Home > Press > Unveiling the power of hot carriers in plasmonic nanostructures
 |
| Depending on the excitation regime, the generated hot-carriers result in the interconnected optical nonlinear, photochemical and/or thermal effects. Credit by Jacob Khurgin, Anton Yu. Bykov, Anatoly V. Zayats |
Abstract:
A new scientific review explores the exciting potential of hot carriers, energetic electrons generated by light in plasmonic nanostructures. These tiny structures hold immense promise for future technologies due to their unique way of interacting with light and creating hot carriers.
Unveiling the power of hot carriers in plasmonic nanostructures
Changchun, China | Posted on August 16th, 2024Hot carriers are electrons with a surplus of energy. When light strikes a plasmonic nanostructure, it can excite these electrons, pushing them out of equilibrium. This non-equilibrium state unlocks a range of fascinating phenomena. Hot carriers can be used to control light itself, potentially leading to novel applications in light-based technologies. They can also drive chemical reactions at the surface of the nanostructure, paving the way for advanced photocatalysis. Also, hot carriers can generate electrical currents, opening doors for new ultrafast detectors and optoelectronic devices.
This research review illuminates the intricate details of hot carrier generation and behavior in plasmonic nanostructures. It explores how light interacts with these structures to create hot carriers, how hot carriers lose their energy and return to equilibrium, and methods to control hot carrier dynamics for specific applications.
By harnessing the power of hot carriers, scientists envision a future filled with innovative technologies. Hot carriers could enable ultrafast electronics and optoelectronics, boost the efficiency of solar cells, and even revolutionize nanomedicine through precise control. This research paves the way for further exploration and development of hot carrier technologies, bringing us closer to a future shaped by light and nanostructures.
####
Contacts:
Media Contact
Wei Zhao
Light Publishing Center, Changchun Institute of Optics, Fine Mechanics And Physics, CAS
Office: 86-431-861-76852
Expert Contact
Anatoly V. Zayats
King’s College London
Copyright © Light Publishing Center, Changchun Institute of Optics, Fine Mechanics And Physics, CAS
If you have a comment, please Contact us.Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.
Bookmark:
| Related Links |
| Related News Press |
News and information
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
Quantum computers simulate fundamental physics: shedding light on the building blocks of nature June 6th, 2025
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Organic Electronics
Efficient and stable hybrid perovskite-organic light-emitting diodes with external quantum efficiency exceeding 40 per cent July 5th, 2024
New organic molecule shatters phosphorescence efficiency records and paves way for rare metal-free applications July 5th, 2024
Plasmonics
A new dimension in magnetism and superconductivity launched November 5th, 2021
Patterning silicon at the one nanometer scale: Scientists engineer materials’ electrical and optical properties with plasmon engineering August 13th, 2021
TPU scientists offer new plasmon energy-based method to remove CO2 from atmosphere March 19th, 2021
Possible Futures
Ben-Gurion University of the Negev researchers several steps closer to harnessing patient's own T-cells to fight off cancer June 6th, 2025
Researchers unveil a groundbreaking clay-based solution to capture carbon dioxide and combat climate change June 6th, 2025
Cambridge chemists discover simple way to build bigger molecules – one carbon at a time June 6th, 2025
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Chip Technology
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Programmable electron-induced color router array May 14th, 2025
Enhancing power factor of p- and n-type single-walled carbon nanotubes April 25th, 2025
Ultrafast plasmon-enhanced magnetic bit switching at the nanoscale April 25th, 2025
Nanomedicine
Ben-Gurion University of the Negev researchers several steps closer to harnessing patient's own T-cells to fight off cancer June 6th, 2025
Cambridge chemists discover simple way to build bigger molecules – one carbon at a time June 6th, 2025
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
Self-propelled protein-based nanomotors for enhanced cancer therapy by inducing ferroptosis June 6th, 2025
Discoveries
Researchers unveil a groundbreaking clay-based solution to capture carbon dioxide and combat climate change June 6th, 2025
Cambridge chemists discover simple way to build bigger molecules – one carbon at a time June 6th, 2025
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Announcements
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
Quantum computers simulate fundamental physics: shedding light on the building blocks of nature June 6th, 2025
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Interviews/Book Reviews/Essays/Reports/Podcasts/Journals/White papers/Posters
Cambridge chemists discover simple way to build bigger molecules – one carbon at a time June 6th, 2025
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
Quantum computers simulate fundamental physics: shedding light on the building blocks of nature June 6th, 2025
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Energy
KAIST researchers introduce new and improved, next-generation perovskite solar cell November 8th, 2024
Groundbreaking precision in single-molecule optoelectronics August 16th, 2024
Development of zinc oxide nanopagoda array photoelectrode: photoelectrochemical water-splitting hydrogen production January 12th, 2024
 |
||
 |
||
| The latest news from around the world, FREE | ||
 |
||
|
|
||
| Premium Products | ||
 |
||
|
Only the news you want to read!
Learn More |
||
 |
||
|
Full-service, expert consulting
Learn More |
||
|
|
||