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History of philosophy & logical analysis

Quantum Mechanics and the Limits of Empiricism: Recent Challenges to the Orthodox Theory

Christopher Norris

Published Apr 5, 2004• 0 citations
Publisher
DOI
10.30965/26664275-00701013

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This chapter first examines the four ways in which quantum theory poses a challenge for aim-oriented empiricism. It then enumerates the six defects of the orthodox quantum theory. It also looks into the nature of the propensiton quantum theory. The last three sections of the chapter discuss one approach to developing a fully micro-realistic version of quantum theory, free of the defects which deface orthodox quantum theory. The chapter notes that this plausible view would not have been ignored if aim-oriented empiricism had been generally accepted. It argues that these defects result from failure to solve the wave/particle dilemma. The chapter suggests that theoretical physics should seriously consider the two interrelated questions in which orthodox quantum theory is so evasive: What is the nature of quantum objects? Is Nature probabilistic or deterministic?

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The measurement problem in quantum mechanics first cropped up during the 1930s during a famous series of debates between Einstein and Bohr concerning the physical adequacy – or ‘completeness’ – of the orthodox (Copenhagen) theory.1 As we have seen, it is a topic central to Hanson’s thinking not only with regard to quantum mechanics but also for its wider bearing on the scope and limits of scientific knowledge, the theory-laden character of observations, and the underdetermination of theory by evidence.2 Thus it is frequently adduced in support of his proto-Kuhnian claim that scientists working within different paradigms must be thought of as observing different things or inhabiting ‘different worlds’.3 What I propose to do now is look in more detail at the arguments surrounding this topic and, especially, at various proposals – from Einstein down – for a realist construal of the quantum data (i.e., the empirical measurement-results) that would offer an alternative to Hanson’s idea of the uncertainty principle as placing an absolute limit on our knowledge of objects and events in the microphysical domain. Having set out his arguments already in chapters 4 and 5, I shall not make any further detailed reference to Hanson’s work but assume that the reader who has come this far will have them clearly in mind. Thus my purpose in the remainder of this book is to raise the question: what becomes of the paradigm-relativist approach to issues in the history and philosophy of science if it derives so much of its suasive force from an interpretation of quantum mechanics that has proved increasingly open to challenge?

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Empiricist and realist interpretations of quantum mechanics

Springer eBooks•Jan 1, 2004•0 citations
This chapter first examines the four ways in which quantum theory poses a challenge for aim-oriented empiricism. It then enumerates the six defects of the orthodox quantum theory. It also looks into the nature of the propensiton quantum theory. The last three sections of the chapter discuss one approach to developing a fully micro-realistic version of quantum theory, free of the defects which deface orthodox quantum theory. The chapter notes that this plausible view would not have been ignored if aim-oriented empiricism had been generally accepted. It argues that these defects result from failure to solve the wave/particle dilemma. The chapter suggests that theoretical physics should seriously consider the two interrelated questions in which orthodox quantum theory is so evasive: What is the nature of quantum objects? Is Nature probabilistic or deterministic?
The measurement problem in quantum mechanics first cropped up during the 1930s during a famous series of debates between Einstein and Bohr concerning the physical adequacy – or ‘completeness’ – of the orthodox (Copenhagen) theory.1 As we have seen, it is a topic central to Hanson’s thinking not only with regard to quantum mechanics but also for its wider bearing on the scope and limits of scientific knowledge, the theory-laden character of observations, and the underdetermination of theory by evidence.2 Thus it is frequently adduced in support of his proto-Kuhnian claim that scientists working within different paradigms must be thought of as observing different things or inhabiting ‘different worlds’.3 What I propose to do now is look in more detail at the arguments surrounding this topic and, especially, at various proposals – from Einstein down – for a realist construal of the quantum data (i.e., the empirical measurement-results) that would offer an alternative to Hanson’s idea of the uncertainty principle as placing an absolute limit on our knowledge of objects and events in the microphysical domain. Having set out his arguments already in chapters 4 and 5, I shall not make any further detailed reference to Hanson’s work but assume that the reader who has come this far will have them clearly in mind. Thus my purpose in the remainder of this book is to raise the question: what becomes of the paradigm-relativist approach to issues in the history and philosophy of science if it derives so much of its suasive force from an interpretation of quantum mechanics that has proved increasingly open to challenge?
Quantum mechanics has sometimes been taken to be an empiricist (vs. realist) theory. I state the empiricist's argument, then outline a recently noticed type of measurement—protective measurement—that affords a good reply for the realist. This paper is a reply to scientific empiricism (about quantum mechanics), but is neither a refutation of that position, nor an argument in favor of scientific realism. Rather, my aim is to place realism and empiricism on an even score in regards to quantum theory.