Electronics Design Engineer for Medical Neurostimulation Device

@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.

@cesur135

As an Electrical and Electronics Engineer with a diverse experience across automation, process control, and embedded systems integration, I believe I have the right skills to tackle your neurostimulation device project. I have rich experience in designing custom electronics boards and have a deep understanding of the various elements outlined in your project description including analog electronics, power electronics, resonant circuits, and RF electronics. Additionally, over the course of my career, I've been involved in various system architecture designs which would be helpful for this project. My previous work on wastewater treatment plants involved integrating and controlling complex electrical systems for maximum process efficiency. Similarly, with your medical neurostimulation device project, I can assure you of a comprehensive approach that focuses on accuracy, safety, and reliability. My experience in medical devices is limited but I'm confident that my ability to quickly grasp project requirements combined with the technical support available will ensure its smooth execution.

@electronicsdone

Dear Client, The biggest risk in this project is not designing inductive and capacitive stimulation channels. It is building a mixed-signal, multi-emitter medical system that remains stable, safe, and controllable when high-frequency resonant circuits, precision power control, sensing, and embedded firmware all interact in real biological conditions. That is where advanced analog, RF, and safety-critical embedded system design experience matters. I would approach this by: 1. Designing stable LC resonant networks for inductive operation with adaptive tuning capability to compensate for coil variation, load coupling changes, and biological impedance shifts. 2. Implementing controlled current/voltage drive stages with feedback loops to ensure stable energy delivery across varying tissue impedance conditions without overshoot or drift. 3. Designing a robust communication layer (SPI/I2C/UART as appropriate) for real-time control, telemetry feedback, calibration, and synchronized multi-channel operation. One key question: Should V1 prioritize maximum control precision per channel (more complex analog control loops), or simplified but highly stable fixed architecture for first clinical feasibility validation? Message me and I’ll outline a clean engineering path to move this from system definition into a controlled, safe, and testable multi-emitter prototype with clear validation steps. Best regards, Prat PCB Must Innovations

@ElectronicsMust

Best Electronics Mixed-Signal Design Expert ⭐⭐⭐⭐⭐ Hi, When I saw your requirement for a Medical Neurostimulation Device involving multi-emitter control, resonant inductive channels, and capacitive excitation, it immediately reminded me of several complex mixed-signal and power electronics projects I’ve worked on involving resonant systems, multi-channel analog control, safety-critical embedded design, and system-level hardware integration. ✅ I have 11+ years of experience in analog electronics, mixed-signal design, power electronics, embedded hardware systems, and multi-channel PCB development. ✅ I can help you design the full system including architecture, schematics, PCB layout, BOM, prototype bring-up, and validation support. Before proceeding, may I clarify: 1. Should each emitter have independent power control or shared driver with per-channel regulation? 2. For inductive resonance, do you prefer hardware tuning or digital feedback-based control? Two quick suggestions: ✅ Ensure strong electrical and thermal isolation per emitter channel for safety and stability ✅ Use closed-loop control for resonance and current regulation to maintain consistent output Freelancer doesn’t allow me to message first — happy to help you build a safe, reliable, and production-ready medical electronics system from architecture to prototype stage. Kind regards, Avi Gupta Quality is never an accident

@revival786

Greetings! I will design your custom electronics board for up to five emitters with inductive channel resonant coil at 35 kHz, current controlled operation, automatic resonance tuning, AM modulation from audio signal 25 Hz to 8 kHz, capacitive channel at 6 MHz, real power control, temperature sensing, safety monitoring, power management, audio input output, Toradex SOM communication, and embedded firmware. Deliverables include schematics, PCB layout, BOM, firmware, prototype bring up and validation. PCB layout within 1 month, prototype within 2 months. Individual freelancer. Please share your LTspice simulations and coil measurements. Thanks, Revival