PHI 538, Philosophy of Physics
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Schedule
Weeks 1-3 (BvF)
- The concept of information
- Intro to Probability
- Intro to Classical Information
- Intro to Basic QM: States and Entanglement
- Intro to Quantum Information
Readings: Timpson, Chap 1; Rolf Landauer, "Information is Physical"; Barry Loewer, "Review of Dretske, Knowledge and the Flow of Information"
Weeks 4-6
First BvF will finish Sections 4 (QM: Entanglement) and 5 (Quantum Information), then
HH begins: Dense Coding and Quantum Teleportation.
Main reading: Timpson, "The Grammar of Teleportation" philsci-archive
Additional readings:
Weeks 7-8 (BvF)
Week 9 (HH)
Deriving QM from information-theoretic axioms
Main readings:
- Clifton et al., "Characterizing quantum theory in terms of information theoretic constraints." Journal (This paper presupposes some knowledge of C*-algebras. See the handout below for some background.)
- Handout
Additional readings:
- Spekkens, R. "In defense of the epistemic view of quantum states." E-print
- Bub, J. "Why the quantum." E-print
Week 10 (HH)
Bayesianism and non-commutative probability
Guest lecture by Michael Mueger on type theory of von Neumann algebras
Main reading:
- Jones, V. "von Neumann algebras," Chapter 1 from Subfactors and Knots PDF (password restricted)
- Redei, M. "When can non-commutative statistical inference be Bayesian." PDF | PS
Week 11
Guest lecture by James Ladyman
Week 12
Guest lecture by Chris Timpson
Further Readings
- Quantum information and computation
- Mathematical background for quantum theory
- Bub, J. Appendix to Interpreting the Quantum World. Cambridge University Press, 1997.
- Clifton, Rob, Introductory Notes on the Mathematics Needed for Quantum Theory. 1996. philsci-archive
- Ismael, Jenann, "Quantum Mechanics," The Stanford Encyclopedia of Philosophy. http://plato.stanford.edu/entries/qm/