MIMO OFDM Wireless Communication with Matlab

Orthogonal Frequency Division Multiplexing or OFDM distributes the licensed spectrum bandwidth into overlapping yet orthogonal sub-channels in the narrow – band therefore effectively transforming frequency selective channels to non-frequency selective ones.

  • To start opening more spatial subchannels, MIMO includes various antennas at both the transmission and reception ends
  • Data speeds without any need for additional capacity are considerably high because parallel channels are generated at time and frequency

Through this article, you will get an ultimate picture of MIMO OFDM wireless communication with MATLAB. We have been in the field of guiding MIMO OFDM projects for more than two decades and we are highly skilled in using MATLAB Tools. You can get complete research guidance on all aspects mentioned below from our technical experts. 

Reaserach Guidance to Implement MIMO OFDM Wireless Communication using matlab simulink

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  • Realistic communication network standards that can be implemented in a variety of fields
  • Better algorithms that are more intelligent are being developed.
  • Communication among teams should be improved.
  • Before heading into the experiment, make sure that you understand, troubleshoot, and evaluate the systems.
  • End users can access IP-protected designs

The following research topics of MIMO OFDM communication with MATLAB are addressed by our engineers

  • Modelling of the RF frontend for system development
  • Algorithms for MIMO-OFDM baseband
  • SDR and live radio transmissions

With highly skilled engineers, developers, writers, and qualified technical experts, we have been providing research guidance to students and scholars from top universities of the world in OFDM and MIMO projects. So we are highly capable of rendering you research support in all ways. Let us now talk about the significance of MIMO and OFDM integration 

Integration of MIMO and OFDM 

The MIMO-OFDM approach is regarded as among the most effective techniques for overcoming many of contemporary wireless technology’s issues, and it is hailed as a potential solution for upcoming broadband wireless systems. The following research areas use MIMO-OFDM as core technologies.

  • Future cellular technologies – Mobile WiMAX, IMT-Advanced and mobile computing
  • LAN (wireless) – IEEE 802.11a and IEEE 802.11n
  • Broadcast and wireless PAN (MB-OFDM) – DVB, DAB, and DMB

We present a full foundation to the practice and theory of wireless link modeling, OFDM, and MIMO, utilizing MATLAB programs to evaluate the different methods on MIMO-OFDM systems with MATLAB.

  • Orthogonal Frequency Division Multiplexing (OFDM) allows MIMO systems to obtain increased throughput without extending the available bandwidth
  • The important priority for OFDM in MIMO systems is that the real data is modulated into a number of distinct sub-carrier orthogonal signals, rather than a single carrier just like conventional wireless technologies

We have registered huge success in delivering MIMO OFDM combo projects with the latest technologies and techniques. We will give you complete research-related data and a real-time practical explanation of the methods involved in our project so that you get enough ideas to go ahead with your research. Let us now look into the working of MIMO – OFDM 

How does MIMO-OFDM work?

  • OFDM splits a radio channel into several tightly packed subchannels to allow greater and reliable data transmission
  • MIMO technology is used to increase capacity by delivering distinct signals over several antennas

In this way, the combination of OFDM and MIMO is highly beneficial in today’s wireless communication technology. So it is important to have a look into the major characteristic features of MIMO OFDM communication which is one of the hot topics of research these days. 

Key Features of MIMO OFDM Wireless Communication 

While analyzing MIMO and OFDM methodologies, our experts established MIMO-OFDM wireless system design in great detail

  • MIMO-OFDM is an especially potent combination since MIMO doesn’t always seek to reduce propagation in multipath and OFDM eliminates any need for many antennas
  • Even though the transmitters lack channel state information or CSI, MIMO-OFDM can attain excellent efficiency of spectrum.
  • The MIMO OFDM approach meets the objectives of higher throughput and capacity of the channels without requiring the use of additional bandwidth
  • It is feasible to attain the theoretical system throughput whenever the transmitters have CSI, which could be gained with the use of training sequences
  • For instance, CSI could be used to assign different signals constellation dimensions to distinct subcarriers, allowing the communication channels to be exploited to their full potential at any particular time.

