Chapter 11: Q. 17 (page 901)
Unit tangent vectors: Find the unit tangent vector for the given function at the specified value of t.
Short Answer
Ans: Thus the unit tangent vector to at islocalid="1649674946140"
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Chapter 11: Q. 17 (page 901)
Unit tangent vectors: Find the unit tangent vector for the given function at the specified value of t.
Ans: Thus the unit tangent vector to at islocalid="1649674946140"
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Find parametric equations for each of the vector-valued functions in Exercises 26鈥34, and sketch the graphs of the functions, indicating the direction for increasing values of t.
Every description of the DNA molecule says that the strands of the helices run in opposite directions. This is meant as a statement about chemistry, not about the geometric shape of the double helix. Consider two helices
(a) Sketch these two helices in the same coordinate system, and show that they run geometrically in different directions.
(b) Explain why it is impossible for these two helices to fail to intersect, and hence why they could not form a configuration for DNA.
Find and graph the vector function determined by the differential equation
. (HINT: Start by solving the initial-value problem .)
Explain why the graph of every vector-valued function lies on the intersection of the two cylinders
Given a twice-differentiable vector-valued function and a point in its domain, what is the osculating plane at ?
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