Abstract
Background
To further clarify the acne profile of Chinese adult women, we included 1,156,703 adult women. An artificial intelligence algorithm was used to analyze images taken by high‐resolution mobile phones to further explore acne levels in Chinese adult women.
Method
In this study, we assessed the severity of acne by evaluating patients' selfies through a smartphone application. Furthermore, we gathered basic user information through a questionnaire, including details such as age, gender, skin sensitivity, and dietary habits.
Results
This study showed a gradual decrease in acne severity from the age of 25 years. A trough was reached between the ages of 40 and 44, followed by a gradual increase in acne severity. In terms of skin problems and acne severity, we have found that oily skin, hypersensitive skin, frequent makeup application and unhealthy dietary habits can affect the severity of acne. For environment and acne severity, we observed that developed city levels, cold seasons and high altitude and strong radiation affect acne severity in adult women. For the results of the AI analyses, the severity of blackheads, pores, dark circles and skin roughness were positively associated with acne severity in adult women.
Conclusions
AI analysis of high‐res phone images in Chinese adult women reveals acne severity trends. Severity decreases after 25, hits a low at 40–44, then gradually rises. Skin type, sensitivity, makeup, diet, urbanization, seasons, altitude, and radiation impact acne. Blackheads, pores, dark circles, and skin roughness are linked to acne severity. These findings inform personalized skincare and public health strategies for adult women.
Keywords: adult female acne, artificial intelligence, Chinese, deep learning, skin aging
1. INTRODUCTION
Acne is a prevalent dermatological disease characterized by comedones, pimples, and papules. It is caused by excessive oil production and improper keratinization of the sebaceous glands, often accompanied by inflammation and infection.1, 2 Epidemiological data shows that acne ranks as the eighth most prevalent disease on a global scale, with a prevalence of 9.4%, including both adults and adolescents of several ethnic groups.3 Acne vulgaris, often referred to as adolescent acne, peaks in its prevalence among female adolescents aged 14–17 years and male adolescents aged 16–19 years.4
Adult female acne (AFA) refers to acne affecting women aged 25 and older. It often presents as persistent, mild to moderate inflammatory facial lesions that can include both open and closed comedones, papules, pustules, and telangiectasia.5 Many women with AFA also report subjective symptoms of burning, stinging, itching, and dryness.1, 6 Genetic and hormonal factors are thought to play a role in the development of AFA, which is characterized by a chronic progression and often necessitates ongoing treatment.7, 8, 9
The application of AI and deep learning is on the rise in a wide array of fields, encompassing diagnostic procedures, patient risk evaluation, predictive modeling for disease outbreaks, monitoring efforts, and the formulation of health policies.10, 11 As confirmed by multiple studies, AI's progress in the field of dermatology and image classification has significantly improved the automated detection of skin malignancies.12, 13, 14, 15 However, the utilization of AI and deep learning to assess the advancement of skin aging has been restricted to a limited number of studies.16
The rise of advanced smartphones with high‐quality cameras has prompted a surge in using AI and deep learning algorithms in the field of dermatology. An automated grading system, based on an AI algorithm, has been created and verified for evaluating the severity of different facial aging indicators—such as dark circles, pore condition, acne vulgaris, blackhead level, and skin texture—in both genders and across different age groups and geographical regions. This AI‐based system utilizes selfie photographs acquired by smartphones and has been developed using annotated selfie images from China. Trained to forecast scores according to dermatological criteria, the system shows a significant correlation with dermatologists' ratings, especially among Asian people. Early studies have also shown a high level of consistency regardless of changes in lighting conditions and camera angles.17, 18, 19
The objective of this study was to evaluate the development of age‐related acne in Chinese adult females. To gather comprehensive data, an AI‐based automatic grading system was utilized across a broad population.
