Missiles
Paragraphs

Abstract:

This paper explores how, in the two decades following the laser's invention, the popular image of the laser weapon was transformed from a terrifying "death ray" capable of contaminating large areas to a surgically precise tool and rationale for a major new defense program. Whereas previous histories of the laser treat its popularizations as irrelevant to real-world developments, this account emphasizes that mass media provide sites for scientists and engineers to vie for control over the meaning and direction of technological development. It shows how the laser as a symbol came to link two very different applications: the everyday use of low-energy lasers to increase the "precision" of technologies, and the experimental development of high-energy lasers that would be destructive. I argue that the symbolic appeal of laser weapons made the laser a central part of President Ronald Reagan's Strategic Defense Initiative or "Star Wars" missile defense program.

All Publications button
1
Publication Type
Journal Articles
Publication Date
Journal Publisher
Technology and Culture
Authors
Paragraphs

Statement of William J. Perry regarding submission of the New START for consent and ratification

Senate Foreign Relations Committee

April 29, 2010

Chairman Kerry and Ranking Member Lugar, thank you for this opportunity to appear before you and other members of this distinguished Committee to discuss ratification for the New START Treaty.

I would like to start my testimony by offering you five judgments about the New START Treaty.

  1. The reduction of deployed warheads entailed by the treaty is modest, but the treaty is a clear signal that the United States is serious about carrying out our responsibilities under the Nuclear Non-Proliferation Treaty, and will be welcomed as a positive step by the other members of that Treaty.
  2. The treaty imposes no meaningful restraints on our ability to develop and deploy ballistic missile defense systems, or our ability to modernize our nuclear deterrence forces.
  3. The treaty does not affect our ability to maintain an effective nuclear deterrent, as specified by DOD planners in the 2010 Nuclear Posture Review.
  4. The treaty is a valuable confidence-building measure in that it provides for a vitally important continuing dialog between the US and Russia on strategic nuclear weapons.
  5. The treaty improves strategic stability between the United States and Russia by requiring both nations to provide transparency and accountability in the management of their strategic nuclear forces.
    Based on these judgments, I recommend that the Senate consent to the ratification of this treaty.

I would like to add further comments concerning some details of the treaty.
The New START treaty limits deployed, strategic systems to an aggregate of 1550 warheads. These include warheads on deployed ICBMs and SLBMs. Heavy bombers count as a single warhead toward these limits. Further, the treaty creates ceilings on the number of deployed and non-deployed strategic delivery platforms. Each nation
retains the ability to determine the composition of their forces within these numbers. While the actual number of nuclear weapons available for upload on deployed bombers are not counted, this unusual "counting rule" is essentially equivalent between the United States and Russia. In my opinion, this aspect of the treaty would not put the United States at any disadvantage.

The focus of this treaty is on deployed warheads and it does not attempt to count or control non-deployed warheads. This continues in the tradition of prior arms control treaties. I would hope to see non-deployed and tactical systems included in future negotiations, but the absence of these systems should not detract from the merits of this treaty and the further advances in arms control which it represents.

The transparency and verification regime in this treaty builds upon the successful procedures and methods from the prior START treaty. Declarations of the number and locale of deployed missiles will be made upon entry into force, and an inspection regime allows short-notice access to ensure compliance. Technical aspects of the treaty include establishment of unique identifiers for each missile and heavy bomber and their locations, an important advance, which further enhances inspection and verification. Missile tests continue to be monitored, and the exchange of telemetry data is provided. While telemetry is not necessary for verification of this treaty or for our security interests, the continued exchange of telemetry is in our joint interest as a further confidence-building measure.

Two important questions arise in the evaluation of this treaty. They are whether the treaty constrains the United States' ability to modernize its nuclear deterrent and infrastructure and whether the treaty constrains ballistic missile defenses. The treaty directly addresses this first question. Article V of the treaty states "modernization and replacement of strategic offensive arms may be carried out". The Congressional Commission on Nuclear Forces noted that our nuclear weapons complex was in need of improvement. The President's FY11 budget submission proposes substantial increases to the nuclear weapons program for just this purpose. The 2010 Nuclear Posture Review elaborates upon this need in detail. The administration has been consistent in its statements and proposals on this point, all of which support upgrade and improvement of the nuclear weapons complex, including the replacement of key facilities for handling of nuclear materials. The New START Treaty does not inhibit any of these plans or programs.

