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Anode Functional sentence examples within solid oxide fuel

solid oxide fuel

The thin-film multilayer structure of the membrane-electrode assembly in a solid oxide fuel cell which involves a NiO/ZrO2:Y2O3 anode functional layer and a La0.

The Effect of Thin Functional Electrode Layers on Characteristics of Intermediate Temperature Solid Oxide Fuel Cell

solid oxide fuel

The microstructure and composition of the deposited films were investigated with regard to application as thin anode functional layers (AFLs) for solid oxide fuel cells (SOFCs).

Effect of magnetron sputtered anode functional layer on the anode-supported solid oxide fuel cell performance

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Anode Functional sentence examples within Thin Anode Functional

Thin Anode Functional

The thick YSZ substrate is able to inhibit the ratio of fuel to product gases in the thin anode functional layer, which favors the prevention of carbon buildup in the thin anode layer when synergistically combined with Ni-Ce0.

Fabrication and Characterization of Thin-Film SOFC Supported by Microchannel-Structured Zirconia Substrate for Direct Methane Operation

Thin Anode Functional

The microstructure and composition of the deposited films were investigated with regard to application as thin anode functional layers (AFLs) for solid oxide fuel cells (SOFCs).

Effect of magnetron sputtered anode functional layer on the anode-supported solid oxide fuel cell performance

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Anode Functional sentence examples within anode functional layer

anode functional layer

This process, without an anode functional layer, improves the conventional repeated impregnation that results in anode porosity blocking and difficult extending to the anode/electrolyte interface.

Thin layer electrolyte impregnation into porous anode-supported fuel cell by ultrasonic spray pyrolysis

anode functional layer

The thin-film multilayer structure of the membrane-electrode assembly in a solid oxide fuel cell which involves a NiO/ZrO2:Y2O3 anode functional layer and a La0.

The Effect of Thin Functional Electrode Layers on Characteristics of Intermediate Temperature Solid Oxide Fuel Cell

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10.1016/J.IJHYDENE.2021.02.039

This process, without an anode functional layer, improves the conventional repeated impregnation that results in anode porosity blocking and difficult extending to the anode/electrolyte interface.

Thin layer electrolyte impregnation into porous anode-supported fuel cell by ultrasonic spray pyrolysis

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10.1016/J.JPOWSOUR.2021.230432

A fast Ni migration mechanism is proposed to explain the observable Ni depletion in the anode functional layer, which is verified by detailed post-test characterization.

Quantifying the performance evolution of solid oxide fuel cells during initial aging process

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10.1016/J.MATLET.2021.130516

% Y2O3 co-stabilized zirconia (10Sc1YSZ) were fabricated by tape casting, followed by sintering and screen-printing of the anode functional layer of 10 mol.

Relationships between mechanical stability of the anode supports and electrochemical performance of intermediate-temperature SOFCs

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10.1016/J.JPOWSOUR.2021.229792

In this work, anode support unit cells from 4 stacks are sampled and their anode functional layers and supports’ microstructure are evaluated with Focused Ion Beam-Scanning Electron Microscope and optical microscope.

Comparative study on solid oxide fuel cell anode microstructure evolution after long-term operation

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10.1051/MATECCONF/202133317001

The anode and electrolyte layers were produced as long, flat strips which were aligned in parallel to form sheets; these sheets were stacked orthogonally to complete the 3D microstructure called the ‘anode functional layer’.

Microfabrication of Anode Functional Layer in SOFC by 3D Printer

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10.1039/D1TA02848K

5CoO3−δ (LSC) thin film (∼90 nm) as an anode functional layer (AFL).

The effect of an anode functional layer on the steam electrolysis performances of protonic solid oxide cells

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10.1016/J.IJHYDENE.2018.02.143

The screen printing method was used to print a 3 μm thick NiO anode contact layer, 7 μm thick NiO/8YSZ 50/50 wt% anode functional layer, 4 μm thick 8YSZ dense electrolyte, 1.

Characterization of a circular 80 mm anode supported solid oxide fuel cell (AS-SOFC) with anode support produced using high-pressure injection molding (HPIM)

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10.1007/s10853-019-04007-4

To improve the electrochemical performance of NiO–3YSZ planar anode, an anode functional layer of NiO–8YSZ was introduced between NiO–3YSZ anode and electrolyte layer by spin-coating method.

Enhanced performance of NiO–3YSZ planar anode-supported SOFC with an anode functional layer

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10.1021/acsami.9b12236

The optimization strategy of the photoanode functionalization was examined through testing the effect of ionomer loading and the ionomer composition.

Solar hydrogen generation from ambient humidity using functionalized porous photoanodes.

