Quantum plasmonic biosensors enable self-illumination for real-time, label-free diagnostics with scalable point-of-care applications.

A computational paradigm that can accurately simulate interactions between powerful laser beams and quantum fluctuations in a ...

A small satellite about the size of a shoebox has been launched into space to test exciting new quantum communication ...

Scientists can now snap ultra-powerful laser pulses in one shot. RAVEN reveals distortions instantly, unlocking breakthroughs ...

While gluons are responsible for generating most of the visible mass in the universe, their role inside nuclei remains poorly ...

Optical biosensors use light waves as a probe to detect molecules, and are essential for precise medical diagnostics, ...

Scientists at EPFL have created a revolutionary biosensor that doesn't need a light source—it makes its own glow using ...

But axions were pushed aside as the WIMPs hypothesis gained more steam. Back-of-the-envelope calculations showed that the ...

Imagine detecting a single trillionth of a gram of a molecule—like an amino acid—using just electricity and a chip smaller ...

Engineers at EPFL create a self-illuminating biosensor, achieving trillionth-of-a-gram detection of biomolecules using quantum tunneling techniques.

Scientists at the University of Oxford have unveiled a pioneering method for capturing the full structure of ultra-intense ...

Combining single-pixel wavefront imaging with a custom neural network improves the photon imaging in cloudy environments.