A simulation study of hemodynamic benefits and optimal control of axial flow pump-based left ventricular assist device

Biomechanical Systems Technology: Cardiovascular Systems

Volumn , Issue , 2007, Pages 1-28

  Qiao, Huiting ^a   Bai, Jing ^b  

^a Medical Ethics Institute   (China)

^b Wright State University   (United States)

Author keywords

Axial flow pump; Model; Optimum control; Simulation; Ventricular assist device

Indexed keywords

AXIAL FLOW; CARDIOVASCULAR SYSTEM; FIBER OPTIC SENSORS; HEMODYNAMICS; MEMBERSHIP FUNCTIONS; MODELS; PUMPS;

ANIMAL EXPERIMENTS; AXIAL FLOW PUMP; CIRCULATORY SYSTEMS; OBJECTIVE FUNCTIONS; OPTIMUM CONTROL; SIMULATION; SIMULATION STUDIES; VENTRICULAR ASSIST DEVICE;

LEFT VENTRICULAR ASSIST DEVICES;

EID: 84967663256     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1142/9789812771377_0001     Document Type: Chapter

References (60)

1. T. Thom et al. Heart disease and stroke statistics - 2006 Update, Circulation 113, 6 (2006) e85-e150.
2. M. R. Mehra, Ventricular assist devices: Destination therapy or just another stop on the road? Current Heart Failure Reports 1 (2004) 36-40.
3. A. R. Kherani, S. Maybaum and M. C. Oz, Ventricular assist devices as a bridge to transplant or recovery, Cardiology 101 (2004) 93-103.
4. P. S. Freed, T. Wasfie, B. Azdo and A. Kantrowitz, Intraaortic balloon pumping for prolonged circulatory support, Am. J. Cardio. 61 (1988) 554-557.
5. J. C. Norman, J. M. Fuqua and C. W. Hibbs, An intracorporeal (abdominal) left ventricular assist device: initial clinical trials, Arch. Surg. 112 (1977) 1442-1451.
6. J. C. Norman, J. M. Duncan and O. H. Frazier, Intracorporeal (abdominal) left ventricular assist devices or partial artificial hearts, Arch. Surg. 116 (1981) 1441-1445.
7. Y. Nose, M. Yoshikawa, S. Murabayashi et al., Development of rotary blood pump technology: past, present, and future, Artif. Organs. 24, 6 (2000) 412-420.
8. K. C. Butler, J. C. Moise and R. K. Wampler, The Hemopump - a new cardiac prothesis device, IEEE Trans. Biomed. Eng. 37 (1990) 193-196.
9. D. R. Wheeldon, Mechanical circulatory support: state of the art and future perspectives, Perfusion 18 (2003) 233-243.
10. K. Lietz and L. W. Miller, Left ventricular assist devices: evolving devices and indications for use in ischemic heart disease, Current Opinion in Cardiology 19, 6 (2004) 613-618.
11. J. Raman and V. Jeevanadam, Destination therapy with ventricular assist devices, Cardiology 101 (2004) 104-110.
12. D. Mancini and D. Burkhoff, Mechanical device - Based methods of managing and treating heart failure, Circulation 112 (2005) 438-448.
13. X. Song, A. L. Throckmorton, A. Untaroiu et al. Axial flow blood pumps, Asaio J., 49, 4 (2003) 355-364.
14. Y. Nose, Changing trends in circulatory support technology, Artif. Heart 1 (1993) 4-5.
15. T. Nishimura, E. Tatsumi, S. Takachi et al. Prolonged nonpulsatile left heart bypass with reduced systemic pulse pressure causes morphological changes in the aortic wall, Artif. Organs. 22 (1998) 405-410.
16. T. Nishinaka, E. Tatsumi and T. Nishimura, Change in vasoconstrictive function during prolonged nonpulsatile left heart bypass, Artif. Organs. 25 (2001) 371-375.
17. G. M. Drzewiecki, J. J. Pilla, W. Welkowitz, Design and control of the atrio-aortic left ventricular assist device based on O2 consumption, IEEE Trans. Biomed. Eng. 37 (1990) 128-137.
