by Matteo Giusti [contact:
Does resilience thinking and architecture really mix? The answer is a clear “yes” if you ask urban planner Marco Miglioranzi, and Matteo Giusti, Master student at the Stockholm Resilience Centre. Together with the German based firm of architects N2M, they have developed two projects led by resilience concepts. Their first work, based on social-ecological systems, was preselected in the EuroPan10 competition. The second one, “A Resilient Social-Ecological Urbanity: A Case Study of Henna, Finland” with an emphasis on urban resilience, has been published by the German Academy for Urban and Regional Spatial Planning (DASL) and also featured by HOK – a renowned global architectural firm.
The project proposes a wide range of theoretical solutions based on urban resilience which find practical application in Henna’s (Finland) urban area. Governance networks, social dynamics, metabolic flows and built environment are separately analyzed to ultimately restore, and maintain over time, the equilibrium between human demands and ecological lifecycles.
But the project also challenges current urban planning practices as it states the city’s future requirements to be unknown. As a result, it identifies “the development-process as a dynamic flow instead of a static state”. Time scale for urban planning is therefore included within an evolving spatial design.
The project description elaborates: “As a result, the planning is not static anymore. It is not a blueprint, not a collection of architectural elements to create an hypothetic Henna out of the current mindsets and needs, but a multitude of tools, methods, opportunities, options, to define a sustainable developing strategy to meet future’s demands. We keep an eye on time, its complexity and we humbly admit we cannot foresee future; we can only provide guiding principles from current scientific understanding to define a social ecological urbanity capable of sustainably moving on with unique identity.”
All these theoretical premises ends up in Henna’s planning. This includes an energetic smart grid based primarily on Enhanced Geothermal Systems (EGS); community-managed greenhouse areas to enhance food local self- reliance; low-diluted sewage system to reduce water consumption; efficient reuse of municipal solid waste to reach the Zero waste goal; and a problem solving centre to analyze ever-changing social ecological demands. Time is included in space, people in their natural environment, urban services in ecological processes. An harmonious cycle of growth and decays.