Recently, tactile internet and internet of things applications become key players in our daily life. However, these applications mainly need massive data rate and low latency links to efficiently perform their work. Hence, developing networks, i.e., 5G and beyond 5G networks, that are capable of providing these needs, begins to occupy a big position in wireless communication field. Immigration to ultrahigh bands such as millimeter wave (mmWave) band and visible light communication (VLC) band seems as a promising choice to 5G networks. But, depending on these bands as a standalone network in 5G wastes their precious resources because there are several issues face their work. For mmWave, challenges such as beamforming training (BT) and blocking probability highly degrade its performance. Also, the number of user equipment (UEs) that can associate to mmWave access point (AP) at the same time frame are limited. On the other hand, VLC band, particularly light fidelity (Li-Fi), face various problems, e.g., uplink connection, co channel interference and mobility management, and solving these problems based on Wi-Fi band, as it has been proposed in literature, is not efficient due to low data rate provided by Wi-Fi comparable to beyond 5G requirements.