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In 1920, the Irish Republican Army reportedly considered a terrifying new weapon: typhoid-contaminated milk. Reading from an IRA memo he claimed had been captured in a recent raid, Sir Hamar Greenwood described to Parliament the ease with which "fresh and virulent cultures" could be obtained and introduced into milk served to British soldiers. Although the plot would only target the military, the memo expressed concern that the disease might spread to the general population.

Although the IRA never used this weapon, the incident illustrates that poisoning a nation's milk supply with biological agents hardly ranks as a new concept. Yet just two weeks ago, the National Academy of Sciences' journal suspended publication of an article analyzing the vulnerability of the U.S. milk supply to botulinum toxin, because the Department of Health and Human Services warned that information in the article provided a "road map for terrorists."

That approach may sound reasonable, but the effort to suppress scientific information reflects a dangerously outdated attitude. Today, information relating to microbiology is widely and instantly available, from the Internet to high school textbooks to doctoral theses. Our best defense against those who would use it as a weapon is to ensure that our own scientists have better information. That means encouraging publication.

The article in question, written by Stanford University professor Lawrence Wein and graduate student Yifan Liu, describes a theoretical terrorist who obtains a few grams of botulinum toxin on the black market and pours it into an unlocked milk tank. Transferred to giant dairy silos, the toxin contaminates a much larger supply. Because even a millionth of a gram may be enough to kill an adult, hundreds of thousands of people die. (Wein summarized the article in an op-ed he wrote for the New York Times.) The scenario is frightening, and it is meant to be -- the authors want the dairy industry and its federal regulators to take defensive action.

The national academy's suspension of the article reflects an increasing concern that publication of sensitive data can provide terrorists with a how-to manual, but it also brings to the fore an increasing anxiety in the scientific community that curbing the dissemination of research may impair our ability to counter biological threats. This dilemma reached national prominence in fall 2001, when 9/11 and the anthrax mailings drew attention to another controversial article. This one came from a team of Australian scientists.

Approximately every four years, Australia suffers a mouse infestation. In 1998, scientists in Canberra began examining the feasibility of using a highly contagious disease, mousepox, to alter the rodents' ability to reproduce. Their experiments yielded surprising results. Researchers working with mice naturally resistant to the disease found that combining a gene from the rodent's immune system (interleukin-4) with the pox virus and inserting the pathogen into the animals killed them -- all of them. Plus 60 percent of the mice not naturally resistant who had been vaccinated against mousepox.

In February 2001 the American SocietyforMicrobiologists' (ASM) Journal of Virology reported the findings. Alarm ensued. The mousepox virus is closely related to smallpox -- one of the most dangerous pathogens known to humans. And the rudimentary nature of the experiment demonstrated how even basic, inexpensive microbiology can yield devastating results.

When the anthrax attacks burst into the news seven months later, the mousepox case became a lightning rod for deep-seated fears about biological weapons. The Economist reported rumors about the White House pressuring American microbiology journals to restrict publication of similar pieces. Samuel Kaplan, chair of the ASM publications board, convened a meeting of the editors in chief of the ASM's nine primary journals and two review journals. Hoping to head off government censorship, the organization -- while affirming its earlier decision -- ordered its peer reviewers to take national security and the society's code of ethics into account.

Not only publications came under pressure, but research itself. In spring 2002 the newly formed Department of Homeland Security developed an information-security policy to prevent certain foreign nationals from gaining access to a range of experimental data. New federal regulations required that particular universities and laboratories submit to unannounced inspections, register their supplies and obtain security clearances. Legislation required that all genetic engineering experiments be cleared by the government.

On the mousepox front, however, important developments were transpiring. Because the Australian research had entered the public domain, scientists around the world began working on the problem. In November 2003, St. Louis University announced an effective medical defense against a pathogen similar to -- but even more deadly than -- the one created in Australia. This result would undoubtedly not have been achieved, or at least not as quickly, without the attention drawn by the ASM article.

The dissemination of nuclear technology presents an obvious comparison. The 1946 Atomic Energy Act classifies nuclear information "from birth." Strong arguments can be made in favor of such restrictions: The science involved in the construction of the bomb was complex and its application primarily limited to weapons. A short-term monopoly was possible. Secrecy bought the United States time to establish an international nonproliferation regime. And little public good would have been achieved by making the information widely available.

Biological information and the issues surrounding it are different. It is not possible to establish even a limited monopoly over microbiology. The field is too fundamental to the improvement of global public health, and too central to the development of important industries such as pharmaceuticals and plastics, to be isolated. Moreover, the list of diseases that pose a threat ranges from high-end bugs, like smallpox, to common viruses, such as influenza. Where does one draw the line for national security?

