To evaluate the function \( g(h) = -6h^2 - 2h + h \), we first simplify it:
\[ g(h) = -6h^2 - 2h + h = -6h^2 - h \]
Next, we will compute \( g(h) \) for each of the given inputs: \( h = -8, -6, -4, -2, 0 \).
-
For \( h = -8 \): \[ g(-8) = -6(-8)^2 - (-8) = -6(64) + 8 = -384 + 8 = -376 \] Coordinates: \((-8, -376)\)
-
For \( h = -6 \): \[ g(-6) = -6(-6)^2 - (-6) = -6(36) + 6 = -216 + 6 = -210 \] Coordinates: \((-6, -210)\)
-
For \( h = -4 \): \[ g(-4) = -6(-4)^2 - (-4) = -6(16) + 4 = -96 + 4 = -92 \] Coordinates: \((-4, -92)\)
-
For \( h = -2 \): \[ g(-2) = -6(-2)^2 - (-2) = -6(4) + 2 = -24 + 2 = -22 \] Coordinates: \((-2, -22)\)
-
For \( h = 0 \): \[ g(0) = -6(0)^2 - 0 = 0 \] Coordinates: \((0, 0)\)
Now, summarizing the computed coordinates:
- \((-8, -376)\)
- \((-6, -210)\)
- \((-4, -92)\)
- \((-2, -22)\)
- \((0, 0)\)
The correct option that matches these coordinates is: (−8,−376), (−6,−210), (−4,−92), (−2,−22), (0,0)
Thus, the correct answer is: \((-8, -376), (-6, -210), (-4, -92), (-2, -22), (0, 0)\).