In the past decade,researchers in the fields of energy production have concentrated on the improve ment of new energy storage devices.Lithium-ion batteries (LIBs) and faradaic supercapacitors (FSs) have attracted special attention as a result of the rapid development of new electrode nanomaterials,especially hybrid nanomaterials,which can meet the increasingly higher requirements for future energy,such as the capability to deliver high-power performance and an extremely long life cycle.In these hybrid nanostructures,a series of synergistic effects and unique properties arising from the combination of individual components are a major factor leading to improved charge/discharge capability,energy density,and system lifetime.This paper describes the most recent progress in the growth of hybrid electrode materials for LIBs and FSs systems,focusing on the combination of zero-dimensional (0D),one-dimensional (1D),two-dimensional (2D),and three-dimensional (3D) nanomaterials,respectively.