How electrons split: New evidence of exotic behaviors
However, in certain materials where the electrons are constrained in a quasi one-dimensional world, they appear to split into a magnet and an electrical charge, which can move freely and independently of each other. A team lead by EPFL scientists now has uncovered new evidence showing that this can happen in quasi two-dimensional magnetic materials. Henrik M. Ronnow and Bastien Dalla Piazza at EPFL and Martin Mourigal (recently appointed Assistant professor at Georgia Tech) have now led a study that provides both experimental and theoretical evidence showing that this exotic split of the electrons into fractional particles actually does take place in two dimensions. This work marks a new level of understanding in one of the most fundamental models in physics, says Henrik M. Ronnow. It also lends new support for Anderson’s theory of high-temperature superconductivity, which, despite twenty-five years of intense research, remains one of the greatest mysteries in the discovery of modern materials.
Tags:
- Superconductivity
- High-temperature superconductivity
- Electron
- Cuprate superconductor
- Particle physics
- Electric charge
- Physics
- Applied and interdisciplinary physics
- Materials science
- Condensed matter
- Chemistry
- Physical sciences
- Quantum mechanics
- Theoretical physics
- Phases of matter
- Materials
- Electromagnetism
- Physical chemistry
- Condensed matter physics