We apply the methods of modern analytic bootstrap to the critical O(N) model in a 1/N expansion. At infinite N the model possesses higher spin symmetry which is weakly broken as we turn on 1/N. By studying consistency conditions for the correlator of four fundamental fields we derive the CFT-data for all the (broken) currents to order 1/N, and the CFT-data for the non-singlet currents to order 1/N2. To order 1/N our results are in perfect agreement with those in the literature. To order 1/N2 we reproduce known results for anomalous dimensions and obtain a variety of new results for structure constants, including the global symmetry central charge CJ to this order
We develop new tools for isolating CFTs using the numerical bootstrap. A “cutting surface” algorithm...
We report on a completely analytical calculation of the field anomalous dimension γφ and the critica...
We determine, for the first time, the scaling dimensions of a family of fixed-charge operators stemm...
In a conformal field theory with weakly broken higher spin symmetry, the leading order anomalous dim...
We calculate the anomalous dimensions of higher spin singlet currents in the critical O(N) vector mo...
We develop an algebraic approach to the analytic bootstrap in CFTs. By acting with the Casimir opera...
We calculate the anomalous dimensions of higher spin singlet currents in the critical O(N ) vector m...
We use large spin perturbation theory and the Lorentzian inversion formula to compute order-$\vareps...
We investigate the controversial issue of the existence of universality classes describing critical...
The conformal bootstrap is a powerful method to study conformal field theories, relying only on the ...
We continue the study, initiated in arXiv:1404.1094, of the O(N) symmetric theory of N + 1 massless ...
International audienceWe define the two-dimensional $O(n)$ conformal field theory as a theory that i...
We investigate the controversial issue of the existence of universality classes describing critical ...
We calculate the anomalous dimensions of higher spin singlet currents in the critical $O(N)$ vector ...
We examine anomalous dimensions of higher spin currents in the critical O(N) scalar model and the Gr...
We develop new tools for isolating CFTs using the numerical bootstrap. A “cutting surface” algorithm...
We report on a completely analytical calculation of the field anomalous dimension γφ and the critica...
We determine, for the first time, the scaling dimensions of a family of fixed-charge operators stemm...
In a conformal field theory with weakly broken higher spin symmetry, the leading order anomalous dim...
We calculate the anomalous dimensions of higher spin singlet currents in the critical O(N) vector mo...
We develop an algebraic approach to the analytic bootstrap in CFTs. By acting with the Casimir opera...
We calculate the anomalous dimensions of higher spin singlet currents in the critical O(N ) vector m...
We use large spin perturbation theory and the Lorentzian inversion formula to compute order-$\vareps...
We investigate the controversial issue of the existence of universality classes describing critical...
The conformal bootstrap is a powerful method to study conformal field theories, relying only on the ...
We continue the study, initiated in arXiv:1404.1094, of the O(N) symmetric theory of N + 1 massless ...
International audienceWe define the two-dimensional $O(n)$ conformal field theory as a theory that i...
We investigate the controversial issue of the existence of universality classes describing critical ...
We calculate the anomalous dimensions of higher spin singlet currents in the critical $O(N)$ vector ...
We examine anomalous dimensions of higher spin currents in the critical O(N) scalar model and the Gr...
We develop new tools for isolating CFTs using the numerical bootstrap. A “cutting surface” algorithm...
We report on a completely analytical calculation of the field anomalous dimension γφ and the critica...
We determine, for the first time, the scaling dimensions of a family of fixed-charge operators stemm...