re continues to exist a confusion that associates the connection of AI and Big Data with personalized (also known as - precision) medicines [12]. This is far from reality, especially when one realizes the role played by the technical capacities of 5G in enabling the successful existence of precision medicines. To clearly understand the role played by 5G, it is better to contrast the state of personalized medicines backed by 4G and 4G LTE (long term evolution)- Advanced capacities, which became a common ground for limited bandwidth, slow stochastic transmission speed (around 50Mbps even for LTE Advanced, especially when, theoretically, speeds like 300 Mbps exist). These are a summarized description of the major issues faced. There are consequences of the instability at high speed, and inefficient super-low latency interventions. Hence, it becomes clear that data transfer wasn't the only reason for the revocation of the implementation of 4G LTE for preci- sion medicines [13]. Consequently, the obvious question is: what is the scenario for telemedicine with 5G? As concluded by various research papers and industry case studies, pre- cision medicines have evolved to become "telemedicine", namely, massive med- ical devices connected to centralized cloud-computing platforms which, without network congestion, can provide an immersive and delay-free experience of healthcare in the comfort of the home [14]. Given the extensive framework of telemedicine, the addition of a 4k or 8k monitor with 360 degree virtual reality (VR) not only allows for the formulation of strategies for better treatment but also allows for the provision of immediate diagnosis, and all of this whilst utilizing the technical advantages of 5G and its ongoing revolution in terms of low-latency video delivery and streaming, extreme high-resolution medical rendering, and treatment-critical intervention [15]. 5G Wireless Communication System in Healthcare Informatics 1.3.2 POTENTIAL PITFALLS OF 5G AND ITS POSSIBLE IMPLICATIONS Research studies and industry