Nanostructured Metal Oxide Semiconductors towards Greenhouse Gas Detection
Abstract
:1. Introduction
- Global warming,
- Intense droughts,
- Severe storms,
- Glaciers melting,
- Depletion of the ozone layer, which can occur by emission of CCl4, CFCs and HCFCs,
- Changing the cycle of plant life and rain patterns,
- Rising sea levels and warmer oceans,
- Changing the lives of wildlife species.
2. Sensing Mechanism and Parameters of Gas Sensors
3. Nanostructured Metal Oxide Semiconductor (NMOS)-Based Greenhouse Gas Sensors
3.1. Sensing of Carbon Dioxide (CO2)
3.2. Sensing of Methane (CH4)
3.3. Sensing of Nitrous Oxide Gas
3.4. Fluorinated Gases (HFCs, PFCs and SF6)
4. Conclusions and Perspectives
Author Contributions
Funding
Informed Consent Statement
Acknowledgments
Conflicts of Interest
References
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Greenhouse Gases | Sources/Emission (%) |
---|---|
carbon dioxide | deforestation and combustion of fossil fuel/66 |
methane | wetlands, termites, ruminants, rice agriculture, fossil fuel exploitation, landfills and biomass burning/16 |
nitrous dioxide | soil and animal manure management, sewage treatment, fossil fuel combustion, and chemical industrial processes/7 |
CFC12 (dichlorodifluoro methane) | refrigeration systems/5 |
CFC11 (trichlorofluoro methane) | refrigeration systems/2 |
other | refrigeration systems, electrical insulator, semiconductors and LCD panels manufacturing, etc./4 |
Additive | Effect | Nature |
---|---|---|
Noble metals (less than 5 wt%) (Pd, Pt, Rh, Ag, Au) | increases response to reducing gases decreases operating temperature decreases response time | catalytic effect change of A/D parameters decrease of O2 dissociation temperature |
Al2O3, SiO2 | increases sensor response improves thermal stability | decrease of grain size decrease of area of intergrain contact increase of porosity |
Ag (Ag2O), Cu (Cu2O) | increases response to H2S, SO2 | two-phase system phase transformations during gas detection |
Fe (Fe2O3) | increases response to alcohols | change of oxidation state |
Ga (Ga2O3), Zn (ZnO) | increases sensor response | Decrease of grain size Increase of porosity |
P, B | Improves selectivity | Creation of new phase |
Ca, K, Rb, Mg | Increases sensor response Improves thermal stability | Decrease of grain size |
La, Ba, Y, Ce | Improves thermal stability Increases sensor response | Stabilization of grain size (creation of new phase) Decrease of grain size |
Transition MOXs (<0.5 wt%) (Co, Mn, Sr, Ni) | Increases sensor response Improves selectivity | Catalytic effect Change of electron concentration Change of A/D parameters Change of grain size |
Type of Sensitive Material | Target Gas/Variation of Resistance | Response |
---|---|---|
p-type | reducing/increases | |
oxidizing/decreases | ||
n-type | reducing/decreases | |
oxidizing/increases |
Material | Structure/Synthesis Method | Target Gas/ Concentration (ppm) | Operating T (°C) | Response (%) | Ref. |
---|---|---|---|---|---|
ZnO | thin film/chemical spray pyrolysis | CO2/400 | 350 | 65 | [48] |
ZnO | nanowires/sol-gel | CO2/15 | 200 | 1.04 | [49] |
ZnO | nanostructures films/sol-gel | CO2/50 (sccm) | RT | 1.0 | [41] |
Na/ZnO | spin-coated | 81.9 | |||
CeO2 | nano pellets/co-precipitation | CO2/800 | 400 | ~33 | [50] |
