Table 3.
Author, year | Outcomes measured | Follow up | Most accurate algorithm | Mean absolute error | Outcomes |
---|---|---|---|---|---|
Biron et al., (2020) [26] | Length of stay | N/A | N/A | N/A | Machine learning may be used to predict whether individuals had a one-day LOS or shorter following TSA |
Karnuta et al., (2020) [28] | Length of stay, discharge disposition, and inpatient charges | 1 Month | N/A |
Accuracy in Chronic/degenerative conditions -Total Cost: 76.5% -Length of Stay: 91.8% -Disposition (home): 73.1% Accuracy in Acute/traumatic conditions -Total Cost: 70.3% -Length of Stay: 79.1% -Disposition (home): 72% |
For both chronic/degenerative and acute/traumatic shoulder arthroplasty, artificial neural networks displayed medium to high accuracy and reliability in predicting inpatient cost, LOS, and discharge disposition |
Lopez et al., (2021) [33] | Non-home discharge and 30-day postoperative complication rates | 1 Month | Both had similar accuracy, but the artificial Neural Network had better discriminative ability |
Accuracy for Artificial Neural Network Non-home discharge Accuracy: -Boosted Decision Tree: 90.3% -Artificial Neural Network: 89.9% |
Machine learning has the capacity to reliably predict non-home discharge following elective TSA |
Lopez et al., (2022) [34] | Prolonged operative time and 30-day postoperative complication rates | 1 Month | Artificial Neural Network |
Accuracy for Artificial Neural Network Prolonged operative time Accuracy: -Boosted Decision Tree: 85.6% -Artificial Neural Network: 84.7% |
Machine learning models can predict which patients are more likely to require longer TSA operations |