See Euclid's lemma on Wiktionary
{ "etymology_text": "Named after ancient Greek mathematician Euclid of Alexandria (fl. 300 BCE). A version of the proposition appears in Book VII of his Elements.", "head_templates": [ { "args": { "1": "-" }, "expansion": "Euclid's lemma (uncountable)", "name": "en-noun" } ], "lang": "English", "lang_code": "en", "pos": "noun", "senses": [ { "categories": [ { "kind": "topical", "langcode": "en", "name": "Algebra", "orig": "en:Algebra", "parents": [ "Mathematics", "Formal sciences", "Sciences", "All topics", "Fundamental" ], "source": "w" }, { "kind": "topical", "langcode": "en", "name": "Number theory", "orig": "en:Number theory", "parents": [ "Mathematics", "Formal sciences", "Sciences", "All topics", "Fundamental" ], "source": "w" } ], "examples": [ { "ref": "1998, Peter M. Higgins, Mathematics for the Curious, Oxford University Press, page 78:", "text": "I used Euclid's Lemma in a slightly sly way in the second chapter, where I ran through the argument that #92;sqrt 2 is irrational. I said there that if 2 is a factor of a² then a itself must be even. This follows from Euclid's Lemma upon taking p#61;2, the only even prime, and taking b#61;a. Indeed, using Euclid's Lemma it is not hard to generalize the argument showing #92;sqrt 2 to be irrational to prove that #92;sqrtp is irrational for any prime p.", "type": "quote" }, { "ref": "2007, David M. Burton, The History of Mathematics, McGraw-Hill, page 179:", "text": "If a and b are not relatively prime, then the conclusion of Euclid's lemma may fail to hold. A specific example: 12#92;mid 9#92;cdot 8, but 12#92;nmid 9 and 12#92;nmid 8.", "type": "quote" }, { "ref": "2008, Martin Erickson, Anthony Vazzana, Introduction to Number Theory, Taylor & Francis (Chapman & Hall / CRC Press), page 42:", "text": "In our discussion of Euclid's lemma (Corollary 2.18), we noted that the uniqueness of factorization of integers is a fact that we often take for granted given the way it is introduced in school.", "type": "quote" } ], "glosses": [ "The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "id": "en-Euclid's_lemma-en-noun-WRoKURP9", "links": [ [ "number theory", "number theory" ], [ "proposition", "proposition" ], [ "prime number", "prime number" ], [ "integer", "integer" ], [ "gcd", "gcd" ], [ "algebra", "algebra" ], [ "principal ideal domain", "principal ideal domain" ] ], "raw_glosses": [ "(number theory) The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "tags": [ "uncountable" ], "topics": [ "mathematics", "number-theory", "sciences" ] }, { "categories": [ { "kind": "topical", "langcode": "en", "name": "Algebra", "orig": "en:Algebra", "parents": [ "Mathematics", "Formal sciences", "Sciences", "All topics", "Fundamental" ], "source": "w" }, { "kind": "topical", "langcode": "en", "name": "Number theory", "orig": "en:Number theory", "parents": [ "Mathematics", "Formal sciences", "Sciences", "All topics", "Fundamental" ], "source": "w" } ], "glosses": [ "The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;\nslightly more generally, the proposition that for integers a, b, c, if a divides bc and gcd(a, b) = 1, then a divides c;\n(algebra, by generalisation) the proposition that for elements a, b, c of a given principal ideal domain, if a divides bc and gcd(a, b) = 1, then a divides c.", "slightly more generally, the proposition that for integers a, b, c, if a divides bc and gcd(a, b) = 1, then a divides c;" ], "id": "en-Euclid's_lemma-en-noun-fEjnsrS4", "links": [ [ "number theory", "number theory" ], [ "proposition", "proposition" ], [ "prime number", "prime number" ], [ "integer", "integer" ], [ "gcd", "gcd" ], [ "algebra", "algebra" ], [ "principal ideal domain", "principal ideal domain" ] ], "raw_glosses": [ "(number theory) The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "tags": [ "uncountable" ], "topics": [ "mathematics", "number-theory", "sciences" ] }, { "categories": [ { "kind": "topical", "langcode": "en", "name": "Algebra", "orig": "en:Algebra", "parents": [ "Mathematics", "Formal sciences", "Sciences", "All topics", "Fundamental" ], "source": "w" }, { "kind": "topical", "langcode": "en", "name": "Number theory", "orig": "en:Number theory", "parents": [ "Mathematics", "Formal sciences", "Sciences", "All topics", "Fundamental" ], "source": "w" }, { "_dis": "12 35 53", "kind": "other", "name": "English entries with incorrect language header", "parents": [ "Entries with incorrect language header", "Entry maintenance" ], "source": "w+disamb" }, { "_dis": "9 36 55", "kind": "other", "name": "Pages with 1 entry", "parents": [], "source": "w+disamb" }, { "_dis": "4 35 61", "kind": "other", "name": "Pages with entries", "parents": [], "source": "w+disamb" } ], "glosses": [ "The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;\nslightly more generally, the proposition that for integers a, b, c, if a divides bc and gcd(a, b) = 1, then a divides c;\n(algebra, by generalisation) the proposition that for elements a, b, c of a given principal ideal domain, if a divides bc and gcd(a, b) = 1, then a divides c.", "the proposition that for elements a, b, c of a given principal ideal domain, if a divides bc and gcd(a, b) = 1, then a divides c." ], "id": "en-Euclid's_lemma-en-noun-iaKsmiOs", "links": [ [ "number theory", "number theory" ], [ "proposition", "proposition" ], [ "prime number", "prime number" ], [ "integer", "integer" ], [ "gcd", "gcd" ], [ "algebra", "algebra" ], [ "principal ideal domain", "principal ideal domain" ] ], "raw_glosses": [ "(number theory) The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "synonyms": [ { "_dis1": "30 30 41", "word": "Euclid's Lemma" } ], "tags": [ "uncountable" ], "topics": [ "algebra", "mathematics", "number-theory", "sciences" ] } ], "wikipedia": [ "Euclid", "Euclid's lemma", "Euclids Elements" ], "word": "Euclid's lemma" }