MIMO OFDM has been used by numerous wireless technologies, including WLAN, WMAN, DAB, and DVB because of these significant benefits. For example, in a multi-actor environment, digital video transmission is possible using MIMO OFDM. The major research areas for MIMO OFDM include estimation of channels and signal identification, frequency and time offset estimation and corrections, and peak-to-average power ratio minimization. Let us look into the MIMO OFDM Wireless Communication with Matlab processing models below. 

Processing Model for MIMO-OFDM

The components of transmitter and receiver processes of MIMO-OFDM are mentioned here for your reference

  • At the transmitter module, the input bits are forwarded to follow the path given below
  • Channel coding
  • Modulation
  • MIMO
  • At the end of the receiver the output bits obtained after the signal passes through the following path
  • Channel estimation methods
  • MIMO receiver or equalizer
  • De modulation schemes
  • Channel decoding

Within the channels for transmission of a signal from OFDM modulators at the transmitter side to OFDM receivers at the reception side, the following aspects are to be given importance as they influence the efficiency of data transmission

  • Interference and noise effects
  • Path loss in large scale fading
  • Doppler effect and multipath in small scale fading

For more details on other merits and demerits associated with the integration of OFDM and MIMO get in touch with our research team. Let us now see the classification of fading channels which is one of the essential aspects needed for your research

  • Fading channel can be classified as large scale fading and small scale fading
  • Large scale fading includes path loss and shadowing
  • Small scale fading consists of the following
  • Multipath fading (frequency selective and flat fading)
  • Time variance (fast and slow fading)

To get the details of algorithms and software tools associated with these types of fading channels contact our engineers. We will provide you with a notable, simple, and practical explanation. Let us now look into the research issues in MIMO OFDM designs 

Research Challenges for Designing MIMO-OFDM 

In order to understand the research challenges associated with the designing of MIMO OFDM Wireless Communication with Matlab systems we should first look into the essentialities for designing the system

  • Antenna arrays and different kinds of antennas
  • Multipath and fading channels
  • Advanced algorithms for baseband
  • RF front end impairments and non-linearity

Let us now see the MIMO-OFDM design research challenges below.

  • The robustness of OFDM is initially tested in the presence of AWGN noise.
  • Concentration of energy and Rapid deterioration
  • Nullification of the spectrum
  • Hardware and channel characteristics
  • Attack situations resembling noise jamming, followed by uncorrelated but colored interferences from modulation resources which include both intentional and unintentional aspects

Our research experts have handled all these issues quite efficiently with advanced mechanisms and the latest innovations. And also our engineers stay highly updated on recent developments in the field. So we can provide you with ultimate research support. Let us now see more important issues associated with MIMO and OFDM

Research Issues in MIMO OFDM

  • Estimation of Downlink Channels in Millimetre Wave MIMO-OFDM
  • The Effects of Nonlinearity in Transmitters and Interference from multiple sources in Multi-User MIMO-OFDM
  • Estimation of Channel due to Lack in Cyclic Prefix MIMO-OFDM
  • Channel State Data Processing, downlink throughput, Phase Noise’s Impact and Joint Tone Interference Iterative in MIMO-OFDM
  • Classification of Modulation in MIMO
  • Inter-Carrier Interference (ICI) for Robust MIMO-OFDM
  • Power Emissions Outside of the Band in Spectrally Pre-coded MIMO-OFDM
  • Assumption of Frequency Selective Fading Channels of Unknown Frequency in Multiple-Antenna MIMO-OFDM
  • Maximization of throughput in single-cell MIMO-OFDM

There are several research-related challenges like these that have a negative impact on the efficiency and performance of creative ideas in the rapidly developing MIMO OFDM wireless communication with matlab system design. In addition, we present a far more efficient research and design strategy for MIMO OFDM wireless systems. Let us now see the emerging MIMO OFDM research areas,  

