许多基于摩擦的连接过程,并证明了它们在制造未来多材料轻质结构中的机械紧固和粘合剂粘合工艺的优势。本文对最近的五个基于摩擦的加入过程(摩擦辅助连接,摩擦圈焊接,摩擦点连接,摩擦铆接和超声波焊接)提供了全面的审查。适用的材料,表面预处理,以及工艺参数对生产关节性能的影响。本文还提供了静载荷,动态负荷,各种热循环或苛刻化学环境下产生的关节性能的摘要。讨论了加入过程中的主要相似之处和差异。本文指出需要填补的主要知识差距以及需要进行的研究,以进一步推进加入过程。本综述文章将在新的起点下,将基于摩擦的加入过程放入新的起点,以加速发展速度更高的技术成熟,以使该过程可用于可证明的工业应用。

著录项

  • 来源
    《Composite Structures》 |2021年第6期|113828.1-113828.18|共18页
  • 作者单位

    Dept. of Industrial and Information Engineering and Economics University of L’Aquila via G. Gronchi 18 Zona Industriale di Pile 67100 (AQ) Italy;

    Department of Sustainable Systems Engineering (INATECH) Walter-and-Ingeborg-Herrmann-Chair for Power Ultrasonics and Engineering of Functional Materials Faculty of Engineering University of Freiburg 79110 Freiburg Germany;

    Institute of Materials Research Materials Mechanics Department of Solid State Joining Processes Helmholtz-Zentrum Geesthacht Geesthacht Germany;

    Department of Naval Architecture and Marine Engineering University of Michigan Ann Arbor MI 48109 USA;

    Graz University of Technology—TU Graz Institute of Materials Science Joining and Forming BMK Endowed Professorship for Aviation Kopernikusgasse 24/1 8010 Graz Austria;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

    Dissimilar materials; Friction; Lightweighting; Multi-material-design; Welding;

    机译:不同的材料;摩擦;轻量化;多重材料设计;焊接;

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