The wellness world already has a language for invisible necessities. Vitamin D comes from sunlight. Vitamin N, in its usual meanin...
Somewhere within the Milky Way, another massive star is moving toward its final moments. Astronomers estimate that our galaxy experiences roughly two or three supernova explosions every century, making such an event statistically likely every 30 to 50 years. Yet the night sky has remained unusually quiet.
For decades, neutrinos have challenged scientists with their extraordinary ability to pass through matter almost undisturbed. They are constantly streaming across Earth in unimaginable numbers, yet detecting even a tiny fraction of them requires enormous, highly sensitive instruments.
The opening moments of cosmic history remain among the deepest unsolved problems in modern science. Although the Big Bang successfully describes how the universe evolved from an extremely hot, dense state, it leaves unanswered what, if anything, existed before that event.
For decades, cosmologists have described the universe using a model in which its invisible ingredients coexist without directly influencing one another. A new study now suggests that this picture may be missing an important piece. Researchers at the University of Sheffield report evidence that dark matter and neutrinos could interact, a possibility that challenges one of the long-standing assumptions of modern cosmology and offers a fresh perspective on how the universe developed.
Deep beneath a Japanese mountain, a detector has spent thousands of days listening for one of the universe's faintest signals. Its latest indication adds another piece to the story of how neutrinos reveal stellar history, while raising broader questions about continuous particle flux, material response, and the boundary between detection physics and energy conversion research.
For more than a century, electricity has meant connection. A household had power if it was linked to a chain: extraction, conversion, transmission, distribution, pricing, maintenance, regulation. Each link had a cost. Each link had a geography. Each link had a political condition and a point of failure.
As construction advances on one of the world's most ambitious neutrino experiments, attention is increasingly turning toward another essential challenge, preparing the researchers who will interpret the unprecedented data expected to emerge from it. To support that goal, the U.S. Department of Energy's Fermi National Accelerator Laboratory recently hosted the first DUNE Data Analysis School under the leadership of its Neutrino Physics Center, creating a new training program designed specifically for scientists entering the Deep Underground Neutrino Experiment collaboration.
When thousands of delicate sensors shattered inside Japan's Super-Kamiokande detector, the accident became one of the most remarkable engineering setbacks in modern experimental physics. A single implosion triggered a devastating cascade that destroyed roughly 6,600 of the facility's 11,151 photomultiplier tubes, forcing researchers to rebuild one of the world's most sophisticated neutrino observatories almost from scratch.
Few scientific pursuits have demanded as much ingenuity as the effort to observe the neutrino, a particle so elusive that trillions pass through every person each second without leaving a trace. Unlocking its secrets has required generations of physicists to think beyond conventional laboratories, constructing enormous underground observatories, filling caverns with thousands of tons of specialized materials, and waiting patiently for interactions that may occur only a handful of times over many years.