Skip to main content
Home Wireless Communication Modulation MATLAB Beamforming Project Ideas MIMO Computer Networks Lab 🚀

5G: Spectral Bands, Speed, and Other Factors



Lower carrier frequencies (< 6 GHz) are unable reliable signal propagation for 5G. However, only limited spectral bands are available in the sub-6 GHz spectrum. Only those frequencies are inadequate to meet the relentless increase in data rates in 5G wireless networks. So, what is the solution here? Exploration of the unused, high-frequency mm-wave band could be a good choice, ranging from 6 to 300 GHz. 
Mm-wave standards are already defined for indoor wireless personal area networks (WPAN) - IEEE 802.15.3c and wireless local area networks (WLAN) - IEEE 802.11.ad.


Which countries have 5G now, and what frequency bands are they using?

5G is now available in many countries. China and the United States are at the top of the list. Brand new 5G technology benefits approximately 356 cities in China and approximately 296 cities in the United States. Other countries that have already implemented 5G include the Philippines, South Korea, Canada, Spain, Italy, Germany, the United Kingdom, Saudi Arabia, and others.

In general, 5G currently employs three types of frequency bands. The first is frequency of less than 6 GHz or Sub-6 GHz band. Other frequency bands are in the millimeter wave range. It will also use low 5G bands, such as 600 MHz00 MHz, to improve coverage, particularly in rural areas.

For 5G communication, China, for example, uses frequencies ranging from 600 MHz to 4700 MHz. The frequencies in the United States range from 600 MHz to 4200 MHz. These bands are intended for end-user use. You may have heard that telecom companies also purchase high remedy frequency (i.e., millimeter wave) spectrum for 5G deployment. However, those extremely high frequencies are appropriate for 5G backhaul connections.

The current 5G frequency bands can be classified into three categories.

The Low Band (Usually ranges from 600 to 900 MHz, and they are suitable for rural deployment of 5G where signals need to traverse long distances from cell towers)
The Middle Band (Frequency ranges from 1 to 7 GHz)
The High Band (These are millimeter wave bands. They range from 24 to 48 GHz)


Current Speed of 5G:

The average 5G speed is 100 Mbps, which means that 5G users will receive 100 megabits per second. Depending on the coverage, number of users available per channel (5G communication channel), and other factors, the pick data throughput rate can range from 1 Gbps to 10 Gbps.

Recently, it was claimed that a 5G network could achieve 5 Gbps throughput using a 28 GHz band and 800 MHz bandwidth with carrier aggregation.


Millimeter wave applications in 5G:

We know that companies own millimeter wave spectrums in 5G auctions. In fact, we want to use such extremely high-frequency bands for ultra-high data rates and ultra-low latency in 5G deployment. These are critical for any network to lead automation in various sectors such as industry (machine-to-machine communication, for example), telemedicine, augmented reality (AR), virtual reality (VR), and so on.

However, those mm-wave bands are appropriate for backhaul connections in which two high 5G towers communicate via LOan S (line of sight) path and deliver very high data rates from large cell towers to nearby small cell towers or access points (APs). End users can connect to the internet via a nearby cell tower.


Also, Read About
[1] 5G Theoretical Aspects | Frequency and Spectrum, Speed, Massive MIMO & OFDM
# News about 5G

People are good at skipping over material they already know!

View Related Topics to







Admin & Author: Salim

profile

  Website: www.salimwireless.com
  Interests: Signal Processing, Telecommunication, 5G Technology, Present & Future Wireless Technologies, Digital Signal Processing, Computer Networks, Millimeter Wave Band Channel, Web Development
  Seeking an opportunity in the Teaching or Electronics & Telecommunication domains.
  Possess M.Tech in Electronic Communication Systems.


Contact Us

Name

Email *

Message *

Popular Posts

BER vs SNR for M-ary QAM, M-ary PSK, QPSK, BPSK, ...

