Detection of Hypergranulation Tissue in Chronic Wound Images Using Artificial Intelligence Algorithms

Hypergranulation in chronic wounds reflects impaired healing, leading to delayed recovery, increased risk of infection and higher treatment costs for healthcare systems. Despite its impact, hypergranulation is often misidentified in the early stages, hindering timely intervention. This study presents a deep learning-based method to distinguish between hypergranulated and non-hypergranulated tissue. The dataset comprised 6235 wound images from Hospital de la Santa Creu de Vic (Catalonia, Spain) and DFUC 2022, with balanced classes. Five architectures were evaluated using transfer learning: ViT, VGG16, RepVGG, MobileViT and RepGhost. RepGhost achieved the best results (81.4% accuracy, 89.4% area under the receiver operating characteristic curve [AUC]), outperforming both CNNs and transformers. Lightweight models (RepGhost, MobileViT) also demonstrated high performance, making them suitable for implementation on mobile devices. This tool may assist clinicians in the early detection of hypergranulation and improve wound treatment outcomes. This appears to be the first deep learning study on this condition to utilise a large, balanced dataset.

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Publication Details

Journal
Wound Repair and Regeneration
Published
2026-01-01
DOI
https://doi.org/10.1111/wrr.70125
Primary Topic
Pressure Ulcer Prevention and Management
Type
article
Field-Weighted Citation Impact
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article

Detection of Hypergranulation Tissue in Chronic Wound Images Using Artificial Intelligence Algorithms

David Jiménez Reifs, A. Coda, Lorena Casanova, Ramon Reig‐Bolaño
Wound Repair and Regeneration
Pressure Ulcer Prevention and Management
article

Detection of Hypergranulation Tissue in Chronic Wound Images Using Artificial Intelligence Algorithms

David Jiménez Reifs, A. Coda, Lorena Casanova, Ramon Reig‐Bolaño
article en

Abstract

Hypergranulation in chronic wounds reflects impaired healing, leading to delayed recovery, increased risk of infection and higher treatment costs for healthcare systems. Despite its impact, hypergranulation is often misidentified in the early stages, hindering timely intervention. This study presents a deep learning-based method to distinguish between hypergranulated and non-hypergranulated tissue. The dataset comprised 6235 wound images from Hospital de la Santa Creu de Vic (Catalonia, Spain) and DFUC 2022, with balanced classes. Five architectures were evaluated using transfer learning: ViT, VGG16, RepVGG, MobileViT and RepGhost. RepGhost achieved the best results (81.4% accuracy, 89.4% area under the receiver operating characteristic curve [AUC]), outperforming both CNNs and transformers. Lightweight models (RepGhost, MobileViT) also demonstrated high performance, making them suitable for implementation on mobile devices. This tool may assist clinicians in the early detection of hypergranulation and improve wound treatment outcomes. This appears to be the first deep learning study on this condition to utilise a large, balanced dataset.

Wound Repair and RegenerationVol. 34(1)
Universitat de Vic - Universitat Central de Catalunya (ES), Hunter Medical Research Institute (AU), University of Newcastle Australia (AU)
Good health and well-being
Openalex Percentile: Top 92%
Pressure Ulcer Prevention and Management
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