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Quantum Uncertainties and Holism Seem to Render Irrelevant Qudit-Semantics.

Roberto Leporini1

  • 1Department of Economics, University of Bergamo, Via dei Caniana, 2, I-24127 Bergamo, Italy.

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Summary

This study introduces Łukasiewicz quantum computational logic, utilizing quantum circuits for a whole-to-part semantic approach. This novel quantum logic, based on qubit and qudit semantics, exhibits unique properties distinct from classical and standard quantum logic.

Keywords:
holistic semanticsquantum gatesquantum logics

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Area of Science:

  • Quantum Information Science
  • Quantum Logic
  • Theoretical Computer Science

Background:

  • Traditional semantics often follow a part-to-whole compositionality principle.
  • Quantum mechanics exhibits holistic features that challenge standard logical frameworks.
  • Existing quantum logic systems (e.g., Birkhoff-von Neumann) have limitations.

Purpose of the Study:

  • To develop a novel quantum logic based on holistic quantum formalism features.
  • To introduce 'Łukasiewicz quantum computational logic' with a unique semantic approach.
  • To compare qubit-semantics and qudit-semantics within this new logical framework.

Main Methods:

  • A semantics is defined based on holistic quantum formalism.
  • Quantum circuits are employed to transform density operators from formulas to subformulas reversibly.
  • A whole-to-parts procedure is utilized, contrasting with traditional compositionality.

Main Results:

  • The proposed method generates a new form of quantum logic: Łukasiewicz quantum computational logic.
  • Comparison reveals qubit-semantics is not stronger than the corresponding fragment of qudit-semantics, contrary to expectations.
  • The developed logic is found to be weaker than classical and standard quantum logic, violating many common logical arguments.

Conclusions:

  • Łukasiewicz quantum computational logic offers a distinct semantic framework for quantum computation.
  • The whole-to-parts semantic approach provides a unique perspective on quantum information processing.
  • The counterintuitive strength comparison between qubit and qudit semantics highlights the novelty of this quantum logic.