{ "categories": [ "English entries with incorrect language header", "English lemmas", "English multiword terms", "English nouns", "English uncountable nouns", "Pages with 1 entry", "Pages with entries" ], "etymology_text": "Named after ancient Greek mathematician Euclid of Alexandria (fl. 300 BCE). A version of the proposition appears in Book VII of his Elements.", "head_templates": [ { "args": { "1": "-" }, "expansion": "Euclid's lemma (uncountable)", "name": "en-noun" } ], "lang": "English", "lang_code": "en", "pos": "noun", "senses": [ { "categories": [ "English terms with quotations", "en:Algebra", "en:Number theory" ], "examples": [ { "ref": "1998, Peter M. Higgins, Mathematics for the Curious, Oxford University Press, page 78:", "text": "I used Euclid's Lemma in a slightly sly way in the second chapter, where I ran through the argument that #92;sqrt 2 is irrational. I said there that if 2 is a factor of a² then a itself must be even. This follows from Euclid's Lemma upon taking p#61;2, the only even prime, and taking b#61;a. Indeed, using Euclid's Lemma it is not hard to generalize the argument showing #92;sqrt 2 to be irrational to prove that #92;sqrtp is irrational for any prime p.", "type": "quote" }, { "ref": "2007, David M. Burton, The History of Mathematics, McGraw-Hill, page 179:", "text": "If a and b are not relatively prime, then the conclusion of Euclid's lemma may fail to hold. A specific example: 12#92;mid 9#92;cdot 8, but 12#92;nmid 9 and 12#92;nmid 8.", "type": "quote" }, { "ref": "2008, Martin Erickson, Anthony Vazzana, Introduction to Number Theory, Taylor & Francis (Chapman & Hall / CRC Press), page 42:", "text": "In our discussion of Euclid's lemma (Corollary 2.18), we noted that the uniqueness of factorization of integers is a fact that we often take for granted given the way it is introduced in school.", "type": "quote" } ], "glosses": [ "The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "links": [ [ "number theory", "number theory" ], [ "proposition", "proposition" ], [ "prime number", "prime number" ], [ "integer", "integer" ], [ "gcd", "gcd" ], [ "algebra", "algebra" ], [ "principal ideal domain", "principal ideal domain" ] ], "raw_glosses": [ "(number theory) The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "tags": [ "uncountable" ], "topics": [ "mathematics", "number-theory", "sciences" ] }, { "categories": [ "English terms with quotations", "en:Algebra", "en:Number theory" ], "glosses": [ "The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;\nslightly more generally, the proposition that for integers a, b, c, if a divides bc and gcd(a, b) = 1, then a divides c;\n(algebra, by generalisation) the proposition that for elements a, b, c of a given principal ideal domain, if a divides bc and gcd(a, b) = 1, then a divides c.", "slightly more generally, the proposition that for integers a, b, c, if a divides bc and gcd(a, b) = 1, then a divides c;" ], "links": [ [ "number theory", "number theory" ], [ "proposition", "proposition" ], [ "prime number", "prime number" ], [ "integer", "integer" ], [ "gcd", "gcd" ], [ "algebra", "algebra" ], [ "principal ideal domain", "principal ideal domain" ] ], "raw_glosses": [ "(number theory) The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "tags": [ "uncountable" ], "topics": [ "mathematics", "number-theory", "sciences" ] }, { "categories": [ "English terms with quotations", "en:Algebra", "en:Number theory" ], "glosses": [ "The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;\nslightly more generally, the proposition that for integers a, b, c, if a divides bc and gcd(a, b) = 1, then a divides c;\n(algebra, by generalisation) the proposition that for elements a, b, c of a given principal ideal domain, if a divides bc and gcd(a, b) = 1, then a divides c.", "the proposition that for elements a, b, c of a given principal ideal domain, if a divides bc and gcd(a, b) = 1, then a divides c." ], "links": [ [ "number theory", "number theory" ], [ "proposition", "proposition" ], [ "prime number", "prime number" ], [ "integer", "integer" ], [ "gcd", "gcd" ], [ "algebra", "algebra" ], [ "principal ideal domain", "principal ideal domain" ] ], "raw_glosses": [ "(number theory) The proposition that if a prime number p divides an arbitrary product ab of integers, then p divides a or b or both;" ], "tags": [ "uncountable" ], "topics": [ "algebra", "mathematics", "number-theory", "sciences" ] } ], "synonyms": [ { "word": "Euclid's Lemma" } ], "wikipedia": [ "Euclid", "Euclid's lemma", "Euclids Elements" ], "word": "Euclid's lemma" }
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