Home > Press > Towards lasers powerful enough to investigate a new kind of physics: An international team of researchers has demonstrated an innovative technique for increasing the intensity of lasers
![]() |
The paper "Thin plate compression of a sub-petawatt Ti:Sa laser pulses" made the cover of the journal Applied Physics Letters, Volume 116, Issue 24 published June 15, 2020. CREDIT AIP Publishing |
Abstract:
In a paper that made the cover of the journal Applied Physics Letters, an international team of researchers has demonstrated an innovative technique for increasing the intensity of lasers. This approach, based on the compression of light pulses, would make it possible to reach a threshold intensity for a new type of physics that has never been explored before: quantum electrodynamics phenomena.
Researchers Jean-Claude Kieffer of the Institut national de la recherche scientifique (INRS), E. A. Khazanov of the Institute of Applied Physics of the Russian Academy of Sciences and in France Gérard Mourou, Professor Emeritus of the Ecole Polytechnique, who was awarded the Nobel Prize in Physics in 2018, have chosen another direction to achieve a power of around 10^23 Watts (W). Rather than increasing the energy of the laser, they decrease the pulse duration to only a few femtoseconds. This would keep the system within a reasonable size and keep operating costs down.
To generate the shortest possible pulse, the researchers are exploiting the effects of non-linear optics. “A laser beam is sent through an extremely thin and perfectly homogeneous glass plate. The particular behaviour of the wave inside this solid medium broadens the spectrum and allows for a shorter pulse when it is recompressed at the exit of the plate,” explains Jean-Claude Kieffer, co-author of the study published online on 15 June 2020 in the journal Applied Physics Letters.
Installed in the Advanced Laser Light Source (ALLS) facility at INRS, the researchers limited themselves to an energy of 3 joules for a 10-femtosecond pulse, or 300 terawatts (1012W). They plan to repeat the experiment with an energy of 13 joules over 5 femtoseconds, or an intensity of 3 petawatts (1015 W). “We would be among the first in the world to achieve this level of power with a laser that has such short pulses,” says Professor Kieffer.
“If we achieve very short pulses, we enter relativistic problem classes. This is an extremely interesting direction that has the potential to take the scientific community to new horizons,” says Professor Kieffer. “It was a very nice piece of work solidifying the paramount potential of this technique,” concludes Gérard Mourou.
####
For more information, please click here
Contacts:
Audrey-Maude Vezina
audrey-maude.vezina@inrs.ca
418-254-2156
@Inrsciences
Copyright © INRS
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.
Related Links |
Related News Press |
Physics
Lattice-driven charge density wave fluctuations far above the transition temperature in Kagome superconductor April 25th, 2025
HKU physicists uncover hidden order in the quantum world through deconfined quantum critical points April 25th, 2025
News and information
Enhancing power factor of p- and n-type single-walled carbon nanotubes April 25th, 2025
Tumor microenvironment dynamics: the regulatory influence of long non-coding RNAs April 25th, 2025
Ultrafast plasmon-enhanced magnetic bit switching at the nanoscale April 25th, 2025
Govt.-Legislation/Regulation/Funding/Policy
Rice researchers harness gravity to create low-cost device for rapid cell analysis February 28th, 2025
Quantum engineers ‘squeeze’ laser frequency combs to make more sensitive gas sensors January 17th, 2025
Chainmail-like material could be the future of armor: First 2D mechanically interlocked polymer exhibits exceptional flexibility and strength January 17th, 2025
Possible Futures
Lattice-driven charge density wave fluctuations far above the transition temperature in Kagome superconductor April 25th, 2025
Enhancing power factor of p- and n-type single-walled carbon nanotubes April 25th, 2025
Tumor microenvironment dynamics: the regulatory influence of long non-coding RNAs April 25th, 2025
Ultrafast plasmon-enhanced magnetic bit switching at the nanoscale April 25th, 2025
Discoveries
Lattice-driven charge density wave fluctuations far above the transition temperature in Kagome superconductor April 25th, 2025
HKU physicists uncover hidden order in the quantum world through deconfined quantum critical points April 25th, 2025
Nanophotonic platform boosts efficiency of nonlinear-optical quantum teleportation April 25th, 2025
Announcements
Enhancing power factor of p- and n-type single-walled carbon nanotubes April 25th, 2025
Tumor microenvironment dynamics: the regulatory influence of long non-coding RNAs April 25th, 2025
Ultrafast plasmon-enhanced magnetic bit switching at the nanoscale April 25th, 2025
Interviews/Book Reviews/Essays/Reports/Podcasts/Journals/White papers/Posters
Nanophotonic platform boosts efficiency of nonlinear-optical quantum teleportation April 25th, 2025
Enhancing power factor of p- and n-type single-walled carbon nanotubes April 25th, 2025
Grants/Sponsored Research/Awards/Scholarships/Gifts/Contests/Honors/Records
New discovery aims to improve the design of microelectronic devices September 13th, 2024
Physicists unlock the secret of elusive quantum negative entanglement entropy using simple classical hardware August 16th, 2024
Atomic force microscopy in 3D July 5th, 2024
Photonics/Optics/Lasers
Nanophotonic platform boosts efficiency of nonlinear-optical quantum teleportation April 25th, 2025
Bringing the power of tabletop precision lasers for quantum science to the chip scale December 13th, 2024
Researchers succeed in controlling quantum states in a new energy range December 13th, 2024
Groundbreaking research unveils unified theory for optical singularities in photonic microstructures December 13th, 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 |
||
![]() |