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Use technology to find points and then graph the function y, equals, 2, start superscript, x, minus, 2, end superscript, minus,...Question
Use technology to find points and then graph the function y, equals, 2, start superscript, x, minus, 2, end superscript, minus, 5, commay=2
x−2
−5, following the instructions below.
Equation of asymptote:
y, equalsy=
Plot at least four points with integer coordinates that fit on the axes below.
x−2
−5, following the instructions below.
Equation of asymptote:
y, equalsy=
Plot at least four points with integer coordinates that fit on the axes below.
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Answered by
GPT-4o mini
To analyze and graph the function \( y = 2^{(x - 2)} - 5 \), let's begin with the following steps:
### Step 1: Determine the Asymptote
The function \( y = 2^{(x - 2)} - 5 \) is an exponential function that is shifted down by 5 units. The horizontal asymptote can be determined by considering the limit of the function as \( x \) approaches negative infinity:
\[
\lim_{x \to -\infty} (2^{(x - 2)} - 5) = 0 - 5 = -5
\]
So, the equation of the asymptote is:
\[
y = -5
\]
### Step 2: Find Points on the Graph
To plot the function, we can substitute various integer values of \( x \) to find corresponding \( y \) values. Below are calculations for several integer values of \( x \):
1. **For \( x = 0 \)**:
\[
y = 2^{(0 - 2)} - 5 = 2^{-2} - 5 = \frac{1}{4} - 5 = -4.75
\]
2. **For \( x = 1 \)**:
\[
y = 2^{(1 - 2)} - 5 = 2^{-1} - 5 = \frac{1}{2} - 5 = -4.5
\]
3. **For \( x = 2 \)**:
\[
y = 2^{(2 - 2)} - 5 = 2^{0} - 5 = 1 - 5 = -4
\]
4. **For \( x = 3 \)**:
\[
y = 2^{(3 - 2)} - 5 = 2^{1} - 5 = 2 - 5 = -3
\]
5. **For \( x = 4 \)**:
\[
y = 2^{(4 - 2)} - 5 = 2^{2} - 5 = 4 - 5 = -1
\]
### Summary of Points
Based on these calculations, we have the following integer coordinate points:
- \( (0, -4.75) \)
- \( (1, -4.5) \)
- \( (2, -4) \)
- \( (3, -3) \)
- \( (4, -1) \)
### Step 3: Create a Graph
To graph this function, plot the points on the Cartesian coordinate system and draw the horizontal asymptote \( y = -5 \).
### Points Summary for Graphing
Here are the points you can plot on a coordinate grid, rounding the y-values where necessary:
1. \( (0, -5) \) (Approx)
2. \( (1, -5) \) (Approx)
3. \( (2, -4) \)
4. \( (3, -3) \)
5. \( (4, -1) \)
You can plot these points, and connect them smoothly to illustrate the exponential shape, approaching the asymptote \( y = -5 \) as \( x \) decreases.
Your final output for the graph would include these points plotted on the axes below, with a dashed line for the asymptote at \( y = -5 \).
### Step 1: Determine the Asymptote
The function \( y = 2^{(x - 2)} - 5 \) is an exponential function that is shifted down by 5 units. The horizontal asymptote can be determined by considering the limit of the function as \( x \) approaches negative infinity:
\[
\lim_{x \to -\infty} (2^{(x - 2)} - 5) = 0 - 5 = -5
\]
So, the equation of the asymptote is:
\[
y = -5
\]
### Step 2: Find Points on the Graph
To plot the function, we can substitute various integer values of \( x \) to find corresponding \( y \) values. Below are calculations for several integer values of \( x \):
1. **For \( x = 0 \)**:
\[
y = 2^{(0 - 2)} - 5 = 2^{-2} - 5 = \frac{1}{4} - 5 = -4.75
\]
2. **For \( x = 1 \)**:
\[
y = 2^{(1 - 2)} - 5 = 2^{-1} - 5 = \frac{1}{2} - 5 = -4.5
\]
3. **For \( x = 2 \)**:
\[
y = 2^{(2 - 2)} - 5 = 2^{0} - 5 = 1 - 5 = -4
\]
4. **For \( x = 3 \)**:
\[
y = 2^{(3 - 2)} - 5 = 2^{1} - 5 = 2 - 5 = -3
\]
5. **For \( x = 4 \)**:
\[
y = 2^{(4 - 2)} - 5 = 2^{2} - 5 = 4 - 5 = -1
\]
### Summary of Points
Based on these calculations, we have the following integer coordinate points:
- \( (0, -4.75) \)
- \( (1, -4.5) \)
- \( (2, -4) \)
- \( (3, -3) \)
- \( (4, -1) \)
### Step 3: Create a Graph
To graph this function, plot the points on the Cartesian coordinate system and draw the horizontal asymptote \( y = -5 \).
### Points Summary for Graphing
Here are the points you can plot on a coordinate grid, rounding the y-values where necessary:
1. \( (0, -5) \) (Approx)
2. \( (1, -5) \) (Approx)
3. \( (2, -4) \)
4. \( (3, -3) \)
5. \( (4, -1) \)
You can plot these points, and connect them smoothly to illustrate the exponential shape, approaching the asymptote \( y = -5 \) as \( x \) decreases.
Your final output for the graph would include these points plotted on the axes below, with a dashed line for the asymptote at \( y = -5 \).
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