Linked from

The 38 pages that link to Nuclear proliferation, each with the reason it gives.

• Nuclear fissionRelated: Some materials and technologies associated with civilian fission can also raise weapons-proliferation concerns.

• Nuclear deterrenceRelated: Reliance on nuclear deterrence can influence other states’ decisions to seek their own arsenals.

• Nuclear disarmamentRelated: Credible disarmament can reinforce efforts to prevent new states from acquiring nuclear weapons.

• Nuclear weaponRelated: The risks of more states acquiring these weapons prompted international controls.

• Nuclear powerRelated: Safeguards address the risk that civilian nuclear materials or expertise could support weapons programs.

• Nuclear fuel cycleRelated: Enrichment and reprocessing can create materials and facilities relevant to weapons concerns.

• UraniumRelated: Uranium enrichment technology can support civilian fuel production or weapons programs.

• Enrichment of uraniumRelated: Enrichment technology can support civilian fuel production and create proliferation concerns.

• Heavy waterRelated: Heavy-water production and reactor operation can raise safeguards concerns about plutonium.

• Plutonium-239Related: Plutonium-239 production and separation are central concerns in nuclear safeguards.

• ThoriumRelated: Thorium systems still raise safeguards concerns because uranium-233 is weapons-usable.

• Nuclear reprocessingRelated: Separating plutonium raises safeguards and security concerns because of its weapons potential.

• Uranium hexafluorideRelated: UF₆ transport and enrichment are monitored because enriched uranium can raise proliferation concerns.

• Nuclear marine propulsionRelated: Naval reactor fuel and technology raise safeguards questions even when used for propulsion.

• Thorium fuel cycleRelated: Uranium-233 and associated fuel-cycle operations raise safeguards questions despite claims of proliferation resistance.

• Fissile materialRelated: Access to fissile material is a central constraint on producing nuclear weapons.

• Mixed oxide fuelRelated: Separating plutonium for MOX fabrication raises security and safeguards requirements.

• Atoms for PeaceRelated: The initiative’s transfers raised concerns about expanding the capabilities from which proliferation could follow.

• Budapest MemorandumRelated: The agreement is often discussed in debates over whether security assurances can support nonproliferation.

• Isotope separationRelated: Enrichment technology can support civilian fuel cycles while also creating proliferation concerns.

• Molten-salt reactorRelated: Fuel-cycle choices and chemical processing affect safeguards and proliferation assessments.

• Breeder reactorRelated: Separated plutonium and other fuel-cycle choices raise safeguards and security concerns.

• Nuclear weapon designRelated: Design knowledge and access to specialized materials affect efforts to prevent new arsenals.

• Iran–Israel proxy conflictRelated: An intensified confrontation could heighten regional interest in nuclear deterrence.

• Small modular reactorRelated: More sites and fuel movements raise safeguards and security questions for some deployment models.

• Nuclear engineeringRelated: Fuel-cycle choices and facility safeguards carry consequences for international security.

• 21st centuryRelated: Changes in global security could either constrain or intensify proliferation pressures.

• 2026 Iran warRelated: The conflict may affect incentives for Iran and other states to pursue nuclear deterrence.

• Israeli strikes on IranRelated: Damage to facilities and pressure on Iran could alter incentives around nuclear development.

• Nuclear technologyRelated: Civilian nuclear materials and expertise can raise security concerns when diverted or misused.