News

Trading with the Enemy

Commentary Magazine
May 2002, pp. 41-45

In March, President Bush marked the six-month anniversary of September 11 by warning us once again of the peril posed by weapons of mass destruction. From the south lawn of the White House, he cautioned that “terrorist groups are hungry for these weapons, and would use them without a hint of conscience.” The result, he said, would be “blackmail, genocide, and chaos.”

He was right. Yet in one crucial respect the actions of his administration have been completely at odds with these strong words of warning. For the White House is now pushing a bill in Congress that would make it easier for terrorists and the nations that support them to obtain precisely such weapons of mass destruction. The bill would weaken the limits on sales of “dual-use” technology-civilian items that can also help in developing nuclear, chemical, and biological weapons and the missiles to deliver them.

The term of art here is export controls-restrictions on the power of American companies to sell things abroad that could do us harm. As it happens, while Bush was still on the campaign trail in 2000, he pledged to reduce these controls if elected to office. In those bygone days before September 11, the world (it seemed) had become a peaceful place, and we could safely let American companies make a little more money. But now the question is different: how to ensure that our own technology does not help the people who want to kill us.

Export control is a hoary topic, dating from the years immediately following World War II. In our efforts to rebuild Europe and fashion NATO as a barrier to Soviet expansionism, it became obvious that the West would be inflicting serious harm on itself if American goods and equipment were being sold to the Soviets or the Chinese. There had to be a fence around the United States and its allies, one inside which trade could flourish but that would be strong enough to keep useful technology-especially of the military sort-away from rivals outside. The fence was COCOM, the Coordinating Committee for Multilateral Export Controls, born in 1949.

COCOM was a phenomenal success. It did not stop everything from getting out, any more than the best police force can stop all crime. But by systematically helping to deprive the East of the West’s technology, it left Russia and its allies in the dust. After the end of the cold war, COCOM officials toured the former Warsaw Pact to measure the historical impact of controls. What they learned from former East-bloc officials was that equipment had sometimes been smuggled in, but spare parts and service had been impossible to obtain. This made it risky to build manufacturing operations around such equipment. Even today, more than a decade after the end of the cold war, the dilapidated industrial infrastructure of Russia and Eastern Europe offers lingering testimony not only to the abysmal failures of socialist planning but to the power of export controls.

More recently, documents found by UN inspectors in Iraq after the Gulf war showed how export controls had seriously hampered that country’s nuclear-design teams, forcing them to spend time and money trying to engineer essential items they could not import. Controls also stopped Iraq’s drive to make a medium-range missile-one that would have been invulnerable to U.S. Patriot missile defenses. Without such restrictions on his purchases, Saddam Hussein might have come into possession of a nuclear weapon, a medium-range missile, or both, by the onset of the Gulf war.

Finally, export controls had beneficial effects on nonhostile regimes as well, contributing to a general atmosphere of restraint and caution. Thus, when both Argentina and Brazil agreed to give up their nuclear-weapons potential in the 1980’s, a principal reason was the cost imposed on them by American export controls, which had prevented them from buying vital technologies like supercomputers. Both countries preferred in the end to be seen as part of the solution to arms proliferation rather than as part of the problem. In effect, export controls had bought time, slowing these nations’ weapons programs until the political winds shifted, and had created an incentive for them to qualify as reliable recipients of advanced technology.

With the end of the cold war, export controls entered a period of decline. The Soviet Union and the Warsaw Pact were gone. The new threat facing us-a number of countries building weapons of mass destruction-was more fluid, and there was less agreement on how to deal with it. In 1993, R. James Woolsey observed at his confirmation hearing for the directorship of the Central Intelligence Agency that “We have slain a large dragon, but we live now in a jungle filled with a bewildering variety of poisonous snakes.” How to contend with those snakes was up to the Clinton administration, which took office that same year.

Things did not go well. At his own confirmation hearing for the position of Deputy Secretary of Defense, William Perry, who would later become Secretary of Defense, declared that controlling dual-use technology was a “hopeless task.” Control, he said, “only interferes with a company’s ability to succeed internationally.” This put Perry, a former electronics executive, in direct conflict with the UN inspectors then in Iraq who were reporting that without strict maintenance of export controls, Saddam Hussein would soon reconstitute his mass-destruction war machine.

Whether Perry realized it or not, virtually every part of a nuclear weapon is made with dual-use equipment. Iraq, in fact, had already imported dual-use “isostatic” presses to shape nuclear-bomb parts, dual-use mass spectrometers to sample bomb fuel, and dual-use electron-beam welders to increase the range of its Scud missiles. During the Gulf war, one of these increased-range Iraqi Scuds had killed a group of U.S. soldiers in their barracks in Saudi Arabia, prompting a Pentagon official to remark that “when you talk about export controls, you’re not talking about politics, you’re talking about body bags.”

There was (and there remains) no hope of thwarting the Iraqi-or the Iranian-bomb and missile program without controlling such dual-use exports. Back in the 80’s and early 90’s, under the Reagan and (first) Bush administrations, the Defense Department had successfully battled attempts by the industry-friendly Commerce Department to dilute controls. Under Clinton and Perry, this institutional counterweight disappeared. As one disillusioned Pentagon staffer complained, “We now have four layers of bosses who don’t believe in export controls.” The bosses included Ashton Carter, Perry’s assistant secretary, who actually proposed giving Pakistan the special electronic locks that make nuclear warheads safer, as well as supplying nuclear fuel to India, and Carter’s own deputy, Mitchell Wallerstein, who had directed studies decrying export controls for the National Academy of Sciences.

With the Pentagon thus neutered, the Commerce Department was able to give exporters what they wanted. The two greatest beneficiaries were the American computer industry and the People’s Republic of China (PRC). Before 1996, China had been denied virtually all access to high-performance computers. These computers can simulate the conditions inside an exploding nuclear warhead or the forces acting on a missile from launch to impact; they enable a country to build not only better missiles but smaller, more powerful nuclear weapons without explosive testing. Between 1996 and the end of 1998, China succeeded in acquiring over 600 such high-performance computers from American companies, all with the approval of the Commerce Department.

It is a standard condition of U.S. export licenses that a U.S. official must be allowed to verify that a dual-use item has not been diverted from its declared civilian use. In the case of these computers, China has refused to comply: by January 2002, it had rebuffed some 700 U.S. requests for verification. What the Chinese are hiding is indubitably the fact that the next generation of Chinese nuclear warheads is being developed with American equipment.

China needed help with its missiles, too. Before 1996, an embarrassing series of launching failures had destroyed valuable satellites and put in doubt not only the reliability of China’s space rockets, but its intercontinental ballistic missiles, which are pointed at American cities and bear thermonuclear warheads. Never fear: to the rescue came two of America’s leading satellite manufacturers, Hughes Electronics and Loral Space and Communications.

One or both of these companies helped China improve its guidance systems and nose cones, and taught the Chinese how to diagnose launch failures. In order to orbit their own satellites cheaply on Chinese rockets, the companies also gave China technology that could, in the words of a later congressional investigating committee, increase “the reliability of all PRC ballistic missiles.” In doing all this, the two companies, according to the committee, “deliberately acted without the legally required licenses and violated U.S. export-control laws.” Since getting American help, China’s rockets have enjoyed 21 successful launches in a row.

Both Hughes and Loral had special ties to President Bill Clinton. Hughes was led at the time by C. Michael Armstrong, a strong Clinton supporter whom the President chose to be chairman of an advisory group with a key role in shaping U.S. export-control policy. From this perch, Armstrong (who has since become the chief executive officer of AT&T) helped convince Clinton to dilute controls on satellites. The other company, Loral Space and Communications, was led by Bernard Schwartz, the largest single donor to the Democrats’ 1996 campaign fund. The illegal aid extended to China by the companies run by these men marked one of the lowest of the low points struck in the Clinton administration.

Would things change under Bush? In the first eight months of the new administration, little happened on the export-control front for good or ill. But in September, America was suddenly at war. Soldiers had to be sent to Afghanistan, and to make that possible the United States had to bolster its position in South Asia.

India was the first diplomatic port of call. U.S. officials were only too happy to entertain India’s warm public offers of help, and to accept Indian declarations of common purpose. The display was calculated to exert irresistible pressure on the real U.S. target, Pakistan. This beleaguered Islamic country, India’s neighbor and arch rival, was indispensable to U.S. operations in Afghanistan, but its president, Pervez Musharraf, had to be persuaded to sign on. Inviting in the West would anger Islamic extremists; not inviting in the West risked an American alliance with India that would leave Pakistan isolated and linked to terrorism. With America playing the India card, Musharraf had to do the right thing.

How would the United States reward India and Pakistan for their cooperation? There was money. There was the friendship and gratitude of the world’s only military and economic superpower. And there was the possibility of doing something about export controls.

In 1998, both India and Pakistan had set off nuclear test explosions, and the Clinton administration (in one of its periodic fits of clarity) had expressed American disapproval by announcing sanctions: henceforth, export licenses would be denied to Indian and Pakistani companies known to be participating in their countries’ nuclear and missile efforts. After September 11, however, the sanctions were quietly dropped. A long list of Indian companies, plus a few in Pakistan, had a green light to purchase dual-use equipment from the United States.

Among the Indian companies so benefited was Hindustan Aeronautics, a major producer of nose cones, engines, and fuel tanks for India’s largest rockets and missiles. Another was Godrej & Boyce, which also produces rocket components like engines, motor casings, and heat shields. A third was the National Aerospace Laboratory, which performs rocket and missile research, does wind-tunnel and ground-vibration testing, and analyzed the first flight test of India’s nuclear-capable Prithvi missile. And a fourth was Walchandnagar Industries, producer of coolant pumps, end shields, and reaction vessels for India’s nuclear reactors; many of these reactors operate outside the purview of international inspection, which means that the plutonium they make is available for use in atomic bombs.

All of these firms are unquestionably manufacturing weapons of mass destruction, and all of them have been cleared for sensitive American exports – a paradoxical consequence, to say the least, of our determination to respond forcefully and globally to a terrorist attack on American soil.

Which brings us back to the bill the administration is now supporting in Congress. The bill, unlike the present export law which it would replace, makes no attempt to strike a balance between national security and freedom of trade. Essentially a one-sided list of provisions advocated by commercial interests, it is at loggerheads with the administration’s own efforts to protect the American population after September 11.

One such effort involves the U.S. Customs Service. To help keep terrorists from getting weapons of mass destruction, Customs is sending out agents to warn American companies about selling approximately 100 items on a “most-dangerous-goods” list. The list was drawn up under the “Shield America” program, which urges companies to ascertain the true identity of the buyers of these dual-use goods.

Incredible as it may sound, the bill before Congress would decontrol many of the same items that the Customs Service is warning about. The fact that the bill enjoys the backing of the White House (as opposed to another version circulating in the House that adds provisions favoring national security) reveals what one Customs official has aptly termed “a massive disconnect between different agencies of the government.” It also reveals a fundamental incoherence in the administration’s own foreign policy.

Among the dual-use items now on the controlled list are high-precision electronic switches (known as “krytrons”), which release a powerful surge of electric current in a short, precisely controlled interval. These switches have a beneficent and almost miraculous civilian use: they trigger the machines that destroy kidney stones inside the body without surgery. They also have another use: setting off the chain reaction in thermonuclear weapons.

In 1998, Iraq (which is allowed to import medical equipment despite the UN embargo), tried to provide itself with a supply of these switches by purchasing a half-dozen of the machines that destroy kidney stones. The seller was Germany’s electronic giant, Siemens, which graciously accepted the claim that Saddam Hussein was concerned about kidney stones in his subject population. Each Siemens machine required one switch. When Iraq tried to buy 120 additional switches as “spare parts,” warning flags went up, but not quickly enough to prevent the shipment of at least some of them.

Under the bill, these switches would probably be decontrolled. The reason is that they fit the bill’s definition of a “mass market” item-a new concept, invented by industry lobbyists, according to which it is impracticable to prevent any dual-use item that is freely available inside our borders from making its way outside. But the concept is flawed. For decades, these switches have been on the export-control list of the Nuclear Suppliers Group, a consortium of industrialized countries that includes virtually every switch manufacturer. The fact that Saddam Hussein had to engage in subterfuge to import the switches from Siemens shows that he could not get them any other way.

In addition to the switches, a number of other dangerous technologies could be decontrolled. One is the high-strength, “maraging” steel used to make solid rocket-motor cases and propellant tanks for missiles. This steel can also be used to form the critical moving parts of gas centrifuges that bring uranium up to nuclear-weapons grade. Other candidates for decontrol are corrosion-resistant valves, essential for regulating the gases inside plants that produce weapons-grade uranium. Both Iraq and Iran hope to build such plants and will need these valves in great number. They have been controlled for export since 1981.

There is no telling how many other items might be released. The glass and carbon fibers that go into rocket nozzles, the gyroscopes that help guide missiles, the isostatic presses that fashion rocket heat shields and nuclear-weapons parts, the vacuum furnaces that melt and cast uranium and plutonium, and the fermenters that grow biological agents-all of these products are sold in sufficient quantity in the United States to meet the bill’s mass-market definition.

Under the bill, an item that meets the mass-market definition must be decontrolled by the Secretary of Commerce. He has no discretion in the matter. The only way an item can be kept on the controlled list is if the President reverses the Commerce Secretary’s decision within 30 days, a task the bill forbids the President to delegate to others. Somehow, one cannot imagine the President and his staff plowing, month after month, through data on electronic switches, maraging steel, and corrosion-resistant valves.

The logic behind the mass-market concept is flawed both practically and morally. Congress is being asked to believe, without proof, that things that can be bought in quantity here are bound to leak across the border, making controls ineffective. As I have already shown, we have abundant historical evidence to the contrary.

Industry spokesmen also contend that since other countries sell at least some of the same things we do, our exporting companies are made to suffer an unfair disadvantage. It is true that the United States did not sell poison-gas plants to Libya or Iraq just because Germany did, or nuclear reactors to Pakistan because China did, or missiles to Iran because Russia did. Is that a policy to be ashamed of, let alone to think of reversing? Today, North Korea is selling-to Iran, Syria, Pakistan, and Libya-rocket technology far inferior to that which U.S. firms could supply. Should we rush to compete, and help bring those weapon programs up to speed?

The truth is that our companies, far from being at a disadvantage, have never had it so good. Since the end of the cold war, and thanks to the Clinton years, fewer and fewer items have been under control, and fewer and fewer applications for export licenses have had to be filed with the Commerce Department. Since 1989, both the number of applications and the value of goods controlled have decreased by approximately 90 percent. The value of the applications actually denied each year is only a few hundred million dollars, the equivalent of less than one-hundredth of 1 percent of the U.S. economy. In sum, export controls are only a shadow of what they were under COCOM. We are now being asked to get rid of the shadow.

