To determine which function is the inverse of function \( f \), we need to remember that inverse functions are symmetrical about the line \( y = x \).
Given the descriptions:
- Function \( f \) is the right half of a parabola with vertex at \((-5, 0)\).
- Function \( g \) starts at \((0, -5)\) and curves upward to the right.
- Function \( h \) starts at \((5, 0)\) and curves downward to the right.
If function \( g \) and function \( f \) are inverses, then each point \((a, b)\) on the graph of \( f \) should correspond to a point \((b, a)\) on the graph of \( g\) (and vice versa).
Based on these transformations:
- \( f \) has points that would lie in the region where \( x \) values are negative or zero and \( y \) values are positive (since it is the right half of a parabola).
- Therefore, for \( g \) to be the inverse of \( f \), it should map those \( y \) values back to the corresponding \( x \) values.
- Function \( h\) has a starting point at \( (5, 0) \), which does not correspond to the range of \( f\).
From the descriptions, \( g \) seems to start mapping values similar to what would be required to correspond with \( f \).
Thus the correct answer would be:
the function g because the graphs of f and g are symmetrical about the line y = x