Tuesday, 14 January 2014

Hugh Everett III

From Wikipedia, the free encyclopedia

  (Redirected from Hugh Everett)
Jump to: navigation, search
Hugh Everett III
Hugh Everett in 1964
Born(1930-11-11)November 11, 1930
Washington, D.C., U.S.
DiedJuly 19, 1982(1982-07-19) (aged 51)
McLean, Virginia, U.S.
ResidenceUnited States
CitizenshipUnited States
Operations research
Game theory
InstitutionsInstitute for Defense Analyses
Monowave Corporation
Alma materThe Catholic University of America
Princeton University
Doctoral advisorJohn Archibald Wheeler
Known forMany-worlds interpretation
Everett's theorem[1][2][3]
Father of Mark Oliver Everett
Hugh Everett III (November 11, 1930 – July 19, 1982) was an American physicist who first proposed the many-worlds interpretation (MWI) of quantum physics, which he termed his "relative state" formulation.
Discouraged by the scorn[4] of other physicists for MWI, Everett ended his physics career after completing his Ph.D. Afterwards, he developed the use of generalized Lagrange multipliers for operations research and applied this commercially as a defense analyst and a consultant. He was married to Nancy Everett née Gore. They had two children: Elizabeth Everett and Mark Oliver Everett, who became frontman of the musical band Eels.

Early life and education[edit]

Born in 1930, Everett was born and raised in the Washington, D.C. area. Everett's parents separated when he was young. Initially raised by his mother (Katherine Lucille Everett née Kennedy), he was raised by his father (Hugh Everett Jr) and stepmother (Sarah Everett née Thrift) from the age of seven.[5]
Everett won a half scholarship to St John's College, a private military high school in Washington DC. From there he moved to the nearby The Catholic University of America to study chemical engineering as an undergraduate. While there he read about Dianetics in Astounding Science Fiction. Although he never exhibited any interest in Scientology (as Dianetics became), he did retain a distrust of conventional medicine throughout his life.[5]
During World War II his father was away fighting in Europe as Lieutenant Colonel on the general staff. After World War II, Everett's father was stationed in West Germany, and Hugh joined him, during 1949, taking a year out from his undergraduate studies. Father and son were both keen photographers and took hundreds of pictures of West Germany being rebuilt. Reflecting their technical natures, the pictures were "almost devoid of people".[5]


Everett graduated from The Catholic University of America in 1953 in chemical engineering, although he had completed sufficient courses for a mathematics degree as well. Everett then received a National Science Foundation fellowship that allowed him to attend Princeton University for graduate studies. He started his studies at Princeton in the Mathematics Department working on the then-new field of game theory under Albert W. Tucker, but slowly drifted into physics. In 1953 he started taking his first physics courses, notably Introductory Quantum Mechanics with Robert Dicke.[5]
During 1954, he attended Methods of Mathematical Physics with Eugene Wigner, although he remained active with mathematics and presented a paper on military game theory in December. He passed his general examinations in the spring of 1955, thereby gaining his Master's degree, and then started work on his dissertation that would (much) later make him famous. He switched thesis advisors to John Archibald Wheeler some time in 1955, wrote a couple of short papers on quantum theory and completed his long paper, Wave Mechanics Without Probability in April 1956.[6]
In his third year at Princeton Everett moved into an apartment which he shared with three friends he had made during his first year, Hale Trotter, Harvey Arnold and Charles Misner. Arnold later described Everett as follows:
He was smart in a very broad way. I mean, to go from chemical engineering to mathematics to physics and spending most of the time buried in a science fiction book, I mean, this is talent.[5]
It was during this time that he met Nancy Gore, who typed up his Wave Mechanics Without Probability paper. Everett married Nancy Gore, the next year.[7][8] The long paper was later retitled as The Theory of the Universal Wave Function.
Wheeler himself had traveled to Copenhagen in May, 1956 with the goal of reaching a favorable reception to at least part of Everett's work, in vain.[9][10] In June 1956 Everett started defense work in the Pentagon's Weapons Systems Evaluation Group, returning briefly to Princeton to defend his thesis after some delay in the spring of 1957. A short article, which was a compromise between Everett and Wheeler about how to present the concept and almost identical to the final version of his thesis, was published in Reviews of Modern Physics Vol 29 #3 454-462, (July 1957), accompanied by an approving review by Wheeler. Everett was not happy with the final form of the article.[5]

