. Likewise, we plot the case with- out EP for reference. The parameters for this scheme are as = 0.36, Bs = 0.64, R1 = R2 = 0.4 bps/Hz. These parameters are selected to meet the requirements of Remark 4.1 and Remark 4.2. When EP is considered, the performance becomes worse for user 1, while user 2 p out1 w/o EP--ana p out2 w/o EP--ana p out1 w/EP--ana(0 = 0.4) p out2 w/EP--ana(0 = 0.4) p out1 w/EP--ana(0 = 0.6) p out2 w/EP--ana(0 = 0.6) Transmission SNR of the AP in dB Figure 4.5 Theorem 4.4. as = 0.36, Bs = 0.64. R1 = R2 = 0.4 bps/Hz. 0 = 0.4 and 0 = 0.6. 4.2 NOMA in a mmWave-Based loT Wireless System with SWIPT outage probability remains the same. When O = 0.6, the condition s is not satisfied. As expected, the outage probability becomes 1 for user 1. 4.2 NOMA in a mmWave-Based loT Wireless System with SWIPT 4.2.1 Introduction The unprecedented growth of mobile devices including smart phones, tablets, laptops, and IoT devices drives the wireless telecommunication industry to a new level. The require- ments come from various aspects such as higher data rate, fairness, tremendous connec- tivity, and low latency from different applications and various end users. Therefore, as a new generation technology, 5G emerges with its goal to provide 1000 times higher data rate, 1 ms low latency, and support billions of upcoming IoT devices. Among these features, 1000 times capacity can be achieved by the new mm Wave spectrum, novel network architectures, and new radio access technologies (RATs) [78]. Due to the ad hoc deployment nature of most low-power nodes and devices, they may have limited access to wireline power charging facilities and also have limited battery life. In this section, low-power relay nodes and devices are assumed to be capable of energy har- vest functionality. More specifically, simultaneous wireless information and power transfer (SWIPT) is considered. SWIPT can have two implementation modes, namely time switch- ing (TS) mode and power splitting (PS) mode [108]. In the TS mode, a dedicated resource i