Fusion- Fission Hybrid Fuel Factory for the 1990S ^ FUSION Features MAGAZINE Ol the FUSION [VR(,\ FOI \DATION January 1978 Vol

Total Page:16

File Type:pdf, Size:1020Kb

Fusion- Fission Hybrid Fuel Factory for the 1990S ^ FUSION Features MAGAZINE Ol the FUSION [VR(,\ FOI \DATION January 1978 Vol MAGAZINE OF THE FUSION ENERGY FOUNDATION January 1979 $2.00/ES The Fusion- Fission Hybrid Fuel Factory For the 1990s ^ FUSION Features MAGAZINE Ol THE FUSION [VR(,\ FOI \DATION January 1978 Vol. 2, No 4 18 The Fusion-Fission Hybrid—Fuel Factory for Nuclear Power ISSN 0148-0537 by Dr. John Schoonover By the 1990s, the United States could have commercial fusion-fission hybrid machines that would produce enough nuclear fuel to power the world to the fusion age. 27 An Interview with West German Fusion Scientist Dieter Biskamp: 'For Pure Fusion, the Tokamak Is the Only Candidate' The deputy director of the theory division at West Germany's Max Planck Institute talks about the most promising lines of fusion research, the West German research program, and laser classification. 30 Mexico's Huge New Oil Find —From Oil Power to Nuclear Power by Tim Rush and Pablo Silva Mexico is going full speed ahead with plans to use EDITORIAL STAFF its new wealth for a vast industrialization program. What role the United States will play is an open question. Editor-in-Chief Dr. Morris Levitt Associate Editor 34 The Fraudulent Nuclear Waste Controversy Dr. Steven Bardwell by Ion Gilbertson •» Here are the facts of safe nuclear waste disposal — Managing Editor Marjone Maze! Hechl all the information readers need to'know to defeat what has become an environmentalist bogeyman. Editorial Assistant Catherine Caffrey Art Director News Christopher Sloan WASHINGTON Graphics Assistant 8 DOE May Slow Tokamak Program Gary Genazzio 8 1980 DOt Budget Under Revision Advertising and 9 U.S.-China Fusion Plan Announced Business Manager INTERNATIONAL Kenneth Mandel 9 Schlesinger Predicts World Oil Crisis 10 Brazil, Venezuela Sign Nuclear Deal Circulation Manager 10 Several Chinese Fusion Projects Underway Jeanne Laudon 10 Iranian Fusion Program 'Getting Better by the Day' FUSION is published monthly. 10 limes a year 11 Soviets Plan Test Reactor by 1990 except September arid April, by the Fusion Energy NATIONAL Foundation 231 West 29th Street. 13th lloor New York New York 10001 12 Administration Plans Major Health Cuts Subscriptions by mail are S18 for 10 issues or %3A tor 20 issues in the USA and Canada Airmail CONFERENCES subscriptions to other countries are S36 for 10 •issues 14 Miami Conference Evaluates New Energy Technologies Address all correspondence to Fusion Energy 15 The FEF in Houston: U.S. Industry Must Chart Mexican Cooperation Foundation P O Box 1943. New York New York 10001 15 Soviet Scientists Outline Near-Term MHD Approach Second class postage paid at New York New 16 AIF Conference: Industry Debates Pronuclear Fight York. The FEF publishes a wide variety of material lor the benelil of decision makers and the interested public The views of the FEF are stated in the edi­ torials. Opinions expressed in signed articles are not necessarily those of the FEF directors or the Departments scientific advisory board EDITORIAL 2 RESEARCH 47 Copyright January 1978 Fusion Energy Foundation CALENDAR 3 ADVANCED TECHNOLOGY 48 Printed in the USA THE LIGHTNING ROD 4 BOOKS 50 All Rights Reserved NEWS BRIEFS 5 FEF NEWS 55 The opening session of the International Scientific Forum on an Acceptable World Energy Future in Miami in late November witnessed a novel event. Editorial Scientist Edward Teller asked Congressman Carl Pursell of Michigan if classi­ fication of laser fusion research made it impossible for the congressman's staff to evaluate the status of research in the field. Pursell's answer was "Yes!" Teller, one of the first researchers on the fusion-fission hybrid breeder and a prime force in the founding of Lawrence Livermore Laboratory, where most of Time for the class fied laser fusion research takes place, is also an outspoken advocate of complete declassification of civilian laser fusion research. His opponents on Declassification this issue have raised the saitie specter that has been used to block the develop­ ment of the plutonium fission breeder in the United States —proliferation of nuclear weapons. What .ire the "secrets" of [laser fusion, and how is the national security of the United States affected by the classification policy? The Antiproliferation Argument The antiproliferation argument for classification holds that of course there are not many secrets to be [guarded from the Soviets, who have a comparable research program. The problem, the argument goes, is with smaller, unstable countries. For such a countijy to build up a significant nuclear arsenal, there are two possible approaches. It can build a lot of simple fission A-bombs, which re­ quires a ot of enriched uranium or plutonium and the associated infrastructure for enrichment and then delivery of the bombs Or the nation can build a few thermonuclear devices of njiuch higher explosive energy, which requires much less fissi e material, only the amount required to initiate the implosion of fusion materials such as deuterium and lithium at the core of the