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Use the capture function and an ADALM-PLUTO radio to record RF signals for post-capture processing in MATLAB®. Save an FM broadcast signal to a file as baseband samples. Read the file containing the recorded signal and demodulate the baseband samples.

Track planes by processing automatic dependent surveillance-broadcast (ADS-B) signals. You can use previously captured signals or receive signals in real time using an RTL-SDR radio, ADALM-PLUTO radio or USRP™ radio. You can also visualize the tracked planes on a map using Mapping Toolbox™.

Track planes by processing automatic dependent surveillance-broadcast (ADS-B) signals. You can use previously captured signals, or receive signals in real time using an RTL-SDR radio, an ADALM-PLUTO radio or a USRP™ radio. You can also visualize the tracked planes on a map with Mapping Toolbox™.

Build an FM mono or stereo receiver. You can either use recorded data from a file, or receive signals in real time using the RTL-SDR Radio, ADALM-PLUTO Radio, or USRP™ Radio.

Build an FM mono or stereo receiver. You can either use previously captured signals, or receive signals in real time using the RTL-SDR, ADALM-PLUTO or USRP™ radio.

Extract program or song information from FM radio stations using the RDS or RBDS standard and, optionally, the RadioText Plus (RT+) standard. You can use a previously captured signal, or receive signals over-the-air in real time using an RTL-SDR radio, an ADALM-PLUTO radio, or a USRP™ radio.

Extract program or song information from FM radio stations using the RDS or RBDS standard and, optionally, the RadioText Plus (RT+) standard. You can use a previously captured signal, or receive signals over-the-air in real time using an RTL-SDR radio, an ADALM-PLUTO radio, or a USRP™ radio.

Transmit and receive images encoded in IEEE^® 802.11™ waveforms using SDR.

Transmit and receive an image using an LTE waveform and a software-defined radio (SDR). The example generates a single or multi-antenna LTE waveform for simultaneous transmission and reception on a single SDR platform. During waveform generation, the example encodes and packs an image into a radio frame. Then, on reception, the example decodes the image from the received LTE waveform.

Use Communications Toolbox™ to read utility meters by processing Standard Consumption Message (SCM) signals and Interval Data Message (IDM) signals which are emitted by Encoder-Receiver-Transmitter (ERT) compatible meters. You can either use recorded data from a file, or receive over-the-air signals in real time using an RTL-SDR or ADALM-PLUTO radio.

Use Simulink® and Communications Toolbox™ to read utility meters by processing Standard Consumption Message (SCM) or Interval Data Message (IDM) signals emitted by meters. You can either use recorded data from a file, or receive over-the-air signals in real time using the RTL-SDR Radio or ADALM-PLUTO Radio.

Train a semantic segmentation network using deep learning for spectrum monitoring. One of the uses of spectrum monitoring is to characterize spectrum occupancy. The neural network in this example is trained to identify 5G NR and LTE signals in a wideband spectrogram.

Generate a reference measurement channel (RMC) downlink (DL) LTE waveform suitable for over-the-air transmission. This example also shows how to use a software-defined radio (SDR) to transmit the generated waveform using single or multiple antennas.

Recover the master information block (MIB) and basic system information from an over-the-air LTE downlink (DL) waveform. This example also shows how to receive an LTE waveform using a software-defined radio (SDR) with single or multiple antennas.

Track ships by processing automatic identification system (AIS) signals. You can use previously captured signals or receive signals in real time using an RTL-SDR radio, an ADALM-PLUTO radio or a USRP™ Radio. You can also show the tracked ships on a map using the Mapping Toolbox™.