2. METHODS
2.1. Participants and selfie photography
The study was conducted using a smartphone application (You Look Good Today, YLGTD, Hangzhou C2H4 Internet Technology Corporation) for online selfie collection in China. All subjects were required to read the online informed consent and be fully aware that the photos would be used for research purposes and that their private information would be kept strictly confidential before taking the selfie photos. Considering the difference between different smartphone cameras, only smartphones with high‐resolution rear cameras are eligible for photography as previously described.19 Before taking the selfie, the subjects were asked to be in a room with good lighting conditions. Under the voice guidance of the application, subjects used the rear cameras of their smartphones from the frontal angle at a suitable distance with flashlight on, ensuring that the faces were clearly photographed. A total of 1,156,703 identifiable frontal selfie photos of Chinese females were eventually included for subsequent CNN training and recognition. At the meantime, we have designed a questionnaire to acquire the basic information of user. The items of the questionnaire include age, gender, habit of cosmetics, dietary status, city gradient (habitual residence), season and skin sensitivity (Table1). The annual irradiance of total solar radiation was officially divided into four levels in China: level I (<1050kWh/m2), level II (1050–1400kWh/m2), level III (1400–1750kWh/m2), and level IV (≥ 1750kWh/m2) [CHINA WIND AND SOLAR ENERGY RESOURCES BULLETIN, 2022]. The total annual irradiation of the whole country is almost all greater than 1050kWh/m2, and there is basically no area of level I.
TABLE 1.
Questionnaire for participants.
Questionnaire | |||||
---|---|---|---|---|---|
Age | Gender | ||||
Habit of cosmetics | (a) 1–5 cosmetics | (b) 6–20 cosmetics | (c) More than 20 cosmetics | ||
Dietary status | (a) Very healthy | (b) Normal | (c) Not very healthy | (d) Very unhealthy | |
Season | (a) Spring | (b) Summer | (c) Autunm | (d) Winter | |
Skin type | (a) Eudermic | (b) Dry | (c) Combination | (d) Oily | |
City gradienta | (a) Tier 1 | (b) Tier 2 | (c) Tier 3 | (d) Tier 4 | (e) Tier 5 |
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a
The cities in China is categorize into five different tiers according to factors such as administrative level, city size, degree of development and city influence. Briefly, the China city tiers describe the relative level of development with Tier 1 (including the new Tier 1 cities) being the highest and Tier 5 the lowest.
2.2. Grading of overall facial acne severity based on CNN network
As shown in Figure1, each acne is classified into four levels according to its severity: (1) Grade I, acne only; (2) Grade II, inflammatory papules; (3) Grade III, pustules; (4) Grade IV, nodules, cysts.20 The facial selfies of participants were first transformed for feature extraction by Resnet‐50. A Feature Pyramid Network (FPN) module was then used for feature maps outputs and a Region Proposal Network (RPN) was used for region proposals based on the outputs of FRN. Finally, a region of interest (ROI) head module was used to complete the whole process of target detection by re‐screening the region proposals and accurately classifying and locating the target objects in the candidate regions (Figure2).
The overall severity score (OSS) of facial acne is calculated according to the following formula:
Si represents the score of each acne identified by CNN on a selfie, with 1 being Grade I acne, 2 being Grade II, 3 being Grade III, and 4 being Grade IV.
Datasets were split into training, validation, and test sets at a ratio of 8:1:1. For validation, four physicians individually classified the overall severity of facial acne in a randomly selected group of 100 participants. The physicians then come up with a consensus rating after discussion. OSS is converted to categorical variables for comparison: an OSS between 0 and 300 is classified as mild, between 300 and 700 as moderate, and greater than 700 as severe.
2.3. Privacy protection
All data is collected in compliance with China's data privacy protection regulations and policies, stored and analyzed on a dedicated and protected server, and the images are deleted immediately after the analysis results are obtained.
2.4. Statistics
Consistency of assessment between four physicians and between physicians and AI was assessed by inter‐rater (or intra‐class) correlation coefficient (ICC). One‐way ANOVA with Tukey‐Kramer post‐hoc tests were used for comparison among multiple groups. A value of p<0.05 was considered statistically significant. All statistical tests were conducted in SPSS (Version 25.0. Armonk, NY: IBM Corp.). Data was presented as mean±95% confidence interval (CI) in figures.
