(B) \( t^{2}+4 t-21 \) (C) \( t^{2}+5 t-6 \) (D) \( t^{2}-2 t-8 \) (E) \( t^{2}-10 t-11 \) (F) \( t^{2}+4 t-12 \) (G) \( t^{2}-8 t-20 \) (H) \( t^{2}-t-72 \)
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Extra Insights
Did you know that quadratic equations, like the ones you provided, have fascinating historical roots? The ancient Babylonians were solving quadratic equations over 4,000 years ago! They used geometric methods and what we now recognize as the quadratic formula long before it was formalized in mathematics. It’s kind of amazing how these equations, originating in the sands of Babylon, still appear in our lives today! Speaking of real-world applications, quadratic equations pop up everywhere! From designing parabolic arches in architecture to calculating projectile trajectories in sports, they help us model situations involving area, motion, and even business profit projections. So the next time you see one of these equations, remember, you're looking at a key that unlocks mysteries in both ancient and modern contexts!