The spread of weapons of mass destruction, the President has reminded us, is the foremost strategic threat facing the United States. These weapons are built mainly with dual-use equipment. If, as the White House seems to be urging, we reduce controls on the export of that equipment, we will not contain the threat; to the contrary, we will actively abet its growth.

Gary Milhollin directs the Wisconsin Project on Nuclear Arms Control in Washington, D.C. His article “Can Terrorists Get the Bomb?” appeared in our February issue.

Use of Export Controls to Stop Proliferation

Remarks at the Central Asia and Caucasus Nonproliferation Export Control Forum
Tashkent 2002

It is a great pleasure for me to speak to you this morning about the use of export controls to stop the spread of weapons of mass destruction.

I am a lawyer and university professor who has been working on this subject for about 15 years. I have been asked to describe the worldwide proliferation threat today in approximately one hour. This threat has been building for half a century, so it may be presumptuous to think that anyone could describe it in that length of time. If I leave out anything important, I hope you will forgive me.

Before I begin to discuss the threat, I would like to draw your attention to a database that my organization produces. It is called the Risk Report. It contains the names of some 2,800 companies around the world that are linked to the production of weapons of mass destruction or advanced conventional weapons. At the end of my talk, I will give you a short introduction to the database. It is now being used for export control by several agencies of the United States government, such as the Commerce Department, the State Department and the Customs Service, and by several foreign countries including, I am proud to say, Georgia, Armenia, and Azerbaijan, which have delegations here today. I hope to demonstrate the database to some of the other delegations here later this week.

September 11: the implications

We can draw at least three lessons from the attacks on September 11. First, we know that Al Qaeda – Osama bin Laden’s organization – is interested in getting weapons of mass destruction. We know this from evidence found in Afghanistan. With money, time and a place to work, groups like Al Qaeda are going to try to build these weapons.

Second, we know that a terrorist group could probably deliver any weapon it might produce. If Al Qaeda can organize a 19-person group to fly airliners into buildings, it can smuggle a nuclear weapon across a border. One can import a bomb in parts and assemble it in a building; one can drive it across a border in van; one can sail it into a harbor in a ship; or one can fly it into a city in a crate, “air freight,” with an altimeter.

Third, we know that the attack may be anonymous. The United States was able to find out quickly who launched the attack on September 11, but the next attack might not be so easy to figure out. If someone brings a nuclear weapon into Washington, it would probably be set off in front of the FBI building. That is what our experts think. The bomb would destroy the FBI, U.S. Customs headquarters, U.S. Secret Service headquarters, the Justice Department, and probably the U.S. Treasury building and the White House. Instead of a list of passengers on an airplane, we would be starting with a hole in the ground. A biological attack might be even more difficult to understand. The United States still has not determined who mailed the anthrax letters, and may never find out.

It is absolutely essential that we keep the means to make these weapons away from terrorists and the nations that support them. And that, of course, is where export control comes in. We are now in a new war against terrorism, and who are the front line troops? They are customs officials, border guards, licensing officers and intelligence agents. In effect, they are you – the people in this room. Nothing is more important for the security of the world than what you do. That is why conferences like this are so important, and why I am so pleased to be invited to appear before you.

Let us now examine the most acute proliferation threats, country by country.

Iraq

Iraq has never disarmed. I am distributing to you a table that my organization prepared a couple of years ago for the New York Times. The table lists the things that the U.N. inspectors believe Iraq is still hiding. The inspectors believe Iraq still has important capabilities in the nuclear, chemical, biological and missile fields.

Since the Gulf War, and in violation of the U.N. embargo, Iraq has repeatedly attempted to import prohibited items. These procurement efforts have been concentrated in Eastern Europe, in particular in Belarus, Ukraine, Russia and Romania. This is a shift from Western Europe, which was Iraq’s main supplier before the Gulf War.

My organization has published a list of these activities, which you can find on our web site at: wisconsinproject.org. The purchases are usually made through Jordan. A Jordanian middleman is typically listed as the final end-user. Then, from a free trade zone in Jordan the goods are diverted to Iraq, usually by going over the border in a truck. So if you run across an order for some five-axis machine tools bound for Jordan, you might want to ask some questions.

This activity will increase in the future. Iraq is getting more oil income now from smuggling, and the expenditure of this income is outside U.N. control. The estimate today is that the amount has reached $3 billion per year. The oil-for-food program is also being relaxed, so that Iraq will be able to buy more “civilian” goods from the U.N. escrow account. In fact, Iraq will try to buy sensitive dual-use items by disguising them as civilian goods.

A year or so ago, I discovered that Iraq had ordered from the Siemens Company in Germany six machines used to destroy kidney stones inside the body without surgery. It turned out that each machine used a high-performance electronic switch that also had a second use: it triggered atomic bombs. Iraq ordered 120 extra switches, manufactured by the French company Thomson, as “spare parts.” I know that Iraq received at least eight of these switches, and it may have received more. Iraq can be expected to acquire more items along this line as the embargo weakens.

What can we look forward to in Iraq? We can expect Iraq to carry forward all of its mass destruction weapon programs, which are now free of U.N. inspections. We should remember what Iraq had already achieved before the Gulf War. It had weaponized anthrax, weaponized botulinum toxin and nerve gas, and it had developed Scud-type missiles capable of reaching Israel and Saudi Arabia. It had also developed a nuclear weapon device that the U.N. inspectors believe would work if Iraq could obtain the fissile material necessary to fuel it. Today, the main obstacle between Saddam Hussein and his objectives is export control.

Iran

Iran and Iraq are now in an undeclared race for weapons of mass destruction. What does Iran face in its neighborhood? A nuclear-armed Pakistan on one side, an Iraq trying to get nuclear weapons on the other side, and a nuclear-armed Israel nearby. It is no wonder that Iran’s thoughts turn to nuclear weapons.

U.S. intelligence officials believe – and have said – that Iran is actively trying to build the bomb. How? Through imports. Iran has tried to purchase a number of plants that have no purpose in its civilian nuclear program, but that would be highly useful in making nuclear weapons. Iran has tried to buy a centrifuge plant from Russia for enriching uranium, tried to buy a large research reactor suitable for making plutonium from Russia and China, tried to buy graphite and heavy water technology from Russia, and tried to buy laser isotope enrichment technology from Russia.

Iran also has an active program for making long-range missiles. These missiles make sense only as nuclear weapon carriers. No one builds a long-range missile to deliver conventional explosives – it is simply too expensive. Any time you see someone busy building a long-range missile, you should look for the nuclear warhead that is scheduled to go on it. Iran has already tested a 1,200 missile and it is developing a 2,000 km missile.

In addition, Iran has an important chemical and biological weapon program, according to U.S. intelligence officials. Chinese companies have been the main suppliers of this chemical program.

It is important to notice that Iran does most of its procurement through the United Arab Emirates, especially Dubai. Iran imports more through the U.A.E. than through its own ports.

Our Risk Report database has a list of the Iranian companies that are operating in the U.A.E. and it also has a list of suspect Iranian companies that a European government gives to its exporters confidentially.

What will the future bring? We must expect Iran’s missile program to continue. Iran will try to extend the range of its missiles to reach Europe and eventually the United States. Progress will depend on aid from Russia and China. Iran’s nuclear effort is still at the research stage. Iran has no known ability to make nuclear weapon fuel, which is a large barrier to success. In the Manhattan Project in the 1940’s, the United States expended between 80 and 90 percent of its overall effort in producing the nuclear fuel. There is always the possibility, however, that Iran could manage to buy nuclear weapon fuel on the black market.

India and Pakistan

Both India and Pakistan have tested nuclear weapons, but still have progress to make. Both countries are trying to develop missiles with longer ranges, and smaller warheads to mount on these missiles. This will require better guidance systems, testing equipment, machine tools, and high-speed computers. Both countries will continue to try to procure these items.

Both India and Pakistan have developed their nuclear and missile programs almost exclusively with imports. Virtually every element of the programs in both countries have been imported or based on foreign designs. India’s plutonium comes from reactors supplied by Canada that run on heavy water imported from China, Russia and Norway through a German broker. The United States also sold heavy water to India. India’s rockets use solid fuel stages copied from U.S. designs, liquid fuel stages based on Russian and French designs, and a guidance system developed with help from Germany. Pakistan’s nuclear warheads use a Chinese design and are fueled with enriched uranium made with help from China, Germany, Switzerland and other countries. Pakistan’s missiles come from China and North Korea.

In the future, we must expect India to develop the ability to deliver nuclear weapons by surface ships, submarines and long-range bombers as well as long-range missiles. Pakistan can now produce its own short-and medium-range missiles and has nuclear capable F-16 fighter-bombers from America. Each country will continue to have enough nuclear warheads to inflict immense damage on the other.

In a nuclear war, India would lose its high-tech industry, and lose its bid to be seen as a significant actor on the world stage – the opposite of what India’s nuclear weapons appear designed to achieve. Pakistan could lose its status as an independent nation.

In effect, we have an unprecedented situation in South Asia. Two nuclear-armed states are poised for conventional war across a common border. If war begins, both countries and the world will be stepping off into the unknown. Some people believe that the nuclear forces of each side could cancel out the other’s through deterrence, and that it would be possible to have a conventional war without escalation. That, however, could easily be wrong. In fact, no one knows what a war in these circumstances would bring.

North Korea

North Korea is a concern for two reasons: first, because of its own nuclear and missile capability; second, because of its activity as a supplier.

Perhaps the most important single fact about North Korea is the one we don’t know: how many nuclear warheads it has. U.S. intelligence agencies estimate that North Korea has one or two, but no one is entirely sure. It could have more or less than that number. How would these warheads be used, if they exist? The assumption is that they would serve to hold Japan, South Korea or American troops hostage in the event of war. That is, North Korea could threaten to attack Japan or South Korea or U.S. troops with nuclear weapons to prevent the United States from intervening in a conflict between North and South Korea.

North Korea also has a chemical weapon program. These weapons could be used against U.S. troops in a war, and if they were, they might trigger calls in the United States for the use of U.S. nuclear weapons to reduce U.S. casualties

North Korea has been exporting Scud-type missiles to Iran, Syria, Egypt and Pakistan. These sales include production technology, so North Korea is also exporting proliferation – that is, North Korea is giving other countries the ability to sell this technology on to third parties.

In the future, we must expect North Korea to continue to use its nuclear program as a bargaining chip against the United States and South Korea. North Korea will probably continue to export missiles and missile technology. It could also decide to try to make more nuclear weapon material secretly, or it could decide to throw over its present agreement with the United States and to make more material openly.

Conclusion

Looking around the world, we see the following:

Egypt, Syria and Iran can all target Israel with chemical or conventional warheads on missiles. Certainly many hundreds of these missiles and possibly as many as a thousand could be targeted on Israel.

Israel, in turn, can target all of these countries with the same, plus nuclear warheads. These nuclear warheads number in the low hundreds and are sufficient to destroy every target in the Middle East.

India and Pakistan can target each other with scores of nuclear warheads on both missiles and aircraft.

India’s expanding nuclear capability will cover China soon and may cover the entire world within the next decade.

Iran and Iraq will continue their mass destruction arms race.

Virtually all of this new capability will depend on imports, so export control will be a vital tool for stopping it or slowing it down.

The Risk Report database

After telling you all this bad news, I would like to be able to end with some good news. I would like to tell you that our Risk Report database will make all these problems go away. But I can’t do that. All I can say is that the Risk Report is a tool that can help make export control more effective.

The database now contains the names of more than 2,800 organizations around the world that are linked to the development of weapons of mass destruction or advanced conventional weapons. You can learn the activities of these companies by typing in the name in a simple word search. You can also see photographs of the products these companies make. In addition, the database contains descriptions of hundreds of dual-use items that are controlled for export – that is, the items controlled because they would be useful for making nuclear, chemical, or biological weapons or long-range missiles. There are many photographs of these items as well, plus descriptions of how the items are packaged for shipment, how they work, and an explanation of why they are controlled. You can find a demonstration version of this database, which you can download, on our organization’s web site at: wisconsinproject.org. To reach the database, simply click on the Risk Report button.

The governments that now use the Risk Report include Armenia, Austria, Azerbaijan, Belgium, Bulgaria, Canada, Estonia, France, Germany, Georgia, Japan, Latvia, Lithuania, Moldova, the Netherlands, Norway, Romania, Slovenia, Spain, Sweden, Switzerland, the United Kingdom and the United States.

Iraq: Will Deterrence Work?

National Strategy Forum Review
Volume 11, Issue 3, Spring 2002

As the Bush administration ponders how to take the war on terrorism to Iraq, the question of deterrence is emerging as a central point of interest. Could America deter Saddam Hussein from using his chemical or biological agents against our troops, our homeland, or our allies, or would the threat to use these unconventional weapons in fact deter the United States from invading? And how much time is there before America must put these questions to the test?

Proponents of deterrence point to the long equilibrium between the United States and the Soviet Union, and history may soon provide a second example: India and Pakistan. In January, with tensions running high over Kashmir and the recent attack on India’s parliament, India seemed ready to launch a conventional war against Pakistan, apparently counting on its nuclear weapons to prevent its neighbor from using its own. This is the first time one nuclear-armed country has massed conventional forces on the border of another, believing it could achieve a military objective without triggering a nuclear war.

The outcome of this South Asian experiment is still unknown. If bullets start flying and Pakistan starts losing a conventional war, General Pervez Musharraf will have to make a big decision. If Pakistan sees Indian objectives as limited – say to taking out some training camps – then General Musharraf may decide to absorb the incursion. A limited loss might not justify nuclear war. The question, of course, is how far would Pakistani forces have to be driven back before the nuclear trigger is pulled. It is possible that if India were cautious in its conventional military objectives, its nuclear forces could indeed deter Pakistan from escalation.

How does this reasoning apply to Iraq? Some have argued that we ought to continue to contain Saddam, relying on our nuclear might to deter him from using any mass destruction weapons he may develop or acquire. Others argue it is time to send in the troops, counting on Saddam to again be deterred from going asymmetrical, as in 1991, by the threat of our nuclear might. But can deterrence work this time in Iraq? The case of Iraq is quite different from the India-Pakistan scenario. Why?

If the announced goal of the United States is to remove Saddam Hussein from power, the fundamental basis of deterrence is lacking. Saddam would have nothing to lose by using chemical or biological weapons. America’s ability to strike back is moot if his survival is on the line. A man under a death warrant, or one bent on keeping power at all costs, would not be deterrable. The only way around this result would be to offer Saddam a way to save his skin – perhaps by accepting a life in exile, provided he gives up his power and refrains from using mass destruction weapons. In effect, America would send a diplomat with the message, “if you use your bugs or gas, we’ll have to kill you; if you don’t, you can live out your life somewhere else.” With that offer on the table, the world would learn whether Saddam values his life more than his power.