After Princeton[edit]

Everett's attendance marked the transition from academia to commercial work.
Upon graduation in September 1956, Everett was invited to join the Pentagon's newly-forming Weapons Systems Evaluation Group (WSEG), managed by the Institute for Defense Analyses. Between 23–26 October 1956 he attended a weapons orientation course managed by Sandia National Laboratories at Albuquerque, New Mexico to learn about nuclear weapons and became a fan of computer modeling while there. In 1957, he became director of the WSEG's Department of Physical and Mathematical Sciences. After a brief intermission to defend his thesis on quantum theory at Princeton, Everett returned to WSEG and recommenced his research, much of which, but by no means all, remains classified. He worked on various studies of the Minuteman missile project, which was then starting, as well as the influential study The Distribution and Effects of Fallout in Large Nuclear Weapon Campaigns.[11][12]
During March and April 1959, at Wheeler's request, Everett visited Copenhagen, on vacation with his wife and baby daughter, in order to meet with Niels Bohr, the "father of the Copenhagen interpretation of quantum mechanics". The visit was a complete disaster; Everett was unable to communicate the main idea that the universe is describable, in theory, by an objectively existing universal wave function (which does not "collapse"); this was simply heresy to Bohr and the others at Copenhagen. The conceptual gulf between their positions was too wide to allow any meeting of minds; Léon Rosenfeld, one of Bohr's devotees, talking about Everett's visit, described Everett as being "undescribably stupid and could not understand the simplest things in quantum mechanics". Everett later described this experience as "hell...doomed from the beginning".[13]
However, whilst in Copenhagen, in his hotel, he started work on a new idea to use generalized Lagrange multipliers for mathematical optimization. Everett's theorem, published in 1963, relates the Lagrangian bidual to the primal problem.[1]
In 1962 Everett accepted an invitation to present the relative-state formulation (as it was still called) at a conference on the foundations of quantum mechanics held at the Xavier University of Cincinnati.[13] Amongst his exposition Everett presented his derivation of probability and also stated explicitly that observers in all branches of the wavefunction were equally "real." He also agreed with an observation from the floor that the number of branches of the universal wavefunction was an uncountable infinity.
In August 1964, Everett and several WSEG colleagues started Lambda Corp. to apply military modeling solutions to various civilian problems. During the early 1970s, defense budgets were curtailed and most money went to operational duties in the Vietnam War, resulting in Lambda eventually being absorbed by the General Research Corp.
In 1973 Everett left Lambda to establish DBS Corporation in Arlington, Virginia, a computer consulting company. Much of their work seems to have concerned statistical analysis. He seems to have enjoyed programming, and spent the rest of his life working at DBS. He also established Monowave Corporation with several DBS and family friends.

Later recognition[edit]

In 1970 Bryce DeWitt wrote an article for Physics Today on Everett's relative-state theory, which evoked a number of letters from physicists. These letters, and DeWitt's responses to the technical objections raised, were also published. Meanwhile DeWitt, who had corresponded with Everett on the many-worlds / relative state interpretation when originally published in 1957, started editing an anthology on the many-worlds interpretation of quantum mechanics. In addition to the original articles by Everett and Wheeler, the anthology was dominated by the inclusion of Everett's 1956 paper The Theory of the Universal Wavefunction, which had never been published before. The book was published late in 1973, sold out completely, and it was not long before an article on Everett's work appeared in the science fiction magazine, Analog.[13]
In 1977, Everett was invited to give a talk at a conference Wheeler had organised at Wheeler's new location at the University of Texas at Austin. As with the Copenhagen visit, Everett vacationed from his defense work and traveled with his family. Everett met DeWitt there for the first and only time. Everett's talk was quite well received and influenced a number of physicists in the audience,[13] including Wheeler’s graduate student, David Deutsch, who later promoted the many-worlds interpretation to a wider audience.[13] Everett, who "never wavered in his belief in his many-worlds theory",[14] enjoyed the presentation; it was the first time for years he had talked about his quantum work in public. Wheeler started the process of returning Everett to a physics career by establishing a new research institute in California, but nothing came of this proposal. Wheeler, although happy to introduce Everett's ideas to a wider audience, was not happy to have his own name associated with Everett's ideas. Eventually, after Everett's death he formally renounced the theory.[13][15]

