Problem 28
Question
Determine the following indefinite integrals. Check your work by differentiation. $$\int 5 m\left(12 m^{3}-10 m\right) d m$$
Step-by-Step Solution
Verified Answer
Answer: The indefinite integral of the function \(5m(12m^3 - 10m)\) with respect to m is \(12m^5 - \frac{50}{3}m^3 + C\).
1Step 1: Simplify the integrand
First, we need to simplify the integrand. We can do this by distributing the 5m inside the parentheses:
$$5m\left(12m^3 - 10m\right) = 60m^4 - 50m^2$$
2Step 2: Find the indefinite integral
Next, we'll find the indefinite integral of the simplified integrand with respect to m:
$$\int \left(60m^4 - 50m^2\right) dm$$
We can apply power rule of integration: $$\int x^n dx = \frac{x^{n+1}}{n+1} + C$$
Applying the rule to each term gives:
$$\int 60m^4 dm - \int 50m^2 dm = \frac{60m^5}{5} - \frac{50m^3}{3} + C$$
This simplifies to:
$$12m^5 - \frac{50}{3}m^3 + C$$
3Step 3: Differentiate the result
Now we need to differentiate the result obtained in step 2 to check if it matches the original integrand, which is \(60m^4 - 50m^2\). Using power rule of differentiation: $$\frac{d}{dx}\left(x^n\right) = nx^{n-1}$$
Differetiating the result we have:
$$\frac{d}{dm}\left(12m^5 - \frac{50}{3}m^3 + C\right) = 60m^4 - 50m^2$$
Since the differentiated result matches the original integrand, our indefinite integral is correct. So, the final answer is:
$$\int 5 m\left(12 m^{3}-10 m\right) d m = 12m^5 - \frac{50}{3}m^3 + C$$
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