An advanced imaging system developed at the University of Arizona boasts a shape-shifting mirror that delivers observing details typically reserved for space-based telescopes.

The winners of this year’s Blavatnik Awards for Young Scientists  in the UK are:

Life Sciences Laureate: Prof. Christopher Stewart (Newcastle University): Christopher leads a laboratory where groundbreaking research on microbiome-based therapies for pre-natal infant mortality is already making a life-saving impact.

Chemical Sciences Laureate: Prof. Liam Ball (University of Nottingham): Liam has transformed green manufacturing on an industrial scale, developing safer and more efficient methods of producing pharmaceuticals and agrochemicals with minimal environmental impact.

Physical Sciences & Engineering Laureate: Prof. Benjamin Mills (University of Leeds): Benjamin is transforming our understanding of climate change on earth and in space with revolutionary methods to predict long-term climate change. His research not only uncovers Earth’s climate history over billions of years, but also how other planets might evolve to support life.

As the largest unrestricted prize for UK scientists under the age of 42, the Blavatnik Awards celebrate Britain’s greatest young minds in their fields. This year, the three Laureates—each awarded £100,000 in unrestricted funds—were chosen from a shortlist of nine finalists, representing some of the brightest young scientific minds across the UK.

Among them, the three Laureates are tackling some of the most complex and pressing issues in science and society:  infant mortality, green manufacturing and predicting long-term climate change.

Tonight’s prize-giving gala at The Orangery, Kensington Palace highlights the growing impact of regional universities across the UK driving scientific breakthroughs.

Researchers at the University of Arizona have discovered that planet-forming disks of gas and dust around tiny stars live much longer than previously thought. The findings provide new insights into planet formation and the habitability of planets outside our solar system. 

Building on a previous study that supported the ancient philosopher Plato’s conjecture—that Earth is mostly made from cubes—geophysicist Douglas Jerolmack of the University of Pennsylvania teamed up with longtime collaborator, mathematician Gábor Domokos of Budapest University of Technology and Economics, to use their framework for understanding fracture patterns on Earth to survey fracture networks across the solar system. Their findings could offer insights into detecting potentially habitable environments on other planets.

The puzzle of predicting how three gravitationally bound bodies move in space has challenged mathematicians for centuries, and has most recently been popularized in the novel and television show "3 Body Problem." There's no problem, however, with what a team of researchers say is likely a stable trio of icy space rocks in the solar system's Kuiper Belt, found using data from NASA's Hubble Space Telescope and the ground-based W. M. Keck Observatory in Hawaii.

The University of Texas at Arlington has once again earned the prestigious R1 designation from the Carnegie Classifications of Institutions of Higher Education, signifying the highest level of research activity. UTA is among just 187 institutions—4.7% nationwide—earning the R1 designation in 2025. First earning R1 status in 2015, UTA has maintained this classification through reaffirmations in 2018, 2021 and 2024, as part of Carnegie’s three-year review cycle. With research expenditures reaching $155 million in FY 2024—a 5% increase over FY23—UTA continues to demonstrate its commitment to innovation and academic excellence.

In the quest for ultra-secure, long-range quantum communication, two major challenges stand in the way: the unpredictable nature of atmospheric turbulence and the limitations of current optical wavefront correction techniques. Researchers at the University of Ottawa, under the supervision of Professor Ebrahim Karimi, the director of Nexus for Quantum Technologies, in collaboration with the National Research Council Canada (NRC) and the Max Planck Institute for the Science of Light (Germany), have made significant advances in overcoming both obstacles. Their two latest breakthroughs—an AI-powered turbulence forecasting tool called TAROQQO and a high-speed Adaptive Optics (AO) system for correcting turbulence in quantum channels—represent a turning point in developing free-space quantum networks.