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A new Hamiltonian for the Topological BF phase with spinor networks

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arxiv 1110.3272 v1 pith:HIOBYJBW submitted 2011-10-14 gr-qc math-phmath.MP

A new Hamiltonian for the Topological BF phase with spinor networks

classification gr-qc math-phmath.MP
keywords topologicalhamiltonianphasedifferentequationslatticequantumspin
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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We describe fundamental equations which define the topological ground states in the lattice realization of the SU(2) BF phase. We introduce a new scalar Hamiltonian, based on recent works in quantum gravity and topological models, which is different from the plaquette operator. Its gauge-theoretical content at the classical level is formulated in terms of spinors. The quantization is performed with Schwinger's bosonic operators on the links of the lattice. In the spin network basis, the quantum Hamiltonian yields a difference equation based on the spin 1/2. In the simplest case, it is identified as a recursion on Wigner 6j-symbols. We also study it in different coherent states representations, and compare with other equations which capture some aspects of this topological phase.

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Cited by 1 Pith paper

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  1. Les Houches lectures on Spinfoam Path Integrals

    gr-qc 2026-07 accept novelty 2.0

    A pedagogical review of spinfoam path integrals, from 1d quantum mechanics and 2d BF theory through Ponzano-Regge/Turaev-Viro to the 4d EPRL model, accurate but with no new results.