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Euthanasia Retums As Economic Policy
Court documents show CIA role against LaRouche The beginning of the end for the Khomeiniacs? Laser fusion breakthroughs herald 'star power' Euthanasia retums as economic policy What do the Russians think of Executive Intelligence Review-? • Only EIR, among Western print-media, stated before • EIR issued a Special Report in 1983 on how beam and during the Reykjavik meeting that the Strategic weapons technologies would transform the civilian Defense Initiative was the only issue at stake for the economy and start a real worldwide recovery. Since Russians. The dramatic ending of the pre-summit proved 1983, EIR brought together political and industrial lead us right-and the liberal media wrong. ers in Paris, Rome, Stockholm, Tokyo, Bonn, and else where in major conferences on the SOL The Russians • EIR founder Lyndon LaRouche first publicly pre called these meetings "gatherings of cavemen" in their sented the "beam-weapons defense" program now press! known as the Strategic Defense Initiative in Washing ton, at an EIR-sponsored conference in Washington in • Now that the Russians have made their big propa February 1982. ganda play for the "zero option" to eliminate nuclear missiles from Europe, they're reviving the Reykjavik • In March 1983, President Reagan gave his historic demand that the U.S. won't get any arms deal without speech announcing the new strategic doctrine based giving up the SOl! Reagan's under more pressure than on defensive weapons that could make nuclear missiles ever to capitulate. "impotent and obsolete," EIR was the only general r-------------------------- circulation weekly to define this as the key to reviving the Western ideal of technological optimism. -
1 L'energia Nucleare Attualità E Prospettive
L’ENERGIA NUCLEARE ATTUALITÀ E PROSPETTIVE G. Giorgio Bombi – Dipartimento di Scienze Chimiche “Little Boy” – Hiroshima, 6 agosto 1945 IL FENOMENO DELLA RADIOATTIVITÀ “Fat Man” – Nagasaki, 9 agosto 1945 Combinando fra di loro i quark si producono gli adroni: Le particelle elementari 3 quark formano un barione (protone o neutrone) 2 quark (1 quark + 1 antiquark) formano un mesone Fermioni (particelle con spin semiintero): 24 particelle in totale: 6 quark quark up: carica 2/3 6 leptoni (elettrone, muone, tauone, neutrini: elettronico, muonico, tauonico) quark down: carica -1/3 altrettante antiparticelle protone neutrone Bosoni (particelle con spin intero): 6 (o 7?) particelle in totale: (up up down) (up down down) gluone: mediatore della forza forte (spin 1) Fortunatamente, per i nostri scopi sarà sufficiente prendere in bosoni elettrodeboli (spin 1) considerazione solo 7 particelle: - fotone (mediatore della forza elettromagnetica) - bosoni deboli: W +, W - e Z0 (mediatori della forza debole) protoni neutroni bosone di Higgs (spin 0) elettroni (e antielettroni) gravitone (mediatore della gravità) (spin 2) (?) neutrini (e antineutrini) elettronici fotoni 1 Un particolare nuclide può essere rappresentato indicando il IL CONCETTO DI NUCLIDE simbolo dell’elemento corrispondente, il numero di massa e il numero atomico (quest’ultima indicazione è in realtà pleonastica!). Per nuclide si intende una specie atomica caratterizzata dalla Ad esempio, l’elemento carbonio ha due isotopi stabili: il costituzione del suo nucleo, cioè dal numero di protoni (Z) e dal carbonio-12 il cui nucleo contiene 6 protoni e 6 neutroni e il numero di neutroni (N). I protoni e i neutroni vengono chiamati carbonio-13 il cui nucleo contiene 7 neutroni. -
"Nuclear Power Attitudes in USSR."
