Research

  • Biosphere-Atmosphere Interactions and Atmospheric Chemistry

    The biosphere plays an important role controlling the abundance and variability of trace gases and aerosol in the atmosphere.

    Our work explores topics like the emissions and deposition of reactive trace gases to vegetation, the impact of land use change on air quality, and the impact of climate feedbacks on plant-atmosphere interactions.

  • Data Science, Machine Learning, and the Climate System

    Data science and machine learning techniques are revolutionizing the way we do climate science.

    In our group, we use these tools to make climate models faster and more accurate, and develop new methods for understanding the climate system. Recent work includes improving the treatment of aerosol-cloud interactions in climate models, and exploring the use of graph theory to study atmospheric chemistry.

  • Computational Models of Atmospheric Composition

    Large computational models of the atmosphere are critical tools for improving our scientific understanding and exploring solutions to the largest problems facing society.

    We use and develop these models extensively to make predictions and interpret observations. Recent work includes exploring the sources of hydrocarbons using NASA satellite data and investigating the drivers of cloud formation.