Death and legacy[edit]

Everett, who believed in quantum immortality,[5][16] died suddenly at home on[7] his bed in the night of July 18/19, 1982, of heart failure at the age of 51. Everett's obesity, frequent chain-smoking and alcohol drinking[7] almost certainly contributed to this, although he seemed healthy at the time. A committed atheist,[5] he had asked that his remains be disposed with the trash after his death. His wife kept his ashes in an urn for a few years, before complying with his wishes.[5] About Hugh's death his son, Mark Oliver Everett, later said:
I think about how angry I was that my dad didn't take better care of himself. How he never went to a doctor, let himself become grossly overweight, smoked three packs a day, drank like a fish and never exercised. But then I think about how his colleague mentioned that, days before dying, my dad had said he lived a good life and that he was satisfied. I realize that there is a certain value in my father's way of life. He ate, smoked and drank as he pleased, and one day he just suddenly and quickly died. Given some of the other choices I'd witnessed, it turns out that enjoying yourself and then dying quickly is not such a hard way to go.[17]
Of the companies Everett initiated, only Monowave Corporation still exists (in Seattle as of November 2007) and is still managed by co-founder Elaine Tsiang (who had studied physics under Bryce DeWitt at the University of North Carolina at Chapel Hill).
Everett's daughter, Elizabeth, suffered from manic depression and committed suicide in 1996 (saying in her suicide note that she wished her ashes to be thrown out with the garbage so that she might "end up in the correct parallel universe to meet up w[ith] Daddy"),[5] and in 1998, his wife, Nancy, died of cancer. Everett's son, Mark Oliver Everett, who found Everett dead, is also known as "E" and is the main singer and songwriter for the band Eels. The Eels album Electro-Shock Blues, which was written during this time period, is representative of these deaths. Mark explored his father's work in the hour-long BBC television documentary Parallel Worlds, Parallel Lives.[18][19][20][21] The program was edited and shown on the Public Broadcasting Service's Nova series in the USA during October 2008.[22][23][24]

See also[edit]


