Neutrino Wiki: Neutrino Energy, The Coming Energy Revolution
Neutrinos and the Future of Energy
The knowledge base for neutrino science and ambient energy conversion.
What is Neutrino Energy?
“The harness of waterfalls is the most economical method known for drawing energy from the sun,” observed Nikola Tesla. A century later, the question has moved to a smaller scale. Every point on Earth is crossed, day and night, by a continuous flow of energy. Neutrinovoltaic technology uses engineered nanomaterials to convert part of it into direct current. It works with five ambient inputs at once: neutrino interactions, cosmic muons and other secondary particles, electromagnetic radiation, thermal fluctuations and mechanical vibrations. Neutrinos gave the field its name, but they are the rarest of the five and one input among several.
The Neutrino: From Missing Energy to Measured Particle
In the early 20th century, physicists studying radioactive beta decay found that energy seemed to disappear: the emitted electrons carried less energy than expected. Rather than give up the conservation of energy, Wolfgang Pauli proposed in 1930 that an unseen neutral particle carried the missing share away. Enrico Fermi named it the “neutrino”, the little neutral one, to set it apart from the heavier neutron discovered in 1932.
It took a quarter of a century to catch one. In 1956, Clyde Cowan, Frederick Reines and their team detected neutrinos from a nuclear reactor by recording their interactions with protons in large tanks of water. The discovery earned the 1995 Nobel Prize in Physics.
Mass, Oscillation and the Nobel Prizes
For decades, neutrinos were assumed to have no mass. That changed when experiments showed that neutrinos switch between three types, or “flavours”, as they travel. This oscillation is only possible if neutrinos have mass. Takaaki Kajita and Arthur B. McDonald received the 2015 Nobel Prize in Physics for the discovery.
On 6 October 2026 the Nobel Prize in Physics went to Francis Halzen for the IceCube Neutrino Observatory and the discovery of high-energy neutrinos from beyond our solar system. IceCube watches about a cubic kilometre of Antarctic ice with some 5,160 light sensors, waiting for the faint blue flash a rare interaction leaves behind. IceCube is an independent international collaboration; the Neutrino® Energy Group is not part of it. The two share a fascination and a shape: science detects them in ice, and we put them to work in a device.
From Interaction to Electricity
A neutrino carries no electric charge and interacts only through the weak force and gravity. Tens of billions cross every square centimetre each second, and almost all of them pass through the Earth untouched. A few interact, and in those rare events energy and momentum are transferred. Nothing is caught or stored; the neutrino hands over a small amount of energy and travels on. In 2017 the COHERENT experiment, published in Science, observed coherent elastic neutrino-nucleus scattering (CEvNS) for the first time: neutrinos give a measurable push to whole atomic nuclei. Reactor experiments such as CONUS+ have since confirmed the effect.
The arithmetic is clear about what neutrinos alone can do: even if every solar neutrino crossing a Neutrino Power Cube gave up all its energy, the result would be a faint heater, not a power source. That is why the design uses five inputs acting on one layered material. Graphene responds strongly to all of them. Professor Paul Thibado’s group at the University of Arkansas has shown that freestanding graphene produces a measurable continuous electrical output from thermal fluctuations at room temperature, with the laws of thermodynamics holding throughout. Asymmetric layers of graphene and doped silicon give these small, fluctuating responses a preferred direction, which turns a flicker into a current.
The Schubart Master Formula
The accounting behind the technology is the Schubart Master Formula, formulated in 2024 by Holger-Thorsten Schubart:
- P(t) is the usable electrical output power at time t, in watts. It is power, not energy. Energy is the time integral of P(t).
- η is the conversion efficiency, a dimensionless number between 0 and 1. It covers resonance, rectification and the efficiency of the material design.
- Φ_eff(r, t) is the effective ambient input at position r at time t.
- σ_eff(E) is the effective coupling of the material at energy E.
- ∫_V runs over the active material volume V.
The model describes an open, non-equilibrium system, and its output is bounded by what is coupled in: P_out ≤ ΣP_in. Every joule at the consumer comes from an input that can be named. The value of the formula is that it is a discipline, not a claim. It forces every energy contribution, every coupling, every loss and every boundary condition to be written down. A claim can be argued with. A calculation can be checked.
