Table 2.
Procedures of predictive tool interventions in the 11 randomized controlled trials involving interventions evaluating deep learning tools.
| Reference | Conditions | Sample size | Tools for intervention | Control | Algorithms | Tool function | Tool input | Tool output | How the output being used in clinical settings | Trial primary outcomes | Gold standard | Trial findings |
|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Upper gastrointestinal lesions | 437 | Routine EGD examination stratified by three types with the assistance of ENDOANGEL AI system | Routine EGD examination stratified by three types without AI | DCNN (VGG-16) | Assistive diagnosis | EGD images | A virtual stomach model monitoring blind spots; timing; scoring and grading | Experts referenced AI output to make EGD examination and monitor blind spots. | Mean blind spot rate | Experts | Positive | |
| Childhood cataracts | 700 | CC-cruiser web diagnosis platform | Regular ophthalmic diagnosis | DCNN (ImageNet) | Assistive diagnosis | Ocular images from slit-lamp photography | Diagnosis outcome; comprehensive evaluation; treatment recommendation | AI made diagnosis independently, and its results would be comparted with experts and not impact clinical decision making. | Accuracy of diagnosis | Experts | Negative | |
| Colorectal cancer | 659 | Routine colonoscopies with the assistance of an AI automatic quality control system | Routine colonoscopies | DCNN (AlexNet, ZFNet, YOLO V2) | Assistive diagnosis | Colonoscopy images | Location of colorectal polyps; timing; reminding retest and clean | Endoscopists referenced AI output to make endoscopic examination and report of polyps and adenomas. | Adenoma detection rate | Pathology | Positive | |
| Colorectal cancer | 1058 | Routine colonoscopies with the assistance of an automatic polyp detection system | Routine colonoscopies | Deep learning architecture | Assistive diagnosis | Colonoscopy images | Location of polyps; alarming | Endoscopists were required to check every polyp location detected by the system and report of polyps and adenomas. | Adenoma detection rate | Pathology | Positive | |
| Upper gastrointestinal lesions | 303 | Routine EGD examination with the assistance of WISENSE AI system | Routine EGD examination | DCNN (VGG-16 and DenseNet) | Assistive diagnosis | EGD images | A virtual stomach model monitoring blind spots; timing; scoring and grading; extracting frames with the highest confidence | Experts referenced AI output to make EGD examination and monitor blind spots. | Mean blind spot rate | Experts | Positive | |
| Colorectal cancer | 704 | ENDOANGEL-assisted routine colonoscopy | Routine colonoscopy | DCNN and perceptual hash algorithms (VGG-16) | Assistive diagnosis | Colonoscopy images | Timing; safe, alarm, and dangerous ranges of withdrawal speed for real-time monitoring; slipping warning | Operating endoscopists referenced AI output to make endoscopic examination and report of polyps and adenomas. | Adenoma detection rate | Pathology | Positive | |
| Liu (2020)42 | Colorectal cancer | 1026 | Routine colonoscopy with CADe assistance | Routine colonoscopy | DCNN-3D | Assistive diagnosis | Colonoscopy images | The probability of polyps in each frame; lesions alarming | Endoscopists focused mainly on the main monitor during the examination process, and a voice alarm prompted them to view the system monitor to check the location of each polyp detected by the system. | Detection rate of polyps and adenomas | Pathology | Positive |
| Colorectal cancer | 157 | AI-assisted colonoscopy | Traditional colonoscopy | CNN (YOLO) | Assistive diagnosis | Colonoscopy images | Location of polyps | Endoscopists referenced AI output to make endoscopic examination and report of polyps. | Polyp detection rate | Not reported | Positive | |
| Repici (2020)62 | Colorectal cancer | 685 | High-definition colonoscopies with the AI-based CADe system | Routine colonoscopy | CNN | Assistive diagnosis | Colonoscopy images | Location of polys | Endoscopists referenced AI output to make endoscopic examination and report of polyps and adenomas. | Adenoma detection rate | Pathology | Positive |
| Wang (2020)61 | Colorectal cancer | 962 | White light colonoscopy with assistance from the CADe system | White light colonoscopy with assistance from a sham system | Deep learning architecture | Assistive diagnosis | Colonoscopy images | Location of polyps; alarming | Endoscopists were required to check every polyp location detected by the system and report of polyps and adenomas. | Adenoma detection rate | Pathology | Positive |
| Blomberg (2021)58 | Out-of-hospital cardiac arrest (OHCA) | 5242 | Normal protocols with alert | Normal protocols without alert | Speech recognition using deep neural networks | Assistive diagnosis | Emergency calls | OHCA Alert | Dispatchers in the intervention group were alerted when the machine learning model identified out-of-hospital cardiac arrest. | The rate of dispatcher recognition of subsequently confirmed OHCA | Danish Cardiac Arrest Registry | Negative |
AI artificial intelligence, DL tools using deep learning algorithms, ML tools using machine learning algorithms, CNN convolutional neural networks, DCNN deep convolutional neural networks, CADe computer-aided detection, EGD esophagogastroduodenoscopy, OHCA out-of-hospital cardiac arrest.