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Please find the FCC rules for wireless operations in frequencies above 24 GHz.  

METIS, an Europe based conglomerate for 5G standards has come up with the first recommendation for bands. The bands start from 2.3 GHz and goes up to 58.68 GHz. It is just the beginning of an exhaustive exercise. The designers, the vendors, the regulatory bodies - all have to be taken on board for the success of 5G project.

The initial deployment of 5G network will be using sub-6GHz spectrum (below 6 GHz range of RF spectrum). Find about 5G frequency bands: https://www.rfpage.com/what-are-5g-frequency-bands/

Currently, the FCC is actioning spectrum in the 27.5 GHz to 28.35 GHz, 24.25 GHz to 24.45 GHz, and 24.75 GHz 25.25 GHz, range for millimeter-wave 5G use. The FCC may also be considering opening 3.7 GHz to 4.2 GHz mid-band frequencies for 5G, and may also be considering opening 4.9 GHz public safety bands for 5G access.

5G will operate on three different spectrum bands. For the average consumer, this may not seem very important, but this structure will have varying effects on everyday use.

Here’s the rundown:

Low-band spectrum.

This can be described “sub” 1GHz spectrum that is primarily used today by US carriers for 3G and LTE. This low-band spectrum provides consumers a very wide coverage area with good building penetration, but peak data speeds top out at 100Mbps.

As a result, this spectrum is quickly becoming depleted to be reclaimed primarily for 5G in coming years with ongoing sunset activities in 3G.

According to Digital Trends, T-Mobile is the main player in the low-band spectrum space, buying a large block around 600MHz during FCC auctions in 2017.

The company has since been building out its nationwide 5G network on the spectrum block; investors and consumers alike are watching closely to see just how T-Mobile manages its 5G rollout.

Mid-band spectrum.

This spectrum between 1GHz and 6GHz provides faster throughput and lower latency than the low-band spectrum. As Digital Trends notes, mid-band transmissions are less suitable for a good in-building penetration, but peak speeds can reach as high as 1Gbps.

Sprint owns the majority of unused mid-band spectrum in the United States and uses Massive MIMO to enhance penetration and coverage areas with this spectrum.

This technology groups several antennas into a single box at one cell tower, creating multiple beams to many different users at once.

High-band spectrum.

This is essentially what most people think of when they think of 5G.

Sometimes referred to as mmWave in the industry, this high-band spectrum enables speeds up in the tens of Gbps range at extremely low latency. However, high-band coverage area is limited, and building penetration is very poor.

For mmWave mobile devices to work, both the cell as well as the mobile device must use new antenna technology capable of dynamically steering and forming the radio beam to and from the cell tower.

Major telecommunication companies are working tirelessly to overcome these propagation challenges since mmWave is so fundamental to achieve 5G speed and latency targets.

As 5G players start rolling out high-band spectrum, carriers will piggyback off LTE while they overlay the infrastructure to support 5G.

Upgrades will include building small cells – low-power base stations that cover small areas. Building many of these will help expand the coverage area, but this will take time, and there’s still no major solution for dealing with 5G’s poor building penetration.

700 Mhz, 3500 Mhz , 26 Ghz Anveshkumar Nella