Flipper Zero: Difference between revisions
From charlesreid1
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=Overview= | |||
* [[Flipper Zero/Overview]] | |||
* [[Flipper Zero/Momentum Firmware]] | |||
=Hardware= | |||
* [[Flipper Zero/ESP32]] | |||
* [[Flipper Zero/ESP32 Plus GPS]] | |||
=Project Ideas= | =Project Ideas= | ||
==Security | ==Mathematics== | ||
* [[Flipper Zero/Prime Number Generator]]: ideal for learning how to write basic C programs for the Flipper, and learning the API for the user interface. | |||
==Wireless Security== | |||
* [[Flipper Zero/Rogue AP Detector]]: Create an advanced wireless security monitor that identifies suspicious access points, captures handshakes, and performs real-time network analysis. The enhanced antenna range helps detect distant threats. | * [[Flipper Zero/Rogue AP Detector]]: Create an advanced wireless security monitor that identifies suspicious access points, captures handshakes, and performs real-time network analysis. The enhanced antenna range helps detect distant threats. | ||
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* [[Flipper Zero/Deauth Attack Detector]]: Create an advanced wireless security monitor that detects unusual uppticks in deauth packets, indicating that a possible deauth attack is in progress. | * [[Flipper Zero/Deauth Attack Detector]]: Create an advanced wireless security monitor that detects unusual uppticks in deauth packets, indicating that a possible deauth attack is in progress. | ||
* RFID/NFC Relay Attack System: Develop a tool for security research that can relay NFC/RFID communications over long distances using the wireless hardware | * RFID/NFC Relay Attack System: Develop a tool for security research that can relay NFC/RFID communications over long distances using the wireless hardware. This type of attack demonstrates vulnerabilities in contactless payment and access systems. | ||
==RF | ==Wireless RF Projects== | ||
* Multi-Protocol RF Gateway: Create a bridge between different RF protocols (433MHz, 868MHz, 2.4GHz) using | * Multi-Protocol RF Gateway: Create a bridge between different RF protocols (433MHz, 868MHz, 2.4GHz) using the ESP32 board. Program custom C code to translate between protocols like LoRa, Zigbee, and proprietary formats in real-time. | ||
** Example: Create a gateway that bridges LoRa sensors in agricultural fields with WiFi-connected farm management systems. Translate between long-range LoRa sensor data and standard WiFi/HTTP protocols. | |||
* | |||
* IoT Device Fuzzer: Build an automated fuzzing system that discovers and stress-tests IoT devices on local networks. Use the wireless hardware to scan for devices and the C program to generate malformed packets to test device security responses. | * IoT Device Fuzzer: Build an automated fuzzing system that discovers and stress-tests IoT devices on local networks. Use the wireless hardware to scan for devices and the C program to generate malformed packets to test device security responses. | ||
==Automation and Control Projects== | ==Automation and Control Projects== | ||
* Drone Communication Interceptor: Develop a system to monitor and analyze drone communication protocols. Use the enhanced RF capabilities to intercept control signals and telemetry data, with C code for real-time protocol analysis and logging. | * Drone Communication Interceptor: Develop a system to monitor and analyze drone communication protocols. Use the enhanced RF capabilities to intercept control signals and telemetry data, with C code for real-time protocol analysis and logging. | ||
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* Vehicle Diagnostic Gateway: Build a wireless OBD-II interface that captures vehicle data and transmits it over WiFi. The C program handles CAN bus communication while the ESP32 streams diagnostic data to mobile apps or cloud services. | * Vehicle Diagnostic Gateway: Build a wireless OBD-II interface that captures vehicle data and transmits it over WiFi. The C program handles CAN bus communication while the ESP32 streams diagnostic data to mobile apps or cloud services. | ||
== | ==Emergency and Disaster Communications== | ||
* Emergency Mesh Network Node: Create a disaster-resilient communication system where Flipper devices form a mesh network using ESP32 WiFi capabilities. The C program handles message routing, encryption, and data synchronization across the network, with the esp controller extending communication range in emergency scenarios | * Emergency Mesh Network Node: Create a disaster-resilient communication system where Flipper devices form a mesh network using ESP32 WiFi capabilities. The C program handles message routing, encryption, and data synchronization across the network, with the esp controller extending communication range in emergency scenarios | ||
==Mobile Projects== | ==Mobile Projects== | ||
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* Mobile Foxhunt Rig: Transmitting a foxhunt signal (morse code beacon, or automated voice beacon) on a VHF frequency (144, 440, other) | * Mobile Foxhunt Rig: Transmitting a foxhunt signal (morse code beacon, or automated voice beacon) on a VHF frequency (144, 440, other) | ||
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=Other Future Project Ideas= | |||
==Smart Agriculture Protocol Bridge== | ==Smart Agriculture Protocol Bridge== | ||
Project Overview: | Project Overview: | ||
* Create a gateway that bridges LoRa sensors in agricultural fields with WiFi-connected farm management systems. | * Create a gateway that bridges LoRa sensors in agricultural fields with WiFi-connected farm management systems. Translate between long-range LoRa sensor data and standard WiFi/HTTP protocols. | ||
