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The increasing use of sensors in many products and applications is intended to improve safety. Nowadays, sensors in cars monitoring driver attention and meteorological sensors preventing weather-related safety risks have become almost standard features. In industrial plants, predictive maintenance and medical technology, sensors are essential for monitoring and controlling the safety of processes. Due to advances in GPU efficiency and an increasing amount of data, neural networks are becoming increasingly utilized in sensor applications in critical environments.
This session introduces a novel perspective by addressing the regulatory and safety integration of neural networks within sensor network environments. While most research focuses on model accuracy or efficiency, few approaches explicitly consider how neural methods can be designed, validated, and deployed in compliance with emerging regulations and safety standards in critical real-time systems. This session aims to close this gap by highlighting compliant neural networks design principles, certification-aware learning strategies, and trustworthy deployment frameworks for intelligent sensor applications.
This session is intended for scientists, engineers and practitioners, who present their latest theoretical and practical results, as well as the challenges they have encountered in the field of sensor technology using neural networks and hybrid methods.
The following is a non-exclusive list of topics:
1. Utilizing sensors for industrial monitoring and control
2. Sensor-based safety and reliability systems in critical environments
3. Smart city and smart home applications combining sensor systems with neural networks
4. Hybrid modeling approaches combining physics-based and data-driven methods
5. Multimodal sensor fusion (e.g., cameras, acoustic, vibration, and environmental data) for automated driving or process monitoring
6. Neural networks for real-time anomaly detection and predictive maintenance in sensor systems with safety constraints
7. Certification-aware model design and validation under the EU AI Act and other regulatory frameworks
8. Trustworthy and explainable AI for sensor applications
9. Methods to enhance data quality in sensor systems (e.g., drift compensation, denoising, data harmonization) and their meaning for regulations
10. Cyber-physical and medical systems integrating compliant neural networks for monitoring and decision support
11. Standards and benchmarking for the safe deployment of neural networks in sensor networks
12. Edge AI and energy-efficient neural inference for distributed sensor systems
Another novelty of the session lies in its interactive concept: an Open Discussion Slot (ODS) designed to openly discuss unpublished or sensitive real-world challenges in sensor applications will be integrated. Several issues, such as trustworthiness of models, data safety, data quality, data migration, or explainability with large amounts of data, cannot or may not be published. These topics will be openly addressed in the roundtable discussion to facilitate an exchange of possible solutions. The organizers and invited experts will provide examples to stimulate discussion; further impetus is welcome. The session will feature five 15-minute paper presentations and a 45-minute open discussion.
The session directly addresses core research areas of IJCNN, FUZZ-IEEE, and IEEE CEC by focusing on neural and hybrid computational intelligence methods for sensor-based systems. It promotes the combination of (deep) neural networks with sensor systems to improve sensing, control, and reliability. Furthermore, the integration of trustworthy AI and compliance aspects links theoretical advances in intelligent systems to their responsible real-world deployment—an increasingly central topic across all three conferences.
The organizers aim to bridge the gap between academic research and industrial application in intelligent sensing. By bringing together experts from machine learning, control engineering, and regulatory sciences, this session fosters interdisciplinary collaboration toward safer and more reliable AI-driven sensor technologies. The session is expected to generate shared insights and potential best practices for the design, certification, and maintenance of compliant deep learning systems, contributing to both scientific progress and sustainable innovation in industry and society.
https://attend.ieee.org/wcci-2026/information-for-authors/
for details see https://attend.ieee.org/wcci-2026/important-dates-deadlines/
Organizer
https://www.rebask.de/team
CoBASC Research Group, Essen, Germany
Private Lecturer in Soft Computing at the University of Duisburg-Essen, and CEO of the own consulting company for Artificial Intelligence and Artificial Life. As a member of the CoBASC research group and in collaboration with Jürgen Klüver, she developed new algorithms in these areas, including the Self-Enforcing Network (SEN), the Regulatory Algorithm (RGA), and the Algorithm for Neighborhood Generating (ANG). Her research focuses on AI- and AL-based analyses of technical, social, and cognitive complexity. In addition, she is an active member of the VDI/VDE-GMA FA 1.13 Neural Networks in Sensor Data Processing. She has served as a reviewer for the journal Neural Networks and at past WCCI conferences for IJCNN and IEEE CEC, among others.
Leibniz University Hannover, Germany
Research group leader at the Institute for Information Processing (tnt) at Leibniz University Hannover as well as member of the managing board of the L3S research center specializing in intelligent sensor systems and deep state-space modeling as well as the usage of Fourier Neural Operators and safe reinforcement learning. Her work focuses on the integration of deep learning and signal processing for mechanical and biomedical applications. She has coordinated multiple interdisciplinary research projects on smart sensing, cyber-physical systems, distributed sensor networks, acoustic monitoring, and model-based control in collaboration with industrial as well as research partners. Her recent work explores compliant and safety-aware deep learning methods for sensor networks in regulated environments like the utilization under medical safety-constrained conditions.