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Feature Subset Search for Cybersecurity in Industrial Internet of Things Environment Using Coot Optimization Algorithm

The Industrial Internet of Things (IIoT) is the incorporation of industrial processes with smart technology and interconnected devices to improve productivity and efficiency. The need for robust cybersecurity measures is crucial as the IIoT environment becomes vital to critical infrastructure in industries. Cybersecurity in IIoT is paramount to secure against possible threats, which ensures the integrity and resilience of industrial operations. Intrusion detection systems (IDSs) are instrumental in detecting anomalies, unauthorized access, or malicious activities. The incorporation of deep learning (DL) further reinforces the cybersecurity posture of the IIoT network. DL approach excels in analyzing complex and large datasets, which enables the detection of complex cyber threats by learning anomalies and patterns. Industrial processes can operate with heightened security, securing sensitive information, and critical infrastructure, and maintaining the reliability of a connected system in the industrial landscape by combining IIoT cybersecurity with innovative intrusion detection and DL technologies. Therefore, this article proposes an Integration of Coot Optimization Algorithm-based Feature Subset Search with Deep Learning for Cybersecurity (COAFSS-DLCS) technique on IIoT network. The objective is in the effectual recognition and classification of cyberattacks in the IIoT environment. Initially, the COAFSS-DLCS method uses min-max scalar to transform the input dataset into a suitable format. Furthermore, the COAFSS-DLCS employs the COAFSS approach for choosing an optimal feature subset. Additionally, the stacked long short-term memory autoencoder (SLSTM-AE) model is employed for classification. Moreover, the parameters of the SLSTM-AE classifier are fine-tuned using the Arithmetic Optimization Algorithm (AOA) for improved performance. A comprehensive empirical validation of the COAFSS-DLCS approach is performed under the UNSW_NB15 and UCI_SECOM datasets. The simulation outputs inferred the power of the COAFSS-DLCS over other methods.

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Adil. O. Y. Mohamed mail -
Yousef Asiri mail -
Manahill I. A. Anja mail -
Bandar M. Alghamdi mail -
Abdelgalal O. I. Abaker mail -
Mnahil M. Bashier mail
link https://doi.org/10.54216/JCIM.170205

Volume & Issue

Vol. Volume 17 / Iss. Issue 2

Details open_in_new

Nature-Inspired Learning Framework for Cyberattack Classification in IoT Networks

Due to the massive data and communication progress, the usage of Internet of Things (IoT) devices has developed significantly. The extensive use of IoT systems heightens the complex interactions among devices and increases the data traffic, generating numerous possibilities for cyber challengers. Therefore, identifying and alleviating cyber-attacks focusing on IoT systems has appeared as an essential obligation in the context of cybersecurity. Academics and enterprises are contemplating means of machine learning (ML) and deep learning (DL) for cyberattack prevention because ML and DL exhibit great potential in numerous domains. Various DL teachings are executed to extract several patterns from multiple annotated datasets. DL is a beneficial tool for identifying cyberattacks. Timely network data detection and segregation become more fundamental than alleviating cyberattacks. Therefore, this paper proposes a novel Brown Bear Optimization method with an Ensemble of Machine Learning-based Cyber Attack Detections (BBOA-EMLCADs) method for secure IoT environment. The main aim of the BBOA-EMLCAD method relies on the automatic classification of the cyber threats in the IoT environment. Initially, the brown bear optimization (BBO) method is utilized for feature selection (FS). Moreover, an ensemble of two ML approaches namely XGBoost and least square support vector machine (LSSVM) are employed for the automatic identification of the cyber-attacks. Lastly, the salp swarm algorithms (SSAs) is implemented for the optimal hyperparameter tuning of the two ML techniques. The simulation validation of the BBOA-EMLCAD approach is performed under the WSN-DS dataset. The comparison assessment of the BBOA-EMLCAD approach portrayed a superior accuracy value of 99.62% over existing models.

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Ishwarya K. mail -
Saraswathı S. mail
link https://doi.org/10.54216/JCIM.170206

Volume & Issue

Vol. Volume 17 / Iss. Issue 2

Details open_in_new

Optimizing VANET Clustering Algorithms for 3D Urban Environments: Impact of Traffic Congestion and Driver Behavior on Network Performance

Vehicular Ad-hoc Networks (VANETs) play a crucial role in intelligent transportation systems, facilitating communication between vehicles and infrastructure in urban environments. Clustering algorithms are essential for managing network topology and enhancing communication efficiency in VANETs. The complex nature of three-dimensional (3D) urban environments, coupled with varying traffic conditions and driver behaviors, presents significant challenges for VANET clustering algorithms. Understanding these interactions is vital for developing robust and efficient VANETs. This study investigates how vehicle generation patterns, driving dynamics, and 3D road geometries influence the performance of VANET clustering algorithms in urban settings, focusing on network connectivity and stability. A comprehensive simulation framework was developed, incorporating a Traffic Generator model, a Mobility Model, and a Model of Road Curvature. The methodology evaluated clustering algorithm performance across three traffic congestion levels (low, medium, high) and three driver aggression levels for each congestion scenario. Data analysis, correlation studies, and sensitivity analysis were conducted to assess the impact of these factors on clustering efficiency. The study revealed significant correlations between traffic congestion levels, driver aggression, and clustering performance. Higher congestion levels led to more frequent cluster reconfigurations, while increased driver aggression affected the predictability of vehicle movements, affecting cluster stability. The 3D nature of urban environments introduced additional challenges, particularly in areas with elevation changes. The findings underscore the need for adaptive clustering algorithms capable of responding to dynamic urban traffic conditions. The research provides valuable insights for optimizing VANET clustering strategies in 3D urban environments, contributing to the development of more efficient and reliable vehicular communication networks for future smart cities.

