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Integrating AI-Assisted Technologies into Prostate Cancer Diagnosis and Biopsy Workflows: From Physician Training to Clinical Decision-Making

KUN-CHE LIN, Attending Physician, Department of Urology

Prostate cancer has become the third most common cancer among men in Taiwan. Clinical diagnosis relies heavily on multi-parametric MRI (multiparametric magnetic resonance imaging; mpMRI) and the PI-RADS scoring system. However, image interpretation is often subjective, and the complexity of MRI-ultrasound fusion biopsy leads to a steep learning curve for junior physicians, hindering diagnostic efficiency and optimal resource allocation. The team developed an AI-powered Prostate Image Analysis System based on the U-Net3+ deep learning architecture. This system automates prostate segmentation, lesion detection, and PI-RADS scoring (average processing time: 52 seconds). Furthermore, we integrated the SECI knowledge creation model with Augmented Reality (AR) technology to project AI-generated 3D lesion models onto physical training phantoms, establishing a standardized curriculum from image interpretation to surgical simulation. 

Enhanced Training Quality: Trainees demonstrated significantly improved accuracy in PI-RADS scoring and higher surgical confidence post-training (p-value < 0.05). Average operative time decreased annually; senior residents successfully reduced surgical duration to under 100 minutes (p-value < 0.0001). Through strategic alliances and physician-led lesion contouring, waiting times for mpMRI scans and lesion labeling were markedly reduced. The AI system achieved an AUC of 0.7361 in differentiating benign hyperplasia from low-grade cancer, outperforming radiologists’ area under the curve (AUC: 0.6686), thereby preventing unnecessary invasive biopsies. This project successfully integrates AI diagnostics with AR-assisted simulation. It not only enhances clinical quality and resource efficiency but also advances the implementation of precision medicine, serving as a model for digital transformation in prostate cancer diagnostic workflows.

 

Figure 1. The artificial intelligence system analyzes the prostate mpMRI systemic flow chart and case demonstration.

Figure 1. The artificial intelligence system analyzes the prostate mpMRI systemic flow chart and case demonstration.

 
Figure 2. The diagnostic accuracy of artificial intelligence system for benign and clinically insignificant prostate cancer has reached the level of human interpretation and even shows the potential to surpass it.

Figure 2. The diagnostic accuracy of artificial intelligence system for benign and clinically insignificant prostate cancer has reached the level of human interpretation and even shows the potential to surpass it.

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