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From CSDMS
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|The surface of the Earth is rapidly changing, largely in response to anthropogenic perturbation. How will such change unfold, and how will it affect humankind? The Critical Zone is defined as the external terrestrial layer extending from the outer limits of vegetation down to and including the zone of groundwater. This zone sustains most terrestrial life on the planet. Despite its importance for life, scientific approaches and funding paradigns have not promoted and emphasized integrated research agendas to investigate the coupling between physical, biological, geological, and chemical processes in the Critical Zone.<br>[http://www.czen.org Learn more....]  
|The surface of the Earth is rapidly changing, largely in response to anthropogenic perturbation. How will such change unfold, and how will it affect humankind? The Critical Zone is defined as the external terrestrial layer extending from the outer limits of vegetation down to and including the zone of groundwater. This zone sustains most terrestrial life on the planet. Despite its importance for life, scientific approaches and funding paradigns have not promoted and emphasized integrated research agendas to investigate the coupling between physical, biological, geological, and chemical processes in the Critical Zone.<br>[http://www.czen.org Learn more....]  
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|[valign="top"|[[image:quahsi]] Consortium of Universities for the Advancement of Hydrologic Science  
|valign="top"|[[image:Cuahsi_logo.jpg|120px]] Consortium of Universities for the Advancement of Hydrologic Science  
|Mission: CUAHSI fosters advancements in the hydrologic sciences, in the broadest sense of that term, by:<br>Developing, prioritizing and disseminating a broad-based research and education agenda for the hydrologic sciences derived from a continuous process that engages both research and applications professionals;<br>Identifying the resources needed to advance this agenda and facilitating the acquisition of these resources for use by the hydrologic sciences community; and<br>Enhancing the visibility, appreciation, understanding, and utility of hydrologic science through programs of education, outreach, and technology transfer.<br>CUAHSI has chosen three community science goals around which to organize our activities:
|Mission: CUAHSI fosters advancements in the hydrologic sciences, in the broadest sense of that term, by:<br>Developing, prioritizing and disseminating a broad-based research and education agenda for the hydrologic sciences derived from a continuous process that engages both research and applications professionals;<br>Identifying the resources needed to advance this agenda and facilitating the acquisition of these resources for use by the hydrologic sciences community; and<br>Enhancing the visibility, appreciation, understanding, and utility of hydrologic science through programs of education, outreach, and technology transfer.<br>CUAHSI has chosen three community science goals around which to organize our activities:
# linking the hydrosphere and biosphere,
# linking the hydrosphere and biosphere,
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# predicting the effects of human development and climate change on water resources.
# predicting the effects of human development and climate change on water resources.
[http://www.cuahsi.org Learn more....]
[http://www.cuahsi.org Learn more....]
 
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|valign="top"|[[image:logo_GEON_logi.gif|120px]] Geosciences Network
|The Geosciences Network (GEON) project is a collaboration among a dozen PI institutions and a number of other partner projects, institutions, and agencies to develop cyberinfrastructure in support of an environment for integrative geoscience research. GEON is funded by the NSF Information Technology Research (ITR) program.<br>The key integrative science theme in GEON is a more quantitative understanding of the 4-D evolution of the North American lithosphere. The cyberinfrastructure in GEON is required to support an inherently distributed system�since the scientists, who are users as well as providers of resources (e.g., data, tools, and computing and visualization capabilities), are themselves distributed. Furthermore, GEON is required to tackle the extreme heterogeneity among data and tools, across a wide range of earth science sub-disciplines and disciplines.<br>A number of integrative science themes provide the initial guiding applications for realizing this cyberinfrastructure. These include (1) gravity modeling of 3D geological features such as plutons, using semantic integration of (igneous) rock and gravity databases, and other geological and geophysical data, (2) study of active tectonics via integration of LiDAR data sets, data on distribution of faults and earthquakes, and geodynamics models, and (3) study of lithospheric structure and properties across diverse tectonic environments via the integration of geophysical, petrologic, geochronologic, and structural data and models.<br>[http://www.geongrid.org Learn more....]
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Revision as of 15:08, 26 February 2008

