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Nonlinear Science and Intelligent Applications
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Nonlinear Science and Intelligent Applications (NSIA)
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ISSN (print): 3105-7837
ISSN (online): 3105-7829
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2025: Vol. 1
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Nonlinear Science and Intelligent Applications (NSIA) focuses on advancing research at the intersection of nonlinear dynamics and intelligent systems. The journal covers a broad spectrum of topics, including chaos theory, fractals, complex networks, and their integration with artificial intelligence, machine learning, and computational intelligence. Emphasizing both theoretical insights and practical applications, NSIA encourages cross-disciplinary contributions from mathematics, engineering, physics, and biomedical sciences. Published quarterly by Acadlore, NSIA releases four issues annually in March, June, September, and December.

  • Professional Service - Every article submitted undergoes an intensive yet swift peer review and editing process, adhering to the highest publication standards.

  • Prompt Publication - Thanks to our expertise in orchestrating the peer-review, editing, and production processes, all accepted articles are published rapidly.

  • Open Access - Every published article is instantly accessible to a global readership, allowing for uninhibited sharing across various platforms at any time.

Editor(s)-in-chief(1)
akif akgul
Department of Computer Engineering, Hitit University, Turkey
akifakgul@hitit.edu.tr | website
Research interests: Random Number Generators; Cryptology; Data Hiding; Blockchain; IoRT; Chaos-based Engineering Applications

Aims & Scope

Aims

Nonlinear Science and Intelligent Applications (NSIA) aims to provide an international platform for disseminating high-quality research in nonlinear dynamics, chaos theory, fractal systems, and complex networks, with a particular focus on their integration with artificial intelligence, machine learning, and computational intelligence. It aims to bridge theoretical developments with practical applications and encourages multidisciplinary approaches spanning mathematics, computer science, engineering, physics, electronics, and biomedical sciences.

NSIA promotes rigorous theoretical exploration alongside computational and experimental studies that link nonlinear dynamics with intelligent functions. It seeks to highlight research that transcends traditional disciplinary borders and contributes to a deeper understanding of complex system behavior under nonlinearity. The journal welcomes full-length research articles, concise communications, comprehensive reviews, and well-scoped Special Issues.

NSIA is particularly attentive to reproducibility, methodological transparency, and systems-level insights. It supports open-ended contributions that document novel models, simulations, control strategies, or intelligent mechanisms rooted in nonlinear principles. All accepted papers benefit from high discoverability and editorial guidance supported by a diverse and distinguished international board.

Furthermore, NSIA highlights the following features:

  • Every publication benefits from prominent indexing, ensuring widespread recognition.

  • A distinguished editorial team upholds unparalleled quality and broad appeal.

  • Seamless online discoverability of each article maximizes its global reach.

  • An author-centric and transparent publication process enhances the submission experience.

Scope

NSIA publishes original research articles, reviews, and short communications that cover both the theoretical foundations and practical implementations of nonlinear science and intelligent technologies. The journal welcomes contributions in, but not limited to, the following areas:

  • Nonlinear Dynamics and Chaos Theory: Bifurcation analysis, stability analysis, chaotic oscillators, chaos synchronization, strange attractors.

  • Fractals and Complex Systems: Fractal geometry, multifractal analysis, complex networks, self-organizing systems, emergent behavior.

  • Chaos-Based Applications: Chaos-based cryptography, random number generation, secure communication systems, image and signal encryption.

  • Computational Intelligence and Machine Learning: Chaos-inspired algorithms, evolutionary computation, metaheuristic optimization, hybrid artificial intelligence models.

  • Nonlinear Control and Optimization: Adaptive control, chaos control strategies, nonlinear system optimization, control of engineering and industrial processes.

  • Electronics and Circuits: Chaotic circuits, FPGA/ASIC implementations of nonlinear systems, nonlinear electronic devices and sensors.

  • Signal and Image Processing: Nonlinear filtering techniques, biomedical signal analysis (EEG, ECG, EMG), pattern recognition in nonlinear domains.

  • Biomedical and Health Applications: Nonlinear modeling in physiology, intelligent diagnostic systems, chaos theory in medical imaging and bioinformatics.

  • Engineering and Industrial Systems: Nonlinear modeling and control in robotics, Internet of Things (IoT), cyber-physical systems, smart grids, and renewable energy systems.

    Emerging Technologies: Quantum chaos, nonlinear models in big data analytics, intelligent simulations and forecasting of emerging technologies

    NSIA distinguishes itself by bridging the rigor of nonlinear science with the adaptability of intelligent systems. It encourages forward-thinking research that challenges assumptions, redefines complexity, and opens new frontiers for intelligent technologies shaped by nonlinear phenomena.

Articles
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Abstract

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Accurate identification of node intrusion behavior in computer networks remains challenging due to the highly dynamic and complex nature of modern network environments, where benign activities are frequently misclassified as malicious events. To address the degradation in detection reliability resulting from such misjudgments, an intrusion identification framework based on an enhanced Recursive Residual Network (RRN) was developed. A statistical classification paradigm was incorporated to process the heterogeneous characteristics of network node intrusion data, enabling a more robust separation of normal and anomalous activity patterns. Features associated with abnormal nodes were extracted, and the range of intrusion-related behavioral deviations was optimized iteratively through an error-minimization function, allowing the model to adapt effectively to fluctuations in network states. A recursive structure derived from Recurrent Neural Network (RNN) principles was subsequently embedded within the residual regression architecture, through which node credit values were continuously iterated and updated to refine the distinction between legitimate behavior and genuine intrusion attempts, enhancing the stability of intrusion identification. In the final stage, a potential loss metric was computed to quantify the expected impact of detected anomalous behaviors on network assets, thereby enabling abnormal behaviors to be classified rigorously as intrusion events when their estimated loss exceeds a critical threshold. Experimental results demonstrate that the proposed method achieves high sensitivity, maintains a stable attack-type identification rate throughout the evaluation period, and reduces the trust value of compromised nodes below 0.15 within 75 seconds, indicating strong effectiveness in distinguishing authentic intrusion behaviors from normal variations. The overall findings suggest that the enhanced RRN offers a resilient and adaptive mechanism for intrusion behavior identification under conditions of complex network dynamics.
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