We analyze the impact of growth conditions on the asymmetric magnetic bubble expansion under an in-plane field in ultrathin Pt/Co/Pt films. Specifically, using sputter deposition, we vary the Ar pressure during the growth of the top Pt layer. This induces a large change in the interfacial structure as evidenced by a factor three change in the effective perpendicular magnetic anisotropy. Strikingly, a discrepancy between the current theory for domain-wall propagation based on a simple domain-wall energy density and our experimental results is found. This calls for further theoretical development of domain-wall creep under in-plane fields and varying structural asymmetry
[EN]Chiral domain walls in ultrathin perpendicularly magnetized layers have a Néel structure stabili...
We report on magnetic domain-wall velocity measurements in ultrathin Pt/Co(0.5–0.8 nm)/Pt films wit...
International audienceWe report on magnetic domain-wall velocity measurements in ultrathin Pt=Co0:5-...
We analyze the impact of growth conditions on the asymmetric magnetic bubble expansion under an in-p...
We analyze the impact of growth conditions on the asymmetric magnetic bubble expansion under an in-p...
We analyze the impact of growth conditions on the asymmetric magnetic bubble expansion under an in-p...
Understanding the effect of fabrication conditions on domain wall (DW) motion in thin films with per...
We study the magnetic properties of perpendicularly magnetized Pt/Co/Ir thin films and investigate t...
We study the energy and creep velocity of magnetic domain walls in perpendicularly magnetised Pt/Co/...
Chiral domain walls in ultrathin perpendicularly magnetized layers have a Néel structure stabilized ...
International audienceMagnetic chirality is an important knob in spintronics and can be engineered t...
We study the effect of sputter-deposition conditions, namely substrate temperature and chamber base ...
We study the magnetic properties of perpendicularly magnetised Pt/Co/Ir thin films and investigate t...
Chiral domain walls in ultrathin perpendicularly magnetised layers have a N\'{e}el structure stabili...
We study the effect of sputter-deposition conditions, namely, substrate temperature and chamber base...
[EN]Chiral domain walls in ultrathin perpendicularly magnetized layers have a Néel structure stabili...
We report on magnetic domain-wall velocity measurements in ultrathin Pt/Co(0.5–0.8 nm)/Pt films wit...
International audienceWe report on magnetic domain-wall velocity measurements in ultrathin Pt=Co0:5-...
We analyze the impact of growth conditions on the asymmetric magnetic bubble expansion under an in-p...
We analyze the impact of growth conditions on the asymmetric magnetic bubble expansion under an in-p...
We analyze the impact of growth conditions on the asymmetric magnetic bubble expansion under an in-p...
Understanding the effect of fabrication conditions on domain wall (DW) motion in thin films with per...
We study the magnetic properties of perpendicularly magnetized Pt/Co/Ir thin films and investigate t...
We study the energy and creep velocity of magnetic domain walls in perpendicularly magnetised Pt/Co/...
Chiral domain walls in ultrathin perpendicularly magnetized layers have a Néel structure stabilized ...
International audienceMagnetic chirality is an important knob in spintronics and can be engineered t...
We study the effect of sputter-deposition conditions, namely substrate temperature and chamber base ...
We study the magnetic properties of perpendicularly magnetised Pt/Co/Ir thin films and investigate t...
Chiral domain walls in ultrathin perpendicularly magnetised layers have a N\'{e}el structure stabili...
We study the effect of sputter-deposition conditions, namely, substrate temperature and chamber base...
[EN]Chiral domain walls in ultrathin perpendicularly magnetized layers have a Néel structure stabili...
We report on magnetic domain-wall velocity measurements in ultrathin Pt/Co(0.5–0.8 nm)/Pt films wit...
International audienceWe report on magnetic domain-wall velocity measurements in ultrathin Pt=Co0:5-...