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Engineered Porous Electrodes to Unlock Ultra-low Cost Fe-Air Redox Flow Batteries

Sector: Energy Storage • Location: Netherlands

Source: EU Funding & Tenders Portal

Project
Ongoing

This proposal will develop a game-changing paradigm to design, synthesize, and functionalize porous electrode materials with far-reaching consequences in electrochemical science and engineering. Focusing on the Fe-air redox flow battery (FAIR-RFB), which holds promise for low-cost, long duration energy storage, I will employ an interdisciplinary approach bridging (electro)chemical engineering, mat

Status
Under Construction
Sector
Energy Storage, Commercial, Rail, Chemical (Industrial), Power Transmission, Nuclear, Metal, Power Generation (CCGT), Manufacturing (Industrial), Steel
Location
Netherlands
Updated
22 Jul 2026
Source
EU Funding & Tenders Portal

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The project “Engineered Porous Electrodes to Unlock Ultra-low Cost Fe-Air Redox Flow Batteries” is an infrastructure initiative in the Energy Storage sector, located in Netherlands. Taiyo aggregates data on it from EU Funding & Tenders Portal.

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Status

Original status

ongoing

Taiyo status

Under Construction

Taiyo last update

2026-07-22

Contact

Not available for this record.

Description

Description

This proposal will develop a game-changing paradigm to design, synthesize, and functionalize porous electrode materials with far-reaching consequences in electrochemical science and engineering. Focusing on the Fe-air redox flow battery (FAIR-RFB), which holds promise for low-cost, long duration energy storage, I will employ an interdisciplinary approach bridging (electro)chemical engineering, materials science, and computational design to address the following fundamental challenges: (1) I will elucidate the role of the porous electrode microstructure. I will introduce a new methodology that couples evolutionary algorithms with microstructure-informed simulations to predict ideal electrode geometries. A versatile synthetic platform, non-solvent induced phase separation, will be leveraged to synthesize highly controlled 3D microstructures and train neural networks to accelerate the discovery of optimal geometries. (2) I will determine to what extent surface moieties of the porous electrode influence transport phenomena, kinetics, and durability. I will employ electrografting of select molecules to functionalize porous electrodes and impart functional properties (wettability, activity, stability). I will perform nanoelectrochemical imaging to elucidate the role of electrode-coating-electrolyte phenomena. (3) I will develop a novel electrochemical reactor architecture for high-power Fe-air RFBs. Building upon the two previous developments, I will synthesize tailored iron and air electrodes and leverage polymeric bipolar membranes to realize a high voltage and low resistance electrochemical cell. Advanced imaging techniques, i.e. energy- and wavelength-selective neutron imaging, will be employed to visualize reactive transport phenomena during operation, thus helping to address these questions. The novel approaches developed in FAIR-RFB will enable breakthroughs in performance and durability of large-scale electrochemical energy storage systems.

Location

Country

Netherlands

Source

Source

EU Funding & Tenders Portal

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Record type

Project

Sector

Energy Storage, Commercial, Rail, Chemical (Industrial), Power Transmission, Nuclear, Metal, Power Generation (CCGT), Manufacturing (Industrial), Steel

Article published date

2025-12-15

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