Transfusion · 2013 · 29 citations · 23 references
MedicineHematologyBioenergeticsCellular MetabolismHematology PhysiologyBlood StorageCell CryopreservationCell StorageLow-temperature PreservationRed Blood Cell PhysiologyRed Blood Cell TransfusionCold Storage RegimePacked Red Blood Cell QualityPacked Red Blood Cell Storage LesionsQuality DeteriorationRejuvenationRejuvenation SolutionsRejuvenation TreatmentsSham Treatment
BACKGROUND: Hypothermic storage (HS) of red blood cells (RBCs) leads to a progressive deterioration of cell quality. Mitigating these deleterious changes could allow maintenance or even an improvement of RBC in vitro quality. The aim was to determine the effect of a cold rejuvenation treatment of RBCs and in particular to assess the connection between ATP levels, RBC deformability, and morphology during RBC storage. STUDY DESIGN AND METHODS: A pool-and-split design of leukoreduced CPD-saline-adenine-glucose-mannitol-packed RBC units was used to generate three groups: untreated controls, sham-treated units, and units treated with a cold (1-6 °C) rejuvenation solution on Day 28, 35, or 42 of cold storage. Units were followed until Day 49 of storage and assessed for ATP concentration, morphology, deformability, and other in vitro quality variables including hemolysis, pH, and supernatant potassium levels. RESULTS: At every treatment time, rejuvenation was associated with a significant increase in intracellular ATP (p < 0.01). On Day 28, rejuvenation was accompanied by a significant decrease in deformability 1 week after treatment (p < 0.01). Rejuvenation on Day 28, but not Day 35 or 42, was also associated with a significant change in morphology (p < 0.01). Of the in vitro quality variables measured, most changed during cold storage, but differences among treatment groups were not observed. CONCLUSION: The results of our study demonstrate a cold rejuvenation of RBCs during HS increases intracellular ATP, but that this change does not ameliorate, or exacerbate, the metabolic or biochemical symptoms of the storage lesion.
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Red cell changes during storage
John R. Hess · Transfusion and Apheresis Science · 2010 · 289 citations
Life Sciences, Biology, Physiology +11
Storage lesion: role of red blood cell breakdown
Daniel B. Kim‐Shapiro, Janet Lee, Mark T. Gladwin · Transfusion · 2011 · 273 citations · Full text
Medicine, Cell Biology, Hematology +17