Engineering Copper Adhesion on Poly-Epoxy Surfaces Allows One-Pot Metallization of Polymer Composite Telecommunication Waveguides

Mass gain in the aerospace sector is highly demandable for energy savings and operational efficiency. Replacement of metal parts by polymer composites meets this prerequisite, provided the targeted functional properties are recovered. In the present contribution, we propose two innovative and scalab...

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Veröffentlicht in:Coatings (Basel) 2021-01, Vol.11 (1), p.50
Hauptverfasser: Addou, Fouzi, Duguet, Thomas, Ledru, Yohann, Mesnier, Didier, Vahlas, Constantin
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container_issue 1
container_start_page 50
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creator Addou, Fouzi
Duguet, Thomas
Ledru, Yohann
Mesnier, Didier
Vahlas, Constantin
description Mass gain in the aerospace sector is highly demandable for energy savings and operational efficiency. Replacement of metal parts by polymer composites meets this prerequisite, provided the targeted functional properties are recovered. In the present contribution, we propose two innovative and scalable processes for the metallization of the internal faces of carbon fiber reinforced polymer radiofrequency waveguides foreseen for implementation in telecommunications satellites. They involve sequential direct liquid injection metalorganic chemical vapor deposition of copper and cobalt. The use of ozone pretreatment of the polymer surface prior deposition, or of cost effective anhydrous dimethoxyethane as solvent for the injection of the copper precursor, yield strongly adherent, 5 µm Cu films on the polymer composite. Their electrical resistivity is in the 4.1–5.0 μΩ·cm range, and they sustain thermal cycling between −175 °C and +170 °C. Such homogeneous and conformal films can be obtained at temperatures as low as 115 °C. Demonstration is achieved on a polymer composite waveguide, composed of metallized 60-mm long straight sections and of E-plane and H-plane elbows, that paves the way towards the metallization of scale one devices.
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subjects Aerospace industry
Carbon fiber reinforced plastics
Chemical Sciences
Communication satellites
Copper
Fiber reinforced polymers
Interfacial bonding
Liquid injection
Material chemistry
Metallizing
Metalorganic chemical vapor deposition
Polymer matrix composites
Polymers
Pretreatment
Radio frequency
Thermal cycling
Titanium alloys
Waveguides
title Engineering Copper Adhesion on Poly-Epoxy Surfaces Allows One-Pot Metallization of Polymer Composite Telecommunication Waveguides
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