Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2/YFe2 superlattice samples with a (110) growth direction. Detailed magnetization curves have been obtained for YFe2 dominated multilayer samples [wDyFe2/4wYFe2]× 16 with w=45, 50, and 55 Å. In particular, it is shown that the formation of magnetic exchange springs in the magnetically soft YFe2 layers, can be used to engineer multilayer samples with a negative coercivity. Further, by using asymmetric field cycling procedures, we have investigated the irreversible parts of the M-B loop, associated with the switching of the DyFe2 multilayers. © 2001 American Institute of Physics
The Stoner-Wohlfarth model, adapted to include magnetic exchange springs, was used to study coercivi...
The Stoner–Wohlfarth model has proved reasonably successful in describing the coercivities of antife...
Epitaxial-grown DyFe2/YFe2 multilayer thin films form an ideal model system for the study of magneti...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2 /YFe2 super...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2/YFe2 superl...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2/YFe2 superl...
MBE methods have been used to grow single-crystal Laves-phase DyFe 2-YFe2 superlattice samples with ...
MBE methods have been used to grow single-crystal Laves-phase DyFe 2-YFe2 superlattice samples with ...
MBE methods have been used to grow single–crystal Laves–phase DyFe2–YFe2 superlattice samples with a...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2–YFe2 superl...
Single crystal 400 nm thick Laves phase [20 Å DyFe2/80 Å YFe2]40 superlattice have been grown by MBE...
The coercivity of MBE-grown Laves-phase DyFe2–YFe2 thin-layered (50 Å) superlattice samples, with a ...
The coercivity of MBE-grown Laves-phase DyFe2-YFe2 thin-layered (≤ 50 Å) superlattice samples, with ...
Epitaxial Laves phase based alloy and multilayer films grown by molecular beam Epitaxy enable the st...
[ DyFe2/YFe2] superlattices have been grown by Molecular Beam Epitaxy. The magnetic properties of t...
The Stoner-Wohlfarth model, adapted to include magnetic exchange springs, was used to study coercivi...
The Stoner–Wohlfarth model has proved reasonably successful in describing the coercivities of antife...
Epitaxial-grown DyFe2/YFe2 multilayer thin films form an ideal model system for the study of magneti...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2 /YFe2 super...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2/YFe2 superl...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2/YFe2 superl...
MBE methods have been used to grow single-crystal Laves-phase DyFe 2-YFe2 superlattice samples with ...
MBE methods have been used to grow single-crystal Laves-phase DyFe 2-YFe2 superlattice samples with ...
MBE methods have been used to grow single–crystal Laves–phase DyFe2–YFe2 superlattice samples with a...
Molecular beam epitaxial methods have been used to grow single crystal Laves phase DyFe2–YFe2 superl...
Single crystal 400 nm thick Laves phase [20 Å DyFe2/80 Å YFe2]40 superlattice have been grown by MBE...
The coercivity of MBE-grown Laves-phase DyFe2–YFe2 thin-layered (50 Å) superlattice samples, with a ...
The coercivity of MBE-grown Laves-phase DyFe2-YFe2 thin-layered (≤ 50 Å) superlattice samples, with ...
Epitaxial Laves phase based alloy and multilayer films grown by molecular beam Epitaxy enable the st...
[ DyFe2/YFe2] superlattices have been grown by Molecular Beam Epitaxy. The magnetic properties of t...
The Stoner-Wohlfarth model, adapted to include magnetic exchange springs, was used to study coercivi...
The Stoner–Wohlfarth model has proved reasonably successful in describing the coercivities of antife...
Epitaxial-grown DyFe2/YFe2 multilayer thin films form an ideal model system for the study of magneti...