• There may be no better place in the United States than Las Vegas to understand relationships between climate, water and life. Our desert basin receives 130 mm (5.0") of rainfall annually, has average maximum temperatures of 41°C (105°F) in summer, and supports a population of 2+ million. The Colorado River basin and Mojave Desert regions that support water resources for Las Vegas encompass many ecosystem types, from low elevation desert shrubland to high elevation subalpine forest. The goals of our research are to better understand the dominant physical mechanisms shaping these dryland ecosystems, to predict future conditions and responses across local and regional areas, and to enhance planning for the 21st century through better understanding of ecohydrological dynamics.

  • Our Research

    Research in the UNLV Dryland Ecohydrology Lab integrates multiple data types including long-term measurements, remote sensing and field experiments to gain insight on ecohydrological mechanisms and to forecast future conditions. We are always interested in new collaborations, so feel free to contact us!

    Dryland Ecohydrology

    Dryland ecosystems are sensitive to the interactive effects of precipitation and temperature, landscape and environmental factors, disturbances and management, and vegetation characteristics. Our research seeks to identify the mechanisms that govern these ecological systems.

    Climate dynamics, multiyear and extreme events

    Extreme events are not just tornadoes and hurricanes! The desert, woodland and forest ecosystems that we study can be influenced in meaningful ways by regular variation in climate, conditions that persistover multiple years, and also by patterns of extreme climate events. We are interested in determining how the characteristics of these events portends to their ecological significance, and developing ways for scientists and land managers to prepare for multiple climate possibilities across the diverse landscapes that they work in.

    Tree regeneration and forest and woodland persistence

    Forecasts call for a 50% decline in climatic favorability for juvenile ponderosa pine survival by the end of the century, without adding in the effects of additional disturbances such as fire and insect outbreaks. Along with a group of experts in the field, our lab is working to understand the mechanisms and consequences of declining regeneration in semiarid forests and woodlands. Even more importantly, we are working to determine how human actions can help to combat and limit these declines.

    Computational modeling

    Mechanistic models are a valuable tool for making ecological predictions. Our lab utilizes both low-dimensional and complex ecosystem water balance models to sharpen our understanding of ecological responses to environmental change across the diverse landscapes of western North America.

    Climate change

    Climate change is going to replace the world as we know it with one that has a slightly- to substantially-differing climate. We can predict and prepare for future and ongoing climate change using different scientific approaches and perspectives. Identifying and forecasting ecologically meaningful changes in climate is one of our favorite aspects of scientific research.

  • Opportunities

    I am recruiting for a fully funded, 5 year Ph.D. assistantship focusing on climate and fire dynamics in sagebrush ecosystems. We'll be using field measurements, remote sensing, and modeling to quantify the rate of post-wildfire landscape change, and determine how patterns of change influence ecosystem recovery. Minimum qualifications are a master's degree in a STEM field, and at least one peer-reviewed scientific publication.

    Students may contact me using the form below, or email directly. Please include a current C.V. and a brief letter of interest.

    UNLV Science and Engineering Building 4176