Topic
Applied neutrino research — neutrinovoltaics, the Master Equation for neutrinovoltaic conversion, and approaches to harvesting the invisible radiation spectrum.
This section documents applied research directions that build on established neutrino physics. Three experimental milestones anchor the work: the 2015 Nobel-recognised oscillation discovery confirming neutrino mass, the 2017 COHERENT observation of coherent elastic neutrino-nucleus scattering (CEvNS), and the 2025 precision flux measurements from JUNO. Each is documented in the Research Hub; together they provide the empirical foundation on which the engineering-integration work proceeds.
Foundations
Applied neutrino research inherits a concrete empirical base. Each of the three milestones below is independently peer-reviewed and documented in the Research Hub.
The Nobel Prize in Physics is awarded to Kajita (Super-K atmospheric result) and McDonald (SNO solar result) for the discovery of neutrino oscillation. Mass eigenstates carry distinct momenta — a prerequisite for any scheme that couples to neutrino interactions.
Super-Kamiokande 1998 →The COHERENT collaboration at Oak Ridge reports the first direct observation of coherent elastic neutrino-nucleus scattering at 6.7σ significance. The measured cross-section matches Standard Model expectations; the N² coherent enhancement is subsequently verified across multiple target nuclei.
COHERENT 2017 →The 20-kiloton liquid-scintillator detector at a 53 km reactor baseline in southern China delivers its first oscillation-spectrum measurements, constraining the reactor antineutrino flux at the MeV scale with unprecedented precision.
JUNO 2025 →The equation
Formulated by Holger Thorsten Schubart in collaboration with the Neutrino Energy Group, the Master Equation packages the CEvNS cross-section, cosmic-ray muon flux, ambient electromagnetic contributions, and thermal gradients into a single engineering-integration framework for device output power.
Concept pages
Engineered multilayer graphene-silicon nanostructures that convert components of the invisible radiation spectrum into electrical output.
A unified mathematical framework relating effective flux, energy-dependent cross-section, material volume, and conversion efficiency to device output power.
The broader context — harvesting energy from the invisible radiation environment, of which neutrinovoltaic conversion is one specific realization.