Eine Plattform für die Wissenschaft: Bauingenieurwesen, Architektur und Urbanistik
Eine Plattform für die Wissenschaft: Bauingenieurwesen, Architektur und Urbanistik
Low-Carbon Foamed Concrete Based on Alkali Residue and GGBS versus Conventional Foamed Concrete: Comparative Experimental Research
https://orcid.org/0000-0002-9859-8308
This study advocates a low-carbon foamed concrete (FC), termed alkali residue (AR) ground granulated blast furnace slag (GGBS)-based FC (AG-FC). A comprehensive assessment of the macro-micro properties of AG-FC and conventional FC (C-FC) was performed through a series of tests, including a compression test, triaxial test, dry–wet cycle test, freeze–thaw cycle test, scanning electron microscope examination, X-ray diffraction analysis, and thermogravimetric analysis. The findings reveal that AG-FC exhibits excellent mechanical performance, with a 28-day compressive strength exceeding 1.0 MPa. AG-FC is primarily composed of , C─ S─ H, , and Friedel’s salt (Fs), whereas C-FC is dominated by C─ S─ H, , and . AG-FC exhibits excellent durability, with a durability coefficient of 0.798–0.87. During dry–wet cycles, the deterioration primarily arises from pore water pressure, pore gas pressure, and temperature stress. During freeze–thaw cycles, the deterioration effects stem from the pore water pressure and frost heaving force. AG-FC exhibits a noteworthy capability to significantly reduce emissions, accounting for approximately 35%–40% of the emissions produced by C-FC. AG-FC exhibits noteworthy attributes, including cost-effectiveness, low carbon emissions, environmental friendliness, superior mechanical performance, and exceptional durability, making it highly promising for a wide range of applications.
Low-Carbon Foamed Concrete Based on Alkali Residue and GGBS versus Conventional Foamed Concrete: Comparative Experimental Research
https://orcid.org/0000-0002-9859-8308
This study advocates a low-carbon foamed concrete (FC), termed alkali residue (AR) ground granulated blast furnace slag (GGBS)-based FC (AG-FC). A comprehensive assessment of the macro-micro properties of AG-FC and conventional FC (C-FC) was performed through a series of tests, including a compression test, triaxial test, dry–wet cycle test, freeze–thaw cycle test, scanning electron microscope examination, X-ray diffraction analysis, and thermogravimetric analysis. The findings reveal that AG-FC exhibits excellent mechanical performance, with a 28-day compressive strength exceeding 1.0 MPa. AG-FC is primarily composed of , C─ S─ H, , and Friedel’s salt (Fs), whereas C-FC is dominated by C─ S─ H, , and . AG-FC exhibits excellent durability, with a durability coefficient of 0.798–0.87. During dry–wet cycles, the deterioration primarily arises from pore water pressure, pore gas pressure, and temperature stress. During freeze–thaw cycles, the deterioration effects stem from the pore water pressure and frost heaving force. AG-FC exhibits a noteworthy capability to significantly reduce emissions, accounting for approximately 35%–40% of the emissions produced by C-FC. AG-FC exhibits noteworthy attributes, including cost-effectiveness, low carbon emissions, environmental friendliness, superior mechanical performance, and exceptional durability, making it highly promising for a wide range of applications.
Low-Carbon Foamed Concrete Based on Alkali Residue and GGBS versus Conventional Foamed Concrete: Comparative Experimental Research
https://orcid.org/0000-0002-9859-8308
This study advocates a low-carbon foamed concrete (FC), termed alkali residue (AR) ground granulated blast furnace slag (GGBS)-based FC (AG-FC). A comprehensive assessment of the macro-micro properties of AG-FC and conventional FC (C-FC) was performed through a series of tests, including a compression test, triaxial test, dry–wet cycle test, freeze–thaw cycle test, scanning electron microscope examination, X-ray diffraction analysis, and thermogravimetric analysis. The findings reveal that AG-FC exhibits excellent mechanical performance, with a 28-day compressive strength exceeding 1.0 MPa. AG-FC is primarily composed of , C─ S─ H, , and Friedel’s salt (Fs), whereas C-FC is dominated by C─ S─ H, , and . AG-FC exhibits excellent durability, with a durability coefficient of 0.798–0.87. During dry–wet cycles, the deterioration primarily arises from pore water pressure, pore gas pressure, and temperature stress. During freeze–thaw cycles, the deterioration effects stem from the pore water pressure and frost heaving force. AG-FC exhibits a noteworthy capability to significantly reduce emissions, accounting for approximately 35%–40% of the emissions produced by C-FC. AG-FC exhibits noteworthy attributes, including cost-effectiveness, low carbon emissions, environmental friendliness, superior mechanical performance, and exceptional durability, making it highly promising for a wide range of applications.
Low-Carbon Foamed Concrete Based on Alkali Residue and GGBS versus Conventional Foamed Concrete: Comparative Experimental Research
J. Mater. Civ. Eng.
Wang, Zhengcheng (Autor:in) / Wu, Kai (Autor:in) / Liu, Songyu (Autor:in) / Li, Mengyao (Autor:in) / Zhang, Xiang (Autor:in) / Yuan, Zhenyang (Autor:in)
01.01.2025
Aufsatz (Zeitschrift)
Elektronische Ressource
Englisch
| British Library Online Contents | 2000