bomb. The connection between bomb-building and laser fusion research (or other forms o: inertial confinement) in this antiproliferation argument lies in the target pellet design. Laser [fusion research is ostensibly under control of the Divison of Military Applications of the Department of Energy because laser- driven microexplosions simulate the implosion and explosion characteristics of large-scale bomb systems. Therefore, the proliferation argument goes, if the details cf target design and performance are available, this will make it possible for any nation to build thermonuclear weapons. Before responding to this simplistic argument, let us take note of the earlier history of fusion classification and the current effects on U.S. research. All fusion research, magnetic confinement as well as weapons, was classified by the United States up to 1958, several years after the Soviet Union detonated the first hydrogen bomb in 1953. Magnetic confinement research here was con­ ducted under the rubric of! Project Sherwood, which, as former director Amasa FUSION Bishop recalls in his history, was intended to demonstrate that controlled fusion could not be easily achieved. Specifically, it was feared that fusion could be Calendar used to breed the then-scarce fissile itnaterial in an early version of a fusion- fission hybrid. The Project Sherwood example illustrates the close historical connection be­ January tween classification and the obstruction of commercial development of nuclear 4-5 energy. Nonproliferation, whether of fission or fusion materials or knowledge, Laser Plasma Interactions Conference was also the watchword of the opponents of nuclear energy development Institute of Physics during the 1940s and 1950s, including Baruch, Acheson, Lilienthal, Oppen- Bangor, Wales heimer, and Conant. The Soviets ended this phase of the history by unilaterally declassifying their 14-17 magnetic confinement program in a famous talk by I.V Kurchatov at Harwell, AIF Seminar on Legal England in 1956. A decade later, the initial report of success in the Soviet and Legislative Affairs tokamak opened the door to widespread international cooperation in this area Atomic Industrial Forum of research, which has played an indispensable role in making the tokamak into Las Vegas, Nevada the leading fusion device. In 1969 {he Soviets also unilaterally presented aspects of their laser fusion research, reporting on the first laser fusion neutron 15-17 yields. The United States in 1972 partially declassified its inertial confinement National Education, Business, program, and some aspects of electron: beam and related inertial confinement and Labor Conference on research were also released in 1975. j Energy-Related Vocational and Technician Training, Employment Closed-Door Science and Public Energy Awareness The present situation, however, is exactly as summarized by Teller's question DOE to Congressman Pursell. There is no way that the scientific quality of the laser Washington, D.C. fusion program can be assessed or advanced by interaction with scientists out­ side the program, since the facts of the basic physical processes taking place in 26-28 highly compressed matter are kept secret. Thus, when Soviet electron beam re­ Northern Nevada Energy Expo searcher Leonid Rudakov lectured here two years ago on the mechanisms of Nevada Department of Energy energy deposition, conversion, and compression (involving prominently soft X- Reno, Nevada rays), his talk and all evaluations of it by US. scientists were classified. The FEF so far has been unsuccessful in getting the information released under the 29-31 freedom of Information Act. 1st Topical Meeting on Two recent cases illustrate the fact that the overall trend in classification is Fusion Reactor Materials back toward the original blanket restriction. At Los Alamos the research on fast DOE, ANS, EPRI, AMMPE imploding liners (crushing cylindrical conductors and the plasmas inside them Miami Beach, Florida with huge, pinching magnetic fields generated by currents in the liner) has been threatened with removal from the civilian program and placement under the 29-2 more restrictive Division of Military Amplications. Meanwhile, a technology IAEA Symposium on Thermodynamics ready to contribute immediately to njiclear power generation, laser isotope of Nuclear Materials separation and enrichment of fissile fCiel, remains classified and thereby re­ International Atomic Energy Agency moved from the commercial fuel cycje. Julich, West Germany The most fundamental point is that ^nergy-dense plasmas are precisely the area of investigation most likely to yield; basic advances in physical theory. The February study of the lawful but nondetermmist succession of plasma states (or phases) is 25-28 crucial to overcoming the apparent paradoxes of modern physics and unifying INFO 79 the present quantum and relativist theories in a more advanced conception of Atomic Industrial'Forum space-time-energy. Inertial confinement research is the best available domain Kansas City, Missouri for directly investigating the types of critical phenomena and self-ordering 26-28 structures that otherwise characterize, the microscopic and the astrophysical 6th Energy Technology Conference domains.
