Open Access Open Access  Restricted Access Subscription Access

The Future of Theoreticle Particle Physics:A Summary


Affiliations
1 Institute of Particle Physics, Central China Normal University, China
 

From history, it can be traced that fundamental physics began the twentieth century with the revolution of two great important theories in physics namely: relativity and quantum mechanics. On one hand, a good number of years of the second half of the century was devoted to the construction of a theoretical structure with a view of unifying these radical ideas. On the other hand, this foundation has also led us to a number of paradoxes in our understanding of nature. Many attempts to make sense of quantum mechanics and gravity at the smallest distance scales lead inexorably to the conclusion that space-time is an approximate notion that must emerge from more primitive building blocks. Furthermore, violent short-distance quantum fluctuations in the vacuum seem to make the existence of a macroscopic world wildly implausible, and yet we live comfortably in a huge universe. Now, what, if anything, tames these fluctuations? Why is there a macroscopic universe? These are two of the central theoretical challenges of fundamental physics in the twenty-first century. In this summary, we describe the circle of ideas surrounding these questions, as well as some of the theoretical and experimental fronts on which they are being attacked and predict what the future holds for theoretical particle physics.

Keywords

Relativity, Quantum Mechanics, Standard Model.
User
Notifications
Font Size

  • Donald HP. Introduction to high energy physics. Cambridge University Press. 2000.
  • Nakamura K. Review of particle physics. Journal of Physics G: Nuclear and Particle Physics. Bibcode. 2010;37
  • Barbier R, Berat C, Besancon M, et al. R-parity violating supersymmetry. Phys. Rept. 2005;420:1
  • Braibant S, Giacomelli G, Spurio M. Particles and fundamental interactions: An introduction to particle physics. Springer. 2009:313-314.
  • Robinson MB, Ali T, Cleaver GB. A simple introduction to particle physics Part II. arXiv:0908.1395[hep-th]. 2009
  • The ‘Higgs boson’. CERN.
  • Amsler C, Doser M, Antonelli M, et al. Particle data group, Phys Lett B. 2008;667:1.
  • Particle Physics and Astrophysics Research. The Henryk Niewodniczanski Institute of Nuclear Physics. 2012.
  • Robinson MB, Bland KR, Cleaver GB, et al. A simple introduction to particle physics. 2008
  • Anderson PW. More is different. Science. New Series, 1972;177:393.
  • Machleidt R. Spin and isospin in nuclear interactions. Adv. Nucl. Phys and references therein. 1989;19:189
  • Seki V, Kolck UV, Savage MJ. Proceedings of the Joint Caltech/INT Workshop: Nuclear Physics with Effective Field Theory, ed.1998.
  • Kaplan DB, Savage MJ. Effective field theory for nuclear physics. Wise Phys. Rev. C59. 1999;617.
  • http://www.hep.anl.gov/ndk/hypertext/nu industry.html
  • Wolfenstein L, Mikheyev SP, Smirnov AY. Sov J Nucl Phys.1985;42:913.
  • Fukuda Y. Super-kamiokande collaboration. Phys Rev Lett 81;1998: 1562; IBID. 82;1999:2644; ibid. 82;1999
  • Suzuki Y. Talk at the XIX International Symposium on Lepton and Photon Interactions at High Energies, Stanford University, 1999:914.
  • Bernstein IB, Rabinowitz IN. Theory of electrostatic probes in low-density plasma. AIP Physics of Fluids.1959;2:112-121.
  • Laframboise JG. Theory of spherical and cylindrical Langmuir probes in a collisionless, Maxwellian plasma at rest, Toronto: UTIAS Report No.100 University of Toronto.1966.
  • Bilyk O, Holik M, Pysanenko A, et al. The OML theory for electron collection for gas pressures. Vacuum. 2004;76:457.
  • Sudit D, Woods R. A study of the accuracy of various Langmuir probe theories. J Appl Phys. 1994;76:4488.
  • Demidov VI, Ratynskaia SV, Rypdal K. Electric probes for plasmas: The link between theory and instrument. Rev Sci Instrum. 2002;73:3409.
  • Bohm D, Burhop EHS, Massey HSW. The characteristics of electrical discharges in magnetic fields. New York: McGraw Hill, New York. 1949.
  • Johnson EO, Malter L. A floating double probe method for measurements in gas discharges. Phys Rev.1950;80:56.
  • Ivanov YA, Lebedev YA, Polak LS. Methods of in situ diagnostics of non-equilibrium plasma-chemistry. Moscow: Nauka. 1981.
  • Hoegy WR, Wharton LE. Current to a moving cylindrical electrostatic probe. J Appl Phys. 1973;44:5365.

Abstract Views: 247

PDF Views: 19




  • The Future of Theoreticle Particle Physics:A Summary

Abstract Views: 247  |  PDF Views: 19

Authors

M. Kabuswa Davy
Institute of Particle Physics, Central China Normal University, China

Abstract


From history, it can be traced that fundamental physics began the twentieth century with the revolution of two great important theories in physics namely: relativity and quantum mechanics. On one hand, a good number of years of the second half of the century was devoted to the construction of a theoretical structure with a view of unifying these radical ideas. On the other hand, this foundation has also led us to a number of paradoxes in our understanding of nature. Many attempts to make sense of quantum mechanics and gravity at the smallest distance scales lead inexorably to the conclusion that space-time is an approximate notion that must emerge from more primitive building blocks. Furthermore, violent short-distance quantum fluctuations in the vacuum seem to make the existence of a macroscopic world wildly implausible, and yet we live comfortably in a huge universe. Now, what, if anything, tames these fluctuations? Why is there a macroscopic universe? These are two of the central theoretical challenges of fundamental physics in the twenty-first century. In this summary, we describe the circle of ideas surrounding these questions, as well as some of the theoretical and experimental fronts on which they are being attacked and predict what the future holds for theoretical particle physics.

Keywords


Relativity, Quantum Mechanics, Standard Model.

References