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Klause, Robin; Xiao, Yuxuan; Gibbons, Jonathan; Amin, Vivek_P; Belashchenko, Kirill_D; Go, Dongwook; Fullerton, Eric_E; Hoffmann, Axel (, Physical Review Applied)
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Gupta, Pushpendra; Park, In_Jun; Swain, Anupama; Mishra, Abhisek; Amin, Vivek_P; Bedanta, Subhankar (, Physical Review B)
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Lim, Youngmin; Nepal, Bhuwan; Smith, David_A; Wu, Shuang; Srivastava, Abhishek; Nakarmi, Prabandha; Mewes, Claudia; Jiang, Zijian; Gupta, Adbhut; Viehland, Dwight_D; et al (, APL Materials)An electrically conductive metal typically transmits or absorbs a spin current. Here, we report on evidence that interfacing two metal thin films can suppress spin transmission and absorption. We examine spin pumping in spin-source/spacer/spin-sink heterostructures, where the spacer consists of metallic Cu and Cr thin films. The Cu/Cr spacer largely suppresses spin pumping—i.e., neither transmitting nor absorbing a significant amount of spin current—even though Cu or Cr alone transmits a sizable spin current. The antiferromagnetism of Cr is not essential for the suppression of spin pumping, as we observe similar suppression with Cu/V spacers with V as a nonmagnetic analog of Cr. We speculate that diverse combinations of spin-transparent metals may form interfaces that suppress spin pumping, although the underlying mechanism remains unclear. Our work may stimulate a new perspective on spin transport in metallic multilayers.more » « less
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