Hygrothermal properties of stabilized earthen masonry blocks
By: Sreekumar, M. G.
Contributor(s): Nair, Deepa G.
Publisher: USA Springer 2022Edition: Vol.103(4), Dec.Description: 1127-1134p.Subject(s): Humanities and Applied SciencesOnline resources: Clikc here In: Journal of the institution of engineers (India): Series ASummary: Energy efficiency in building construction is the main focus of modern construction practices. Earthen construction is gaining more attention in this respect. Moisture buffering value of unstabilized earthen materials is a peculiar characteristic contributing to this objective. At the same time, excessive moisture content leads to reduced mechanical strength. Most of the conventional stabilization methods adversely affect the assured thermal comfort of earthen construction. However, the feasibility of fiber stabilization in improving the hygrothermal properties of stabilized earthen blocks along with strength enhancement is not been explored properly. This study is focused on this objective to investigate the feasibility of locally available fibrous wastes. The results of the study showed improved thermal comfort with better moisture buffering properties and enhanced strength characteristics for coir fiber-reinforced specimens, and could establish the feasibility of coir fiber wastes as reinforcements in stabilized soil masonry blocks suitable for energy-efficient construction.Item type | Current location | Call number | Status | Date due | Barcode | Item holds |
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Articles Abstract Database | School of Engineering & Technology Archieval Section | Not for loan | 2023-0350 |
Energy efficiency in building construction is the main focus of modern construction practices. Earthen construction is gaining more attention in this respect. Moisture buffering value of unstabilized earthen materials is a peculiar characteristic contributing to this objective. At the same time, excessive moisture content leads to reduced mechanical strength. Most of the conventional stabilization methods adversely affect the assured thermal comfort of earthen construction. However, the feasibility of fiber stabilization in improving the hygrothermal properties of stabilized earthen blocks along with strength enhancement is not been explored properly. This study is focused on this objective to investigate the feasibility of locally available fibrous wastes. The results of the study showed improved thermal comfort with better moisture buffering properties and enhanced strength characteristics for coir fiber-reinforced specimens, and could establish the feasibility of coir fiber wastes as reinforcements in stabilized soil masonry blocks suitable for energy-efficient construction.
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