Inequivalent coherent state representations in group field theory
arXiv:1709.00161 · doi:10.1088/1361-6382/aac39f
Abstract
In this paper we propose an algebraic formulation of group field theory and consider non-Fock representations based on coherent states. We show that we can construct representations with infinite number of degrees of freedom on compact base manifolds. We also show that these representations break translation symmetry. Since such representations can be regarded as quantum gravitational systems with an infinite number of fundamental pre-geometric building blocks, they may be more suitable for the description of effective geometrical phases of the theory.
References in corpus (7)
- Polyhedra in loop quantum gravity
- Functional Renormalisation Group Approach for Tensorial Group Field Theory: a Rank-3 Model
- Invitation to Random Tensors
- Renormalization Group Flow in CDT
- New higher-order transition in causal dynamical triangulations
- Impact of nonlinear effective interactions on GFT quantum gravity condensates
- Phase Transition in Tensor Models
Cited by in corpus (14)
- Group field theory condensate cosmology: An appetizer
- A relational Hamiltonian for group field theory
- Functional Renormalization Group analysis of rank 3 tensorial group field theory: The full quartic invariant truncation
- Statistical Equilibrium in Quantum Gravity: Gibbs states in Group Field Theory
- Statistical equilibrium of tetrahedra from maximum entropy principle
- Thermal quantum gravity condensates in group field theory cosmology
- Phase transitions in TGFT: Functional renormalization group in the cyclic-melonic potential approximation and equivalence to O models
- Thermal representations in group field theory: squeezed vacua and quantum gravity condensates
- Phase transitions in TGFT: a Landau-Ginzburg analysis of Lorentzian quantum geometric models
- Thermal quantum spacetime
- Minimizers of the dynamical Boulatov model
- Stochastic dynamics for Group Field Theories
- Thermofield Double States in Group Field Theory
- Contextual extensions of quantum gravity models