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Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes based on fundamental studies of their oxygen mobility and surface reactivity. / Sadykov, Vladislav; Sadovskaya, Ekaterina; Eremeev, Nikita et al.

In: E3S Web of Conferences, Vol. 116, 00068, 24.09.2019.

Research output: Contribution to journal › Conference article › peer-review

Harvard

Sadykov, V, Sadovskaya, E, Eremeev, N, Pikalova, E, Bogdanovich, N, Filonova, E, Fedorova, Y, Krasnov, A, Skriabin, P & Lukashevich, A 2019, 'Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes based on fundamental studies of their oxygen mobility and surface reactivity', E3S Web of Conferences, vol. 116, 00068. https://doi.org/10.1051/e3sconf/201911600068

APA

Sadykov, V., Sadovskaya, E., Eremeev, N., Pikalova, E., Bogdanovich, N., Filonova, E., Fedorova, Y., Krasnov, A., Skriabin, P., & Lukashevich, A. (2019). Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes based on fundamental studies of their oxygen mobility and surface reactivity. E3S Web of Conferences, 116, [00068]. https://doi.org/10.1051/e3sconf/201911600068

Vancouver

Sadykov V, Sadovskaya E, Eremeev N, Pikalova E, Bogdanovich N, Filonova E et al. Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes based on fundamental studies of their oxygen mobility and surface reactivity. E3S Web of Conferences. 2019 Sept 24;116:00068. doi: 10.1051/e3sconf/201911600068

Author

Sadykov, Vladislav ; Sadovskaya, Ekaterina ; Eremeev, Nikita et al. / Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes based on fundamental studies of their oxygen mobility and surface reactivity. In: E3S Web of Conferences. 2019 ; Vol. 116.

BibTeX

@article{b2a8a5ff88854d7288f347aef7d5a0fe,
title = "Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes based on fundamental studies of their oxygen mobility and surface reactivity",
abstract = "Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes and studying their oxygen transport characteristics are important problems of modern hydrogen energy. In the current work, fundamentals of such materials design based on characterization of their oxygen mobility by oxygen isotope exchange with C18O2 and 18O2 in flow and closed reactors for samples of Ruddlesden - Popper-type oxides Ln2-xCaxNiO4+δ, perovskite-fluorite nanocomposites PrNi0.5Co0.5O3-δ - Ce0.9Y0.1O2-δ, etc. are presented. Fast oxygen transport was demonstrated for PNC - YDC (DO ~10-8 cm2/s at 700°C) nanocomposites due to domination of the fast diffusion channel involving oxygen of the fluorite phase with incorporated Pr cations and developed perovskite-fluorite interfaces. For LnCNO materials a high oxygen mobility (DO ~10-7 cm2/s at 700°C) provided by the cooperative mechanism of its migration was demonstrated. Depending on Ca dopant content and Ln cation nature, in some cases 1-2 additional channels of the slow diffusion appear due to decreasing the interstitial oxygen content and increasing the energy barrier for oxygen jumps due to cationic size effect. Optimized by the chemical composition and nanodomain structure materials of these types demonstrated a high performance as SOFC cathodes and functional layers in asymmetric supported oxygen separation membranes.",
author = "Vladislav Sadykov and Ekaterina Sadovskaya and Nikita Eremeev and Elena Pikalova and Nina Bogdanovich and Elena Filonova and Yulia Fedorova and Alexey Krasnov and Pavel Skriabin and Anton Lukashevich",
year = "2019",
month = sep,
day = "24",
doi = "10.1051/e3sconf/201911600068",
language = "English",
volume = "116",
journal = "E3S Web of Conferences",
issn = "2555-0403",
publisher = "EDP Sciences",
note = "2019 International Conference on Advances in Energy Systems and Environmental Engineering, ASEE 2019 ; Conference date: 09-06-2019 Through 12-06-2019",

}

RIS

TY - JOUR

T1 - Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes based on fundamental studies of their oxygen mobility and surface reactivity

AU - Sadykov, Vladislav

AU - Sadovskaya, Ekaterina

AU - Eremeev, Nikita

AU - Pikalova, Elena

AU - Bogdanovich, Nina

AU - Filonova, Elena

AU - Fedorova, Yulia

AU - Krasnov, Alexey

AU - Skriabin, Pavel

AU - Lukashevich, Anton

PY - 2019/9/24

Y1 - 2019/9/24

N2 - Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes and studying their oxygen transport characteristics are important problems of modern hydrogen energy. In the current work, fundamentals of such materials design based on characterization of their oxygen mobility by oxygen isotope exchange with C18O2 and 18O2 in flow and closed reactors for samples of Ruddlesden - Popper-type oxides Ln2-xCaxNiO4+δ, perovskite-fluorite nanocomposites PrNi0.5Co0.5O3-δ - Ce0.9Y0.1O2-δ, etc. are presented. Fast oxygen transport was demonstrated for PNC - YDC (DO ~10-8 cm2/s at 700°C) nanocomposites due to domination of the fast diffusion channel involving oxygen of the fluorite phase with incorporated Pr cations and developed perovskite-fluorite interfaces. For LnCNO materials a high oxygen mobility (DO ~10-7 cm2/s at 700°C) provided by the cooperative mechanism of its migration was demonstrated. Depending on Ca dopant content and Ln cation nature, in some cases 1-2 additional channels of the slow diffusion appear due to decreasing the interstitial oxygen content and increasing the energy barrier for oxygen jumps due to cationic size effect. Optimized by the chemical composition and nanodomain structure materials of these types demonstrated a high performance as SOFC cathodes and functional layers in asymmetric supported oxygen separation membranes.

AB - Design of materials for solid oxide fuel cells cathodes and oxygen separation membranes and studying their oxygen transport characteristics are important problems of modern hydrogen energy. In the current work, fundamentals of such materials design based on characterization of their oxygen mobility by oxygen isotope exchange with C18O2 and 18O2 in flow and closed reactors for samples of Ruddlesden - Popper-type oxides Ln2-xCaxNiO4+δ, perovskite-fluorite nanocomposites PrNi0.5Co0.5O3-δ - Ce0.9Y0.1O2-δ, etc. are presented. Fast oxygen transport was demonstrated for PNC - YDC (DO ~10-8 cm2/s at 700°C) nanocomposites due to domination of the fast diffusion channel involving oxygen of the fluorite phase with incorporated Pr cations and developed perovskite-fluorite interfaces. For LnCNO materials a high oxygen mobility (DO ~10-7 cm2/s at 700°C) provided by the cooperative mechanism of its migration was demonstrated. Depending on Ca dopant content and Ln cation nature, in some cases 1-2 additional channels of the slow diffusion appear due to decreasing the interstitial oxygen content and increasing the energy barrier for oxygen jumps due to cationic size effect. Optimized by the chemical composition and nanodomain structure materials of these types demonstrated a high performance as SOFC cathodes and functional layers in asymmetric supported oxygen separation membranes.

UR - http://www.scopus.com/inward/record.url?scp=85072797521&partnerID=8YFLogxK

U2 - 10.1051/e3sconf/201911600068

DO - 10.1051/e3sconf/201911600068

M3 - Conference article

AN - SCOPUS:85072797521

VL - 116

JO - E3S Web of Conferences

JF - E3S Web of Conferences

SN - 2555-0403

M1 - 00068

T2 - 2019 International Conference on Advances in Energy Systems and Environmental Engineering, ASEE 2019

Y2 - 9 June 2019 through 12 June 2019

ER -

ID: 21792213