Chapter 9: Problem 98
Factor completely: \(2 x^{6}+20 x^{5} y+50 x^{4} y^{2}\) (Section 6.5, Example 8)
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Chapter 9: Problem 98
Factor completely: \(2 x^{6}+20 x^{5} y+50 x^{4} y^{2}\) (Section 6.5, Example 8)
These are the key concepts you need to understand to accurately answer the question.
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Determine whether each statement "makes sense" or "does not make sense" and explain your reasoning. It's not a good thing for a business if \(R(x)>C(x)\)
Solve each inequality using a graphing utility. Graph each of the three parts of the inequality separately in the same viewing rectangle. The solution set consists of all values of \(x\) for which the graph of the linear function in the middle lies between the graphs of the constant functions on the left and the right. $$-1<\frac{x+4}{2}<3$$
The toll to a bridge is \(\$ 3.00 .\) A three-month pass costs \(\$ 7.50\) and reduces the toll to \(\$ 0.50 .\) A six-month pass costs \(\$ 30\) and permits crossing the bridge for no additional fee. How many crossing per three-month period does it take for the three-month pass to be the best deal?
A basic cellphone plan costs \(\$ 20\) per month for 60 calling minutes. Additional time costs \(\$ 0.40\) per minute. The formula $$C=20+0.40(x-60)$$ gives the monthly cost for this plan, \(C\), for \(x\) calling minutes, where \(x>60 .\) How many calling minutes are possible for a monthly cost of at least \(\$ 28\) and at most \(\$ 40 ?\)
Solve each inequality using a graphing utility. Graph each of the three parts of the inequality separately in the same viewing rectangle. The solution set consists of all values of \(x\) for which the graph of the linear function in the middle lies between the graphs of the constant functions on the left and the right. $$2 \leq 4-x \leq 7$$
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