https://theeducationjournals.com/index.php/jaifd/issue/feedJournal of Artificial Intelligence in Fluid Dynamics2026-01-24T07:57:56+03:00Open Journal Systems<p>The <em>Journal of Artificial Intelligence in Fluid Dynamics</em> is a pioneering publication at the intersection of two rapidly evolving fields: artificial intelligence (AI) and fluid dynamics. Fluid dynamics, a branch of physics and engineering, focuses on the study of fluid flow behavior, encompassing phenomena such as turbulence, heat transfer, and multiphase flows. In recent years, the integration of AI techniques has revolutionized the study and application of fluid dynamics, offering novel approaches to modeling, simulation, and optimization.</p> <p>This journal serves as a scholarly platform for researchers and practitioners to explore the synergies between AI and fluid dynamics, driving innovation and pushing the boundaries of what is achievable in the field. Through a combination of theoretical analyses, computational simulations, and experimental studies, contributors to the journal elucidate the role of AI in enhancing our understanding of complex fluid phenomena and improving predictive capabilities.</p> <p>The scope of the journal encompasses a wide range of topics, including computational fluid dynamics (CFD), machine learning, deep learning, neural networks, genetic algorithms, and optimization techniques applied to fluid flow problems. Articles may delve into areas such as flow control, turbulence modeling, aerodynamics, hydrodynamics, combustion, and biofluid mechanics, among others.</p> <p>Researchers in academia, industry, and government agencies find invaluable insights within the pages of this journal, as it offers a platform for sharing groundbreaking research, innovative methodologies, and practical applications. Whether it's developing AI-driven algorithms for turbulence modeling, optimizing flow patterns in engineering systems, or predicting fluid behavior in natural phenomena, the journal showcases the latest advancements and fosters interdisciplinary collaboration.</p> <p>Moreover, the journal addresses broader implications and challenges associated with the integration of AI in fluid dynamics, including algorithmic robustness, data-driven modeling, uncertainty quantification, and ethical considerations. By critically examining these issues, the journal contributes to the responsible and ethical deployment of AI technologies in fluid dynamics research and applications.</p> <p>In summary, the <em>Journal of Artificial Intelligence in Fluid Dynamics</em> is a leading publication that catalyzes innovation at the interface of AI and fluid dynamics, driving progress and pushing the boundaries of scientific knowledge in both fields.</p>https://theeducationjournals.com/index.php/jaifd/article/view/346Global vs Local Template Efficiency Tradeoffs in Large APEX Workspaces2026-01-24T07:54:01+03:00Elias Rookwoodadmin@gmail.com<p>Large-scale Oracle APEX environments often span multiple workspaces with diverse application <br>domains, developer teams, and governance models. In such settings, the decision to adopt global shared <br>templates or local workspace-level template variants directly affects UI consistency, maintenance <br>overhead, and long-term sustainability of the application portfolio. This article examines the structural <br>tradeoffs between global and local template strategies, emphasizing how update propagation, <br>customization flexibility, and design system evolution behave differently in federated enterprise <br>deployments. Findings show that while global templates maximize consistency and streamline <br>modernization, they increase the impact radius of UI changes. Conversely, local templates support <br>domain-specific autonomy but introduce incremental divergence that increases refactoring cost over time. <br>The study concludes that a layered governance model enforcing global structural framing while enabling <br>selective local overrides yields the most balanced operational outcome in large APEX workspaces.</p>2025-12-06T00:00:00+03:00Copyright (c) 2025 https://theeducationjournals.com/index.php/jaifd/article/view/347Index Selectivity Distortion Under Non-Uniform Data Distributions in Oracle DB2026-01-24T07:55:59+03:00Julian Armitage, Evelyn Harcourtadmin@gmail.com<p>Index selectivity plays a central role in Oracle’s cost-based optimization process, yet it becomes highly <br>unreliable when data distributions exhibit Zipfian or power-law characteristics. In such cases, a small <br>number of high-frequency values distort the optimizer’s cardinality estimates, leading to inefficient <br>index range scans, unstable execution plans, and inconsistent query performance. This study examines <br>how selectivity distortion emerges under non-uniform value frequencies, evaluates the limitations of <br>histogram-based statistical modeling, and analyzes the conditions under which adaptive cursor sharing <br>and parameter-sensitivity detection can stabilize plan behavior. The results show that no single tuning <br>feature is sufficient; performance stability requires coordinated alignment between statistics <br>maintenance, workload predictability, and physical data organization. When data lifecycle monitoring <br>and query structure governance are applied consistently, index performance becomes more robust, even <br>in highly skewed enterprise environments.</p>2025-12-19T00:00:00+03:00Copyright (c) 2025 https://theeducationjournals.com/index.php/jaifd/article/view/348Model Degradation Behaviors in Continual Learning Lifecycles2026-01-24T07:57:56+03:00Evan Marshalladmin@gmail.com<p>This article examines the mechanisms and manifestations of model degradation within continual <br>learning lifecycles, focusing on the progression of representational drift and catastrophic forgetting <br>during sequential model updates. A multi-layer analytical methodology was applied to observe how <br>internal neural representations, gradient interference patterns, and parameter importance distributions <br>evolve over time. The results demonstrate that degradation often begins in intermediate semantic layers <br>and can remain undetected at the performance level until later stages. Gradient conflict and task <br>dissimilarity were found to accelerate deterioration, whereas selective memory replay and dynamically <br>timed retraining mitigated these effects. The study concludes that continual learning stability requires <br>adaptive monitoring and intervention strategies to preserve performance integrity in evolving <br>operational environments.</p>2025-12-29T00:00:00+03:00Copyright (c) 2025