Another question is whether Saddam’s troops would fight for him. If Saddam gave the order to launch biologically- or chemically-tipped missiles at US troops, would any Iraqi commander obey, knowing the consequences? Or would Iraqi troops again surrender to a powerful opponent rather than fight for Saddam?

The opposite side of the coin of deterrence is the question of who may deter whom. While the United States speaks of having deterred Saddam back in 1991, Saddam drew the opposite lesson: that we were deterred by his chemical arsenal from going to Baghdad. There was, in fact, an understanding: if Saddam didn’t use poison gas, we would allow him to survive. Now we must ask, would the fear of massive US casualties prevent us from sending ground troops into Iraq, in light of Saddam’s CBW arsenal? Saddam may threaten not just our troops, but also our homeland, as well as our allies once the war begins. What US strategy and costs would that entail? In fact, America may be more deterrable than Saddam, and this paradox might grow as Saddam’s power and military might increase.

Thus, the question arises: if the United States does not act now, will it be able to act in the future, or will it be stymied by its own aversion to casualties until the moment when the threat has finally become immediate – and harder to deal with? Over time, the risk increases that Saddam will acquire fissile material to fuel nuclear weapons. Meanwhile, his uncontrolled oil profits are growing, and the embargo on his imports – some of which have military uses – is disappearing. US policy-makers say they have determined that the question is notwhether to topple Saddam Hussein, but when. The real question may be whether America should strike now or wait until Saddam has had more time to build up mass destruction weapons.

In the end, the price of inaction may make the answer clear: dealing with Saddam either diplomatically or militarily is inevitable. The cost of doing nothing may be seen as simply too high. But before committing itself, the United States needs to decide whether it can deter Saddam from using his unconventional weapons, and whether America, in turn, is willing to face those weapons if deterrence fails.

India Missile Update – 2002

India continues to develop and test a broad array of guided missiles. The nuclear-capable Prithvi and Agni missiles were tested in 2001, and there were reports that India was working on the Surya, its first intercontinental ballistic missile (ICBM). India also successfully launched both the Polar Satellite Launch Vehicle (PSLV) and the Geosynchronous Satellite Launch Vehicle (GSLV), the largest rocket India has built. Configured as a missile, either launch vehicle could deliver a nuclear warhead to intercontinental ranges. According to the U.S. Central Intelligence Agency (CIA), India is making progress toward its aim of achieving self-sufficiency for its missile programs, but continues to rely on foreign assistance.

Missiles

Agni: In August 2000, in an interview with Defense News, a scientist with India’s Defense Research and Development Organization (DRDO) declared that both variants of the nuclear-capable Agni missile were operational and ready for serial production and deployment. The scientist said that the $5 million Agni-I can carry a 1,000 kilogram payload 1,500 kilometers and the Agni-II can deliver a 1,000 kilogram payload approximately 2,500 kilometers. The DRDO scientist also claimed India possessed 10 Agni-I missiles and two Agni-II prototypes. He added that the DRDO and Bharat Dynamics Ltd. (BDL), India’s state-owned missile builder, could produce up to 18 Agni-II missiles a year.

The Agni-II was test fired in January 2001. The missile, reportedly carrying a one-ton payload, was fired from a mobile launcher at the Interim Test Range (ITR), and marked the first time the missile was fired “in its final operational configuration.” It was only the second time the missile had been tested.

Dr. Vasudev Aatre, head of the DRDO, was quoted in Jane’s Defence Weekly in February 2001 as saying that India is planning to develop an enhanced version of the Agni called the Agni-III. According to Aatre, the missile “will have a better range and capability” than the Agni-II. The missile is expected to have a range of 3,500 kilometers.

In January 2002, India successfully test-fired a new “shorter range” Agni missile with a range of 700 kilometers. The missile was launched at 8:45 am from Wheelers Islands off the Orissa coast into the Bay of Bengal. A defense ministry statement quoted Defense Minister George Fernandes as saying that the “mission was flawless and enhanced India’s capability in deployment of such surface-to-surface missile systems.”

Akash: India tested the Akash surface-to-air missile in July 2000, on February 27, 2001 and again three days later on March 2, at the Interim Test Range (ITR). The missile, fired from a mobile launcher, can reportedly carry a warhead of 55 kilograms to a range of 25 kilometers.

Brahmos (PJ-10): The first flight test of the Brahmos supersonic anti-ship cruise missile was conducted at the Interim Test Range in June 2001. The missile was developed by BrahMos, an Indo-Russian joint venture formed through an intergovernmental agreement that was signed in February 1998. The DRDO and Russia’s NPO Mashinostroyenia (NPO Mash) are the joint partners. Reportedly based on the Russian SS-NX-26 “Yakhont,” the Brahmos is approximately 9 meters long, weighs 3900 kilograms, can travel at speeds of Mach 2.5 to 2.8, and can carry a 200-300 kilogram warhead up to 300 kilometers. The missile is launched from a canister and its propulsion system consists of a solid fuel booster and a liquid ramjet sustainer. Thrusters and jet vanes are used to control and turn the missile, and an inertial navigation system guides the missile during the mid-course and terminal phases through an active radar seeker. The missile, which will reportedly be ready for sale by 2003, is capable of being launched from land-, sea- and submarine-based platforms.

Nag: This anti-tank missile was successfully test fired in September 2001. India will reportedly begin user trials soon.Prithvi: The 150-kilometer range liquid fuel Prithvi-I missile continues to be India’s only deployed ballistic missile. It was reported in late 2000 that India would begin production of Prithvi missiles for the Indian defense forces. Both the Prithvi-I, which can carry a 500-1,000 kilogram payload, and the 250-kilometer-range Prithvi-II, will be built by Bharat Dynamics Ltd. (BDL). BDL company sources were quoted as saying that the Indian Army required 150 missiles and the Air Force wanted 50 Prithvi-II missiles.

In late March 2001, India again tested the Prithvi-I. According to a DRDO official, the main objective of the test was to “gauge the propulsion parameters of the missile.” Nine months later, an extended range (250 kilometer) version of the Prithvi called the Prithvi-II was launched from the Interim Test Range. The missile was fired from a mobile 8 x 8 Tatra Transporter Erector Launcher (TEL).

Surya: In April 2001, Defense News reported that India was preparing to test its first intercontinental ballistic missile (ICBM), named Surya, as early as January 2002. The CIA has reported that most components needed for an ICBM are available from India’s indigenous space program, and that India could convert the PSLV into an ICBM within a year or two of a decision to do so.

A DRDO scientist told Defense News that the Surya is based on both liquid- and solid-fuel technology. He said the Surya will be 40 meters long and weigh 40 tons. A follow-on version of the Surya, known as Surya-II, may be tested in 2003 to a range of 12,000 kilometers, according to the scientist.

Space launchers and satellites

Geosynchronous Satellite Launch Vehicle (GSLV): Just 21 days after its initial launch was aborted at the last second, the Geosynchronous Satellite Launch Vehicle (GSLV) lifted off from the Sriharikota Space Center in April 2001 carrying an experimental GSAT-1 satellite. The 400-ton rocket is comprised of a solid propellant core first stage ringed by four liquid propellant strap-on boosters, and uses a Russian cryogenic engine in its upper stage. The solid propellant first stage and liquid-fuel second stage of the PSLV are used as the core first and second stages of the GSLV. The strap-on boosters are also derived from the PSLV second stage.

The first launch attempt on March 28 was halted just one second before liftoff after computers detected that one of the strap-on boosters was not generating the proper thrust. The malfunction was reportedly traced to a defect in the booster’s plumbing, which prevented the proper flow of liquid oxygen to the engine thrust chamber. The booster was replaced and the other strap-on engines were deemed fit for another launch.

The GSAT-1 failed to reach its intended orbit, however, reportedly because the satellite ran out of propellant. As a result, the spacecraft is drifting and unusable. Indian Space Research Organization (ISRO) officials nonetheless claimed the mission fulfilled its objectives. An ISRO press release reported that the GSLV performed well during the flight, thereby validating the design and integration of its subsystems.

In June 2001, ISRO officials were reported as saying the first GSLV equipped with an Indian cryogenic upper stage will be launched in late 2003. The new engine has reportedly undergone one 30-second test firing. Indian officials are reportedly also considering building a cryogenic engine with more thrust that could be available for flight testing in 2004-2005.

An upgraded version of the liquid-fueled Vikas engine, used on both the PSLV and the GSLV, was tested in early December 2001. The new engine reportedly produced 11 percent more chamber pressure than the current Vikas engine, and is slated to be flown on the next flight of the GSLV sometime in 2002. ISRO said the new engine could potentially increase the payload capacity of the GSLV by 150 kilograms.

Technology Experiment Satellite (TES): India successfully launched the Technology Experiment Satellite (TES), along with two other satellites, aboard a PSLV on October 22, 2001. The TES will reportedly collect 1-meter resolution images, meaning that the satellite can capture objects that are one meter in diameter or larger. ISRO’s chairman stopped short of characterizing TES as a spy satellite, but said the application of the imagery will depend on the needs of the specific user. TES is reportedly designed to operate for three years.

Russian assistance

In April 2001, Defense News reported that Russia’s Splav Research and Production Association will deliver Russia’s advanced 90R anti-submarine missiles to India. The missile was developed for Splav’s RPK-8 “Zapad” anti-submarine missile system. The missile can fly more than four kilometers before plunging into the sea, and is capable of homing on submarines 1,000 meters deep. A senior Indian Navy official said the Navy will buy the missiles for its Russian-designed “Project 17” stealth warships, which are being built at the Mazagon Docks in India. The first warship is scheduled to be commissioned by December 2007.

Missile defense

India is reportedly working on integrating its Rajendra phased array radar with the Green Pine radar developed by the Israeli firm Elta and used by Israel’s Arrow missile defense system. Both the Indian Air Force and the Defense Research and Development Organization (DRDO) are reportedly involved in the project.

Israel Missile Update – 2002

Israel has an arsenal of two-stage “Jericho” ballistic missiles which can deliver a nuclear warhead to any point in the Middle East and probably beyond. Israel is pursuing a military satellite program and has deployed several batteries of the Arrow missile defense system to shield against the missiles of its neighbors.

Satellites

In December 2001, it was reported that Israel Aircraft Industries (IAI) had completed the production of the newest Ofek spy satellite and that IAI expected to mate the satellite with an improved Shavit launcher for a possible launch – if no complications arise – in late January or early February 2002. This comes on the heels of a report, published in September 2001 by Israel’s Comptroller-General, that the Ofek program was running six years behind schedule and would cost four times the amount budgeted since the launch of Ofek-3 in 1995. The report cited poor oversight, management deficiencies and a lack of coordination among Israeli military and intelligence agencies and the Ministry of Defense as the reasons for the delays and cost overruns.

Israel is also moving ahead with plans to produce a jam-proof military communications satellite, according to Major General Isaac Ben-Israel, the head of military research and development at the Israeli Ministry of Defense. He told Defense News that the planned spacecraft will weigh between one and two tons, is expected to cost $300 million to $400 million over the next five years, and will most likely be launched by a U.S. rocket.

In December 2000, the Eros A-1 photo-reconnaissance satellite was launched from the Svobodny cosmodrome in eastern Russia. The satellite is slated to be the first of eight Eros satellites launched between 2000 and 2004. The 250-kilogram satellite, which has a reported resolution of 1.8 meters, was deployed in an orbit 480 kilometers above the Earth.

The Israeli Ministry of Defense is the prime customer for Eros. Unlike the currently deployed Ofek-3 military satellite – which has already outlived its lifespan by more than three years – the Eros follows a polar orbit which allows the satellite to monitor multiple targets in the same area. Like the Ofek satellites, Eros is built by Israel Aircraft Industries (IAI) and contains remote sensing payloads manufactured by El-Op Electro-Optics Industries.

It was reported in December 2001 that ImageSat, which markets Eros, had not obtained enough customers to justify launching a second satellite. The report noted that only the Ministry of Defense and the governments of India and Taiwan were customers for Eros.

Arrow anti-ballistic missile defense system

Israel’s Arrow program is a joint U.S.-Israel effort to develop a system for destroying missiles launched from Syria, Iran and Iraq by intercepting them before they enter Israeli airspace.

In July 2001, the Israeli newspaper Ha’aretz reported that a Syrian Army exercise that included the launch of a Scud missile provided the chance for Israeli missile defense officials using the Green Pine radar to test all aspects of the Arrow system – except the actual launch of the Arrow interceptor missile. According to the report, the radar detected the launch of the Syrian missile and followed it on its 300-kilometer route until its impact in the Syrian desert. The events gave Israel the chance to test the system under “almost real time conditions.”

Israel reportedly tested the Arrow missile system again in August 2001, shooting down a live “Black Sparrow” missile which was dropped from an Israeli F-15 fighter at high altitude and assumed the flight path of an incoming Scud missile. The Black Sparrow was detected by the Green Pine radar, and an Arrow interceptor destroyed the incoming missile about 100 kilometers from the Israeli coastline. According to officials, this ninth test had the Arrow striking farther and higher than it had ever been tested.

Future Israeli plans to “more realistically” test the Arrow have run into roadblocks and could be delayed until 2004. According to a report in Jane’s Defence Weekly, Israel wants to test the Arrow system in long-range intercepts at the White Sands Missile Range in New Mexico, and Israel has requested the Scud-C as the target missile. However, U.S. officials have said that the U.S. Department of Defense does not have access to Scud-C missiles, and that the launch of a liquid-fueled Scud missile is too dangerous for nearby populated areas. Furthermore, White Sands is considered too small for a Scud-C launch. One possible solution, according to officials, is that the tests could be conducted at the U.S. missile test site at Kwajalein in the Marshall Islands in the Pacific Ocean.

It was reported in January 2002 that Boeing and Israel Aircraft Industries were close to signing an agreement on the co-production of Arrow missiles in the United States. The U.S. Department of Defense and Congress have reportedly agreed to assist Boeing in establishing a U.S.-based production line for Arrow missiles, and the company is slated to receive more than $20 million in 2002 funding for pre-production expenses.

In an effort to comply with the guidelines of the Missile Technology Control Regime (MTCR), Boeing will produce 51 percent of Arrow missile components and parts – rather than complete missiles or subsystems – in the United States, and the remaining 49 percent of production will be done in Israel. The formula has reportedly been endorsed by the Pentagon and the Israeli Ministry of Defense, and awaits final approval from the U.S. Department of State. A State Department official reportedly noted that the Boeing co-production agreement covered only Israel’s use of the Arrow, and did not pertain to third country exports of the Arrow system – an issue that an Israeli official said had been shelved for at least a year.

Unmanned aerial vehicles

Israeli officials have reportedly approached the United States about the possibility of jointly developing an unmanned aerial vehicle (UAV) that could detect and destroy Scud-type ballistic missile launchers.

