- #1
sanman
- 745
- 24
This was published in Nature, so it seems credible enough:
http://www.nature.com/nphys/journal/vaop/ncurrent/full/nphys2071.html
So could this thing be used to help achieve an Accelerator-Driven Reactor System?
Can this thing generate high-energy light for nuclear applications? Perhaps to explore nucleonic transitions?
Could it be used for generating a powerful ion-beam or proton-beam, as a spallation source in an ADRS?
What are the applications here?
http://www.nature.com/nphys/journal/vaop/ncurrent/full/nphys2071.html
Laser plasma accelerators1 have produced high-quality electron beams with GeV energies from cm-scale devices2 and are being investigated as hyperspectral fs light sources producing THz to γ-ray radiation3, 4, 5, and as drivers for future high-energy colliders6, 7. These applications require a high degree of stability, beam quality and tunability. Here we report on a technique to inject electrons into the accelerating field of a laser-driven plasma wave and coupling of this injector to a lower-density, separately tunable plasma for further acceleration. The technique relies on a single laser pulse powering a plasma structure with a tailored longitudinal density profile, to produce beams that can be tuned in the range of 100– 400 MeV with per-cent-level stability, using laser pulses of less than 40 TW. The resulting device is a simple stand-alone accelerator or the front end for a multistage higher-energy accelerator.
So could this thing be used to help achieve an Accelerator-Driven Reactor System?
Can this thing generate high-energy light for nuclear applications? Perhaps to explore nucleonic transitions?
Could it be used for generating a powerful ion-beam or proton-beam, as a spallation source in an ADRS?
What are the applications here?
Last edited by a moderator: