Is red blood cell rheology preserved during routine blood bank storage? 2010

Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
Department of Biomedical Engineering, University Medical Center Groningen, University of Groningen, Groningen, the Netherlands.

BACKGROUND Red blood cell (RBC) units stored for more than 2 weeks at 4 degrees C are currently considered of impaired quality. This opinion has primarily been based on altered RBC rheologic properties (i.e., enhanced aggregability, reduced deformability, and elevated endothelial cell interaction), during prolonged storage of nonleukoreduced RBC units. In this study, the rheologic properties and cell variables of leukoreduced RBC units, during routine blood bank storage in saline-adenine-glucose-mannitol, were investigated. METHODS Ten leukoreduced RBC units were stored at the blood bank for 7 weeks at 4 degrees C. RBCs were tested weekly for aggregability, deformability, and other relevant variables. RESULTS RBC aggregability was significantly reduced after the first week of storage but recovered during the following weeks. After 7 weeks aggregability was slightly, but significantly, reduced (46.9 + or - 2.4-44.3 + or - 2.2 aggregation index). During storage the osmotic fragility was not significantly enhanced (0.47 + or - 0.01% phosphate-buffered saline) and the deformability at shear stress of 3.9 Pa was not significantly reduced (0.36 + or - 0.01 elongation index [EI]). The deformability at 50 Pa was reduced (0.58 + or - 0.01-0.54 + or - 0.01 EI) but remained within reference values (0.53 + or - 0.04). During 5 weeks of storage, adenosine triphosphate was reduced by 54% whereas mean cell volume, pH, and mean cell hemoglobin concentration were minimally affected. CONCLUSIONS RBC biochemical and physical alterations during storage minimally affected the RBC ability to aggregate and deform, even after prolonged storage. The rheologic properties of leukoreduced RBC units were well preserved during 7 weeks of routine blood bank storage.

UI MeSH Term Description Entries
D009426 Netherlands Country located in EUROPE. It is bordered by the NORTH SEA, BELGIUM, and GERMANY. Constituent areas are Aruba, Curacao, and Sint Maarten, formerly included in the NETHERLANDS ANTILLES. Holland,Kingdom of the Netherlands
D009996 Osmotic Fragility RED BLOOD CELL sensitivity to change in OSMOTIC PRESSURE. When exposed to a hypotonic concentration of sodium in a solution, red cells take in more water, swell until the capacity of the cell membrane is exceeded, and burst. Saline Fragility,Fragility, Osmotic,Fragility, Saline
D001771 Blood Banks Centers for collecting, characterizing and storing blood or plasma. Bank, Blood,Banks, Blood,Blood Bank
D001782 Blood Donors Individuals supplying blood or blood components for transfer to histocompatible recipients. Blood Donor,Donor, Blood,Donors, Blood
D001793 Blood Preservation The process by which blood or its components are kept viable outside of the organism from which they are derived (i.e., kept from decay by means of a chemical agent, cooling, or a fluid substitute that mimics the natural state within the organism). Blood Preservations,Preservation, Blood,Preservations, Blood
D004734 Energy Metabolism The chemical reactions involved in the production and utilization of various forms of energy in cells. Bioenergetics,Energy Expenditure,Bioenergetic,Energy Expenditures,Energy Metabolisms,Expenditure, Energy,Expenditures, Energy,Metabolism, Energy,Metabolisms, Energy
D004903 Erythrocyte Aggregation The formation of clumps of RED BLOOD CELLS under low or non-flow conditions, resulting from the attraction forces between the red blood cells. The cells adhere to each other in rouleaux aggregates. Slight mechanical force, such as occurs in the circulation, is enough to disperse these aggregates. Stronger or weaker than normal aggregation may result from a variety of effects in the ERYTHROCYTE MEMBRANE or in BLOOD PLASMA. The degree of aggregation is affected by ERYTHROCYTE DEFORMABILITY, erythrocyte membrane sialylation, masking of negative surface charge by plasma proteins, etc. BLOOD VISCOSITY and the ERYTHROCYTE SEDIMENTATION RATE are affected by the amount of erythrocyte aggregation and are parameters used to measure the aggregation. Erythrocyte Aggregation, Intravascular,Agglutination, Intravascular,Intravascular Agglutination,Intravascular Erythrocyte Aggregation,Rouleaux Formation, Erythrocyte,Agglutinations, Intravascular,Aggregation, Erythrocyte,Aggregation, Intravascular Erythrocyte,Aggregations, Erythrocyte,Aggregations, Intravascular Erythrocyte,Erythrocyte Aggregations,Erythrocyte Aggregations, Intravascular,Erythrocyte Rouleaux Formation,Erythrocyte Rouleaux Formations,Formation, Erythrocyte Rouleaux,Formations, Erythrocyte Rouleaux,Intravascular Agglutinations,Intravascular Erythrocyte Aggregations,Rouleaux Formations, Erythrocyte
D004907 Erythrocyte Deformability Ability of ERYTHROCYTES to change shape as they pass through narrow spaces, such as the microvasculature. Erythrocyte Filterability,Deformability, Erythrocyte,Filterability, Erythrocyte
D004912 Erythrocytes Red blood cells. Mature erythrocytes are non-nucleated, biconcave disks containing HEMOGLOBIN whose function is to transport OXYGEN. Blood Cells, Red,Blood Corpuscles, Red,Red Blood Cells,Red Blood Corpuscles,Blood Cell, Red,Blood Corpuscle, Red,Erythrocyte,Red Blood Cell,Red Blood Corpuscle
D006454 Hemoglobins The oxygen-carrying proteins of ERYTHROCYTES. They are found in all vertebrates and some invertebrates. The number of globin subunits in the hemoglobin quaternary structure differs between species. Structures range from monomeric to a variety of multimeric arrangements. Eryhem,Ferrous Hemoglobin,Hemoglobin,Hemoglobin, Ferrous

Related Publications

Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
January 1981, Transfusion,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
January 1960, The Journal of clinical investigation,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
May 2012, Blood transfusion = Trasfusione del sangue,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
May 2008, Transfusion,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
December 2009, Transfusion,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
May 1986, La Revue de medecine interne,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
July 2003, Intensive care medicine,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
October 2012, Blood transfusion = Trasfusione del sangue,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
June 1991, Cell biophysics,
Sandra Henkelman, and Margriet J Dijkstra-Tiekstra, and Janny de Wildt-Eggen, and Reindert Graaff, and Gerhard Rakhorst, and Willem van Oeveren
July 2009, Transfusion,
Copied contents to your clipboard!