Archived Newsletters

Executive Committee

FIP Executive Committee 2007 in Jacksonville

Executive Committee

Sitting: Betty Tsang, Gyöngyi Baksay, Noemi Mirkin, Lidia Smentek.

Standing: Herman Winick, Irving Lerch, David Ernst, László Baksay, Galileo Violini, Hermann Uys (guest), Raymond Bishop, John Clark, Satoshi Ozaki

View from the Chair

By Herman Winnick

Welcome to this issue of the FIP Newsletter. For these provocative and illuminating articles we owe much to the authors, our editor Laszlo Baksay, and the members of the FIP Executive Committee who solicited or wrote these articles which cover many topics relevant to international physics. They range from Mansouri’s description of how Iranians understand the word “science” to the last note on nuclear proliferation by Pief Panofsky’s, the towering figure of US science and international arms control who died in October, 2007.

FIP Activities in 2007
In the limited space I can only touch on some highlights of FIP activities in 2007. As is well known, much effort goes into the planning of FIP sponsored sessions at APS meetings. At the March 2007 APS meeting FIP cosponsored (along with FPS) a very topical session on Scientific Cooperation in the Middle East, featuring talks on two major projects; SESAME (with perspectives from Iran and Israel) and Bridging the Rift. An in-depth look at the Digital Divide was provided by two sessions at the April meeting, cosponsored with DAP and DPB. Details on these presentations are available on the Meetings tab on new FIP website. In addition to informing the audience, these sessions provide an opportunity for the speakers to meet and pursue their mutual interests.

FIP continued its support and direct involvement with the expanded and very successful International Travel Grant Award Program, which supports collaborations between a US physicist and one from a developing country. ITGAP was initiated in 2004 by James Vary with $10K of startup funding by FIP. It has now been expanded with financial support from other APS Units (DNP, DPB, DPF, DPP) as well as the APS International Office and the US Liaison Committee for IUPAP. Contributions total $48,000. To date there have been six award cycles resulting in fourteen grants totaling $26,500. ITGAP is now an ongoing program administered by the APS Committee on International Scientific Affairs (CISA). Twice each year there are calls for proposals. See the Prizes and Awards tab on the FIP website for details.

In 2006 Irving Lerch, then FIP chair, initiated outreach to several groups of physicists with roots abroad and working in the US, including the Overseas Chinese Physics Association (OCPA), the American Chapter of the Indian Physics Association (ACIPA), the Association of Korean Physicists in America (AKPA), and the Iranian-American Physicists (IrAP) Network Group. This outreach is expanding, with these groups joining in sponsoring the FIP receptions, and discussions of other ways that FIP and APS can assist these groups.

Of course the above activities, and new initiatives, are limited by the funding available to FIP. Our main source of funds comes from APS and is proportional to our membership, so I urge you to spread the word about FIP to your colleagues, and let them know that APS members can join FIP at no additional cost. Just point them to the web page.

It is a pleasure to welcome nine new FIP sponsored APS Fellows, including two very deserving members of the FIP Executive Committee. See their names and citations in this newsletter.

I also draw your attention to the many international activities of APS described in the article in this newsletter.

Protecting and Defending International Science
Members of APS, particularly those who are also members of FIP, recognize the international nature of science and the importance of unrestricted travel, collaboration and communication among scientists. This was famously expressed by Anton Chekov who said “There is no national science just as there is no national multiplication table; what is national is no longer science.”

I focus on this topic because, unfortunately, in the past year there were two attempts to violate these important and widely accepted principles. The first was the action by lawyers of the American Chemical Society (ACS) to expel 34 of its members who live in Iran, in an erroneous interpretation of rules relating to US sanctions against Iran by the US Treasury Department Office of Foreign Assets Control (OFAC). Remarkably they took action without pressure from the US government and without the knowledge of the ACS Executive Officer, Council, or President. As such it was due at least in part to a failure of ACS management and poor communication within ACS. The second action was a resolution passed by the membership of the University and College Union (UCU) of the UK to boycott Israeli academics, as an expression of criticism of actions of the government of Israel. Fortunately, due largely to a strong reaction by many individuals and organizations in the worldwide scientific community, both of these actions have been reversed.

Since the expulsion of Iranians from ACS could have set a precedent for APS to do the same, the FIP Executive Committee was very pleased to hear from APS Executive Officer Judy Franz that APS would continue to serve its Iranian members. Judy worked behind the scenes to get ACS to reverse their action. At the April 2007 meeting of the FIP Executive Committee the following message was approved and sent to Judy Franz:

“The Executive Committee of the APS Forum on International Physics applauds and fully supports your decision to maintain the universality of APS membership world-wide, consistent with previous resolutions of the APS Council.

“Specifically, we were disturbed by the decision of our sister society, the American Chemical Society, to expel Iranian members in the mistaken impression that such membership was in violation of US Treasury Department rules associated with the US embargo of Iran. We are aware that previous findings of the US Office of Foreign Assets Control (OFAC) make clear that APS international membership is in full compliance with US law and the purposes of APS.”

Regarding the proposed UCU boycott of Israeli academics, the APS Council took a strong position in opposition by reiterating its November 12, 1989 Statement on the International Nature of Physics and International Cooperation., the preamble of which states:

"Science belongs to all humanity and transcends national boundaries. As in the past, science can serve as a bridge for mutual understanding across political and ideological divisions and as a vehicle for the enhancement of peace. In particular, APS believes that it is important at this time to strive for more open dialogue among scientists to enhance international cooperation."

Other organizations expressed their concern about the proposed boycott of Israeli academics. For example, in commenting on the UCU action the following statement was made by the International Council for Science (ICSU):

“Recent moves to foster an academic boycott of Israeli scientists and the dismissal of two Israeli scholars from their roles on the editorial boards of two journals published in the United Kingdom are a flagrant breach of this principle and have rightly drawn substantial adverse comment from scientists, newspaper columnists and human rights activists in the United Kingdom.

On behalf of the Executive Board of ICSU, we draw attention to these events to remind all our national member academies and research councils and our scientific unions and associates of the critical importance of the principle of non-discrimination and of the need for constant vigil in securing its continuing adoption. We understand the strong feelings generated by conflicts, for example that in the Middle East, and the desire of individuals and groups to avoid contact, actively boycott or otherwise demonstrate distaste or disgust for the actions of nation state governments and others. But to do so through the medium of individual scholars is to sacrifice a profoundly important principle of freedom.”

Due to my involvement with the SESAME project, which is building a synchrotron radiation research center in the Middle East as a cooperative venture of nine Middle East countries, I was able to send personal notes to several scientist colleagues in Islamic countries as well as Israel, first about the ACS action and later about the UCU action. The Iranians were understandably very pleased with the strong stand taken by APS and FIP opposing the ACS expulsion of Iranian scientists. Later, when they learned about the proposed boycott of Israeli academics, they joined in the criticism of UCU. A prominent Iranian scientist wrote the following to the UCU:

“Let me express my sincere opposition to the boycott of Israeli academics that is being considered by the University and College Union. As a scientist living in the Middle East, I appreciate the move of UCU to express its unhappiness about the restrictions being made by Isreali forces to the Palestinian students and academics. However, the decision made by UCU is violating the same principles one is trying to defend. It is hard to accept that the Isreali academia are proponents of such restrictions.”

An Iranian scientist defending Israeli academics speaks volumes about the international nature of science and the importance for all to be vigilant in defending the principles involved.

APS International Programs

International Travel Grant Award Program
The International Travel Grant Award Program (ITGAP) was established to promote international scientific collaborations between APS members and physicists in developing countries. Grant recipients recieve up to US $2,000 for travel and lodging expenses for international travel while visiting a collaborator for at least one month. One or both partners in the collaboration must be a member of at least one of the APS units that supports ITGAP*. There are two competitive application cycles each year. 

*Forum on International Physics (FIP, and the Divisions of Nuclear Physics (DNP), Physics of Beams (DPB), Particles and Fields (DPF) and Plasma Physics (DPP). 

