What is the equation that represents the Volume of the box as a function of the cutsize of the box? V (x) = ab P a 브 √a |a| k sin (a) E What is the restricted domain of this problem? (That is, what x values "make sense"?) Number ≤x≤Number
What is the equation that represents the Volume of the box as a function of the cutsize of the box? V (x) = ab P a 브 √a |a| k sin (a) E What is the restricted domain of this problem? (That is, what x values "make sense"?) Number ≤x≤Number
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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Question
![We are constructing a box from a piece of paper. The paper is a piece of "ledger-sized paper" which measures 11"×17". We will remove a square of size "x" inches from each corner and turn up the edges.
A piece of ledger paper is the same size as taping the long sides of two pieces of standard 8.5×11 paper together.
**Diagram Explanation:**
1. **Initial Paper Diagram:**
- A rectangle measuring 11" in height and 17" in width.
- Squares labeled "x" are shown at each corner of the rectangle indicating the portions to be removed.
2. **3D Box Diagram:**
- After removing the squares from each corner and turning up the edges, a 3D box shape is depicted.
**Instructions:**
Once we remove the squares of size "x" inches from each corner and turn up the edges, we create a box. Label the dimensions of the newly created box using the variable "x".
**Equations:**
- \( h = \)
- \( w = \)
The diagrams include empty input boxes under each label where the respective formulas or dimensions for height \( h \) and width \( w \) are to be entered, using mathematical symbols provided above the input areas.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F3e20038b-6107-400d-875f-ddd1164ccce3%2F1fa07194-196a-4800-a7db-4744a624619e%2Fbf0ixra_processed.jpeg&w=3840&q=75)
Transcribed Image Text:We are constructing a box from a piece of paper. The paper is a piece of "ledger-sized paper" which measures 11"×17". We will remove a square of size "x" inches from each corner and turn up the edges.
A piece of ledger paper is the same size as taping the long sides of two pieces of standard 8.5×11 paper together.
**Diagram Explanation:**
1. **Initial Paper Diagram:**
- A rectangle measuring 11" in height and 17" in width.
- Squares labeled "x" are shown at each corner of the rectangle indicating the portions to be removed.
2. **3D Box Diagram:**
- After removing the squares from each corner and turning up the edges, a 3D box shape is depicted.
**Instructions:**
Once we remove the squares of size "x" inches from each corner and turn up the edges, we create a box. Label the dimensions of the newly created box using the variable "x".
**Equations:**
- \( h = \)
- \( w = \)
The diagrams include empty input boxes under each label where the respective formulas or dimensions for height \( h \) and width \( w \) are to be entered, using mathematical symbols provided above the input areas.
![### Volume of a Box: Analyzing the Function of Cut Size
#### Problem Introduction
We are tasked with determining the volume of a box as a function of the cut size, \( x \), from a flat sheet.
#### Volume Function Equation
- **Equation for Volume \( V(x) \):**
- Input the equation in the provided equation box to express the volume \( V(x) \) as a function of \( x \).
#### Restricted Domain
- **Determine the restricted domain of this problem:**
- Identify the range of x values that make sense for the problem.
- Input the numbers for the minimum and maximum acceptable values of \( x \).
#### Restricted Range
- **Determine the restricted range of this problem:**
- Identify the possible volume values \( V(x) \) that make sense.
- Ensure the range is specific and rounded to two decimal places as required.
#### Maximization of Volume
- **Maximize the box volume:**
- Calculate the cut size \( x \) that maximizes the box's volume.
- Write down the optimal \( x \) value in inches.
- **Maximum Volume:**
- Determine and state the maximum volume \( V \) in cubic inches.
#### Largest Cut Size for Specific Volume
- **Calculate the largest cut size for a desired volume:**
- Find the largest \( x \) that still results in a box volume of \( 130 \, \text{in}^3 \).
Use this framework as a guide to solve the problem by filling in the appropriate numbers and equations in each part.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F3e20038b-6107-400d-875f-ddd1164ccce3%2F1fa07194-196a-4800-a7db-4744a624619e%2Fzjkr996_processed.jpeg&w=3840&q=75)
Transcribed Image Text:### Volume of a Box: Analyzing the Function of Cut Size
#### Problem Introduction
We are tasked with determining the volume of a box as a function of the cut size, \( x \), from a flat sheet.
#### Volume Function Equation
- **Equation for Volume \( V(x) \):**
- Input the equation in the provided equation box to express the volume \( V(x) \) as a function of \( x \).
#### Restricted Domain
- **Determine the restricted domain of this problem:**
- Identify the range of x values that make sense for the problem.
- Input the numbers for the minimum and maximum acceptable values of \( x \).
#### Restricted Range
- **Determine the restricted range of this problem:**
- Identify the possible volume values \( V(x) \) that make sense.
- Ensure the range is specific and rounded to two decimal places as required.
#### Maximization of Volume
- **Maximize the box volume:**
- Calculate the cut size \( x \) that maximizes the box's volume.
- Write down the optimal \( x \) value in inches.
- **Maximum Volume:**
- Determine and state the maximum volume \( V \) in cubic inches.
#### Largest Cut Size for Specific Volume
- **Calculate the largest cut size for a desired volume:**
- Find the largest \( x \) that still results in a box volume of \( 130 \, \text{in}^3 \).
Use this framework as a guide to solve the problem by filling in the appropriate numbers and equations in each part.
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