Chirality of 'trions' illuminates new paths for quantum optics
Scientists from Tokyo Metropolitan University have discovered that charged states made of two electrons and a positively charged hole (or vice versa) on atomically thin rolls of carbon atoms have a structure-derived "handedness" in how…
Phys.org Quantum Physics
Publisher
Nov 9, 2026 at 3:40 PM UTC · Updated vor 7 Stunden · 1 Min. Lesezeit

Scientists from Tokyo Metropolitan University have discovered that charged states made of two electrons and a positively charged hole (or vice versa) on atomically thin rolls of carbon atoms have a structure-derived "handedness" in how they interact with light. While electron-hole pairs, or "excitons," were known to keep the chirality of the underlying nanotube, the team showed that adding a charge to create "trions" does not change this property.
Sourced by
Originally reported by Phys.org Quantum Physics
NewsLayer coverage based on externally reported material.
The Daily Brief
The onchain economy, before your day starts.
Curated markets, onchain insights, and key headlines — delivered every weekday morning.
Weekdays · Free · ~5 minute read
0
Applause
Was this article helpful?
Article Intelligence
Related Coverage
Sponsored
AdNewsLayer Premium
Unlock deeper intelligence.
Ad-free reading, exclusive research, and real-time onchain insights.
Go Premium

