Metal 3D printing for RF/microwave high-frequency parts

被引:4
|
作者
Martin-Iglesias, P. [1 ,6 ]
Marechal, M. [1 ]
Calves, P. [2 ]
Hazard, M. [2 ]
Pambaguian, L. [1 ]
Brandao, A. [1 ]
Castillo, S. Rodriguez [1 ]
Martin, T. [4 ]
Percaz, J. [6 ]
Iza, V [1 ]
Martin-Iglesias, S. [5 ]
Arregui, I [6 ]
Teberio, F. [3 ,6 ]
Lopetegi, T. [6 ]
Laso, M. A. G. [6 ]
机构
[1] European Space Agcy, NL-2201 AZ Noordwijk, Netherlands
[2] CETIM, F-42952 St Etienne, France
[3] ANTERAL, Campus Arrosadia, Pamplona 31006, Spain
[4] Univ Bordeaux, IMS Lab, CNRS, Bordeaux INP,UMR 5218, F-33400 Talence, France
[5] Natl Inst Aerosp Technol, Carretera Ajalvir,Km 4, Madrid, Spain
[6] Univ Publ Navarra, Elect & Elect Engn Dept, Pamplona 31006, Spain
关键词
microwave; space; 3D printing; waveguide; antennas; manufacturing; FILTERS;
D O I
10.1007/s12567-022-00447-y
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Space Systems have been historically characterised by high performance, high reliability and high cost. Every new generation of space systems tends to improve performance, keep as much as possible reliability, speeding the lead time and lower the cost. Aggressive approach is nowadays followed by some of the players of the new space ecosystem where, for instance, reliability can be relaxed thanks for the in-orbit redundancy or robustness to failures by having a constellation with a high number of satellites. This push towards the technology and system limit requires to investigate new methods for the manufacturing of RF/Microwave parts. RF devices such as those based on waveguide structures, benefit from an additive manufacturing approach in terms of radio frequency (RF) performance and compactness. However each manufacturing approach comes with specific features and limitations which need to be well understood and, in some cases, even taking advantage of them. This paper provides a short review of some of the RF/Microwave parts already manufactured using this technology. The paper will focus mainly on metal 3D printing parts since this technology is, at the moment, well accepted by the space community.
引用
收藏
页码:7 / 25
页数:19
相关论文
共 50 条
  • [21] 3D printing of metal nanostructures
    Zeissler, Katharina
    NATURE ELECTRONICS, 2023, 6 (10) : 723 - 723
  • [22] Metal 3D printing technology
    Wang, Bao-Qi, 2018, Chongqing Wujiu Periodicals Press (47):
  • [23] Challenges 3D Printing Microwave Components
    Hoel, Karina Vieira
    Kristoffersen, Stein
    2017 IEEE INTERNATIONAL SYMPOSIUM ON ANTENNAS AND PROPAGATION & USNC/URSI NATIONAL RADIO SCIENCE MEETING, 2017, : 3 - 4
  • [24] 3D printing of complex shaped alumina parts
    Mamatha, Sirisala
    Biswas, Papiya
    Ramavath, Pandu
    Das, Dibakar
    Johnson, Roy
    CERAMICS INTERNATIONAL, 2018, 44 (16) : 19278 - 19281
  • [25] Geometric Stability of Parts Produced by 3D Printing
    Mendricky, Radomir
    Soni, Rakeshkumar D.
    TEHNICKI VJESNIK-TECHNICAL GAZETTE, 2022, 29 (01): : 23 - 29
  • [26] Parameters Evaluation in 3D Spare Parts Printing
    Vujovic, Igor
    Soda, Josko
    Kuzmanic, Ivica
    Petkovic, Miro
    ELECTRONICS, 2021, 10 (04) : 1 - 9
  • [27] ANALYSIS OF THE INFLUENCE OF 3D PRINTING ON HARDNESS OF PARTS
    Pavlic, Tomislav
    Cikic, Ante
    Golubic, Stjepan
    TEHNICKI VJESNIK-TECHNICAL GAZETTE, 2016, 23 (03): : 843 - 847
  • [28] Accuracy of Polylactide Parts Made by 3D Printing
    Hrituc, Adelina
    Slatineanu, Laurentiu
    Mihalache, Andrei
    Dodun, Oana
    Coteata, Margareta
    Nagit, Gheorghe
    MACROMOLECULAR SYMPOSIA, 2020, 389 (01)
  • [29] Daimler Buses: 3D printing for spare parts
    Lakomiec M.
    ZWF Zeitschrift fuer Wirtschaftlichen Fabrikbetrieb, 2019, 114 (1-2): : 62 - 64
  • [30] 3D printing technology for RF and THz antennas
    Liang, Min
    Wu, Junqiang
    Yu, Xiaoju
    Xin, Hao
    2016 INTERNATIONAL SYMPOSIUM ON ANTENNAS AND PROPAGATION (ISAP), 2016, : 536 - 537