Designing Ecological Habitats - Gaia Education
Designing Ecological Habitats - Gaia Education
Designing Ecological Habitats - Gaia Education
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44 <strong>Designing</strong> ecological <strong>Habitats</strong><br />
Fig.2: Schematic of<br />
a Holarchy of nested<br />
Social-<strong>Ecological</strong><br />
Systems.<br />
interact at and between various spatial scales. Sustainable<br />
community design has to take place within such a spatially<br />
and temporally scale-linking frame of reference (Wahl, 2007).<br />
Many of the factors that will cause a loss of resilience<br />
at one particular scale, say within a community and its<br />
ecosystem, will also affect resilience at another scale, say at<br />
the national, or planetary level. Localized actions, like the<br />
burning of fossil fuel, can accumulate to have global effects<br />
like climate change, which in turn can affect local conditions<br />
in multiple and unpredictable ways. This is the nature of the<br />
fundamentally interconnected nested system (holarchy) in<br />
which we live. Within emerging field of resilience research<br />
and practice these nested spatial and temporal dynamics have<br />
been explored under the concept of panarchy (see: www.resalliance.org for<br />
more information).<br />
Among the factors that can degrade resilience at multiple scales are:<br />
loss of biodiversity, toxic pollution, interference with the hydrological<br />
cycle, degradation of soils and erosion – but also, inflexible institutions,<br />
perverse subsidies that incentivise unsustainable patterns of consumption,<br />
and inappropriately chosen measures of total value that focus on shortterm<br />
maximization of production and increased efficiencies at the loss of<br />
redundancy and diversity in the system as a whole.<br />
The World System Model of the International Futures Forum (IFF) is<br />
structured around 12 critical aspects or components of a resilient system that<br />
have to be considered in an interconnected way. The model can be applied at<br />
various scales, and has already been used to create more integrated ‘transition<br />
plans’ for community and bioregional resilience (see: www.iffworldmodel.<br />
net).<br />
All the aspects (or nodes) of the World Systems Model have to be<br />
considered in the creation of a viable and resilient system, whether at the<br />
scale of a community, a bioregion, a nation, or the (a) planet. The aim is not<br />
to create isolation or self-sufficiency at every scale, since in an interconnected<br />
and interdependent holarchically structured system complete isolation is<br />
impossible and would lead to the collapse of the system. Rather than selfsufficiency,<br />
what we should aim for is greater self-reliance at each scale: an<br />
increased ability to meet basic human needs as close to home as possible<br />
and within the limits of regional and planetary boundaries. It is time to<br />
create import substitution strategies based on regional production!<br />
An example for systemic re-design of our systems of governance that<br />
would enable transformative resilience responses at the community and<br />
bioregional scale would be the implementation of subsidiarity. The political<br />
principle of subsidiarity is the idea that a central authority should have a<br />
subsidiary function, performing only those tasks that cannot be performed<br />
effectively at a more immediate or local level. Such a governance structure<br />
would empower active citizen participation in the transition to a more<br />
resilient society, without doing away with political collaboration at the