. N ul / NUCLEAR POWER ATTITUDES IN THE U.S.S.R. Richard Wilson ao ~ ' Harvard Universitu go - 9 - Cambridder Massachusetts 0213 0 f .. , , _a v () A. During a recent visit to the Soviet Union, as a duest of the Soviet Academu of Sciences, I made efforts to discover the attitudes of various scientists and others about nuclear electric Power, and in Particular, the effect on Proliferation of nuclear weapons. I talked in Part,icular with Acedemicians Pietr Ka- Pitsa and Andrei Sakharov who, although not directlu involved with the nuclear Power Prodram of the LIS S R , are interested as concerned citizens and had made Publ- ic statements on the subject. In a speech to the Sovi- et Academu of Sciences two sears ador Pietr Kapitsa said there were "three important problems about nuclear Power how to Prevent nuclear accidentsr what to do about nuclear wastes, and how to Prevent Proliferation of nuclear weapons." This was reported in the New York Times in Audust 1977, but the Times did not report the next sentencer 'It is vital that we solve these Prob- lems soon because there is no other solution Ethan nu- clear Power] to the world's enerdu Problems." Napitsa re tu r ned to enerflu -rehlems in his Nobel address in De- cember 1978, and his idean_have been uidolu disseminat- 790824o494 827 130 O D m)D QvI PAGE 2 ~9'} ~ ollu_)].1_ _a ed (1). Sakharov had discussed the importance of nuclear Power to the strendth of the Western world in an arti- cle published durind 1978 in the Orande Counts Press and in the Bulletin of Atomic Scientists (2). -
High-Gain Laser Fusion Targets Demonstrated
Click here for Full Issue of EIR Volume 15, Number 17, April 22, 1988 �TIillScience & Technology High-gain laser fusion targets demonstrated While technological hurdles must be overcome blifore thefull potentials qflaser fusion can be realized. the question is not "whether," but when. By Charles B. Stevens. In a front-pagearticle on March 21, 1988 the to provide a means of propulsion for ships. The ships in this New York Times confirmed in detail reports published by EIR last fall, when case, though, will be terawatt interplanetary spaceships, which we wrote in our Oct. 2, 1987 issue that "researchers at the will provide the essential means for making the colonization California-based Lawrence Livermore National Laboratory . of Mars over the next four decades eminently feasible. Sci . have experimentally demonstrated the science for har entifically, the mastery of laser fusion will revolutionize vir nessing the 'internal combustion engine' of the 21st centu tually every field of research, as is now being demonstrated ry-the thermonuclear-powered laser fusion reactor." And in the Livermore effort to make x-ray laser microholograms just as the Wright brothers' first demonstration of powered of living cells-atomic-scale motion pictures of living pro flight in 1903 was, at the time, hardly noticed, though later cesses-for the first time. widely acclaimed, this event will be celebrated by many generations to come as the dawn of the fusion age. revelations New York Times The data revealed in the article confirms The article reveals for the first time top New York Times New York Times that the essential scientific prerequisites for harnessing laser secret data from the Halite-Centurion program and the over fusion have been experimentally demonstrated. -
5/6/2004 4:15 PM 030904 Drell Lecture.Doc 1 Tape Transcription Dr. Richard Garwin Drell Lecture U.S. NUCLEAR WEAPONS and NUCLEA
Tape Transcription Dr. Richard Garwin Drell Lecture U.S. NUCLEAR WEAPONS AND NUCLEAR EXPLOSION TESTING Tuesday, March 9, 2004 [With “[SLIDE x]” references to accompany file USNW_Slides.pdf] CHAIR: [Welcome on behalf of the Center for International Security and Cooperation within the Stanford Institute for International Studies.] My name is Christopher Chyba, and with Scott Sagan I co-direct CISAC, the Center for International Security and Cooperation. The Drell Lecture was established by Bud and Cecily Wheelon who are with us here this evening, in 1994, and then named in honor of Professor Sidney Drell upon his retirement at Stanford. Bud Wheelon has had a remarkable career as Deputy Director of the CIA and been CEO of Hughes Aircraft, and he and Sid Drell both played a remarkable role in intelligence gathering and the resulting possibilities for arms control during the Cold War. You can read about those roles in Philip Taubman's book Secret Empire. Sidney Drell was also here at Stanford, one