Experience suggests that the government errs on the side of caution. In 1951, the Invention Secrecy Act gave the government the authority to suppress any design it deemed detrimental to national defense. Certain areas of research-- atomic energy and cryptography -- consistently fell within its purview. But the state also placed secrecy orders on aspects of cold fusion, space technology, radar missile systems, citizens band radio voice scramblers, optical engineering and vacuum technology. Such caution, in the microbiology realm, may yield devastating results. It is not in the national interest to stunt research into biological threats.

In fact, the more likely menace comes from naturally occurring diseases. In 1918 a natural outbreak of the flu infected one-fifth of the world's population and 25 percent of the United States'. Within two years it killed more than 650,000 Americans, resulting in a 10-year drop in average lifespan. Despite constant research into emerging strains, the American Lung Association estimates that the flu and related complications kill 36,000 Americans each year. Another 5,000 die annually from food-borne pathogens -- an extraordinarily large number of which have no known cure. The science involved in responding to these diseases is incremental, meaning that small steps taken by individual laboratories around the world need to be shared for larger progress to be made.

The idea that scientific freedom strengthens national security is not new. In the early 1980s, a joint Panel on Scientific Communication and National Security concluded security by secrecywasuntenable. Its report called instead for security by accomplishment -- ensuring strength through advancing research. Ironically, one of the three major institutions participating was the National Academy of Sciences -- the body that suspended publication of the milk article earlier this month.

The government has a vested interest in creating a public conversation about ways in which our society is vulnerable to attack. Citizens are entitled to know when their milk, their water, their bridges, their hospitals lack security precautions. If discussion of these issues is censored, the state and private industry come under less pressure to alter behavior; indeed, powerful private interests may actively lobby against having to install expensive protections. And failure to act may be deadly.

Terrorists will obtain knowledge. Our best option is to blunt their efforts to exploit it. That means developing, producing and stockpiling effective vaccines. It means funding research into biosensors -- devices that detect the presence of toxic substances in the environment -- and creating more effective reporting requirements for early identification of disease outbreaks. And it means strengthening our public health system.

For better or worse, the cat is out of the bag -- something brought home to me last weekend when I visited the Tech Museum of Innovation in San Jose. One hands-on exhibit allowed children to transfer genetic material from one species to another. I watched a 4-year-old girl take a red test tube whose contents included a gene that makes certain jellyfish glow green. Using a pipette, she transferred the material to a blue test tube containing bacteria. She cooled the solution, then heated it, allowing the gene to enter the bacteria. Following instructions on a touch-screen computer, she transferred the contents to a petri dish, wrote her name on the bottom, and placed the dish in an incubator. The next day, she could log on to a Web site to view her experiment, and see her bacteria glowing a genetically modified green.

In other words, the pre-kindergartener (with a great deal of help from the museum) had conducted an experiment that echoed the Australian mousepox study. Obviously, this is not something the child could do in her basement. But just as obviously, the state of public knowledge is long past anyone's ability to censor it.

Allowing potentially harmful information to enter the public domain flies in the face of our traditional way of thinking about national security threats. But we have entered a new world. Keeping scientists from sharing information damages our ability to respond to terrorism and to natural disease, which is more likely and just as devastating. Our best hope to head off both threats may well be to stay one step ahead.

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In 1920, the Irish Republican Army reportedly considered a terrifying new weapon: typhoid-contaminated milk. Reading from an IRA memo he claimed had been captured in a recent raid, Sir Hamar Greenwood described to Parliament the ease with which "fresh and virulent cultures" could be obtained and introduced into milk served to British soldiers. Although the plot would only target the military, the memo expressed concern that the disease might spread to the general population.

Although the IRA never used this weapon, the incident illustrates that poisoning a nation's milk supply with biological agents hardly ranks as a new concept. Yet just two weeks ago, the National Academy of Sciences' journal suspended publication of an article analyzing the vulnerability of the U.S. milk supply to botulinum toxin, because the Department of Health and Human Services warned that information in the article provided a "road map for terrorists."

That approach may sound reasonable, but the effort to suppress scientific information reflects a dangerously outdated attitude. Today, information relating to microbiology is widely and instantly available, from the Internet to high school textbooks to doctoral theses. Our best defense against those who would use it as a weapon is to ensure that our own scientists have better information. That means encouraging publication.

The article in question, written by Stanford University professor Lawrence Wein and graduate student Yifan Liu, describes a theoretical terrorist who obtains a few grams of botulinum toxin on the black market and pours it into an unlocked milk tank. Transferred to giant dairy silos, the toxin contaminates a much larger supply. Because even a millionth of a gram may be enough to kill an adult, hundreds of thousands of people die. (Wein summarized the article in an op-ed he wrote for the New York Times.) The scenario is frightening, and it is meant to be -- the authors want the dairy industry and its federal regulators to take defensive action.