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10.1016/J.ELECTACTA.2018.11.018

Nanostructured nickel-yttria-stabilized zirconia (Ni-YSZ) anode functional layer (AFL) and YSZ/gadolinia-doped ceria (GDC) bi-layer electrolyte are fabricated over a sintered anode support by pulsed laser deposition (PLD), a physical vapor deposition technology.

Sintered powder-base cathode over vacuum-deposited thin-film electrolyte of low-temperature solid oxide fuel cell: Performance and stability

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10.1016/J.JMST.2018.10.015

% yttria stabilized zirconia) anode functional layer, dense 8YSZ electrolyte layer, and porous 3YSZ cathode scaffold layer with infiltrated La0.

Electrochemical property of multi-layer anode supported solid oxide fuel cell fabricated through sequential tape-casting and co-firing

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10.1080/07388551.2019.1662367

In this review, the effects of anode functional groups on electroactive bacteria through the whole biofilm formation process are summarized.

Functional group surface modifications for enhancing the formation and performance of exoelectrogenic biofilms on the anode of a bioelectrochemical system

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What is/are Anode Functional?

Anode Functional - This process, without an anode functional layer, improves the conventional repeated impregnation that results in anode porosity blocking and difficult extending to the anode/electrolyte interface. [1] A fast Ni migration mechanism is proposed to explain the observable Ni depletion in the anode functional layer, which is verified by detailed post-test characterization. [2] % Y2O3 co-stabilized zirconia (10Sc1YSZ) were fabricated by tape casting, followed by sintering and screen-printing of the anode functional layer of 10 mol. [3] In this work, anode support unit cells from 4 stacks are sampled and their anode functional layers and supports’ microstructure are evaluated with Focused Ion Beam-Scanning Electron Microscope and optical microscope. [4] The anode and electrolyte layers were produced as long, flat strips which were aligned in parallel to form sheets; these sheets were stacked orthogonally to complete the 3D microstructure called the ‘anode functional layer’. [5] 5CoO3−δ (LSC) thin film (∼90 nm) as an anode functional layer (AFL). [6] The screen printing method was used to print a 3 μm thick NiO anode contact layer, 7 μm thick NiO/8YSZ 50/50 wt% anode functional layer, 4 μm thick 8YSZ dense electrolyte, 1. [7] To improve the electrochemical performance of NiO–3YSZ planar anode, an anode functional layer of NiO–8YSZ was introduced between NiO–3YSZ anode and electrolyte layer by spin-coating method. [8] The optimization strategy of the photoanode functionalization was examined through testing the effect of ionomer loading and the ionomer composition. [9] Nanostructured nickel-yttria-stabilized zirconia (Ni-YSZ) anode functional layer (AFL) and YSZ/gadolinia-doped ceria (GDC) bi-layer electrolyte are fabricated over a sintered anode support by pulsed laser deposition (PLD), a physical vapor deposition technology. [10] % yttria stabilized zirconia) anode functional layer, dense 8YSZ electrolyte layer, and porous 3YSZ cathode scaffold layer with infiltrated La0. [11] In this review, the effects of anode functional groups on electroactive bacteria through the whole biofilm formation process are summarized. [12]

solid oxide fuel

The thin-film multilayer structure of the membrane-electrode assembly in a solid oxide fuel cell which involves a NiO/ZrO2:Y2O3 anode functional layer and a La0. [1] The microstructure and composition of the deposited films were investigated with regard to application as thin anode functional layers (AFLs) for solid oxide fuel cells (SOFCs). [2] In this work, the effects of an anode functional layer (AFL) with various thicknesses on the physical properties of anode and the electrochemical performance of the anode-supported solid oxide fuel cells (SOFCs) have been systematically studied. [3] By combining two different Pd insertion methods, sputtering and infiltration, four different thin-film-based solid oxide fuel cells were prepared: (1) the cell without Pd (Ref-cell); (2) the cell with Pd at the anode functional layer, which was fabricated by alternating sputtered Pd layers with pulsed-laser deposited NiO/yttria-stabilized zirconia layers (Pd-S-cell); (3) the cell with Pd at the anode support, which was fabricated by infiltration (Ref-I-cell); and (4) the cell with Pd at both the anode functional layer and anode support (Pd-S-I-cell). [4] This solid oxide fuel cell (SOFC) consists of Ni:yttria stabilized zirconia (YSZ) support (with different weight ratios of Ni:YSZ), Ni-BZCYYb anode functional layer (AFL), BZCYYb electrolyte and LSCF-BZCYYb cathode. [5] In anode-supported Solid Oxide Fuel Cells the fuel electrode is usually realized by a supporting substrate and an anode functional layer, both based on nickel/zirconia-cermets with different specific microstructural properties. [6] Here, we described the fabrication of an anode functional layer for an electrolyte-supported solid oxide fuel cells (SOFCs) using E-jet printing technique. [7]