3. RESULTS
3.1. Comparison between artificial intelligence and physicians
A total of 1,156,703 female adult participants (age>25) uploaded their selfies between January 2021 and January 2023 (Table2). The assessments among four physicians, as well as the assessments between physicians and AI both showed good agreements, with an inter‐rater ICC of 0.887 (95% CI: 0.860‐0.935; p<0.001) and an intra‐rater ICC of 0.900 (95% CI: 0.834‐0.938; p<0.001).
TABLE 2.
Distribution of 1,156,703 adult female participants according to age.
Age class (years) | Number |
---|---|
Total | 1,156,703 |
25‐29 | 810812 |
30‐34 | 199093 |
35‐39 | 90553 |
40‐44 | 44277 |
45‐49 | 8540 |
50‐54 | 2313 |
55‐59 | 801 |
60‐64 | 272 |
65‐70 | 42 |
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3.2. Trends of acne severity with age in adult females
We first analyzed the trend of acne severity with age in adult females. The results showed that the severity gradually declined after age 25 and reached its lowest level between 40 and 44 years of age, before rising gradually again with age (Figure3).
3.3. Intrinsic factors and acne severity
Among the different skin types, we find that dry skin had the lowest acne severity (all p<0.0001), followed by eudermic skin and combination skin with similar acne severity (p>0.05), while oily skin had the highest acne severity (all p<0.0001) (Figure4A). In addition, the acne severity levels increased with skin sensitivity (all p<0.0001) (Figure4B). Acne severity was more severe in females with over 20 cosmetic products on a daily basis than those with 1–5 or 6–20 cosmetic products (all p<0.0001) (Figure4C). Females with very healthy diets had lower acne severity than females with normal diets (p<0.0001), followed by those with unhealthy diets or very unhealthy diets (p<0.0001) (Figure4D).
3.4. Environments and acne severity
External environments may contribute to the aggravation of acne. Across cities with different levels of development in China, Tier 2 cities had the highest level of acne severity (all p<0.0001), followed by Tier 1 cities (all p<0.0001), then Tier 3 and Tier 5 cities with similar levels (p>0.05), and the lowest level of severity was in Tier 4 cities (all p<0.0001) (Figure5A). The ranking of acne severity from worst to least severe throughout four seasons was fall, winter, summer, and spring (all p<0.0001) (Figure5B). China has a very large land area with widely varying sunlight conditions. The results showed that acne severity was highest among females with a long‐term residence in areas of irradiation level IV, followed by those in level III and the lowest in irradiation II (all p<0.0001) (Figures5C and6).
3.5. Acne and other facial skin problems
Acne is sometimes accompanied by other skin problems. With the help of other built‐in AI analysis of the software, we were able to compare the correlation between acne severity and other facial problems. The results showed a positive correlation between the severity of acne and the severity of enlarged pores, blackheads, and skin roughness (all p<0.0001) (Figure7A‐C). In addition, acne severity was found lowest in patients without dark circles, followed by those with mild dark circles, and similarly worst in patients with moderate and severe dark circles (Figure7D).
4. DISCUSSION
The increasing number of adult women seeking dermatological assistance for acne vulgaris is raising concerns, with close to 40% of them affected by this condition.21, 22 The factors that lead to AFA are not yet clearly identified. Factors that have been suggested include diet, body mass index (BMI), cosmetic usage, premenstrual flare, hyperandrogenism, and family history.23, 24, 25
There's a growing utilization of artificial intelligence and deep learning algorithms in medical diagnostics, evaluating the risks of patient morbidity or mortality, predicting and surveilling disease outbreaks, and informing health policies and planning.12 The application of AI technology has notably elevated dermatology and image classification, particularly in the diagnosis of skin cancers automatically. Only a few studies have investigated the use of AI and statistical learning to assess the progression of skin aging processes.26, 27
Existing research shows notable differences in skin aging progression between European and Chinese populations.28, 29 In comparison to Germans, the Chinese and Japanese populations tend to exhibit a higher prevalence of pigmented lesions on their facial skin, especially on the cheeks.30 However, there is a lack of extensive datasets in research about AFA. In the present study, artificial intelligence was utilized in the study to analyze almost millions of user selfies. Subjective and objective data, combined with AI assessments were used to analyze the changes in acne among adult Chinese women concerning age, location, gender, and additional skin concerns.
