There are 12 master's Physics programmes for international students across 11 universities in United States. Tuition ranges from €31k to €62k. Browse the full list below, compare entry requirements, and explore scholarships to fund your studies.
The Department of Earth, Planetary, and Space Sciences at UCLA offers Master of Science (M.S.) and Doctor of Philosophy (Ph.D.) degrees with a specialization in Geophysics and Space Physics. This program focuses on understanding the fundamental processes governing Earth, its surrounding space environment, and other celestial bodies. Students will explore areas such as seismology, gravity, thermal regimes, geomagnetism, tectonics, geophysical fluid dynamics, mineral physics, and planetary science. The curriculum is designed to provide a strong foundation in theoretical and applied geophysics, with opportunities to specialize in various subfields. Students work closely with faculty advisors to tailor their course of study and research, culminating in either a comprehensive examination and thesis or a research-based thesis. The program aims to equip students with advanced research skills and knowledge necessary for careers in academia or industry.
The Department of Applied Physical Sciences at the University of North Carolina at Chapel Hill offers a Ph.D. program in Materials Science. This interdisciplinary program integrates faculty from various departments, including Chemistry, Mathematics, and Physics and Astronomy, to conduct research and provide training in the applications of physical sciences. The program focuses on key areas such as optical and electronic materials, nanomaterials, polymers, and biomaterials. Students will gain a strong foundation in materials science fundamentals, including structure, surfaces, fabrication, thermodynamics, and laboratory techniques, and will pursue specialized knowledge through elective courses and research within their chosen concentration. The department also houses the BeAM makerspace network, offering students access to tools and expertise for hands-on creation and innovation. Research within the program spans several critical areas, including electronic materials, nanomaterials, polymers, and biomaterials. Interdisciplinary projects also explore topics like solar energy, soft and biological matter, structural materials, optical engineering, neuroscience, data science, and computational modeling. Students benefit from access to state-of-the-art facilities for materials synthesis, processing, and characterization, including the Chapel Hill Analytical and Nanofabrication Laboratory (CHANL) and the BeAM makerspaces. The program aims to prepare knowledgeable and responsible students, citizens, and researchers who can address real-world problems through technology and innovation.
The Master of Science in Geophysics program at Texas A&M University provides students with advanced knowledge and research skills in geophysics. This program focuses on developing an in-depth understanding of the Earth's processes and resources through the application of geophysical principles and techniques. Students will learn to analyze geophysical data, assess environmental and hazard risks, and contribute to land and environmental stewardship. Through rigorous coursework and research, you will gain practical experience with commercial software and field equipment used in geophysics. The curriculum is designed to equip you with the ability to interpret complex geophysical information, formulate and test research hypotheses, and present your findings effectively in both oral and written formats. This degree prepares graduates for careers requiring expertise in subsurface analysis and resource evaluation.
The Master of Science (Sc.M.) program in Physics at Brown University is designed to enhance professional skills and prepare students for advanced graduate study. The program offers flexibility, allowing completion in two, three, or four semesters of full-time study, depending on a student's prior academic background. Part-time enrollment is also an option over a longer period. The curriculum requires 8 credits of 2000-level courses. Four of these must be core Ph.D. program courses (PHYS 2010, 1720 or 2020, 2040, 2050, 2060, 2140). An additional four 2000-level credits are required, chosen from remaining core courses or other upper-level physics electives. With approval, up to two of these can be taken in other departments. While not strictly required, completing a Master's thesis is highly recommended for professional development.
This graduate-level course, "Photonic Materials and Devices," delves into the fundamental principles and design considerations of materials used in photonic applications. It explores topics ranging from optical materials design and waveguide technology to semiconductor physics and nonlinear optics. The course utilizes a combination of lecture notes, problem sets, and readings from foundational texts in photonics. It is designed for students interested in advanced study within Materials Science and Engineering with a focus on optical phenomena and devices.
Northwestern University's graduate program in Physics aims to educate scholar-technologists equipped to conduct cutting-edge research and development. The program encourages students to push the boundaries of interdisciplinary scholarship. Ideal candidates come from diverse backgrounds and seek opportunities to explore research beyond traditional departmental lines, particularly those with a desire to merge technological expertise with social science and humanities training. While the provided information details specific course offerings for Winter 2021 across various disciplines including Astronomy, Physics, and Data Science, it does not outline a comprehensive curriculum structure for a specific degree. The program emphasizes a rigorous academic environment designed to foster innovation and advanced study in physics and related fields.
This program, PH240, delves into the fundamental physics principles that underpin energy generation, consumption, and storage. It examines various energy sources, from traditional fossil fuels to emerging renewable technologies, and explores the physical processes involved in their utilization. The course aims to provide students with a comprehensive understanding of the scientific challenges and opportunities in the field of energy. Key areas of study include thermodynamics, electromagnetism, materials science, and fluid dynamics as they relate to energy systems. The program also addresses the physical limitations and potential of technologies such as solar cells, wind turbines, batteries, and advanced nuclear reactors. Emphasis is placed on analyzing energy efficiency, losses, and the environmental impact of different energy choices. Through case studies and reports, students will explore real-world energy issues, from grid stability and renewable integration to the physics of transportation and industrial energy consumption. The course encourages critical thinking about the global energy landscape and the role of physics in developing sustainable energy solutions.
The University of California, San Diego (UCSD) Department of Physics has a rich history, founded in 1958 by Keith Brueckner with the vision of creating an innovative graduate program. Brueckner, with the support of Roger Revelle, aimed to attract top talent by offering cutting-edge research facilities and a spectacular location. The department's early success was built on recruiting distinguished scientists and establishing strong core experimental fields in solid state/low temperature physics and plasma physics, complemented by theory, astrophysics, and space physics groups. Located in Mayer Hall and Urey Hall, the department has been a hub for significant scientific breakthroughs, including the development of Density Functional Theory. Over the decades, it has continued to foster successive cohorts of distinguished scientists and recruit exceptional faculty. Traditions like the Watermelon Drop, originating as a physics experiment, highlight the department's enduring connection to its scientific roots and campus life.
This course explores the fundamental physics principles underlying various energy sources and technologies. It examines the physical processes involved in energy generation, conversion, and storage, providing a comprehensive understanding of the energy landscape. The curriculum covers topics ranging from traditional energy forms to cutting-edge renewable and sustainable solutions.
12 across 11 universities, listed on this page.
Yes — these programmes admit international students; check each programme's entry requirements and language of instruction.