quantum physics

A science explainer showing what quantum mechanics actually looks like in practice has drawn huge attention, with viewers responding that the reality of quantum phenomena is 'spookier' than they expected. The item highlights quantum behaviour that defies everyday intuition, prompting renewed public discussion about how strange the physical world is at small scales and why quantum effects are so hard to visualise.

BBC News is reporting on efforts to study the very small — the subatomic realm — in order to understand how the universe works at its most fundamental level. The piece highlights physics research into particles and the basic laws of nature, drawing strong public interest as audiences follow new discoveries about matter, quantum behaviour and the origins of the cosmos.

A blog post titled 'Unlock the Unseen: A Quantum Mechanical Hydrogen Tunneling Breakthrough in Enzymes' is being shared online, claiming a new breakthrough in how quantum mechanical hydrogen tunneling operates within enzymes. Hydrogen tunneling is a known phenomenon in enzymology, where hydrogen particles pass through energy barriers. The post ties the claim to tags on quantum physics and consciousness, but no published research or peer-reviewed study accompanies it, leaving the substance of the claim unclear.

The 1902 Nobel Prize in Physics was awarded jointly to Hendrik Lorentz and Pieter Zeeman of the Netherlands for their research into the influence of magnetism upon radiation phenomena. The discovery of the Zeeman effect confirmed how magnetic fields affect light emitted by atoms, laying groundwork for later quantum theory and relativity research.

Israel has opened nominations for the 2027 Landau Prizes, awarded across a broad range of disciplines spanning quantum physics to poetry. The prizes are among the country's most established honours for achievements in science and the arts, and the nomination window invites institutions and individuals to put forward candidates. Early coverage is drawing attention mainly for the wide sweep of fields the awards recognise.

Physicists have reported a new computational route for calculating gluon production in proton–nucleus collisions. Gluons are the particles that bind quarks together, and predictions of their production in collisions involving protons and heavy nuclei are central to tests of quantum chromodynamics and to interpreting results from colliders such as the LHC. The work offers an alternative approach where previous calculations were difficult, and is being noted by researchers in high-energy nuclear physics.