The Least Square-free Primitive Root Modulo a Prime
Author(s) -
Morgan Campbell Hunter
Publication year - 2016
Publication title -
cornell university
Language(s) - English
DOI - 10.25911/5d9efbd051286
Subject(s) - modulo , primitive root modulo n , mathematics , square root , sieve (category theory) , prime (order theory) , discrete mathematics , square (algebra) , combinatorics , prime number theorem , upper and lower bounds , prime number , mathematical analysis , geometry
$ $The aim of this thesis is to lower the bound on square-free primitive roots modulo primes. Let $g^{\Box}(p)$ be the least square-free primitive root modulo $p$. We have proven the following two theorems. Theorem 0.1. $$g^{\Box}(p) 9.63\times10^{65}.$$ Theorem 0.1 shows an improvement in the best known bound while Theorem 0.2 shows for which primes we can prove the theoretical lower bound. After some introductory information in Chapter 1, we will start to prove the above theorems in Chapter 2. We will introduce an indicator function for primitive roots of primes in §2.1 and together with results from §1.2.1, §1.2.3 and §1.2.4 we will outline the first step in proving a general theorem of the above form. The next two stages in the proof will be outlined in Chapter 3. These two stages require the introduction of the prime sieve. Before defining the sieve in §3.2 we will introduce the $e-$free integers which will play an important role in defining the sieve. In §3.2 we will obtain results that do not require computation, including Theorem 0.2. An algorithm is then introduced in §3.3 which is the last stage of the proof. There we will complete the proof of Theorem 0.1.
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