Saturday, June 28. 2008
Richard Rhodes: Arsenals of Folly: The Making of the Nuclear Arms
Race (2007, Knopf)
This is Rhodes' third book on nuclear weapons, following The Making
of the Atomic Bomb and Dark Sun: The Making of the Hydrogen Bomb,
the latter including the early Soviet efforts to join the arms race. Two
great books, exactly where to start to learn anything (and pretty much
everything) about the strange beauty and terror of nuclear weapons. This
book largely completes the story, covering the subsequent arms race, the
fitful attempts to rein it in, and the general absurdity of trying to
pretend that these bombs are anything but Weapons of Mass Suicide. In
typing up these quotes, I'm particularly struck by the political folly
of the neocons, and for that matter the long line of trigger-happy
anti-communists from Kennan and Nitze up through PNAC.
Extraordinary book.
No page number, just a quote on the opening page, from old-time
conservative Peter Viereck:
Reality is that which, when you don't believe in it, doesn't go
away.
To the Chernobyl Sarcophagus (pp. 5-7):
At 2:30 on Saturday afternoon someone finally called the institute
to report an accident at Chernobyl. In the early hours after midnight,
Chernobyl Reactor Number Four had run away in four seconds from 7
percent of maximum rated power to about one hundred times maximum
rated power, an event called a prompt critical excursion that had
flashed the reactor's thousands of gallons of circulating water to
high-pressure steam. The graphite core of the massive,
concrete-encased reactor was an enclosed cylinder forty feet in
diameter and twenty-three feet tall, set on end, with blocks of
concrete and a water pool beneath it to absorb the fierce radiation
its zirconium-clad uranium fuel elements produced, and a
two-million-pound disk-shaped upper biological shield of concrete
blocks set over it like a lid to protect workers from radiation
exposure. In the same spirit of bravado that had prompted the
scientists at Los Alamos during the Second World War to nickname the
atomic bomb they were building the "gadget," the men who operated the
RBMKs called the upper biological shield the pyatachok, Russian
for one of the smallest Soviet coins, the five-kopek piece. When the
water flashed to superheated steam and the reactor's steam pipes
started exploding, an eyewitness reported later, the pyatachok
"began to bubble and dance."
Then two explosions in the space of less than four seconds tore open
the reactor and blew out the building. The reactor core was sealed
within a metal tank filled with a mixture of helium and nitrogen to
prevent the graphite moderator -- four million pounds of pure carbon
-- from burning. The prompt critical excursion had heated the graphite
red hot. The first steam explosion lifted the two-million-pound
pyatachok. At the same time the steam burst down through the
metal tank and penetrated the red-hot graphite. Steam combines
ferociously with hot carbon to make carbon monoxide, liberating
hydrogen; the second and more powerful explosion combined steam and
exploding hydrogen gas, tilted up the pyatachok nearly
vertical, shattered the upper half of the reactor core, and blew tons
of its red-hot radioactive debris -- a rubble of highly irradiated
uranium-oxide fuel as well as radioactive graphite and zirconium --
past the pyatachok, through the roof, and half a mile into the
air.
It fell out by size. Big blocks of hot graphite landed on the roofs
of Number Four's turbine hall and Reactor Number Three. To lower
construction costs, the roofs had been covered with flammable asphalt;
the hot graphite set them on fire. Blocks and smaller pieces of
graphite landed on the grounds around the building and splashed
hissing intot he four-mile-long cooling pond that lay between the
plant and the Pripyat River. The cooling pond was fed by and drained
into the river, which drained in turn into the big reservoir
downstream that stored the water supply of the city of Kiev, the
Soviet Union's third-largest city, with a population of some 2.5
million people.
Graphite pieces and soot-like particles scattered across a stand of
pines southeast of the complex; several weeks later, when the
radiation had killed the trees and their chlorophyll had faded, people
started calling the dead stand "the Red Forest." About half the total
radioactive fission products jettisoned from the reactor fell within a
two-mile radius of the building. The gases released in the explosion
diluted and dispersed into the upper atmosphere, but the wind carried
the finest aerosols and hot, intensely radioactive particles (which
lofted on their own heat like microscopic hot-air balloons) northwest
toward Minsk, on to Ingalina and then across the Baltic Sea to Finland
and Sweden. The explosions also blew out the shield elements below the
reactor; with the water channels through the graphite blocks drained,
the hot graphite chimneyed air up the channels through the remaining
lower half of the reactor core and the graphite began to burn. It
turned efficiently, the soot and ash carrying more and more radiation
high into the air.
A containment structure such as the concrete-and-steel dome that
protects all Western and Japanese power reactors would probably have
confined the Chernobyl explosions and their radioactivity, but Soviet
reactors of the RBMK type lacked such containment.
In the 1950s, when the RBMK design was developed and approved,
Soviet industry had not yet mastered the technology necessary to
manufacture steel pressure vessels capacious enough to surround such
large reactor cores. For that reason, among others, scientists,
engineers, and managers in the Soviet nuclear-power industry had
pretended for years that a loss-of-coolant accident was unlikely to
the point of impossibility in an RBMK. They knew better. The industry
had been plagued with disasters and near-disasters since its earliest
days. All of them had been covered up, treated as state secrets;
information about them was denied not only to the Soviet public but
even to the industry's managers and operators. Engineering is based on
experience, including operating experience; treating design flaws and
accidents as state secrets meant that every other similar
nuclear-power station remained vulnerable and unprepared.
Unknown to the Soviet public and the world, at least thirteen
serious power-reactor accidents had occurred in the Soviet Union
before the one at Chernobyl. Between 1964 and 1979, for example,
repeated fuel-assembly fires plagued Reactor Number One at the
Beloyarsk nuclear-power plant east of the Urals near Novosibirsk. In
1975, the core of an RBMK reactor at the Leningrad plant partly melted
down; cooling the core by flooding it with liquid nitrogen led to a
discharge of radiation into the environment equivalent to about
one-twentieth the amount that was released at Chernobyl in 1986. In
1982, a rupture of the central fuel assembly of Chernobyl Reactor
Number One released radioactivity over the nearby bedroom community of
Pripyat, now in 1986 once again exposed and at risk. In 1985, a steam
relief valve burst during a shaky startup of Reactor Number One at the
Balakovo nuclear-power plant, on the Volga River about 150 miles
southwest of Samara, jetting 500-degree steam that scalded to death
fourteen members of the start-up staff; despite the accident, the
responsible official, Balakovo's plant director, Viktor Bryukhanov,
was promoted to supervise construction at Chernobyl and direct its
operation.
