SBIR-STTR Award

Engineering of Scalable Platinum-free Electrodes for Pure-Water AEM Water Electrolysis
Award last edited on: 5/13/22

Sponsored Program
SBIR
Awarding Agency
DOE
Total Award Amount
$499,989
Award Phase
2
Solicitation Topic Code
T
Principal Investigator
Ashutosh Divekar

Company Information

Evoloh Inc

380 Hamilton Avenue Unit 443
Palo Alto, CA 94301
   (603) 759-1973
   N/A
   www.evoloh.com
Location: Single
Congr. District: 16
County: Santa Clara

Phase I

Contract Number: DE-AR0001487
Start Date: 8/9/21    Completed: 5/7/22
Phase I year
2021
Phase I Amount
$255,918
Producing green hydrogen using renewable energy can reduce emissions for major domestic industrial sectors which use hydrogen as a feedstock like ammonia fertilizer, refineries, chemicals and steel. Additionally, green hydrogen can be used to reduce dependencies on foreign energy sources as a transportation fuel for heavy-duty vehicles, a long-duration energy storage medium, or as a natural gas replacement for industrial or building heat. However, existing water electrolysis technology is prohibitively expensive due to high materials cost (e.g., PEM electrolysis) or complex balance-of-plant systems required when using corrosive liquid KOH electrolyte (e.g., conventional alkaline electrolysis). Commercialization of anion exchange membrane water electrolysis (AEMWE) has the potential to enable transformative $1/kg green hydrogen by leveraging highly efficient hardware with very-low CAPEX. The ARPA-E IONICS program (2016-) has had great success in the development of highly conductive, chemically stable anion exchange membranes which are now being produced at the commercial scale. Origen Hydrogen is seeking to develop high-performance, platinum-free electrodes that will compliment these breakthrough materials for pure-water electrolysis operation. However, electrode durability remains an issue which severely limits the useful operational life of these devices. To address this, the team will use a multi-pronged approach to engineer low-cost electrodes that are not only immune to the most common degradation pathways but are also scalable to larger active areas. If successful, this technology has the potential to provide a step-change in cost reduction and a leap forward towards a hydrogen-based economy.

Phase II

Contract Number: DE-AR0001487
Start Date: 5/8/22    Completed: 2/8/23
Phase II year
2021
Phase II Amount
$244,071
Producing green hydrogen using renewable energy can reduce emissions for major domestic industrial sectors which use hydrogen as a feedstock like ammonia fertilizer, refineries, chemicals and steel. Additionally, green hydrogen can be used to reduce dependencies on foreign energy sources as a transportation fuel for heavy-duty vehicles, a long-duration energy storage medium, or as a natural gas replacement for industrial or building heat. However, existing water electrolysis technology is prohibitively expensive due to high materials cost (e.g., PEM electrolysis) or complex balance-of-plant systems required when using corrosive liquid KOH electrolyte (e.g., conventional alkaline electrolysis). Commercialization of anion exchange membrane water electrolysis (AEMWE) has the potential to enable transformative $1/kg green hydrogen by leveraging highly efficient hardware with very-low CAPEX. The ARPA-E IONICS program (2016-) has had great success in the development of highly conductive, chemically stable anion exchange membranes which are now being produced at the commercial scale. Origen Hydrogen is seeking to develop high-performance, platinum-free electrodes that will compliment these breakthrough materials for pure-water electrolysis operation. However, electrode durability remains an issue which severely limits the useful operational life of these devices. To address this, the team will use a multi-pronged approach to engineer low-cost electrodes that are not only immune to the most common degradation pathways but are also scalable to larger active areas. If successful, this technology has the potential to provide a step-change in cost reduction and a leap forward towards a hydrogen-based economy.