Humans have long affected the landscapes in which they live, sometimes with disastrous consequences. ASU researchers are currently studying past and present impacts of humanity to develop sustainable strategies for the future. While some multidisciplinary teams are examining past societies to understand key lessons about the nature and possible outcomes of interactions among human and natural systems, others teams are pioneering the new field of urban ecology to understand modern human effects on biodiversity and habitat.
The primary aim of the Center for Bioelectronics and Biosensors is to create powerful, sensitive, and selective sensors - ranging from embedded systems to handheld devices - that can detect the presence of specific chemicals in the environment, or biomarkers in the body. The Center's research can be divided up into several key themes. Some of the technologies are focused on the detection of harmful chemicals that are a threat to the environment and human health. Others look inside the body for markers or presence of disease. Still others focus on the detection of human-made threats.
The Biodesign Center for Immunotherapy, Vaccines and Virotherapy (B-CIVV) is focused on exploiting cutting edge advances in microbiology and immunology, as well as the design and use of novel therapeutics based on vaccinology, virotherapy and immunotherapy to combat infectious diseases and cancer. These include development of biological therapeutics that enhance immune responses to pathogens and tumors. The Center is devising new and effective ways of producing advanced vaccines, virotherapies and immunotherapeutics for this purpose.
The Biodesign Institute plays a critical role in advancing the research mission of Arizona State University, a comprehensive metropolitan university that is the second largest in the U.S. The Biodesign Institute embodies the guiding principles of the New American University, as defined by Arizona State University President Michael Crow, specifically, to conduct use-inspired research, fuse intellectual disciplines and value entrepreneurship.
The Biodesign Swette Center for Environmental Biotechnology manages microbial communities that provide services to society. Most of the services make our society more environmentally sustainable: e.g., generating renewable energy, and making polluted water and soil clean. The microbial services also make humans healthier – directly and indirectly.
The center carries out frontier multidisciplinary scientific research designed to use biological and biologically-based artificial systems to address societal energy needs in a sustainable manner, with an emphasis on solar energy conversion and bioinspired energy transformation to meet human needs, and investigates other aspects of photosynthesis that affect society and the environment.
Through interdisciplinary projects integrating natural sciences, social science, and engineering, the Central Arizona–Phoenix Long-Term Ecological Research project examines the effects of urbanization on a desert ecosystem and vice versa.
This research will develop a biome classification system for streams to better understand how streams function and provide an ability to predict how streams will change from human and environmental factors.
The Drought-Net Research Coordination Network was established to advance understanding of the determinants of terrestrial ecosystem responses to drought by bringing together an international group of scientists to conduct three complementary research coordination activities: 1) planning and coordinating new research using standardized measurements to leverage the value of existing drought experiments across the globe, 2) finalizing the design and facilitating the establishment of a new international network of coordinated drought experiments, and 3) training highly motivated graduate students to conduct synthetic and network-level research through Distributed Graduate Seminars focused on drought.
The "Urban Air" project studies the exchange of chemical elements between land and atmosphere in urban systems.
Effects of Flow Regime Shifts, Antecedent Hydrology, Nitrogen Pulses and Resource Quantity and Quality on Food Chain Length in Rivers
The study will provide fundamental information on how the timing of floods and droughts across years influences water quality (nitrate inputs to rivers), primary production, and the production of animals higher in the food web, such as fish. The researchers will produce a synthesis of research in hydrology and ecology to improve the management of arid land rivers.
Multiscale Effects of Climate Variability and Change on Hydrologic Regimes, Ecosystem Function, and Community Structure in a Desert Stream and Its Catchment
This project focuses on using new statistical techniques that describe hydrological regimes, coupled with long-term measurements of stream structure and processes, to understand how shifts in climate and river discharge regimes on many time scales will influence the ecosystem.
This survey studies the relationships between people and the natural environment in the Phoenix metro area.
The Simon A. Levin Mathematical, Computational and Modeling Sciences Center vision includes: bridging the gap between the biological, environmental, and social sciences and the mathematical sciences; promotion and support of cross-disciplinary and trans-disciplinary research that relies on state of the art computational, modeling and quantitative approaches; and the training of a new generation of computational mathematical, and theoretical scientists whose research is driven by the application of computational, mathematical, modeling and simulation approaches to the solution of problems that will improve the human condition.
This research project is taking advantage of an ongoing outbreak of the South American locust (Schistocerca cancellata) to test the hypothesis that the ability for S. cancellata to attain a balance of nutrients optimal for growth limits their capacity to maintain persistent high populations over broad regions of South America. Locusts are a major challenge for food security globally, with outbreaks causing 80-100% crop losses. In the future, working collaboratively with government plant protection agencies, this research can be directly applied to strategies to improve livelihoods, human and environmental health, and global food security. Moreover, this award will support postdoctoral and student training, and cross-cultural exchange.
This study addresses the questions: How does precipitation affect the above/belowground partitioning of carbon? During drought periods, are above and belowground structures equally affected, or are roots affected less than leaves and branches? Finally, is the effect of precipitation on carbon allocation constant or does it vary from deserts to humid grasslands?