Martin Blaber
Seagate Technology
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Publication
Featured researches published by Martin Blaber.
IEEE Transactions on Magnetics | 2017
Zhongyang Li; Weibin Chen; Chris Rea; Martin Blaber; Nan Zhou; Hua Zhou; Huaqing Yin
Recording curvature in magnetic data-storage technology has long been one of the significant challenges impacting on recording performance. Despite curvature occurrence in the conventional recording techniques such as perpendicular magnetic recording (PMR), heat-assisted magnetic recording (HAMR) is demonstrated to induce much more severe curvature than PMR. HAMR curvature could cause poor bit error rate and limits the maximum areal density capacity. Here we have theoretically predicted and demonstrated various approaches for curvature reduction from the aspect of either altering the near-field transducer head design or recording medium design. Optical and thermal modeling have indicated that by utilizing a crown-shape peg to change the thermal source profile and compensate for thermal expansion and rounding effect, it could potentially improve curvature figure of merit (FOM) and achieve curvature reduction by ~45%. In terms of the recording media design, by altering the heat sink and internal layer media material or geometry, it could also achieve curvature cancellation of ~40% with increased thermal gradient. The combined approach from both HAMR head and media perspectives with balanced recording FOMs, could potentially realize significant curvature reduction to be of similar or better recording curvature level to PMR.
Proceedings of SPIE | 2014
Chris Rea; Werner Scholz; Lina Cao; Chubing Peng; Martin Blaber; Julius Hohfeld; Weibin Chen; Heidi Olson; Mourad Benakli; Hua Zhou; Pu-Ling Lu; Nils Gokemeijer; Mike Seigler; Kaizhong Gao; Alexander Q. Wu; Jan-Ulrich Thiele; Ganping Ju; Edward Charles Gage
Recent recording areal density and integrated drive performance demonstrations using Heat Assisted Magnetic Recording (HAMR) suggest that it is a viable technology to succeed conventional magnetic recording. However challenges still remain for the near field transducer, in particular reliability and sufficient thermal confinement. We explore a new NFT design, Near field Transducer Gap (NTG), which offers the potential to mitigate some of the issues in track confinement and thermal profile compared to earlier published studies [4]. The design offers efficiency improvements, and the potential to reduce unwanted background light and heating that can lead to erasure in the writing track, and neighbors.
Archive | 2016
Martin Blaber; Jie Gong; Dimitar V. Dimitrov; Steve Riemer; Michael Kautkzy; Tong Zhao; Yongjun Zhao
Archive | 2016
Weibin Chen; Martin Blaber; Tong Zhao; Michael Christopher Kautzky; John Charles Duda
Archive | 2016
Michael Christopher Kautzky; Mark Ostrowski; David Michael Grundman; Martin Blaber
Archive | 2016
Martin Blaber; Michael Allen Seigler; Michael Christopher Kautzky; Tong Zhao; Justin Brons; John Charles Duda; Yuhang Cheng
Archive | 2016
Martin Blaber; Tong Zhao; Justin Brons; Michael Christopher Kautzky
Archive | 2016
Martin Blaber; Tong Zhao; Michael Christopher Kautzky; Justin Brons; John Charles Duda; Yuhang Cheng; Michael Allen Seigler
IEEE Transactions on Magnetics | 2018
Stephanie Hernandez; Zengyuan Liu; Steven Granz; Ian Gilbert; Drew Michael Mader; Martin Blaber; Pin-Wei Huang; Chris Rea; Ganping Ju; Tim Rausch
IEEE Transactions on Magnetics | 2018
Zengyuan Liu; Ian Gilbert; Stephanie Hernandez; Chris Rea; Steven Granz; Hua Zhou; Martin Blaber; Pin-Wei Huang; Chubing Peng; Ganping Ju; John W. Dykes; Jan-Ulrich Thiele; Mike Seigler; Tim Rausch