Question

What is this "periodic" sequence called?

score 118 · Answer 1 · 2026-03-31 12:20:16

118

Views

What is this "periodic" sequence called?

Published on 31 Mar 2026 - 12:20

score 104 · Answer 2 · 2023-11-02 02:01:32

104

Views

Power Law Decay

Published on 02 Nov 2023 - 2:01

score 81 · Answer 3 · 2026-04-02 06:11:58

81

Views

Prove that $x^\alpha\cdot x^\beta=x^{\alpha+\beta}$ by supremum definition

Published on 02 Apr 2026 - 6:11

score 63 · Answer 4 · 2023-11-02 19:23:13

63

Views

Prove that if $x\geq 1$ and $p\in\mathbb{Q}$, then $x^p=\sup\{x^q\mid q\in\mathbb{Q},q<p\}$.

Published on 02 Nov 2023 - 19:23

score 118 · Answer 5 · 2023-11-03 18:37:54

118

Views

Does the tutor's proof make sense? If not, how would you prove this?

Published on 03 Nov 2023 - 18:37

score 34 · Answer 6 · 2023-11-04 08:09:59

How to manually compare two different powers of any two different natural numbers (is there a universal algorithm)?

score 49 · Answer 7 · 2023-11-04 09:12:15

49

Views

Is it possible to raise numbers to some natural power in columns? If not, why?

Published on 04 Nov 2023 - 9:12

score 26 · Answer 8 · 2023-11-04 10:54:51

26

Views

Equivalent definition of $x^\alpha$

Published on 04 Nov 2023 - 10:54

score 92 · Answer 9 · 2023-11-04 12:16:16

92

Views

Can we change the definition of negative exponents?

Published on 04 Nov 2023 - 12:16

score 94 · Answer 10 · 2023-11-07 02:31:46

94

Views

This looks like a simple exponent, but how to solve it?

Published on 07 Nov 2023 - 2:31

score 76 · Answer 11 · 2023-11-07 16:53:11

76

Views

Will the indices law of $ a^m \times a^n = a^{(m+n)}$ hold true if $a$ equals the constant e and m and n are imaginary?

Published on 07 Nov 2023 - 16:53

score 88 · Answer 12 · 2023-11-08 21:38:25

88

Views

Non-natural dimension of sets

Published on 08 Nov 2023 - 21:38

score 54 · Answer 13 · 2023-11-09 12:59:25

54

Views

Complex exponentiation identity $a^{z}b^{z} = (ab)^z$ for $a, b > 0, z\in\mathbb{C}$

Published on 09 Nov 2023 - 12:59

score 98 · Answer 14 · 2023-11-09 17:36:52

98

Views

What set do you get if you close the rational numbers under exponentiation?

Published on 09 Nov 2023 - 17:36

score 119 · Answer 15 · 2023-11-12 03:02:47

119

Views

Why for a real number $x$ and an even integer $n, x^{1/n}$ is not real if $x<0$?

Published on 12 Nov 2023 - 3:02

List Question

What is this "periodic" sequence called?

Power Law Decay

Prove that $x^\alpha\cdot x^\beta=x^{\alpha+\beta}$ by supremum definition

Prove that if $x\geq 1$ and $p\in\mathbb{Q}$, then $x^p=\sup\{x^q\mid q\in\mathbb{Q},q<p\}$.

Does the tutor's proof make sense? If not, how would you prove this?

How to manually compare two different powers of any two different natural numbers (is there a universal algorithm)?

Is it possible to raise numbers to some natural power in columns? If not, why?

Equivalent definition of $x^\alpha$

Can we change the definition of negative exponents?

This looks like a simple exponent, but how to solve it?

Will the indices law of $ a^m \times a^n = a^{(m+n)}$ hold true if $a$ equals the constant e and m and n are imaginary?

Non-natural dimension of sets

Complex exponentiation identity $a^{z}b^{z} = (ab)^z$ for $a, b > 0, z\in\mathbb{C}$

What set do you get if you close the rational numbers under exponentiation?

Why for a real number $x$ and an even integer $n, x^{1/n}$ is not real if $x<0$?

Trending Questions

Popular # Hahtags

Popular Questions