In the realm of proton exchange membrane (PEM) fuel cells, the pursuit of heightened efficiency and maximized hydrogen utilization continues to occupy a pivotal niche in both theoretical exploration and practical application.
Browsing: Research
Emerging technologies continue to spotlight hydrogen as a formidable energy carrier, vital for sectors striving for decarbonization.
According to the International Energy Agency, approximately two-thirds of energy input in industrial processes dissipates as waste heat.
A recent study published in the International Journal of Hydrogen Energy provides measured insight into how photovoltaic (PV) and wind electricity supply chains are reshaping the carbon profiles of green hydrogen in Italy and the UK.
The concept of a digital twin—creating a virtual representation of a physical system to simulate its real-time operations—has seen increasing adoption across industrial applications.
The rise of hydrogen as a pivotal component in the global decarbonization initiative invites both promising prospects and substantial challenges.
In the face of climate change’s escalating economic threat, often likened to a destabilizing force within global markets, economic resilience becomes a non-negotiable asset.
Hydrogen energy has long been heralded as a potential cornerstone of sustainable energy systems. However, the feasibility of integrating hydrogen into the energy landscape depends heavily on efficient supply chain management, particularly in countries with significant energy demands like China.
Analyzing recent advancements, the study of hydrogen and ammonia as alternative fuels for micro gas turbines has gained momentum.
The quest for sustainable energy solutions has propelled hydrogen production to the forefront of global discourse, with biomass emerging as a key player in this endeavor.