Recommended publications
  • Historical Perspective on the United States Fusion Program
    Historical Perspective on the United States Fusion Program Invited paper presented at American Nuclear Society 16th Topical Meeting on the Technology of Fusion Energy 14-16 September, 2004 in Madison, WI Stephen O. Dean Fusion Power Associates, 2 Professional Drive, Suite 249, Gaithersburg, MD 20879 [email protected] A variety of methods to heat the nuclei to the Progress and Policy is traced over the approximately high speeds (kinetic energies) required to penetrate the 55 year history of the U. S. Fusion Program. The Coulomb barrier have been successfully utilized, classified beginnings of the effort in the 1950s ended with including running a high current through an ionized declassification in 1958. The effort struggled during the hydrogen gas ("ohmic heating"), accelerating beams of 1960s, but ended on a positive note with the emergence of nuclei, and using radio-frequency power. Temperatures the tokamak and the promise of laser fusion. The decade well in excess of the 50 million degrees needed for fusion of the 1970s was the “Golden Age” of fusion, with large are now routinely achieved. budget increases and the construction of many new facilities, including the Tokamak Fusion Test Reactor II. THE 1960s AND 1970s (TFTR) and the Shiva laser. The decade ended on a high note with the passage of the Magnetic Fusion Energy During the decade of the 1960s, and continuing Engineering Act of 1980, overwhelming approved by to the present, scientists developed a whole new branch of Congress and signed by President Carter. The Act called physics, called plasma physics [3], to describe the for a “$20 billion, 20-year” effort aimed at construction behavior of these plasmas in various magnetic of a fusion Demonstration Power Plant around the end of configurations, and sophisticated theories, models and the century.
    [Show full text]
  • Nova Laser Technology
    Nova Laser Technology In building the Nova laser, we have significantly advanced many technologies, including the generation and propagation of laser beams. We have also developed innovations in the fields of alignment, diagnostics, computer control, and image processIng.• For further information contact Nova is the world's most powerful at least 10 to 30 times more energetic John F. Holzrichter (415) 423-7454. laser system. It is designed to heat and than Shiva would be needed to compress small targets, typically 0.1 cm investigate ignition conditions and in size, to conditions otherwise produced possibly to reach gains near unity. only in nuclear weapons or in the Because of the importance of such a interior of stars. Its beams can facility to the progress of inertial fusion concentrate 80 to 120 kJ of energy (in research and because of the construction 3 ns) or 80 to 120 TW of power (in time entailed (at least five to seven 100 ps) on such targets. To couple energy years), the Nova project was proposed to more favorably with the target, Nova's the Energy Research and Development laser light will be harmonically converted Administration and to Congress. It was with greater than 50% efficiency from its decided to base this system on the near-infrared fundamental wavelength proven master-oscillator, linear-amplifier­ (1.05-,um wavelength) to green (0.525- chain laser system used on the Argus ,um) or blue (0.35-,um) wavelengths. The and Shiva systems. We had great goals of our experiments with Nova are confidence in extending this to make accurate measurements of high­ neodymium-glass laser technology to the temperature and high-pressure states of 200- to 300-kJ level.