The national academy's suspension of the article reflects an increasing concern that publication of sensitive data can provide terrorists with a how-to manual, but it also brings to the fore an increasing anxiety in the scientific community that curbing the dissemination of research may impair our ability to counter biological threats. This dilemma reached national prominence in fall 2001, when 9/11 and the anthrax mailings drew attention to another controversial article. This one came from a team of Australian scientists.

Approximately every four years, Australia suffers a mouse infestation. In 1998, scientists in Canberra began examining the feasibility of using a highly contagious disease, mousepox, to alter the rodents' ability to reproduce. Their experiments yielded surprising results. Researchers working with mice naturally resistant to the disease found that combining a gene from the rodent's immune system (interleukin-4) with the pox virus and inserting the pathogen into the animals killed them -- all of them. Plus 60 percent of the mice not naturally resistant who had been vaccinated against mousepox.

In February 2001 the American SocietyforMicrobiologists' (ASM) Journal of Virology reported the findings. Alarm ensued. The mousepox virus is closely related to smallpox -- one of the most dangerous pathogens known to humans. And the rudimentary nature of the experiment demonstrated how even basic, inexpensive microbiology can yield devastating results.

When the anthrax attacks burst into the news seven months later, the mousepox case became a lightning rod for deep-seated fears about biological weapons. The Economist reported rumors about the White House pressuring American microbiology journals to restrict publication of similar pieces. Samuel Kaplan, chair of the ASM publications board, convened a meeting of the editors in chief of the ASM's nine primary journals and two review journals. Hoping to head off government censorship, the organization -- while affirming its earlier decision -- ordered its peer reviewers to take national security and the society's code of ethics into account.

Not only publications came under pressure, but research itself. In spring 2002 the newly formed Department of Homeland Security developed an information-security policy to prevent certain foreign nationals from gaining access to a range of experimental data. New federal regulations required that particular universities and laboratories submit to unannounced inspections, register their supplies and obtain security clearances. Legislation required that all genetic engineering experiments be cleared by the government.

On the mousepox front, however, important developments were transpiring. Because the Australian research had entered the public domain, scientists around the world began working on the problem. In November 2003, St. Louis University announced an effective medical defense against a pathogen similar to -- but even more deadly than -- the one created in Australia. This result would undoubtedly not have been achieved, or at least not as quickly, without the attention drawn by the ASM article.

The dissemination of nuclear technology presents an obvious comparison. The 1946 Atomic Energy Act classifies nuclear information "from birth." Strong arguments can be made in favor of such restrictions: The science involved in the construction of the bomb was complex and its application primarily limited to weapons. A short-term monopoly was possible. Secrecy bought the United States time to establish an international nonproliferation regime. And little public good would have been achieved by making the information widely available.

Biological information and the issues surrounding it are different. It is not possible to establish even a limited monopoly over microbiology. The field is too fundamental to the improvement of global public health, and too central to the development of important industries such as pharmaceuticals and plastics, to be isolated. Moreover, the list of diseases that pose a threat ranges from high-end bugs, like smallpox, to common viruses, such as influenza. Where does one draw the line for national security?

Experience suggests that the government errs on the side of caution. In 1951, the Invention Secrecy Act gave the government the authority to suppress any design it deemed detrimental to national defense. Certain areas of research-- atomic energy and cryptography -- consistently fell within its purview. But the state also placed secrecy orders on aspects of cold fusion, space technology, radar missile systems, citizens band radio voice scramblers, optical engineering and vacuum technology. Such caution, in the microbiology realm, may yield devastating results. It is not in the national interest to stunt research into biological threats.

In fact, the more likely menace comes from naturally occurring diseases. In 1918 a natural outbreak of the flu infected one-fifth of the world's population and 25 percent of the United States'. Within two years it killed more than 650,000 Americans, resulting in a 10-year drop in average lifespan. Despite constant research into emerging strains, the American Lung Association estimates that the flu and related complications kill 36,000 Americans each year. Another 5,000 die annually from food-borne pathogens -- an extraordinarily large number of which have no known cure. The science involved in responding to these diseases is incremental, meaning that small steps taken by individual laboratories around the world need to be shared for larger progress to be made.

The idea that scientific freedom strengthens national security is not new. In the early 1980s, a joint Panel on Scientific Communication and National Security concluded security by secrecywasuntenable. Its report called instead for security by accomplishment -- ensuring strength through advancing research. Ironically, one of the three major institutions participating was the National Academy of Sciences -- the body that suspended publication of the milk article earlier this month.

The government has a vested interest in creating a public conversation about ways in which our society is vulnerable to attack. Citizens are entitled to know when their milk, their water, their bridges, their hospitals lack security precautions. If discussion of these issues is censored, the state and private industry come under less pressure to alter behavior; indeed, powerful private interests may actively lobby against having to install expensive protections. And failure to act may be deadly.

