Question

analytical form of beta function, what is wrong about this?

score 30 · Answer 1 · 2017-01-22 10:19:08

30

Views

analytical form of beta function, what is wrong about this?

Published on 22 Jan 2017 - 10:19

score 86 · Answer 2 · 2017-02-01 10:08:30

86

Views

Evaluate $ \int\sqrt{1-x^3}-\sqrt[3]{1-x^2}dx $ and $ \int_0^1\sqrt{1-x^3}-\sqrt[3]{1-x^2}dx $

Published on 01 Feb 2017 - 10:08

score 255 · Answer 3 · 2017-02-01 12:47:52

255

Views

How to do $\int_{0}^{\pi}(\sin t)^{\alpha}\cos (k t)dt$ please?

Published on 01 Feb 2017 - 12:47

score 177 · Answer 4 · 2017-02-02 19:11:45

177

Views

Closed form of a series involving the squared Beta function

Published on 02 Feb 2017 - 19:11

score 79 · Answer 5 · 2017-02-02 21:05:02

79

Views

Proving that $ \pi = 2+\frac23 \sum_{n=1}^\infty \prod_{k=1}^{n-1} \frac{4k^2}{(2k+3)(2k+1)} $

Published on 02 Feb 2017 - 21:05

score 4.2k · Answer 6 · 2017-02-05 21:24:35

4.2k

Views

Proving Beta prior distribution is conjugate to a negative binomial likelihood

Published on 05 Feb 2017 - 21:24

score 474 · Answer 7 · 2017-02-13 13:09:51

474

Views

How to solve this integral using special functions

Published on 13 Feb 2017 - 13:09

score 54 · Answer 8 · 2017-02-13 13:09:57

54

Views

How to find the following limit $\lim_{x\to+\infty}x^{\alpha} B(\alpha, x), \hspace{20pt} \alpha > 0 $

Published on 13 Feb 2017 - 13:09

score 374 · Answer 9 · 2017-03-02 13:25:23

374

Views

Beta function-like integral

Published on 02 Mar 2017 - 13:25

score 2.1k · Answer 10 · 2017-03-13 07:28:47

2.1k

Views

Evaluate: $\int_0^1 \frac{\left(1-x^4\right)^{3/4}}{\left(x^4+1\right)^2} \, dx$

Published on 13 Mar 2017 - 7:28

score 2.3k · Answer 11 · 2017-03-15 23:27:47

2.3k

Views

Beta function with one negative and one positive arguments

Published on 15 Mar 2017 - 23:27

score 1.2k · Answer 12 · 2017-03-20 16:59:54

1.2k

Views

Prove the following : $ \int_0^{ 1 } \frac{x^{l-1} (1-x)^{m-1}}{ (b+cx)^{l+m} }\,dx = \frac{\beta(l,m)}{(b+c)^{l}b^m} $

Published on 20 Mar 2017 - 16:59

score 96 · Answer 13 · 2017-03-20 20:02:46

96

Views

Proving that $B(2\alpha,1-\alpha)\le\frac1{\alpha(1-\alpha)}$

Published on 20 Mar 2017 - 20:02

score 86 · Answer 14 · 2026-03-25 18:50:17

86

Views

By using the Beta-Gamma functions relation and the semigroup property of the volterra fractional integral operator

Published on 25 Mar 2026 - 18:50

score 401 · Answer 15 · 2017-03-29 18:59:43

401

Views

Beta Function proof help

Published on 29 Mar 2017 - 18:59

List Question

analytical form of beta function, what is wrong about this?

Evaluate $ \int\sqrt{1-x^3}-\sqrt[3]{1-x^2}dx $ and $ \int_0^1\sqrt{1-x^3}-\sqrt[3]{1-x^2}dx $

How to do $\int_{0}^{\pi}(\sin t)^{\alpha}\cos (k t)dt$ please?

Closed form of a series involving the squared Beta function

Proving that $ \pi = 2+\frac23 \sum_{n=1}^\infty \prod_{k=1}^{n-1} \frac{4k^2}{(2k+3)(2k+1)} $

Proving Beta prior distribution is conjugate to a negative binomial likelihood

How to solve this integral using special functions

How to find the following limit $\lim_{x\to+\infty}x^{\alpha} B(\alpha, x), \hspace{20pt} \alpha > 0 $

Beta function-like integral

Evaluate: $\int_0^1 \frac{\left(1-x^4\right)^{3/4}}{\left(x^4+1\right)^2} \, dx$

Beta function with one negative and one positive arguments

Prove the following : $ \int_0^{ 1 } \frac{x^{l-1} (1-x)^{m-1}}{ (b+cx)^{l+m} }\,dx = \frac{\beta(l,m)}{(b+c)^{l}b^m} $

Proving that $B(2\alpha,1-\alpha)\le\frac1{\alpha(1-\alpha)}$

By using the Beta-Gamma functions relation and the semigroup property of the volterra fractional integral operator

Beta Function proof help

Trending Questions

Popular # Hahtags

Popular Questions