Our Projects
Transdisciplinary Research to Stimulate Climate Resilience
Example Projects
Public perceptions of potable water reuse
PI: Caroline Scruggs
Sevilleta Long-Term Ecological Research Program
PIs: Jennifer Rudgers, Marcy Litvak, Seth Newsome, Kim Eichhorst
Year-to-year differences in climate make drylands among the most variable ecosystems on Earth. The fluctuating nature of drylands makes them excellent study systems to improve general understanding of the biological consequences of environmental variability. The Sevilleta Long-Term Ecological Research (LTER) program expands knowledge of the biological processes in drylands, guided by the question: How do long-term trends of climate variability drive the dynamics of dryland ecosystems and transitions among them? Knowledge of the biological consequences of climate variability has been limited because its effects play out over longer time periods than most scientific studies, making long-term support critical to advancing this scientific frontier. Forecasting the future of drylands requires determining the combined impacts of more variable rainfall and rising temperature trends, both of which are predicted under climate change. These changes may have the greatest effect at the borders between dryland ecosystem types. We study transitions among five major dryland ecosystems in North America (pinon-juniper woodlands, juniper savannas, Plains grasslands, and Chihuahuan Desert grasslands and shrublands) that converge at the Sevilleta National Wildlife Refuge in central New Mexico. Our focus on transitions puts the effort where the action is for understanding major, future changes in dryland ecosystem function and services. The Sevilleta LTER program develops new theory to predict the consequences of environmental variability over space, time, and scales of biological organization, and generates the long-term data needed to test these new predictions.
Decentralized water and wastewater systems in rural areas
PIs: Andy Schuler and Heather Himmelberger
New Mexico’s population is currently served by decentralized wastewater systems. Providing effective, appropriate technologies to treat small systems is a critical challenge to maintain public health and protect potable water supplies in rural areas. State of the art technologies include biofilm-based systems such as moving bed bioreactors, which contain small, free-floating plastic media to remove pollutants, then discharge to leach fields. ARID research on these systems seeks to provide resilient, low maintenance technologies for clean water.
The Intermountain West Transformation Network
PIs: Melinda Morgan and additional team members
The Transformation Network is a partnership between UNM and 7 other Western U.S. universities and over 50 partner organizations who aim to build resilient communities and ecosystems throughout the Intermountain Western United States. The TN team is advancing understanding of resilient headwaters, food-energy-water systems, and innovative and equitable governance models and institutions.