Science1 min read

Scientists detect signals at the smallest scale ever explored

By · Published by Everything Blog

In short

The landmark observations at Cern's Swiss-French border facility measure 100 billion times smaller than an atom. To advance this research, 28 nations agreed to an upgrade designed to increase particle decay frequencies tenfold. Despite this international consensus, UK Research and Innovation withdrew funding for the project while reallocating resources to other infrastructure initiatives, prompting concerns over talent retention.

Key points

  • Studying the zeptoverse provides researchers with new avenues to investigate fundamental…: Studying the zeptoverse provides researchers with new avenues to investigate fundamental cosmic mechanics and detect invisible dark matter.
  • Senior scientists warn that funding cuts risk driving early-career researchers abroad and…: Senior scientists warn that funding cuts risk driving early-career researchers abroad and undermining the UK's leadership in high-energy physics.
  • UKRI defended its funding redirection while affirming it remains Cern's second-largest co…: UKRI defended its funding redirection while affirming it remains Cern's second-largest contributor with an annual investment of approximately £175m.

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- Published

Scientists have picked up signals from the smallest scale of nature ever explored – 100 billion times smaller than an atom.

A world so small that some physicists have nicknamed it the zeptoverse.

The research, led by scientists based in Cambridge, was obtained from an experiment at the Large Hadron Collider (LHC).

This vast machine at the European Laboratory for Particle Physics (Cern) on the Swiss-French border smashes atoms together to break them apart and discover what is inside them.

The result is important because it could help researchers develop a new, more complete theory of how the Universe works.

'Knocking on the door' of the zeptoverse

Dark matter makes up a large part of our cosmos, and yet researchers have struggled to detect it.

Scientists know it is there because its gravitational force influences normal matter, but in all other respects it has remained completely invisible.

So in this experiment, particles were smashed together at high energy and scientists studied the material that was thrown out - the shrapnel of collisions.

One of these is a sub-atomic…

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