Studies on the preservation of human blood. II. The relationship of erythrocyte adenosine triphosphate levels and other in vitro measures to red cell storageability

References

1. • Ross J.F.
   • Finch C.A.
   • Peacock W.C.
   • Sammons M.E.
   The in vitro preservation and post-transfusion survival of stored blood.
   J. Clin. Invest. 1947; 26: 687
   • Google Scholar
2. • Gibson II, J.G.
   • Aub J.C.
   • Evans R.D.
   • Peacock W.C.
   • Irving Jr., J.W.
   • Sack T.
   The measurement of post-transfusion survival of preserved stored human erythrocytes by means of two isotopes of radioactive iron.
   J. Clin. Invest. 1947; 26: 704
   • Google Scholar
3. • Mollison P.L.
   • Robinson M.A.
   Observations on the effects of purine nucleosides on red-cell preservation.
   Brit. J. Haemat. 1959; 5: 331
   • Google Scholar
4. • Eadie G.S.
   • Brown I.W.
   • Smith W.W.
   The relation between storage time of erythrocytes and their percentage viability after transfusion.
   Transfusion. 1963; 3: 356
   • Google Scholar
5. • Rapoport S.
   Dimensional, osmotic, and chemical changes of erythrocytes in stored blood. I. Blood preserved in sodium citrate, neutral, and acid citrate-glucose (ACD) mixtures.
   J. Clin. Invest. 1947; 26: 591
   • Google Scholar
6. • Gabrio B.W.
   • Donohue D.M.
   • Finch C.A.
   Erythrocyte preservation. V. Relationship between chemical changes and viability of stored blood treated with adenosine.
   J. Clin. Invest. 1955; 34: 1509
   • Google Scholar
7. • Gabrio B.W.
   • Finch C.A.
   • Huennekens F.M.
   Erythrocyte preservation: A topic in molecular biochemistry.
   Blood. 1956; 11: 103
   • Google Scholar
8. • Schechter D.C.
   • Swan H.
   Biochemical alterations of preserved blood.
   Arch. Surg. 1962; 84: 269
   • Google Scholar
9. • Gabrio B.W.
   • Huennekens F.M.
   The role of nucleoside phosphorylase in erythrocyte preservation.
   Biochim. et biophys. acta. 1955; 18: 585
   • Google Scholar
10. • Nakao K.
    • Wada T.
    • Kamiyama T.
    • Nakao M.
    • Nagano K.
    A direct relationship between adenosine triphosphate level and in vivo viability of erythrocytes.
    Nature. 1962; 194: 877
    • Google Scholar
11. • Simon E.R.
    • Chapman R.G.
    • Finch C.A.
    Adenine in red cell preservation.
    J. Clin. Invest. 1962; 41: 351
    • Google Scholar
12. • DeVerdier C.H.
    • Garby L.
    • Hjelm M.
    • Hogman C.
    Adenine in blood preservation: Posttransfusion viability and biochemical changes.
    Transfusion. 1964; 4: 331
    • Google Scholar
13. • Brewer G.J.
    • Powell R.D.
    The adenosine triphosphate content of glucose-6-phos-phate dehydrogenase-deficient and normal erythrocytes, including studies of a glucose-6-phosphate dehydrogenase-deficient man with “elevated erythrocytic ATP”.
    J. Lab. & Clin. Med. 1966; 67: 726
    • Google Scholar
14. • Dern R.J.
    • Gwinn R.P.
    • Wiorkowski J.J.
    Studies on the preservation of human blood. I. Variability in erythrocyte storage characteristics among healthy donors.
    J. Lab. & Clin. Med. 1966; 67: 955
    • Google Scholar
15. • Kozek W.
    • Bishop C.
    Characteristics of recently outdated ACD blood and some determinants of these characteristics.
    Transfusion. 1964; 4: 277
    • Google Scholar
16. • Brewer G.J.
    Clinical implications of studies of erythrocytes with “elevated erythrocytic ATP,”.
    Ann. Int. Med. 1965; 63: 912
    • Google Scholar
17. • Kornberg A.
    Reversible enzymatic synthesis of diphosphopyridine nucleotide and inorganic pyrophosphate.
    J. Biol. Chem. 1950; 182: 779
    • Google Scholar
18. • Button L.N.
    • Gibson II, J.G.
    • Walter C.W.
    Simultaneous determination of the volume of red cells and plasma for survival studies of stored blood.
    Transfusion. 1965; 5: 143
    • Google Scholar
19. • Crosby W.H.
    • Furth F.W.
    A modification of the benzidine method for measurement of hemoglobin in plasma and urine.
    Blood. 1956; 11: 380
    • Google Scholar
20. • Parpart A.K.
    • Lorenz P.B.
    • Parpart E.R.
    • Gregg J.R.
    • Chase A.M.
    The osmotic resistance (fragility) of human red cells.
    J. Clin. Invest. 1947; 26: 636
    • Google Scholar
21. Dixon W.J. Biomedical computer programs, Health Sciences Computing Facilities. Department of Preventive Medicine and Public Health, School of Medicine, University of California, Los Angeles1964
    • Google Scholar
22. • Kendall M.G.
    • Stuart A.
    ed. 3. Advanced theory of statistics. vol. 2. Hafner Publishing Company, Inc, New York1960: 356
    • Google Scholar
23. • Lehmann E.L.
    Testing statistical hypotheses.
    John Wiley & Sons, Inc, New York1959
    • Google Scholar
24. • Kleine N.
    • Heimpel H.
    The early loss of radioactivity in Cr-51 survival curves: Destruction of cells or loss of the label?.
    Blood. 1965; 26: 819
    • Google Scholar
25. • Beutler E.
    • Baluda M.C.
    Simplified determination of blood adenosine triphosphate using the firefly system.
    Blood. 1964; 23: 688
    • Google Scholar
26. • Gibson J.G.
    • Rees S.B.
    • McManus T.J.
    • Scheitlin W.A.
    A citrate-phosphate-dextrose solution for the preservation of human blood.
    Am. J. Clin. Path. 1957; 28: 569
    • Google Scholar
27. • Bowman H.L.
    Red cell preservation in citrate-phosphate-dextrose and in acid-citrate-dextrose: Comparison of erythrocyte viability after 28 days refrigerated storage.
    Transfusion. 1963; 3: 364
    • Google Scholar
28. • Beutler E.
    • Duron O.
    The preservation of red cell ATP: The effect of phosphate.
    Transfusion. 1966; 6: 124
    • Google Scholar
29. • Valeri C.R.
    • Mercado-Lugo R.
    • Danon D.
    Relationship between osmotic fragility and in vivo survival of autologous deglycerolized resuspended red blood cells.
    Transfusion. 1965; 5: 267
    • Google Scholar
30. • Danon D.
    • Frei Y.F.
    • Fimon A.
    • Ben-David A.
    Simple rapid osmotic fragility test proposed as a routine in blood banks.
    Transfusion. 1964; 4: 339
    • Google Scholar