Terrorists will obtain knowledge. Our best option is to blunt their efforts to exploit it. That means developing, producing and stockpiling effective vaccines. It means funding research into biosensors -- devices that detect the presence of toxic substances in the environment -- and creating more effective reporting requirements for early identification of disease outbreaks. And it means strengthening our public health system.

For better or worse, the cat is out of the bag -- something brought home to me last weekend when I visited the Tech Museum of Innovation in San Jose. One hands-on exhibit allowed children to transfer genetic material from one species to another. I watched a 4-year-old girl take a red test tube whose contents included a gene that makes certain jellyfish glow green. Using a pipette, she transferred the material to a blue test tube containing bacteria. She cooled the solution, then heated it, allowing the gene to enter the bacteria. Following instructions on a touch-screen computer, she transferred the contents to a petri dish, wrote her name on the bottom, and placed the dish in an incubator. The next day, she could log on to a Web site to view her experiment, and see her bacteria glowing a genetically modified green.

In other words, the pre-kindergartener (with a great deal of help from the museum) had conducted an experiment that echoed the Australian mousepox study. Obviously, this is not something the child could do in her basement. But just as obviously, the state of public knowledge is long past anyone's ability to censor it.

Allowing potentially harmful information to enter the public domain flies in the face of our traditional way of thinking about national security threats. But we have entered a new world. Keeping scientists from sharing information damages our ability to respond to terrorism and to natural disease, which is more likely and just as devastating. Our best hope to head off both threats may well be to stay one step ahead.

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In May, North Korean leaders hinted to visiting U.S scholar John W. Lewis that they're willing to resume negotiations with the United States on nuclear arms. But if those talks are revived, North Korea wants to focus on mutual steps toward a denuclearized Korean peninsula. The Bush administration has said repeatedly it doesn't want to depart from six-way nuclear talks. (Mike Shuster's full report on NPR's Morning Edition is linked below.)

Daniel Sneider writes, "There is a small crack in the otherwise closed door between the United States and North Korea. That is part of the message Stanford Professor John W. Lewis, an expert on Northeast Asian security issues, brought back this past week from a visit to China and North Korea." (Sneider's column, "Window is closing for U.S. in N. Korean nuclear talks," is linked below.)

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Robert McNamara is worried. He knows how close we've come. His counsel helped the Kennedy administration avert nuclear catastrophe during the Cuban Missile Crisis. Today, he believes the United States must no longer rely on nuclear weapons as a foreign-policy tool. To do so is immoral, illegal, and dreadfully dangerous.

This article, the cover story for the May/June 2005 issue of Foreign Policy, began as a talk McNamara delivered at Stanford to CISAC researchers, staff, and friends on Oct. 18, 2004.

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The nuclear Nonproliferation Treaty (NPT) provides that a state-party intending to withdraw from the treaty must give the UN Security Council three months' notice of its intention and provide the Security Council with its reasons for withdrawal. This provision was intended to give the Security Council an opportunity to deal with any withdrawal that might produce a threat to international peace and security.

More than two years ago, North Korea renewed its 1993 notice of withdrawal from the NPT, a notice that had been suspended a decade earlier during negotiations with the United States. That announcement left the Security Council with only a single day before North Korea would become the first country to withdraw from the NPT.

The Security Council did nothing. Indeed, it has continued to ignore North Korea's action even as Pyongyang has repeatedly stated its intention to produce nuclear weapons, sending a dangerous message to other states considering withdrawal. The once-every-five-years NPT review conference that will meet in New York this month provides a valuable opportunity to address the North Korea case and prod the Security Council to address similar cases that may emerge.

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"We hardly needed the 30th anniversary of the Vietnam War's end to remind us of that war," write CISAC Fellows Lien-Hang Nguyen and Karthika Sasikumar. "Iraq provides daily reminders, prompting frequent comparisons to Vietnam." If the United States applies some lessons from Vietnam, it need not repeat past mistakes in Iraq, the researchers argue in this op-ed.

We hardly needed the 30th anniversary of the Vietnam War's end to remind us of that war. Iraq provides daily reminders, prompting frequent comparisons to Vietnam. While many of the analogies are misplaced, looking back at America's intervention in Vietnam can be valuable.

The major challenge now facing the United States in Iraq is to establish a stable and powerful indigenous military to provide a secure environment for nation-building.

The U.S. Army's initial unwillingness to integrate South Vietnamese soldiers into its military plans--and its later inability to motivate the indigenous troops to take over the fighting--tells us what to avoid in Iraq.

The old Iraqi army fell apart in April 2003 as American soldiers marched on Baghdad. As the insurgency grew and American casualties mounted, the coalition forces started putting Iraq's army together again. Many of the same soldiers came back to sign up--it was only at the higher levels that Baathist officers were purged. Both Iraq and the United States have an interest in strengthening a purely Iraqi force.

