University of Vermont

What you'll study

The programme provides a foundation in atmospheric physics and chemistry, coupled with applied training in observational methods, numerical modelling and data analysis. Core topics typically include atmospheric dynamics, atmospheric thermodynamics, synoptic and mesoscale meteorology, cloud physics and precipitation processes, atmospheric chemistry and air quality, and climate science.

• Laboratory and field courses: hands‑on training with weather instruments, radiosonde launches, radar and remote sensing, and surface meteorological observing networks.
• Numerical and data skills: coursework in numerical weather prediction, climate modelling and programming for atmospheric science (commonly using Python, MATLAB or similar tools).
• Analytics and statistics: applied statistics for geosciences, time‑series analysis and uncertainty quantification.
• Electives and breadth: options often include air pollution, hydrometeorology, renewable energy meteorology, GIS for environmental applications, and polar or tropical meteorology modules.
• Capstone/Research: a senior thesis or capstone project that synthesises observational, modelling or laboratory work under faculty supervision.

Students typically complete a mix of lower‑division foundational science (calculus, physics, chemistry) and upper‑division specialised courses, together with opportunities for summer fieldwork, research assistantships and internships.

Entry requirements

Applicants are expected to have a strong secondary‑school record with solid preparation in mathematics (at least through calculus), physics and, ideally, chemistry. Universities typically look for evidence of quantitative ability and scientific reasoning in school transcripts. Admissions often consider a personal statement describing your interest in weather and climate, and may request letters of recommendation.

Transfer applicants should show successful completion of college‑level prerequisites in calculus and introductory physics. International applicants must demonstrate equivalent academic preparation; many programmes also require proof of English proficiency if the applicant’s first language is not English.

Career prospects

Graduates enter a broad range of careers that make use of atmospheric knowledge, quantitative skills and modelling experience. Common destinations include:

• Operational meteorology and weather forecasting for national and regional weather services or private forecasting firms.
• Climate research and policy roles in government, academia and non‑governmental organisations.
• Air quality and atmospheric chemistry positions in environmental agencies, consulting firms and industry.
• Applied roles in renewable energy (wind and solar resource assessment), aviation weather services, and emergency management.
• Data science, environmental consulting, and technical roles that leverage numerical modelling and statistical analysis.
• Many graduates also progress to postgraduate study (master’s or PhD) to specialise in research-intensive careers.

Why study at University of Vermont

The University of Vermont combines strong classroom teaching with abundant hands‑on and research opportunities. Its geographic setting in the northeastern United States—close to varied terrain, large inland waters and coastal influences—offers a dynamic environment for studying weather and climate processes. Undergraduates can gain practical experience through field projects, instrument work and faculty‑led research, and often have access to regional monitoring networks and collaborations with federal and state agencies.

Students benefit from a campus culture that emphasises interdisciplinary environmental science, allowing atmospheric science training to be complemented by coursework in hydrology, ecology, policy and geographic information systems. Small class sizes and opportunities for direct mentorship support practical skill development and preparation for both professional roles and further study.