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The 35 pages that link to Georg Cantor, each with the reason it gives.

• SetRelated: His work made sets and comparisons of infinity central mathematical objects.

• Set theoryRelated: His work on infinite sets and cardinality founded the subject.

• Lebesgue measureRelated: Set theory made precise descriptions of the irregular subsets measure theory must handle.

• Measure theoryRelated: Set theory provided essential language for defining measurable collections.

• Real analysisRelated: His work on sets and infinity reshaped the foundations used in analysis.

• Continuum hypothesisRelated: Cantor formulated the question of whether an intermediate cardinality exists.

• Pigeonhole principleRelated: Set-theoretic comparisons of cardinality provide a natural language for stating the principle.

• Russell's paradoxRelated: His work on sets formed the setting in which foundational contradictions became pressing.

• Ordinal numberRelated: Cantor introduced ordinal numbers to distinguish different kinds of infinite order.

• CardinalityRelated: His investigations of trigonometric series led to systematic comparisons of infinite sets.

• Richard DedekindRelated: Dedekind corresponded with Cantor and independently clarified the mathematics of infinity.

• FractalRelated: The Cantor set became an early example of a strange, scale-structured set.

• Well-ordering theoremRelated: His work on sets and ordinals supplied the setting in which well-ordering became central.

• Cantor's theoremRelated: He proved the result while establishing that infinite sets can have different sizes.

• Ernst ZermeloRelated: Cantor’s work on well-ordering and infinite sets framed problems Zermelo sought to resolve.

• Karl WeierstrassRelated: Cantor's early research on trigonometric series grew from problems associated with Weierstrass's mathematical circle.

• Cantor setRelated: His work on derived sets and point sets gave the construction its mathematical setting.

• Foundations of mathematicsRelated: His work on infinity made set theory central to debates about mathematical foundations.

• Hausdorff dimensionRelated: Cantor’s set became an early, clear example of a set with noninteger dimension.

• Cantor's diagonal argumentRelated: Cantor used diagonal reasoning to distinguish the sizes of infinite sets.

• Diagonal argumentRelated: Cantor used diagonal reasoning to show that real numbers cannot be enumerated.

• Bernard BolzanoRelated: Cantor later developed ideas about infinity that Bolzano had explored in earlier work.

• Dedekind cutRelated: His sequence-based construction offers a contemporary alternative to Dedekind’s cuts.

• Sierpiński triangleRelated: Cantor's work on abstract sets helped establish the mathematical setting for fractal examples.

• InfinityRelated: Cantor established methods for comparing infinite sets and proved that some are larger than others.

• Felix HausdorffRelated: Cantor’s work on infinity formed a major intellectual foundation for Hausdorff’s research.

• Heine–Cantor theoremRelated: His name is attached to the theorem and its compactness framework.

• Schröder–Bernstein theoremRelated: Cantor formulated the cardinal-comparison problem that the theorem resolves.

• Zeno of EleaRelated: His mathematics distinguished different sizes of infinity, illuminating questions behind Zeno’s regresses.

• Hausdorff paradoxRelated: Cantorian ideas about infinite sets underpin the orbit selections behind Hausdorff's construction.

• Borel conjectureRelated: Cantor posed the problem of whether strong measure zero sets must be countable.

• Cantor–Dedekind axiomRelated: His work on continuity and the real numbers helped shape the principle’s formulation.

• Lévy–Steinitz theoremRelated: His work on series and rearrangements belongs to the theorem’s nineteenth-century context.