www.rachelarmstrong.me | living architecture
Speculative drawings by architect Christian Kerrigan shows one potential application of Metabolic Materials in the future by the sustainable reclaimation of Venice through growing an artificial reef underneath the historic city using the protocell technology.
Dr. RACHEL
ARMSTRONG
MA [Cantab] BMBCh [Oxon]
Rachel Armstrong: Living Architecture 2009
Architects throughout the ages have likened the built environment to biological systems, but modern architecture is not alive since it is made of inert materials that are belligerent to and disconnected from the natural world. Yet, biology is far more important to architectural practice than just providing the inspiration for new forms and aesthetics. Biological processes are critical to architectural practice in terms of developing more dynamic and environmentally integrated materials. I am working with architect Neil Spillers avatar (Advanced Virtual And Technological Architectural Research) group to investigate materials that couple built and natural environments so that energy and information flow freely between architecture and the biosphere as an integrated process.
The development of materials that possess a metabolism for use in architectural practice would confer some of the properties of living systems on our cities. These metabolic materials would enable architecture to change over time using local sources of energy and raw materials and respond to variations in the urban environment. Metabolic materials could be designed to extract carbon dioxide and other greenhouse gases from the air and release oxygen into the environment. Such materials could even perform new functions that are not found in nature and could safely remove toxins or nanoparticles from the environment and process them into safer substances. When the metabolisms were no longer active they could senesce and decay back into their components for recycling. Gradually, metabolically informed cities could respond to local environments and habitats to create geographically distinct metropolitan forms and urban physiologies whose speciation and variability would be comparable to those observed in biological systems. Our cities would truly come alive.
Metabolic materials do not yet exist in practice so I am collaborating with scientists who are working in the fields of wet Artificial Life (the chemistry of self-organising systems) and Synthetic Biology (re-engineering of biological systems) to explore new ways of making materials livelier. This new discipline within the field of architecture seeks to produce Living Buildings and, in practice, takes the form of scientific experiment with design-led outcomes. Current models of interest include protocells: precursors to fully synthetic cells built from scratch in the laboratory and based on the complex chemistry of oils. Protocells are programmable and can be instructed to seek out certain kinds of environments.
Martin Hanczyc of the University of Southern Denmark and Takashi Ikegami of the University of Tokyo designed a protocell system that is capable of both movement and primitive sensation. Some species are able to produce a skin that is vigorously shed. The discarded skins are thought to be able to form sedimentary deposits or coral-like structures under certain conditions so that the technology may be thought of as being able to make artificial rock.
Uniquely, the architectures that are expected to result from these experiments will be grown from their fundamental components rather than being assembled by following an architectural blueprint. Metabolic materials have the potential to provide a new way of building architectures to our traditional approaches and because these new materials have some living properties they could produce a great range of architectural forms and functions which may eventually be very difficult to distinguish from natural ones!Most notably, the chemistry that underpins the metabolisms of living systems is everywhere, this new approach to constructing architecture would benefit developing countries as much as First World nations.
