Converging integration series

Calculus Level 3

Prove that the series converges:(See the serie carefully) In the options by e it means Euler Masheroni constant

1 1 2 d x x + 1 2 2 3 d x x + 1 3 1 - \int_1^2 \dfrac {dx}x + \dfrac12 - \int_2^3 \dfrac{dx}x + \dfrac13 - \cdots

Also find the sum of the expression

1 0 e 2

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1 solution

Purnashis Hazra
Jan 17, 2016

ah no mames, no te pases, te cuesta tanto poner \gamma en vez de e >:v. troll xD

Angel Loquez - 4 years ago

You did not show the proof on how this sum comes to e e . In fact, the sum of this is known as Euler–Mascheroni constant, represented with γ \gamma . In transforming the Harmonic series to logarithm, you ignore its divergence characteristics. Simply put, l i m n m = 1 n 1 m lim_{n\rightarrow\infty}\sum_{m=1}^n \frac{1}{m} Diverges. However, γ \gamma , the sum of l i m n ( l n ( n ) + m = 1 n 1 m ) lim_{n\rightarrow\infty}(-ln(n)+\sum_{m=1}^n \frac{1}{m}) Converges to γ 0.5772156 \gamma \approx 0.5772156

Kay Xspre - 5 years, 4 months ago

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well by e i meant Euler constant as the book i read from showed me e instead of gamma symbol for the same constant but u are right it shouldn't be the same

Purnashis Hazra - 5 years, 4 months ago

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