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| * [[Flipper Zero/Rogue AP Detector]]: Project plan for an advanced wireless security monitor that identifies suspicious access points, captures handshakes, and performs real-time network analysis. | | * [[Flipper Zero/Rogue AP Detector]]: Project plan for an advanced wireless security monitor that identifies suspicious access points, captures handshakes, and performs real-time network analysis. |
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| * [[Flipper Zero/Deauth Attack Detector]]: Project plan for 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: Advanced wireless security monitor that detects unusual uppticks in deauth packets, indicating that a possible deauth attack is in progress. |
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| * 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. | | * 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. |
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| * 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.
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| ==Emergency and Disaster Communications==
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| * 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
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| ==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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| <!--
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| =Other Future Project Ideas=
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| ==Smart Agriculture Protocol Bridge==
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| Project Overview:
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| * 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.
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| Learning Objectives:
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| * Understanding LoRa modulation and packet structure
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| * JSON data serialization/deserialization
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| * HTTP client programming
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| * Basic protocol translation concepts
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| Technical Requirements
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| * Hardware: Flipper Zero + Pioneer controller + ESP32 addon + LoRa sensor nodes (SX1276 modules)
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| * Protocols: LoRa (433MHz) ↔ WiFi/HTTP (2.4GHz)
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| * Data Types: Soil moisture, temperature, humidity readings
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| Implementation Details:
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| Core C functions to implement:
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| * lora_packet_decode() - Parse incoming LoRa sensor data
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| * json_serialize_sensor_data() - Convert to standard format
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| * wifi_http_post() - Send to cloud platform
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| * protocol_mapping_table() - Maintain sensor ID translations
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| Deliverables:
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| * Working gateway device with 3+ sensor nodes
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| * Web dashboard showing real-time sensor data
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| * Protocol documentation and packet capture analysis
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| * Performance testing report (range, latency, packet loss)
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| Assessment Milestones
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| * Week 4: LoRa reception and basic parsing
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| * Week 8: WiFi transmission and cloud integration
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| * Week 12: Complete system with error handling
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| * Week 16: Documentation and performance analysis
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| ==Industrial IoT Protocol Converter==
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| Project Overview:
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| * Develop a gateway that translates between Zigbee industrial sensors and Modbus TCP networks. Work with real industrial protocols used in manufacturing and building automation.
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| Learning Objectives:
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| * Zigbee network topology and routing
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| * Modbus protocol implementation
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| * Real-time data processing and buffering
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| * Industrial communication reliability patterns
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| Technical Requirements
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| * Hardware: Flipper Zero + Pioneer controller + ESP32 + Zigbee coordinator module
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| * Protocols: Zigbee (2.4GHz) ↔ Modbus TCP over Ethernet
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| * Data Types: Machine status, energy consumption, alarm conditions
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| Implementation Details:
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| C Advanced functions to develop:
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| * zigbee_cluster_handler() - Process different Zigbee application clusters
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| * modbus_tcp_server() - Implement Modbus TCP slave functionality
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| * data_mapping_engine() - Complex protocol field translations
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| * alarm_priority_queue() - Handle critical industrial alerts
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| * network_redundancy_manager() - Failover mechanisms
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| Deliverables:
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| * Gateway supporting 10+ Zigbee devices
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| * Modbus TCP client for testing and visualization
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| * Industrial HMI integration demonstration
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| * Comprehensive protocol mapping documentation
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| * Fault tolerance and recovery testing report
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| Assessment Milestones:
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| * Week 3: Zigbee network formation and device discovery
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| * Week 6: Basic Modbus TCP implementation
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| * Week 10: Complete protocol translation with data mapping
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| * Week 14: Industrial reliability features and testing
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| * Week 16: Integration demo and comprehensive documentation
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| ==Emergency Communications Hub==
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| Project Overview:
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| * Build a multi-protocol emergency communication system that bridges amateur radio APRS packets (VHF), emergency service trunked radio systems (UHF), and internet connectivity for disaster response coordination.