Modulation Constellation Diagrams BER vs. SNR BER vs SNR for M-QAM, M-PSK, QPSk, BPSK, ... 1. What is Bit Error Rate (BER)? The abbreviation BER stands for bit error rate, which indicates how many corrupted bits are received (after the demodulation process) compared to the total number of bits sent in a communication process. It is defined as,  In mathematics, BER = (number of bits received in error / total number of transmitted bits)  On the other hand, SNR refers to the signal-to-noise power ratio. For ease of calculation, we commonly convert it to dB or decibels.   2. What is Signal the signal-to-noise ratio (SNR)? SNR = signal power/noise power (SNR is a ratio of signal power to noise power) SNR (in dB) = 10*log(signal power / noise power) [base 10] For instance, the SNR for a given communication system is 3dB. So, SNR (in ratio) = 10^{SNR (in dB) / 10} = 2 Therefore, in this instance,...

Comparisons among ASK, PSK, and FSK | And the definitions of each

Modulation ASK, FSK & PSK Constellation MATLAB Simulink MATLAB Code Comparisons among ASK, PSK, and FSK    Comparisons among ASK, PSK, and FSK Comparison among ASK,  FSK, and PSK Performance Comparison: 1. Noise Sensitivity:    - ASK is the most sensitive to noise due to its reliance on amplitude variations.    - PSK is less sensitive to noise compared to ASK.    - FSK is relatively more robust against noise, making it suitable for noisy environments. 2. Bandwidth Efficiency:    - PSK is the most bandwidth-efficient, requiring less bandwidth than FSK for the same data rate.    - FSK requires wider bandwidth compared to PSK.    - ASK's bandwidth efficiency lies between FSK and PSK. Bandwidth Calculator for ASK, FSK, and PSK The baud rate represents the number of symbols transmitted per second Select Modulation Type: ASK...

MATLAB Code for ASK, FSK, and PSK

ASK, FSK & PSK HomePage MATLAB Code MATLAB Code for Amplitude Shift Keying (ASK) % The code is written by SalimWireless.Com % Clear previous data and plots clc; clear all; close all; % Parameters Tb = 1; % Bit duration fc = 10; % Carrier frequency N = 10; % Number of bits % Generate carrier signal t = 0:Tb/100:1; carrier_signal = sqrt(2/Tb) * sin(2*pi*fc*t); % Generate message signal rng(10); % Set random seed for reproducibility binary_data = rand(1, N); % Generate random binary data t_start = 0; t_end = Tb; for i = 1:N t = [t_start:0.01:t_end]; % Generate message signal if binary_data(i) > 0.5 binary_data(i) = 1; message_signal = ones(1, length(t)); else binary_data(i) = 0; message_signal = zeros(1, length(t)); end % Store message signal message(i,:) = message_signal; % Modulate message with carrier ...

Raised Cosine Filter in MATLAB

  MATLAB Code clc; clear all; close all; Data_sym = [0 1 1 0 1 0 0 1]; M = 4; Phase = 0; Sampling_rate = 48e3; Data_Rate = 100; Bandwidth = 400; Upsampling_factor = Sampling_rate/Data_Rate; Rolloff = 0.4; Upsampled_Data = upsample(pskmod(Data_sym,M,Phase),Upsampling_factor); Pulse_shape = firrcos(2*Upsampling_factor,Bandwidth/2,Rolloff,Sampling_rate,'rolloff','sqrt'); Output What if we change the roll-off roll-off = 0.01 roll-off = 0.99 What if we change the bandwidth Bandwidth = 100 Hz     Bandwidth = 1000 Hz    What if we change the sampling rate  Sampling rate = 10 KHz  Sampling rate = 100 KHz Another MATLAB Code % The code is developed by SalimWireless.Com clc; clear; close all; % Parameters fs = 1000; % Sampling frequency in Hz symbolRate = 100; % Symbol rate (baud) span = 6; % Filter span in symbols alpha = 0.25; % Roll-off factor for raised cosine filter % Generate random data symbols numSymbols = 100; % Number of symbols data = randi([0 1], num...

