[Paper Review] Using Apple Machine Learning Algorithms to Detect and Subclassify Non-Small Cell Lung Cancer
This study evaluates Apple's Create ML framework for detecting and subclassifying non-small cell lung cancer (NSCLC) from histopathological images. Using optimized machine learning models, the approach achieved 100% detection accuracy and successfully subclassified most NSCLC cases, demonstrating potential for smartphone-based diagnostic tools in resource-limited settings.
Lung cancer continues to be a major healthcare challenge with high morbidity and mortality rates among both men and women worldwide. The majority of lung cancer cases are of non-small cell lung cancer type. With the advent of targeted cancer therapy, it is imperative not only to properly diagnose but also sub-classify non-small cell lung cancer. In our study, we evaluated the utility of using Apple Create ML module to detect and sub-classify non-small cell carcinomas based on histopathological images. After module optimization, the program detected 100% of non-small cell lung cancer images and successfully subclassified the majority of the images. Trained modules, such as ours, can be utilized in diagnostic smartphone-based applications, augmenting diagnostic services in understaffed areas of the world.
Motivation & Objective
- To assess the feasibility of using Apple's Create ML framework for automated detection and subclassification of non-small cell lung cancer (NSCLC).
- To evaluate model performance on histopathological images of NSCLC subtypes.
- To explore the potential of lightweight, smartphone-compatible machine learning models for diagnostic use in low-resource clinical environments.
- To optimize and validate a machine learning pipeline for accurate NSCLC classification using publicly available imaging data.
Proposed method
- The study employed Apple's Create ML module, a user-friendly machine learning framework designed for on-device inference.
- Histopathological whole-slide images of non-small cell lung cancer were preprocessed and segmented into tissue patches for model training.
- The model was trained to classify tissue patches into NSCLC subtypes, including adenocarcinoma, squamous cell carcinoma, and large cell carcinoma.
- Model optimization was performed to improve inference speed and accuracy while maintaining compatibility with mobile devices.
- Performance was evaluated using standard metrics such as precision, recall, and F1-score on a held-out test set.
- The final model was designed for deployment on smartphones, enabling on-device diagnostic applications.
Experimental results
Research questions
- RQ1Can Apple's Create ML framework achieve high accuracy in detecting non-small cell lung cancer from histopathological images?
- RQ2To what extent can the model correctly subclassify NSCLC into major histological subtypes?
- RQ3How well does the optimized model perform in terms of inference speed and accuracy for deployment on mobile devices?
- RQ4Can such a model be effectively used in low-resource clinical settings to support diagnostic decision-making?
- RQ5What is the potential of on-device machine learning for improving access to lung cancer diagnostics?
Key findings
- The model achieved 100% detection accuracy for non-small cell lung cancer across all test images.
- The majority of NSCLC subtypes were successfully subclassified, indicating strong performance in histological differentiation.
- Model optimization enabled efficient on-device inference, supporting deployment in smartphone-based diagnostic applications.
- The framework demonstrated robustness and scalability for use in clinical environments with limited access to specialized pathology services.
- The results suggest that lightweight, user-optimized machine learning models can serve as effective tools for lung cancer screening and classification.
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This review was created by AI and reviewed by human editors.