Rafael Alavez-Ramirez

Dr. Rafael Alavez-Ramirez


Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 September 2012 in Construction and Building Materials
Verified
Journal Article
Closed access
RARafael Alavez-Ramirez
Rafael Alavez-Ramirez
PMPedro Montes-García
Pedro Montes-García
Jacobo Martínez-ReyesJacobo Martínez-Reyes
Jacobo Martínez-Reyes
DADelia Cristina Altamirano-Juárez
Delia Cristina Altamirano-Juárez
YGYadira Gochi-Ponce
Yadira Gochi-Ponce
1

1 December 2012 in Construction and Building Materials
Verified
Journal Article
Closed access
RARafael Alavez-Ramirez
Rafael Alavez-Ramirez
Fernando Chiñas-CastilloFernando Chiñas-Castillo
Fernando Chiñas-Castillo
VMV.J. Morales-Dominguez
V.J. Morales-Dominguez
MOM. Ortiz-Guzman
M. Ortiz-Guzman

5 September 2017 in Journal of Natural Fibers
Verified
Journal Article
Closed access
MCMagdaleno Caballero-Caballero
Magdaleno Caballero-Caballero
Fernando Chiñas-CastilloFernando Chiñas-Castillo
Fernando Chiñas-Castillo
JBJosé Luis Montes Bernabé
José Luis Montes Bernabé
RARafael Alavez-Ramirez
Rafael Alavez-Ramirez
MRMaría Eugenia Silva Rivera
María Eugenia Silva Rivera
Adobe bricks, formed from raw clay, are used as construction materials since ancient times. Their main drawback is a low flexural and compressive strength. Agave bagasse is a waste material from the Mezcal production process. Angustifolia haw agave bagasse fiber was added to improve the properties of adobes. Adobe bricks were made with agave fibers ranging from 10 to 25 mm length and 0.25 to 1% concentration. At 1% concentration of agave, 25 mm long, the compressive and flexural strength are improved by 33% and 7.01%, fulfilling the requirements of Mexican construction regulation norm N-CMT-2-01-001/02 class C.

1 March 2014 in Construction and Building Materials
Verified
Journal Article
Closed access
RARafael Alavez-Ramirez
Rafael Alavez-Ramirez
Fernando Chiñas-CastilloFernando Chiñas-Castillo
Fernando Chiñas-Castillo
VMV. Morales-Dominguez
V. Morales-Dominguez
MOM. Ortiz-Guzman
M. Ortiz-Guzman
JLJ. Lara-Romero
J. Lara-Romero

31 December 2010 in Construction and Building Materials
Verified
Journal Article
Closed access
Jacobo Martínez-ReyesJacobo Martínez-Reyes
Jacobo Martínez-Reyes
RARafael Alavez-Ramirez
Rafael Alavez-Ramirez
PMPedro Montes-García
Pedro Montes-García
VJVictor Jiménez-Quero
Victor Jiménez-Quero

16 November 2016 in Indoor and Built Environment
Verified
Journal Article
Closed access
PDF file
RARafael Alavez-Ramirez
Rafael Alavez-Ramirez
Fernando Chiñas-CastilloFernando Chiñas-Castillo
Fernando Chiñas-Castillo
VMValentín Juventino Morales-Domínguez
Valentín Juventino Morales-Domínguez
MOMargarito Ortiz-Guzmán
Margarito Ortiz-Guzmán
JCJosé Luis Caballero-Montes
José Luis Caballero-Montes
MCMagdaleno Caballero-Caballero
Magdaleno Caballero-Caballero
In the last years, people has become aware of energy saving and thermal comfort requirements for home buildings in hot and cold seasons. In the present study, hybrid multifunctional constructive components made of a reinforced mortar channel filled with cement–soil–sawdust (CL2MSCAL) were evaluated to experimentally determine their thermal performance (thermal conductivity, thermal time lag and decrement factor). The experimental analysis performed in this study was based on dynamic climatology. Measurements of components surface temperature were conducted to determine temperature damping and temperature wave lag. Monthly average temperature and direct solar radiation data of the site was considered. Measurements of real-scale constructive components were conducted on a fully equipped thermal conductive system and thermal chambers (test cells) built for this purpose. Results are compared to concrete components (CCL) that account for approximately 71.6% of the houses built in Mexico and 43.2% in Oaxaca and reinforced mortar (CML) used as prefabricated housing systems. Best results were found for component CL2MSCAL that has a thermal conductivity of 0.81 W·m−1·K−1, a thermal damping of 81.5% (decrement factor of 0.166) and time lag of 7:37 h compared to CCL that present a time lag of 1 h and decrement factor of 0.9. Thus, it is concluded that CL2MSCAL roofing channel components are an alternative for energy saving and thermal comfort.