Complex Systems of Eco-Economic Change Demand Systems Solutions |
The Resource Side Worldwide there is increasing
competition for oil, steel, copper, and alumina, cement, and other
basic commodities, for industrial production and construction of urban
infrastructure and industrial plants. In many countries the basic
resources of land and water are also constrained resources at risk. At
the same time supply constraints due to warfare and resource depletion
are developing, which add significant increases in costs. Demand for resources is driven not
only by new development but also by the need to replace or restore
decaying urban, rural, and industrial infrastructure as well as
commercial and residential buildings. Industrial rust belts, for
instance, exist in developed and developing countries alike. Sustainable development in both
developed and developing countries requires the setting of very high
objectives for efficiency in the use of all resources, as one part of a
broader strategy to avoid crisis. This calls for systemic planning and
action to multiply efficiency, not just make incremental improvements.
Gains in efficiency must be achieved across the whole product
lifecycle, not just in production. Rapidly increasing consumption is
already overwhelming many improvements in manufacturing productivity in
a “rebound effect”. Some of the initial responses for achieving such high objectives include the Circular Economy (China) and the Recycling Economy (Germany and Japan),
eco-industrial parks and networks, closed-loop and energy generating
apartment and office complexes, and sustainable agriculture. All major
economic sectors have a role to play in achieving the required gains in
efficiency, not just heavy industry. These include land use planning
and development; transportation, design and construction of the built
environment; commerce; the design and operation of municipal
infrastructure; agriculture, and households all have a share in the
responsibility. Similarly, gains must be made at every stage of the
lifecycle from resource extraction to final recovery or disposal. There is a close relationship
between resource issues and global changes, such as shifts in the
chemical balance of the atmosphere, climate change, pollution of rivers
and oceans, transboundary pollution, and loss of biodiversity. Even a
Recycling or Circular Economy is only a partial economic solution. The
deterioration of ecological systems -- locally, nationally, and
globally -- demands economic solutions that will enable their
restoration. When looking at these systems in
terms of human welfare, ecological economists call them “natural
capital”. Natural capital is the source of all natural resources and
the sinks that absorb the by-products of human activities. The accounts
of natural capital must be recharged through major investments in
restoration of forests, grasslands, deserts, farms, watersheds, oceans,
and atmospheric balance. This “restoration economy” must also recover
the sunk investment in human habitat and infrastructure so as to extend
its life. Here too the investments will create massive opportunity for
venture development and job creation. For years economics was defined as
the discipline that allocates scarce resources in a society. Mainstream
neo-classical economists tended to see resources as substitutable
through technological innovation and declined to calculate the limits.
Their working assumption was that the stocks and sinks for an economy
were virtually infinite. Resource depletion, pollution, degradation of
ecosystems and global ecological systems were all counted as
value-adding activities that add to gross domestic product. The failures of neo-classical
economics has led the emerging generation of economists to call it
“autistic” for its inability to link its elaborate theories and models
with the world in which we actually live. The discipline of Ecological
Economics in the mid-90s separated its work from mainstream economics
by insisting that our local, national, and global economies must be
managed in their ecological context to avoid ever deepening crisis.
This means ending the illusion that the critical functions of natural
capital can be called “eternalities”, as though they had no place in
economic analysis. This is true for companies, for cities, and for
nations. The Impact Side There
is a close relationship between resource issues and global changes,
such as shifts in the chemical balance of the atmosphere, climate
change, pollution of land, air, rivers and oceans, transboundary
pollution, and loss of biodiversity. Even a Recycling or Circular
Economy is only a partial economic solution. The deterioration of
ecological systems -- locally, nationally, and globally -- demands
economic solutions that will enable their restoration. When looking at these systems in
terms of human welfare, ecological economists call them “natural
capital”. Natural capital is the source of all natural resources and
the sinks that absorb the by-products of human activities. The accounts
of natural capital must be recharged through major investments in
restoration of forests, grasslands, deserts, farms, watersheds, oceans,
and atmospheric balance. This “restoration economy” must also recover
the sunk investment in human habitat and infrastructure so as to extend
its life. Here too the investments will create massive opportunity for
venture development and job creation. Industrial ecology in one of the
few systems frameworks that is committed to defining solutions for
resolving the complex problems of resource constraints and
environmental impacts within a sustainable economic context. Much of
the literature has focused too narrowly, in order to build scientific
credibility. However, the best researchers in the discipline are
reaching to make it a major science of sustainable development. At the practice level,
eco-industrial development is working through the difficult challenges
of place-based sustainable innovation. Local and regional teams are
creating eco-industrial networks, eco-industrial parks, by-product
exchanges, and integrated resource recovery systems and there are
three national initiatives in Korea, China, and Thailand. |
|
Contact Us
| Copyright © 2006 Indigo Development | Last Updated: April, 2006
|