An original approach for the formation of an exchange bias system is presented. Alternative to surface oxidation or deposition for the formation of Co/CoO bilayer exchange bias systems, implantation of oxygen ions into Co films is applied. The implantation results in the formation of CoxOy embedded in a Co matrix. Comparison with noble gas implantation unambiguously demonstrates that the observed exchange bias effect is induced by the implanted oxygen. Opposed to bilayers formed by surface oxidation, the implantation results in a different morphology of the interface between Co and CoxOy and also gives rise to a radically different magnetization reversal mechanism.status: publishe
Co/CoO nanocomposite thin films have been deposited by RF sputtering with different oxygen partial p...
Co/CoO nanocomposite thin films have been deposited by RF sputtering with different oxygen partial p...
International audienceThe exchange-bias properties of a Co/CoO/Co sandwich structure are examined. T...
Exchange bias (EB) is the interfacial coupling between a ferromagnet (FM) and an antiferromagnet (AF...
Exchange bias EB is induced by oxygen implantation in three different ferromagnetic materials pol...
Exchange bias EB is induced by oxygen implantation in three different ferromagnetic materials pol...
Exchange bias EB is induced by oxygen implantation in three different ferromagnetic materials pol...
Exchange bias, referring to the unidirectional anisotropy in a ferromagnet when in contact with an a...
The low-temperature magnetic behavior of granular Co-CoO exchange bias systems, prepared by oxygen i...
We use ion implantation as a new approach to build an anti-ferromagnetic (AFM) cluster embedded exch...
The low-temperature magnetic behavior of granular Co-CoO exchange bias systems, prepared by oxygen i...
The low-temperature magnetic behavior of granular Co-CoO exchange bias systems, prepared by oxygen i...
The interdependence between training and magnetization reversal in granular Co-CoO exchange bias (EB...
The interdependence between training and magnetization reversal in granular Co-CoO exchange bias (EB...
Oxygen implantation in ferromagnetic Co thin films is shown to be an advantageous route to improving...
Co/CoO nanocomposite thin films have been deposited by RF sputtering with different oxygen partial p...
Co/CoO nanocomposite thin films have been deposited by RF sputtering with different oxygen partial p...
International audienceThe exchange-bias properties of a Co/CoO/Co sandwich structure are examined. T...
Exchange bias (EB) is the interfacial coupling between a ferromagnet (FM) and an antiferromagnet (AF...
Exchange bias EB is induced by oxygen implantation in three different ferromagnetic materials pol...
Exchange bias EB is induced by oxygen implantation in three different ferromagnetic materials pol...
Exchange bias EB is induced by oxygen implantation in three different ferromagnetic materials pol...
Exchange bias, referring to the unidirectional anisotropy in a ferromagnet when in contact with an a...
The low-temperature magnetic behavior of granular Co-CoO exchange bias systems, prepared by oxygen i...
We use ion implantation as a new approach to build an anti-ferromagnetic (AFM) cluster embedded exch...
The low-temperature magnetic behavior of granular Co-CoO exchange bias systems, prepared by oxygen i...
The low-temperature magnetic behavior of granular Co-CoO exchange bias systems, prepared by oxygen i...
The interdependence between training and magnetization reversal in granular Co-CoO exchange bias (EB...
The interdependence between training and magnetization reversal in granular Co-CoO exchange bias (EB...
Oxygen implantation in ferromagnetic Co thin films is shown to be an advantageous route to improving...
Co/CoO nanocomposite thin films have been deposited by RF sputtering with different oxygen partial p...
Co/CoO nanocomposite thin films have been deposited by RF sputtering with different oxygen partial p...
International audienceThe exchange-bias properties of a Co/CoO/Co sandwich structure are examined. T...