SBIR/STTR Research Award

Low Cost HEA Anode for Distributed Reforming and Prevention of Carbon Deposition in SOFC(16-RD-909)

Award identifier cfe92ca3b9a04a65f543de4b5358c5336df13b93b28d5f5f1a249c2fdb1aa912Awarding agency Department of Energy

Award amount

$155,000

Program and phase

STTR · Phase I

Award year

2017

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Award details

Awarding agency
Department of Energy
Branch
Not reported
Recipient company
UES SERVICES INC
Proposal award date
2017-02-21
Contract end date
2018-02-20
UEI
XFHKLMFGUML3
Solicitation number
DE-FOA-0001618
Topic code
17b

Research abstract

Direct Internal Reforming Solid Oxide Fuel Cells require an anode material with good catalytic reforming and electrochemical reactivity. Although the current state-of-the-art solid oxide fuel cell anode consisting of nickel and yttrium-stabilized zirconia (Ni-YSZ) has excellent catalytic properties and stability for the H2 oxidation at the usual operation conditions, the use of Ni-YSZ anode with carbon containing fuels results in the deposition of large quantities of carbon on the nickel surface, resulting in a marked irreversible reduction of cell performance. Our approach is to replace Ni with a predominantly single phase multi-principal element alloy. Multi-principal element alloys are a new alloy development strategy, where the base alloy has significant atom fractions of several elements. We propose to combine Cu, Fe, Co, Mn, and Ni and to make cermet with YSZ for the anode. In Phase I, we will perform thermodynamic calculations to determine composition ranges for solid-solution CoFeMn, CoCuFeMn and NiCoCuFeMn alloys and fabricate selected alloys for catalytic ability and coking resistance. MPEA-YSZ anode will be fabricated from selected alloys using thin film deposition by cathodic arc evaporation and conventional powder metallurgy routes followed by post annealing on YSZ electrolyte. Symmetric and full cells will be fabricated and tested for electrochemical performance and carbon deposition of the new anode material. Commercial Applications and Other Benefits Solid oxide fuel cells offer a clean technology to generate electricity at high efficiencies; since their efficiencies are not limited the way a conventional heat engine's is. These fuel cells provide many advantages over traditional energy conversion systems including high efficiency, reliability, modularity, fuel adaptability, and very low levels of polluting emissions. This project will enable rapid commercialization of the technology by eliminating some of the drawbacks of the current anode material

Technology keywords

Not reported

Other awards by this recipient

Verified by the same UEI. These are other public SBIR/STTR award pages, not a merged company record.

Awards with the same topic code

Verified by an exact topic code match. This is not a text-similarity match.

Research funding history

6 SBIR/STTR records share this UEI (2015–2018). Reported award amounts total $3,780,000. Reported amounts are not federal obligations.

Phases: Phase II, Phase I

Agencies: Department of Energy, Department of Defense

Agency intelligence

Department of Energy

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