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Yoji Suzuki, N. Tateishi, M. Soutani, N. Maeda (1996)
Deformation of Erythrocytes in Microvessels and Glass Capillaries: Effects of Erythrocyte DeformabilityMicrocirculation, 3
S. Xue, Byoung‐Kwon Lee, Sehyun Shin (2013)
Disaggregating shear stress: the roles of cell deformability and fibrinogen concentration.Clinical hemorheology and microcirculation, 55 2
N. Németh, I. Mikó, A. Furka, F. Kiss, I. Furka, A. Koller, M. Szilasi (2012)
Concerning the importance of changes in hemorheological parameters caused by acid-base and blood gas alterations in experimental surgical models.Clinical hemorheology and microcirculation, 51 1
R. Puniyani, R. Ajmani, P. Kale (1991)
Risk factors evaluation in some cardiovascular diseases.Journal of biomedical engineering, 13 5
C. Mckay, H. Meiselman (1988)
Osmolality-mediated Fahraeus and Fahraeus-Lindqvist effects for human RBC suspensions.The American journal of physiology, 254 2 Pt 2
O. Baskurt, M. Hardeman, M. Uyuklu, Pinar Ulker, M. Cengiz, N. Németh, Sehyun Shin, T. Alexy, H. Meiselman (2009)
Comparison of three commercially available ektacytometers with different shearing geometries.Biorheology, 46 3
Z. Huang, Leigh Hearne, Cynthia Irby, S. King, S. Ballas, D. Kim-Shapiro (2003)
Kinetics of increased deformability of deoxygenated sickle cells upon oxygenation.Biophysical journal, 85 4
L. Szapáry, B. Horváth, Z. Marton, T. Alexy, N. Demeter, M. Szőts, A. Klabuzai, G. Késmárky, I. Juricskay, V. Gaál, J. Czopf, K. Tóth (2004)
Hemorheological disturbances in patients with chronic cerebrovascular diseases.Clinical hemorheology and microcirculation, 31 1
I. Testa, S. Manfrini, F. Gregorio, A. Refe, A. Bonfigli, R. Testa, L. Piantanelli (1995)
F292. Red blood cell deformability in diabetic retinopathyBiorheology, 32
G. Driessen, C. Haest, H. Heidtmann, D. Kamp, H. Schmid-Sch�nbein (1980)
Effect of reduced red cell “deformability” on flow velocity in capillaries of rat mesenteryPflügers Archiv, 388
N. Mohandas, M. Clark, M. Jacobs, S. Shohet (1980)
Analysis of factors regulating erythrocyte deformability.The Journal of clinical investigation, 66 3
A. Vayá, M. Martínez, J. García, M. Labiós, J. Aznar (1992)
Hemorheological alterations in mild essential hypertension.Thrombosis research, 66 2-3
M. Garnier, J. Attali, Paul Valensi, E. Delatour-Hanss, F. Gaudey, Dimitris Koutsouris (1990)
Erythrocyte deformability in diabetes and erythrocyte membrane lipid composition.Metabolism: clinical and experimental, 39 8
R. Presti, Clementina Caracciolo, M. Montana, R. Barone, A. Catania, G. Caimi (2012)
Erythrocyte deformability evaluated by laser diffractometry in polycythemia vera.Clinical hemorheology and microcirculation, 50 3
D. Böning, U. Vaas, K. Braumann (1983)
Blood osmolality during in vivo changes of CO2 pressure.Journal of applied physiology: respiratory, environmental and exercise physiology, 54 1
S. Usami, S. Chien, Bertles Jf (1975)
Deformability of sickle cells as studied by microsieving.The Journal of laboratory and clinical medicine, 86 2
Frick Pg (1968)
Osmometry and clinical significance of osmolalitySchweizerische Medizinische Wochenschrift, 98
A. Muravyov, I. Tikhomirova (2013)
Role molecular signaling pathways in changes of red blood cell deformability.Clinical hemorheology and microcirculation, 53 1-2
H. Ivy (1968)
The syndrome of inappropriate secretion of antidiuretic hormone.Medical Clinics of North America, 52
J. Cluitmans, M. Hardeman, S. Dinkla, R. Brock, G. Bosman (2012)
Red blood cell deformability during storage: towards functional proteomics and metabolomics in the Blood Bank.Blood transfusion = Trasfusione del sangue, 10 Suppl 2
Reinhart Wh (2011)
Peculiar red cell shapes: Fåhraeus Lecture 2011.Clinical Hemorheology and Microcirculation, 49
P. Guyenet (2006)
The sympathetic control of blood pressureNature Reviews Neuroscience, 7
A. Vay, M. Fuente, M. Montero, R. Pérez, J. Ricart (2012)
Erythrocyte deformability in na¨ õve HIV-infected patients
Xavier Waltz, M. Hédreville, S. Sinnapah, Y. Lamarre, V. Soter, N. Lemonne, M. Etienne‐Julan, E. Beltan, T. Chalabi, R. Chout, O. Hue, Danièle Mougenel, M. Hardy-Dessources, P. Connes (2012)
Delayed beneficial effect of acute exercise on red blood cell aggregate strength in patients with sickle cell anemia.Clinical hemorheology and microcirculation, 52 1
