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ICARDA's Research
Portfolio
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| ICARDA's Research Portfolio>Projec3.1>Project3.2>Project3.3>Project3.4 | |||||||||||||||||||||||||||||||||||||
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ICARDA's Research Portfolio |
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Theme 3.
Natural Resource Management
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Project 3.2. Land Management and Soil Conservation to Sustain the Agricultural
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Productive Capacity of Dry Areas
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ICARDA's innovative integrated natural resource management research project in the Khanasser Valley, Syria, was further developed in 2002. Emphasis was placed on improving the participatory component of the on-going, on-farm research at the site, and on developing an integrative conceptual framework, which is now being used to efficiently coordinate this large multidisciplinary project. |
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Khanasser
Valley Integrated Research Site (KVIRS) The Khanasser Valley lies
approximately 80 km southeast of Aleppo city, and represents an area
where the agricultural zone meets the natural rangelands of the steppe.
The Valley's diverse ecosystem exhibits several NRM-related problems.
Therefore, ICARDA selected Khanasser as an important integrated research
site (453 km2), in order to address problems characteristic of marginal,
dryland environments. The diversity and dynamics of the natural resources
and livelihoods, the prevailing poverty, and the relatively easy access
to the Valley, were the main factors influencing the selection of this
site. |
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| Table 24. Adapted INRM toolbox for the Khanasser Valley Integrated Research Site. | |||||||||||||||||||||||||||||||||||||
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| Cross-disciplinary
grouping and coordination
Interdisciplinary research
is one of the cornerstones of the KVIRS project. Achieving the necessary
level of cooperation was initially a major challenge, as the project
involved both the study of a large number of issues and bringing together
more than 50 scientists and extension agents. The challenge was met
by organizing the research according to the most relevant farming enterprises
in the Valley-the form of classification which would be understood best
by farmers. Farmer participatory research (FPR) In 2002, a training workshop on FPR methods was organized to strengthen the capacities of the research and extension staff involved in the KVIRS. The underlying intention was to initiate a shift from supply-driven to demand-driven technology development, and to increase the participation of farmers in the research process. The workshop resulted in the initiation of three different farmer interest groups, separately concerned with olive, cumin and barley growing. This improved researcher-farmer interaction, so increasing the influence farmers exerted on the research agenda. It also led farmers to evaluate proposed technologies, and helped in the identification of local innovators and local technical knowledge. For example, researchers suggested to farmers a new system, which involved (1) not plowing their olive orchards and (2) constructing V-shaped stony-earth bunds around each of their olive trees (to harvest water and to control soil erosion). In practice, however, farmers adapted this technology to their needs. They continued to plow, in order to minimize the growth of weeds (which they felt attract grazing sheep, fuel fires and compete for water with the olive trees). But, they did build V-shaped and/or fishbone shaped earthen bunds around their trees, to collect the water from the furrows. This simple, locally adapted system for soil and water harvesting is now being monitored by researchers to assess its physical and economic efficiency. In such ways, improved farmer-researcher interaction helped researchers to learn more about potential improvements to the technology, while FPR work now complements on-going, controlled, on-farm research. Diagnostic
tools: the multi-level framework The multi-level framework tool (Fig. 14) was the diagnostic backbone of the project (all the other diagnostic tools are linked and integrated with it). The tool does not list all possible influencing factors but, instead, prioritizes issues which (actually or potentially) constrain the optimum use of technologies or resources, and lists potential solutions. The issues identified are grouped into a 'spatial pillar,' a 'stakeholder pillar' and a 'field-level box,' all linked vertically and horizontally to different degrees. This framework was instrumental in:
Significant progress has been made in terms of both the 'spatial' and 'stakeholder' pillars. A striking factor is the diversity of livelihood strategies and their responsiveness to new land-use restrictions and resource decline. Our understanding of the status and use of the Valley's natural resources has also progressed significantly, especially with regard to groundwater, hillside vegetation and soil loss through water and wind erosion. In general, there is unsustainable over-use and degradation of natural resources. |
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Fig. 14. Application
of the multi-level framework for olive orchard technology on degraded
hillsides.
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Technology
development and evaluation Since the beginning of the
project, most emphasis has been placed on finding options for the traditional
extensive livestock-barley farming system. In 2002, research was widened
to include technologies for alternative farming enterprises (particularly
olive and cumin production and sheep fattening). The first results on
phosphogypsum and atriplex use in barley fields, and on soil and water
harvesting for olive trees, are promising, and will soon be published. |
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