Embedded Systems Developer — Arduino & Raspberry Pi (FyreFite)

@Mahihassi

As a seasoned Electrical Engineer and Embedded Systems Developer, I am eager to bring my vast array of knowledge and skills to the FyreFite project. Over the years, I have honed my expertise in designing, developing, and implementing embedded systems that rival no other. My proficiency with Arduino and Raspberry Pi, which extends from maneuvering GPS modules to compass/magnetometers to tilt sensors, aligns perfectly with your project's requirement. In addition to my technical competence, I possess an essential quality that sets me apart: an ability to build rugged electronic enclosures apt for vehicles and outdoor environments. Thus, I'm not just technically adept to perform the wiring/soldering work for sensor installations on each vehicle but also strongly focused on long-lasting performance under harsh conditions.

@AwaisChaudhry

Hi, I understand FyreFite needs a reliable sensor package for each 4x4 tank, where GPS position, turret bearing, and cannon tilt are read cleanly and sent to the Raspberry Pi browser radar app in the agreed format: GPS:lat,lon|COMPASS:bearing|TILT:angle. I can help select the right GPS, compass, and tilt modules, wire them for vehicle mounting with up to 1m cable runs, build Arduino/RPi firmware, and test the thumper trigger plus door safety interlock. I will also document wiring, calibration, and setup steps so the system can be repeated across 10+ vehicles. I will keep the build practical for outdoor vehicle use, with stable readings, clear serial/GPIO data, and good communication with your software developer. I can also support on-site prototype testing in NSW when required. Do you already have a preferred Arduino/Raspberry Pi hardware setup for the prototype, or should I suggest the full sensor and control board stack? Best regards,

@ITECH

With over a decade of embedded systems experience, I’m well-equipped to develop FyreFite’s recreational tank battle platform. I have extensive hands-on expertise with Arduino platforms including Uno and Nano, ideal for building the onboard sensor package for each vehicle. My experience with GPS modules (NEO-6M), digital compasses (HMC5883L), and IMUs/tilt sensors (MPU6050) aligns directly with your requirements for real-time vehicle tracking, turret bearing, and cannon elevation monitoring. I’m also experienced with USB serial communication and Raspberry Pi GPIO integration, ensuring reliable sensor data transfer to your browser application in the required format. My background includes wiring and calibrating sensors for outdoor and vehicle environments, along with soldering, enclosure assembly, and rugged prototype installations. Being based in Australia allows me to support on-site testing in NSW, eliminating delays during development and integration phases. Beyond embedded development, we are a full-service product development team with expertise in IoT, automotive electronics, firmware, and software systems. We’ve successfully delivered products from concept to production with a strong focus on reliability, manufacturability, and cost optimization. I’d be excited to help bring FyreFite to life and build a scalable, dependable platform together.

@SPARKtechBD

Since 2003 I am working in Digital Electronic. So more than 18 years of experience in Electronics. Arduino NANO/UNO/MEGA, ESP32 and Raspberry PI to build a digital device to read sensor data and send it to the web server, motor control, control relay switches and LEDs. More than 5(five) years of experience in Arduino design and build. If you want an excellent and error-free project delivery, then send a message to me, please. Have more than 10(years) years of experience in C/C++ to build Windows/Linux applications and micro-controller firmware building. If you want a good job delivery, then send a message to me, please. Since 1995 I have been working on Analog and Digital Electronics to build any kind of device. I have build lots of devices. So more than 20 years of experience on Electronics. Including power supply design. Any kinds of schematic and PCB design. Expert PCB design in EasyEDA Pro IDE.

@tshibsamuel477

Hi there, I carefully read your project description, and this is a very interesting embedded systems integration project. I have experience with Arduino/ESP32/Raspberry Pi systems, GPS modules, IMU/tilt sensing, serial communication, sensor fusion, and rugged embedded hardware integration. I’m Samuel Tshibangu, a mechatronics engineer with several years of hands-on experience in embedded firmware, sensor interfacing, PCB/electronics integration, and real-time telemetry systems. I’ve already worked with similar modules including GPS, compass/magnetometer sensors, IMUs, GPIO-triggered outputs, and vehicle-style embedded installations. I can help select reliable sensor hardware, integrate and calibrate the system, structure the serial data interface cleanly, and ensure the setup is robust for outdoor/mobile environments. I’m also comfortable working alongside software teams and documenting the system for future replication. Feel free to send me a message so we can discuss the prototype and testing workflow. Best regards, Samuel Tshibangu