    [Show full text]
  • ENGINEERING DESIGN of the NOVA LASER FACILITY for By
    ENGINEERING DESIGN OF THE NOVA LASER FACILITY FOR INERTIAL-CONFINEMENT FUSION* by W. W. Simmons, R. 0. Godwin, C. A. Hurley, E. P. Wallerstein, K. Whitham, J. E. Murray, E. S. Bliss, R. G. Ozarski. M. A. Summers, F. Rienecker, D. G. Gritton, F. W. Holloway, G. J. Suski, J. R. Severyn, and the Nova Engineering Team. Abstract The design of the Nova Laser Facility for inertia! confinement fusion experiments at Lawrence Livermore National Laboratory is presented from an engineering perspective. Emphasis is placed upon design-to- performance requirements as they impact the various subsystems that comprise this complex experimental facility. - DISCLAIMER - CO;.T-CI104n--17D DEf;2 013.375 *Research performed under the auspices of the U.S. Department of Energy by the Lawrence Livermore National Laboratory under contract number W-7405-ENG-48. Foreword The Nova Laser System for Inertial Confinement Fusion studies at Lawrence Livermore National Laboratories represents a sophisticated engineering challenge to the national scientific and industrial community, embodying many disciplines - optical, mechanical, power and controls engineering for examples - employing state-of-the-art components and techniques. The papers collected here form a systematic, comprehensive presentation of the system engineering involved in the design, construction and operation of the Nova Facility, presently under construction at LLNL and scheduled for first operations in 1985. The 1st and 2nd Chapters present laser design and performance, as well as an introductory overview of the entire system; Chapters 3, 4 and 5 describe the major engineering subsystems; Chapters 6, 7, 8 and 9 document laser and target systems technology, including optical harmonic frequency conversion, its ramifications, and its impact upon other subsystems; and Chapters 10, 11, and 12 present an extensive discussion of our integrated approach to command, control and communications for the entire system.
    [Show full text]
  • Lasers Join the Quest for Fusion Energy
    1974 Lasers and ICF Lasers Join the Quest to gain a better understanding of laser plasma physics and thermonuclear physics and to demonstrate for Fusion Energy laser-induced compression and thermonuclear burn of deuterium–tritium. It was also used to improve the LASNEX computer code developed for laser With the goal of achieving energy gain fusion predictions. Janus was just the In 1975, the one-beam Cyclops laser through inertial confinement fusion beginning of the development, in quick began operation, performing important (ICF) as its mission, the Laser Program succession, of a series of lasers, each target experiments and testing optical constructed its first laser for ICF building on the knowledge gained from designs for future lasers. The next year, experiments in 1974. Named Janus, the last, leading to the National Ignition the two-beam Argus was built. Use of the two-beam laser was built with about Facility (NIF), currently performing Argus increased knowledge about laser– 100 pounds of laser glass. experiments. The pace of laser target interactions and laser propagation The first Livermore laser for construction matched the growth limits, and it helped the ICF program prepared the Laboratory to take the With the 20-beam ICF research, Janus, had Under the leadership of John Emmett, in ICF diagnostics capabilities, develop technologies needed for the next major step, construction of the Shiva laser in 1977, the two beams and produced who headed the Laser Program from computer simulation tools, and next generation of laser fusion systems. 192-beam NIF (see Year 1997), where Laboratory established 10 joules of energy.
    [Show full text]
  • The Effect of Surface Processing Methods on the Laser Induced Damage Threshold of Fused Silica
    The Effect of Surface Processing Methods on the Laser Induced Damage Threshold of Fused Silica by Weiran Duan A thesis submitted in partial fulfilment for the requirements for the degree of PhD at the University of Central Lancashire October 2014 2 To my family i Declaration I declare that while registered as a candidate for the research degree, I have not been a registered candidate or enrolled student for another award of the University or other academic or professional institution. I declare that no material contained in the thesis has been used in any other submission for an academic award and is solely my own work. Weiran Duan ii Abstract High peak power laser systems, such as National Ignition Facility (NIF), Laser Mega Joule (LMJ), and High Power laser Energy Research facility (HiPER), include a large amount of optics. Fused silica glass is one of the most common optical materials which is used in these high peak power laser systems owing to its excellent optical properties, especially for the 355nm ultraviolet laser. However, it is generally found that fused silica optics damage under irradiation with a high peak power laser beam, and the laser induced damage (LID) becomes the limit to increasing the laser power. Theoretically, the laser induced damage threshold (LIDT) of fused silica substrates is high, while it drops significantly due to the poor surface quality created in the manufacturing process. This project aims to find a series of fused silica optical surface processing techniques which are able to improve the surface quality and increase its LIDT when irradiated using high peak power lasers.