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| Learning Objectives:
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| * Amateur radio packet protocols (AX.25/APRS)
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| * Trunked radio system analysis
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| * Emergency communication standards
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| * Real-time message routing and prioritization
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| * Cryptographic message integrity
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| Technical Requirements:
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| * Hardware: Flipper Zero + esp32 controller + ESP32 + RTL-SDR + audio interface
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| * Protocols: APRS (144.39MHz) ↔ P25/DMR (400-500MHz) ↔ WiFi/Internet
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| * Data Types: Position reports, emergency messages, resource requests
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| Implementation Details:
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| Complex C system functions:
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| * aprs_packet_decoder() - Full AX.25 protocol implementation
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| * p25_trunk_tracker() - Track and decode trunked radio systems
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| * message_priority_router() - Route based on emergency classifications
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| * geofencing_engine() - Location-based message filtering
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| * encryption_handler() - Secure sensitive emergency communications
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| * mesh_networking() - Peer-to-peer emergency network formation
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| Deliverables:
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| * Multi-protocol emergency gateway
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| * Emergency coordinator web interface with mapping
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| * Mobile app for field personnel
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| * Crypto key management system
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| * Disaster simulation testing report
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| * Integration with existing emergency management software
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| Assessment Milestones
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| * Week 4: APRS decoding and basic position plotting
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| * Week 7: Trunked radio monitoring implementation
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| * Week 10: Internet gateway and web interface
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| * Week 13: Security features and encryption
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| * Week 16: Full system demonstration with simulated emergency
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| ==Proprietary Protocol Reverse Engineering Gateway==
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| Project Overview:
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| * 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.
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| Learning Objectives:
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| * RF signal analysis and protocol reverse engineering
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| * Custom protocol implementation from specifications
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| * MQTT broker integration and topic design
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| * Security analysis of proprietary systems
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| * Professional documentation and presentation skills
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| Technical Requirements:
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| * Hardware: Flipper Zero + Pioneer controller + ESP32 + spectrum analyzer software
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| * Protocols: Unknown proprietary (various frequencies) ↔ MQTT over WiFi
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| * Analysis Tools: GNU Radio, Universal Radio Hacker, custom signal processing
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| Implementation Details:
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| C Reverse engineering and implementation functions:
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| * signal_analyzer() - Statistical analysis of unknown signals
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| * protocol_state_machine() - Implement discovered protocol logic
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| * packet_validator() - CRC/checksum verification functions
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| * mqtt_topic_mapper() - Dynamic topic generation from protocol fields
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| * security_analyzer() - Identify encryption/obfuscation methods
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| * protocol_fuzzer() - Test discovered protocol robustness
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| Deliverables:
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| * Complete protocol reverse engineering report
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| * Working gateway implementation
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| * MQTT integration with dashboard visualization
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| * Security assessment and vulnerability analysis
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| * Protocol specification documentation
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| * Professional presentation to industry panel
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| Assessment Milestones
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| * Week 3: Initial signal capture and basic analysis
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| * Week 6: Protocol structure identification and hypothesis
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| * Week 9: First working decoder implementation
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| * Week 12: Complete gateway with MQTT integration
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| * Week 15: Security analysis and vulnerability testing
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| * Week 16: Final presentation and peer review
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| ==(General Project Info and Resources)==
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| Resources
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| * Development Environment Setup
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| * IDE: Platform.io with ESP32/Flipper Zero toolchains
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| * Testing: RF signal generators, protocol analyzers
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| * Documentation: Technical writing templates and standards
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| Grading Rubric (Applicable to All Projects):
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| * Technical Implementation (40%): Code quality, protocol accuracy, performance
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| * Documentation (25%): Technical specs, user manuals, code comments
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| * Innovation (20%): Creative solutions, advanced features, optimization
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| * Presentation (15%): Demo quality, technical explanation, Q&A handling
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| Prerequisites:
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| * C programming proficiency
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| * Basic RF/wireless communication theory
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| * Embedded systems fundamentals
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| * Network programming concepts
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| =Flags= | | =Flags= |