Technical Progress and Challenges of a New Type of Pediatric Oral Monitoring System

Authors

  • Xinyi Du
  • Yingjie Sun
  • Haopeng Zhang
  • Xintong Guo
  • Jinxiao Wei
  • Zhigang Di

DOI:

https://doi.org/10.6911/WSRJ.202503_11(3).0007

Keywords:

5G communication; 3D structured light vision; Sensor; Children oral monitoring.

Abstract

With the rapid development of 5G communication technology, 3D structured light vision technology and micro-sensors, the demand for children's oral health monitoring is increasing. Traditional oral monitoring methods have problems such as low efficiency, poor accuracy and complex operation, but the fusion application of new technologies can significantly improve the accuracy and efficiency of monitoring, and improve children's experience in the monitoring process. This paper first describes the application of 5G communication technology, 3D structured light vision technology and sensors in children's oral monitoring, and analyzes their working principles, challenges and breakthroughs, and finally discusses their clinical application prospects.

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References

[1] W. H. Organization, Global oral health status report: towards universal health coverage for oral health by 2030. World Health Organization: 2022.

[2] C. Wang; L. H. Qin; H. Chen, et al., Application Progress of Artificial Intelligence Technology in the Behavioral Management of Children's Oral Cavity. Shandong Medical Journal (2024), 64 (33), p.88-91.

[3] L. Huang, "Advocacy" of 5G Medical Applications. China Hospital CEO (2019), (01), p.25-27.

[4] J. Qian, Analysis of 5G Communication Technology and Its Application in Telemedicine. Smart China (2021), (09), p.90-91.

[5] F. Jia; X. M. Wang; W. G. Wang, Application of 5G Communication Technology in Telemedicine. Information and Communications Technologies and Policies (2019), 45 (6), p.92.

[6] Y. Chen; M. Chen, Discussion on the Application of 5G Technology in the Field of Healthcare. China Digital Medicine (2020), 15 (01), p.14-15.

[7] Z. Y. Zhang, Analysis of Network Information Security Issues and Prospects in the 5G Era. Electronic Components and Information Technology (2023), 7 (01), p.233-235+240.

[8] D. H. Chaet; R. J. Clearfield; J. E. Sabin, et al., Ethical practice in Telehealth and Telemedicine. Journal of General Internal Medicine (2017), 32, p.1136-1140.

[9] T. Zhao; X. Q. Liu, Application of 5G in Stomatology. Journal of Oral Science Research (2021), 37 (11), p.970-972.

[10] J. Geng, Structured-light 3D surface imaging: a tutorial. Advances in Optics and Photonics (2011), 3, p.128-160.

[11] Y. Zhao; Y.-x. Xiong; Y. Wang, Three-Dimensional Accuracy of Facial Scan for Facial Deformities in Clinics: A New Evaluation Method for Facial Scanner Accuracy. PLoS ONE (2017), 12.

[12] J. Liu; Y. Liu; J. Wang, et al., Dental measurements based on a three-dimensional digital technique: A comparative study on reliability and validity. Archives of oral biology (2021), 124, p.105059.

[13] J. X. Peng; J. H. Jiang; Y. J. Zhao, et al., Preliminary Evaluation of the Three-dimensional Changes of Soft Tissues before and after Orthodontic and Orthognathic Combined Treatment for Skeletal Class Ⅲ Malocclusion by Structured Light Scanning. Journal of Peking University(Health Sciences) (2015), 47 (01), p.98-103.

[14] J. H. Liu. Design and Research of a Prototype of Oral Examination Robot Based on Machine Vision(MS., Jiangxi University of Science and Technology, 2023).

[15] L. Su; X. F. Huang, Research Progress of Digital Three-dimensional Modeling of the Dentition. Journal of Oral Science Research (2019), 35 (01), p.16-19.

[16] C. Zuo; X. L. Zhang; Y. Hu, et al., Is 3D Really Here? —— A Discussion on Three-dimensional Structured Light Sensors. Infrared and Laser Engineering (2020), 49 (03), p.9-53.

[17] J. W. Huang; S. Han; Y. Zheng, et al., Research Progress of the Application of Flexible Sensors in Oral Health Monitoring. Journal of Oral Diseases Prevention and Treatment, p.1-8.

[18] X. Fan; C. Zhong; J. Liu, et al., Opportunities of Flexible and Portable Electrochemical Devices for Energy Storage: Expanding the Spotlight onto Semi-solid/Solid Electrolytes. Chemical reviews (2022).

[19] S. Kumar; R. Singh, Recent optical sensing technologies for the detection of various biomolecules. Optics & Laser Technology (2021), 134, p.106620.

[20] A. Azzouz; L. Hejji; K. Kim, et al., Advances in surface plasmon resonance-based biosensor technologies for cancer biomarker detection. Biosensors & bioelectronics (2021), 197, p.113767.

[21] X. Li; C. Luo; Q. Fu, et al., A Transparent, Wearable Fluorescent Mouthguard for High‐Sensitive Visualization and Accurate Localization of Hidden Dental Lesion Sites. Advanced Materials (2020), 32.

[22] M. J. Lo Faro; A. A. Leonardi; D. Morganti, et al., Surface-enhanced Raman scattering for biosensing platforms: a review. Radiation Effects and Defects in Solids (2022), 177, p.1209 - 1221.

[23] J. Zhang; Z. Fang; H. Dong, et al., MnFe@N-CNTs Based Lactate Biomicrochips for Nonintrusive and Onsite Periodontitis Diagnosis. ACS applied materials & interfaces (2024).

[24] T. Arakawa; K. Tomoto; H. Nitta, et al., A Wearable Cellulose Acetate-Coated Mouthguard Biosensor for In Vivo Salivary Glucose Measurement. Analytical chemistry (2020), 92 18, p.12201-12207.

[25] X. Q. Li; C. H. Yang; S. W. Pan, et al., A Review of Microfluidic Chip Technology for POCT Applications. World Journal of Complex Medicine (2015), 1 (01), p.30-37.

[26] Z. Li; R. Ju; S. Sekine, et al., All-in-one microfluidic device for on-site diagnosis of pathogens based on an integrated continuous flow PCR and electrophoresis biochip. Lab on a chip (2019).

[27] M. R. Brann; J. Suter; R. Addleman, et al., Monitoring bacterial biofilms with a microfluidic flow chip designed for imaging with white-light interferometry. Biomicrofluidics (2017), 11 4, p.044113.

[28] E. Y. Liu; Y. Ding, Application and Prospect of Microfluidic Chips in the Periodontal Field. Journal of Oral Science Research (2022), 38 (10), p.926-929.

[29] A. J. Bandodkar; I. Jeerapan; J. Wang, Wearable Chemical Sensors: Present Challenges and Future Prospects. ACS Sensors (2016), 1, p.464-482.

[30] J. Tu; R. M. Torrente‐Rodríguez; M. Wang, et al., The Era of Digital Health: A Review of Portable and Wearable Affinity Biosensors. Advanced Functional Materials (2019), 30.

[31] M. Mariello; J. D. Rosenthal; F. Cecchetti, et al., Wireless, battery-free, and real-time monitoring of water permeation across thin-film encapsulation. Nature Communications (2024), 15.

[32] O. A. Araromi; M. A. Graule; K. L. Dorsey, et al., Ultra-sensitive and resilient compliant strain gauges for soft machines. Nature (2020), 587, p.219 - 224.

[33] L. Shu; Z. Wang; X.-F. Zhang, et al., Highly conductive and anti-freezing cellulose hydrogel for flexible sensors. International journal of biological macromolecules (2023), p.123425.

[34] Y. Ling; T. An; L. W. Yap, et al., Disruptive, Soft, Wearable Sensors. Advanced Materials (2019), 32.

[35] Y. Yang; W. Gao, Wearable and flexible electronics for continuous molecular monitoring. Chemical Society reviews (2019), 48 6, p.1465-1491.

[36] C. Zhao; Q. Liu; K. M. Cheung, et al., Narrower Nanoribbon Biosensors Fabricated by Chemical Lift-off Lithography Show Higher Sensitivity. ACS nano (2020).

[37] R. He; H. Liu; Y. Niu, et al., Flexible Miniaturized Sensor Technologies for Long-Term Physiological Monitoring. npj Flexible Electronics (2022), 6, p.1-11.

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Published

2025-02-17

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Section

Articles

How to Cite

Du, Xinyi, Yingjie Sun, Haopeng Zhang, Xintong Guo, Jinxiao Wei, and Zhigang Di. 2025. “Technical Progress and Challenges of a New Type of Pediatric Oral Monitoring System”. World Scientific Research Journal 11 (3): 46-53. https://doi.org/10.6911/WSRJ.202503_11(3).0007.