Journal Distribution

  1. Free online access for institutions in Sub-Saharan Africa & Bangladesh: 
    In 2006, the American Physical Society established a program that provides free on-line access to its journal for non-profit institutions located in eligible countries in Sub-Saharan Africa through 2008. In addition, Bangladesh was added in 2007. This program is made available through the International Network for the Availability of Scientific Publications (INASP) Programme for the Enhancement of Research Information (PERI). PERI provides researchers in developing and transitional countries with access to international, scholarly literature from a wide range of disciplines. 
  2. ICTP Electronic Journals Delivery Service:
    APS participates in the Electronic Journals Delivery Service (eJDS), which is administrated by the Abdus Salam International Center for Theoretical Physics (ICTP). This service is aimed at providing scientific literature to scientists at institutions in developing countries that do not have access to sufficient bandwidth, thus, making it impossible or too difficult to download material from the internet. Through eJDS, scientists receive individual mathematics and physics journal articles via e-mail. 
  3. CD-ROM versions of APS Journals:
    Each year, APS provides ICTP with a limited number of CD-ROMs that ICTP distributes to academic and research institutions in developing countries. The CD-ROMs are mounted on a server for use by individuals at that institution. 
  4. FIP Journal and Book Exchange Program:
    The APS Forum on International Physics (FIP) maintains a list of prospective donors and the books and/or journals that they have available for donation. The recipient typically pays for shipping. 
  5. Consortia:
    APS has established multi-institutional agreements (consortia) in many countries to help broaden access to institutions that might otherwise be unable to afford or gain access. 
  6. Iraqi Virtual Science Library:
    APS is one of many publishers that are partners in the Iraqi Virtual Science Library (IVSL). The IVSL is a digital portal that provides Iraqi universities and research institutes with free access to millions of full text articles form over 17,000 premier scientific and engineering journals and their archives, in addition to technical content and educational resources. Its goal is to help rebuild the educational and scientific infrastructure in Iraq. The IVSL is a broad public/private partnership with participants from several U.S. government agencies, private companies, professional scientific associations, technology companies, scientific publishers and information providers.

Lectureships 
Each year the APS Committee on International Scientific Affairs (CISA) invites the APS division, Topical Groups and Forums to submit nominations of candidates for four leaderships that are awarded each year. The lectureships support travel for distinguished speakers during units' sessions at the March and April APS meetings. 

  • The Beller Lectureship was endowed by the estate of Esther Hoffman Beller for the purpose of bringing disntiguished physicists from abroad as invited speakers at APS meetings.
  • The Marshak Lectureship endowed by the late Ruth Marshak in honor of her late husband and former APS president, Robert Marshak, provides travel support for physicists from developing nations or Eastern Europe who are invited to speak at APS meetings. 

Visa Information
The APS visa web site provides APS members and international visitors with information and news on matters related to U.S. visas. This site serves as a resource for updates on U.S. visa policy as well as information on how to apply for a visa to the United States.

Matching Membership Program
The Matching Membership Program was established in order to make APS membership available to physicists living in developing and hard-currency-poor countries. Through the Program, individuals residing in eligible countries may apply for a reduced-cost membership (i..e. Matching Membership). Matching Membership is available in two categories:

  1. Sponsored: A half-price membership is available to those who have an individual or institution who will sponsor them and provide payment. Members at this level can subscribe to a maximum of one (1) journal at member rates and register for APS meetings at member rates, in addition to receiving APS News and Physics Today. Participation is limited to six years.
  2. Fund: A free membership is available to individuals on a limited basis. Applicants who are unable to pay and who do not have a sponsor may request APS support. The term of participation in the Fund category of the Matching Membership Program is four years. Participants receive APS News and Physics Today as part of their membership. While no journal publications are included in this category of the Matching Membership Program, some participants may be eligible to access APS journals for free via other programs.

Enrollment in the Matching Membership Program is limited to 1.5% of the current APS membership level.

Human Rights
APS is committed to the human rights of physicists. Through its Committee on International Freedom of Scientists, APS monitors and advocates for the rights of individual scientists in the United States and around the globe. The Society also awards the Andrei Sakharov Prize every two years to a scientist “to recognize outstanding leadership and/or achievements…in upholding human rights.” Please see APS Human Rights website and Andrei Sakharov Prize website.

CAM 2007

By Szabolcs Rembeczki*

The author with the invited roundtable panelist Professors.

The third CAM (Canadian-, American-, Mexican Physical Societies) graduate student conference was held in August of 2007 in the beautiful historical city of Montreal. With its old-world atmosphere, Canada’s second-largest city is also famous for its cosmopolitan mishmash of cultures. The meeting itself was hosted by McGill University, where Ernest Rutherford performed his famous experiments together with others like Soddy.

The CAM conference series is organized with joint support from the Forum on Graduate Student Affairs (FGSA) of the American Physical Society (APS), the Sociedad Mexicana de Física (SMF) and the Canadian Association of Physicists (CAP). This time the organizing committee consisted of physicists from Canadian universities ( McGill U., U. of British Columbia, U. of Montreal) together with representatives of physics organizations from each of the three participating nations.

Montreal Panorama

The first CAM conference was organized in Merida, Mexico (2003), and the second meeting was held in San Diego (2005). The CAM physics graduate student conferences provide an opportunity for students of North American universities to share their diverse research experiences from various fields of physics. These conferences also promote collaborations, which are becoming more and more important in today’s global physics society. International scientific meetings, such as CAM conferences, also provide graduate students with insight into different physics societies, representing today’s extending international character of physics.

Plenary sessions, held by invited physicists from the three countries, opened the student presentations on each day. These sessions brought up interesting topics from various subfields, such as physics at the energy frontiers or biomedical imaging and therapy at the Canadian Light Source, just to mention two. The wide variety of student presentations ranged from several branches of experimental physics, theoretical physics, applied and technical physics to subjects from astronomy and cosmology. Besides these oral presentations, a poster session was also organized with poster topics not only from research and development in physics, but also from physics applications and education. This poster session and the coffee breaks between the talks gave participants opportunity to chat with each other and to exchange experiences from different countries.

A roundtable panel discussion called for attention to the problems and solutions for the next generation of physicist. This discussion highlighted exciting directions in physics, education, and also the important contributions of physics in multidisciplinary science, which is becoming more and more predominant. The invited panelists, Professors Castillo, Dilling, Finkelstein and Marchildon, also addressed current questions, issues, and challenges in physics and discussed them with the participating students. Issues of funding, opportunities for women in physics, importance of physics education and its development, inclusiveness, career paths, and the problems of academic career-couples were topics of great interest. These issues are especially relevant and important from the point of view of the future of present graduate students.

Before the end of the conference, a banquet was held on the last evening, giving everyone a taste of the nightlife of Montreal, which is one of the liveliest cities in North America.

As a conclusion, this 2007 meeting of physics graduate students in Montreal showed the importance and usefulness of the CAM conference series in promoting international collaboration in physics, and in sharing experiences of physicists from different countries.

* Szabolcs Rembeczki received his M.S. in Physics from the Kossuth University, Debrecen, Hungary and is now a PhD candidate at the Florida Institute of Technology.

The Role of the US Particle Accelerator School in International Science

By William A. Barletta, Director, United States Particle Accelerator School, and Adjunct Professor of Physics, MIT

Accelerators are essential tools for discovery in fundamental physics, biology, and chemistry. Particle beam based instruments in medicine, industry and national security constitute a multi-billion dollar per year industry. More than 55,000 peer-reviewed papers having accelerator as a keyword are available on the Web. Yet only a handful of universities offer any formal training in accelerator science.

Graphs

The United States Particle Accelerator School (USPAS) is National Graduate Educational Program that has developed an educational paradigm that, over the past twenty-years, has granted more university credit in accelerator / beam science and technology than any university in the world. The USPAS Director selects highly qualified instructors from university faculty members and senior researchers from national laboratories and industry drawing on their practical experience in specific technical fields.

Governed and supported by a consortium of nine DOE laboratories and two NSF university laboratories, USPAS offers a balanced curriculum of science, engineering and hands-on courses at the graduate level. Our sessions, held twice annually in January and in June, are hosted by top US research universities that approve course content, certify the USPAS faculty, and grant course credit. The courses run 10 days in duration. Students may register for one full course (at least 45 contact hours) or they may choose two half-courses (at least 23 contact hours each) where each half-course is one-week in duration. By successfully completing the course requirements that include lectures, daily problem solving and examinations, students can earn university credit. A full-course earns three semester hours of host university credit; each half-course earns 1.5 semester credit-hours.

The USPAS has attracted more than 4200 attendees (2850 individuals) in its 36 academic sessions since the first such program at the University of Chicago in 1987. Originally serving as a continuing education program for employees of and students at our sponsoring institutions, the USPAS now boasts a student population consisting of ~ 60% graduate and post-graduate students from universities around the world. Of the approximately 120 - 140 students who attend each session, roughly two-thirds enroll for university credit.

