Cosmic Neutrinos Enable Revolutionary Communication System

YARDLEY, Pa., Nov. 10, 2026 /CourierPR/ -- The release of the groundbreaking research by Hagen and Mills has marked a pivotal moment in the field of physics and telecommunications. Their work, published in the ChemRxiv on October 12, 2026, has opened new avenues for the detection and characterization of the Cosmological Neutrino Background (CvB), a phenomenon that has long eluded scientists.

Hagen and Mills have detected and characterized the energy spectrum of the CvB for the first time, confirming the most fundamental signature of the evolution of the expanding universe. This discovery has profound implications for both scientific understanding and technological innovation, particularly in the realm of telecommunications.

The CvB neutrinos, which are 1/100,000 electron volt in energy, are a direct product of the universe itself, passing through everything, including Earth, people, and buildings, at a rate of ten trillion per second in every direction. Unlike electromagnetic waves, which propagate at the speed of light along a straight ray path without attenuation or dispersion, CvB neutrinos are unattenuated and undispersed, even as they travel billions of light years to Earth. This characteristic makes them ideal for a new type of telecommunications system.

The breakthrough that enabled the detection of the CvB was the prediction and laboratory confirmation of a new, more stable form of molecular hydrogen called molecular hydrino (H₂(1/p)). This molecule, distinguished by its unpaired electron, forms dimers that interact with the CvB neutrinos during the recording of an electron paramagnetic resonance (EPR) spectrum. The cross-section or likelihood of an interaction event between the CvB neutrinos and molecular hydrino is extraordinarily high, leading to a predicted occurrence frequency that is 1 followed by 28 zeros greater than that of neutrino interactions observed by previous observatories such as IceCube.

The detection of the CvB using EPR spectroscopy has never been previously possible. The most sensitive energy range of EPR spectroscopy matches the energy range of the CvB, allowing for the continuous recording of clear neutrino signatures. This achievement has significant implications for the development of a transformational digital telecommunications system based on the CvB carrier, which is provided directly by the universe without the need for infrastructure and power.

The CvB communication system, which uses massless, neutral neutrino photons to send messages through Earth or space, offers secure signals that can pass through solid matter, making it ideal for deep-sea, underground, or space communication. It also provides a superior alternative to electromagnetic (EM) signal transmission in general applications, as it is immune to external electronic noise and can be transmitted at very low power levels, orders of magnitude lower than those transmitted electromagnetically.

Wilfred (Fred) R. Hagen, Emeritus Professor of Enzymology at Delft University of Technology (TU Delft), and Randell Mills, CEO of C-Nu-B, Inc., have spearheaded this research. Hagen's extensive investigation into the existence of molecular hydrino, which Mills predicted and confirmed, has enabled the detection of the CvB.

The adaptation of existing technologies by C-Nu-B, Inc., a developing proprietary commercial CνB telecommunications technology company located in Yardley, PA, is enabling the encoding and decoding of the unattenuated and undispersed telecommunications signals in the ubiquitous cosmological neutrino background to provide inherently powered, unlimited bandwidth communication anywhere on the Earth, undersea, and throughout space at line of sight and light speed with a secure, low-power-consuming, handheld device.

This technology, which eliminates the need for traditional communications infrastructure except for personalized handheld devices, offers vast economic and bandwidth advantages. It also provides a superior alternative to EM signal transmission, particularly in challenging applications such as national security critical submarine communication. Beyond the economic and bandwidth advantages, the system is immune to global positioning satellite (GPS) jamming and high-altitude electromagnetic pulse (EMP) events, which would cripple essential global infrastructure.

In conclusion, the detection and characterization of the CvB by Hagen and Mills have opened a new era in telecommunications, offering a secure, low-power, and infrastructure-free alternative to traditional communication methods. The technology's potential for applications in deep-sea, underground, and space communication, as well as its superior performance in challenging environments, makes it a game-changing development in the field.