Published Online: 30 September 2026.
J. Inf. Commun. Technol. Algorithms, Syst. Appl., 2026, 2(3), 26319 | Volume 2 Issue 3 (September 2026) | DOI: https://doi.org/10.64189/ict.26319
© The Author(s) 2026
This article is licensed under Creative Commons Attribution NonCommercial 4.0 International (CC-BY-NC 4.0)
Advancing ICT Frontiers through Artificial
Intelligence, Intelligent Systems, and Cybersecurity
Eva Tuba
*
Department of Computer Science, Trinity University, Texas, 78212, USA
*Email: eic.ictasa@gr-journals.com (Eva Tuba)
It is our pleasure to present Volume 2, Issue 3 (September 2026) of the Journal of Information and
Communications Technology: Algorithms, Systems and Applications. This issue brings together eight scholarly
contributions that reflect the rapidly evolving landscape of information and communications technology, with
particular emphasis on artificial intelligence, intelligent computing, cybersecurity, wireless communication,
digital transformation, and computational methods. The continued convergence of artificial intelligence with
communication networks, cybersecurity, financial systems, industrial infrastructure, and environmental
sustainability is creating new opportunities while simultaneously introducing complex technical and societal
challenges. The contributions in this issue address several of these emerging challenges through theoretical
investigations, computational approaches, methodological frameworks, and applied research.
Oni et al. reported a systematic assessment of AI-driven approaches to industrial control system cybersecurity,
analyzing 147 studies published between 2018 and 2024. It highlights the strong performance of graph-based
and hybrid methods while identifying persistent challenges in benchmarking, adversarial robustness, safety–
security integration, and real-world validation, and proposes future directions including safe reinforcement
learning, federated learning, explainable GNNs, and digital twins. Overall, the synthesis suggests that graph-
based and hybrid methods yield the best detection accuracy (reported from 92% to 99.5% with less than 3%
false-positive rates), whereas classical methods still seem to be the most suitable for resource-constrained
applications.
[1]
Shaikh et al. present Finistral-7B-LoRA, a parameter-efficient financial sentiment classifier
developed by applying Low-Rank Adaptation (LoRA) to the 7-billion-parameter Mistral-7B-v0.1 model,
updating only 0.58% (≈41.9 million) of its parameters. Following rigorous decontamination, the model achieves
98.9% accuracy on the Financial Phrase Bank, 87.7% accuracy (0.883 F1) on FiQA-SA, and 78.9% accuracy
(0.796 F1) on Twitter Financial News Sentiment, while identifying a substantial 75.2% training–test overlap,
highlighting the importance of contamination-aware, rigorous, and reproducible benchmarking in financial
NLP.
[2]
Ar-Reyouchi et al. proposes Delay-Aware Reinforcement Coding (DARC), a Markov decision process-
based reinforcement learning controller that jointly optimizes relaying strategy, random linear network coding
parameters, and packet redundancy across 81 network contexts and 12 control actions. Evaluated over 120,000
transitions and 10 independent learning seeds, DARC achieves a normalized cost of 0.3364, outperforming
store-and-forward by 2.2% and remaining within 0.29% of the exact MDP oracle, demonstrating its potential
for adaptive optimization of latency, reliability, coding overhead, and goodput in multi-hop wireless networks.
[3]
Iqbal et al. proposes an integrated digital twin-based predictive maintenance (PdM) framework for complex
industrial machinery, particularly wind turbines, combining IoT-enabled real-time monitoring, failure
prediction, proactive maintenance scheduling, and blockchain-based secure data sharing. As a conceptual and
theoretical framework, the study highlights the potential of digital twins to reduce downtime and maintenance
costs and support more reliable Industry 4.0 operations, while noting that the projected benefits require
empirical validation using physical equipment and real-world operational data.
[4]
Nagalpara et al. introduces the AI Environmental Impact Framework (AI-EIF), a mathematically formalized
four-pillar framework addressing energy consumption, carbon emissions, resource depletion, and standardized
environmental measurement. Validated on 3,847 AI-class workloads from the Google Cluster Trace v3 dataset,
AI-EIF-Eval achieves 94.3% measurement accuracy, outperforming existing approaches, while demonstrating
potential reductions of 38.4% in energy consumption, 41.2% in carbon emissions, and 22.7% in water usage,
alongside a 47.3% improvement in the GreenFLOPS Index.
[5]
Ansari et al. addresses the challenge of fragmented
investment decision-making in India by proposing an AI-supported unified investment guidance platform
covering stocks, metals, real estate, mutual funds, and cryptocurrencies. By integrating real-time and historical
data with Random Forest, Long Short-Term Memory (LSTM), sentiment analysis, and AI-based advisory