Graduate and undergraduate students in university degree programs who take our classes for credit generally qualify for financial assistance from the USPAS at its semi-annual programs. A USPAS scholarship covers the registration fee, books, shared housing and 2 meals per day during the program. While international students without a student visa cannot receive formal credit, they are also eligible for scholarship support on the recommendation of their advisor as long as they agree to complete the same homework and exams as for-credit students.

USAPS Students

The USPAS reaches a broad international audience of students that reflects both the relative increase in accelerator projects in Europe and Asia as compared with the US and the preferences of our students for rigorous academic courses that are a distinguishing hallmark of the USPAS curriculum as compared with the seminar style courses given elsewhere in the world. During the past ten years, attendance of international students has increased to roughly 25%. That number does not include students already in the US studying at US universities. The participation by women has grown more slowly to ~15%; peaks in female attendance are typically due to non-US attendees.

A notable dip in attendance by international students in 2006 was due to difficulties in their obtaining visas to enter the US. Happily, this situation seems to be improving as few students were denied visas in 2007. The USPAS is pleased to have a sizable participation by students from developing countries. At present the participation by Asian and South American students is strong. To boost the attendance by students from other regions we are seeking to cooperate with professional societies (such as the APS) and research institutes to secure travel support for prospective students. Once the student is selected for travel support USPAS will agree to scholarship support of the student. Our first success along this line is an arrangement with organizers of the African light source initiative for five South African students to attend our January 2008 session devoted to synchrotron light sources and free electron lasers.

Other means of international outreach include the organization of jointly sponsored sessions in other regions. We are presently exploring the possibility of holding classes in China emphasizing the accelerator physics of spallation sources and in Brazil emphasizing synchrotron radiation sources and free electron lasers. The USPAS is dedicated to open science without borders especially in training the next generation of scientists and engineers engaged in accelerator-based science. We would welcome the collaboration of the APS in this endeavor.

The UNESCO Physics Action Council

1993-1999
Irving A. Lerch
Past Chair, Forum on International Physics, the American Physical Society
Trustee, Americans for UNESCO
Former Director of International Affairs, the American Physical Society
Professor and Director, Radiation Oncology Physics, New York University, retired

[SEE ME CONCERNING PROPER ATTRIBUTION OF UNESCO PUBLICATION]

In the early 1990s, physics—one of the most global of scientific enterprises—began to look to UNESCO as an instrument to unify and coordinate the international outreach of the global physics communities. Several developments fueled this interest: the signing of a new tripartite agreement between UNESCO, IAEA and the Government of Italy assigning governance responsibility to UNESCO for the International Center for Theoretical Physics in Trieste; the sponsorship by UNESCO of CERN, the rise of developmental programs in Latin America, Africa and Asia; and the growing realization that a new framework was needed to coordinate research, education and intellectual exchange worldwide. Most important, physics had become a tool for intellectual, cultural and economic development in furtherance of UNESCO’s great cross-cutting goals.

On 24-25 June, 1993, Director General Federico Mayor and Assistant Director General for the Natural Sciences, Adnan Badran, convened a consultative meeting in Paris entitled, “UNESCO and the International Physics Community: An Agenda for Scientific Cooperation.” Invited participants included distinguished physicists from Russia, ICTP, the Association of Asia-Pacific Physical Societies, the American Physical Society, OECD, the French Physical Society, the European Physical Society, the Commission of the European Communities, IUPAP, the German Physical Society, the French Government and other organizations. The organizers of the conference were Siegbert Raither, head of mathematics and physics programs in the Division of Basic and Engineering Sciences and the Division Director, Vladimir Zharov.

At the conclusion of the meeting, the participants submitted a recommendation to Director General Mayor recognizing UNESCO’s growing importance to international science and recommending that priority be given to physics in developing countries, sustaining excellence of the physical sciences in East-Central Europe and the emerging states of the former Soviet Union, and promoting megaprojects in the physical sciences. A statement of general principles emphasizing the important roles of learned societies and partnerships between the public and private sectors recommended that a physics action council be convened to superintend the goals of UNESCO.

The Director General appointed ten senior physicists to the council and charged them with promoting international cooperation and collaboration and to provide counsel and guidance to UNESCO and its management. Donald Langenberg, then President of the American Physical Society and Chancellor of the University of Maryland System was made chair. The other appointees were F.K.A. Allotey (Ghana), Carlos Aguirre (Bolivia), Sivaramakrishna Chandresekhar (India), Michiji Konuma (Japan), Norbert Kroo (Hungary), Yuri Novozhilov (Russia), Herwig Schopper (Germany), Yang Guo-Zhen (China), and Irving Lerch (United States). Siegbert Raither was assigned as Secretary to the council.

The Physics Action Council (PAC) convened an organizing meeting in April, 1994, and developed a work plan based on three working groups: Large Physics Facilities (Schopper, chair, Aguirre and Kroo); Communications Networks for Science (Lerch, chair, Novozhilov and Langenberg); and University Physics Education (Konuma, chair, Yang, Chandrasekhar and Novozhilov). The PAC remained an active component of the Organization’s programs throughout the period of Mayor’s tenure as Director General (1994-’99).

Almost immediately, the council’s working groups began an aggressive program of international outreach, organizing meetings and workshops on telecommunications, access to large international research facilities and new approaches to invigorate physics education. The physics facilities working group held meetings in Japan, Paris, Brussels and Cuba and focused on projects in developing countries such as the Auger Giant Airshower project in Latin America, small accelerators in the Carribean and, ultimately, the SESAME project in Jordan. Telecommunications workshops were convened in Japan, China, Russia, the Philippines, Ukraine and Ghana—supported with resources provided by UNESCO, NATO, NSF and other funding organizations. Training for network administrators, programmers and technicians designed to promote internet access was the focus of these efforts. The role of physics education in capacity building led the education working group to survey successful programs and to examine ways of finding exceptional talent at the M.Sc. and Ph.D. levels in developing countries. In all cases these efforts were directed to complementing and strengthening the programs of the Science Sector and ICTP.

Today, the afterglow the council’s activities may be seen in the UNESCO-supported SESAME project, the programs of the telecommunications and informatics sectors of the Organization, and in the awareness that science education plays a crucial role in developing the intellectual capacity of a nation.

Can Nuclear Proliferation be Stopped?*

By Wolfgang K.H. Panofsky

The Fundamentals of Proliferation
Throughout the history of humanity, any new technology once invented and developed has diffused across the globe. Moreover, almost all new technologies have had dual use -- that is, they could be used to improve the human condition or they could be make the tools of violence even more destructive. We are now facing the inevitable sequel of this evolution as it relates to nuclear weapons. The world simply cannot afford to let nuclear weapons technology and acquisition diffuse all over the globe, considering the enormous destructive of even an individual nuclear explosive. So the historical tradition must be reversed in the case of nuclear weapons, but how is this to be accomplished?

The NPT Bargain
Recognizing the necessity of stemming nuclear weapons proliferation, numerous discussions and initiatives took place during the 1950’s and 1960’s. In 1953, President Eisenhower in his Atoms for Peace speech touted the benefits of nuclear power for peaceful goals, but expressed confidence that the military uses could be constrained.

Follow-on discussions led by the United States culminated in the signature in 1968 of the Nuclear Nonproliferation Treaty (NPT); a sufficient number of states ratified for the Treaty to come into force in 1970. The NPT established a complex bargain between Nuclear Weapons States (NWS) and Non-nuclear Weapons States (NNWS), with those terms designating states who had tested or not tested nuclear weapons by 1968. Non-nuclear Weapons States were enjoined from acquiring nuclear weapons and Nuclear Weapons States were forbidden to transfer nuclear weapons and the wherewithal to make them to an NNWS. To compensate for this obviously discriminatory division of the world’s nations into have’s and have-nots, NNWS received an “inalienable right” to the peaceful applications of nuclear energy, and the NWS obligated themselves in Article VI of the NPT to work in good faith towards nuclear disarmament.

The Challenge of the NPT Bargain
Not unexpectedly, some weaknesses in the NPT bargain had been evident since its creation. The NWS were unwilling to accept a designated timetable for nuclear disarmament and the NNWS were not restricted on the nature of the fuel cycle they were able to undertake in pursuit of civilian nuclear power. This latter failure to restrict the nuclear fuel cycle weakens the NPT through an evident technical factor: enrichment of natural uranium to low enriched uranium (LEU) produces the basic fuel for the vast majority of the world’s nuclear reactors today. Highly Enriched uranium (HEU) approaching 90% in the isotope U-235 additionally is an essential ingredient for most nuclear weapons; yet production of HEU and LEU requires the same technology. Additionally, spent fuel contains varying amounts of plutonium generated by neutron capture in the original fresh fuel in the reactor. Separating this plutonium from spent fuel, or reprocessing, together with enrichment can be interpreted to be part of the “inalienable right” to peaceful nuclear energy. Yet these processes clearly shorten the lead time for an NNWS to produce nuclear weapons, once it decides to withdraw from the Treaty or violate it.

