A recent study in Big Earth Data presents a comprehensive roadmap for mitigating global Environmental Grand Challenges through the establishment of a robust Research and Innovation (R&I) ecosystem. Drawing on the ACCC concept, the authors demonstrate how integrating high-quality in-situ observations with climate expertise, science diplomacy, and industrial collaboration can provide actionable, scalable solutions for a carbon-neutral future.

The Giant Magellan Telescope and Coquimbo Regional Government Sign Strategic Partnership to Strengthen Chile’s Astronomy Industry

A new satellite-based analytical framework enables accurate estimation of crop sowing and emergence dates at the field scale. 

In the era of precision cosmology, research often means big science: large observatories, highly complex instruments, international collaborations and substantial funding. Yet even in such an advanced field, progress is still possible — including in the search for elusive dark matter — through more agile approaches, driven by small teams and young researchers, supported by institutions and a good dose of ingenuity. In a paper just published in the Journal of Cosmology and Astroparticle Physics (JCAP), a group of then-undergraduate students from the University of Hamburg built a cavity detector to search for axions — among the most promising candidates for dark matter — and set new experimental limits on their properties. The result was achieved with relatively limited resources, showing that even small-scale experiments can make a meaningful contribution to one of the most open challenges in modern physics.