Literature DB >> 28150311

Spherocytic shift of red blood cells during storage provides a quantitative whole cell-based marker of the storage lesion.

Camille Roussel1,2, Michaël Dussiot2, Mickaël Marin3, Alexandre Morel2, Papa Alioune Ndour1, Julien Duez1, Caroline Le Van Kim3, Olivier Hermine2,4, Yves Colin3, Pierre A Buffet1, Pascal Amireault3,2.   

Abstract

BACKGROUND: Storage lesion may explain the rapid clearance of up to 25% of transfused red blood cells (RBCs) in recipients. Several alterations affect stored RBC but a quantitative, whole cell-based predictor of transfusion yield is lacking. Because RBCs with reduced surface area are retained by the spleen, we quantified changes in RBC dimensions during storage. STUDY DESIGN AND METHODS: Using imaging flow cytometry we observed the dimension and morphology of RBCs upon storage, along with that of conventional biochemical and mechanical markers of storage lesion. We then validated these findings using differential interference contrast (DIC) microscopy and quantified the accumulation of microparticles (MPs).
RESULTS: Mean projected surface area of the whole RBC population decreased from 72.4 to 68.4 µm2 , a change resulting from the appearance of a well-demarcated subpopulation of RBCs with reduced mean projected surface (58 µm2 , 15.2%-19.9% reduction). These "small RBCs" accounted for 4.9 and 23.6% of all RBCs on Days 3 and 42 of storage, respectively. DIC microscopy confirmed that small RBCs had shifted upon storage from discocytes to echinocytes III, spheroechinocytes, and spherocytes. Glycophorin A-positive MPs and small RBCs appeared after similar kinetics.
CONCLUSION: The reduction in surface area of small RBCs is expected to induce their retention by the spleen. We propose that small RBCs generated by MP-induced membrane loss are preferentially cleared from the circulation shortly after transfusion of long-stored blood. Their operator-independent quantification using imaging flow cytometry may provide a marker of storage lesion potentially predictive of transfusion yield.
© 2017 AABB.

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Year:  2017        PMID: 28150311     DOI: 10.1111/trf.14015

Source DB:  PubMed          Journal:  Transfusion        ISSN: 0041-1132            Impact factor:   3.157


  22 in total

1.  High-throughput microsphiltration to assess red blood cell deformability and screen for malaria transmission-blocking drugs.

Authors:  Julien Duez; Mario Carucci; Irene Garcia-Barbazan; Matias Corral; Oscar Perez; Jesus Luis Presa; Benoit Henry; Camille Roussel; Papa Alioune Ndour; Noemi Bahamontes Rosa; Laura Sanz; Francisco-Javier Gamo; Pierre Buffet
Journal:  Nat Protoc       Date:  2018-05-24       Impact factor: 13.491

Review 2.  Red blood cell storage lesion: causes and potential clinical consequences.

Authors:  Tatsuro Yoshida; Michel Prudent; Angelo D'alessandro
Journal:  Blood Transfus       Date:  2019-01       Impact factor: 3.443

3.  Donor-dependent aging of young and old red blood cell subpopulations: Metabolic and functional heterogeneity.

Authors:  Olga Mykhailova; Carly Olafson; Tracey R Turner; Angelo DʼAlessandro; Jason P Acker
Journal:  Transfusion       Date:  2020-08-19       Impact factor: 3.157

4.  Noninferior Red Cell Concentrate Quality after Repeated Air Rescue Mission Transport for Prehospital Transfusion.

Authors:  Clemens Boecker; Nicole Sitzmann; Jose Luis Halblaub Miranda; Hajo Suhr; Philipp Wiedemann; Karen Bieback; Marcus Rudolph; Harald Klüter
Journal:  Transfus Med Hemother       Date:  2022-02-15       Impact factor: 4.040

5.  A 3D-printed transfusion platform reveals beneficial effects of normoglycemic erythrocyte storage solutions and a novel rejuvenating solution.

Authors:  Yueli Liu; Laura E Hesse; Morgan K Geiger; Kurt R Zinn; Timothy J McMahon; Chengpeng Chen; Dana M Spence
Journal:  Lab Chip       Date:  2022-03-29       Impact factor: 7.517

6.  Transition to 37°C reveals importance of NADPH in mitigating oxidative stress in stored RBCs.

Authors:  Aline Roch; Nicholas J Magon; Jessica Maire; Cacang Suarna; Anita Ayer; Sophie Waldvogel; Beat A Imhof; Mark J Koury; Roland Stocker; Marc Schapira
Journal:  JCI Insight       Date:  2019-11-01

7.  The Blood Bag Plasticizer Di-2-Ethylhexylphthalate Causes Red Blood Cells to Form Stomatocytes, Possibly by Inducing Lipid Flip-Flop.

Authors:  Kathryn A Melzak; Stefanie Uhlig; Frank Kirschhöfer; Gerald Brenner-Weiss; Karen Bieback
Journal:  Transfus Med Hemother       Date:  2018-10-30       Impact factor: 3.747

8.  Rapid clearance of storage-induced microerythrocytes alters transfusion recovery.

Authors:  Camille Roussel; Alexandre Morel; Michaël Dussiot; Mickaël Marin; Martin Colard; Aurélie Fricot-Monsinjon; Anaïs Martinez; Charlotte Chambrion; Benoît Henry; Madeleine Casimir; Geoffroy Volle; Mallorie Dépond; Safi Dokmak; François Paye; Alain Sauvanet; Caroline Le Van Kim; Yves Colin; Sonia Georgeault; Philippe Roingeard; Steven L Spitalnik; Papa Alioune Ndour; Olivier Hermine; Eldad A Hod; Pierre A Buffet; Pascal Amireault
Journal:  Blood       Date:  2021-04-29       Impact factor: 22.113

9.  Dynamics of shape recovery by stored red blood cells during washing at the single cell level.

Authors:  Madeleine Lu; Sergey S Shevkoplyas
Journal:  Transfusion       Date:  2020-08-04       Impact factor: 3.337

10.  Morphology, membrane nanostructure and stiffness for quality assessment of packed red blood cells.

Authors:  E Kozlova; A Chernysh; V Moroz; V Sergunova; O Gudkova; E Manchenko
Journal:  Sci Rep       Date:  2017-08-10       Impact factor: 4.379

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