The development of Ballistic Missile Defense is similarly unconstrained by this treaty. The preamble notes an interrelation between strategic offensive and defensive arms and the importance of a balance between them, but imposes no limits on further development of missile defenses. Indeed, this treaty modestly enhances the ability to develop missile defenses, in that retired strategic missiles required for development of BMD are no longer constrained under the terms of New START. Further, ballistic missile interceptors are specifically excluded from the definition of ballistic missiles under this treaty. The treaty does prohibit the conversion of ICBM launchers for missile defense purposes. We do not, in fact, plan to do so, so this limitation will have no practical impact on our BMD systems.

Mr. Chairman, the New START Treaty is a positive step in U.S.-Russia arms negotiations. This treaty establishes a ceiling on strategic arms while allowing the United States to maintain a safe, secure, and effective nuclear deterrent. This treaty does not limit America's ability to structure its offensive arsenal to meet current or future threats, nor does it prevent the future modernization of the American nuclear arsenal. Additionally, the treaty puts no meaningful limits our Anti-Ballistic Missile Defense program, and in fact it reduces restrictions that existed under the previous START treaty. I recommend ratification.

Mr. Chairman, thank you for the opportunity to appear before you today. I welcome your questions regarding the New START Treaty.

All Publications button
1
Publication Type
Testimonies
Publication Date
Authors
Authors
News Type
Commentary
Date
Paragraphs

THIS has been a remarkable time for the Obama administration. After a year of intense internal debate, it issued a new nuclear strategy. And after a year of intense negotiations with the Russians, President Obama signed the New Start treaty with President Dmitri Medvedev in Prague. On Monday, the president will host the leaders of more than 40 nations in a nuclear security summit meeting whose goal is to find ways of gaining control of the loose fissile material around the globe.

New Start is the first tangible product of the administration's promise to "press the reset button" on United States-Russian relations. The new treaty is welcome. But as a disarmament measure, it is a modest step, entailing a reduction of only 30 percent from the former limit - and some of that reduction is accomplished by the way the warheads are counted, not by their destruction. Perhaps the treaty's greatest accomplishment is that the negotiations leading up to its signing re-engaged Americans and Russians in a serious discussion of how to reduce nuclear dangers.

So what should come next? We look forward to a follow-on treaty that builds on the success of the previous Start treaties and leads to significantly greater arms reductions - including reductions in tactical nuclear weapons and reductions that require weapons be dismantled and not simply put in reserve.

But our discussions with Russian colleagues, including senior government officials, suggest that such a next step would be very difficult for them. Part of the reason for their reluctance to accept further reductions is that Russia considers itself to be encircled by hostile forces in Europe and in Asia. Another part results from the significant asymmetry between United States and Russian conventional military forces. For these reasons, we believe that the next round of negotiations with Russia should not focus solely on nuclear disarmament issues. These talks should encompass missile defense, Russia's relations with NATO, the Conventional Armed Forces in Europe Treaty, the Intermediate-Range Nuclear Forces Treaty, North Korea, Iran and Asian security issues.

Let's begin with missile defense. Future arms talks should make a serious exploration of a joint United States-Russia program that would provide a bulwark against Iranian missiles. We should also consider situating parts of the joint system in Russia, which in many ways offers an ideal strategic location for these defenses. Such an effort would not only improve our security, it would also further cooperation in dealing with the Iranian nuclear threat, including the imposition of consequential sanctions when appropriate.

NATO is a similarly complicated issue. After the cold war ended, Russia was invited to NATO meetings with the idea that the country would eventually become an integral part of European security discussions. The idea was good, but the execution failed. NATO has acted as if Russia's role is that of an observer with no say in decisions; Russia has acted as if it should have veto power.

