Development of a Self-Cured Alkali-Activated Mortar

Alkali-activated mortars (AAM) can be produced with self-curing (SC), which supplies internal moisture to accelerate alkaline-activation reactions. The aim of using SC is to make AAMs with an early-age strength without any additional curing energy consumption and higher CO2 emissions, and to obt...

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Main Author: Kübra Ekiz Barıs
Format: Article
Language:English
Published: Yildiz Technical University 2025-06-01
Series:Journal of Sustainable Construction Materials and Technologies
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author Kübra Ekiz Barıs
author_facet Kübra Ekiz Barıs
author_sort Kübra Ekiz Barıs
collection DOAJ
description Alkali-activated mortars (AAM) can be produced with self-curing (SC), which supplies internal moisture to accelerate alkaline-activation reactions. The aim of using SC is to make AAMs with an early-age strength without any additional curing energy consumption and higher CO2 emissions, and to obtain in-situ practical advantages that enable the large scale application of AAMs. The previous study produced natural pozzolan-based AAMs by applying energy-intensive heat (HC), microwave (MWC), and hybrid (HC+MWC) curing. This study investigates alternative curing regimes that reduce production energy without compromising material properties. The impacts of air curing (AC), water curing (WC), and SC on the properties were investigated. PEG 400 was used as an SC agent. The key findings of the research can be summarized as follows: AC and SC were determined as alternative methods, whereas WC didn’t show a positive effect on the properties at either early or later periods. Increasing the curing period from 7 to 90 days greatly improves the properties. However, this increasing rate after 90 days was lower than in the early period. The properties after 28-day ACandSCmetthevalues of HC and MWC.Thehighest compressive strength (19.20 MPa), flexural strength (3.35 MPa), ultrasound velocity (2.67 km/s), and unit weight (2.26 g/cm3) were obtained after 365-day SC.
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publishDate 2025-06-01
publisher Yildiz Technical University
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series Journal of Sustainable Construction Materials and Technologies
spelling doaj-art-95ebe8cb51a84c2bb7e13a2ca115884d2025-07-28T10:22:40ZengYildiz Technical UniversityJournal of Sustainable Construction Materials and Technologies2458-973X2025-06-0110226327910.29187/2458-973X.1185Development of a Self-Cured Alkali-Activated Mortar Kübra Ekiz Barıs0https://orcid.org/0000-0002-3830-7185 Department of Architecture, Faculty of Architecture and Design, Kocaeli University, 41300 Kocaeli, TürkiyeAlkali-activated mortars (AAM) can be produced with self-curing (SC), which supplies internal moisture to accelerate alkaline-activation reactions. The aim of using SC is to make AAMs with an early-age strength without any additional curing energy consumption and higher CO2 emissions, and to obtain in-situ practical advantages that enable the large scale application of AAMs. The previous study produced natural pozzolan-based AAMs by applying energy-intensive heat (HC), microwave (MWC), and hybrid (HC+MWC) curing. This study investigates alternative curing regimes that reduce production energy without compromising material properties. The impacts of air curing (AC), water curing (WC), and SC on the properties were investigated. PEG 400 was used as an SC agent. The key findings of the research can be summarized as follows: AC and SC were determined as alternative methods, whereas WC didn’t show a positive effect on the properties at either early or later periods. Increasing the curing period from 7 to 90 days greatly improves the properties. However, this increasing rate after 90 days was lower than in the early period. The properties after 28-day ACandSCmetthevalues of HC and MWC.Thehighest compressive strength (19.20 MPa), flexural strength (3.35 MPa), ultrasound velocity (2.67 km/s), and unit weight (2.26 g/cm3) were obtained after 365-day SC.alternative curing regimeself-curinglow production energyalkali-activated mortarcuring period
spellingShingle Kübra Ekiz Barıs
Development of a Self-Cured Alkali-Activated Mortar
Journal of Sustainable Construction Materials and Technologies
alternative curing regime
self-curing
low production energy
alkali-activated mortar
curing period
title Development of a Self-Cured Alkali-Activated Mortar
title_full Development of a Self-Cured Alkali-Activated Mortar
title_fullStr Development of a Self-Cured Alkali-Activated Mortar
title_full_unstemmed Development of a Self-Cured Alkali-Activated Mortar
title_short Development of a Self-Cured Alkali-Activated Mortar
title_sort development of a self cured alkali activated mortar
topic alternative curing regime
self-curing
low production energy
alkali-activated mortar
curing period
work_keys_str_mv AT kubraekizbarıs developmentofaselfcuredalkaliactivatedmortar