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Decision support experiments and evaluations using seasonal to ...

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<strong>and</strong>, thus, able <strong>to</strong> span the domains of climate<br />

knowledge production <strong>and</strong> climate knowledge<br />

for water management use.<br />

Adaptive <strong>and</strong> inclusive management practices<br />

are essential <strong>to</strong> fulfilling these objectives. These<br />

practices must empower people <strong>to</strong> use information<br />

through providing adequate training<br />

<strong>and</strong> outreach, as well as sufficient professional<br />

reward <strong>and</strong> development opportunities; <strong>and</strong><br />

they must overcome capacity-building problems<br />

within organizations <strong>to</strong> ensure that these<br />

objectives are met, including adequate user<br />

<strong>support</strong>. The cases discussed below—on the<br />

California Department of Water Resources’<br />

role in adopting climate variability <strong>and</strong> change<br />

in<strong>to</strong> regional water management, <strong>and</strong> the efforts<br />

of the Southeast consortium <strong>and</strong> its satellite<br />

efforts—are examples of inclusive leadership<br />

which illustrate how scientists as well agency<br />

managers can be proactive leaders. In the former<br />

case, decision makers consciously decided<br />

<strong>to</strong> develop relationships with other western<br />

states’ water agencies <strong>and</strong> partnership (through<br />

a Memor<strong>and</strong>um of Underst<strong>and</strong>ing [MOU])<br />

with NOAA. In the latter, scientists ventured<br />

in<strong>to</strong> collaborative efforts—across universities,<br />

agencies, <strong>and</strong> states—because they shared a<br />

commitment <strong>to</strong> exchanging information in<br />

order <strong>to</strong> build institutional capacity among the<br />

users of the information themselves.<br />

Case Study A:<br />

Leadership in the California Department of<br />

Water Resources<br />

The deep drought in the Colorado River Basin<br />

that began with the onset of a La Niña episode<br />

in 1998 has awakened regional water resources<br />

managers <strong>to</strong> the need <strong>to</strong> incorporate climate<br />

variability <strong>and</strong> change in<strong>to</strong> their plans <strong>and</strong><br />

reservoir forecast models. Paleohydrologic estimates<br />

of streamflow, which document extended<br />

periods of low flow <strong>and</strong> demonstrate greater<br />

streamflow variability than the information<br />

found in the gage record, have been particularly<br />

persuasive examples of the non-stationary behavior<br />

of the hydroclimate system (Woodhouse<br />

et al., 2006; Meko et al., 2007). Following a<br />

2005 scientist-stakeholder workshop on the<br />

use of paleohydrologic data in water resource<br />

management , NOAA<br />

<strong>Decision</strong>-Support Experiments <strong>and</strong> Evaluations <strong>using</strong> Seasonal <strong>to</strong><br />

Interannual Forecasts <strong>and</strong> Observational Data: A Focus on Water Resources<br />

RISA <strong>and</strong> California Department of Water<br />

Resources (CDWR) scientists developed<br />

strong relationships oriented <strong>to</strong>ward improving<br />

the usefulness <strong>and</strong> usability of science in<br />

water management. Since the 2005 workshop,<br />

CDWR, whose mission in recent years includes<br />

preparation for potential impacts of climate<br />

change on California’s water resources, has<br />

led western states’ efforts in partnering with<br />

climate scientists <strong>to</strong> co-produce hydroclimatic<br />

science <strong>to</strong> inform decision making. CDWR led<br />

the charge <strong>to</strong> clarify scientific underst<strong>and</strong>ing of<br />

Colorado River Basin clima<strong>to</strong>logy <strong>and</strong> hydrology,<br />

past variations, projections for the future,<br />

<strong>and</strong> impacts on water resources, by calling upon<br />

the National Academy of Sciences <strong>to</strong> convene a<br />

panel <strong>to</strong> study the aforementioned issues (NRC,<br />

2007). This occurred, <strong>and</strong> in 2007, CDWR<br />

developed a Memor<strong>and</strong>um of Agreement with<br />

NOAA, in order <strong>to</strong> better facilitate cooperation<br />

with scientists in NOAA’s RISA program <strong>and</strong><br />

research labora<strong>to</strong>ries (CDWR, 2007a).<br />

Case Study B:<br />

Cooperative Extension Services, Watershed<br />

Stewardship: The Southeast Consortium<br />

Developing the capacity <strong>to</strong> use climate information<br />

in resource management decision<br />

making requires both outreach <strong>and</strong> education,<br />

frequently in an iterative fashion that leads <strong>to</strong><br />

two-way communication <strong>and</strong> builds partnerships.<br />

The Cooperative Extension Program has<br />

long been a leader in facilitating the integration<br />

of scientific information in<strong>to</strong> decision maker<br />

of practice in the agricultural sec<strong>to</strong>r. Cash<br />

(2001) documents an example of successful<br />

123

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