The NPT provides that each party may withdraw after giving a 6 month notice stating its reasons for withdrawal. Thus a NNWS legally can make preparations to commence a dedicated nuclear weapons program after having acquired the nuclear fuel cycle technologies, including reprocessing or enrichment, and then withdraw from the Treaty.

The foregoing illustrates the risk that under the NPT, some of the NNWS might prepare for “breakout” from the nonproliferation regime while still complying with the NPT. But no less important is the very real risk that the NWS may flaunt their nonproliferation obligations. The problem here is that the the NPT does not define the obligations of the NWS in quantitative actionable terms.

Specifically, states such as the U.S. and Russia who substantially reduced their enormous nuclear weapons stockpiles but still retain many thousands of nuclear weapons, can and do claim that they are in compliance with the NPT. But the still enormous lethal holdings of nuclear weapons by the NWS make their pleas to the NNWS to forego nuclear weapons sound hypocritical, not unlike preaching abstinence while brandishing a glass of booze.

Nuclear Weapons Graph

How Much Nuclear Weapons Proliferation to Date?
The United States detonated its first test weapon in Alamogordo on July 16, 1945, and two bombs of yield about 1/20th of the average explosive power of weapons in today’s stockpile killed one-quarter of a million people in Hiroshima and Nagasaki. The Soviet Union broke the U.S. monopoly in 1949 through “Joe I,” its first nuclear test. Subsequently, as illustrated in the Figure, eight other countries followed suit. The good news is that well over a dozen countries initiated but then terminated their nuclear weapons programs when they were persuaded that their security is served better without nuclear weapons than with them.

The growth in nuclear weapons states has been much slower than most knowledgeable analysts predicted several decades ago. The world is much better off in consequence of the enactment of the NPT.

The Current Threat
Notwithstanding the partial success of the NPT regime, threats to the endurance of that regime are accumulating. Three countries (India, Pakistan, and Israel) remain outside the Treaty, and North Korea withdrew from the Treaty after being accused of violations; currently, efforts are in progress to woo North Korea back into the fold.

Iran has invoked its “inalienable” right to pursue an enrichment program, and the Western powers accuse Iran of driving for nuclear weapons status; however everyone should recognize that maintaining an option for future nuclear weapons acquisition and definitely intending to do so are not the same. We also note that Brazil continues its enrichment program notwithstanding its ample supply of hydroelectric power. Japan has accumulated over 40 tons of separated plutonium, one-tenth of which is located in Japan with the rest remaining in Europe. Thus, all these states might be considered “latent proliferators.”

The foregoing troubling developments relate to the NNWS. In parallel, the NWS claim to be in compliance with their obligation under Article VI of the NPT to proceed towards nuclear disarmament, yet all of them are operating programs which signal to the world that they are depending on nuclear weapons for their security for the indefinite future. Only China has officially declared a No First Use Policy, that is a policy not to use nuclear weapons unless attacked with nuclear weapons first.

The NPT provides for Review Conferences of the working of the NPT every five years following preparatory meetings. During the 1995 Review Conference the NPT was converted to a Treaty of indefinite duration. However, the most recent Review Conferences have been acrimonious, exhibiting the sharp division between the NWSs maintaining to be in full compliance with the NPT and the NNWS complaining about its discriminatory aspects.

Remedies to Threats to the Nonproliferation Regime
No single “silver bullet” can remove the inherent tensions, contradictions and risks of latent or outright violations inherent in the NPT regime. But much can and should be done to reduce the risks. The dominant need is to deemphasize the role of nuclear weapons in international security affairs. As the unquestioned leader in conventional armaments, the United States has most to gain by strengthening the NPT regime since the US can deal with essentially all non-nuclear threats by conventional, that is, non-nuclear means. The United States has the most to lose if new Nuclear Weapons States emerge. Nuclear weapons are the “great equalizer” : even a handful of nuclear weapons dramatically increases the political leverage of a present NNWS in relation to the United States.

The United States should convert its present ambiguous nuclear weapons policies to a simple doctrine that the only justifiable remaining mission of nuclear weapons is to deter the use of nuclear weapons by others. Under such a narrow doctrine, the United States could drastically reduce its stockpiles beyond its present numbers. Renewed vigor to negotiations with Russia to reduce their excessive nuclear forces should follow. In particular the large number of tactical nuclear weapons and weapons held in reserve should be brought under control.

Civilian nuclear power is justifiably slated for a major revival, together with its inherent proliferation risks. The NPT requires each NNWS to negotiate an agreement with the International Atomic Energy Agency to provide for “safeguards,” that is, an inspection regime designed to prevent diversionary activities. Despite the efforts to redesign the relevant technologies there is no such thing as a “proliferation-proof” nuclear fuel cycle; the various approaches only differ by the level of safeguarding required to prevent diversion. The important element should be transparency which publicly links the fuel cycle activities to a reasonable nuclear energy program. Beyond that, the only possible remedy is to internationalize the enrichment and reprocessing components of the nuclear field cycle by having those elements under ownership and control of an international agency which guarantees an assured supply of low enriched fuel to all states while providing for safeguards of the nuclear facilities. Selective enforcement arrangements among “coalitions of the willing” to restrict transfer of nuclear materials will only perpetuate the discriminatory pattern.

But above all, proliferation can be stopped only if motivation to nuclear proliferation can be curtailed through an increasing emphasis on diplomatic solutions to resolve conflict and a de-emphasis of violence, in particular, violence using nuclear weapons.

*An earlier version of this article first appeared in The Bulletin Online on August 3, 2007.

Wolfgang K.H. PanofskyObituary for Pief
Sidney Drell, Deputy Director Emeritus, Stanford Linear Accelerator Center
Wolfgang K.H. Panofsky (known universally as Pief) died at home of a heart attack on September 24, 2007 at the age of 88. Recognized worldwide as a great physicist and the founding Director of the Stanford Linear Accelerator Center, Pief was also influential in advising the government and speaking out publicly on major issues of national security and arms control, particularly concerning nuclear weapons. His contributions on national security, that started during the Eisenhower administration when he led a technical study on the ability to verify a ban on explosive testing of nuclear weapons in space, continued to the very end of his life. In fact he spent the day he died in his office working and writing about his concerns of nuclear proliferation and urging major reductions and eventual elimination of nuclear weapons. He was also eagerly anticipating the publication the following week of his recently completed informal autobiography “Panofsky and Physics, Politics and Peace: Pief Remembers.” Above all Pief will be remembered as a beloved leader of modern physics with a warm humanity, and uncompromising integrity and commitment to principles in which he deeply believed.

International Interdisciplinary Research Facilities In A Scientific US-Senegal Partnership

By Drs. Paul Guèye (Hampton University, Virginia), Oumar Ka (University Cheikh Anta Diop, Senegal), Wendell Hill (University of Maryland College Park, Maryland), Keith Jackson (Florida A&M University, Florida), Anthony Johnson (University of Maryland Baltimore County, Maryland), Lawrence Norris (National Society of Black Physicists, Virginia)and Quinton Williams (Jackson State University, Mississippi)

There is an international partnership of more than 70 countries that aims at constructing two international research facilities located in the United States and Africa. The US-based facility will host a multi-ultra fast laser system and the African-based facility two proton accelerators.

Background
Initiated in 1993 in Senegal (West Africa), this project has spinned-off to the US in 1999. Since then, three meetings were held (American Physical Society in 2002, National Science Foundation in 2003 and Senegalese Government in 2003), and four workshops were organized (three in the US - Hampton University in 2004, Jackson State University in 2005, and during the National Society of Black Physicists in 2006 -- and one at the World Congress on Medical Physics and Biomedical Engineering in Seoul, also in 2006). The current development of this partnership includes drafts for a full design of all systems at each facility, as well as the physics and educational programs to be implemented.

Front view of the international research facilities (courtesy of Archi Design).

Both facilities were developed to provide multi-disciplinary research centered on a common technology, ultra fast laser for the US and proton accelerators for Senegal. The project aims at providing a tool for scientists where interdisciplinary aspects could be shared to answer fundamental issues in science.

