Volume 1, Issue 2, (Jul-Sep) MSIJAT-2025

Cross-Domain Behavioral Pattern Analysis in RealWorld Intelligent Systems Using Heterogeneous TimeSeries Datasets

Raafat Talib Hashim, Karaj, Department of Computer Technical Engineering, Imam Al-Kadhum College – Baghdad,
Dhi Qar, Iraq.

MSI Journal of AI and Technology | https://zenodo.org/records/23041632 | Page 01 to 22

Abstract

In real life intelligence systems, there is a steady flow of various and dynamic time-series data that describe the observed behavior over time. Although predictive or learning-based approaches are frequently employed for the analysis of such data, relatively little work has focused on descriptive behavioral analysis across domains with fundamentally different temporal semantics. We show in this study a cross-domain analysis of the behavior pattern of real-world intelligent systems from heterogeneous time series dataset coming from different operational fields.

We consider two publicly available datasets of distinct intelligent systems and temporal structures. One of the datasets represents behavior in terms of explicit timestamps, while the other captures behavioral development with an implicit sequence order. Instead of imposing artificial time alignment, using machine-learning based models or approaches for some other kind of extraneous information extraction within some complex pipeline, the analysis is purely descriptive in nature and has its roots in static temporal semantics.

For each dataset, independent non-overlapping temporal windows are constructed and interpretable window-level features are extracted to capture the magnitude, variability, directional trends, temporal texture, as well as cross-signal coherence of behavior. The learned behavioral descriptions show that a number of structural patterns hold in different domains even while data collection, temporal encoding and system contexts vary. These common patterns are described at the interpretative level (i.e., no use is made of prediction, anomaly detection or statistical significance), thus enhancing the importance on explainability to deal with heterogeneous scenarios. By showing that cross domain-behavioral regularities can be detected in a fixed time semantics, this work provides a clear analytic framework for modeling real world intelligent agents and emphasizes the role of descriptive methods as an alternative complement to model driven approaches.

Keywords: Cross-Domain Behavioral Analysis; Heterogeneous Time-Series Data; Descriptive Temporal Analysis; Temporal Feature Extraction; Explainable Behavioral Patterns.

          All articles published by MSIP are made immediately available worldwide under an open access license. No special permission is required to reuse all or part of any MSIP article, including figures and tables.

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Revolutionizing Software Intelligence: A Convergent Framework of Neural Program Synthesis, Quantum-Secure DevOps, and Explainable AI for Next-Generation Autonomous Systems

Mohammad Hossein Alikhani, Karaj, Alborz Province 3146713541, Iran.

MSI Journal of AI and Technology | https://zenodo.org/records/17059973 | Page 01 to 30

Abstract

The escalating complexity and widespread deployment of autonomous systems, ranging from advanced industrial robotics to intelligent urban infrastructure, necessitate a paradigm shift in software engineering. These systems demand not only high adaptability but also rigorous security and transparent decision-making. This paper proposes a unified Software Intelligence Framework that seamlessly integrates Neural Program Synthesis (NPS), Quantum-Secure DevOps (QSD), and Explainable AI (XAI) to meet these multifaceted demands. The framework leverages advancements in NPS for AI-driven code generation, QSD for fortifying software lifecycles against emerging quantum threats, and XAI for ensuring interpretable and trustworthy decision- making in critical autonomous operations. We present a comprehensive literature review of the state-of-the-art in each domain, detailing their respective challenges and synergistic potential. The proposed architecture unifies these components into a continuous pipeline for specification-to-code generation, secure deployment, and runtime adaptation. A hypothetical smart city infrastructure scenario illustrates the practical application and benefits of this convergent framework, demonstrating its capacity for rapid code adaptation, post-quantum security, and human-understandable explanations of autonomous behavior. We further discuss the technical challenges inherent in such integration, along with robust evaluation strategies and the profound ethical, operational, and security implications of deploying AI-generated, quantum-secure systems in sensitive contexts. This work lays the foundation for a new multidisciplinary field essential for developing adaptable, robust, and trustworthy autonomous systems.

Keywords: Neural Program Synthesis, Quantum-Secure DevOps, Explainable AI, Autonomous Systems, Software Intelligence, Cybersecurity, Ethical AI.

          All articles published by MSIP are made immediately available worldwide under an open access license. No special permission is required to reuse all or part of any MSIP article, including figures and tables.

          For articles published under a Creative Commons CC BY 4.0 license, any part of the article may be reused for any purpose, including commercial use, provided that the original MSIP article is clearly cited.