Statement
By
Dr. Kathleen C. Bailey
Before the
United States Senate Committee on
Governmental Affairs
Subcommittee on International Security,Proliferation, and Federal Services
March 18, 1998
Introduction
Mr. Chairman, Members of the Committee, I
am very pleased to appear before you today to address the relationship between nuclear
nonproliferation and the Comprehensive Test Ban Treaty (CTBT). The views I express today
are my own and not necessarily those of any institution.
For most of the last 22 years, I have been
working on issues related to nuclear nonproliferation and arms control. In 1976, I was the
first social scientist to be hired at Lawrence Livermore Laboratory, where I worked
closely with nuclear weapons scientists and engineers analyzing nuclear proliferation
intelligence. Subsequently, in Washington, I served as Deputy Assistant Secretary for
Intelligence & Research in the Department of State and, later, was Assistant Director
for nonproliferation at the Arms Control and Disarmament Agency. I served as the US
Governments principal policy official responsible for implementation of the Nuclear
Nonproliferation Treaty (NPT) and, as one of my duties, headed our nations
delegations to the preparatory meetings for the 1990 review of the NPT. In 1992, I
returned to Lawrence Livermore, where I have focused on measures to limit proliferation,
and have authored several books and many articles on the topics of nonproliferation and
arms control.
Table 1: Administrations Goals for CTBT
|
Constrain nuclear weapons
development by non-nuclear-weapons states
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Save the Nuclear
Non-Proliferation Treaty (NPT)
|
Improve ability to detect nuclear
testing
|
Establish an international norm
against nuclear testing
|
Constrain development of advanced
nuclear weapons by nuclear weapons states
|
Proponents for the CTBT have said that it
will achieve five nonproliferation goals (see Table 1) and will enable America to maintain
a safe and reliable nuclear deterrent. Four of the five goals relate to horizontal nuclear
nonproliferationthe spread of weapons to additional countries. The fifth goal is to
restrict vertical proliferationimprovement of the nuclear weapons capabilities of
America and other nuclear weapons states.
The conclusion of my testimony is that the
CTBT fails the cost/benefit test. It will not accomplish the nonproliferation goals as
claimed, and therefore will have little benefit. At the same time, the treaty will
seriously degrade the US nuclear deterrent, and thus the CTBT will have high national
security costs.
The Proliferation Arguments
The CTBT Will Not Meaningfully Constrain Nuclear
Proliferation
Claims made about the value of a CTBT to
nuclear nonproliferation have evolved. Whereas once treaty proponents argued that a CTBT
would help prevent or severely restrict nuclear proliferation, they now say
that the treaty will constrain nuclear weapons development. In fact, however, the
CTBT will not meaningfully constrain nations that seek to acquire a workable nuclear
weapons design.
A state that wants to produce a nuclear
weapon can do so, given adequate time and resources, without nuclear testing. It is well
known that some single-stage fission designs are relatively simple, and nations would not
need to test them to have sufficiently high confidence that they will work. Gun-type
weapons, using enriched uranium, would not necessitate testing. For example, the bomb
dropped on Hiroshima was a design that had never been tested, and South Africa
indigenously built six gun-type nuclear weapons without testing.
Furthermore, the CTBT would not confine
new proliferators to simple designs. Today, non-boosted, implosion-type weapons may
also be designed with high confidence, without testing. The level of complexity of the
nuclear design possible without testing is dependent on the technological sophistication
of the nation concerned.
Nuclear weapons testing is not essential
now for proliferating nations, as it once was, because information related to
nuclear weapons is now widespread. The technological hurdles faced by US weapon
designers in the 1940s are long gone. Universities teach courses in physics, engineering,
metallurgy, and chemistry that can provide a sound basis for a nuclear weapons program.
The information superhighway enables researchers in remote locations to access thousands
of relevant articles and reports, as well as to seek assistance from experts who, prior to
the invention of the Internet, were inaccessible. Advanced computers, although not a
prerequisite, are readily available and make weapons design easier. The state of knowledge
has also advanced with regard to materials, which makes it easier for a nation to design
lighter, less bulky weapons than those built at the outset of the US nuclear weapons
program. When combined, these variables make feasible for a nation to design with high
confidence a nuclear weapon that, in the not-so-distant past, would have considered
relatively sophisticated.
