TY - JOUR
T1 - The future of neonatal lung ultrasound: Validation of an artificial intelligence model for interpreting lung scans. A multicentre prospective diagnostic study
AU - Perri, Alessandro
AU - Sbordone, Annamaria
AU - Patti, Maria Letizia
AU - Nobile, Stefano
AU - Tirone, Chiara
AU - Giordano, Lucia
AU - Tana, Milena
AU - D'Andrea, Vito
AU - Priolo, Francesca
AU - Serrao, Francesca
AU - Riccardi, Riccardo
AU - Prontera, Giorgia
AU - Lenkowicz, Jacopo
AU - Boldrini, Luca
AU - Vento, Giovanni
PY - 2023
Y1 - 2023
N2 - BackgroundArtificial intelligence (AI) is a promising field in the neonatal field. We focused on lung ultrasound (LU), a useful tool for the neonatologist. Our aim was to train a neural network to create a model able to interpret LU. MethodsOur multicentric, prospective study included newborns with gestational age (GA) & GE; 33 + 0 weeks with early tachypnea/dyspnea/oxygen requirements. For each baby, three LU were performed: within 3 h of life (T0), at 4-6 h of life (T1), and in the absence of respiratory support (T2). Each scan was processed to extract the region of interest used to train a neural network to classify it according to the LU score (LUS). We assessed sensitivity, specificity, positive and negative predictive value of the AI model's scores in predicting the need for respiratory assistance with nasal continuous positive airway pressure and for surfactant, compared to an already studied and established LUS. ResultsWe enrolled 62 newborns (GA = 36 & PLUSMN; 2 weeks). In the prediction of the need for CPAP, we found a cutoff of 6 (at T0) and 5 (at T1) for both the neonatal lung ultrasound score (nLUS) and AI score (AUROC 0.88 for T0 AI model, 0.80 for T1 AI model). For the outcome "need for surfactant therapy", results in terms of area under receiver operator characteristic (AUROC) are 0.84 for T0 AI model and 0.89 for T1 AI model. In the prediction of surfactant therapy, we found a cutoff of 9 for both scores at T0, at T1 the nLUS cutoff was 6, while the AI's one was 5. Classification accuracy was good both at the image and class levels. ConclusionsThis is, to our knowledge, the first attempt to use an AI model to interpret early neonatal LUS and can be extremely useful for neonatologists in the clinical setting.
AB - BackgroundArtificial intelligence (AI) is a promising field in the neonatal field. We focused on lung ultrasound (LU), a useful tool for the neonatologist. Our aim was to train a neural network to create a model able to interpret LU. MethodsOur multicentric, prospective study included newborns with gestational age (GA) & GE; 33 + 0 weeks with early tachypnea/dyspnea/oxygen requirements. For each baby, three LU were performed: within 3 h of life (T0), at 4-6 h of life (T1), and in the absence of respiratory support (T2). Each scan was processed to extract the region of interest used to train a neural network to classify it according to the LU score (LUS). We assessed sensitivity, specificity, positive and negative predictive value of the AI model's scores in predicting the need for respiratory assistance with nasal continuous positive airway pressure and for surfactant, compared to an already studied and established LUS. ResultsWe enrolled 62 newborns (GA = 36 & PLUSMN; 2 weeks). In the prediction of the need for CPAP, we found a cutoff of 6 (at T0) and 5 (at T1) for both the neonatal lung ultrasound score (nLUS) and AI score (AUROC 0.88 for T0 AI model, 0.80 for T1 AI model). For the outcome "need for surfactant therapy", results in terms of area under receiver operator characteristic (AUROC) are 0.84 for T0 AI model and 0.89 for T1 AI model. In the prediction of surfactant therapy, we found a cutoff of 9 for both scores at T0, at T1 the nLUS cutoff was 6, while the AI's one was 5. Classification accuracy was good both at the image and class levels. ConclusionsThis is, to our knowledge, the first attempt to use an AI model to interpret early neonatal LUS and can be extremely useful for neonatologists in the clinical setting.
KW - artificial intelligence
KW - lung ultrasound
KW - machine learning
KW - neonatal intensive care
KW - neural network
KW - newborn
KW - radiomics
KW - respiratory distress
KW - artificial intelligence
KW - lung ultrasound
KW - machine learning
KW - neonatal intensive care
KW - neural network
KW - newborn
KW - radiomics
KW - respiratory distress
UR - http://hdl.handle.net/10807/261200
U2 - 10.1002/ppul.26563
DO - 10.1002/ppul.26563
M3 - Article
SN - 8755-6863
VL - 58
SP - 2610
EP - 2618
JO - Pediatric Pulmonology
JF - Pediatric Pulmonology
ER -