Defense cooperation

In July 2001, Israel Aircraft Industries (IAI) and India’s Hindustan Aeronautics Ltd. (HAL) signed a Memorandum of Understanding (MOU) providing a framework for future defense cooperation. The Memorandum also calls for the transfer of unspecified technology from IAI to HAL. An Israeli spokesman said the agreement was “a milestone that will allow [Israel] to elevate defense cooperative relations with India to a higher level.”

India is reportedly working on integrating its Akash ground-to-air missile with the Arrow missile defense system. Under this program, India’s Rajendra phased array radar would be networked with the Green Pine radar. Both the Indian Air Force and the Defense Research and Development Organization (DRDO) are reportedly involved in the project.

Testimony: Reauthorizing the Export Administration Act

Testimony of Gary Milhollin

Professor Emeritus, University of Wisconsin Law School and
Director, Wisconsin Project on Nuclear Arms Control

Before the Committee on Armed Services
United States House of Representatives

February 28, 2002

I am pleased to appear before this distinguished Committee to testify on the re-authorization of the Export Administration Act.

I’m sure that no one is more aware than the members of this Committee that we now face a new situation in the world after September 11.  We have learned, in the most painful way, that our oceans and borders no longer protect us from violent attack, and that we must do more to protect ourselves.

It is with this new situation in mind that I urge the Committee to examine the bill now pending before the House, HR 2581.  The most important thing about the bill is that it was conceived, drafted, debated and reported in a bygone period of history – the days before September 11.  In light of the new threats before us, the assumptions behind the bill have become outdated.  What were those assumptions?  They were that the world was such a peaceful place that the United States could safely let its companies make a little more money on exports even if it meant lowering the barriers to the spread of weapons of mass destruction.  We should now be able to see that this assumption was wrong.  Our priorities should be exactly the opposite of those reflected by this bill.

Unlike our present law, this bill does not try to strike a balance between national security and freedom of trade.  Instead, it is a one-sided list of provisions advocated by commercial interests that have long opposed any form of export control.  If the bill passes, it would essentially dismantle the system of export control that the United States has built up over the past half-century.  Whatever one may have thought of this bill before September 11, it is now clear that we cannot afford to take such a dangerous step.  Instead of weakening export controls, we should be strengthening them.

Combating terrorism and arms proliferation

To show how outdated this bill has become, I would like to draw the Committee’s attention to what the U.S. Customs Service is doing.  Customs has set up a new program called “Shield America,” specifically to respond to the attacks of September 11.  Customs has drawn up a list of approximately one hundred dangerous items, and is now sending its agents out to visit American exporters to warn them about selling them.  The items are the ones that would make it easier for terrorists and terrorist-supporting nations to build weapons of mass destruction.  The Washington Post ran a news story about this important effort on December 11, 2001.  I would like to submit the article for the record.

Why should the Committee take note of this effort?  Because the bill now before the House would decontrol the very items that Customs is warning our exporters to keep away from terrorists and terrorist-supporting states.  These items include:

  • high-precision electronic triggers, used to detonate nuclear weapons,
  • specialized steel alloys, used to make nuclear weapon fuel and missile components,
  • glass and carbon fibers, used to make parts for long-range missiles,
  • corrosion-resistant valves, used to make nuclear weapon material,
  • specialized reactor vessels, used to make chemical weapon agents.

All of these technologies have been identified by experts in our government as essential to control in order to combat terrorism and the spread of mass destruction weapons.

I have attached to my testimony an appendix that describes a number of the items on the Customs list and the reasons why each of them would be decontrolled under the pending bill.  The items all fit the bill’s definition of “mass market status.”   The bill says essentially that if an item is available in quantity in the United States, it should be free for export.  The bill gives the  Secretary of Commerce the power to decontrol such items acting on his own.  The bill says that the Secretary of Commerce shall determine that an item has mass market status if it meets the criteria in Section 211, which these items do.  The items would then be decontrolled automatically.

The only way to retain control is for the President himself to make a special finding within 30 days, in which he would set aside the Commerce Department’s decision.  This is an authority that he is not allowed to delegate.  In effect, the bill sets up a powerful new machine at the Commerce Department for decontrolling exports.  Once that machine gets moving, it is going to chop big holes in the existing control list unless the President can find some hours in his schedule in which to undo the Commerce Department’s work.  Do we really want the President of the United States to put aside his concern about Osama bin Laden, or about the economy, and spend his time thinking about triggered spark gaps and corrosion resistant valves?

There is obviously something wrong with this picture.  What is wrong is that the world has changed, and this bill does not reflect that fact.  It is manifestly absurd to decontrol the same technologies that our Customs Service is now warning our exporters not to sell to terrorists.

Many of the items on the Customs list are controlled to combat terrorism.  In light of the attacks on September 11, Congress should not authorize the Commerce Department to decontrol any item that could help terrorists or terrorist-supporting nations.

It would be best simply to delete the mass market provision because it is outdated.  If it remains in the bill, however, it should be amended so as not to apply to any item now on the control list where a reason for control is anti-terrorism.

The mass market provision should also be amended to require the concurrence of the CIA and the Secretaries of Defense and State before any item could be deleted from the control list.  The Secretary of Commerce should not be allowed to delete items unilaterally.  The House Committee on International Relations, in its report, found that “State and Defense must have equal status with the Secretary of Commerce in determining which items are to be controlled on the National Security Control List.”  Under the bill’s present language, these departments do not have that status.  An amendment is needed to give it to them.

The “foreign availability” language in Section 211 suffers from the same problems as the mass market language.  Many of the sensitive items on the Customs Service list would also have “foreign availability status” because they are manufactured and sold by foreign companies.  In fact, the definition of foreign availability in the bill is so sweeping that it covers virtually anything that a controlled country can manage to buy from any supplier in the world.  If Iran or Pakistan or Syria can buy a nuclear weapon component or a missile component or a piece of sensitive equipment from China, Russia or North Korea, then this bill says that our industry must be free to sell the same thing.

When one reads Section 211 carefully, it would seem that even guidance sets or rocket engines would have “foreign availability status” because they are available from North Korea.  Under the bill’s criteria, North Korean rocket components:

  • Are “available to controlled countries from sources outside the United States;”
  • “Can be acquired at a price that is not excessive;”
  • Are “available in sufficient quantity so that the requirement of a license or other authorization with respect to the export of such item is or would be ineffective.”

Today, Egypt, Iran, Syria and Pakistan are importing North Korean rocket components in “sufficient quantities” without any trouble.  Requiring a U.S. license for their sale would obviously be “ineffective.”  Under the literal terms of the bill, they appear to have “foreign availability status.”  Any bill that decontrols rocket components is obviously flawed.

This foreign availability language too should be deleted.  However, if it is left in the bill, it should be amended to forbid the decontrol of any item now controlled for anti-terrorism purposes.  This language should also be amended to require the concurrence of the CIA and the Secretaries of Defense and State before any item is deleted.  As stated above, the national security agencies deserve equal status in determining what is controlled or decontrolled because of foreign availability.

There is also the fact that the great majority of the items now on the control list are controlled by our allies under multilateral regimes.  If the Secretary of Commerce begins to decontrol these items unilaterally, it will destroy U.S. credibility on export controls.  It may destroy the regimes as well, given the fact that the United States has always been the leader in setting up the regimes and preserving them.

Thus, the mass market and foreign availability language, if left in the bill, should also be amended to forbid the decontrol of any item that is now controlled by a multilateral regime, unless the regime members first agree that the item should be dropped.

The role of the intelligence agencies

One of the lessons of September 11 is that we need to make better use of intelligence information.  A good place to start is with export controls.  Not only is our intelligence community the first line of defense against terrorists, it is also the place to look for evidence showing that a particular end-user or a particular country is linked to weapons of mass destruction, or that a particular export presents a high risk of diversion.  For these reasons, it is time for Congress to make the Central Intelligence Agency a full participant in the export control process.

Instead of simply providing information to other agencies, which those agencies may or may not take into account, the CIA should take an official position – meaning that it should cast a vote – on each export license application that is reviewed.  If the CIA believes that an export should not occur, the dispute resolution procedures should take the CIA’s position into account. The quality of export control could only be improved by having the views of our intelligence community incorporated formally into the decision-making process.

To increase the CIA’s participation, Sections 401 and 402 of the bill should be amended to require explicitly that all license applications be referred to the CIA, that CIA participate on the same basis as the Departments of Defense and State in classification decisions, and that the CIA have a vote in the dispute resolution process.  In like fashion, Section 211 should be amended to require the concurrence of the CIA before any item is decontrolled under the mass market or foreign availability provisions.

The role of the national security agencies

This bill essentially turns the Secretary of Commerce into the czar of export controls.  In addition to deciding what will be controlled, the Commerce Department will chair the most important export control committee and will use its administrative preeminence to determine the outcome of licensing decisions.

This is exactly the opposite of the way things should be.  The national security agencies house the experts who understand how dual-use equipment operates and what the risks are if such equipment is diverted for military purposes.  They also know which countries and companies in the world are most likely to divert it.  In order to bring the maximum amount of government expertise to bear upon export control decisions, the qualified personnel at the national security agencies must be able to decide what is controlled and who is allowed to buy it.

Let us not forget that the Commerce Department is burdened by a conflict of interests – it must promote exports as well as regulate them.  The promotion function has always dominated, and has always caused the Commerce Department to champion the exporters’ point of view.  It is vitally important to insure that the national security agencies continue to have a strong voice in export control decisions, and that national security will not take a back seat to trade interests.

Under Section 202 of this bill, the Secretary of Defense would lose his existing power to put an item on the National Security Control List.  Only the Secretary of Commerce would have that power.  The Secretary of Defense has the right to concur with the Secretary of Commerce’s action, but that could only allow the Pentagon to keep an item off the list that the Commerce Department wants to put on it.  Since Commerce has always wanted to control as few items as possible, this is a meaningless concession.  This section should be amended to give the Secretary of Defense the same authority to designate items for inclusion on the National Security Control List that exists under present law.

The amendment should also preserve the authority of the Secretary of Defense, which exists under present law, to develop and maintain a list of militarily critical technologies.  HR 2581 does not provide for such a list.  It would be a great mistake to get rid of this list, which is one of main foundations upon which our export controls now rest.  It is hard to see why the Secretary of Defense should not have the power to decide which exports should be controlled to protect our national security.

Congress should also ensure that no license application is approved unless all the national security agencies concur.  It makes no sense to allow cases to be escalated to the political level where the judgments of national security experts can be reversed by political considerations.  If a national security agency takes a stand in opposition to an export application at the expert level, the case should end there.

Under Section 402 of the bill, the Commerce Department is set up as the final arbiter of interagency disputes.  If a national security agency objects to an export license application, the case is referred to an interagency committee set up by the Commerce Department.  The chair of the committee, which the Commerce Department appoints, can then simply decide to grant the license, regardless of what any national security agencies thinks.  Even if a majority, or indeed  all of the national security agencies object to the export, the chair of the committee can still approve it under the language of this bill.  The Commerce Department can simply override objections by any other agency and approve the export on its own.

Unless Congress is willing to see the national security agencies excluded from export control, this section must be amended.  First, a national security agency, such as the Department of Defense, should be put in charge of setting up and chairing the committee.  There is no reason to give this function to the Commerce Department, which has the least expertise in the subject matter.  Second, the section should specifically say that each reviewing agency shall have a seat on the committee and a vote on license applications.  Third, no export should be approved except by unanimous vote of the reviewing departments and agencies.  If a national security agency cannot be persuaded to change its mind during the process of committee debate, and remains convinced that the export is too dangerous to be approved, the export should be denied.

In addition to amending Section 402, Congress should amend Section 401, which gives the Secretary of Commerce sole authority to set up the procedures for interagency review of license applications.  Because these procedures affect all the participating agencies equally, all the agencies should have a voice in setting them up.  The CIA and the Secretaries of Defense and State should all be given the explicit right to concur in the procedures.

There are also two other provisions that need to be amended in order to give the national security agencies a proper role in export control.  The first is Section 201(c).  It authorizes the Secretary of Commerce to establish a database to help exporters identify end-users of concern.  The Commerce Department, however, has been notoriously reluctant to identify end-users in the past.  The State Department, by contrast, did an admirable job of identifying Indian and Pakistani end-users of concern after the nuclear weapon tests in 1998.  In doing so, State had to overcome fierce opposition from Commerce, which opposed the whole idea.  This section should therefore be amended to put the creation of the database in hands of the State Department, which is much more likely to carry out Congress’ intent.

The other provision is Section 214, which creates a new Office of Technology Evaluation.  It would gather information about the defense industrial base, technological developments, and national security.  The information would be used to make decisions relating to mass market and foreign availability.  The bill now places this office in the Department of Commerce, which has no background in these matters.  Instead, this section should be amended to place the new office in the Department of Defense, where our government’s expertise resides.

Keeping faith with the rest of the world

After September 11, the United States is more dependent than ever on foreign countries.  We must rely on them to help keep dangerous technologies away from terrorists and the nations that support them.  But how can we ask other countries to be more careful of what they sell if, at the same time, we are weakening our own export controls?

President Bush just returned from a trip to China, where he urged China to be more careful of its missile exports.  The United States is also asking Russia to stop exporting missile and nuclear technology to Iran, and I myself have visited ten countries in the former East Bloc over the past two years to help them strengthen their export control systems.

In light of all this, how can the United States now tell the rest of the world that export controls aren’t so important after all – that, in fact, they should be relaxed?  We should be sending the opposite message.  If we really want to protect our security, we would toss this bill in the wastebasket and start over.  We would draft a new set of controls to protect us against the new threats we face.  Until we do that, other countries won’t take us seriously, and dangerous technology will continue to flow to countries and groups that want to destroy us.


APPENDIX
TO TESTIMONY OF GARY MILHOLLIN
BEFORE THE HOUSE COMMITTEE ON ARMED SERVICES, FEBRUARY 28, 2002

Sensitive items now controlled for export that have mass market status, and therefore would be decontrolled under Section 211 of H.R. 2581

Nuclear weapon triggers

For at least twenty years, the United States has controlled for export the high-precision electronic switches needed to detonate nuclear weapons.  These are key components in a nuclear weapon’s firing circuit and are popularly known as nuclear weapon “triggers.”  In 1998, Iraq tried to provide itself with a supply of these switches under the guise of medical equipment.  Iraq is allowed to import medical equipment despite the U.N. embargo, so Iraq bought a half dozen machines – called “lithotripters” – to rid its citizens of kidney stones.  The lithotripter pulverizes kidney stones inside the body – without surgery.  But each machine must be triggered by the same high-precision switch that triggers a nuclear weapon.  Iraq tried to buy 120 extra switches as “spare parts.”

