Background: Neurodivergence, which includes conditions such as autism, ADHD, and dyslexia, is increasingly recognized in workplace diversity discussions. Despite this, neurodivergent individuals face numerous barriers to accessing and retaining employment, often influenced by stigma and inconsistent inclusion policies. Objective: This systematic review aims to organize the literature on neurodivergent individuals and their interaction with the work environment, identifying key challenges and opportunities for improvement. Methods: A systematic search of multiple databases was conducted to gather peer-reviewed articles on neurodivergence and employment. Studies were selected based on predefined criteria, focusing on hiring processes, workplace inclusion, and long-term retention. Results: The findings reveal significant challenges, including the impact of stigma and ineffective inclusion policies. While some organizations have begun adapting hiring practices, inconsistencies in defining neurodivergence versus neurodiversity complicate policy implementation. Key gaps remain in understanding career development and job retention for neurodivergent employes. Conclusions: The review highlights the need for standardized terminology, evidence-based inclusion practices, and further research into long-term career outcomes for neurodivergent individuals. Addressing these gaps is crucial for promoting a more inclusive and supportive work environment that values neurodiversity.

Textile effluents derived from azo-reactive dyeing processes represent a severe problem for aquatic ecosystems and human health. The large amounts of water used in this process and the poor quality of the discharges urge the need to develop treatment systems that involve reusing treated water. In this research, we present the optimization of a feasible, simple, and efficient treatment system that improves the quality of the effluents from the cotton fabric dyeing process. Through the characterization of the influents and effluents, we have identified seven parameters that have allowed the optimization of the treatment. Analytical techniques, such as nephelometry, EDTA, gravimetry, and BOD5, among others, and specialized equipment, such as the spectrophotometer, have been used for these purposes. The results showed that using combustion gases in the neutralization stage and new flocculant-coagulant reagents improved parameters, such as pH, total solids, hardness, and conductivity. The quality of the effluents thus obtained allowed their reuse only in the stages before the dyeing bath without affecting the final quality of the cotton fabrics in dark colors. This effort implies savings in water and supplies, and opens the door to future research on the treatment of textile effluents that help improve the environmental conditions of our region.

This chapter explores the integration of various techniques and processes to achieve a sustainable house, focusing on reducing energy consumption and minimizing negative environmental impacts. Solutions such as in-house wastewater treatment, solid waste management, and the capture of solar thermal and photovoltaic energy are presented. These methods allow to produce recycled water, biogas for cooking, and electrical energy for lighting, all within the framework of a bioclimatic urban house. The implementation of these technologies in urban family homes not only generates energy to meet basic needs but also reduces the negative impacts of wastewater and solid waste, contributing to the city’s environmental sustainability.

Objective: The objective of this study is to investigate the feasibility of an affordable and rapidly deployable prefabricated housing system adapted to urban contexts and emergency scenarios. The aim is to design an integrated system for the production, construction, and assembly of prefabricated reinforced concrete housing, offering accessible, efficient, and flexible housing solutions. Theoretical Framework: The research is grounded in key concepts and theories such as prefabrication in construction, modularity, environmental sustainability, housing resilience, advanced concrete technology, and project management on-site, providing a solid basis for understanding its context. Methodology: The study employs a comparative method, analyzing six representative housing units with built areas of 25.83 m², 33.39 m², 39.06 m², 42.21 m², 52.29 m², and 59.85 m². Data collection occurred in three stages: (1) search and review of experiences, (2) design and development of basic housing models, production, and assembly, (3) results analysis to evaluate technical and economic feasibility. Results and Discussion: The results confirm the feasibility of designing six models of basic family housing that comply with Peruvian standards and are accessible to low-income families. A production process for prefabricated elements is proposed, adaptable to any location and operable with minimal equipment. Among the evaluated models, VUF 04 stands out for its lowest cost, estimated at $311.43 USD per square meter of built area. Research Implications: The implications of this research are broad and significant, highlighting its potential to transform the design, production, and assembly of housing in urban and emergency contexts. By addressing multiple aspects, this study establishes a solid foundation for the implementation of sustainable, accessible, and efficient housing solutions. Originality/Value: The originality of this study lies in its decentralized and simplified production approach, carried out on-site with minimal equipment. Its value resides in democratizing access to affordable, efficient, and sustainable housing, providing an alternative model to centralized systems and laying the groundwork for future research on accessible and resilient construction.