Get a degree that's recognised worldwide and contribute to knowledge in your field. A Master of Science (MSc) will develop your technical, laboratory and academic writing skills to prepare you for a career in science. The Master of Science by Coursework and Thesis - MSc will take you between two and two and half years of full-time study or up to four years part-time. In the first year of your MSc, you'll take several courses related to your specialist subject area.

The Theoretical Physics track introduces the student to the intriguing diversity of physical theories and gives means to understand the world.

The MS degree having concentrations in Optics and/or Photonics, require 30 graduate credit hours. With a fully ONLINE option now available, our M.S. in Optics and Photonics is a flexible degree designed for students with a bachelor’s degree in electrical engineering, physics, mechanical engineering or related fields. Taught by world-renowned experts at UCF’s College of Optics and Photonics, the program offers students an in-depth curriculum that covers topics including electromagnetics, physical optics, lasers, optoelectronics, fiber optics, imaging, and more.

Deepen your understanding of the laws of physics to find technical solutions in a wide range of areas such as sustainability, healthcare, energy, digitalization, finance, space, high-tech manufacturing, and more. Can you imagine building electronic systems that are almost as energy efficient as the neurons in our brains? Or encryption technology that makes credit card payments impossible to crack? What about making solar panels significantly more efficient, or medical imaging techniques faster, and more accurate? What opportunities could a quantum computer offer?

The Master’s Degree Study Program Includes Conducting Research And Submitting A Written Thesis. Duration Of Studies: 2 Years. Courses Of Study. Physics.

The M.Sc. program in Physics offers a thesis (research) track and requires two years of full-time study. Outstanding students may enroll in the combined M.Sc.-Ph.D. track during the 2nd year of their M.Sc. studies. The Department of Physics maintains an extensive research program in all the major fields of Physics, including Astrophysics, High Energy Physics, Condensed Matter Physics, Electro-Optics, and Biophysics. Our graduates can be found throughout all the ranks of universities, research institutes, and industry in Israel.

The goal of this program is to train professional physicists who have a broad overview of contemporary physics and are able to join research on their specialized fields. This program is recommended to applicants who already have their BSc in physics and want to be research physicists by deepening their knowledge.

Enter the quantum realm, and explore the fascinating world of superconductivity, low-temperature physics, and quantum systems in this thrilling program. Working alongside globally leading researchers in world-class facilities, you will be operating at the forefront of technological innovations, contributing scientific solutions to the known and unknown problems of the future.

Studying an Applied Physics master's program merges the analytical depth of physics with practical engineering prowess, preparing you to address multifaceted challenges across high-tech industries. This interdisciplinary training in applied physics courses not only prepares you for innovative roles in applied physics fields such as aerospace, energy, and materials science but also offers enhanced career opportunities through Seton Hall's proximity to New York's vibrant industry sectors.

What are the laws of nature governing the universe from elementary particles to the development of the solar system, stars and galaxies? In the Master’s Programme in Particle Physics and Astrophysical Sciences, you focus on gaining an extensive understanding of these phenomena. You will also acquire proficiency in the use of mathematical methods, IT tools and/or experimental equipment, as well as strong problem-solving and logical deduction skills.

The aim of the Master's Degree in Engineering Physics is to train a modern and cosmopolitan professional figure suitable for tackling issues pertaining to advanced technologies, be they related to quantum physics and matter physics, and to the sciences of complexity, with knowledge of advanced computer science and electronics also in areas such as biophysics and biomedicine, and social sciences such as economics and finance.

The Master’s programme in Physics gives you the opportunity to acquire wider and deeper knowledge and abilities within one or several subareas in physics. You are free to choose courses according to your own interests and ambitions, but we also offer three special profiles: Computational Physics, Advanced Materials and Atomic, Molecular and Optical Physics. The study atmosphere is international and you can choose to study part of the programme in another country.

The University of Ferrara, founded in 1391, is one of Italy’s oldest institutions, with a long-standing tradition in education and research. In recent decades, the University of Ferrara has continued to evolve, establishing new faculties and expanding its academic offerings to include Bachelor’s and Master’s degree programs. The University of Ferrara carries out its research activity through thirteen Departments located in prestigious historical buildings across the city. The Department of Physics and Earth Sciences and the Department of Engineering are particularly successful at the European and international levels, accounting for about half the projects realized from 2014 to the present.

The main educational objective of this Master of Science program is to prepare an engineer able to “produce” innovation both in the industrial environment as well as in basic research and which is highly competitive in the global market, with particular reference to the physical and optical technology, nanotechnology and photonics sectors.

You adjust the laboratory lasers before going to your next lecture on cold atoms. You feed your computer the latest measurements from the scanning tunneling microscope and see if the placement of the extra atoms on the surface matches your model calculation. You do some work on your model for a quantum computer, before going to the next lecture in quantum optics.