A decision algorithm to promote outpatient antimicrobial stewardship for uncomplicated urinary tract infection [43]. |
Yes |
Yes, information about the dataset and training/test split is provided. However, no justification was provided for the train/test split. |
Logistic regression was chosen based on a comparison with decision tree and random forest models; however, no justification was provided on why these three models were chosen. |
Yes |
No information |
No information |
Hybrid Method Incorporating a Rule-Based Approach and Deep Learning for Prescription Error Prediction [44]. |
Yes |
Yes, information about the dataset is provided. However, no information was provided for the train/ test split. |
No justification was provided for choosing the ML model; however, the authors reported that the rules they used with their model were based on consultation with a clinician. |
Yes |
No information |
No information |
Evaluation of a machine learning capability for a clinical decision support system to enhance antimicrobial stewardship programs [45]. |
Yes |
Yes, information about the dataset is provided. However, no information was provided for the train/ test split. |
No justification was provided for choosing the ML model. |
Yes |
No information |
No information |
Personal clinical history predicts antibiotic resistance to urinary tract infections [46]. |
Yes |
Yes, information about the dataset and training/ test split is provided. However, no justification was provided for the train/test split. |
No justification was provided for choosing the ML model. |
Yes |
No information |
No information |
Using machine learning to guide targeted and locally tailored empiric antibiotic prescribing in a children’s hospital in Cambodia [47]. |
Yes |
Yes, information about the dataset and training/test split is provided. However, no justification was provided for the train/test split. |
No justification was provided for choosing the ML model. |
Yes |
No information |
No information |