The derivation, the notation and the open scientific questions are published at pt-schubart.com.
Mathematics Beats Opinion
In September 2026 Holger-Thorsten Schubart addressed the global scientific community with a short statement, Mathematics Beats Opinion. Its point: neutrinovoltaic technology was never meant to be reduced to the idea that neutrinos alone provide the electrical output. The name records where the research began. The formula is the reference point: “Not headlines. Not interpretations. Not enthusiasm. Not criticism. And not authority, including my own.” It defines what has to be measured: how much energy enters, through which channels, how strongly the material couples, what becomes directed power, what is lost, and whether the result can be reproduced independently.
The path is five words long: Define. Measure. Isolate. Calculate. Reproduce. Physicists, mathematicians, materials scientists, engineers and serious critics everywhere are invited to challenge the assumptions, the equations, the materials and the measurements, as long as they challenge the system actually described. The final word belongs to reproducible reality.
What the Neutrino® Energy Group Is Building
The Neutrino® Energy Group develops neutrinovoltaic technology and drives its industrial applications forward. Its yardstick is power at the socket.
- Neutrino Power Cube. Designed for a target continuous net output of 5 to 6 kW. About 800 × 400 × 600 mm and 50 kg, solid-state, with no moving parts and no fuel. Many small conversion elements run in parallel, so none is indispensable and capacity grows by adding more. Status: in development.
- Neutrino Life Cube. A 1 to 1.5 kW generation unit combined with climate control and an air-to-water purifier for up to 25 litres of clean water a day, depending on climatic conditions. Built for places where power and water fail first.
- Pi platforms. Neutrinovoltaic layers integrated into vehicles (Pi Car, concept phase), drones (Pi Fly, early concept) and ships (Pi Nautic, early concept). All share one material architecture and one manufacturing base, so an efficiency gain in one carries over to the others.
The technology is protected by the core patent (WO2016142056A1). It scales in seven steps, from sensors in the milliwatt range through portable devices, appliances and the Power Cube to modular power, microgrids and hybrid infrastructure working alongside the existing grid. This is the Energy Architecture Transition: next to “Fuel → Power Plant → Grid → Consumer” and “Renewables → Storage → Grid → Consumer” comes “Ambient Energy → Local Conversion → Consumer”. The grid stays as connection, reserve and balancing layer.
Project 12742
Named after the Earth’s diameter in kilometres, Project 12742 explores how energy nodes could form a global intelligent communication network, including communication straight through the planet rather than around it. It runs in three phases: Intelligent Energy Network, Universal Field Communication and Next Level.
The Neutrino Engineering District and the Supreme Council
The scientific work is organised in the Neutrino Engineering District: not a building, but a worldwide network of universities, laboratories, metrology centres and engineering teams connected by one shared intelligence, human and artificial. Nothing moves from science to industry before it passes four gates: mathematical consistency, experimental evidence, independent reproducibility and technical feasibility. Two AI executive functions, Avery Laurent and Morgan Elian, support its leadership (see the AI Executive Layer).
The same principle now extends to the leadership of the whole group. The Neutrino Supreme Council is the AI-supported strategic centre of the Neutrino® Energy Group: the District creates scientific and technological intelligence, the Council strategic, economic and institutional intelligence. Several independent systems examine each question, check one another and document their reasons. Human leadership keeps final authority throughout. The Neutrino Superintelligence Force carries the idea further: many intelligences, one human-defined mission, built-in opposition.
Where We Stand
The Neutrino Power Cube is in development, and its output figure is a design target, not a measured result. The processes behind it are established physics. What remains to be shown is the net contribution of each input and a closed energy balance for the whole unit, and the path there has five steps: single structures characterised input by input, controlled measurements with each channel isolated, reproduction in independent laboratories, scaling from sample to module to unit without losing what the sample showed, and long-term operation over months and years. Modules for sensors, portable devices and appliances are integration stages, designed to cover part of the load continuously, depending on consumption and operating profile. Goals and evidence are published separately.
More videos on neutrino research are on the Videos page, and the latest articles in the Wiki News.
