This study investigated the strength and microstructural characteristics of modified sulfur polymer composites employing several industrial wastes (such as sulfur and rubber) and binary cement (blend of fly ash and Portland cement) as primary components.
The next time you put on a bit of mascara, take a second to think about the ladies of yore (the Victorian era, specifically) who used to whip up a scary-sounding blend of lamp ash and elderberry juice to make a DIY lash darkener of sorts.
The velocity of the moving bed, blending ratio of ash to coal, coal particle size, preheating temperature of coal and initial temperature of ash have obvious influence on the devolatilization process.
This paper aims at correlating the stability characteristics to material performance of self-consolidating concrete-equivalent-mortars (SCCEMs) made with various binary and ternary cement blends of fly ash (FA) and metakaolin (MK).
This paper presents the experimental results of a research carried out on the strength and permeability related properties of high performance concretes made with binary and ternary cementitious blends of fly ash (FA) and metakaolin (MK).
To overcome this problem, ternary blend of OPC, fly ash and silica fume is used.
Geopolymer cement was produced from the blend of high calcium fly ash and ordinary Portland cement (OPC), sodium hydroxide and sodium silicate.
Blends of brown coal ash with selected black coal fly ash (class F) and blast furnace slag were developed for compressive strength and durability tests.
The IDT and FT of the blends ashes of peat of less than 30% was about 1260 and 1410 °C, respectively, and was not expected to be associated with slagging and fouling in pulverized coal fired systems.
The control mixture contained only Portland cement (PC) as the binder while the remaining mixtures incorporated binary and ternary cementitious blends of PC, fly ash (FA) and silica fume (SF).
