Research on enhancing the accessibility of psychological health services by using media communication technology and biomechanical biosensors

  • Jixuan Wang School of Government and Public Affairs, Communication University of China, Beijing 100000, China
Keywords: media communication; biomechanical biosensors; mental health services; Fitness-Dependent Optimizer Tuning Upgraded Decision Tree (FDO-UDT); biosignal monitoring
Article ID: 624

Abstract

Access to mental health services remains a global challenge, particularly for marginalized groups. This research endeavors to enhance the accessibility of mental health services by integrating media communication technology with biomechanical biosensors, including electrodermal activity sensors and heart rate monitors. The proposed approach leverages mobile communication platforms and wearable biosensors for real-time biomechanical parameter monitoring (including heart rate, blood pressure, respiratory rate, body temperature, and galvanic skin response, etc.) and remote interventions. Judge the impact on the brain and neuroendocrine system through the changes in biomechanical indicators, and use this as a basis for judging mental health. The objective is to develop a telehealth model that merges bio-data-driven alerts with communication tools to deliver prompt psychological support. This study underscores the deficiencies of traditional health systems in ensuring comprehensive mental health monitoring and emphasizes the potential of media communication technologies as scalable and accessible tools for early interventions in underserved areas, and also emphasizes the relationship between the physiological indicators measured by biosensors and the biomechanical mechanisms of mental health. Despite the existence of online methods for detecting mental health issues, early detection remains problematic. This research presents a framework for integrating pre-processed biosignal data with user-generated content to facilitate proactive monitoring. To address the limitations of conventional classifiers, the study introduces a Fitness-Dependent Optimizer-tuned Upgraded Decision Tree (FDO-UDT) model, which enhances the early identification of at-risk individuals using personalized thresholds and real-time event detection based on biomechanical data, it is helpful to provide an early warning before the clinical symptoms of mental health problems occur. The results indicate that automated alerts triggered by biomechanical sensor thresholds improve responsiveness and engagement, ensuring timely interventions for those in need. The FDO-UDT model achieves performance metrics of 90.21% accuracy, 98.01% recall rate, and 86.38% precision, outperforming traditional methods. The study concludes that the integration of media communication technologies with biomechanical sensors offers scalable solutions to improve the delivery of mental health services, especially for rural and underserved populations.

References

1. Krishamoorthi, N., 2024. Interventions of Bioelectronics and Biosensors on Oncology, Infectious and Neurological Diseases.Journal of Student Research,13(1).

2. Kumar, P.S., Ramasamy, M. and Varadan, V.K., 2022. Transforming Healthcare Technologies with Wearable, Implantable, and Ingestible Biosensors and Digital Health. InMiniaturized Biosensing Devices: Fabrication and Applications (pp. 177-204). Singapore: Springer Nature Singapore.

3. Li, K., 2024. Using biosensors and machine learning algorithms to analyze the influencing factors of study tours on students’ mental health. Molecular & Cellular Biomechanics,21(1), pp.328-328.

4. Wang, J. and Childers, W.S., 2022. The Future Potential of Biosensors to Investigate the Gut-Brain Axis.Frontiers in Bioengineering and Biotechnology,9, p.826479.

5. Wu, J.Y., Ching, C.T.S., Wang, H.M.D. and Liao, L.D., 2022. Emerging wearable biosensor technologies for stress monitoring and their real-world applications. Biosensors ,12(12), p.1097.

6. Kang, M. and Chai, K., 2022. Wearable sensing systems for monitoring mental health. Sensors ,22(3), p.994.

7. Debard, G., De Witte, N., Sels, R., Mertens, M., Van Daele, T. and Bonroy, B., 2020. Making wearable technology available for mental healthcare through an online platform with stress detection algorithms: the Carewear project.Journal of Sensors,2020(1), p.8846077..

8. Sheikh, M., Qassem, M. and Kyriacou, P.A., 2021. Wearable, environmental, and smartphone-based passive sensing for mental health monitoring.Frontiers in digital health,3, p.662811.

