Paulo César Escandón

Mr. Paulo César Escandón

Escuela Superior Politecnica del Litoral, Guayaquil, Guayas, Ecuador
orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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3 July 2024 in Agriculture
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RERamón L Espinel
Ramón L Espinel
Gricelda Herrera-FrancoGricelda Herrera-Franco
Gricelda Herrera-Franco
José Luis Rivadeneira GarcíaJosé Luis Rivadeneira García
José Luis Rivadeneira García
Paulo César EscandónPaulo César Escandón
Paulo César Escandón
Artificial intelligence (AI) plays an essential role in agricultural mapping. It reduces costs and time and increases efficiency in agricultural management activities, which improves the food industry. Agricultural mapping is necessary for resource management and requires technologies for farming challenges. The mapping in agricultural AI applications gives efficiency in mapping and its subsequent use in decision-making. This study analyses AI’s current state in agricultural mapping through bibliometric indicators and a literature review to identify methods, agricultural resources, geomatic tools, mapping types, and their applications in agricultural management. The methodology begins with a bibliographic search in Scopus and the Web of Science (WoS). Subsequently, a bibliographic data analysis and literature review establish the scientific contribution, collaboration, AI methods, and trends. The United States (USA), Spain, and Italy are countries that produce and collaborate more in this area of knowledge. Of the studies, 76% use machine learning (ML) and 24% use deep learning (DL) for agricultural mapping applications. Prevailing algorithms such as Random Forest (RF), Artificial Neural Networks (ANNs), and Support Vector Machines (SVMs) correlate mapping activities in agricultural management. In addition, AI contributes to agricultural mapping in activities associated with production, disease detection, crop classification, rural planning, forest dynamics, and irrigation system improvements.

26 February 2018 in Boletín de Geología
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U(Universidad Estatal Península de Santa Elena (Upse)
Universidad Estatal Península de Santa Elena (Upse)
ELErica Lorenzo
Erica Lorenzo
WRWladimir Andrés Roca-Beltrán
Wladimir Andrés Roca-Beltrán
MMManuel Martínez
Manuel Martínez
AMAntonio Morato
Antonio Morato
CÁCristian Paul Álvarez-Domínguez
Cristian Paul Álvarez-Domínguez

8 March 2024 in Environment, Development and Sustainability
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Paulo César EscandónPaulo César Escandón
Paulo César Escandón
Gricelda Herrera-FrancoGricelda Herrera-Franco
Gricelda Herrera-Franco
María Jaya-MontalvoMaría Jaya-Montalvo
María Jaya-Montalvo
SMSandra Martínez-Cuevas
Sandra Martínez-Cuevas
Managing agricultural activity encompasses technology, geographic information, spatial data and geomatic tools as support techniques. In this framework, agricultural mapping is an essential geomatic application due to its importance in managing food systems. This research aims to analyze the state of knowledge of geomatics tools and their applications in agriculture through a systematic review of scientific documents and methodological approaches, highlighting the use of geomatics in agricultural mapping to evaluate trends in agriculture management. The study methodology consists of a scientific base of publications on geomatics and its applications in sustainable agriculture, with a quantitative analysis of production and its approaches. Subsequently, PRISMA establishes a systematic review in search of the subject’s methods, applications and trends. The results show that of the total data analyzed, 60% corresponds to general agricultural mapping for crop/water/soil mapping using satellite images. Twenty percent for land use and coverage, considering the georeferencing that contributes to agricultural territorial planning. Nine percent consider geomatic key for agricultural cadastre (plot management). In addition, 6% corresponds to precision agriculture and 5% to watershed management. The most predominant geomatics tools are: Geographic Information System (GIS), Global Positioning System (GPS), unmanned aerial vehicle (UAV) and remote sensing (RS). Also, among the most used geomatic techniques in agricultural cartography, photogrammetry in crop phenology and multispectral analysis in the optimisation and monitoring of agricultural production stand out. Studies show that the geomatic application promotes sustainability practices such as crop rotation, seeds dispersed and germinated by animals, agricultural irrigation through rivers/basins/streams, family gardens and generation of employment sources. The geomatics use is of great utility/potential for the acquisition and generation of geospatial data accurately, with time and cost savings that contribute to the decision-making of city councils, public cadastral administrations, enterprises, educational institutions and agricultural foundations.

