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Princeton University Press eBooks

The Genidentity of Quantum Particles

Hans Reichenbach

Published Dec 8, 2020• 0 citations
Publisher
DOI
10.2307/j.ctv173f1xr.9

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The notions of identity and indistinguishability are a frequent source of misunderstanding, even among researchers working within the same field. The present text is primarily didactic in intent: it aims to show that a large part of such disagreements concerns the association of different meanings with one and the same word. Six notions are introduced and articulated – qualitative identity and numerical identity, haecceity, operational distinguishability, genidentity and permutational indistinguishability – and their content is clarified by examining two paradigmatic examples in parallel: two quantum particles and two occurrences of a word in a text. It is argued that the monadic version of Leibniz’s principle of the identity of indiscernibles is violated both by bosons, which can occupy one and the same state, and by fermions, for which indistinguishability operates in spite of Pauli’s exclusion principle, as the statistical counts make evident; the status of weaker relational versions of the principle remains contested. In the concluding part, the linguistic example is reread in the light of the conceptuality interpretation of quantum mechanics, for which it ceases to be merely an analogy and becomes a genuine explanation: on this interpretation, absent information can signify an absence of reality rather than mere ignorance.

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The notions of identity and indistinguishability are a frequent source of misunderstanding, even among researchers working within the same field. The present text is primarily didactic in intent: it aims to show that a large part of such disagreements concerns the association of different meanings with one and the same word. Six notions are introduced and articulated – qualitative identity and numerical identity, haecceity, operational distinguishability, genidentity and permutational indistinguishability – and their content is clarified by examining two paradigmatic examples in parallel: two quantum particles and two occurrences of a word in a text. It is argued that the monadic version of Leibniz’s principle of the identity of indiscernibles is violated both by bosons, which can occupy one and the same state, and by fermions, for which indistinguishability operates in spite of Pauli’s exclusion principle, as the statistical counts make evident; the status of weaker relational versions of the principle remains contested. In the concluding part, the linguistic example is reread in the light of the conceptuality interpretation of quantum mechanics, for which it ceases to be merely an analogy and becomes a genuine explanation: on this interpretation, absent information can signify an absence of reality rather than mere ignorance.
According to what is known as the Received View, quantum particles of the same kind have no identity. Quantum statistics provides one of the main arguments for this position, namely that permutations of quantum particles of the same kind do not result in new particle configurations, while permutations of classical particles always do. According to the Received View, there is therefore a sharp contrast between classical and quantum particles. In this article, we criticise the Received View in general and the argument from statistics in particular. We discuss and defend an alternative view, according to which particles in modern physics are not fundamental but rather emergent entities. Accordingly, classical particles are limiting cases of emergent quantum particles, so that the difference between quantum and classical particles is only gradual. We discuss recent objections to this alternative approach.