Thin Anode Functional

The thick YSZ substrate is able to inhibit the ratio of fuel to product gases in the thin anode functional layer, which favors the prevention of carbon buildup in the thin anode layer when synergistically combined with Ni-Ce0. [1] The microstructure and composition of the deposited films were investigated with regard to application as thin anode functional layers (AFLs) for solid oxide fuel cells (SOFCs). [2]

anode functional layer

This process, without an anode functional layer, improves the conventional repeated impregnation that results in anode porosity blocking and difficult extending to the anode/electrolyte interface. [1] The thin-film multilayer structure of the membrane-electrode assembly in a solid oxide fuel cell which involves a NiO/ZrO2:Y2O3 anode functional layer and a La0. [2] The main objective of this study is to perform a structural analysis of NiO-BCZY anode functional layer (AFL) with different weight ratio (NiO:BCZY = 20:80 and 40:60). [3] The thick YSZ substrate is able to inhibit the ratio of fuel to product gases in the thin anode functional layer, which favors the prevention of carbon buildup in the thin anode layer when synergistically combined with Ni-Ce0. [4] A fast Ni migration mechanism is proposed to explain the observable Ni depletion in the anode functional layer, which is verified by detailed post-test characterization. [5] % Y2O3 co-stabilized zirconia (10Sc1YSZ) were fabricated by tape casting, followed by sintering and screen-printing of the anode functional layer of 10 mol. [6] In this work, anode support unit cells from 4 stacks are sampled and their anode functional layers and supports’ microstructure are evaluated with Focused Ion Beam-Scanning Electron Microscope and optical microscope. [7] The anode and electrolyte layers were produced as long, flat strips which were aligned in parallel to form sheets; these sheets were stacked orthogonally to complete the 3D microstructure called the ‘anode functional layer’. [8] 5CoO3−δ (LSC) thin film (∼90 nm) as an anode functional layer (AFL). [9] The microstructure and composition of the deposited films were investigated with regard to application as thin anode functional layers (AFLs) for solid oxide fuel cells (SOFCs). [10] The resulting half-cells contains a 300 μm thick NiO–yttria-stabilized zirconia (YSZ) anode support, a 20 μm NiO–YSZ anode functional layer, and an 8 μm YSZ electrolyte membrane. [11] The screen printing method was used to print a 3 μm thick NiO anode contact layer, 7 μm thick NiO/8YSZ 50/50 wt% anode functional layer, 4 μm thick 8YSZ dense electrolyte, 1. [12] To improve the electrochemical performance of NiO–3YSZ planar anode, an anode functional layer of NiO–8YSZ was introduced between NiO–3YSZ anode and electrolyte layer by spin-coating method. [13] In this work, the effects of an anode functional layer (AFL) with various thicknesses on the physical properties of anode and the electrochemical performance of the anode-supported solid oxide fuel cells (SOFCs) have been systematically studied. [14] By combining two different Pd insertion methods, sputtering and infiltration, four different thin-film-based solid oxide fuel cells were prepared: (1) the cell without Pd (Ref-cell); (2) the cell with Pd at the anode functional layer, which was fabricated by alternating sputtered Pd layers with pulsed-laser deposited NiO/yttria-stabilized zirconia layers (Pd-S-cell); (3) the cell with Pd at the anode support, which was fabricated by infiltration (Ref-I-cell); and (4) the cell with Pd at both the anode functional layer and anode support (Pd-S-I-cell). [15] This solid oxide fuel cell (SOFC) consists of Ni:yttria stabilized zirconia (YSZ) support (with different weight ratios of Ni:YSZ), Ni-BZCYYb anode functional layer (AFL), BZCYYb electrolyte and LSCF-BZCYYb cathode. [16] Nanostructured nickel-yttria-stabilized zirconia (Ni-YSZ) anode functional layer (AFL) and YSZ/gadolinia-doped ceria (GDC) bi-layer electrolyte are fabricated over a sintered anode support by pulsed laser deposition (PLD), a physical vapor deposition technology. [17] % yttria stabilized zirconia) anode functional layer, dense 8YSZ electrolyte layer, and porous 3YSZ cathode scaffold layer with infiltrated La0. [18] It is generally assumed that electro-oxidation of fuel takes place in the thinner anode functional layer (AFL) adjacent to the electrolyte, while gas diffusion takes place in the thicker anode substrate (AS). [19] In anode-supported Solid Oxide Fuel Cells the fuel electrode is usually realized by a supporting substrate and an anode functional layer, both based on nickel/zirconia-cermets with different specific microstructural properties. [20] Here, we described the fabrication of an anode functional layer for an electrolyte-supported solid oxide fuel cells (SOFCs) using E-jet printing technique. [21]