Critics may argue that new proliferators
would want to test a designjust as the United States usually doesbefore
stockpiling it. However, there are important differences between proliferators
needs, perspectives, and targeting requirements, and those of the United States and
Russia. During the Cold War, both sides focused on targeting one anothers military
sites. A premier objective has been pinpoint strikes against small targets such as silos,
rather than cities. This dictated high-performance delivery systems, which, in turn,
required tight parameters on the allowable weight, size, shape, safety measures, and
yield. In the case of the United States, these requirements contributed to the US reliance
on highly complex designs. Additionally, US and USSR interest in the battlefield effects
of their warheads was high, and both have had high standards for reliability.
By comparison, proliferators are likely to
target cities, not silos. Their delivery vehicles may be ships, barges, trucks, or
Scud-type missiles. Proliferators may not care whether the yield they obtain is exact, may
not have tight restrictions imposed by advanced delivery systems or safety standards, are
unlikely to have highly complex designs, and may not care about battlefield effects.
Furthermore, proliferators may have an entirely different standard for reliability. In
other words, it is quite feasible for a nation to develop a device that will work, as long
as it does not matter if the yield is exactly known and there are no exacting
specifications which must be met. Such differences in requirements may help explain why
Pakistan, and perhaps others, have concluded that nuclear testing is not a prerequisite to
building a nuclear arsenal.
In summary, the CTBT will not create a
significant obstacle to nuclear proliferation. The need for nuclear testing increases in
proportion to the complexity of and requirements for the nuclear warhead design. However,
it is quite feasible for a nation to design, build, and stockpile nuclear weapons without
nuclear testing.
The Non-Proliferation Treaty Is At Risk, Regardless of a
CTBT
Robert Bell, Special Assistant to the
President for National Security Affairs, makes two points about the linkage between the
CTBT and the future of the Nuclear Non-Proliferation Treaty (NPT), both of which imply
that the CTBT will be necessary to assure the survival of the NPT. The first statement is
that the CTBT and NPT are complementary and, One without the other isnt going
to be viable. Second, Bell says that the NPT will be at risk when the NPT is next
reviewed in 2000 if the United States has not ratified the CTBT.
It is an exaggeration to say that the NPT
is not viable without the CTBT. The NPT has been valued by its parties since it came into
force in 1970 as a means of increasing their security. Absence of a CTBT has not negated,
nor will it negate, that value.
Bell is correct, however, in saying that
nonratification of the CTBT could contribute to the NPTs political woes. What is
missing from his assessment is the fact that CTBT passage will not save the NPT from those
problems. For at least three reasons, discussed below, the NPT will be at increasing risk
regardless of whether the United States ratifies the CTBT.
Demand for Timetable for Zero May Unravel the NPT
A contradiction exists which has long been
a sore point with many NPT parties and is now building to a crisis which threatens to
unravel the NPT. The United States and the other nuclear weapons states pledged in Article
VI of the NPT that they would work in good faith toward total nuclear disarmament.
Simultaneously they have continued to rely on their nuclear deterrents for security and
have said that disarmament is a long-term rather than near-term goal.
Prior to the NPT Review and Extension
Conference of 1995, several nations insisted that the nuclear weapons states abandon
nuclear deterrence and negotiate a timetable by which zero nuclear weapons would be
reached. They used the decision on extension of the NPT as a bargaining tool. Because the
nuclear weapons states would not agree either to zero or a timetable, the NPT Conference
was very nearly a failure. However, a last-minute compromise was reached which included a
commitment to achieve a CTBT and a structural change for future NPT review conferences.
Both decisions help set the stage for continuing troubles for the NPT.
The CTBT will be controversial among many
NPT parties, who are in the process of discovering that it does not constitute the step
toward disarmament that they had thought it was. The CTBT was touted as a disarmament
measure because the United States and others said it would help halt vertical
proliferationdefined as the modernization and enhancement of the capabilities
of the declared nuclear weapons states. The view of most NPT parties has been that the
United States and other weapons states would be unable to test, resulting in erosion of
confidence in reliability and, ultimately, degradation of the usability of the nuclear
weapons. This would set the stage for the United States and others to abandon nuclear
deterrence and go to zero nuclear weapons.
