people
Dr Karol Lewandowski
As a Research Software Engineer and the founder of Mesh-Oriented Solutions, my expertise combines deep academic knowledge with extensive professional software development experience. My journey in finite element analysis began with a PhD at the University of Glasgow, leading to the co-development of MoFEM.
My contributions include numerical frameworks utilized in various fields, including biomechanics, nuclear energy and manufacturing and more. Skilled in crafting powerful Finite Element Method codes, primarily using modern C++, I also leverage modern development tools and methodologies for optimal efficiency and scalability.
My commitment is to provide innovative and effective numerical solutions, ensuring they meet the diverse and demanding needs. For a detailed overview of my professional background and project experience, please feel free to download my Curriculum Vitae.
MoFEM: Architects of Innovation
At Mesh Oriented Solutions, we’re passionate about pushing the boundaries of engineering simulation. Our driving force is MoFEM, a cutting-edge C++ library developed at the prestigious University of Glasgow. MoFEM empowers us with the tools and expertise to tackle complex engineering challenges with unparalleled accuracy and efficiency.
The MoFEM team acts as the guiding force behind Mesh Oriented Solutions, offering their extensive expertise, feedback, and continuous improvements. They are constantly expanding and evolving the codebase, ensuring it remains at the forefront of finite element technology.
More Than Just a FEM Library:
MoFEM is more than just an open-source finite element library. It is a vibrant community building a software platform designed to empower engineers, students, and academics. The team’s commitment to providing a flexible and adaptable modeling framework translates into real-world solutions for complex multi-physics problems.
Key Strengths:
The MoFEM team stands out with its unique approach, utilizing cutting-edge technologies like H1-, H(curl)-, H(div)-, and L2-conforming finite elements. They leverage error-driven hp-adaptivity and mesh topology evolution to deliver unparalleled accuracy and efficiency. Additionally, MoFEM’s HPC capabilities make it ideal for handling even the most computationally demanding projects.
Real-World Applications:
MoFEM’s effectiveness extends beyond theoretical applications. From solid mechanics and fluid mechanics to soft matter physics, heat transfer, electromagnetism and many more. MoFEM provides an essential tool for solving real-world engineering and applied physics problems.