Frontiers in Emerging Multidisciplinary Sciences

Open Access Peer Review International
Open Access

Bridging the Gap Between Neural Code Generation and Architectural Integrity: A Multi-Dimensional Analysis Of AI-Driven Code Review, Cognitive Complexity, And Automated Refinement Systems

4 Department of Software Engineering, University of British Columbia

Abstract

The rapid proliferation of Large Language Models (LLMs) specialized in code generation has introduced a transformative yet volatile era in software development. While these models facilitate unprecedented productivity, they often produce code that adheres to functional requirements while simultaneously violating architectural best practices, maintainability standards, and security protocols. This research article provides a comprehensive investigation into the current state of automated code review and neural code generation, synthesizing empirical evidence from polyglot benchmarking platforms and specialized evaluation frameworks. By integrating classical metrics, such as cyclomatic and cognitive complexity, with modern deep learning-based review automation like LLaMA-reviewer and ChatGPT-driven refinement, this study explores the efficacy of real-time feedback systems in ensuring secure and maintainable software development. The analysis delves into the theoretical foundations of software experimentation, the limitations of static analysis in detecting latent bugs, and the emerging potential of parameter-efficient fine-tuning for code review automation. The findings suggest that while neural models have made significant strides in polyglot generation, a "semantic gap" remains between functional completion and long-term code health, necessitating a hybrid approach that combines generative intelligence with rigorous architectural constraints and automated refactoring principles.

How to Cite

Dr. Julian Thorne. (2025). Bridging the Gap Between Neural Code Generation and Architectural Integrity: A Multi-Dimensional Analysis Of AI-Driven Code Review, Cognitive Complexity, And Automated Refinement Systems. Frontiers in Emerging Multidisciplinary Sciences, 2(12), 6–9. Retrieved from https://irjernet.com/index.php/fems/article/view/317

References

📄 Albuquerque D., Guimaraes E., Perkusich M., Almeida H., Perkusich A. ConCAD: A tool for interactive detection of code anomalies. Anais do X Workshop de Visualização, Evolução e Manutenção de Software, SBC (2022), pp. 31-35, 10.5753/vem.2022.226597.
📄 Ayewah N., Pugh W., Hovemeyer D., Morgenthaler J.D., Penix J. Using static analysis to find bugs. IEEE Softw, 25 (5) (2008), pp. 22-29, 10.1109/MS.2008.130.
📄 Campbell G. A. Cognitive complexity: A new way of measuring understandability. 2018.
📄 Cassano F., Gouwar J., Nguyen D., Nguyen S., Anderson C. J., Feldman M. Q., Guha A., Greenberg M., and Jangda A. MultiPL-E: A Scalable and Polyglot Approach to Benchmarking Neural Code Generation. IEEE Transactions on Software Engineering, vol. 49, no. 11, pp. 4836–4855, 2023.
📄 Feng J., Liu J., Gao C., Chong C. Y., Wang C., Gao S., and Xia X. Complexcodeeval: A benchmark for evaluating large code models on more complex code. In Proceedings of the 39th IEEE/ACM International Conference on Automated Software Engineering, ASE ’24, p. 1895–1906, ACM, 2024.
📄 Fowler M. Refactoring: Improving the Design of Existing Code. Addison-Wesley Professional, 1999.
📄 Guo Q., Cao J., Xie X., Liu S., Li X., Chen B., et al. Exploring the potential of ChatGPT in automated code refinement: An empirical study (2023), 10.48550/arXiv.2309.08221.
📄 K. S. Hebbar, “AI-Driven Code Review: A Real-Time Feedback System for Secure and Maintainable Software Development,” Journal of Information Systems Engineering and Management, vol. 09, no.04, pp. 1-13, Dec. 2024 https://www.jisem-journal.com/download/135_AI_Driven_Code_Review.pdf
📄 Huang S., Cheng T., Liu J. K., Hao J., Song L., Xu Y., Yang J., Liu J., Zhang C., Chai L., Yuan R., Zhang Z., Fu J., Liu Q., Zhang G., Wang Z., Qi Y., Xu Y., and Chu W. OpenCoder: The open cookbook for top-tier code large language models. 2025.
📄 Lal H., Pahwa G. Code review analysis of software system using machine learning techniques. 2017 11th international conference on intelligent systems and control (2017), pp. 8-13, 10.1109/ISCO.2017.7855962.
📄 Lu J., Yu L., Li X., Yang L., Zuo C. LLaMA-reviewer: Advancing code review automation with large language models through parameter-efficient fine-tuning. 2023 IEEE 34th international symposium on software reliability engineering, IEEE (2023), pp. 647-658, 10.1109/ISSRE59848.2023.00026.
📄 McCabe T. J. A complexity measure. IEEE Transactions on Software Engineering, vol. SE-2, no. 4, pp. 308–320, 1976.
📄 Shi S.-T., Li M., Lo D., Thung F., Huo X. Automatic code review by learning the revision of source code. Proceedings of the AAAI conference on artificial intelligence, vol. 33, no. 01 (2019), pp. 4910-4917, 10.1609/aaai.v33i01.33014910.
📄 Wohlin C., Runeson P., Höst M., Ohlsson M. C., Regnell B., Wesslén A. Experimentation in software engineering. Springer Science & Business Media (2012), 10.1007/978-3-642-29044-2.
📄 15. Zhou X., Kim K., Xu B., Han D., He J., Lo D. Generation-based code review automation: How far are we? (2023), 10.48550/arXiv.2303.07221.