Unified Symmetry Breaking in Confined Electrolytes: Charge, Chemical Potential, and the Nonlinear Capacitance of Hollow Nanoparticles

TL;DR

This paper investigates the nonlinear electrostatic behavior of electrolyte-filled hollow nanoparticles, focusing on their charge response, chemical potential effects, and capacitance characteristics in curved geometries.

Contribution

It introduces a unified framework for analyzing symmetry breaking in confined electrolytes within hollow nanostructures with finite wall thickness.

Findings

Characterizes nonlinear charge response of nanocapacitors

Analyzes the impact of curvature on electrostatic properties

Provides insights into the nonlinear capacitance of hollow nanoparticles

Abstract

We study the nonlinear electrostatic response of electrolyte-filled, hollow charged nanoparticles, modeled as nanocapacitors with finite wall thickness and curved geometry.