To analyze the effect of the transformation from the function \( k(x) = \sqrt{4.82x + 3} - 4 \) to \( m(x) = \sqrt{1.22x + 3} - 4 \), we need to focus on the coefficients of \( x \) within the square root.
The square root function has a general form of \( \sqrt{ax + b} \), and we can determine whether it's a stretch or compression based on the value of \( a \).
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For \( k(x) \):
- The coefficient of \( x \) is \( 4.82 \).
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For \( m(x) \):
- The coefficient of \( x \) is \( 1.22 \).
To see the effect of this change, we consider how these coefficients affect the vertical aspects of the graph:
- If \( a > 1 \), the graph is vertically compressed by a factor of \( 1/a \).
- If \( 0 < a < 1 \), the graph is vertically stretched.
Now comparing \( k(x) \) to \( m(x) \):
\[ \text{Factor of Compression} = \frac{4.82}{1.22} \approx 3.95 \]
So, since \( 1.22 < 4.82 \), it indicates that the graph of \( m(x) \) is vertically compressed compared to the graph of \( k(x) \).
Hence, we can conclude:
There is a vertical compression by a factor of approximately \( 4 \).
Therefore, the closest response is:
There is a vertical compression by a factor of 4.