Ogmius Exchange: Part II
Thoughts on Catastrophic Terrorism in America
By Eugene Skolnikoff
It does not take much imagination to see the many ways in which science and technology
can be used by terrorists, nor to realize their relevance to measures to protect
against terrorism. That relationship has received much attention in the government,
in the public, and in the scientific and engineering communities in the year since
Sept. 11. Many fearful scenarios have been suggested, along with sober studies
of the dangers we face. Much attention has been given to possible nuclear, biological
or chemical threats, with parallel discussion of the need for technologies to
detect or protect or mitigate the effects of such attacks if they occur. The agenda
is long and has resulted in science and technology being given a reasonably prominent
place in the new Department of Homeland Security (DHS).
We must recognize, however, that a modern technological society inevitably is
a vulnerable society. We have come to depend on large-scale technological systems
–energy, communications, transportation, financial networks, water and food
distribution, among others– whose interruption would have highly disruptive
effects. Vulnerability of the systems can be lessened, but not eliminated if the
systems are to operate and serve their function. Moreover, that vulnerability
can be attacked not only by sophisticated science or technology, but also by everyday
technologies, as we saw so tragically a year ago.
That ability to use any technology as a weapon is one of the “bedrock”
attributes of science and technology: the fundamental characteristic that all
scientific and technological knowledge can be used for beneficial or malign purposes;
all knowledge is “dual-use.”
There are other bedrock attributes also relevant to the terrorist threat. One
is that knowledge inevitably spreads. Barriers can delay, but not prevent transfer
of knowledge to those who seek it and have the competence and resources to assimilate
and use it. Transfer may not be easy, often it is quite difficult, but cannot
be permanently prevented.
Another attribute is that the most significant applications of a new technology
may be far from the original intended purpose of its development. Especially so
when synergisms among scientific disciplines and technologies give rise to applications
not foreseen within the individual fields. The best example is the ubiquitous
silicon-based chip, so essential to high-performance computers, that depends on
material science, lithography, computer science, and other disciplines for its
design and manufacture.
All of these and related factors ought to put a different face on attempts to
limit the knowledge available to “rogue” states or potential terrorists,
and on the agenda for research and development. Disquieting signals have been
appearing from Washington indicating an intention to discourage or prevent the
publication of research results that are seen as having possible application to
terrorist weapons, and to limit the fields in which foreign students may be engaged.
There are legitimate questions about whether there ought to be any restrictions
applied to publication (e.g. the detailed design of nuclear weapons), but the
recent difficult history, predating Sept. 11, of the implementation of rules for
controlling unclassified information under the International Trade in Arms Regulations
(ITAR) makes it clear that it would be unwise to leave such matters to government
decision alone and to implementation by national security agencies. Under the
ITAR, onerous impediments to research in the space sciences have been imposed
in the name of non-proliferation. The issues surrounding non-proliferation are
real and important, but the regulations have been implemented with little apparent
understanding of the effects on the research community or of the consequent implications
for national security. Though the effects have been primarily in space sciences
so far, the ITAR lists other disciplines to which it could be applied.
Blanket restrictions on openness of information and on the participation of qualified
foreign students will not prevent information from reaching undesirable hands.
The research community does, however, have an obligation to understand what controls,
if any, should be instituted, and how they might be implemented. The recent policy
adopted by the American Society of Microbiologists to monitor questionable papers
in the editorial review process may provide a viable model. But, broader restrictions
on information or people would only serve to reduce the vitality of the research
and development enterprise in the US, a vitality that will be essential to meet
the broadened agenda posed by the terrorist threat.
That agenda now includes a range of goals, from frontier molecular biology on
ways to detect and counter new disease pathogens to less sophisticated research
on how the nation’s vulnerabilities might be reduced or the effects of disruption
minimized. The “simple” goals-- to improve the nation’s public
health system, or monitor the massive container traffic in the nation’s
ports, or build redundancy at reasonable cost in communications networks–
may prove to be as important as the fundamental research in the laboratory. Whether
esoteric research at the frontier or down-to-earth improvement and implementation
of well-understood technologies is required, the quality of the R/D enterprise
is essential. Over the years, we have learned what is essential to maintain that
quality; we must not cripple it now through measures that superficially may appear
appropriate but in fact are damaging to the resource we are trying to protect
and ultimately will lessen rather than strengthen national security.
Eugene B. Skolnikoff
Professor of Political Science Emeritus
Massachusetts Institute of Technology
ebskol@mit.edu
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