Home   Login All Data Services Forum http://hydroportal.cuahsi.org/czo_arizona/cuahsi_1_1.asmx?WSDL czo_ariz Jon Chorover chorover@cals.arizona.edu 520-626-5635 Website: http://criticalzone.org/catalina-jemez/ 13 34 6,149,431 Updated Values Count: 297823 Updated on: 5/9/2015 6:06:28 PM Download last tested on 03/31/2020 Last Harvested on 3/28/2020 8:45:54 AM(UTC) University of Arizona            Contact:        Sites: Values: Variables: 35.9092 -106.4497 -106.5978 35.84785

Service Statistics:

Catalina-Jemez CZO - Jemez River Basin Geographic Extent:


This data service provides data collected from Jemez River Basin sites. We are developing an interdisciplinary observatory in the southwestern US that will improve our fundamental understanding of the function, structure and co-evolution of biota, soils, and landforms that comprise the Critical Zone (CZ). The observatory is designed as a natural laboratory for the earth science community to test hypotheses related to CZ function in relation to climatic and water cycle variation. We posit that CZ systems organize and evolve in response to open system fluxes of energy and mass that can be quantified at point to watershed scales. These fluxes include meteoric CZ inputs of radiation, water, and carbon that are modulated by surficial biota to produce fluids and biogeochemical components that undergo biotic and abiotic transformation during gradient-driven transport. We hypothesize that the coupling of physical, chemical and biological processes is related specifically and predictably to the timing and magnitude of these fluxes. Therefore, our CZ Observatory (CZO) is designed to examine the impacts of space-time variability in energy and water flux on coupled CZ processes along two well-constrained climate gradients. The first is on rhyolitic parent material in the Jemez River Basin of northern New Mexico (JRB) and the second is on granite and schist bedrock within the Santa Catalina Mountains in southern Arizona (SCM). Measurement, modeling, and experimentation at sites that vary in parent rock, elevation, aspect, slope, soil development, and vegetation will enable quantification of the feedbacks between energy and mass fluxes (driven by chemical and physical gradients) and measured components of CZ structure. Our team has developed an iterative modeling and measurement strategy, and a management structure that fosters integration among disciplines. The JRB-SCM CZO is organized around broad questions that require an integrated, multi-disciplinary approach including the following two: How does variability in energy input and related mass flux influence CZ structure and function? How do feedbacks between landscape evolution and the cycling of water and carbon alter short- and long-term CZ development? To identify the couplings among physical, chemical, and biological processes, our research integrates four crosscutting science themes that are both multi-disciplinary and multi-scale: Ecohydrology and Hydrologic Partitioning, Subsurface Biogeochemistry, Landscape Evolution and Surface Water Dynamics. We are employing an integrated process-based modeling approach to (i) identify optimal sites for measuring structure and process, (ii) refine hypotheses developed through field-based observation and measurements, (iii) explore feedbacks and emergent system behaviors, and (iv) develop transfer functions that can be used to relate system behavior across scales and modes of observation. Discoveries made at the JRB-SCM CZO will improve our ability to predict CZ response to changes in climate and land cover, which is immediately useful to regional resource managers and will ultimately inform broader-scale decision making. We coordinate closely with other CZOs to support data collection, storage, and dissemination. Our education and outreach activities are built upon other highly effective educational efforts developed and led at UA. We are developing a range of products and activities for K-16 students, the general public, and stakeholders, including summer Observatory field experiences for local high school and undergraduate students, graduate courses, and field camps in earth science, as well as coordination of related efforts by other science centers active in the region. We invite new investigators throughout the global earth sciences community to conduct novel and collaborative research at the JRB-SCM CZO