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Ahmed Salih Al-Obaidi mail -
Ghaith J. Mohammed mail -
Waleed Khalid Alzubaidi mail
link https://doi.org/10.54216/JCIM.170207

Volume & Issue

Vol. Volume 17 / Iss. Issue 2

Details open_in_new

Feature Selection Techniques in Intrusion Detection Systems: A Review

Intrusion detection has garnered significant attention as researchers strive to develop sophisticated models characterized by their high accuracy levels. However, the persistent challenge lies in creating reliable and effective intrusion detection systems capable of managing vast datasets under dynamic, real-time conditions. The effectiveness of such systems largely depends on the chosen detection methodologies, specifically the feature selection processes and the application of machine learning techniques. This paper offers a comprehensive review of feature selection methods employed in the realm of intrusion detection research. It examines various dimensionality reduction strategies, followed by a systematic classification of feature selection techniques to assess their impact on the training phase and subsequent detection efficacy. The focus was on the wrapper, filter feature selection methods, where the methods used were analysed, and their strengths and weaknesses were revealed. The identification and selection of the most pertinent features have been shown to significantly enhance the detection performance, not only in terms of accuracy but also in reducing computational demands, underscoring its critical importance in the architecture of intrusion detection systems.

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Ahmad Salim mail -
Obaid Salim mail -
Omar Muthanna Khudhur mail -
Shokhan M. Al-Barzinji mail -
Farah Maath Jasem mail
link https://doi.org/10.54216/JCIM.170208

Volume & Issue

Vol. Volume 17 / Iss. Issue 2

Details open_in_new

Advancing Cybersecurity in IoT: A Data-Driven Approach to Discovering Unknown Botnet Attacks

Over the years, exciting new technologies such as the Internet of Things (IoT) have changed many aspects of our lives, including smart homes. Unfortunately, this technology is vulnerable to cyber attacks owing to the lack of physical boundaries to ensure safety, privacy, and security. Botnet attacks are among the prominent cybersecurity threats because they can compromise the entire network with cyber attacks, such as distributed denial-of-service (DDoS) attacks. Hence, the intelligent discovery of new unknown botnet attacks remains a challenge, particularly in IoT environments, owing to the complex nature of the signatures of unknown botnet attacks. Through a systematic literature review, we provide a comprehensive review of current studies to determine the trends and challenges in the discovery of unknown botnet attacks. This study implemented a lightweight intelligent data-driven methodology called CySecML to discover unknown botnet attacks. The CySecML methodology differs from existing methods because of its unique data preparation and feature selection methods, specifically aimed at mitigating cyber attacks. The effectiveness of this methodology is demonstrated using state-of-the-art botnet attack data sets, where the self-training machine-learning algorithm achieved the best results with an F1-score of 94%.

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Innocent Mbona mail -
Jan H. P. Eloff mail
link https://doi.org/10.54216/JCIM.170209

Volume & Issue

Vol. Volume 17 / Iss. Issue 2

Details open_in_new

Assessing Quality Attributes of Microservices in Hadoop and Spark Clusters: A Performance Benchmarking Approach in Dockerized and Non-Dockerized Architectures

The rapid expansion of big data has accelerated the adoption of distributed computing frame- works such as Apache Hadoop and Apache Spark, enabling efficient large-scale data processing. While Spark’s in-memory computation model significantly enhances performance compared to Hadoop’s traditional MapReduce, the deployment architecture—whether Dockerized or non- Dockerized—plays a crucial role in affecting performance, scalability, and resource management. This study evaluates the impact of containerized and non-containerized multi-node cluster architectures on the performance of Hadoop and Spark, utilizing standardized workloads such as WordCount and TeraSort. Key performance metrics, including execution time, throughput, and resource utilization, are analyzed across various configurations with parameter tuning. Beyond pure performance benchmarking, the study also assesses the quality attributes of microservices in big data environments, focusing on scalability, maintainability, fault tolerance, and resource efficiency. The comparative analysis between monolithic and microservice-based architectures highlights the advantages of modularity and independent scaling inherent to microservices. Experimental findings indicate that Spark outperforms Hadoop on small to medium-scale workloads, while Hadoop exhibits superior robustness for processing extremely large datasets. Dockerized deployments offer better resource isolation and management flexibility, whereas non-Dockerized setups demonstrate reduced overhead under certain configurations. These insights contribute to optimizing deployment strategies and architectural decisions for microservices-based big data processing frameworks.

