S239 Revolutionizing Early Pancreatic Cancer Detection: EfficientNetB0 Embedded in a Universally Accessible, Multiplatform Diagnostic Tool for Mobile Cancer Detection and Equitable Cancer Care

Introduction: Pancreatic cancer’s grave lethality stems from its silent progression and the inadequacies of current imaging for early detection. Artificial intelligence (AI), especially deep learning, with immense capabilities for evaluation of intricate imaging features is transforming medical diagnostics. EfficientNetB0, a state-of-the-art convolutional neural network, leverages compound scaling to optimize depth, width, and resolution, delivering high accuracy and efficiency. Its application in computerized tomographic imaging promises a paradigm shift in the early detection of pancreatic malignancy. Methods: Anonymized computerized tomographic images of malignant and normal pancreas (n = 2060) were split into training (60%), validation (20%), and testing (20%) sets. Preprocessing and augmentation improved data quality and model generalizability. EfficientNetB0 was trained and optimized, with performance evaluated by accuracy, precision-recall, F1-score, F2-score, and area under the receiver operating characteristic curve on validation and test sets. The final model was deployed in a universally accessible, multiplatform application using Hugging Face and Streamlit for global expert validation and real-time support. Results: Using a rigorously curated anonymized publicly available dataset, EfficientNetB0 demonstrated exceptional performance distinguishing malignant from normal pancreatic lesions. The model achieved exceptional accuracy (99.75%), precision (100% for normal, 100% for cancerous cases), recall (100% for both) and loss curve approached zero. F1-score was 0.98 (training) and 0.97 (validation), with F2-score showing identical values. Area under the receiver operating characteristic curve reached 99.99%, highlighting the model’s discriminative capacity. The model's high accuracy upon deployment in the multiplatform application provides great potential to augment clinical decision-making in resource limited settings, thereby serving as a tool for equitable cancer care. Conclusion: EfficientNetB0’s high accuracy highlights deep learning’s promise in early pancreatic cancer detection. By extracting nuanced imaging features often missed by clinicians, AI transcends conventional radiology, enabling earlier, more precise diagnoses. Our AI platform’s universal deployment democratizes access to advanced diagnostics, promoting equity in cancer care. For clinicians, integrating AI tools augments decision-making, reduces ambiguity, and may improve outcomes in the management of pancreatic malignancy where timely intervention is critical.

Authors

Publication Details

Journal
The American Journal of Gastroenterology
Published
2025-10-01
DOI
https://doi.org/10.14309/01.ajg.0001127416.34527.71
Primary Topic
AI in cancer detection
Type
article
Field-Weighted Citation Impact
0.00
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article

S239 Revolutionizing Early Pancreatic Cancer Detection: EfficientNetB0 Embedded in a Universally Accessible, Multiplatform Diagnostic Tool for Mobile Cancer Detection and Equitable Cancer Care

Elangovan Krishnan, Suresh Selvam, Khutaija Noor, Ramya Elangovan et al.
The American Journal of Gastroenterology
AI in cancer detection
article

S239 Revolutionizing Early Pancreatic Cancer Detection: EfficientNetB0 Embedded in a Universally Accessible, Multiplatform Diagnostic Tool for Mobile Cancer Detection and Equitable Cancer Care

Elangovan Krishnan, Suresh Selvam, Khutaija Noor, Ramya Elangovan, Jansi Sethuraj, Kavin Elangovan
article en

Abstract

Introduction: Pancreatic cancer’s grave lethality stems from its silent progression and the inadequacies of current imaging for early detection. Artificial intelligence (AI), especially deep learning, with immense capabilities for evaluation of intricate imaging features is transforming medical diagnostics. EfficientNetB0, a state-of-the-art convolutional neural network, leverages compound scaling to optimize depth, width, and resolution, delivering high accuracy and efficiency. Its application in computerized tomographic imaging promises a paradigm shift in the early detection of pancreatic malignancy. Methods: Anonymized computerized tomographic images of malignant and normal pancreas (n = 2060) were split into training (60%), validation (20%), and testing (20%) sets. Preprocessing and augmentation improved data quality and model generalizability. EfficientNetB0 was trained and optimized, with performance evaluated by accuracy, precision-recall, F1-score, F2-score, and area under the receiver operating characteristic curve on validation and test sets. The final model was deployed in a universally accessible, multiplatform application using Hugging Face and Streamlit for global expert validation and real-time support. Results: Using a rigorously curated anonymized publicly available dataset, EfficientNetB0 demonstrated exceptional performance distinguishing malignant from normal pancreatic lesions. The model achieved exceptional accuracy (99.75%), precision (100% for normal, 100% for cancerous cases), recall (100% for both) and loss curve approached zero. F1-score was 0.98 (training) and 0.97 (validation), with F2-score showing identical values. Area under the receiver operating characteristic curve reached 99.99%, highlighting the model’s discriminative capacity. The model's high accuracy upon deployment in the multiplatform application provides great potential to augment clinical decision-making in resource limited settings, thereby serving as a tool for equitable cancer care. Conclusion: EfficientNetB0’s high accuracy highlights deep learning’s promise in early pancreatic cancer detection. By extracting nuanced imaging features often missed by clinicians, AI transcends conventional radiology, enabling earlier, more precise diagnoses. Our AI platform’s universal deployment democratizes access to advanced diagnostics, promoting equity in cancer care. For clinicians, integrating AI tools augments decision-making, reduces ambiguity, and may improve outcomes in the management of pancreatic malignancy where timely intervention is critical.

The American Journal of GastroenterologyVol. 120(10S2)
Openalex Percentile: Top 84%
AI in cancer detection
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