Design-manufacturing-evaluation integration of microwave absorbing metastructures based on additive manufacturing

被引:11
|
作者
Lei, Han [1 ]
Shan, Mengtong [1 ]
Zhang, Yuhui [1 ]
Zhao, Pengzhen [1 ]
Yu, Chen [1 ]
Huang, Yixing [1 ]
机构
[1] Beijing Inst Technol, Inst Adv Struct Technol, Beijing Key Lab Lightweight Multifunct Composite M, Beijing 100081, Peoples R China
基金
中国国家自然科学基金;
关键词
Additive manufacturing; Design-manufacturing-evaluation integration; Broadband microwave absorption; Electric-loss metastructure;
D O I
10.1016/j.compscitech.2023.110270
中图分类号
TB33 [复合材料];
学科分类号
摘要
The study of microwave-absorbing materials and microwave-absorbing structures holds significant importance in fields such as human health and military defense. With the advancement of information technology, the severity of electromagnetic pollution has increased, resulting in a greater need for microwave protection. Simultaneously, additive manufacturing has garnered significant attention from scholars due to its ability to utilize diverse materials and construct complex models with flexibility. In this paper, we have successfully achieved the integration of design, manufacturing and evaluation. Specifically, we have combined material extrusion technology with microwave-absorbing materials and structures to conduct research on absorbing functional composites using material extrusion. By employing large variation genetic algorithm, we designed an electric-loss honeycomb metastructure (ELHM). The ELHM demonstrates effective broadband absorption performance within the frequency ranges of 2-6.8 GHz and 10.4-40 GHz. It maintains excellent absorption properties even during oblique incidence reflection tests under different polarization modes. Additionally, it exhibits outstanding loadbearing capacity.
引用
收藏
页数:9
相关论文
共 50 条
  • [31] ADDITIVE MANUFACTURING IN JEWELLERY DESIGN
    Ferreira, Telma
    Almeida, Henrique A.
    Bartolo, Paulo J.
    Campbell, Ian
    PROCEEDINGS OF THE ASME 11TH BIENNIAL CONFERENCE ON ENGINEERING SYSTEMS DESIGN AND ANALYSIS, VOL 4, 2012, : 187 - 194
  • [32] Additive Manufacturing + Lightweight Design
    1600, Springer Nature (123): : 58 - 59
  • [33] Temporal design for additive manufacturing
    Saliba, S.
    Kirkman-Brown, J. C.
    Thomas-Seale, L. E. J.
    INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2020, 106 (9-10): : 3849 - 3857
  • [34] Design Informatics for Additive Manufacturing
    Seimitsu Kogaku Kaishi/Journal of the Japan Society for Precision Engineering, 2024, 90 (03): : 290 - 291
  • [35] The Design of a HMI for Additive Manufacturing
    Rodrigues, Marco
    Pereira, Joao Paulo
    Moreira, Pedro Miguel
    2019 14TH IBERIAN CONFERENCE ON INFORMATION SYSTEMS AND TECHNOLOGIES (CISTI), 2019,
  • [36] Design rules for additive manufacturing
    Konstruktionsregeln für Additive Fertigungsverfahren
    1600, VDI Fachmedien GmBbH & Co. (65): : 7 - 8
  • [37] Temporal design for additive manufacturing
    S. Saliba
    J. C. Kirkman-Brown
    L. E. J. Thomas-Seale
    The International Journal of Advanced Manufacturing Technology, 2020, 106 : 3849 - 3857
  • [38] A DESIGN FOR ADDITIVE MANUFACTURING ONTOLOGY
    Dinar, Mahmoud
    Rosen, David W.
    PROCEEDINGS OF THE ASME INTERNATIONAL DESIGN ENGINEERING TECHNICAL CONFERENCES AND COMPUTERS AND INFORMATION IN ENGINEERING CONFERENCE, 2016, VOL 1B, 2016,
  • [39] Microspine Design for Additive Manufacturing
    Nadan, Paul
    Patel, Dinesh K.
    Pavlov, Catherine
    Backus, Spencer
    Johnson, Aaron M.
    2022 IEEE/RSJ INTERNATIONAL CONFERENCE ON INTELLIGENT ROBOTS AND SYSTEMS (IROS), 2022, : 5640 - 5647
  • [40] A design framework for additive manufacturing
    Bikas, H.
    Lianos, A. K.
    Stavropoulos, P.
    INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2019, 103 (9-12): : 3769 - 3783