Looking at the geographical distribution of natural disasters in the
course of history, one might well wonder how earthquakes, tsunamis,
hurricanes, and forest fires can take tragic human tolls, again and
again, in the very same place. Why do people return to these
vulnerable sites? Why are they unable to recognize nature’s warning
signs, signs that have appeared so many times in the past? One answer,
from the New York Times journalist Andrew Revkin, is that modern
societies have lost one of the virtues of traditional, oral cultures:
the ability to listen to one’s elders and learn from past disasters.
Today, Revkin hypothesizes, scientists must play the role of wise
elder, discovering and maintaining records of distant tragedies and
warning of future ones (1).
Revkin’s observation does more
than illuminate modernity’s propensity for catastrophe. It drives to
the heart of the Defining Wisdom project, since it forces us to
consider the form wisdom might take in a technocratic age. What are the
implications of looking to scientists as founts of wisdom? Can
scientists really glean wisdom from natural disasters?
A
century ago, the opinion was common among Europeans that natural
disasters were antithetical to the growth of wisdom. As a prominent
American geologist pointed out in an 1882 essay on hurricanes, “such
conditions as they bring about are not favorable to close
observation…[N]o mind can see calmly when the body is in the very hands
of death (2).” Some British and German scientists, secure in their
sense of superiority over the populations of Asia, South America, even
southern Europe, blamed the “backwardness” of these lands on the
frequency of great earthquakes there. Were Europe subject to
earthquakes on the scale of those in South America, Charles Darwin
imagined, it would be “bankrupt,” and “the hand of violence and rapine
would remain uncontrolled (3).” His contemporary John Milne, one of
the pioneers of modern seismology, concurred that England would “sink
to the lowest level in the rank of civilized communities (4).” The
widely read Victorian historian Henry Thomas Buckle bluntly argued that
human reason could not withstand repeated natural disasters:
The
mind is thus constantly thrown into a timid and anxious state; and men
witnessing the most serious dangers, which they can neither avoid nor
understand, become impressed with a conviction of their own inability,
and of the poverty of their own resources. In exactly the same
proportion, the imagination is aroused, and a belief in supernatural
interference actively encouraged. Human power failing, superhuman power
is called in; the mysterious and the invisible are believed to be
present; and there grow up among the people those feelings of awe, and
of helplessness, on which all superstition is based, and without which
no superstition can exist (5).
Antiquated as
these claims may seem, the question they confront remains urgent.
Consider, for instance, whether Americans have gained any wisdom from
the tragedy of Hurricane Katrina. According to New York Times reports,
the piecemeal reconstruction of New Orleans has proceeded without
acknowledging the vulnerability of patchwork flood protection to
outlier storms. The rebuilding has only aggravated the city’s pre-flood
geography of risk, putting low-income and African-American residents at
comparatively even greater danger in the event of another extreme
storm. Residents are being encouraged to consult the risk assessments
for their neighborhoods on government websites, but internet access
remains an obstacle for many. Even when available, the cost-benefit
language of risk assessments may be difficult to assimilate to the
values of family, faith, and cultural tradition that also influence a
resident’s choice of home (6).
Today’s politicians and pundits
may debate whether events like Hurricane Katrina or the earthquake in
Sichuan were tragedies of civil engineering or of social injustice. But
the real question is whether humans are capable of extracting wisdom
from natural catastrophes in the first place.
Until the
eighteenth century, the answer to this question seemed clear. Early
modern philosophers associated wisdom with the aspiration to transcend
the human limits of knowledge and approach a divine perspective that
would reveal the universe’s master plan. Natural knowledge was a path
to wisdom, because nature was expected to display the rationality of
the creator’s design. What place could disasters find in this
optimistic vision? Might disasters bear wisdom?
During the
Scientific Revolution of the seventeenth century, many philosophers
rejected the view that disasters were deviations from the usual course
of nature, concluding that they were neither punishment for sinners nor
reminders to the faithful. The promoters of the new sciences insisted
that disasters were part of God’s original design, and that it was the
task of natural philosophy to elucidate their function in the context
of creation as a whole. By studying the workings of nature, scholars
would discover “new testimony of the divine Wisdom” and so would
“tempests, volcanoes, lightning and earthquakes, begin to lose their
horror (7).” Disasters were therefore sources not only of natural
knowledge but of wisdom.
According to traditional histories of
ideas, a single event severed this link between disasters and wisdom.
