Reversible control of magnetism in FeRh thin filmshdl:21.15109/CONCORDA/83J6T0ARP2021-12-032Merkel, Dániel G.; Lengyel, Attila; Nagy, Dénes Lajos; Németh, Attila; Horváth, Zsolt E.; Bogdán, Csilla; Gracheva, Maria A.; Hegedűs, Gergő; Sajti, Szilárd; Radnóczi Z. György; Szilágyi Edit, 2021, "Reversible control of magnetism in FeRh thin films", https://hdl.handle.net/21.15109/CONCORDA/83J6T0, ARP, V2, UNF:6:Cvr6lrS6zc+AXoY5zRPfYA== [fileUNF]Reversible control of magnetism in FeRh thin filmshdl:21.15109/CONCORDA/83J6T0Merkel, Dániel G.Lengyel, AttilaNagy, Dénes LajosNémeth, AttilaHorváth, Zsolt E.Bogdán, CsillaGracheva, Maria A.Hegedűs, GergőSajti, SzilárdRadnóczi Z. GyörgySzilágyi EditARPKutnyánszky, AnikóKutnyánszky, Anikó2021-06-15PhysicsInformation storage, Materials for devices, Nanoscale devices, Nanoscale materialsfakeDoiMigrationDoneThe multilayer of approximate structure MgO(100)/[nFe51Rh49(63 Å)/57Fe51Rh49(46 Å)]10 deposited at 200 °C is primarily of paramagnetic A1 phase and is fully converted to the magnetic B2 phase by annealing at 300 °C for 60 min. Subsequent irradiation by 120 keV Ne+ ions turns the thin film completely to the paramagnetic A1 phase. Repeated annealing at 300 °C for 60 min results in 100% magnetic B2 phase, i.e. a process that appears to be reversible at least twice. The A1 → B2 transformation takes place without any plane-perpendicular diffusion while Ne+ irradiation results in significant interlayer mixing.Kérelem alapján.Merkel, D.G., Lengyel, A., Nagy, D.L. et al. Reversible control of magnetism in FeRh thin films. Sci Rep 10, 13923 (2020).10.1038/s41598-020-70899-xMerkel, D.G., Lengyel, A., Nagy, D.L. et al. Reversible control of magnetism in FeRh thin films. Sci Rep 10, 13923 (2020).00_files.tab276text/tab-separated-valuesUNF:6:Cvr6lrS6zc+AXoY5zRPfYA==AUNF:6:TRx2aOi0DAs/KCskKDKK9A==InstituteforParticleandNuclearPhysicsWingerResearchCentreforPhysicsKonkoly-ThegeMiklósút29-33,1121Budapest,HungaryP.O.Box49,1525Budapest,HungaryPhone:+3613922222(ext.2650),Fax:+3613922650E-mail:merkel.daniel@wigner.huWeb:wigner.huUNF:6:fY0dIPJNMsBNu1d75w5ZEw==CUNF:6:RqwkXUpoRaEeG45iukxjxQ==DUNF:6:X7SSnHGdfXdj/SnnAKnsoA==EUNF:6:PBqTgip9OhSRjlXiZdbrNg==FUNF:6:CGyB7mJWcdz75zsW32AlnQ==00_sample_history_SciRep_2020_10_13923.pdfapplication/pdf81001.pdfapplication/pdf190213_101.asctext/x-fixed-field190214_102.asctext/x-fixed-field5FeRht75qi_1.DATtext/x-fixed-field5FeRh_t7q20_1.DATtext/x-fixed-fieldas_deposited_CEMS.dattext/x-fixed-fieldas_deposited_NR.dattext/x-fixed-fieldas_deposited_XRD.dattext/x-fixed-fieldCEMS.met.txttext/plainDepth_profile.jpgimage/jpegFeRht75qi_1.dattext/x-fixed-fieldFeRh_as_TL51_87_BR40_26text/plain; charset=US-ASCIIFeRh_A_roughness.LAYapplication/octet-streamFeRh_t7q20_1.dattext/x-fixed-fieldFourier_HRTEM.jpgimage/jpegHAAD_DF.jpgimage/jpegHAAD_Fe.jpgimage/jpegHAAD_Rh.jpgimage/jpegMBE_81001FeRh_asprepared_c.UXDapplication/octet-streamNR.met.txttext/plainRBS_75deg.jpgimage/jpegRBS_7deg.jpgimage/jpegRBS_report_FeRh.pdfapplication/pdfTEM.met.txttext/plainTEM_overview.jpgimage/jpeg190218_102.asctext/x-fixed-fieldAnnealed_CEMS.dattext/x-fixed-fieldAnnealed_NR.dattext/x-fixed-fieldAnnealed_XRD.dattext/x-fixed-fieldFeRh_as_TL51_87_BR40_24_300C_60mintext/plain; charset=US-ASCIIMBE_81001FeRhA.UXDapplication/octet-streamXRD.met.txttext/plain191016_102.asctext/x-fixed-field20190718Ne120keV1e16.pdfapplication/pdfFeRh_81001A2_300C_1h_Ne1016_p1text/plain; charset=US-ASCIIFeRh_81001A2_300C_1h_Ne1016_p2text/plain; charset=US-ASCIIIrradiated_CEMS.dattext/x-fixed-fieldIrradiated_NR.dattext/x-fixed-fieldIrradiated_XRD.dattext/x-fixed-fieldMBE_81001FeRhA2_Ne.UXDapplication/octet-stream191114_102.asctext/x-fixed-fieldMBE_81001FeRha_A2300C_1h_Ne_300C_1h.UXDapplication/octet-streamReAnnealed_CEMS.dattext/x-fixed-fieldReAnnealed_XRD.dattext/x-fixed-fieldFM_PM_ratio.dattext/x-fixed-field