Linked from

The 163 pages that link to Radioactive decay, each with the reason it gives.

• Frederick SoddyRelated: Decay chains provided the evidence that radioactive elements transform over time.

• Geiger counterRelated: Decay events emit radiation that can produce counts in a nearby detector.

• Radiocarbon calibrationRelated: Carbon-14 decay gives measurements an age scale that is not identical to calendar time.

• TechnetiumRelated: Every technetium isotope decays, setting its lifetime and radiation output.

• Thermoluminescence datingRelated: Decay in surrounding materials supplies much of the radiation that charges mineral traps.

• AstatineRelated: Decay both creates naturally occurring astatine and rapidly removes it.

• CaliforniumRelated: Californium isotopes decay through processes including alpha emission and spontaneous fission.

• Cosmogenic nuclideRelated: Decay competes with production and sets the timescale of radioactive cosmogenic nuclides.

• DarmstadtiumRelated: Darmstadtium isotopes are identified and studied through their characteristic decay chains.

• Neutron activationRelated: Activated isotopes decay and emit the radiation used to detect them.

• RadiotracerRelated: Its emissions provide the signal used to locate radioactive atoms.

• Schrödinger’s catRelated: A decay event triggers the mechanism that determines the cat’s fate.

• SeaborgiumRelated: Seaborgium isotopes are recognized through their characteristic radioactive transformations.

• Smoke detectorRelated: Ionization detectors use radiation from a small americium source to ionize air.

• BerkeliumRelated: Berkelium isotopes decay at rates that shape their handling and availability.

• FranciumRelated: Decay produces the naturally occurring francium found in minerals.

• PitchblendeRelated: Decay within pitchblende creates daughter elements that can accumulate in trace amounts.

• George de HevesyRelated: Decay produces the signal that reveals where radioactive tracer atoms have traveled.

• Poisson limit theoremRelated: Many nuclei with small individual decay probabilities yield approximately Poisson decay counts.

• PromethiumRelated: Radioactive decay governs how promethium isotopes lose activity and transform into other elements.

• RutherfordiumRelated: Decay signals reveal the formation and isotope identity of individual rutherfordium atoms.

• EinsteiniumRelated: Every known einsteinium isotope decays radioactively.

• FermiumRelated: Fermium isotopes decay at rates that determine how long samples remain measurable.

• Superluminous supernovaRelated: Radioactive heating powers ordinary supernova light and may contribute to unusually luminous events.

• Synthetic elementRelated: Decay determines whether a produced synthetic isotope survives long enough to identify.

• LivermoriumRelated: Decay limits how long livermorium atoms can be studied after they are created.

• Lord KelvinRelated: Radioactivity revealed an internal heat source absent from Kelvin’s model of Earth’s cooling.

• MeitneriumRelated: Decay chains provide the main means of identifying meitnerium atoms.

• Nuclear structureRelated: Decay energies and selection rules disclose the states and structure of parent and daughter nuclei.

• UraniniteRelated: Decay of uranium and its daughter products makes uraninite radioactive.

• HassiumRelated: Hassium isotopes decay rapidly, limiting how long experiments can examine them.

• NobeliumRelated: Nobelium isotopes decay rapidly, limiting their measurement and use.

• Period 7 elementRelated: Radioactive decay limits how long most superheavy period 7 isotopes can be studied.

• Radioactive sourceRelated: Nuclear decay produces the emissions that make a radioactive source active.

• ThorianiteRelated: Thorium and uranium isotopes make thorianite radioactive.

• UnbitriumRelated: Decay chains would provide evidence for any short-lived element 123 nuclei.

• UnquadquadiumRelated: Decay chains could provide evidence for an element 144 nucleus that survives only briefly.

• AllaniteRelated: Decay of incorporated radioactive elements damages allanite and generates radiogenic isotopes.

• Gamma-ray techniquesRelated: Radioactive decay supplies gamma photons for many tracers and calibrated sources.

• Interactions and forcesRelated: Weak interactions drive important decay modes and produce detectable radiation.

• Inverse secondRelated: A decay constant expressed in s⁻¹ gives the probability rate of decay per unit time.

• Isotopes of nitrogenRelated: Nitrogen-13 decays rather than remaining a stable nitrogen isotope.

• Isotopes of uraniumRelated: Unstable uranium isotopes transform into other nuclides through characteristic decay.

• Nuclear technologyRelated: Decay supplies radiation for tracers, medical treatments, gauges, and radioactive power sources.

• Primordial nuclideRelated: Decay progressively depletes radioactive primordial nuclides according to their half-lives.

• Radioanalytical chemistryRelated: Decay type and rate determine the signals available for analysis.

• TitaniteRelated: Uranium and thorium in titanite can damage its crystal lattice over time.

• UnbioctiumRelated: Any produced nuclei of element 128 would be identified through their decay products.

• UnbiseptiumRelated: Any produced element 127 may decay before its properties can be measured.

• UnquadbiumRelated: A produced unquadbium isotope would be identified through its decay products.