[ 9] Mankoff, J., Kravets,
R., and Blevis, E. “Some
Computer Science
Issues in Creating a
Sustainable World.”
Computer 41, 8 (2008):
102–105.
best choice can vary from one location to another.
Interaction design can play a role in ensuring that
such choices are informed by scientific knowledge
and interpretations of our collective best interests,
rather than the economic interests of private-sector
enterprises.
Computing issues. With respect to sustainability,
the focus of attention on computing issues has centered on issues of energy use, including individual
(personal computers), corporate (servers), and very
large-scale (cloud- and grid-computing) levels. One
of the promises of cloud computing is the possibility of using energy more efficiently as redundan-cies are removed from information-storage and
retrieval systems. There is a need for interaction
designers to make such efficiencies transparent
to individual people [ 9]. Nonetheless, energy savings are only a small part of what is needed. We
also need to focus on building systems that can
track necessary information and interactivity that
can inform human preparation for and adaptation
to climate change. Such systems must make this
information available at scale and in forms that
are suitable to a number of different constituencies, individuals, policy makers, governments, and
intergovernmental organizations.
These suggestions are just the start of the discourse that we as interaction designers must have
to help prepare for and adapt to climate change as
a concurrent strategy with present efforts to help
prevent it.
September + October 2010
AbOut the AuthOrs
Eli Blevis is an associ-ate professor of informatics in the Human-Computer Interaction Design program of the
School of Informatics and Computing at Indiana
University, Bloomington. His primary area of
research, and the one for which he is best known,
Shunying Blevis is an independent scholar and
social entrepreneur living and working in
Bloomington, IN. She holds advanced degrees in
informatics from Indiana University and Beijing
Normal University. Her interests and practice also
include design, locavorism, and permaculture.
interactions
ability of particular regions will need to be in place.
Such data and predictions will be critical to providing for orderly absorption and evacuation, as environments change in terms of their habitability.
Living with fewer resources. Interactive systems
are required to instruct people in urban and other
environments on how to live with fewer resources,
either as a matter of sustainable practices or as a
matter of adapting to climate change or both.
Saving life. Social mechanisms—especially those
that rely on interactive technologies—can hopefully play a role in fostering relationships between
people at various levels of organization in order
to ensure that as many people as possible have
access to safe environments, with food and drinking water, and that people are actively engaged in
helping others in the face of changes that might
otherwise easily induce conflicts.
Fostering public and governmental support for
technological solutions. Lovelock is himself not
without hope; he outlines a number of geoengi-neering interventions that might reverse a positive
feedback loop. One example is the conversion on
a large scale of agricultural waste into char and
burying it in the soil or possibly on the ocean floor
[ 4]. The strategy is effectively a form of exploiting
the power of photosynthesis to capture carbon
dioxide from the atmosphere in a form that can
be buried so that it is no longer part of the atmosphere. Lovelock: “So far it is the only realistic proposal by which we have even a chance of restoring
the Earth to the state it was in before we started
using fossil fuel.” Clearly, such projects require
public and governmental support on a massive
scale. Interaction design of social mechanisms of
awareness to create such support is needed in a
pervasive manner, as in the case of carbon calculators. Such systems can help inform choices about
energy production; such choices likely vary from
one location to another.
Fostering public understanding. Even for well-intentioned people, it’s not easy to make choices
that help secure our collective future. The viability
and greenhouse gas emissions effects of various
methods of producing energy are not commonly
understood. Moreover, various forms of energy
production—nuclear, wind, hydro, bio-fuels, geothermal, solar thermal, solar voltaic, gas, diesel,
oil, and coal—have very different implications for
greenhouse gas emissions and food supplies and
other side effects of energy production [ 4]. The
DOi: 10.1145/1836216.1836223
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