Review and evaluation of warp-knitted patterns for metal-based large deployable reflector surfaces

Author:

Bettermann IsaORCID,Löcken Henning,Greb Christoph,Gries Thomas,Oses Alexander,Pauw Julian,Maghaldadze Nikoloz,Datashvili Leri

Abstract

AbstractA large deployable reflector antenna (LDA) is comprised of numerous components. One of the key components of this reflector antenna is the reflector surface. Several types of reflector surfaces have been developed and used, namely, metal mesh-based reflector surfaces, membrane-based reflector surfaces, etc. The benefits presented by warp-knitted metal mesh-based reflector surfaces are their foldability and light weight structural characteristics. Typical metal mesh-based reflector surfaces are produced using a warp knitting textile manufacturing process. A warp-knitted metal mesh reflecting surface is an elastic, open structured knit with a low bending stiffness produced on a high gauge knitting machine (E26 or higher gauge) consisting of a compatible metal yarn (typically tungsten or molybdenum). This paper gives an overview about the requirements for mesh reflector surfaces stated in the literature. Afterwards, an overview of different patterns currently investigated by the LDA community is given. The names given to the various types of patterns in the literature often differ. The construction of the various patterns is therefore first optical analysed and compared. Subsequently, the different patterns are evaluated on the basis of the requirements. Based on the requirements and the possibilities of the warp knitting machine, new possible patterns are identified and evaluated. For the development of a new reflector surface, the identified patterns are developed as a warp-knitted spacer fabric. This decision increases the stiffness of the knitted fabric. This new concept for an advanced reflector surfaces is introduced by Large Space Structures GmbH (LSS) (concept) and ITA (production technology).

Funder

Deutsches Zentrum für Luft- und Raumfahrt

RWTH Aachen University

Publisher

Springer Science and Business Media LLC

Subject

Space and Planetary Science,Aerospace Engineering

Reference45 articles.

1. Bettermann, I., Raina, A., Gries, T.: Selection and characterisation of warp knitted textile materials used for reflector antennas on communications satellites. In: Proceedings of the 91st Textile Institute World Conference, Leeds (UK), 23rd–26th Jul 2018, (in press)

2. Bettermann, I., A. Raina, T., Gries.: A comparioson of warp and weft knitted technology for production of metal mesh reflector surfaces” 40th ESA Antenna Workshop—Antenna Developments for Terrestrial and Small-Space Platforms 8–10 October 2019, Noordwijk, The Netherlands

3. Decius, M., van‘t Klooster K., Scialino, G. L., Migliorelli, M., Gloy, Y., Gries, T.: Warp knitting technology for large deployable reflector antenna mesh. Programme and abstract book/37th ESA antenna workshop: workshop on large depolyable antennas, pp. 33–34, 1–3. 2016.

4. Scialino, G. L., Salvini, P., Migliorelli, M., Pennestri, E., Valentini, P.P., van’t Klooster, K., Santiago Prowald, J., Rodrigues, G., Gloy, Y.: Structural characterization and modeling of metallic mesh material for large deployable reflectors. Proceedings of the 2nd International Conference “Advanced Lightweight Structures and Reflector Antennas”, Tbilisi (Georgien), pp. 182–192, 1–3. Oktober (2014)

5. Maghaldadze, N., Nonn, S., Luo, T., Andrade, D., Aggarwal, A., Schoenen, A., Dufour, L., Datashvili, L.: Reducing cost and complexity of small deployable reflectors. 40th ESA Antenna Workshop—Antenna Developments for Terrestrial and Small-Space Platforms 8–10 October 2019, Noordwijk, The Netherlands

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