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Chemical modification of nanocrystalline tin dioxide for selective gas sensors

Valery Vladimirovich Krivetskiy 1
Valery Vladimirovich Krivetskiy
, 
Marina Nikolaevna Rumyantseva 1
Marina Nikolaevna Rumyantseva
, 
Alexander Mikhailovich Gaskov 1
Alexander Mikhailovich Gaskov
1 Lomonosov Moscow State University, Faculty of Chemistry
10.1070/RC2013v082n10ABEH004366
Published 30 November 2012
Communication , Volume 82, Issue 10, 917-941
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Krivetskiy V. V., Rumyantseva M. N., Gaskov A. M. Chemical modification of nanocrystalline tin dioxide for selective gas sensors // Russian Chemical Reviews. 2013. Vol. 82. No. 10. pp. 917-941.
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Krivetskiy V. V., Rumyantseva M. N., Gaskov A. M. Chemical modification of nanocrystalline tin dioxide for selective gas sensors // Russian Chemical Reviews. 2013. Vol. 82. No. 10. pp. 917-941.
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TY - JOUR
DO - 10.1070/RC2013v082n10ABEH004366
UR - https://rcr.colab.ws/publications/10.1070/RC2013v082n10ABEH004366
TI - Chemical modification of nanocrystalline tin dioxide for selective gas sensors
T2 - Russian Chemical Reviews
AU - Krivetskiy, Valery Vladimirovich
AU - Rumyantseva, Marina Nikolaevna
AU - Gaskov, Alexander Mikhailovich
PY - 2013
DA - 2012/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 917-941
IS - 10
VL - 82
ER -
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@article{2013_Krivetskiy,
author = {Valery Vladimirovich Krivetskiy and Marina Nikolaevna Rumyantseva and Alexander Mikhailovich Gaskov},
title = {Chemical modification of nanocrystalline tin dioxide for selective gas sensors},
journal = {Russian Chemical Reviews},
year = {2013},
volume = {82},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RC2013v082n10ABEH004366},
number = {10},
pages = {917--941},
doi = {10.1070/RC2013v082n10ABEH004366}
}
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Krivetskiy, Valery Vladimirovich, et al. “Chemical modification of nanocrystalline tin dioxide for selective gas sensors.” Russian Chemical Reviews, vol. 82, no. 10, Nov. 2013, pp. 917-941. https://rcr.colab.ws/publications/10.1070/RC2013v082n10ABEH004366.
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Abstract

Chemical methods for enhancement of the selectivity of semiconductor metal oxide gas sensors are considered taking SnO$_{2}$ as an example. Theoretical concepts concerning correlations between the metal oxide chemical composition, crystal structure, surface morphology and the oxide surface reactivity are discussed. Application of such concepts to the design of novel, highly selective sensor materials based on nanocrystalline SnO$_{2}$ is discussed in detail. Experimental data on the determination of the chemical composition, structure, activity in gas--solid chemical interaction and the sensor properties of such materials are analyzed. The applicability of modern concepts of the chemical activity of the surface in gas--solid reactions to the design of novel metal oxide sensor materials with enhanced selectivity is substantiated.

Bibliography --- 133 references.

References

1.
1
A. A. Krasnovskii
Dokl. Akad. Nauk SSSR , 1948
2.
2
A. A. Krasnovskii
Zhur. Fiz. Khim. , 1956
3.
3
M. F. Shostakovskii
"Prostye Vinilovye Efiry" (Vinyl Ethers) , 1952
5.
5
A. A. Krasnovskii
Dokl. Akad. Nauk SSSR , 1953
6.
SnO2 sensors: current status and future prospects
Göpel W., Schierbaum K.D.
Sensors and Actuators, B: Chemical , 1995
7.
7
E. Rabinowitch
"Photosynthesis" , 1956
8.
8
V. N. Kondrat'ev
"Kinetika Reaktsii v Gazovoi Faze" (Kinetics of Reactions in the Gas Phase) , 1959
10.
Conduction Model of Metal Oxide Gas Sensors
Barsan N., Weimar U.
Journal of Electroceramics , 2001
11.
