Chapter 10: Problem 72
Find the greatest common factor. $$30,45$$
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Chapter 10: Problem 72
Find the greatest common factor. $$30,45$$
These are the key concepts you need to understand to accurately answer the question.
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In Exercises \(64-66,\) use the vertical motion model \(\boldsymbol{h}=-\mathbf{1 6 t}^{2}+\boldsymbol{v t}+\boldsymbol{s},\) where \(\boldsymbol{h}\) is the height (in feet), \(t\) is the time in motion (in seconds), \(v\) is the initial velocity (in feet per second), and \(s\) is the initial height (in feet). Solve by factoring. T-SHIRT CANNON At a basketball game, T-shirts are rolled-up into a ball and shot from a "T-shirt cannon" into the crowd. The T-shirts are released from a height of 6 feet with an initial upward velocity of 44 feet per second. If you catch a T-shirt at your seat 30 feet above the court, how long was it in the air before you caught it? Is your answer reasonable?
Use factoring to solve the equation. Use a graphing calculator to check your solution if you wish. $$-16 x^{2}+56 x-49=0$$
The population \(P\) of Alabama (in thousands) for 1995 projected through 2025 can be modeled by \(P=4227(1.0104)^{t},\) where \(t\) is the number of years since \(1995 .\) Find the ratio of the population in 2025 to the population in \(2000 .\) Compare this ratio with the ratio of the population in 2000 to the population in $1995
A pebble is thrown upward from the edge of a building 132 feet above the ground with an initial upward velocity of 4 feet per second. How long does it take to reach the ground? (\(\begin{array}{llll}\text { (A) } 2 \frac{1}{2} \text { seconds } & \text { (B) } 2 \frac{3}{4} \text { seconds } & \text { (C) } 3 \text { seconds } & \text { (D } 6 \text { seconds }\end{array}\)
Find the product. $$(3 x+5)(3 x+5)$$
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