Similarly, the Senegal facility was conceived for scientific capacity building and equally to act as a focal point aimed at using the local scientific expertise. An anticipated outcome would be a contribution to the reduction of an ever-growing brain drain process suffered by the country, and the African continent in general. The past few years has seen the involvement in the project of a group of highly qualified scientists from various fields (materials science, atomic physics, physical chemistry, medical physics ...). The eventual development of the idea led also to a strong African orientation of the facility, much in the philosophy of the New Partnership for Africa Development (NEPAD). Indeed, although built for international collaboration, it is to be a pan-African endeavor (i.e., located in Senegal but to serve primarily African countries).

The International Facilities
The US facility will host a complex ultrafast laser system. These types of lasers have typically a micron spot size, a few tens or hundreds of femto seconds in time duration and can have up to Peta Watts of power. Applications of such ultrafast lasers range from astrophysics and nuclear/high energy physics to plasma physics, optical sciences, biology/medical applications, and materials science. The proposed facility will have four primary beamlines: a low power line [0.1 Tera Watts, 1 kHz], a medium power line [10 Tera Watts, 9 kHz], a high power line [100 Tera Watts, 10 Hz] and an ultra-high power line [500 Tera Watts, 10 Hz]. Each line will comprise five experimental rooms to conduct this multidisciplinary physics research program. This facility will be the first ever of its kind in the world and dedicated to elevate the scientific community to a level never achieved before.

The Senegal facility, which received a presidential approval in a 2003 meeting, will develop an activity driven by an interdisciplinary program. The research program has been built around the on-site expertise, with the involvement of a dozen of scientists with broad international experience (Japan, France, US, Germany, Italy, etc). The facility will also address specific environmental issues for African countries through a devoted component. A major part of the activity of the facility will be centered on state-of-the art accelerator mass spectrometry and cyclotron systems. The type of physics research to be carried out in this facility will consist of material sciences, Rutherford backscattering spectrometry, particle induced X-ray emission, 14C dating, cancer and ophthalmology treatments, as well as strangeness nuclear physics. The cyclotron will provide the tool for not only an accurate technique for staging and therapeutic monitoring in oncology, but also to help with diagnosing and staging of various diseases, especially in the area of cancer.

Both facilities are committed to providing strong educational training facilities for pre-college (K-12) and college students, as well as various outreach and collaborative programs (including exchange of students and faculty, local and international, to establish and sustain a strong research collaboration). These science-related activities are necessary to contribute in solving the important need for national education of young scientists. In particular, these facilities will continue to foster the need for underrepresented scientists in certain fields by creating a pipeline between K-12 students and colleges.

The economic and political impact of such facilities will be unprecedented in providing a unique tool for establishing partnerships in these areas. A multicultural exchange would now be possible between all continents involved at a level never attained before. Not only would international exchange of both students and faculty permit the implementation of dual or joint degrees, but also allow access to highly qualified personnel for the workforce.

Asia-Pacific EPR/ESR Society – The First Ten Years

“A stronger Society would suit well the regional needs and ensure that a better coordination of individual efforts can be achieved”.

The 10th anniversary of establishment of the Asia-Pacific EPR/ESR (APE) Society, and the Asia-Pacific EPR/ESR Symposia (APES) organized every second year in a different Asian country, is an appropriate occasion to present briefly the history and current status of the Society. Electron paramagnetic, or spin, resonance (EPR or ESR) is an experimental technique originating from physics and nowadays is widely used in other areas from archaeology and chemistry to biology and materials science. The term electron magnetic resonance (EMR) is now often used to encompass both EPR and ESR, however, for historical reasons we have decided to retain the conventional nomenclature in the Society’s name.

The APE Society came into being during the First Asia-Pacific EPR/ESR Symposium (APES’97) held at the City University of Hong Kong, 20-24 January 1997. Both initiatives were the brainchild and spearheaded by the undersigned. The ideas of regular meetings and an umbrella society for the EMR community in the Asia-Pacific region were conceived in early 1990, shortly after my arrival to Hong Kong. They have been successfully implemented due to the dedicated effort of several researchers working as members of the Local Organizing Committee (LOC) and the International Organizing Committee (IOC) for the APES’97. We have seized an historic opportunity in the final months of the British colony, when the interest in Hong Kong was at the highest. Generous travel grants to participants from ‘dollar poor’ countries also helped significantly in bringing together many researchers. The first APES’97 was attended by about 140 participants from 22 different countries; 110 participants were from Asia-Pacific, Europe and North America, whereas 30 were from Hong Kong, Mainland China and Taiwan. There were 8 invited plenary lectures and 3 invited plenary talks, 114 oral presentations, and 69 poster presentations, comprising altogether 183 presentations. The materials from the conference were published in “Modern Applications of EPR/ESR: From Biophysics to Materials Science, The Proceedings of the First Asia-Pacific EPR/ESR Symposium, Hong Kong, 20-24 January 1997”, Springer-Verlag, Singapore (1998), pp. 1-666 (C. Rudowicz, Editor, and K. N. Yu and H. Hiraoka, Associate Editors).

The framework for the APE Society was planned in consultation with eminent scientists well in advance. At the Inaugural APE Society’s Meeting held during the APES’97 in Hong Kong sixty two researchers from the Asia-Pacific region elected the Provisional Council with C. Rudowicz as President, A. Kawamori as Vice-President, Y. Y. Yeung as Secretary, and H. Ohya-Nishiguchi as Treasurer, together with the Representatives from Australia/New Zealand, Japan, P. R. China, India, Russia (Far East), Rep. of Korea, and Vietnam. The APES became an Affiliate Society of the International EPR/ESR Society (IES) in March 1999. This affiliation brought us closer to the APES and IES Mission of uniting all EPR/ESR researchers.

Subsequent Symposia were organized under the auspices of the APE Society. During each Symposium a General APES Meeting was held, concluded by the election of the APE Society’s Council for the next term of office. The Second APES’99 was held at Zejiang University, Hangzhou, P.R. China, October 31 - November 4, 1999 with Y. Z. Xu as the chairman of the local committee. The Third APES’01 was held at Kobe University, Kobe, Japan, October 29 - November 1, 2001 under the chairmanship of the local committee of A. Kawamori. In addition two APES'01 Satellite Meetings were also organized: Symposium A: 2001 ESR Dosimetry and Dating (with M. Ikeya as Chairman of the LOC), and Symposium B: International Workshop on Advanced EPR Applied to Biosciences (with A. Kawamori chairing the LOC).

Due to the worldwide problems caused by the SARS disease, the APE Society’s Council decided in June 2003 to postpone the next meeting from November 2003 to November 2004. The Satellite International School on EPR Spectroscopy and Free Radical Research was organized prior to APES’04 at BARC in Mumbai, India, 17 - 20 November, 2004 (K. P. Mishra was the chairman of the LOC). The Fourth APES’04 was held at the Indian Institute of Science, Bangalore, India, 22 –25 November, 2004, with S. V. Bhat as the chairman of LOC (a photograph of the newly elected Council is below).

APES Council elected in Bangalore, November, 2004; from the left: K. P. Mishra G. R. Hanson, C. Rudowicz, E.G. Bagryanskaya, H. Ohta, J. R. Pilbrow, T. Nakamura, S. Yamauchi, and Y. Li

The General Meeting of the APE Society held during APES’04 also marked an important change at the helm of the Society. As required by the APE Society’s Constitution, C. Rudowicz stepped down, and H. Ohta was elected as the next President. During this Symposium the outgoing President was presented the Silver Medal “in recognition of outstanding contribution to founding and fostering APES” and Recognition Diploma from the IES “for his contributions to the EPR community as the Founder and President of the Asia-Pacific EPR/ESR Society 1997 – 2004 and initiating the Asia-Pacific EPR/ESR Symposium Series”. Notably, the American Physical Society (Forum on International Physics) awarded the APS Fellowship to C. Rudowicz in November 2004; citation reads: “For his significant contributions to optical and EMR spectroscopy of transition ions and outstanding leadership in promoting international meetings and collaborations as Founder and President of the Asia-Pacific EPR/ESR Society.”

