6533b822fe1ef96bd127d4ac

RESEARCH PRODUCT

Opportunities and limitations of in-gas-cell laser spectroscopy of the heaviest elements with RADRIS

Sebastian RaederBrankica AnđelićJulian AulerMichael BlockPierre ChauveauPremaditya ChhetriArno ClaessensAntoine De RoubinChristoph E DüllmannRafael FerrerFrancesca GiacoppoManuel J GutiérrezFritz-peter HeßbergerFedor IvandikovMagdalena KajaOliver KalejaTom KieckEunkang KimSandro KraemerMustapha LaatiaouiJeremy LantisNathalie LecesneIain D MooreAndrew MistryDanny MünzbergSteven NothhelferAndrea RaggioEmmanuel Rey-hermeElisabeth RickertJekabs RomansElisa Romero-romeroMatou StemmlerMarine VandebrouckPiet Van DuppenThomas WaltherJessica WarbinekKlaus Wendt

subject

Actinidesactinideslaser spectroscopygas celltutkimusmenetelmätSuper heavy elements[PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det]Laser spectroscopy[PHYS.NEXP]Physics [physics]/Nuclear Experiment [nucl-ex]laserspektroskopiasuper heavy elementsGas cell

description

International audience; The radiation detection resonance ionization spectroscopy (RADRIS) technique enables laser spectroscopic investigations of the heaviest elements which are produced in atom-at-a-time quantities from fusion-evaporation reactions. To achieve a high efficiency, laser spectroscopy is performed in a buffer-gas environment used to thermalize and stop the high-energy evaporation residues behind the velocity filter SHIP. The required cyclic measurement procedure in combination with the applied filament collection for neutralization as well as confinement of the stopped ions and subsequent pulse-heat desorption constrains the applicability of the technique. Here, some of these limitations and also opportunities that arise from this unique measurement setup will be evaluated.

http://urn.fi/URN:NBN:fi:jyu-202306093689