Standard

Methane dry reforming on nanocomposite catalysts : Design, kinetics, and mechanism. / Sadykov, V. A.; Bobrova, L. N.; Mezentseva, N. V. et al.

Small-Scale Gas to Liquid Fuel Synthesis. CRC Press, 2015. p. 315-375.

Research output: Chapter in Book/Report/Conference proceeding › Chapter › Research › peer-review

Harvard

Sadykov, VA, Bobrova, LN, Mezentseva, NV, Pavlova, SN, Fedorova, YE, Bobin, AS, Vostrikov, ZY, Glazneva, TS, Smirnova, MY, Sazonova, NN, Rogov, VA, Ishchenko, A, Marin, GB, Thybaut, JW, Galvita, VV, Schuurman, Y & Mirodatos, C 2015, Methane dry reforming on nanocomposite catalysts: Design, kinetics, and mechanism. in Small-Scale Gas to Liquid Fuel Synthesis. CRC Press, pp. 315-375. https://doi.org/10.1201/b18075

APA

Sadykov, V. A., Bobrova, L. N., Mezentseva, N. V., Pavlova, S. N., Fedorova, Y. E., Bobin, A. S., Vostrikov, Z. Y., Glazneva, T. S., Smirnova, M. Y., Sazonova, N. N., Rogov, V. A., Ishchenko, A., Marin, G. B., Thybaut, J. W., Galvita, V. V., Schuurman, Y., & Mirodatos, C. (2015). Methane dry reforming on nanocomposite catalysts: Design, kinetics, and mechanism. In Small-Scale Gas to Liquid Fuel Synthesis (pp. 315-375). CRC Press. https://doi.org/10.1201/b18075

Vancouver

Sadykov VA, Bobrova LN, Mezentseva NV, Pavlova SN, Fedorova YE, Bobin AS et al. Methane dry reforming on nanocomposite catalysts: Design, kinetics, and mechanism. In Small-Scale Gas to Liquid Fuel Synthesis. CRC Press. 2015. p. 315-375 doi: 10.1201/b18075

Author

Sadykov, V. A. ; Bobrova, L. N. ; Mezentseva, N. V. et al. / Methane dry reforming on nanocomposite catalysts : Design, kinetics, and mechanism. Small-Scale Gas to Liquid Fuel Synthesis. CRC Press, 2015. pp. 315-375

BibTeX

@inbook{8d4c9cd66b63464998ac8ad68b16cde4,
title = "Methane dry reforming on nanocomposite catalysts: Design, kinetics, and mechanism",
abstract = "Electricity and hydrogen are now considered as the dominant energy carriers in modern green chemical and process engineering. Nowadays, almost all of the hydrogen is produced commercially from natural gas (NG) via steam reforming to synthesis gas, also denoted as syngas, that is, a mixture comprising H2 and CO. Synthesis gas production via alternative routes to traditional methane steam reforming has recently attracted considerable attention due to both environmental and commercial reasons [1,2]. Transformation of NG using carbon dioxide and reforming of oxygenates derived from fast pyrolysis of biomass to synthesis gas are the most promising processes [3-14]. Dry reforming transforms cheap and undesirable greenhouse gases such as methane and carbon dioxide and is particularly important in the case of biogas or gas fields containing a significant amount of both compounds.",
author = "Sadykov, {V. A.} and Bobrova, {L. N.} and Mezentseva, {N. V.} and Pavlova, {S. N.} and Fedorova, {Yu E.} and Bobin, {A. S.} and Vostrikov, {Z. Yu} and Glazneva, {T. S.} and Smirnova, {M. Yu} and Sazonova, {N. N.} and Rogov, {V. A.} and A. Ishchenko and Marin, {Guy B.} and Thybaut, {Joris W.} and Galvita, {V. V.} and Y. Schuurman and C. Mirodatos",
year = "2015",
month = jan,
day = "1",
doi = "10.1201/b18075",
language = "English",
isbn = "9781466599383",
pages = "315--375",
booktitle = "Small-Scale Gas to Liquid Fuel Synthesis",
publisher = "CRC Press",
address = "United States",

}

RIS

TY - CHAP

T1 - Methane dry reforming on nanocomposite catalysts

T2 - Design, kinetics, and mechanism

AU - Sadykov, V. A.

AU - Bobrova, L. N.

AU - Mezentseva, N. V.

AU - Pavlova, S. N.

AU - Fedorova, Yu E.

AU - Bobin, A. S.

AU - Vostrikov, Z. Yu

AU - Glazneva, T. S.

AU - Smirnova, M. Yu

AU - Sazonova, N. N.

AU - Rogov, V. A.

AU - Ishchenko, A.

AU - Marin, Guy B.

AU - Thybaut, Joris W.

AU - Galvita, V. V.

AU - Schuurman, Y.

AU - Mirodatos, C.

PY - 2015/1/1

Y1 - 2015/1/1

N2 - Electricity and hydrogen are now considered as the dominant energy carriers in modern green chemical and process engineering. Nowadays, almost all of the hydrogen is produced commercially from natural gas (NG) via steam reforming to synthesis gas, also denoted as syngas, that is, a mixture comprising H2 and CO. Synthesis gas production via alternative routes to traditional methane steam reforming has recently attracted considerable attention due to both environmental and commercial reasons [1,2]. Transformation of NG using carbon dioxide and reforming of oxygenates derived from fast pyrolysis of biomass to synthesis gas are the most promising processes [3-14]. Dry reforming transforms cheap and undesirable greenhouse gases such as methane and carbon dioxide and is particularly important in the case of biogas or gas fields containing a significant amount of both compounds.

AB - Electricity and hydrogen are now considered as the dominant energy carriers in modern green chemical and process engineering. Nowadays, almost all of the hydrogen is produced commercially from natural gas (NG) via steam reforming to synthesis gas, also denoted as syngas, that is, a mixture comprising H2 and CO. Synthesis gas production via alternative routes to traditional methane steam reforming has recently attracted considerable attention due to both environmental and commercial reasons [1,2]. Transformation of NG using carbon dioxide and reforming of oxygenates derived from fast pyrolysis of biomass to synthesis gas are the most promising processes [3-14]. Dry reforming transforms cheap and undesirable greenhouse gases such as methane and carbon dioxide and is particularly important in the case of biogas or gas fields containing a significant amount of both compounds.

UR - http://www.scopus.com/inward/record.url?scp=85053966711&partnerID=8YFLogxK

U2 - 10.1201/b18075

DO - 10.1201/b18075

M3 - Chapter

AN - SCOPUS:85053966711

SN - 9781466599383

SP - 315

EP - 375

BT - Small-Scale Gas to Liquid Fuel Synthesis

PB - CRC Press

ER -

ID: 25396111