Chapter 12: Problem 64
Review factoring polynomials (Sections \(6.1-6.6)\) Factor $$ x^{2}-20 x+100 $$
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Chapter 12: Problem 64
Review factoring polynomials (Sections \(6.1-6.6)\) Factor $$ x^{2}-20 x+100 $$
These are the key concepts you need to understand to accurately answer the question.
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Express as an equivalent expression that is a sum or a difference of logarithms and, if possible, simplify. $$\log _{a} \frac{c-d}{\sqrt{c^{2}-d^{2}}}$$
Simplify. $$\log _{t} t^{7}$$
The bacteria Escherichia coli (E. coli) are commonly found in the human bladder. Suppose that 3000 of the bacteria are present at time \(t=0 .\) Then \(t\) minutes later, the number of bacteria present is $$ N(t)=3000(2)^{t / 20} $$ If \(100,000,000\) bacteria accumulate, a bladder infection can occur. If, at 11: 00 A.M., a patient's bladder contains \(25,000 E\) coli bacteria, at what time can infection occur?
Use the properties of logarithms to find each of the following. $$\log _{3} 27^{7}$$
Simplify. $$ \frac{x^{12}}{x^{4}} $$
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