Gd/CeO2 | nano pellets/co-precipitation | CO2/800 | 250 | 45 | |
W/ZnO | nanorods/mechanochemical combustion | CO2/1000 | 450 | ~98 | [46] |
La/ZnO | nanopowders/hydrothermal | CO2/5000 | 400 | 65 | [51] |
Ca/ZnO | nanopowders/sol-gel | CO2/5% | 450 | 113 | [52] |
Ca/ZnO | thin film/wet chemical | CO2/25,000 | 400 | 32 | [53] |
CuO/BaTiO3 | BaTiO3 spheroids decorated with CuO microleaves/co-precipitating | CO2/1000 | 140 | 52 | [54] |
CuO | porous film/pneumatic spray pyrolysis | CO2/100 | RT | 1.04 | [55] |
Zn/SnO2 | thin films/spray pyrolysis | CO2/500 | 310 | 94.4 | [56] |
ZnO/SnO2 | nanocomposites/screen printing | CO2/70 | RT | ~0.64 | [57] |
La2O3/SnO2 | nanofibers/electrospinning | CO2/100 | 300 | 5.1 | [58] |
Au-La2O3/SnO2 | nanofibers/electrospinning, sputtering | CO2/100 | 300 | 10.1 | |
La/SnO2 | nanofilm/hydrothermal, impregnation | CO2/500 | 250 | 29.8 | [59] |
CO2/50 | 5.12 | ||||
CdO | nanowires/microwave-assisted wet chemical | CO2/5000 | 250 | ~1.5 | [60] |
CdO | rod-like nanostructure/microwave radiation | CO2/5% | 250 | 3 | [61] |
Sn/CdO | spherical shaped structures/microwave assisted wet chemical | 15 | |||
CaO/In2O3 | mesoporous/impregnation | CO2/2000 | 230 | ~1.8 | [62] |
YPO4 | nanobelts/surfactant-assisted colloidal | CO2/200 | 400 | - | [63] |
La2O3 | microrods thin films/chemical bath deposition | CO2/350 | 250 | 48 | [64] |
CO2/100 | 4.8 | ||||
LaFeO3/SnO2 | nanocomposites porous film/sol-gel, hydrothermal | CO2/4000 | 250 | 2.72 | [65] |
LaFeO3 | nanocrystalline/sol-gel | CO2/2000 | 300 | 2.19 | [66] |
Pd/La2O3 | thin-film/spray pyrolysis, ionic layer adsorption and reaction | CO2/500 | 250 | 28 | [67] |
La2O3 | thin-film/spray pyrolysis | 13 | |||
Cr/TiO2 | thin-film/RF magnetron sputtering | CO2/10% | 55 | ~9 | [68] |
Al2O3/TiO2 | heterostructure/ALD | CO2/5 | RT | 30.6 | [69] |
Material | Structure/Synthesis Method | Target Gas/ Concentration (ppm) | Operating T (°C) | Response (%) | Ref. |
---|---|---|---|---|---|
TiO2 | nanorods/hydrothermal | CH4/60 | RT | 6028 | [87] |
CH4/5 | 987 | ||||
Cd/TiO3 | thin films/magnetron co-sputtering | CH4/500 | 250 | 3.4 | [88] |
VO2 | nanorods/thermal evaporation | CH4/500 | RT | 35 | [89] |
V2O5 | nano-flowers/magnetron sputtering | CH4/500 | 100 | 11.2 | [90] |
nano-rods | 8.9 | ||||
nano-urchins | 9.1 | ||||
Au/VO2 | nanosheets/CVD, ion sputtering | CH4/500 | RT | ~70 | [83] |
SnO2 | nanoparticles/sol-gel | CH4/20,000 | 80 | ~3.5 | [91] |
SnO2 | quantum dots/sonication assisted precipitation | CH4/5000 | >375 | ~100 | [92] |
SnO2/WO3 | nanosheets/impregnation | CH4/500 | 90 | ~2 | [80] |
WO3 | nanosheets/hydrothermal | ~1.5 | |||
Pd/SnO2 | hollow spheres/adsorption– calcination | CH4/250 | 300 | 4.88 | [93] |
SnO2 | hollow spheres/progressive inward crystallization routine | 400 | 1.31 | ||
SnO2/NiO | porousnanosheets/immersion-calcination | CH4/500 | 330 | 15.2 | [94] |
ZnO/rGO | nanorods, nanosheets/hydrothermal | CH4/100–4000 | 190 | 4.52 | [95] |
ZnO/NiO | porous nanosheets/hydrothermal, post-treatment | CH4/1000 | 340 | 34.2 | [86] |
Pd/SnO2 | nanoporous/hydrothermal | CH4/3000 | 340 | 17.6 | [76] |
NiO/Al | thin films/RF sputtering | CH4/100 | RT | 58 | [96] |
ZnO | nanoporous/electrochemical deposition | CH4/100 | 220 | ~4.8 | [97] |
ZnO | nanowalls/thermal evaporation | CH4/100 | 300 | 8.1 | [98] |
