Kinetics of the 'black hole' phenomenon in ultrasound backscattering measurements with red blood cell aggregation

Ultrasound in Medicine and Biology

Volumn 24, Issue 2, 1998, Pages 245-256

  Qin, Zhao ^a   Durand, Louis Gilles ^a   Cloutier, Guy ^a  

^a CLIN RESEARCH INSTITUTE OF MONTREAL   (Canada)

Author keywords

'Black hole' phenomenon; Acoustic anisotropy; Acoustic backscattering; Biofluid mechanics; Biorheology; Erythrocyte aggregation; Model; Power Doppler ultrasound

Indexed keywords

ACOUSTIC WAVE BACKSCATTERING; AGGLOMERATION; ANISOTROPY; DOPPLER EFFECT; FLUID MECHANICS; HEMODYNAMICS; LASER APPLICATIONS; MEDICAL IMAGING; REACTION KINETICS; REFLECTOMETERS; RHEOLOGY; ULTRASONIC SCATTERING;

ACOUSTIC ANISOTROPY; BIOFLUID MECHANICS; BIORHEOLOGY; DOPPLER ULTRASOUND; LASER REFLECTOMETRY;

ULTRASONIC IMAGING;

ANIMAL CELL; ANIMAL TISSUE; ARTICLE; BLOOD RHEOLOGY; CONTROLLED STUDY; DOPPLER ECHOGRAPHY; ERYTHROCYTE AGGREGATION; HORSE; KINETICS; NONHUMAN; PRIORITY JOURNAL; SHEAR RATE;

ANIMALS; ERYTHROCYTE AGGREGATION; ERYTHROCYTES; HORSES; KINETICS; LASERS; MODELS, THEORETICAL; REFRACTOMETRY; RHEOLOGY;

EID: 0032006366     PISSN: 03015629     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0301-5629(97)00273-1     Document Type: Article

References (30)

1. Allard L, Cloutier G, Durand LG. Effect of the insonification angle on the Doppler backscattered power under red blood cell aggregation conditions. IEEE Trans Ultrason Ferroelec Freq Cont. 43:1996;211-219.
2. Aygen M, Popp RL. Influence of the orientation of myocardial fibers on echocardiographic images. Am J Cardiol. 60:1987;147-152.
3. Chen S, Gavish B, Zhang S, Mahler Y, Yedgar S. Monitoring of erythrocyte aggregate morphology under flow by computerized image analysis. Biorheology. 32:1995;487-496.
4. Chien S. Electrochemical interactions between erythrocyte surfaces. Thromb Res. 8:1976;189-202.
5. Cloutier G, Qin Z, Durand LG, Teh BG. Power Doppler ultrasound evaluation of the shear rate and shear stress dependences of red blood cell aggregation. IEEE Trans Biomed Eng. 43:1996;441-450.
6. Cloutier G, Qin Z. Shear rate dependence of normal, hypo-, and hyper-aggregating erythrocytes studied with power Doppler ultrasound. In: Lees S, ed. Acoustical imaging. New York; Plenum Press, 1997;23:291-296.
7. Copley AL, King RG, Huang CR. Erythrocyte sedimentation of human blood at varying shear rates. Grayson J, Zingg W. Microcirculation. 1976;133-134 Plenum Press, New York.
8. Donner M, Siadat M, Stoltz JF. Erythrocyte aggregation Approach by light scattering determination . Biorheology. 25:1988;367-375.
9. Goldsmith HL, Mason SG. Some model experiments in hemodynamics III . Copley AL. Hemorheology Proceedings of the first international conference . 1966;237-254 Pergamon Press, New York.
10. Goldsmith HL. Deformation of human red cells in tube flow. Biorheology. 7:1971;235-242.
11. Goldsmith HL, Marlow J. Flow behaviour of erythrocytes. I. Rotation and deformation in dilute suspensions. Proc Roy Soc (Lond). 182:1972;351-384.
12. Goldsmith HL. The microcirculatory society Eugene M. Landis award lecture The microrheology of human blood . Microvasc Res. 31:1986;121-142.
13. Hoffmeister BK, Wong AK, Verdonk ED, Wickline SA, Miller JG. Comparison of the anisotropy of apparent integrated ultrasonic backscatter from fixed human tendon and fixed human myocardium. J Acoust Soc Am. 97:1995;1307-1313.
14. Karnis A, Goldsmith HL, Mason SG. The kinetics of flowing dispersions. I. Concentrated suspensions of rigid particles. J Colloid Interface Sci. 22:1966;531-553.
15. Machi J, Sigel B, Beitler JC. Relation of in vivo blood flow to ultrasound echogenicity. J Clin Ultrasound. 11:1983;3-10.
16. Madaras EI, Perez J, Sobel BE, Mottley JG, Miller JG. Anisotropy of the ultrasonic backscatter of myocardial tissue II. Measurement in vivo . J Acoust Soc Am. 83:1988;762-769.
17. Mo LYL, Yip G, Cobbold RSC, Gutt C, Joy M, Santyr G, Shung KK. Non-newtonian behavior of whole blood in a large diameter tube. Biorheology. 28:1991;421-427.
18. Mottley JG, Miller JG. Anisotropy of the ultrasonic backscatter of myocardial tissue I. Theory and measurements in vitro . J Acoust Soc Am. 83:1988;755-761.
19. Nassiri DK, Nicholas D, Hill CR. Attenuation of ultrasound in skeletal muscle. Ultrasonics. 1979;230-232.
20. Picano E, Landini L, Distante A, Salvadori M, Lattanzi F, Masini M, L'abbate A. Angle dependence of ultrasonic backscatter in arterial tissues a study in vitro . Circulation. 72:1985;572-576.
21. Recchia D, Hall CS, Shepard RK, Miller JG. Mechanisms of the view-dependence of ultrasonic backscatter from normal myocardium. IEEE Trans Ultrason Ferroelec Freq Cont. 42:1995;91-98.
22. Rubin JM, Carson PL, Meyer CR. Anisotropic ultrasonic backscatter from the renal cortex. Ultrasound Med Biol. 14:1988;507-511.
23. Shehada REN, Cobbold RSC, Mo LYL. Aggregation effects in whole blood Influence of time and shear rate measured using ultrasound . Biorheology. 31:1994;115-135.
24. Sigel B, Machi J, Beitler JC, Justin JR, Coelho JCU. Variable ultrasound echogenicity in flowing blood. Science. 218:1982;1321-1323.
25. Sigel B, Machi J, Beitler JC, Justin JR. Red cell aggregation as a cause of blood-flow echogenicity. Radiology. 148:1983;799-802.
26. Skalak R. An interpretation of partial plug flow of concentrated suspensions. Biorheology. 29:1992;479-488.
27. Van Der Heiden MS, De Kroon, MGM Bom, N Borst C. Ultrasound backscatter at 30 MHz from human blood influence of rouleau size affected by blood modification and shear rate . Ultrasound Med Biol. 21:1995;817-826.
28. Weng XD, Cloutier G, Pibarot P, Durand LG. Comparison and simulation of different levels of erythrocyte aggregation with pig, horse, sheep, calf, and normal human blood. Biorheology. 33:1996;365-377.
29. Yuan YW, Shung KK. Ultrasonic backscatter from flowing whole blood I. Dependence on shear rate and hematocrit . J Acoust Soc Am. 84:1988;52-58.
30. Yuan YW, Shung KK. Echoicity of whole blood. J Ultrasound Med. 8:1989;425-434.