For example, one could wear VR glasses with 6G capability, with most of the processing happening on a remote computer and the data fed in real-time to the VR glasses. All that would be needed in the hardware would be 6G connectivity and a battery. Such as real-time GPS or holographic information in a small device such as a watch or pair of glasses. This would be highly useful for small devices, allowing them to execute functions that require a lot of computing power. Latency this low would theoretically allow devices to work fully out of the cloud. Low(er) latency will also be a focus of the sixth generation infrastructure, providing data latency below 1 millisecond - but this won't be easy. Researchers believe that they will be able to practically and efficiently transmit data in the hundreds of GHz or terahertz range in the coming years, which essentially means that data will be able to be communicated and streamed faster than ever before. Right now 5G can go up to 100 GHz, but generally speaking, 5G doesn't go above 39 GHz for practical use. Most of the current research around the sixth generation of wireless tech focuses on transmitting data through ultra-high frequencies, above the current ranges of 5G. If you hear a company claim they are using 6G technology before those dates, it's likely a marketing ploy, not real 6G. Full deployment to consumers probably won't happen until 2030 or later though. It's expected that the framework for 6G will be completed by 2028 and the first 6G products will start appearing around the end of this decade. The exact rollout of the 6G infrastructure is dependent upon the ITU, which is currently working on defining its vision for the next generation of tech. As time goes on, just what 6G is will become clearer. The concept of 6G is still pretty vague at this point, and is in the early phases of research. They are possible due to new advancements in hardware design, such as increases in internal computing power or complex antennas.ДЇirst-generation mobile networks relied on analog radio systems, which meant that users could only make phone calls, they couldnвЂ™t send or receive text messages.В The 1G network remained until 1991, when it was replaced with 2G, which ran on a digital signal - improving both its security and its capacity - allowing users to send SMS and MMS messages (although slowly), and emails after GPS was introduced in 1997. Newer generations of wireless tech will involve more advanced digital encoding capabilities compared to previous generations. This shift in technology is a hard delineation in how the underlying wireless infrastructure functions. Changes in the generation of wireless technology systems occur about every decade, with previous-gen devices generally being incompatible with the next generation. Simply speaking, 6G will be the sixth generation of wireless technology infrastructure, standardizing communication signals through the International Telecommunication Union, or ITU.

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