Abstract <p>This paper is devoted to the study of a binary inequality that links prime numbers with square-free integers. The main goal is to show that, for any exponent lying in a certain interval greater than one and smaller than a critical constant, and for every sufficiently large positive number <InlineEquation ID="IEq1"> <EquationSource Format="TEX">\(N\)</EquationSource> <!--VestSPGU2570074Dimitrov-m1--> </InlineEquation>, the inequality under investigation admits a solution. In such a solution one of the variables is a prime number, while the other is restricted to be square-free. The approach relies on analytic number theory, in particular on estimates for exponential sums involving prime numbers together with sieve methods to control the contribution of square-free integers. The obtained result demonstrates that even under the arithmetic restriction of being square-free, the inequality can still be solved for infinitely many sufficiently large values of <InlineEquation ID="IEq2"> <EquationSource Format="TEX">\(N\)</EquationSource> <!--VestSPGU2570074Dimitrov-m2--> </InlineEquation>. This extends previous research, where either primes or unrestricted integers were considered, and provides a new contribution to the understanding of additive problems involving primes and special classes of integers.</p>

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A Binary Inequality with Prime and Square-Free Number

  • S. I. Dimitrov

摘要

Abstract

This paper is devoted to the study of a binary inequality that links prime numbers with square-free integers. The main goal is to show that, for any exponent lying in a certain interval greater than one and smaller than a critical constant, and for every sufficiently large positive number \(N\) , the inequality under investigation admits a solution. In such a solution one of the variables is a prime number, while the other is restricted to be square-free. The approach relies on analytic number theory, in particular on estimates for exponential sums involving prime numbers together with sieve methods to control the contribution of square-free integers. The obtained result demonstrates that even under the arithmetic restriction of being square-free, the inequality can still be solved for infinitely many sufficiently large values of \(N\) . This extends previous research, where either primes or unrestricted integers were considered, and provides a new contribution to the understanding of additive problems involving primes and special classes of integers.