    [Show full text]
  • Nuclear Diagnostics for Inertial Confinement Fusion (ICF) Plasmas
    PSFC/JA-20-4 Nuclear diagnostics for Inertial Confinement Fusion (ICF) plasmas J. A. Frenje January 2020 Plasma Science and Fusion Center Massachusetts Institute of Technology Cambridge MA 02139 USA The work described herein was supported in part by US DOE (Grant No. DE-FG03-03SF22691), LLE (subcontract Grant No. 412160-001G) and the Center for Advanced Nuclear Diagnostics (Grant No. DE-NA0003868). Reproduction, translation, publication, use and disposal, in whole or in part, by or for the United States government is permitted. Submitted to Plasma Physics and Controlled Fusion Nuclear Diagnostics for Inertial Confinement Fusion (ICF) Plasmas J.A. Frenje1 1Massachusetts Institute of Technology, Cambridge, MA 02139, USA Email: [email protected] The field of nuclear diagnostics for Inertial Confinement Fusion (ICF) is broadly reviewed from its beginning in the seventies to present day. During this time, the sophistication of the ICF facilities and the suite of nuclear diagnostics have substantially evolved, generally a consequence of the efforts and experience gained on previous facilities. As the fusion yields have increased several orders of magnitude during these years, the quality of the nuclear-fusion-product measurements has improved significantly, facilitating an increased level of understanding about the physics governing the nuclear phase of an ICF implosion. The field of ICF has now entered an era where the fusion yields are high enough for nuclear measurements to provide spatial, temporal and spectral information, which have proven indispensable to understanding the performance of an ICF implosion. At the same time, the requirements on the nuclear diagnostics have also become more stringent.
    [Show full text]
  • Lll Laser Program Overview
    I ~ Ellerll APR 13 1~76 ~ illid ~~WJF Destroy Telllllllllill Route - Hold mos. Prepared for U.S . Energy Research & Development lell Administration under Contract No. W-7405-Eng-48 LA.WRENCE LIVERMORE LA.BORATORY LLL LASER PROGRAM LASERS AND LASER APPLICATIONS LLL LASER PROGRAM OVERVIEW ------------------------ During the past year, substantial progress has been thermonuclear burn of microscopic targets containing made toward laser fusion, laser isotope separation, and deuterium and tritium. Experiments are being run on the development of advanced laser media, the three a single-pulse basis , the emphasis being on fa st main thrusts of the LLL laser program. diagnostics of neutron, x-ray, a-particle, and scattered Our accomplishments in laser fusion have included: laser-light fluxes from the target. Our laser source fo r • Firing and diagnosing more than 650 individual this work is the neodymium-doped-glass (Nd:glass) experiments on the O.4-TW Janus laser system laser operating in a master-oscillator, power-amplifier (including many experiments with neutron yields in configuration, where a well-characterized, mode-locked the 107 range). pulse is shaped and ampli fied by successive stages to • Producing 1 TW of on-target irradiation with a peak power of I TW in a 20-cm-diam beam. Cyclops, presently the world's most powerful Thermonuclear burn has been demonstrated. With single-beam laser. successively larger Nd :glass laser systems, we now • Completing the design for the 25-TW Shiva laser expect sequentially to demonstrate significant burn, system and ordering the long-lead-time components. light energy breakeven (equal input and output (The building to house this laser system is on schedule energies) and, finally, net energy gain.