Learning Objectives: | Learning Objectives: | ||
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Implementation Details: | Implementation Details: | ||
Core C functions | Core C functions to implement: | ||
* lora_packet_decode() - Parse incoming LoRa sensor data | * lora_packet_decode() - Parse incoming LoRa sensor data | ||
* json_serialize_sensor_data() - Convert to standard format | * json_serialize_sensor_data() - Convert to standard format | ||
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Project Overview: | Project Overview: | ||
* Develop a gateway that translates between Zigbee industrial sensors and Modbus TCP networks. | * Develop a gateway that translates between Zigbee industrial sensors and Modbus TCP networks. Work with real industrial protocols used in manufacturing and building automation. | ||
Learning Objectives: | Learning Objectives: | ||
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Implementation Details: | Implementation Details: | ||
C Advanced functions | C Advanced functions to develop: | ||
* zigbee_cluster_handler() - Process different Zigbee application clusters | * zigbee_cluster_handler() - Process different Zigbee application clusters | ||
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Technical Requirements: | Technical Requirements: | ||
* Hardware: Flipper Zero + | * Hardware: Flipper Zero + esp32 controller + ESP32 + RTL-SDR + audio interface | ||
* Protocols: APRS (144.39MHz) ↔ P25/DMR (400-500MHz) ↔ WiFi/Internet | * Protocols: APRS (144.39MHz) ↔ P25/DMR (400-500MHz) ↔ WiFi/Internet | ||
* Data Types: Position reports, emergency messages, resource requests | * Data Types: Position reports, emergency messages, resource requests | ||
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Project Overview: | Project Overview: | ||
* | * Reverse engineer an unknown proprietary wireless protocol (provided by instructor) and create a gateway that translates it to standard MQTT for IoT integration. This teaches protocol analysis, reverse engineering, and documentation skills. | ||
Learning Objectives: | Learning Objectives: | ||
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==(General Project Info)== | ==(General Project Info and Resources)== | ||
Resources | Resources | ||
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* Network programming concepts | * Network programming concepts | ||
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=Flags= | =Flags= | ||
Latest revision as of 16:20, 7 September 2025
Overview
Hardware
Project Ideas
Mathematics
- Flipper Zero/Prime Number Generator: ideal for learning how to write basic C programs for the Flipper, and learning the API for the user interface.
Wireless Security
- Flipper Zero/Rogue AP Detector: Create an advanced wireless security monitor that identifies suspicious access points, captures handshakes, and performs real-time network analysis. The enhanced antenna range helps detect distant threats.
- Flipper Zero/Deauth Attack Detector: Create an advanced wireless security monitor that detects unusual uppticks in deauth packets, indicating that a possible deauth attack is in progress.
- RFID/NFC Relay Attack System: Develop a tool for security research that can relay NFC/RFID communications over long distances using the wireless hardware. This type of attack demonstrates vulnerabilities in contactless payment and access systems.
Wireless RF Projects
- Multi-Protocol RF Gateway: Create a bridge between different RF protocols (433MHz, 868MHz, 2.4GHz) using the ESP32 board. Program custom C code to translate between protocols like LoRa, Zigbee, and proprietary formats in real-time.
- Example: Create a gateway that bridges LoRa sensors in agricultural fields with WiFi-connected farm management systems. Translate between long-range LoRa sensor data and standard WiFi/HTTP protocols.
- IoT Device Fuzzer: Build an automated fuzzing system that discovers and stress-tests IoT devices on local networks. Use the wireless hardware to scan for devices and the C program to generate malformed packets to test device security responses.
Automation and Control Projects
- Drone Communication Interceptor: Develop a system to monitor and analyze drone communication protocols. Use the enhanced RF capabilities to intercept control signals and telemetry data, with C code for real-time protocol analysis and logging.
- Vehicle Diagnostic Gateway: Build a wireless OBD-II interface that captures vehicle data and transmits it over WiFi. The C program handles CAN bus communication while the ESP32 streams diagnostic data to mobile apps or cloud services.
Emergency and Disaster Communications
- Emergency Mesh Network Node: Create a disaster-resilient communication system where Flipper devices form a mesh network using ESP32 WiFi capabilities. The C program handles message routing, encryption, and data synchronization across the network, with the esp controller extending communication range in emergency scenarios
Mobile Projects
Designed to be mobile, battery-powered or car-powered, and deployable in a go-bag or go-case (Pelican waterproof hard case, antennas, etc.)
- Mobile APRS Rig: Flipper Zero as the brains of the operation, software layer, connected to GPS hardware.
- Mobile Wardriving Rig: Flipper Zero scanning wifi networks, connected to GPS hardware. Kismet or other tool.
- Mobile Foxhunt Rig: Transmitting a foxhunt signal (morse code beacon, or automated voice beacon) on a VHF frequency (144, 440, other)