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Towards the self-adjointness of a Hamiltonian operator in loop quantum gravity

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arxiv 1805.08644 v5 pith:TY4NV5NP submitted 2018-05-22 gr-qc

classification gr-qc
keywords operatorhamiltonianphysicaldeparameterizedgravityloopmathcalmodel
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abstract

Although the physical Hamiltonian operator can be constructed in the deparameterized model of loop quantum gravity coupled to a scalar field, its property is still unknown. This open issue is attacked in this paper by considering an operator $\hat{H}_v$ representing the square of the physical Hamiltonian operator acting nontrivially on two-valent spin networks. The Hilbert space $\mathcal{H}_v$ preserved by the graphing changing operator $\hat{H}_v$ is consist of spin networks with a single two-valent non-degenerate vertex. The matrix element of $\hat{H}_v$ are explicitly worked out in a suitable basis. It turns out that the operator $\hat{H}_v$ is essentially self-adjoint, which implies a well-defined physical Hamiltonian operator in $\mathcal{H}_v$ for the deparameterized model.

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  1. Consistency check on the fundamental and alternative flux operators in loop quantum gravity

    gr-qc 2019-08 conditional novelty 5.0 of 10

    A graphical consistency check between the fundamental and alternative flux operators in loop quantum gravity fixes the volume-operator constant κ_reg to 1/2.

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