Problems of Program Code Refactoring with the Use of Artificial Intelligence

Purpose. The modern technological landscape is characterized by the rapid development of software focused on various subject areas and platforms. This leads to the continuous creation of new software products consisting of a huge number of lines of code. The process of developing high-quality software is a multi-stage process that involves a number of factors that affect the final result. The key aspects include the competence of developers, the effectiveness of project management, the availability of necessary resources, and the ability to adapt to changing requirements. Each platform has its own specific features that must be taken into account during development, which further complicates the process of creating universal and effective software solutions. Our research aims to conduct a comprehensive analysis of the potential and promising areas of application of large language models in the context of program code refactoring. The work is aimed at developing and improving methods that will help to increase the efficiency of the refactoring process using these models. Methodology. To solve the above problems, it is proposed to implement a set of methods that can be used both separately and in synergy to optimize the final result. These methods, carefully developed in the context of modern software engineering paradigms, are aimed at increasing the efficiency of the refactoring process while ensuring that the software functionality is preserved. Their implementation involves a systematic approach to analyzing and modifying the code base, taking into account both technical aspects and the potential impact on the overall system architecture. Findings. A comprehensive analysis of existing language models has been conducted and methods for improving the efficiency of large language models in the context of code refactoring have been developed. The key factors that influence the success of the proposed methods, including the amount of training data and the limitations of the model context, are identified. Originality. An approach to improving the efficiency of large language models in code refactoring that takes into account the specifics of different projects and development stages is developed. Innovative methods for retraining language models and optimizing the use of context are proposed, which expand the capabilities of automated refactoring. Practical value. The results of the study allow to improve the efficiency of code refactoring using large language models.

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Publication Details

Journal
Science and Transport Progress
Published
2025-03-11
DOI
https://doi.org/10.15802/stp2025/325888
Primary Topic
Advanced Data Processing Techniques
Type
article
Field-Weighted Citation Impact
0.00
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article

Problems of Program Code Refactoring with the Use of Artificial Intelligence

V. M. Horiachkin, Olena Syrota
Science and Transport Progress
Advanced Data Processing Techniques
article

Problems of Program Code Refactoring with the Use of Artificial Intelligence

V. M. Horiachkin, Olena Syrota
article en

Abstract

Purpose. The modern technological landscape is characterized by the rapid development of software focused on various subject areas and platforms. This leads to the continuous creation of new software products consisting of a huge number of lines of code. The process of developing high-quality software is a multi-stage process that involves a number of factors that affect the final result. The key aspects include the competence of developers, the effectiveness of project management, the availability of necessary resources, and the ability to adapt to changing requirements. Each platform has its own specific features that must be taken into account during development, which further complicates the process of creating universal and effective software solutions. Our research aims to conduct a comprehensive analysis of the potential and promising areas of application of large language models in the context of program code refactoring. The work is aimed at developing and improving methods that will help to increase the efficiency of the refactoring process using these models. Methodology. To solve the above problems, it is proposed to implement a set of methods that can be used both separately and in synergy to optimize the final result. These methods, carefully developed in the context of modern software engineering paradigms, are aimed at increasing the efficiency of the refactoring process while ensuring that the software functionality is preserved. Their implementation involves a systematic approach to analyzing and modifying the code base, taking into account both technical aspects and the potential impact on the overall system architecture. Findings. A comprehensive analysis of existing language models has been conducted and methods for improving the efficiency of large language models in the context of code refactoring have been developed. The key factors that influence the success of the proposed methods, including the amount of training data and the limitations of the model context, are identified. Originality. An approach to improving the efficiency of large language models in code refactoring that takes into account the specifics of different projects and development stages is developed. Innovative methods for retraining language models and optimizing the use of context are proposed, which expand the capabilities of automated refactoring. Practical value. The results of the study allow to improve the efficiency of code refactoring using large language models.

Science and Transport Progress(1(109))
Voronezh State University of Engineering Technologies (RU), Ukrainian State University of Science and Technologies (UA)
Openalex Percentile: Top 92%
Advanced Data Processing Techniques
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