Low temperature deposition of glass membranes for gas sensors
Althainz P., Dahlke A., Goschnick J., Ache H.J.
Thin Solid Films , 1994
12.
Al2O3(M = Pt, Ru) catalytic membranes for selective semiconductor gas sensors
Ryzhikov A., Labeau M., Gaskov A.
Sensors and Actuators, B: Chemical , 2005
13.
Quantitative analysis of pesticide residue based on the dynamic response of a single SnO2 gas sensor
Huang X., Wang L., Sun Y., Meng F., Liu J.
Sensors and Actuators, B: Chemical , 2004
14.
14
V. B. Evstigneev
Zhur. Fiz. Khim. , 1958
16.
Effects of additives on semiconductor gas sensors
Yamazoe N., Kurokawa Y., Seiyama T.
Sensors and Actuators , 1983
17.
New approaches for improving semiconductor gas sensors
Yamazoe N.
Sensors and Actuators, B: Chemical , 1991
18.
Tin dioxide gas sensors. Part 2.—The role of surface additives
McAleer J.F., Moseley P.T., Norris J.O., Williams D.E., Tofield B.C.
Journal of the Chemical Society Faraday Transactions 1 Physical Chemistry in Condensed Phases , 1988
20.
Dopants in nanocrystalline tin dioxide
Rumyantseva M.N., Safonova O.V., Boulova M.N., Ryabova L.I., Gas'kov A.M.
Russian Chemical Bulletin , 2003
22.
Physico-chemical contribution of gold metallic particles to the action of oxygen on tin dioxide sensors
Montmeat P., Marchand J., Lalauze R., Viricelle J., Tournier G., Pijolat C.
Sensors and Actuators, B: Chemical , 2003
23.
SnO2/MoO3-nanostructure and alcohol detection
Arbiol J., Morante J.R., Bouvier P., Pagnier T., Makeeva E.A., Rumyantseva M.N., Gaskov A.M.
Sensors and Actuators, B: Chemical , 2006
24.
Selectivity Modification of SnO2-Based Materials for Gas Sensor Arrays
Krivetskiy V., Ponzoni A., Comini E., Badalyan S., Rumyantseva M., Gaskov A.
Electroanalysis , 2010
26.
Catalytic impact of RuOx clusters to high ammonia sensitivity of tin dioxide
Marikutsa A., Krivetskiy V., Yashina L., Rumyantseva M., Konstantinova E., Ponzoni A., Comini E., Abakumov A., Gaskov A.
Sensors and Actuators, B: Chemical , 2012
27.
Role of Pt Aggregates in Pt/SnO[sub 2] Thin Films Used as Gas Sensors Investigations of the Catalytic Effect
Gaidi M., Hazemann J.L., Matko I., Chenevier B., Rumyantseva M., Gaskov A., Labeau M.
Journal of the Electrochemical Society , 2002
28.
Operando X-ray absorption spectroscopy studies on Pd-SnO2 based sensors.
Koziej D., Hübner M., Barsan N., Weimar U., Sikora M., Grunwaldt J.
Physical Chemistry Chemical Physics , 2009
29.
CO and NH3 sensor properties and paramagnetic centers of nanocrystalline SnO2 modified by Pd and Ru
Marikutsa A.V., Rumyantseva M.N., Gaskov A.M., Konstantinova E.A., Grishina D.A., Deygen D.M.
Thin Solid Films , 2011
31.
Metal oxide-based gas sensor research: How to?
BARSAN N., KOZIEJ D., WEIMAR U.
Sensors and Actuators, B: Chemical , 2007
33.
Active sites on oxides: From single crystals to catalysts
Idriss H., Barteau M.A.
Advances in Catalysis , 2000
36.
36
J. Billon
Bull. Soc. chim. France , 1960
37.
Adsorption on perfect and reduced surfaces of metal oxides
Calatayud M., Markovits A., Menetrey M., Mguig B., Minot C.
Catalysis Today , 2003
41.
Nanocomposites SnO2/Fe2O3: Sensor and catalytic properties
Rumyantseva M., Kovalenko V., Gaskov A., Makshina E., Yuschenko V., Ivanova I., Ponzoni A., Faglia G., Comini E.