In 1755, a catastrophic earthquake struck the city of Lisbon,
unleashing a tsunami and fire and killing as many as half of the city’s
230,000 inhabitants. The philosophical response to Lisbon radically
altered the meaning of wisdom and its relation to natural knowledge in
ways that have yet to be elucidated by historians. Kant and Rousseau
famously rejected theological interpretations of the disaster in favor
of strict naturalism. Rousseau blamed the victims for the location of
their homes, while Kant offered (in Walter Benjamin’s estimation) the
very first work of seismology. After Lisbon, it seems, natural
disasters were set squarely in an objective framework of technical
analysis, prediction, and control.
Yet the earlier
association between disasters and wisdom did not disappear. It persists
in particular in the modern view that science thrives on disaster. As
the meteorologist Horace Byers once noted, reflecting on his
contributions to the rise of computerized weather forecasting in
mid-twentieth century America, “It is an unfortunate characteristic of
meteorology, that its great forward strides depend on disasters (8).”
Byers had in mind the invention of computerized weather forecasting for
aviation purposes in the crucible of World War Two. But his observation
applies equally well to the emergence of the first telegraphic weather
service in Britain a century earlier, a direct product of the great
storm of 1859, which wrecked 343 British ships (9).
In the
conviction that disaster breeds good science, we can hear echoes of the
providential view of disasters. In the wake of the catastrophic San
Francisco earthquake of 1906, for instance, the geologist T. C.
Chamberlin injected the following note of optimism:
If,
for instance, it shall later be shown, as I think not improbable, that
the earth is now in a general way receding from a period of special
deformation into one of relative quiescence, and that catastrophic
action is on the decline, it will be a contribution of no small value
to the comfort of mankind. The public is now very generally depressed
by needless apprehension of great impending disasters, if not a
universal and final catastrophe, apprehensions derived from the narrow
and pessimistic views of the past. From my point of view, which is
doubtless a partial one, a contribution of supreme value to the
happiness and well being of mankind is likely to grow out of rectified
views…derived from the prosecution of the earth sciences (10).
Chamberlin
suggested that the earthquake might lead not only to good science (if
funding agencies cooperated), but also to a new dialogue between
scientific experts and populations in vulnerable areas like California.
Through such an exchange, the earthquake might indeed generate wisdom,
in the form of liberation from unwarranted fears. Chamberlin, the son
of an evangelical minister, may have hoped in this way to reconcile his
chosen career with the spiritual mission of his father (11).
Today,
Chamberlin is best known for his account of the greenhouse effect, the
process by which atmospheric carbon dioxide raises global temperatures.
This, however, was a contribution that took decades to win recognition.
Perhaps what was missing in the history of global warming science was
precisely the spur that Chamberlin identified in 1906: disasters.
Indeed, fictional catastrophes have substituted for real ones. A study
of audience response to the global warming thriller “The Day After
Tomorrow” registered a significant increase in concern over carbon
dioxide emissions after viewing the film (12).
Still, history
shows that proponents of scientific progress are often too quick to
believe that a disaster has left them wiser. Efforts to build more
rational societies on the ruins of disaster have often proved to be
hollow triumphs. Too often, in catastrophe’s wake, self-appointed
modernizers have imposed an iron rule in the name of restoring order
(13). If modern science can indeed reap wisdom from disasters, then
the question is, by what means?
Here, the history of seismology
is instructive. Until the turn of the twentieth century, seismology was
a low-tech endeavor, relying primarily on human eyes and ears for its
empirical data. Beginning in Switzerland in the 1870s, scientists
organized elaborate networks of lay observers in order to mine the
experiences of ordinary people when the earth shook. With the
proliferation of accurate recording instruments in the early twentieth
century, many earth scientists hoped to turn their discipline into a
more quantitative, objective discipline, modeled on physics. A new era
of geophysics began, which transformed what counted as “evidence” of
the earth’s history (14). Out went data filtered by human bodies, in
came the “hard” evidence of seismographs and accelerometers. The
science of seismology and its practitioners moved increasingly further
from the populations who had once served as its witnesses—the
populations vulnerable to seismic disaster.
Today, however,
geophysics is being transformed once again. New initiatives are setting
out to inform populations about the seismic risks of their
neighborhoods, as well as to cull information for scientific research
from the wealth of experience such communities possess. One example is
the Center for Hazards and Risk Research at Columbia University, which
has piloted outreach programs that work with earthquake-vulnerable
communities to design risk-reduction plans tailored to local economies,
infrastructures, and cultures. Another is a website launched by the U.
S. Geological Survey to collect data on seismic events in real time.
Called “Did You Feel It?”, the site mimics the questionnaires sent out
by Swiss scientists over a century ago.