Still some lessons

President Bush calls the comparison of Iraq with Vietnam a "false analogy" and accuses those who use it of sending the wrong message to the enemy and to the troops. Likewise, Rep. Richard Baker, R-La., calls the analogy "wrong, disturbing and dangerous."

In fact, Vietnam does not make for a good comparison with Iraq--but the differences are informative. The most striking difference between the two situations is in the sequence of war and nation-building. In Vietnam, the United States attempted nation-building under South Vietnamese President Ngo Dinh Diem's administration for nearly a decade before intervening directly with ground troops; in Iraq, a short and overwhelming display of force preceded nation-building. Moreover, the Americans were facing a much stronger adversary--including an organized army--in Vietnam.

Beginning in 1969, the Nixon administration implemented its policy of "Vietnamization," withdrawing U.S. troops while simultaneously turning over to the Army of the Republic of Vietnam the fighting and the pacification efforts. By 1973, the South Vietnamese army was the strongest in Southeast Asia, boasting more than 1 million soldiers and toting the most advanced weaponry, thanks to U.S. Army programs such as Enhance and Enhance Plus. However, unimpressive performances during a joint incursion into Cambodia and the 1972 spring offensive testified otherwise. Finally, on April 30, 1975, Saigon fell to the communists. Where did Vietnamization go wrong?

From the entry of American ground forces in 1965, South Vietnamese forces were made to feel marginalized in defending South Vietnam. This was mainly due to the U.S. Army's belief in 1965-69 that the South Vietnamese troops were essentially irrelevant to victory or defeat. Not only were the soldiers equipped with inferior weapons, underpaid and given poor housing compared to their American counterparts, but they also were relegated to so-called pacification missions.

U.S. soldiers had more respect for their enemies from the North than for their allies in the South. Training and communication were beset with linguistic, social and cultural barriers. By the time South Vietnamese soldiers started replacing U.S. soldiers in 1969, it was too late to induce them to adopt what had come to be regarded as U.S. strategic goals, rather than South Vietnamese ones.

It's not too late

Now, in Iraq, a window of opportunity is still open for Americans. According to Anthony Cordesman of the Center for Strategic and International Studies, the United States wasted the whole first year after the invasion in halfhearted attempts to create effective Iraqi military and police forces. The bulk of the army is made up of soldiers who were fighting Americans a few months ago. Ethnic and religious divisions among the men, and their legacy of service under an autocrat, make it difficult for them to attain modern professional military standards. However, the Iraqi people are much less distrustful of the Iraqi army than they are of occupying U.S. forces.

The Multinational Security Transition Command, set up late last year, must focus on the Iraqi army's esprit de corps. It is not too late to incorporate and integrate Iraqi forces in strategic planning and operations so that they have a stake in securing a stable Iraq. Otherwise, the Iraqi army will soon be overwhelmed by the size and hostility of a growing insurgency.

The Vietnam analogy has too often been deployed in times of political conflict in the United States. But the comparison can be useful. If we learn the right lessons from the mistakes in Vietnam, we need not be condemned to repeat them in Iraq.

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William J. Perry
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"Of the Pentagon's $419.3 billion budget request for next year, only about $10.5 billion--2 percent--will go toward basic research, applied research and advanced technology development," write %people1% and John M. Deutch, former secretary and assistant secretary of defense, respectively, in a New York Times op-ed. This 20 percent reduction will weaken national security in the long run, they warn, adding, "Secretary of Defense Donald Rumsfeld should reconsider this request, and if he does not, Congress should restore the cut."

Of the Pentagon's $419.3 billion budget request for next year, only about $10.5 billion - 2 percent - will go toward basic research, applied research and advanced technology development. This represents a 20 percent reduction from last year, a drastic cutback that threatens the long-term security of the nation. Secretary of Defense Donald Rumsfeld should reconsider this request, and if he does not, Congress should restore the cut.

These research and development activities, known as the "technology base" program, are a vital part of the United States defense program. For good reason: the tech base is America's investment in the future. Over the years, tech base activities have yielded advances in scientific and engineering knowledge that have given United States forces the technological superiority that is responsible in large measure for their current dominance in conventional military power.

Research into basic understanding of methods for reducing radar signatures in the 1970's, for example, gave rise to "stealth" technology. Advances in electronic sensor technology enable the vast collection of information from satellites, and past work on computer systems permits distribution of this information in near real-time to military commanders. The combination of near-real-time intelligence and precision munitions are the heart of the so-called "revolution in military affairs" that avoids large and costly systems and approaches.

These advances require years of sustained effort by university, industry and government researchers. If the Pentagon does not make the required investments today, America will not have dominant military technology tomorrow.