Sensors and Actuators, B: Chemical , 2006
43.
Conjugate acid-base pairs in zeolites
Barthomeuf D.
The Journal of Physical Chemistry , 1984
44.
Solid acidity of metal oxide monolayer and its role in catalytic reactions
Niwa M., Habuta Y., Okumura K., Katada N.
Catalysis Today , 2003
45.
Microcalorimetric study of the acidity and basicity of metal oxide surfaces
Auroux A., Gervasini A.
The Journal of Physical Chemistry , 1990
50.
50
G. Glacomello
Gazzetta. , 1935
51.
Nephelauxetic effect revisited
Tchougréeff A.L., Dronskowski R.
International Journal of Quantum Chemistry , 2009
53.
Improvement of a Bulk Optical Basicity Table for Oxidic Systems
Lebouteiller A., Courtine P.
Journal of Solid State Chemistry , 1998
54.
A new concept related to selectivity in mild oxidation catalysis of hydrocarbons: the optical basicity of catalyst oxygen
Moriceau P., Lebouteiller A., Bordes E., Courtine P.
Physical Chemistry Chemical Physics , 1999
56.
A simple approach to materials design: role played by an ionic-covalent parameter based on polarizing power and electronegativity
Portier J., Campet G., Etourneau J., Shastry M.C., Tanguy B.
Journal of Alloys and Compounds , 1994
57.
Role of oxide catalysts basicity in selective oxidation
Mamedov E.A., Vislovskii V.P., Talyshinskii R.M., Rizayev R.G.
Studies in Surface Science and Catalysis , 1992
59.
Electronic Polarizabilities of Ions in Crystals
Tessman J.R., Kahn A.H., Shockley W.
Physical Review A , 1953
60.
Ionic−Covalent Character of Metal and Nonmetal Oxides
Duffy J.A.
Journal of Physical Chemistry A , 2006
63.
Interrelation of bond dissociation energies and contributing bond energies
Sanderson R.T.
Journal of the American Chemical Society , 1975
64.
Acidity Scale for Metal Oxides and Sanderson's Electronegativities of Lanthanide Elements
Jeong N., Lee J., Tae E., Lee Y., Yoon K.
Angewandte Chemie - International Edition , 2008
66.
Cation-framework interaction in alkali-cation-exchanged zeolites: an XPS study
Huang M., Adnot A., Kaliaguine S.
Journal of the American Chemical Society , 1992
68.
Ab Initio Hartree−Fock Study of Brønsted Acidity at the Surface of Oxides
Nortier P., Borosy A.P., Allavena M.
Journal of Physical Chemistry B , 1997
69.
Broensted acid sites in transition metal oxide catalysts: modeling of structure, acid strengths, and support effects
Bernholc J., Horsley J.A., Murrell L.L., Sherman L.G., Soled S.
The Journal of Physical Chemistry , 1987
71.
Design, Synthesis and Application of Metal Oxide-Based Sensing Elements: A Chemical Principles Approach
Krivetskiy V., Rumyantseva M., Gaskov A.
Metal Oxide Nanomaterials for Chemical Sensors , 2012
72.
In Situ Spectroscopic Investigation of Low-Temperature Oxidation of Methane over Alumina-Supported Platinum during Periodic Operation
Becker E., Carlsson P., Kylhammar L., Newton M.A., Skoglundh M.
Journal of Physical Chemistry C , 2010
73.
Oxygen in Catalysis on Transition Metal Oxides
Bielański A., Haber J.
Catalysis Reviews - Science and Engineering , 1979
74.
On the role of acidity in catalytic oxidation
Busca G., Finocchio E., Ramis G., Ricchiardi G.
Catalysis Today , 1996
75.
Oxidations carried out by means of vanadium oxide catalysts
Mars P., van Krevelen D.W.
Chemical Engineering Science , 1954
77.
FTIR studies on the selective oxidation and combustion of light hydrocarbns at metal oxide surfaces. Propane and propene oxidation on MgCr2O4
Finocchio E., Busca G., Lorenzelli V., Willey R.J.
Journal of the Chemical Society Faraday Transactions , 1994
78.
