This paper presents the mechanical and elastic properties of inorganic polymer mortar under varying strain rates. The study includes a determination of the compressive strength, modulus of elasticity and Poisson's ratio at 0.001, 0.005, 0.01 and 0.05 mm/s strain rate. A total of 21 cylindrical specimens having 100 mm length and 50 mm diameter were investigated, and all tests were carried out pursuant to the relevant Australian Standards. Although some variability between the mixes was observed, the results show that, in most cases, the engineering properties of geopolymer mortar compare favourably to those predicted by the relevant Australian Standards for concrete mixtures. It was found that the change in the strain rate causes different b...
Research on geopolymer concrete has seen a new light in the analyses and experiments for special top...
In this paper we have investigated the influence of synthesis parameters on the mechanical propertie...
Geopolymers are a promising class of inorganic materials typically obtained from an alluminosilicate...
This paper presents the mechanical and elastic properties of inorganic polymer mortar under varying ...
The effects of strain rate on compressive and tensile strength of fly ash based geopolymer concrete ...
This paper focuses on the mechanical properties and modulus of elasticity of fly ash and GGBS based ...
Geopolymer is a novel binding material produced from the reaction of fly ash with an alkaline soluti...
Geopolymers are produced by alkali activation of aluminosilicate raw materials (fly ash or metakaoli...
The splitting tensile strengths of geopolymer concrete and geopolymer mortar under strain rates from...
The effect of strain rate on the compressive behaviours of geopolymer concrete and mortar is reporte...
This paper discusses the changes in compressive strength of fly ash (FA) based geopolymers due to va...
Fly ash-based geopolymer mortar normally achieves expected properties by heat curing. This becomes o...
The focus of the study was to identify the stress strain behavior of geo polymer concrete and salien...
Since geopolymeric binders generates 70-80% less carbon dioxide than Portland cement these materials...
Abstract. Since geopolymeric binders generates 70-80 % less carbon dioxide than Portland cement this...
Research on geopolymer concrete has seen a new light in the analyses and experiments for special top...
In this paper we have investigated the influence of synthesis parameters on the mechanical propertie...
Geopolymers are a promising class of inorganic materials typically obtained from an alluminosilicate...
This paper presents the mechanical and elastic properties of inorganic polymer mortar under varying ...
The effects of strain rate on compressive and tensile strength of fly ash based geopolymer concrete ...
This paper focuses on the mechanical properties and modulus of elasticity of fly ash and GGBS based ...
Geopolymer is a novel binding material produced from the reaction of fly ash with an alkaline soluti...
Geopolymers are produced by alkali activation of aluminosilicate raw materials (fly ash or metakaoli...
The splitting tensile strengths of geopolymer concrete and geopolymer mortar under strain rates from...
The effect of strain rate on the compressive behaviours of geopolymer concrete and mortar is reporte...
This paper discusses the changes in compressive strength of fly ash (FA) based geopolymers due to va...
Fly ash-based geopolymer mortar normally achieves expected properties by heat curing. This becomes o...
The focus of the study was to identify the stress strain behavior of geo polymer concrete and salien...
Since geopolymeric binders generates 70-80% less carbon dioxide than Portland cement these materials...
Abstract. Since geopolymeric binders generates 70-80 % less carbon dioxide than Portland cement this...
Research on geopolymer concrete has seen a new light in the analyses and experiments for special top...
In this paper we have investigated the influence of synthesis parameters on the mechanical propertie...
Geopolymers are a promising class of inorganic materials typically obtained from an alluminosilicate...