AI-Enabled Edge-Based Intraoral Wearable System for Early Detection and Management of Dental Caries

Dental caries remains one of the most prevalent yet preventable non-communicable diseases worldwide, disproportionately affecting populations with limited access to dental care and persistent socioeconomic inequalities. Early-stage lesions frequently remain undetected because of their asymptomatic nature, inadequate screening infrastructure, and the absence of continuous monitoring technologies, resulting in preventable complications and increased healthcare costs. To address these challenges, this study proposes an Internet of Things (IoT)-enabled intraoral wearable sensing device (I-OWSD) for continuous, quantitative, real-time monitoring of biomarkers associated with caries progression. The proposed framework integrates intraoral wearable sensing, cloud-based telemedicine services, and artificial intelligence (AI)-assisted analytics to support preventive oral healthcare and remote clinical decision-making. Two primary contributions are presented. First, a fractional-order delay-type model (FODM) based on the Caputo–Fabrizio derivative is proposed to capture the memory-dependent and nonlocal dynamics of caries progression. Mathematical analysis establishes the model’s non-negativity, boundedness, existence, uniqueness, and stability properties. Second, a biocompatible intraoral sensor interface is designed to enable continuous data acquisition and secure wireless communication with digital health platforms. Simulation results based on the proposed FODM suggest that, under an estimated adoption rate of 67.49%, the I-OWSD framework could reduce caries prevalence by approximately 15% while improving opportunities for early intervention and preventive care. The findings demonstrate the potential of combining fractional-order modelling, wearable sensing, and AI-driven teledentistry to advance continuous oral health monitoring and preventive dental care.

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Publication Details

Journal
Technologies
Published
2026-07-02
DOI
https://doi.org/10.3390/technologies14070406
Primary Topic
Dental Health and Care Utilization
Type
article
Field-Weighted Citation Impact
0.00

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article

AI-Enabled Edge-Based Intraoral Wearable System for Early Detection and Management of Dental Caries

Henrietta Onyinye Uzoeto, Titus Ifeanyi Chinebu, Ijeoma Madonna Onwusuru, Juliet Onyinye Nwigwe et al.
Technologies
Dental Health and Care Utilization
article

AI-Enabled Edge-Based Intraoral Wearable System for Early Detection and Management of Dental Caries

Henrietta Onyinye Uzoeto, Titus Ifeanyi Chinebu, Ijeoma Madonna Onwusuru, Juliet Onyinye Nwigwe, Kennedy Chinedu Okafor, Ijeoma Peace Okafor, Diovu Remigius Chidiebere, Wisdom Okafor, Ogochukwu Militus Ifenze, Onukwube Victor Apeh
article en

Abstract

Dental caries remains one of the most prevalent yet preventable non-communicable diseases worldwide, disproportionately affecting populations with limited access to dental care and persistent socioeconomic inequalities. Early-stage lesions frequently remain undetected because of their asymptomatic nature, inadequate screening infrastructure, and the absence of continuous monitoring technologies, resulting in preventable complications and increased healthcare costs. To address these challenges, this study proposes an Internet of Things (IoT)-enabled intraoral wearable sensing device (I-OWSD) for continuous, quantitative, real-time monitoring of biomarkers associated with caries progression. The proposed framework integrates intraoral wearable sensing, cloud-based telemedicine services, and artificial intelligence (AI)-assisted analytics to support preventive oral healthcare and remote clinical decision-making. Two primary contributions are presented. First, a fractional-order delay-type model (FODM) based on the Caputo–Fabrizio derivative is proposed to capture the memory-dependent and nonlocal dynamics of caries progression. Mathematical analysis establishes the model’s non-negativity, boundedness, existence, uniqueness, and stability properties. Second, a biocompatible intraoral sensor interface is designed to enable continuous data acquisition and secure wireless communication with digital health platforms. Simulation results based on the proposed FODM suggest that, under an estimated adoption rate of 67.49%, the I-OWSD framework could reduce caries prevalence by approximately 15% while improving opportunities for early intervention and preventive care. The findings demonstrate the potential of combining fractional-order modelling, wearable sensing, and AI-driven teledentistry to advance continuous oral health monitoring and preventive dental care.

TechnologiesVol. 14(7)
University of Chichester (GB), University of Nigeria (NG), Manchester Metropolitan University (GB), University of Johannesburg (ZA), Imperial College London (GB), Cardiff Metropolitan University (GB)
University of Chichester, Manchester Metropolitan University
Industry, innovation and infrastructure
Openalex Percentile: Top 8%
Dental Health and Care Utilization
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