
Learn about optional raspberry pi accessories to improve performance, including ssd drives, sturdy cases with gpio pin numbers, an m2 case with built-in ssd, full-size hdmi ports, and a remote power control.
Install Kali Linux on Raspberry Pi, burn image to micro SD, boot, set up network sharing, and connect via PuTTY or VNC to manage Kali remotely.
Learn how software defined radio combines software and hardware to receive radio communications, with examples like broadcast radio, aircraft signals, DMR, pagers, and satellites, noting some devices are receive-only.
Build an ads-b receiver with a Raspberry Pi and rtl-sdr dongle, decode signals using spyware, and connect to FlightAware to track nearby aircraft.
Welcome to “SDR for Ethical Hackers and Security Researchers 5.0” — a practical, lab-focused course designed to explore Software Defined Radio (SDR) concepts using Raspberry Pi in a safe, educational, and legally compliant environment.
This course focuses on understanding how radio communication systems work, how wireless data transmission operates at a technical level, and how security researchers analyze radio-frequency behavior in controlled lab setups. All demonstrations are performed on personally owned hardware and isolated test environments strictly for educational and defensive research purposes.
You will begin by setting up a Raspberry Pi for SDR-based experimentation, including operating system installation and configuration without traditional peripherals. A refresher on SDR fundamentals will ensure all learners understand frequency concepts, modulation basics, and signal transmission principles.
The course then walks through structured projects such as building a PiAware system to understand how aircraft tracking works using publicly broadcast aviation signals. You will explore how text, voice, and image data can be transmitted between authorized test devices using radio frequencies in a closed lab setup without internet connectivity.
We also examine signal capture concepts to understand how replay vulnerabilities occur in poorly secured wireless systems — and more importantly, how to design systems to prevent such weaknesses.
Disclaimer:
All exercises and demonstrations in this course are conducted in controlled lab environments using personal hardware. This course is strictly for educational, ethical, and defensive purposes. Students must comply with all local laws and regulations. Unauthorized interception, disruption, or misuse of wireless communications is strictly prohibited.