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DESC0023847

Project Grant

Overview

Grant Description
Ultrathin alkaline membranes with excellent hardness and gas barrier properties to achieve low ionic resistance and mechanical failure in high temperature water electrolyzers with low electrolyte.
Awardee
Funding Goals
ULTRATHIN ALKALINE MEMBRANES WITH EXCELLENT HARDNESS AND GAS BARRIER PROPERTIES TO ACHIEVE LOW IONIC RESISTANCE AND MECHANICAL FAILURE IN HIGH TEMPERATURE WATER ELECTROLYZERS WITH LOW ELECTROLYTE
Place of Performance
Ithaca, New York 14850-1247 United States
Geographic Scope
Single Zip Code
Analysis Notes
Infrastructure $200,000 (100%) percent this Project Grant was funded by the 2021 Infrastructure Act.
Ecolectro was awarded Project Grant DESC0023847 worth $200,000 from the Office of Science in July 2023 with work to be completed primarily in Ithaca New York United States. The grant has a duration of 9 months and was awarded through assistance program 81.049 Office of Science Financial Assistance Program. The Project Grant was awarded through grant opportunity FY 2023 Phase I Release 2.

SBIR Details

Research Type
SBIR Phase I
Title
Ultrathin Alkaline Membranes with Excellent Hardness and Gas Barrier Properties to Achieve Low Ionic Resistance and Mechanical Failure in High Temperature Water Electrolyzers with Low Electrolyte
Abstract
Alkaline exchange membrane water electrolyzers provide green hydrogen, like liquid alkaline systems, without using the expensive and rare materials that proton exchange membrane electrolyzers require. Although many high performing membranes have been identified for alkaline exchange membrane systems, most lack the mechanical strength and gas barrier properties needed for full integration into electrolyzer stacks and systems, especially when the membranes are thin enough to compete with the acidic counterparts. Ecolectro is developing a new polymer and a novel manufacturing method to produce ultrathin membranes (< 10 microns) using a scalable process. We will combine very thin layers of our previously identified membranes that exhibit excellent chemical stability with new materials that impart mechanical toughness and polymers that prevent dangerous mixing of hydrogen and oxygen. The reduced thickness of the final electrolyte layer will result in exceptionally low ionic resistance, resulting in membranes that surpass commercial membranes. Ecolectro will synthesis new polymer compositions that have either gas barrier properties or mechanical toughness. A new manufacturing method will be demonstrated, that combines the strengths of our exceptional AEMs with the novel materials produced. The final products will be evaluated in electrolysis cells with iridium-free and non-precious metal catalysts at high temperatures and various electrolyte concentrations, validating the performance, mechanical strength and gas barrier properties. The innovations developed herein have significant commercial applications in the hydrogen space in both hydrogen fuel cell and water electrolyzer applications. Scalable methods for thin membrane manufacturing that also result in materials with high performance, mechanical strength and gas barrier properties.
Topic Code
C56-18m
Solicitation Number
DE-FOA-0002903

Status
(Complete)

Last Modified 9/12/23

Period of Performance
7/10/23
Start Date
4/9/24
End Date
100% Complete

Funding Split
$200.0K
Federal Obligation
$0.0
Non-Federal Obligation
$200.0K
Total Obligated
100.0% Federal Funding
0.0% Non-Federal Funding

Activity Timeline

Interactive chart of timeline of amendments to DESC0023847

Additional Detail

Award ID FAIN
DESC0023847
SAI Number
None
Award ID URI
SAI EXEMPT
Awardee Classifications
Small Business
Awarding Office
892430 SC CHICAGO SERVICE CENTER
Funding Office
892401 SCIENCE
Awardee UEI
DDJSFXJJK3E5
Awardee CAGE
7DVH8
Performance District
NY-19
Senators
Kirsten Gillibrand
Charles Schumer

Budget Funding

Federal Account Budget Subfunction Object Class Total Percentage
Science, Energy Programs, Energy (089-0222) General science and basic research Grants, subsidies, and contributions (41.0) $200,000 100%
Modified: 9/12/23