Neither outlook is viable. But if NATO moves from consensus decisions to super-majority decisions in its governing structure, as has been considered, it would be possible to include Russia's vote as an effective way of resolving European security issues of common interest.

The Russians are also eager to revisit the two landmark cold war treaties. The Conventional Armed Forces in Europe Treaty enabled NATO and Warsaw Pact nations to make significant reductions in conventional armaments and to limit conventional deployments. Today, there is still a need for limiting conventional arms, but the features of that treaty pertaining to the old Warsaw Pact are clearly outdated. Making those provisions relevant to today's world should be a goal of new talks

Similarly, the 1987 treaty that eliminated American and Soviet intermediate-range ballistic missiles was a crucially important pact that helped to defuse cold war tensions. But today Russia has neighbors that have such missiles directed at its borders; for understandable reasons, it wants to renegotiate aspects of this treaty.

Future arms reductions with Russia are eminently possible. But they are unlikely to be achieved unless the United States is willing to address points of Russian concern. Given all that is at stake, we believe comprehensive discussions are a necessity as we work our way toward ever more significant nuclear disarmament.

William J. Perry, a senior fellow at the Freeman Spogli Institute for International Studies, was the secretary of defense from 1994 to 1997. George P. Shultz, the secretary of state from 1982 to 1989, is a distinguished fellow at the Hoover Institution.

 

Hero Image
Start Treaty Obama Medvedez logo www.kremlin.ru
All News button
1
Authors
News Type
Q&As
Date
Paragraphs

With an April 8 date set for the United States and Russia to sign a new nuclear arms reduction treaty, each country is preparing to cut their deployed weapons by about 30 percent. That caps each side at 1,550 nuclear warheads and bombs and 700 deployed strategic missiles and bombers.

The pact, which needs approval by the U.S. Senate and Russian Duma, is the culmination of a year's worth of often tumultuous negotiations. It's also an important step in President Obama's push for a nuclear-free world, an idea that was given a roadmap during a 2006 conference at Stanford's Hoover Institution. The conference, which was convened by former Secretary of State George Shultz and Stanford physicist Sidney Drell, resulted in a Wall Street Journal op-ed in January 2007 calling for a world without nuclear weapons.

The piece was written by Shultz, a professor emeritus at Stanford's Graduate School of Business and a distinguished Hoover fellow; William Perry, President Clinton's defense secretary and an emeritus senior fellow at Stanford's Freeman Spogli Institute for International Studies; Henry Kissinger, who served as secretary of state in the Nixon and Ford administrations; and Sam Nunn, a former chairman of the Senate Armed Services Committee and CEO of the Nuclear Threat Initiative.

President Obama mentioned the four men in a March 26 statement announcing the new treaty, noting their support for more assertive action in reducing nuclear weapons.

David Holloway, a professor of international history and faculty member at FSI's Center for International Security and Cooperation, participated in the Hoover conference and has analyzed the steps taken to shrink the world's nuclear stockpile.

Holloway, author of Stalin and the Bomb: The Soviet Union and Atomic Energy, 1939-1956, spoke with the Stanford News Service about the latest pact between the United States and Russia, and what the prospects are for further reduction of nuclear weapons.

Put the treaty in context. How significant is it?

You could say it's a small step in an important process. In the 1980s, there were about 70,000 nuclear weapons in the world. Most were owned by the U.S. and the Soviet Union. Now there are about 22,000 nuclear weapons, 90 percent of them owned by the U.S. and Russia. A number of those weapons are slated for dismantling, but it takes time to do that. Meanwhile, the feeling is that it's better to regulate the US-Russian nuclear relationship by treaty, so that it does not develop in an unpredictable way or a way that causes instability in the relationship.

This treaty reduces only the number of deployed warheads and nuclear delivery systems. What will happen to those weapons?

Some missile sites will be closed down and the warheads will be put into storage. The treaty apparently won't commit either side to dismantling the warheads. It only moves them from deployment. But cutting the number of delivery systems is important because if you don't have the missiles or bombers to launch the warheads, then the warheads aren't much use.