    [Show full text]
  • Laser Confinement Fusion • Use Powerful Laser to Compress And
    Laser Confinement Fusion • Use powerful laser to compress and heat hydrogen • Hydrogen stored in very small pellets • Outside of pellet boiled off by laser beam • Ablation causes plasma • Pellet compressed 4-5 times density of liquid hydrogen •Reaches temperature/pressure of sun core • Get Fusion reaction H 3 + H 2 → He4 + n +14MeV Laser Fusion Reactor • Pellets dropped into reactor • Laser pulse (40 nsec & terawatt) ignites compression wave • Energy from fusion carried in neutrons & helium 3 • Liquid Lithium shield adsorbs neutrons and energy • Regular "steam" generator to get power Argus Laser Fusion Facility • Lawrence Livermore Labs: 2 Terawatt in 1 nsec pulse • Nd:yag/glass laser built in 1976 • Demonstrated concepts for laser confinement fusion • Problem: need to have pellet heated very uniformly • Thus next stage increased number of beams Shiva Laser Fusion Facility • 20 Beam Nd:Yag system • Lawrence Livermore Labs: 30 Terawatt, 1 nsec • Most important result: needed to go to shorter wavelength National Ignition Facility • National Ignition Facility (NIF) newest design • 1.8 megaJoul, frequency tripled Nd:glass laser • 10 ps pulse, 1019 W/cm2 • 192 beam lines combined • Test concepts with Peta Wat laser • 1.25x1015W, 0.55 ps pulse, 1021 W/cm2 • Located at Lawrence Livermore Labs Laser Flight • Use orbital laser satellites to send down beams orbital solar power satellites • Light focused and tracts aircraft • Flight takes off normally - regular engines • Switches to laser drive for cruse section of flight • Significant savings in
    [Show full text]
  • APPENDIX a Why Magnetized Target Fusion Offers a Low-Cost
    MTF Proof-of-Principle Proposal App. A. Why MTF offers a low-cost development path. APPENDIX A Why Magnetized Target Fusion Offers A Low-Cost Development Path for Fusion Energy Richard E. Siemon Irvin R. Lindemuth Kurt F. Schoenberg Los Alamos National Laboratory Los Alamos, New Mexico Accepted by Comments on Plasma Physics and Controlled Fusion, December, 1997 1 MTF Proof-of-Principle Proposal App. A. Why MTF offers a low-cost development path. I. Introduction Reasonably priced energy supplies have become an expectation of the developed world and a necessary ingredient for development of Third World countries. The problem of providing large supplies of low-cost energy is a long-term, complex one that requires sustained R&D efforts, in spite of the shadow cast on long-term R&D by the federal deficit problem. The role of fusion energy as a power source was thoroughly reviewed and strongly endorsed in 1995 by the President’s Committee of Advisors on Science and Technology Fusion Review Panel chaired by John Holdren. He argued [Holdren 95]: The options available for meeting the world’s demand for energy in 2050 and beyond are those already in use – fossil fuels, biomass energy, nuclear fission, hydropower, geothermal energy, wind energy, and solar energy – plus, potentially, nuclear fusion. In these circumstances, it should be obvious that there is great merit in the pursuit of diversity in energy options for the next century. There are not so many possibilities altogether. The greater the number of these that can be brought to the point of commercialization, the greater will be the chance that overall energy needs can be met without encountering excessive costs from or unmanageable burdens upon any one source.
    [Show full text]
  • Plasma Physics and Controlled Nuclear Fusion Research 1984 Vol.3 TENTH CONFERENCE PROCEEDINGS, LONDON, 12-19 SEPTEMBER 1984 Nuclear Fusion, Supplement 1985
    Plasma Physics and Controlled Nuclear Fusion Research 1984 Vol.3 TENTH CONFERENCE PROCEEDINGS, LONDON, 12-19 SEPTEMBER 1984 Nuclear Fusion, Supplement 1985 fj&\ VW& INTERNATIONAL ATOMIC ENERGY AGENCY, VIENNA, 1985 ^^ m PLASMA PHYSICS AND CONTROLLED NUCLEAR FUSION RESEARCH 1984 VOLUME 3 The following States are Members of the International Atomic Energy Agency: AFGHANISTAN HAITI PARAGUAY ALBANIA HOLY SEE PERU ALGERIA HUNGARY PHILIPPINES ARGENTINA ICELAND POLAND AUSTRALIA INDIA PORTUGAL AUSTRIA INDONESIA QATAR BANGLADESH IRAN, ISLAMIC REPUBLIC OF ROMANIA BELGIUM IRAQ SAUDI ARABIA BOLIVIA IRELAND SENEGAL BRAZIL ISRAEL SIERRA LEONE BULGARIA ITALY SINGAPORE BURMA IVORY COAST SOUTH AFRICA BYELORUSSIAN SOVIET JAMAICA SPAIN SOCIALIST REPUBLIC JAPAN SRI LANKA CAMEROON JORDAN SUDAN CANADA KENYA SWEDEN CHILE KOREA, REPUBLIC OF SWITZERLAND CHINA KUWAIT SYRIAN ARAB REPUBLIC COLOMBIA LEBANON THAILAND COSTA RICA LIBERIA TUNISIA CUBA LIBYAN ARAB JAMAHIRIYA TURKEY CYPRUS LIECHTENSTEIN UGANDA CZECHOSLOVAKIA LUXEMBOURG UKRAINIAN SOVIET SOCIALIST DEMOCRATIC KAMPUCHEA MADAGASCAR REPUBLIC DEMOCRATIC PEOPLE'S MALAYSIA UNION OF SOVIET SOCIALIST REPUBLIC OF KOREA MALI REPUBLICS DENMARK MAURITIUS UNITED ARAB EMIRATES DOMINICAN REPUBLIC MEXICO UNITED KINGDOM OF GREAT ECUADOR MONACO BRITAIN AND NORTHERN EGYPT MONGOLIA IRELAND EL SALVADOR MOROCCO UNITED REPUBLIC OF ETHIOPIA NAMIBIA TANZANIA FINLAND NETHERLANDS UNITED STATES OF AMERICA FRANCE NEW ZEALAND URUGUAY GABON NICARAGUA VENEZUELA GERMAN DEMOCRATIC REPUBLIC NIGER VIET NAM GERMANY, FEDERAL REPUBLIC OF NIGERIA YUGOSLAVIA GHANA NORWAY ZAIRE GREECE PAKISTAN ZAMBIA GUATEMALA PANAMA The Agency's Statute was approved on 23 October 1956 by the Conference on the Statute of the IAEA held at United Nations Headquarters, New York; it entered into force on 29 July 1957. The Headquarters of the Agency are situated in Vienna.