Iraq ordered the machines and switches from Siemens, in Germany, which sold the machines but passed the “spare parts” order to Thomson CSF in France.  Siemens reported that Iraq got one switch with each machine and two more as spares, but to get any additional switches, Iraq would have to turn in a used switch for each new one and allow the United Nations to inspect the use of the machines.  The switches were controlled for export because they are on the control list of the Nuclear Suppliers Group, an international regime to which France, Germany and the United States belong.

These switches, however, would have “mass market status” under H.R. 2581, and would be decontrolled for export by the United States.  The switches meet all the criteria listed in Section 211 of the bill, and the bill says that the Secretary of Commerce shall remove them from the control list if they meet the criteria.  They meet the criteria as follows:

  • They are “available for sale in a large volume to multiple purchasers,” because they are used in radar, lasers and rockets as well as lithotripter machines and are advertised on the Internet by manufacturers in a number of different countries;
  • They are “widely distributed through normal commercial channels,” because they are sold by the thousands each year, including the hundreds sent to hospitals to keep lithotripter machines running;
  • They are “conducive to shipment and delivery by generally accepted commercial means of transport,” because they are small and easy to handle;
  • They “may be used for their normal intended purpose without substantial and specialized service provided by the manufacturer,” because they need only to be connected into an electrical circuit by attaching the appropriate wires.

Any bill that decontrols nuclear weapon triggers must be seen as seriously flawed.

Glass and carbon fibers

Glass and carbon fibers are used widely in ballistic and cruise missiles.  They go into solid rocket motor cases, interstages, wings, inlets, nozzles, heat shields, nosetips, structural members, and frames.  Composites reinforced by carbon or glass fibers also form the high-speed rotors of gas centrifuges used to enrich uranium for nuclear weapons.

In addition to these military applications, however, the fibers are used in skis, tennis racquets, boats and golf clubs, and are produced in a number of countries.  This availability would give the fibers “mass market status” under the bill, despite the fact that they have been controlled for export since January 1981.

  • They are “available for sale in a large volume to multiple purchasers,” because they are advertised on the Internet and can be ordered in large quantities by anyone;
  • They are “widely distributed through normal commercial channels,” because they are shipped in large quantities to manufacturers of sporting goods;
  • They are “conducive to shipment and delivery by generally accepted commercial means of transport,” because they do not require special handling except for refrigeration in some cases;
  • They “may be used for their normal intended purpose without substantial and specialized service provided by the manufacturer,” because they can be incorporated in manufacturing processes in the form received.

In 1988, a California rocket scientist was arrested in Baltimore as he tried to illegally load 420 pounds of carbon fibers on a military transport plane bound for Cairo.  The material was intended for the ballistic missile that Egypt was developing with Argentina and Iraq.  The scientist was sentenced in June 1989 to 46 months in prison.  It would be a big surprise to the world if the United States now decontrolled this material.

Maraging steel

Maraging steel is a high-strength steel used to make solid rocket motor cases, propellant tanks, and interstages for missiles.  Like carbon fiber, it is used to make centrifuge rotors for  enriching uranium for nuclear weapons.  In 1986, a Pakistani-born Canadian businessman tried to smuggle 25 tons of this steel out of the United States to Pakistan’s nuclear weapon program.  He was sentenced to prison as a result.  Maraging steel has been controlled for export since January 1981.

This steel is produced by companies in France, Japan, Russia, Sweden, the United Kingdom and the United States and it meets all the criteria for “mass market status.”  Several steel companies list maraging steel on the Internet and can produce maraging steel in multi-ton quantities.  Over the telephone, two American companies and one British company explained to my staff how to order 25 ton quantities with delivery in less than a month.  Maraging steel is bundled and shipped much like stainless steel, which it closely resembles.

Corrosion resistant valves

These special valves are essential components in plants that enrich uranium to nuclear weapon grade.  Both Iraq and Iran are hoping to build such plants, and will need these valves in great numbers.  The valves resist the corrosive gas used in the enrichment process.

These same valves are also used in the chemical, petrochemical, oil and gas, fossil power, pulp and paper, and cryogenic industries.  Their size can range from very large gate valves down to tiny globe valves used in instrument and control lines.  They are manufactured by companies in Australia, Japan, Russia, the United Kingdom and the United States.  Smaller corrosion resistant valves have been controlled for export since October 1994, and larger valves have been controlled since October 1981.

These valves fit all of the criteria for “mass market status.”  They are advertised on the Internet and are widely available to American buyers.  A quick survey this week by my organization revealed that dozens of companies make them and sell them in the hundreds per year.  They would therefore be decontrolled under Section 211, to the great delight of Iraq and Iran.

Other sensitive items that would be decontrolled

The items above are only four of the sensitive technologies that meet the “mass market” definition of the bill.  There also are many others, some of which are listed below.  All of these items are now controlled for anti-terrorism as well as non-proliferation purposes.

Gyroscopes

Gyroscopes are sensitive pieces of electromechanical or electro‑optical equipment that measure rotation about one or more sensitive axis.  Gyros are used in a missile’s guidance set or integrated flight instrumentation system to sense changes in accelerometer orientation.  Designs may use two, three, or four gyros. They usually are mounted perpendicular to each other in order to provide angular measurement information about all three axes.  They can be mounted in a floating ball, or affixed to a block which is in turn affixed to the missile airframe in a strapdown configuration.  Gyros are also used in integrated flight instrumentation systems, gyrostabilizers, automatic pilots, and in navigational equipment.  Military applications include artillery, tanks, ships, and aircraft.  Gyroscopes are produced by companies in Austria, Canada, China, France, Germany, Israel, Italy, Japan, North Korea, Russia, South Africa, Sweden, United Kingdom, and the United States.

Hot isostatic presses

Isostatic presses are used to infuse carbon into a porous carbon preform of a rocket nozzle or reentry vehicle nose tip under great pressure.  This process, referred to as densification, fills up and virtually eliminates voids in the preform and thereby increases the density and strength of the treated object.  Hot isostatic presses are produced by companies in France, Germany, Russia, and the United States.

Vacuum induction furnaces

Vacuum or controlled environment induction furnaces are used to heat or melt metal.  The furnaces create a vacuum because the metals inside would oxidize if they were exposed to the air.  The furnaces are typically closed cylindrical vessels with a number of ports and feedthroughs to provide access for vacuum piping, inert gas piping, electrical feeds, coolant piping, and instrumentation lines.  Vacuum furnaces can melt uranium and plutonium which can then be cast to make key parts of nuclear explosive devices.  These furnaces also may be used to heat-treat maraging steel for use in the rotor assemblies of gas centrifuges for uranium enrichment.  Vacuum furnaces are made by companies in Canada, Germany, Sweden, and the United States.

Oscilloscopes

No other instrument has been more important to the development of nuclear weapons than the oscilloscope.  Oscilloscopes are electronic measuring instruments that record an electrical signal as a function of time and usually plot the information on a screen.  Because they can record events occurring in a hundredth of a millionth, or even a billionth of a second, oscilloscopes can log the brief events at the heart of an atomic bomb before it flies apart.  They are also widely used in designing and testing the timing, firing, and safing circuits for nuclear explosive devices, the testing and development of high‑speed electronics such as computers, radar and communications equipment, and can be used to help make guidance, control and tracking systems for missiles.  Oscilloscopes are made by companies in Germany, Japan, the United Kingdom, and the United States.

Fermenters

In the typical biological weapon production process, an organism is grown in a fermenter in a type of media favorable to the organism’s growth.  A 20‑liter fermenter combined with a filling port can be obtained from a home brewing supplier for under $50.  These suppliers can also be a source of larger capacity fermenters.

There are numerous types of fermentation vessels available. A standard fermenter consists of a cylindrical metal vessel (usually stainless steel) and either a cone‑shaped or a sloping bottom to facilitate emptying.  The fermenter also has a number of ports for adding or removing material.  Most are equipped for agitation with baffle plates fitted inside the fermentation tank and an impeller.  Fermenters are available from suppliers in Australia, Austria, Belgium, Canada, the Czech republic, Denmark, France, Germany, Italy, Japan, Netherlands, Russia, South Korea, Sweden, Switzerland, the United Kingdom and the United States.

Accelerometers

Accelerometers are sensitive pieces of electromechanical equipment used in measuring acceleration, which is the rate of change of speed in a given direction.  Missile accuracy is directly dependent on the quality of the missile’s accelerometers and gyroscopes; missiles that fly for a long time without external updates require high quality accelerometers.  Information from the accelerometer, along with information on time, local gravity and orientation, allows vehicle speed, heading, and position to be determined by the guidance set or integrated flight instrumentation system.

Typically, three accelerometers mounted perpendicular to each other provide all the acceleration measurement information necessary for inertial navigation.  Combined with gyroscopes, they make up the missile’s inertial measurement unit.  Depending upon mission requirements, some unmanned aerial vehicles (UAVs) and cruise missiles require only one or two accelerometers.  Accelerometers are made by companies in China, France, Germany, Israel, Italy, Japan, North Korea, Norway, Russia, South Africa, Sweden, United Kingdom, and the United States.

Flow forming machines

Flow‑forming machines are used in manufacturing to make parts to precision dimensions.  They can produce rocket motor cases, end domes and nozzles, as well as numerous parts for the aerospace industry, including commercial aircraft parts, tactical missile components, and liners for shaped charges.  Flow forming machines are produced by companies in Germany, Japan, Sweden, Switzerland, the United Kingdom and the United States.

Centrifugal separators

Centrifugal separators utilize the force generated by rotating an object about a central vertical or horizontal axis.  The separator consists of a cylinder, a tangential inlet near the top, and an outlet for large suspended solids at the bottom.  The incoming agent-laden growth media is imparted with a rotating motion on entrance to the cylinder.  The vortex, so formed, develops a force that throws the heavier suspended solid radially toward the wall.  The force in a separator can approach 600 times the force of gravity, forcing separation of particles one micron or greater in diameter.

In a typical biological agent production process, an organism is grown in a fermenter in a type of media favorable to the organism’s growth.  The agent is then separated from the growth media or from other grown cells using a centrifugal separator.  Centrifugal separators are available from companies in Australia, Austria, Belgium, Denmark, France, Germany, Netherlands, Sweden, Switzerland, the United Kingdom and the United States.

Detonators and Multipoint Initiation Systems

These systems are needed to provide the precise explosive timing required to generate the implosion needed to start the nuclear chain reaction in implosive-type nuclear explosive devices.  They can also be used in military ordnance, including missile systems and directed detonation warheads.

These detonators utilize a small electrical conductor (bridge, bridge wire, or foil) that explosively vaporizes when a fast, high‑current electrical pulse is passed through it.  The exploding conductor then starts a chemical detonation in a contacting high-explosive material such as PETN (pentaerythritol tetranitrate).  In slapper detonators, the explosive vaporization of the electrical conductor drives a “flyer” or “slapper” across a gap, and the impact of the slapper on an explosive starts a chemical detonation.  Detonators are manufactured by companies in France and the United States.

Can Terrorists Get the Bomb?

Commentary Magazine
February 2002, pp. 45-49.

The story began over a meal in late October. A high British official told a reporter from the London Times that Osama bin Laden had the bomb, or at least that he had gotten bomb components, or nuclear materials, and that the source was Pakistan. At about the same time, Pakistan arrested three of its nuclear scientists for questioning about possible ties to the Taliban, bin Laden’s Afghan protectors. Then, in early November, bin Laden himself declared that he had nuclear weapons, which he would use as a “deterrent.”

Could it be true? Countries do not arrest their nuclear scientists for nothing. By mid-November, Graham Allison, a professor at Harvard and an assistant secretary of defense in the Clinton administration, was predicting in the Washington Post that “bin Laden’s final act could be a nuclear attack on America.” A few weeks later, the Post‘s Bob Woodward reported that al Qaeda might be making a “dirty” bomb-a radiological device to spread contamination over a wide area. According to Woodward, this could be done by wrapping spent reactor fuel rods around high explosives, which would produce a “zone of intense radiation that could extend several city blocks.” A larger bomb, he said, “could affect a much larger area.”

In Afghanistan itself, American forces have examined dozens of sites where al Qaeda may have worked on nuclear or radiological weapons. Secretary of Defense Donald Rumsfeld cautioned that while it was “unlikely that they have a nuclear weapon,” considering “the determination they have, they may very well.”

Despite the reports, and despite the attendant warnings, the risk that a terrorist group like al Qaeda could get the bomb (or a “dirty” substitute) is much lower than most people think. That is the good news. There is also bad news: the risk is not zero.

There are essentially two ways for a terrorist group to lay its hands on a nuclear weapon: either build one from scratch or somehow procure an already manufactured one or its key components. Neither of these is likely.

Building a bomb from scratch would confer the most power: a group that could build one bomb could build several, and a nuclear arsenal would put it front and center on the world stage. But of all the possibilities, this is the unlikeliest-“so remote,” in the words of a senior nuclear scientist at the Los Alamos National Laboratory, “that it can be essentially ruled out.” The chief obstacle lies in producing the nuclear fuel-either bomb-grade uranium or plutonium-that actually explodes in a chain reaction. More than 80 percent of the effort that went into making America’s first bombs was devoted to producing this fuel, and it is no easy task.

To make bomb-grade uranium, a terrorist group would need thousands of high-speed gas centrifuges, machined to exact dimensions, arranged in series, and capable of operating under the most demanding conditions. If they wanted to produce the uranium by a diffusion process, they would need an even greater number of other machines, equally difficult to manufacture and operate. If they followed Saddam Hussein’s example, they could try building a series of giant electromagnets, capable of bending a stream of electrically charged particles-a no less daunting challenge. For any of these, they would also need a steady supply of natural uranium and a specialized plant to convert it to a gaseous form for processing.

Who would sell these things to would-be nuclear terrorists? The answer is: nobody. The world’s nuclear-equipment makers are organized into a cooperative group that exists precisely to stop items like these from getting into unauthorized hands. Nor could a buyer disguise the destination and send materials through obliging places like Dubai (as Iran does with its hot cargoes) or Malta (favored by Libya’s smugglers). The equipment is so specialized, and the suppliers so few, that a forest of red flags would go up. And even if the equipment could be bought, it would have to be operated in a place that the United States could not find.

If manufacturing bomb-grade uranium is out of the picture, what about making plutonium, a much smaller quantity of which is required to form a critical mass (less than fourteen pounds was needed to destroy Nagasaki in 1945)? There is, however, an inconvenient fact about plutonium, which is that you need a reactor to make enough of it for a workable bomb. Could terrorists buy one? The Russians are selling a reactor to Iran, but Moscow tends to put terrorist groups in the same category as Chechens. The Chinese are selling reactors to Pakistan, but Beijing, too, is not fond of terrorists. India and Pakistan can both build reactors on their own, but, for now, these countries are lined up with the U.S. Finally, smuggling a reactor would be no easier than buying one. Reactor parts are unique, so manufacturers would not be fooled by phony purchase orders.