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Saad Hussein Abed Hamed mail -
Mondher Frikha mail -
Heni Bouhamed mail
link https://doi.org/10.54216/JISIoT.180216

Volume & Issue

Vol. Volume 18 / Iss. Issue 2

Details open_in_new

Extended EWMA Scheme for Enhanced Maxwell Process Monitoring: An Application to the Industrial Sector

The neutrosophic framework offers a promising direction for modeling data affected by uncertainty. Many quality characteristics in the production industry follow the asymmetric structure of the Maxwell distribution. The neutrosophic VSQ chart serves as a novel tool for monitoring parameters of the neutrosophic Maxwell distribution. However, the existing structure of the neutrosophic VSQ chart, based on the basic Shewhart model, is generally unable to detect small shifts in the production process. In this study, a new control chart designed following the structure of the EWMA chart is developed to efficiently monitor Maxwell-distributed neutrosophic data. The run length properties of the proposed scheme are studied, and Monte Carlo simulations are performed to investigate its statistical characteristics. Numerical results indicate that the proposed chart is effective in detecting small shifts in the process. The practical utility of the proposed chart is demonstrated through a real-world industrial dataset affected by uncertainty.

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Fuad S. Alduais mail
link https://doi.org/10.54216/IJNS.270215

Volume & Issue

Vol. Volume 27 / Iss. Issue 2

Details open_in_new

Exploring the Relationship between Social Network Structures and Emotional Contagion using NLP and Network Science

Natural Language Processing (NLP) and Network Science were combined to study emotional contagion dynamics in social media networks. We simulated the diffusion of emotions through users on a synthetic interaction network using sentiment-labeled Twitter data and a graph-based model. We explored the relationship between graph metrics, including centrality and clustering coefficient, on emotion propagation and stability. The findings show that emotion intensity converges through the network and that both weak coupling of central nodes and moderate cluster structures dampen the spread of emotion. A community-level analysis reveals more alternative results, such as the fact that emotions differ in polarity between communities. Our work demonstrates a better understanding of how emotional behavior in online environments can be adjusted using semantic measures, which offer a means to characterize the relevance of information online and the interconnected relationships among emotionality.

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Prapti Pandey mail -
Vivek Shukla mail -
Rohit Miri mail -
Praveen Chouksey mail -
Parul Dubey mail -
Rohit Raja mail
link https://doi.org/10.54216/JISIoT.180217

Volume & Issue

Vol. Volume 18 / Iss. Issue 2

Details open_in_new

A Two-Stage Hybrid AI Framework for Robust and Real-Time Driver Drowsiness Detection

Driver drowsiness detection is an important aspect of intelligent transportation systems that aim to reduce fatigue-related accidents. The existing schemes based on threshold-based method, or deep-learning based models often found to be associated with issues in terms of flexibility, computational efficiency, or capacity for real-time performance. This paper presents a development of two-stage hybrid framework for driver drowsy detection, where the first stage utilizes a fuzzy-logic based approach applied to physiological measures, facial feature, head position, blink duration, and eye movements to produce lightweight and adaptive analyses of sleepiness in drivers. The second stage consists of a hybrid quantum-classical neural network (HQCNN), in which convolutional neural networks (CNN) extract spatial features whereas quantum fully connected (QFC) components apply entanglement-based transformations to improve both feature characterization and classification accuracy. The experimental result validates effectiveness of the proposed hybrid method with 94% accuracy, and better than traditional CNNs with real-time capability. The proposed framework is developed to achieve a balance between computational efficiency and classification/decision quality thereby making it suitable for driver monitoring in real-time application.

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Gowrishankar Shiva Shankara Chari mail -
Jyothi Arcot Prashant mail
link https://doi.org/10.54216/JISIoT.180218

Volume & Issue

Vol. Volume 18 / Iss. Issue 2

Details open_in_new

Enhancing Osteoporosis Detection with Hybrid Fuzzy Logic Preprocessed Convolutional Neural Networks

  This paper applies deep learning techniques in classifying X-ray images to detect osteoporosis. Osteoporosis, a bone weakness condition, increases the risk of fractures; therefore, accurate early diagnosis is essential in management. We have designed a hybrid method called Fuzzy Logic Preprocessed Convolutional Neural Network, or FLPCNN, wherein fuzzy logic is used at the preprocessing step to handle uncertainty and imprecision of features extracted from X-ray images. This paper used a dataset of X-ray images, and the FLPCNN model was applied, classifying them into osteoporotic and non-osteoporotic with quite an accuracy of 100%. Fuzzy logic preprocessing combined with Convolutional Neural Networks (CNN) enhances the model’s classification accuracy and interpretable decisions. The proposed method would be a new way to cut down diagnostic errors and improve patient outcomes, opening ways for further research into deep learning techniques applied in healthcare.

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Murtadha M. Hamad mail -
Murtadha M. Hamad mail -
Azmi Tawfeq Hussein Alrawi mail
link https://doi.org/10.54216/FPA.210201

Volume & Issue

Vol. Volume 21 / Iss. Issue 2

Details open_in_new