@majeed219

The honest challenge on FyreFite isn’t reading a GPS or a magnetometer — it’s keeping that data clean and synchronised on a 4x4 that’s bouncing through bush, with a magnetised turret swinging overhead and a pneumatic thumper firing on the same chassis. Magnetic interference, vibration drift, and replication across 10+ vehicles are where most builds fall over. One caveat upfront: I’m not Australia-based, so I can handle the design, firmware, prototype build, and documentation remotely, but the on-site NSW install and calibration would need a local hand or a travel arrangement. Why me? • Designed complex, miniaturized PCBs across STM32, Nordic nRF, ESP32, Raspberry Pi, and Arduino platforms. • Hands-on with NEO-6M GPS, HMC5883L and BNO055 magnetometers, and MPU6050/BNO055 IMUs — including hard-iron and tilt compensation for vehicle-mounted use. • Experienced wiring sensors for rugged outdoor enclosures with proper shielding, strain relief, and 1m+ cable runs. • Comfortable interfacing Arduino to Raspberry Pi via USB serial or GPIO with a clean, defined data format. • Documentation built for replication — wiring diagrams and setup notes so vehicles 2 through 10 go faster than the first. • Responds within 2 minutes during work hours. Happy to jump on a short call to walk through the sensor stack and the replication plan.

@mahmoudralizadeh

Hi, I have extensive experience in Embedded Linux, Raspberry Pi, Arduino-based systems, sensor integration, and hardware/software interfacing. I have worked on embedded products involving real-time data acquisition, communication protocols, and hardware integration in commercial devices. For this project I can assist with selecting appropriate GPS, compass, and tilt sensors, developing the firmware to acquire and combine sensor data, interfacing with the Raspberry Pi application, and implementing the safety interlock and thumper control logic. I can also provide wiring documentation and calibration procedures to support deployment across multiple vehicles. A few technical questions: What update rate is required for the sensor data (5 Hz, 10 Hz, higher)? Is GPS accuracy of standard NEO-class modules sufficient, or is sub-meter accuracy desired? Will the turret rotate continuously (requiring slip rings), or is rotation limited? How is the browser application currently receiving external data (WebSocket, Serial bridge, REST API)? I look forward to discussing the system architecture and deployment requirements. Best regards,

@yaroslavmark

Hi, the FyreFite project is a strong match for my background in embedded systems, vehicle-mounted electronics, and real-time sensor integration using Arduino and Raspberry Pi platforms. I have 10+ years of experience developing rugged embedded hardware systems and completed 80+ sensor/telemetry projects involving GPS, IMUs, GPIO control, serial protocols, and outdoor-installed electronics for mobile equipment and automation systems. Approach ✅ I will select and integrate stable sensor modules for GPS, heading, and barrel elevation, prioritizing noise immunity, calibration stability, and reliable operation in moving vehicle environments. ✅ I will develop the Arduino/RPi firmware to combine sensor readings into your required serial format while maintaining clean timing, filtering, and error handling for browser-side integration. ✅ I will implement the compressed-air trigger and door safety interlock using protected driver circuitry, then document wiring, calibration, and installation procedures for scalable deployment across multiple vehicles. Questions ✅ What update rate and positional accuracy are required for gameplay responsiveness and synchronization between vehicles? ✅ Will the turret rotation and cannon tilt use slip rings or flexible cable routing, and are there existing power rails available inside the vehicle? ✅ Do you already have a preferred communication method between the Raspberry Pi and sensor controller (USB serial, UART GPIO, CAN, etc.)? Best, Yaroslav

@shivkantverma

Hi, Greetings..! I am interested to work on your project. Please discuss regarding the project scope and details. Looking forward to working with you. Thank you Shivkant

