Hylozoic
Ground, Philip Beesley,
Rob Gorbet,
Rachel Armstrong
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A major natural disaster occurs, on average, 10 times a year, with minor disasters striking as frequently as once per week. These include floods, tidal waves, tornadoes, ice storms, fires, landslides, hurricanes, and earthquakes. Major global cities, New York, Rio de Janeiro, Tokyo, Mumbai, to mention only few of them, have suffered from numerous disasters and an enormous number of people have died.
Scientists are
able to predict the time needed from the starting point of a disastrous event until
it reaches the affected areas, but still they are not able to predict when a
disaster will happen. For example for the hurricane Sandy the meteorologists could measure the
speed of the wind and thus could predict the amount of time needed for the
hurricane to reach the northeast areas of United States. In consequence, people
living in the coastal areas built barriers in order to protect their
properties. However, there still were a large number of constructions that had
been destroyed.
Nowadays,
architects try to take into consideration these unpredictable events in their
design, especially when conceptualizing and designing public spaces in coastal
areas. For example, they have started designing different programs in different
height levels so the lower could be sacrifice in case of flood emergency and function
as barriers or large tanks for flooding water.
There are architects and researchers on environmental
disasters who investigate multiples ways that a construction could react during
a disaster. These projects are paradigms from biomimetic architecture. For
example the researcher Rachel Armstrong in the University of Greenwich is doing
a research in protocell architecture. She believes that the problem is that buildings
during a disaster react as machines so they don’t have the flexibility of a
physical organism. Moreover, she considers that the traditional architecture
has separated nature from human activities. In her research ‘’Architecture That Repairs Itself’’ she
is dealing with the problem of sickness of the constructions in Venice. She has
developed protocells that could create an artificial shell-like structure. Architecture nowadays developed the biomimetic principles one step
further by creating living architecture.
Other examples of this is the self-healing concrete, in which researchers plug bacteria
or the Silk pavilion from MIT media lab, in which they used 6,500 live silkworms to form the pavilion.
As Rachel Armstrong argued, our future cities will be designed more like
gardens than machines. This is an idea similar to Frank Lloyd Wright’s argument
about organic architecture: “may go by the way of the machine to teach his own people not
foolishly to rebuild but to build the new beyond the old; to build a nation
that is itself more like one great organic life all together; to so now how to
go forward into organic life universal…” Wright contemplates
that architecture should live with nature as a whole. Could we perhaps visualize Wright’s dream in the near future? Would ever
large cities be constructed of living organisms? Are they going to sense and
respond in the disasters? For sure the cities of the future will be based on
time not on space. For sure, major
cities will be constructed so as to react on disasters, not just receive them
catastrophically.
Nowadays, one key term for the achievement of design together (and not opposed to) nature is Synthetic Biology: the capability of literally designing genes and using them in organisms to help us build, such as the one used by Armstrong in the Venice project. It is incredible the amount of research and development this field is getting, and it is definitely among the key answers to the future of design, computing and technology.
ReplyDeleteOne of the first to propose biological concepts into the design process was John Frazer, which introduced his concept in the book “An Evolutionary Design” from 1994 published by the AA.
Whenever design faces a new technology, it is dangerous that it may become justified only for the sake of these new tools or methods. While reading the mentioned book, I found fascinating a paragraph where he foresees all the possible things that could go wrong and misinterpreted from his concepts. In my opinion, this is exactly what happened in the past 20 years and should alarm us to the upcoming science developments:
“However computers are not without their dangers. If used unimaginatively, they have a tendency to: dull critical facilities, induce a false sense of having optimized a design which may be fundamentally ill conceived, produce an atmosphere where any utterance from the computer is regarded as having divine significance, distort the design process to fit the limitations of the most easily available program, distort criticism from the end-product rather than to an examination of process, and concentrate criticism and feedback on aspects of a problem which can be easily quantified”.
Another really interesting text about this theme is “Deleuze and the use of the Genetic Algorithm in Architecture” by Manuel de Landa. Here is the link:
http://www.mat.ucsb.edu/~g.legrady/academic/courses/08f200a/sites/SS/refs/deleuze.pdf
In my work with Architecture for Humanity, we have used his biomimetic lens to redefine the word resiliency. Resiliency has become overused in the context of climate change and post-Sandy New York. It's meaning (similar to sustainability) has either been watered down or become overarching. In an ecological sense, resilient organisms are species where certain characteristics have failed, been weeded out, and thus the species has become stronger. Can architecture "learn" in a similar way? If buildings fail, can they be overrides with a stronger gene? Or like a scar or callus, can a thicker skin be developed that makes the building less likely to be hurt again? Can architecture have an evolutionary process, not just conceptually within itself but in its confrontation with nature?
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