    [Show full text]
  • Feasibility of Inertial-Confinement Fusion
    On October 15, 1981, John H. Nuckolls this article has occurred because of the received the American Physical Society's dedication and inspiration of John Maxwell Prize for outstanding contribu­ Nuckolls and his colleagues at LLNL, as tions to plasma physics. The citation read well as of hundreds of researchers else­ "For his contributions to the genesis and where in the United States and other na­ progress of inertial confinement fusion. tions. In addition to their work, consistent His insight into the fundamental physics support for the U.S. Inertial Fusion Pro­ issues has served to guide and inspire the gram has been provided by the Depart­ technical evolution of the field." An article ment of Energy and its predecessors and based on his Maxwell lecture to the Soci­ by the Congress of the United States. This ety was published in Physics Today (Sep­ support has led, in 10 years time, to an ef­ tember 1982). Because of the interest that fort with the accomplishments and scope readers of the En ergy and Technol ogy described in this article. It should be fur­ Review could have in John's views on ther noted that, although the thrust of this John's views on inertial confinement fusion, the editors article is directed toward the long-range power-potential of the En ergy and Technology Review have agreed to re­ of the Inertial Fusion Program, current support and print the article in this issue. The work described in nearer-term goals are defense related. Feasibility of Inertial­ Confinement Fusion "We can see no insurmountable roadblocks to th e practi­ temperatures sufficient to cause the hy­ cal achievement of electrical power generated by in ertial­ drogen nuclei to fuse, releasing an confinement fusion ..
    [Show full text]
  • Lawrence Livermore National Laboratory (LLNL)
    LLNL Capabilities Relevant to the INFUSE Program Andris Dimits Presented at the INFUSE Workshop Lawrence Livermore National Laboratory Knoxville, TN, November 23, 2019 Email: [email protected] Ph: 925-422-0211 LLNL-PRES-797381 This work was performed under the auspices of the U.S. Department of Energy by Lawrence Livermore National Laboratory under contract DE-AC52-07NA27344. Lawrence Livermore National Security, LLC Outline § LLNL – some background § Organization of LLNL’s fusion-related departments § LLNL’s technical expertise related to fusion — MFE — IFE § Software § Facilities of potential interest for collaboration — User facilities — Other facilities of potential interest § Student intern and university faculty programs 2 LLNL-PRES-797381 LLNL – Some notable facts – (www.llnl.gov/about) § Managed by Lawrence Livermore National Security, LLC for NNSA § ~6,900 employees; ~2,700 scientists and engineers § Established in 1952 on the grounds of the decommissioned Livermore Naval Air Station § Prior to that, second site for UC Radiation Laboratory (Berkeley) — “Materials Testing Accelerator” — Development of diagnostics for nuclear weapons testing § Early involvement in controlled fusion — Magnetic mirrors (R. F. Post experiments, 1952 – MFTF-B, 1987) — Laser-based ICF • Nuckols 1960 – proposed idea of controlled ICF based on computations • Shiva laser 1977 § Wide array of activities in controlled fusion (ICF, MFE), HED sciences, materials sciences and other areas relevant to fusion energy 3 LLNL-PRES-797381 LLNL departments relevant
    [Show full text]