Use Cases



LTE In Industry

LteSuite can be used as part of your design and verification workflow of PHY/MAC subsystems for LTE. You can accelerate your development and identify potential design mistakes early on in the development process avoiding last-minute hold-ups.

Some typical uses of the LteSuite software include:
  • Generation of LTE-compliant waveforms
  • Development/testing of PHY-layer algorithms
    • PAPR reduction
    • Channel estimation
    • MIMO transmission / detection
  • Development/testing of MAC-layer algorithms
    • Multi-user scheduling
    • Link-adaptation

Use case: Development of a custom scheduling algorithm

The scheduling process in LTE is not restricted by the 3GPP standards in order to promote competition between products from different vendors. LteSystem is the ideal simulation platform for the development and testing of scheduling algorithms since it provides:

  • LTE-compliant downlink transmission chain
  • LTE-compliant channel information feedback mechanism
  • Sophisticated MIMO channel modelling capabilities

The figure below demonstrates the allocation of time-frequency resources to multiple users (shown with different colours) corresponding to three basic scheduling algorithms supplied with LteSystem.

Scheduling Example
It is clear that the different allocation approaches will have a significant impact on the system-level performance but also on the QoS experienced by the users.

Release-1 of LteSystem supports channel-aware scheduling for maximising the performance of the scheduling process. Release-2 supports a full L2 implementation which enables cross-layer QoS-aware scheduling.


LteSuite is a powerful simulation tool for use on the research and teaching of OFDMA-based communication systems such as 3GPP – LTE. It offers invaluable insight on the MIMO-OFDMA transmission chain and the impact of specific procedures on the overall link-level and system-level performance.

Research with LteSuite

Using LteSuite as part of the research workflow allows you to spend more time and effort on actual research than on the simulation platform itself. The modular implementation of the LteLink and LteSystem toolboxes for MATLAB enables the straightforward integration of user-designed algorithms and their effortless comparison with the performance of conventional PHY and MAC-layer algorithms.

Use case: Research on the effect of user velocity on cell-throughput


The figure below corresponds to a study performed with the LteSystem Toolbox for MATLAB. The cell-throughput of an LTE system is depicted as a function of the users’ speed for the 4 reporting modes in LTE (Wideband, UE-Selected Periodic/Aperiodic and Higher-Layer selected).
LteSuite thput vs speed
Further investigation on the above scenario could lead to an algorithm for adapting the reporting mode used according to a user’s speed.

Teaching with LteSuite

The efficient design and meaningful graphical output of LteSuite makes it a priceless tool in helping students visualize complex PHY or MAC-layer processes such as:

  • Channel coding
  • Modulation
  • MIMO precoding
  • MIMO propagation
  • Channel-estimation
  • MIMO detection
  • Link-adaptation
  • Multi-user scheduling

Use case: Demonstration of the effect of frequency-selective fading


The figures below are generated with LteWave and demonstrate the effect of a frequency-selective channel on a 16-QAM modulated signal.
LteWave flat f

Frequency response and constellation-diagram for a flat-response channel


LteWave eva f

Frequency response and constellation-diagram for a frequency-selective channel


The effect of the frequency-selective channel on the signal can be visualised by the students and the effect of noise can be easily distinguished from the effect of frequency fading (both signals have the same average SNR = 30 dB).


Significant discounts are available for eligible institutions. For more details please contact us on

info at antcor dot com