Re-investigating the CO oxidation mechanism over unsupported MnO, Mn2O3 and MnO2 catalysts
Ramesh K., Chen L., Chen F., Liu Y., Wang Z., Han Y.
Catalysis Today , 2008
79.
Atomic-Scale Structure and Catalytic Reactivity of the RuO 2 (110) Surface
Over H., Kim Y.D., Seitsonen A.P., Wendt S., Lundgren E., Schmid M., Varga P., Morgante A., Ertl G.
Science , 2000
80.
FTIR studies on the selective oxidation and combustion of light hydrocarbons at metal oxide surfaces. Part 2.—Propane and propene oxidation on Co3O4
Finocchio E., Busca G., Lorenzelli V., Escribano V.S.
Journal of the Chemical Society Faraday Transactions , 1996
82.
82
G. P. Brin
Biokhimiya , 1957
83.
Room-Temperature Oxidation of Methane by α-Oxygen and Extraction of Products from the FeZSM-5 Surface
Starokon E.V., Parfenov M.V., Pirutko L.V., Abornev S.I., Panov G.I.
Journal of Physical Chemistry C , 2011
85.
Computational studies of solid oxidation catalysts
Catlow C.R., Jackson R.A., Thomas J.M.
The Journal of Physical Chemistry , 1990
87.
Active oxygen in selective oxidation catalysis
PANOV G., DUBKOV K., STAROKON E.
Catalysis Today , 2006
88.
PARTIAL OXIDATION OF METHANE BY NITROUS OXIDE OVER MOLYBDENUM ON SILICA
Liu H.F., Liu R.S., Liew K.Y., Johnson R.E., Lunsford J.H.
Journal of the American Chemical Society , 1984
89.
Theory of power laws for semiconductor gas sensors
Yamazoe N., Shimanoe K.
Sensors and Actuators, B: Chemical , 2008
90.
The surface and materials science of tin oxide
Batzill M., Diebold U.
Progress in Surface Science , 2005
92.
Basics of oxygen and SnO2 interaction; work function change and conductivity measurements
Sahm T., Gurlo A., Bârsan N., Weimar U.
Sensors and Actuators, B: Chemical , 2006
94.
95
A. A. Krasnovskii
Fiziologiya Rastenii , 1957
95.
Nanocrystalline SnO2 and In2O3 as materials for gas sensors: The relationship between microstructure and oxygen chemisorption
Rumyantseva M.N., Makeeva E.A., Badalyan S.M., Zhukova A.A., Gaskov A.M.
Thin Solid Films , 2009
97.
Surface chemistry of nanocrystalline SnO2: Effect of thermal treatment and additives
KOVALENKO V., ZHUKOVA A., RUMYANTSEVA M., GASKOV A., YUSHCHENKO V., IVANOVA I., PAGNIER T.
Sensors and Actuators, B: Chemical , 2007
98.
Spillover in Heterogeneous Catalysis
Conner W.C., Falconer J.L.
Chemical Reviews , 1995
99.
Oxygen exchange on nanocrystalline tin dioxide modified by palladium
Frolov D.D., Kotovshchikov Y.N., Morozov I.V., Boltalin A.I., Fedorova A.A., Marikutsa A.V., Rumyantseva M.N., Gaskov A.M., Sadovskaya E.M., Abakumov A.M.
Journal of Solid State Chemistry , 2012
100.
101
M. F. Shostakovskii
Izv. Akad. Nauk SSSR, Otd. Khim. Nauk , 1960
101.
Study of the interactions between carbon monoxide and high specific surface area tin dioxideThermogravimetric analysis and FTIR spectroscopy
Sergent N., Gélin P., Périer-Camby L., Praliaud H., Thomas G.
Journal of Thermal Analysis and Calorimetry , 2003
103.
Analysis of the noble metal catalytic additives introduced by impregnation of as obtained SnO2 sol–gel nanocrystals for gas sensors
Cabot A., Arbiol J., Morante J.R., Weimar U., Bârsan N., Göpel W.
Sensors and Actuators, B: Chemical , 2000
104.