(p. 16):
The RBMK reactor was a dual-use design. It was developed in the
1950s as a production reactor to produce plutonium for nuclear
weapons, then adapted for civilian power operation in the 1970s; like
its graphite core, its pyatachok was punctured with multiple
channels from which irradiated fuel rods could be removed via an
overhead crane while the reactor was operating. If the military needed
plutonium, on-line refueling would allow fuel rods to be removed early
to maximize their bloom of military-grade plutonium. A safety
containment structure around such a reactor, which would probably have
prevented an accident like the one at Chernobyl, would have also
greatly reduced its military value. Military needs thus competed with
civilian needs in the choice of the RBMK design when the Soviet Union
decided to greatly expand electricity production with nuclear power in
the early 1970s; a competing light-water reactor design, the Soviet
VVER, was safer but less suitable for the production of military-grade
plutonium. The RBMK design was adapted for civilian use primarily for
economic and logistic reasons -- the concrete and graphite reactors
drew on different industrial resources than the steel VVERs did -- but
their dual-use potential weighted the decision as well. From the
perspective of the Politburo's old guard, then, publicly discussing an
accident at a Soviet nuclear power plant, especially one that revealed
such serious design flaws, would be no less subversive than revealing
the location and fitness of an army in the middle of a war.
(pp. 24-25):
The struggle to deal with the fallout of radionuclides that had
contaminated large areas of Soviet territory continued through the
summer and fall and across the next winter. When the leaves fell from
the chestnut trees that are the glory of Kiev, proud on its high bluff
above the Dnieper River, they had to be raked up, all three hundred
thousand tons of them, baled and buried outside the city as low-level
nuclear waste. "Liquidators" by the hundreds of thousands, perhaps
half a million in all -- 340,000 soldiers, many of them recently
returned from service in Afghanistan, new draftees, minor government
employees such as teachers and inspectors -- were pressed into service
and took their brief turn scraping away topsoil, paving over roads,
spraying plastic coatings onto schoolyards and fallow fields, burying
gardens, houses, equipment, wells. "We buried the forest," one of them
told Alexievich. "We sawed the trees into meter-and-a-half pieces and
packed them in cellophane and threw them into
graves. . . . It was just your average Russian
chaos. That's how we live." In November 1986, after a heroic effort,
workers finished entombing Reactor Number Four within a sarcophagus
made of half a million cubic yards of reinforced concrete, and only
then did it cease releasing radiation into the environment.
"More than 500 residential communities, nearly 60,000 buildings and
structures, and several tens of millions of square meters of exposed
surfaces of technological equipment and internal surfaces at the
[nuclear-power plant] itself have been decontaminated,"
Colonel-General Vladimir Pikalov of the U.S.S.R. Chemical Forces
summarized a year later. "Tens of thousands of cubic meters of
contaminated soil has been removed and the same amount brought in and
several thousand insulating screens have been laid down. Dust has been
suppressed on vast territories and several thousand samples have been
taken for radioactive isotope analysis."
Shevardnadze came to call 26 April 1986 "Chernobyl Day." It "tore
the blindfold from our eyes," he wrote later. It tore the blindfold as
well from the eyes of hundreds of thousands of Soviet citizens living
in the western Soviet Union. "Chernobyl happened," a Byelorussian
biologist told Alexievich, "and suddenly you got this new feeling, we
weren't used to it, that everyone had his separate life. Until then no
one needed this life. But now you had to think: what are you eating,
what are you feeding your kids? What' dangerous, what isn't? Should
you move to another place, or should you stay? Everyone had to make
her own decisions. And we were used to living -- how? As an entire
village, as a collective -- a factory, a kolkhoz [i.e., a collective
farm]. We were Soviet people, collectivized. . . . Then
we changed. Everything changed."
Eastern Europe changed. The European Community banned imports of
Soviet, Polish, Czechoslovakian, Hungarian, Romanian, and Bulgarian
agricultural products worth $500 million annually as of 7 May 1986,
inflicting great economic hardship on populations already restive in
response to Gorbachev's relaxation of authoritarian
control. Ironically, the purpose of recent Soviet nuclear-power
development had been to increase electrical capacity available to
Eastern Europe. "The decision to accelerate the nuclear-energy program
had been taken in 1974," Zhores Medvedev explains, "when the
international price of oil rose sharply and export demand
increased. Oil became the main source of foreign exchange after
1974. Poor [Soviet] harvests meant that large imports of grain and
food were necessary. As a result, the replacement of oil by nuclear
energy became a priority." More than any other natural resource, oil
propped up the stagnant Soviet economy, but the oil the Soviet Union
supplied to Eastern Europe went at subsidized rates. Replacing most of
that oil with nuclear electricity would free it up for foreign
trade. The new Five-Year Plan that Gorbachev's government had
introduced at the 27th Party Congress in February 1986 had called for
doubling nuclear-generated electricity, primarily by building reactors
in the Ukraine. Those plans were now in doubt.
Next two chapters on Gorbachev (pp. 54-55):
Gorbachev's concerns for the next ten years [after 1970] were
largely agricultural: drought, crop failures, dust storms, irrigation
projects, road building. His work brought him into regular contact
with Moscow and frequent conflict with Kulakov, who by then was the
Politburo member responsible for agriculture. Gorbachev saw the
economy stagnate, saw regional initiatives rejected, saw
"manipulators" become "the heroes of the day," and found himself
increasingly disenchanted: "Should you come up with your own ideas --
be prepared for trouble. You could even land in jail. It was actually
impossible to do something sensible while complying with all the
regulations and instructions. A popular adage hit the mark: 'All
initiative is punishable.'"
(p. 56):
Remnick adds: "Gorbachev appears to have few illusions about his
double face. Years after coming to power, he told [the journalist]
Vitaly Korotich . . . 'In those days, we all licked
Brezhnev's ass -- all of us!'" Ass-lickers are a staple of middle
bureaucracies, of course, and are certainly not unique to the former
Soviet Union. The activist and strategic analyst Daniel Ellsberg
identifies the same pattern of behavior in American bureaucrats. The
U.S. government, he points out, "does not require true believers to
run it. . . . The system consciously runs by men who --
in order to stay in the game, to be close to the center of power, to
have the hope that someday the moment may come when their own true
values will be served -- will go on for years serving values that are
the opposite of what they privately believe." Hence the frequent
phenomenon of recantation from retirement.
(pp. 60-61):
Not only second-rank officials such as Baibakov and Gorbachev
feared usurping Brezhnev's prerogatives where the military was
concerned; so also did Gromyko and Andropov. One consequence of
military influence over the Soviet leadership, ultimately devastating,
was the 1979 decision to invade Afghanistan. Arbatov believes that
"the military-industrial complex had grown to such proportions [by
then] that it escaped political control." Brezhnev, Arbatov points
out, had been the Central Committee's secretary of defense industries
before he became the general secretary, and "treated the military as a
very important power base." Ustinov, the minister of defense, "matched
Brezhnev in his sycophancy toward the military." Brezhnev's failing
health, exacerbated by an addiction to sleeping pills, added to the
confusion.
