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The 35 pages that link to Noble gas, each with the reason it gives.
OganessonBroader topic: Oganesson is placed in group 18, though its chemistry may depart from lighter members.
Alkali metalCompared with: Noble gases have stable outer shells, opposite the electron-loss tendency of alkali metals.
FluorineCompared with: Noble gases contrast with fluorine’s strong drive to complete its valence shell through bonding.
HeliumNarrower topic: Helium belongs to this group, though its electron shell differs from those of heavier members.
HalogenCompared with: Noble gases contrast with halogens, which readily gain electrons and form compounds.
Octet ruleRelated: Their filled outer shells provide the configuration the rule treats as a common target.
Periodic lawBroader topic: Their later placement added a new group without destroying the table's recurring pattern.
William RamsayNarrower topic: Ramsay’s discoveries established several members of this formerly unknown elemental group.
RadonNarrower topic: Radon's chemical inertness and gaseous state shape how it moves through buildings.
Noble gas compoundNarrower topic: The compound class is defined by the presence of an element from this group.
XenonNarrower topic: Xenon belongs to this family, though it forms compounds more readily than the lighter members.
Neil BartlettNarrower topic: Bartlett’s work forced a revision of the traditional picture of noble gases as wholly inert.
Xenon hexafluoroplatinateNarrower topic: Xenon belongs to this family, whose presumed inertness made the reaction striking.
ArgonNarrower topic: Argon belongs to this family, whose filled outer shell accounts for its usual inertness.
Chemical inertnessBroader topic: Their electronic structures help explain the low reactivity of many noble gases.
FleroviumCompared with: Some calculations predict unexpectedly weak bonding for flerovium, inviting comparison with noble-gas behavior.
Xenon difluorideNarrower topic: Xenon difluoride is a landmark exception to the traditional picture of this family as inert.
ChalcogenCompared with: The adjacent noble gases’ filled outer shells contrast with chalcogens’ six valence electrons.
Excimer laserRelated: Noble-gas atoms form the excited complexes in common excimer laser mixtures.
Xenon tetrafluorideNarrower topic: Xenon’s membership in this family made its compounds a landmark in chemical history.
Periodic table blocksBroader topic: Most noble gases end the p block; helium is the s-block exception.
NeonNarrower topic: Neon belongs to this family because its outer electron shell is filled.
Valence shellBroader topic: Their filled valence shells help explain their characteristically low reactivity.
Helium compoundsNarrower topic: Helium is the smallest noble gas, but its chemistry differs sharply from heavier members.
Main-group elementBroader topic: The group provides a striking contrast to the reactivity of many other main-group elements.
Argon compoundsNarrower topic: Argon’s position in this group frames the historical expectation that it would not form compounds.
Period 3 elementBroader topic: Argon is the row’s terminal element, with a filled outer shell.
Period 5 elementBroader topic: Xenon ends the row, contrasting sharply with reactive rubidium at its start.
History of the periodic tableBroader topic: Their late discovery required adding a new group without overturning the table's periodic structure.
Period 2 elementNarrower topic: Neon occupies the noble-gas endpoint of Period 2.
Period 4 elementBroader topic: Krypton closes the period with a filled outer shell.
Xenon tetroxideNarrower topic: Xenon tetroxide is a striking exception to the traditional picture of noble gases as inert.
Disodium helideNarrower topic: Helium’s conventional noble-gas behavior contrasts with its inclusion in Na₂He.
Neon compoundsNarrower topic: Neon belongs to this family, whose members vary greatly in their ability to form compounds.
Period 1 elementNarrower topic: Helium is the first noble gas and closes the first period.