To find the range of the function \( g(z) = -z + 0.99 \), we first look at the behavior of the function.
Since it is a linear function with a negative slope, it will decrease as \( z \) increases. The maximum value of \( g(z) \) occurs when \( z \) is at its minimum value, and the minimum value of \( g(z) \) occurs when \( z \) is at its maximum value.
Assuming \( z \) can take any real number, we can analyze this function:
- As \( z \) approaches positive infinity, \( g(z) = -z + 0.99 \) approaches negative infinity.
- As \( z \) approaches negative infinity, \( g(z) = -z + 0.99 \) approaches positive infinity.
Thus, the function can take on all real values.
Therefore, we can express the range of \( g(z) \) as:
\[ -\infty < g(z) < \infty \]
If we were asked to fill in the specific values in your inequality format, it would be:
\[ -\infty < g(z) < \infty \]
So the completed inequality would be:
\[ < z < \]
for the real numbers, indicating that \( g(z) \) can take any value from \(-\infty\) to \(+\infty\).