Literal versus Careful Interpretations of Scientific Theories: The Vacuum Approach to the Problem of Motion in General Relativity.

The problem of motion in general relativity is about how exactly the gravitational field equations, the Einstein equations, are related to the equations of motion of material bodies subject to gravitational fields. This article compares two approaches to derive the geodesic motion of (test) matter f...

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Publicado en:Philosophy of Science Vol. 84; no. 5; pp. 1202 - 1215
Autor principal: Lehmkuhl, Dennis
Formato: Artículo
Publicado: Cambridge University Press Dec2017
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Acceso en línea:Ver este registro en EBSCOhost
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        atl: Literal versus Careful Interpretations of Scientific Theories: The Vacuum Approach to the Problem of Motion in General Relativity.
      aug:
        au: Lehmkuhl, Dennis
      su:
        Einstein field equations
        Relativity
        Gravitational effects
        Gravitational interactions
        Geodesic flows
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          Einstein field equations
          Relativity
          Gravitational effects
          Gravitational interactions
          Geodesic flows
      ab: The problem of motion in general relativity is about how exactly the gravitational field equations, the Einstein equations, are related to the equations of motion of material bodies subject to gravitational fields. This article compares two approaches to derive the geodesic motion of (test) matter from the field equations: the 'T approach' and the 'vacuum approach'. The latter approach has been dismissed by philosophers of physics because it apparently represents material bodies by singularities. I argue that a careful interpretation of the approach shows that it does not depend on introducing singularities at all and that it holds at least as much promise as the T approach.
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    language: English
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