loader image
Close
  • Home
  • Services
  • Projects
  • Articles
  • About Us
  • [email protected]
Viona Group Inc Logo 150x150
  • Home
  • Services
  • Projects
  • Articles
  • About Us
Viona Group Inc Logo 150x150
  • Home
  • Services
  • Projects
  • Articles
  • About Us

A comprehensive life cycle impact evaluation of hydrogen production processes for cleaner applications

By vgroupadmin 
A comprehensive life cycle impact evaluation of hydrogen production processes for cleaner applications
Download

  • Description
  • Package Info

The worldwide energy demands have greatly increased with urbanization and population growth. Air pollution, acid rain, greenhouse gas emissions, global warming originating from CO2 emissions, depletion of energy supplies, and environmental degradation resulting from climate change are all consequences of using non-renewable fossil fuel-based energy infrastructure. To minimize emissions, renewable energy-based alternative energy sources must be investigated. In this regard, hydrogen (H2) has emerged as a promising fuel to meet energy requirements, and green H2 production with net-zero emissions has gained significant interest in recent years. Therefore, this study uses the life cycle assessment approach to evaluate the atmospheric emissions and environmental impact parameters of the gasification, electrolysis, and dark fermentation-microbial electrolysis hybrid process and assess their sustainability levels, considering the sustainable development goals. Among the studied H2 production processes, the maximum CO2 emission originates from the coal gasification process, accounting for 18.6 kg-CO2/kg-H2, while the alkaline electrolysis process provides the lowest total CO2 emission of 6.39 kg-CO2/kg-H2. Furthermore, the biological-based dark fermentation-microbial electrolysis cell process is a promising option owing to its highest negative biogenic CO2 emission of 68.69 kg-CO2/kg-H2. The environmental impact parameters of the studied processes are calculated considering the emissions, and the highest global warming potential of 21.75 kgCO2-eq./kg-H2 is obtained for the coal gasification process, considering the life cycle assessment coefficients. Overall, the lowest atmospheric emissions and environmental impacts are obtained for the electrolysis process. Consequently, these results revealed that switching from the fossil fuel resources used in the conventional H2 production methods to fully sustainable sources, such as renewables, can make energy production methods entirely sustainable from an environmental point of view.

  • Version
  • Download 9
  • File Size 2.61 MB
  • File Count 1
  • Create Date May 12, 2025
  • Last Updated May 12, 2025

Hydrogen Strategy for Canada
Previous Article
Ali Khalvati - A New Electro-Biomembrane Integrated Renewable-Based Systems to Produce Power, Fresh Water and Hydrogen for Sustainable Communities
A New Electro-Biomembrane Integrated Renewable-Based System to Produce Power, Fresh Water and Hydrogen for Sustainable Communities
Next Article

Toronto

Unit 260,  7163 Yonge St. Thornhill, Ontario, Canada – L3Y5Y1          Phone: +1 437.239.4416  Email:  [email protected]

Ontario Tech University and Viona Consulting | Ontario Tech University Logo
Mitacs and Viona Consulting | Mitacs Logo
Canadian Government and Viona Consulting | Canada Logo
Copyright © 2025 Viona Group Inc. All Rights Reserved.