Abstract
While co-citation analysis nas proved a powerful tool in the study of changes in intellectual foci in science, the technique has never been used to study very rapid changes in the theoretical structure of a scientific field. In this paper we present month-by-month co-citation analyses of key phases in the weak-electromagnetic unification research program within particle physics and show that these analyses capture and illuminate very rapid intellectual changes. These data provide yet another illustration of the utility of co-citation analysis for understanding the history of science.
Similar content being viewed by others
References and notes
See, for exampl, H. G. SMALL, Co-Citation in the Scientific Litareture: A New Measure of the Relationship Between Two Documents,Journal of the American Society for Information Science, 24 (July–August 1973) 265–9; H. G. SMALL, B. C. GRIFFITH, The Structure of Scientific Literatures I: Identifying and Graphing Specialties,Science Studies, 4 (1974) 17–40; B. C. GRIFFITH, H. G. SMALL, J. A. STONEHILL, S. DEY, The Structure of Scientific Literatures II: Toward a Macro-and Micro-Structure for Science,Science Studies, 4 (1974) 330–65; H. G. SMALL, A Co-Citation Model of a Scientific Speciality: A Longitudinal Study of Collagen Research,Social Studies of Science, 7 (May 1977) 139–66.
D. SULLIVAN, D. H. WHITE, E. J. BARBONI, Co-Citation Analyses of Science: An Evaluation,Social Studies of Science, 7 (1977) 223–40; D. SULLIVAN, D. H. WHITE, E. J. BARBONI, Problem Choice and the Sociology of Scientific Competition: An International Case Study in Particle Physics,Research in the Sociology of Knowledge, Sciences, and Art, Vol. III (1980), forthcoming; D. H. WHITE, D. SULLIVAN, Social Currents in the Weak Interactions,Physics Today, (April 1979), 40–7.
For a recent update and explanation of weak-electromagnetic unification suitable for the layman, see A. L. ROBINSON, Particle Theory: Stanford Electron Experiment, Closes Options,Science, 201 (21 July 1978) 245; and S. COLEMAN, The 1979 Nobel Prize in Physics,Sicence, 206 (14 November 1979), 1290–2.
S. WEINBERG, A Model of Leptons,Physical Review Letters, 19 (1967) 1264–6.
A. SALAM, inElementary Particle Theory N. SVARTHOMLM (Ed.), Stocholm; Almquist and Forlag, 1968, p. 367.
See our “The Role of Experiment ...”op. cit., note 1, for documentation.
G. t'HOOFT, Renormalizable Langrangians for Massive Yang-Mills Fields,Nuclear Physics B, 35 (1971) 167–88.
H. GEORGI, S. L. GLASHOW, Unified Weak and Electromagnetic Interactions Without Neutral Currents,Physical Review Letters, 28 (1972) 1494–7.
B. W. LEE, Model, of Weak and Electromagnetic Interactions,Physical Review D, 6 (1972) 1188–90.
J. PRENTIKI, B. ZUMINO, Models of Weak and Electromagnetic Interactions,Nuclear Physics B, 47 (1972) 99–108.
S. L. GLASHOW, J. ILIOPOULOS, L. MAIANI, Weak Interactions with Lepton-Hadron Symmetry,Physical Review D, 2 (1970) 1285–92.
C. BOUCHIAT, J. ILIOPOULOS, PH. MEYER, An Anomaly-Free Version of Weinberg's Model,Physics Letters, 38B (1972) 519–23.
W. LEE, Experimental Limit on the Neutral Current in the Semi-leptonic Processes,Physics Letters, 40B (1972) 423–5.
Appendix Papers cited in co-citation activity plots
ABRAMS, G. S., et al., Discovery of a Second Narrow Resonance in e+e− Annihilation,Physical Review Letters, 33 (1974) 1453–55.
AUBERT, B. et al., Further Observation of Muonless Neutrino-Induced Inelastic Interactions,Physical Review Litters, 32 (1974) 1454–7.
AUGUSTIN, J. E., Discovery of a Narrow Resonance in e+e− Annihilation,Physical Review Letters, 33 (1974) 1406–8.
