An Innovative Superconducting Magnetic Trap for Probing β-decay in Plasmas

Author:

Mauro Giorgio Sebastiano,Celona Luigi,Torrisi Giuseppe,Pidatella Angelo,Naselli Eugenia,Russo Filippo,Mazzaglia Maria,Galatà Alessio,Maimone Fabio,Lang Ralf,Tinscher Klaus,Santonocito Domenico,Mascali David

Abstract

The main aim of Plasmas for Astrophysics Nuclear Decays Observation and Radiation for Archaeometry (PANDORA) project is to build a compact and flexible magnetic plasma trap where plasma reaches a densityne∼ 1011–1013 cm−3, and a temperature, in units ofkT,kTe∼ 0.1–30 keV in order to measure, for the first time, nuclearβ-decay rates in stellar-like conditions. One of the most important aspects of an ECR Ion Source (ECRIS) is its magnetic system. In this paper, the numerical design of the PANDORA magnetic system is presented and validated by using the commercial simulators OPERA and CST Studio Suite, showing an excellent agreement between each other in terms of axial and radial field profiles. In conjunction to the magnetic system design, the overall injection system, including the microwave lines for plasma heating and the isotopes injection schemes with a focus on the developments of the oven for solid elements, has been conceived and will be discussed.

Publisher

Frontiers Media SA

Subject

Physical and Theoretical Chemistry,General Physics and Astronomy,Mathematical Physics,Materials Science (miscellaneous),Biophysics

Reference21 articles.

1. A Novel Approach to β-Decay: PANDORA, a New Experimental Setup for Future In-Plasma Measurements;Mascali;Universe,2022

2. The Role of Microwave Frequency on the High Charge States Buildup in the ECR Ion Sources;Gammino;Plasma Sourc Sci. Technol.,1996

3. High Performance ECR Sources for Next-Generation Nuclear Science Facilities;Leitner,2019

4. Dependence of the Bremsstrahlung Spectral Temperature in Minimum-B Electron Cyclotron Resonance Ion Sources;Benitez;IEEE Trans Plasma Sci,2017

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