The technology base program has also had a major effect on American industry. Indeed, it is the primary reason that the United States leads the world today in information technology. American companies not only draw heavily on the Pentagon's work, but they have also come to depend on it. The research and development programs of many of America's major information technology companies are almost exclusively devoted to product development.

It was the investment of the Defense Advanced Research Projects Agency in a network known as ARPA-net in the 1960's and 70's, for example, that gave rise to the Internet. The JPEG file format for digital images is based on software and standards developed by the Pentagon. The global positioning satellite system, first developed for precision-guided munitions, is now used in many cellphones and has the potential to revolutionize our air traffic control system. America's ability to translate the Pentagon's technology base into commercial achievement is the envy of the world.

Of course, the administration and Congress need to make tough budget choices. But to shift money away from the technology base to pay for Iraq, other current military operations or research on large, expensive initiatives, is to give priority to the near term at the expense of the future. This is doubtful judgment, especially at a time when the nature of the threat confronting America is changing. New threats, like catastrophic terrorism and the spread of weapons of mass destruction, urgently call for new technology.

There should be no doubt that basic research will continue to make a contribution. Robotics, artificial intelligence, biotechnology, brain and cognitive sciences, nanotechnology, large-scale modeling and simulation: all these fields can have a huge impact. If properly supported, basic technology work is likely to lead to unprecedented results.

Mr. Rumsfeld has long championed the need to transform the military and exploit new technology. He has supported the technology base in the past and has urged the adoption of a more long-term view of security needs. He should, then, be willing to review and reverse the Pentagon's request for reducing its technology base. He should understand that short-term budget requirements for the armed services always tend to push out the technology base program - unless the Pentagon leadership supports it.

Perhaps the reason for this year's reduction is the mistaken belief that a one-year gap in financing does not matter, because innovation takes so long. But tech base advances occur because of stable financing. Fluctuating budgets cause wasted effort.

It is possible that Congress will restore the cuts in technology base programs and correspondingly reduce some other part of the defense budget. But Mr. Rumsfeld should not depend on Congress. It would be vastly better if the Pentagon understood the importance of the tech base effort, and acted on that understanding.

The Department of Defense's technology base programs have been an important factor in giving America the dominant military force in the world. They have also helped many American information technology companies become successful. The Pentagon should maintain its dedication to these programs, and that will require leadership from the secretary of defense - as well as support from Congress.

John Deutch, a professor of chemistry at M.I.T., was deputy secretary of defense from 1994 to 1995. William J. Perry was secretary of defense from 1994 to 1997.

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Cellular prion protein (PrPC) is present in the healthy adult brain. It is a presumably essential membrane protein but its cellular function is unclear. Like Ice-9 - the fictitious water allotrope in Kurt Vonnegut's Cat's Cradle, which "taught the atoms a novel way in which to stack, lock and crystallize until the oceans turned to ice" - cellular prion protein can, in a rare event, adopt a pathogenic and 'contagious' shape, PrPSc, which causes mad cow disease or Bovine Spongiform Encephalopathy (BSE). New variant Creutzfeldt Jakob Disease (vCJD) is the human malady attributed to eating beef tainted with BSE. In comparison to the UK epidemic (at the peak of which 37,280 cases of BSE were reported in the single year 1992), the emergence of four North American mad cows since May 2003 is minor yet still alarming. This work examines the USDA's response to indigenous BSE as manifested in "The Final Rule" (9 CFR 93-96, Jan 4, 2005) and questions whether current regulations are stringent enough to keep PrPSc out of cattle feed and human food.

Sheila Healy is a CISAC Science Fellow. She is currently analyzing USDA policy addressing Bovine Spongiform Encephalopathy (BSE) or mad cow disease. She recently finished a postdoctoral appointment in Stanley Prusiner's laboratory in the Department of Neurology at the University of California, San Francisco. There she studied the molecular and structural requirements for the conversion of cellular prion protein to its pathogenic form, the agent that causes BSE. She holds a doctoral degree in biochemistry and molecular and cellular biology from the University of Arizona.

Reuben W. Hills Conference Room, East 207, Encina Hall

Sheila Healy
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Many critiques have been made of the U.S. Intelligence Community's performance in thwarting terrorist attacks (i.e. 9/11) and understanding the proliferation of WMD (i.e. Iraq). Given the reports from the 9/11 and WMD commissions as well as last year's legislation establishing the position of National Intelligence Director, what in fact are the deficiencies of the Intelligence Community and what changes have the best chance of correcting them and preventing future intelligence failures?

This seminar will feature a panel discussion by three experts on intelligence issues. They will focus their comments on the issues, challenges, and potential solutions for improving the U.S. Intelligence Community capabilities to provide timely warning and accurate assessments of future threats. They will then invite comments, questions, and discussion.

