Research on Lung Cancer Classification Based on Multidimensional Hematological Indicators and Machine Learning Models

Accurate subtyping of lung cancer is crucial for developing personalized treatment plans and improving patient outcomes. This study established machine learning models for lung cancer subtyping by integrating multidimensional hematological indicators, offering advantages such as non-invasiveness, repeatability, and the capability for dynamic disease monitoring. The study utilized data from 771 lung cancer patients for model construction and validation, and an additional 510 independent cases were collected to assess the clinical applicability of the models. Ten supervised learning algorithms were screened, ultimately identifying the XGBoost model as optimal for differentiating small cell lung cancer from non-small cell lung cancer, and the Random Forest model as optimal for distinguishing lung squamous cell carcinoma from lung adenocarcinoma. In the independent clinical validation cohorts from two centers, these two models achieved accuracies of 95% and 91%, respectively, demonstrating good clinical applicability and serving as a valuable complement to pathological biopsy.

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Publication Details

Journal
Journal of Evidence-Based Medicine
Published
2026-02-21
DOI
https://doi.org/10.1111/jebm.70119
Primary Topic
AI in cancer detection
Type
article
Field-Weighted Citation Impact
0.00
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article

Research on Lung Cancer Classification Based on Multidimensional Hematological Indicators and Machine Learning Models

Shixin Sun, Chenran Du, Bo Li, Huang Ym et al.
Journal of Evidence-Based Medicine
AI in cancer detection
article

Research on Lung Cancer Classification Based on Multidimensional Hematological Indicators and Machine Learning Models

Shixin Sun, Chenran Du, Bo Li, Huang Ym, Naxin Zheng, Xia Yang, Boan Li, Fan Jia, J. Xu, Fang Yuan, Wenwen Zheng, Lijun Zeng, Ying Li, Xiuyun Yin
article en

Abstract

Accurate subtyping of lung cancer is crucial for developing personalized treatment plans and improving patient outcomes. This study established machine learning models for lung cancer subtyping by integrating multidimensional hematological indicators, offering advantages such as non-invasiveness, repeatability, and the capability for dynamic disease monitoring. The study utilized data from 771 lung cancer patients for model construction and validation, and an additional 510 independent cases were collected to assess the clinical applicability of the models. Ten supervised learning algorithms were screened, ultimately identifying the XGBoost model as optimal for differentiating small cell lung cancer from non-small cell lung cancer, and the Random Forest model as optimal for distinguishing lung squamous cell carcinoma from lung adenocarcinoma. In the independent clinical validation cohorts from two centers, these two models achieved accuracies of 95% and 91%, respectively, demonstrating good clinical applicability and serving as a valuable complement to pathological biopsy.

Journal of Evidence-Based Medicine
Chinese PLA General Hospital (CN)
Openalex Percentile: Top 50%
AI in cancer detection
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