BEG, M. A., ZEE, A., Hadron Structure and Weak Interactions in a Gauge Theory,Physical Review Letters, 30 (No. 14) (1973) 675–75.
BENVENUTI, A., et al., Observation of Muonless Neutrino-Induced Inelastic Interactions,Physical Review Letters, 32 (1974) 800–3.
BJORKEN, J. D., LLEWELLYIN SMITH, C. H., Spontaneously Broken Gauge Theories of Weak Interactions and Heavy Leptons,Physical Review D, 7 (No. 3) (1973) 887–902.
BOUCHIAT, C., et al., An Anomaly-Free Version of Weinberg's Model,Physics Letters, 38B (1972) 519–23.
CLARK, A. R., et al., Experimental Limits on the Decays K 0L →μ+μ-, e+ e−, and μ+e∓,Physical Review Letters, 36 (1971) 1667-71.
GEORGI, H., GLASHOW, S., Unified Weak and Electromagnetic Interactions Without Neutral Currents,Physical Review Letters, 28 (1972) 1494–7.
HASERT, F. J., et al., Search for Elastic Muon-Neutrino Electron Scattering,Physics Letters 46B (1973) 121–4.
HASERT, F. J., et al., Observation of Neutrino-Like Interactions Without Muon or Electron in the Gargamelle Neutrino Experiment,Physics, Letters, 46B (1973) 138–40.
LEE, B. W., Model of Weak and Electromagnetic Interactions,Physical Review, 6D (1972) 1188–90.
LEE, W., Experimental Limit on the Neutral Current in the Semileptonic Processes,.Physics Letters, 40B (1972) 423–5.
LEE, Y. Y., et al., Experimental Observation of a Heavy Particle J.,Physical Review Letters, 33 (1974) 1404–6.
MARTIN, B. R., et. al., Neutral Kaon Decays into Lepton Paris,Physical Review, D2 (1970) 179–200.
PAIS, A., TREIMAN, S., Neutral-Current Effects in a Class of Gauge Field Theories,Physical Review, 6D (1972) 2700–3.
PASCHOS, E. A., WOLFENSTEIN, L., Tests for Neutral Currents in Neutrino Reactions,Physical Review, 7D (1973) 91–5.
PRENTKI, J., ZUMINO, B., Models of Weak and Electromagnetic Interactions,Nuclear Physics, B47 (1972) 99–108.
SAKURAI, J. J., Weak Interactions and the Baryonic Current,Physical Review, 9D, (1974) 250–2.
t'HOOFT, G., Renormalizable Lagrangians for Massive Yang-Mills Fields,Nuclear Physics, 35B (1971) 167–88.
WEINBERG, S., Model of Leptons,Physical Review Letters, 19 (1967) 1264–6.
WEINBERG, S., Physical Processes in a Convergent Theory of the Weak and Electromagnetic Interactions,Physical Review Letters, 27 (1971) 1688–91.
WEINBERG, S., Effects of a Neutral Intermediate Boson in Semileptonic Processes,Physical Review, 5D (1972) 1412–7.
Author information
Authors and Affiliations
Additional information
An earlier version of this paper was published inInformation Choices and Policies (Knowledge Industries Publications, Inc., White Plains, N. Y.: 1979), Vol. 16, Proceedings of the 42nd Annual Meeting of the American Society for Information Science. Knowledge Industries and the ASIS have kindly given permission to us to seek a wider audience. This work was made possible by NSF Grant GS-41697 to the Research Program on Social Analyses of Science Systems (SASS), Cornell University, Ithaca, New York and NSF Grant SOC76-84482 to Carleton College, Northfield, Minnesota.
Rights and permissions
About this article
Cite this article
Sullivan, D., Koester, D., White, D.H. et al. Understanding rapid theoretical change in particle physics: A month-by-month co-citation analysis. Scientometrics 2, 309–319 (1980). https://doi.org/10.1007/BF02016351
Received:
Issue Date:
DOI: https://doi.org/10.1007/BF02016351