The objective for the CTBT, from the
perspective of many NPT parties, will not be met because the United States and other
weapons states are not abandoning nuclear deterrence, but are taking steps to assure that
their stockpiles will remain safe and reliableand therefore usabledespite the
testing ban. The US stockpile stewardship program (SSP) is designed to enhance
understanding of the physics of nuclear weapons, to assure the ability to remanufacture
warheads, to maintain the ability to test if needed, and to certify credibly the safety
and reliability of US nuclear weapons. Thus, nuclear erosion, the goal set for
a CTBT by many nations around the world, is effectively undermined by a successful SSP. As
a result, many nations and non-governmental groups already have declared that the CTBT
does little or nothing to fulfill the NPT Article VI obligation to abandon nuclear
deterrence and move toward zero.
Another part of the compromise reached at
the 1995 NPT conference established an enhanced review process for the NPT. This process
locks in treaty review conferences every five years, as well as preparatory meetings in
the three years preceding the review conferences to evaluate progress toward meeting
the objectiveswhich refers primarily to the objective of total disarmament as
contained in the NPTs Article VI. Whereas it was previously possible for the United
States and other weapons states to say that nuclear disarmament was a goal whose
achievement was at a time unknown in the future, there now is expectation that concrete
steps be defined and fulfilled. We can therefore expect that each NPT review will be
acrimonious and that the risk to the NPT will grow.
Dissatisfaction with US Technology Transfer Restrictions
Is Growing
There also has been a long-standing
unhappiness among many parties that the United States and other nuclear suppliers are not
fulfilling the NPTs Article IV requirements to provide technology for peaceful uses.
That dissatisfaction is growing significantly due to the US pressures to stop civil
nuclear exports to Iran and other countries, particularly from Russia and China. Although
Iran is a party to the treaty and has volunteered to allow visits to its nuclear sites to
bolster its claim that there are no illicit activities, the United States is leading a
campaign to prevent suppliers from selling nuclear technology to Iran. US officials openly
voice suspicions that Iran is working on nuclear weapons, but has not convinced the
international community that these claims are based on fact. The US actions are made more
disturbing to many NPT parties by the US-led effort to provide nuclear technology and aid
to North Korea, which remains in noncompliance with the treaty. It appears to many nations
that the United States has rewarded a nation that cheated on the NPT and is punishing one
that is seemingly in compliance.
Erosion of NPTs Contribution to Security
Violations of the NPT by North Korea and
Iraq, as well as Irans unconfirmed activities, have contributed to the third major
problem that plagues the NPTerosion of the NPTs security value. The fact that
nations can design nuclear weapons and build weapons production facilities without timely
detection, and that the international community does not deal effectively with such
cheating when it is found, degrades the value of the NPT. The NPT has long been marketed
as a means of helping assure security of nations, but these violations and lack of
response belie that assurance.
The value of the NPT to its parties
security is further eroded by a phenomenon unrelated to nuclear proliferationthe
spread of chemical and biological weapons (CBW). Increasingly, nations are recognizing
that their perceived adversaries are turning to CBW because they are technologically much
easier, less expensive, and less observable than nuclear weapons. While NPT parties remain
concerned about some nations nuclear activities, nuclear proliferation is not as
prominent a security concern as it once was.
In summary, the NPT is a troubled treaty,
regardless of whether the CTBT is ratified or not. Some nations will attempt to hold the
NPT hostage to demands for total disarmament on a timetable and/or freer nuclear
technology transfers. Willingness to abandon the NPT will increase as nations come to view
the NPT as unable to contribute meaningfully to their security. The United States should
not ratify the CTBT, and thus compromise the safety and reliability of its own nuclear
arsenal, in a futile attempt to ameliorate the NPTs problems.
The International Norm Argument is Meaningless
CTBT proponents contend that the test ban
will constrain even those who are not party to the agreement from conducting nuclear tests
because an international norm will have been created. History is replete, however, with
examples when normsand even legally binding treaties, which are a stronger
constraintfail to inhibit nations. Usually this occurs when a nation views breaking
the norm or the treaty to be in its security interests.
The NPT norm against the pursuit of
nuclear weapons has been broken repeatedly, both by the treatys parties and by
non-parties. The norm was established when the treaty went into effect in 1970. The list
of states which broke or are thought to have broken the norm include: Argentina, Brazil,
India, Iran, Iraq, Israel, North Korea, Pakistan, South Africa, South Korea, and Taiwan.
