characterized by system updating facilities, integration of new technical standards, and a lack of disruption [4]. The ability to perform flexible computations facilitates a seamless interaction among UE, base station, and all the other components included in the concept of a smart environment. The anticipated high-frequency bands that are proposed from 3 GPP recent releases might play a crucial role in establishing reliable telecommunication operations and facilitating the concept of a smart environment. On the other hand, there is confusion regarding the possible health complications due to higher-frequency bands. The widespread installation of telecom towers and base stations in recent years has raised public anxieties about the inherent health impacts of energy emitted by these infrastructures. Concerns about the negative effects of higher-frequency spectrum on human health could potentially obstruct the implementation of 5G basic infrastructure. The high-frequency bands will be used to establish a condensed network of small picocells, which will lead to the deployment of numerous new transmitters and base stations [5]. The requirement for very high throughput in 5G may lead to a small rise in the transmission power level at the user's end, depending on the frequency level, which might also increase the electromagnetic radiation exacted on the general user in the proximity [6; 7]. On top of that, as the frequency of electromagnetic fields (EMFs) rises, the surface absorption can result in more concentrated energy in the skin, perhaps generating localized heating effects and stress within the cells [8]. While the direct impact of higher-frequency radiation on human health remains under study, preliminary research suggests that certain biological responses might influence neurological signaling pathways, potentially impacting cognitive functions [9; 10]. Interestingly, a decrease in cell size does not always correspond to higher radiation exposure. Radio link architecture includes a target received power level, and reducing cell size typically leads to a corresponding decrease in downlink transmit power. As a result, a smaller cell size allows for lower transmit power in the uplink, reducing radiation exposure [11]. Moreover, the uplink power poses a potentially higher risk compared to the downlink. This is attributed to the inherent characteristic of downlink power, which naturally diminishes significantly due to substantial path loss. Despite the lower uplink transmit power, when the phone is held in close proximity to the body, minimal path loss occurs, resulting in exposure to a substantial portion of the transmitted power. EMF usually has a stronger probability of penetrating greater depth into the human organs because of the increasing amount of electromagnetic radiation [12]. The majority of earlier studies have only focused on the uplink, but due to changes in the mm-wave 5G coverage exposure region, the downlink may also be dangerous for human health [13]. The consequences of radio frequency electromagnetic energy (RF-EMF) emission on cognitive functions and physiological parameters of individuals have been examined in a number of studies. They mainly concentrate on wireless communication technologies, including BS antennas working in various frequency bands [14; 15] and UE [16]. Inconsistent findings from available studies leave it uncertain at this stage whether the RF-EMF field emitted by mobile phone base stations (MP BSs) has any impact on long-term well-being. However, researchers have explored the health impacts of RF-EMF caused by 5G candidate frequencies, ranging from 6 to 100 GHz, on different biological structures [17]. Furthermore, a recent study revealed that 5G radio waves, due to the spatially dense transmitters, pose a risk to human health, underscoring the urgent necessity for further research in this domain [18]. On the other hand, another recent research study has supported the notion of reduced radiation in 5G networks [19].