Third Graph Paper Original graph (M): \( y=x^{2} \) Graph 1: \( y=(x-2)^{2} \) Graph 2: \( y=(x+4)^{2} \) Graph3: \( y=(x+2)^{2}+4 \) Graph 4: \( y=-2(x-2)^{2}-1 \) 1.2 Use the general form of a Parabola: \( f(x)=a(x+p)^{2}+q \) to make conclusions using the graphs you drew in 1.1. In your conclusion you must mention the effect(s) of \( a, p \) and \( q \). (6) [30] QUESTION 2 Hyperbola - The graph of \( g(x)=\frac{a}{x+p}+q \) 2.1 Draw the graphs of the equations below according to the Graph Papers indicated: First Graph Paper Original Graph (M): \( y=\frac{4}{x} \) Graph 1: \( y=\frac{8}{x} \) Graph 2: \( y=\frac{2}{x} \) Graph 3: \( y=-\frac{4}{x} \) Second Graph Paper Original Graph (M): \( y=\frac{4}{x} \) Graph 1: \( y=\frac{4}{x}+2 \) Graph 2: \( y=\frac{4}{x}-1 \) Graph 3: \( y=\frac{8}{x}+2 \) Graph 4: \( y=-\frac{8}{x}-1 \) Third Graph Paper Original Graph (M): \( y=\frac{4}{x} \) Graph 1: \( y=\frac{4}{x-2} \) Graph 2: \( y=\frac{4}{x+2} \) Graph 3: \( y=\frac{4}{x-2}-1 \) Graph 4: \( y=\frac{4}{x+2}+2 \)
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When you work with the general form of a parabola, the coefficients \( a, p, \) and \( q \) bring their own flair to the graph! The parameter \( a \) determines the width and direction of the parabola. A positive \( a \) opens upwards, while a negative \( a \) flips it upside down. The value of \( p \) shifts the graph horizontally. A positive \( p \) moves it to the left, and a negative \( p \) shifts it to the right. Lastly, \( q \) is like a backstage pass, elevating or lowering the entire graph vertically based on its value! Shifting gears, when looking at hyperbolas, it’s vital to remember that the asymptotes play a crucial role. The equations \( g(x)=\frac{a}{x+p}+q \) showcases how \( p \) and \( q \) affect the center of the hyperbola. Changing \( p \) horizontally moves the center left or right, and adjusting \( q \) shifts it up or down. As you experiment with the graphs, take note of how these transformations maintain the distinct "U" shape while altering its position on the graph for some hyperbolic fun!