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Updated: Jun 21, 2025

Quantitative Fundus Autofluorescence for the Evaluation of Retinal Diseases
Published on: March 11, 2016
Quantitative assessment of colour fundus photography in hyperopia children based on artificial intelligence
Ruiyu Luo1, Zhirong Wang1,2, Zhidong Li1
1Ophthalmic Center State Key Laboratory of Ophthalmology, Sun Yat-Sen University Zhongshan, Guangzhou, Guangdong, China.
Insights
Artificial intelligence analysis of fundus photos reveals that children with high hyperopia have larger retinal vessel diameters. This AI approach quantifies optic nerve head and retinal vascular parameters in pediatric hyperopia.
Area of Science:
- Ophthalmology
- Medical Imaging
- Artificial Intelligence in Healthcare
Background:
- Hyperopia is a common refractive error in children.
- Understanding optic nerve head and retinal vascular changes in pediatric hyperopia is crucial for early detection and management.
- Current methods for quantifying these parameters can be subjective or time-consuming.
Purpose of the Study:
- To quantitatively evaluate optic nerve head and retinal vascular parameters in children with hyperopia.
- To assess the relationship between these parameters, age, and spherical equivalent refraction (SER).
- To explore the utility of artificial intelligence (AI)-based analysis of color fundus photographs (CFP) for this evaluation.
Main Methods:
- A cross-sectional study of 324 children with hyperopia (aged 3-12 years) was conducted.
- Participants were categorized into low hyperopia (SER +0.5 D to +2.0 D) and moderate-to-high hyperopia (SER ≥ +2.0 D) groups.
- AI was used to automatically detect and quantify fundus parameters, including optic disc area and mean vessel diameter, followed by regression analysis.
Main Results:
- Children with moderate-to-high hyperopia exhibited larger superior neuroretinal rim width and greater vessel diameter compared to those with low hyperopia.
- Axial length was significantly associated with smaller superior and temporal neuroretinal rim widths and smaller vessel diameter.
- A mild inverse correlation was noted between optic disc area/vertical disc diameter and age.
Conclusions:
- AI-based CFP analysis demonstrated that children with high hyperopia have larger mean vessel diameters and smaller vertical cup-to-disc ratios.
- This study highlights AI's capability to provide objective, quantitative data on fundus parameters in pediatric hyperopia.
- AI offers a promising tool for enhanced assessment and monitoring of ocular health in children with hyperopia.
Objectives:
This study aimed to quantitatively evaluate optic nerve head and retinal vascular parameters in children with hyperopia in relation to age and spherical equivalent refraction (SER) using artificial intelligence (AI)-based analysis of colour fundus photographs (CFP).
Methods And Analysis:
This cross-sectional study included 324 children with hyperopia aged 3-12 years. Participants were divided into low hyperopia (SER+0.5 D to+2.0 D) and moderate-to-high hyperopia (SER≥+2.0 D) groups. Fundus parameters, such as optic disc area and mean vessel diameter, were automatically and quantitatively detected using AI. Significant variables (p<0.05) in the univariate analysis were included in a stepwise multiple linear regression.
Results:
Overall, 324 children were included, 172 with low and 152 with moderate-to-high hyperopia. The median optic disc area and vessel diameter were 1.42 mm2 and 65.09 µm, respectively. Children with high hyperopia had larger superior neuroretinal rim (NRR) width and larger vessel diameter than those with low and moderate hyperopia. In the univariate analysis, axial length was significantly associated with smaller superior NRR width (β=-3.030, p<0.001), smaller temporal NRR width (β=-1.469, p=0.020) and smaller vessel diameter (β=-0.076, p<0.001). A mild inverse correlation was observed between the optic disc area and vertical disc diameter with age.
Conclusion:
AI-based CFP analysis showed that children with high hyperopia had larger mean vessel diameter but smaller vertical cup-to-disc ratio than those with low hyperopia. This suggests that AI can provide quantitative data on fundus parameters in children with hyperopia.

