Ammonia-Net: A Multi-task Joint Learning Model for Multi-class Segmentation and Classification in Tooth-marked Tongue Diagnosis
Shunkai Shi, Yuqi Wang, Qihui Ye, Yanran Wang, Yiming Zhu, Muhammad, Hassan, Aikaterini Melliou, Dongmei Yu

TL;DR
Ammonia-Net is a novel multi-task deep learning model that simultaneously segments and classifies tooth-marked tongue images, improving diagnostic accuracy in Traditional Chinese Medicine through automated analysis.
Contribution
This is the first model to utilize semantic segmentation of tooth marks for classifying tooth-marked tongues, integrating multi-class segmentation and classification in a unified framework.
Findings
Achieves 99.06% accuracy in tongue classification
Attains 71.65% mIoU in segmentation tasks
Demonstrates effective multi-task learning for tongue diagnosis
Abstract
In Traditional Chinese Medicine, the tooth marks on the tongue, stemming from prolonged dental pressure, serve as a crucial indicator for assessing qi (yang) deficiency, which is intrinsically linked to visceral health. Manual diagnosis of tooth-marked tongue solely relies on experience. Nonetheless, the diversity in shape, color, and type of tooth marks poses a challenge to diagnostic accuracy and consistency. To address these problems, herein we propose a multi-task joint learning model named Ammonia-Net. This model employs a convolutional neural network-based architecture, specifically designed for multi-class segmentation and classification of tongue images. Ammonia-Net performs semantic segmentation of tongue images to identify tongue and tooth marks. With the assistance of segmentation output, it classifies the images into the desired number of classes: healthy tongue, light…
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Taxonomy
TopicsTraditional Chinese Medicine Studies · Linguistics and Cultural Studies · Cancer-related molecular mechanisms research
