Large deforming buoyant embolus passing through a stenotic common carotid artery: A computational simulation

Journal of Biomechanics

Volumn 45, Issue 7, 2012, Pages 1312-1322

  Vahidi, Bahman ^a   Fatouraee, Nasser ^b  

^a UNIVERSITY OF TEHRAN   (Iran)

^b AMIRKABIR UNIVERSITY OF TECHNOLOGY   (Iran)

Author keywords

Fluid structure interactions; Hemodynamics; Stroke; Sussman Bathe material model; Thromboembolism; Wall shear stress

Indexed keywords

ADAPTIVE MESH METHOD; ARBITRARY LAGRANGIAN-EULERIAN FORMULATIONS; ARTERIAL WALL; BLOOD CLOTS; COMMON CAROTID ARTERY; COMPUTATIONAL MODEL; COMPUTATIONAL SIMULATION; FINITE LENGTH; FLUID DOMAIN; HEART DISEASE; INTERFACIAL MOVEMENT; NEUROLOGICAL SYMPTOMS; NONLINEAR PROPERTIES; PHYSICAL MOTION; SHORT DISTANCES; SIMULTANEOUS SOLUTION; STROKE; STRUCTURE EQUATIONS; SUSSMAN-BATHE MATERIAL MODEL; TEMPORAL GRADIENTS; THROMBOEMBOLISM; UPPER LIMBS; WALL SHEAR STRESS;

BLOOD; BUOYANCY; DEFORMATION; FLUID STRUCTURE INTERACTION; HEMODYNAMICS; STRESS CONCENTRATION;

DISEASES;

ARTERY EMBOLISM; ARTICLE; BLOOD CLOT; CAROTID ARTERY OBSTRUCTION; COMMON CAROTID ARTERY; CONTROLLED STUDY; DISEASE SEVERITY; HEMODYNAMICS; HUMAN; MATHEMATICAL MODEL; PHYSICAL MOBILITY; PRIORITY JOURNAL; SHEAR STRESS; STATISTICAL ANALYSIS;

BIOMECHANICS; BLOOD FLOW VELOCITY; CAROTID ARTERY, COMMON; CAROTID STENOSIS; COMPUTER SIMULATION; EMBOLISM; HEMODYNAMICS; HEMORHEOLOGY; HUMANS; MODELS, CARDIOVASCULAR;

EID: 84859609065     PISSN: 00219290     EISSN: 18732380     Source Type: Journal    
DOI: 10.1016/j.jbiomech.2012.01.020     Document Type: Article

References (46)

