In this review, we present the major developments in the evolution of 'membraneless'
microfluidic electrochemical cells which utilize co-laminar flow to minimize reactant mixing …

Co-laminar electrochemical cells utilize hydrodynamic engineering rather than a physical
separator to prevent mixing of reactants. Commonly known as microfluidic fuel cells and …

Microfluidic co-laminar flow cells with dual-pass architecture enable fuel recirculation and in-
situ regeneration, and offer improvements in performance characteristics. In this work, a …

Enhancing mixing is of uttermost importance in many laminar microfluidic devices, aiming at
overcoming the severe performance limitation of species transport by diffusion alone. Here …

Electrochemical energy conversion is an important supplement for storage and on-demand
use of renewable energy. In this regard, microfluidics offers prospects to raise the efficiency …

Microfluidic fuel cells eliminate the membrane by utilizing parallel colaminar flow of
electrolyte between the anode and cathode electrodes. When operated on vanadium redox …

A microfluidic fuel cell is a microfabricated device that produces electrical power through
electrochemical reactions involving a fuel and an oxidant. Microfluidic fuel cell systems …

Advances in device miniaturization, ranging from sensors to transmitters, are driving the
need for micro-scaled personalized on-demand power sources. Herein, the tandem …

Flow based electrochemical energy conversion devices have the potential to become a
prominent energy storage technology in a world driven by renewable energy sources. The …

The features of the plane parallel geometry are reviewed since this cell geometry occupies a
prominent position, both in the laboratory and in industry. The simple parallel plate can be …