Co/ZnO | nanoparticles/solvothermal | CH4/100 | 140 | 1.05 | [99] |
α-Fe2O3 | nanoparticles/commercial | CH4/4000 | RT | 1.08 | [100] |
αFe1.92/Cu0.08O3 | nanoparticles/homogenous co-precipitation | 1.12 |
Material | Structure/Synthesis Method | Target Gas/ Concentration (ppm) | Operating T (°C) | Sensitivity | Ref. |
---|---|---|---|---|---|
BaO/SnO2 | co-precipitation | N2O/300 | 500 | 3 | [38] |
Sm2O3/SnO2 | 3 | ||||
PbO/SnO2 | 2.5 | ||||
Gd2O3/SnO2 | 2.7 | ||||
SrO/SnO2 | co-precipitation | N2O/300 | 450 | 1.66 | |
500 | 4.5 | ||||
In2O3 | nanowires/carbothermal | N2O/10 | 250 | ~5 | [103] |
WO3 | nanowires/solvothermal | 25 | |||
ZnO | nanorods/self-assembly of ZnO nanodots | ~5 | |||
Au/SnOx | films/L-MOCVD | N2O/100 | 210 | 11.5 | [104] |
SnO2 | N2O/300 | 450 | 1.66 |
Material | Structure/Synthesis Method | Target Gas/ Concentration (ppm) | Operating T (°C) | Response (%) | Ref. |
---|---|---|---|---|---|
NiO/ZnO | nanoflowers/hydrothermal | SO2, SOF2, SO2F2/100 | 260 | SO2 (33.35) SOF2 (22.25) SO2F2 (36.67) | [108] |
Au/ZnO | nanowires/hydrothermal | H2S/1 | RT | 38 | [109] |
In2O3 | nanowires/chemical vapor deposition | H2S/1 | RT | 30.4 | [110] |
In2O3 | single crystal whisker/carbothermal method | H2S/200 ppb | RT | 47.9 | [111] |
CuO | nanowires/resistive heating of Cu wires | H2S/10 ppb | 325 | 40.9 | [112] |
ZnO | flower-like nanorods/ hydrothermal | SO2, SOF2, SO2F2/10 (μL/L) | (SO2)250 (SOF2 and SO2F2) 300 | SO2 (−33.44) SOF2 (−12.47) SO2F2 (−18.06) | [113] |
TiO2 | nanotube array/anodic oxidation | SO2, SOF2, SO2F2/50 | 200 | SO2 (−76) SOF2 (−7.8) SO2F2 (−5.5) | [114] |
CuO/WO3 | nanowires/thermal evaporation followed sputter-deposition, thermal annealing | H2S/100 | 300 | 6.72 | [115] |
TiO2 | nanotube array/anodic oxidation | SO2, SOF2, SO2F2/50 | 110 | SO2 (−74.6) SOF2 (−7.82) SO2F2 (−5.52) | [116] |
Au/TiO2 | nanotube array/ deposition-precipitation | SO2, SOF2, SO2F2/50 | 110 | SO2F2 (−19.95) SOF2 (−9.97) SO2 (−8.73) | |
TiO2/NiSO4 | nanofibers/electrospun, hydrothermal | SO2F2/100 | RT | 189 | [117] |
SnO2 | microspheres/hydrothermal | SO2/30 | 300 | 43.15 | [118] |
Cu/SnO2 | microspheres/conventionalindirect heating | 275 | 23.37 | ||
Fe2O3/NiO | nanoplates/solvothermal | H2S/50 | 200 | 26.48 | [119] |
Pt/TiO2 | nanotube arrays/pulse electrodeposition | SO2, SOF2, SO2F2/50 | 150 | SO2 (8.38) SOF2 (6.11) SO2F2 (17.91) | [120] |
ZnO/SnO2 | nanofibers/electrospinning | H2S/50 | 250 | 66.23 | [121] |
WO3/NiO | nanoflowers/hydrothermal | H2S/20 | 160 | 33.34 | [122] |
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Dadkhah, M.; Tulliani, J.-M. Nanostructured Metal Oxide Semiconductors towards Greenhouse Gas Detection. Chemosensors 2022, 10, 57. https://doi.org/10.3390/chemosensors10020057
Dadkhah M, Tulliani J-M. Nanostructured Metal Oxide Semiconductors towards Greenhouse Gas Detection. Chemosensors. 2022; 10(2):57. https://doi.org/10.3390/chemosensors10020057
Chicago/Turabian StyleDadkhah, Mehran, and Jean-Marc Tulliani. 2022. "Nanostructured Metal Oxide Semiconductors towards Greenhouse Gas Detection" Chemosensors 10, no. 2: 57. https://doi.org/10.3390/chemosensors10020057
APA StyleDadkhah, M., & Tulliani, J. -M. (2022). Nanostructured Metal Oxide Semiconductors towards Greenhouse Gas Detection. Chemosensors, 10(2), 57. https://doi.org/10.3390/chemosensors10020057