Guo, Z. [50] |
Obs. retr. case-control |
China |
2199 |
12–28 |
DNA profiling |
LR |
Using ML to predict FGR and BW |
79% |
Dahdoud, S. [58] |
Obs. retr. case-control |
USA |
80 |
18–39 |
MRI |
RUSBoost |
Using ML to predict FGR and BW |
86% |
Lunghi, F. [45] |
Obs. retr. case-control |
Italy |
909 |
30–35 |
FHR by CTG |
SVM |
Realizing an automatic system for identified FGR |
84% |
Magenes, G. [48] |
Obs. retr. case-control |
Italy |
100 |
30–35 |
FHR by CTG |
SVM |
Realizing an automatic system for identified FGR |
78% |
Signorini, M. [60] |
Obs. retr. case-control |
Italy |
120 |
30–35 |
FHR by CTG |
RF (best) |
Find the best classification ML model for identifying IUGR |
91% |
Crockart, I.C. [27] |
Obs. prosp. case-control |
USA and S. Africa |
6004 |
20–29 |
FHR by CTG |
Stochastic Gradient Descent, LR & RF |
Using ML to predict FGR and BW |
91% |
Bahado–Singh, R. [46] |
Obs. retr. case-control |
USA |
80 |
Delivery |
Biochemical |
SVM |
Find the best classification ML model for identifying IUGR |
80% |
Pini, N. [47] |
Obs. retr. case-control |
Italy |
262 |
36–37 |
FHR by CTG |
RBF-SVM |
Build a ML screener for late IUGR |
93% |
Magenes, G. [51] |
Obs. retr. case-control |
Italy |
122 |
30–35 |
FHR by CTG |
RF & LR |
Find the best classification ML model for identifying IUGR |
RF = 85%; LR = 83% |
Xu, C. [52] |
Obs. retr. nested case-control |
China |
810 |
12–27 |
DNA profiling |
SVM & LR |
Find the best classification ML model for identifying IUGR |
83% |
Buscema, M. [54] |
Obs. retr. case-control |
Italy |
46 |
Delivery |
Biochemical |
ACM & ACS |
Find the best classification ML model for identifying IUGR |
87% |
Foltran, F. [55] |
Obs. prosp. case-control |
Italy |
46 |
20–32 |
Biochemical |
BN |
Realizing an automatic system for identified FGR |
90% |
Street, M.E. [56] |
Obs. retr. case-control |
Italy |
48 |
20–32 |
Biochemical |
ANNS |
Find the best classification ML model for identifying IUGR |
89% |
Ferrario, M. [57] |
Obs. retr. case-control |
Italy |
59 |
27–34 |
FHR by CTG |
LZ complexity |
Realizing an automatic system for identified FGR |
91% |
Deval, R. [49] |
Obs. retr. case-control |
India |
214 |
- |
Biochemical |
SVM, MLP |
Using ML models to predict IUGR |
SMO = 95.5%; MLP = 8.5% |
Gómez–Jemes, L. [53] |
Obs. retr. case-control |
Slovenia |
95 |
24–38 |
Doppler indices: UA, sFIt-1, and PIGF values |
Multi-models (extra-trees, RF) |
Using ML models to predict pre-Eclampsia, IUGR |
Extra trees = 78%, RF = 73% |
Sufriyana, H. [59] |
Obs. prosp. case-control |
Slovenia |
95 |
24–37 |
Doppler indices: UA, sFIt–1, and PIGF values |
CVR |
Using ML models to predict pre-Eclampsia, IUGR |
CVR = 90.6% |
Aslam, N. [61] |
Obs. retr. case-control |
Italy |
382 |
30–37 |
FHR by CTG |
SVM & RF |
Using ML models to predict IUGR |
RF = 97% |
Gürgen, F. [62] |
Obs. retr. case-control |
Turkey |
44 |
<38 |
Doppler indices: PI & RI of UA, MCA, DV, and AFI |
SVM |
Using ML models to predict IUGR |
SVM = 81% |
Van, S.N. [25] |
Obs. prosp. case-control |
China |
75 |
- |
Physiological, clinical, and socioeconomic |
Seven ML algorithms |
Identify the latent risk clinical attributes using the ML algorithms. |
94.73% |