High-temperature operating characteristics of mixed-potential-type NO2 sensor based on stabilized-zirconia tube and NiO sensing electrode

Miura, Norio; Wang, Jian; Nakatou, Mitsunobu; Elumalai, Perumal; Zhuiykov, Serge; Hasei, Masaharu

doi:10.1016/j.snb.2005.08.009

Cited by 110 publications

(56 citation statements)

References 39 publications

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“…Figure 15 compares the output sensing signal to 400 ppm NO 2 for the YSZ-based sensors using different oxide materials as SE. Among them, NiO was found to be one of the best suitable materials for SE of the NO x sensor operated even at 850°C [76,149].…”

Section: No X Sensormentioning

confidence: 99%

A review of mixed-potential type zirconia-based gas sensors

Miura

Sato

Anggraini

et al. 2014

Ionics

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295

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A robust and reliable gas sensing device is considered as a convenient and practical solution for gas concentration monitoring that has become a mandatory requirement in different field of applications. For in situ hazardous gases detection, a mixed-potential type gas sensor has been regarded as a promising solid-state gas sensor. For the past three decades, there has been a significant progress in achieving high performance in mixed-potential type sensors. Therefore, this review is focused on reporting the development of mixedpotential type gas sensors with combined yttria-stabilized zirconia (YSZ) as the base solid electrolyte material and various classes of electrode materials for their potential utilization as a high-performance sensing electrode. The underlying sensing mechanism of a mixed-potential type YSZ-based sensor is elaborated here in detail. Transformation in design and configuration of this type of sensor is also covered in this report. In addition, recent progresses on mixed-potential type gas sensors development for detection of several target gases, such as carbon monoxide, hydrocarbons, nitrogen oxides, hydrogen, and ammonia, are reviewed. Strategies to improve the sensing characteristic, particularly gas sensitivity and selectivity, are also reported. Based on the understanding of the fundamental sensing mechanism and the requirements for high-performance gas sensors, challenges and future trends for this type of gas sensor development are discussed.

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Section: No X Sensormentioning

confidence: 99%

A review of mixed-potential type zirconia-based gas sensors

Miura

Sato

Anggraini

et al. 2014

Ionics

Self Cite

295

175

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“…Of specific interest to this study, ethylene glycol [Dasgupta 2001MatSci&Eng, Dasguputa 2002SSI, Chen 2006MatLett, Chen 2006 MatSci&Eng] has recently been used as an ACS fuel, as well as in other novel powder synthesis techniques [Bonet 1999, Uekawa 2002. The most commonly used fuel for ACS is glycine [Mimani 2001, Deshpande 2004, Nagaveni 2004MRB, Purohit JNucMatls 2001, Peng 2002, Erri 2004, Mukasyan 2007, which has been used extensively to produce perovskite oxides [Chick 1990, Basu 2004, Yang 2000, Mukasyan 2001, Wang 2006, Striker 2007, Nair 2008.…”

Section: Lafeo 3 and Lamno 3 Synthesismentioning

confidence: 99%

Hierarchical Nanoceramics for Industrial Process Sensors

Ruud¹,

Brosnan²,

Striker³

et al. 2011

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“…Tungsten oxide has also been used as an electrode for NO x sensors [246,[254][255][256][257][258][259][261][262][263], some examples of which are shown in Figure 13.22 [254-259, 262, 263]. Nickel oxide has also been used as the electrode material for NO x sensors [264][265][266][267][268][269][270][271][272][273][274]. One of the advantages of NiO electrodes is the improved sensor response at high temperatures.…”

Section: Electrocatalytic Electrodesmentioning

confidence: 99%

Electrochemical Sensors: Fundamentals, Key Materials, and Applications

Fergus

2009

Solid State Electrochemistry I

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Solid electrolytes are well suited for use in chemical sensors for high-temperature applications. The first such sensors followed from the use of solid electrolytes for thermodynamic measurements, and are based on galvanic cells, for which the open circuit voltage is related to the concentration of the mobile ionic species, or to another target species through equilibration at the electrode surface. However, sensors can also be based on nonequilibrium, but steady-state, potentials established between electrochemical reactions at the electrode. Another approach is to use the current passing through the electrolyte, rather than the voltage across the electrolyte, as the sensor signal. In this chapter we first describe the different methods for using solid electrolytes in chemical sensors, and then discuss some of the materials challenges and example applications. IntroductionMore than 50 years ago, Kiukkola and Wagner [1] demonstrated that solid electrolytes couldbeusedingalvaniccellstomeasurethethermodynamicpropertiesofoxides.Those pioneering studies subsequently led to the more practical application of solid electrolytes in chemical sensors. The ionic conduction in solid electrolytes is thermally activated and thus its rate increases with increasing temperature; consequently, solid electrolytes are well suited for high-temperature applications. On the other hand, such temperature dependencealsomeansthatsensorsbasedonsolidelectrolytescanrespondsluggishlyor may be inoperable at low temperatures. However, one of the advantages of solid-state devices, such as those based on solid electrolytes, is that they can be miniaturized [2,3]. Decreasingthedevicedimensionsreducesdiffusionlengths,whichinturndecreasesthe response time and thus also the minimum operating temperature.Ionic conducting solids can be used in a variety of different types of sensor [4][5][6][7][8][9][10][11][12]. Solids forwhichthe ionicconductivity is much largerthanthe electronic conductivity can Solid State Electrochemistry I: Fundamentals, Materials and their Applications. Edited by Vladislav V. Kharton

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High-temperature operating characteristics of mixed-potential-type NO2 sensor based on stabilized-zirconia tube and NiO sensing electrode

Cited by 110 publications

References 39 publications

A review of mixed-potential type zirconia-based gas sensors

A review of mixed-potential type zirconia-based gas sensors

Hierarchical Nanoceramics for Industrial Process Sensors

Electrochemical Sensors: Fundamentals, Key Materials, and Applications

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