AbstractLet a, b∈Q* be rational numbers that are multiplicatively independent. We study the natural density δ(a, b) of the set of primes p for which the subgroup of F*p generated by (amodp) contains (bmodp). It is shown that, under assumption of the generalized Riemann hypothesis, the density δ(a, b) exists and equals a positive rational multiple of the universal constant S=∏pprime(1−p/(p3−1)). An explicit value of δ(a, b) is given under mild conditions on a and b. This extends and corrects earlier work of Stephens (1976, J. Number Theory8, 313–332). We also discuss the relevance of the result in the context of second order linear recurrent sequences and some numerical aspects of the determination of δ(a, b)
AbstractThe following problem may be considered as an inverse of Artin′s density theorem: Given n ≥ ...
AbstractFor a fixed rational number g∉{−1,0,1} and integers a and d we consider the sets Ng(a,d), re...
The classical theorem of Schnirelmann states that the primes are an additive basis for the integers....
AbstractLet a, b∈Q* be rational numbers that are multiplicatively independent. We study the natural ...
Given Γ⊂Q∗ a multiplicative subgroup and m∈N+ , assuming the Generalized Riemann Hypothesis, we dete...
Given Γ⊂Q∗ a multiplicative subgroup and m∈N+ , assuming the Generalized Riemann Hypothesis, we dete...
We assume the generalized Riemann hypothesis and prove an asymptotic formula for the number of prime...
We assume the generalized Riemann hypothesis and prove an asymptotic formula for the number of prime...
For any finitely generated subgroupΓofQ* we compute a formula for the density of the primes for whic...
For any finitely generated subgroupΓofQ* we compute a formula for the density of the primes for whic...
AbstractFor any finitely generated subgroupΓofQ* we compute a formula for the density of the primes ...
integer a # * 1, or a perfect square, there exist infinitely many primes p for which a is a primiti...
For any finitely generated subgroup \Gamma of Q we compute a formula for the density of the prime...
AbstractThe following problem may be considered as an inverse of Artin′s density theorem: Given n ≥ ...
AbstractLet F be a family of number fields which are normal and of finite degree over a given number...
AbstractThe following problem may be considered as an inverse of Artin′s density theorem: Given n ≥ ...
AbstractFor a fixed rational number g∉{−1,0,1} and integers a and d we consider the sets Ng(a,d), re...
The classical theorem of Schnirelmann states that the primes are an additive basis for the integers....
AbstractLet a, b∈Q* be rational numbers that are multiplicatively independent. We study the natural ...
Given Γ⊂Q∗ a multiplicative subgroup and m∈N+ , assuming the Generalized Riemann Hypothesis, we dete...
Given Γ⊂Q∗ a multiplicative subgroup and m∈N+ , assuming the Generalized Riemann Hypothesis, we dete...
We assume the generalized Riemann hypothesis and prove an asymptotic formula for the number of prime...
We assume the generalized Riemann hypothesis and prove an asymptotic formula for the number of prime...
For any finitely generated subgroupΓofQ* we compute a formula for the density of the primes for whic...
For any finitely generated subgroupΓofQ* we compute a formula for the density of the primes for whic...
AbstractFor any finitely generated subgroupΓofQ* we compute a formula for the density of the primes ...
integer a # * 1, or a perfect square, there exist infinitely many primes p for which a is a primiti...
For any finitely generated subgroup \Gamma of Q we compute a formula for the density of the prime...
AbstractThe following problem may be considered as an inverse of Artin′s density theorem: Given n ≥ ...
AbstractLet F be a family of number fields which are normal and of finite degree over a given number...
AbstractThe following problem may be considered as an inverse of Artin′s density theorem: Given n ≥ ...
AbstractFor a fixed rational number g∉{−1,0,1} and integers a and d we consider the sets Ng(a,d), re...
The classical theorem of Schnirelmann states that the primes are an additive basis for the integers....