All these mixtures were subjected to electrophoresis using a 12% native polyacrylamide gel.
The mixtures were subjected to thermal transformation in a chamber furnace, under conditions without air.
Resultant mixtures were subjected to HPAEC-PAD using mobile phase of 100 mM NaOH with 10 mM sodium acetate.
The composite mixtures were subjected to the compression, split tensile and flexural tests.
Samples of these mixtures were subjected to various tests aimed at assessing both their structural properties and durability performance.
The reaction mixtures were subjected to a 33% sucrose cushion-based centrifugation and the binding was detected by Tricine-SDS-PAGE (Fig. 3D).
Ti Si mixtures were subjected to high-strain-rate deformation at a pressure below the threshold for shock-wave initiation.
The mixtures were subjected to UV irradiation using reduction factor lamp (Vilber Lourmat-6.LC, France) at wavelength (λ = 254 nm) for 10 min according to Supraja et al. [24] (Fig. 1).
DCBE was mixed with [HPyr][BF4] in a given ratio (the content of [HPyr][BF4] was equal to 20, 30, and 40 wt%), and the homogeneous mixtures were subjected to an ultrasonic bath at 60 °C for 30 min.
Mixtures were subjected not only to conventional tests for mix design purposes, but also to advanced tests for performance evaluation such as rutting resistance and fatigue resistance.
The BC mixtures were subjected to performance tests such as indirect tensile strength, indirect tensile strength ratio, static creep and resilient modulus at different temperatures and rutting resistance by wheel tracking test.
