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Francisco C. Alcaraz

Researcher at University of São Paulo

Publications -  186
Citations -  4877

Francisco C. Alcaraz is an academic researcher from University of São Paulo. The author has contributed to research in topics: Conformal symmetry & Hamiltonian (quantum mechanics). The author has an hindex of 34, co-authored 185 publications receiving 4546 citations. Previous affiliations of Francisco C. Alcaraz include University of Bonn & Australian National University.

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Surface exponents of the quantum XXZ, Ashkin-Teller and Potts models

TL;DR: In this article, the conformal anomaly and surface exponents of the critical quantum Ashkin-Teller and Potts chains are calculated by exploiting their relations with the mass gap amplitudes as predicted by conformal invariance.
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Reaction - diffusion processes, critical dynamics and quantum chains

TL;DR: The master equation describing non-equilibrium one-dimensional problems like diffusion limited reactions or critical dynamics of classical spin systems can be written as a Schrodinger equation in which the wave function is the probability distribution and the Hamiltonian is that of a quantum chain with nearest neighbor interactions as discussed by the authors.
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Conformal invariance, the XXZ chain and the operator content of two-dimensional critical systems

TL;DR: In this paper, Bethe ansatz equations are formulated and solved numerically for eigenstates of the XXZ Hamiltonian on a finite chain with periodic boundary conditions and with a generalized class of twisted boundary conditions.
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Entanglement of Low-Energy Excitations in Conformal Field Theory

TL;DR: It is shown that the nth Rényi entropy is related to a 2n-point correlator of primary fields in CFT and this result uncovers a new link between quantum information theory and CFT.
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Reaction-Diffusion Processes, Critical Dynamics and Quantum Chains

TL;DR: The master equation describing non-equilibrium one-dimensional problems like diffusion limited reactions or critical dynamics of classical spin systems can be written as a Schr\"odinger equation in which the wave function is the probability distribution and the Hamiltonian is that of a quantum chain with nearest neighbor interactions as discussed by the authors.