The relationship between red blood cell deformability metrics and perfusion of an artificial microvascular network

Clinical Hemorheology and Microcirculation

Volumn 57, Issue 3, 2014, Pages 291-305

  Sosa, Jose M ^a   Nielsen, Nathan D ^b   Vignes, Seth M ^a   Chen, Tanya G ^a   Shevkoplyas, Sergey S ^a  

^a TULANE UNIVERSITY   (United States)

^b TULANE UNIVERSITY SCHOOL OF MEDICINE   (United States)

Author keywords

artificial microvascular network; ektacytometry; microfluidics; micropore filtration; Red blood cell deformability

Indexed keywords

DIAMIDE; GLUTARALDEHYDE;

ARTICLE; ARTIFICIAL MICROVASCULAR NETWORK; BLOOD FLOW; CAPILLARY; ERYTHROCYTE; ERYTHROCYTE DEFORMABILITY; FILTRATION; HEMATOCRIT; HUMAN; HUMAN TISSUE; IN VITRO STUDY; LEUKOCYTE; MICROFLUIDICS; MICROVASCULATURE; SHEAR STRESS; CHEMISTRY; CYTOLOGY; MICROCIRCULATION; MICROFLUIDIC ANALYSIS; PATHOLOGY; PERFUSION;

CAPILLARIES; CYTOLOGICAL TECHNIQUES; DIAMIDE; ERYTHROCYTE DEFORMABILITY; ERYTHROCYTES; FILTRATION; GLUTARAL; HUMANS; MICROCIRCULATION; MICROFLUIDIC ANALYTICAL TECHNIQUES; MICROFLUIDICS; PERFUSION;

EID: 84907030234     PISSN: 13860291     EISSN: 18758622     Source Type: Journal    
DOI: 10.3233/CH-131719     Document Type: Article

References (72)

