Finite-Difference Time-Domain (FDTD) method is a numerical technique used to solve electromagnetic problems. It involves dividing a three-dimensional space into small cells and calculating electric and magnetic fields at each time step. FDTD is used in various fields including antenna design, photonics, and biomedical engineering. Proper understanding of FDTD requires knowledge of electromagnetism and advanced mathematical skills.

Fluid Structure Interaction refers to the study of the interaction between fluids and solid structures, focusing on how the movement and forces of fluids affect the behavior of structures and vice versa. This skill encompasses the principles of fluid dynamics and structural mechanics, enabling the analysis and prediction of performance in various engineering applications. Knowledge of Fluid Structure Interaction is used in fields such as aerospace, civil engineering, and biomedical engineering to design safer and more efficient structures by understanding the effects of fluid forces on structural integrity and performance.

ModeliCA is a specialized software skill that involves using the ModeliCA language to create models of complex systems in various industries such as automotive, aerospace, and telecommunications. It is a modeling language that enables engineers to create and simulate dynamic models of physical systems in a more efficient and effective manner. The skill involves knowledge of both modeling concepts and the ModeliCA language. It is a valuable skill for professionals in the fields of engineering and computer science.

Multiphysics is a specialized field that involves the simultaneous study of multiple physical phenomena such as heat transfer, fluid flow, and electromagnetism in a single system or device. It requires expertise in different scientific disciplines, mathematics, and computer modeling tools to understand, simulate and analyze interactions between different physical variables. Multiphysics applications are found in many fields, including engineering, material science, bioengineering, and environmental sciences.

Turbulence Modeling refers to the mathematical and computational techniques used to simulate and predict the behavior of turbulent flows in various fluid dynamics applications. This skill encompasses the development of models that capture the complex interactions and energy transfer within turbulent systems, enabling accurate analysis of fluid behavior under different conditions. Knowledge of Turbulence Modeling is applied in fields such as aerospace engineering, environmental science, and mechanical engineering to optimize designs, improve performance, and enhance safety in systems influenced by turbulent flow.