Is there a system in place to keep each country in compliance with the treaty?

Each country has the capacity to monitor the other side's compliance with the treaty. There are satellites that can see what the other side is doing; there are arrangements for the electronic monitoring of test flights and so on; and there are exchanges of inspectors. The two countries have considerable experience of cooperation in this area.

The treaty does not restrict America's plans to build a missile defense shield in Europe. But explain the tensions between Russia and U.S. over that issue.

This was probably the most difficult part of the negotiations. The Russians were eager to get limits on American defenses against ballistic missiles, and the U.S. was very reluctant to include them in this treaty. The Russians are worried what the effect of defense systems would be on their ability to retaliate in the event of an American first strike - as improbable as that is.

Despite that tension, the Obama administration has said it wants to "reset" U.S.-Russian relations. Does this treaty help?

The treaty makes great sense in terms of that agenda. It's an affirmation of Russia's position as a nuclear superpower, and it gives the Russians some assurance that they will maintain the status of an American partner in this area.

What the United States wants is help on issues like Iran and Afghanistan: making sure we can get supplies across Russia to Afghanistan and persuading Russia to continue putting pressure on Iran to back away from making nuclear weapons.

The treaty will have to be ratified by the U.S. Senate. How do you expect that to play out?

The mood in Washington isn't very bipartisan at present, of course. And there are many people who think: why should we have an agreement with the Russians? We're stronger; they're weaker. We shouldn't limit our own flexibility by negotiating agreements. That was a strong view in the Bush administration - that arms control is a bad thing and it only limits our freedom of action. And the issue of missile defense systems will be a contentious issue. There are people who want to see absolutely no restrictions on our defenses against ballistic missiles, whereas that is one of the goals of Russian policy.

How does this treaty fit in with concerns that unstable countries and terrorist groups might get their hands on nuclear weapons?

The Russians aren't about to blow us up, and we're not about to blow them up. The real fear is that other people will get hold of nuclear weapons. In the Obama administration's view, this treaty is part of a single effort to create a tough nuclear regime where states that have nuclear weapons are taking steps toward getting rid of them. And at the same time, the mechanisms for preventing new states - and in particular terrorist groups - from getting hold of nuclear weapons or the materials to make them are being strengthened.

Under the nuclear nonproliferation treaty, which entered into force in 1970, states that have nuclear weapons are obliged to pursue nuclear disarmament, while the states without them have promised not to acquire them. So if you want to strengthen this nuclear regime and make it harder for other states and terrorist groups to get nuclear weapons, then those with the nuclear weapons need to be moving toward zero. That's a key element in the administration's policy. The judgment is that a discriminatory regime is not viable in the long run.

What's the likelihood that we'll get to world free of nuclear weapons?

The president laid that out as a goal, and he said it probably wouldn't happen in his lifetime. Nobody can say that we can get to zero in say 20 years, but we do know what the first steps should be on such a path, and this treaty is one of them.

Before the world could get to zero nuclear weapons, there would have to be certainty that nobody could break out and say, "I've got lots of nuclear weapons, so you better listen to me."

The goal of zero is a vision, but I think it's an essential one because it gives you a sense of the direction you should go in.

What are the next steps Russia and the U.S. will take to reduce their nuclear stockpiles?

It's not clear. There is no agreement to have a further round of talks, but I very much hope there is one. There could be further negotiations on the reduction of strategic forces, but it seems more likely that talks might focus on the possibilities of cooperation in ballistic missile defense and/or on tactical nuclear weapons - the shorter-range systems that are not covered by the new treaty.

Hero Image
Holloway START logo L.A. Cicero
All News button
1
Paragraphs

This article presents a method developed to assess laser Directed Energy Weapon engagements. This method applies physics-based models, which have been validated by experiments. It is used to assess the capabilities of the Airborne Laser (ABL), a system for boost phase missile defense purposes, which is in development under supervision of the U.S. missile defense agency. Implications for international security are presented.

