To solve the problem, let's analyze the information given about triangles ABC and CDE, as well as the line passing through points (1, 0) and (12, 9).
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Vertices of Triangle ABC:
- A(3, 2)
- B(3, 6)
- C(9, 6)
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Vertices of Triangle CDE:
- C(9, 6) (common vertex for both triangles)
- D(9, 8)
- E(12, 9)
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Line passing through (1, 0) and (12, 9):
- We first find the slope of the line. The slope \( m \) between two points \((x_1, y_1)\) and \((x_2, y_2)\) is computed as: \[ m = \frac{y_2 - y_1}{x_2 - x_1} \] In our case: \[ m = \frac{9 - 0}{12 - 1} = \frac{9}{11} \]
Thus, the slope of the line through AE can be written as: Response area: \( \frac{9}{11} \)
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Response area relationship: This is a Response area relationship because both triangles ABC and CDE have a common vertex at C(9, 6), and the line AE forms the hypotenuse of both triangles. The same line also passes through points (1, 0) and (12, 9).
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Equation of the line AE: Using the point-slope form of the equation of a line, \( y - y_1 = m(x - x_1) \), with the slope \( m = \frac{9}{11} \) and a point, say (1, 0), we can find the equation of line AE. \[ y - 0 = \frac{9}{11}(x - 1) \] Simplifying this: \[ y = \frac{9}{11}x - \frac{9}{11} \]
Thus, the equation of the line AE is: Response area: \( y = \frac{9}{11}x - \frac{9}{11} \)
To summarize:
- The slope of the line through AE: \( \frac{9}{11} \)
- Reason for the Response area relationship: Both triangles share a vertex and their hypotenuse aligns with the line.
- The equation of the line AE: \( y = \frac{9}{11}x - \frac{9}{11} \)