In this study, we collected the skin data of adult women in the millions. Using artificial intelligence algorithms, we analyzed the distribution of acne severity and age in adult women. And studies have found that after the age of 45, women have a boost in the severity of their acne.
By examining the connection between city development and acne severity, our findings revealed that acne severity was higher in developed cities in China. In addition, analysis of the time revealed that patients who took their selfies in the fall and winter had higher acne severity.
At the meantime, this study collected survey of patients' lifestyle habits and other skin problems. Regarding different types of skin, this study found that oily skin was associated with severe mature female acne. This may be associated with increased oil production from skin follicles leading to bacterial infections.31, 32 Meanwhile, skin sensitivity is associated with severe acne in mature women. In addition, our questionnaire also found that the higher the number of cosmetic products used per month, the more severe the facial acne. There is a recognized correlation between dietary health and AFA based on previous research. Di Landro etal. found that acne risk was associated with infrequent weekly consumption of fruits or vegetables and limited intake of fresh fish.33, 34 In this research, we found a significant correlation between subjectively unhealthy diets and users' acne severity.
Regarding the level of development of the city, this study uncovered a positive association between the development level of the city and the severity of acne among the users. In this case, the severity was significantly higher in Tier 1 and Tier 2 cities. Interestingly the severity was higher in Tier 2 cities compared to Tier 1 cities. We believe it may be related to the fact that users in Tier 1 cities pay more attention to skincare and daily life health behaviors. This study found that acne severity was severe in patients during autumn and winter. In the summer and spring, the severity of acne was reduced. As for altitude and radiation, due to their intrinsic correlation, we found that both high altitude and high total solar radiation were positively correlated with acne severity. Applying the AI algorithm, this study simultaneously analyzed the user's skin problems and acne severity. We found that the severity of pores, blackheads, roughness of the skin, and dark circles under the eyes were all positively related to acne severity.
Certainly, there are some limitations in our study. Firstly, we mainly collect users' data through the rear camera of smartphones. Although the photos are taken with the aid of a mobile phone flash and the resolution of the mobile phone lens is required, ambient light also affects our results. Second, the age range of the patients we collected was from 25 to 70 years old. However, the age distribution of users is uneven. This is mainly due to the fact that the use of mobile phones for skin examination is more rare in older people than in younger people.
5. CONCLUSIONS
AI analysis of high‐res phone images in Chinese adult women reveals acne severity trends. Severity decreases after 25, hits a low at 40–44, then gradually rises. Skin type, sensitivity, makeup, diet, urbanization, seasons, altitude, and radiation impact acne. Blackheads, pores, dark circles, and skin roughness are linked to acne severity. These findings inform personalized skincare and public health strategies for adult women.
CONFLICT OF INTEREST STATEMENT
The authors declare no conflicts of interest.
ETHICS STATEMENT
This study which involved human participants were examined and accepted for approval by the Peking Union Medical College. The patient/participant in this research has provided with their written informed consents to participating in this research.
ACKNOWLEDGMENTS
This study was funded by the National High Level Hospital Clinical Research Funding, grant No. 2022‐PUMCH‐C‐041, the Medical Science and Health Technology Innovation Project (2022‐I2M‐1‐068) and the Medical Science and Health Technology Innovation Project (2021‐I2M‐1‐003).
Li TH, Ma XD, Li ZM, etal. Facial adult female acne in China: An analysis based on artificial intelligence over one million. Skin Res Technol. 2024;30:e13693. 10.1111/srt.13693
Contributor Information
Jiu‐Zuo Huang, Email: hjz1983@126.com.
Liang Wu, Email: lwu@c2h4.org.
Xiao Long, Email: pumclongxiao@126.com.
DATA AVAILABILITY STATEMENT
The original contributions presented in the study are included in the article/Supplementary Material. Further inquiries can be directed to the corresponding author.
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Associated Data
This section collects any data citations, data availability statements, or supplementary materials included in this article.
Data Availability Statement
The original contributions presented in the study are included in the article/Supplementary Material. Further inquiries can be directed to the corresponding author.