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Heat-assisted magnetic recording media materials

Published online by Cambridge University Press:  09 February 2018

K. Hono
Affiliation:
Research Center for Magnetic and Spintronic Materials, National Institute for Materials Science, Japan; kazuhiro.hono@nims.go.jp
Y.K. Takahashi
Affiliation:
Magnetic Recording Materials Group, National Institute for Materials Science, Japan; Takahashi.Yukiko@nims.go.jp
Ganping Ju
Affiliation:
Recording Media Research Center, Seagate Technology, USA; ganping.a.ju@seagate.com
Jan-Ulrich Thiele
Affiliation:
Seagate Technology, USA; jan-ulrich.thiele@seagate.com
Antony Ajan
Affiliation:
Magnetic Recording Media Division, Western Digital Corporation, USA; Antony.Ajan@wdc.com
XiaoMin Yang
Affiliation:
Seagate Technology, USA; XiaoMin.Yang@seagate.com
Ricardo Ruiz
Affiliation:
Western Digital Corporation, USA; ricardo.ruiz@wdc.com
Lei Wan
Affiliation:
Western Digital Corporation, USA; lei.wan@wdc.com
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Abstract

Heat-assisted magnetic recording (HAMR) is being developed as the next-generation magnetic recording technology. High anisotropy granular media such as FePt-C have been demonstrated as HAMR media for ∼2 Tbpsi (terabits per in2) recording density. In order for this technology to reach its full potential of 4–5 Tbpsi, more progress and innovations are needed for the key requirements for HAMR media, including microstructure, design, magnetic distribution, and thermal design. Beyond granular media, heated-dot magnetic recording (HDMR) is planned to extend areal density toward 10 Tbpsi. HDMR combines similar advanced recording layer materials with advanced patterning techniques to fabricate <10-nm rectangular dot media.

Type
Materials for Heat-Assisted Magnetic Recording
Copyright
Copyright © Materials Research Society 2018 

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