The fifth APES’06 was held in Akademgorodok at the Novosibirsk Science Center, Novosibirsk, Russia, 24-27 August, 2006, where S. A. Dzuba was the chairman of the LOC. The APES Council for the term 2006-2008 elected at the General Meeting is presented below,

President - H. Ohta
Vice-Presidents - S. A. Dzuba and G. R. Hanson
Founding President & Immediate Past President – C. Rudowicz
Secretary/Treasurer - T. Nakamura
Country Representatives:
Australia/New Zealand - G. R. Hanson
Japan - S. Yamauchi
P. R. China - Y. Li
India - P. S. Rao
Korea - S. O. Kang
Vietnam - N. T. Tai
Russia (Far East/Siberia) – E .G. Bagryanskaya
Advisory Council Member - K. P. Mishra

We cordially invite you to participate in the sixth Asia Pacific EPR/ESR Symposium, which will be held in Cairns, Australia from July 13 to 18 of 2008 and promises to be an exciting conference. APES’08 aims to address all aspects of EPR/ESR ranging from theoretical and experimental advances in CW (continuous wave) EPR/ESR, pulsed EPR, high frequency and high field EPR, ENDOR (electron nuclear double resonance), time resolved EPR, FMR (ferromagnetic resonance), MRI (magnetic resonance imaging), and ODMR (optically detected magnetic resonance) to applications in medicine, biology, chemistry and materials science. More information concerning the conference will be available shortly through the APE Society website (or alternatively, please contact the Co-Chair, G. Hanson.

The Asia-Pacific EPR/ESR Society has grown from its 62 Founding Members in 1997 to about 210 members in 2007. Apart from the website, the APE Society maintains a membership database as well as the Directory of EPR/ESR Facilities to enable easy access to the information network among EMR researchers in the Asia-Pacific region. To ensure the smooth continuation of its activities, the Constitution of the APE Society was worked out early on (The Constitution is available on the website).

One may ask what has the APE Society accomplished during these ten years? Organization of the consecutive Symposia (APES’97-06) and the respective Schools has required a tremendous effort on the part of many researchers. Thus my sincere thanks go to the members of all Local Organizing Committees who by securing funds in their respective countries and with perfect logistics have made these events possible and successful. The main aim of our Symposia is to bring together as many EPR/ESR spectroscopists as possible and to promote and facilitate collaboration among the EPR/ESR community. This is especially important in the Asia-Pacific region, where several countries are developing and most researchers could hardly attend conferences in Europe or the USA. The fact that both the Society and Symposia have a solid foundation and still serve the EPR/ESR community after the first ten years is an accomplishment, indeed. The current President, H. Ohta, deserves our gratitude for his skillful upholding of the traditions worked out collectively since the inception of the APE Society in 1997. It is hoped that the APE Society will grow in strength for many years to come.

There are no membership fees. The Society is open to all researchers from the Asia-Pacific region, including Russia Siberia/Far East, who are active in the EPR/ESR area or have an interest in the applications of the EPR/ESR techniques. A stronger Society would suit well the regional needs and ensure that a better coordination of individual efforts can be achieved. Hence, we shall strengthen the Society’s membership. May I invite all colleagues, who are not yet members, to express their interest in becoming members of the Asia-Pacific EPR/ESR Society. A Membership Form is available on the Society’s homepage in the section About the Society. Please download the Membership Form, fill in and send by email.

Czesław Rudowicz
Founding President & Immediate Past President,
The Asia-Pacific EPR/ESR Society
President, Polish EPR Group (April 2007 – present)
Fellow of APS (nominated by FIP)
Professor and Head of Modeling in the Spectroscopy Group,
Institute of Physics,
Szczecin University of Technology [SUT],
Al. Piastów 17,
70-310 Szczecin, POLAND;

How an Obsolete Concept of Science Impedes the Development of Islamic countries: The Example of Iran

By Reza Mansouri, Sharif University of Technology, Department of Physics Tehran, Iran

Introduction
The Islamic revolution of Iran, the attacks on the US on 9/11, and the result of recent parliamentary elections in Palestine are symptoms of a much broader movement in the Moslem world – one that the west has failed to understand. . The West is politically far behind the developments underway in the Moslem world. As a Moslem who has been involved in various Islamic groups and as a scientist who has lived long enough in the West to understand its culture and attitudes, I have a unique perspective that helps me to understand how the Moslem world and the West have failed to communicate. I hope to become a part of the solution by offering my unique perspective and experience.

It is still much too early to expect a constructive dialogue between the Moslem world and the West. Half a century may pass before the Moslem world is ready to move decisively to embrace modernity and technological development 1. But increased collaboration on specific science and technology projects can provide a solid basis for beginning a discussion. While scientific and technological cooperation can easily pave the way for more amicable relations, it can also result in serious and dangerous misunderstandings. This essay is an attempt to reveal where these misunderstandings could occur. In spite of the difficulties, it is important to embrace any action that can pave the way toward a broader dialogue and minimize the risk of conflict between Moslem and Western cultures.

Science and 'Elm'
The biggest potential danger in starting to build links between the Moslem and Western scientific communities is potential misunderstanding over basic vocabulary and the underlying concepts and world-views they represent. Poorly constructed translations have led to misunderstandings of the most basic nature. Western concepts of research, science, and scientists do not map directly or easily into terms familiar in Moslem countries.

The word ‘Elm’, for example, is often translated as “science” but in fact this classical term does not represent processes that the West would recognize as science. In Persian a person possessing or being engaged in Elm is called “ahl-e-elm”, or ‘aalem’. Aalem is a widely used term in Moslem culture. It is a common understanding in Iran that one who is “ahl e Elm” is a mullah, a religious scholar. A modern scientist would never be called ahl-e-Elm. The Persian word daneshmand is sometimes taken as equivalent to the scientist, but it isn’t... The English term scientist was coined mid-19.century in England, but the term daneshmand is at least a thousand years old. It is a general term for scholar, or philosopher. I have recently coined the term “Daneshgar” to be used as exact translation of the term scientist: a person who has the profession of science. But this new term, being built out of the term Danesh not Elm, is not yet widely accepted.

The terms science, elm, and danesh refer to different concepts. These differences, are not only a linguistic problem; they, have a very deep impact on the development policy of Iran, and in all Persian and Arabic speaking countries. There is still no common understanding of what modern science means. We still have difficulty conveying the difference between modern science and Elm – the difference between a modern scientist and a religious scholar. This is one of the major challenges faced in the Moslem world and a very obvious obstacle on the course of modernization and development in Islamic countries. It has had far reaching effect on different S&T policies of the past decades and it seems that there is no end to this misunderstanding in sight.

constellation Andromeda

Picture from the book “Constellations” by Sufi (10./11. century) translated into Persian by Tusi in 12. century. It shows he constellation Andromeda and the first ever found nebula indicated there by Sufi.

A Short History of the Higher Education in Moslem Countries: Example Iran
The Persian term "daneshgah', equivalent to university, is about 70 years old, but the history of 'higher education' in Iran dates back to pre-Islamic times. There is, however, almost no continuity in the educational institutions in Iran and the Moslem world. The following diagram shows how the system has evolved over time. As can be seen from this diagram, the only educational institution still operating, albeit in a form that has changed significantly from their original 'liberal' traditions as university, are the seminaries. 

Educational Institutions before Islam
No educational institution in the Moslem world has a tradition dating to the pre-Islamic era, with the exception of the Persian Jondi-Shahpour medical school. Jondi-Shahpour must have been established before the fourth century A.D. It was particularly significant during the reign of Anushirvan, the Sassanid king. There is evidence that Shapur-ibn-e-Sahl, who died in 255 A.H./ ninth century A.D., was the last physician and dean of Jondi- Shahpour medical school. The tradition of this school/ hospital was transferred to medical schools during the Islamic era. With more than 500 years of history, Jondi Shahpour has been the most stable educational institution in the Moslem world, except for the seminaries.

Higher Education before Islam

Development of educational institutions in Iran: Jondi Shahpour Medical School was the only pre-Islamic institution transformed into Islamic educational institution. Theological seminaries are the only educational institutions still active today that are rooted in early Islamic period.

Educational Institutions in the Islamic period
While information about the early history of educational institutions during the Islamic period is quite meager, we know much more about them than their pre-Islamic predecessors. [2]. Institutes such as Dar-ol-Elms (science schools), Dar-ol-Kotob (libraries), Darl-ol-Hekma (schools of Natural Philosophy), Dar-ol-Hadis (Hadis schools), Dar-ol-Qurans (Quran schools), congregation mosques, mosques, and Madrasehs have functioned as education centers since the 2nd century AH/ 8.th century AD. Hospitals and observatories are operated as educational centers. Throughout the Islamic world, institutions of higher education were called Nezamieh. Their curriculum included Islamic theology, sciences, and philosophy. After the fifteenth century, however, there was a gradual decay of natural philosophy in these institutions following a shift in the concept of science in Islamic countries. While in principle science was still taught at the Nezamiyehs, and seminaries, in fact natural sciences as it was formerly practiced, was almost completely dismissed from these educational centers. Education was reduced to religious education and the concept of science was reduced to religious sciences or at most what religious scholars defined to be sciences. In fact science was divided into “useful” and “harmful” science. This distinction allowed conservative Moslem scholars to narrow instruction in science to the minimum immediately needed for daily life -- such as some arithmetic and lunar astrometry. This approach, which is still alive in the Islamic world, left a distorted concept of sciences, not only in the seminaries but also in the mind of all Moslems, irrespective of their social rank and level. Even the so-called secular Moslem intelligentsia is affected by this distorted concept of science. The importance of route memorization throughout the educational system of Moslem countries is a sign of the dominance of this concept of science.