18. T. Akamatsu, T. Tsukiya, K. Nishimura et al., Recent studies of the centrifugal blood pump with a magnetically suspended impeller, Artif. Organs. 19, 7 (1995) 631-634.
19. M. Nakata, T. Masuzawa, E. Tatsumi et al., Characterization and optimization of the flow pattern inside a diaphragm blood pump based on flow visualization techniques, Asaio J. 44, 5 (1998) 714-718.
20. E. Okamoto, T. Hashimoto, T. Inoue et al., Blood compatible design of a pulsatile blood pump using computational fluid dynamics and computer-aided design and manufacturing technology, Artif. Organs. 27 (2003) 61-67.
21. P. M. Portner, P. E. Oyer, D. G. Pennington et al., Implantable electrical left ventricular assist system: bridge to transplantation and the future, Ann. Thorac. Surg. 47 (1989) 142-150.
22. S. Westaby, O. H. Frazier, F. Beyersdorf et al., The Jarvik 2000 Heart. Clinical validation of the intraventricular position, Eur. J. Cardio-thor. Surg. 22 (2002) 228-232.
23. G. M. Wieselthaler, H. Schima, M. Hiesmayr et al., First clinical experience with the DeBakey VAD continuous-axial-flow pump for bridge to transplantation, Circulation 101 (2000) 356-359.
24. S. Takatani, Can rotary blood pumps replace pulsatile devices, Artif. Organs. 25, 9 (2001) 671-674.
25. P. J. Overwalder, Intra Aortic Balloon Pump (IABP) Counterpulsation, The Internet Journal of Thoracic and Cardiovascular Surgery 2 (1999) 2.
26. D. Jaron, T. W. Moore and P. He, Theoretical considerations regarding the optimization of cardiac balloon pumping, IEEE Trans. Biomed. Eng. 30 (1983) 177-186.
27. W. Ohley, C. Kao and D. Jaron, Validity of an arterial system model: a quantitative evaluation, IEEE Trans. Biomed. Eng. BME-27 (1980) 203.
28. M. J. Williams, Experimental determination of optimum performance of counterpulsation assist pumping under computer control, Comput. Biomed. Res. 10 (1977) 545559.
29. M. S. Sweeney, The Hemopump in 1997: A clinical, political, and marketing evolution, Ann. Thorac. Surg. 68 (1999) 761-763.
30. O. H. Frazier, R. K. Wampler, J. M. Duncan et al., First human use of the Hemopump, a catheter-mounted ventricular assist device, Ann. Thorac. Surg. 49 (1990) 299-304.
31. S. J. Phillips, L. Barker, B. Balentine et al., Hemopump support for the failing heart, Asaio Trans. 36, 3 (1990) 629-632.
32. G. R. Li, W. Ma and X. Zhu, Development of a new left ventricular assist device: the dynamic aortic valve, Asaio J. 47 (2001) 257-260.
33. X. Li, J. Bai and P. He, Simulation study of the Hemopump as a cardiac assist device, Med. Bio. Eng. Comput. 40 (2002) 344-353.
34. B. Meyns, T. Siess, S. Laycock et al., The heart-Hemopump interaction: a study of the Hemopump flow as a function of cardiac activity, Artif. Organs. 20 (1996) 641-649.
35. I. Ionel, Pumps and pumping (Elsevier Science Press, 1986), p. 104.
36. T. Siess, B. Meyns, K. Spielvogel et al., Hemodynamic system analysis of intraarterial microaxial pumps in vitro and in vivo, Artif. Organs. 20 (1996) 650-661.
37. B. P. Meyns, P. T. Sergeant, W. J. Daenen et al., Left ventricular assistance with the transthoracic 24F Hemopump for recovery of the failing heart, Ann. Thorac. Surg. 60 (1995) 392-397.
38. H. Reul, Technical requirements and limitations of miniaturized axial flow pumps for circulatory support, Cardiology 84 (1994) 187-193.
39. X. Q. Zhou, J. Bai and B. Zhao, Simulation study of the effects of regional ischemia of left ventricle of cardiac performance, Automedica 17 (1998) 109-125.
