Johann Steven Mejia Estrella, 
Elevated structures using charred wooden shingles support a sustainable living environment designed to enhance community resilience against coastal flooding while promoting self-sufficiency through integrated farming spaces.
5 key facts about this project
01
Elevated design minimizes flood risk while promoting natural ventilation.
02
Charred wooden shingles enhance durability and fire resistance.
03
Cross-laminated timber panels provide structural strength and sustainability.
04
Integrated communal gardens support local food production.
05
Bent A-frame design optimizes sunlight exposure and energy efficiency.
General keywords
Project specific keywords
The EcuLiving Lab represents an innovative approach to architectural design aimed at addressing the pressing challenges faced by vulnerable coastal communities in Ecuador. This project emphasizes sustainability, resilience, and community engagement through its carefully crafted spaces and layouts. The architecture reflects a commitment to creating adaptable housing that can withstand the impacts of climate change while fostering a sense of community among residents.
One of the core functions of the EcuLiving Lab is to provide elevated housing solutions that are capable of resisting flooding and other environmental hazards. The design incorporates several individual housing units arranged on a lightweight structural frame. This elevated design minimizes direct contact with the ground, significantly reducing the risk of water damage. Key design components include green roofs, natural ventilation systems, and communal gardens, all of which contribute to the project's overall sustainability.
Unique Design Approaches
EcuLiving Lab distinguishes itself through its focus on bioclimatic design principles and community-centric elements. The project employs local materials, such as TEKA wood, known for its durability and resistance to the coastal environment. Prefabricated metal structures are utilized for their structural integrity while maintaining a lightweight profile, which is critical for elevating the housing units.
Textile membranes are part of the architectural fabric, providing aesthetic appeal and functionality in terms of regulating solar exposure. The integration of perforated panels allows for efficient airflow, contributing to the overall thermal comfort of the living spaces. Furthermore, the project's design includes rainwater harvesting systems that enhance self-sufficiency and sustainability by utilizing natural resources effectively.
Community Engagement and Agricultural Integration
The EcuLiving Lab promotes a sense of community through shared spaces and communal gardens, which occupy the areas between the housing units. These gardens serve a dual purpose: they are not only spaces for food cultivation but also venues for social interaction among residents. This design approach underscores the importance of community resilience and food sovereignty, empowering inhabitants to grow their food and remain engaged with one another.
In summary, the architectural design of EcuLiving Lab is a focused response to the unique challenges of coastal living while fostering community solidarity. The combination of sustainable building practices, adaptive use of materials, and community-centered design creates a robust framework for resilience against climate challenges. To explore the project presentation further and discover in-depth details about architectural plans, sections, and designs, interested readers are encouraged to seek additional information about this significant architectural initiative.
One of the core functions of the EcuLiving Lab is to provide elevated housing solutions that are capable of resisting flooding and other environmental hazards. The design incorporates several individual housing units arranged on a lightweight structural frame. This elevated design minimizes direct contact with the ground, significantly reducing the risk of water damage. Key design components include green roofs, natural ventilation systems, and communal gardens, all of which contribute to the project's overall sustainability.
Unique Design Approaches
EcuLiving Lab distinguishes itself through its focus on bioclimatic design principles and community-centric elements. The project employs local materials, such as TEKA wood, known for its durability and resistance to the coastal environment. Prefabricated metal structures are utilized for their structural integrity while maintaining a lightweight profile, which is critical for elevating the housing units.
Textile membranes are part of the architectural fabric, providing aesthetic appeal and functionality in terms of regulating solar exposure. The integration of perforated panels allows for efficient airflow, contributing to the overall thermal comfort of the living spaces. Furthermore, the project's design includes rainwater harvesting systems that enhance self-sufficiency and sustainability by utilizing natural resources effectively.
Community Engagement and Agricultural Integration
The EcuLiving Lab promotes a sense of community through shared spaces and communal gardens, which occupy the areas between the housing units. These gardens serve a dual purpose: they are not only spaces for food cultivation but also venues for social interaction among residents. This design approach underscores the importance of community resilience and food sovereignty, empowering inhabitants to grow their food and remain engaged with one another.
In summary, the architectural design of EcuLiving Lab is a focused response to the unique challenges of coastal living while fostering community solidarity. The combination of sustainable building practices, adaptive use of materials, and community-centered design creates a robust framework for resilience against climate challenges. To explore the project presentation further and discover in-depth details about architectural plans, sections, and designs, interested readers are encouraged to seek additional information about this significant architectural initiative.
