The operation of all types of batteries is based on the use of reversible chemical reactions that allow the accumulation and release of energy. The theoretical limit of the ability to store and transfer electrical energy is determined by the number of electrons involved in these reactions. Existing devices only utilize valence electrons, the quantity of which in substances is strictly limited (see the Periodic Table). This limitation is what prevents a significant increase in the capacity of industrially produced batteries today.
Our proposed solution is based on Discovery No. 196, made under the scientific guidance of Nobel laureate in physics, Academician A.A. Abrikosov (priority date: 05.02.1974). 

The essence of this discovery is that during first-order phase transitions, degeneration of the energy spectrum of valence electrons with energy zones free from electrons is observed. In other words, there is a zone, but there is no electron where it should be. Understanding the complete picture of first-order phase transitions allowed our scientists to observe and describe the mechanism of the development of these transitions over time. 

This, in turn, enabled them to learn to control immense energy and the properties of the new phase through very small energy impacts during the transformations.
What is an electric current from the perspective of elementary physics? Essentially, it is the movement of electrons detached from the atom. They begin their journey under the influence of an external source of non-electric energy. However, using this traditional method, only valence or external electrons can be "made" to work. No one in the world has yet succeeded in incorporating core or core electrons into this process. And yet, their quantity in substances is orders of magnitude greater.