of the founding co-directors of CISAC as well as Deputy Director of the Stanford Linear Accelerator facility. We could hardly have a better speaker to be this year's Drell Lecture than tonight's speaker Dr. Richard Garwin. Dr. Garwin received his Ph.D. in Physics from the University of Chicago in 1949. He is now Philip D. Reed Senior Fellow for Science and Technology at the Council on Foreign Relations and also IBM Fellow Emeritus as well as previous Director of the IBM Thomas J. Watson Research Center. He was a member of the President's Science Advisory Committee and is currently a member of the National Academy of Sciences, the Institute of Medicine and the National Academy of Engineering as well as the Council on Foreign Relations. -
Chronology American Aerospace Events
CHRONOLOGY AMERICAN AEROSPACE EVENTS HAROLD “PHIL” MYERS CHIEF HISTORIAN AIR FORCE INTELLIGENCE, SURVEILLANCE, AND RECONNAISSANCE AGENCY LACKLAND AFB, TEXAS 23 February 2009 EVOLUTION OF A CHRONOLOGY In 1981, as an Air Force enlisted historian, I worked for the Research Division of the Air Force Historical Research Agency (then Albert F. Simpson Historical Center) at Maxwell AFB, Al. For the next two years, I answered inquiries and conducted the Historian’s Development Course. While there I discovered a real “nugget,” A Chronology of American Aerospace Events from 1903-1974, gathering dust on an obscure shelf. I knew the draft document would be a handy reference for all enlisted field historians. In 1983, I took a copy of this chronology with me on my next assignment with the 39th Tactical Group in Turkey. The chronology proved to be an invaluable source in promoting Air Force history. It allowed me to prepare “Today in Aerospace History” slides for weekly staff meetings and write a weekly “Aerospace Highlights” column for the base newspaper. But at that time, the chronology was arranged by year and date, and it took considerable time to find events by specific dates. In 1985, I moved to the Ballistic Missile Office at Norton AFB, California, to write about the Peacekeeper and Small ICBM programs. The introduction of computers allowed me to convert the original chronology into a “By Date” product. I knew that the chronology was not an all inclusive listing, so I began to integrate events from other works—like the Development of Strategic Air Command, 1946-1986, The SAC Missile Chronology, and The Military Airlift Command Historical Handbook, 1941-1986—into an electronic product. -
Diagnostics Considerations for the Inertial Confinement Approach to Controlled Thermonuclear Fusion Power Production
Ct l^f-- IWlK** - j PREPRINT UCRL-81609 Lawrence Livermore Laboratory DIAGNOSTICS CONSIDERATIONS FOR THE INERTIAL CONFINEMENT APPROACH TO CONTROLLED THERMONUCLEAR FUSION POWER PRODUCTION Lowell Wood MASTER li.ihiiity or irip'iHMbilny fi>i llir s^uiaiy "r iiidulriesi (if any .ni'ji'iyiH r>. appar.ii August 28, 1978 ri"c» Jnclnsci!. »i irpiesfi'H dial Us • mlniipr pnviiely owned rip.dii This paper was prepared for submission to the International School of Plasma Physics, Varenna, Italy, Italian Physical Soc, 4-15 September 1978. To be presented as two lectures. This is a preprint of a paper intended for publicatior in a journal or proceedings. Since changes may be made before publication, this preprint is made available with the understanding that it will not be cited or reproducea without the permission of the author. f^^sssm^^^. ^**>- -»vo*-._ DISTRIBUTION OF THIS DOCUMENT IS UNLIMITED DIAGNOSTICS CONSIDERATIONS FOR THE INERTIAL CONFINEMENT APPROACH TO CONTROLLED THERMONUCLEAR FUSION POWER PRODUCTION * Lowell Wood University of California Lawrence Liver-more Laboratory Livermore, CA S4550 INTRODUCTION The basic problem confronting workers on the inertial confinement approach to controlled thermonuclear fusion may be resolved into three challenging sub-problems: 1) invention, detailed physics design and fabrication of the optimal fusion pellet (under whatever technological constraints may be pertinent), 2) design and implementation of the pellet driver' (the pulsed power device which delivers onto this pellet the energy at the peak power required to implode and center-ignite it as specified by the detailed physics design), and 3) the feedback-intensive exercising of the driver on such pellets to identify, quantitate and correct for the myriad real-world non-idealities not initially accounted for in the designs and implementations of the pellet and the pellet driver.