Is sustained excellence
and creativity nurtured when a nation-state is ‘powerful’? Is there a
connection between hegemony and scientific creativity?
Maybe, as illustrated by
this simple sketch. But it needs to be explained.
It comes from the first
chapter of Exceptional Creativity in Science and Technology: Individuals, Institutions, and Innovations, edited by Andrew Robinson and
published in 2013 by Templeton Press. Chapter One, by J. Rogers Hollingsworth
and David M. Gear is titled The Rise and Decline of Hegemonic Systems of
Scientific Creativity.
First, we need to define
some terms. The word hegemon from ancient Greek means ‘leader’. The
authors define a “hegemonic power [as] one that exercises political, economic
and military supremacy over all other powers during a particular historic
period… [and this] gave birth to the creative scientific hegemon. A scientific
hegemon dominates multiple scientific fields and establishes the standards of excellence
in most scientific fields. Its language is the major one used in scientific
communication, and its scientific elite is the one most prominent in the world
of science. It attracts more foreign young people for training than any other
country. Its scientific culture tends to reflect society’s culture.”
However, developing
scientific hegemony is not a given even if a nation-state possesses political,
economic and military hegemony. The authors argue that totalitarian governments
and overly-centralized and bureaucratic systems stifle the possibility of
achieving scientific dominance. Smaller institutions, interdisciplinarity, and
some degree of nimbleness or adaptability seem to be important. Examples
include the Salk Institute (San Diego), MRC (Cambridge), Max Planck Institutes
(Germany), and more. There are also exceptional pockets of creativity without
being a powerful nation-state; the standout example provide is Göttingen in the
mid-1920s.
In their four examples
(French, German, British, American), the authors situate the rise of scientific
hegemony within the context of nation-state superpower-ness. These seem to fit
well historically, and names of famous scientists are used to bolster the
argument. However, it is the decline in scientific hegemony that proves more
interesting. The authors argue that while the processes varied in each
nation-state, the underlying reasons are the same. Particularly troubling is
that “when their systems began to decline, the elites in scientific hegemons
often failed to understand this fact; indeed, they tended to believe that their
system were continuing to perform extraordinarily well.”
France’s heyday was
roughly 1735-1850. Indeed, French scientists dominated the field and French was
the language of scientific communication. Young scientists flocked to France
for training. But then the double whammy of the French Revolution followed by
Napoleon Bonaparte’s short-lived conquering aspirations, led to a decline in
French dominance. But the authors also lay the blame on centralization of the
French government. Despite losing the lead in basic science, France still
managed to excel in applied science and technology, at least for a while. But
by the 1850s, resources, facilities, equipment and conditions for basic research
had declined significantly. The mantle of scientific creativity was shifting to
Germany.
Germany’s century spanned
roughly 1830-1930, peaking in the early twentieth century and experiencing a
precipitous drop with the rise of the Nazi regime. Much has been written about
the rise of the German research university, a model that greatly influenced the
rise of research universities in the U.S. and around the world. Many young
Americans went to Germany to be trained, which subsequently led to the U.S.
rise with Germany’s decline as scientists flocked (back) to the U.S. Einstein,
Franck, Haber, Hahn, Meitner, Polanyi, and more are among the many famous
physicists who also resided at the Kaiser Wilhelm Institutes in Dahlem.
However, Germany’s defeat in the first World War, a highly disrupted economy,
and skyrocketing inflation led to a loss in German hegemony. A decline in
scientific prominence followed quickly.
Britain’s heyday was
roughly 1870-1965. The great British empire was global in scope, its navy was
the envy of the world, and it dominated world trade. The authors focus on
Cambridge as the example par excellence of scientific hegemony.
Catalyzed by German advances, the British government began pouring resources
into its universities and emphasizing scientific research. The Cavendish
Laboratory was founded in 1871; its inaugural director, the great James Clerk
Maxwell. The authors write: “No department has ever had so many distinguished
scientists as the Cavendish Laboratory. Indeed, this single department has
received more Nobel Prizes for work actually done at the Cavendish than all of
France’s and Italy’s Nobel laureates combined. Yet the distinction of the
Cavendish was only the top of the iceberg of the greatness of British science…”
The U.S. is currently
still acknowledged as the world leader in science. It has also been the sole
global superpower since the end of the Cold War, although the rise of China is
challenging U.S. supremacy today – in all areas, science included. Five years
ago when this book was published, the authors caution the U.S. not to be
complacent. “As the French, German and British economies declined, so did their
science systems. Each former scientific power, especially during the initial
stages of decline, had the illusion that its system was performing better than
it actually was, overestimating its strength and underestimating innovation
elsewhere.”
The authors spend a moment
surveying the landscape of present-day science. In particular, there is an
interesting discussion of ‘large-scale’ science in ever increasing team sizes.
But does moving towards ‘big science’ also encourage the building in of
constraints to research? Organization has become much more complicated, be it
in scientific organizations or in universities. The administrative layering
coupled with the business and legal arms of the university has led to
“universities becoming like holding companies, with universities glad to have
the staff as long as they can bring in large research grants and pay
substantial overhead costs… [but] this kind of structure has become
dysfunctional…”
A list of “Characteristics
of Organizational Contexts that Facilitate Major Discoveries” is provided by
the authors based on their historical analysis. Here’s my summary.
·
Capable and visionary
organizational leadership
·
Moderately
high scientific diversity (not too much overspecialization)
·
Effective
communication and social integration across the organization
·
Recruiting the
right people
·
Organizational
autonomy and flexibility
On the other hand,
isolation/separation of different departments, hierarchical-centralized
decision-making systems, bureaucracy, are among characteristics that constrain
major discoveries. Interestingly, hyperdiversity is also mentioned in this list
although no explanation is provided why this might be. Finding a long-term
balance between science commercialization and basic discovery research will
also prove challenging. The authors put in a plug for smaller, more nimble
organizations with higher autonomy, as a counterweight to ‘big science’.
Should a fifth curve be
added with the rise of Asia as a whole and China in particular? Maybe the U.S.
curve is already dipping and we just don’t know it yet. Certainly, we live in
interesting times.
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