1. Basmadjian D. Embolization: critical thrombus height, shear rates, and pulsatility. Patency of blood vessels. Journal of Biomedical Materials Research 1989, 23(11):1315-1326.
2. Bathe K.J. Finite element procedures 1996, Prentice Hall, Englewood Cliffs, NJ.
3. Bathe K.J., Zhang H. A mesh adaptivity procedure for CFD and fluid-structure interactions. Computers and Structures 2009, 87:604-617.
4. Berger S.A., Jou L.D. Flows in stenotic vessels. Annual Review of Fluid Mechanics 2000, 32:347-382.
5. Bluestein D., Niu L., et al. Fluid mechanics of arterial stenosis: relationship to the development of mural thrombus. Annals of Biomedical Engineering 1997, 25:344-356.
6. Brown C.H., Leverett L.B., et al. Morphological, biochemical and functional changes in human platelets subjected to shear stress. Journal of Laboratory and Clinical Medicine 1975, 86:462.
7. Bushi D., Grad Y., et al. Hemodynamic evaluation of embolic trajectory in an arterial bifurcation: an in-vitro experimental model. Stroke 2005, 36:2696-2700.
8. Cao J., Rittgers S.E. Particle motion within in vitro models of stenosel internal carotid and left anterior descending coronary arteries. Annals of Biomedical Engineering 1998, 26(2):190-199.
9. Cadroy Y., Horbett T.A., Hanson S.R. Discrimination between platelet-mediated and coagulation-mediated mechanisms in a model of complex thrombus formation in vivo. Journal of Laboratory and Clinical Medicine 1989, 113(4):436-448.
10. Chung E.M.L., Hague J.P., et al. Embolus trajectory through a physical replica of the major cerebral arteries. Stroke 2010, 41:647-652.
11. Das B., Johnson P.C., Popel A.S. Effect of nonaxisymmetric hematocrit distribution on non-Newtonian blood flow in small tubes. Biorheology 1998, 35:69-87.
12. Davies M.J., Thomas A.C., et al. Intramyocardial platelet aggregation in patients with unstable angina suffering sudden ischemic cardiac death. Circulation 1986, 73(3):418-427.
13. DePoala N., Dewey C.F., et al. Vascular endothelium responds to fluid shear stress gradients. Arteriosclerosis, Thrombosis, and Vascular Biology 1992, 12:1254-1259.
14. Donea J., Guiliani S., Halleux J.P. An arbitrary Lagrangian-Eulerian finite element method for transient dynamic fluid-structure interactions. Computer Methods in Applied Mechanics and Engineering 1982, 33:689-723.
15. Frink R.J., Rooney P.J., et al. Coronary thrombosis and platelet/fibrin microemboli in death associated with acute myocardial infarction. British Heart Journal 1988, 59(2):196-200.
16. Fry D.L. Certain histological and chemical responses of the vascular interface to acutely induced mechanical stress in the aorta of a dog. Circulation Research 1969, 24:93-108.
17. Gay M., Zhang L.T. Numerical studies of blood flow in healthy, stenosed, and stented carotid arteries. International Journal for Numerical Methods in Fluids 2009, 61:453-472.
18. Gennisson J.L., Lerouge S., Cloutier G. Assessment by transient elastography of the viscoelastic properties of blood during clotting. Ultrasound in Medicine and Biology 2006, 32(10):1529-1537.
19. Goodman P.D., Matthew W.H., et al. In vitro model for studying the effects of hemodynamics on device induced thromboembolism in human blood. ASAIO Journal 2000, 46:576-578.
20. Goodman P.D., Barlow E.T. Computational model of device-induced thrombosis and thromboembolism. Annals of Biomedical Engineering 2005, 33(6):780-797.
21. Guyton A.C., Hall J.E. Textbook of medical physiology 2005, Elsevier Science, United States.
22. Hung T.C., Hochmuth R.M., et al. Shear induced aggregation and lysis of platelets. Transactions-American Society for Artificial Internal Organs 1976, 22:285.
23. Irace C., Cortese C., et al. Wall shear stress is associated with intima-media thickness and carotid atherosclerosis in subjects at Low coronary heart disease risk. Stroke 2004, 35:464-468.
24. Karino T., Goldsmith H.L. Flow behavior of blood cells and rigid spheres in an annular vortex. Philosophical Transactions of the Royal Society of London, series B. Biological Sciences 1977, 279:413-445.
25. Kroll M.H., Hellums J.D. Platelets and shear stress. Blood 1996, 88(5):1525-1541.
26. Lowe G.D.O., Lee A.J., et al. Blood viscosity and risk of cardiovascular events: the Edinburghartery study. British Journal of Haematology 1997, 96:168-173.
27. Markus H.S., Brown M.M. Differentiation between different pathological cerebral embolic materials using transcranial Doppler in an in vitro model. Stroke 1993, 24:1-5.
28. Nagel T.E., Resnick N., et al. Differential responses of endothelial cells to uniform and disturbed laminar shear stress. Journal of Vascular Surgery 1999, 29:1114-1115.
29. Nahirnyak V.M., Yoon S.W., Holland C.K. Acousto-mechanical and thermal properties of clotted blood. Journal of the Acoustical Society of America 2006, 119(6):3766-3772.
30. Oshinski J.N., Curtin J.L., Loth F. Mean-average wall shear stress measurements in the common carotid artery. Journal of Cardiovascular Magnetic Resonance 2006, 8:1-6.
31. Pedley T.J. The Fluid Mechanics Of Large Blood Vessels 1980, Cambridge University Press.
32. Ramstack J.M., Zuckerman L., Mockros L.F. Shear-induced activation of platelets. Journal of Biomechanics 1979, 12:113-125.
33. Ries F., Tiemann K., et al. High-resolution emboli detection and differentiation by characteristic postembolic spectral patterns. Stroke 1998, 29:668-672.
34. Riha P., Wang X., et al. Elasticity and fracture strain of whole blood clots. Clinical Hemorheology and Microcirculation 1999, 21(1):45-49.
35. Rindt, Camilo C.M., 1989. Analysis of the three-dimensional flow field in the carotid artery bifurcation. Ph.D.-thesis, Eindhoven University of Technology.
36. Sakariassen K.S., Joss R., et al. Collagen type III induced ex vivo thrombogenesis in humans: role of platelets and leukocytes in deposition of fibrin. Arteriosclerosis 1990, 10(2):276-284.
37. Savage B., McFadden P.R., et al. The relation of platelet density to platelet age: survival of Low- and high-density indium-labeled platelets in baboons. Blood 1986, 68(2):386-393.
38. Strony J., Beaudoin A., et al. Analysis of shear stress and hemodynamic factors in a model of coronary artery stenosis and thrombosis. American Journal of Physiology 1993, 265(5):H1787-1796.
39. Stroud J.S., Berger S.A., Saloner D. Infuence of stenosis morphology on flow through severely stenotic vessels: implications for plaque rupture. Journal of Biomechanics 2000, 33:443-455.
40. Stroud J.S., Berger S.A., Saloner D. Numerical analysis of flow through a severely stenotic carotid artery bifurcation. Journal of Biomechanical Engineering 2002, 124:9-20.
41. Sussman T., Bathe K.J. A model of incompressible isotropic hyperelastic material behavior using spline interpolations of tension-compression test data. Communication in Numerical Methods in Engineering 2009, 25:53-63.
42. Tang D., Yang J., et al. A nonlinear axisymmetric model with fluid-wall interactions for steady viscous flow in stenotic elastic tubes. Journal of Biomechanical Engineering 1999, 121:494-501.
43. Wootton, D.M., 1998. Mechanistic modeling of occlusive arterial thrombosis. Ph.D. thesis, Georgia Inst. Technol., Atlantic., 421 pp.
44. Wootton D.M., Ku D.N. Fluid mechanics of vascular systems, diseases, and thrombosis. Annual Review of Biomedical Engineering 1999, 1:299-329.
45. Xie H., Kim K., et al. Correspondence of ultrasound elasticity imaging to direct mechanical measurement in aging DVT in rats. Ultrasound in Medicine & Biology 2005, 31(10):1351-1359.
46. Yamaguchi R. Flow structure and variation of wall shear stress in asymmetrical arterial branch. Journal of Fluids and Structures 1999, 13:429-442.