@electronicsdone

Dear Client, The core challenge in this project is building a reliable real-time sensor integration system where GPS, compass, and tilt data must be accurately captured, synchronized, and transmitted from a moving vehicle to a Raspberry Pi-based browser application under real-world outdoor conditions. I can help turn your concept into a fully working embedded sensor system using Arduino and Raspberry Pi, ensuring stable communication between hardware sensors and your software platform. I have experience with embedded sensor integration, GPS tracking systems, IMU-based orientation sensing, and real-time data communication in mobile and outdoor environments. My approach would be: ✅ select and integrate GPS, magnetometer, and tilt/IMU sensors suitable for rugged vehicle use ✅ develop Arduino or Raspberry Pi to read, fuse, and stream sensor data in real time ✅ integrate digital outputs for compressed air thumper activation and safety interlockk Two things I would confirm first: 1. Should sensor fusion be handled on the Arduino side or directly on the Raspberry Pi for central processing? 2. What is the expected communication method between units—direct serial, CAN-style bus, or network-based streaming? If you message me, I can define a clean hardware architecture and data flow structure to ensure reliable multi-vehicle deployment and easy scaling for your system. Best regards, Prat PCB Must Innovations

@tetianam8

⭐⭐⭐⭐⭐ This is a very interesting real-world embedded systems project because reliability matters just as much as functionality. The biggest technical challenges will be sensor stability in a moving vehicle environment, magnetic interference around the turret assembly, vibration tolerance, and maintaining clean synchronized data between the hardware layer and browser-based radar system. I have strong experience with Arduino/Raspberry Pi integration, vehicle-mounted electronics, GPS/IMU systems, and rugged embedded hardware deployments. I’m comfortable handling both the electronics side and the practical field integration aspects needed for repeatable multi-vehicle installations. I can assist with: • GPS, compass, and inclinometer sensor integration • Arduino or Raspberry Pi firmware development • Stable serial/GPIO communication formatting • Thumper trigger and safety interlock integration • Cable routing and noise-resistant sensor wiring • Outdoor/vehicle-ready mounting considerations • Wiring diagrams and replication documentation for fleet rollout A few questions: Is the turret continuously rotating or limited-angle? Expected GPS update rate and positioning accuracy? Will CAN bus or vehicle power conditioning already exist onboard? This sounds like a fantastic engineering challenge, and I’d love to help bring it into a reliable field-ready system.

@yuliussmayoru

Hey there! Projects like this usually run into trouble when sensor data isn’t synchronized properly, readings become unreliable in moving environments, or wiring isn’t rugged enough for real-world use — I’d solve this by designing a stable sensor pipeline with calibrated inputs and durable integration for vehicle conditions. I’ve spent over 10 years working with embedded systems, Arduino, and Raspberry Pi, including sensor integration (GPS, IMU, compass) and real-time data communication, so this kind of system is something I’m very comfortable building end-to-end. For FyreFite, I’d use proven modules (like NEO-6M for GPS and BNO055 for combined compass + tilt to reduce noise and simplify wiring), and build a clean firmware layer (Arduino or Pi) that outputs structured data exactly as required. I’ll ensure stable readings even with vibration and movement, and handle filtering/calibration so your radar app gets clean, usable data. I’ll also integrate the thumper trigger and door safety interlock with proper fail-safe logic. I’m comfortable with wiring, soldering, and building rugged setups for outdoor/vehicle use, and I can document everything clearly so it scales across multiple vehicles. I also understand the importance of on-site calibration for accuracy.

@Webslinger01

I've been building production-grade embedded systems for over a decade, and your project is exactly the kind of work I do best. I handle the full stack — firmware, PCB layout, 3D enclosure design, and shipping a working prototype. I've shipped products like a smart vending machine deployed at Jersey Airport and a BLE-enabled golf ball with 18-month coin-cell battery life, both designed and built end-to-end by me. My approach is straightforward: I start with a clear architecture, build in parallel across hardware and software, and deliver a tested, deployable unit. If you want someone who understands both the firmware details and the manufacturing realities, I'm the right fit. Let me know when you're free to discuss the specifics.

@soniaer987

I read through your project requirements and I'm genuinely excited about the opportunity to bring your concept to life. With six years of hands-on experience building embedded systems from the ground up, I've worked on everything from custom PCB designs to full firmware stacks, and I love projects that need end-to-end thinking. I recently completed a similar build where I designed a compact ESP32-based controller that handled servo calibration and Wi-Fi control, delivering working boards in under three weeks. That project taught me exactly how to balance precision with speed, and I'd bring that same approach to your work. I'm happy to jump on a quick call to talk through your specific needs and how I can help.

