Anaerobic storage of red blood cells in a novel additive solution improves in vivo recovery - PubMed (original) (raw)
Anaerobic storage of red blood cells in a novel additive solution improves in vivo recovery
Larry J Dumont et al. Transfusion. 2009 Mar.
Abstract
Background: In preliminary studies, anaerobic red blood cell (RBC) storage reduced oxidative damage and phosphatidylserine exposure while maintaining adenosine triphosphate levels. The purpose of this study was to compare the 24-hour recovery and life span of autologous RBCs stored 6 and 9 weeks using OFAS3 additive solution in an anaerobic environment, compared to control RBCs aerobically stored in AS-3 for 6 weeks.
Study design and methods: Eight subjects were entered into a randomized, crossover study. Whole blood was collected from each subject twice separated by 12 weeks or more into CP2D and leukoreduced. Controls were stored in AS-3. Test units in OFAS3 were oxygen depleted with argon then stored 9 weeks in an anaerobic chamber at 1 to 6 degrees C. At the end of each storage period, RBCs were labeled with (51)Cr and (99m)Tc and reinfused to the subject following standard methods to determine double-label recovery and life span. Hypotheses tests were conducted using paired, repeated-measures analysis of variance.
Results: Recovery for the anaerobically stored test RBC was significantly better than control at 6 weeks (p = 0.023). Test units at 9 weeks were not different than the 6-week control units (p = 0.73). Other in vitro measures of RBC characteristics followed the same trend. Two test units at 9 weeks had hemolysis of greater than 1 percent.
Conclusion: Anaerobically stored RBCs in OFAS3 have superior recovery at 6 weeks compared to the controls and equivalent recovery at 9 weeks with no change in life span. Anaerobic storage of RBCs may provide improved RBCs for transfusion at 6 weeks of storage and may enable extending storage beyond the current 42-day limit.
Figures
Figure 1. Study design
Eight study subjects were randomly assigned to test or control study arms. A minimum of 56 days elapsed between RBC collections.
Figure 2. Hemolysis over storage
Percent hemolysis at the end of storage for aerobically stored RBC in AS3, and anaerobically stored in OFAS3 for 6 and 9 weeks from the same subject are shown. Four subjects (solid symbols) had distinctly higher hemolysis for all conditions.
Figure 3. 24 h Recovery (DLR) by subject
Control at 6 weeks, Test at 6 weeks and Test at 9 weeks. There is no difference demonstrated between Control 6 weeks and Test 9 weeks (p=0.41). Test at 6 weeks is superior to Control at 6 weeks (p=0.023).
Figure 4. Lifespan by subject
Control at 6 weeks, Test at 6 weeks and Test at 9 weeks. There is no difference between the 3 study arms (p=0.73).
Figure 5. RBC ATP content affects 24 hr RBC Recovery
ATP (μmol/g-Hb) content in the RBC on the day of study is shown against the 24 hr RBC in vivo recovery. AS-3 6-week (o), OFSA3 6-week (x), OFSA2 9-week (●)
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