Chapter 11: Q. 2TF (page 891)
A decomposition of the acceleration vector: Find where v anda are the velocity and acceleration vectors, respectively, of the following functions.
Short Answer
The component of a(t)alongv(t)is
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Chapter 11: Q. 2TF (page 891)
A decomposition of the acceleration vector: Find where v anda are the velocity and acceleration vectors, respectively, of the following functions.
The component of a(t)alongv(t)is
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Let be a vector-valued function, where a is a real number. Explain why the graph of r may or may not be contained in some sphere centered at the origin. (Hint: Consider the functions and
For each of the vector-valued functions, find the unit tangent vector.
Show that the graph of the vector function is a circle. (Hint: Show that the graph lies on a sphere and in a plane.)
Let be a vector-valued function, where a is a real number. Under what conditions would the graph of r have a vertical asymptote as t 鈫 鈭? Provide an example illustrating your answer.
Let be a differentiable real-valued function of , and let be a differentiable vector function with three components such that is in the domain of for every value of on some interval I. Prove that . (This is Theorem 11.8.)
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