New classes of spin chains from $(S\hat{O}_{(q)}(N)$, $S\hat{p}_{(q)}(N))$ Temperley-Lieb algebras: Data transmission and (q, N) parametrized entanglement entropies

TL;DR

This paper introduces new classes of spin chains derived from specialized Temperley-Lieb algebras associated with q-deformed orthogonal and symplectic braid matrices, analyzing their data transmission capabilities and entanglement properties.

Contribution

It presents the construction of novel spin chain Hamiltonians from these braid matrices and investigates their entanglement entropies and data transmission potential.

Findings

Derived spin chain Hamiltonians from new braid matrices.

Calculated entanglement entropies of eigenstates.

Analyzed data transmission via chain dynamics.

Abstract

A Temperley-Lieb algebra is extracted from the operator structure of a new class of $N^{2}\times N^{2}$ braid matrices presented and studied in previous papers and designated as $S\hat{O}_{(q)}(N)$, $S\hat{p}%_{(q)}(N)$ for the q-deformed orthogonal and symplectic cases respectively. Spin chain Hamiltonians are derived from such braid matrices and the corresponding chains are studied. Time evolutions of the chains and the possibility of transition of data encoded in the parameters of mixed states from one end to the other are analyzed. The entanglement entropies $% S(q,N)$ of eigenstates of the crucial operator, namely the q-dependent $% N^{2}\times N^{2}$ projector $P_{0}$ appearing in the corresponding Hamiltonian are obtained. Study of entanglements generated under the actions of \ $S\hat{O}(N)$, $S\hat{p}(N)$ braid operators, unitarized with imaginary rapidities is presented as a perspective.