The article begins with a general introduction to laser Directed Energy Weapons (DEW). It is notable that several laser directed energy weapon prototypes have recently become operational for testing. One of them is the ABL, a megawatt-class laser installed into a cargo aircraft. It is concluded that only the ABL could have significant political impact on an international scale at the moment. Hence, the remainder of the article focuses on the assessment of that system. The laser intensity, the induced temperature increase of a target and the impact of this temperature increase on the mechanical properties of the target are calculated for different scenarios. It is shown that the defensive capability of the ABL against ballistic missiles is limited. Even a successful laser engagement that deflects a missile trajectory from its intended target can have negative impact for third parties, as missile warheads will most likely not be destroyed.

All Publications button
1
Publication Type
Journal Articles
Publication Date
Journal Publisher
Science & Global Security
Authors
Jan M. Stupl
-

The term laser weapon implies the use of a laser as part of a so-called directed energy weapon (DEW). In that case, the laser energy is causing the target damage. Military research led to the development of experimental lasers with continuous output powers up to 140 kW in 1966 and two Megawatts in 1980. However, those systems were huge and not part of laser weapon systems.

Since the 1980s the development in the military continued. Remarkably, civilian lasers, developed for industrial machining, have now reached output powers, which can be useful for DEW applications, too. Recently, several prototypes came into operation. On the one hand, there are industry-funded projects that use civilian of-the-shelf industrial lasers. On the other hand, there is government-funded research, which aims at high power laser systems. Major defense companies in the United States and elsewhere are working on both tracks.

Anti-satellite (ASAT) laser engagements would be a revolutionary laser application, as they would in principle enable an option of attacks on satellites with only minor debris. At the moment, attacking satellites implies the use of missiles with kinetic or explosive warheads. A kinetic impact creates debris, which would be harmful to the attacker's space assets, too. For that reason, space faring nations are discouraged from using kinetic energy attacks.

This fact enacts a kind of "natural" arms control. Lasers could change this situation, if they are used to heat up satellites just to a point where their electronics are damaged or only to impair their sensors. Hence, attacks on satellites would be more likely, if laser DEW with anti-satellite capabilities are fielded in peacetime. In a time of crisis, this would create additional political instabilities, as satellites are important early warning and reconnaissance assets.  A deployment of laser ASATs could eventually lead to an arms race in space. In order to make this scenario less likely arms control mechanism could be implemented.

This talk will focus on the technological background of laser ASATs. After a short introduction into recent technological developments, it will be examined whether current laser technology has the ability to endanger satellites. To achieve this, a physics-based method has been devised to assess laser DEW engagements. Damage mechanisms as well as possible distinctions between industrial laser setups and laser weapons will be examined in greater detail.  Options for controlling laser ASATs and obstacles for the implementations of such controls will be introduced.

Jan Stupl is a Postdoctoral Fellow at CISAC. His research concerns the current developments in laser technology regarding a possible application of lasers as an anti-satellite weapon (ASAT), as well as the proliferation of ballistic missiles. The research on laser ASATs focuses on damage mechanisms, the potential sources and countries of origin of laser ASATs and ways to curb their international proliferation. Regarding missiles, Jan is interested in the methods which are used to acquire ballistic missiles and possible ways to control this process.

Before coming to CISAC, Jan was a Research Fellow at the Institute of Peace Research and Security Policy (IFSH) at the University of Hamburg, Germany. His PhD dissertation was a physics-based analysis of future of High Energy Lasers and their application for missile defense and focused on the Airborne Laser missile defense system. This work was jointly supervised by the IFSH, the Institute of Laser and System Technologies at Hamburg University of Technology and the physics department of Hamburg University, where he earned his PhD in 2008.

Jan studied physics at the Friedrich-Schiller-University in Jena, Germany and at Warwick University in Coventry, UK. He concluded his undergraduate physics degree with a thesis in laser physics, receiving a German National Diploma in Physics in 2004. His interest in security policy and international politics was fuelled by an internship at the United Nations in New York in 2003.