Anatoly Chernyaev, an international analyst for the Central
Committee who would become one of Gorbachev's most trusted advisers,
points to Ustinov as the instigator of the December 1979 invasion:
I learned that the intervention in Afghanistan was initiated by
Ustinov. The project to present this "idea" to Brezhnev was organized
by a group of four: Ustinov and Gromyko, plus Andropov and [the
Central Committee secretary for international affairs Boris]
Ponomarev. Andropov was reserved but didn't object, only noting
certain "possible complications." Ponomarev also expressed some
doubts, but then quickly joined in.
Both Arbatov and Chernyaev note that the senior military staff
objected to the war, "arguing," says Chernyaev, "that it would be
impossible and senseless," but according to Arbatov, the Ministry of
Defense nevertheless promoted and even insisted upon the intervention,
which he calls "a pretty typical escalation of military aid." With the
United States covertly supporting the anti-Soviet Afghan mujahideen,
Afghanistan in the 1980s became the Soviet Union's Vietnam.
In other words, Afghanistan was the Soviet Union's Vietnam not
just in terms of fruitless expense, division, and ultimate defeat;
the Soviet Union entered into Afghanistan following the same
bureaucratic logic that led the US ever deeper into Vietnam.
(pp. 61-62):
The excesses of the Soviet military-industrial complex in the 1970s
were as much the consequence of internal policy as they were of
external threat. The complex was "something like a bull in a china
shop" according to a former Soviet defense official named Vitaliy
Katayev -- " a sort of Soviet Texas." It "always demanded as much
weaponry as possible." The decision to produce a new weapons system
was usually made "not on the basis of military needs or technical
merit . . . but rather on the basis of [the] authority of
its sponsors" and their personal relationships with the political
leadership. And sine the complex was expected to increase its output
by at least 3 percent annually, "production of many types of weapons
was not stopped even after the army was saturated with them." The
purpose of this overproduction, a former Soviet military economist
explains, was "to keep the production base 'warm'" -- to be ready to
mobilize production in case war broke out. If mobilizing production --
that is, preparing to fight a long war -- looks like antiquated 1930s
policy in a nuclear world, he adds, it was.
Massively overproducing arms, Arbatov concludes, "undermined
Western trust toward us. Right-wingers and militarists in the United
States and other NATO countries waged a successful campaign to create
public mistrust of us. . . . More than that, our
actions encouraged Americans to intensify the arms race."
"The Bomber Will Always Get Through" (p. 74-75):
That arms race began with the Anglo-American program itself -- the
Manhattan Project -- because the United States and Britain had chosen
not to share knowledge of the secret program (not of how to build
atomic bombs -- no one proposed to do that -- but simply of the fact
that the United States and Britain were developing them) with the
Soviet Union even though it was an ally in the fight against Nazi
Germany. Since the Soviets had recruited several high-level espionage
agents within the Manhattan Project, they were fully aware that they
were being excluded.
Stalin drew the logical conclusion that the Americans intended to
use their unique weapon to intimidate him after the war. Once the
evidence of Hiroshima and Nagasaki overcame his doubts about the
authenticity of the bomb plans his spies had delivered, he made the
full resources of the state available to the Soviet effort. By 1948,
Soviet scientists under the charismatic physicist Igor Kurchatov had
not only replicated the American plutonium implosion bomb ("Fat Man")
but had also developed an improved design of half the weight and twice
the yield. Lavrenty Beria, the brutal KGB chief whom Stalin had
appointed to oversee the bomb program, was unwilling to risk the
possible failure of an indigenous, untested design and ordered
Kurchatov to copy the American design, which the atomic bombing of
Nagasaki had proven would work. The Soviet copy, RDS-1 (Joe 1 in
U.S. nomenclature), was tested on 29 August 1949 on a tower on the
Kazak steppe lands at Semipalatinsk, yielding twenty-two kilotons,
matching the yield of the Nagasaki bomb. A pilot series of five RDS-1
bombs inaugurated the Soviet nuclear arsenal in March 1950. Serial
production of RDS-1s began in December 1951.
With its four-year lead, the United States was well ahead of the
Soviet Union in nuclear-weapons development and production by the end
of 1951. Until 1948, the United States had stockpiled slightly
improved Fat Man bombs and a few uranium bombs that were ruggedized
for attacks on hardened targets such as submarine pens and command
bunkers. In its first series of weapons-design tests, Operation
Sandstone, which was conducted in the Marshall Islands in 1948, it had
proved the principle of core levitation -- suspending the nuclear core
within its natural uranium tamper so that the tamper material had a
gap across which to accelerate before imploding the core -- and tested
both a composite plutonium-uranium core and cores of highly enriched
uranium (HEU) alone. These and other evolutionary improvements
resulted in yields of up to forty-nine kilotons, effectively
increasing the total yield of the U.S. stockpile by 75 percent. In
1951, that stockpile held 438 weapons; by then the Soviet Union had
manufactured twenty-five.
Before 1949, the United States had considered its nuclear monopoly
to be roughly the equivalent of the superior numbers of Soviet forces
occupying the eastern half of Europe, a finding that had allowed
President Harry S. Truman to bring U.S. troops home while cutting the
defense budget drastically from its wartime highs. From Washington's
point of view, adding atomic bombs to Soviet ground-force superiority
deprived the United States of a unique capability and tilted the
balance decisively in the Soviet Union's favor.
The US responded to accelerating development of the hydrogen fusion
bomb. The Soviet Union responded in kind. The arms race continued.
(p. 81):
Both sides took the point. McGeorge Bundy, the national security
adviser to Presidents John F. Kennedy and Lyndon Johnson, stated it
succinctly for the American side in an essay published in the journal
Foreign Affairs in 1969:
In light of the certain prospect of retaliation, there has been
literally no chance at all that any sane political authority, in
either the United States or the Soviet Union, would consciously choose
to start a nuclear war. This proposition is true for the past, the
present and the foreseeable future. . . . In the real
world of real political leaders . . . a decision that would
bring even one hydrogen bomb on one city of one's own country would be
recognized in advance as a catastrophic blunder; ten bombs on ten
cities would be a disaster beyond history; and a hundred bombs on a
hundred cities are unthinkable.
On the Soviet side, Nikita Kruschev recalled in retirement that his
first nuclear-weapons briefing after he took power in 1953 had shaken
him. "I couldn't sleep for several days," he said. "Then I became
convinced that we could never possibly use these weapons, and when I
realized that, I was able to sleep again." At least one member of the
Soviet general staff, Vladimir Slipchenko, concurs. "The retaliatory
strike of even one nuclear warhead," Slipchenko told a post-Cold War
conference, "would cause unacceptable damage to a country."
