The same extract at 250 μg/mL showed the best membrane cell stability compared to others.
In addition, preservation of the activity and integrity of Rubisco, higher rates of photosynthesis and greater membrane stability as compared to SR1 controls and the three less tolerant transgenic lines was also evident.
In addition, the modified membrane showed excellent thermal and chemical stability, compared with polymer-based membranes.
The aim of this study was to design high-performance separator membranes with enhanced electrochemical performance and good thermal stability compared to microporous polyolefin membranes.
Water vapor plasma treatment of hydrophobic polypropylene membranes demonstrated increased membrane aqueous wettability; however, were limited by treatment stability compared to hydrophobic treatments.
The prepared nanocomposite membranes showed a higher acid uptake, proton conductivity and thermal stability compared with the pure PBI membranes.
These new polymers show promising results regarding consistency and longer stability compared to PVC membranes [24].
The aim of this study was to design new high-performance separator membranes with superior electrochemical properties such as high C-rate performance and good thermal stability compared to polyolefin based membranes.
Additionally, membrane proteins complexed with amphipols have an increased stability compared with those in detergent.
Nafion/Fe2TiO5 nanocomposite membranes for proton exchange membrane fuel cells (PEMFCs) were investigated and showed a higher water uptake, proton conductivity and thermal stability compared with the pure commercial Nafion membranes [17].
