superconductors

Nobel Prize in Physics 2025: Quantum tunneling, superconductors and quantum computers

This year, three researchers from the University of Santa Barbara won for a series of groundbreaking experiments that established the superconducting qubit – the central component that scientists around the world are now using to build quantum computers. In the article
Nobel Prize in Physics for the discovery of quantum properties. © Johan Jarnestad/The Royal Swedish Academy of Sciences

Nobel Prize in Physics 2025 "for the discovery of macroscopic quantum tunneling and the quantization of energy in an electric circuit"

The Swedish Academy has announced that John Clark, Michelle Deborah and John Martinis have won the 2025 Nobel Prize in Physics for their discovery of quantum phenomena in hand-held electrical circuits.
The metals region of the periodic table. Illustration: depositphotos.com

Quantum breakthrough could unlock the secret of strange metals – and the future of superconductors

The strange metals are structurally close to high-temperature superconductors, which have the potential to conduct electricity without energy loss. Understanding them could revolutionize power grids and make energy transmission more efficient.
A nanotube from the tungsten disulfide compound. The first tubes created by Prof. Tana

The solar tubes

Simulation of the system developed and built for the purpose of the experiment. The laboratory of Prof. Ed Narevicius, Weizmann Institute

The trap

Dr. Erez Berg, Technion. Photo: Itai Nebo

a sign that you are superconducting (at high temperature)

Part of the array of the superconducting nanoloops. The diameter of the wires in the picture is 25 nanometers. The length of the wires in the small loops is 150 nanometers and in the large ones 500 nanometers, while the diameter of the wires that make up each loop is 25 nanometers (photo: the laboratory of Prof. Yosef Yeshuron, Bar-Ilan University)

All roads lead to superconductivity

Part of the array of the superconducting nanoloops. The diameter of the wires in the picture is 25 nanometers. The length of the wires in the small loops is 150 nanometers and in the large ones 500 nanometers, while the diameter of the wires that make up each loop is 25 nanometers (photo: the laboratory of Prof. Yosef Yeshuron, Bar-Ilan University)

Scientists from Bar Ilan have produced nanopatterns of superconductors

In "heavy fermion" materials, free electrons used for electrical conduction react strongly with atoms and sink to low energy levels before re-emerging and continuing on their way. Their slow progress makes them look heavy. Photo by Mohammad Hamidian/Davis Lab

Heavy electrons in a uranium compound

On an iron-based conductor - with a diameter of 96 nm. Illustration: Cornell University

A new mechanism for superconductivity in iron compounds

A magnet hovers over a superconductor at a high temperature cooled by liquid nitrogen. Photo: Wikipedia

Quantum oscillations in superconductors

Cosmic scene with DNA, stars, solvents and atomic circles in oral flow.

Magnetic vortices in superconductors

Cosmic scene with DNA, stars, solvents and atomic circles in oral flow.

For the first time: a car powered by a superconductor