It is a sad irony that the great 10th century Persian scientist Farabi developed a detailed classification system and definition of sciences but almost nothing of his work was implemented in the Islamic schools.

The decline in the dar-ol-Olooms (schools of sciences), the growth of religious schools, the reduction of science concept and its appropriation to religious thoughts in Islamic civilization coincides with the arrival of early Turkish rulers, such as the Sljuks.. The changes began a process of distorting the concept of science in the Moslem world that continues to make it difficult for Moslems to understand the modern world and its achievements.

For a Moslem, Islam is superior to any ideology or religion. For religious scholars - who are also perceived as scientists or ‘aalem’ - it is hard to accept the superiority of modern societies. Moslems do not recognize the extent of the scientific revolution that has taken place in the West. The scientific breakthroughs that were set in motion by Newton or Einstein, also marked the beginning of an ever-growing gap between Western and Moslem understanding of science. Modern scientists of Islamic countries have failed to educate leaders and citizens about the advancements in science at every level, ranging from failing to introduce new terms and concepts so fundamental to understanding science, to accurately portraying the evolution of the human thought in the last three centuries. Contrary to what Western politicians believe, those in the Moslem world most susceptible to modern thoughts are not the so-called secular scholars who fail to grasp the essence of modernity, but those who have absorbed the indigenous culture and the Islamic way of thought, and are willing to incorporate positive changes that they deem essential to their cultural evolution.

Even today, the term aalém refers not to academic experts but to mollah’s and teachers of religious seminaries. An aalém prompts much respect in the society, and there are many historical examples of the high esteem paid both by the community and rulers to an aalém. Even now, there are numerous religious schools around the Islamic world, some which with a long tradition, like Al-azhar in Egypt, Najaf seminary in Iraq, and Qum’s Feyzieh in Iran.

The philosophy behind establishing modern higher education institutions in Iran.
The most important establishments of higher education in modern Iran are Dar-ol-fonoon and the Tehran University. I will briefly elaborate on the motivation behind establishing these institutions.

Dar-ol-Fonoon.
The first polytechnic of Tehran, called Dar-ol-Fonoon, was established about 150 years ago. Newspapers of the period reported[3]:

“Last year the Trustees of his Excellency decided to establish a Ta’limkhaneh (instruction house) at Tehran’s Soltani Arg Square to teach and advise sciences and technology…”

“A large and right building has been constructed in Tehran’s Arg Square for the education of all techniques and is named Dar-ol-Fonoon and it is the intention of his imperial majesty that the children of his government learn some sciences not prevalent in our government”

The main motivation was to solve certain administrative issues and to “learn some sciences not prevalent in our government”. The need to establish Dar-ol-Fonoon was determined not by scholars or intellectuals, but by rulers and politicians. Lack of enthusiasm and appreciation regarding the new scientific institution caused the Nasseredin Shah of Persia, who had ordered the establishment of Dar-ol-fonoon, to second-guess his decision and to agonize over its potential “evil consequences”. Consequently, hasty decisions were made regarding the selection of teachers and instructors of Dar-ol-Fonoon. For example, the lecturer in physics was an Austrian army artillery instructor named August Kruiser., whose recently published lecture notes by the Physics Society of Iran reveal how unsophisticated his physics knowledge was.

Tehran University
Although Dar-ol-Fonoon preceded the establishment of Tehran University by seven decades, the lack of motivation and enthusiasm that prevailed at the time of Dar-ol-Fonoon was also observed at the commencement of the Tehran University. In a letter to Issa Sadiq at the University of Columbia dated March 30, 1932, Teimurtash, Reza shah’s minister of the court, wrote [3]:

“You are requested to study the number of teachers and the kind of facilities needed for the establishment of a Dar-ol-Fonoon offering medical pedagogy and road building engineering (paved roads and railways) in Tehran and also to find out about the approximate costs. We look forward to hearing the result of your investigation.”

Explanations provided by Issa Sadiq [4] and the statements of Mahmood Hesabi, who, as the founder of the modern physics in Iran, had a crucial role in the design of the college of sciences and engineering, show that the prevailing motivation for the establishment of Tehran University was to train teachers.

It is interesting to know Issa Sadiq’s opinion about research:

During the establishment of the colleges of literature and sciences I recognized that the objective was not merely to train a number of students in a subject, but research should also be one of the aims of a university. To achieve this goal, first of all, lectures taught by professors were limited to their special fields. Therefore, a professor of geography was not assigned to instruct history as far as possible...and they were asked to translate important resources they had used for their lectures, for publication.

Considering translation and preparing lecture notes as a research activity in 1932, i.e. 25 years after the scientific revolution of the theory of relativity and 7 years after the second scientific revolution of the last century on quantum mechanics, is a sign of distorted concept of science and research still dominating the scientific life in the Moslem world. One should bring in mind that during the same period Raman and Bose, two Indian physicists, were engaged in researches leading to their Nobel Prize in another third world country.

Is there any science in the Moslem countries?
This challenging question refers to the slow development of science and technology in Islamic countries. Between the 9th and the 15th centuries, science seemed to flourish throughout the Islamic world by the way of many educational institutions created.

In the modern era, despite the proliferation of institutions, lack of a scientific community did not allow science in the Islamic world to go beyond an imitation of what had already been done. To my knowledge, there are no independent studies to prove the existence of a “scientific community” within the Moslem world, except for a claim put forth by certain authors that Iran is on the verge of forming such a community[5] Below, you will find a list of factors that are representative of how the absence of a scientific community paves the way for pseudo-science, hence, hindering willing individuals from excelling in Moslem countries.

  1. In the modern world, science is just an influential entity as religion, state, or government. In the Moslem world, however, science represents two conflicting views; one rooted in the social psychology of Moslems as “elm,” and the other as modern science that provokes ambiguity and is therefore, resisted by the society. The latter can be likened to a jigsaw puzzle that is missing many pieces but also has other parts that are put together the wrong way. Individual scientists, mostly educated abroad, are representative of the mismatched section of the science puzzle, as their scientific experiences are pertinent to that industrialized country alone. Different individuals trained according to different principles tend to cause a clash of ideas that rids the society off its collective scientific experience.
  2. No university in the Moslem world ranks in the top 200 universities in the world. To put this in perspective, it is important to note that Moslems account for 20 percent of the world population: A sign of negligence regarding science in the Moslem world.
  3. In addition to national academies, there is the academy of sciences of Moslem countries. None of these plays an essential role in fostering the development of sciences or science policy in the Moslem world. These are mostly nominal institutions designed to deceive the world community and to provide representation in international scientific community. Although members of these institutions are mostly chosen by political motives, they claim to be merit-based, where the term ‘merit-based’ is controversial as it is defined by the very same leaders. Anyone opposing these terms can be identified as a traitor, as it is a common practice even among the most secular of Moslem countries to defend political and religious institutions by labeling individuals who dare to speak against them. There is no scientific community and not a critical mass of scientists to oppose such institutions which fulfill political motives. It is interesting to note that within the traditional ‘aalems’, the religious scholars, the term “merit–based” is highly estimable, as a legacy of old traditions.
  4. Unless Moslem countries are ignorant of the Science and Technology indices, they are trying to cope with the gap through inefficient means such as by ‘data fabrication’ or by establishing various committees with no emphasis on scientific advancement. One example is the creation of numerous committees to pinpoint the impediments to development in S&T., where working groups and committees headed by incapable scientists do not solve but impose more restrictions on S&T policy discussions. While the lack of a critical mass of professional scientists underwrites the absence of R&D, the Iranian government continues to solve this problem through creating yet more committees: In the last 20 years, such committees have been established in Iran: with the same agenda, same people, and same results,
  5. Pitfalls of scientometric studies: The standard terminology of scientometrics should be applied with respect to the Moslem world. Terms like R&D expenditures, government budget appropriation for R&D (GBAORD), higher education expenditures on research and development (HERD), basic - and applied - research, experimental development, research projects, technology, technological product and process, number of students, scientific publications, number of scientific journals, R&D personnel, and number of patents have different connotations and do not necessarily transcend to the Moslem world. Even simple concepts like "university" can have a different meaning: A small building with just an enrollment office and some class-rooms, without a library, labs, workshops, computer room and faculty is hardly representative of the western concept of ‘university.’ It is not difficult to draw more examples of similar words that have widely different associations in the western and Moslem world. It is sufficient to compare the different scientometrics or technological terms used in Iran with their definitions in the Oslo– or Frascati–Manual to see how they differ. Due to complexities inherent to social and political events of the past two decades, Iranians developed a system in which imitation of S&T and R&D advancements is encouraged.

