Adrian W.

*Strategic Technical Direction:Defining system architecture and feasibility analysis for complex hardware projects in the Medical, Aerospace, and Consumer Electronics sectors.*Full Product Development:Managing the complete project lifecycle, from initial Proof of Concept (PoC) to Design for Manufacturability (DFM) and mass production.*Advanced PCB Design:Executing high-complexity designs (12+ layers, HDI, High-Speed Digital Signal, RF/BLE) using Altium Designer and KiCad.*In-House Prototyping and Validation:Overseeing assembly, integration, and rigorous validation in our fully equipped in-house laboratory to ensure functionality and reliability before delivery.*Production Management:Coordinating with suppliers and factories for production-ready files (Gerbers, BOM, CPL) and supervising industrial scaling.*Technical Consulting:Primary point of contact for clients in the US and Europe, translating business needs into precise engineering specifications.

*High-Speed Hardware Design (STM32MP1):Comprehensive design of the baseboard (Mainboard) based on the STM32MP1 microprocessor. Execution of **high-speed routing for DDR3 memory**, ensuring signal integrity and impedance control.*Ultra-Low Noise Signal Acquisition:Analog Front-End (AFE) design for reading critical **photonic signals**. Implementation of Transimpedance Amplifiers (TIA) and digitization using a **24-bit ADC**, optimizing Signal-to-Noise Ratio (SNR) and Power Supply Rejection Ratio (PSRR) to detect minimal variations in the photonic chip.*Design under Medical Regulations (IEC 60601-1):Development of the power supply architecture and galvanic isolation strictly following electrical safety standards for medical devices (IEC 60601-1).*Embedded Linux & Software:Integration of the Linux operating system with the **Yocto Project on the STM32MP1**. Development of Python applications for real-time ADC data acquisition and visualization in an interactive **Graphical User Interface (GUI)**.*Research and Development (R&D):Multidisciplinary collaboration with physicists and photonics engineers for the validation of the complete system and sensor characterization.

*Real-Time Image Processing (FPGA):Implementation of artificial vision algorithms on FPGA for lens distortion correction with a deterministic latency of less than 5ms, critical for navigation and visualization.*High Availability Architecture (Redundancy):Design of mission-critical systems with dual redundancy in both hardware and firmware, ensuring operational continuity in case of failures and maximizing fault tolerance.*Design under Aerospace Regulations (DO-254):Development of complex electronic hardware complying with the DO-254 design assurance guidance for airworthy hardware.*Full Cycle and In-House Validation:Design of military-grade PCBs, followed by assembly, soldering, and functional validation of prototypes in our own laboratory to ensure robustness before certification.