Chapter 7: Problem 20
Express $$ 0.859859859 \ldots $$ as a fraction; here the digits 859 repeat forever.
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Chapter 7: Problem 20
Express $$ 0.859859859 \ldots $$ as a fraction; here the digits 859 repeat forever.
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Evaluate the arithmetic series. $$ 1001+1002+1003+\cdots+2998+2999+3000 $$
Assume \(n\) is a positive integer. Find the coefficient of \(w^{198}\) in the expansion of \((w+3)^{200}\).
Evaluate the arithmetic series. $$ \sum_{m=1}^{75}(2+3 m) $$
Explain why the polynomial \(p\) defined by $$ p(x)=\frac{x^{4}-10 x^{3}+39 x^{2}-50 x+24}{4} $$ is the only polynomial of degree 4 such that \(p(1)=1\), \(p(2)=4, p(3)=9, p(4)=16,\) and \(p(5)=31\). The graph of \(\frac{x^{4}-10 x^{3}+39 x^{2}-50 x+24}{4}\) on the interval [-1,5] .
Express $$ 5.1372647264 \ldots $$ as a fraction; here the digits 7264 repeat forever.
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