Difference between pages "Land degradation" and "Download packages"

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{{ComponentTemplate2
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<div class="page_standard">__TOC__ __NOEDITSECTION__
|Application=Roads from Rio+20 (2012) project;
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For each package you can choose either a 64bit or a 32bit version depending on your type of computer system. The 64-bit version is preferable to the 32-bit version.
|IMAGEComponent=Atmospheric composition and climate; Land cover and land use;
 
|Model-Database=GlobCover database; WorldClim database; HWSD database; S-World database; WISE database
 
|KeyReference=Hootsmans et al., 2001; Stoorvogel et al., in preparation; Stoorvogel, 2014; Van Beek, 2012;
 
|Reference=FAO, 2011a; Wischmeier and Smith, 1978; Nkonya et al., 2011; Bindraban et al., 2012; UNCCD, 2012; Rozanov et al., 1990; 
 
|InputVar=Precipitation - grid; Number of wet days - grid; Land cover, land use - grid; Temperature - grid;
 
|Parameter=Slope - grid;  Land management; Initial land cover, land use; Initial temperature, precipitation; Soil types and profiles (S-World); Weighting factors for temperature, precipitation, land use and slope;
 
|OutputVar=Erosion risk - grid; Change in soil properties - grid;
 
|Description=Land degradation is human-induced damage to ecosystems leading to a sustained loss of capacity. This is a serious and widespread problem leading ultimately to loss of arable land, and to demand for new arable land to compensate for decline in production on existing land. A key symptom of land degradation is loss of organic carbon from soils and vegetation, also contributing to global greenhouse gas emissions. The key mechanisms in land degradation are soil erosion (by water and wind), compaction, salinization, nutrient depletion, structural decay and contamination. The main causes are deforestation, land conversion, inadequate agricultural land use and management, and construction (urbanisation, road construction).
 
  
In 2012, the UN Convention to Combat Desertification ({{abbrTemplate|UNCCD}}) formulated the goal to achieve zero net land degradation as a Sustainable Development Goal for [[Roads from Rio+20 (2012) project|Rio+20]] ''‘to secure the contribution of our planet’s land and soil to sustainable development, including food security and poverty eradication’'' ([[UNCCD, 2012]]). Land degradation is also relevant to the other Rio Conventions, with one of the Aichi targets of the Convention on Biological Diversity ({{abbrTemplate|CBD}}) aiming to restore at least 15% of degraded ecosystems.  
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===Download===
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USS_IMAGE3.0 is available in zip format (only 64bit version). Extract the zip to a suitable location (writable) on your system.
  
While recognized as a global threat, the impacts of land degradation are poorly understood, and studies report differing results. For instance, productive soil loss equals 15 million km2 according to [[Rozanov et al., 1990]], while FAO reports about 43 million km2 moderately to severely degraded land because of soil quality loss, water resource depletion and biodiversity loss ([[FAO, 2011a]]). As a result, the impacts on productivity and economic losses with consequences for food security are also very uncertain. In the same way, the costs and benefits of investments to prevent land degradation and to restore degraded areas are also largely unknown ([[Nkonya et al., 2011]]). Many reasons for these discrepancies and knowledge gaps are identified ([[Bindraban et al., 2012]]), including uncertainty about data, ambiguous definitions of land degradation, and methodology weaknesses in attributing changes in ecosystems to land degradation or to other causes.
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''USS3.0 for SSP2 scenarios''
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* [[Media:USS IMAGE3.0.zip|USS3.0 client 64 bit]]
  
Although a comprehensive model to capture the complex system interactions is not readily available, IMAGE 3.0 offers the following approaches to address soil degradation:
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USS_IMAGE2.2 is available in zip format (''client'') containing the folders with the files or wrapped in a (zipped) installation.exe (''setup''). USS2.4-5 is only available as zipped ''client''. Both lead to an identical setup. Extract the zip to a suitable location (writable) on your system. In case of ''setup'' run the executable.
  
A. Water Erosion Risk: Risk assessment of soil erosion caused by water based on the Universal Soil Loss Equation ({{abbrTemplate|USLE}}; Wischmeier and Smith[[Wischmeier and Smith, 1978|(1978)]]).  
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''USS2.2 for Millennium Assessment (MA) and IPCC SRES''.
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* [[Media:USS22_setup_32bit.zip|uss2.2 setup 32 bit]]
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* [[Media:USS22_setup_64bit.zip|USS2.2 setup 64 bit]]
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* [[Media:USS22_client_64bit.zip|USS2.2 client 64 bit]]
  
B. Change in soil properties: Quantitative assessment of changes in soil properties, from a hypothetically undisturbed (pristine) situation to a new situation, accounting for changes in land cover and other changes caused by human activity. The effect of changes in soil properties on crop production, hydrology and water can be assessed in other components of IMAGE.
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''USS2.4-2.5 for OECD Environmental Outlook, Roads from Rio+20 and EU Resource efficiency''.
|ComponentCode=LD
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|AggregatedComponent=Impacts
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* [[Media:USS IMAGE2.4-2.5.zip|USS2.4-2.5 client 64 bit]]
|FrameworkElementType=impact component
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}}
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The viewer provides access to the IMAGE scenario data on projects.
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Scenario data are stored on the PBL server. To obtain and use the data, please follow the instructions below.
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===Manual===
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[[USS manual]] offers a comprehensive user guide to the USS
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===Licence===
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The [http://creativecommons.org/licenses/by/3.0/ Creative Commons (BY)] licence generally applies to the contents of this website and data. See [http://www.pbl.nl/en/aboutpbl/about-the-website copyright statement] on the PBL website.
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===How to install the viewer===
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The zipfile needs to be unzipped onto your system. Use the shortcuts ''start_<projectname>_viewer'' to start the viewer. The ''start'' view will pop up together with a browser window with the Help-pages. The Help function starts with the ''How to'' page, which contains a short manual on how to use the viewer.
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The file USS22_setup_32bit.exe/USS22_setup_64bit.exe  installs all files onto your system.
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</div>

Revision as of 13:21, 16 May 2018

For each package you can choose either a 64bit or a 32bit version depending on your type of computer system. The 64-bit version is preferable to the 32-bit version.

Download

USS_IMAGE3.0 is available in zip format (only 64bit version). Extract the zip to a suitable location (writable) on your system.

USS3.0 for SSP2 scenarios

USS_IMAGE2.2 is available in zip format (client) containing the folders with the files or wrapped in a (zipped) installation.exe (setup). USS2.4-5 is only available as zipped client. Both lead to an identical setup. Extract the zip to a suitable location (writable) on your system. In case of setup run the executable.

USS2.2 for Millennium Assessment (MA) and IPCC SRES.

USS2.4-2.5 for OECD Environmental Outlook, Roads from Rio+20 and EU Resource efficiency.

The viewer provides access to the IMAGE scenario data on projects. Scenario data are stored on the PBL server. To obtain and use the data, please follow the instructions below.

Manual

USS manual offers a comprehensive user guide to the USS

Licence

The Creative Commons (BY) licence generally applies to the contents of this website and data. See copyright statement on the PBL website.

How to install the viewer

The zipfile needs to be unzipped onto your system. Use the shortcuts start_<projectname>_viewer to start the viewer. The start view will pop up together with a browser window with the Help-pages. The Help function starts with the How to page, which contains a short manual on how to use the viewer.

The file USS22_setup_32bit.exe/USS22_setup_64bit.exe installs all files onto your system.