Nuclear Energy Generation TRIZ Cases

Magnetic cusps divert energetic ions from reactor walls to beam dumps while helium cooling and breeder blankets support operation.

This case uses charge-matched coatings to reduce particle adhesion, improving filtration capacity and filter regeneration.

This fusion process concentrates cationic reactants at a target cathode for higher reaction rates, lower input energy, and sustained output.

An integrated monitoring platform uses existing sensor data to assess flow fields, tube vibration, wear, fatigue, and thermal performance.

An ANN evaluates probabilistic fastener failure patterns, stresses, and displacements to support less conservative maintenance.

A counterweight and actuator align absorber material inward, reducing neutron flux and reactor temperature when drive power is interrupted.

The case calibrates coil current, field polarity, timing, and feedback to make metal-hydride reaction triggering more repeatable.

Liquid nitrogen cools and condenses overheated steam within double containment, helping manage pressure and retain radioactive materials.

Escalating charge movement centers and rotates plasma, creating a self-generated magnetic field for stable, compact confinement.

Gas-filled gaps and pulsed implosion drivers compress a plasma liner with lower shear forces and structural stress.

Cold isostatic pressing and controlled sintering produce dense LiF fluoride bodies that limit leakage and withstand machining.

Controlling magnetic shear and injecting particles forms transport barriers that stabilize gradients and improve fusion plasma confinement.

Neutral beams, plasma guns, mirror plugs, and biasing electrodes support high-harmonic heating for stable FRC confinement.

Tie rods and pre-positioned stopping members limit base movement during lifting when a BWR fuel assembly water channel breaks.

Support segments reinforce damaged fuel assemblies without spacer removal, reducing labor and radiation exposure during storage preparation.

Segmented chambers increase fuel transport capacity while insulation supports accident protection.

This case shows how inner and outer coolant passages remove heat from a nuclear fuel storage cask without external vent maintenance.

This case uses lithium hydride, electrodes, and circulation to attenuate neutrons, breed tritium, and reduce first-wall replacement needs.

A tapered focus electrode speeds plasma sheath collapse, raising pinch temperature for aneutronic fusion reactions.

Alkali metal heat pipes passively cool fuel pins in a container-ready reactor, enabling rapid 0.5–2 MW remote power deployment.

This plasma focus case uses inner-electrode tapering to accelerate the sheath and shift neutron production toward thermonuclear reactions.

This fuel assembly bottom-nozzle grid filters debris and straightens coolant flow with streamlined ligaments to limit pressure losses.