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New page: E. Wirsing, "Das asymptotische verhalten von summen über multiplikative funktionen. II." Acta Mathematica Academiae Scientiarum Hungaricae Tomus 18 (3-4), 1978, pp. 411-467. English Tran...
 
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In I we have the asymptotic behavior of the sum \ sum_ (n \ leq x) \ lambda (n) for nonnegative
In I we have the asymptotic behavior of the sum $latex \sum_ (n \leq x) \lambda (n)$ for nonnegative
multiplicative functions \ lambda essentially under the condition
multiplicative functions $latex \lambda$ essentially under the condition


(1.1) \ frac (p \ leq x) \ lambda (p) \ log (p) \ tilde \ tau x (p prime)
$latex (1.1) \sum_{p\leq x}\lambda(p)\log(p)\tilde\tau x (p prime)$


: Determine
: Determine


N (1.2) \ frac (\ leq x) \ lambda (s) \ tilde \ frac (e ^ (-ct)) (\ Gamma (\ tau)) \ frac (x) (\ log x) \ prod_ (p \ leq x) \ left (1 + \ frac (\ lambda (p)) (p) + \ frac (\ lambda (p ^ (2))) (p ^ (2)) + \ cdots \ right)
$latex (1.2) \sum_{n\leq x}\lambda(n)\tilde\frac{e^{-ct}}{\Gamma(\tau)}\frac{x}{\log x}\prod_{p\leq x}\left(1+\frac{\lambda(p)}{p}+\frac{\lambda(p^{2})}{p^{2}}+\cdots\right)$


(c is the Euler-) constant. Special rates are the same type Delange [3]. The same result
($latex c$ is the Euler-) constant. Special rates are the same type Delange [3]. The same result
  (1.2) is here under the much weaker assumption
  (1.2) is here under the much weaker assumption


(1.3) \ frac (p \ leq x) \ lambda (p) \ frac (\ log p) (p) \ tilde \ tau \ log x
$latex (1.3) \sum_{p\leq x}\lambda(p)\frac{\log p}{p}\tilde\tau\log x$


However, with the additional. Call \ lambda (p) = O (1) and only for tau \> are shown 0 (Theorem 1.1).
However, with the additional. Call $latex \lambda(p)= O(1)$ and only for tau \> are shown 0 (Theorem 1.1).
The terms of \ lambda (p ^ (v)) (v \ geq2) are thieves than I, but we want them in the introduction
The terms of $latex \lambda(p^{v}) (v\geq2)$ are thieves than I, but we want them in the introduction
. neglect The same result for complex-Tunktionen \ lambda, we get only if \ lambda
. neglect The same result for complex-function $latex \lambda$, we get only if $latex \lambda$
by | \ lambda | nich significantly different, namely, if
by $latex |\lambda|$ nich significantly different, namely, if


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Revision as of 09:43, 2 February 2010

E. Wirsing, "Das asymptotische verhalten von summen über multiplikative funktionen. II." Acta Mathematica Academiae Scientiarum Hungaricae Tomus 18 (3-4), 1978, pp. 411-467.

English Translation by: Google Translator



In I we have the asymptotic behavior of the sum $latex \sum_ (n \leq x) \lambda (n)$ for nonnegative multiplicative functions $latex \lambda$ essentially under the condition

$latex (1.1) \sum_{p\leq x}\lambda(p)\log(p)\tilde\tau x (p prime)$

Determine

$latex (1.2) \sum_{n\leq x}\lambda(n)\tilde\frac{e^{-ct}}{\Gamma(\tau)}\frac{x}{\log x}\prod_{p\leq x}\left(1+\frac{\lambda(p)}{p}+\frac{\lambda(p^{2})}{p^{2}}+\cdots\right)$

($latex c$ is the Euler-) constant. Special rates are the same type Delange [3]. The same result

(1.2) is here under the much weaker assumption

$latex (1.3) \sum_{p\leq x}\lambda(p)\frac{\log p}{p}\tilde\tau\log x$

However, with the additional. Call $latex \lambda(p)= O(1)$ and only for tau \> are shown 0 (Theorem 1.1). The terms of $latex \lambda(p^{v}) (v\geq2)$ are thieves than I, but we want them in the introduction . neglect The same result for complex-function $latex \lambda$, we get only if $latex \lambda$ by $latex |\lambda|$ nich significantly different, namely, if

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