Proposal for a Nuclear Light Source
arXiv:2210.02512 · doi:10.1088/1674-1137/ac9f0a
Abstract
The paper considers a principal possibility of creating a nuclear light source of the vacuum ultra violet (VUV) range based on the Th nucleus. This nuclear light source can help to solve two main problems -- excitation of the low-lying Th isomer and precision measurement of the nuclear isomeric transition energy. The Thorium nuclear light source is based on the nuclei implanted in a thin dielectric film with a large bandgap. While passing an electric current through the sample, the Th nuclei are excited to the low energy isomeric state eV) in the process of inelastic scattering of conduction electrons. The subsequent spontaneous decay of Th is followed by the emission of quanta in the VUV range. The luminosity of the Thorium nuclear light source is approximately ~photons/s per 1~A of current and per 1~ng of Th. The suggested scheme to obtain radiation from the Th isomer can be considered as a kind of nuclear analogue of the optical radiation from the usual metal-insulator-semiconductor (MIS) junction.
arXiv comment8 pages, 3 figures
References in corpus (27)
- Search for New Physics with Atoms and Molecules
- A Single-Ion Nuclear Clock for Metrology at the 19th Decimal Place
- Direct detection of the 229Th nuclear clock transition
- Enhanced effect of temporal variation of the fine structure constant in diatomic molecules
- Energy of the Th nuclear clock transition
- Proposal for a Nuclear Gamma-Ray Laser of Optical Range
- Measurement of the Th isomer energy with a magnetic micro-calorimeter
- Performance of a 229 Thorium solid-state nuclear clock
- Excitation of the isomeric ^{229m}Th nuclear state via an electronic bridge process in ^{229}Th^+
- Nuclear clocks based on resonant excitation of gamma-transitions
- X-ray pumping of the Th-229 nuclear clock isomer
- Radiative lifetime and energy of the low-energy isomeric level in Th
- Reduced transition probabilities for the gamma decay of the 7.8 eV isomer in Th
- Sensitivity of Th nuclear clock transition to variation of the fine-structure constant
- On Th229 and time-dependent fundamental constants
- Energy of the Th Nuclear Clock Isomer Determined by Absolute -ray Energy Difference
- Enhanced violation of the Lorentz invariance and Einstein's equivalence principle in nuclei and atoms
- Electronic bridge excitation in highly charged Th-229 ions
- Nuclear excitation of the Th isomer via defect states in doped crystals
- Radioluminescence and photoluminescence of Th:CaF crystals
- Excitation of Th at Inelastic Scattering of Low Energy Electrons
- Laser-induced electronic bridge for characterization of the nuclear transition with a tunable optical laser
- Excitation of the Th nucleus via a two-photon electronic transition
- Internal conversion from excited electronic states of ions
- Anomalous Hyperfine Structure of the Th Ground-State Doublet in Muonic Atom
- Experimental studies of thorium ions implantation from pulse laser plasma into thin silicon oxide layers
- Internal conversion of the low energy Th isomer in the Thorium anion