@CyberSasu

Hi, I’m Saswata Mukhopadhyay. I have hands-on experience in electronics hardware and embedded coding, and I’d be glad to help with your project. I work with ESP32, STM32, Arduino, Raspberry Pi, sensors, communication protocols, and firmware development. I can support both hardware design/integration and coding/debugging, depending on your requirement. I focus on practical implementation, stable performance, and proper testing. If you share the project details, I can review it and help you build a reliable solution.

@MIndlabsAi6

Hey there, I'm Vishal Maharaj, a C Programming expert with 25 years of experience based in Perth, Australia. I'm excited about the opportunity to work on the FyreFite project. For the FyreFite project, I will approach the development of the hardware sensor package for the recreational tank battle experience by carefully selecting appropriate sensor modules, wiring them effectively, and integrating them with the Raspberry Pi to ensure reliable communication with the browser-based radar application. Looking forward to discussing this project further with you. Feel free to initiate the chat. Cheers, Vishal Maharaj

@hugog17

⭐⭐⭐⭐⭐ Senior Embedded Systems Engineer ⭐⭐⭐⭐⭐ Hello there, I am an embedded systems developer specialising in Arduino and Raspberry Pi sensor integration for outdoor and vehicle-mounted applications. A tilt sensor on a moving vehicle is the trickiest calibration challenge in this build — the MPU6050 needs complementary or Kalman filtering to separate barrel elevation from vehicle pitch and roll, otherwise the cannon angle reads incorrectly whenever the 4x4 is on uneven terrain. Built vehicle-mounted sensor packages combining NEO-6M GPS, HMC5883L compass, and MPU6050 IMU, outputting clean combined serial data to a host system at defined intervals. Relay-triggered outputs for physical actuators like your compressed air thumper are straightforward to wire cleanly alongside the sensor data stream. The agreed output format — GPS:lat,lon|COMPASS:bearing|TILT:angle — is clean to implement and easy to extend if the software developer needs additional fields later. Based in Australia and available for the NSW on-site calibration and installation phase. Is the prototype vehicle available for a single calibration visit, or will testing require multiple sessions across different terrain conditions?

@DngPhgNam

⭐⭐⭐⭐⭐ ✅Hi there, hope you are doing well! I have worked on similar projects involving embedded sensor packages for real-time vehicle tracking and telemetry, where sensor data seamlessly integrated into dashboard applications for easy monitoring. The most critical part to successfully complete this project is ensuring robust and reliable sensor communication with the Raspberry Pi and precise calibration for accurate position and angle readings. Approach: ⭕ Select and test GPS, compass, and tilt sensors optimized for outdoor vehicle use ⭕ Develop and deploy Arduino/RPi firmware to read and format sensor data exactly as specified ⭕ Wire sensors securely with rugged connectors and appropriate cable lengths ⭕ Integrate and test compressed air thumper and door sensor outputs ⭕ Collaborate closely with your software developer for interface alignment ⭕ Perform on-site installation, calibration, and provide detailed documentation for replication ❓ ❓ Which communication interface do you prefer between Arduino and Raspberry Pi GPIO for sensor data transfer? ❓ Are there any specific environmental ruggedness standards the hardware needs to meet? ❓ Could you share the timeline for prototype testing and installation in NSW? I am confident in delivering a durable, accurate, and fully integrated embedded system that enhances your FyreFite tank battle experience while meeting all your hardware and on-site requirements. Thank you for considering my proposal. Looking forward to collaborati

@Premiya3

Dear Client, FyreFite is a very exciting embedded systems project, and it aligns strongly with my experience in Raspberry Pi integration, Arduino firmware, sensor communication, serial protocols, GPIO interfacing, and real-world hardware automation workflows. I can help design and integrate the full vehicle sensor package so the GPS, compass, tilt sensors, safety interlocks, and physical feedback systems operate reliably in rugged outdoor conditions. I can work with modules such as NEO-6M GPS, BNO055/HMC5883L compass sensors, MPU6050/BNO055 tilt sensing, and Raspberry Pi or Arduino-based communication layers to deliver clean synchronized telemetry in the required browser-ready format. I can also assist with calibration, stable serial communication, wiring design, trigger outputs for the compressed-air thumper, and safety logic for the door-open interlock system. My approach focuses on reliability, maintainability, and modular replication so the system can scale cleanly across multiple vehicles with proper documentation, wiring diagrams, and deployment instructions. Thank you, Premiya.