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Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors

In an effort to develop a cost-efficient technology for wireless high-temperature surface acoustic wave sensors, this study presents an evaluation of a combined method that integrates physical vapor deposition with electroless deposition for the fabrication of platinum-based planar antennas. The pro...

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Autores principales: Brachmann, Erik, Seifert, Marietta, Neumann, Niels, Alshwawreh, Nidal, Uhlemann, Margitta, Menzel, Siegfried Bernhard, Acker, Jörg, Herold, Steven, Hoffmann, Volker, Gemming, Thomas
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6480121/
https://www.ncbi.nlm.nih.gov/pubmed/30934663
http://dx.doi.org/10.3390/ma12071002
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author Brachmann, Erik
Seifert, Marietta
Neumann, Niels
Alshwawreh, Nidal
Uhlemann, Margitta
Menzel, Siegfried Bernhard
Acker, Jörg
Herold, Steven
Hoffmann, Volker
Gemming, Thomas
author_facet Brachmann, Erik
Seifert, Marietta
Neumann, Niels
Alshwawreh, Nidal
Uhlemann, Margitta
Menzel, Siegfried Bernhard
Acker, Jörg
Herold, Steven
Hoffmann, Volker
Gemming, Thomas
author_sort Brachmann, Erik
collection PubMed
description In an effort to develop a cost-efficient technology for wireless high-temperature surface acoustic wave sensors, this study presents an evaluation of a combined method that integrates physical vapor deposition with electroless deposition for the fabrication of platinum-based planar antennas. The proposed manufacturing process becomes attractive for narrow, thick, and sparse metallizations for antennas in the MHz to GHz frequency range. In detail, narrow platinum-based lines of a width down to 40 [Formula: see text] m were electroless-deposited on [Formula: see text]-Al [Formula: see text] O [Formula: see text] substrates using different seed layers. At first, the electrolyte chemistry was optimized to obtain the highest deposition rate. Films with various thickness were prepared and the electrical resistivity, microstructure, and chemical composition in the as-prepared state and after annealing at temperatures up to 1100 [Formula: see text] C were evaluated. Using these material parameters, the antenna was simulated with an electromagnetic full-wave simulation tool and then fabricated. The electrical parameters, including the S-parameters of the antenna, were measured. The agreement between the simulated and the realized antenna is then discussed.
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spelling pubmed-64801212019-04-29 Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors Brachmann, Erik Seifert, Marietta Neumann, Niels Alshwawreh, Nidal Uhlemann, Margitta Menzel, Siegfried Bernhard Acker, Jörg Herold, Steven Hoffmann, Volker Gemming, Thomas Materials (Basel) Article In an effort to develop a cost-efficient technology for wireless high-temperature surface acoustic wave sensors, this study presents an evaluation of a combined method that integrates physical vapor deposition with electroless deposition for the fabrication of platinum-based planar antennas. The proposed manufacturing process becomes attractive for narrow, thick, and sparse metallizations for antennas in the MHz to GHz frequency range. In detail, narrow platinum-based lines of a width down to 40 [Formula: see text] m were electroless-deposited on [Formula: see text]-Al [Formula: see text] O [Formula: see text] substrates using different seed layers. At first, the electrolyte chemistry was optimized to obtain the highest deposition rate. Films with various thickness were prepared and the electrical resistivity, microstructure, and chemical composition in the as-prepared state and after annealing at temperatures up to 1100 [Formula: see text] C were evaluated. Using these material parameters, the antenna was simulated with an electromagnetic full-wave simulation tool and then fabricated. The electrical parameters, including the S-parameters of the antenna, were measured. The agreement between the simulated and the realized antenna is then discussed. MDPI 2019-03-27 /pmc/articles/PMC6480121/ /pubmed/30934663 http://dx.doi.org/10.3390/ma12071002 Text en © 2019 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Brachmann, Erik
Seifert, Marietta
Neumann, Niels
Alshwawreh, Nidal
Uhlemann, Margitta
Menzel, Siegfried Bernhard
Acker, Jörg
Herold, Steven
Hoffmann, Volker
Gemming, Thomas
Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors
title Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors
title_full Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors
title_fullStr Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors
title_full_unstemmed Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors
title_short Electroless-Deposited Platinum Antennas for Wireless Surface Acoustic Wave Sensors
title_sort electroless-deposited platinum antennas for wireless surface acoustic wave sensors
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6480121/
https://www.ncbi.nlm.nih.gov/pubmed/30934663
http://dx.doi.org/10.3390/ma12071002
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