This paper investigates the viability of using waste glycerin (WG), industry lignin (IL) and cane molasses (CM) used as grinding aids in blended cement, performance of the blended cement with single and composite grinding aids were researched.
The results show that phase morphology has a great effect on the mechanical performance of these blends.
The phase specific localization of the reinforcing fillers like carbon black (CB), which has been known to influence the physical and mechanical performance of the rubber blends, can be determined by different characterization techniques, however, only for binary rubber blends.
It was found that oom-T8PLLA5PCL3 could reduce the dispersed PCL phase size in PLLA matrix and enhance the properties of PLLA/PCL polymer blends, which was reflected in the increase of Izod impact strength and tensile performance of the polymer blends.
Based on the performance of the recycled blends, the method to restore high-temperature PG is recommended to determine the optimum recycling agent dosage.
The mechanical performance of the modified blends is strikingly dependent not only on the interfacial activity of the copolymers but also on the mechanical properties of the copolymers, particularly at the high copolymer concentration.
The high performance of this blend was attributed to not only the inhibition of forming large acceptor crystallites, but it was also proposed that there was a formation of a 3D charge-transporting network created from its unique 3D molecular structure, with corresponding improved electron mobility.
Voltage drop values, conductivity measurements, and AC impedance measurements show the good performance of the LiBOB/LiBF4 blend electrolytes.
Sensitivity analysis is performed to derive the effect of perfect and imperfect interface properties on the mechanical performance of the biopolymer blend.
Thermal, mechanical and morphological analyses were performed in order to show the better performances of these blends compared to mechanical ones obtained without the use of the compatibiliser.