Sidney Drell is a professor of theoretical physics (Emeritus) at the Stanford Linear Accelerator Center and a senior fellow at the Hoover Institution. As a physicist and arms control specialist, he has been a leader in providing essential technical advice to the U.S. Government on national security issues. He is an active member of JASON, a group of distinguished scientists, and has served on a number of boards, including the President's Foreign Intelligence Advisory Board, the President's Science Advisory Committee, and the Non-Proliferation Advisory Panel.

Keith Hansen is a consulting professor of international relations teaching courses on U.S. intelligence and arms control/proliferation. His 35-year government career included seven years on the National Intelligence Council, where he managed numerous national intelligence estimates and other interagency studies on strategic and nuclear issues, and where he served as the National Intelligence Officer for Strategic Programs and Nuclear Proliferation.

Henry Rowen is Director Emeritus of the Asia/Pacific Research Center, professor of public policy and management (emeritus) at Stanford's Graduate School of Business, and senior fellow at the Hoover Institution. He was Assistant Secretary of Defense for International Security Affairs in the Department of Defense (1989-1991), Chairman of the DCI's National Intelligence Council (1981-1983), President of RAND Corporation (1968-1972), and Assistant Director of the U.S. Bureau of the Budget (1965-1966). Most recently, he was a Member of the President's Commission on the Intelligence Capabilities of the United States Regarding Weapons of Mass Destruction.

Reuben W. Hills Conference Room

Henry S. Rowen Speaker
Keith Hansen Visiting professor of international relations Speaker
Sidney D. Drell Professor of theoretical physics (Emeritus) Speaker Stanford University
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When the Soviet Union dissolved on Dec. 25, 1991, the nuclear threat changed from the Cold War concern of ending civilization as we know it to one of securing "loose nukes" in chaotic Russia and other states of the former Soviet Union. I had the opportunity to visit the secret cities of the Russian nuclear complex six weeks after the collapse and to initiate a program of scientific collaboration between U.S. and Russian nuclear scientists. Together, we made remarkable progress in reducing the threat in the early and mid-1990's because of the trust we were able to build based on mutual respect, similar objectives, and a common heritage in the great early-20th century school of European physics.

Although the number of joint U.S. - Russian cooperative threat reduction programs increased and the U.S. funding rose dramatically at the turn of the millennium, real progress slowed as U.S. and Russian objectives began to diverge, and the programs became politicized and bureaucratized. Major opportunities to reduce the long-term threat were lost. Cooperation was re-energized by the tragic events of 9/11 and the emerging threat of nuclear terrorism. Today, both Presidents Bush and Putin agree that keeping nuclear weapons out of the hands of terrorists is their highest security priority. Yet, strategy and commitment on both sides appear incommensurate with the threat. I will discuss critical barriers to and opportunities for renewed cooperation to meet the threat.

Siegfried S. Hecker is currently a Senior Fellow at the Los Alamos National Laboratory. Dr. Hecker was Director of Los Alamos National Laboratory from 1986-1997. He joined the Laboratory as technical staff member of the Physical Metallurgy Group in 1973, following a postdoctoral assignment there in 1968-1970 and a summer graduate student assignment in 1965. He served as Chairman of the Center for Materials Science and Division Leader of the Materials Science and Technology Division before becoming Director. From 1970 to 1973 he was a senior research metallurgist with the General Motors Research Laboratories.

Dr. Hecker received his B.S. in metallurgy in 1965 and M.S. in metallurgy in 1967 from Case Institute of Technology and his Ph.D. in metallurgy in 1968 from Case Western Reserve University.

Dr. Hecker is a member of the National Academy of Engineering, Foreign Member of the Russian Academy of Sciences, Fellow of the TMS (Minerals, Metallurgy and Materials Society), Fellow of the American Society for Metals, Honorary Member of the American Ceramics Society, and Fellow of the American Academy of Arts and Sciences. Among other awards, Dr. Hecker received the American Nuclear Society Seaborg Medal (2004), the Acta Materialia J. Herbert Hollomon Award (2004), the Case Western Reserve University Alumni Association Gold Medal (2004) and Undergraduate Distinguished Alumni Award (2001), the New Mexico Distinguished Public Service Award, (1998); was named Laboratory Director of the Year by the Federal Laboratory Consortium, (1998); received an honorary Doctor of Science degree (Honoris Causa) from Case Western Reserve University (1998); received the Department of Energy's Distinguished Associate Award, (1997); the University of California's President's Medal, (1997); the ASM Distinguished Life Membership Award, (1997); an Honorary Degree of Scientiae Doctoris, Ripon College (1997); the Navy League New York Council Roosevelt Gold Medal for Science (1996); the Aviation Week Group Laurels Award for National Security (1995); the James O. Douglas Gold Medal Award (1990); the ASM International's Distinguished Lectureship in Materials and Society, (1989); the Kent Van Horn Distinguished Alumnus Award, Case Western Reserve University (1989); an Honorary Degree of Scientiae Doctoris, College of Santa Fe, (1988); the Year's Top 100 Innovations Award from Science Digest (1985); the Department of Energy's E. O. Lawrence Award, (1984); the American Society for Metals, Marcus A. Grossman Young Author Award (1976); and the Wesley P. Sykes Outstanding Metallurgist Award, Case Institute of Technology (1965). He is a member of the American Association for the Advancement of Science, Council on Foreign Relations, Tau Beta Pi Honorary Engineering Fraternity, Alpha Sigma Mu Honorary Metallurgical Fraternity, and the Society of Sigma Xi.

