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Morphological Effects in SnO2 Chemiresistors for Ethanol Detection: A Review in Terms of Central Performances and Outliers

SnO2 is one of the most studied materials in gas sensing and is often used as a benchmark for other metal oxide-based gas sensors. To optimize its structural and functional features, the fine tuning of the morphology in nanoparticles, nanowires, nanosheets and their eventual hierarchical organization has become an active field of research. In this paper, the different SnO2 morphologies reported in literature in the last five years are systematically compared in terms of response amplitude through a statistical approach. To have a dataset as homogeneous as possible, which is necessary for a reliable comparison, the analysis is carried out on sensors based on pure SnO2, focusing on ethanol detection in a dry air background as case study. Concerning the central performances of each morphology, results indicate that none clearly outperform the others, while a few individual materials emerge as remarkable outliers with respect to the whole dataset. The observed central performances and outliers may represent a suitable reference for future research activities in the field.
- National Research Council Italy
- National Academies of Sciences, Engineering, and Medicine United States
- National Research Council United States
- Istituto Nazionale di Ottica Italy
nanosheets, Chemical technology, hierarchical nanostructures, TP1-1185, Review, chemiresistors, SnO<sub>2</sub>, nanoparticles, ethanol, nanorods, SnO2
nanosheets, Chemical technology, hierarchical nanostructures, TP1-1185, Review, chemiresistors, SnO<sub>2</sub>, nanoparticles, ethanol, nanorods, SnO2
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