Physicists Detect Elusive Orbiton By Splitting Electron

In summary, condensed-matter physicists have successfully detected the elusive "orbiton", the third constituent of an electron, by splitting it from a spinon in a one-dimensional chain of atoms. This discovery could have implications in the development of quantum computers, as orbitons could potentially help preserve quantum effects during calculations.
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PlanckShift
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Physicists Detect Elusive Orbiton By "Splitting" Electron

"Condensed-matter physicists have managed to detect the third constituent of an electron — its 'orbiton'. Isolated electrons cannot be split into smaller components, earning them the designation of a fundamental particle. But in the 1980s, physicists predicted that electrons in a one-dimensional chain of atoms could be split into three quasiparticles: a 'holon' carrying the electron's charge, a 'spinon' carrying its spin and an 'orbiton' carrying its orbital location. In 1996, physicists split an electron into a holon and spinon. Now, van den Brink and his colleagues have broken an electron into an orbiton and a spinon (abstract). Orbitons could also aid the quest to build a quantum computer — one stumbling block has been that quantum effects are typically destroyed before calculations can be performed. But as orbital transitions are extremely fast, encoding information in orbitons could be one way to overcome that hurdle."
 
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Do you have a link?
 
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Thanks!
 
  • #5


Here's the link to the original article.
 

1. What is an orbiton?

An orbiton is a theoretical quasiparticle that represents the collective motion of electrons orbiting around an atom or molecule.

2. How did physicists detect the elusive orbiton?

The physicists used a technique called angle-resolved photoemission spectroscopy (ARPES) to split electrons and observe the resulting orbitons.

3. Why is the detection of an orbiton significant?

The detection of an orbiton provides evidence for the existence of this theoretical particle, which could have important implications for our understanding of materials and their properties.

4. What are the potential applications of orbitons?

Orbitons could potentially be used in the development of new electronic devices and technologies, such as faster and more efficient computers.

5. What challenges did the physicists face in detecting the orbiton?

The orbiton is a very elusive and short-lived particle, making it difficult to detect and study. The physicists had to use advanced techniques and equipment to successfully observe it.

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