Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Experimental analysis of green hydrogen through alkaline water electrolysis method

View through CrossRef
This paper presents a comprehensive review and experimental analysis of hydrogen production techniques, with a primary focus on alkaline water electrolysis for green hydrogen generation. Hydrogen is widely recognized as an efficient and clean energy carrier that can be produced from various resources, among which water electrolysis offers an eco- friendly route to high-purity hydrogen. Compared to other production methods, alkaline water electrolysis demonstrates strong potential in terms of sustainability, operational reliability, and environmental compatibility, as it utilizes renewable electricity and releases oxygen as the only by-product without emitting greenhouse gases. The study discusses key hydrogen production technologies, including proton exchange membrane (PEM), solid oxide, and alkaline electrolysis, highlighting their working principles, advantages, and limitations. An experimental setup using an alkaline electrolyte is developed to analyze hydrogen and oxygen generation, and the obtained results closely align with theoretical predictions, confirming the efficiency of the process. The findings contribute to a better understanding of alkaline water electrolysis and provide insights into improving system performance, supporting its development as a commercially viable solution for large-scale green hydrogen production.
Title: Experimental analysis of green hydrogen through alkaline water electrolysis method
Description:
This paper presents a comprehensive review and experimental analysis of hydrogen production techniques, with a primary focus on alkaline water electrolysis for green hydrogen generation.
Hydrogen is widely recognized as an efficient and clean energy carrier that can be produced from various resources, among which water electrolysis offers an eco- friendly route to high-purity hydrogen.
Compared to other production methods, alkaline water electrolysis demonstrates strong potential in terms of sustainability, operational reliability, and environmental compatibility, as it utilizes renewable electricity and releases oxygen as the only by-product without emitting greenhouse gases.
The study discusses key hydrogen production technologies, including proton exchange membrane (PEM), solid oxide, and alkaline electrolysis, highlighting their working principles, advantages, and limitations.
An experimental setup using an alkaline electrolyte is developed to analyze hydrogen and oxygen generation, and the obtained results closely align with theoretical predictions, confirming the efficiency of the process.
The findings contribute to a better understanding of alkaline water electrolysis and provide insights into improving system performance, supporting its development as a commercially viable solution for large-scale green hydrogen production.

Related Results

(Invited) Green Hydrogen R&D in South Africa
(Invited) Green Hydrogen R&D in South Africa
For decades, proton-exchange membrane (PEM) water electrolysis (WE) has been used mainly for oxygen generation in anaerobic environments. Over the past two decades, however, it has...
Thermal Effects in High Compactness CEA Stack
Thermal Effects in High Compactness CEA Stack
Thermal management is a pivotal aspect of stack durability and system operability. Consequently, understanding the thermal mapping within a stack based on its operating conditions ...
(Invited) Membranes with Recombination Catalyst for Hydrogen Crossover Reduction: Water Electrolysis
(Invited) Membranes with Recombination Catalyst for Hydrogen Crossover Reduction: Water Electrolysis
Hydrogen and oxygen crossover phenomena through a solid polyelectrolyte membrane constitute one of the important safety concerns in PEM electrolysis. Hydrogen gas c...
Water Chemistry Impact on Green Hydrogen Production
Water Chemistry Impact on Green Hydrogen Production
Abstract Water electrolysis serves as an electrochemical method for splitting water into its constituent elements, hydrogen and oxygen gases, leveraging an electr...
Advances in electrocatalyst development for hydrogen production by water electrolysis
Advances in electrocatalyst development for hydrogen production by water electrolysis
Abstract Hydrogen is increasingly recognized as a clean, sustainable energy carrier with the potential to play a pivotal role in future energy systems. Among the ...
Kinetic Reference Potential, pH-Effect, and Energy Recovery in Electrolysis of Water
Kinetic Reference Potential, pH-Effect, and Energy Recovery in Electrolysis of Water
The electrolysis of water will likely become of superior importance for a sustainable energy economy. However, the electrocatalysis of electrochemical water splitting is complicate...

Back to Top