The universe provides
the carrier.
Taking a pervasive CνB flux arriving from every direction as its starting point, the proposed system is designed to encode a digital message by altering that flux at a transmitter, then detecting the time-dependent variation at a receiver.
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Communication through solid matter.
Within the CνB/GUTCP framework, neutrinos are described as massless, electrically neutral “neutrino photons” that can carry messages through Earth or space. CνB aims to use this penetrating carrier to enable secure communication through solid matter, opening applications in deep-sea, underground, terrestrial, and space links.
The company's vision extends to general-purpose data transmission: a technology with the potential to outperform and replace many electromagnetic (EM) transmission solutions, connecting locations despite intervening buildings, mountains, oceans, or planetary bodies.
A message has already crossed rock.
In 2012, scientists transmitted and decoded the digital message “neutrino” using Fermilab's NuMI beam and MINERvA detector. Pulses of 120 GeV protons struck a carbon target; the resulting particles produced a focused neutrino beam. The link spanned 1.035 km, including 240 m of rock, and achieved a decoded data rate of 0.1 bits per second with a 1% bit error rate.
This accelerator-based demonstration required an extensive beam facility and a detector whose full assembly weighed 170 tonnes. Rare interactions and the accelerator's pulse cycle limited the data rate. Its scale, cost, and low throughput make that approach impractical for everyday telecommunications.
CνB's proposed architecture seeks a practical route using the continuously available cosmological background and molecular hydrino transmitter–receiver interactions.
~10 trillion / s / cm²Flux estimated in the CνB model
No attenuation or dispersionProposed propagation through matter
DigitalEncoded signal architecture