Another example of the failure of an
international norm is provided by the history of non-adherence of some parties to the
Biological and Toxin Weapons Convention (BTWC), which outlawed the possession of
biological weapons. Iraq had signed but not acceded to the BTWC, but proceeded secretly to
produce massive quantities of biological agents. The Soviet Union, and later Russia,
violated not only the norm, but the treaty. As a party to the BTWC, Russia was obligated
not to produce biological or toxin agents, yet there is convincing evidence provided by
defectors that Russia continued to do so. Given the non-verifiability of the BTWC, one
could argue that the propensity of nations to respect a norm is directly proportional to
the probability that violations would be detected. In the case of the CTBT, the lack of
verifiability is a serious drawback.
Downsides of the CTBT
The CTBT Is Unverifiable
In his letter of transmittal to the
Senate, President Clinton states that the CTBT is effectively verifiable. The is correct
only if you define verifiability by weak standards. Let me discuss the definition of
effective verification and give you the facts that support my conclusion that
the CTBT is neither effectively nor meaningfully verifiable.
When I served in the Reagan and Bush
Administrations, effective verification was accepted to mean high
confidence that militarily significant cheating will be detected in a timely manner.
In the case of the CTBT, this would mean that you are highly confident that you will be
able to detect, within hours or a few days of the event, any nuclear testing which will
provide the tester with militarily significant weapons information. There are at least two
key questions that therefore must be addressed: What yield nuclear test can provide
militarily significant information? and, Can the CTBT verification system detect to that
level?
Experts will disagree on the usefulness of
different yields to different testers, but I think they will all concur that
less-than-full yield testing can be enormously important, and militarily significant. For
example, many in our own nuclear weapons design community wanted to retain the ability to
test at some level. Attached is a table, agreed to by all three US weapons laboratories,
which makes the point that testing at 500 tons is a very useful testing level, although
not sufficient to gain full confidence in all aspects of an existing weapons
performance or to develop sophisticated new nuclear weapons
The lowest possible yield to accomplish
new designs as well as safety and reliability depends upon warhead requirements, but most
designs could be adequately tested at yields between one and 10 kilotons. 500 tons would
be sufficient for reliability testing, but a higher yield would be needed to certify any
new design that was a major departure from already-tested designs. Therefore, it is
reasonable to assume that 10 kiloton tests would be militarily significant, and tests down
to a level of 500 tons may also be.
The International Monitoring System (IMS)
of the CTBT is expected to provide the ability to detect, locate, and identify non-evasive
nuclear testing of 1 kiloton or greater. However, a nation may conduct nuclear tests
evasively, which would allow several kilotons to be tested with little or no risk of
detection. One method by which this might be done is through energy
decouplingdetonation of the device in a cavitythat can reduce the signal by as
much as a factor of 70 are thought to be possible. Thus, a kiloton explosion could be made
to look seismically like a 14 ton explosion fully coupled. A 10 kt explosion could look
like a .14 kt explosion.
Let me give you an example. The United
States conducted two nuclear tests in the Tatum salt dome located at Chilton, Mississippi.
Sterling, the test conducted on December 3, 1966, had a yield of 380 tons, but the
apparent seismic yield was only 5.3 tons, a reduction by a factor of 71.7.
It is clear that the IMS will not be able
to detect nuclear testing below 1 kt and, if the test is evasively conducted, will not
detect several kilotons. CTBT proponents say that supplemental data from US national
technical means will fill the gap. This is not entirely accurate. The United States has
stated that its objective is to have the capability of identifying and attributing
with high confidence evasively conducted nuclear explosions of about a few kilotons yield
in broad areas of the globe. The US Intelligence Community acknowledges that this is
a complex task that will require a lot of work, time, and the necessary
resources to achieve. For the present, even with a fully functional IMS supplemented
with data from US national technical means, it is possible that a militarily significant
test could be evasively conducted without detection.
Another problem with detection and identifying
low-yield events is the large number of signals in these ranges. At lower yields, the
number of non-nuclear events of similar size increases (e.g., mining explosions and
earthquakes on land, explosions for geophysical exploration, volcanoes at sea, meteorite
impacts in the atmosphere). These non-nuclear events increase the total number of events
to be processed by a verification system, and a small percentage of them generate signals
similar to those expected from nuclear explosions. This increases the difficulty of
identification.
