Conversion Outside Reactor/Accelerators TRIZ Cases

A beryllium multiplier assembly transforms alpha decay energy from californium-252 into high-energy neutrons.

Electrostatic accelerator drives neutron generation in molten salt to transmute long-lived nuclear waste into stable nuclides.

A graphite film target with high thermal conductivity diffuses heat to prevent deformation and minimize radioactivation.

Aluminum telluride target resolves thermal property limitations of elemental tellurium, enabling high yield iodine-124 recovery via dry distillation.

Concentric electrodes confine ions in stable elliptical orbits, reducing electron-ion collision losses and enabling net-positive energy output.

Front liquid cooling clears rear tubing, reducing space and complexity in compact solid targets.

A target device employs a dual cooling mechanism to enhance heat transfer efficiency in radioisotope production systems.

A compact dual-acquisition coronagraph merges wide-field and solar imagers on a common axis to reduce stray light.

A target assembly uses a particle-permeable cover sheet to direct cyclotron beams into the target chamber for isotope production.

A detection apparatus induces controlled temperature perturbations to generate Doppler-shifted emission spectra from ionizing radiation interrogation.

Furnace-brazing joins the molybdenum target to the copper composite, mitigating thermal stress and annealing issues during particle irradiation.

Integrated mounting interfaces merge mechanical, fluidic, and electrical connections into one step, reducing technician exposure to radioactive materials.

Oriented patterned targets absorb high power coherent electromagnetic radiation to produce fast ions with high kinetic energy.

Continuous 5-micron CO laser irradiation suppresses dimerization losses and boosts pulse repetition rates for cost-effective uranium enrichment.

Replacing optical simulation with direct proton beam measurement via quadrupole lens conversion achieves micrometer-level centering precision.

A rotating target architecture with segmented petals extends neutron source lifetime through efficient micro-channel cooling.

A cassette system positions targets outside the reactor shell to capture moderated neutrons for transmutation.

Segmented shielding structures isolate activated targets from accelerator zones, eliminating radiation attenuation delays during maintenance.

A 3D conical target array uses microfocused laser beams to generate directional x-rays and neutrons from mixed tip materials.

Segmented electroformed walls resolve the contradiction between beam energy loss and window reliability for efficient radioisotope production.

Segmented zinc targets direct protons through specific isotope layers, reducing copper-64 contamination and boosting copper-67 yield.

A generator-detector measures mercury concentration in pipes using neutron activation analysis.

Enriched anode and cathode surfaces in inertial electrostatic confinement devices produce stable neutron flux via lattice confinement fusion.

Phosphate-based glass targets maintain structural integrity under high-energy particle beam irradiation, enabling higher radionuclide production yields.

Automated penetration pathways move irradiation targets through reactor instrumentation tubes, enabling timely radioisotope harvesting without shutdown.

A segmented container design achieves hermetic sealing for radioactive materials using a dedicated cup cap.

Portable neutron sources activate copper targets to produce radioisotopes locally, eliminating reliance on bulky cyclotron facilities.

A compact high-energy proton or neutron source generates medical isotopes using gas targets and magnetic confinement.

An automated radioisotope production system uses electrodeposition to deposit target material onto a carrier and electrodissolution to release the irradiated isotope.

A double-walled enclosure device uses a heat transfer fluid and gas insulation to isolate high-temperature samples from pressure-bearing structures.

Distributed deuterium-deuterium fusion generators in a hemispherical geometry deliver uniform thermal neutron flux without radioactive tritium.

A neutron emitter and moderator transform Molybdenum-100 into Mo-99 using high-energy gamma rays.

Electrodepositing metallic isotope targets on holders reduces preparation time by eliminating simultaneous target holder dissolution.

Sol-gel synthesis enables mass production of physically stable radioisotope tracers, avoiding complex high-pressure manufacturing processes.

A nuclear fusion system uses electron and positron accelerators to generate negative muons for catalyzing deuterium fusion reactions.

Non-uniform Ni-64 distribution and constrained beams reduce target material while preventing metal contamination.

A hemispherical arrangement of fast neutron generators around a central moderator shapes thermal neutron flux.

A rotating support positions an active material layer to maximize neutron flux interception while managing heat dissipation for isotope production.

Segmented rotating converter disks manage heat load from high-power electron beams, enabling industrial-scale radionuclide production.

Simultaneous Bremsstrahlung irradiation of sample and reference material enables rapid gold concentration determination.

Segmenting the metallic insert into a high-conductivity cavity and structural support resolves thermal management limits in radioisotope production.

Muon irradiation produces radionuclides without nuclear reactors, bypassing supply chain instability and proliferation risks.

Photo-nuclear reactions on molybdenum-100 targets using electron beams replace aging nuclear reactors, ensuring reliable medical isotope supply.

Segmented neutron source rodlet assembly lowers radiation exposure by enabling independent transport of the source capsule and positioning rodlet.

A liquid radium-226 target apparatus supplies reactants via a syringe pump to maintain liquefied state during nuclear reaction.

Segmented container zones position high and low specific activity targets radially to resolve manufacturing precision versus production efficiency trade-offs.

Solvent-bonded PBE tubing prevents plasticizer migration and stress cracking in medical fluid delivery systems.