(a) Using a graphing utility, graph f1x2 = x3 - 4x for- 3 ... x ... 3.(b) Find the x-intercepts of the graph of f.(c) Approximate any local maxima and local minima.(d) Determine where f is increasing and where it is decreasing.(e) Without using a graphing utility, repeat parts (b)–(d) fory = f1x - 42.(f) Without using a graphing utility, repeat parts (b)–(d) fory = f12x2.(g) Without using a graphing utility, repeat parts (b)–(d) fory = - f1x2.
(a) Using a graphing utility, graph f1x2 = x3 - 4x for- 3 ... x ... 3.(b) Find the x-intercepts of the graph of f.(c) Approximate any local maxima and local minima.(d) Determine where f is increasing and where it is decreasing.(e) Without using a graphing utility, repeat parts (b)–(d) fory = f1x - 42.(f) Without using a graphing utility, repeat parts (b)–(d) fory = f12x2.(g) Without using a graphing utility, repeat parts (b)–(d) fory = - f1x2.
(a) Using a graphing utility, graph f1x2 = x3 - 4x for- 3 ... x ... 3.(b) Find the x-intercepts of the graph of f.(c) Approximate any local maxima and local minima.(d) Determine where f is increasing and where it is decreasing.(e) Without using a graphing utility, repeat parts (b)–(d) fory = f1x - 42.(f) Without using a graphing utility, repeat parts (b)–(d) fory = f12x2.(g) Without using a graphing utility, repeat parts (b)–(d) fory = - f1x2.
(a) Using a graphing utility, graph f1x2 = x3 - 4x for - 3 ... x ... 3. (b) Find the x-intercepts of the graph of f. (c) Approximate any local maxima and local minima. (d) Determine where f is increasing and where it is decreasing. (e) Without using a graphing utility, repeat parts (b)–(d) for y = f1x - 42. (f) Without using a graphing utility, repeat parts (b)–(d) for y = f12x2. (g) Without using a graphing utility, repeat parts (b)–(d) for y = - f1x2.
Formula Formula A function f ( x ) is also said to have attained a local minimum at x = a , if there exists a neighborhood ( a − δ , a + δ ) of a such that, f ( x ) > f ( a ) , ∀ x ∈ ( a − δ , a + δ ) , x ≠ a f ( x ) − f ( a ) > 0 , ∀ x ∈ ( a − δ , a + δ ) , x ≠ a In such a case f ( a ) is called the local minimum value of f ( x ) at x = a .
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