9913 | Cr-Mn-Fe-Co-Ni | 100 nm for EC
Type: Sample show more
ObjectId: 56694 ExternalId: 9913
Created: 11/3/2023 12:20:44 PM by Strotkötter Valerie [valerie.strotkoetter@rub.de]
Updated: 2/25/2026 5:18:03 PM by Buergel Jan [jan.buergel@ruhr-uni-bochum.de]
Access: Public Sort Code (asc): 0
License: CC BY 4.0
Description: Sample for Cr-Mn-Fe-Co-Ni based (Cr-Mn-Fe-Co-Ni at Si, ID=0009913, K7) by Strotkötter Valerie.
[no file attached]
: Co-Cr-Fe-Mn-Ni
Associated Objects
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9913 | Cr-Mn-Fe-Co-Ni | 100 nm for EC | piece 1 | 7x7 mm
Sample7x7 mm, broken (piece 1), 24h 1.7V vs RHE in 0.1 KOH
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9913 | Cr-Mn-Fe-Co-Ni | 100 nm for EC | piece 2 | 7x7 mm
Sample7x7 mm, broken (piece 2), 48h 1.7V vs RHE in 0.1 KOH
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9913 | Cr-Mn-Fe-Co-Ni | 100 nm for EC | piece 3 | 7x7 mm
Sample7x7 mm, broken (piece 3), 5h and 10s 1.7V vs RHE in 0.1 KOH
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9913 | Cr-Mn-Fe-Co-Ni | 100 nm for EC | piece 4 | 3x3 cm
Sample3x3 cm, broken (piece 4), sent to Nico Röttcher (Helmholtz-Institut Erlangen-Nürnberg) for flow cell measurements (ERC DEMI)
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9913 | Cr-Mn-Fe-Co-Ni | 100 nm for EC | piece 5 | 7x7 mm
Sample7x7 mm, broken (piece 5), backup sample for further EC experiments
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9913 synthesis (single material, 231103-K7-1, id=74570)
SynthesisSynthesis for Sample 9913 (single material, 231103-K7-1, Cantor alloy for EC (100 nm))
Referenced Objects (Reverse Association)
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Self-formation of compositionally complex surface oxides on high entropy alloys observed by accelerated atom probe tomography: a route to sustainable catalysts
Idea or experiment planSustainable catalysts rely on abundant elements which are prone to oxidation. A route to non-noble electrocatalysts is opened by directing the formation of unavoidable surface oxides towards creating a few atomic layers of an active and stable electrocatalyst, which is in direct contact with its metallic, conducting support. This is enabled by combining possibilities of compositionally complex solid solutions with accelerated atomic-scale surface characterization. Surface composition changes from the as-synthesized state to states after exposure to the oxygen evolution reaction (OER) are investigated using a Cantor-alloy-catalyst-coated tip array for atom probe tomography (APT): The film on top of the tip forms a nanoreactor which enables acquisition of intrinsic properties. The as-deposited film has an around 3 nm thick native oxide; short and prolonged OER exposures result in an oxygen-influenced surface layer with lower oxidation depth and altered metal composition. This shows that as-synthesized complex c
All properties (except table)
No properties found