Current approaches to coastal resilience often fail because they rely on prediction and control in an era of deep climatic uncertainty. This research proposes an environmental architecture that serves as an adaptive mediator, facilitating co-assembly between human intervention and natural systems. This design methodology shifts the paradigm from computed solutions to computing systems that continuously adapt via environmental feedback. Using a high-throughput computational pipeline, we explore a parameter space of geometric configurations, designing submerged structures that modulate hydrodynamic energy to direct sediment transport and grow a nascent island. These structures were deployed as a Real-World Lab in the Maldives, serving as a full-scale test of this Co-assembly approach to resilience. Over a 12-month period, the structures facilitated the accretion of nascent landforms, demonstrating an adaptive alternative to dredging. The results illustrate the potential for computational design to instrumentalize environmental science, creating architectural systems that do not merely inhabit a site but actively compute with its physical forces to build resilience over time.
Zesk et al. (2026) studied this question.