Clay Moltz joined the National Security Affairs faculty of the Naval Postgraduate School (NPS) in June 2007. Since November 2008, he has held a joint appointment with the Space Systems Academic Group at NPS. He currently teaches Space and National Security, Nuclear Strategy and National Security, International Relations, and Northeast Asian Security. Prior to his appointment at NPS, he served for 14 years in various positions at the Monterey Institute’s Center for Nonproliferation Studies, including: deputy director from 2003-2007, director of the Newly Independent States Nonproliferation Program from 1998-2003, and founding editor of The Nonproliferation Review from 1993-98. He was also a faculty member in the Monterey Institute’s Graduate School of International Policy Studies.

Dr. Moltz received his Ph.D. and M.A. in Political Science from the University of California, Berkeley. He also holds an M.A. in Russian and East European Studies and a B.A. in International Relations (with Distinction) from Stanford University. Dr. Moltz worked previously as a staff member in the U.S. Senate and has served as a consultant to the NASA Ames Research Center, the Department of Energy’s National Nuclear Security Administration, and the Department of Defense’s Office of Net Assessment. He held prior academic positions at Duke University and at the University of California, San Diego.

Reuben W. Hills Conference Room

0
Affiliate
janstupl_rsd17_076_0352a.jpg PhD

Jan Stupl is an affiliate and a former postdoctoral fellow at CISAC.  He is currently a Research Scientist with SGT, a government contractor, and works in the Mission Design Division at NASA Ames Research Center (Mountain View, CA). In the Mission Design Division, Jan conducts research on novel methods for laser communication and space debris mitigation and supports concept development for space missions.

Before his current position, Jan was a postdoctoral fellow at the Center for International Security and Cooperation (CISAC) at Stanford University until 2011, investigating technical and policy implications of high power lasers for missile defense and as anti-satellite weapons (ASAT), as well as the proliferation of ballistic missiles. The research on laser ASATs focuses on damage mechanisms, the potential sources and countries of origin of laser ASATs and ways to curb their international proliferation. Before coming to CISAC, Jan was a Research Fellow at the Institute of Peace Research and Security Policy (IFSH) at the University of Hamburg, Germany. His PhD dissertation was a physics-based analysis of future of High Energy Lasers and their application for missile defense and focused on the Airborne Laser missile defense system. This work was jointly supervised by the IFSH, the Institute of Laser and System Technologies at Hamburg University of Technology and the physics department of Hamburg University, where he earned his PhD in 2008. His interest in security policy and international politics was fuelled by an internship at the United Nations in New York in 2003.

CV
Jan M. Stupl Postdoctoral Fellow, CISAC Speaker
Clay Moltz Associate Professor, National Security Affairs, Naval Postgraduate School Commentator
Seminars
-

This talk will address alternative options for European ballistic missile defense, including the now cancelled Polish-Czech option and the recently announced Obama plan for a phased deployment of Standard Missile 3 interceptors in and around Europe. This talk will also address recent Iranian progress in developing medium-range ballistic missiles and possible missile defense cooperation with Russia.

Dean Wilkening is a Senior Research Scientist at the Center for International Security and Cooperation at Stanford University. He holds a Ph.D. in physics from Harvard University and worked at the RAND Corporation prior to coming to Stanford. His major research interests include nuclear strategy and policy, arms control, the proliferation of nuclear and biological weapons, bioterrorism, ballistic missile defense, and energy and security. His most recent research focuses on the broad strategic and political implications of ballistic missile defense deployments in Northeast Asia, South Asia and Europe. Prior work focused on the technical feasibility of boost-phase ballistic missile defense interceptors. His recent work on bioterrorism focuses on understanding the scientific and technical uncertainties associated with predicting the outcome of hypothetical airborne biological attacks and the human effects of inhalation anthrax, with the aim of devising more effective civil defenses. He has participated in, and briefed, several US National Academy of Science committees on biological terrorism and consults for several US national laboratories and government agencies.

