"Zariski topology" meaning in English

See Zariski topology in All languages combined, or Wiktionary

Noun

Forms: Zariski topologies [plural]
Etymology: After Russian-born American mathematician Oscar Zariski (1899—1986), regarded as one of the most influential algebraic geometers of the 20th century. Head templates: {{en-noun}} Zariski topology (plural Zariski topologies)
  1. (algebraic geometry) Originally, a topology applicable to algebraic varieties, such that the closed sets are the variety's algebraic subvarieties; later, a generalisation in which the topological space is the set of prime ideals of a commutative ring and is called the spectrum of the ring. Wikipedia link: Oscar Zariski, Zariski topology Categories (topical): Algebraic geometry Related terms: Zariski (english: attributive form) Translations (Translations): Zariski-Topologie [feminine] (German), топология Зарисского (topologija Zarisskovo) [feminine] (Russian)

Inflected forms

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          "ref": "1994, V. I. Danilov, “II. Algebraic Varieties and Schemes”, in I. R. Shafarevich, editor, Algebraic Geometry I: Algebraic Curves, Algebraic Manifolds and Schemes, Springer, page 184",
          "text": "Thus the Zariski open subsets are 'very big'; in particular, the Zariski topology is highly non-Hausdorff.\nA further difference with the classical topology is that the Zariski topology on the product X#x5C;timesY of two affine varieties is stronger than the product of the Zariski topologies on X and Y.",
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          "ref": "2008, Gert-Martin Greuel, Gerhard Pfister, A Singular Introduction to Commutative Algebra, 2nd edition, Springer, page 523",
          "text": "In particular, “singular” is a local notion, where “local” so far was mainly considered with respect to the Zariski topology. However, since the Zariski topology is so coarse, small neighbourhoods in the Zariski topology might not be local enough.",
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          "text": "Thus the Zariski open subsets are 'very big'; in particular, the Zariski topology is highly non-Hausdorff.\nA further difference with the classical topology is that the Zariski topology on the product X#x5C;timesY of two affine varieties is stronger than the product of the Zariski topologies on X and Y.",
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