In vitro analysis of the flow fields of a rotary blood pump

被引:0
作者
Morsi, Y [1 ]
Yang, W [1 ]
Chan, S [1 ]
机构
[1] Swinburne Univ Technol, Sch Sci & Engn, Hawthorn, Vic 3122, Australia
来源
COMPUTATIONAL MECHANICS, VOLS 1 AND 2, PROCEEDINGS: NEW FRONTIERS FOR THE NEW MILLENNIUM | 2001年
关键词
rotary blood pump; laser Doppler anemometry; computational fluid dynamics;
D O I
暂无
中图分类号
O3 [力学];
学科分类号
08 ; 0801 ;
摘要
Thrombosis formation and hemolysis have been linked to the dynamics of the flowing blood and the hydrodynamic performance of the pump in a rotary blood pumps and ventricular assist devices (VADs). Hemolysis occurs as the blood passes through the pump housing and thrombosis in stagnation and low velocity regions. In our on-going research on VAD some experiments using LDA and CFD numerical analysis were performed on the Medtronic and Terumo blood pumps respectively. In this paper preliminary flow characteristics in terms of mean velocity and tangential velocity vectors are presented and discussed. These preliminary in vitro test data reveal that the use of LDA and CFD techniques are powerful tools in new pump designs and pump improvement.
引用
收藏
页码:875 / 880
页数:6
相关论文
共 50 条
[31]   The Progress in the Novel Pediatric Rotary Blood Pump Sputnik Development [J].
Telyshev, Dmitry ;
Denisov, Maxim ;
Pugovkin, Alexander ;
Selishchev, Sergey ;
Nesterenko, Igor .
ARTIFICIAL ORGANS, 2018, 42 (04) :432-443
[32]   Preload Based ADRC Physiological Controller for Rotary Blood Pump [J].
Wu, Yi ;
Zheng, Qing ;
Lim, Einly .
PROCEEDINGS OF THE 35TH CHINESE CONTROL CONFERENCE 2016, 2016, :9428-9433
[33]   Development of the MEDOS/HIA DeltaStream extracorporeal rotary blood pump [J].
Göbel, C ;
Arvand, A ;
Eilers, R ;
Marseille, O ;
Bals, C ;
Meyns, B ;
Flameng, W ;
Rau, G ;
Reul, H .
ARTIFICIAL ORGANS, 2001, 25 (05) :358-365
[34]   Design and Computational Evaluation of a Pediatric MagLev Rotary Blood Pump [J].
Tompkins, Landon H. ;
Gellman, Barry N. ;
Morello, Gino F. ;
Prina, Steven R. ;
Roussel, Thomas J. ;
Kopechek, Jonathan A. ;
Petit, Priscilla C. ;
Slaughter, Mark S. ;
Koenig, Steven C. ;
Dasse, Kurt A. .
ASAIO JOURNAL, 2021, 67 (09) :1026-1035
[35]   Viscosity-adjusted estimation of pressure head and pump flow with quasi-pulsatile modulation of rotary blood pump for a total artificial heart [J].
Terumi Yurimoto ;
Shintaro Hara ;
Takashi Isoyama ;
Itsuro Saito ;
Toshiya Ono ;
Yusuke Abe .
Journal of Artificial Organs, 2016, 19 :219-225
[36]   Viscosity-adjusted estimation of pressure head and pump flow with quasi-pulsatile modulation of rotary blood pump for a total artificial heart [J].
Yurimoto, Terumi ;
Hara, Shintaro ;
Isoyama, Takashi ;
Saito, Itsuro ;
Ono, Toshiya ;
Abe, Yusuke .
JOURNAL OF ARTIFICIAL ORGANS, 2016, 19 (03) :219-225
[37]   Numerical analysis of blood flow in the clearance regions of a continuous flow artificial heart pump [J].
Anderson, J ;
Wood, HG ;
Allaire, PE ;
Olsen, DB .
ARTIFICIAL ORGANS, 2000, 24 (06) :492-500
[38]   A NEW METHOD FOR ASSESSING HAEMOLYSIS IN A ROTARY BLOOD PUMP USING LARGE EDDY SIMULATIONS (LES) [J].
Szwast, Maciej ;
Moskal, Arkadiusz ;
Piatkiewicz, Wojciech .
CHEMICAL AND PROCESS ENGINEERING-INZYNIERIA CHEMICZNA I PROCESOWA, 2017, 38 (02) :231-239
[39]   Numerical hemolysis performance evaluation of a rotary blood pump under different speed modulation profiles [J].
Huang, Feng ;
Lei, Huan ;
Ying, Shunv ;
Fu, Yang ;
Li, Qipeng ;
Ruan, Xiaodong .
FRONTIERS IN PHYSIOLOGY, 2023, 14
[40]   The impact of pump speed and inlet cannulation site on left ventricular unloading with a rotary blood pump [J].
Vandenberghe, S ;
Nishida, T ;
Segers, P ;
Meyns, B ;
Verdonck, P .
ARTIFICIAL ORGANS, 2004, 28 (07) :660-667