Literature DB >> 33000752

The effect of pathogen inactivation on cryoprecipitate: a functional and quantitative evaluation.

Reed W Kamyszek1,2, Matthew W Foster3, Brooke A Evans2, Keaton Stoner4, Jessica Poisson5, Amudan J Srinivasan6, J Will Thompson3, M Arthur Moseley3, Micah J Mooberry7, Ian J Welsby8.   

Abstract

BACKGROUND: As a pooled donor blood product, cryoprecipitate (cryo) carries risks of pathogen transmission. Pathogen inactivation (PI) improves the safety of cryoprecipitate, but its effects on haemostatic properties remain unclear. This study investigated protein expression in samples of pathogen inactivated cryoprecipitate (PI-cryo) using non-targeted quantitative proteomics and in vitro haemostatic capacity of PI-cryo.
MATERIALS AND METHODS: Whole blood (WB)- and apheresis (APH)-derived plasma was subject to PI with INTERCEPT® Blood System (Cerus Corporation, Concord, CA, USA) and cryo was prepared from treated plasma. Protein levels in PI-cryo and paired controls were quantified using liquid chromatography-tandem mass spectrometry. Functional haemostatic properties of PI-cryo were assessed using a microparticle (MP) prothrombinase assay, thrombin generation assay, and an in vitro coagulopathy model subjected to thromboelastometry.
RESULTS: Over 300 proteins were quantified across paired PI-cryo and controls. PI did not alter the expression of coagulation factors, but levels of platelet-derived proteins and platelet-derived MPs were markedly lower in the WB PI-cryo group. Compared to controls, WB (but not APH) cryo samples demonstrated significantly lower MP prothrombinase activity, prolonged clotting time, and lower clot firmness on thromboelastometry after PI. However, PI did not affect overall thrombin generation variables in either group. DISCUSSION: Data from this study suggest that PI via INTERCEPT® Blood System does not significantly impact the coagulation factor content or function of cryo but reduces the higher MP content in WB-derived cryo. PI-cryo products may confer benefits in reducing pathogen transmission without affecting haemostatic function, but further in vivo assessment is warranted.

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Year:  2020        PMID: 33000752      PMCID: PMC7605883          DOI: 10.2450/2020.0077-20

Source DB:  PubMed          Journal:  Blood Transfus        ISSN: 1723-2007            Impact factor:   3.443


  40 in total

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Journal:  Transfus Apher Sci       Date:  2012-02-17       Impact factor: 1.764

2.  Cryoprecipitate use in the PROMMTT study.

Authors:  John B Holcomb; Erin E Fox; Xuan Zhang; Nathan White; Charles E Wade; Bryan A Cotton; Deborah J del Junco; Eileen M Bulger; Mitchell J Cohen; Martin A Schreiber; John G Myers; Karen J Brasel; Herb A Phelan; Louis H Alarcon; Peter Muskat; Mohammad H Rahbar
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3.  Efficacy of a new pathogen-reduced cryoprecipitate stored 5 days after thawing to correct dilutional coagulopathy in vitro.

Authors:  Melissa M Cushing; Lars M Asmis; Rebecca M Harris; Robert A DeSimone; Shanna Hill; Natalia Ivascu; Thorsten Haas
Journal:  Transfusion       Date:  2019-02-04       Impact factor: 3.157

4.  Quantitative and qualitative analysis of coagulation factors in cryoprecipitate prepared from fresh-frozen plasma inactivated with amotosalen and ultraviolet A light.

Authors:  Joan Cid; Carolina Caballo; Marc Pino; Ana M Galan; Nuria Martínez; Ginés Escolar; Maribel Diaz-Ricart
Journal:  Transfusion       Date:  2012-06-28       Impact factor: 3.157

5.  Effects of pre-analytical heat treatment in factor VIII (FVIII) inhibitor assays on FVIII antibody levels.

Authors:  B Boylan; C H Miller
Journal:  Haemophilia       Date:  2018-02-20       Impact factor: 4.287

6.  Cleavage of human von Willebrand factor by platelet calcium-activated protease.

Authors:  T J Kunicki; R R Montgomery; J Schullek
Journal:  Blood       Date:  1985-02       Impact factor: 22.113

7.  Analysis of platelet-derived extracellular vesicles in plateletpheresis concentrates: a multicenter study.

Authors:  Anne Black; Evelyn Orsó; Reinhard Kelsch; Melanie Pereira; Julian Kamhieh-Milz; Abdulgabar Salama; Michael B Fischer; Eduardo Meyer; Beat M Frey; Gerd Schmitz
Journal:  Transfusion       Date:  2017-04-10       Impact factor: 3.157

8.  Thrombin generation and clot formation in methylene blue-treated plasma and cryoprecipitate.

Authors:  Rebecca Cardigan; Katherine Philpot; Philip Cookson; Roger Luddington
Journal:  Transfusion       Date:  2009-01-05       Impact factor: 3.157

9.  Paired analysis of plasma proteins and coagulant capacity after treatment with three methods of pathogen reduction.

Authors:  José Coene; Katrien Devreese; Bea Sabot; Hendrik B Feys; Philippe Vandekerckhove; Veerle Compernolle
Journal:  Transfusion       Date:  2013-10-22       Impact factor: 3.157

10.  Early cryoprecipitate for major haemorrhage in trauma: a randomised controlled feasibility trial.

Authors:  N Curry; C Rourke; R Davenport; S Beer; L Pankhurst; A Deary; H Thomas; C Llewelyn; L Green; H Doughty; G Nordmann; K Brohi; S Stanworth
Journal:  Br J Anaesth       Date:  2015-05-19       Impact factor: 9.166

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Authors:  Albert Farrugia; Vincenzo De Angelis
Journal:  Blood Transfus       Date:  2020-08-06       Impact factor: 3.443

2.  Effects of pathogen reduction technology and storage duration on the ability of cryoprecipitate to rescue induced coagulopathies in vitro.

Authors:  Kimberly A Thomas; Susan M Shea; Philip C Spinella
Journal:  Transfusion       Date:  2021-03-23       Impact factor: 3.157

3.  Preparation and Storage of Cryoprecipitate Derived from Amotosalen and UVA-Treated Apheresis Plasma and Assessment of In Vitro Quality Parameters.

Authors:  Katarina Kovacic Krizanic; Florian Prüller; Konrad Rosskopf; Jean-Marc Payrat; Silke Andresen; Peter Schlenke
Journal:  Pathogens       Date:  2022-07-18

4.  Comparison of Bacterial Risk in Cryo AHF and Pathogen Reduced Cryoprecipitated Fibrinogen Complex.

Authors:  Thea Lu; Pallavi Nahata; Aja Johnson; Nadia Keltner; Lindsay Peters; Melissa McCormack; Bianca Muñoz; Mary Krath; Elan Weiner; Peter Bringmann
Journal:  Pathogens       Date:  2022-06-30
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