Questions: Determine the following information given that f(x) = 5x / (16-x^2) Separate multiple answers by commas. If an asymptote or intercept does not exist, write none. Note that you may click a graph to enlarge it. (a) Horizontal Asymptote(s): y = (b) Hole(s): (Type an ordered pair.) (c) Vertical Asymptote(s): x = (d) x-intercept(s): (Type an ordered pair.) (e) y-intercept: (Type an ordered pair.)

Determine the following information given that
f(x) = 5x / (16-x^2)

Separate multiple answers by commas. If an asymptote or intercept does not exist, write none. Note that you may click a graph to enlarge it.
(a) Horizontal Asymptote(s): y = 
(b) Hole(s):  (Type an ordered pair.)
(c) Vertical Asymptote(s): x = 
(d) x-intercept(s):  (Type an ordered pair.)
(e) y-intercept:  (Type an ordered pair.)
Transcript text: Determine the following information given that \[ f(x)=\frac{5 x}{16-x^{2}} \] Separate multiple answers by commas. If an asymptote or intercept does not exist, write none. Note that you may click a graph to enlarge it. (a) Horizontal Asymptote(s): $y=$ $\square$ (b) Hole(s): $\square$ (Type an ordered pair.) (c) Vertical Asymptote(s): $x=$ $\square$ (d) $x$-intercept(s): $\square$ (Type an ordered pair.) (e) $y$-intercept: $\square$ (Type an ordered pair.)
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Solution

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Solution Steps

To solve the given problem, we need to analyze the function f(x)=5x16x2 f(x) = \frac{5x}{16 - x^2} for its horizontal asymptotes, holes, vertical asymptotes, and intercepts.

  1. Horizontal Asymptote: Determine the behavior of the function as x x approaches infinity.
  2. Holes: Identify any values of x x that make both the numerator and denominator zero.
  3. Vertical Asymptote: Find the values of x x that make the denominator zero but not the numerator.
  4. x-intercept: Find the value of x x that makes the numerator zero.
  5. y-intercept: Evaluate the function at x=0 x = 0 .
Step 1: Horizontal Asymptote

To find the horizontal asymptote of the function f(x)=5x16x2 f(x) = \frac{5x}{16 - x^2} , we evaluate the limit as x x approaches infinity: limxf(x)=0 \lim_{x \to \infty} f(x) = 0 Thus, the horizontal asymptote is y=0 y = 0 .

Step 2: Holes

A hole occurs in the function where both the numerator and denominator are zero. In this case, the numerator 5x 5x is zero when x=0 x = 0 , but the denominator 16x2 16 - x^2 is not zero at this point. Therefore, there are no holes in the function: Holes: none \text{Holes: none}

Step 3: Vertical Asymptote

Vertical asymptotes occur where the denominator is zero and the numerator is not zero. The denominator 16x2=0 16 - x^2 = 0 gives: x2=16    x=±4 x^2 = 16 \implies x = \pm 4 Thus, the vertical asymptotes are at x=4 x = 4 and x=4 x = -4 .

Step 4: x-intercept

The x-intercept is found by setting the numerator equal to zero: 5x=0    x=0 5x = 0 \implies x = 0 Thus, the x-intercept is (0,0) (0, 0) .

Step 5: y-intercept

The y-intercept is found by evaluating the function at x=0 x = 0 : f(0)=501602=0 f(0) = \frac{5 \cdot 0}{16 - 0^2} = 0 Thus, the y-intercept is (0,0) (0, 0) .

Final Answer

  • Horizontal Asymptote: y=0 y = 0
  • Holes: none
  • Vertical Asymptote(s): x=4,x=4 x = 4, x = -4
  • x-intercept: (0,0) (0, 0)
  • y-intercept: (0,0) (0, 0)

The final answers are: y=0,none,x=4,x=4,(0,0),(0,0) \boxed{y = 0}, \quad \boxed{\text{none}}, \quad \boxed{x = 4, x = -4}, \quad \boxed{(0, 0)}, \quad \boxed{(0, 0)}

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