Mario Morales-Máximo

Dr. Mario Morales-Máximo

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Research Focus & Metrics

Academic Career Length

8Years (2019-Present)

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

Representative Publications

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4 December 2020 in Applied Sciences
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Journal Article
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Luis Bernardo López-SosaLuis Bernardo López-Sosa
Luis Bernardo López-Sosa
JFJosé Juan Alvarado Flores
José Juan Alvarado Flores
Juan Carlos Corral-HuacuzJuan Carlos Corral-Huacuz
Juan Carlos Corral-Huacuz
AAArturo Aguilera
Arturo Aguilera
Rosa Rodríguez-MartínezRosa Rodríguez-Martínez
Rosa Rodríguez-Martínez
Mario Morales-MáximoMario Morales-Máximo
Mario Morales-Máximo
This study presents a prospective study for the potential exploitation of pelagic Sargassum spp. as a solid biofuel energy source. It was carried out in three stages. First we conducted a morphological, physical-chemical, and structural characterization using scanning electron microscopy (SEM), infrared spectroscopy (FTIR), and X-ray diffraction (DRX), respectively. Second we evaluated the material’s functional properties as a solid biofuel based on its calorific value and the quantification of polymeric components like hemicellulose, cellulose, and lignin, as well as thermogravimetric and differential analysis to study the kinetics of its pyrolysis and determine parameters like activation energy (Ea), reaction order (n), and the pre-exponential factor (Z). Third we analyzed the energetic potential considering the estimated volume of pelagic Sargassum spp. that was removed from beaches along the Mexican Caribbean coast in recent years. Results of the kinetic study indicate that Sargassum spp. has an enormous potential for use as a complement to other bioenergy sources. Other results show the high potential for exploiting these algae as an energy source due to the huge volumes that have inundated Caribbean, West African, and northern Brazil shorelines in recent years. As a solid biofuel, Sargassum spp. has a potential energy the order of 0.203 gigajoules (GJ)/m3. In the energy matrix of the residential sector in Mexico, its potential use as an energy source is comparable to the national consumption of firewood. The volume of beachcast Sargassum spp. that was removed from ~8 km of coastline around Puerto Morelos, Mexico in 2018–2019, could have generated over 40 terajoules/year of solid biofuel.

23 April 2020 in Applied Sciences
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Mario Morales-MáximoMario Morales-Máximo
Mario Morales-Máximo
VRVictor Manuel Ruiz-García
Victor Manuel Ruiz-García
Luis Bernardo López-SosaLuis Bernardo López-Sosa
Luis Bernardo López-Sosa
JRJosé Guadalupe Rutiaga-Quiñones
José Guadalupe Rutiaga-Quiñones
This study describes the exploitation of wood waste (Pinus spp.) in the form of sawdust and shavings generated during the production of furniture and artisanal items in a community in the state of Michoacán, western Mexico. A process is described to densifying this raw material, to produce solid-type biofuel briquettes that can be used to satisfy the need to generate low-power heat for residential sectors. Briquette production involved six stages: (a) gathering samples of sawdust and shavings from artisanal workshops in the community; (b) proximal characterization of the samples; (c) elaborating the briquettes; (d) physicochemical characterization of the briquettes; (e) evaluation of the physical-thermal combustion of the briquettes; and (f) an economic evaluation of briquette production to determine viability. Finally, we performed a comparative analysis of the energy, economic, and environmental indicators of the briquettes produced and conventional pine and oak firewood (Pinus spp., Quercus spp.) in the study community. The results show the viability of using biomass residues to make briquettes, which are efficient, economic and easy to make and use.

20 September 2022 in Energies
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CMCindy Nereida Morales-Máximo
Cindy Nereida Morales-Máximo
Luis Bernardo López-SosaLuis Bernardo López-Sosa
Luis Bernardo López-Sosa
JRJosé Guadalupe Rutiaga-Quiñones
José Guadalupe Rutiaga-Quiñones
JHJuan Carlos Corral Huacuz
Juan Carlos Corral Huacuz
AAArturo Aguilera
Arturo Aguilera
Mario Morales-MáximoMario Morales-Máximo
Mario Morales-Máximo
This proposal evaluates the energy potential of agricultural residues of Zea mays from an indigenous community in Mexico. The study consists of four stages: (a) evaluation of residue production in all community farming areas (b) morphological and physicochemical characterization, using scanning electron microscopy (SEM), as well as infrared spectroscopy (FTIR) and Raman (c) the proximal and functional evaluation of the residues, through fiber analysis, determination of fixed carbon, humidity, estimation of calorific value, ash microanalysis and elemental analysis, and (d) evaluation of energy potential and multicriteria analysis. The results show that Z. mays residues have initial moisture values of less than 10%, ash content below 20%, fixed carbon around 14% and a calorific value of 17.6 MJ/kg associated with polymeric compounds and carbohydrates, as well as a percentage of extractable compounds of the order of 40%. The production of these residues on the 249 hectares (ha) of cultivation used would generate 23 TJ/year, whereas if the total number of hectares available were cultivated, the total energy generation would be 330 TJ/year, which is enough to satisfy the wood fuel demand of approximately seven communities with the characteristics of the study community. Due to this potential, as well as the results of the characterization, the agricultural mentioned residues are an energy alternative to meet the energy demand in communities in Michoacán, Mexico.

