Paula Porras-Pereira – författare

In recent years, there has been an upsurge in the number of forced displacements due to natural disasters, armed conflicts, and pandemics, which has favoured an increase in the number of temporary accommodations. Although the provision of shelter after an emergency situation is one of the priorities of humanitarian aid, the reality is that the conditions in which people live in a situation of forced displacement are absolutely precarious and overcrowded. Nowadays, this type of housing tends to have a short lifespan, deepening the environmental impact and the generation of waste. Likewise, added to this great problem is the linear economic system implemented worldwide, which also causes a high rate of waste.

This investigation develops an eco-efficient design protocol that determines the basic premises in any emergency situation, therefore avoiding the precarious nature to which those in forced displacement are exposed. Moreover, the research investigates different constructive solutions that can respond to situations of natural catastrophes or humanitarian disasters where emergency housing is needed as well as the possible alternatives from the point of view of circular economy. Eco-efficient and environmentally correct solutions are sought, which can be adaptable to the different scenarios where emergency housing may be needed, thus creating a rapid, easy, functional, and environmentally correct architecture, adaptable to these types of situations.

The study shows that the factors that characterize emergency architecture can be an example of where the issues around the sustainability factor are applied in a practical way. The main objectives of this study are to develop an eco-efficient design protocol which determines the basic premises in any emergency situation and to find eco-efficient and environmentally correct solutions, adaptable to different scenarios, which have similar climatic characteristics, and where emergency housing may be needed, thus creating a type of ephemeral architecture but sensitive to the user to whom it is intended and in accordance with the optimal conditions of habitability.

In recent years, there has been an upsurge in the number of forced displacements due to natural disasters, armed conflicts, and pandemics, which has favoured an increase in the number of temporary accommodations. Although the provision of shelter after an emergency situation is one of the priorities of humanitarian aid, the reality is that the conditions in which people live in a situation of forced displacement are absolutely precarious and overcrowded. Nowadays, this type of housing tends to have a short lifespan, deepening the environmental impact and the generation of waste. Likewise, added to this great problem is the linear economic system implemented worldwide, which also causes a high rate of waste.This investigation develops an eco-efficient design protocol that determines the basic premises in any emergency situation, therefore avoiding the precarious nature to which those in forced displacement are exposed. Moreover, the research investigates different constructive solutions that can respond to situations of natural catastrophes or humanitarian disasters where emergency housing is needed as well as the possible alternatives from the point of view of circular economy. Eco-efficient and environmentally correct solutions are sought, which can be adaptable to the different scenarios where emergency housing may be needed, thus creating a rapid, easy, functional, and environmentally correct architecture, adaptable to these types of situations.The study shows that the factors that characterize emergency architecture can be an example of where the issues around the sustainability factor are applied in a practical way. The main objectives of this study are to develop an eco-efficient design protocol which determines the basic premises in any emergency situation and to find eco-efficient and environmentally correct solutions, adaptable to different scenarios, which have similar climatic characteristics, and where emergency housing may be needed, thus creating a type of ephemeral architecture but sensitive to the user to whom it is intended and in accordance with the optimal conditions of habitability.

This open access book describes in the recent years, there has been a notable upsurge in the use of nanomaterials, particularly within the construction and building sectors. The incorporation of nanoparticles introduces noteworthy changes in the physico-mechanical and physical–chemical characteristics of construction materials.Despite the acknowledged advantages of employing nanomaterials, uncertainties persist regarding their widespread adoption in development and applications, especially concerning potential environmental and human health implications. A crucial aspect in thoroughly assessing the environmental impacts of nanoproducts is the imperative quantification of effects on ecosystems and human health throughout the entire life cycle of these products. The indispensable utilization of a comprehensive tool, such as Life Cycle Assessment, becomes paramount in gaining a nuanced understanding of potential environmental and health challenges, thereby ensuring the environmental sustainability of nanomaterials.This academic publication endeavours to provide nanoproduct manufacturers, construction industry professionals, and waste managers with the necessary knowledge to comprehend the environmental and health impacts associated with the manufacturing, application, and disposal processes of nanoproducts used in the construction industry. This contribution aims to enhance their personal and professional development, consequently bolstering their employability at the European level.A thorough comprehension of potential releases throughout the entire life cycle of nanoproducts and their potential effects is imperative for ensuring the safe and sustainable utilization of these innovative materials. The application of life cycle thinking emerges as a pivotal component in appropriately evaluating the potential impacts associated with nanomaterial releases.