It is widely believed that the skyrmion Hall effect, often disruptive for device applications, vanishes for overall topologically trivial structures such as (synthetic) antiferromagnetic skyrmions and skyrmioniums due to a compensation of Magnus forces. In this manuscript, however, we report that in contrast to the case of spin-transfer torque driven skyrmion motion, this notion is generally false for spin-orbit torque driven objects. We show that the skyrmion Hall angle is directly related to their helicity and imposes an unexpected roadblock for developing faster and lower input racetrack memories based on spin-orbit torques
peer reviewedSkyrmions and antiskyrmions in magnetic ultrathin films are characterised by a topologi...
Magnetic skyrmions (skyrmions hereafter) are recently discovered localized vortexlike magnetic struc...
Magnetic skyrmions are promising candidates for future spintronic applications such as skyrmion race...
It is widely believed that the skyrmion Hall effect, often disruptive for device applications, vanis...
Magnetic skyrmions are topologically non-trivial nanoscale objects. Their topology, which originates...
Magnetic skyrmions are whirl-like nano-objects with topological protection. When driven by direct cu...
Skyrmions can be driven by spin-orbit torques as a result of the spin Hall effect. Here we model an ...
International audienceWhile antiferromagnetic skyrmions display appealing properties, their lateral ...
Here we study the effect of an additional interfacial spin-transfer torque, as well as the well-esta...
Hall effects of electrons can be produced by an external magnetic field, spin–orbit coupling or a to...
Magnetic skyrmions are nanoscale spin whirlpools that promise breakthroughs in future spintronic app...
Magnetic skyrmions are nanoscopic magnetization textures that have intrigued the spintronics communi...
Magnetic skyrmions might be used as information carriers in future advanced memories, logic gates an...
Magnetic skyrmions are topologically non-trivial, swirling magnetization textures that form lattices...
Magnetic skyrmions are localized topological excitations that behave as particles and can be mobile,...
peer reviewedSkyrmions and antiskyrmions in magnetic ultrathin films are characterised by a topologi...
Magnetic skyrmions (skyrmions hereafter) are recently discovered localized vortexlike magnetic struc...
Magnetic skyrmions are promising candidates for future spintronic applications such as skyrmion race...
It is widely believed that the skyrmion Hall effect, often disruptive for device applications, vanis...
Magnetic skyrmions are topologically non-trivial nanoscale objects. Their topology, which originates...
Magnetic skyrmions are whirl-like nano-objects with topological protection. When driven by direct cu...
Skyrmions can be driven by spin-orbit torques as a result of the spin Hall effect. Here we model an ...
International audienceWhile antiferromagnetic skyrmions display appealing properties, their lateral ...
Here we study the effect of an additional interfacial spin-transfer torque, as well as the well-esta...
Hall effects of electrons can be produced by an external magnetic field, spin–orbit coupling or a to...
Magnetic skyrmions are nanoscale spin whirlpools that promise breakthroughs in future spintronic app...
Magnetic skyrmions are nanoscopic magnetization textures that have intrigued the spintronics communi...
Magnetic skyrmions might be used as information carriers in future advanced memories, logic gates an...
Magnetic skyrmions are topologically non-trivial, swirling magnetization textures that form lattices...
Magnetic skyrmions are localized topological excitations that behave as particles and can be mobile,...
peer reviewedSkyrmions and antiskyrmions in magnetic ultrathin films are characterised by a topologi...
Magnetic skyrmions (skyrmions hereafter) are recently discovered localized vortexlike magnetic struc...
Magnetic skyrmions are promising candidates for future spintronic applications such as skyrmion race...