2 -U s s 1 2 (8uv)dv du -U 1

Calculus: Early Transcendentals
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Author:James Stewart
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Chapter1: Functions And Models
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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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On this educational webpage, we explore double integrals with an example expression. 

The expression we are analyzing is a double integral defined as follows:

\[
\int_{1}^{2} \int_{-u^2 - 1}^{-u} (8uv) \, dv \, du
\]

This notation represents the double integral of the function \(8uv\) with respect to \(v\) and \(u\). Here, the integral is evaluated in two stages: the inner integral is with respect to \(v\) and the outer integral is with respect to \(u\).

- **Inner Integral:** \(\int_{-u^2 - 1}^{-u} (8uv) \, dv\)
- **Outer Integral:** \(\int_{1}^{2} \, du\)

The limits of integration for \(v\) are from \(-u^2 - 1\) to \(-u\) and for \(u\) are from 1 to 2. 

### Detailed Explanation

1. **First Integrate with respect to \(v\):**
    - Evaluate the inner integral \(\int_{-u^2 - 1}^{-u} (8uv) \, dv\) which requires finding the antiderivative of \(8uv\) with respect to \(v\).

2. **Then Integrate with respect to \(u\):**
    - Once the inner integral is solved, substitute the result into the outer integral and integrate with respect to \(u\) over the interval from 1 to 2.

### Step-by-step Solution

1. **Find the Antiderivative with respect to \(v\):**
    \[
    \int (8uv) \, dv = 4uv^2
    \]
    - Because \(v^2/2\) is the antiderivative of \(v\).
   
2. **Evaluate the Inner Integral:**
    - Substitute the limits for \(v\) into the antiderivative:
    \[
    \left[ 4uv^2 \right]_{-u^2-1}^{-u}
    = 4u(-u)^2 - 4u(-u^2-1)^2
    \]

3. **Simplify the Expression:**
    - This involves algebraic simplification which should make the resulting function of \(u\
Transcribed Image Text:On this educational webpage, we explore double integrals with an example expression. The expression we are analyzing is a double integral defined as follows: \[ \int_{1}^{2} \int_{-u^2 - 1}^{-u} (8uv) \, dv \, du \] This notation represents the double integral of the function \(8uv\) with respect to \(v\) and \(u\). Here, the integral is evaluated in two stages: the inner integral is with respect to \(v\) and the outer integral is with respect to \(u\). - **Inner Integral:** \(\int_{-u^2 - 1}^{-u} (8uv) \, dv\) - **Outer Integral:** \(\int_{1}^{2} \, du\) The limits of integration for \(v\) are from \(-u^2 - 1\) to \(-u\) and for \(u\) are from 1 to 2. ### Detailed Explanation 1. **First Integrate with respect to \(v\):** - Evaluate the inner integral \(\int_{-u^2 - 1}^{-u} (8uv) \, dv\) which requires finding the antiderivative of \(8uv\) with respect to \(v\). 2. **Then Integrate with respect to \(u\):** - Once the inner integral is solved, substitute the result into the outer integral and integrate with respect to \(u\) over the interval from 1 to 2. ### Step-by-step Solution 1. **Find the Antiderivative with respect to \(v\):** \[ \int (8uv) \, dv = 4uv^2 \] - Because \(v^2/2\) is the antiderivative of \(v\). 2. **Evaluate the Inner Integral:** - Substitute the limits for \(v\) into the antiderivative: \[ \left[ 4uv^2 \right]_{-u^2-1}^{-u} = 4u(-u)^2 - 4u(-u^2-1)^2 \] 3. **Simplify the Expression:** - This involves algebraic simplification which should make the resulting function of \(u\
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