Refer to the figure and find the volume V generated by rotating the given region about the specified line. R3 about AB V = y C (0,4) 0 R₂ R3 y= 4√√x R₁ B(1,4) A (1,0) X

Algebra & Trigonometry with Analytic Geometry
13th Edition
ISBN:9781133382119
Author:Swokowski
Publisher:Swokowski
Chapter3: Functions And Graphs
Section3.2: Graphs Of Equations
Problem 45E
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### Volume of Generated Solid by Rotation

#### Problem Statement:
Refer to the figure and find the volume \( V \) generated by rotating the given region about the specified line.

#### Rotation Region:
Rotate \( R_3 \) about the line \( AB \).

#### Volume Formula:
\[ V = \]

#### Diagram Explanation:
- The diagram is set on a coordinate system with x-axis (\( x \)) and y-axis (\( y \)).
- Point \( O \) is at the origin \((0, 0)\).
- The points marked on the diagram are \( A(1, 0) \), \( B(1, 4) \), and \( C(0, 4) \).
- There are three marked regions:
  - Region \( R_1 \) is the bottom right triangular area, marked in blue.
  - Region \( R_2 \) is the upper left area, marked in green, formed under the curve \( y = 4 \sqrt[4]{x} \) and above the x-axis.
  - Region \( R_3 \) is the area in yellow, formed between region \( R_1 \) and region \( R_2 \). This region is bounded by the line \( OB \) and the curve \( y = 4 \sqrt[4]{x} \).

#### Key Elements and Boundaries:
- The curve \( y = 4 \sqrt[4]{x} \) defines part of the boundary for \( R_2 \) and \( R_3 \).
- The rectangle \( OACB \) encompasses all regions \( R_1 \), \( R_2 \), and \( R_3 \).
- The line segment \( AB \) acts as the axis of rotation.

#### Integration and Calculation:
To solve for the volume \( V \) generated by the rotation of region \( R_3 \) around line \( AB \), set up and evaluate the integral using the Disk/Washer or Cylindrical Shell method as appropriate for the given boundaries and axis of rotation. This involves determining the radii and heights pertinent to the areas being rotated.
Transcribed Image Text:### Volume of Generated Solid by Rotation #### Problem Statement: Refer to the figure and find the volume \( V \) generated by rotating the given region about the specified line. #### Rotation Region: Rotate \( R_3 \) about the line \( AB \). #### Volume Formula: \[ V = \] #### Diagram Explanation: - The diagram is set on a coordinate system with x-axis (\( x \)) and y-axis (\( y \)). - Point \( O \) is at the origin \((0, 0)\). - The points marked on the diagram are \( A(1, 0) \), \( B(1, 4) \), and \( C(0, 4) \). - There are three marked regions: - Region \( R_1 \) is the bottom right triangular area, marked in blue. - Region \( R_2 \) is the upper left area, marked in green, formed under the curve \( y = 4 \sqrt[4]{x} \) and above the x-axis. - Region \( R_3 \) is the area in yellow, formed between region \( R_1 \) and region \( R_2 \). This region is bounded by the line \( OB \) and the curve \( y = 4 \sqrt[4]{x} \). #### Key Elements and Boundaries: - The curve \( y = 4 \sqrt[4]{x} \) defines part of the boundary for \( R_2 \) and \( R_3 \). - The rectangle \( OACB \) encompasses all regions \( R_1 \), \( R_2 \), and \( R_3 \). - The line segment \( AB \) acts as the axis of rotation. #### Integration and Calculation: To solve for the volume \( V \) generated by the rotation of region \( R_3 \) around line \( AB \), set up and evaluate the integral using the Disk/Washer or Cylindrical Shell method as appropriate for the given boundaries and axis of rotation. This involves determining the radii and heights pertinent to the areas being rotated.
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