To determine which table shows that \( y = -f(x) \) results in a reflection over the x-axis, we need to note how values in the table transform when reflected. In a reflection over the x-axis, the negative of the original function values is taken.
This means:
- If \( f(x) = 0 \), then \( -f(x) = 0 \)
- If \( f(x) = 1 \), then \( -f(x) = -1 \)
- If \( f(x) = 2 \), then \( -f(x) = -2 \)
- If \( f(x) = -1 \), then \( -f(x) = 1 \)
- If \( f(x) = -2 \), then \( -f(x) = 2 \)
Now let’s examine the tables provided to see which one reflects these transformations correctly:
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Table 1:
x −f(x) 2 0 3 1 6 2
Here, the values of \( -f(x) \) do not match any negative counterparts of \( f(x) \).
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Table 2:
x −f(x) 2 0 3 −1 6 −2
Here, if we assume \( f(2) = 0, f(3) = 1, f(6) = 2 \), the transformations match \( -f(x) \) correctly (0, -1, -2).
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Table 3:
x −f(x) −2 0 −3 −1 −6 −2
Similarly, this table does not exhibit needed transformations in positive range.
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Table 4:
x −f(x) −2 0 −3 1 −6 2
It reflects the transformation needed, but values don't exhibit \( -f(x) \) for the needed coordinate range.
The clear choice upon reviewing is Table 2, as the values demonstrate the transformation of \( y = -f(x) \) operating correctly through reflection over the x-axis.
Therefore, Table 2 correctly represents what happens when a function \( y = -f(x) \) is reflected over the x-axis.