What is the derivative u0(x) of the function u(x) = a0, where a0 is a real number?

Calculus: Early Transcendentals
8th Edition
ISBN:9781285741550
Author:James Stewart
Publisher:James Stewart
Chapter1: Functions And Models
Section: Chapter Questions
Problem 1RCC: (a) What is a function? What are its domain and range? (b) What is the graph of a function? (c) How...
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Question 1: What is the derivative u0(x) of the function u(x) = a0, where a0 is a real number?

We already know that
- (kr") = n kr"-1
dr
for n a positive natural number. What about n 0? This is a special case, because the value of
0° is not defined, so we cannot simply write a° and calculate its slope. Instead, we can be sure
that rº = 1 for r > 0 so we usually work with the constant function that has the value 1 for all x.
Question 1: What is the derivative u'(x) of the function u(x) = a0, where ao is a real number?
When working directly with limits, we often faced the complication that limits do not always exist,
so it was difficult to establish general rules. However, if we limit ourselves to functions which can
be analysed (these are called analytic functions) then we can be sure that certain limits we need
do exist. One class of functions which are particularly useful in practical problems (in engineering,
economics and science, for example) are the polynomials. These can be written in the general form
P(r) = do + a1 r + az x² + az r* +...+ a, a",
Transcribed Image Text:We already know that - (kr") = n kr"-1 dr for n a positive natural number. What about n 0? This is a special case, because the value of 0° is not defined, so we cannot simply write a° and calculate its slope. Instead, we can be sure that rº = 1 for r > 0 so we usually work with the constant function that has the value 1 for all x. Question 1: What is the derivative u'(x) of the function u(x) = a0, where ao is a real number? When working directly with limits, we often faced the complication that limits do not always exist, so it was difficult to establish general rules. However, if we limit ourselves to functions which can be analysed (these are called analytic functions) then we can be sure that certain limits we need do exist. One class of functions which are particularly useful in practical problems (in engineering, economics and science, for example) are the polynomials. These can be written in the general form P(r) = do + a1 r + az x² + az r* +...+ a, a",
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