Nanomaterials with a highly developed interface structure represent a special class of functional materials where the key role is played not by their bulk properties, but by the properties of the interfaces between ultrathin layers. Each atomic layer of the material actively participates in functional processes such as adsorption, charge transfer, and catalysis, significantly increasing its specific reactivity. When nanolayers with a thickness of 1 to 10 nm are superimposed,

The Neutrino Power Cube is neither a battery, as it doesn't store energy, nor a reactor, as it doesn't produce it. It doesn't rely on any unique or exotic interactions. It's a fuel-free energy generation device that combines multiple, continuously available sources within a stable computational model. Its importance lies not in breaking the laws of physics, but in strictly adhering to them, making decentralization a practical reality.

The core of Neutrinovoltaic technology is a multilayer material made of alternating 2D layers of graphene and doped silicon, which acts as an energy converter. It operates at the quantum excitation level, using phonons, plasma exciters, and electrons.

Neutrinovoltaic's fuel-free technology is based on a multilayer nanomaterial composed of graphene and doped silicon. This innovative material was created by a team of scientists from Neutrino Energy, led by mathematician Holger Thorsten Schubart. Graphene-silicon compounds with modified crystal structures belong to the class of misfit materials. Their distinctive feature—their lattice mismatch—endows them with unique properties.

Graphene-silicon materials with a disrupted crystal structure can be called the "superheroes" of materials science. Their "imperfection," that is, the mismatch of their crystal lattices, gives them unique properties sought after in advanced energy technologies, particularly Neutrinovoltaic technology.