Integer factoring and compositeness witnesses
We describe a reduction of the problem of factorization of integers n ≤ x in polynomial-time (log x)M+O(1) to computing Euler’s totient function, with exceptions of at most xO(1/M) composite integers that cannot be factored at all, and at most x exp −cM(loglogx)3(logloglogx)2$\begin{array}{} \disp...
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Online Access: | https://doi.org/10.1515/jmc-2019-0023 |
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doaj-105925cdda18429f9c41701c2f971e1c2021-09-06T19:40:45ZengDe GruyterJournal of Mathematical Cryptology1862-29761862-29842020-08-0114134635810.1515/jmc-2019-0023jmc-2019-0023Integer factoring and compositeness witnessesPomykała Jacek0Radziejewski Maciej1Faculty of Mathematics, Informatics and Mechanics, University of Warsawul.Banacha 2, PL-02-097, Warsaw, PolandFaculty of Mathematics and Computer Science, Adam Mickiewicz Universityul.Umultowska 87, PL-61-614, Poznań, PolandWe describe a reduction of the problem of factorization of integers n ≤ x in polynomial-time (log x)M+O(1) to computing Euler’s totient function, with exceptions of at most xO(1/M) composite integers that cannot be factored at all, and at most x exp −cM(loglogx)3(logloglogx)2$\begin{array}{} \displaystyle \left(-\frac{c_M(\log\log x)^3}{(\log\log\log x)^2}\right) \end{array}$ integers that cannot be factored completely. The problem of factoring square-free integers n is similarly reduced to that of computing a multiple D of ϕ(n), where D ≪ exp((log x)O(1)), with the exception of at most xO(1/M) integers that cannot be factored at all, in particular O(x1/M) integers of the form n = pq that cannot be factored.https://doi.org/10.1515/jmc-2019-0023large sievefactoring algorithmszn*-generating setsdirichlet characterssmooth numbersdiscrete logarithm problem for composite numbersprimality testingeuler’s totient functionrsa11a0511a1511a5111m0611z05computational number theory: 11y0511y16 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Pomykała Jacek Radziejewski Maciej |
spellingShingle |
Pomykała Jacek Radziejewski Maciej Integer factoring and compositeness witnesses Journal of Mathematical Cryptology large sieve factoring algorithms zn*-generating sets dirichlet characters smooth numbers discrete logarithm problem for composite numbers primality testing euler’s totient function rsa 11a05 11a15 11a51 11m06 11z05 computational number theory: 11y05 11y16 |
author_facet |
Pomykała Jacek Radziejewski Maciej |
author_sort |
Pomykała Jacek |
title |
Integer factoring and compositeness witnesses |
title_short |
Integer factoring and compositeness witnesses |
title_full |
Integer factoring and compositeness witnesses |
title_fullStr |
Integer factoring and compositeness witnesses |
title_full_unstemmed |
Integer factoring and compositeness witnesses |
title_sort |
integer factoring and compositeness witnesses |
publisher |
De Gruyter |
series |
Journal of Mathematical Cryptology |
issn |
1862-2976 1862-2984 |
publishDate |
2020-08-01 |
description |
We describe a reduction of the problem of factorization of integers n ≤ x in polynomial-time (log x)M+O(1) to computing Euler’s totient function, with exceptions of at most xO(1/M) composite integers that cannot be factored at all, and at most x exp −cM(loglogx)3(logloglogx)2$\begin{array}{}
\displaystyle
\left(-\frac{c_M(\log\log x)^3}{(\log\log\log x)^2}\right)
\end{array}$ integers that cannot be factored completely. The problem of factoring square-free integers n is similarly reduced to that of computing a multiple D of ϕ(n), where D ≪ exp((log x)O(1)), with the exception of at most xO(1/M) integers that cannot be factored at all, in particular O(x1/M) integers of the form n = pq that cannot be factored. |
topic |
large sieve factoring algorithms zn*-generating sets dirichlet characters smooth numbers discrete logarithm problem for composite numbers primality testing euler’s totient function rsa 11a05 11a15 11a51 11m06 11z05 computational number theory: 11y05 11y16 |
url |
https://doi.org/10.1515/jmc-2019-0023 |
work_keys_str_mv |
AT pomykałajacek integerfactoringandcompositenesswitnesses AT radziejewskimaciej integerfactoringandcompositenesswitnesses |
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1717767866538786816 |