A RAND study lists countries in the following categories: scientifically advanced; scientifically proficient; scientifically developing, and scientifically lagging. While most of the Moslem countries are categorized as ‘scientifically lagging,’ only Egypt, Indonesia, Iran, Pakistan, Turkey, and Uzbekistan perceived as scientifically developing countries among the Moslem world.

Given these facts, it would be an overstatement to claim that modern science is present in the Moslem world. There is an urgent need to encourage a scientific community among Moslems and help it to reach a critical mass.

Excellence in Science and Technological Innovation: making Dialogue possible
Science and Technology are often perceived as engines of economic growth,, infrastructural social development, and as a democratizing agent. This frame of thought is responsible for the growing interest in the West to increase scientific and technological cooperation with the Islamic world since 9/11[6].

The Moslem world has lagged behind at all aspects of S & T; from primary education to industrial and academic research, although the degree of disproportion is varied

It is too naïve to assume that without correcting the perception of science and technology amongst the Moslem intelligentsia and technocrats, there will be a real acceptance of modernity and a constructive dialogue. The Moslem challenge will be enduring as long as the dichotomy of ‘elm’ and ‘science’ exists. Unless this disparity is resolved, any attempted development will be superficial and will benefit only those who idealize the superiority of the Moslem culture and promote the decay of the Western civilization; hence tainting what could otherwise be an encouraging dialogue. Moslems should try to foster dialogue that develops the notion of science and attempts to fill the gap between science and ‘elm’. Previous attempts by western states to initiate dialogue by focusing on Moslem countries human rights

Records have been in vain. The subject of human rights has not only to be proved to be ineffective, but has led to and will continue cause more misunderstandings; mostly due to the international political behavior of the West in the last two hundred years. We have also been witnessing an influx of science that consists mostly of poor translations and imitations to the Moslem world strengthening the distorted notion of science, thus further emphasizing memorization as the main learning tool. Science education at universities is reduced to reading some books or memorizing some scripts prepared by the lecturer based on the decade-old books they read during their educations. Memorization is accepted as the main tool of education due to the experience of the seminaries and their respected rankings in the society.

Given these presumptions, I would like to stress some facts pertaining to the importance of international science and technology collaboration of Moslem world as a conclusion:

  1. The current lack of capabilities in the Moslem world may be common to the rest of the developing world. But the unique historical strength of S&T at the forefront of human knowledge, the challenge of peace in the Middle East, and the Islam-phobia fueled in the US after 9/11 are indicative of the need to distinguish and categorize “Islamic World” from the rest of the developing world. as far as S&T cooperation is concerned,
  2. Common people, scientists, and scholars in the Islamic world are living in a conceptual schizophrenic psychological situation: The glory of the past, the uniquehistorical contribution to S&T, an existing elaborate system of terms for science andtechnology, like “Elm” and “San' at” referring not to the modern concepts of S&T butto anachronistic concepts of the post- glorious era, being in a miserable developmental and political status, together explain why Islamic countries are trapped in nostalgia that blurs the reality and results in their lagging behind.
  3. Science and Technology can function as democratizing agents.. A key to changing the way people think is by promoting "critical thinking", which embodies the ability to draw logical conclusions, and to detect broken conceptual links. The scientific way of thinking enables us to assess whether facts fit theories and models, to differentiate between assumption, prescription, deduction, proof, hope, faith, possibility, probability, and certitude.
  4. There are plenty of scientific and technological institutions in the Moslem world, none of which based on a sound epistemological basis regarding the modern concept of science and technology. The term used for the concept of modern science in almost all of the Moslem countries, i.e. “Elm”, is predominantly synonymous to theology and its methodology, even when applied to modern areas like physics, chemistry, or sociology. One of the consequences of this fact is memorization at all level of the education and science education.

Looking at these conclusions and taking into account the facts mentioned before, we may reach some conclusions towards accelerating the process of evolution of the Moslem world with respect to modernity, S&T development, and fighting chronic poverty:

  1. Allowing for scientists in small communities to be integrated into the international scientific community.
  2. Providing occasions for advanced scientists in the Moslem world to cooperate with the scientific communities of the developed world based on true merit.
  3. Independent of the level of S&T attained, excellence in education, research and development should have the absolute priority.
  4. Helping to establish world-class research centers, at least one top-ranking university in the Moslem world.
  5. Terrorism is not always related to poverty. Actual or perceived terrorism attributed to the Moslems is rooted not in material poverty, but in the absence of modern concepts. Terrorism that spurs from backwardness is rooted neither in the poorest Moslem countries, nor in those with dynamic science and technology programs; but in the richest one. Fighting its roots is only possible through filling the conceptual gap we are witnessing. This can only be achieved by promoting excellence in science and technology.

Acknowledgement: I would like to thank Zeynep Gueven and Henry Kelly for very valuable editing of and comments on the original manuscript. Most part of this work has been done while I have been spending my sabbatical at the Department of Physics, McGill University. I would also like to thank Prof. Robert Brandenberger for the hospitality there.

References:

  1. R. Mansouri, Iran 2050 (in Persian), third printing and second edition, Tarh-e-nou Publishing, Tehran, 2003.
  2. G. Makdisi, the Rise of Colleges: Institutions of Learning in Islam and the West, Edinburgh University Press, 1981.
  3. Vaghaye-e Ettefaaghiyeh, no. 29, Shavval 1267, and no.43, Safar 1268.
  4. Issa Sadig, Memoirs of Life (in Persian), Dehkhoda Bookshop, Tehran, vol. 3, 1974, pp 12-15, 116 -119, 146, and 241.
  5. Farhad Khosrokhavar, Shapour Etemad, Masoud Mehrabi, Report on Science in Post-revolutionary Iran - Part I: Emergence of a Scientific Community? Critique, vol. 13, n° 2, 2004 pp. 209-224; Part II: The Scientific Community’s Problems of Identity, Critique, vol. 13, n° 3, 2004 pp 363-382; Part III: will be published in June 2006 in Iranian Studies by Farhad Khosrokhavar and R. Amin Ghaneirad: Iran's New Scientific Community
  6. Levi, M. A. and d’Arcy M.B., 2005, Untapped Potential: US Science and Technology Cooperation with the Islamic World, Saban Center for Middle East Policy; white paper
    Delivered at the conference on Science and Technology in US Policy Towards the Islamic World, Brookings Institute, January 5, 2005.

Reza Mansouri is Professor of Physics at Sharif University of Technology in Tehran. He is the project manager for the Iranian National Observatory project at the Institute of Physics and Mathematics (IPM) and a Fellow and Council Member of the Third World Academy of Sciences (TWAS). He is a Committee member of GRG (International Society for General Relativity and Gravitation) and was Iran's representative to the SESAME Council from 1999 to 2007. From 2001 to 2005 he served as Deputy Minister of Science in the Khatami administration.

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Letters to the Editor

Re: Capacity Building: Opportunity for Enduring Peace by Henry J. Hatch

Professor Baksay,

I admire your courage in publishing a piece by Henry Hatch on an Army point of view on international peace. It is interesting that the Army is developing a foreign policy for the United States, and encouraging that the policy presented should be so thoughtful and apparently reasonable. I was, however, struck by the stated aims of this policy: "change... toward free and democratic societies and market economies." Are we to assume then, that free and democratic societies are not to be allowed to choose other than market economies?

Alwyn Eades

Hank Hatch responds:

Glad my piece stimulated a response. First, the views I express are not the Army's at all but mine alone (although perhaps shared by others). I am not aware that the Army is developing foreign policy -- that's not its role. The whole point of capacity building (I used to call it nation assistance), is to assist sovereign states to freely achieve what they want. I believe they stand a far better chance if they are democracies and have market economies. If they want another form of economy, for example a demand economy such as the failed Soviet Union, so be it.


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