Even if terrorists somehow got hold of a reactor, they would need a special, shielded chemical plant to chop up its radioactive fuel, dissolve it in acid, and then extract the plutonium from the acid. No one would sell them a plutonium extraction plant, either.

It is worth remembering that Saddam Hussein tried the reactor road in the 1970’s. He bought one from France-Jacques Chirac, in his younger days, was a key facilitator of the deal-hoping it would propel Iraq into the nuclear club. But the reactor’s fuel was sabotaged in a French warehouse, the person who was supposed to certify its quality was murdered in a Paris hotel, and when the reactor was finally ready to operate, a squadron of Israeli fighter-bombers blew it apart. A similar fate would undoubtedly await any group that tried to follow Saddam’s method today.

If making nuclear-bomb fuel is a no-go, why not just steal it, or buy it on the black market? Consider plutonium. There are hundreds of reactors in the world, and they crank out tons of the stuff every year. Surely a dedicated band of terrorists could get their hands on some.

This too is not so simple. Plutonium is only created inside reactor fuel rods, and the rods, after being irradiated, become so hot that they melt unless kept under water. They are also radioactive, which is why they have to travel submerged from the reactor to storage ponds, with the water acting as both coolant and radiation shield. And in most power reactors, the rods are welded together into long assemblies that can be lifted only by crane.

True, after the rods cool down they can be stored dry, but their radioactivity is still lethal. To prevent spent fuel rods from killing the people who come near them, they are transported in giant radiation-shielding casks that are not supposed to break open even in head-on collisions. The casks are also guarded. If terrorists managed to hijack one from a country that had reactors they would still have to take it to a plant in another country that could extract the plutonium from the rods. They would be hunted at every step of the way.

Instead of fuel rods, they would be better advised to go after pure plutonium, already removed from the reactor fuel and infinitely easier to handle. This kind of plutonium is a threat only if you ingest or inhale it. Human skin blocks its radiation: a terrorist could walk around with a lump of it in his front trouser pocket and still have children. But where to get hold of it? Russia is the best bet: it has tons of plutonium in weapon-ready form, and the Russian nuclear-accounting system is weak. Russia also has underpaid scientists, and there is unquestionably some truth behind all the stories one hears about the smuggling that goes on in that country.

But very little Russian plutonium has been in circulation, with not a single reported case of anything more than gram quantities showing up on the black market. This makes sense. Pure plutonium is used primarily for making nuclear warheads, it is in military hands, and military forces are not exactly keen to see it come back at them in somebody else’s bombs.

One source of pure plutonium that is not military is a new kind of reactor fuel called “mixed oxide.” It is very different from the present generation of fuel because it contains weapon-ready material. But precisely because it is weapon-ready, it is guarded and accounted for, and a terrorist group would have to win a gun battle to get close to it. Then they would probably need a crane to move it, and would have to elude or fight off their pursuers.

If terrorists did procure some weapon-ready plutonium, would their problems be over? Far from it: plutonium works only in an “implosion”-type bomb, which is about ten times more difficult to build than the simple uranium bomb used at Hiroshima. In such a device, a spherical shock wave “implodes” inward and squeezes a ball of plutonium at the bomb’s center so that it explodes in a chain reaction. To accomplish all this, one needs precision machine tools to build the parts, special furnaces to melt and cast the plutonium in a vacuum (liquid plutonium oxidizes rapidly in air), and high-precision switches and capacitors for the firing circuit. Also required are a qualified designer, a number of other specialists, and a testing program. Considering who the participating scientists are likely to be, the chances of getting an implosion bomb to work are rather small.

The alternative to plutonium is bomb-grade uranium-and here things would be easier. This is the fuel used in the Hiroshima bomb. Unlike the implosion bomb dropped on Nagasaki, this one did not have to be tested: the U.S. knew it would work. The South Africans built six uranium bombs without testing; they knew their bombs would work, too. All these devices used a simple “gun” design in which one slug of uranium was shot down a barrel into another.

The problem with buying bomb-grade uranium is that one would need a great deal of it-around 120 pounds for a gun-type bomb-and nothing near that amount has turned up in the black market. In February 2001 an al Qaeda operative named Jamal Ahmed al-Fadl testified in an American court that he had tried to buy some uranium for $1.5 million in 1993. He had been sent to Khartoum, where he saw a cylinder that supposedly contained uranium from South Africa; he did not know whether the deal went through. South Africa went out of the nuclear-weapon business in 1991, and in 1993 it accounted for all of its bomb-grade uranium to the International Atomic Energy Agency. The deal in Khartoum was probably a scam.

What about getting material from Pakistan? Its centrifuges have been turning out bomb-grade uranium since 1986, and by now there is enough for 30 to 50 nuclear weapons. As is well known, at least some of its nuclear scientists have fundamentalist leanings. Could they spirit out enough for a bomb or two?

The chances are virtually nil. Pakistan’s nuclear weapons are its proudest achievement. Every gram of bomb-grade uranium has been produced at the expense of the country’s suffering population, and every gram is also part of a continuous manufacturing flow. When uranium leaves the centrifuges, it goes to other plants where it is refined and then to still other plants where it is made into bombs. Pakistan produces enough for about three bombs per year, which means that one bomb’s worth is the result of several months’ output. If any uranium went missing, it would be as if the assembly workers for Ford Explorers suddenly stopped receiving engines. Someone down the production line would be bound to ask questions, and very quickly.

There is also the fact that Pakistan’s nuclear program is controlled by the army, still headed by the country’s president, Pervez Musharraf. In response to the September 11 terrorist attack on America, Musharraf created a new military command with direct control over the nuclear-weapons program. In the process, he sidelined officers sympathetic to the Taliban. After all these precautions, Musharraf is unlikely to let any bomb fuel slip through his fingers. The only possibility for terrorists to lay their hands on Pakistan’s uranium would be if its government fell under the control of sympathizers; given that Pakistan’s army is far and away the most effective and stable organization in the country, there is not much chance of that.

Russia, again, is the best bet. It has tons of bomb-grade uranium left over from the cold war and, in addition to bombs, has used this material to fuel nuclear submarines and research reactors. The result has been to spread it across Russia and several other former members of the eastern bloc.

So Russia and its former satellites are a fat target. This past November, citing a database maintained by the International Atomic Energy Agency, the New York Times catalogued a long series of Russian-related smuggling attempts. In 1993, for example, over six pounds of weapon-grade uranium in St. Petersburg was about to go astray before being seized; in 1998, there was a foiled effort to steal more than 40 pounds in the Urals. Russian officials told the Times that they had twice discovered terrorists staking out their nuclear-weapon sites. Finally, there was one loss “of the highest consequence” during the past year, about which details were not forthcoming.

There are thus definite prospects in Russia. If terrorists could strike the mother lode, and get enough uranium for a gun-type bomb, they would be on their way.

But the way would still be long. They would have to design the bomb, develop it, and build it, and that would be far from a trivial undertaking. They would have to have a competent bomb designer, who could be a physicist or engineer but would have to come with practical experience in making such things work. High-accuracy machine tools could be dispensed with-implosion not being required, much simpler technologies could be used for firing projectiles down artillery tubes-although someone would have to handle the uranium-235, refine it to metallic form, cast it, and then machine it. Still, with the help of a capable machinist and a chemical laboratory, none of these obstacles is insurmountable.

The main risk would lie in getting caught. True, a uranium bomb would not produce many of the “signatures” that American intelligence agencies look for-the use of a lot of electricity (a sign of a uranium enrichment plant), the presence of contaminated air or water (a sign of a reactor or plutonium extraction plant), a noisy testing program-but a fair number of people would have to be recruited, and one of them could turn the others in. Purchase of equipment might arouse the suspicions of a seller. Above all, what would be needed is a sanctuary-a place in which to assemble the people and the equipment, and keep them together for a period of time. You cannot transport such an operation from cave to cave.

Finding this location would not be easy. A country that was aware of the terrorists’ program could end up getting blamed for a nuclear attack on America, and not too many governments would be ready to sign up for that. Better from the terrorists’ viewpoint would be a location where the authorities had no idea what they were doing, but even so the theft of the uranium would probably be discovered soon enough, and it might be only a short matter of time before the whole world showed up on their doorstep. Besides, if they only managed to steal enough for one bomb, they would still lack an arsenal-and a single mistake in design could wreck the whole project.

Is there no way around these manufacturing problems? There is: stealing, or buying, a complete bomb. But this presents problems of its own, which are even greater.

All countries, including Russia and Pakistan, take care to safeguard their warheads, and even rogue states, if they should get the bomb, would be highly likely to do the same. Despite press speculation to the contrary, countries maintain careful inventories and employ security measures specifically designed to prevent theft. Warheads are typically stored in bunkers to which access is tightly restricted. They are also protected by alarms and armed guards. Terrorists would have a hard fight on their hands taking over one of these bunkers, and even if they succeeded, they would have a much harder fight getting away with the contents.

Buying is not a great option, either. Since the 1970’s, the Libyan dictator Muammar Qaddafi has tried to buy nuclear weapons from China, India, and Pakistan, reportedly offering billions of dollars. So far, there have been no takers. In 1996, General Alexander Lebed, then vying for the presidency of Russia, claimed that a number of “suitcase” bombs- meant to be carried by foot soldiers on demolition missions-had gone missing, but his claim was promptly denied by both the Russian and U.S. governments and has never gained much credibility. In November 2001, President Vladimir Putin said he could certify that no Russian warheads had fallen into terrorist hands.

What options remain? Stymied in their plan to acquire a real nuclear weapon, could a determined group of terrorists at least confirm Bob Woodward’s fears by manufacturing a “dirty” bomb? Such a device would be much easier to build than a warhead. Instead of producing a nuclear explosion, it would only have to disperse radioactive particles.

This is a likelier bet. But there is a different problem with these devices: they do not pack much radioactive punch. A bomb that carried enough radiation to injure many people quickly would be too hot to handle. The shielding would have to be many times heavier than the radioactive element-so massive, in fact, that there would be no practical way to transport or deploy the weapon. That is why the Pentagon does not consider such devices useful on the battlefield.

Nor is it easy to bring a sufficient amount of radioactivity into contact with a bomb’s human targets. Lacing a high-explosive charge with nuclear waste from a hospital or laboratory, for example, would kill some people immediately from the explosion, but the only radiological effect would be an increased risk of cancer decades later. Once the area around the blast was decontaminated, it would be safer to walk through it than to be a serious smoker.

To inflict a dangerous dose over a broad area requires spewing around large amounts of nuclear waste. The only place to get such waste would be from a reactor, and the problems with that scenario have already been demonstrated. Even if a group of terrorists could somehow procure radioactive fuel rods or any other form of highly radioactive waste, wrapping the rods around “readily available conventional high explosives,” as Woodward suggested in the Post, would kill the person doing the wrapping. So would transporting such a weapon to its destination, unless the rods were heavily shielded during the entire operation (which would bring us back to the implausible scenario with the giant protective casks). The fact is that it would be a near impossibility to create, in Woodward’s words, a “zone of intense radiation that could extend several city blocks.”

A research reactor would be a better source. Many countries use such small reactors to irradiate material samples, and it might be possible to insert some material into one of these reactors secretly, irradiate it, and then withdraw it and put it in a bomb. The difficulty would then lie in making the bomb effective. Highly radioactive materials have short half-lives; thus, any bomb would have to be used right away, and one would not be able to build up a stockpile. If enough radioactivity were packed into the bomb to injure a substantial number of victims, the too-hot-to-handle problem would arise. If the radioactive charge were diluted, the bomb would lose its effect. Saddam Hussein actually made and tested such a bomb in the 1980’s, but when UN inspectors toured the test site in the 1990’s they could find no trace of radiation from it.

What about putting plutonium into a city’s drinking water, or into the air? That, too, is a possibility-but according to a 1995 study by the Lawrence Livermore National Laboratory, plutonium dumped into a typical city reservoir would almost entirely sink to the bottom. The little that dissolved would be greatly diluted by the volume of the water, and the people drinking it would get a smaller dose than from natural background radiation. As for plutonium in the air, if an entire kilogram of the stuff were exploded in a city the size of Munich, Germany, and if 20 percent of it became airborne in respirable particles-as with anthrax, the particles would have to be the right size to lodge in the lungs-the effect (according to the same study) would be to produce fewer than ten deaths from cancer.

The main effect of any of these attacks would be panic: people would flee the contaminated zone. This might create a huge economic impact-which would be a victory for the terrorists-and it would be almost certain to create an even huger psychological impact. On the other hand, and unlike anthrax, radiation is something that scientists know how to detect, and at levels far below those that are dangerous. Even the panic might fade quickly as people were reassured that the environment was safe. In any case, there is no chance of achieving anything remotely like the effect of a real nuclear weapon, however small.

In sum, the job of making or procuring a nuclear bomb is a great deal harder than we have been led to believe. From a terrorist’s point of view, what is clear above all is that, whether the aim is to build a dirty bomb or a clean one, a sanctuary is needed. The task requires laboratories, equipment, and trained personnel, all of which have to be maintained over a longish period of time.

This in turn underlines the cardinal importance of remaining faithful to our determination to pursue terrorists everywhere, and never leave them in peace. Allowing any group of terrorists to set up shop anywhere puts everyone at risk.

The terrorists’ only hope is that we tire of the chase. Then, if they could obtain the bomb, they could deliver it, and anywhere on the globe could become ground zero.

Gary Milhollin directs the Wisconsin Project on Nuclear Arms Control in Washington, D.C. His article, “Shopping with Saddam Hussein” (co-authored with Kelly Motz), appeared in our July-August 2001 issue.

Testimony: China’s Efforts to Obtain Sensitive US Technology

Testimony of Gary Milhollin


Professor Emeritus, University of Wisconsin Law School and
Director, Wisconsin Project on Nuclear Arms Control

Before the U.S.-China Security Review Commission

January 17, 2002

I am pleased to appear today before the U.S.-China Security Review Commission. The Commission has asked me to comment on China’s efforts to obtain sensitive technology from the United States, and on the effectiveness of export controls to protect U.S. national security.

I would like to begin with a few remarks about China’s current and projected strategic posture. In a report released earlier this month, the CIA observed that China has a long-running modernization program to develop mobile, solid-propellant ICBMs and that the intelligence community projects that by 2015, most of China’s strategic missile force will be mobile. The CIA also pointed out that China has had the ability to develop and deploy a multiple reentry vehicle system for many years, including a MIRV system. The CIA assessed that China could develop a multiple reentry vehicle system for its CSS-4 ICBM in a few years, although its pursuit of a multiple RV capability for its mobile ICBMs and SLBMs would encounter significant technical hurdles and would be very costly.

The intelligence community projects that the overall size of China’s strategic ballistic missile forces, over the next 15 years, will range from about 75 to 100 warheads deployed primarily against the United States. U.S. intelligence predicts that China will have about two dozen shorter range DF-31 and CSS-3 ICBMs that could reach parts of the United States, and an SRBM force of several hundred missiles by 2005.

