The inflection points on a graph are where the concavity of the curve changes—this is where the second derivative of the function equals zero and changes sign. From the image you've uploaded, we can visually analyze the curve and look for these points.

Looking at the curve, I can observe that the concavity appears to change at two distinct regions:

1. Around $x \approx 1$, where the curve goes from concave down to concave up.
2. Around $x \approx 4$, where the curve changes from concave up to concave down, and then back to concave up again near $x \approx 6$.

These approximate points suggest inflection points around $x \approx 1$ and $x \approx 4$.

To be precise, you'd need to find the second derivative of the function that represents this graph and solve for where it equals zero and changes sign.

Would you like more details on how to compute inflection points analytically?

Here are five related questions that might help deepen your understanding:

1. How do we find inflection points analytically using derivatives?
2. What is the role of the first derivative in identifying local maxima and minima?
3. How do we confirm that an inflection point exists at a given $x$-value?
4. How does concavity influence the shape of a graph?
5. What is the relationship between critical points and inflection points?

Tip: When analyzing inflection points, always check both the sign of the second derivative before and after the point to ensure a true concavity change.