On integrability of spinning particle motion in higher-dimensional rotating black hole spacetimes David Kubizňák (Perimeter Institute) Relativity and Gravitation.

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Presentation transcript:

On integrability of spinning particle motion in higher-dimensional rotating black hole spacetimes David Kubizňák (Perimeter Institute) Relativity and Gravitation 100 Years after Einstein in Prague Prague, Czech Republic June 25 – June 29, 2012

Plan of the talk I.Spinning particle in curved rotating BH background II.Semiclassical theory of spinning particle I.Hamiltonian formulation II.Non-generic superinvariants: “SUSY in the sky” III.On integrability in all dimensions III.Conclusions Based on: DK, M. Cariglia, Phys. Rev. Lett. 108, (2012); arXiv: M. Cariglia, P. Krtous, DK, in preparation.

I) Spinning particle in curved rotating BH background

a) Quantum description: Dirac equation Separable! “Enough integrals of motion 2 symmetry operators” obey decoupled 2nd-order ODEs complete set of mutually commuting operators See Marco’s talk! Spinning particle in curved rotating BH background

b) Classical GR description: Papapetrou’s Eq. Chaotic motion! gauge fixing (not unique) (even in Schwarzchild due to spin-orb. int.) Spinning particle in curved rotating BH background

c) SUSY semi-classical spinning particle “Classical Hamiltonian system” Spinning particle in curved rotating BH background Integrable? “bosonic” “fermionic”

Spinning particle in curved rotating BH background Quantum Separable! complete set of comm.ops Classical Chaotic! SUSY: spinning Integrable?! Klein-Gordon Eq. Separable! Geodesic Eq. Carter: Completely integrable! No spin (nontriv) WKB

II) Semiclassical theory of spinning particle

A little more about spinning particle Hamiltonian formulation: Poisson bracket SUSY Physical (gauge) conditions covariant canonical

Nongeneric superinvariants: SUSY in the sky Gibbons, Rietdijk, van Holten, Nucl. Phys. B404 (1993) 42; hep-th/ Automatically an integral of motion Linear in momenta superinvariants Killing-Yano 2-form

SUSY in the sky: Kerr geometry Set of commuting operators: “bosonic”“fermionic” (no classical analogue ) terms Bosonic set of commuting operators : SUSY in the sky can take a limit and recover Carter’s result Problem: “integrates” only bosonic equations. What about fermionic?

SUSY in “astral spheres”? Kerr-NUT-AdS geometry Linear superinvariants Although there is a whole tower of these (Valeri’s talk), they do not commute! However, in all D dimensions one can construct D bosonic integrals of mutually commuting integrals of motion making the bosonic part of the motion integrable.

Conclusions 1)We have shown the existence of D mutually commuting bosonic integrals of spinning motion in Kerr-NUT-AdS black hole spacetimes in all dimensions D. This generalizes the previous result on complete integrability of geodesic motion. Non-spinning limit can be easily taken. 2)Integrability of “fermionic sector” remains unclear at the moment. 3)There are interesting connections to “quantum” and “classical” descriptions: Grassmann algebra s Clifford algebra operator ordering (satisfies Lorentz algebra) (Integrals OK to linear order) a)Dirac limit: b)Papapetrou’s limit: