4.8 Article

Increasing the efficiency of hydrogen production from solar powered water electrolysis

期刊

出版社

PERGAMON-ELSEVIER SCIENCE LTD
DOI: 10.1016/j.rser.2020.110255

关键词

Renewable hydrogen; Hydrogen production; Water electrolysis; Renewable energy; Solar-hydrogen hybrid; Molecular dynamics

资金

  1. Southern Cross University through the Australian Government Research Training Program Scholarship

向作者/读者索取更多资源

The rise in global energy consumption due to human activities has led to environmental issues caused by fossil fuels, prompting the exploration of renewable hydrogen as a clean energy alternative. However, the efficiency of commercially viable electrolyzers hinders the widespread adoption of renewable hydrogen. This study discusses innovative applications in solar-powered water electrolysis, emphasizing the potential of energy fields to alter molecular dynamics and enhance the efficiency of the process.
Increasing anthropogenic activity has led to a significant surge in global energy consumption. Presently, the majority of energy generation utilises fossil fuels, resulting in environmentally harmful activities and the production of toxic by-products which contribute to environmental degradation and climate change. Renewable hydrogen is an environmentally friendly energy carrier which has the potential to replace fossil fuels as a global energy fuel source. However, the low efficiency of commercially viable electrolysers limits the utility of renewable hydrogen as an energy carrier. This study presents an overview of the current status of solar powered water electrolysis along with some of the innovative applications used to enhance the overall efficiency of such systems. Such approaches include the application magnetic fields; light energy fields; ultrasonic fields; and pulsating electric fields. This study also provides a new insight into why such applications may be enhancing the efficiency of electrolysis. Including new perspectives on why considering some of the molecular dynamics of water may further enhance the proficiency of such applications due to the applied energy fields' ability to decrease the molecular bond strength within and between water molecules by altering the energetic spin state of the water molecules; reducing the number of hydrogen bonds within the water; and increasing the distance between the hydrogen to oxygen and oxygen to oxygen bonds within the water. Based on the findings of this study, further advances in the efficient production of renewable hydrogen will require the consideration of the molecular dynamics of the water molecule.

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