Related research programs

CCSM Community Climate System Model The CCSM program is a component of the overall U.S. Climate Change Science Program (CCSP). It is a large project involving a large community of scientists and stakeholders in design, construction, evaluation, and use of the ultimate product, the CCSM. The program is a highpriority activity within the Climate and Global Dynamics (CGD) Division of the National Center for Atmospheric Research (NCAR). It provides the infrastructure and support mechanisms necessary for university scientists and other collaborators to contribute to the building of a common climate modeling system, as well as to use the modeling system to address scientific questions about Earth's climate, past, present, and future. Program priorities and decisions are based on scientific peer review and scientific consensus, and the results of the program are open to all. It provides the opportunity to support diversity in the approach to both an outstanding intellectual challenge and a major societal issue. The program also has a mission to foster the creative involvement of university researchers and students in the subject area and thus contribute to the development of highly trained people. The program is a complement to the other major modeling programs in the CCSP that are specifically oriented toward a government mission to provide decision-support information.
Learn more....
Cig-logo.gif Computational Infrastructure for Geodynamics On behalf of its Member Institutions, CIG works under a Cooperative Agreement with the National Science Foundation to develop, support, and disseminate open-source software for the greater geodynamics community.
We are currently working with software in several sub-disciplines, including mantle convection, short and long time-scale tectonics, computational seismology, and the geodynamo. Plans call for expanding into magma migration during the coming year. We invite you to take advantage of CIG for your research by using currently available software or participating in a workshop or training session. You can help set CIG's agenda and priorities by working with your colleagues on the Science Steering Committee.
Learn more....
Logo CZEN 75.gif Critical Zone Exploration Network The surface of the Earth is rapidly changing, largely in response to anthropogenic perturbation. How will such change unfold, and how will it affect humankind? The Critical Zone is defined as the external terrestrial layer extending from the outer limits of vegetation down to and including the zone of groundwater. This zone sustains most terrestrial life on the planet. Despite its importance for life, scientific approaches and funding paradigns have not promoted and emphasized integrated research agendas to investigate the coupling between physical, biological, geological, and chemical processes in the Critical Zone.
Learn more....
Cuahsi logo.jpg Consortium of Universities for the Advancement of Hydrologic Science Mission: CUAHSI fosters advancements in the hydrologic sciences, in the broadest sense of that term, by:
Developing, prioritizing and disseminating a broad-based research and education agenda for the hydrologic sciences derived from a continuous process that engages both research and applications professionals;
Identifying the resources needed to advance this agenda and facilitating the acquisition of these resources for use by the hydrologic sciences community; and
Enhancing the visibility, appreciation, understanding, and utility of hydrologic science through programs of education, outreach, and technology transfer.
CUAHSI has chosen three community science goals around which to organize our activities:
  1. linking the hydrosphere and biosphere,
  2. upscaling hydrologic, biogeochemical, and geomorphic processes, and
  3. predicting the effects of human development and climate change on water resources.

Learn more....

File:Logo GEON logi.gif Geosciences Network The Geosciences Network (GEON) project is a collaboration among a dozen PI institutions and a number of other partner projects, institutions, and agencies to develop cyberinfrastructure in support of an environment for integrative geoscience research. GEON is funded by the NSF Information Technology Research (ITR) program.
The key integrative science theme in GEON is a more quantitative understanding of the 4-D evolution of the North American lithosphere. The cyberinfrastructure in GEON is required to support an inherently distributed system�since the scientists, who are users as well as providers of resources (e.g., data, tools, and computing and visualization capabilities), are themselves distributed. Furthermore, GEON is required to tackle the extreme heterogeneity among data and tools, across a wide range of earth science sub-disciplines and disciplines.
A number of integrative science themes provide the initial guiding applications for realizing this cyberinfrastructure. These include (1) gravity modeling of 3D geological features such as plutons, using semantic integration of (igneous) rock and gravity databases, and other geological and geophysical data, (2) study of active tectonics via integration of LiDAR data sets, data on distribution of faults and earthquakes, and geodynamics models, and (3) study of lithospheric structure and properties across diverse tectonic environments via the integration of geophysical, petrologic, geochronologic, and structural data and models.
Learn more....