Redox flow batteries are promising electrochemical systems for energy storage owing to
their inherent safety, long cycle life, and the distinct scalability of power and capacity. This …

This study explores the impact of interdigitated flow channel spacing on electrolyte
distribution and flow velocity in porous electrodes, thereby affecting pump consumption and …

Redox flow batteries (RFBs) have emerged as promising and highly scalable technologies
for durable energy storage systems. The porous electrode, as a vital component facilitating …

Electrochemical flow reactors are increasingly relevant platforms in emerging sustainable
energy conversion and storage technologies. As a prominent example, redox flow batteries …

To further enhance the efficiency of redox flow batteries, there is a vital need to decouple the
conflict between specific surface area and hydraulic permeability in porous electrodes. In …

POREnet, a novel approach to model effective properties of thin porous media, TPM, is
presented. The methodology allows the extraction of local effective property tensors by …

Flow field optimization is an important approach to enhance the performance of vanadium
redox flow batteries, with a focus on improving uniform electrolyte distribution while …

The electrode thickness is a critical design parameter to engineer high performance redox
flow cells by impacting the available surface area for reactions, current and potential …

This work introduces and validates a Hydrodynamic Electrode Performance Factor (HEPF)
for flow reactors. Traditional approaches to electrode optimization often rely on separated …

Mass transfer in porous electrodes is critical for the performance of redox flow batteries,
affecting both the uniform distribution of reactive species and the power consumption of the …