Why are tensor field theories asymptotically free?
arXiv:1507.04190 · doi:10.1209/0295-5075/111/60011
Abstract
In this pedagogic letter we explain the combinatorics underlying the generic asymptotic freedom of tensor field theories. We focus on simple combinatorial models with a propagator and quartic interactions and on the comparison between the intermediate field representations of the vector, matrix and tensor cases. The transition from asymptotic freedom (tensor case) to asymptotic safety (matrix case) is related to the crossing symmetry of the matrix vertex whereas in the vector case, the lack of asymptotic freedom ("Landau ghost"), as in the ordinary scalar case, is simply due to the absence of any wave function renormalization at one loop.
8 pages, 3 figures
References in corpus (11)
- Random tensor models in the large N limit: Uncoloring the colored tensor models
- Vanishing of Beta Function of Non Commutative Theory to all orders
- Lost in Translation: Topological Singularities in Group Field Theory
- Renormalization of an Abelian Tensor Group Field Theory: Solution at Leading Order
- Discrete Renormalization Group for SU(2) Tensorial Group Field Theory
- Constructive Tensor Field Theory
- Constructive tensor field theory: The model
- Group Field Theory in dimension four minus epsilon
- Constructive Tensor Field Theory: The Model
- Renormalization of a tensorial field theory on the homogeneous space SU(2)/U(1)
- Renormalization and Hopf Algebraic Structure of the 5-Dimensional Quartic Tensor Field Theory
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- Phase transitions in TGFT: a Landau-Ginzburg analysis of Lorentzian quantum geometric models
- Perturbation expansions at large order: Results for scalar field theories revisited
- Phase transitions in tensorial group field theories: Landau-Ginzburg analysis of models with both local and non-local degrees of freedom
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- Renormalization group flow of coupled tensorial group field theories: Towards the Ising model on random lattices
- Nontrivial UV behavior of rank-4 tensor field models for quantum gravity
- QFT with Tensorial and Local Degrees of Freedom: Phase Structure from Functional Renormalization
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- Renormalization in Combinatorially Non-Local Field Theories: the BPHZ Momentum Scheme
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