1. K. Araki and J.M. Rifkind, The rate of osmotic hemolysis: A relationship with membrane bilayer fluidity, Biochim Biophys Acta 645(1) (1981), 81-90.
2. D.L. Bader and M.M. Knight, Biomechanical analysis of structural deformation in living cells, Med Biol Eng Comput 46(10) (2008), 951-963.
3. R. Banerjee, K. Nageshwari and R.R. Puniyani, The diagnostic relevance of red cell rigidity, Clin Hemorheol Microcirc 19(1) (1998), 21-24.
4. O.K. Baskurt, M.R. Hardeman, M. Uyuklu, P. Ulker, M. Cengiz, N. Nemeth, S. Shin, T. Alexy and H.J. Meiselman, Comparison of three commercially available ektacytometers with different shearing geometries, Biorheology 46(3) (2009), 251-264.
5. O.K. Baskurt and F. Mat, Importance of measurement temperature in detecting the alterations of red blood cell aggregation and deformability studied by ektacytometry: A study on experimental sepsis in rats, Clin Hemorheol Microcirc 23(1) (2000), 43-49.
6. R. Bayer, S. Caglayan, R. Hofmann, and D. Ostuni. Laser diffraction of RBC: The method and its pitfalls. SPIE. 1994.
7. P.S. Becker, C.M. Cohen and S.E. Lux, The effect of mild diamide oxidation on the structure and function of human erythrocyte spectrin, J Biol Chem 261(10) (1986), 4620-4628.
8. E. Bennett-Guerrero, T.H. Veldman, A. Doctor, M.J. Telen, T.L. Ortel, T.S. Reid, M.A. Mulherin, H. Zhu, R.D. Buck, R.M. Califf and T.J. McMahon, Evolution of adverse changes in stored RBCs, Proc Natl Acad Sci U S A 104(43) (2007), 17063-17068.
9. T.L. Berezina, S.B. Zaets, C. Morgan, C.R. Spillert, M. Kamiyama, Z. Spolarics, E.A. Deitch and G.W. Machiedo, Influence of storage on red blood cell rheological properties, J Surg Res 102(1) (2002), 6-12.
10. M. Bessis and N. Mohandas, A diffractometric method for the measurement of cellular deformability, Blood cells 1(3) (1975), 307-313.
11. M. Bessis, N. Mohandas and C. Feo, Automated ektacytometry: A new method of measuring red cell deformability and red cell indices, Blood Cells 6(3) (1980), 315-327.
12. C.D. Brown, H.S. Ghali, Z. Zhao, L.L. Thomas and E.A. Friedman, Association of reduced red blood cell deformability and diabetic nephropathy, Kidney Int 67(1) (2005), 295-300.
13. J.M. Burns, X. Yang, O. Forouzan, J.M. Sosa and S.S. Shevkoplyas, Artificial microvascular network: A new tool for measuring rheologic properties of stored red blood cells, Transfusion 52(5) (2012), 1010-1023.
14. R.T. Card, N. Mohandas and P.L. Mollison, Relationship of post-transfusion viability to deformability of stored red cells, Br J Haematol 53(2) (1983), 237-240.
15. J.A. Chasis and S.L. Schrier, Membrane deformability and the capacity for shape change in the erythrocyte, Blood 74(7) (1989), 2562-2568.
16. S. Chien, Red cell deformability and its relevance to blood flow, Annu Rev Physiol 49 (1987), 177-192.
17. L.G. Cima, D.E. Discher, J. Tong and M.C. Williams, A hydrodynamic interpretation of crisis in sickle cell anemia, Microvasc Res 47(1) (1994), 41-54.
18. R. de Vroege, W.R. Wildevuur, J.A. Muradin, D. Graves and W. van Oeveren, Washing of stored red blood cells by an autotransfusion device before transfusion, Vox Sang 92(2) (2007), 130-135.
19. A.M. Dondorp, P.A. Kager, J. Vreeken and N.J. White, Abnormal blood flow and red blood cell deformability in severe malaria, Parasitol Today 16(6) (2000), 228-232.
20. A.M. Dondorp, F. Omodeo-Sale, K. Chotivanich, D. Taramelli and N.J. White, Oxidative stress and rheology in severe malaria, Redox Rep 8(5) (2003), 292-294.
21. T.C. Fisher, R.B. Wenby and H.J. Meiselman, Pulse shape analysis of RBC micropore flow via new software for the cell transit analyser (CTA), Biorheology 29(2-3) (1992), 185-201.
22. O. Forouzan, J.M. Burns, J.L. Robichaux, W.L. Murfee and S.S. Shevkoplyas, Passive recruitment of circulating leukocytes into capillary sprouts from existing capillaries in a microfluidic system, Lab on a Chip 11(11) (2011), 1924-1932.
23. O. Forouzan, X. Yang, J.M. Sosa, J.M. Burns and S.S. Shevkoplyas, Spontaneous oscillations of capillary blood flow in artificial microvascular networks, Microvasc Res 84(2) (2012), 123-132.
24. A.M. Forsyth, J. Wan, W.D. Ristenpart and H.A. Stone, The dynamic behavior of chemically "stiffened" red blood cells in microchannel flows, Microvasc Res 80(1) (2010), 37-43.
25. M.H. Friedlander, R. Simon and G.W. Machiedo, The relationship of packed cell transfusion to red blood cell deformability in systemic inflammatory response syndrome patients, Shock 9(2) (1998), 84-88.
