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Flow Dynamic Analysis by Contrast-Enhanced Imaging Techniques of Medium Cutoff Membrane Hemodialyzer
Author(s) -
Anna Lorenzin,
Gianlorenzo Golino,
Massimo de Cal,
Giordano Pajarin,
Sergio Savastano,
Andrea Lupi,
Alessandra Sandini,
Francesco Fiorin,
Claudio Ronco
Publication year - 2021
Publication title -
blood purification
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.686
H-Index - 57
eISSN - 1421-9735
pISSN - 0253-5068
DOI - 10.1159/000516411
Subject(s) - filtration (mathematics) , membrane , ultrafiltration (renal) , chemistry , blood flow , cross flow filtration , chromatography , biomedical engineering , materials science , mechanics , medicine , mathematics , cardiology , physics , biochemistry , statistics
Medium cutoff (MCO) membranes represent an interesting innovation in the field of hemodialysis. Given the correlation between large (PM >25 kDa) middle molecules (LMM) and clinical outcomes, the possibility to broaden the spectrum of solutes removed in hemodialysis with MCO membranes introduces a new perspective for end-stage kidney disease patients. Due to low diffusion coefficients of LMM, the use of convection is required to maximize extracorporeal clearance. High convective rates are achieved with high-flux membranes in hemodiafiltration, a technique not available in the US. In case of the MCO membrane, remarkable clearances of LMM are achieved combining the permeability of the membrane with a significant amount of internal convection. The mechanism of filtration-backfiltration inside the dialyzer enables effective removal of LMM in a technique called expanded hemodialysis (HDx). Given such theoretical explanation, it is important to demonstrate the blood and ultrafiltration rheology inside the MCO dialyzer.

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