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Investigation of the unidirectional spin heat conveyer effect in a 200 nm thin Yttrium Iron Garnet film
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Investigation of the unidirectional spin heat conveyer effect in a 200 nm thin Yttrium Iron Garnet film
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Journal Article
Investigation of the unidirectional spin heat conveyer effect in a 200 nm thin Yttrium Iron Garnet film
2016
Overview
We have investigated the unidirectional spin wave heat conveyer effect in sub-micron thick yttrium iron garnet (YIG) films using lock-in thermography (LIT). Although the effect is small in thin layers this technique allows us to observe asymmetric heat transport by magnons which leads to asymmetric temperature profiles differing by several mK on both sides of the exciting antenna, respectively. Comparison of Damon-Eshbach and backward volume modes shows that the unidirectional heat flow is indeed due to non-reciprocal spin-waves. Because of the finite linewidth, small asymmetries can still be observed when only the uniform mode of ferromagnetic resonance is excited. The latter is of extreme importance for example when measuring the inverse spin-Hall effect because the temperature differences can result in thermovoltages at the contacts. Because of the non-reciprocity these thermovoltages reverse their sign with a reversal of the magnetic field which is typically deemed the signature of the inverse spin-Hall voltage.
Publisher
Nature Publishing Group UK,Nature Publishing Group
Subject
