Membranes Journal, Quartile 1 (Q1) with the impact factor (IF) of 4.106.

https://www.mdpi.com/2077-0375/11/11/810

Our review article on membrane-based electrolysis for hydrogen production has been published in the Membranes Journal, Quartile 1 (Q1) with the impact factor (IF) of 4.106.

The article reviews the alkaline electrolysis and 6 types of membrane-based electrolysis for hydrogen production and its current technological progress. 

The challenges and future trends were also discussed and concluded with the future developments of the cost-effective membranes for hydrogen production.

This review article is available online via open access https://lnkd.in/gNfJ84xa. Please download, share and cite the article if it is related to your research works.

https://www.mdpi.com/2077-0375/11/11/810

#membranes#electrolysis#membranebasedelectrolysis#hydrogen#hydrogenproduction#zerocarbonfootprint#watersplittingtechnologies#electrolyzer#electrolysistechnologies#research#futureenergy

Effect of Temperature and Current Density on PBI/ZrP in Copper Chloride Electrolysis for Hydrogen Production

Effect of Temperature and Current Density on Polybenzimidazole Zirconium Phosphate Hybrid Membrane in Copper Chloride Electrolysis for Hydrogen Production                                                                                               Corresponding author: mohdfadhzir@utm.my, nordin_sab@upm.edu.my2019 UTHM Publisher.All right reserved.penerbit.uthm.edu.my/ojs/index.php/ijie

Hydrogen Production by Membrane Water Splitting Technologies (over 1,500 reads on ResearchGate and 850 downloads on IntechOpen)

Hydrogen Production by Membrane Water Splitting Technologies (over 850 downloads & 1,500 reads) https://www.intechopen.com/books/advances-in-hydrogen-generation-technologies/hydrogen-production-by-membrane-water-splitting-technologies 10.5772/intechopen.76727

High impact factor (IF = 4.939) paper published!!! Hydrogen production from copper chloride electrolysis

Phosphoric acid doped composite proton exchange membrane for hydrogen production in medium-temperature copper chloride electrolysis                                                                                                                                                                      Abstract: A copper chloride (CuCl) electrolyzer that constitutes of composite proton exchange membrane (PEM) that functions at medium-temperature (>100 C) is beneficial for rapid electrochemical kinetics, and better in handling fuel pollutants. A synthesized polybenzimidazole (PBI) composite membrane from the addition of ZrO2 followed with phosphoric acid (PA) is suggested to overcome the main issues in CuCl electrolysis, including the copper diffusion and proton conductivity. PBI/ZrP properties improved significantly
with enhanced proton conductivity (3 fold of pristine PBI, 50% of Nafion 117), superior thermal stability (>600 C), good mechanical strength (85.17 MPa), reasonable Cu permeability (7.9 107) and high ionic exchange capacity (3.2 103 mol g1). Hydrogen produced at 0.5 A cm2 (115 C) for PBI/ZrP and Nafion 117 was 3.27 cm3 min1 and 1.85 cm3 min1, respectively. The CuCl electrolyzer efficiency was ranging from 91 to 97%, thus proven that the hybrid PBI/ZrP membrane can be a promising and cheaper alternative to Nafion membrane.

International Journal of Hydrogen Energy Impact Factor JCR2019, IF = 4.939 https://doi.org/10.1016/j.ijhydene.2019.10.030

Presentation to CEO Malaysian Green Technology & Climate Change Centre (MGTC) about high-temperature electrolysis for hydrogen production

Showing the sample of Teflon gasket been used for the electrolyzer

electrolytes used for the study are copper chloride dissolved in hydrochloric acid for anodic and hydrochloric acid for cathodic

hydrogen production using hybrid membrane from PBI based is only 1/4 from the cost of using Nafion membrane

1 journal article with an impact factor of 4.939, quartile 2 in journal citation report (JCR2019) ISI, 2 Scopus journal articles, and 1 book chapter have been published from this study. This project was also awarded the 1st runner for the best poster category in the International Conference on Fuel Cell & Hydrogen Technology (ICFCHT2017)

Showing the experimental setup for high temperature of CuCl electrolysis using proton exchange membrane (PEM) for hydrogen production to MGTC’s CEO and delegates