Farmer John has 1200 feet of fencing and wishes to use it to fence a rectangular plot divided into two subplots as in the figure below. Suppose we want to determine the dimensions w and h of the plot with maximum area. h If Farmer John uses all the fencing, then 3h + 2w 1200 and so the area of the region is Α(w) - υ 1200–2w 3 Determine the values of w and h that give the maximum area. The exact value of w s... The exact value of h is...

Calculus: Early Transcendentals
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ISBN:9781285741550
Author:James Stewart
Publisher:James Stewart
Chapter1: Functions And Models
Section: Chapter Questions
Problem 1RCC: (a) What is a function? What are its domain and range? (b) What is the graph of a function? (c) How...
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Answer both questions for the values of w and h

**Optimization Problem: Maximizing Area**

Farmer John has 1200 feet of fencing and wishes to use it to fence a rectangular plot divided into two subplots as in the figure below. Suppose we want to determine the dimensions \( w \) and \( h \) of the plot with maximum area.

![Rectangular plot divided into two subplots](image link here, if any)

If Farmer John uses all the fencing, then \( 3h + 2w = 1200 \) and so the area of the region is
\[ A(w) = w \left( \frac{1200 - 2w}{3} \right) \]

Determine the values of \( w \) and \( h \) that give the maximum area.

---

**The exact value of \( w \) is:**

[Input box for \( w \) value]

---

**The exact value of \( h \) is:**

[Input box for \( h \) value]

---

### Diagram Explanation:
- The diagram shows a large rectangle divided into two equal smaller rectangular sections by a vertical line.
- The total width of the large rectangle is denoted by \( w \).
- The height of the large rectangle is denoted by \( h \).
- The perimeter constraint is given by the equation \( 3h + 2w = 1200 \).

### Steps to Solve the Problem:
1. **Setting up the Perimeter Equation:**
   Since the total fencing used around the border and the dividing line is 1200 feet, we have the equation \( 3h + 2w = 1200 \).

2. **Express \( h \) in terms of \( w \):**
   \[
   h = \frac{1200 - 2w}{3}
   \]

3. **Formulate the Area Function:**
   Substituting \( h \) in terms of \( w \) into the area formula \( A = w \cdot h \):
   \[
   A(w) = w \left(\frac{1200 - 2w}{3} \right) = \frac{1200w - 2w^2}{3}
   \]

4. **Maximizing the Area:**
   Find the value of \( w \) that maximizes \( A(w) \). This involves differentiating \( A(w) \) with respect to \( w \
Transcribed Image Text:**Optimization Problem: Maximizing Area** Farmer John has 1200 feet of fencing and wishes to use it to fence a rectangular plot divided into two subplots as in the figure below. Suppose we want to determine the dimensions \( w \) and \( h \) of the plot with maximum area. ![Rectangular plot divided into two subplots](image link here, if any) If Farmer John uses all the fencing, then \( 3h + 2w = 1200 \) and so the area of the region is \[ A(w) = w \left( \frac{1200 - 2w}{3} \right) \] Determine the values of \( w \) and \( h \) that give the maximum area. --- **The exact value of \( w \) is:** [Input box for \( w \) value] --- **The exact value of \( h \) is:** [Input box for \( h \) value] --- ### Diagram Explanation: - The diagram shows a large rectangle divided into two equal smaller rectangular sections by a vertical line. - The total width of the large rectangle is denoted by \( w \). - The height of the large rectangle is denoted by \( h \). - The perimeter constraint is given by the equation \( 3h + 2w = 1200 \). ### Steps to Solve the Problem: 1. **Setting up the Perimeter Equation:** Since the total fencing used around the border and the dividing line is 1200 feet, we have the equation \( 3h + 2w = 1200 \). 2. **Express \( h \) in terms of \( w \):** \[ h = \frac{1200 - 2w}{3} \] 3. **Formulate the Area Function:** Substituting \( h \) in terms of \( w \) into the area formula \( A = w \cdot h \): \[ A(w) = w \left(\frac{1200 - 2w}{3} \right) = \frac{1200w - 2w^2}{3} \] 4. **Maximizing the Area:** Find the value of \( w \) that maximizes \( A(w) \). This involves differentiating \( A(w) \) with respect to \( w \
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