In order to achieve the objective of study, the mixtures were formulated using clay, nepheline syenite and talc, normally used as fluxing agents.
The mixtures were formulated using cement kiln dust, zeolite, and bentonite, normally used as natural adsorbents in the industrial scale, according to mixture design algorithm and response surface method.
For this reason, surrogate mixtures are formulated to emulate the thermophysical, thermochemical, and chemical kinetic properties of the real fuel, so that fundamental experiments and predictive simulations can be conducted.
Statistical combinations of three-component mixtures were formulated to investigate the unconfined compressive strength (UCS) of CLSM comprising: Portland cement, fly ash and mine flotation tailings from a Ni Cu ore.
Cocoa powder mixtures were formulated with cocoa powders of different fat content (10 12 g/100 g and 16 18 g/100 g) and various sweeteners (carbohydrate sweeteners, sugar alcohols, intense sweeteners, bulking agents) and then subjected to agglomeration.
Various surrogate fuel mixtures were formulated to conduct chemical kinetic modeling, and complex multicomponent surrogate mixtures were shown to reproduce experimentally observed trends better than simpler two- and three-component mixtures composed of n-heptane, iso-octane, and toluene.
Surfactant mixtures were formulated by the synthesized hexadecylbenzene sulfonate and Kelamayi petroleum sulfonate.
Six additional body mixtures were formulated partially by replacing 0, 3, 4.5, 6, 7.5 and 9 wt% of potassium feldspar by white cement.
To examine the performance of the GDS and slag with regard to compressive strength, the control and the four blended mortar mixtures were formulated with a binder composition similar to that used for paste mixtures.
The dynamics of the bubbly mixture is formulated using volume-averaged equations of motion.
