# 6G Mobile Networks: Key Technologies, Directions, and Advances
## 7 Conclusions  
Typical features include AI-driven wireless communication technologies, individualised network experiences, and a concentration on machines as important workers allcontributing to increased network dependability and accuracy. The 6G network intends to improve inter-device connectivity. The advantages of using AI algorithms and security mechanisms exceeded the advantages of using 6G networks, which offered higher data speeds. We have a smart and secure network backbone due to 1G to 5G and 6G research. The expanding application of AI, IoT, and blockchain boosted researchers' excitement for 6G. Such a 6G network will benefit from technological advancements, including the use of the terahertz band, artificial intelligence, wireless optical communications, three-dimensional connection, unmanned aerial vehicles, and wireless transmission. High levels of security and privacy should be a primary priority of wireless research in order to assure the viability of 6G networks. The continued development of technology suggests that 6G networks will be much more diverse than their predecessors. Technology moves quickly and rules take time to create, so we've always marched towards 6G. The notion of 6G shows how quickly technology progresses. Given how swiftly we went from 1G to 5G, 6G is the next natural step in a faster, more reliable wireless connection. According to projections, 6G smartphones and high-level antennas may penetrate obstacles by reproducing images from diverse local settings with different densities. To enable future technology, 6G covers several applications. 5G networks cannot handle smart city app metrics, which 6G mobility assistance can do. Autonomous vehicles need low-delay connection, which 6G should supply. 6G will give the capacity, dependability, and information rate needed to carry enhanced data wirelessly, making it ideal for AR/VR technology. 3D games and cross-media using all five senses are conceivable with a 6G connection. In other words, we want high information density, low latency, excellent dependability, and great customer service. Haptic communication utilising 6G can reconstruct brain impulses and portray them as a 3D movie of a person's view. People use haptics to interact with their surroundings and control them with digital devices like a wireless chip in the brain that responds to emotions. In contrast, remote procedures are sensitive and need less than 1 ms of delay. Telemedicine and remote healthcare will alter with 6G networks' space and time savings. Holographic communication may be utilised for excavation and personnel training at distant mines and deep-ocean ports. These huge data transfers are handled by 6G networks. Tactile internetworking combines speech, video, and touch and taste. Due to its high data capacity and low latency, 6G can meet the needs. IoT is becoming an important aspect of the future Internet and gaining academic and industrial attention. Introducing 6G should lead to new IoT applications. During 6G, the digital, physical, and social worlds will seamlessly merge, resulting in enhanced sensory experiences. Human efficiency, living, operating, and environmental care would be rethought using intelligent information platforms and high computer capacity. 6G would improve 5G in various technical and use-case areas, reducing costs and boosting adoption. New use cases will be feasible with 6G. As AI and machine intelligence learn to recognise people and objects, wireless cameras will become all-purpose sensors. Using radio and acoustics, users will learn about their environment. Electronic cash and credentials may become prevalent. We may even control machines using brain sensors. The proposed architecture might handle 6G network applications and technology. AI-based network slicing reduces network administration effort and adapts to changing network circumstances. However, understanding actual vertical demands and circumstances would help 6G advancement.