Standards-Based Modeling

Build an FM mono or stereo receiver using captured signals or real time received signals.

Build an FM mono or stereo receiver using captured signals or real time received signals.

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 captured signal, or receive signals over-the-air in real time using an RTL-SDR radio, an ADALM-PLUTO radio, or a USRP B200/B210 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 captured signal, or receive signals over-the-air in real time using an RTL-SDR radio, an ADALM-PLUTO radio, or a USRP B200/B210 radio.

Use two Universal Software Radio Peripheral devices exploiting SDRu (Software Defined Radio USRP System objects to perform full duplex communication by transmitting/receiving recorded audio simultaneously using MATLAB® and the FRS protocol.

Retrieve information about WiFi networks on the 5 GHz band using a software-defined radio (SDR). The example scans over the 5 GHz beacon channels and captures waveforms for analysis within MATLAB®. The example then decodes the OFDM packets to determine which packets are access point (AP) beacons. The AP beacon information includes the service set identifier (SSID), media access control (MAC) address (also known as the basic SSID, or BSSID), AP channel bandwidth, and 802.11 standard used by the AP.

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 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™.

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

Track planes by processing automatic dependent surveillance-broadcast (ADS-B) signals using Simulink® and Communications Toolbox™. You can use captured and saved signals, or receive signals in real time using an RTL-SDR radio, an ADALM-PLUTO radio or a Universal Software Radio Peripheral (USRP™) radio. You can also visualize the tracked planes on a map, if you have the Mapping Toolbox™ software.