T
Takashi Yamane
Researcher at Kobe University
Publications - 166
Citations - 2212
Takashi Yamane is an academic researcher from Kobe University. The author has contributed to research in topics: Impeller & Centrifugal pump. The author has an hindex of 21, co-authored 166 publications receiving 2113 citations. Previous affiliations of Takashi Yamane include National Institute of Advanced Industrial Science and Technology & Japanese Ministry of International Trade and Industry.
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Journal ArticleDOI
Flow visualization for the implantable ventricular assist device EVAHEART
Takashi Yamane,Takashi Yamane,Masahiro Nishida,Hiroshi Kawamura,Takayuki Miyakoshi,Kenji Yamazaki +5 more
TL;DR: The hemocompatibility for the recently approved ventricular assist device EVAHEART® was examined through flow visualization with a 300 % scale-up model and the absence of flow separations around the centrifugal vanes indicated that the curvature of the open vanes was suitable.
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Long-term durability test of axial-flow ventricular assist device under pulsatile flow
Masahiro Nishida,Ryo Kosaka,Osamu Maruyama,Takashi Yamane,Akio Shirasu,Eisuke Tatsumi,Yoshiyuki Taenaka +6 more
TL;DR: The long-term durability of the developed VAD was successfully demonstrated and the rotational speed of the impeller, but also the diastolic, systolic, and average flow rates and the average pressure head of the VAD were judged.
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Plasma Skimming in a Spiral Groove Bearing of a Centrifugal Blood Pump
Tomotaka Murashige,Daisuke Sakota,Ryo Kosaka,Masahiro Nishida,Yasuo Kawaguchi,Takashi Yamane,Osamu Maruyama +6 more
TL;DR: Hematocrit decreased on the ridge region in the SGB and plasma skimming occurred with a bearing gap of less than 30 μm in the hydrodynamically levitated centrifugal blood pump.
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Aeroelastic tailoring analysis for advanced turbo propellers with composite blades
TL;DR: The p-k modal flutter analyses for the SR-3 propeller model revealed that suitable combinations of the Fiber orientation can eliminate flutter without any weight penalties or strength penalties and that the flutter velocity is found to be sensitive to the interblade phase angle as well as the fiber orientation.