26. L.W. Fung, B.O. Kalaw, R.M. Hatfield and M.N. Dias, Erythrocyte spectrin maintains its segmental motions on oxidation: A spin-label EPR study, Biophys J 70(2) (1996), 841-851.
27. W. Groner, N. Mohandas and M. Bessis, New optical technique for measuring erythrocyte deformability with the ektacytometer, Clin Chem 26(10) (1980), 1435-1442.
28. M. Hardeman, P. Goedhart, J. Dobbe and K. Lettinga, Laser-assisted optical rotational cell analyser (LORCA). I: A new instrument for measurement of various structural hemorheological parameters, Clinical Hemorheology 14(4) (1994), 605-619.
29. M. Hardeman, P. Goedhart and N. Schut, Laser-assisted optical rotational cell analyser (LORCA). II: Red blood cell deformability: Elongation index versus cell transit time, Clinical Hemorheology 14(4) (1994), 619-630.
30. S. Henkelman, M.J. Dijkstra-Tiekstra, J. de Wildt-Eggen, R. Graaff, G. Rakhorst and W. van Oeveren, Is red blood cell rheology preserved during routine blood bank storage? Transfusion 50(4) (2010), 941-948.
31. P. Izzo, A. Spagnuolo and A. Manicone, Assessment of erythrocyte deformability with the laser-assisted optical rotational cell analyzer (LORCA), Boll Soc Ital Biol Sper 75(1-2) (1999), 9-15.
32. P.C. Johnson, D.L. Hudnall and J.H. Dial, Measurement of capillary hematocrit by photometric techniques, Microvascular Research 5(3) (1973), 351-356.
33. F. Jung, J. Koscielny, C. Mrowietz, S. Wolf, H. Kiesewetter and E. Wenzel, Effect of hemodilution on systemic and capillary hematocrit, Infusionstherapie 17(5) (1990), 268.
34. F. Jung, C. Mrowietz, B. Hiebl, R. Franke, G. Pindur and R. Sternitzky, Influence of rheological parameters on the velocity of erythrocytes passing nailfold capillaries in humans, Clin Hemorheol Microcirc 48(1) (2011), 129-139.
35. A. Kearney-Schwartz, J.M. Virion, J.F. Stoltz, P. Drouin and F. Zannad, Haemorheological disturbances in hypertensive type 2 diabetic patients-influence of antihypertensive therapy, Fundam Clin Pharmacol 21(4) (2007), 387-396.
36. M.F. Kiani, A.R. Pries, L.L. Hsu, I.H. Sarelius and G.R. Cokelet, Fluctuations in microvascular blood flow parameters caused by hemodynamic mechanisms, American Journal of Physiology-Heart and Circulatory Physiology 266(5) (1994), H1822-H1828.
37. Y.K. Kim, E.H. Kwon, D.H. Kim, D.I. Won, S. Shin and J.S. Suh, Susceptibility of oxidative stress on red blood cells exposed to gamma rays: Hemorheological evaluation, Clin Hemorheol Microcirc 40(4) (2008), 315-324.
38. B. Klitzman and B.R. Duling, Microvascular hematocrit and red cell flow in resting and contracting striated muscle, American Journal of Physiology-Heart and Circulatory Physiology 237(4) (1979), H481-H490.
39. D. Koutsouris, R. Guillet, J.C. Lelievre, M.T. Guillemin, P. Bertholom, Y. Beuzard and M. Boynard, Determination of erythrocyte transit times through micropores. I-Basic operational principles, Biorheology 25(5) (1988), 763-772.
40. D. Koutsouris, R. Guillet, R.B. Wenby and H.J. Meiselman, Determination of erythrocyte transit times through micropores. II-Influence of experimental and physicochemical factors, Biorheology 25(5) (1988), 773-790.
41. H.H. Lipowsky, L.E. Cram, W. Justice and M.J. Eppihimer, Effect of erythrocyte deformability on In vivo red cell transit time and hematocrit and their correlation with in vitro filterability, Microvasc Res 46(1) (1993), 43-64.
42. I. Lisovskaya, E. Shurkhina, V. Nesterenko, J. Rozenberg and F. Ataullakhanov, Determination of the content of nonfilterable cells in erythrocyte suspensions as a function of the medium osmolality, Biorheology 35(2) (1998), 141-154.
43. H. Minamitani, K. Tsukada, E. Sekizuka and C. Oshio, Optical bioimaging: From living tissue to a single molecule: Imaging and functional analysis of blood flow in organic microcirculation, J Pharmacol Sci 93(3) (2003), 227-233.
44. F.M. Morel, R.F. Baker and H. Wayland, Quantitation of human red blood cell fixation by glutaraldehyde, J Cell Biol 48(1) (1971), 91-100.
45. A.G. Moutzouri, G.A. Athanassiou, D. Dimitropoulou, A.T. Skoutelis and C.A. Gogos, Severe sepsis and diabetes mellitus have additive effects on red blood cell deformability, J Infect 57(2) (2008), 147-151.
46. M. Musielak, Red blood cell-deformability measurement: Review of techniques, Clin Hemorheol Microcirc 42(1) (2009), 47-64.
47. N. Nemeth, I. Furka and I. Miko, Hemorheological changes in ischemia-reperfusion: An overview on our experimental surgical data, Clin Hemorheol Microcirc (2013). DOI: 10.3233/CH-131648
