Heat and Water Vapor Transport Properties of Selected Commercially Produced Plasters

Monika Čáchová; Dana Koňáková; Eva Vejmelková; Martin Keppert; Kirill Polozhiy; Robert Černý

doi:10.4028/www.scientific.net/AMR.982.90

Paper Titles

Application of Digital Optical Microscopy in Materials and Mechanical Engineering: Optical Porosimetry and Crack Detection
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Mechanical Behavior of the Cement Mortar with High Amount of Municipal Solid Waste Incineration (MSWI) Bottom Ash as an Alternative Aggregate
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A Comparative Study on Thermal Properties of Two Types of Concrete Containing Fine Ceramic Waste and Burnt Clay Shale as a Supplementary Material
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Numerical Study of the Influence of Internal Blast on the Earth Covered Composite Arch
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Heat and Water Vapor Transport Properties of Selected Commercially Produced Plasters
p.90

Fracture Surface Measurement of Concrete with Respect to Loading Speed
p.94

Thermal Properties of Selected Timbers
p.100

Pore Structure and Thermal Characteristics of Clay Bricks
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New Type of Lightweight Gypsum-Based Material
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HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 982Heat and Water Vapor Transport Properties of...

Heat and Water Vapor Transport Properties of Selected Commercially Produced Plasters

Abstract:

Although plaster belonged to the first structural materials, they are still getting further enhancements. Nowadays different companies are producing and selling plasters that differ either in their composition or purpose. This article is comparing plasters presented on the market in the Czech Republic. Those are lightweight, renovation and even most common lime-cement plasters. Among the studied characteristics were: basic physical properties (for comparison were measurement of two methods: vacuum water saturation and helium pycnometry); they water vapor transport parameters and heat transport parameters. Lightweight and renovation plasters had shown the biggest porosity, lowest thermal conductivity and the highest diffusion resistance factor.

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Periodical:

Advanced Materials Research (Volume 982)

Pages:

90-93

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.982.90

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Online since:

July 2014

Authors:

Monika Čáchová*, Dana Koňáková, Eva Vejmelková, Martin Keppert, Kirill Polozhiy, Robert Černý

Keywords:

Basic Physical Properties, Cup Method, Lime, Moisture Properties, Plaster, Pore

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