Analysis of glass fiber reinforced cement composites and their thermal and hygric material parameters

Methods of thermal analysis are employed in a study of the high-temperature properties of three different types of glass fiber reinforced cement composites together with the measurements of their thermal and hygric parameters. First, basic TG and DTG measurements are carried out to get the first ins...

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Veröffentlicht in:Journal of thermal analysis and calorimetry 2004, Vol.77 (1), p.85-97
Hauptverfasser: PODEBRADSKA, J, CERNY, R, DRCHALOVA, J, ROVNANIKOVA, P, SESTAK, J
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container_issue 1
container_start_page 85
container_title Journal of thermal analysis and calorimetry
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creator PODEBRADSKA, J
CERNY, R
DRCHALOVA, J
ROVNANIKOVA, P
SESTAK, J
description Methods of thermal analysis are employed in a study of the high-temperature properties of three different types of glass fiber reinforced cement composites together with the measurements of their thermal and hygric parameters. First, basic TG and DTG measurements are carried out to get the first insight into the high-temperature behavior of the analyzed materials. Then, mercury porosimetry and scanning electron microscopy of specimens subjected to the temperatures of 600 and 800°C are performed and compared to the reference specimens not exposed to any thermal load. Finally, measurements of thermal and hygric parameters of the studied materials are done and matched with the results of the material characterization experiments. Three main effects are found to influence the thermal and hygric properties of the analyzed materials. The first is the decomposition of the cement matrix, which is clearly a negative factor. The second is the positive effect of the presence of fibers that could partially keep the cement matrix together even after significant decomposition of cement hydration products. The third important factor affecting the thermal and hygric properties is the composition of the particular materials. The application of vermiculite aggregates instead of sand is found to be clearly positive because of its porous character leading to the bulk density decrease without worsening the other properties. Also, wollastonite aggregates are a better choice than sand because of its fibrous character that could partially magnify the effect of fiber reinforcement.
doi_str_mv 10.1023/B:JTAN.0000033191.59911.4d
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subjects Aggregates
Applied sciences
Buildings. Public works
Bulk density
Cement hydration
Cement reinforcements
Decomposition
Exact sciences and technology
Fiber composites
Fiber reinforcement
Glass fiber reinforced cements
Glass fibers
High temperature
Materials
Miscellaneous (including polymer concrete, repair and maintenance products, etc.)
Parameters
Reinforced cements
Sand
Thermal analysis
Vermiculite
Wollastonite
title Analysis of glass fiber reinforced cement composites and their thermal and hygric material parameters
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