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Our Newtonian Worldview

Bruce Rosenblum, Fred Kuttner

Published Jun 29, 2006• 0 citations
Publisher

Abstract

Abstract Quantum mechanics conflicts violently not only with our intuition but also with our scientific worldview established in the 1600s. Nevertheless, physicists readily accept quantum mechanics as the underlying basis of all physics, and thus of all science. To understand why, consider the history.
DOI
10.1093/oso/9780195175592.003.0004

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Scientific realists believe, of successful scientific theories, that they’re at least approximately true. Quantum mechanics (QM) lays credible claim to being the most successful theory in the history of human science. But what does a scientific realist believe when she believes QM? And what can we learn about the scientific realism debate from the fact that that debate, conducted in abstraction, appears incapable of settling what a realist about QM should believe when she believes QM? This contribution explores both questions.
Quantum mechanics is our most successful physical theory. It underlies our very detailed understanding of atomic physics, chemistry, and nuclear physics, and the many technologies to which physical systems in these regimes give rise. Additionally, relativistic quantum mechanics is the basis for the standard model of elementary particles, which very successfully gives a partial unification of the forces operating at the atomic, nuclear, and subnuclear levels. However, from its inception the probabilistic nature of quantum mechanics, and the fact that “quantum measurements” in the orthodox formulation appear to require the intervention of non-quantum mechanical “classical systems,” have led to speculations by many physicists, mathematicians, and philosophers of science that quantum mechanics may be incomplete. Among the Founding Fathers of quantum theory, Einstein and Schrödinger were both of the opinion that quantum mechanics is in some way unsatisfactory, and this view has been amplified in more recent profound work of John Bell, among others. In an opposing camp, many others in the physics, mathematics, and philosophy communities have attempted to provide an interpretational foundation in which quantum mechanics remains a complete and self-contained system. Among the Founding Fathers, Bohr, Born, and Heisenberg maintained that quantum mechanics is a complete system, and a number of recent proposals have been made to improve upon or to provide alternatives to their “Copenhagen Interpretation.” The debate continues, and has spawned an enormous literature.
The philosophical goal is to characterize ‘path dependence’ (PAD) in science by comparison to PAD in technology where the concept was initially introduced. I rely on quantum mechanics to substantiate the analyses, exploiting the contrast between standard versus Bohmian quantum physics (NQP/BQP). To achieve the goal, counterfactual history is mobilized as a means to generate instructive virtual alternatives to the actual scientific path: I design a ‘permuted-situations counterfactual scenario’ in which it is BQP, instead of NQP, that first acquires a monopoly on physics and is exclusively practiced in science education, before NQP is introduced. Then, I endeavor to ‘reenact’ – as forensic investigators carry out the re-enactment of a crime scene – how virtual mainstream Bohmians would assess NQP. Contrasting the two ‘views from inside’ – ‘what it is like to be’ a standard quantum physicist in our world (a physicist trained in NQP) and what it would be like to be a physicist exclusively trained in BQP – I attempt to come as close as possible to an ‘experience’ of the gestalt switch involved when shuttling back and forth between one scientific worldview to the other. The effects of PAD in physics are discussed on this basis.