DOWNLOADS of some papers by Bob Coecke and some of collaborators:

Newest:

  • S. Abramsky and B. Coecke (2004): 'A Categorical Semantics of Quantum Protocols' (quant-ph/0402130).  To be published in the proceedings of the 19th IEEE conference on Logic in Computer Science (LiCS'04).  Quantum mechanics recasted in purely categorical terms, which also captures classical communication as in protocols such as teleportation, and which explicitly exposes the behavioral properties of quantum entanglement of 'The Logic of Entanglement' (quant-ph/0402014)*Physicist friendly* lecture notes: Quantum Information Flow, Concretely, Abstractly.

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  • A. Baltag, B. Coecke and M. Sadrzadeh (2004): `An Algebra and Sequent Calculus for Epistemic Actions' and `Epistemic Actions as Resources'.  Information update in Dynamic Epistemic Logic in terms of quantales, Q-modules and knowledge as lax morphisms thereof, hence, non-boolean.

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  • B. Coecke (2003): 'The Logic of Entanglement. An Invitation', PRG-RR-03-12 (160 pages), Oxford University Computing Laboratory.  The study of the information flow capabilities of quantum entanglement.  Includes a design methodology of quantum communication and computation protocols. A 8 page short version (including some complementary discussion) is 'The Logic of Entanglement' (quant-ph/0402014).

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  • B. Coecke (2002): 'Entropic Geometry from Logic' (quant-ph/0212065).  Electronic Notes in Theoretical Computer Science (MFPS'03 issue).  Reconstruction of the domains of classical and quantum states (see below) from Logic.

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  • B. Coecke and K. Martin (2002): 'A partial Order on Classical and Quantum States', PRG-RR-02-07 (92 pages), Oxford University Computing Laboratory. 'Domain Theory and Quantum Mechanics', Extended abstract (8 pages).   Classical and quantum states as a domain, from which respectively the powerset and the quantum logic can be recovered in purely order-theoretic manner.  We study approximation and partiality in these domains.  B. Coecke and K. Martin: 'Partiality in Physics' (quant-ph/0312044). A survey of domain theory and connections to the work mentioned above.

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  • S. Abramsky and B. Coecke (2002): 'Physical Traces: Quantum vs. Classical Information Processing' (cs.CG/0207057), Electronic Notes in Theoretical Computer Science (CTCS'02 issue) --- physical realization of the Hilbert space trace operation in terms of entangeling and de-entangeling within Geometry of Interaction. [see also: traced monoidal category references]  The paper is a bit outdated 'A Categorical Semantics of Quantum Protocols' (quant-ph/0402130).  We revised the results in Abstract Physical Traces (2004), to be put here soon.
  • The following sections are more or less structured:

    General operational quantum logic survey:
    Quantum logic with modalities:

    Dynamic and Categorical (Operational) Quantum Structures, Including State Transitions:

    On the Description of Compound Systems ---through Mutually Induced State Transitions:

    On Classical Representations for Quantum-Like Systems:

    a. Histories:
    b. Focussed on quantum-like probability structures:
    c. Focussed on the Hilbert space in-product: