The Global Energy Crisis necessitated improving research into new, renewable
and alternative energy sources. Due to that, our focus is on the area of
some phenomena and applications where different synthetic methods and
microstructure property optimization achieved significant improvement in the
electro physical properties of output materials and components. This is
especially important for higher energy efficiency and electricity production
(batteries and battery systems, fuel cells, and hydrogen energy).The
improvement of energy storage tank capacity is one of the most important
development issues in the energy sphere too. It?s because of this very
promising research and application area that we are expanding the knowledge
on these phenomena through fractal nature analysis. So, the results obtained
in the field of electrochemical energy sources, especially in electrolyte
development, are taken into account the analysis of fractal nature
optimization. Based on the research field of fractal material science,
particularly electronic materials, we conducted research in microstructure
fractal influence in the area of electrochemistry. We investigated the
consolidation parameters of Fe2O3 redox processes. The influence of
activation energy, fundamental thermodynamic parameters, and also the
fractal correction of electrode surface area through complex fractal
dimension with recognized grains and pores, and the Brownian motion of
particles is introduced. Finally, the electrochemical Butler-Volmer equation
fractalization is obtained. These results practically open new frontiers in
electrochemical energy processes performed through the Arrhenius equation
within electrolyte bulk and electrode relations and more complete and
precise energy generation.