Utilizing a saline irrigation system and vertical farming techniques within a terracotta-clad structure, this residence integrates sustainable practices to facilitate efficient food production in a challenging desert environment.
5 key facts about this project
01
Utilizes saline irrigation to enhance local agricultural production within a desert environment.
02
Features a terracotta facade to improve energy efficiency through natural thermal regulation.
03
Integrates automated vertical farming systems for year-round crop cultivation.
04
Employs a hexagonal facade design to optimize passive cooling and ventilation.
05
Incorporates lightweight plastic tubing for effective water management across the structure.
General keywords
The SEAWater(g)House is an architectural project located in Dubai, designed as a self-sustaining residential structure that incorporates greenhouse technology. The project represents a symbiotic relationship between architectural design and sustainable living practices, responding to the climatic challenges of the desert environment. By integrating renewable energy systems and advanced agricultural methods, this project redefines residential architecture, allowing for efficient food production and resource management in a harsh landscape.
The primary function of the SEAWater(g)House is to provide a sustainable living space while promoting local food cultivation through innovative techniques. The design employs a system that utilizes saline water for agricultural purposes, pairing modern technology with traditional concepts of water management and cultivation. Key elements of the structure include residential spaces, automated vertical farming systems, and climate-responsive features that optimize energy efficiency.
The unique aspects of this project stem from its innovative approach to sustainability. One of the most significant features is its use of a Sea Water Green House system, which leverages the natural properties of seawater to create suitable growing conditions. The architectural design incorporates fluid shapes, diverging from conventional rectilinear forms. This allows for better airflow and light distribution within the interior spaces, enhancing the overall environment for both residents and plants.
Additionally, the facade includes hexagonal openings that contribute to passive cooling, shielding the interiors from direct sunlight while enabling effective ventilation. The careful zoning of the house promotes a range of microclimates suitable for diverse plant growth and comfortable living conditions. The integration of automated systems for climate control further exemplifies the commitment to efficiency, adjusting indoor environments based on real-time data.
The SEAWater(g)House stands out in the architectural landscape due to its meticulous attention to sustainable materiality and innovative agricultural integration. Lightweight, eco-friendly materials such as terracotta and plastic are employed for various structural components, maximizing functionality while minimizing environmental impact. The project highlights the potential for architecture not just to provide shelter but also to promote food security and ecological balance in urban settings.
For a comprehensive understanding of the architectural decisions and systems used in the SEAWater(g)House, readers are encouraged to explore the architectural plans, sections, and specific design ideas presented in the project documentation. These resources offer deeper insights into the methodologies and objectives that drive the architectural vision of this unique project.
The primary function of the SEAWater(g)House is to provide a sustainable living space while promoting local food cultivation through innovative techniques. The design employs a system that utilizes saline water for agricultural purposes, pairing modern technology with traditional concepts of water management and cultivation. Key elements of the structure include residential spaces, automated vertical farming systems, and climate-responsive features that optimize energy efficiency.
The unique aspects of this project stem from its innovative approach to sustainability. One of the most significant features is its use of a Sea Water Green House system, which leverages the natural properties of seawater to create suitable growing conditions. The architectural design incorporates fluid shapes, diverging from conventional rectilinear forms. This allows for better airflow and light distribution within the interior spaces, enhancing the overall environment for both residents and plants.
Additionally, the facade includes hexagonal openings that contribute to passive cooling, shielding the interiors from direct sunlight while enabling effective ventilation. The careful zoning of the house promotes a range of microclimates suitable for diverse plant growth and comfortable living conditions. The integration of automated systems for climate control further exemplifies the commitment to efficiency, adjusting indoor environments based on real-time data.
The SEAWater(g)House stands out in the architectural landscape due to its meticulous attention to sustainable materiality and innovative agricultural integration. Lightweight, eco-friendly materials such as terracotta and plastic are employed for various structural components, maximizing functionality while minimizing environmental impact. The project highlights the potential for architecture not just to provide shelter but also to promote food security and ecological balance in urban settings.
For a comprehensive understanding of the architectural decisions and systems used in the SEAWater(g)House, readers are encouraged to explore the architectural plans, sections, and specific design ideas presented in the project documentation. These resources offer deeper insights into the methodologies and objectives that drive the architectural vision of this unique project.
