https://maiojet.com/index.php/matrix/issue/feedMATRIX Academic International Online Journal Of Engineering And Technology2026-03-11T05:18:46+00:00Matrix Academic International Online Journal Of Engineering[email protected]Open Journal Systems<p>MATRIX Academic International Online Journal of Engineering and Technology (MAIOJET) is an international journal which is published in electronic form two times a year. MAIOJET is a peer reviewed technical journal which publishes original research contributions and reviews in the field of engineering and technology. It is an unparalleled resource for key advances in the field of Engineering, Science and Technology.Research articles submitted to MAIOJET should be original in nature, and should neither have been published in any journal or conference proceedings nor be undergoing any such process of publication across the globe. All the submissions will be peer-reviewed by a panel of experts in the particular field.</p>https://maiojet.com/index.php/matrix/article/view/98Machine Learning–Based Recommendation Systems for E-Commerce Platforms: A Comprehensive Review2026-03-11T05:16:54+00:00Shukhrat Makhmudov[email protected]<p>Abstract. Recommendation systems have become a key component of<br>modern e-commerce platforms. Machine learning techniques enable intelligent<br>product suggestions based on user behavior and purchase history.<br>This paper presents a comprehensive review of machine learning–based<br>recommendation systems used in e-commerce platforms. The study explores<br>collaborative filtering, content-based filtering, hybrid models, and<br>deep learning approaches. Furthermore, the paper analyzes evaluation<br>metrics, system architectures, and challenges such as data sparsity and<br>cold-start problems. The review highlights that machine learning models<br>significantly improve recommendation accuracy, user engagement, and<br>online sales performance.</p>2025-10-10T00:00:00+00:00Copyright (c) 2025 https://maiojet.com/index.php/matrix/article/view/99IoT-Based Intelligent Logistics Systems in Smart Cities: A Review of Architectures, Optimization Techniques, and Applications2026-03-11T05:17:23+00:00Ibrokhimkhuja Rikhsikhujaev[email protected]<p>Abstract. The rapid growth of urban populations and the expansion<br>of e-commerce have significantly increased the complexity of logistics<br>operations in modern cities. Smart city initiatives increasingly rely on<br>Internet of Things (IoT) technologies to develop intelligent logistics systems<br>capable of improving delivery efficiency, reducing congestion, and<br>minimizing environmental impact. This paper presents a comprehensive<br>review of IoT-based intelligent logistics systems within smart cities. The<br>study examines key architectural frameworks, communication technologies,<br>optimization techniques, and practical applications in urban logistics.<br>Furthermore, the paper explores recent developments in artificial<br>intelligence, data analytics, and vehicular communication technologies<br>that enable real-time decision-making in logistics networks. The analysis<br>highlights the integration of IoT, AI, and autonomous systems for<br>improving route optimization, fleet management, and last-mile delivery<br>operations. Finally, research challenges and future directions for intelligent<br>logistics systems in smart cities are discussed.</p>2025-10-10T00:00:00+00:00Copyright (c) 2025 https://maiojet.com/index.php/matrix/article/view/100The Role of AI in Bridging Genomic Research and Clinical Diagnostic Models: A Comprehensive Review2026-03-11T05:18:27+00:00Mahwish Athar[email protected]<p>Abstract. Genomic research and clinical diagnostics will quickly be<br>reinvented around Artificial Intelligence (AI) to perform scalable and detailed<br>analysis of complex biological data and enhance the interpretability<br>of the clinically relevant variation in genomics. The increasing accessibility<br>of next-generation sequencing, whole-exome sequencing, electronic<br>health records, medical imaging and other multi-omics modalities<br>has opened a space in which computational systems capable of linking<br>molecular knowledge with real-world diagnostic processes can be created.<br>This review will discuss the utilisation of AI techniques (such as machine<br>learning, deep learning, generative AI, and multi-modal intelligence) to<br>assist variant calling, functional annotation, phenotype -genotype mapping,<br>disease risk prediction, biomarker discovery, and precision medicine.<br>The article integrates evidence on the topic of genomic diagnostics, AIbased<br>sequencing interpretation, and clinical decision support, considering<br>translational readiness, implementation limitation, and ethical issues.<br>The genomic discovery through the diagnostic deployment bridges by AI<br>are elaborated through a conceptual architecture and a tabular literature<br>review to explain the key avenues of interaction. The review concludes<br>that AI is not an ancillary analytic tool, and is core-central a translational<br>process of transforming genomic knowledge into clinical action and<br>patient-centred clinical models.</p>2025-10-10T00:00:00+00:00Copyright (c) 2025 https://maiojet.com/index.php/matrix/article/view/101An Explainable Hybrid Ensemble-Based Analytical Framework for Interpretable and Early Prediction of Coronary Artery Disease2026-03-11T05:18:46+00:00Sachin Upadhyay[email protected]Anil Kumar Sagar[email protected]Nihar Ranjan Roy[email protected]<p>Abstract. Coronary Artery Disease (CAD) is among the leading causes<br>of mortality worldwide. Early detection systems are essential for improving<br>preventive cardiology and reducing cardiovascular risk. This research<br>proposes an explainable hybrid ensemble-based analytical framework designed<br>for early and interpretable CAD prediction.<br>The proposed system integrates heterogeneous machine learning classifiers<br>including Logistic Regression, Random Forest, Gradient Boosting,<br>and Support Vector Machines through a stacking-based ensemble approach.<br>An explainability layer based on feature attribution techniques<br>is incorporated to provide both global and instance-level interpretation<br>of predictions.<br>Experimental analysis demonstrates that the proposed framework achieves<br>improved predictive accuracy and sensitivity compared with traditional<br>statistical models and standalone machine learning algorithms. Explainability<br>results highlight clinically significant risk factors such as age,<br>cholesterol levels, blood pressure, smoking status, and glucose levels. The<br>framework supports physician-assisted decision-making rather than automated<br>diagnosis, enabling responsible AI adoption in healthcare.</p>2025-10-10T00:00:00+00:00Copyright (c) 2025