Interpretations of Einstein’s Equation E = mc 2

International Studies in the Philosophy of Science 19 (3):245-260 (2005)
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Abstract

Interpretations of Einstein’s equation differ primarily concerning whether E = mc2 entails that mass and energy are the same property of physical systems, and hence whether there is any sense in which mass is ever ‘converted’ into energy. In this paper, I examine six interpretations of Einstein’s equation and argue that all but one fail to satisfy a minimal set of conditions that all interpretations of physical theories ought to satisfy. I argue that we should prefer the interpretation of Einstein’s equation that holds that mass and energy are distinct properties of physical systems. This interpretation also carries along the view that while most cases of ‘conversion’ are not genuine examples of mass being ‘converted’ into energy, it is possible that the there are such ‘conversions’ in the sense that a certain amount of energy ‘appears’ and an equivalent of mass ‘disappears’. Finally, I suggest that the interpretation I defend is the only one that does not blur the distinction between what Einstein called ‘principle’ and ‘constructive’ theories. This is philosophically significant because it emphasizes that explanations of Einstein’s equation and the ‘conversion’ of mass and energy must be top‐down explanations.

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Citations of this work

Mass‐energy‐momentum: Only there because of spacetime.Dennis Lehmkuhl - 2011 - British Journal for the Philosophy of Science 62 (3):453-488.
General relativity as a hybrid theory: The genesis of Einstein's work on the problem of motion.Dennis Lehmkuhl - 2019 - Studies in History and Philosophy of Science Part B: Studies in History and Philosophy of Modern Physics 67 (C):176-190.
Symmetries as by-products of conserved quantities.Diego Romero-Maltrana - 2015 - Studies in History and Philosophy of Science Part B: Studies in History and Philosophy of Modern Physics 52 (Part B):358-368.
On the Interpretation of the Equation E = mc 2: Reply to Flores.Władysław Krajewski - 2006 - International Studies in the Philosophy of Science 20 (2):215-216.

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References found in this work

The Structure of Scientific Revolutions.Thomas Samuel Kuhn - 1962 - Chicago: University of Chicago Press. Edited by Otto Neurath.
The Principle of Relativity.Albert Einstein - 1920 - [Calcutta]: Dover Publications. Edited by H. Minkowski, Meghnad Saha & Satyendranath Bose.
Relativity and geometry.Roberto Torretti - 1983 - New York: Dover Publications.
Spacetime physics.Edwin F. Taylor - 1966 - San Francisco,: W. H. Freeman. Edited by John Archibald Wheeler.

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