List questions from polar-coordinates

Published on 26 Mar 2026 - 12:58

410

Views

maximum value of the expression : $2x+3y+z$ as $(x,y,z)$ varies over the sphere $x^2+y^2+z^2=1$

Published on 31 Mar 2026 - 18:57

97

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solving double integrals over polar regions.

Published on 30 Nov 2016 - 23:18

1.9k

Views

Intersection points of two polar curves

Published on 01 Dec 2016 - 5:13

1k

Views

Volume using polar coordinates

Published on 01 Dec 2016 - 16:49

164

Views

Rectangular to polar coordinates

Published on 02 Dec 2016 - 0:24

388

Views

How do I convert this double integral to polar?

Published on 02 Dec 2016 - 8:12

415

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Compute Derivative in Polar Coordinates

Published on 02 Dec 2016 - 17:43

698

Views

How to set the limits for Jacobian Integration

Published on 26 Mar 2026 - 18:30

2.1k

Views

Calculate the mass of a hemisphere

Published on 03 Dec 2016 - 17:52

50

Views

4th root question/guidance

Published on 04 Dec 2016 - 20:25

138

Views

Solution for finding polar coordinates given arc length

Published on 26 Mar 2026 - 10:57

1.9k

Views

Second Derivative of a Polar Coordinate

Published on 05 Dec 2016 - 5:42

15.7k

Views

Finding volume of a solid over region E, bounded below by cone $z = \sqrt{x^2 + y^2}$ and above by sphere $ z^2 = 1- x^2 - y^2$

Published on 05 Dec 2016 - 9:54

52

Views

Prove $ \exists t \in [0, \pi] .\cos(t) = \frac{x}{r}$

Published on 06 Dec 2016 - 22:44

List Question

Polar Laplace equation on partially bounded domain - what am I doing wrong?

maximum value of the expression : $2x+3y+z$ as $(x,y,z)$ varies over the sphere $x^2+y^2+z^2=1$

solving double integrals over polar regions.

Intersection points of two polar curves

Volume using polar coordinates

Rectangular to polar coordinates

How do I convert this double integral to polar?

Compute Derivative in Polar Coordinates

How to set the limits for Jacobian Integration

Calculate the mass of a hemisphere

4th root question/guidance

Solution for finding polar coordinates given arc length

Second Derivative of a Polar Coordinate

Finding volume of a solid over region E, bounded below by cone $z = \sqrt{x^2 + y^2}$ and above by sphere $ z^2 = 1- x^2 - y^2$

Prove $ \exists t \in [0, \pi] .\cos(t) = \frac{x}{r}$

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