How to use MATLAB Simulink

  MATLAB Simulink is a popular add-on of MATLAB. Here, you can use different blocks like modulator, demodulator, AWGN channel, etc. And you can do experiments on your own.       Steps Go to the 'Simulink' tab at the top navbar of MATLAB. If not found, click on the add-on tab, search 'Simulink,' and then click on it to add. Once you installed the simulation, click the 'new' tap at the top left corner. Then, search the required blocks in the 'Simulink library.' Then, drag it to the editor space. You can double-click on the blocks to see the input parameters Then, connect the blocks by dragging a line from one block's output terminal to another block's input. If the connection is complete, click the 'run' tab in the middle of the top navbar.   After clicking on the run button, your Simulink is ready. Then double-click on any block to see the output   The following block diagram is an example of the MATLAB simulation of 'QPSK...

UGC NET Electronic Science Previous Year Question Papers

Home / Engineering & Other Exams / UGC NET 2022: Previous Year Question Papers ...   NET | GATE | ESE | UGC-NET (Electronics Science, Subject code: 88 ) UGC Net Electronic Science Questions Paper With Answer Key Download Pdf [December 2024] UGC Net Electronic Science Questions Paper With Answer Key Download Pdf [June 2024] UGC Net Electronic Science Questions Paper With Answer Key Download Pdf [December 2023] UGC Net Electronic Science Questions Paper With Answer Key Download Pdf [June 2023] UGC Net Electronic Science Questions Paper With Answer Key Download Pdf [December 2022]  UGC Net Electronic Science Questions Paper With Answer Key Download Pdf [June 2022]   UGC Net Electronic Science Questions Paper With Answer Key Download Pdf [December 2021] UGC Net Electronic Science Questions With Answer Key Download Pdf [June 2020] UGC Net Electronic Science Questions With Answer Key Download Pdf [December 2019] UGC Net Electronic Science Questions With Answer...

Frequency Bands : EHF, SHF, UHF, VHF, HF, MF, LF, VLF and Their Uses

Frequency Bands EHF, SHF, UHF, VHF, HF, MF, LF... 1. Extremely High Frequency (EHF)30 - 300 GHz Uses 5G Networks 5G millimeter wave band , 6G and beyond (Experimental) RADAR, 2. Super High Frequency (SHF)3 - 30 GHz Uses Ultra-wideband (UWB , Airborne RADAR, Satellite Communication, Microwave Link Communication or SATCOM 3. Ultra High Frequency (UHF)300 - 3000 MHz Uses Satellite Communication, Television, surveillance, navigation aids Also, read important wireless communication terms 4. Very High Frequency (VHF)30 - 300 MHz Uses Television, FM broadcast, navigation aids, air traffic control, 5. High Frequency (HF)3 - 30 MHz Uses Telephone, Telegram and Facsimile, ship to coast, ship to aircraft communication, amateur radio, 6. Medium Frequency (MF)300 - 3000 KHz Uses coast guard communication, direction finding, AM broadcasting , maritime radio, 7. Low Frequency (LF)30 - 300 KHz Uses Radio beacons, Navigational Aids 8. Very Low Frequency (VLF)3 - 30 KHz...

Difference between AWGN and Rayleigh Fading

Wireless Signal Processing Gaussian and Rayleigh Distribution Difference between AWGN and Rayleigh Fading 1. Introduction Rayleigh fading coefficients and AWGN, or additive white gaussian noise [↗] , are two distinct factors that affect a wireless communication channel. In mathematics, we can express it in that way.  Fig: Rayleigh Fading due to multi-paths Let's explore wireless communication under two common noise scenarios: AWGN (Additive White Gaussian Noise) and Rayleigh fading. y = h*x + n ... (i) Symbol '*' represents convolution. The transmitted signal  x  is multiplied by the channel coefficient or channel impulse response (h)  in the equation above, and the symbol  "n"  stands for the white Gaussian noise that is added to the signal through any type of channel (here, it is a wireless channel or wireless medium). Due to multi-paths the channel impulse response (h) changes. And multi-paths cause Rayleigh fa...