University of Colorado Boulder

What you'll study

The PhD curriculum blends advanced coursework with intensive, supervised research leading to a dissertation. Early-stage study typically covers core topics such as atmospheric dynamics, physical meteorology, atmospheric thermodynamics, radiative transfer, and numerical methods for geophysical fluid dynamics. Students then choose specialised courses aligned with their research focus—examples include climate dynamics, atmospheric chemistry and air quality, remote sensing and satellite meteorology, boundary-layer meteorology, convective and mesoscale processes, and data assimilation.

Programme components commonly include:

• Advanced coursework to establish breadth and depth in theoretical and applied atmospheric science.
• Seminars and journal clubs to build critical reading and presentation skills.
• Qualifying or preliminary examinations to assess readiness for independent research.
• A research apprenticeship under a faculty advisor, culminating in an original dissertation.
• Participation in field campaigns, instrument development, or model intercomparison projects depending on research area.

Typical research specialisms

• Atmospheric dynamics and predictability (synoptic to planetary scales)
• Climate variability and change, paleoclimate reconstructions, and climate modelling
• Remote sensing and retrieval techniques from ground-, airborne- and satellite-based platforms
• Atmospheric chemistry and air quality, including emissions impacts and transport processes
• Boundary-layer processes, turbulence and land–atmosphere interactions
• Numerical weather prediction, data assimilation and high-performance computing

Entry requirements

Successful applicants normally hold a relevant master’s degree or a strong bachelor’s degree in atmospheric sciences, physics, mathematics, engineering or a closely related field. Typical expectations include:

• A solid academic record with substantial coursework in calculus, differential equations, and physics (especially mechanics and thermodynamics); prior courses in atmospheric science, fluid dynamics or numerical methods are advantageous.
• Demonstrable quantitative and programming skills (e.g. experience with MATLAB, Python, Fortran, or similar tools).
• Research experience shown through a thesis, publications, or documented involvement in research projects; applicants with clear research potential are preferred.
• Application materials: a research statement describing proposed interests, a CV, official transcripts, and three letters of recommendation from academic or research supervisors.
• International applicants must meet English language proficiency requirements through recognised tests or approved exemptions; specific score requirements are set by the university.

Standardised tests such as the GRE may be optional or considered at the department’s discretion; applicants should consult the department’s admissions guidance for current policies. Funding offers are typically tied to graduate assistantships and are competitive.

Career prospects

Graduates from the programme move into a wide range of careers that leverage advanced analytical, modelling and observational skills. Common pathways include:

• Academic and postdoctoral research positions in universities and research institutes.
• Roles in government and national laboratories such as meteorological services, climate centres and agencies focused on atmospheric research and environmental monitoring.
• Positions within international and national research organisations that run field campaigns, satellite programmes, or climate assessment projects.
• Industry careers in weather services, environmental consulting, energy companies, aerospace and defence, and technology firms applying atmospheric science to problem-solving.
• Science policy, communication and non-profit sector roles where expertise in atmospheric science informs decision-making on climate, air quality and hazard mitigation.

Why study at University of Colorado Boulder

CU Boulder’s programme is embedded in a highly active atmospheric science community with strong links to nearby national centres and facilities. The department collaborates closely with national laboratories and federal agencies, providing opportunities to work with observational platforms, large-scale models and cutting-edge instrumentation.

• Proximity to major research organisations and facilities supports collaborative projects, field campaigns and internships.
• Access to specialised laboratory facilities, high-performance computing resources and long-term observational networks enhances both theoretical and applied research.
• A broad faculty expertise spanning observational, theoretical and modelling approaches allows students to pursue interdisciplinary research and develop robust methodological skills.
• The campus environment and regional geography are favourable for mountain meteorology, observational campaigns and instrument testing.

Together, these strengths make the University of Colorado Boulder a strong environment for doctoral training in atmospheric sciences, preparing graduates for research leadership across academia, government and industry.