NOVELTY - The device has active layers (104) and tunneling barrier layers (102) which are sandwiched between electrodes (108, 110). The active layers comprise an inclusion (106) located in the active layer matrix, so that the electrons can flow to or from the inclusion through the active layer matrix by electron tunneling. The energy is stored by an AEB by establishing the charge separation with the inclusions, and provided by using the charge separation as an energy source. The inclusions are selected from the group of quantum well, wire, and dot, and bulk material.    USE - Solid-state energy storage device for mobile devices, electric or hybrid vehicles.    ADVANTAGE - The AEB effect can be enhanced by using multi-layer active regions having inclusion layers separated by spacer layers, and the use of cylindrical geometry or wrap around electrodes and/or barrier layers in a planar geometry. The effect can increase energy storage capacity. A Bose-Einstein condensate (BEC) formation can increase resistance to field emission tunneling, can increase dielectric constant, and reduce the ground state energy. The solid-state device can provide high energy and power density storages with fast charge/discharge rate, and low degradation over time due to the absence of chemical reactions. The solid-state device can avoid moving atoms/ions, and prevent risk of catastrophic. The electron transport can allow fast charge and discharge. The solid-state device can improve the lifetime relative to existing energy storage devices. The barrier layers are layers of insulating material which can prevent tunneling. The electron transfer can results from the Fermi level difference between materials, so that the greater polarization can be achieved with a greater difference in Fermi level. The energy can be stored in a capacitor of the same size and weight, so that the higher performing device is obtained.    DESCRIPTION OF DRAWING(S) - The drawing shows a sectional view of the energy storage device.    Tunneling barrier layers (102)    Active layers (104)    Inclusion (106)    Electrodes (108, 110)