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Influence of initial casting temperature and dosage of fly ash on hydration heat evolution of concrete under adiabatic condition

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Abstract

The calorimetric data of binders containing pure Portland cement, 20% fly ash, 20% slag and 10% silica fume respectively are determined at different initial casting temperatures using an adiabatic calorimeter to measure the adiabatic temperature rising of concrete. The calorimetric data of binders with different dosages of fly ash at two water binder ratios (w/b) are determined, too. Elevation of initial casting temperature decreases the heat evolution of binder, enhances the heat evolution rate of binder and increases the heat evolution rate of binder at early age. The dosage of fly ash in concrete has different effects on the heat evolution of binder with different w/b. At high w/b ratio the heat evolution of binder decreases when dosage of fly ash increases. At low w/b ratio the heat evolution of binders increases when dosage of fly ash increases from 0 to 40% of total binder quantity. The heat evolution of binder decreases after the dosage of fly ash over 40%. An appropriate dosage of fly ash in binder benefits the performance of concrete at low w/b ratio.

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Correspondence to J. C. Wang.

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Wang, J.C., Yan, P.Y. Influence of initial casting temperature and dosage of fly ash on hydration heat evolution of concrete under adiabatic condition. J Therm Anal Calorim 85, 755–760 (2006). https://doi.org/10.1007/s10973-005-7141-6

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  • DOI: https://doi.org/10.1007/s10973-005-7141-6

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