Ana Dyreson
- Assistant Professor, Mechanical and Aerospace Engineering
- Director of Research, Center for Innovation in Sustainability & Resilience (CISR)
- Advisor, Outdoor Venture Crew
- PhD, Mechanical Engineering, University of Wisconsin–Madison
- MS, Mechanical Engineering Northern Arizona University
- BS, Engineering Mechanics, University of Wisconsin–Madison
Biography
Dr. Dyreson's research group studies energy resilience in northern climates both at the scale of individual technologies and through an interdisciplinary approach at the system scale. Her team's expertise includes solar PV performance and modeling, heat pump and building energy performance, thermoelectric power generation, and grid resilience modeling. Dyreson is interested in improving the resilience of future energy systems under the combined influence of changing climate, emerging technological drivers and growing electrical power demands. Dyreson's work is often in partnership with communities and collaborating with social scientists, Earth system scientists, and practitioners. Dyreson is passionate about teaching and improving the diversity of Mechanical Engineering as a discipline. She has a background in solar energy (PhD Mechanical Engineering, 2018, University of Wisconsin–Madison and MS Mechanical Engineering, 2014, Northern Arizona University) and electricity grid modeling (Post-doctoral researcher 2018-2020, Grid Systems, National Renewable Energy Laboratory). Dr. Dyreson holds a BS in Engineering Mechanics from University of Wisconsin–Madison (2007) and is as a registered Professional Engineer (Wisconsin).
Links of Interest
- Faculty Webpage
- Multi-Sector Dynamics Community of Practice Working Group
- Great Lakes Research Center
- Center for Innovation in Sustainability & Resilience
Areas of Expertise
- Solar photovoltaic and thermal power plants
- Electricity grid operational modeling
- Energy-water nexus
Research Interests
- Impacts of climate change on electric power systems
- Energy transitions in cold climates
- Solar photovoltaic design for cold climates
- Heat pump performance
- Thermal power plant modeling