HistoMoCo: Momentum Contrastive Learning Pre-Training on Unlabeled Histopathological Images for Oral Squamous Cell Carcinoma Detection

The early detection and intervention of oral squamous cell carcinoma (OSCC) using histopathological images are crucial for improving patient outcomes. The current literature for identifying OSCC predominantly relies on models pre-trained on ImageNet to minimize the need for manual data annotations in model fine-tuning. However, a significant data divergence exists between visual domains of natural images in ImageNet and histopathological images, potentially limiting the representation and transferability of these models. Inspired by recent self-supervised research, in this work, we propose HistoMoCo, an adaptation of Momentum Contrastive Learning (MoCo), designed to generate models with enhanced image representations and initializations for OSCC detection in histopathological images. Specifically, HistoMoCo aggregates 102,228 histopathological images and leverages the structure and features unique to histological data, allowing for more robust feature extraction and subsequent downstream fine-tuning. We perform OSCC detection tasks to evaluate HistoMoCo on two real-world histopathological image datasets, including NDB-UFES and Oral Histopathology datasets. Experimental results demonstrate that HistoMoCo consistently outperforms traditional ImageNet-based pre-training, yielding more stable and accurate performance in OSCC detection, achieving AUROC results up to 99.4% on the NDB-UFES dataset and 94.8% on the Oral Histopathology dataset. Furthermore, on the NDB-UFES dataset, the ImageNet-based pre-training solution achieves an AUROC of 89.32% using 40% of the training data, whereas HistoMoCo reaches an AUROC of 89.58% using only 10% of the training data. HistoMoCo addresses the issue of domain divergence between natural images and histopathological images, achieving state-of-the-art performance in two OSCC detection datasets. More importantly, HistoMoCo significantly reduces the reliance on manual annotations in the training dataset. We release our code and pre-trained parameters for further research in histopathology or OSCC detection tasks.

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Publication Details

Journal
Electronics
Published
2025-03-22
DOI
https://doi.org/10.3390/electronics14071252
Citations
6
Primary Topic
AI in cancer detection
Type
article
Field-Weighted Citation Impact
14.89

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article

HistoMoCo: Momentum Contrastive Learning Pre-Training on Unlabeled Histopathological Images for Oral Squamous Cell Carcinoma Detection

Weibin Liao, Junfeng Zhao, Xiaoyun Zhang, Min Gao et al.
6 citations
Electronics
AI in cancer detection
14.89
article

HistoMoCo: Momentum Contrastive Learning Pre-Training on Unlabeled Histopathological Images for Oral Squamous Cell Carcinoma Detection

Weibin Liao, Junfeng Zhao, Xiaoyun Zhang, Min Gao, Yifan He, Bowen Jiang
article en
6 citations

Abstract

The early detection and intervention of oral squamous cell carcinoma (OSCC) using histopathological images are crucial for improving patient outcomes. The current literature for identifying OSCC predominantly relies on models pre-trained on ImageNet to minimize the need for manual data annotations in model fine-tuning. However, a significant data divergence exists between visual domains of natural images in ImageNet and histopathological images, potentially limiting the representation and transferability of these models. Inspired by recent self-supervised research, in this work, we propose HistoMoCo, an adaptation of Momentum Contrastive Learning (MoCo), designed to generate models with enhanced image representations and initializations for OSCC detection in histopathological images. Specifically, HistoMoCo aggregates 102,228 histopathological images and leverages the structure and features unique to histological data, allowing for more robust feature extraction and subsequent downstream fine-tuning. We perform OSCC detection tasks to evaluate HistoMoCo on two real-world histopathological image datasets, including NDB-UFES and Oral Histopathology datasets. Experimental results demonstrate that HistoMoCo consistently outperforms traditional ImageNet-based pre-training, yielding more stable and accurate performance in OSCC detection, achieving AUROC results up to 99.4% on the NDB-UFES dataset and 94.8% on the Oral Histopathology dataset. Furthermore, on the NDB-UFES dataset, the ImageNet-based pre-training solution achieves an AUROC of 89.32% using 40% of the training data, whereas HistoMoCo reaches an AUROC of 89.58% using only 10% of the training data. HistoMoCo addresses the issue of domain divergence between natural images and histopathological images, achieving state-of-the-art performance in two OSCC detection datasets. More importantly, HistoMoCo significantly reduces the reliance on manual annotations in the training dataset. We release our code and pre-trained parameters for further research in histopathology or OSCC detection tasks.

ElectronicsVol. 14(7)
Peking University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 1%
AI in cancer detection
14.89
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