From Ancient Armor to Adaptive Architecture
The project began with research into ancient armature systems and their adaptive material properties. Through extensive study models, I investigated how medieval armor demonstrated various material characteristics and adaptive capabilities. This research into historical protective systems revealed the potential of armature-based design principles. The study models explored how armor systems could maintain protection while allowing flexibility, establishing the foundational concept for architectural applications. These early investigations into material registration and adaptive properties became the starting point for developing a new type of responsive architectural system that could translate ancient protective strategies into contemporary coastal infrastructure solutions.
Floating Networks for Tomorrow's Tidal Cities
Based on the armor characteristics, I proposed a modular aquatic system connected by elastic ropes, creating an infinitely expandable network capable of adapting to tidal fluctuations. This floating system leverages the elasticity discovered in armor research to respond to the Hudson River's daily tidal movements and potential flooding. The elastic connections allow the entire system to accommodate water level changes while maintaining structural integrity. This adaptive aquatic system enables various activities and interventions on the water surface. The modular design translates the protective flexibility of ancient armor into a contemporary water-based infrastructure that can expand and contract with environmental conditions, providing a stable platform for human activities even during tidal surges.
Intelligent Modules in Dynamic Coastal Systems
The modular system integrates multiple dynamic and intelligent elements to create an active, resilient system capable of responding to various changing conditions including weather, tidal flows, and dynamic situations. This integration of intelligent elements gives the project its name, Adaptive Intelligence. Starting from small-scale modules connected through dynamic nodes to stable platforms, the system allows the modular elastic framework to adapt to tidal conditions while providing stable activity platforms through flexible joints and elastic movement systems including hydraulic systems. This intelligent adaptation to tidal forces ensures that people can safely use the platform even during tidal surges. The system's direct contact with Hudson River water also enables water purification capabilities, leading to explorations of material properties for environmental enhancement.
Living Concrete for Marine Ecosystem Integration
The modular system integrates multiple dynamic and intelligent elements to create an active, resilient system capable of responding to various changing conditions including weather, tidal flows, and dynamic situations. This integration of intelligent elements gives the project its name, Adaptive Intelligence. Starting from small-scale modules connected through dynamic nodes to stable platforms, the system allows the modular elastic framework to adapt to tidal conditions while providing stable activity platforms through flexible joints and elastic movement systems including hydraulic systems. This intelligent adaptation to tidal forces ensures that people can safely use the platform even during tidal surges. The system's direct contact with Hudson River water also enables water purification capabilities, leading to explorations of material properties for environmental enhancement.
