To determine which inequalities could describe the domain and range of a graphed line, we need to understand what each inequality represents in terms of the values that \(x\) and \(y\) can take.
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Domain: \(2 < x < 6\)
This means \(x\) can take any value between 2 and 6, not including 2 and 6 themselves.Range: \(2 < y < 6\)
This means \(y\) can take any value between 2 and 6, also not including 2 and 6. -
Domain: \(2 < x ≤ 6\)
This means \(x\) can take any value greater than 2 and up to and including 6.Range: \(-3 ≤ y < 1\)
This means \(y\) can take any value greater than or equal to -3 but less than 1. -
Domain: \(2 ≤ x < 6\)
This means \(x\) can take any value greater than or equal to 2 and up to but not including 6.Range: \(y < 1\)
This means \(y\) can take any value less than 1, without bounds. -
Domain: \(x ≥ 2\)
This means \(x\) can take any value greater than or equal to 2 with no upper limit.Range: \(-3 < y ≤ 1\)
This means \(y\) can take any value greater than -3 and up to and including 1.
To determine which of these sets of inequalities might be true, we would typically look at the graph to see where the line is defined along the x-axis (domain) and the corresponding y-values (range).
Without the visual representation of the graph, it’s essential to analyze which set of inequalities is most plausible given common scenarios of linear functions.
Likely Candidates:
- If the line is limited to a small segment between specific values, then option 1 or 2 might be true.
- If the line runs indefinitely to the right (or has no upper limit in the x-direction), option 4 could hold.
- If it has open and closed intervals across the entire graph, option 3 might also hold.
You may need to check the graph specifically for endpoints and behaviors to see how to best match the inequalities with the line's actual plotted values.