Imports of high technology from the United States, such as high-performance computers, will undoubtedly help China reach these strategic goals.

I would like to direct the Commission’s attention to a report on sensitive – that is, strategically important – U.S. exports to China that my organization published in April 1999. The report covered the period from 1988 to 1998. The report found that the U.S. Commerce Department approved more than $15 billion worth of strategically sensitive U.S. exports to the People’s Republic of China. The exports included equipment that can be used to design nuclear weapons, machine nuclear weapon components, improve missile designs and build missile components.

Some of this “dual-use” equipment went directly to China’s leading nuclear, missile and military sites – the main vertebrae in China’s strategic backbone. And several of these Chinese buyers later supplied nuclear, missile and military equipment to Iran and Pakistan. It seems clear that China received American exports of great military and strategic value with the blessing of the U.S. government. Consider the following:

  • The China National Nuclear Corporation was allowed to buy equipment useful for uranium prospecting. China National Nuclear then helped Iran prospect for uranium that U.S. intelligence believes will be used to make nuclear weapons.
  • The China Precision Machinery Import-Export Corporation was allowed to buy equipment useful for building China’s new C-801 and C-802 anti-ship cruise missiles. China Precision then exported the missiles to Iran where, according to the U.S. naval commander in the Persian Gulf, they threaten U.S. ships and personnel.
  • The Chinese Academy of Sciences was allowed to receive equipment to process data from a nuclear fusion research reactor. The Academy then exported the reactor to Iran, where it is used for training scientists believed to be working on nuclear weapons.

American equipment was also approved for the National University of Defense Technology, which helps the People’s Liberation Army design advanced weapons, for the University of Electronic Science and Technology, which helps develop stealth aircraft and advanced military radar, for the Beijing University of Aeronautics and Astronautics, which helps develop missiles and specializes in guidance, navigation, and flight dynamics. The licensing records do not reveal whether all the items approved were actually shipped, but it is safe to assume that virtually all of them were, otherwise it would not have been appropriate to apply for a license.

In preparation for this hearing, our staff has prepared a short table that brings the report up to date. The table contains data on U.S. exports approved for China for fiscal years 1998 and 1999. The exports during these two years followed essentially the same pattern that we observed during the previous decade. The table is attached to my testimony as Appendix A.

I would also like to direct the Commission’s attention to an export licensing case that has arisen since our report was prepared. The case shows that the Commerce Department has continued to favor exports to China that are highly likely to undermine U.S. national security.

I am sure the members of the Commission remember the indictment of CATIC, the China National Aero-technology Import-Export Corporation. CATIC was in indicted in 1999 for diverting American machine tools to a Chinese cruise missile and military aircraft plant. The powerful machines had produced parts for the B-1 strategic bomber and the MX nuclear missile, and CATIC was charged with lying to get the machines out of the United States in 1995 by promising to restrict them to civilian use.

Within two months or less of the indictment, however, the Commerce Department sought to allow one of CATIC’s sister companies to buy the same kind of American machine tool that CATIC was accused of diverting. The export was a five-axis milling machine similar to the machines listed in CATIC’s indictment. It was fully capable of making high-precision parts for China’s next generation of fighters, bombers and missiles.

A company in Milford, Massachusetts called Bostomatic requested permission to sell the machine to China’s Xian Aero-engine Company, which makes engines for China’s military aircraft, including the nuclear-capable H-6 strategic bomber. Xian Aero-engine promised to use the milling machine only to make civilian aircraft, but that is what CATIC promised. Xian, like CATIC, is owned by Aviation Industries of China. Since both companies belong to the same organization, no one should have been fooled.

To make matters worse, Bostomatic was purchased in 1999 by the Agie Charmilles Group, a Swiss concern. According to U.N. inspectors, eleven of Agie’s machine tools were found at five of Saddam Hussein’s leading nuclear weapon and missiles sites in 1992. And in January 1999, General Alexander Zdanovich, a spokesman for Russia’s foreign intelligence services, said that Agie had supplied Iran with equipment for making liquid fueled ballistic missiles.

The fact that the Commerce Department advocated the approval of this export shows that the Department was willing to promote trade no matter what the cost to U.S. national security. Fortunately, adverse publicity, together with opposition from other federal agencies, prevented the export from going forward.

Another subject I would like to discuss today is the export of supercomputers. Although he recently called for strengthening export controls, President George W. Bush announced on January 2 a further relaxation in controls on the export of American supercomputers. It will soon be possible for military entities in China to buy American computers performing 190 billion operations per second (190,000 MTOPS, or million theoretical operations per second), which is more than double the previous threshold of 85,000 MTOPS set by President Clinton on his last day in office.

The main argument for the recent relaxations is that higher computer speeds can be achieved by wiring together a number of slower computers. But this argument proves too much. It is obvious that if a number of computers, each operating at 190 billion operations per second, are grouped together, the resulting speed will be much higher than the speed achieved by combining a similar number of computers operating at 85 billion operations per second. We are rapidly reaching the point where no meaningful controls will be left on high-speed computers. The result is that America will have given up its advantage over other countries in a vital strategic technology.

Today, he who computes fastest wins wars. The United States has always used its most powerful computers for encryption and for designing nuclear warheads. In modern warfare, computers are used for surveillance, communications, targeting, and the precision-guiding of munitions. President Bush’s relaxation of controls ignored a December 2000 warning by the U.S. General Accounting Office to the Clinton administration cautioning that the decision had failed to assess “the national security impact on the United States of Russia, China or other countries obtaining high-performing computing.”

The Commission has also asked me to describe the technologies that the United States can still control. At a minimum, these are the technologies that we and our allies control under the various international export control regimes. Unfortunately, many of these technologies could be decontrolled if Congress passes S. 149, the pending bill to reauthorize the Export Administration Act.

One of the most alarming things about the bill is that it would decontrol a series of items that are used to make nuclear weapons and long-range missiles. It would do so by giving the items what the bill calls “mass market status.” The items include such things as electronic devices used to trigger nuclear weapons and materials used to build missiles and produce nuclear weapon fuel.

1. Nuclear weapon triggers

For at least twenty years, the United States has controlled for export the high-precision electronic switches needed to detonate nuclear weapons. These are key components in a nuclear weapon’s firing circuit and are popularly known as nuclear weapon “triggers.” In 1998, Iraq tried to provide itself with a supply of these switches under the guise of medical equipment. Iraq is allowed to import medical equipment despite the U.N. embargo, so Iraq bought a half dozen machines – called “lithotripters” – to rid its citizens of kidney stones. The lithotripter pulverizes kidney stones inside the body – without surgery. But each machine must be triggered by the same high-precision switch that triggers a nuclear weapon. Iraq tried to buy 120 extra switches as “spare parts.”

Iraq ordered the machines and switches from Siemens, in Germany, which sold the machines but passed the “spare parts” order to Thomson in France. The French government appears to have barred the sale. Siemens says that Iraq did get one switch with each machine and two more as spares, but to get any additional switches, Iraq will have to turn in a used switch for each new one and will have to allow the United Nations to inspect the use of the machines. The switches were controlled for export because they are on the control list of the Nuclear Suppliers Group, an international regime to which France, Germany and the United States belong.

These switches, however, would have “mass market status” under the bill and would be decontrolled for export by the United States. The switches meet all the criteria listed for such status and the bill says that the Secretary of Commerce shall remove them from the control list if they meet the criteria. They meet the criteria as follows:

  • They are “available for sale in a large volume to multiple purchasers,” because they are used in radar, lasers and rockets as well as lithotripter machines and are advertised on the Internet by manufacturers in a number of different countries;
  • They are “widely distributed through normal commercial channels,” because they are sold by the thousands each year, including the hundreds sent to hospitals to keep lithotripter machines running;
  • They are “conducive to shipment and delivery by generally accepted commercial means of transport,” because they are small and easy to handle;
    • They “may be used for their normal intended purpose without substantial and specialized service provided by the manufacturer,” because they need only to be connected into an electrical circuit by attaching the appropriate wires.

 

Any bill that decontrols nuclear weapon triggers must be seen as seriously flawed.

Despite the fact that these items are available in volume inside the countries that produce them, they are not easily available to countries that are trying to make nuclear weapons. The reason is export controls. If the United States were suddenly to decontrol them, it would dismay our allies and destroy our credibility on nuclear nonproliferation.

2. Glass and carbon fibers

Glass and carbon fibers are used widely in ballistic and cruise missiles. They go into solid rocket motor cases, interstages, wings, inlets, nozzles, heat shields, nosetips, structural members, and frames. Composites reinforced by carbon or glass fibers also form the high speed rotors of gas centrifuges used to enrich uranium for nuclear weapons.

In addition to these military applications, however, they are used in skis, tennis racquets, boats and golf clubs and are produced in a number of countries. This availability would give the fibers “mass market status” under the bill, despite the fact that they have been controlled for export since January 1981.

  • They are “available for sale in a large volume to multiple purchasers,” because they are advertised on the Internet and can be ordered in large quantities by anyone;
  • They are “widely distributed through normal commercial channels,” because they are shipped in large quantities to manufacturers of sporting goods;
    • They are “conducive to shipment and delivery by generally accepted commercial means of transport,” because they do not require special handling except for refrigeration in some cases;

 

  • They “may be used for their normal intended purpose without substantial and specialized service provided by the manufacturer,” because they can be incorporated in manufacturing processes in the form received.

In 1988, a California rocket scientist was arrested in Baltimore as he tried to illegally load 420 pounds of carbon fibers on a military transport plane bound for Cairo. The material was intended for the ballistic missile that Egypt was developing with Argentina and Iraq. The scientist was sentenced in June 1989 to 46 months in prison. It would be a big surprise to the world if the United States now decontrolled this material.

3. Maraging steel

Maraging steel is a high-strength steel used to make solid rocket motor cases, propellant tanks, and interstages for missiles. Like carbon fibers, it is used to make centrifuge rotors for enriching uranium for nuclear weapons. In 1986, a Pakistani-born Canadian businessman tried to smuggle 25 tons of this steel out of the United States to Pakistan’s nuclear weapon program. He was sentenced to prison as a result. Maraging steel has been controlled for export since January 1981.

This steel is produced by companies in France, Japan, Russia, Sweden, the United Kingdom and the United States and it meets all the criteria for “mass market status.” Several steel companies list maraging steel on the Internet and can produce maraging steel in multi-ton quantities. Over the telephone, two American companies and one British company explained to my staff how to order 25 ton quantities with delivery in less than a month. Maraging steel is bundled and shipped much like stainless steel, which it closely resembles.

4. Corrosion resistant valves

These special valves are essential components in plants that enrich uranium to nuclear weapon grade. Both Iraq and Iran are hoping to build such plants, and will need these valves in great numbers. The valves resist the corrosive gas used in the enrichment process.

These same valves are also used in the chemical, petrochemical, oil and gas, fossil power, pulp and paper, and cryogenic industries. Their size can range from very large gate valves down to tiny globe valves used in instrument and control lines. They are manufactured by companies in Australia, Japan, Russia, the United Kingdom and the United States. Smaller corrosion resistant valves have been controlled for export since October 1994, and larger valves have been controlled since October 1981.

These valves fit all of the criteria for “mass market status.” They are advertised on the Internet and are widely available to American buyers. A quick survey by my organization revealed that dozens of companies sell them in the hundreds per year. They would therefore be decontrolled by the new legislation.

I bring this point up in order to let the Commission know that if S. 149 is enacted, China will be able to import more sensitive American technology than it has in the past.

The United States can also control sensitive exports to specific buyers – to the Chinese firms known to be linked to nuclear weapon and missile development. I pointed this fact out in my testimony to the Commission in October. As I said then, the United States publishes a list of such firms in the Federal Register. This is essentially a warning list. Before selling any such company a product that could contribute to the spread of weapons of mass destruction, an exporter is required to obtain an export license. This allows our government to turn down dangerous sales without impeding innocent ones, and enables American industry to keep its competitive edge without arming the world. There will always be the buyer who smuggles, or uses a front company, but without an export license that buyer will find it harder to get the parts and service needed to keep a high-tech enterprise going.

The United States has not published a comprehensive, worldwide list of such buyers. The U.S. warning list for China contains only nineteen names. I would like to reiterate today the fact that scores, if not hundreds of firms in China are active in nuclear, missile and military production. It is silly to pretend we don’t know they exist.

As a first step in building a list, I have attached to my testimony as Appendix B the same list of 50 firms that I attached in October. These firms are well-known parts of China’s nuclear, missile and military complex. They have been selected on the basis of reliable, unclassified information. I recommend once again that the Commission submit these names to the Department of State, and ask for an opinion on whether the names should be included on the published U.S. export warning list. If the State Department judges that these firms should be included, then the Commission should ask the Commerce Department to add the names to the “entity” list in Part 744 of the Export Administration Regulations. American firms should not unwittingly make sales that undermine American security.

