Physics and Computational Engineering is a multidisciplinary field that combines the principles of physics with advanced computational techniques to solve complex problems and develop new technologies. This field uses computational methods to simulate and model physical phenomena in nature and technology, allowing for the analysis and prediction of behaviours in systems that would be difficult or impossible to study experimentally. Future graduates will be prepared to contribute significantly to the scientific and technological advancement of society.
Future graduates will be able to apply knowledge of theoretical, applied, and experimental physics, together with skills in programming, data analysis, and artificial intelligence, to a wide range of problems. They will be capable of using computational tools to create models of physical systems, conduct detailed simulations, develop new technologies, and improve existing ones.
Physics and Computational Engineering vs. traditional engineering courses:
Physical Engineering: Focuses more on theoretical and experimental physics. Physics and Computational Engineering places greater emphasis on the practical application of this knowledge through computational simulation and modelling.
Computer Engineering: Concentrates more on software and information systems. Physical and Computational Engineering applies these skills in physical and engineering contexts, such as the simulation of natural phenomena and the development of new technologies based on physical principles.
Electrical Engineering: Focuses more on electrical circuits and communication systems. Physical and Computational Engineering uses this knowledge to solve broader and interdisciplinary problems, such as the creation of new devices based on advanced physical principles.