(pp. 85-86):
By 1960, the U.S. arsenal had increased to 18,638 bombs and
warheads yielding 20,500 megatons (1.4 million Hiroshimas), of which
3,127 were strategic weapons deployed on B-47 and B-52 bombers, large
first-generation Atlas and Titan liquid-fueled ballistic missiles and
Polaris nuclear submarines. American megatonnage peaked in 1960. In
those years, SAC favored massive ten- to twenty-five-megaton behemoths
to maximize its delivery capacity and destroy multiple DGZs
simultaneously, but as ballastic missiles came into prominence, the
total yield of the U.S. stockpile declined to reflect the missiles'
more critical weight requirements and greater accuracy. ("The rule of
thumb," write the weapons historians Robert S. Norris and William
Arkin, "is that making a weapon twice as accurate allows an eightfold
reduction in yield while achieving the same level of
destruction.")
Most Soviet nuclear weapons were tactical, designed for crushing
NATO in a conflict arose with Warsaw Pact forces in Europe; the total
Soviet arsenal in 1960 of seventeen hundred bombs and warheads
included only about 350 strategic weapons. The small Soviet bomber
force had been supplemented by late 1960 with only four
intercontinental ballastic missiles and a limited and primitive force
of submarines carrying short-range missiles. The Soviet bombers were
slow and vulnerable; the KGB kept missile warheads separate from the
missiles, which required up to twenty-four hours to assemble, warm up,
and fuel; and the submarines, which were normally kept in port, would
have to cross the Atlantic or Pacific to within about two hundred
miles of North America and surface to launch their missiles. "The
Soviets had paltry forces," comments the former secretary of defense
James Schlesinger -- "hardly enough to stage an attack on the United
States."
SIOP is Single Integrated Operational Plan (SIOP-62 is the 1962
edition), basically the US contingency plan for launching an all-out
attack on the Soviet Union (pp. 87-88):
Contemporary estimates of the consequences of an all-out SIOP
attack put the death toll at 285 million Soviet and Chinese citizens
and millions more dead in Eastern Europe -- more than twice the dead
of all the wars of the twentieth century. The journalist Fred Kaplan
reports that General David Shoup, the Marine Corps commandant, asked
Thomas Power at a similar SIOP briefing in 1960 if the United States
had any options to avoid bombing China if that country happened not to
be involved in the conflict that led to nuclear war. "Well, yeah, we
could do that," Kaplan reports Power replying, "but I hope
nobody thinks of it because it would really screw up the plan." Back
in Washington, Kaplan writes, other U.S. military leaders endorsed
SIOP-62 to the secretary of defense. "David Shoup stood and said,
'Sir, any plan that kills millions of Chinese when it isn't even their
war is not a good plan. This is not the American way."
As if such deliberate democide were not horrific enough, one SIOP
reviewer after another discovered that its damage calculations were
based only on the blast effects of nuclear weapons, when the primary
mode of destruction of weapons with yields greater than one hundred
kilotons -- most U.S. strategic weapons -- is fire. Admiral Harry
Felt, the commander in chief of the Pacific fleet, cabled the Joint
Chiefs in January 1961 after reviewing the SIOP, "only blast effects
were considered. . . . other effects such as heat, fire
and radiation should be used when drawing up damage criteria for the
SIOP."
(p. 93):
At the time of the Cuban Missile Crisis, according to Podvig, the
Soviet bomber fleet "could deliver aobut 270 nuclear weapons to
U.S. territory." But fear of the SAC commander Thomas Power's bomber
fleet, which he maintained on airborne alert throughout the week of
the crisis, flying orbits over the Mediterranean and northern Canada,
landing only long enough to change crews, led the Soviets to keep
their bombers grounded; the Soviet Union was nearly as defenseless
against nuclear attack that week as Japan had been at the end of the
Second World War, although Soviet submarines in the Caribbean could
have launched their missiles against U.S. targets in
retaliation. American nuclear assets consisted of several thousand
bombs on 1,576 SAC bombers, 183 Atlas and Titan ICBMs, 144 Polaris
missiles on nine nuclear submarines, and the first squadron of ten
Minutemen I missiles carrying W59 one-megaton warheads, brought to
full alert for the first time at the height of the crisis on Friday,
26 October 1962.
(pp. 94-95):
That the United States could force the leaders of the Soviet Union
to remove their missiles from Cuba frightened and deeply humiliated
them. "The results were very painful and they were taken very
painfully by our leadership," the Soviet lieutenant general Nikolai
Detinov remembers. "Because of the strategic [imbalance] between the
United States and the Soviet Union, the Soviet Union had to accept
everything that the United States dictated to it and this had a
painful effect on our country and our government." As a result, says
Detinov, "all our economic resources were mobilized [afterward] to
solve this problem." The Soviet diplomat who negotiated the crisis
settlement, Vasily Kuznetsov, had implicitly threatened such a
response. "Well, Mr. McCloy," he challenged his American counterpart,
John J. McCloy, "we will honor this agreement. But I want to tell you
something. You will never do this to us again."
"Humiliatian in Cuba," writes Robert Gates, "galvanized the Soviets
into action. The USSR proceeded to undertake the largest military
buildup in history over a twenty-five-year period, with profound
consequences for the international balance of power, for the United
States, and ultimately, and fatefully, for the Soviet economy and
state." Detinov concurs:
During the 1960s, the Soviet government mobilized the economy to
the point that all industrial facilities were turned to military
production. All factories were included. . . . The rate
of growth to our national economy went down in all branches. While
before the Caribbean crisis we had a very steady rate of production,
after the Caribbean crisis all production in other areas started going
down thanks to the fact that all factories were mobilized in the name
of military technology. Turning the national economy around later on
was very hard.
Work on what Podvig calls "a simple and relatively inexpensive
missile that could be used to increase the number of missiles in the
Soviet ICBM force and provide quantitative parity with that of the
United States" was authorized in March 1963, just five months after
the resolution of the Cuban Missile Crisis; the light SS-11 would
carry a 1.1-megaton warhead to compensate for its inaccuracy. The
following September, the Soviets tested a heavier missile already in
development, the SS-9, with a 10-megaton warhead. SS-11 flight tests
began in 1965, and by 1966 both missiles were being deployed. Soviet
Yankee-class nuclear-missile submarines, each carrying sixteen
missiles with 1-megaton warheads, began patrolling the coasts of the
United States in 1967.
One casualty of the Soviet buildup of missile forces was the
nation's program to put men on the moon. Soviet dreams of beating the
United States to the moon "were quietly abandoned" in the late 1960s,
writes the former Air Force secretary Thomas Reed, "in favor of a
massive ICBM buildup."
(pp. 104-106):
The "degree of reality" that Nitze sacrificed to this portrait of
implacable evil was considerable. Just five years earlier, the Soviet
Union had emerged from a brutal war to count its losses: at least
twenty-five million people killed, one-tenth of its population;
millions more invalided and twenty-five million made homeless; half its
industry destroyed; coal production as of 1945 down 33 percent
compared to 1941, oil production down 46 percent, steel 48 percent,
meat 40 percent, dairy 55 percent, electricity 33 percent. Yet NSC-68
was asserting that the war-battered nation had recovered sufficiently
five years later to muster the energy and resources for an implacable
campaign to destroy the United States and rule the world.
