Tuning humidity for highly selective detection of methanol and 2-butanone using MOF-derivatives NiO microrods

Industrialization has brought about significant challenges to human well-being, primarily due to the emission of toxic volatile organic compounds (VOCs). Therefore, there is considerable interest and need to detect these VOCs with high selectivity and reproducibility. In this context, developing VOC...

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Veröffentlicht in:Journal of materials science. Materials in electronics 2023-12, Vol.34 (34), p.2232, Article 2232
Hauptverfasser: Theodoro, Reinaldo S., Sá, Bruna S., Perrone, Olavo M., Perfecto, Tarcísio M., Volanti, Diogo P.
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container_issue 34
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container_title Journal of materials science. Materials in electronics
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creator Theodoro, Reinaldo S.
Sá, Bruna S.
Perrone, Olavo M.
Perfecto, Tarcísio M.
Volanti, Diogo P.
description Industrialization has brought about significant challenges to human well-being, primarily due to the emission of toxic volatile organic compounds (VOCs). Therefore, there is considerable interest and need to detect these VOCs with high selectivity and reproducibility. In this context, developing VOC sensing devices for continuous environmental monitoring and ensuring well-being is crucial. One way to produce inexpensive sensors with reasonable detection limits and selectivity is by using semiconductor metal oxides. Furthermore, they can withstand relative humidity variations in the detection process, which is still a significant challenge. In this study, we present a sensor based on NiO microrods derived from the decomposition of nickel-metal-organic frameworks (Ni-MOF) using microwave-assisted solvothermal (MAS) and thermal decomposition methods. The NiO microrods exhibited highly selective in detecting methanol (Response = 143 ± 27%) under dry atmospheric conditions and 2-butanone (Response = 119 ± 16%) under wet atmospheric conditions (43% RH) at a working temperature of 150 °C. In addition, the NiO sensor presented a relatively fast response time for detecting methanol (78 s) and 2-butanone (36 s) under optimal working conditions. Therefore, selectively modulating the relative humidity during the sensor analysis process, the NiO microrods act as a dual-mode sensor for methanol and 2-butanone.
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subjects Characterization and Evaluation of Materials
Chemistry and Materials Science
Environmental monitoring
Humidity
Materials Science
Metal oxides
Metal-organic frameworks
Methanol
Nickel oxides
Optical and Electronic Materials
Relative humidity
Selectivity
Sensors
Thermal decomposition
VOCs
Volatile organic compounds
title Tuning humidity for highly selective detection of methanol and 2-butanone using MOF-derivatives NiO microrods
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