Abstract
In 1964 Zeeman published a paper showing [independently of Alexandrov (1953)] that the causal structure of the light cones on Minkowski spaceM determines the linear structure ofM. This initiated the question whether a topology (more physically than the ordinary one) onM, related to the light cones also implies the linear structure ofM. In 1967 Zeeman defined such a new topology — here called Zeeman-topology ℨ0 — on Minkowski space and solved this question forM. In that paper he asked whether it is possible to generalize this program to general relativity. Two of his main questions were: (a) What is the structure of the groupG(S) of all homeomorphisms of a space-timeS with respect to the general relativistic analogue of ℨ0 (defined in § 3)? (b) What are the world lines (defined in § 1) with respect to ℨ0? Without any restrictions on the space-timeS we will give the answers: (a)G(S) is the group of all homothetic transformations onS (for an explicite discussion of this result we refer to § 5). (b) World lines are broken geodesics. Including external fields (like Maxwell fields and deviations of ℨ0) the answer (b) can be generalized in different physical directions; cf. § 3.
Ein Fernrohr wird gezeigt, womit man seinen eigenen Rücken sieht. Es führt durchs Weltall deinen Blick im Kreis zurück auf dein Genick. Zwar braucht es so geraume Frist, daß du schon längst verstorben bist, doch wird ein Standbild dir geweiht, empfängt es ihn zu seiner Zeit.
Christian Morgenstern, „Böhmischer Jahrmarkt“
Similar content being viewed by others
References
Alexandrov, A. D.: A contribution to chronogeometry. Can. J. Math.19, 1119–1128 (1967)
Alonso, J. L., Ynduráin, F. J.: On the continuity of causal automorphisms of space-time. Commun. math. Phys.4, 349–351 (1967)
Barucchi, G.: The group of timelike permutations. Nuovo Cimento55 A, 385–395 (1968)
Benz, W.: Zur Linearität relativistischer Transformationen. Jahresber. der DMV70, 100–108 (1967)
Borchers, H. J., Hegerfeldt, G. C.: The structure of space-time transformations. Commun. math. Phys.28, 259–266 (1972)
Brechner, B.: Topological groups which are not full homeomorphism groups. Duke Math. J.39, 97–99 (1972)
Cel'nik, F. A.: Topological structure of space in relativistic mechanics. Dokl. Akad. Nauk SSSR181 (1968); engl. transl.: Soviet Math. Dokl.9, 1151–1152 (1968)
Domiaty, R. Z.: Verallgemeinerte metrische Räume. I. Der innere Abstand. Bericht6 (1973) der Math-Stat. Sektion im Forschungszentrum Graz
Ehlers, J.: General relativity and kinetic theory. In: Sachs, R. K. (Ed.): Relatività generale a cosmologia. New York: Academic Press 1971
Ehlers, J., Schild, A.: Geometry in a manifold with projective structure. Commun. math. Phys.32, 119–146 (1973)
Freudenthal, H.: Das Helmholtz-Liesche Raumproblem bei indefiniter Metrik. Math. Ann.156, 263–312 (1964)
Gheorghe, C., Mihul, E.: Causal groups of space-time. Commun. math. Phys.14, 165–170 (1969)
Göbel, R.: Die volle kausale Gruppe der Raum-Zeit, physikalischer Teil (II) der Habilitationsschrift, Würzburg 1973
Guts, A. K.: Mappings that preserve cones in Lobachevskii space. Matem. Zametki13, 687–694 (1973) (russ.); engl. transl.: Consultants Bureau, 411–415 (1973); Plenum Publ. Co. New York, and Sov. Math. Doklady15, 416–419 (1974)
