A bead is made from material with constant density 4 grams per cubic millimeter by drilling a cylindrical hole of radius 2 mm through a sphere of radius 5 mm. (a) Set up a triple integral in cylindrical coordinates representing the mass of the bead in grams (do not include units). If necessary, enter as theta. A = B = C = D = E = F = || B D F [[[ ₁ av = ² ² ² с Bead dz dr de (b) Find the mass of the bead. grams (Drag to rotate)

Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
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**Problem Description:**

A bead is made from a material with a constant density of 4 grams per cubic millimeter. This bead is formed by drilling a cylindrical hole with a radius of 2 mm through a sphere with a radius of 5 mm.

**Tasks:**

(a) Set up a triple integral in cylindrical coordinates to represent the mass of the bead in grams. Do not include units in your answer. Use \(\theta\) for theta if necessary.

The triple integral is given by:

\[
\iiint_{\text{Bead}} f \, dV = \int_A^B \int_C^D \int_E^F \, dz \, dr \, d\theta
\]

**Limits of Integration:**

- \(A = \, \) [Insert value]
- \(B = \, \) [Insert value]
- \(C = \, \) [Insert value]
- \(D = \, \) [Insert value]
- \(E = \, \) [Insert value]
- \(F = \, \) [Insert value]

(b) Find the mass of the bead.

- Mass = \([\text{Insert calculated value}]\) grams

**Note:** The problem requires setting up and evaluating a triple integral to find the mass of the material remaining after the hole is drilled out from the sphere. The integral should take into account the given density and geometry of the problem.
Transcribed Image Text:**Problem Description:** A bead is made from a material with a constant density of 4 grams per cubic millimeter. This bead is formed by drilling a cylindrical hole with a radius of 2 mm through a sphere with a radius of 5 mm. **Tasks:** (a) Set up a triple integral in cylindrical coordinates to represent the mass of the bead in grams. Do not include units in your answer. Use \(\theta\) for theta if necessary. The triple integral is given by: \[ \iiint_{\text{Bead}} f \, dV = \int_A^B \int_C^D \int_E^F \, dz \, dr \, d\theta \] **Limits of Integration:** - \(A = \, \) [Insert value] - \(B = \, \) [Insert value] - \(C = \, \) [Insert value] - \(D = \, \) [Insert value] - \(E = \, \) [Insert value] - \(F = \, \) [Insert value] (b) Find the mass of the bead. - Mass = \([\text{Insert calculated value}]\) grams **Note:** The problem requires setting up and evaluating a triple integral to find the mass of the material remaining after the hole is drilled out from the sphere. The integral should take into account the given density and geometry of the problem.
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