Composite gas sensors based on carbon and tin oxide nanoparticles
The methods for manufacturing NO 2 sensors from carbon-tin nanoparticle composites and the results of detection of NO 2 impurities in the range of 10–40 ppm in air are presented. All sensors operate at room temperature. The sensors with arc discharge soot and tin nanoparticles demonstrate the highes...
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| Published in | Russian physics journal Vol. 68; no. 3; pp. 488 - 499 |
|---|---|
| Main Authors | , , , , , |
| Format | Journal Article |
| Language | English |
| Published |
Cham
Springer International Publishing
01.03.2025
Springer Nature B.V |
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| Abstract | The methods for manufacturing NO
2
sensors from carbon-tin nanoparticle composites and the results of detection of NO
2
impurities in the range of 10–40 ppm in air are presented. All sensors operate at room temperature. The sensors with arc discharge soot and tin nanoparticles demonstrate the highest sensitivity. A combination of the graphene and SnO nanoparticle layers demonstrates the lowest response time. The interaction mechanisms of sensors with low NO
2
concentrations are discussed. |
|---|---|
| AbstractList | The methods for manufacturing NO
2
sensors from carbon-tin nanoparticle composites and the results of detection of NO
2
impurities in the range of 10–40 ppm in air are presented. All sensors operate at room temperature. The sensors with arc discharge soot and tin nanoparticles demonstrate the highest sensitivity. A combination of the graphene and SnO nanoparticle layers demonstrates the lowest response time. The interaction mechanisms of sensors with low NO
2
concentrations are discussed. The methods for manufacturing NO2 sensors from carbon-tin nanoparticle composites and the results of detection of NO2 impurities in the range of 10–40 ppm in air are presented. All sensors operate at room temperature. The sensors with arc discharge soot and tin nanoparticles demonstrate the highest sensitivity. A combination of the graphene and SnO nanoparticle layers demonstrates the lowest response time. The interaction mechanisms of sensors with low NO2 concentrations are discussed. |
| Author | Sorokin, D. V. Bannov, A. G. Smovzh, D. V. Bogomolova, A. I. Gareev, T. I. Nerushev, O. A. |
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| Keywords | Tin oxides Nanoparticles NO sensors Adsorption Graphene Arc discharge soot |
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| References | F Schedin (3456_CR6) 2007; 6 AS Lagutin (3456_CR1) 2022; 77 N Yamazoe (3456_CR2) 1979; 86 OA Nerushev (3456_CR11) 1997; 42 A Singh (3456_CR3) 2024; 31 R Kumar (3456_CR4) 2023; 14 R Leghrib (3456_CR8) 2010; 145 VA Andryushchenko (3456_CR12) 2023; 64 RB Tagirov (3456_CR18) 1998; 41 V Kamble (3456_CR9) 2015; 5 V Andryushchenko (3456_CR10) 2021; 567 VI Gaman (3456_CR5) 2014; 57 SY Davydov (3456_CR20) 2004; 30 LM Malard (3456_CR14) 2009; 473 A Eckmann (3456_CR16) 2012; 12 VI Gaman (3456_CR19) 2012; 54 LG Cançado (3456_CR15) 2011; 11 3456_CR17 AG Bannov (3456_CR13) 2022; 10 3456_CR7 |
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2
sensors from carbon-tin nanoparticle composites and the results of detection of NO
2
impurities in the range of 10–40 ppm in... The methods for manufacturing NO2 sensors from carbon-tin nanoparticle composites and the results of detection of NO2 impurities in the range of 10–40 ppm in... |
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| SubjectTerms | Arc discharges Condensed Matter Physics Electric arcs Gas sensors Graphene Hadrons Heavy Ions Lasers Mathematical and Computational Physics Nanoparticles Nitrogen dioxide Nuclear Physics Optical Devices Optics Photonics Physics Physics and Astronomy Room temperature Theoretical Tin oxides |
| Title | Composite gas sensors based on carbon and tin oxide nanoparticles |
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