Hawking, S. W.: Singularities and the geometry of space time. Adams Prize Essay, Cambridge 1966
Hawking, S. W., Ellis, G. F. R.: The large scale structure of space-time. Cambridge: University Press 1973
Hegerfeldt, G. C.: The Lorentz transformations: Derivation of linearity and scale factor. Nuovo Cimento10 A, 257–267 (1972)
Jordan, P., Ehlers, J., Kundt, W.: Strenge Lösungen der Feldgleichungen der allgemeinen Relativitätstheorie. Akad. der Wiss. und Literatur. Mainz 1960
Kelley, J. L.: General topology. Princeton N.J.: Van Nostrand 1955
Kobayashi, S., Nomizu, K.: Foundations of differential geometry. New York: Interscience Publ. 1963
Loewner, C.: On semigroups in analysis and geometry. Bull. AMS70, 1–15 (1964)
Michél, L.: Relation entre symétries internes et invariance relativiste. In: Lurcat, F. (Ed.): Applications of mathematics to problems in theoretical physics, pp. 409–459. Gordon and Breach 1967
Nanda, S.: Topology for Minkowski space. J. Math. Phys.12, 394–401 (1971)
Nevanlinna, R.: Raum, Zeit und Relativität. Stuttgart, Basel: Birkhäuser Verlag 1964
Penrose, R.: Techniques of differential topology in relativity. Philadelphia, Penn.: SIAM 1972
Rätz, J.: On isometries of generalized inner product spaces. SIAM J. Appl. Math.18, 6–9 (1970)
Rothaus, O. S.: Order isomorphisms of cones. Proc. AMS17, 1284–1288 (1966)
Robinson, I., Robinson, J.: Vacuum metrics without symmetry (unpublished) (1969)
Süßmann, G.: Begründung der Lorentz-Gruppe allein mit der Symmetrie und Relativitätsannahmen. Z. Naturforsch.24a, 495–498 (1969)
Teppati, G.: An algebraic analogue of Zeeman's theorem. Nuovo Cimento54, 800–804 (1968)
Vilms, J.: Totally geodesic maps. J. Diff. Geom.4, 73–79 (1970)
Vock, V.: Theorie von Raum, Zeit und Gravitation. Berlin: Akademie Verlag 1960
Vogt, A.: Maps which preserve equality of distance. Studia Math.45, 43–48 (1973)
Vroegindewey, P. G.: An algebraic generalization of a theorem of E. C. Zeeman. Indagationes Math.36, 77–81 (1974)
Weyl, H.: Raum-Zeit Materie (1923), reprint: Berlin-Göttingen-Heidelberg: Springer 1961
Woodhouse, M. N. J.: The differentiability and causal structure of space time. J. Math. Phys.14, 495–501 (1973)
Zeeman, E. C.: Causality implies the Lorentz-group. J. Math. Phys.5, 490–498 (1964)
Zeeman, E. C.: The topology of Minkowski space. Topology6, 161–170 (1967)
Knichal, V.: Die Bestimmung aller Transformationen, für welche die Null-Entfernung in den karthesischen Räumen mit indefiniter Metrik invariant bleibt. ATTI Sesto Congr. Mat. Ital. (11.–16.9.1959) 413–416
Pimenov, P.I.: Mat. Zametki6, 361–369 (1969)
Alexandrov, A. D., Ovčinnikova, V. V.: Vestnik Leningrad. Univ.8, 95–110 (1953)
Hawking, S. W., King, A. R., McCarthy, P. J.: A new topology for curved space-time which incorporates the causal, differential and conformal structures. J. Math. Phys., to appear
Göbel, R.: The smooth-path topology for curved space-time which incorporates the conformal structure and analytic Feynman tracks. J. Math. Phys., to appear
Author information
Authors and Affiliations
Additional information
Communicated by J. Ehlers
Rights and permissions
About this article
Cite this article
Göbel, R. Zeeman topologies on space-times of general relativity theory. Commun.Math. Phys. 46, 289–307 (1976). https://doi.org/10.1007/BF01609125
Received:
Issue Date:
DOI: https://doi.org/10.1007/BF01609125