Orthomode Transducers in Additive Manufacturing for Broadband and High-Power Applications

被引:2
|
作者
Stoumpos, C. [1 ]
Duran-Venegas, J. A. [2 ]
Pierre, T. [2 ]
Garcia-Vigueras, M. [1 ]
机构
[1] INSA Rennes, Inst Elect & Technol numeR IETR, CNRS, UMR 6164, Rennes, France
[2] Thales Alenia Space, Antenna Prod Line Dept, BP 1187, F-31037 Toulouse 1, France
来源
2023 17TH EUROPEAN CONFERENCE ON ANTENNAS AND PROPAGATION, EUCAP | 2023年
关键词
Additive manufacturing; Boifot junction; Multipactor; orthomode transducer; Secondary Emission Yield (SEY); Selective Laser Melting (SLM); turnstile junction; MICROWAVE;
D O I
10.23919/EuCAP57121.2023.10132846
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
This paper presents two designs of Orthomode Transducers (OMTs) tailored to the disruptive additive manufacturing (AM) technology. In particular, in this work we propose guidelines and rules which can be adopted for the efficient design and development of such broadband OMT components in vertical 3D-printing. The final objective relates to the creation of a generic framework which should enable any designer to realize OMT topologies following specific criteria dictated by both the limitations and flexibilities of the AM technology. The numerical models of a turnstile and Boifot OMT achieve a 35% frequency bandwidth with a return loss better than 25 dB. The experimental characterization of a Ku-band Boifot OMT verifies the high RF performance of the component as well as its efficient manufacturing. The designed and optimized OMTs are targeted for high-power applications and, therefore, we further provide the multipactor analysis performed to characterize their power handling capabilities.
引用
收藏
页数:5
相关论文
共 50 条
  • [21] ASSESSING THE PERFORMANCE OF ADDITIVE MANUFACTURING APPLICATIONS
    Turk, Daniel-Alexander
    Fontana, Filippo
    Ruegg, Fabian
    Gill, Rajan Joshua
    Meboldt, Mirko
    DS87-5 PROCEEDINGS OF THE 21ST INTERNATIONAL CONFERENCE ON ENGINEERING DESIGN (ICED 17), VOL 5: DESIGN FOR X, DESIGN TO X, 2017, : 259 - 268
  • [22] Additive Manufacturing Processes in Medical Applications
    Salmi, Mika
    MATERIALS, 2021, 14 (01) : 1 - 16
  • [23] Additive Manufacturing: Prospects and Diverse Applications
    Li, Zeyuan
    Ruan, Hulong
    Li, Minghao
    Yu, Chenglong
    Jia, Qixing
    Wang, Junjun
    Chen, Lina
    METALS, 2025, 15 (02)
  • [24] Additive manufacturing applications in astronomy: a review
    Chahid, Younes
    Atkins, Carolyn
    Lister, Greg
    Tuck, Rhys
    Watson, Stephen
    Morris, Katherine
    Isherwood, David
    Strachan, Jonathan
    Harman, Joel
    Chartsiriwattana, Pearachad
    Stelter, Deno
    Laun, Werner
    ADVANCES IN OPTICAL AND MECHANICAL TECHNOLOGIES FOR TELESCOPES AND INSTRUMENTATION VI, 2024, 13100
  • [25] Advances in Medical Applications of Additive Manufacturing
    Li, Chunxu
    Pisignano, Dario
    Zhao, Yu
    Xue, Jiajia
    ENGINEERING, 2020, 6 (11) : 1222 - 1231
  • [26] Additive manufacturing: Challenges, trends, and applications
    Abdulhameed, Osama
    Al-Ahmari, Abdulrahman
    Ameen, Wadea
    Mian, Syed Hammad
    ADVANCES IN MECHANICAL ENGINEERING, 2019, 11 (02)
  • [27] Perspectives on additive manufacturing for warhead applications
    Xue, Hao
    Zhou, Qiang
    Xiao, Chuan
    Huang, Guangyan
    DEFENCE TECHNOLOGY, 2025, 43 : 225 - 251
  • [28] Advances in Coaxial Additive Manufacturing and Applications
    Rafiee, Mohammad
    Granier, Floriane
    Therriault, Daniel
    ADVANCED MATERIALS TECHNOLOGIES, 2021, 6 (11)
  • [29] Additive manufacturing applications in cardiology: A review
    Haleem, Abid
    Javaid, Mohd
    Saxena, Anil
    EGYPTIAN HEART JOURNAL, 2018, 70 (04) : 433 - 441
  • [30] Additive manufacturing of glass for optical applications
    Luo, Junjie
    Gilbert, Luke J.
    Bristow, Douglas A.
    Landers, Robert G.
    Goldstein, Jonathan T.
    Urbas, Augustine M.
    Kinzel, Edward C.
    LASER 3D MANUFACTURING III, 2016, 9738