University of Colorado Boulder

What you'll study

This master's programme combines rigorous coursework with research or professional practicum options. Core subject areas include atmospheric dynamics and thermodynamics, synoptic and mesoscale meteorology, boundary-layer processes, radiation and cloud physics, atmospheric chemistry, and climate dynamics. Students also gain hands-on experience in observational methods (radar, lidar, radiosondes, in situ sensors), remote sensing and satellite meteorology, and numerical weather prediction and data assimilation techniques.

• Typical taught modules: atmospheric dynamics, synoptic meteorology, mesoscale meteorology, atmospheric radiation, cloud microphysics, atmospheric chemistry and composition, climate processes.
• Technical and quantitative modules: numerical methods for atmospheric modelling, data assimilation, statistical and machine-learning methods for geoscience, turbulence and boundary-layer modelling.
• Practical and observational training: remote sensing applications, radar meteorology, field measurement techniques, instrument calibration, and analysis of observational datasets.
• Research or project work: students typically complete a research thesis supervised by departmental faculty, or an applied project/practicum in collaboration with research centres or industry partners.

Entry requirements

Applicants are expected to hold a relevant undergraduate degree in atmospheric science, physics, mathematics, engineering or a closely related quantitative discipline. Successful candidates typically demonstrate strong preparation in calculus (including multivariable), differential equations, classical mechanics or physics, and computing/programming (Python, Fortran, MATLAB or similar).

• Academic transcript(s) showing strong performance in quantitative and physical science courses.
• Statement of purpose outlining research interests and career goals.
• Letters of recommendation from academic or professional referees who can attest to preparation for graduate study.
• Curriculum vitae or résumé that summarises relevant research, technical skills and field/operational experience.
• Proof of English language proficiency for applicants whose first language is not English.

There are commonly two programme paths: a thesis-based route focused on original research, and a non-thesis option emphasising coursework and an applied capstone or practicum. Prospective students with gaps in prerequisites may be admitted conditional on completing specified undergraduate courses.

Career prospects

Graduates go on to a wide range of careers across public, private and academic sectors. Typical destinations include operational meteorology and forecasting roles (national weather services and aviation), climate and environmental consulting, renewable energy resource assessment, and atmospheric research at universities and national laboratories. Graduates are also well suited to roles in data science, geospatial analysis, air quality management, and policy or outreach positions related to weather and climate.

The programme’s strong quantitative training and practical experience in modelling and remote sensing are valued by employers such as national research centres, government agencies, private weather and climate service firms, and high-technology companies that use atmospheric data for decision support.

Why study at University of Colorado Boulder

CU Boulder is a leading centre for atmospheric and climate research with close institutional links to national organisations and research facilities. The department co-operates with prominent nearby institutions and centres, providing students access to collaborative research opportunities, field campaigns and advanced instrumentation.

• Research environment: interaction with active research groups in weather systems, climate dynamics, atmospheric chemistry and boundary-layer processes.
• Proximity to national labs and centres: opportunities to collaborate with regional and national organisations on internships and joint research projects.
• Facilities and computing: access to modern observational platforms, laboratory facilities and high-performance computing resources for model development and large-data analysis.
• Field and operational experience: students can participate in field campaigns and operational forecasting exercises that strengthen applied skills.

These strengths make the University of Colorado Boulder a strong choice for students seeking a rigorous, research-informed master’s education in atmospheric sciences and meteorology.