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Science & Education

‘Quantum Mechanics’ and ‘Scientific Explanation’ An Explanatory Strategy Aiming at Providing ‘Understanding’

Pandora Hadzidaki

Published Sep 12, 2006• 18 citations
Publisher
DOI
10.1007/s11191-006-9052-8

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The aim of this paper is to explore the ways in which Axiomatic Reconstructions of Quantum Theory in terms of Information-Theoretic principles (ARQITs) can contribute to explaining and understanding quantum phenomena, as well as to study their explanatory limitations. This is achieved in part by offering an account of the kind of explanation that axiomatic reconstructions of Quantum Theory provide, and re-evaluating the epistemic status of the program in light of this explanation. As illustrative case studies, I take Clifton's, Bub's and Halvorson's characterization theorem and Popescu's and Rohrlich's toy models, and their explanatory contribution with respect to quantum nonlocality. On the one hand, I argue that ARQITs can aspire to provide genuine explanations of (some aspects of) quantum nonlocality. On the other hand, I argue that such explanations cannot rule out a mechanical quantum theory.
We begin by surveying the historical positions in different attempts to understand the material world since the rise of modern science, with specific focus on the role of Cartesian primary qualities in explanatory conceptualisation. Moreover the opening chapter argues that although explanatory narratives are essentially epistemological constructions, they require a general metaphysical backing through the explainer's and explainee's commitments to take the concepts and higher structures composed of them as directly referential. Two methodological perspectives on theory construction, Einstein's division into principle and constructive theories, are then delineated along the lines of their metaphysical and explanatory potential, and presented as the research instrument with which to approach the specific-case-study instances of quantum theory reconstruction. A specific strategy of arguing for scientific realism ('the simple transcendental strategy') is then presented and connected to the challenges that the phenomena (EPR correlations and 'teleportation') from the domain of contemporary quantum theory pose for it. The opening chapter concludes with a survey of the general models of explanation and their position with respect to the principle-constructive dichotomy introduced above. Finally, an explanatory model containing extended material-like entities along with further primitives, universal laws of temporal evolution, is argued for. Consequently, in the interest of a wholesome realistic response to the sceptical challenge about the explanatory aims of science, we recommend that even the common sense conceptual framework replaces the extended material structure with 'generalised things' as re-identifiable invariants through change as the fundamental unit of the realist ontology.
In semiclassical mechanics one finds explanations of quantum phenomena that appeal to classical structures. These explanations are prima facie problematic insofar as the classical structures they appeal to do not exist. Here I defend the view that fictional structures can be genuinely explanatory by introducing a model-based account of scientific explanation. Applying this framework to the semiclassical phenomenon of wavefunction scarring, I argue that not only can the fictional classical trajectories explain certain aspects of this quantum phenomenon, but also that an explanation that does not make reference to these classical structures is, in a certain sense, deficient. 1. Introduction2. The Case of Wavefunction Scarring3. Model Explanations, or How Fictional Structures Can Explain4. Putting Understanding Back into Explanation