Engineering Physics

Program Overview

The Engineering Physics Master's program imparts a strong foundation in science and engineering, specializing in solid-state physics, optics, photonics, and nanotechnologies. Graduates possess the skills to drive innovation in various industries, with opportunities ranging from laser design to nanomaterial development and biomedical device creation. The program culminates in one of three finalizations: Nano-optics and Photonics, Nano and Physical Technologies, or Semiconductor Nanotechnologies.

Program Outline

The program focuses on equipping graduates with the skills to innovate in both industrial settings and basic research. The program emphasizes solid-state physics, optics, photonics, and nanotechnologies, making graduates highly competitive in the global market, particularly in sectors where these technologies are employed. The program offers three possible finalizations:

• Nano-optics and Photonics: This specialization focuses on the application of nanotechnology in optics and photonics, including the development of new materials and devices.
• Nano and Physical Technologies: This specialization explores the intersection of nanotechnology and physics, covering topics such as nanomaterials, nanofabrication, and nanoscale characterization.
• Semiconductor nanotechnologies: This specialization delves into the use of nanotechnology in semiconductor devices, including the design, fabrication, and characterization of nanoscale transistors and other semiconductor components.

Careers:

Graduates in Engineering Physics can find employment opportunities in various sectors where high-tech systems are designed and developed, including:

• Laser manufacturers: Designing and developing lasers for various applications, such as industrial manufacturing, medical treatments, and scientific research.
• System integrators based on photonics devices: Integrating photonics devices into complex systems, such as telecommunications networks, optical sensors, and imaging systems.
• Industries working on new materials: Developing and characterizing new materials with advanced properties, such as high strength, conductivity, or optical transparency.
• Vacuum technologies: Designing and developing vacuum systems for various applications, such as semiconductor fabrication, thin-film deposition, and scientific research.
• Biomedical devices: Developing and characterizing biomedical devices based on optical technologies, such as optical imaging systems, biosensors, and laser-based therapies.