The design of the future global trade in green hydrogen should also consider social and environmental aspects
Peer-Reviewed Publication
Updates every hour. Last Updated: 1-Nov-2026 17:15 ET (1-Nov-2026 22:15 GMT/UTC)
A study carried out by the EHU-University of the Basque Country concludes that a more sustainable green hydrogen economy requires a combination of technological improvements and policies that guarantee environmental benefits, economic competitiveness and social responsibility. After analysing various configurations of H2 production locations and global LOHC-based transport routes, the team concludes that there is no perfect scenario. However, the results show that LOHC technology has significant potential to play a key role in the global green hydrogen trade in the near future.
Does the academic discipline of a scientist’s doctorate degree accurately capture their disciplinary affiliation decades later? Consider a scientist who earned a doctorate in physics 25 years ago who now studies climate change, publishes primarily in interdisciplinary journals and considers herself a climate scientist. Does “physics” still accurately describe where she fits in science? A new study led by researchers at Rice University and Michigan State University argues that the answer is often no.
Using ultrasensitive quantum sensors developed at NIST, scientists have measured X-ray emissions of three radioactive elements with unprecedented accuracy. Combined with measurements of gamma-ray emissions from the same elements, the new X-ray measurements will allow scientists to more accurately monitor nuclear material at power plants and weapons facilities and may also increase efficiency and reduce costs at nuclear power plants.
It was not fully understood how deep-sea microorganisms maintain their structure and function under high-pressure conditions. A research team from Kyushu University, conducted an experimental study focusing on PoXeR, a protein from a deep-sea bacterium. As increasing pressure was applied to the protein, the researchers found that it assembled itself into groups of three, called a trimeric structure to stabilize itself. This adaptive strategy revealed how deep-sea proteins remain stable under extreme pressure.
Friedrich Schiller University Jena, non-university research institutes and the Free State of Thuringia are joining forces to test new ways of working across institutional boundaries. The jETZT project will explore how Jena’s research and innovation ecosystem can share expertise, infrastructure and talent more effectively – helping promising ideas move faster from research into practical and commercial applications.