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V. Uhlíř

Researcher at Brno University of Technology

Publications -  41
Citations -  1504

V. Uhlíř is an academic researcher from Brno University of Technology. The author has contributed to research in topics: Phase transition & Magnetic field. The author has an hindex of 14, co-authored 33 publications receiving 1222 citations. Previous affiliations of V. Uhlíř include Centre national de la recherche scientifique & Central European Institute of Technology.

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Engineered materials for all-optical helicity-dependent magnetic switching.

TL;DR: It is demonstrated that all-optical helicity-dependent switching (AO-HDS) can be observed not only in selected rare earth-transition metal alloy films but also in a much broader variety of materials, including RE-TM alloys, multilayers and heterostructures.
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Analysis of oxygen induced anisotropy crossover in Pt/Co/MOx trilayers

TL;DR: In this article, the role of plasma oxidation in the onset of magnetic anisotropy at the Co/MOx interface was investigated and it was observed that varying the oxidation time modifies the magnetic properties of the Co layer, inducing a magnetic aisotropic crossover from in-plane to out-of-plane.
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Dynamic switching of the spin circulation in tapered magnetic nanodisks

TL;DR: In this article, the authors show controlled dynamic switching of spin circulation in vortices using nanosecond field pulses by imaging the process with full-field soft X-ray transmission microscopy.
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Colossal magnetic phase transition asymmetry in mesoscale FeRh stripes.

TL;DR: It is shown that the first-order metamagnetic phase transition in FeRh films becomes strongly asymmetric in mesoscale structures, with pronounced supercooling and an avalanche-like abrupt transition from the ferromagnetic to the antiferromagnetic phase, while the reverse transition remains nearly continuous over a broad temperature range.
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Photoinduced Enhancement of the Charge Density Wave Amplitude.

TL;DR: It is demonstrated for the case of elemental chromium that moderate ultrafast photoexcitation can transiently enhance the charge-density-wave amplitude by up to 30% above its equilibrium value, while strong excitations lead to an oscillating, large-amplitude CDW state that persists above the equilibrium transition temperature.