The most egregious exaggeration of NSC-68 was its assessment of the
Soviet Union's 1950 war-fighting capability. It was certainly true
that Stalin had added two million more men to the three million kept
under arms facing the West at the end of the war -- his counterpoise
to the American nuclear monopoly -- and then had tested an atomic bomb
as well. Nitze, however, citing the Joint Chiefs as his authority,
claimed that if a major war should occur that year, 1950, the Soviet
Union would be capable not only of immediately overrunning Western
Europe, but also of "driv[ing] toward the oil-bearing areas of the
Near and Middle East," consolidating "Communist gains" in the Far
East, launching air attacks against Britain and air and sea attacks
against the shipping lanes of both the Atlantic and the Pacific, and
attacking "selected targets with atomic weapons, now including the
likelihood of such attacks against targets in Alaska, Canada and the
United States." (With only five atomic bombs in its arsenal that year,
the Soviets would have had to be selective indeed in choosing
targets.) [ . . . ]
Nitze underplayed the American deterrent because he wanted his
country not simply to deter a theoretical Soviet attack but also "to
check and to roll back the Kremlin's drive for world domination." He,
Acheson, and the military services thus called for "a rapid build-up
of political, economic and military strength in the free world."
Truman, on the other hand, concerned about the federal budget, was
skeptical of NSC-68 at first. Following the outbreak of the Korean
War, which the president believed to be a Soviet feint into South Asia
in preparation for war in Europe, he endorsed it. He had imposed a
limit of $14.4 billion on the 1949 defense budget, and beginning in
1950 it was supposed to be cut further to $13 billion. After Truman
endorsed NSC-68, he allowed the defense budget to increase almost
fourfold; defense outlays in 1953 totaled more than $52 billion.
Even more significantly, NSC-68 began the historic uncoupling of
the U.S. defense budget from fiscal policy. Truman and his
predecessors had first determined a total budget number, based on
available resources, and had then allotted part of that total to
defense. Such prudence now became politically dangerous. Most
administrations after Truman's determined the defense requirements
first and then either allocated what was left to domestic needs or
added to the deficit (or, more rarely, raised taxes) to sustain both
guns and butter. Determining defense requirements first was the way it
worked in the Soviet Union as well, with the significant difference
that the far larger U.S. economy cushioned the impact of increasing
diversions of federal income to the military.
(pp. 116-117):
Ironically, the anti-détente campaign was launched just as détente
was succeeding, and serving as political cover for a U.S. military
buildup as well. Nixon and Kissinger, Robert Gates points out, used it
"to defend a number of strategic-weapons programs from the budget
knife on the Hill -- from ABM to Trident [missile submarines], cruise
missiles, and the B-1 bomber." The new generation of weapons systems
that Jimmy Carter stalled in 1976 and then restarted in 1979 and that
Ronald Reagan greatly expanded in the 1980s "amid applause from
conservatives," says Gates, "could not have been started or sustained
politically in the Nixon years without détente. During the 1970s, on
defense programs, the conservatives were never able to put
congressional votes where their mouths were." Meanwhile, the growth in
Soviet military spending, Cahn adds, "declined sharply" in 1975, "from
4-5 to 2 percent, and procurement of weapons was flat."
The conservatives responsible for this burgeoning exercise in
threat inflation, many of them Democrats allied with Scoop Jackson,
fought détente through the inglorious conclusion of the Nixon
administration -- the humiliated president resigned his office and
flying home to California in August 1974, and a new president, Gerald
Ford, taking the reins. These conservatives discerned a nation in
decline, reeling from a war lost in Vietnam, dangerously misled by
détente -- and themselves ignored and out of power. "Soviet policy
never changes," the former undersecretary of state Eugene Rostow, one
of the most outspoken, scolded Henry Kissinger at the time. Kissinger
responded sharply that "a balance of mutual interest" was a better
guide to policy than "ideological dogma." But "the Democratic Party
didn't want to hear us," Rostow complained, "and we weren't getting
any general publicity" because Americans were sick of domino theories
and war-derived domestic conflict.
(p. 119):
"Rumsfeld and Cheney were the right wing of the Ford
administration," writes the journalist Sidney Blumenthal, "opposed to
the policy of détente with the Soviet Union, and they operated by
stealthy internal maneuver." Once Rumsfeld became secretary of
defense, he attempted to sabotage Kissinger's SALT II negotiations. An
important reason for Colby's replacement with the more pliable George
H. W. Bush, Blumenthal, says, was the CIA's unwillingness to cooperate
with the Rumsfeld-Cheney effort. "Instead of producing intelligence
reports simply showing an urgent Soviet military buildup, the CIA
issued complex analyses that were filled with qualifications. Its
National Intelligence Estimate on the Soviet threat contained numerous
caveats, dissents and contradictory opinions. From the conservative
point of view, the CIA was guilty of groupthink, unwilling to
challenge its own premises and hostile to conservative ideas."
(p. 124):
The Soviest had demonstrated by their caution and their desperate
race to catch up with a technologically and economically superior
adversary that they would follow our lead wherever we led them,
evidently believing we knew where we were going. They had even
sacrificed their cherished goal of putting men on the moon to turn
their science and industry to missile building in the years after the
Cuban Missile Crisis. The "scientific" view that Pipes despised, based
as it was on the fundamental physical reality that nuclear weapons
were devastating instruments of terror and mass fire, so destructive
that one or two per city would deliver chaos and suffering enough to
terminate any war, needed no one's insight or approval. Pipes told the
American physicist and government adviser Richard Garwin that his
argument was based on "his deep knowledge of the Russian soul." But
nuclear reality was never a matter of opinion, however soulful. It was
a matter of fact, as political leaders facing the brink seem
repeatedly to have understood.
CPD was the Committee on the Present Danger, a name borrowed from
a group led by James Bryant Conant during the Korean War; the new
group grew out of the 1976 Team B group headed by Richard Pipes,
which argued for expanding the US nuclear arsenal; CPD members
included: Walt Rostow, Paul Nitze, David Packard, Lane Kirkland,
Dean Rusk, Elmo Zumwalt Jr., William Casey, William Colby, Clare
Boothe Luce, Richard Perle, Norman Podhoretz, Midge Decter, Richard
Scaife, Edward Teller, and Ronald Reagan; some 33 members joined
the Reagan administration (pp. 133-134):
When eight CPD members met with Carter at the White House in 1977,
Rostow recalled, "we were stunned, just stunned. The notion that that
fellow was president was just frightening."
