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tpm
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Don't know if this can be done but taking the Luarent series for the Riemann zeta function converging for every s but Re (s) =1 we have:
\zeta (s) = \sum_{n=-\infty}^{\infty}\gamma _{n} (s-a)^{n} (1)
Then the Mellin-Perron inverse formula for Mertens function:
M(exp(t))2\pi i = \int_{C}ds \frac{x^{s}}{s\zeta (s)} (2)
From expression (1) we could use it to find a Laurent series for 1/\zeta (s) to put it into (2) hence we find tor Mertens function:
M(e^{t})= \sum_{n=0}^{\infty}\frac{a(n)t^{n}}{n!} (3)
my problem is , assuming (3) is true then i would like to find an asymptotic formula for big t for M(exp(t)) thanx.
\zeta (s) = \sum_{n=-\infty}^{\infty}\gamma _{n} (s-a)^{n} (1)
Then the Mellin-Perron inverse formula for Mertens function:
M(exp(t))2\pi i = \int_{C}ds \frac{x^{s}}{s\zeta (s)} (2)
From expression (1) we could use it to find a Laurent series for 1/\zeta (s) to put it into (2) hence we find tor Mertens function:
M(e^{t})= \sum_{n=0}^{\infty}\frac{a(n)t^{n}}{n!} (3)
my problem is , assuming (3) is true then i would like to find an asymptotic formula for big t for M(exp(t)) thanx.
