Physics / Energy
Neutrino physics, detection, and emerging energy applications. From neutrino oscillations (Nobel Prize 2015) and coherent elastic neutrino-nucleus scattering (CEvNS) through graphene nanomaterials and electron-phonon coupling to theoretical frameworks for ambient energy conversion. An active research frontier where established particle physics meets advanced materials science.
Comprehensive review of graphene electronic properties including Dirac fermion behavior, Berry phase, and Klein tunneling — foundational for understanding graphene as an energy-harvesting material.
Demonstrates record electron mobility in suspended graphene exceeding 200,000 cm²/Vs — critical for understanding charge transport in graphene energy devices.
Reviews graphene plasmonic properties and their applications — relevant to energy coupling and conversion mechanisms at the nanoscale.
Landmark discovery of atmospheric neutrino oscillations by Super-Kamiokande, proving neutrinos have mass — led to the 2015 Nobel Prize.
Comprehensive review of ab initio electron-phonon coupling theory — essential for understanding thermal energy conversion in graphene and nanomaterials.
First observation of coherent elastic neutrino-nucleus scattering (CEvNS), predicted in 1974 — opens new possibilities for neutrino detection and interaction studies.
SNO proves solar neutrino flavor transformation via charged current detection on deuterium — key evidence that neutrinos change flavors in transit from the Sun.
Shows polarization-controlled photocurrents in topological insulators via spin-momentum locking — relevant to novel energy conversion mechanisms in quantum materials.
Comprehensive review of neutrino cross sections from sub-eV to EeV scales — essential reference for understanding neutrino interaction probabilities across all energy regimes.
Original theoretical prediction of coherent neutrino-nucleus scattering (CEvNS) with N² cross-section enhancement — predicted in 1974, confirmed experimentally in 2017.
Arthur McDonald's 2015 Nobel Lecture on the SNO discovery of solar neutrino flavor change — establishing that neutrinos have mass.
Takaaki Kajita's 2015 Nobel Lecture on Super-Kamiokande's discovery of atmospheric neutrino oscillations — confirming neutrino mass.
Latest NOvA measurements tighten constraints on neutrino oscillation parameters including θ₂₃ and Δm²₃₂ — advancing precision neutrino physics.
Comprehensive analysis of CEvNS detection prospects at stopped-pion sources — laid theoretical groundwork for the COHERENT experiment's 2017 discovery.
Demonstrates spontaneous DC current from freestanding graphene at room temperature via thermal fluctuations — foundational experimental proof that graphene can convert ambient mechanical fluctuations into electricity.
The 15 publications above provide the peer-reviewed scientific foundation for each variable in the master equation P(t) = η · ∫ Φeff · σeff dV:
Papers #4, #7, #9, #11, #12, and #13 establish the neutrino mass, flux characteristics, and interaction cross-sections that define the effective momentum-flux density.
Papers #1, #2, #3, #5, and #15 define the graphene electronic properties, electron mobility, plasmonics, and phonon coupling that determine how efficiently the nanocomposite converts flux to current.
Papers #6, #8, #10, and #14 demonstrate the neutrino-matter interaction mechanisms (CEvNS, topological photocurrents) that set the theoretical upper bounds on conversion efficiency.
Paper #15 (Thibado et al., 2020) provides the most direct experimental validation — proving that freestanding graphene spontaneously generates DC current from ambient thermal fluctuations.