In addition to its technical limitations,
the IMS has other problems. A number of the countries in which the facilities are to be
located will be unable or unwilling to pay for them, and may not have the technological
wherewithal to properly manage them. Upkeep and protection of the facilities is also an
issue, as is the actual location of some facilities. One difficulty, for example, is that
some of the stations monitoring China will be within China. Hypothetically, if China
wanted to test, it could assure that the station(s) would not be working during the time
of the test. Another scenario is that a nation might test a nuclear weapon in the ocean,
where identifying the origin of the device might be impossible. The perpetrator could then
depend on the IMS to analyze the yield of its device and there would be no way to
attribute the test.
In summary, the verification regime of the
CTBT increases our capabilities to detect nuclear tests at yields higher than 1 kt
non-evasively conducted, and up to 70 kt evasively conducted. This means that militarily
significant testing can be conducted with little or no risk of detection by either the IMS
system or the supplemental capabilities of US technical means.
The CTBT Will Constrain Nuclear Modernization
The Clinton Administration asserts that a
purpose of the CTBT is to prevent the United States and others from being able to
modernize nuclear weapons. There is no question that the inability to test will limit the
abilities of nuclear weapons statesassuming that they do not cheat under the
CTBTto modernize their nuclear forces. The directors of US and Russian nuclear
weapons laboratories have stated that they would not choose to introduce new, modern, high
yield-to-weight ratio warhead designs into their countries stockpiles without
nuclear testing. It is reasonable to expect that decision-makers in other nuclear weapons
states would have similar views.
The important question to ask is whether
constraining nuclear modernization is desirable. Some argue that constraint is a good
outcome because it will undermine the confidence that nuclear weapons states have in their
arsenals, making them less usable. However, there are also serious downsides, as outlined
below.
Lack of Modernization Forecloses Safety Improvements
Think of the safety improvements for
automobiles that have resulted from evolving technology over the past decade. Advances in
materials science, electronics, and concept innovation have led to better crash-proofing,
airbags, design principles, etc. These could not have been introduced without actual
testing.
It would be foolish to assume that similar
advances in technology will not produce measures which could make US and other
nations nuclear weapons safer. For example, it is possible that in the future,
researchers will discover higher energy, insensitive explosives which will make it
possible to make warheads safer, without compromising weight limitations. Because nuclear
weapons are extraordinarily complex, testing would be required before such advances could
be integrated into stockpile designs.
Modernization May Be Needed for New Requirements
The only claim by treaty proponents that
rings true is that the CTBT will constrain not preventmodernization.
Constraining modernization is risky, however, because it seriously degrades our ability to
tailor the arsenal to emerging or as-yet-unknown threats, or to adapt it to changes in
defensive technologies.
At present, the United States has no
specific requirement for new nuclear weapons designs, but we cannot be certain that this
always will be the case. Saddam Hussein and Desert Storm have taught us that we need to be
able to strike and destroy deeply buried targets such as underground bunkers. Similarly,
the proliferation of chemical and biological weapons worldwide raises the question of
whether the current US stockpile, which was designed primarily to destroy Soviet nuclear
weapons silos, is tailored for the missions of the future. For example, much has been made
of the inability of the Patriot missile system to destroy incoming SCUD missiles during
the Persian Gulf War. Fortunately, none of these warheads contained anthrax, ricin, or
even a nuclear warhead. If they had, the casualties in Saudi Arabia and Israel could have
been staggering. Patriot missiles tipped with low-yield nuclear warheads are capable of
engaging and vaporizing any incoming Scud missile and rendering its lethal cargo useless.
Preserving the option of modernizing US
nuclear weapons is important also in the context of emerging defensive technologies. In
the future, adversaries may discover new means to render US warheads or delivery vehicles
obsolete. Such a technological breakthrough could necessitate a complete overhaul of US
warheads and delivery systems.
Old Weapon Designs Decline in Deliverability
Nuclear warheads are designed to be mated
with specific delivery systems. Delivery systemsaircraft, boats, ships,
etc.age and must be replaced. Furthermore, as adversaries develop countermeasures,
our systems must be improved. These newer systems have improved electronics, materials,
performance criteria, and other attributes, all of which affect the optimal design of
weapons they deliver. (It is, of course, possible to reverse the process and begin to
design delivery vehicles to the parameters of existing weapons, but this has its own set
of downsides and should be carefully considered.)
It is possible to make some changes to
warhead design without testing. However, for nuclear weapons to continue to be deliverable
by newer systems, it may be necessary to change the weight, size, and shape of the
warhead. Without testing, the ability to significantly change the parameters of US nuclear
warheads will be limited.