Among the scientists
pioneering this new wave of two-way communication between experts and
laypeople is Dr. Leonardo Seeber of Columbia’s Lamont-Doherty Earth
Observatory. Dr. Seeber’s career has taken him to disaster sites from
California to the Himalayas (his first son was born in the field in
Pakistan). Currently, Dr. Seeber is planning an ingenious project in
Bangladesh that will conduct basic and applied research on the
tectonics of the delta of the Brahmaputra, Ganges, and Meghna rivers,
an area at risk for earthquakes and floods, among other hazards. Dr.
Seeber and his colleagues will conduct their investigation in part by
enlisting local students and local technologies, while at the same time
training Bangladeshis to educate their own communities on seismic risk.
What’s more, the researchers will produce a geological map with
information on all major natural hazards in the area, and, to top it
off, will turn the roughly 200 holes drilled for research purposes into
wells to provide the population with clean drinking water.
The
holistic vision of Dr. Seeber’s project and its sensitivity to local
needs suggest a corollary to Mr. Revkin’s insights on natural
disasters. For the problem today is not just that modern societies have
short memories. If we turn back to the mid nineteenth century, there is
no doubt that oral cultures were already disappearing. But one crucial
line of communication was still very much in place: that between
scientists and laypeople. The divide between expert and amateur was not
yet firm, and conversations between the two were not yet hampered by
specialization and technical jargon. As illustrated by the history of
seismology in the past century and a half, the trend in the sciences
has been toward ever higher barriers to effective dialogue between
experts studying high-risk environments and the people living in them.
Thus, it is only a start for scientists to appoint themselves wise
elders. In the modern, post-Lisbon world, wisdom must emerge from
negotiations between abstract, universal, technical knowledge and the
values and experiences of particular communities. True wisdom will
emerge only as scientists once again turn to those who live with
natural hazards and ask, “Did you feel it?”
by Deborah Coen, Assistant Professor of History, Barnard College
References
1. “On Elephants Memories, Human Forgetfulness, and Disaster,”
http://dotearth.blogs.nytimes.com/2008/08/12/on-elephants-memories-human-forgetfulness-and-disaster/?scp=2&sq=wisdom%20disaster&st=cse2. N. S. Shaler, quoted in Sheila Hones, “Distant Disasters, Local Fears,” in Steven Biel, ed.,
American Disasters (New York: NYU Press, 2001), pp. 170-196, on 193.
3. Darwin, Voyage of the Beagle, chapter 14,
http://www.literature.org/authors/darwin-charles/the-voyage-of-the-beagle/chapter-14.html.
4. John Milne, “Earthquake Effects, Emotional and Moral,”
Transactions of the Seismological Society of Japan 9 (1886): 91-111, on p. 111.
5. Henry Thomas Buckle,
History of Civilization in England, vol 1 (New York: Appleton, 1886), p. 87.
6. “A Billion Dollars Later, New Orleans Still at Risk,”
http://www.nytimes.com/2007/08/17/us/nationalspecial/17protect.html?scp=9&sq=katrina%20engineering%20rebuilding&st=cse7. Matthew Mulcahy,
Hurricanes and Society in the British Greater Caribbean, 1624-1783 (Baltimore: Johns Hopkins University Press, 2006), quoted on p. 58.
8. Quoted in Kristine C. Harper,
Weather By the Numbers: The Genesis of Modern Meteorology (Cambridge, Mass.: MIT Press, 2008), p. 7.
9. Katharine Anderson,
Predicting the Weather: Victorians and the Science of Meteorology (Chicago: University of Chicago Press, 2005), p. 110.
10. Chamberlin, Letter to George Darwin, June 30, 1906, in
Science in America: A Documentary History 1900-1939, ed. Nathan Reingold and Ida H. Reingold (Chicago: University of Chicago Press, 1981), p. 66; quoted in part in Naomi Oreskes,
The Rejection of Continental Drift: Theory and Method in American Earth Sciences (New York: Oxford University Press, 1999), p. 132.
11. Oreskes,
Rejection of Continental Drift, p. 340, footnote 53.
12. Anthony Leiserowitz, “Before and after the day after tomorrow: A U.S. study of climate change risk perception,”
Environment 46 (2004): 22.
13. The growing field of disaster studies provides many historical examples of such hubris; see e.g. Steven Biel, ed.,
American Disasters (New York: NYU Press, 2001); Alessa Johns,
Dreadful Visitations
(New York: NYU Press, 1999). There is a large anthropological
literature critical of technocratic responses to disaster; see e.g.
Susanna Hoffman and Anthony Oliver-Smith, eds.,
Catastrophe and Culture: The Anthropology of Disaster (Santa Fe: School of American Research, 2002).
14. For overviews see Benjamin F. Howell, Jr.,
An Introduction to Seismological Research: History and Development (Cambridge: Cambridge University Press, 1990), Oreskes,
Rejection of Continental Drift.
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