Utilizing LTE to Analyze Recursive Patterns in Prime Divisibility of Polynomial Powers

This paper explores the application of the Lifting The Exponent (LTE) theorem to uncover recursive patterns in prime divisibility within polynomial sequences of the form and , where a, b, and n are integers and p is a prime. The LTE theorem provides a systematic method for calculating p-adic valuations, revealing predictable patterns in divisibility by powers of p as n increases. By applying LTE, we derive concise recursive relations that describe the highest powers of p dividing each term in these sequences, without direct computation of large powers. We present case studies illustrating LTE’s utility in establishing prime power divisibility across exponential terms, enabling efficient analysis of factorization and periodicity in integer sequences. This work highlights LTE’s role in advancing number-theoretic methods for modular arithmetic, cryptography, and the classification of prime-divisibility properties in polynomial expressions, underscoring its value as a foundational tool in modern mathematical analysis.

Authors

Publication Details

Journal
Advances in Nonlinear Variational Inequalities
Published
2024-11-28
DOI
https://doi.org/10.52783/anvi.v28.2538
Primary Topic
Polynomial and algebraic computation
Type
article
Field-Weighted Citation Impact
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article

Utilizing LTE to Analyze Recursive Patterns in Prime Divisibility of Polynomial Powers

Jungwon Choi
Advances in Nonlinear Variational Inequalities
Polynomial and algebraic computation
article

Utilizing LTE to Analyze Recursive Patterns in Prime Divisibility of Polynomial Powers

Jungwon Choi
article en

Abstract

This paper explores the application of the Lifting The Exponent (LTE) theorem to uncover recursive patterns in prime divisibility within polynomial sequences of the form and , where a, b, and n are integers and p is a prime. The LTE theorem provides a systematic method for calculating p-adic valuations, revealing predictable patterns in divisibility by powers of p as n increases. By applying LTE, we derive concise recursive relations that describe the highest powers of p dividing each term in these sequences, without direct computation of large powers. We present case studies illustrating LTE’s utility in establishing prime power divisibility across exponential terms, enabling efficient analysis of factorization and periodicity in integer sequences. This work highlights LTE’s role in advancing number-theoretic methods for modular arithmetic, cryptography, and the classification of prime-divisibility properties in polynomial expressions, underscoring its value as a foundational tool in modern mathematical analysis.

Advances in Nonlinear Variational InequalitiesVol. 28(2s)
Openalex Percentile: Top 69%
Polynomial and algebraic computation
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