ترغب بنشر مسار تعليمي؟ اضغط هنا

Fermats Little Theorem and Eulers Theorem in a class of rings

106   0   0.0 ( 0 )
 نشر من قبل Fernanda D. de Melo Hernandez
 تاريخ النشر 2020
  مجال البحث
والبحث باللغة English




اسأل ChatGPT حول البحث

Considering $mathbb{Z}_n$ the ring of integers modulo $n$, the classical Fermat-Euler theorem establishes the existence of a specific natural number $varphi(n)$ satisfying the following property: $ x^{varphi(n)}=1%hspace{1.0cm}text{for all}hspace{0.2cm}xin mathbb{Z}_n^*, $ for all $x$ belonging to the group of units of $mathbb{Z}_n$. In this manuscript, this result is extended to a class of rings that satisfies some mild conditions.

قيم البحث

اقرأ أيضاً

What values of the Standard Model hypercharges result in a mathematically consistent quantum field theory? We show that the constraints imposed by the lack of gauge anomalies can be recast as the equation x^3 + y^3 = z^3. If hypercharge is quantised, then x, y and z must be integers. The trivial (and only) solutions, with x=0 or y=0, reproduce the hypercharge assignments seen in Nature. This argument does not rely on the mixed gauge-gravitational anomaly, which is automatically vanishing if hypercharge is quantised and the gauge anomalies vanish.
135 - Yuri Bilu , Jean Gillibert 2016
We prove, under some mild hypothesis, that an etale cover of curves defined over a number field has infinitely many specializations into an everywhere unramified extension of number fields. This constitutes an absolute version of the Chevalley-Weil t heorem. Using this result, we are able to generalize the techniques of Mestre, Levin and the second author for constructing and counting number fields with large class group.
Even though flt is a number theoretic result we prove that the result depends on the topological as well as the field structure of the underlying space.
132 - Dennis Eichhorn , Hayan Nam , 2018
In two papers, Little and Sellers introduced an exciting new combinatorial method for proving partition identities which is not directly bijective. Instead, they consider various sets of weighted tilings of a $1 times infty$ board with squares and do minoes, and for each type of tiling they construct a generating function in two different ways, which generates a $q$-series identity. Using this method, they recover quite a few classical $q$-series identities, but Eulers Pentagonal Number Theorem is not among them. In this paper, we introduce a key parameter when constructing the generating functions of various sets of tilings which allows us to recover Eulers Pentagonal Number Theorem along with an infinite family of generalizations.
We obtain a unification of two refinements of Eulers partition theorem respectively due to Bessenrodt and Glaisher. A specialization of Bessenrodts insertion algorithm for a generalization of the Andrews-Olsson partition identity is used in our combinatorial construction.
التعليقات
جاري جلب التعليقات جاري جلب التعليقات
سجل دخول لتتمكن من متابعة معايير البحث التي قمت باختيارها
mircosoft-partner

هل ترغب بارسال اشعارات عن اخر التحديثات في شمرا-اكاديميا