Role of surface hydroxyl groups in promoting room temperature CO sensing by Pd-modified nanocrystalline SnO2
Marikutsa A.V., Rumyantseva M.N., Yashina L.V., Gaskov A.M.
Journal of Solid State Chemistry , 2010
105.
CO oxidation on PdO surfaces.
Hirvi J.T., Kinnunen T.J., Suvanto M., Pakkanen T.A., Nørskov J.K.
Journal of Chemical Physics , 2010
106.
A DRIFTS study of low-temperature CO oxidation over Au/SnO2 catalyst prepared by co-precipitation method
Wang S., Wang Y., Jiang J., Liu R., Li M., Wang Y., Su Y., Zhu B., Zhang S., Huang W., Wu S.
Catalysis Communications , 2009
108.
109
F. Ficher
Bull. Soc. chim. France (4) , 1916
109.
110
M. F. Shostakovskii
Dokl. Akad. Nauk SSSR , 1960
110.
111
M. Calvin
1956
113.
Ammonia sensors based on metal oxide nanostructures
Rout C.S., Hegde M., Govindaraj A., Rao C.N.
Nanotechnology , 2007
114.
Dynamics of ammonia decomposition on Ru(0001)
Mortensen H., Diekhöner L., Baurichter A., Jensen E., Luntz A.C.
Journal of Chemical Physics , 2000
118.
Interactions of nanocrystalline tin oxide powder with NO2: A Raman spectroscopic study
SERGENT N., EPIFANI M., COMINI E., FAGLIA G., PAGNIER T.
Sensors and Actuators, B: Chemical , 2007
119.
Tin oxide surfaces. Part 7.—An infrared study of the chemisorption and oxidation of organic Lewis base molecules on tin(IV) oxide
Harrison P.G., Thornton E.W.
Journal of the Chemical Society Faraday Transactions 1 Physical Chemistry in Condensed Phases , 1976
120.
121
V. V. Korshak
Izv. Akad. Nauk SSSR, Otd. Khim. Nauk , 1953
121.
122
S. R. Rafikov
Izv. Akad. Nauk SSSR, Otd. Khim. Nauk , 1953
122.
Relationship between ethanol gas sensitivity and surface catalytic property of tin oxide sensors modified with acidic or basic oxides
Jinkawa T., Sakai G., Tamaki J., Miura N., Yamazoe N.
Journal of Molecular Catalysis A Chemical , 2000
123.
Reactions of ethanol over metal oxides
Idriss H., Seebauer E.G.
Journal of Molecular Catalysis A Chemical , 2000
124.
Study on the structure and property for the NO 2 +NO 2 − electron transfer system
Zhou Z., Gao H., Liu R., Du B.
Journal of Molecular Structure THEOCHEM , 2001
125.
Electron affinity of the O2 molecule: CCSD(T) calculations using the optimized virtual orbitals space approach
Šulka M., Pitoňák M., Neogrády P., Urban M.
International Journal of Quantum Chemistry , 2008
126.
Ab initio study of NOx compounds adsorption on SnO2 surface
Prades J.D., Cirera A., Morante J.R., Pruneda J.M., Ordejón P.
Sensors and Actuators, B: Chemical , 2007
127.
NOx adsorption onto dehydroxylated or hydroxylated tin dioxide surface. Application to SnO2-based sensors
Leblanc E., Perier-Camby L., Thomas G., Gibert R., Primet M., Gelin P.
Sensors and Actuators, B: Chemical , 2000
128.
The influence of molybdenum on the properties of SnO2 ceramic sensors
Ivanovskaya M., Lutynskaya E., Bogdanov P.
Sensors and Actuators, B: Chemical , 1998
129.
Characterization of materials for gas sensors. Surface chemistry of SnO2 and MoOx–SnO2 nano-sized powders and electrical responses of the related thick films
Chiorino A., Ghiotti G., Prinetto F., Carotta M.C., Gallana M., Martinelli G.
Sensors and Actuators, B: Chemical , 1999
131.
Antimony doped whiskers of SnO2 grown from vapor phase
Zaytsev V.B., Zhukova A.A., Rumyantseva M.N., Dobrovolsky A.A., Calvo L., Gaskov A.M.
Journal of Crystal Growth , 2010