6533b825fe1ef96bd12829ee

RESEARCH PRODUCT

Fission in the landscape of heaviest elements: Some recent examples

Shigeo MinamiMichael BlockDieter AckermannBettina LommelV. YakushevaJ. JeppssonAlexander YakushevJadambaa KhuyagbaatarBirgit KindlerJ. KrierT. Torres De HeidenreichA. HübnerJ. SteinerJ. V. KratzN. KurzMoumita MaitiL.-l. AnderssonU. ForsbergJulia EvenEgon JägerNorbert WiehlH. BrandCh. E. DüllmannF. P. HeßbergerW. HartmannDirk RudolphJ. HoffmannMatthias SchädelJörg RunkeR-d HerzbergB. SchaustenLuis SarmientoJuha Uusitalo

subject

Range (particle radiation)ta114010308 nuclear & particles physicsChemistryFissionPhysicsQC1-999nuclear stability[PHYS.NEXP]Physics [physics]/Nuclear Experiment [nucl-ex]Superheavy Elements7. Clean energy01 natural sciencesRecoil separatorNuclear physicssuperheavy elements0103 physical sciencesAtomic nucleusfissionddc:530010306 general physics

description

The fission process still remains a main factor that determines the stability of the atomic nucleus of heaviest elements. Fission half-lives vary over a wide range, 10^−19 to 10^24 s. Present experimental techniques for the synthesis of the superheavy elements that usually measure α-decay chains are sensitive only in a limited range of half-lives, often 10^5 to 10^3 s. In the past years, measurement techniques for very short-lived and very long-lived nuclei were significantly improved at the gas-filled recoil separator TASCA at GSI Darmstadt. Recently, several experimental studies of fission-related phenomena have successfully been performed. In this paper, results on 254−256Rf and 266Lr are presented and corresponding factors for retarding the fission process are discussed. (Less)

https://doi.org/10.1051/epjconf/201613103003