Research Areas in MIMO OFDM Wireless Communication with Matlab Simulink

  • Bi-Directional Full-Duplex MIMO OFDM Systems
  • Multi-Service Multi-User MIMO-OFDM Systems
  • MIMO-OFDM Full-Duplex Relaying Communications
  • Massive MIMO Multi-User FDD Systems
  • Massive MIMO and FD-MIMO systems in three dimensions
  • MIMO Communications Systems for Mobile Vehicles
  • Multi-Cell Multi-User 3D Millimetre Wave Massive MIMO-OFDM System
  • Enhanced MIMO-OFDM Visible Light Telecommunications
  • Wireless MIMO-OFDM Communications Network
  • Millimetre-wave wideband MIMO systems
  • 5G MIMO Systems
  • Millimetre Wave Systems with a Single Carrier and in MIMO-OFDM systems

To ensure compliance with standards at every design phase, our research professionals will design and evaluate these technologies and their methodology, as well as combine various components and simulations at the very beginning of your research. Let us now see the modulation methods in OFDM 

What modulation methods are used with OFDM?

  • BPSK, QPSK, or some kind of QAM modulation is typically used on every carrier
  • As a result, OFDM is among the most efficient modulation techniques in terms of spectral usage
  • It also has a strong resistance to interference, noise, and numerous propagation effects that can occur in the transmission path.

Our expertise can provide you with complete advice so that you fully comprehend the modulation schemes in OFDM. Whenever you have questions about implementation, we’re here to help you out. Let us now see the MIMO-OFDM modulation techniques 

Major Modulation Techniques for MIMO OFDM

The modulation schemes that can be used for MIMO OFDM communication systems include the following

  • BPSK, MPSK, and QPSK
  • MQAM, 16QAM, and 64QAM

MATLAB, for example, can be used to develop QPSK modulation. The procedures for QOPSK modulation in OFDM are outlined below.

  • Produce binary data
  • QPSK and OFDM modulations are used in steps
  • Determine the strength of the Tx signal
  • Determine the variance in noise.
  • Use a noisy channel to send the signal.
  • Demodulate using OFDM
  • QPSK demodulation should be used.
  • Gather data on errors statistics
  • BER data should be saved.
  • Set the error rate calculator back to zero

These functions are essential when it comes to MIMO OFDM Wireless Communication with MATLAB projects. Your MATLAB abilities will be enhanced by understanding wireless projects that were effectively guided by our experts. You can contact us for more advanced concepts and ideas if you’d like. Currently, our experts are working on several cutting-edge OFDM MIMO wireless projects. Participate in our discussions to understand more about the real difficulties we face and how we propose new methods to solve them. Let us now look into the MATLAB tools for MIMO OFDM 

MATLAB Toolboxes for MIMO OFDM

  • 5G
  • Communication
  • Phased array system toolbox

The above toolboxes in MATLAB are very much useful for MIMO OFDM wireless communication with matlab projects. We’ve been utilizing MATLAB since the beginning of its development. We have guided a large number of successful research projects using the various toolboxes in MATLAB. As a result, we have a lot of expertise with it. In addition, we motivate our customers to have the Enthusiasm to steer innovation and turn ideas into effective reality. Reach out to us for Handling hybrid tools and complicated situations in MATLAB. Let us now talk about the communication and phased array system toolbox in detail

Communications & Phased Array System Toolbox 

Particularly the toolboxes associated with the functions of communication and phased array systems are highly important in MIMO OFDM systems. Such toolboxes of communication and phased array systems provide major features as given below.

  • MIMO fading channels
  • Modulation
  • Coding
  • OFDM
  • Beamforming
  • Beam steering
  • Interference cancellation

With these advantages MATLAB toolboxes for OFDM MIMO research projects. Let us now talk about the DSP system toolboxes in MATLAB 

MATLAB & DSP System Toolbox 

As you might know, MATLAB provides for LTE system toolbox, communication system toolbox, and phased array system toolbox as stated above. Let us now look into the important features of the MATLAB DSP system toolbox in the following,

  • Interactive and dynamic testing environments
  • Spectral analysis
  • Parameters that work on the fly and are tunable
  • Measurements and visualization

With the communication and phased array toolbox components, the radiating elements can be modeled. Those elements consist of front-end receiver and transmitter components in

MIMO OFDM systems.

