• Instrumentation-driven measurement approaches unify on-line alpha spectroscopy, recoil-transport, and detector-based sensing, including surface-barrier detectors, Ge/Li gamma spectroscopy, and solid-state track devices, to enable rapid decay characterization and isotope identification. [1] [2] [6] [7]

• Systematic nuclear data programs gathered delayed neutrons, cross sections, neutron yields, resonance absorption, and neutron-capture gamma rays, building reactor-relevant datasets and mapping fission behavior across fast and thermal spectra. [5] [17] [18] [12] [9] [20]

• High-energy reaction studies using accelerators mapped spallation and proton-induced channels, enabling isotope production, cross-section mapping, and fragment-distribution analysis, illustrated by uranium/thorium spallation, vanadium-proton interactions, MeV-neutron fission fragments, and thorium isotopes. [15] [14] [16] [2]

• Radiation-material interactions and damage are explored in silicon and track-detector media, detailing neutron-induced carrier removal, defect formation, and track formation, informing materials performance under irradiation. [3] [13] [7]