Neutrinovoltaics: strategic energy partnership

Neutrinovoltaics as the foundation of a new energy economy

At the end of October 2025, an agreement was signed in Shanghai that is regarded as a milestone in the history of decentralised energy generation. In a joint venture with a Chinese partner, representatives of the Neutrino Energy Group sealed their strategic partnership for the joint industrialisation of neutrinovoltaic technology. This technology promises nothing less than a new era of emission-free, weather-independent energy supply.

From fundamental research to industrial implementation

Neutrinovoltaics – often called “invisible photovoltaics” – is based on converting the energy of invisible cosmic radiation into electric current. Unlike classical photovoltaic systems, it needs neither light nor heat nor motion. The process is based on multilayer nanomaterials made of graphene and doped silicon, which induce vibrations at the subatomic level when struck by neutrinos and other particles. These vibrations create an electrical resonance that is converted into direct current.

Over the years, this technology has been researched theoretically in Germany, described mathematically and validated in pre-commercial tests. After the first successful demonstrations, the Neutrino® Energy Group is now concentrating on global scaling. China now plays a central role in this – not only as a production location but as a key player in integrating the technology into large-scale industrial manufacturing processes.

The Shanghai agreement framework and goals

The agreement signed in Shanghai at the end of October 2025 lays the foundation for a Chinese-German joint venture that provides for the establishment of research facilities, pilot factories and production sites in China. The contract regulates the ownership structures of both sides and grants the Chinese partner company exclusive rights to commercial use in China as well as a licence extending beyond China for the market launch of the products.

The joint venture will establish its main base in Hangzhou (Zhejiang province), where an industrial park for neutrino energy applications is being built. The first large-scale production lines for neutrinovoltaic generators and energy-self-sufficient systems are to be set up there. At the same time, R&D centres are being created that concentrate on material optimisation, system integration and increasing efficiency.

The aim is to bring the technology into use in various sectors – from residential buildings and commercial enterprises to data centres, medical facilities, shipping and electric mobility. These applications will be launched as pilot programmes within China and then expanded in international cooperations, for example within the framework of the Belt and Road Initiative.

Strategic significance of neutrinovoltaics for China

The agreement fits seamlessly into China’s long-term energy and industrial policy. With the goal of peaking CO2 emissions by 2030 and becoming climate-neutral by 2060, China is looking for base technologies that provide independent, weather-independent energy sources. Neutrinovoltaics meets exactly these requirements: it works 24 hours a day, without fuel, without emissions and almost maintenance-free.

In addition, the technology ideally complements existing renewable energies. While photovoltaics and wind power have strongly fluctuating yields, neutrinovoltaics can act as a continuous baseload source. Model calculations show that a combination of neutrinovoltaics and wind power could increase security of supply to over 99 per cent – a decisive step towards stabilising decentralised grids.

Geopolitically, too, the agreement strengthens China’s position as a technology leader. Through early participation in industrial implementation, the country secures access to key patents and production capacities. Integrating manufacturing into existing semiconductor and nanotechnology clusters – especially in Shenzhen, Hangzhou and Shanghai – enables rapid scaling with low production costs at the same time.

Effects on development and production

The partnership marks the transition from scientific validation to industrial maturity. After successful laboratory tests in Germany and Switzerland, the pilot series that will prepare commercial use are now to be produced in China. In the first phase (2025–2027), production of a small pre-series in the four-digit range is planned, to be tested in different climate zones and application scenarios – including in Europe. These tests will provide important data on material stability, the development of efficiencies and long-term reliability.

From 2027/2028, production will be scaled up, with the capacity of the production lines to be increased gradually to 200,000 modules a year. By using existing semiconductor infrastructure, series production can largely build on existing machinery – a decisive cost advantage over completely new plants. The aim is to bring manufacturing costs per kilowatt of output to a level comparable with today’s renewable systems by 2030.

The cooperation also opens up new horizons in research. Together with the Chinese Academy of Sciences and leading universities such as Zhejiang University, joint laboratories are being set up to work on the further development of the nanostructures and resonance amplification. The findings are to be applied not only in energy production but also in related fields such as sensor technology, space technology and microsystems.

Global perspective and social benefit

Beyond the technological dimension, the agreement carries a clear energy-policy message: it stands for decentralisation, autonomy and sustainability. In regions without stable power grids – for example in parts of Central Asia, Africa or South America – compact neutrinovoltaic systems could in future enable a continuous energy supply.

China also sees this as an instrument of its international energy policy. Through licensed production and export of the technology, the country wants to give developing countries access to clean, off-grid energy – an approach that combines economic cooperation and climate protection.

Conclusion

The Shanghai agreement marks the beginning of a new phase of energy technology. It combines German research expertise with Chinese production and scaling capability. With the industrialisation of neutrinovoltaic technology in China, a practicable infrastructure for the large-scale use of cosmic energy sources is being created for the first time.

The partnership between the Neutrino Energy Group and the Chinese technology company Shanghai Protosuiren Technology Co., Ltd. (普罗燧人科技有限公司) is thus developing into a strategic model for the energy future: decentralised, emission-free, independent and globally accessible. In a world that urgently needs stable, sustainable forms of energy, the cooperation sealed in Shanghai could be the decisive step into a new energy age.

References (selection)

• china5e
• vashgorod
• pedaily