  1. ^ Jump up to: a b Lemaréchal (2001, pp. 125–126): Lemaréchal, Claude (2001). "Lagrangian relaxation". In Michael Jünger and Denis Naddef. Computational combinatorial optimization: Papers from the Spring School held in Schloß Dagstuhl, May 15–19, 2000. Lecture Notes in Computer Science 2241. Berlin: Springer-Verlag. pp. 112–156. doi:10.1007/3-540-45586-8_4. ISBN 3-540-42877-1. MR 1900016. 
  2. Jump up ^ Everett (1963): Everett, Hugh, III (1963). "Generalized Lagrange multiplier method for solving problems of optimum allocation of resources". Operations Research 11 (3): 399–417. doi:10.1287/opre.11.3.39. JSTOR 168028. MR 152360. 
  3. Jump up ^ Everett (1957): H. Everett (1957). "Recursive games". In Melvin Dresher, Albert William Tucker, Philip Wolfe. Contributions to the Theory of Games, Volume 3. Annals of Mathematics Studies. Princeton University Press. pp. 67–78. ISBN 978-0-691-07936-3. MR 91863. (Reprinted in Harold W. Kuhn, ed. Classics in Game Theory, Princeton University Press, 1997. ). 
  4. Jump up ^ "The Many Worlds of Hugh Everett" by Peter Byrne, from Scientific American, December 2007
  5. ^ Jump up to: a b c d e f g h i j Peter Byrne (2010). The Many Worlds of Hugh Everett III: Multiple Universes, Mutual Assured Destruction, and the Meltdown of a Nuclear Family. Oxford University Press. p. 29. ISBN 978-0-19-955227-6. 
  6. Jump up ^ Fabio Freitas, Os estados relativos de Hugh Everett III: uma análise histórica e conceitual. Programa de Pós-Graducação em Ensino, Filosofia e História das Ciências. 2007 [1]
  7. ^ Jump up to: a b c Mark Oliver Everett, Things the Grandchildren Should Know, ISBN 978-0-316-02787-8
  8. Jump up ^ Eugene Shikhovtsev, Biographical Sketch of Hugh Everett, III, Eugene Shikhovtsev's Biography of Everett, maintained by Max Tegmark
  9. Jump up ^ Olival Freire, Jr.: Science and exile: David Bohm, the hot times of the Cold War, and his struggle for a new interpretation of quantum mechanics [2]
  10. Jump up ^ Olival Freire Jr.: Science and exile: David Bohm, the Cold War, and a new interpretation of quantum mechanics [3]
  11. Jump up ^ Hugh Everett III and George E.Pugh, "The Distribution and Effects of Fallout in Large Nuclear-Weapon Campaigns", in Biological and Environment Effects of Nuclear War, Hearings Before the Special Sub-Committee on Radiation of the Joint Congressional Committee on Atomic Energy, June 22–26, 1959, Washington, D.C., U.S. Government Printing Office, 1959.
  12. Jump up ^ Cf. Dr. Linus Pauling Nobel Peace Prize 1962 lecture (and reprinted in Peace by Frederick W. Haberman, Irwin Abrams, Tore Frängsmyr, Nobelstiftelsen, Nobelstiftelsen (Stockholm), published by World Scientific, 1997 ISBN 981-02-3416-3), delivered on December 11, 1963, in which he mentioned the work by Pugh and Everett regarding the risks of nuclear profliferation and even quoted them from 1959. Pauling said: "This is a small nuclear attack made with use of about one percent of the existing weapons. A major nuclear war might well see a total of 30,000 megatons, one-tenth of the estimated stockpiles, delivered and exploded over the populated regions of the United States, the Soviet Union, and the other major European countries. The studies of Hugh Everett and George E. Pugh [21], of the Weapons Systems Evaluation Division, Institute of Defense Analysis, Washington, D.C., reported in the 1959 Hearings before the Special Subcommittee on Radiation, permit us to make an estimate of the casualties of such a war. This estimate is that sixty days after the day on which the war was waged, 720 million of the 800 million people in these countries would be dead, sixty million would be alive but severely injured, and there would be twenty million other survivors. The fate of the living is suggested by the following statement by Everett and Pugh: 'Finally, it must be pointed out that the total casualties at sixty days may not be indicative of the ultimate casualties. Such delayed effects as the disorganization of society, disruption of communications, extinction of livestock, genetic damage, and the slow development of radiation poisoning from the ingestion of radioactive materials may significantly increase the ultimate toll.' ..."
  13. ^ Jump up to: a b c d e f Osnaghi, Stefano; Freitas, Fabio; Olival Freire, Jr (2009). "The Origin of the Everettian Heresy" (PDF). Studies in History and Philosophy of Modern Physics 40 (2): 97–123. doi:10.1016/j.shpsb.2008.10.002. 
  14. Jump up ^ Aldhous, Peter (2007-11-24). "Parallel lives can never touch". New Scientist (2631). Retrieved 2007-11-21 .
  15. Jump up ^ Gardner, Martin (July 2003). "Multiverses and Blackberries". Are Universes Thicker Than Blackberries?. New York: W. W. Norton & Company. ISBN 0-393-05742-9. 
  16. Jump up ^ See Keith Lynch's recollections in Eugene Shikhovtsev's Biography of Everett [4]
  17. Jump up ^ Things the Grandchildren Should Know, ISBN 978-0-316-02787-8, pg 235
  18. Jump up ^ Last night's TV: Parallel Worlds, Parallel Lives, Nancy Banks-Smith, Guardian blog, 27 November 2007.
  19. Jump up ^ Parallel Worlds, Parallel Lives BBC Four documentary about Eels founder Mark Everett and his father, Band Weblogs, 16 November 2007.
  20. Jump up ^ "Parallel Worlds, Parallel Lives", BBC Press Release
  21. Jump up ^ "Parallel Worlds, Parallel Lives", BBC iPlayer
  22. Jump up ^ Parallel Worlds, Parallel Lives", PBS Nova TV program, October 2008.
  23. Jump up ^ Healy, Pat, "‘Nova’ came for his soul: Eels front man on the healing power of a science doc about his dad", Metro newspaper, October 21, 2008.
  24. Jump up ^ Hugh Everett: New film tackles "many worlds" theory of quantum mechanics 60 second science, Scientific American blog, by Jordan Lite and George Musser

Many-worlds references[edit]

Operations research references[edit]

Biographical sources[edit]

External links[edit]

No comments:

Post a Comment