40. J. Bai and B. Zhao, Simulation evaluation of cardiac assist devices, Methods of Information in Medicine, 39 (2000) 191-195.
41. B. Peterzen, U. Lonn, A. Babic, H. Granfeldt et al., Postoperative management of patients with Hemopump support after coronary artery bypass grafting, Ann. Thorac. Surg. 62 (1996) 495-500.
42. E. Chen, and X. Q. Yu, The Hemopump’s design and its experimental study, J. Biomed. Eng. 17 (2000) 469-472.
43. G. D. Dreyfus, The Hemopump 31, the sternotomy Hemopump clinical experience, Ann. Thorac. Surg. 61 (1996) 323-328.
44. F. R. Waldenberger, P. Wouters and E. Deruyter, Mechanical unloading with a miniaturized axial flow pump (Hemopump): an experimental study, Artif. Organs. 19 (1995) 742-746.
45. H. Suga, Total mechanical energy of a ventricular model and cardiac oxygen consumption, Am. J. Physiol. 236 (1979) H498-505.
46. H. Suga, Y. Yasamura, T. Nozawa, S. Futaki, Y. Igarashi and Y. Goto, Prospective prediction of O2 consumption from pressure-volume area in dog hearts. Am. J. Physiol. 252 (1987) H1258-1264.
47. K. R. Walley, C. J. Beeker, R. A. Hogan et al., Progressive hypoxemia limits left ventricular oxygen consumption and contractility, Circ. Res. 63 (1988) 849.
48. M. Loebe, A. Koster, S. Sanger, E. V. Potapov, H. Kuppe, G. P. Noon and R. Hetzer, Inflammatory response after implantation of a left ventricular assist device: comparison between the axial flow MicroMed DeBakey VAD and the pulsatile Novacor device, Asaio J. 47 (2001) 272-274.
49. P. He, J. Bai and D. D. Xia, Optimum control of the Hemopump as a left-ventricular assist device, Med. Bio. Eng. Comput. 43 (2005) 136-141.
50. T. L. Saatty and J. M. Alexander, Thinking with models: mathematical models in the physical, Biological and Social Sciences (Pergamon Press, 1981), pp. 148-151.
51. P. M. McCarthy, HeartMate implantable left ventricular assist device: bridge to transplantation and future applications. Ann. Thorac. Surg. 59 (1995) S46-S51.
52. J. Parameshwar, and J. Wallwork Left ventricular assist devices: current status and future applications, Int. J. Cardiol. 62 (1997) S23-S27.
53. WHO-ISH The Guidelines Subcommittee of the WHO-ISH Mild Hypertension Liaison Committee. 1993 Guidelines for the Management of Mild Hypertension. Memorandum from a World Health Organization - International Society of Hypertension Meeting, J. Hypertensions 11 (1993) 905-918.
54. S. Klotz, M. C. Deng and J. Stypmann et al., Left ventricular pressure and volume unloading during pulsatile versus nonpulsatile left ventricular assist device support, Ann. Thorac. Surg. 77 (2004) 143-150.
55. Y. Wu, P. Allaire, G. Tao, H. Wood, D. Olsen and C. Tribble, An advanced physiological controller design for a left ventricular assist device to prevent left ventricular collapse, Artif. Organs. 27 (2003) 926-930.
56. D. D. Xia and J. Bai, Current status and typical technique of axial flow blood pumps, Foreign Medical Biomedical Engineering Fascicle 28, 6 (2005) 366-369 (in Chinese).
57. D. D. Xia and J. Bai, Simulation study and function analysis of the dynamic aortic valve. Progress in Natural Science (accepted).
58. D. D. Xia and J. Bai, Simulation study and function analysis of micro-axial blood pumps, 27th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, pp. 2971-2974.
59. J. Li, Dynamics of the vascular system (World Scientific Publishing Company, 2004), pp. 234-244.
60. D. B. Olsen, The history of continuous-flow blood pumps, Artif. Organs. 24 (2000) 401-404.