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Introduction
The CGIAR Challenge
Program on Water and Food (CP Water and Food) proposes to launch
an ambitious research, extension and capacity building program that
will significantly increase the productivity of water used for agriculture
(http://www.waterandfood.org/).
The program's interlocking goals are to allow more food to be produced
with the same amount of water that is used in agriculture today,
as populations expand over the coming 20 years. And, do this in
a way that decreases malnourishment and rural poverty, improves
people's health and maintains environmental sustainability. The
CP Water and Food is managed by an 18-member consortium, composed
of 5 Consultative Group on International Agricultural Research (CGIAR)/Future
Harvest Centres, 6 National Agricultural Research and Extension
Systems (NARES) institutions, 4 Advanced Research Institutes (ARIs)
and 3 international NGOs.
CG centres lead thematic groups. NARES lead benchmark basin work,
giving a close link to regional and locally defined priorities,
to help drive implementation of research ideas which, working with
partner NGOs, drive impact. ARIs ensure a strong link for this research
to the global change research agenda.
Thematic Groups
Theme 1: Crop
Water Productivity Improvement (IRRI)
Theme 2: Water and People in catchments: Enabling
efficient and equitable water use (CIAT)
Theme 3: Aquatic Ecosystems and Fisheries (ICLARM)
Theme 4: Integrated Basin Water Management Systems (IWMI)
Theme 5: The Global and National Food and Water System (IFPRI)
Theme
2: Water
and People in catchments: Enabling efficient and equitable water
use
Introduction
Potential improvements
in water management can be limited by the complexity and diversity
of water uses and water users within upper catchments. Substantial
modification in water use at one location influences the resource
at another, so a systemic approach is required which links changes
in catchment and basin-hydrology with the people who create it,
and anticipates the impacts of complex interactions which occur
between socially, economically or politically diverse groups. Resolution
of the 'hydrologic dyslexia', that is, the institutional disconnectivity
that occurs between hydrologically-connected people, will increase
the potential gains offered by advances in biophysical performance.
'Hydrologic
dyslexia' may occur at community, catchment and basin scale. It
results from a deficiency of institutions that could enable more
effective use of shared resources. It reflects the barriers that
prevent 'collective' or 'coordinated' management.
The complex
challenge can be divided into three facets, each of which will need
to be generalized: water and livelihoods; catchment hydrology; and
social organization. These facets overlap within catchments, but
the knowledge of processes they represent is not congruent. This
lack of congruence presents a major challenge for researchers, but
also an opportunity for new, integrating activities that can underpin
significant and measurable progress in enabling people to benefit
from improved water productivity.
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Objective
- To improve
sustainable livelihoods for people who live in, and downstream
of, upper catchments through significant, unambiguous improvements
of water productivity.
This will be
achieved through comparative research at benchmark sites that will
identify opportunities and incentives for measurable improvements
in use of the water resource and by enabling the learning processes
that influence groups of people to adopt them.
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Research
Areas
Water,
Poverty and Risk in Upper Catchments
Water is critical
to sustainable livelihoods of both rural and urban poor through
the range of services it provides. In addition to the provision
of water for agriculture, sanitation and drinking for their inhabitants,
upper catchments are valued for their environmental services to
downstream urban, agricultural and industrial users. Where upper
watersheds are forested, powerful external economic interests may
conflict with both environmental and local economic objectives.
These upper catchments are intrinsically risky, they tend to be
difficult to manage, difficult to access and prone to processes
of land and water degradation, such as erosion and landslides.
Key research
questions include:
- What is the
significance of water to the livelihoods of inhabitants of upper
catchments, especially the poor, and how is this reflected in
their role as managers of watershed resources?
- What is the
sensitivity and resilience of catchments to changes in land and
water use, or external shocks? What are the definable characteristics
of sensitivity and resilience?
- What are
measurable and predictable impacts of changes in water management
on poverty alleviation?
Potential
for Improved Water Management
We assume that
significant, if patchy, potential exists for increased water productivity
within most catchments, through improvements in crop water productivity
and better management of land and water resources. Better water
quality and availability can, in turn, improve water productivity
within neighboring components of the landscape, more equitable distribution
among them, and enhanced incentives for protection of collective
land and water resources. To recognize the potential for such improvements,
decision-makers at all levels, including individual resource users,
will need to be aware of possible gains, through the use of models,
landscape design criteria, decision support tools and robust field
tools for local monitoring, preferably suitable for application
in data-poor environments.
Key research
questions include:
- What are
the opportunities for improved water productivity, individually
and collectively within upper catchments and what risks are associated
with specific land management changes?
- What are
key indicators of risks? What risk management strategies are available/
appropriate?
- Where can
technological and management advances provide win-win situations?
Are trade-offs between uses and users significant, if so, how
can decision-makers assess them?
- How can the
outcome of specified changes be assessed for large areas for which
data is sparse? How can participatory action research and inclusion
of local knowledge contribute to this assessment?
Enabling
people to benefit from improved management of land and water resources
Where the potential
for improvement exists, what has hitherto prevented improvement
taking place, and how can it be realized now? Gain is often obstructed
by complex problems such as uncertainty, the lack of institutions
to implement change, and possible conflicts between diverse groups
of people. This will require unambiguous identification of the factors
that influence people to engage in a long term, adaptive process
of improved water resource management.
People organize
themselves in response to a variety of influences, including social,
economic, political, technological and biophysical. In upper catchments,
the implications on water resources of individual decisions may
not be considered due to extreme uncertainty, externalities1
, or overriding economic or social pressures. As a result, many
of the institutions and policies that influence how people use resources
in upper catchments are not designed to maximize benefits from water.
Yet, top-down, engineering approaches to watershed management have
generally not been effective; precisely because they do not take
into account the multiple uses and users of resources in upper watersheds.
Key research
questions include:
- How do people
organize themselves with respect to water? What are the critical
points of interaction between human and hydrologic systems which
could provide entry points for better organization and control?
- What are
the consistent and detectable influences of policies and other
instruments which are deployed to modify stakeholder behavior?
- How can the
system accelerate overall improvement in water productivity without
exacerbating inequalities in power? What are the generalizable
characteristics of effective institutions for managing water resources?
- How can experiences
in participatory research and extension and common property management
from individual catchments be generalized for global application?
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Outputs
Expected outputs
will include: (1) Explicit definition of interactions between water
and poverty in livelihoods of residents of upper catchments. (2)
Validated methods to assess the impact of better water management
in upper catchments on poverty alleviation. (3) Inventory of effective
land and water use technologies (best practices, identification
of gaps, and possible key research questions) (4) Decision support
tools to enable users to identify the likely consequences of land
use change on water availability and quality and to diagnose specific
land management problems. (5) Guidelines for adaptive, participatory
planning and decision-making processes among stakeholders. (6) Institutional
and organizational options for management of upper catchments. (7)
Policy instruments encouraging protection of catchment function.
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Impacts
Anticipated
impacts will include: (1) Strengthened livelihoods of residents,
especially poor residents, of upper catchments through increased
water access and productivity, reduced vulnerability to water-related
risks, and an increased recognition of the economic value of their
role in providing environmental services. (2) More efficient and
equitable water management resulting in global benefits for stakeholders
including downstream and off site users. (3) Improved organizational
mechanisms in place to facilitate collaborative management of resources
within and outside the catchment, based on adaptive learning processes
that incorporate scientific and local knowledge. (4) Policies and
institutions that significantly influence the management of catchments
and their resources which support the claims of the multiple uses
and user.
1
Externalities occur when the consequences of a decision are felt
by someone other than the decision maker.
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