Bauer Joanna, Hoq Md Nazmul, Mulcahy John, Tofail Syed A M, Gulshan Fahmida, Silien Christophe, Podbielska Halina, Akbar Md Mostofa
1Department of Biomedical Engineering, Faculty of Fundamental Problems of Technology, Wrocław University of Science and Technology, Wybrzeze Wyspiańskiego 27, 50-370 Wrocław, Poland.
2Department of Physics and Bernal Institute, University of Limerick, Limerick, Ireland.
EPMA J. 2020 Feb 7;11(1):17-29. doi: 10.1007/s13167-020-00199-x. eCollection 2020 Mar.
Cellulite is a common physiological condition of dermis, epidermis, and subcutaneous tissues experienced by 85 to 98% of the post-pubertal females in developed countries. Infrared (IR) thermography combined with artificial intelligence (AI)-based automated image processing can detect both early and advanced cellulite stages and open up the possibility of reliable diagnosis. Although the cellulite lesions may have various levels of severity, the quality of life of every woman, both in the physical and emotional sphere, is always an individual concern and therefore requires patient-oriented approach.
The purpose of this work was to elaborate an objective, fast, and cost-effective method for automatic identification of different stages of cellulite based on IR imaging that may be used for prescreening and personalization of the therapy.
In this study, we use custom-developed image preprocessing algorithms to automatically select cellulite regions and combine a total of 9 feature extraction methods with 9 different classification algorithms to determine the efficacy of cellulite stage recognition based on thermographic images taken from 212 female volunteers aged between 19 and 22.
A combination of histogram of oriented gradients (HOG) and artificial neural network (ANN) enables determination of all stages of cellulite with an average accuracy higher than 80%. For primary stages of cellulite, the average accuracy achieved was more than 90%.
The implementation of computer-aided, automatic identification of cellulite severity using infrared imaging is feasible for reliable diagnosis. Such a combination can be used for early diagnosis, as well as monitoring of cellulite progress or therapeutic outcomes in an objective way. IR thermography coupled to AI sets the vision towards their use as an effective tool for complex assessment of cellulite pathogenesis and stratification, which are critical in the implementation of IR thermographic imaging in predictive, preventive, and personalized medicine (PPPM).
橘皮组织是一种常见的真皮、表皮和皮下组织的生理状况,在发达国家,85%至98%的青春期后女性会出现这种情况。红外(IR)热成像结合基于人工智能(AI)的自动图像处理技术,能够检测橘皮组织的早期和晚期阶段,为可靠诊断提供了可能。尽管橘皮组织病变的严重程度各不相同,但每个女性在身体和情感方面的生活质量始终是个人关注的问题,因此需要以患者为导向的方法。
本研究的目的是基于红外成像技术,开发一种客观、快速且经济高效的方法,用于自动识别橘皮组织的不同阶段,该方法可用于治疗前的筛查和个性化治疗。
在本研究中,我们使用自定义开发的图像预处理算法自动选择橘皮组织区域,并将总共9种特征提取方法与9种不同的分类算法相结合,以确定基于从212名年龄在19至22岁之间的女性志愿者获取的热成像图像识别橘皮组织阶段的效果。
定向梯度直方图(HOG)和人工神经网络(ANN)相结合,能够确定橘皮组织的所有阶段,平均准确率高于80%。对于橘皮组织的初级阶段,平均准确率超过90%。
利用红外成像技术实现计算机辅助自动识别橘皮组织严重程度,对于可靠诊断是可行的。这种结合可用于早期诊断,以及客观监测橘皮组织的进展或治疗效果。红外热成像与人工智能相结合,有望将其作为一种有效工具,用于复杂评估橘皮组织的发病机制和分层,这对于在预测、预防和个性化医学(PPPM)中实施红外热成像至关重要。