Masoud Babaei

Dr. Masoud Babaei

School of Chemical Engineering & Analytical Science, University of Manchester
orcid

Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 April 2019 in Advances in Water Resources
Verified
Journal Article
Closed access
ARArash Rabbani
Arash Rabbani
Masoud BabaeiMasoud Babaei
Masoud Babaei

1 May 2020 in Geoderma
Verified
Journal Article
Closed access
MMManoj Menon
Manoj Menon
TMTinashe Mawodza
Tinashe Mawodza
ARArash Rabbani
Arash Rabbani
ABAimeric Blaud
Aimeric Blaud
GLGeorg J. Lair
Georg J. Lair
SBSteven Banwart
Steven Banwart

6 April 2016 in Environmental Science & Technology
Verified
Journal Article
Closed access
NKNikolaos K. Karadimitriou
Nikolaos K. Karadimitriou
VNVahid Niasar
Vahid Niasar
Masoud BabaeiMasoud Babaei
Masoud Babaei
CSCraig A. Shore
Craig A. Shore


3 February 2021 in Energy & Fuels
Verified
Journal Article
Closed access
FJFarzam Javadpour
Farzam Javadpour
HSHarpreet Singh
Harpreet Singh
ARArash Rabbani
Arash Rabbani
Masoud BabaeiMasoud Babaei
Masoud Babaei
SESamira Enayati
Samira Enayati

20 March 2017 in ACS Applied Materials & Interfaces
Verified
Journal Article
Open access
MRMayamin Razali
Mayamin Razali
CDChristos Didaskalou
Christos Didaskalou
JKJeong F. Kim
Jeong F. Kim
Masoud BabaeiMasoud Babaei
Masoud Babaei
Enrico DrioliEnrico Drioli
Enrico Drioli
G SG S
G S
It is well-known that solvent treatment and preconditioning play an important role in rejection and flux performance of membranes due to solvent-induced swelling and solvent adsorption. Investigations into the effect of solvent treatment are scarce and application specific, and were limited to a few solvents only. This study reveals the trend in solvent treatment based on solvent polarity in a systematic investigation with the aim to harness such effect for intensification of membrane processes. Nine solvents with polarity indices ranging from 0.1 to 5.8 (hexane to acetonitrile) were used as treatment and process solvents on commercial Borsig GMT-oNF-2, Evonik Duramem 300, and emerging tailor-made polybenzimidazole membranes. TGA-GCMS, HS-GC-FID, and NMR techniques were employed to better understand the effect of solvent treatment on the polymer matrix of membranes. In this work, apart from the solvent treatment’s direct effect on the membrane performance, a subsequent indirect effect on the ultimate separation process was observed. Consequently, a pharmaceutical case study employing chlorhexidine disinfectant and antiseptic was used to demonstrate the effect of solvent treatment on the nanofiltration-based purification. It is shown that treatment of polybenzimidazole membranes with acetone resulted in a 25% increase in product recovery at 99% impurity removal. The cost of the process intensification is negligible in terms of solvent consumption, mass intensity, and processing time.