In summary, the CTBT will constrain
nuclear weapons modernization, which may be a negative outcome. Any advantages of
constraint must be weighed against the disadvantages of freezing our weapons
technology. Evolution in technologies for safety, defenses, and delivery systems may
render the now-modern US nuclear arsenal less-than-optimal.
The CTBT Erodes Confidence in the US Nuclear Stockpile
The United States continues to need a
strong nuclear deterrent to respond to existing and emerging threats. Both Russia and
China have significant nuclear arsenals, and perhaps undeclared chemical and biological
arsenals as well. Meanwhile, chemical and biological weapons capabilities are
proliferating, a threat against which our nuclear deterrent may be the only workable
response. We should not inhibit our capabilities to keep that deterrent strong, safe, and
reliable.
Nuclear testing has helped assure the
reliability of US nuclear weapons. According to former Los Alamos National Laboratory
Director Sig Hecker, confidence in the stockpile has decreased since testing ceased in
1992. Nevertheless, the decline in confidence is manageable because no new designs have
been introduced, many experienced designers and engineers are still at hand, and there is
an extensive test history related to the weapons in the stockpile. This will change,
however, over time. Experts will retire and the weapons will age, possibly causing
deterioration that could affect the workability of the weapons.
The weapons laboratories hope to assure
the continuing confidence in reliability through the stockpile stewardship program (SSP).
However, the SSP faces challenges which raise serious concerns, including:
The SSP facilities will not be
completed for some years, perhaps more than a decade. There is no certainty that the
technologies of SSP will work as intended or that SSP will enable scientists to understand
weapons physics well enough to replace the knowledge previously gained through testing.
The funding for the program is
promised, but the required $4.5 billion/year for 10 years must be annually agreed by
Congress and defended in light of other pressing priorities. Already, there is a budding
campaign in the House of Representatives against full funding which, if successful, could
at best push completion of SSP too far into the future and, at worst, assure its failure.
Support from the arms control
community is lukewarm at best. Many advocates of CTBT say that they will have to
reconsider their support for SSP in the future, after the CTBT is ratified.
SSP managers may limit the types of
experiments they are willing to do because of fear of adverse reaction from anti-nuclear
activists. This could make the SSP less relevant to nuclear weapons design.
In summary, we still face threats for
which we need a strong nuclear deterrent. That deterrent is eroded by the cessation of
nuclear testing. SSP, the stopgap measure, faces serious challenges and may fail.
The CTBT May Promote Nuclear Proliferation
Nuclear testing not only enabled the
United States to keep its nuclear weapons design skills at a high level, it demonstrated
to allies and potential adversaries alike that the US arsenal is reliable and US
commitment to nuclear deterrence was strong. Any decline in US confidence in or
commitment to its nuclear deterrent will increase the likelihood of proliferation by
nations currently under the US nuclear umbrella. Japan and South Korea worry about the
plutonium that North Korea still possesses and about the fact that Pyongyang may have
secret nuclear weapons and/or a clandestine nuclear weapons program. European nations may
not trust Russia to disarm at the same pace as the United States, or to cease its nuclear
testing at yields below detectability. Although nonproliferation commitments by all three
advanced nations are strong, these may change if they perceive that they are threatened by
nuclear weapons, but have little trust in the viability of the US nuclear deterrent.
Conclusion
For the sake of nuclear nonproliferation,
we are considering ratification of the CTBT. Yet, the CTBT will not meaningfully
accomplish the nonproliferation goals set out for it. Nations will be able to design and
deploy nuclear weapons without testing. The NPT will be at risk regardless of whether the
CTBT is ratified by the Senate. The CTBT will not be able to detect militarily significant
cheating, even if supplemented by US national technical means. The objective of creating
an international norm against testing is, as history has demonstrated with other arms
control norms and agreements, not meaningful. Thus, the potential benefits of the CTBT to
nuclear nonproliferation are meager.
On the other hand, the CTBT will have a
profound impact on the ability of the United States to assure that its nuclear weapons
continue to be as reliable, safe, and effective as can be. Ratifying the CTBT will
foreclose the ability of the United States to modernize its nuclear forces because US
compliance is certain. However, given that the CTBT is not effectively verifiable and that
other nations have a history of noncompliance with arms control treaties, militarily
significant cheating may occurto the disadvantage of US security. Thus, the limited
political benefits of the CTBT are not worth the high cost to our national security.
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