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The roles of hydration and evaporation during the drying of a cement paste by localized NMR
The moisture distribution during the setting of a thin mortar layer can be particularly complex to manage under dry (20% RH) and hot weather (above 25°C) conditions. To better understand the fundamental phenomena at stake, we used static gradient relaxation NMR tools such as Profile MOUSE and STRAFI...
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Published in: | Cement and concrete research 2013-06, Vol.48, p.86-96 |
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container_title | Cement and concrete research |
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creator | Van Landeghem, Maxime d'Espinose de Lacaillerie, Jean-Baptiste Blümich, Bernhard Korb, Jean-Pierre Bresson, Bruno |
description | The moisture distribution during the setting of a thin mortar layer can be particularly complex to manage under dry (20% RH) and hot weather (above 25°C) conditions. To better understand the fundamental phenomena at stake, we used static gradient relaxation NMR tools such as Profile MOUSE and STRAFI. This allowed disentangling the mutual effect of evaporation and self-desiccation by hydration. The interest of combining the two techniques is that the capillary water is observed with the MOUSE while STRAFI reveals quantitatively the build-up of the hydrate gel nanostructure. Spatially resolved and 2D relaxation exchange experiments on a model white cement paste revealed that although evaporation induced a capillary water gradient, the kinetics of the building of the pore structure and its homogeneity remained unaffected. |
doi_str_mv | 10.1016/j.cemconres.2013.01.012 |
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subjects | Accumulation Applied sciences Buildings. Public works Capillarity Cement concrete constituents Cements Condensed Matter Drying Drying (A) Evaporation Exact sciences and technology Humidity (A) Hydration Hydration (A) Materials Nuclear magnetic resonance Pastes Physics Pore Size Distribution (B) Properties of anhydrous and hydrated cement, test methods Soft Condensed Matter Transport Properties (C) |
title | The roles of hydration and evaporation during the drying of a cement paste by localized NMR |
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