In my current role, I championed the design of our cutting-edge rapid prototyping workflow and hardware infrastructure. Leveraging the STM32 MCU family with Simulink Embedded Coder, I pioneered the development of a robust framework that breathes life into our conceptual ideas. This innovative work has yielded a versatile, generic platform adaptable for diverse medical devices like reverse osmosis water systems, hemodialysis machines, CRRT machines, and online fluid generation systems. The platform's adaptability shines through its diverse interfaces, accommodating an array of components including stepper motors, DC motors, BLDC motors, solenoid valves, and various GPIOs. We seamlessly integrated input signals from pressure sensors, temperature sensors, level switches, and tachometers into our platform, ensuring comprehensive functionality.Utilizing STM32CubeMX for MCU configuration and harnessing MathWorks' hardware support package, we achieved a level of agnosticism that allows our platform to flexibly accommodate various MCU configurations. This approach streamlined our development process, enabling us to create a dynamic foundation adaptable to the unique demands of multiple medical devices.

As part of the Renal Innovation Team, I contributed to the generation of concepts and the transformation of ideas into functional prototypes. My role involved leveraging model-based design for rapid prototyping, facilitating the transition of concepts from paper to tangible solutions. Collaborating within the team, I played a pivotal role in the process of concept realization, ensuring prototypes aligned with project objectives.

As a Development Engineer, I was responsible for overseeing critical feedback control loops within a hemodialysis machine, managing functions like flow, pressure, temperature, degassing, ultrafiltration volumes, and the device's state machine logic. During my tenure, I led the transition from the National Instruments LabVIEW environment to Simulink Real-Time (Speedgoat) and the Matlab/Simulink environment. This migration significantly enhanced our capabilities, allowing us to engage in real-time simulation and advanced control system design. This shift not only streamlined our workflow but also empowered our team to adopt a more comprehensive and efficient approach to our development processes.

The main goal of the thesis was to develop a supplemental control algorithm for a current drive line strategy. The very successful project is currently patent pending and in line production.

I was in charge of this supermarket during evenings and weekends and I have been solely responsible for various sections of the store. From the large areas of responsibility I have developed a good senseof accountability and a very flexible and quick way to resolve unexpected problems.

I developed tools to analyze the vulnerability of the Swedish electrical grid. As a bonus assignment I also developed a tool for converting RT-90 coordinates to WGS 84 (GPS-system coordinates). This was needed since the old RT-90 system has become somewhat obsolete as most positioning systems now a day use the GPS system.

The work consisted of processing measurement data so that analysis could be performed. The program "Qualisys - Motion Capture System" was used.