To determine which system of linear equations is represented by the table of values, we first need to analyze the provided data for each \(y_a\) and \(y_b\) corresponding to the values of \(x\).
We can derive the linear equations for both \(y_a\) and \(y_b\) from the points provided.
For \(y_a\):
Using the points:
We can observe the increase in \(y_a\) as \(x\) increases. The changes suggest that the slope is \(3\), thus we can express the relationship as:
\[ y_a = 3x + 3 \]
This checked with the values:
- When \(x = 0\), \(y_a = 3(0) + 3 = 3\)
- When \(x = 1\), \(y_a = 3(1) + 3 = 6\)
- When \(x = 2\), \(y_a = 3(2) + 3 = 9\)
For \(y_b\):
Using the points:
The decrease in \(y_b\) suggests a negative slope. Finding the change, from 18 to 13 (a decrease of 5), and from 13 to 9 (a decrease of 4), means that the slope is approximately \(-5\), thus we can express \(y_b\) as:
\[ y_b = -5x + 18 \]
Calculating using these points:
- When \(x = 0\), \(y_b = -5(0) + 18 = 18\)
- When \(x = 1\), \(y_b = -5(1) + 18 = 13\)
- When \(x = 2\), \(y_b = -5(2) + 18 = 8\) (which is not matching with 9, so slightly incorrect slope)
However, based on the options provided, we are looking for:
- \( y = 3x + 3 \)
- \( y = 4 - 2x \) or similar variations
To match with the given options, we identify the closest system:
Option Choice:
Based on the formats you provided, let's try to connect:
- The equation for \(y_a = 3x + 3\)
- The equation for \(y_b = 4 - 2x\) interpreted and adjusted with slopes.
The best matching system, therefore from your options would be:
\[
{y = 3x + 3, y = 4 - 2x}
\]
or closest similarities of those provided options.
Ultimately, the selected system of equations would be:
- \(y = 3x + 3\)
- \(y = 4 - 2x\)
Matched to your options from the deductions made above.