A. Malek, S. Alper, S. Izumo (1999)
Hemodynamic shear stress and its role in atherosclerosis.JAMA, 282 21
A. Vayá, A. Hernández-Mijares, E. Bonet, R. Sendra, E. Solá, R. Pérez, D. Corella, B. Laíz (2011)
Association between hemorheological alterations and metabolic syndrome.Clinical hemorheology and microcirculation, 49 1-4
Sehyun Shin, J. Hou, J. Suh, M. Singh (2007)
Validation and application of a microfluidic ektacytometer (RheoScan-D) in measuring erythrocyte deformability.Clinical hemorheology and microcirculation, 37 4
M. Fornal, R. Korbut, T. Grodzicki (2011)
Relevance of erythrocyte deformability to the concentration of soluble cell adhesion molecules and glomerular filtration rate in patients with untreated essential hypertension.Clinical hemorheology and microcirculation, 49 1-4
J. Osborn, G. Fink, A. Sved, G. Toney, M. Raizada (2007)
Circulating angiotensin II and dietary salt: Converging signals for neurogenic hypertensionCurrent Hypertension Reports, 9
I. Tikhomirova, A. Oslyakova, S. Mikhailova (2011)
Microcirculation and blood rheology in patients with cerebrovascular disorders.Clinical hemorheology and microcirculation, 49 1-4
A. Koutsiaris, S. Tachmitzi, N. Batis, M. Kotoula, C. Karabatsas, E. Tsironi, D. Chatzoulis (2007)
Volume flow and wall shear stress quantification in the human conjunctival capillaries and post-capillary venules in vivo.Biorheology, 44 5-6
S. Ringer
A further Contribution regarding the influence of the different Constituents of the Blood on the Contraction of the HeartThe Journal of Physiology, 4
A. Gettler, W. Baker (1916)
CHEMICAL AND PHYSICAL ANALYSIS OF BLOOD IN THIRTY NORMAL CASESJournal of Biological Chemistry, 25
F. Jung, M. Wappier, H. Nüttgens, H. Kiesewetter, S. Wolf, G. Müller (1987)
Zur Methodik der Videokapillarmikroskopie: Bestimmung geometrischer und dynamischer Meßparameter - Video Capillary Microscopy: Determination of Geometrical and Dynamic Parameters, 32
J. Attali, P. Valensi (1990)
[Diabetes and hemorheology].Diabete & metabolisme, 16 1
Yu-kyung Kim, E. Kwon, Dong-Hyun Kim, D. Won, Sehyun Shin, J. Suh (2008)
Susceptibility of oxidative stress on red blood cells exposed to gamma rays: hemorheological evaluation.Clinical hemorheology and microcirculation, 40 4
A. Vayá, J. Fuente, M. Montero, R. Pérez, J. Ricart (2012)
Erythrocyte deformability in naïve HIV-infected patients.Clinical hemorheology and microcirculation, 51 4
O. Baskurt, M. Hardeman, M. Uyuklu, Pinar Ulker, M. Cengiz, N. Németh, Sehyun Shin, T. Alexy, H. Meiselman (2009)
Parameterization of red blood cell elongation index – shear stress curves obtained by ektacytometryScandinavian Journal of Clinical and Laboratory Investigation, 69
R. Margaria (1930)
The vapour pressure of normal human bloodThe Journal of Physiology, 70
Friedrich Jung (2010)
From hemorheology to microcirculation and regenerative medicine: Fåhraeus Lecture 2009.Clinical hemorheology and microcirculation, 45 2-4
H. Yoshida, K. Satoh, S. Takamatsu (1993)
Platelet‐Activating Factor Acetylhydrolase in Red Cell Membranes: Does Decreased Activity Impair Erythrocyte Deformability in Ischemic Stroke Patients?Stroke, 24
S. Ringer (1882)
Concerning the Influence exerted by each of the Constituents of the Blood on the Contraction of the VentricleThe Journal of Physiology, 3
H. Schmid-schönbein, E. Volger, H. Klose (2004)
Microrheology and light transmission of bloodPflügers Archiv, 333
Red blood cell (RBC) deformability is greatly affected by the osmolality, and maximum deformability, which is determined as maximal elongation index (EI max ), is usually observed in isotonic conditions at high shear stresses (>20 Pa). Therefore, we examined osmotic RBC deformability over a range of shear stresses (0.5–20 Pa). We found that the RBC deformability at low shear stresses (1–3 Pa) was maximum in hypotonic conditions (225–250 mOsm/kg H 2 O), which is slightly lower than the normal range of osmolality in plasma (290–310 mOsm/kg H 2 O). The phenomenon that O max (the osmolality at EI max ) is dependent on applied shear stress could play an important role in microcirculation in which osmolality varies widely.
Clinical Hemorheology and Microcirculation – IOS Press
Published: Jan 1, 2015
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