Evaluating Integrals and Derivatives

This video tutorial explains the process of definite integration for vector-valued functions. It covers how to integrate each component separately, using examples with different numbers of components. The tutorial demonstrates the use of U substitution and the power rule to solve integrals, providing step-by-step solutions for both two-component and three-component vector functions.

What is the first step in determining the definite integral of a vector-valued function?

• Integrate each component separately

• Differentiate each component separately

• Use the chain rule for integration

• Integrate the entire function as a whole

In the first example, what substitution is used for the integral of e^(4T)?

• U = 4T

• U = T + 1

• U = T^2

• U = e^(4T)

What is the result of integrating the component with the square root in the first example?

• 2/3 * (t + 1)^(3/2)

• 1/4 * e^(4T)

• 1/3 * (t + 1)^(1/2)

• 3/2 * (t + 1)^2

In the second example, what is the substitution for the integral involving sin(T)?

• U = T^2

• U = sin(T)

• U = cos(T)

• U = e^(T)

What is the anti-derivative of sin^2(T) in the second example?

• T^3/3

• 2T

• cos^3(T)/3

• sin^3(T)/3

How is the integral of 2 with respect to T represented in the second example?

• 2T^2

• T/2

• 2T

• T^2

Tags

CCSS.HSF.TF.A.2

What is the result of evaluating the integral of sin(T) from 0 to pi/2?

• 1

• pi

• 1/3

• 0

Tags

CCSS.HSF.TF.A.2

What is the value of cos(pi/2) used in the evaluation of the second example?

• 0

• pi

• 1

• -1

Tags

CCSS.HSF.TF.A.2

In the second example, what is the final result for the Z component after evaluation?

• 1/3

• 2pi

• 0

• pi

What is the final vector result of the second example after evaluation?

• 1/3 I + pi J - 1/3 K

• 1/3 I - 1/3 J + pi K

• 1/3 I + 1/3 J + pi K

• pi I - 1/3 J + 1/3 K