N1N0

What we do!

Tutti i dispositivi elettronici sono alimentati dal fumo bianco. Quando il fumo esce, il dispositivo è morto.

Milan Nikolic

Our areas of expertise:

  • Schematic & PCB Layout: Designing schematics and translating them into layout.
  • EMI / Signal Integrity: Optimizing board design to minimize electromagnetic interference (EMI) and ensure high-speed signals travel without distortion.
  • Multi-layered flex circuit (up to 8L): Engineering flexible printed circuits up to 8 layers for compact, bendable, or high-vibration applications.
  • Multi-layered circuit (up to 12L): Designing high-density rigid PCBs up to 12 layers to route complex architectures and advanced components.
  • STM32 & STM8 / ESP32 / Arduino: Developing hardware systems around popular microcontroller architectures, ranging from industrial-grade MCUs to wireless-enabled chips.
  • Sensors: Integrating and conditioning signals from various physical sensors for accurate data acquisition.
  • Filters HW and FW/SW: Designing analog hardware filters and digital software algorithms to eliminate noise and clean up signals.
  • Mixed-Signal & Analog electronics & Digital electronics: Comprehensive design bridging continuous analog signals, digital logic, and the conversion interfaces between them.
  • AC/DC converters & DC/DC converters: Developing efficient power supplies to convert alternating current to direct current or to regulate DC voltage levels.
  • Motion control (BLDC), PID control of DC motors: Implementing precise motor control for brushless and brushed DC motors using closed-loop PID feedback algorithms.
  • PCB antenna design and tuning: Custom designing and calibrating on-board trace antennas for optimal wireless transmission and frequency matching.
  • High-Frequency system: Engineering systems operating at microwave frequencies where impedance control and transmission line effects are critical.
  • RFID / WiFi: Integrating and optimizing short-range and local area wireless communication protocols.
  • VHDL-code: Writing hardware description language code to configure FPGA internal logic for ultra-fast, parallel data processing.
  • Circuit simulation, analysis and modelling: Utilizing simulation software (e.g., SPICE) to virtually test circuit behavior, analyze worst-case scenarios, and predict performance before prototyping.
  • HW testing and debugging: Utilizing laboratory instruments (oscilloscopes, logic analyzers) to validate physical boards and troubleshoot hardware faults.
  • Reverse engineering and teardowns: Disassembling and analyzing existing electronics to understand their architecture, functionality, and design choices.
  • FW development in assembly for MCUs: Writing low-level assembly code for maximum execution speed, minimal memory footprint, and direct hardware control.
  • FW development in C/C++ for MCUs: Developing embedded software using industry-standard languages to ensure scalable, modular, and maintainable codebases.
  • Real-time applications (FreeRTOS): Implementing real-time operating systems to manage deterministic multitasking and time-critical operations in embedded systems.