Free tool

5G NR Band Compatibility Checker

5G NR (New Radio) bands are frequency ranges defined by 3GPP for fifth-generation mobile networks, spanning from sub-6 GHz (FR1) to millimeter-wave (FR2). Device compatibility with a 5G network depends on whether the bands supported by the device match those deployed by operators in each country.

Select a country and a device to instantly check 5G NR band compatibility. 100% client-side, no data transmitted.

Updated March 2026 · Instant tool · 87 countries · 269 operators · 100 devices

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3. Device

5G NR Band Reference Table

The 20 most common NR bands with their frequencies, duplex mode, and FR1/FR2 classification.

Band	Frequency	Duplex	Range	Typical usage

Understanding 5G NR Bands

3GPP defines the frequency bands used by 5G NR in two ranges: FR1 (sub-6 GHz) for extended coverage and FR2 (millimeter-wave) for extreme throughput. Each country allocates its own frequencies to operators, creating compatibility differences between regions.

FR1

Sub-6 GHz (410 MHz to 7125 MHz)

Low and mid-band frequencies offering a good balance between coverage and throughput. Band n78 (3.5 GHz) is the most widely deployed globally. Low bands (n5, n8, n28) provide extended coverage, ideal for rural areas.

FR2

Millimeter-wave (24.25 GHz to 52.6 GHz)

Extreme throughput (multiple Gbit/s) but very limited range (a few hundred meters). Primarily deployed in the United States and Japan for dense urban areas. Bands n257, n258, n260, and n261 are the most common.

NSA

Non-Standalone vs Standalone

In NSA mode, 5G uses an LTE anchor for signaling. In SA mode, the 5G network operates autonomously with its own 5G Core (5GC). SA mode enables network slicing, ultra-low latency, and URLLC services.

Frequently Asked Questions about 5G NR Bands

What is a 5G NR band?

A 5G NR (New Radio) band is a range of radio frequencies assigned by 3GPP for fifth-generation mobile communications. Each band is identified by a number (n1, n78, n257, etc.) and corresponds to a specific frequency and bandwidth. Sub-6 GHz bands (FR1) offer extended coverage, while millimeter-wave bands (FR2) enable extremely high throughput over short distances.

Why can't my phone connect to 5G in my country?

5G compatibility depends on two factors: the bands deployed by operators in your country and the bands supported by your device. If your phone does not support the NR bands used locally, it cannot connect to the 5G network even if coverage exists. For example, a US phone with band n71 won't work on 5G in France, where bands n1, n28, and n78 are used.

What is the difference between FR1 and FR2 in 5G NR?

FR1 (Frequency Range 1) covers sub-6 GHz bands (410 MHz to 7125 MHz) and offers good coverage with moderate to high throughput. FR2 (Frequency Range 2) covers millimeter-wave bands (24.25 GHz to 52.6 GHz) with very high throughput but limited range. Most current deployments use FR1, particularly band n78 (3.5 GHz) which offers the best coverage-to-speed tradeoff.

Is band n78 universal for 5G?

Band n78 (3.5 GHz) is the most widely deployed 5G NR band globally. It is used in Europe, Asia, the Middle East, and Africa. However, it is not universal: the United States primarily uses bands n77 (C-Band) and n71, while Japan also uses n79. For worldwide compatibility, a device should support multiple FR1 bands and ideally FR2 as well.

How can I check which 5G bands my phone supports?

You can check your device specifications on the manufacturer's website or use the HiCellTek UE Capabilities tool to read your Android device's radio capabilities directly. The tool decodes UE Capability Information messages (3GPP TS 38.331) and displays all supported NR bands, band combinations, and MIMO categories.

What do NSA and SA mean in 5G?

NSA (Non-Standalone) means the 5G network relies on existing 4G LTE infrastructure for the control plane. The device uses an LTE anchor (4G band) combined with an NR band for throughput. SA (Standalone) means the 5G network operates autonomously with its own 5G Core (5GC). SA mode enables advanced features like network slicing and ultra-low latency.