List questions from liouville-numbers

Published on 18 Mar 2018 - 3:50

102

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Different characterizations of Liouville numbers

Published on 23 Mar 2018 - 22:57

82

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A question on Liouville number

Published on 15 Jun 2018 - 23:33

68

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Proof that $(n+1)m!>(m+1)!−1$ does not hold for $m>n$

Published on 11 Dec 2018 - 15:58

342

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Writing the set of Liouville numbers as an intersection of dense open subsets of $\mathbb{R}$

Published on 28 Jan 2019 - 14:45

126

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Algebraic number to Liouville number

Published on 25 Mar 2019 - 15:46

115

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Is this number Liouville?

Published on 11 Apr 2019 - 22:11

160

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An unclear connection between two (supposedly) equivalent formulations of Liouville's approximation theorem

Published on 24 Nov 2019 - 22:35

54

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Prove (or disprove) that these numbers are Liouville numbers

Published on 07 Dec 2019 - 19:38

71

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Irrational numbers as infinite sequences

Published on 03 Jan 2020 - 13:47

80

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Topology of Liouville Numbers

Published on 16 Jan 2020 - 10:56

42

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Translate the continuous fraction $[2;2^{1!}, 2^{2!}, 2^{3!}, \cdots]$ to a sum in order to prove that it's transcendental

Published on 27 Jun 2020 - 12:13

1.2k

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Why is $e$ not a Liouville number?

Published on 29 Sep 2016 - 14:13

136

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Is there a useful algorithm for finding irrationality measures?

Published on 29 Sep 2016 - 15:46

63

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Dirichlet's approximation theorem with even or odd denominators

Published on 25 Feb 2024 - 18:20

List Question

Prove that the set $S$ is equal to the set of all Liouville numbers

Different characterizations of Liouville numbers

A question on Liouville number

Proof that $(n+1)m!>(m+1)!−1$ does not hold for $m>n$

Writing the set of Liouville numbers as an intersection of dense open subsets of $\mathbb{R}$

Algebraic number to Liouville number

Is this number Liouville?

An unclear connection between two (supposedly) equivalent formulations of Liouville's approximation theorem

Prove (or disprove) that these numbers are Liouville numbers

Irrational numbers as infinite sequences

Topology of Liouville Numbers

Translate the continuous fraction $[2;2^{1!}, 2^{2!}, 2^{3!}, \cdots]$ to a sum in order to prove that it's transcendental

Why is $e$ not a Liouville number?

Is there a useful algorithm for finding irrationality measures?

Dirichlet's approximation theorem with even or odd denominators

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