Yuexiao Yang

Resilient Island

Resilience, Self-sufficient, Greenery

In this thesis, I explore the concept of resilience in architecture through the creation of a self-sufficient island, designed to address the social and environmental challenges faced by rapidly growing urban centers like Singapore. By incorporating multiple building types and essential systems such as water cycle and desalination, as well as innovative greenery functions, this island serves as a model for a complete architectural system that can adapt and thrive in the face of various pressures.

Resilience is a critical aspect of contemporary architecture, especially in the context of densely populated urban environments facing numerous socio-economic and environmental challenges. Conventional architecture often focuses on singular building types within specific areas, but this thesis delves into the potential of designing a holistic and interconnected architectural system that can withstand and mitigate the impacts of overpopulation, limited resources, and climate-related issues.

Through the creation of an island as a microcosm, I investigate how architectural design can play a transformative role in establishing a resilient and self-sufficient community. By considering the island as a complete system, incorporating vital functions like agriculture, water treatment, and ecosystem greenery, I demonstrate the feasibility of this approach and its potential positive implications for urban planning.

Singapore, known for its pressing social and climate problems, serves as a relevant case study. By analyzing three selected sites in the city, I derive essential insights into building density, water adjacency, and green-city relationships. These observations inform the design and scale of the island, ensuring its relevance and applicability to real-world urban contexts.

The island's essential systems, including the water cycle and desalination system, are crucial in ensuring its self-sufficiency. By harnessing the power of seawater and tidal energy, this island model demonstrates how innovative technology can provide sustainable solutions to water scarcity and energy demands.

Additionally, the incorporation of greenery functions on the island are pivotal in enhancing its resilience. Modular planting techniques and rain gardens not only optimize agricultural productivity but also promote efficient water management by harvesting and recycling rainwater. The ecological sphere, encompassing a harmonious interplay between farm animals and plants, further strengthens the island's ecosystem, promoting biodiversity and conservation efforts.

Moreover, the inclusion of recreational spaces within the green areas highlights the significance of fostering a sense of community and well-being in resilient architecture. By providing spaces for outdoor activities and leisure, the island enhances the quality of life for its inhabitants, fostering a deeper connection between people and nature.

Overall, this thesis presents a comprehensive exploration of resilience in architecture, offering an innovative island design as a tangible example of a self-sufficient and adaptable architectural system. By addressing the complex challenges faced by modern urban centers, this research intends to inspire future architectural practices that prioritize sustainability, efficiency, and community well-being.

Birds Eye View 01

View of Parking

View of Tower

Birds Eye View 02