7 May 2022 in Energies
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Mario Morales-MáximoMario Morales-Máximo
Mario Morales-Máximo
JRJosé Guadalupe Rutiaga-Quiñones
José Guadalupe Rutiaga-Quiñones
OMOmar RAUL MASERA
Omar RAUL MASERA
VRVictor Manuel Ruiz-García
Victor Manuel Ruiz-García
This study analyzes the household energy needs of the indigenous community of San Francisco Pichátaro, Michoacán, Mexico, and the use of Pinus spp. wood residues for the production of briquettes. The energy and emission performances of wood briquettes were evaluated on the field and in the laboratory. On-field surveys and measurements show that most users combine the use of fuelwood and LPG for cooking and heating water, and 65% of people use fuelwood daily (40% of houses consumed more than 39 kg per week). The use of biomass waste is an energy option in rural communities and contributes to reducing firewood consumption and mitigating GHGs. Briquettes gasification to heat water reduces 74% of GHG emissions, increases the thermal efficiency by 30%, and reduces pollutant emissions of CO, CH4, and PM2.5, NMHC, EC, and OC by 50% to 75% compared to a three-stone fire. The use of briquettes on the Patsari stove showed energy savings of 12% and a 36% reduction in CO2e compared to the “U” type open fire. The briquettes could reduce the fuelwood consumption by 318 t/year. It is possible to produce briquettes at a cost similar to or cheaper than fuelwood and generate a local market (circular economy) with local benefits.

23 July 2021 in Forests
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Mario Morales-MáximoMario Morales-Máximo
Mario Morales-Máximo
CGCarlos Garcia
Carlos Garcia
LPLuis Fernando Pintor-Ibarra
Luis Fernando Pintor-Ibarra
JFJosé Juan Alvarado Flores
José Juan Alvarado Flores
Borja Velázquez-MartíBorja Velázquez-Martí
Borja Velázquez-Martí
JRJosé Guadalupe Rutiaga-Quiñones
José Guadalupe Rutiaga-Quiñones
This study shows the energy potential of pine wood waste for the production of solid biofuels, and was carried out in an indigenous community in the state of Michoacán. One of the main economic activities of this community is the production of handcrafted furniture, which generates a large amount of wood waste. The most relevant results obtained in this research show that the community generates approximately 2268 kg of sawdust and 5418 kg of shavings per week, and the estimated energy potential per year for both sawdust is 1.94 PJ and for shaving is 4.65 PJ. Based on the particle size observed, the wood residue can be used to generate pellets or briquettes. Other average results in sawdust and (shavings) are the following: initial moisture content 15.3% (16.8%), apparent density 169.23 kg/m3 (49.25 kg/m3), ash 0.43% (0.42%), volatile material 84.9% (83.60%), fixed carbon 14.65% (15.96%), hemicelluloses 12.89% (10.68%), cellulose 52.68% (52.82%), lignin 26.73% (25.98%), extractives 7.69% (10.51%), calorific value 17.6 MJ/kg (17.9 MJ/kg). The major chemical elements in the ash were Al, K. Fe, Ca, P, Na, and Mg. Finally, the results obtained indicate that this biomass can be used to generate pellets or briquettes in this indigenous community.

12 October 2019 in Sustainability
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Luis Bernardo López-SosaLuis Bernardo López-Sosa
Luis Bernardo López-Sosa
JGjose nunez gonzalez
jose nunez gonzalez
ABAlberto Beltrán
Alberto Beltrán
Mario Morales-MáximoMario Morales-Máximo
Mario Morales-Máximo
MMMario Morales-Sánchez
Mario Morales-Sánchez
CGCarlos Garcia
Carlos Garcia
This paper introduces a new methodology for the development of appropriate technology that allows satisfying energy needs in rural communities. The methodology integrates the technological development, taking particularly into account the assessment of environmental impacts as well as evaluation of the functionality of the technology. Therefore, it is implemented as a case study in the development of a solar wood-dryer in an artisan community in Mexico. Relevant issues were identified for the success of the methodology, which includes identifying key participants in the community, as well as the use of specialized simulation- and computer-based design tools, and a prior evaluation of the potential environmental impacts through Life-Cycle Assessment (LCA) of the solar wood-dryer. Three geometries of a solar wood-dryer prototype were proposed and analyzed with computer-based simulations, which showed better interior heat transfer than the traditional wood brick-dryer. LCA revealed that the new solar wood-dryer prototype has environmental impacts in all analyzed categories that are 5% or smaller than those of the traditional dryer. Therefore, it was demonstrated that the solar wood-dryer developed with our introduced methodology leads to less environmental impacts compared to those of the traditional wood brick-dryer previously used by the rural community.