What frightened the CPD was Carter's initial program, as he
described it later, "to try to put forward to the Soviet Union a much
more dramatic reduction in the total quantity and effectiveness of the
nuclear weapons in our arsenals, and to bring about a comprehensive
test ban to eliminate the epxlosion of any nuclear devices, either
underground or in the air." By March, Carter had dispatched his
secretary of state, Cyrus Vance, to Moscow "with what I thought was a
very good proposal for dramatic cuts [in the two sides' nuclear
arsenals]," Carter said. At that point the CPD declared all-out war,
opposing Carter and his "frightening" notions of nuclear sufficiency
with a full arsenal of op-eds, talk-show appearances, position papers,
and congressional testimony. CPD resistance was all the more odd since
the proposal had been drafted by Zbigniew Brzezinski, Carter's
anti-Soviet national security adviser, with substantial input from
Richard Perle, and was designed to be unacceptable to the Soviet
Union.
(pp. 149-150):
Reagan ended up spending almost as much on defense in the first
five years of his presidency as had Ford, Nixon, and Carter combined,
more than the cost of both the Korean and Vietnam wars -- the largest
peacetime buildup in American history. One purpose of the Reagan
defense buildup, of course, was to starve the beast of government
domestic spending, part of the conservative Republican agenda. As the
political scientist Daniel Wirls notes, "for fiscal 1982, Reagan
negotiated with Congress for about $35 billion in cuts in hundreds of
domestic programs. . . . In budgetary terms, this
change is . . . striking: from [fiscal year] 1981 to 1987
discretionary spending on domestic programs decreased by 21
percent in real terms while defense outlays increased by 45
percent." Reagan himself, however, was primarily interested in the
United States' relationship with the Soviet Union -- the CPD's bogus
"window of vulnerability." His administration's "extraordinary surge
in defense spending," Wirls writes, "was devoted to the modernization
and expansion of the gamut of military programs, conventional and
nuclear, but first and foremost to the nuclear weapons rearmament
program."
"In all of their writings on foreign policy," the journalist
Frances Fitzgerald writes, assessing what she calls the "warrior
intellectuals" of the CPD and the Reagan administration, "they offer
not one single constructive suggestion as to what the United States
might do to, say, prevent widespread famine, stop the crazy lurches of
the economic system, prevent ecological disaster or simply keep the
peace and lessen the risk of nuclear war. The solution they have to
all problems is confrontation and the threat, or use, of military
force. Nowhere do they attempt to count the cost of keeping the Third
World down by force, and nowhere do they consider in any serious
fashion what risks this policy may pose to the physical security of
the United States."
(p. 157):
Reagan, not yet aware of the developing Soviet war scare, ratcheted
his rhetoric higher in a March 1983 speech to the annual convention of
the National Association of Evangelicals in Orlando, Florida. There he
named the Soviet Union "the focus of evil in the modern world" and,
famously, "an evil empire." The speech, built in part from paragraphs
cut by more cautious advisers from his speech at Westminster, was
meant to win the support of fundamentalist Christians against the
Nuclear Freeze movement.
The "war scare" alluded to was the Soviet reaction to a particularly
aggressive set of war game exercises the US was conducting in a period
of massive US military buildup as well as Regan's rhetoric (p. 167):
Reagan was surprised and shocked that the Soviets had taken his
years of militant rhetoric and his massive arms buildup seriously. He
belittled their concerns in his diary on 14 November: "I feel the
Soviets are so defense minded, so paranoid about being attacked that
without being in any way soft on them, we ought to tell them no one
here has any intention of doing anything like that. What have they got
that anyone would want?" A few weeks later Wiliam Casey returned from
meeting with British intelligence in London and briefed Reagan further
on RYAN and ABLE ARCHER 83. "Do you suppose they really believe that?"
the president of the United States asked McFarlane less defensively
afterward, the truth finally dawning. "I don't see how they could
believe that -- but it's something to think about."
(pp. 170-173):
How Reagan's mind worked was a subject of considerable discussion
during the years of his presidency and among his biographers
afterward. Most discussants came to similar conclusions, although
their estimates of the quality of Reagan's thinking depended on
whether they were promoters or detractors of his goals. In a word,
Reagan thought "anecdotally, not analytically," as the journalist and
former assistant secretary of state Leslie Gelb put it. The president
organized events and ideas on a Procrustean bed of personal
experiences and rigid beliefs. Taxes stifled enterprise because in the
1950s a top federal income tax rate of 91 percent on earned income had
led him and other movie stars to limit their acting work to four films
a year. Communists were cynical, brutal, cold-blooded, and completely
lacking in morality because the Communists he believed he had fought
for control of the Screen Actors Guild when he was its president had
seemed to him to be such people. "Firsthand discoveries are the ones
that matter to Reagan," Cannon confirms. "When he expressed his view
of Communist morality at his first presidential news conference, he
believed he was talking from experience."
Cannon found that "most of his aides thought of him as intelligent,
but many also considered him intellectually lazy." In fact, they
laughed at him behind his back. He was Joe Six-pack, they told each
other, his opinions and judgments exactly those guileless truisms you
would expect to find among patrons of a neighborhood bar. "The sad,
shared secret of the Reagan White House," Cannon writes, "was that no
one in the presidential entourage had confidence in the judgment or
capacities of the president. Often, they took advantage of Reagan's
niceness and naďveté to indulge competing concepts of the presidency
and advance their own ambitions. Pragmatists and conservatives alike
treated Reagan as if he were a child monarch in need of constant
protection. They paid homage to him, but gave him no respect." A book
in his hand was more likely to be a Tom Clancy novel than a Henry
Kissinger memoir -- though the same could be said for many
Americans. "Not one of the friends and aides" Leslie Gelb interviewed
"suggested that the President was, in any conventional sense,
analytical, intellectually curious or well-informed -- even though it
would have been easy and natural for them to say so. They clearly did
not think it necessary. Time and again, they painted a picture of a
man who had serious intellectual shortcomings but was a political
heavyweight, a leader whose instincts and intuition were right more
often than their own analyses. His mind, they said, is shaped almost
entirely by his own personal history, not by pondering on history
books." For George Schultz, in Cannon's paraphrase, "Reagan's
seemingly irrelevant anecdotes were tools that the president used to
comprehend the world. 'He often reduced his thinking to a joke,'
Shultz said. 'That doesn't mean it didn't have a heavy element to
it.'" Cannon counters that Reagan "sometimes used humor to avoid
facing issues he ought to have faced, particularly the reality that it
was impossible to increase military spending, reduce taxes and balance
the budget simultaneously." Reagan's difficulty with governing went
deeper, Cannon insists:
His biggest problem was that he didn't know enough about public
policy to participate fully in his presidency -- and often didn't
realize how much he didn't know. Reagan's legal advisers learned that
he knew little about the law, his national security advisers found
that he was devoid of knowledge on the capabilities of most U.S. and
Soviet weapons systems and his economists discovered that he was
poorly informed on economics, even though he sometimes reminded them
that he had majored in economics and sociology at Eureka College.
("Playing it safe," the cultural historian Garry Wills writes,
explaining Reagan's economic lacunae, "he majored in economics --
[economics professor] Archibald Gray was the most notoriously easy
grader on the campus.")
