has been cited by the following article(s):
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[1]
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NO direct decomposition: progress, challenges and opportunities
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2021 |
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[2]
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A review on the catalytic decomposition of NO to N 2 and O 2: catalysts and processes
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Catalysis Science & Technology,
2018 |
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[3]
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Katalytický rozklad jako možnost snížení emisí NO
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2018 |
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[4]
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Membrane reactors for the decomposition of H2O, NOx and CO2 to produce hydrogen
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2015 |
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[5]
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Membrane reactors for the decomposition of H2O, NOx and CO2 to produce hydrogen
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Membrane Reactors for Energy Applications and Basic Chemical Production,
2015 |
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[6]
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Direct NO decomposition over C-type cubic Y2O3–Pr6O11–Eu2O3 solid solutions
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Catalysis Today,
2015 |
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[7]
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Fundamental Aspects of Rare Earth Oxides Affecting Direct NO Decomposition Catalysis
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European Journal of Inorganic Chemistry,
2015 |
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[8]
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Direct NO decomposition over C-type cubic Y2O3–Pr6O11–Eu2O3 solid solutions
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Catalysis Today,
2015 |
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[9]
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Direct decomposition of nitrogen monoxide over C-type cubic Y 2 O 3–Pr 6 O 11 solid solutions
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RSC Advances,
2014 |
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[10]
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Effect of the introduction of oxide ion vacancies into cubic fluorite-type rare earth oxides on the NO decomposition catalysis
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Journal of Solid State Chemistry,
2014 |
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[11]
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Direct decomposition of nitrogen monoxide on (Ho, Zr, Pr) 2 O 3+ δ Catalysts
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Catalysis Communications,
2014 |
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[12]
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Direct decomposition of nitrogen monoxide on (Ho, Zr, Pr) 2O3+ δ Catalysts
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Catalysis Communications,
2014 |
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[13]
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Direct NO Decomposition on C-type Cubic Y2O3-Pr6O11 Solid Solutions
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11th European Congress on Catalysis – EuropaCat-XI, Lyon, France,
2013 |
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[14]
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NO direct decomposition: Progresses, challenges and opportunities
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