Chapter 9: Problem 41
Use the quadratic formula to solve the equation. $$-\frac{1}{2} x^{2}+6 x+13=0$$
Chapter 9: Problem 41
Use the quadratic formula to solve the equation. $$-\frac{1}{2} x^{2}+6 x+13=0$$
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Get started for freeUse a calculator to solve the equation or write no solution. Round the results to the nearest hundredth. $$6 y^{2}+22=34$$
Use the following information. Scientists simulate a gravity-free environment called microgravity in free- fall situations. A similar microgravity environment can be felt on free-fall rides at amusement parks or when stepping off a high diving platform. The distance \(d\) (in meters) that an object that is dropped falls in \(t\) seconds can be modeled by the equation \(d=\frac{1}{2} g\left(t^{2}\right),\) where \(g\) is the acceleration due to gravity (9.8 meters per second per second). How are these formulas similar? \(d=\frac{1}{2} g\left(t^{2}\right)\) when \(d\) is distance, \(g\) is gravity, and \(t\) is time \(h=-16 t^{2}+s\) when \(h\) is height, \(s\) is initial height, and \(t\) is time
Use a calculator to evaluate the expression. Round the results to the nearest hundredth. $$\frac{2 \pm 5 \sqrt{6}}{2}$$
Solve the equation or write no solution. Write the solutions as integers if possible. Otherwise write them as radical expressions. $$x^{2}=-9$$
Use the following information. Scientists simulate a gravity-free environment called microgravity in free- fall situations. A similar microgravity environment can be felt on free-fall rides at amusement parks or when stepping off a high diving platform. The distance \(d\) (in meters) that an object that is dropped falls in \(t\) seconds can be modeled by the equation \(d=\frac{1}{2} g\left(t^{2}\right),\) where \(g\) is the acceleration due to gravity (9.8 meters per second per second). The NASA Lewis Research Center has two microgravity facilities. One provides a 132 -meter drop into a hole and the other provides a 24 -meter drop inside a tower. How long will each free-fall period be?
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