Cumulants and Scaling Functions of Infinite Matrix Product States

Abstract

The order parameter cumulants of infinite matrix product ground states are evaluated across a quantum phase transition. A scheme using the Binder cumulant, finite-entanglement scaling and scaling functions to obtain the critical point and exponents of the correlation length and cumulants is presented. Analogous to the scaling relations that relate the exponents of various thermodynamic quantities, a cumulant exponent relation is derived and used to check the consistency and relationship between the cumulant exponents. This scheme gives a numerically economical way of accurately obtaining the critical exponents. Examples of this scheme are shown for four one-dimensional models - the transverse field Ising model, the topological Kondo insulator, the S = 1 Heisenberg chain with single-ion anisotropy and the Bose-Hubbard model. A two-dimensional model is also exemplified in the square lattice transverse field Ising model on an infinite cylinder. These exemplary systems portray a variety of local and string order parameters as well as phase transition classes that can be studied with the scaling functions and infinite matrix product states.

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Cited by in corpus (5)

• A scaling hypothesis for matrix product states
• Emergent conformal boundaries from finite-entanglement scaling in matrix product states
• Quantum spin spiral ground state of the ferrimagnetic sawtooth chain
• Finite-size scaling on the torus with periodic projected entangled-pair states
• Efficient and systematic calculation of arbitrary observables for the matrix product state excitation ansatz