Track ships by processing Automatic Identification System (AIS) signals using MATLAB® and Communications Toolbox™. You can either use captured signals or receive signals in real time using the RTL-SDR Radio. The example can show the tracked ships on a map, if you have the Mapping Toolbox™.

Track planes by processing Automatic Dependent Surveillance-Broadcast (ADS-B) signals using MATLAB® and Communications Toolbox™. You can either use captured signals or receive signals in real time using the RTL-SDR Radio or ADALM-PLUTO Radio. The example can show the tracked planes on a map, if you have the Mapping Toolbox™.

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 the RTL-SDR Radio or ADALM-PLUTO Radio.

Build an FM mono or stereo receiver using MATLAB® and Communications Toolbox™. You can either use captured signals, or receive signals in real time using the RTL-SDR Radio or ADALM-PLUTO Radio.

Measure and calibrate for the frequency offset between a transmitter and a receiver at the receiver using MATLAB® and Communications Toolbox™. You can either use captured signals or receive signals in real time using theCommunications Toolbox Support Package for RTL-SDR Radio. The receiver monitors the received signal, calculates the frequency offset between the transmitter and the receiver and displays it in the MATLAB® command window.

Build a walkie-talkie receiver using MATLAB® and Communications Toolbox™. The specific radio standard this example follows is FRS/GMRS (Family Radio Service / General Mobile Radio Service) with CTCSS (Continuous Tone-Coded Squelch System). You can use simulated signals, captured signals, or received signals from a commercial walkie-talkie using the Communications Toolbox Support Package for RTL-SDR Radio.

Implement a packetized modem with Data Link Layer [ 1 ] using MATLAB® and Communications Toolbox™. The modem features a packet-based physical layer and an ALOHA-based Data Link Layer. You can either simulate the system or run with radios using the Communications Toolbox Support Package for USRP® Radio.

使用MATLAB® and the Communications Toolbox™ to extract program or song information from FM radio stations using the RDS or RBDS standard and, optionally, the RadioText Plus (RT+) standard. You can either use captured signals or receive signals in real time using the RTL-SDR Radio or ADALM-PLUTO Radio.

Track planes by processing Automatic Dependent Surveillance-Broadcast (ADS-B) signals using Simulink® and Communications Toolbox™. You can either use captured and saved signals, or receive signals in real time using the RTL-SDR Radio or ADALM-PLUTO Radio. The example can show the tracked planes on a map, if you have the Mapping Toolbox™.

Create a remote sensing station that tracks planes using a Raspberry Pi™ and RTL-SDR radio. You will learn how to deploy a Simulink® model that processes Automatic Dependent Surveillance-Broadcast (ADS-B) signals and sends the demodulated data to a host PC using UDP packets for visualization.

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.

Build an FM mono or stereo receiver using Simulink® and Communications Toolbox™. You can either use captured signals, or receive signals in real time using the RTL-SDR or ADALM-PLUTO.

Build an FM mono receiver using a Raspberry Pi™ and RTL-SDR radio. You will learn how to deploy a Simulink® model that processes FM broadcast signals and play the audio through the Raspberry Pi's speaker.

Measure and calibrate for transmitter/receiver frequency offset at the receiver using Simulink® and Communications Toolbox™. You can either use captured signals or receive signals in real time using the Communications Toolbox Support Package for RTL-SDR Radio. The receiver monitors the received signal, calculates and display the transmitter/receiver frequency offset.

Implement a walkie-talkie receiver using Simulink® and Communications Toolbox™. The specific radio standard that this example follows is FRS/GMRS (Family Radio Service / General Mobile Radio Service) with CTCSS (Continuous Tone-Coded Squelch System). You can use simulated signals, captured signals, or received signals from a commercial walkie-talkie using the Communications Toolbox Support Package for RTL-SDR Radio.

Use Simulink® and the Communications Toolbox™ to extract program or song information from FM radio stations using the RDS or RBDS standard and, optionally, the RadioText Plus (RT+) standard. You can either use captured signals or receive signals in real time using the RTL-SDR Radio or ADALM-PLUTO Radio.

Implement a Bluetooth® Low Energy (BLE) transmitter using the Communications Toolbox™ Library for the Bluetooth Protocol. You can either transmit BLE signals using the ADALM-PLUTO radio or write to a baseband file (*.bb). The transmitted BLE signal can be received by the companion example, Bluetooth Low Energy Receiver, with any one of the following setup: (i) Two SDR platforms connected to the same host computer which runs two MATLAB sessions (ii) Two SDR platforms connected to two computers which run separate MATLAB sessions.

实现蓝牙®低能量(bie)接收机sing the Communications Toolbox™ Library for the Bluetooth Protocol. You can either use captured signals or receive signals in real time using the ADALM-PLUTO Radio. A suitable signal for reception can be generated by simulating the companion example, Bluetooth Low Energy Transmitter, with any one of the following setup: (i) Two SDR platforms connected to the same host computer which runs two MATLAB sessions (ii) Two SDR platforms connected to two computers which run separate MATLAB sessions.