Less politely, the political scientist Richard M. Pious, reviewing
Cannon's biography and other studies of the president, reduced their
findings to three parallel axioms: "Reagan could only understand
things if they were presented as a story; he could only explain
something if he narrated it; he could only think about principles if
they involved metaphor and analogy." For Sidney Blumenthal, who
contrasts Reagan's triumphant promotion of political conservatism with
Barry Goldwater's failure, the president's storytelling was the secret
of his success:
With him, facts don't determine the case; they don't make his
beliefs true. Rather, his beliefs give life to the facts, which are
tailored to have a moral. Reagan doesn't use stories the way experts
use statistics. They seek mathematical certainty, whereas he has moral
certainty. He asks listeners to trust the tale, not necessarily the
detail. If the facts belie his premises, then the facts are at fault,
and he can shift ground without making any fundamental change in his
beliefs. His policies might be contradictory and counterproductive,
but his mythology remains appealing. . . . His life
experience vindicates his nostalgic approach to the future; he feels
what he says, and that gives it authenticity and force.
Such a mode of thought, far from being baffling or unique, is
characteristic of religious, and particularly of fundamentalist,
thinking, an archaic mode in which facts are allegorized into parables
or reinterpreted to match doctrine. If the Bible says the world was
created in seven days and humankind is a separate creation, then
evolution must be an unsupportable theory and fossils simply traps God
has set to confound unbelievers. If homosexuality is proscribed in
Genesis and Leviticus, then it must be a lifestyle choice, not a
biologically determined orientation. If religious belief is necessary
to morality, then Communist -- atheists by definition -- must be
amoral.
Reagan's fundamentalist mentation encouraged him to find the
supernatural as credible as the natural. He had been convinced since
at least his days as governor of California that the end of the world
was approaching. He believed that the Bible predicted the
future. "Everything is in place for the battle of Armageddon and the
second coming of Christ," he told a surprised California state senator
one day in 1971, citing as a sign his understanding that Libya had
gone Communist. The founding of Israel in 1948, the Jews thus
reclaiming their homeland, was another sign Reagan credited as meaning
that a great final battle between good and evil would soon be fought
on the plain of Armageddon. The atomic bombings of Hiroshima and
Nagasaki, he believed, fulfilled the prediction in Revelation of an
army out of Asia of "twice ten thousand times ten thousand" routed by
plagues of "fire and smoke and sulfur." He added Chernobyl to his list
when he learned that the name of the old town was the Byelorussian
word for wormwood, fulfilling the prophecy of "a great star [that]
fell from heaven, blazing like a torch, and it fell on a third of the
rivers and on the fountains of water. The name of the star is
Wormwood."
(p. 173):
Robert McFarlane concluded that Reagan's commitment to strategic
defense derived primarily from his belief that Armageddon was
approaching. "From the time he adopted the Armageddon thesis," the
national security adviser told Cannon, "he saw it as a nuclear
catastrophe. Well, what do you do about that? Reagan's answer was that
you build a tent or a bubble and protect your country. This was one of
the intellectual contradictions in Reagan's thinking. He sees himself
as a romantic, heroic figure who believes in the power of a hero to
overcome even Armageddon. I think it may come from Hollywood. Wherever
it came from, he believes that the power of a person and an idea could
change the outcome of something even as terrible as Armageddon. This
was the greatest challenge of all. . . . He didn't see
himself as God, but he saw himself as a heroic figure on earth." Frank
Carlucci, deputy secretary of defense under Caspar Weinberger and
subsequently one of Reagan's five national security advisers,
confirmed that Reagan connected Armageddon with nuclear war. "He would
say to me that nuclear weapons are inherently evil," Carlucci told
Cannon. When Carlucci argued the case for nuclear deterrence, Cannon
paraphrases, "he did not convince Reagan, who responded to the
argument by telling Carlucci about Armageddon."
Continued in extended body . . .
Continue reading "Arsenals of Folly"
Jeremy Bernstein, Nuclear Weapons: What You Need to Know
(2007, Cambridge University Press)
One of the best science writers around, just the sort of person
to answer such questions with authority.
(pp. 123-124):
One of the first things that Oppenheimer asked Serber to do was to
give a series of lectures -- in the event there were five -- that
would serve as an introduction to the physics of the bomb for new
arrivals. It is worth commenting on this. First of all, from a
fundamental point of view there was no new physics required to make a
bomb. The Los Alamos physicists often said that when they came back
from the war they found the same set of problems on their desks that
they had left. However, building nuclear weapons required using what
was then standard physics in novel ways. This is what Serber explained
in his lectures. The lectures were attended by some fifty people and
were taken down by the well-known physicist E. U. Condon. Afterward,
he and Serber wrote up the notes. They were of course classified. They
became declassified in 1965 and were published in book form with
Serber's commentaries in 1992.
No doubt because of the secrecy, physicists who had not been
involved with the bomb knew very little about it. And even the
physicists who did know weren't talking. When I was an undergraduate
at Harvard in the late 1940s many of my teachers had been
involved. John Van Vleck, who had been Serber's Ph.D. advisor at
Wisconsin and then had gone to Harvard, was one of the people who
attended the 1942 conference that Oppenheimer organized in
Berkeley. Kenneth Bainbridge, who was for a while chairman of the
department, had chosen the test site for the first atomic bomb
explosion in Almogordo, New Mexico. Norman Ramsey, from whom I took a
course, had supervised the armoring of the Hiroshima bomb on Tinian
Island in the South Pacific. Roy Glauber, who was just starting his
academic career -- he shared the Nobel Prize in Physics for 2005 --
went to Los Alamos immediately after finishing the course work for his
bachelor's degree. And the president of the university, James Conant,
had been one of the original civilian leaders of the program. Despite
all of this, I do not remember a single part of any course in which
the physics of nuclear weapons was discussed. I do not even remember
any of these people mentioning any of this in any context. I can
understand this at the time. The war had been over for only a very few
years and the Cold War was just beginning. However, not long ago I
decided to make a little survey. I went to a physics library and
looked at every textbook of nuclear physics I could find. There was
not a single one of them that explained how to find the critical mass
of a uranium sphere. Most of them did not even explain what a critical
mass was. This disturbed me, especially in view of what seemed to be
happening in the world.
