The possibility of generating electricity without fuel from invisible radiation fields has been experimentally proven

Experimental research and theoretical justification are fundamental elements for progress in technological innovation, including the development of fuel-free electricity generation methods. These developments can significantly improve national energy security, reduce their dependence on external energy sources, and facilitate the creation of decentralized power supply systems. This is especially important in the face of geopolitical tensions, such as restrictions on shipping in the Strait of Hormuz or a possible blockade of Cuba, which highlight the vulnerability of global energy systems.

Holger Thorsten Schubart, President of the Neutrino Energy Group

In this article, I would like to focus on the latest fuel-free power generation technology developed by the Neutrino Energy group of companies, led by mathematician Holger Thorsten Schubart. Despite the lack of broad scientific consensus regarding the theoretical foundations of Neutrinovoltaic technology and the high costs of development, testing, and industrial implementation, the company primarily relies on experimental data to support its findings. Among the most significant are the following:

• In November 2023, independent endurance testing of 150 Neutrino Power Cube fuel-free generators with a net capacity of 5-6 kW began in collaboration with the Austrian company GAIA. Months of testing demonstrated the stability of 24/7/365 power generation in base mode. Some shortcomings were also identified, which, after analysis and verification, were found to be related to imperfections in the application of nanolayers of materials to the metal substrate.

• In 2024, 20 Neutrino Power Cubes with a total capacity of 100 kW and 5 Neutrino Life Cubes (an 80 kg cube combines a 1-1.5 kW generator and an air-to-water generator capable of producing up to 25 liters of water per day, depending on air humidity) were installed in the village of Kisumu, Kenya, home to 500 people. These devices generated 2,400 kWh of electricity daily, operating 24 hours a day. The generated energy was enough to power three medical facilities, two schools, and fifty small businesses. This led to significant social improvements. The children's school day increased from six to nine hours. The vaccination failure rate dropped from 50 per month to zero. Revenue from local workshops, including a grain processing plant, tripled—from $1,500 to $5,000 per month. The village's electricity bill was covered by a charity.

• In 2024, 50 Neutrino Life Cubes were used during rescue operations following the California wildfires. Each device weighs 80 kg and can be quickly delivered to the scene. They are ready for use within 10 minutes of opening the packaging. Each Neutrino Life Cube generates an average of 1.2 kW of electricity. This is enough to provide lighting and communications for a shelter for 20 people. It also produces 12-25 liters of clean drinking water per day. During the 10 days without power, there were no outages, despite eight of the 20 diesel generators failing due to lack of fuel or blockages. The Neutrino Power Cube and Neutrino Life Cube are certified to IEC 63356-2024.

• In 2024, experiments were also conducted to explore the feasibility of adapting Neutrinovoltaic technology to power electric vehicles (the Pi Car project). During the first stage of testing, a flexible module with an area of ​​20 m² was placed inside the body, roof, hood, and door panels of a mass-produced electric vehicle. The film generating the energy was 200 nm thick, which is thinner than polyethylene film, meaning the appearance and safety of the electric vehicle were unchanged. Test data showed that one square meter of this film generated 0.92 kWh in 24 hours, or 18.4 kWh for 20 m². A lightweight, compact electric vehicle consumes approximately 15 kWh per 100 km, meaning the generated energy is sufficient for a range of 120 km, which is sufficient for short daily trips, such as to work. The average battery capacity for electric vehicles is 60–70 kWh—this reserve provides a range of approximately 450–500 km on a single charge. In our case, a small 30 kWh battery is sufficient for a light-duty urban electric vehicle. A 20 m² module generates electricity while driving and parked, both day and night. This reduces the need for recharging from external charging stations.

• A major drawback for electric vehicles operating in extreme conditions is the reduced battery capacity. A Chinese company licensed to produce Neutrinovoltaic panels, together with a German automaker, tested an electric vehicle with integrated Neutrinovoltaic panels. The vehicle successfully withstood extreme conditions: in Northern Europe at -30°C, the module's output dropped by only 3%, and in the Saudi desert at +50°C, it dropped by less than 4%. These results demonstrate that Neutrinovoltaic technology remains effective in both cold and hot conditions.

• In parallel, work is underway to create the Pi Car, a fully autonomous electric vehicle with a metamaterial body and an integrated Neutrinovoltaic power generation system. A prototype of this electric vehicle is currently undergoing testing in India.

An analysis of pre-industrial experiments conducted between 2023 and 2025 raised the need for maximum automation of power-generating panel production, as the defect rate during manual manufacturing was high. Over the past three years, this problem has been resolved through collaboration with Chinese and Korean companies. The cost of ultra-pure graphene used in the manufacture of fuel-free Neutrinovoltaic power sources has also been addressed. Economic calculations now demonstrate competitive advantages over solar and wind power generation. Work continues to reduce costs and improve generator efficiency, opening up broad prospects for this type of power generation.

Read the original article