A review of recent progress on the use of natural/synthetic and
cellulosic advanced materials towards modeling and optimization of
proton exchange membrane fuel cells
Abstract
Over the past few decades, there was a remarkable attempt to broaden the
technical application of natural/synthetic and cellulosic fiber-based
polymer composites for modern use. These materials have received
tremendous interest from engineers, manufacturers, and scientists to
provide promising solutions to sophisticated engineering challenges and
become the central subjects for environmentalists, researchers, and
governments for great potential in various applications. The dynamic
characteristics of manufactured fuel cells offer an excellent fortune in
manufacturing multipurpose engineering materials for high-end use. Most
researchers revolve around optimizing the properties of manufactured
fuel cells, which are investigated. This work contributes to knowledge
by critically highlighting the use of natural/synthetic and cellulosic
materials in different applications and their recent progress in
predicting their dynamic modifications for optimizing PEMFCs. The
aspects of various designs, manufacturing processes, modeling, and
optimization techniques employed for fuel cells are also critically
reviewed. At the end, future challenges and trends in using advanced
materials in fuel cell technology are illustrated. It can be argued that
fuel cells made of cellulose are promising candidates for improved
performance.