Here we study the effect of an additional interfacial spin-transfer torque, as well as the well established spin-orbit torque and bulk spin-transfer torque, on skyrmion collections - group of skyrmions dense enough that they are not isolated from on another - in ultrathin heavy metal / ferromagnetic multilayers, by comparing modelling with experimental results. Using a skyrmion collection with a range of skyrmion diameters and landscape disorder, we study the dependence of the skyrmion Hall angle on diameter and velocity, as well as the velocity as a function of diameter. We show the experimental results are in good agreement with modelling when including the interfacial spin-transfer torque, and cannot be reproduced by using the spin-orbit...
Magnetic skyrmions are topological magnetization textures that are characterized by the homotopy gro...
Magnetic skyrmions are topologically stabilized nanoscale spin structures that could be of use in th...
Magnetic skyrmions are topologically non-trivial, swirling magnetization textures that form lattices...
Here we study the effect of an additional interfacial spin-transfer torque, as well as the well-esta...
Skyrmions can be driven by spin-orbit torques as a result of the spin Hall effect. Here we model an ...
It is well known that skyrmions can be driven using spin-orbit torques due to the spin-Hall effect. ...
Magnetic skyrmions are topologically non-trivial nanoscale objects. Their topology, which originates...
It is widely believed that the skyrmion Hall effect, often disruptive for device applications, vanis...
Searching for low-power-consuming and high-efficient methods for well controllable driving of skyrmi...
Magnetic skyrmions, as a whirling spin texture with axisymmetry, cannot be propelled by a uniform ma...
Magnetic skyrmions (skyrmions hereafter) are recently discovered localized vortexlike magnetic struc...
Magnetic skyrmions are nanoscopic magnetization textures that have intrigued the spintronics communi...
Spin currents can modify the magnetic state of ferromagnetic ultrathin films through spin-orbit torq...
International audienceWhile antiferromagnetic skyrmions display appealing properties, their lateral ...
Magnetic skyrmions, topologically stable spin textures that can be driven by electric currents effic...
Magnetic skyrmions are topological magnetization textures that are characterized by the homotopy gro...
Magnetic skyrmions are topologically stabilized nanoscale spin structures that could be of use in th...
Magnetic skyrmions are topologically non-trivial, swirling magnetization textures that form lattices...
Here we study the effect of an additional interfacial spin-transfer torque, as well as the well-esta...
Skyrmions can be driven by spin-orbit torques as a result of the spin Hall effect. Here we model an ...
It is well known that skyrmions can be driven using spin-orbit torques due to the spin-Hall effect. ...
Magnetic skyrmions are topologically non-trivial nanoscale objects. Their topology, which originates...
It is widely believed that the skyrmion Hall effect, often disruptive for device applications, vanis...
Searching for low-power-consuming and high-efficient methods for well controllable driving of skyrmi...
Magnetic skyrmions, as a whirling spin texture with axisymmetry, cannot be propelled by a uniform ma...
Magnetic skyrmions (skyrmions hereafter) are recently discovered localized vortexlike magnetic struc...
Magnetic skyrmions are nanoscopic magnetization textures that have intrigued the spintronics communi...
Spin currents can modify the magnetic state of ferromagnetic ultrathin films through spin-orbit torq...
International audienceWhile antiferromagnetic skyrmions display appealing properties, their lateral ...
Magnetic skyrmions, topologically stable spin textures that can be driven by electric currents effic...
Magnetic skyrmions are topological magnetization textures that are characterized by the homotopy gro...
Magnetic skyrmions are topologically stabilized nanoscale spin structures that could be of use in th...
Magnetic skyrmions are topologically non-trivial, swirling magnetization textures that form lattices...