Table 2.
Comparison of AI diagnostic performance across different medical fields.
| Diagnostic field | Application | Diagnostic accuracy | Speed | Strengths | Challenges |
|---|---|---|---|---|---|
| Dermatology | Skin cancer detection | 90–95% | Significantly faster than biopsy | High accuracy for melanoma; valuable for early detection | Struggles with atypical cases and non-Caucasian skin due to data bias (41, 33) |
| Radiology | Lung cancer detection | 85–95% | <1 min per image | Sensitive to small nodules; reduces radiologist workload | Needs high-quality images; susceptible to motion artifacts (14, 42) |
| Ophthalmology | Diabetic retinopathy screening | 90–98% | Immediate (seconds) | Enables mass screening; accurate in staging progression | May miss atypical cases; limited by dataset diversity (43, 44) |
| Cardiology | ECG interpretation for arrhythmias | 85–92% | Real-time analysis | Supports continuous monitoring; aids early detection | Prone to errors in complex or mixed arrhythmias (45) |
| Pathology | Histopathology for cancer diagnosis | 90–97% | Faster than human review | High sensitivity; helps prioritize critical cases | Limited interpretability; risk of over-reliance (46–48) |
| Pulmonology | Pneumonia Diagnosis via Chest X-Ray | 85–93% | Immediate (seconds) | Effective for rapid triage in emergencies | Challenged by overlapping symptoms; sensitive to image quality (49, 50) |
| Neurology | Stroke Detection on MRI/CT | 88–94% | Rapid pre-processing | High accuracy for ischemic/hemorrhagic stroke; time-sensitive | Limited diverse datasets; interpretability issues (51–53) |