Linked from

The 55 pages that link to Nuclear stability, each with the reason it gives.

• IsotopeRelated: The balance of protons and neutrons governs an isotope’s stability.

• NeutronRelated: The neutron-to-proton balance helps determine whether a nucleus remains stable.

• Nuclear binding energyRelated: High binding alone does not guarantee stability against every possible decay channel.

• Extended periodic tableRelated: Predicted lifetimes determine whether a proposed element can be made and characterized.

• Nuclear forceRelated: The balance of nuclear attraction and proton repulsion determines which nuclei are stable.

• NuclideRelated: Stability depends on the proton–neutron combination that defines a nuclide.

• Carbon-14Related: Carbon-14’s neutron-rich nucleus is unstable, unlike the common stable carbon isotopes.

• Transactinide elementRelated: Predicting stability guides searches for transactinide isotopes with measurable lifetimes.

• UnbiniliumRelated: The half-lives of element-120 isotopes are unknown and depend on competing decay processes.

• Strong nuclear forceRelated: The balance between nuclear attraction and proton repulsion determines which nuclei remain bound.

• FleroviumRelated: Its short-lived isotopes expose unresolved limits on the stability of superheavy nuclei.

• Mass defectRelated: Binding energy inferred from mass defect helps compare the stability of nuclei.

• CoperniciumRelated: Copernicium isotopes help test predictions about stability among superheavy nuclei.

• Isotopes of hydrogenRelated: Protium and deuterium are stable, whereas tritium decays.

• UnbiuniumRelated: The half-lives of possible unbiunium isotopes are unknown and central to detecting them.

• Maria Goeppert MayerRelated: The model explains why closed nuclear shells produce especially stable configurations.

• Nuclear chemistryRelated: Stability distinguishes long-lived nuclides from radioactive ones.

• RutherfordiumRelated: No rutherfordium isotope is stable, so its chemistry must be studied from brief-lived atoms.

• J. Hans D. JensenRelated: Shell closures explain why certain proton and neutron counts produce especially stable nuclei.

• Isotopes of oxygenRelated: It explains why oxygen-16, oxygen-17, and oxygen-18 persist as stable isotopes.

• Synthetic elementRelated: Stability controls how long newly produced synthetic nuclei persist.

• Group 9 elementRelated: Meitnerium’s isotope lifetimes constrain the experiments needed to test its chemistry.

• UnbiquadiumRelated: The possible lifetimes of element-124 isotopes depend on poorly tested stability predictions.

• UnpenthexiumRelated: Stability determines whether an element-156 nucleus could survive detection.

• Semi-empirical mass formulaRelated: Binding-energy estimates help compare the stability of different nuclides.

• UnbipentiumRelated: Any prospective Unbipentium isotope would need sufficient stability for detection.

• UnhexoctiumRelated: No measured lifetime exists for a nucleus with 168 protons.

• UnhexpentiumRelated: A nucleus with 165 protons faces intense electrostatic repulsion and may be exceptionally short-lived.

• UnpentuniumRelated: Whether a nucleus with 155 protons could persist is unresolved.

• UnquadquadiumRelated: Any possible isotope of element 144 would need sufficient stability for detection.

• UntrienniumRelated: The survival of a nucleus with 139 protons is a central unknown for this hypothetical element.

• Decay productRelated: A product’s stability determines whether it ends a chain or decays again.

• Isotopes of nitrogenRelated: It accounts for the persistence of nitrogen-14 and nitrogen-15.

• Isotopes of uraniumRelated: Different neutron counts make uranium isotopes stable for different lengths of time.

• Primordial nuclideRelated: Stable nuclei persist without radioactive decay, regardless of their half-life.

• UnbienniumRelated: The lifetime of any element 129 isotope determines whether it could be detected and studied.

• UnbioctiumRelated: The lifetime of a nucleus with 128 protons is unknown.

• UnbiseptiumRelated: The predicted survival time of a 127-proton nucleus depends on its nuclear stability.

• UnhexquadiumRelated: Whether any isotope with 164 protons can persist long enough to detect is unknown.

• UnhexseptiumRelated: Whether an element-167 nucleus can survive long enough to observe is unresolved.

• UnoctquadiumRelated: Any isotope of element 184 would need sufficient stability for detection and study.

• UnpentbiumRelated: No confirmed isotope of element 125 establishes how long its nuclei could survive.

• UnpentniliumRelated: The possible lifetime of element 150 is central to whether it could be observed.

• UnpenttriumRelated: Stability determines whether any unpenttrium isotope could persist long enough to detect.

• UnquadenniumRelated: Whether any isotope of element 149 could survive detection remains unknown.

• UnquadhexiumRelated: The lifetime of any element-146 isotope is unknown and central to whether it can be detected.

• UnquadoctiumRelated: A nucleus with 148 protons would face strong electrostatic repulsion, making stability a central question.

• UnquadseptiumRelated: Whether any isotope of element 147 can be observed depends on its lifetime.

• UnsepttriumRelated: Whether an element-173 nucleus could last long enough to detect is unknown.

• UntribiumRelated: The lifetimes of possible element 123 isotopes are unknown and constrain prospects for detection.