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Math 156: Exam 3 Review - Sequences and Series, Study notes of Calculus

A review of topics for exam 3 in math 156, focusing on sequences and series. Topics include sequence notation, developing formulas, limits of sequences, comparison of function classes, series notation, partial sums, convergence and divergence, and tests for convergence. Sequences covered include even and odd numbers, exponentials, and powers. Techniques for limits include factoring out the largest term and l'hopital's rule. Combining sequences uses limit laws. Series topics include the sequence of partial sums, the sum of an infinite series, and tests for convergence such as the integral test, limit comparison test, ratio test, and root test. The document also covers alternating series and the alternating series test.

Typology: Study notes

2011/2012

Uploaded on 10/11/2012

yao-89
yao-89 🇺🇸

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Download Math 156: Exam 3 Review - Sequences and Series and more Study notes Calculus in PDF only on Docsity! Math 156 Review topics for exam 3 Sequences: sequence notation: ann=1 ∞ , an = fn , n = 1, 2, . . . or simply a1, a2, . . .  developing a formula for a given sequence - even numbers, odd numbers, exponentials, powers limits of sequences: techniques such as factoring out the largest term in a sum, L’Hopital’s rule combining sequences: limit laws Comparison of basic function classes: who goes faster to infinity. Series: Notation: ∑ n=1 ∞ an , a1 + a2 + a3 +. . . The sequence snn=0 ∞ of partial sums: sn =∑ i=0 n ai The sum of an infinite series, what it means: lim n→∞ sn = S and we write ∑ i=0 ∞ ai = S Convergence/divergence, absolute convergence Any increasing sequence either has limit infinity or converges. Hence: A bounded increasing sequence must converge. Similarly for decreasing sequence, e.g. any decreasing sequence of positive terms must converge. Special series: Geometric series, finding the sum of a geometric series p − series, ∑ n=0 ∞ 1 np Analysis of series for convergence: Convergence is independent of any number of terms at the beginning of the series. So any comparison that is "eventually" true (i.e. is true for n large enough) can be used. If series ∑ n=0 ∞ an converges, must have an → 0 Basic comparison for positive series: Combining and breaking up convergent series Detailed tests: Integral test: an = fn , fx positive and decreasing ∑ n=1 ∞ an converges if and only if ∫ 1 ∞ fxdx converges 1
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