(pp. 169-170):
Smoky and Galileo were part of the longest and most extensive test
series ever done at Mercury. It was called "Operation Plumbbob." It
consisted of twenty-nine detonations, beginning with Boltzmann on the
28th of May and ending with Morgan on the 7th of October. Some of the
tests were on towers, others from balloons, one in a shaft, and
another in a tunnel. In a "boys will be boys" gesture the one in the
shaft had an odd twist that resembled what we used to do with
firecrackers when we were kids. We'd put them in a tin can to see what
happened when they went off. Here the grown-up boys put a lid on the
shaft to see what would happen. They figured that so much energy would
be imparted to the lid that it would reach a velocity greater than
that needed to escape the gravitation of the Earth. It would become,
before Sputnik, the first space vehicle. It is not likely that
this happened, but the lid was never found after the explosion. The
Plumbbob explosions ranged in yield from half a ton -- Lassen -- to
seventy-four kilotons -- Hood. They released 58,300 kilocuries of
radio iodine into the atmosphere. A "curie" is a unit of radioactive
disintegration that is equivalent to thirty-seven billion decays of
anything per second. To get some idea of scale, one thousandth of a
curie is about what would be used in a liver scan. The amount of radio
iodine that Plumbbob put into the atmosphere was estimated to have
caused an additional 38,000 cases of thyroid cancer, leading to some
2,000 deaths. Most of this radiation was deposited in the
northeastern, far western, and midwestern states. There was a cluster
in Maine. But this is not the only thing that made the Plumbbob tests
notorious. The Department of Defense decided that this would be a
splendid opportunity to study the reactions of soldiers and marines to
atomic warfare. During the series some 18,000 servicemen
participated. Because the tests were frequently postponed they were
able to make substantial contributions to the Las Vegas economy at all
levels. At Smoky, some three thousand soldiers were brought close to
ground zero not long after the explosion. They had watched the
explosion from trenches about a mile away. This explained the sound of
helicopters that I had heard that morning. It is difficult to imagine
now that our defense establishment would have done something so
absurd. But there it was. The health of the Smoky soldiers was
followed for several decades. In 1980, a survey showed that their
leukemia rates were elevated. Four would have been a baseline number
of cases expected in the general population, whereas there were
ten.
(p. 178):
Not to be outdone, in 1962, Los Alamos supplied a hydrogen bomb to
be detonated in outer space. As we will see in the next chapter, such
weapons have yields equivalent to millions of tons -- megatons -- of
TNT. The Los Alamos bomb was put on a Thor rocket and launched on July
9th above Johnson Island in the Pacific -- project Starfish. It
exploded at an altitude of 250 miles with a yield of 1.4 megatons. The
result was more than was bargained for. An electron belt was
temporarily created that managed to destroy seven satellites,
including the first commercial communications satellite.
(p. 211):
Oppenheimer, who was busy beyond human endurance, had to spend time
every week with Teller, listening to his latest failed ideas for
making the super. I have never really understood Teller's
obsession. Why were fission bombs not enough for him? Was it the
intellectual challenge? Was he worried that the Russians would get
there first, although this was probably not a consideration during the
war? Was he angry that Oppenheimer had made Bethe head of the theory
division instead of him and he wanted to carve out a new domain? A
combination>? I don't know. I have asked myself what would have
happened if, at Nagasaki, we had dropped a twenty-megaton hydrogen
bomb instead of a twenty-kiloton fission bomb. The fission bomb killed
75,000 people and devastated everything within a radius of one mile
from ground zero. A twenty-megaton bomb would have inflicted
third-degree burns on everyone within a distance of twenty miles and
would have devastated everything up to a distance of fourteen
miles. Would the Japanese have surrendered sooner? Nagasaki was
bombed on August 9th and the Emperor surrendered on the 14th. What
would a hydrogen bomb have accomplished? In the years following the
war, Oppenheimer often said that the problem with the hydrogen bomb
was that the targets were too small.
(pp. 213-214):
While Teller and his group were knocking their heads together
trying to make the classical super work, there was another activity
going on that did not seem to attract much attention. This was the
work of Klaus Fuchs and von Neumann. Klaus Fuchs, of whom we will hear
much more in the next chapter, came to Los Alamos as part of the
British delegation in August 1944. He had already been working on
aspects of the bomb in England and soon proved himself to be an
invaluable member of Bethe's theoretical division. He was known to
have a photographic memory and to have involved himself in all aspects
of the program. Almost no one was better informed. He was also a
Russian spy -- surely one of the most successful that has ever
lived. By the fall of 1945, he had turned over to the Russians what
amounted to a detailed blueprint of the gadget, whose test he had
witnessed. The Russian physicists were ordered to duplicate the
gadget, which they did. It was successfully tested in August
1949. Considering the effort the Russians put in and the ability of
their scientists, it is certain that they would have gotten the bomb
sooner or later. Fuchs probably saved them a couple of years. But, in
1946, Fuchs had turned his attention to the super. He and von Neumann
patented their work and, as far as I can tell, the patent is still
classified. However, in the spring of 1948, Fuchs turned it over to
the Russians. Some of what he turned over has found its way back here
by the back door, so to speak. In particular there is a diagram that
has now been widely circulated. Much of this diagram is of no interest
because it is connected to the classical super. But a part of the
diagram is of great interest because it is the first inkling of how to
make a hydrogen bomb. After Fuchs was exposed as a spy, both Bethe and
Oppenheimer belittled anything that Fuchs could have told the Russians
about the hydrogen bomb. They even said that they hoped the Russians
would use Fuchs as a guide because that would lead them down a blind
alley. I have often wondered if they actually knew what Fuchs turned
over and, if they had seen this diagram, whether they still would have
been quite so cavalier.
(pp. 222-223):
Finally, I want to discuss the question of whether the hydrogen
bomb should ever have been built in the first place. Let us recall the
events that led up to President Turman's decision. In August 1949, the
Russians successfully tested their first fission bomb. On January 27,
1950, Fuchs confessed to his espionage. In October 1949, there was a
four-day meeting of the General Advisory Committee of the Atomic
Energy Commission. This committee consisted of the highest-level
people in the weapons program. Rabi and Fermi were members, as was
Conant. Oppenheimer was chairman. The committee decided for various
reasons that there should not be a crash program to build the hydrogen
bomb and, above all, not one that was publicly announced. Some
members of the committee thought that the hydrogen bomb was not a
weapon of war but a method of genocide. Rabi and Fermi thought there
should be a conference with the Russians to seek an agreement not to
build it. If that failed, nothing would have been lost because, at the
time, no one had a clear idea of how to build one anyway. But, after
Fuchs's confession, the pressure on Truman to do something was
irresistible, and four days later he publicly announced a crash
program to build the hydrogen bomb. The predictable happened -- a
hydrogen bomb race. The Russians exploded theirs in 1952, the British
in 1955, the Chinese in 1967, and the French in 1968. Probably every
country that has atomic weapons is engaged in building the hydrogen
bomb. There is some sad irony in all of this. In the same 1952 Ivy
series there was a test called Ivy King. This was a pure fission bomb
-- no boosting -- that had been designed by Theodore Taylor of Los
Alamos. It produced a 500-kiloton yield. Now here is the irony. In
recent years the Russian and American nuclear strategists have
concluded that megaton bombs are unnecessary. The arsenals have been
cut back to bombs of several hundred kilotons. Put another way, if the
hydrogen bomb had never been built and pure fission bombs had
continued to be developed, then the Russian and American nuclear
arsenals would look about the same as they do now.
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