In addition to his current research activities in plutonium science and stockpile stewardship, he works closely with the Russian Academy of Sciences and the Russian Ministry of Atomic Energy on a variety of cooperative threat reduction programs. Dr. Hecker is also actively involved with the U.S. National Academies, serving on the Council of the National Academy of Engineering, serving as chair of the newly established Committee on Counterterrorism Challenges for Russia and the United States, and as a member of the National Academies Committee on Nuclear Nonproliferation. He is a member of ASM International and TMS, the Minerals/Metals/Materials Society, having served both in numerous local and national positions, and a member of the Materials Research Society and the American Association for the Advancement of Science. He is a member of the Council on Foreign Relations and the Pacific Council. He serves on the Corporate Advisory Panel of the UK Atomic Weapons Establishment, is a member of the Advisory Group to the Cooperative Research and Development Foundation (CRDF), and previously served on the Board of Regents for the University of New Mexico.

Reuben W. Hills Conference Room

CISAC
Stanford University
Encina Hall, C220
Stanford, CA 94305-6165

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Senior Fellow, Freeman Spogli Institute for International Studies, Emeritus
Research Professor, Management Science and Engineering, Emeritus
hecker2.jpg PhD

Siegfried S. Hecker is a professor emeritus (research) in the Department of Management Science and Engineering and a senior fellow emeritus at the Freeman Spogli Institute for International Studies (FSI). He was co-director of CISAC from 2007-2012. From 1986 to 1997, Dr. Hecker served as the fifth Director of the Los Alamos National Laboratory. Dr. Hecker is an internationally recognized expert in plutonium science, global threat reduction, and nuclear security.

Dr. Hecker’s current research interests include nuclear nonproliferation and arms control, nuclear weapons policy, nuclear security, the safe and secure expansion of nuclear energy, and plutonium science. At the end of the Cold War, he has fostered cooperation with the Russian nuclear laboratories to secure and safeguard the vast stockpile of ex-Soviet fissile materials. In June 2016, the Los Alamos Historical Society published two volumes edited by Dr. Hecker. The works, titled Doomed to Cooperate, document the history of Russian-U.S. laboratory-to-laboratory cooperation since 1992.

Dr. Hecker’s research projects at CISAC focus on cooperation with young and senior nuclear professionals in Russia and China to reduce the risks of nuclear proliferation and nuclear terrorism worldwide, to avoid a return to a nuclear arms race, and to promote the safe and secure global expansion of nuclear power. He also continues to assess the technical and political challenges of nuclear North Korea and the nuclear aspirations of Iran.

Dr. Hecker joined Los Alamos National Laboratory as graduate research assistant and postdoctoral fellow before returning as technical staff member following a tenure at General Motors Research. He led the laboratory's Materials Science and Technology Division and Center for Materials Science before serving as laboratory director from 1986 through 1997, and senior fellow until July 2005.

Among his professional distinctions, Dr. Hecker is a member of the National Academy of Engineering; foreign member of the Russian Academy of Sciences; fellow of the TMS, or Minerals, Metallurgy and Materials Society; fellow of the American Society for Metals; fellow of the American Physical Society, honorary member of the American Ceramics Society; and fellow of the American Academy of Arts and Sciences.

His achievements have been recognized with the Presidential Enrico Fermi Award, the 2020 Building Bridges Award from the Pacific Century Institute, the 2018 National Engineering Award from the American Association of Engineering Societies, the 2017 American Nuclear Society Eisenhower Medal, the American Physical Society’s Leo Szilard Prize, the American Nuclear Society's Seaborg Medal, the Department of Energy's E.O. Lawrence Award, the Los Alamos National Laboratory Medal, among other awards including the Alumni Association Gold Medal and the Undergraduate Distinguished Alumni Award from Case Western Reserve University, where he earned his bachelor's, master's, and doctoral degrees in metallurgy.

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Siegfried S. Hecker Senior Fellow Speaker Los Alamos National Laboratory
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