Massachusetts Institute of Technology

What you'll study

The programme combines rigorous core coursework with elective specialisation and an independent research thesis. Core topics typically include atmospheric dynamics, thermodynamics, radiative transfer, physical meteorology and numerical methods for fluid dynamics. Students also study applied areas such as climate dynamics, atmospheric chemistry, boundary layer processes, mesoscale and synoptic meteorology, remote sensing and data assimilation.

• Core courses — mathematical and physical foundations of atmospheric motion, quantitative analysis and modelling techniques.
• Advanced electives — climate variability and change, atmospheric composition, numerical weather prediction, turbulence and boundary layer meteorology, satellite meteorology and observational methods.
• Practical components — hands-on modelling projects, programming for data analysis (Python/Fortran/Matlab), use of observational datasets and participation in field campaigns or instrument development where available.
• Research thesis — an original research project completed under faculty supervision, delivering a written thesis and typically including presentations at departmental seminars.

Entry requirements

Applicants are normally expected to hold a strong undergraduate degree in a relevant quantitative discipline such as physics, atmospheric science, applied mathematics, engineering or Earth sciences. Typical preparation includes coursework in calculus, differential equations, classical mechanics, thermodynamics and basic programming or numerical analysis.

• Academic transcripts demonstrating high academic achievement in quantitative subjects.
• Letters of recommendation from academic or professional referees who can speak to your research potential and quantitative abilities.
• Statement of purpose describing research interests, relevant experience and reasons for choosing the programme.
• Research experience is strongly recommended for applicants seeking the research-intensive master's route; relevant internships, undergraduate projects or employment strengthen an application.
• English language proficiency evidence if your first language is not English, as required by the institute.

Career prospects

Graduates move into a broad range of roles across research, government, industry and academia. Many continue to doctoral study or take research scientist positions in universities and national laboratories. Others join operational meteorology and forecasting centres, national weather services and agencies concerned with climate and environmental monitoring.

• Research scientist or doctoral candidate in atmospheric or climate science.
• Numerical modeller and data scientist in weather prediction centres and private weather services.
• Atmospheric scientist roles in government agencies (for example environment and space agencies) and international organisations.
• Positions in energy, aviation, insurance and environmental consultancy using atmospheric risk assessment and climate information.
• Remote sensing and instrument development roles supporting satellite and ground-based observational programmes.

Why study at Massachusetts Institute of Technology

The Department of Earth, Atmospheric and Planetary Sciences at MIT offers access to a strong concentration of faculty working across atmospheric dynamics, climate science and atmospheric chemistry, with close interdisciplinary links across the Institute. Students benefit from advanced computational resources, laboratory facilities and opportunities to collaborate with nearby national and international research organisations.

MIT's environment emphasises hands-on research, from model development and data assimilation to field campaigns and instrument work, and provides pathways into both fundamental research and applied careers. The department's collaborative culture and connections across engineering, applied mathematics and computer science support training in the quantitative methods increasingly important to atmospheric science.