Creating hardware that thinks — embedded systems & PCB design done right.
I design reliable microcontroller-based systems, well-structured PCB layouts, and integrated IoT solutions. My work spans from driver-level firmware and high-speed digital interfaces to complete hardware platforms. I focus on building systems that are stable, efficient, and ready for real-world deployment.
LTE GPS Tracker with dual Power Modes
LTE Cat M1 / NB-IoT GPS tracker designed for asset monitoring, featuring efficient power management (dual supply), GNSS accuracy, and cloud connectivity.
Multi Channel Energy and IO control with WiFi and LTE
General purpose energy controller for managing multiple power sources (generator and mains) and loads with WiFi and LTE connectivity.
Inertia-Based LED Controller
An LED strip controller that uses inertial measurement unit (IMU) data to create dynamic lighting effects based on motion and orientation.
Cable Orientation and Connection Tester
A PCB that tests and verifies correct cable connections and orientations for various types of cables to ensure proper functionality and prevent damage.
ESP32 HID Device
A Human Interface Device (HID) based on the ESP32 microcontroller, designed for custom input/output applications and peripherals.
ESP32 S3-Based Control Board
A control board based on the ESP32 S3 microcontroller, designed for embedded applications requiring WiFi, Bluetooth, real-time clock and Data logging capabilities.
Compute Module 4/5 Carrier Board
Compute Module 4 Carrier Board for servo control and sensor interfacing, camera support and Google Coral integration.
LED Controller
LED controller with USB C Power Delivery Input, MCU control, Timer circuit and vibration sensor integration.
E-Bike Controller
An E-Bike controller PCB designed to manage motor control, battery management, Lights switching, and user interface for electric bicycles.
About Me
I’m an embedded systems and hardware engineer specializing in designing reliable, simulation-driven electronic systems. My expertise spans the entire hardware development pipeline, including:
- Requirements-to-Hardware Translation: Turning functional requirements into validated circuit designs and embedded architectures.
- Simulation-Driven Engineering: Using LTspice and analytical methods to verify behavior, optimize performance, and eliminate design risks early.
- Circuit & PCB Development: Creating production-ready schematics and PCB layouts with focus on signal integrity, power delivery, EMI/EMC, thermal paths, and manufacturability.
- Custom Development Boards: Designing test and evaluation boards to accelerate firmware development, sensor testing, driver tuning, and system validation.
- IoT Hardware Architecture: Integrating sensors, wireless radios, power systems, and MCU-level control into complete, deployment-ready hardware platforms.
- Low-Level Firmware Engineering: Implementing drivers, peripheral interfaces, and embedded control logic for ESP32, STM32, nRF, and Atmega platforms.
- End-to-End Hardware Delivery: Documenting design decisions, generating BOMs, preparing manufacturing files, and supporting prototype-to-production transitions.