Atmospheric physics sits at the intersection of fundamental science and some of the most pressing challenges facing humanity. From launching satellites that observe our planet from space, to understanding the forces driving climate change, air pollution, and extreme weather, atmospheric physics offers a unique opportunity to apply rigorous physics training to problems of enormous societal importance.
The demand for atmospheric physicists has never been greater. Federal agencies such as NASA, NOAA, and the Department of Energy invest billions of dollars annually in Earth observation missions, climate modeling, and environmental monitoring. Private-sector companies in weather forecasting, remote sensing, environmental consulting, and the rapidly growing geospatial intelligence industry are actively seeking graduates with strong backgrounds in radiative transfer, fluid dynamics, data analysis, and satellite remote sensing. National laboratories, including NASA Goddard Space Flight Center and National Oceanic and Atmospheric Administration’s (NOAA) research centers, rely on a steady pipeline of scientists trained to develop and operate the next generation of Earth-observing instruments and climate models.
Why Study Atmospheric Physics?
- Inspiring, High-Impact Science
From designing and building satellite instruments that orbit Earth, to tracking how wildfire smoke alters cloud formation and climate, to understanding how dust storms in the Sahara affect weather thousands of miles away — atmospheric physics tackles questions that are both intellectually deep and directly relevant to society. - Explosive Career Growth
Climate science, weather prediction, air quality monitoring, satellite remote sensing, and geospatial data analytics are all high-growth sectors. Employers across government, industry, and academia seek graduates who can bridge physics fundamentals with real-world observational and computational skills. - Future-Proof Skill Set
Training in atmospheric physics builds expertise in electromagnetic theory, radiative transfer, fluid dynamics, statistical analysis, and scientific computing — skills that transfer directly into data science, aerospace engineering, AI/machine learning, and environmental technology industries.
What Makes Our Atmospheric Physics Track Different?
Our Atmospheric Physics Track is designed to move students from foundational physics principles to the front-lines of Earth observation and climate research.
Deep Partnership with NASA
UMBC has one of the strongest university–NASA partnerships in the nation. Our atmospheric physics faculty maintain close research collaborations with NASA Goddard Space Flight Center (GSFC), located just 30 minutes from campus. UMBC is home to the Joint Center for Earth Systems Technology (JCET), a cooperative center with NASA GSFC, and the newly established Goddard Planetary Heliophysics Institute (GPHI) — both of which provide students with direct access to NASA scientists, data, and facilities. Our faculty have led the development of instruments now flying on NASA satellites, including the HARP2 polarimeter aboard the PACE mission launched in 2024. Students in this track have genuine opportunities to work alongside NASA researchers and contribute to active space missions.
World-Class Faculty and Research Groups
Our faculty lead internationally recognized research groups spanning the full breadth of atmospheric physics:
- Aerosol–cloud–radiation interactions and climate — satellite remote sensing of cloud and aerosol properties, AI and big-data applications in Earth science, and evaluation of climate models (Aerosol, Cloud, Radiation-Observation, and Simulation Group [ACROS])
- Atmospheric lidar, radar, and microwave remote sensing — mesoscale dynamics, boundary-layer meteorology, and climate observation networks (Demoz group / Atmospheric Lidar Group)
- Satellite instrument development and polarimetric remote sensing — design, calibration, and deployment of space-borne and airborne polarimeters, including the HARP2 instrument on NASA PACE and the upcoming INSPYRE field campaign (Earth and Space Institute)
- Atmospheric and ocean optics — light scattering theory, radiative transfer in coupled atmosphere–ocean systems, and advanced retrieval algorithms for aerosols and ocean color (Atmospheric and Ocean Optics Group)
- Tropical atmosphere dynamics — the interaction of tropical rainforests, aerosols, and convective clouds, and the impact of deforestation on the hydrological cycle and regional climate (Barbosa group)
- Atmospheric chemistry — laboratory spectroscopy, optical properties of atmospheric particles, and characterization of dust and volcanic aerosols (Laboratory for Atmospheric Studies and Particle Light Interaction [LASPLI])
Early Undergraduate Research
Students are encouraged to join research groups as early as their sophomore or junior year. Many undergraduates contribute to federally funded research projects supported by NASA, National Science Foundation (NSF), Department of Energy (DOE), and NOAA, gaining hands-on experience with satellite data, lidar and radar observations, instrument calibration, radiative transfer modeling, and machine learning techniques. By their senior year, students are often co-authoring papers and presenting at national conferences such as the American Geophysical Union (AGU) Fall Meeting.
Industry, Government, and Graduate School Readiness
Our curriculum and research training prepare graduates for a wide range of career paths, including:
- NASA and NOAA research positions
- Aerospace and defense companies (e.g., satellite and remote sensing firms)
- Weather forecasting and environmental consulting
- Data science and geospatial analytics
- Graduate programs in atmospheric science, physics, Earth science, and engineering
Launch Your Career from Here
Climate change, air pollution, and extreme weather are among the defining challenges of the 21st century. The instruments, models, and scientific understanding needed to address these challenges are rooted in atmospheric physics. The Atmospheric Physics Track prepares students not just to understand these problems, but to solve them.
Students graduate with:
- Deep grounding in the physics of the atmosphere, radiation, and fluid dynamics
- Hands-on experience with satellite data, remote sensing instruments, and scientific computing
- Direct exposure to NASA missions and federally funded research
- A competitive profile for graduate school, government laboratories, or the growing Earth observation industry
If you want to work at the frontier of climate science, satellite remote sensing, and environmental physics — where fundamental physics meets planetary-scale impact — this track is your launchpad.