Reuben W. Hills Conference Room

Dean Wilkening Senior Research Scientist, CISAC Speaker
Seminars
-

"I think that, by and large, the managers wouldn't know a good technique if it hit them in the face." The prominent computer scientist Alan Perlis spoke these words at a second NATO-sponsored Software Engineering conference in 1969. He underscored a conflict that would persist in the decade that followed that ill-tempered meeting, as computer professionals organized in the name of "software engineering," many sponsored by the U.S. defense department. Yet software cost overruns are frequent, and glitches occasionally turn deadly, leading many to argue that "software engineering" is not yet worthy of the name.
 
How should we understand the emergence of software engineering: the agendas of its proponents, sources of controversy, and its relationship to diverse defense department interests, including security, reliability, and timeliness, and costs? This chapter-in-progress addresses this question using both qualitative historical materials and social network data. The Defense Department's interest in software research was nurtured by budgetary cuts that followed anti-war protests in the early 1970, making economics a dominant, if controversial theme in "software engineering" research. Debates about the meaning and direction of software engineering often invoked binary divisions, between managers and technical people, industrialists and academics, pragmatists and theoreticians. After describing these debates from the ground up, I use network analysis to provide bird's eye view: to what extent were commonly evoked dualisms reflected in practices of publication, and how did this change as the field became institutionalized? More broadly, can network analysis contribute meaningfully to a historical account employing "thick description," and if so how?

Rebecca Slayton is a lecturer in the Science, Technology and Society Program at Stanford University and a CISAC affiliate. In 2004-2005 she was a CISAC science fellow. Her research examines how technical judgments are generated, taken up, and given significance in international security contexts. She is currently working on a book which uses the history of the U.S. ballistic missile defense program to study the relationships between and among technology, expertise, and the media. Portions of this work have been published in journals such as History and Technology and have been presented at academic conferences. As a postdoctoral fellow in the Science, Technology, and Society Program at the Massachusetts Institute of Technology, in 2004 she completed an NSF-funded project entitled Public Science: Discourse about the Strategic Defense Initiative, 1983-1988.

As a physical chemist, she developed ultrafast laser experiments in condensed matter systems and published several articles in physics journals. She also received the AAAS Mass Media Science and Engineering Fellowship in 2000, and has worked as a science journalist for a daily paper and for Physical Review Focus. She earned her doctorate in chemistry from Harvard University in 2002.

Eric Roberts, after receiving his Ph.D. in Applied Mathematics from Harvard University in 1980, taught at Wellesley College from 1980-85, where he chaired the Computer Science Department. From 1985-90, he was a member of the research staff at Digital Equipment Corporation’s Systems Research Center in Palo Alto, California, where he conducted computer science research, focusing on programming tools for multiprocessor architectures. In September 1990, Roberts joined the Stanford faculty, where he is now Professor of Computer Science and the John A. and Cynthia Fry Gunn University Fellow in Undergraduate Education.

From 1990 to 2002, Professor Roberts was Associate Chair and Director of Undergraduate Studies for Computer Science. In that capacity, he was the principal architect of Stanford’s introductory programming sequence, which for many years held the distinction of being the largest course at Stanford. He has also written four computer science textbooks that are used at many colleges and universities throughout the world. His research focuses on computer science education, particularly for underserved communities. From 1998 to 2005, Roberts was Principal Investigator for the Bermuda Project, which developed the computer science curriculum for Bermuda’s public secondary schools.

CISAC Conference Room

Rebecca Slayton CISAC Affiliated Faculty Speaker
Eric Roberts Professor of Computer Science, Stanford University Commentator
Seminars
Paragraphs

Jeff Richardson, a senior scientist at Lawrence Livermore National Laboratory, outlines the rationale for retiring land-based ballistic missiles and leaving a strategic dyad of submarine-launched missiles and air-delivered weapons as the backbone of the U.S. nuclear arsenal.

All Publications button
1
Publication Type
Journal Articles
Publication Date
Journal Publisher
Bulletin of the Atomic Scientists
Authors
Jeffery H. Richardson
Subscribe to Missiles