Details on the employed chemicals and the membrane preparation process can be found in the Supporting Information.
Future research efforts should be dedicated to membrane preparation for high biomass applications, process optimization, and pilot-scale/full-scale tracking research in order to push forward the real and wide applications of the hybrid membrane systems for sludge minimization and treatment.
Basic principles, membrane materials, membrane preparation technologies, membrane module configurations and process designs involved in these operations are described.
This paper reviews the fabrication aspects of carbon membranes, which can be divided into six steps: precursor selection, polymeric membrane preparation, pretreatment of the precursor, pyrolysis process, post-treatment of pyrolyzed membranes and module construction.
The results indicated that the TiO2 nanoparticles which were synthesized by a microwave hydrothermal method were successfully acted as a photo-catalyst absorbed the UV beam; consequently the cross-linking of the PVA matrix was occurred during the membrane preparation via the UV-irradiated electrospinning process.
Disparate characteristics (e.g., solubility and thermal stability) of the two components, provide potential barriers towards convenient membrane preparation strategies, but recent research demonstrates relatively simple processes for developing highly efficient nanocomposite PEMs.
This work reports the flat sheet membrane preparation from syndiotactic polypropylene (sPP) by thermally induced phase separation (TIPS) process.
Other problems are the application of the modification technique to membrane preparation, the investigation of morphology and functional properties of the composite materials, the testing of the membranes in the process of desalination of crude glycerol.
Prior to membrane preparation, pellets were stored at − 80 °C.
The semi-IPN structure was formed during the membrane preparation.
