Nuclear Engineering

Bridge Nuclear reactor physics bridges chemistry and engineering: the six-factor formula (k = ╬╖fp╬╡P_NL) governs criticality from fission cross-sections, the thorium cycle offers proliferation-resistant breeding, and Generation IV reactor designs (MSR, GFR) pursue passive safety through thermodynamic and neutronics principles.

Fields: Chemistry, Engineering, Nuclear Physics, Nuclear Engineering, Energy

Nuclear fission: ²³⁵U + n → fission products + 2-3 prompt neutrons + ~200 MeV total energy (~170 MeV kinetic energy of fission fragments + 20 MeV from delayed gamma and beta). The criticality co...

Bridge Plasma confinement physics — MHD equilibrium, instability theory, and the Lawson criterion — directly determines engineering requirements for fusion reactors: the safety factor q, energy confinement time τ_E, and plasma-facing material constraints are all derivable from first-principles plasma physics and now validated by ITER design and NIF ignition.

Fields: Plasma Physics, Nuclear Engineering, Magnetohydrodynamics, Materials Science

Plasma confinement for fusion energy requires solving the magnetohydrodynamic (MHD) equilibrium equation ∇p = J × B, where pressure gradient is balanced by the magnetic force. In a tokamak, this deman...