Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode Topologies

The application of carbyne-enriched nanomaterials opens unique possibilities for enhancing the functional properties of several nanomaterials and unlocking their full potential for practical applications in high-end devices. We studied the ethanol-vapor-sensing performance of a carbyne-enriched nano...

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Main Authors: Mariya Aleksandrova, Georgi Kolev, Andrey Brigadin, Alexander Lukin
Format: Article
Language:English
Published: MDPI AG 2022-04-01
Series:Crystals
Subjects:
Online Access:https://www.mdpi.com/2073-4352/12/4/501
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author Mariya Aleksandrova
Georgi Kolev
Andrey Brigadin
Alexander Lukin
author_facet Mariya Aleksandrova
Georgi Kolev
Andrey Brigadin
Alexander Lukin
author_sort Mariya Aleksandrova
collection DOAJ
description The application of carbyne-enriched nanomaterials opens unique possibilities for enhancing the functional properties of several nanomaterials and unlocking their full potential for practical applications in high-end devices. We studied the ethanol-vapor-sensing performance of a carbyne-enriched nanocoating deposited onto surface acoustic wave (SAW) composite substrates with various electrode topologies. The carbyne-enriched nanocoating was grown using the ion-assisted pulse-plasma deposition technique. Such carbon nanostructured metamaterials were named 2D-ordered linear-chain carbon, where they represented a two-dimensionally packed hexagonal array of carbon chains held by the van der Waals forces, with the interchain spacing approximately being between 4.8 and 5.03 Å. The main characteristics of the sensing device, such as dynamic range, linearity, sensitivity, and response and recovery times, were measured as a function of the ethanol concentration. To the authors’ knowledge, this was the first time demonstration of the detection ability of carbyne-enriched material to ethanol vapors. The results may pave the path for optimization of these sensor architectures for the precise detection of volatile organic compounds, with applications in the fields of medicine, healthcare, and air composition monitoring.
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spelling doaj.art-c594f3ac2aff4b59a7da1d434d379f032023-12-01T01:24:42ZengMDPI AGCrystals2073-43522022-04-0112450110.3390/cryst12040501Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode TopologiesMariya Aleksandrova0Georgi Kolev1Andrey Brigadin2Alexander Lukin3Department of Microelectronics, Technical University of Sofia, 1000 Sofia, BulgariaDepartment of Microelectronics, Technical University of Sofia, 1000 Sofia, BulgariaSwissimpianti Sagl, 6828 Balerna, SwitzerlandWestern-Caucasus Research Center, Russian Federation, 352808 Tuapse, RussiaThe application of carbyne-enriched nanomaterials opens unique possibilities for enhancing the functional properties of several nanomaterials and unlocking their full potential for practical applications in high-end devices. We studied the ethanol-vapor-sensing performance of a carbyne-enriched nanocoating deposited onto surface acoustic wave (SAW) composite substrates with various electrode topologies. The carbyne-enriched nanocoating was grown using the ion-assisted pulse-plasma deposition technique. Such carbon nanostructured metamaterials were named 2D-ordered linear-chain carbon, where they represented a two-dimensionally packed hexagonal array of carbon chains held by the van der Waals forces, with the interchain spacing approximately being between 4.8 and 5.03 Å. The main characteristics of the sensing device, such as dynamic range, linearity, sensitivity, and response and recovery times, were measured as a function of the ethanol concentration. To the authors’ knowledge, this was the first time demonstration of the detection ability of carbyne-enriched material to ethanol vapors. The results may pave the path for optimization of these sensor architectures for the precise detection of volatile organic compounds, with applications in the fields of medicine, healthcare, and air composition monitoring.https://www.mdpi.com/2073-4352/12/4/501surface acoustic wave composite substratesmicrofabrication technologycarbyne-enriched nanocoatingsion-assisted pulse-plasma depositiongas-sensing properties
spellingShingle Mariya Aleksandrova
Georgi Kolev
Andrey Brigadin
Alexander Lukin
Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode Topologies
Crystals
surface acoustic wave composite substrates
microfabrication technology
carbyne-enriched nanocoatings
ion-assisted pulse-plasma deposition
gas-sensing properties
title Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode Topologies
title_full Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode Topologies
title_fullStr Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode Topologies
title_full_unstemmed Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode Topologies
title_short Gas-Sensing Properties of a Carbyne-Enriched Nanocoating Deposited onto Surface Acoustic Wave Composite Substrates with Various Electrode Topologies
title_sort gas sensing properties of a carbyne enriched nanocoating deposited onto surface acoustic wave composite substrates with various electrode topologies
topic surface acoustic wave composite substrates
microfabrication technology
carbyne-enriched nanocoatings
ion-assisted pulse-plasma deposition
gas-sensing properties
url https://www.mdpi.com/2073-4352/12/4/501
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