cris.boxmetadata.label.title
Mechanical characterization of new geopolymeric materials based on mining tailings and rice husk ash
cris.boxmetadata.label.dateissued
05 browse.startsWith.months.february 2021
cris.boxmetadata.label.accesslevel
metadata only access
cris.boxmetadata.label.resourcetype
conference paper
cris.boxmetadata.label.authors
HUAMAN MAMANI, FREDY ALBERTO
MAYTA PONCE, DENIS LEONARDO
RODRIGUEZ GUILLEN, GERHARD PAUL
cris.boxmetadata.label.publisher
IOP Publishing Ltd
cris.boxmetadata.label.abstract
This work presents the results of the thermomechanical evaluation of geopolymeric concrete fabricated from mining tailings, rice husk ash and fine sand. Ten types of geopolymeric concrete were studied and the relationship between the initial volumetric concentrations of the components in the mixtures and the maximum resistance in uniaxial compression under conditions of variable temperature (between ambient and 600 ºC) was analyzed. The results revealed that increases in the concentration of mining tailings and fine sand lead to an increase in the value of the maximum mechanical resistance, in contrast, the increase in the concentration of rice husk ash led to a reduction in the value of the maximum mechanical resistance. Furthermore, increases in test temperature, up to 500 °C, led to systematic increases in maximum mechanical strength. Finally, the geopolymeric concretes presented a brittle-ductile transition between 500 and 600 °C showing only a ductile behavior when tested at 600 °C and only brittle up to test temperatures of 500 °C.
cris.boxmetadata.label.volume
1054
cris.boxmetadata.label.issue
1
cris.boxmetadata.label.language
English
cris.boxmetadata.label.ocdeknowledgeArea
Ingeniería civil
Ingeniería de materiales
cris.boxmetadata.label.doi
cris.boxmetadata.label.scopusidentifier
2-s2.0-85101476756
cris.boxmetadata.label.partofresource
IOP Conference Series: Materials Science and Engineering
cris.boxmetadata.label.containerissn
17578981
cris.boxmetadata.label.conference
4th International Conference on Building Materials and Materials Engineering, ICBMM 2020
cris.boxmetadata.label.sponsor
This work was supported by the project no. 143-2015-FONDECYT-DE, Consejo Nacional de Ciencia, Tecnología e Innovación Tecnológica – CONCYTEC, Perú.
peru-layout.shadow-copies
Directorio de Producción Científica
Universidad Católica San Pablo
Scopus