Table 6.
Summary of the applications of ML for NOMA communications.
| References | ML Model Architecture | Contributions | Remarks |
|---|---|---|---|
| [115] | Combined unsupervised and supervised learning | Spectrum sensing | Provided an accurate and effective spectrum sensing while maintaining optimal power allocation |
| [116] | LSTM-based DL models | Signal detection | Outperformed the (SIC) receiver and the limited radio resources |
| [117] | EE-CSL algorithm | Power optimization | Significantly minimized energy consumption for low computational complexity and achieved more significant sum rate than conventional MIMO orthogonal multiple access |
| [118] | DDQL-based RL algorithm | Transmission power optimization | Converged successfully in 91% of the test cases with a value better than the target, and performed better than SLSQP and TCONS algorithms |
| [119] | DREAM-FL scheme | Client selection | Provided more qualified clients with high model accuracy than FDMA- and TDMA-based solutions |
| [120] | LSTM-based DL algorithm | Channel coefficients prediction | Provided reliable performance even when cell capacity is increased |