Effects of filtration and gamma radiation on the accumulation of RANTES and transforming growth factor-beta 1 in apheresis platelet concentrates during storage

Citation
M. Fujihara et al., Effects of filtration and gamma radiation on the accumulation of RANTES and transforming growth factor-beta 1 in apheresis platelet concentrates during storage, TRANSFUSION, 39(5), 1999, pp. 498-505
Citations number
38
Categorie Soggetti
Hematology,"Cardiovascular & Hematology Research
Journal title
TRANSFUSION
ISSN journal
00411132 → ACNP
Volume
39
Issue
5
Year of publication
1999
Pages
498 - 505
Database
ISI
SICI code
0041-1132(199905)39:5<498:EOFAGR>2.0.ZU;2-7
Abstract
BACKGROUND: Platelet-derived biologic response modifiers (BRMs) including R ANTES and transforming growth factor (TGF)-beta 1 accumulate in platelet co mponents during storage because of platelet activation, and they may play a causative role in nonhemolytic febrile transfusion reactions. The majority of PCs with high unit values are provided by single donor apheresis in Jap an. STUDY DESIGN AND METHODS: RANTES and TGF-beta 1 levels in platelet units pr epared from single-donor apheresis platelet concentrates (apheresis PCs) an d units from whole blood (buffy coat PCs) were investigated. The effects of prestorage and poststorage filtration and gamma radiation on the levels of RANTES and TGF beta 1 in the supernatant of apheresis PCs during storage w ere also examined. RESULTS: The levels of RANTES and TGF-beta 1 increased during storage from Day 0 to Day 5. The levels of RANTES and of TGF-beta 1 correlated with the platelet concentration (p<0.01), but not with the residual white cell conce ntration in apheresis PCs that were not white cell reduced by filtration (p >0.05). In addition, there was a correlation between RANTES and TGF-beta 1 levels (p<0.01). In white cell-reduced apheresis PCs using negatively charg ed filters as well as in gamma-radiated apheresis PCs, the levels of these two BRMs did not differ at any storage time from those of untreated apheres is PCs. Filtration of apheresis PCs with negatively charged filters after 3 days of storage significantly (p<0.05) reduced the levels of RANTES, but n ot of TGF-beta 1. There was no reduction in the levels of RANTES and TGF-be ta 1 levels by positively charged filters. The RANTES levels in buffy coat PCs were slightly higher than but not significantly different from those of apheresis PCs during storage, except for the level on Day 1. There were no differences in the TGF-beta 1 levels in apheresis and buffy coat PCs durin g storage. CONCLUSION: Prestorage filtration and gamma radiation had neither preventiv e effects on the accumulation of RANTES and TGF-beta 1 nor adverse effects on platelet activation. Negatively charged filters might be useful for the reducing the levels of RANTES in stored apheresis PCs.