4 August 2022 in Resources
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JEJenny Escandón-Panchana
Jenny Escandón-Panchana
RVRafael Elao Vallejo
Rafael Elao Vallejo
Paulo César EscandónPaulo César Escandón
Paulo César Escandón
Andrés Danilo Velástegui-MontoyaAndrés Danilo Velástegui-Montoya
Andrés Danilo Velástegui-Montoya
Gricelda Herrera-FrancoGricelda Herrera-Franco
Gricelda Herrera-Franco
Marine-coastal ecosystems are productive and valuable habitats worldwide due to their significant contributions to human wellbeing. However, human activities, limited territorial planning, and unsustainable demand and consumption of natural goods and services put pressure on marine-coastal ecosystems. In this sense, marine-coastal planning is a management tool to contrast these forces because it manages different human activities on the coast and in the oceans over space and time, strengthening political, social, and tourist development and the economy of the territory. Our objective is to propose marine-coastal spatial planning strategies through an ecosystem-based approach for allocating a mangrove and estuarine zone conservation area. The study methodology is: (i) Compilation of information from the study area with an emphasis on regulations and protected areas. (ii) Analysis of human relations with marine-coastal ecosystems. (iii) Mapping and zoning of the conservation area. (iv) Analysis of the strengths, weaknesses, opportunities, threats and threats, weaknesses, opportunities, strengths (SWOT–TWOS) matrix to recommend strategies and guarantee the viability of marine-coastal protection. The results show zoning maps of the sector proposed as a conservation area comprising mangroves and an estuarine zone. It also approaches governance strategies or conservation management measures and protection of the marine-coastal space. Finally, as a recommendation, we propose improvements to the current municipal ordinances, guaranteeing the management and protection of the study area, and furthering achievements in the comprehensive development of land-use planning.

29 August 2022 in Geosciences
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Gricelda Herrera-FrancoGricelda Herrera-Franco
Gricelda Herrera-Franco
Boris Apolo-MasacheBoris Apolo-Masache
Boris Apolo-Masache
Paulo César EscandónPaulo César Escandón
Paulo César Escandón
Kelly Jácome-FrancisKelly Jácome-Francis
Kelly Jácome-Francis
FMFernando Morante
Fernando Morante
PCPaúl César Carrión-Mero
Paúl César Carrión-Mero
Biodiversity is an essential component of nature, relegating the aspects of geodiversity, which provides geological and landscape variety to a territory. However, the importance of geodiversity and its social, economic, educational, scientific, and technological impact on a region, are not well understood. This article measures the geoheritage values of Guayaquil, a port city in Ecuador, via surveys and analyses of variables, with the aim of proposing guidelines or strategies that promote the knowledge and diffusion of that geoheritage. Our methodology included (i) a review of historical landmarks of Guayaquil and their relationship with geodiversity, (ii) a survey and data tabulation, (iii) an analysis of the local population’s perception of the city’s geoheritage, and (iv) the development of geodiversity strategies using computer tools. Our results determined that people approach areas of interest because of each site’s biodiversity and the available information about the site. Once there, they can obtain knowledge about the city’s geology, geodiversity, and urban geotourism. Therefore, geoheritage is an essential consideration in establishing educational plans, initiatives, and promotion strategies. Furthermore, the identification of a city’s heritage values following geoeducation, and the recognition by society of the city’s geosites and their historical–scientific significance, will provide a basis for using geotourism in a context of sustainability.

1 October 2022 in Applied Sciences
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RPRoberto Pico-Saltos
Roberto Pico-Saltos
JGJavier Garzás
Javier Garzás
Andrés RedchukAndrés Redchuk
Andrés Redchuk
Paulo César EscandónPaulo César Escandón
Paulo César Escandón
FMFernando Morante
Fernando Morante
Alumni tracking studies at the local, regional and global levels provide quality and efficiency measurement parameters in higher education institutions and project improvements in the quality of professionals. However, there is a gap between alumni tracking and the measurement of career success, influencing the academic offer of careers relevant to labor demands. This article aims to propose a model for predicting career success through the analysis, extraction and evolutionary optimization of objective and subjective variables to determine the role of alumni tracking in a higher education institution. The methodology establishes (i) an analysis of information on the alumni program and career success, (ii) prediction models of career success using genetic algorithms, (iii) validation of prediction models and (iv) the relationship between alumni tracking and career success. The results show models for predicting career success using a genetic algorithm with high certainty percentages, where the objective variables’ weight significantly influences the predictive model. However, subjective variables show importance depending on individual characteristics and their value schemes or goals of graduates. As a recommendation, universities could include a monitoring system for their graduates, which is crucial in adapting to the curriculum, especially in strategic technical and human ethical issues.