A new scheme for isomer pumping and depletion with high-power lasers
arXiv:2404.07909 · doi:10.1063/5.0251667
Abstract
We propose a novel scheme for the population and depletion of nuclear isomers. The scheme combines the -photons with energies keV emitted during the interaction of a contemporary high-intensity laser pulse with a plasma and one or multiple photon beams supplied by intense lasers. Due to nonlinear effects, two- or multi-photon absorption dominates over the conventional multi-step one-photon process for an optimized gamma flash. Moreover, this nonlinear effect can be greatly enhanced with the help of externally supplied low-energy photons coming from another laser. These low-energy photons act such that the effective cross-section experienced by the -photons becomes tunable, growing with the intensity of the beam. Assuming Wcm for the photon beam, an effective cross-section as large as cm to cm for the photon can be achieved. Thus, within state-of-the-art 10 PW laser facilities, the yields from two-photon absorption can reach to isomers per shot for selected states that are separated from their ground state by E2 transitions. Similar yields for transitions with higher multipolarities can be accommodated by multi-photon absorption with additional photons provided.
arXiv comment14 pages, 5 figures (with supplemental material). Published version
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