Chapter 12: Q. 35 (page 944)
Find the first-order partial derivatives for the functions in Exercises 27–36.
Short Answer
The first-order partial derivatives are
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Chapter 12: Q. 35 (page 944)
Find the first-order partial derivatives for the functions in Exercises 27–36.
The first-order partial derivatives are
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Evaluate the following limits, or explain why the limit does not exist.
Use Theorem 12.32 to find the indicated derivatives in Exercises 21–26. Express your answers as functions of a single variable.
Prove that if you minimize the square of the distance from the origin to a point (x, y) subject to the constraint , you have minimized the distance from the origin to (x, y) subject to the same constraint.
Partial derivatives: Find all first- and second-order partial derivatives for the following functions:
Construct examples of the thing(s) described in
the following.
Try to find examples that are different than
any in the reading.
(a) A function z = f(x, y) for which ∇f(0, 0) = 0 but f is
not differentiable at (0, 0).
(b) A function z = f(x, y) for which ∇f(0, 0) = 0 for every
point in R2.
(c) A function z = f(x, y) and a unit vector u such that
Du f(0, 0) = ∇f(0, 0) · u.
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