Computational fluid dynamics design and analysis of a passively suspended tesla pump left ventricular assist device

Artificial Organs

Volumn 35, Issue 5, 2011, Pages 522-533

  Medvitz, Richard B ^a   Boger, David A ^a   Izraelev, Valentin ^c   Rosenberg, Gerson ^b   Paterson, Eric G ^a  

^a The Pennsylvania State University   (United States)

^b PENN STATE MILTON S HERSHEY MEDICAL CENTER   (United States)

^c Advanced Bionics Incorporated   (United States)

Author keywords

Blood pump; Computational fluid dynamics; Left ventricular assist device; Tesla pump

Indexed keywords

BLOOD; FIBER OPTIC SENSORS; LEFT VENTRICULAR ASSIST DEVICES; PUMPS; SHEAR STRESS; STRAIN RATE;

BLOOD PUMP; DESIGN AND ANALYSIS; DEVICE PERFORMANCE; DYNAMIC DESIGN; DYNAMICS ANALYSIS; PUMP SPEED; TESLA PUMP; UPPER PLATE; WALL SHEAR STRESS; WALL-SHEAR STRESS;

COMPUTATIONAL FLUID DYNAMICS;

ARTICLE; COMPUTATIONAL FLUID DYNAMICS; HEMODYNAMICS; HEMOLYSIS; HYDRODYNAMICS; LEFT VENTRICULAR ASSIST DEVICE; PRIORITY JOURNAL; SHEAR STRESS; THROMBUS;

EID: 79956227558     PISSN: 0160564X     EISSN: 15251594     Source Type: Journal    
DOI: 10.1111/j.1525-1594.2010.01087.x     Document Type: Article

References (24)

1. Tesla N. Fluid propulson. U.S. Patent 1, 061, 206, 1913.
2. Tesla N. Turbine. U.S. Patent 1, 061, 206, 1913.
3. Izraelev V, Weiss B, Fritz B, etal. A passively-suspended Tesla pump left ventricular assist device. ASAIO J 2009;55:556-61.
4. Izraelev V. Bearing and seal-free blood pumps. U.S. Patent 5, 685, 700, 1997.
5. Izraelev V. Blood pump having radical vanes with enclosed magnetic drive components. U.S. Patent 5, 924, 848, 1999.
6. Izraelev V. Blood pump having rotor with internal bore for fluid flows. U.S. Patent 5, 938, 412, 1999.
7. Izraelev V. Improved rotor for blood pump. U.S. Patent 6, 206, 659, 2001.
8. Izraelev V. Pump assembly with bearing and seal-free reusable impeller for fragile and aggressive fluids. U.S. Patent 6, 547, 539, 2003.
9. Arora D, Behr M, Pasquali M. A tensor based measure for estimating blood damage. Artif Organs 2004;28:1002-15.
10. Behr M, Arora D, Coronado O, Pasquali M. Models and finite element techniques for blood flow simulation. Int J Comp Fluid Dyn 2006;20:175-81.
11. Deutsch S, Tarbell JM, Manning KB, Rosenberg G, Fontaine AA. Experimental fluid mechanics of pulsatile artificial blood pumps. Ann Rev Fluid Mech 2006;38:65-86.
12. Baldwin JT, Deutsch S, Geselowitz DB, Tarbel JM. LDA measurements of mean velocity and reynolds stress fields within an artificial heart ventricle. J Biomech Eng 1994;116:190-200.
13. Bluestein D. Research approaches for studying flow-induced thromoembolic complications in blood recirculating devices. Expert Rev Med Devices 2004;1:65-80.
14. McIntire LV. Guidelines for Blood-Material Interactions. Report of the National Heart, Lung, and Blood Institute Working Group. U. S. Department of Health and Human Services, Public Health Service. Bethesda, MD: NIH publication, 1985.
15. Hubbell JA, McIntire LV. Visualization and analysis of mural thrombogenesis on collagen, polyurethane, and nylon. Biomaterials 1986;7:354-63.
16. Balasubramanian V, Slack SM. The effect of fluid shear and co-adsorbed proteins on the stability of immobilized fibrinogen and subsequent platelet interactions. J Biomater Sci Polym Ed 2002;13:543-61.
17. Garon A, Farinas MI. Fast three-dimensional numerical hemolysis approximation. Artif Organs 2004;28:1016-25.
18. Giersiepen M, Wurzinger LJ, Opitz R, Reul H. Estimation of shear stress-related blood damage in heart valve prosthesis: in vitro comparison of 25 aortic valves. Int J Artif Organs 1990;13:300-6.
19. Farinas MI, Garon A, Lacasse D, N'dri D. Asymptotically consistent numerical approximation of hemolysis. J Biomech Eng 2006;128:688-96.
20. th AIAA Aerospace Science Meeting and Exhibit, AIAA-2006-1138, Reno, Nevada, January 9-12, 2006.
21. Taylor LK. Unsteady three-dimensional incompressible algorithm based on artificial compressibility. Ph.D. thesis, Mississippi State University, 1991.
22. Taylor LK. Unsteady three-dimensional incompressible euler and navier-stokes solver for stationary and dynamic grids. AIAA, Paper No. 91-1650, 1991.
23. Medvitz RB, Kunz RF, Boger DA, Lindau JW, Yocum AM, Pauley LL. Performance analysis of cavitating flow in centrifugal pumps using multiphase CFD. ASME J Fluids Eng 2002;124:377-83.
24. Noack RW. SUGGAR: a general capability for moving body overset grid assembly. 17th AIAA Computational Fluid Dynamics Conference, June 6-9 2006, Toronto, Ontario, Canada, 2006.