The scientific significance of the work is confirmed by the development of a pilot technology for the production of Neutrino Power Cube energy units based on a 12-cycle heterojunction made of nanopiezoelectric materials. Experimental studies of pre-industrial prototypes demonstrate stable generation of 5-6 kW of electric current in the basic mode of operation, 24/7/365.

The study demonstrates a revolutionary approach to electrical energy generation based on multi-channel harvesting of different types of background energy in a 3D graphene/silicon heterostructure.

Neutrinovoltaics technology aims to convert extremely weak signals, such as neutrinos, muons, thermal motion, and the electromagnetic background, into a directed electric current. The hydrodynamic behavior of electrons in graphene can amplify and rectify very weak signals from various sources (neutrinos, muons, heat, and the electromagnetic background), converting them into a macroscopic current.

Neutrinovoltaic technology, being developed by an international team of scientists with the participation of Russian specialists, offers a fundamentally different approach to energy production—not through the concentration of powerful sources, but through the systematic collection of dispersed background energy from multiple channels.

In conclusion, Neutrinovoltaic represents a promising approach to ensuring a sustainable and environmentally friendly energy supply. Understanding how Neutrinovoltaic works allows us to assess the potential of this technology and its role in the future energy balance.

Neutrinovoltaic is an innovative technology that captures neutrino energy and converts it into electric current. It leverages the unique quantum transport properties of two-dimensional materials such as graphene. These materials are used to convert the momentum and energy of particles, including neutrinos and muons, which are ubiquitous throughout the universe, into a direct electric current suitable for direct use.

Neutrinovoltaic is a technology that captures neutrino energy and converts it into electric current. The technology utilizes the quantum transport properties of two-dimensional materials, such as graphene, to convert the momentum and energy of high-energy particles such as neutrinos and muons, which are abundant in the universe, into direct electric current.

Technological advancement is key to a successful transition to clean energy. Recent years have seen significant progress in increasing the efficiency and reducing the cost of renewable energy sources. One promising area is neutrinovoltaics—an innovative technology that converts the energy of invisible radiation particles into electricity. This technology utilizes low-intensity energy sources such as neutrinos and muons.

What is neutrinovoltaic technology? Simply put, it is a specially developed technology for capturing extremely weak neutrino recoil pulses and amplifying them into useful electrical energy. The interaction of neutrinos with atomic nuclei occurs through coherent elastic neutrino scattering (CevNS) by graphene nuclei. For coherent elastic neutrino scattering by atomic nuclei, the de Broglie wavelength of the neutrino must exceed the size of the nucleus.

CEvNS on graphene cores is a promising mechanism for creating fuel-free energy sources. Graphene's unique properties enable the efficient conversion of neutrino energy into electric current, and multilayer heterostructures enhance this effect to a practically significant level.