48. S. Noji, S. Taniguchi and H. Kon, An EPR study on erythrocyte deformability, Prog Biophys Mol Biol 55(2) (1991), 85-105.
49. E. Ogura, P.J. Abatti and T. Moriizumi, Measurement of human red blood cell deformability using a single micropore on a thin Si/sub 3/N/sub 4/film. Biomedical Engineering, IEEE Transactions on 38(8) (1991), 721-726.
50. G.A.M. Pop, D.J. Duncker, M. Gardien, P. Vranckx, S. Versluis, D. Hasan and C.J. Slager, The clinical significance of whole blood viscosity in (cardio)vascular medicine, Neth Heart J 10(12) (2002), 512-516.
51. N.J. Raat, A.J. Verhoeven, E.G. Mik, C.W. Gouwerok, R. Verhaar, P.T. Goedhart, D. de Korte, and C. Ince, The effect of storage time of human red cells on intestinal microcirculatory oxygenation in a rat isovolemic exchange model, Crit Care Med 33(1) (2005), 39-45; discussion 238-9.
52. G. Reggiori, G. Occhipinti, A. De Gasperi, J.L. Vincent and M. Piagnerelli, Early alterations of red blood cell rheology in critically ill patients∗, Critical Care Medicine 37(12) (2009), 3041.
53. H.L. Reid, A.J. Barnes, P.J. Lock, J.A. Dormandy and T.L. Dormandy, A simple method for measuring erythrocyte deformability, J Clin Pathol 29(9) (1976), 855-858.
54. W.H. Reinhart and S. Chien, Roles of cell geometry and cellular viscosity in red cell passage through narrow pores, American Journal of Physiology-Cell Physiology 248(5) (1985), C473-C479.
55. W.H. Reinhart, S.J. Danoff, S. Usami and S. Chien, Rheologic measurements on small samples with a new capillary viscometer, J Lab Clin Med 104(6) (1984), 921-931.
56. W.H. Reinhart, C. Huang, M. Vayo, G. Norwich, S. Chien and R. Skalak, Folding of red blood cells in capillaries and narrow pores, Biorheology 28(6) (1991), 537-549.
57. B. Riquelme, P. Foresto, M. D'Arrigo, F. Filippini and J. Valverde, Laser diffractometry technique: Clinical applications to vascular pathologies, Clin Hemorheol Microcirc 35(1-2) (2006), 277-281.
58. H. Schmid-Schönbein and P. Gaehtgens, What is red cell deformability? Scandinavian Journal of Clinical & Laboratory Investigation 41(S156) (1981), 13-26.
59. S.S. Shevkoplyas, S.C. Gifford, T. Yoshida and M.W. Bitensky, Prototype of an in vitro model of the microcirculation, Microvascular Research 65(2) (2003), 132-136.
60. S.S. Shevkoplyas, T. Yoshida, S.C. Gifford and M.W. Bitensky, Direct measurement of the impact of impaired erythrocyte deformability on microvascular network perfusion in a microfluidic device, Lab Chip 6(7) (2006), 914-920.
61. S. Shin, J.X. Hou, J.S. Suh and M. Singh, Validation and application of a microfluidic ektacytometer (RheoScan-D) in measuring erythrocyte deformability, Clin Hemorheol Microcirc 37(4) (2007), 319-328.
62. M.J. Simmonds, S. Sabapathy, G.C. Gass, S.M. Marshall-Gradisnik, L.J. Haseler, R.M. Christy and C.L. Minahan, Heart rate variability is related to impaired haemorheology in older women with type 2 diabetes, Clin Hemorheol Microcirc 46(1) (2010), 57-68.
63. M. Singh and S. Shin, Changes in erythrocyte aggregation and deformability in diabetes mellitus: A brief review, Indian J Exp Biol 47(1) (2009), 7-15.
64. A. Stadler and O. Linderkamp, Flow behavior of neonatal and adult erythrocytes in narrow capillaries, Microvasc Res 37(3) (1989), 267-279.
65. J. Stuart, Erythrocyte rheology, J Clin Pathol 38(9) (1985), 965-977.
66. J. Stuart and G.B. Nash, Technological advances in blood rheology, Critical Reviews in Clinical Laboratory Sciences 28(1) (1990), 61-93.
67. S. Svenmarker, E. Jansson, H. Stenlund and K.G. Engstrom, Red blood cell trauma during cardiopulmonary bypass: Narrow pore filterability versus free haemoglobin, Perfusion 15(1) (2000), 33-40.
68. A. Szwarocka, A. Kowalczyk, D. Lubgan and Z. Jozwiak, The combined effect of IDA and glutaraldehyde on the properties of human erythrocytes, Int J Pharm 220(1-2) (2001), 43-51.
69. I.A. Tikhomirova, A.O. Oslyakova and S.G. Mikhailova, Microcirculation and blood rheology in patients with cerebrovascular disorders, Clin Hemorheol Microcirc 49(1-4) (2011), 295-305.
70. R. Yen and Y. Fung, Inversion of Fahraeus effect and effect of mainstream flow on capillary hematocrit, Journal of Applied Physiology 42(4) (1977), 578-586.
71. L. Zehnder, T. Schulzki, J.S. Goede, J. Hayes and W.H. Reinhart, Erythrocyte storage in hypertonic (SAGM) or isotonic (PAGGSM) conservation medium: Influence on cell properties, Vox Sang 95(4) (2008), 280-287.
72. B.W. Zweifach, Functional behavior of the microcirculation, American Lecture Series, 1961, Charles C. Thomas, Publisher Springfield, Illinois, USA.