Published Online: 30 September 2026.
J. Smart Sens. Comput., 2026, 2(3), 26215 | Volume 2 Issue 3 (September 2026) | DOI: https://doi.org/10.64189/ssc.26215
© The Author(s) 2026
This article is licensed under Creative Commons Attribution NonCommercial 4.0 International (CC-BY-NC 4.0)
AI-Enabled Security, Safety, Smart Infrastructure and
Laboratory Automation
Thittaporn Ganokratanaa
*
Department of Mathematics, Faculty of Science, King Mongkut's University of Technology, Bangkok, 10140, Thailand
*Email: eic.ssc@gr-journals.com (Thittaporn Ganokratanaa)
The Journal of Smart Sensors and Computing, Volume 2, Issue 3 (September 2026) presents four scholarly
contributions addressing emerging challenges in smart sensing and intelligent computing. The issue brings
together research spanning Edge AI and federated learning for smart-city engineering, multimodal biometric
authentication, intelligent indoor air-quality and safety management, and AI-enhanced approach to
hydrochloric acid detection. Together, these contributions demonstrate how intelligent computational
techniques can be integrated with sensing, embedded systems, and data-driven analysis to develop efficient
and practical solutions across different application domains.
Mariam Labib Francies presents a cross-domain review of Edge AI and federated learning in smart city
engineering, examining their applications across transportation, environmental systems, and building
infrastructure. The review synthesizes literature published between 2021 and early 2026 and develops a
unified perspective based on computation locality and learning paradigms. It proposes a taxonomy covering
cloud, fog, edge, and on-device computing alongside centralized, federated, and hybrid learning approaches.
The review further presents a five-layer reference architecture and identifies important deployment challenges,
including non-IID urban data, communication efficiency, model drift, privacy, fairness, and explainability. The
study highlights the growing importance of distributed and privacy-conscious intelligence for next-generation
smart-city systems.
[1]
Ahmed Salman Ibraheem investigates multimodal biometric authentication using
fingerprint and finger vein recognition through a framework based on frozen pre-trained convolutional neural
network backbones and lightweight classifiers. The proposed approach combines features extracted using
VGG16, ResNet50, and EfficientNet-B0 without fine-tuning the convolutional backbones. Principal Component
Analysis is subsequently employed for dimensionality reduction, while Random Forest and K-Nearest
Neighbour classifiers are used for biometric recognition. The multimodal framework achieves 98.88% overall
accuracy with an equal error rate of 0.03%, while requiring approximately 156.2 ms per authentication request
on CPU-based hardware. The work demonstrates the potential of combining complementary biometric
modalities with computationally efficient feature-extraction strategies for resource-constrained authentication
environments.
[2]
Khan et al. introduce a hybrid edge-AI framework for proactive indoor air quality management, integrating
environmental sensing, LSTM-based prediction, vision-assisted monitoring, offline voice intelligence, and active
hazard mitigation within an embedded architecture. The system employs an on-device LSTM model for air-
quality forecasting and incorporates multiple sensors together with visual verification to distinguish potential
fire events from non-hazardous conditions. The reported experimental evaluation achieved a MAPE of 5.8% for
IAQ prediction, with an inference latency of 32 ms, while the hardware safety mechanism demonstrated an 87
ms response for relay deactivation and intervention. The study illustrates how Edge AI can combine predictive
environmental monitoring with real-time safety-oriented control in smart residential systems.
[3]
Shanti
Vunguturi explores the application of artificial intelligence to classical analytical chemistry through an AI-
enhanced approach to hydrochloric acid detection. The study integrates automated data acquisition,
preprocessing, curve fitting, regression, and anomaly detection to improve the identification of equivalence
points during potentiometric titration. Using standard sodium hydroxide titrants, the proposed Python-based
framework is designed to reduce subjectivity in manual endpoint determination while providing visualization
and real-time analytical feedback. The work demonstrates how AI and computational automation can extend
the capabilities of established laboratory techniques and support more reproducible analytical workflows.
[4]
In conclusion, Volume 2, Issue 3 reflects the increasingly interdisciplinary nature of smart sensing and
intelligent computing research. From distributed intelligence in smart cities and multimodal biometric security
to Edge-AI-enabled environmental safety and automated chemical analysis, the contributions demonstrate
diverse ways in which computational intelligence can be integrated with sensing and real-world systems.