 

Appendix A to Testimony of Gary Milhollin before the
U.S.-China Security Review Commission,
January 17, 2002

Computers (4A001-003)

FY 1998FY 1999
242 approved620 approved
$110,248,696$317,897,237

Dimensional inspection equipment (2B006)

FY 1998FY 1999
4 approvedNone
$181,000

Fibrous and filamentary materials (1C010, 1C210)

FY 1998FY 1999
2 approved8 approved
$163,845,500$1,966,600

High-speed cameras (6A003, 6A203)

FY 1998FY 1999
30 approved18 approved
$1,101,956$566,497

Isostatic presses (2B004, 2B104, 2B204)

FY 1998FY 1999
1 approved1 approved
$51,000$223,000

Mass spectrometers (3A233)

FY 1998FY 1999
2 approved1 approved
$518,000$110,750

Neutron generators (3A231)

FY 1998FY 1999
1 approved1 approved
$306,000$500,000

Numerical control equipment (2B001, 2B290)

FY 1998FY 1999
4 approved4 approved
$1,883,830$1,700,341

Oscilloscopes (3A292)

FY 1998FY 1999
None1 approved
$140,000

Pressure transducers (2B230)

FY 1998FY 1999
13 approved18 approved
$620,982$188,842

Equipment to manufacture and test semiconductors (3B001, 3B002)

FY 1998FY 1999
9 approved1 approved
$456,012,990$6,279,000

Vacuum induction furnaces (2B226)

FY 1998FY 1999
3 approved1 approved
$609,000$12,024,000

Vibration test systems (2B116)

FY 1998FY 1999
1 approvedNone
$227,020

 

Appendix B to Testimony of Gary Milhollin before the
U.S.-China Security Review Commission,
January 17, 2002

22nd Construction and Installation Corporation (Yichang)

23rd Construction Corporation (Beijing)

Aviation Industries of China I and II (AVIC) (Beijing)

Beijing Institute of Aerodynamics (BIA) (Beijing)

Beijing Institute of Electromechanical Engineering (Beijing)

Beijing Institute of Electronic Systems Engineering (Beijing)

Beijing Institute of Nuclear Engineering (BINE) (Beijing)

Beijing Institute of Space System Engineering (Beijing)

Beijing Institute of Technology (BIT) (Beijing)

Beijing Research Institute of Uranium Geology (BRIUG) (Beijing)

Beijing Wan Yuan Industry Corporation (BWYIC) (also known as the China Academy of Launch Vehicle Technology [CALT]) (Beijing)

Chengdu Aircraft Industrial Corporation (CAIC) (Chengdu)

China Aerospace International Holdings Ltd. (CASIL) (Hong Kong)

China Aerospace Machinery and Electronics Corporation (CAMEC) (Beijing)

China Aerospace Science and Technology Corporation (CASC) (Beijing)

China Chang Feng Mechanics and Electronics Technology Academy (Beijing)

China Great Wall Industries Corporation (CGWIC) (Beijing)

China Haiying Electro-Mechanical Technology Academy (Beijing)

China Hexi Chemistry and Machinery Company (Beijing)

China Nanchang Aircraft Manufacturing Company (Nanchang)

China National Aero-Technology Import-Export Corporation (CATIC) (Beijing)

China National Aero-Technology International Supply Corporation (CATIC Supply) (Nanchang)

China National Nuclear Corporation (CNNC) (Beijing)

China North Chemical Industries Corporation (NOCINCO) (Beijing)

China North Industries Corporation (NORINCO) (Beijing)

China North Opto-electro Industries Corporation (OEC) (Beijing)

China Nuclear Energy Industry Corporation (CNEIC) (Beijing)

China Precision Machinery Import-Export Corporation (CPMIEC) (Beijing)

China Sanjiang Space Group (Wuhan)

Chinese Academy of Sciences (CAS) (Beijing)

Commission on Science, Technology and Industry for National Defense (COSTIND)

East China Research Institute of Electronic Engineering (ECRIEE) (Hefei)

Harbin Engineering University (Harbin)

Harbin Institute of Technology (HIT) (Harbin)

Hua Xing Construction Company (HXCC) (Yizheng)

Hubei Red Star Chemical Institute (also known as Research Institute 42) (Xiangfan)

Luoyang Electro-optical Technology Development Center (LEODC) (Luoyang)

Nanjing University of Science and Technology (Nanjing)

National University of Defense Technology (NUDT) (Changsha)

Nuclear Power Institute of China (NPIC) (Chengdu)

Research Institute 31 (Beijing)

Shaanxi Institute of Power Machinery (also known as Research Institute 41) (Shaanxi)

Shanghai Institute of Electromechanical Engineering (Shanghai)

Shanghai Power Equipment Research Institute (SPERI) (Shanghai)

Shanghai Xinfeng Chemical Engineering Research Institute (Shanghai)

Shanghai Xinli Research Institute of Power Equipment (Shanghai)

Shanxi Xingan Chemical Material Plant (Taiyuan)

Shenyang Aircraft Corporation (SAC) (Shenyang)

Shenyang Aircraft Research Institute (SARI) (Shenyang)

Xidian University (also known as the Xian University of Electronic Science and Technology) (Xian)

The Proliferation Threat

Presentation at the University of Chicago Program on International Security

I. Introduction

A. I am honored to appear before such a well-informed audience at such a distinguished program. My big challenge will be to tell you something you don’t already know.

B. My organization:

The Wisconsin Project is an advocacy organization that has existed for 15 years with a major emphasis on export control. We have tried in particular to shame exporters out of helping countries build the bomb.

C. IraqWatch.Org:

This is the name of our comprehensive web site on Iraq’s drive to make weapons of mass destruction and the world’s efforts to stop it. I invite you to visit it.

D. The Risk Report:

We publish a database that lists about 2,500 companies around the world that are linked to mass destruction weapon programs. It is now being used by many countries for export control. Under a joint program with the Pentagon, we are now supplying it to the former East Bloc. (I have been to Lithuania, Latvia, Estonia, Slovenia, Bulgaria, Romania, Moldova, Georgia and Azerbaijan over the past couple of years.)

E. The Wisconsin Project also writes articles (usually op-eds) revealing pending export deals that should not be approved – and we have stopped a fair number of them by this means.

 

II. September 11, 2001: What it means for non-proliferation (lessons)

A. The world is smaller – we have learned that people can get things here that do us harm. If you can organize a 19-person group to fly airliners into buildings, you can organize a group capable of smuggling in a nuclear weapon. You can:

– Bring a bomb in in parts and assemble it in a building; drive it over the border in a van; sail it into a harbor in a ship; fly it into a city in a crate with an altimeter.

– The attack may be anonymous – the investigation may start with a hole in the ground instead of a list of passengers on a plane.

B. Borders, police, customs officers and national governments are a lot more important than we thought. They are the only things that really protect us. They are world’s front-line troops.

– Who goes into and out of a country can make a big difference.

– So can what goes in and out.

– Our safety depends on having good people at Customs, the FBI, the CIA, the State Department and the Pentagon. We have to start recognizing that public service is a vital and honorable calling, and stop making speeches about how we have to get the government off our backs. Our safety depends on government workers doing their jobs.

(I say that with full realization that I am at the University of Chicago).

 

III. The Threat: Who’s Doing What, and Who is Helping?

Iraq and Iran are in an undeclared race to get weapons of mass destruction; India and Pakistan are in a military face-off with nuclear arms pointed at each other; all this has been, and is being, fueled by imports.

A. Iraq

– It has never disarmed. UN inspectors believe Iraq retains capabilities in the nuclear, chemical, biological and missile fields.

– Iraq’s procurement efforts have gone on in the 1990s despite the UN embargo. (Our article in Commentary describes deals in Belarus, Ukraine, Russia and Romania.)

– The purchases are made through Jordan, by Jordanian middlemen. Jordanian companies are falsely listed as the destination.

– These efforts will increase in the future:

– Iraq’s oil income from smuggling is rising. It could now be as high as $3 billion a year, and this is free for arms – and most of it probably goes for arms.

– The UN oil-for-food program is being relaxed, so Iraq will be able to import more dual-use items by masking them as civilian goods. UN review of what Iraq buys will diminish.

– Iraq will be looking for missile items, in particular.

 

Attacking Iraq?

– Iraq has weaponized anthrax (put it into missile warheads and aerial bombs).

– Iraq has weaponized botulinum toxin (put it into missile warheads and aerial bombs).

– Iraq has weaponized VX and sarin nerve gas.

– We have to assume that Iraq would be able to deliver chemical and biological agents on the battlefield in rockets, artillery shells and mortar rounds. Also possibly in scud-type missile warheads.

– We also have to assume that Iraq might attempt to deliver some of these agents here in the United States by smuggling them in.

– We could try to deter such behavior by threatening retaliation, but if our goal were to remove Saddam, this might not work. He would not have much to lose.

– Removing Saddam would be good, but we need a mechanism for doing so. Maybe one will come along. It hasn’t yet.

 

The future in Iraq?

– More oil smuggling, and more imports of WMD-related items.

– Reconstitution of the WMD programs.

– Big restraint is the arms embargo and UN control over Iraq’s oil income.

– It is essential to keep them in place.

 

B. Iran

– Iran is in a tough neighborhood. A nuclear-armed Pakistan on one side; an Iraq that is trying to get the bomb on the other; a nuclear-armed Israel nearby. US officials openly declare that Iran is trying to get the bomb. Procurements:

– a centrifuge plant from Russia.
– large research reactors from Russia and China.
– graphite and heavy water technology from Russia.
– laser enrichment technology from Russia.
– program for making long-range missiles that could serve as nuclear delivery vehicles.

– Iran procures mainly through the UAE (Dubai).

– Iran also has an active program to build chemical and biological weapons. China has been supplying Iran’s chemical program.

– Bushehr is a giant $800 million hook in Russia’s jaw:

– Iran is demanding help with the bomb as part of the deal – and getting it, albeit slowly.

– This is a typical pattern, in which dangerous “sweeteners” are added to promote the sale of a big-ticket item such as a reactor. The buyer demands the sweeteners before laying out the large amount of cash.

– Our organization recently prepared an update of Iran’s nuclear efforts for our Risk Report database. I am pleased to distribute a copy.

 

C. India-Pakistan

It has been a long road, but both sides wanted to get where they are. This situation is the natural result of policies both countries have followed for many years.

– India started trying to get the bomb in the late 50s or early 60s – policy was to reverse-engineer Western technology and escape international controls over plutonium.

– India reverse-engineered Canadian power reactor designs and diverted plutonium from a Canadian-American research reactor to military use.

– India also smuggled in hundreds of tons of heavy water.

– The goal was to prove that India had the ability to make the bomb and to be at the table with the big boys – the bomb was a ticket to great power status.

– India never needed the bomb to guarantee its own security.

 

– Pakistan was obliged to match India – for Pakistan’s own security.

– Pakistan couldn’t allow India to be superior in both conventional and nuclear arms.

– So Pakistan got China to help it build the bomb and some missiles to go with it.

 

The result is what we see today. The border conflict, which was sure to produce a military confrontation sooner or later, has produced one that includes nuclear arms.

– India may think its nuclear weapons cancel out Pakistan’s.

– Thus India is free to use its conventional forces.

– But, if Pakistan is pushed to the wall, Pakistan may decide to use nuclear weapons, which could deliver devastating blows to India’s cities.

– Or, Pakistan could decide to use its nuclear arms tactically, to annul India’s conventional advantage.

– In any event, both countries would be stepping off into the unknown.

 

The risk for India is the loss of its high-tech industry and to be seen as a bad place to invest money. India could be set back a generation or two by a nuclear war with Pakistan.

– Result would be to prevent India from being seen as a significant actor on the world scene (the opposite of what India intends its nuclear weapons to achieve).

– If Pakistan delivers only 20 warheads, and each kills only 100,000, that is 2 million dead, plus many more injured. This would be a crushing burden for a developing country like India to shoulder.

 

IV. What is likely to be next?

A. The overall balance between trade and security, and between freedom of movement and security, must shift.

– It must go back in the direction of security.

– We need to realize that there is no defense against nuclear weapons. A missile shield won’t do it.

– The lesson from the recent attack is that a nuclear explosion is likely to be anonymous, so as to avoid retaliation.

– The best defense is to prevent the spread of nuclear weapons to additional countries, from which such weapons could make their way into the hands of terrorists.

B. We are going to need much better intelligence information and law enforcement.

– We need to find the terrorists before they find us.

– We can’t afford to have cells operating in the United States for years without detection.

C. We also need to figure out how to change foreign governments – if need be – to prevent them from getting the bomb.

– We now accept the fact that Iraq is probably building chemical and biological weapons. If we had solid evidence that Iraq was building nuclear weapons, would we accept that fact too? If not, how many military casualties would we be willing to take to eliminate the danger?

D. A nuclear-armed Iran or Iraq is plainly unacceptable for US security. But the question is: what are we prepared to do to prevent it? That, in my opinion, is one of the biggest questions we have to answer.

Iran Nuclear Update – 2002

Despite its claims to the contrary, Iran is considered by the United States to maintain an active nuclear weapon development program. As recently as January 2001, the U.S. Department of Defense – seconded by the U.S. Central Intelligence Agency (CIA) – reported that Iran is seeking “technology for weapons development through an elaborate network of military and civilian organizations.” The Pentagon also declared that Iran “has an organized structure dedicated to establishing the capability to produce both plutonium and high enriched uranium.” Neither plutonium nor high enriched uranium is useful in Iran’s civilian power program, but these materials are indispensable for a nuclear bomb.

Russian assistance

Russia remains Iran’s primary nuclear supplier. According to the CIA, Russia’s help “enhances Iran’s ability to support a nuclear weapons development effort, even though the ostensible purpose of most of this assistance is for civilian applications.” In Congressional testimony, the State Department has reported an acceleration in Russian assistance over the past few years, which could help Iran reduce the time needed to produce fissile material for nuclear weapons.

Russia’s principal endeavor – and source of income – in Iran is the construction of a 1000 megawatt light-water reactor at Bushehr, which has continued despite American efforts to slow the project down. In October 2001, Russia’s Izhora Plant Joint Stock Company shipped nuclear reactor core components to the Bushehr site. Assembly of the first reactor will reportedly begin in late December. The reactor is scheduled to be commissioned in 2003. Soon thereafter, Iran will begin to have access to spent reactor fuel containing bomb quantities of plutonium. Russia has also begun to take steps toward the construction of a second reactor at the site. The Russian firm Atomenergoproyekt has been working on a feasibility study.

Although the reactors at Bushehr will be inspected by the International Atomic Energy Agency (IAEA), there is concern that Iran and Russian are using them as a cover for the development of nuclear weapons. The Pentagon has stated that some Russian entities – most of them subordinate to the Ministry of Atomic Energy (MINATOM) – already have ties with Iranian nuclear research centers that are outside the bounds of what is needed for Bushehr. In October 2000, Robert Einhorn, Assistant Secretary of State for Nonproliferation, testified that much of this cooperation involved technologies related to the production of weapon-grade fissile materials, which included research reactors, heavy water production, and laser isotope separation for uranium enrichment.

Iranian procurement attempts

The United States has continued to oppose Iran’s efforts to import the means to make nuclear weapon material. These efforts have included the purchase of a uranium conversion plant from China. Such a plant is essential to enrich uranium to nuclear weapon grade. As a result of U.S. pressure, China pledged in October 1997 to terminate its involvement in a conversion project in Iran and agreed not to engage in any new nuclear cooperation with Iran. China and the United States agreed nevertheless that China would complete two smaller nuclear projects, neither of which is thought to pose a significant proliferation risk: a small research reactor and a zirconium production facility at Isfahan that Iran will use to produce cladding for reactor fuel. According to Pentagon, China has been abiding by its 1997 commitments.

Iran has also attempted to import atomic vapor laser isotope separation (AVLIS) equipment from Russia. U.S. officials protested the sale, which was planned by the D.V. Eremov Scientific Research Institute of Electrophysical Apparatus, overseen by MINATOM. In March 2001, Russian officials told the United States that the deal was cancelled. MINATOM officials had argued that the lasers could not be used in a uranium enrichment program, but American officials countered that the lasers could provide “a basis to scale up” a program to enrich significant quantities of uranium.

Soon after President George W. Bush took office in January 2001, it was reported that Moscow had permitted a Russian ship in the Black Sea to proceed to Iran with a shipment of high-strength aluminum onboard. According to one version of the story, Russian inspectors boarded the vessel but were told that the aluminum was intended for aircraft, and not for the manufacture of parts for gas centrifuges designed to enrich uranium. The vessel was permitted to continue to Iran.