  • It also enables MIMO fading channels
  • You can perform estimations of channel
  • And also make equalizations using received values of the frequency-time grid
  • Experiments of pilot based and ideal channel estimation algorithms can be made

In addition, the computer vision system toolbox which provides for quantitative and qualitative metrics also gives live feeding of telemetry data like the transmission of the bitstream. Working with this toolbox is an option for you. Let us now see the parameters used for MIMO OFDM wireless communication with MATLAB Simulation 

MATLAB Simulation Parameters for MIMO OFDM 

You can test the system’s performance in bit error rate and constellation terms for various characteristic locations and array dimensions using certain criteria specified by the users. Establish the system’s parameters. These variables can be adjusted to see how they affect the systems. The following is a list of major MATLAB simulation parameters used in MIMO OFDM systems

  • Number of OFDM data symbols, reception and transmit antennas, independent data streams, and users
  • Sampling rate of the channels
  • Channel options ( e.g. ‘ScatteringFcn’, ‘StaticFlat’, ‘WINNER’ and ‘Scattering’)
  • Position of the base station and transmit array ([x;y;z]) in meters
  • Enabling and disabling steers and transmit steering angle at par with mobileAngle
  • [Azimuth ; Elevation] angle (az=[-90,90] and el=[-90,90]) degrees
  • Certain angles, noise interruptions (dB), and analog locations
  • Values of certain parameters like 4: 16QAM, 2: QPSK, 8: 256QAM and 6: 64QAM in 4GHz system

If you want to discover all of your research and study materials in one spot, come to us. We will provide you with whatever materials or assistance you need for your projects. Please contact us if you require any other information. Let us now see about OFDM with MIMO simulation using MATLAB

OFDM with MIMO Simulation using MATLAB 

In a simplified 2×2 MIMO error rate simulation, this example explains how to employ modulation and demodulation in OFDM. The 802.11n standard is used to create the OFDM characteristics.

  • Make a pair of QPSK modulators and demodulators
  • Build an OFDM modulator and demodulator with user-defined pilot index, an added DC null, two transmit and receive antennas. Specify antenna-specific pilot indices
  • For every transmit antenna, provide resource mapping for pilot subcarriers. The grey lines in the schematic illustration show where null subcarriers were inserted to reduce pilot signal interference
  • Using the informative approach, OFDM modulation size is determined
  • Create 100 OFDM frames worth of data symbols
  • Modulate the random symbols with QPSK and restructure the resultant column vectors to satisfy the OFDM modulator specifications
  • Make a counter for error rates
  • Run a 100-frame simulation of the OFDM system using a 2×2 Rayleigh fading channel
  • Demodulate the OFDM waveforms and QPSK data after reducing the degree of multipath fading with basic least – square solutions
  • By correlating the actual and demodulated signals, you might create error estimates
  • Then show the statistics on errors

For tips on code implementation and assistance on real-time applications of MIMO OFDM projects, you shall get in touch with us at any time. Let us now see the latest research developments in MIMO-OFDM using MATLAB 


  • Massive MIMO, Cooperative MIMO (CO-MIMO), and HetNets (heterogeneous networks) are the hot topics in 5G wireless research right now
  • Multi-user Multiple Input Multiple Output or MU-MIMO
  • MIMO solutions of higher form with more number of spatial streams
  • MIMO-OFDM is also utilized in the 802.11ac specification and seems to be likely to play an important role in 802.11ax and 5G mobile telephone technologies.

We have a huge knowledge of the advanced algorithms used in MIMO OFDM Wireless Communication with Matlab Projects and the tools used for analyzing them. LTE standards are our expert areas. C code generation and parallel computing are the current research topics that we are working on. You can also get details on advanced acceleration simulation, spectral analysis for high-end communication systems from us. We will provide you with more details on MATLAB and its advanced affordable toolboxes.

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