This research aims to implement green walls as thermal insulators on the east and west facades of the adjacent areas of the School of Biological Sciences at Ricardo Palma University. The growth of urban cities causes an increase in CO₂ emissions and the loss of agricultural land. The methodology applied involves evaluating the thermal behavior, analyzing the local climate, and assessing plant species for implementation. As a result, the successful implementation of green walls on the east and west facades was achieved, which has proven to effectively reduce wall heating, decrease the temperature rise in nearby spaces, and minimize reliance on artificial ventilation systems. This has led to energy and cost savings, decreased CO₂ emissions, and increased oxygen production. By implementing green walls on the east facade, there has been an increase of 60.73% in comfort hours, while on the west facade, there has been an increase of 64.28% in comfort hours. In addition, a total of 977.50 kg of CO₂ has been absorbed, resulting in 722.50 kg of purified air. In conclusion, green walls have proven to be a viable solution to the problems faced in urban cities, helping to mitigate the internal temperature of indoor spaces.

The research aims to evaluate various management techniques of Ancient Hydraulic Systems (AHS) in different civilizations in arid climates, in cities located in Nasca in Perú (Puquio), Marrakech in Marruecos (Khettara) andTabriz in Irán (Qanat). The scarcity of water resources in these areas compelled the inhabitants to seek water management solutions to meet the necessary water supply for the population at the time. The methodology employed was a case study in which climatic data, supply, and operation of AHS were analyzed. The different indicators studied resulted in findings that, in the case of Nasca, the system relied on lintels, utilizing robust materials such as stone. They employed geometry to control water flow velocity, inclined walls to prevent collapses, and terraces to facilitate access to underground galleries. In the cases of Tabriz and Marrakech, their systems were based on excavations and reinforcements primarily using clay and earth as materials. In conclusion, the techniques employed in different civilizations are responses to contextual realities, offering an adaptive solution to environmental and physical challenges with a sustainable focus within their immediate surroundings.

This research focuses on the proposal of a corridor design that allows social and ecological integration in the context of a city with emerging potential as a tourist destination in Chinchero, Cusco. Key challenges addressed include lack of infrastructure to manage growing tourism demand, fragmentation of social identity, displacement of the local population due to gentrification processes, uncontrolled urban sprawl, and inappropriate exploitation of natural, cultural, and agricultural lands. To address these issues, a comprehensive diagnosis was carried out covering various urban-environmental dimensions, such as topography, road infrastructure, archeology, climate, and biodiversity. In this process, digital tools such as Blender, AutoCAD, Photoshop, and Affinity Designer were used. As a result of the analysis, an urban green corridor is proposed consisting of seven sectors covering the shores of the Piuray lagoon, the city center, and its archeological area, through the creation of socially active public spaces equipped with cultural, sports, and recreational facilities. The city of Chinchero, with its growing importance as a tourist destination, presents the opportunity and the need to develop a controlled urban development axis that promotes the connection between environmental, cultural, archeological, social, and tourism aspects. This objective is materialized in the form of a green corridor that seeks to promote social integration and a sense of territorial belonging.

The purpose of this research is to propose an architectural design for an Interpretation Center aimed at the revaluation of the flora and fauna of Cusco, Peru, in 2023. Due to the lack of awareness spaces, deforestation, water pollution, and the planting of introduced species in the area, there is a loss of endemic flora and fauna. The methodologies used in this study included climatic analysis of the location, characterization of the flora and fauna, and the application of bioclimatic design strategies supported by the use of software (AutoCAD, Revit, and 3D Sun-path). Additionally, urban design strategies were employed based on the Inca worldview and the Sustainable Development Goals. The feasibility of implementing this urban and architectural proposal was compared with other projects such as the Sydney Water Restoration Project and the Ataria Nature Interpretation Center. As a result, an ecological network was designed for the preservation of endemic species. The project also includes green spaces, which account for 51% of the total area. These green spaces will facilitate carbon dioxide absorption and contribute to the revaluation of the Huantanay River and the creation of microclimates in the area.

The primary objective of this study is to formulate a comprehensive digital and physical model, at a scaled level, for a social housing unit utilizing the open-source Wikihouse system. The construction industry is currently grappling with the dual challenges of a real estate crisis and climate change. In response to this scenario, the integration of industrialized methods in construction processes is advocated to enhance the overall quality of the end product, streamline construction timelines, and curtail production costs. The algorithm developed for this purpose leverages Rhino and Grasshopper programs, thereby optimizing material efficiency when compared to traditional individual pieces. Noteworthy among the features of the Wikihouse system is its remarkable versatility, allowing implementation in diverse locations. This flexibility stems from its efficient assembly characteristics, which liberate it from the constraints of rigid modular structures, contributing significantly to architectural design flexibility. The paramount finding of this research is the demonstrated efficiency of the proposed system, requiring 44% less time compared to conventional construction practices and exhibiting a commendable 29% reduction in costs. These outcomes position the Wikihouse-based approach as an appealing and competitive alternative within the real estate sector.

The objective of this research is to propose the implementation of neurostimulating architecture strategies for the design of early childhood educational centers. These strategies could be relevant for their implementation in rapidly growing urban areas in Peru, where many children lack access to early education. There has been an increase of 4.40% in the dropout rate at this educational level in recent years, and it has been observed that classrooms and educational facilities are not adequately prepared to accommodate the activities of this educational level. Likewise, the difficulty in accessing simple architectural design strategies that enhance cognitive development in children is concerning, especially when infants in early childhood have a natural capacity to acquire new knowledge, which, if not stimulated, could impact their adult lives. The research methodology adopts a mixed approach, analyzing two educational centers in the Villa El Salvador district to evaluate their current conditions in relation to neurostimulating architecture indicators. Interviews with specialists, questionnaires for the study subjects, and an observation guide were also used. This comprehensive approach allows for a better analysis and interpretation of the results. As a result, accessible design archetypes based on nine neurostimulating architecture indicators (illumination, green areas, shape, size, layout, accessibility, scale, colors, materiality) were obtained, and these were applied in an architectural design proposal for an early education center. In conclusion, the application of neurostimulating architecture as a strategy in the design of early childhood education centers has the potential to improve learning and enhance early cognitive development.