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Hybrid Deep Learning Method for Solving the Inverse Problem of Heterogeneous Systems Detection Using Multidimensional Optical Sensor Data

https://doi.org/10.35596/1729-7648-2026-24-1-13-20

Abstract

Modern machine and deep learning methods effectively handle direct sensor data processing tasks and identify complex dependencies, ensuring robustness to noise and data variations. The most pressing problem is the synthesis of the results of processing multidimensional data using hybrid learning methods to solve inverse problems, such as determining the components of dynamically changing complex heterogeneous systems without violating their properties in multisensory measurement platforms. This paper presents a hybrid deep learning method integrated into an optical sensor platform that combines convolutional neural networks, bidirectional long short-term memory networks, and transformer encoders to enable dynamic monitoring of heterogeneous system components. The hybrid method, when applied to a biosensor platform, demonstrates classification accuracy of over 98 % by solution type and recovery of protein component concentration values with a median accuracy of up to 2 ng/ml.

About the Authors

I. Saetchnikov
Belarusian State University
Belarus

Saetchnikov Ivan - Senior Lecturer

220064, Minsk, Kurchatova St., 1

Тel.: +375 17 398-70-42 



E. Tcherniavskaia
Belarusian State University
Belarus

Elina Tcherniavskaia - Dr. Sci. (Phys. and Math.), Professor 

Minsk 



A. Saetchnikov
Belarusian State University
Belarus

Anton Saetchnikov - Сand. Sci. (Phys. and Math.), Researcher 

Minsk 



References

1. Zou H., Zhou Z., Huang M., Li W., Yang M., Zhao X., et al. (2025) NFC/RFID-Enabled Wearables and Implants for Biomedical Applications. Microsystems & Nanoengineering. 11. https://doi.org/10.1038/s41378-025-01010-5.

2. Pfeiffer M., Schaeuble M., Nieto J., Siegwart R., Cadena C. (2017) From Perception to Decision: A Data-Driven Approach to End-to-End Motion Planning for Autonomous Ground Robots. IEEE International Conference on Robotics and Automation. DOI: 10.1109/ICRA.2017.7989182.1527–1533.

3. Han Gr., Goncharov A., Eryilmaz M., Ye S., Palanisamy B., Ghosh R., et al. (2025) Machine Learning in Point-ofCare Testing: Innovations, Challenges, and Opportunities. Nature Communications. 16. https://doi.org/10.1038/s41467-025-58527-6.

4. Fei N., Lu Z., Gao Y., Yang G., Huo Y., Wen J., et al. (2022) Towards Artificial General Intelligence Via a Multimodal Foundation Model. Nature Communications. 13. https://doi.org/10.1038/s41467-022-30761-2/.

5. Saetchnikov I., Tcherniavskaia E., Skakun V. (2021) Object Detection for Unmanned Aerial Vehicle Camera Via Convolutional Neural Networks. IEEE Journal on Miniaturization for Air and Space Systems. 2 (2), 98–103. DOI: 10.1109/JMASS.2020.3040976.

6. Vollmer F., Arnold S. (2008) Whispering-Gallery-Mode Biosensing: Label-Free Detection Down to Single Molecules. Nature Methods. 5 (7), 591–596.

7. Foreman M. R., Swaim J. D., Vollmer F. (2015) Whispering Gallery Mode Sensors. Advances in Optics and Photonics. 7 (2), 168–240.

8. Jiang X., Qavi A. J., Huang S. H., Yang L. (2020) Whispering-Gallery Sensors. Matter. 3 (2), 371–392.

9. Arnold S., Khoshsima M., Teraoka I., Holler S., Vollmer F. (2003) Shift of Whispering-Gallery Modes in Microspheres by Protein Adsorption. Optics Letters. 28 (4), 272–274.

10. Baaske M. D., Foreman M. R., Vollmer F. (2014) Single-Molecule Nucleic Acid Interactions Monitored on a Label-Free Microcavity Biosensor Platform. Nature Nanotechnology. 9 (11), 933–939.

11. Liao J., Yang L. (2021) Optical Whispering-Gallery Mode Barcodes for High-Precision and Wide-Range Temperature Measurements. Light: Science & Applications. 10.

12. Bianchetti A., Federico A., Vincent S., Subramanian S., Vollmer F. (2017) Refractometry-Based Air Pressure Sensing Using Glass Microspheres as High-Q Whispering-Gallery Mode Microresonators. Optics Communications. 394, 152–156.

13. Eryürek M., Tasdemir Z., Karadag Y., Anand S., Kilinc N., Alaca B. E., et al. (2017) Integrated Humidity Sensor Based on SU-8 Polymer Microdisk Microresonator. Sensors and Actuators B: Chemical. 242 (10), 1115–1120.

14. Saetchnikov A., Tcherniavskaia E., Saetchnikov V., Ostendorf A. (2020) Deep-Learning Powered Whispering Gallery Mode Sensor Based on Multiplexed Imaging at Fixed Frequency. Opto-Electronic Advances. 3 (11).

15. Saetchnikov A., Tcherniavskaia E., Saetchnikov V., Ostendorf A. (2021) Intelligent Optical Microresonator Imaging Sensor for Early Stage Classification of Dynamical Variations. Advanced Photonics Research. 7.

16. Saetchnikov I., Tcherniavskaia E., Ostendorf A., Saetchnikov A. (2024) Induced Eccentricity Splitting in Disordered Optical Microspheres for Machine Learning Enabled Wavemeter. Arxiv 2412.08339.

17. Saetchnikov A., Tcherniavskaia E., Saetchnikov V., Ostendorf A. (2023) Detection of Per-and Polyfluoroalkyl Water Contaminants with a Multiplexed 4D Microcavities Sensor. Photonics Research. 11.

18. Saetchnikov A., Tcherniavskaia E., Saetchnikov V., Ostendorf A. (2024) Two-Photon Polymerization of Optical Microresonators for Precise pH Sensing. Light: Advanced Manufacturing. 5.


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For citations:


Saetchnikov I., Tcherniavskaia E., Saetchnikov A. Hybrid Deep Learning Method for Solving the Inverse Problem of Heterogeneous Systems Detection Using Multidimensional Optical Sensor Data. Doklady BGUIR. 2026;24(1):13-20. (In Russ.) https://doi.org/10.35596/1729-7648-2026-24-1-13-20

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ISSN 1729-7648 (Print)
ISSN 2708-0382 (Online)