9. Hassantabar, S., Zhang, J., Yin, H. and Jha, N.K., 2022. Mhdeep: Mental health disorder detection system based on wearable sensors and artificial neural networks.ACM Transactions on Embedded Computing Systems,21(6), pp.1-22.

10. Thakur, S.S. and Roy, R.B., 2021. Predicting mental health using smart-phone usage and sensor data.Journal of Ambient Intelligence and Humanized Computing,12(10), pp.9145-9161.

11. Kamel, S. and A. Khattab, T., 2020. Recent advances in cellulose-based biosensors for medical diagnosis. Biosensors, 10(6), p.67.

12. Ratajczak, K. and Stobiecka, M., 2020. High-performance modified cellulose paper-based biosensors for medical diagnostics and early cancer screening: A concise review. Carbohydrate polymers, 229, p.115463.

13. Pateraki, M., Fysarakis, K., Sakkalis, V., Spanoudakis, G., Varlamis, I., Maniadakis, M., Lourakis, M., Ioannidis, S., Cummins, N., Schuller, B. and Loutsetis, E., 2020. Biosensors and Internet of Things in smart healthcare applications: Challenges and opportunities.Wearable and Implantable Medical Devices, pp.25-53.

14. Nouman, M., Khoo, S.Y., Mahmud, M.P. and Kouzani, A.Z., 2021. Recent advances in contactless sensing technologies for mental health monitoring.IEEE Internet of Things Journal,9(1), pp.274-297.

15. Jose, J.M., Jose, J.V. and VijaykumarMahamuni, C., 2020. Multi-biosensor based wireless body area networks (WBAN) for critical health monitoring of patients in mental health care centers: an interdisciplinary study.International Journal of Research in Engineering, Science and Management,3.

16. Almenara, C.A., Cimino, S. and Cerniglia, L., 2022. Sensor technology and intelligent systems in Anorexia Nervosa: Providing smarter healthcare delivery systems.BioMed Research International,2022(1), p.1955056.

17. Wang, L., Hu, Y., Jiang, N. and Yetisen, A.K., 2024. Biosensors for psychiatric biomarkers in mental health monitoring.Biosensors and Bioelectronics, p.116242.

18. Zheng, Y., Liu, C., Lai, N.Y.G., Wang, Q., Xia, Q., Sun, X. and Zhang, S., 2023. Current development of biosensing technologies towards diagnosis of mental diseases.Frontiers in Bioengineering and Biotechnology,11, p.1190211.

19. Chung, J. and Teo, J., 2023. Single classifier vs. ensemble machine learning approaches for mental health prediction.Brain informatics,10(1), p.1.

20. Cheng, J.P. and Haw, S.C., 2023. Mental Health Problems Prediction Using Machine Learning Techniques.International Journal on Robotics, Automation and Sciences,5(2), pp.59-72.

21. Xian, X., 2023. Frontiers of wearable biosensors for human health monitoring. Biosensors, 13(11), p.964.

22. Song, Z., Zhou, S., Qin, Y., Xia, X., Sun, Y., Han, G., Shu, T., Hu, L. and Zhang, Q., 2023. Flexible and wearable biosensors for monitoring health conditions. Biosensors, 13(6), p.630.

23. Anwar T. Mental Stress PPG—PPG (PRV) signal to diagnose mental stress with Stroop test stimulus. Available online: https://www.kaggle.com/datasets/chtalhaanwar/mental-stress-ppg (accessed on 2 October 2024).

24. Pandya, A., Lodha, P. and Gupta, A., 2024. Technology for early detection and diagnosis of mental disorders: An evidence synthesis. In Digital Healthcare in Asia and Gulf Region for Healthy Aging and More Inclusive Societies (pp. 37-54). Academic Press.

25. Wang, J., 2024. Research on Biosensor Technology in Wearable Health Monitoring Equipment. Highlights in Science, Engineering and Technology, 97, pp.226-236.

Published
2025-02-08
How to Cite
Wang, J. (2025). Research on enhancing the accessibility of psychological health services by using media communication technology and biomechanical biosensors. Molecular & Cellular Biomechanics, 22(2), 624. https://doi.org/10.62617/mcb624
Section
Article