Derek Kauneckis, Assoc. Professor Department of Political Science University of Nevada, Reno MtnClim 2014 Sept. 15-18, Midway, UT Motivation for the study An emerging literature has developed around ideas of system resilience from engineering, ecology and systems theory. Recent applications to human systems. Our most disastrous system failures, have had more to do with the human decision-making structures rather than natural or built systems (Ex: New Orleans evacuation, BP oil spill, Fukushima) Need for increased attention to collective decision making level (community, organizational, policy system) Goals Generate a theory and empirical testable measures of “institutional resilience”, or the ability of a decisionmaking system to adapt to new conditions and respond to exogenous and endogenous changes Develop a method, “decision node analysis” that drawn on institutional analysis, network theory, and policy sciences Unit of analysis is the policy provisioning/production system and the specific actors within the policy network around a specific environmental public good/eco-system service Conceptual clarity What is meant by institutions – “…rules used by individuals for determining who and what are included in decision situations, how information is structured, what actions can be taken and in what sequence, and how individual actions will be aggregated into collective decisions… all of which exist in a language shared by some community of individuals rather than as physical parts of some external environment”. Kiser and Ostrom, 1982, “The Three World of Action: A Metatheoretical Synthesis of Institutional Approaches”. What is meant by ‘institutional resilience’ Institutions as the collective adaptive response to changing conditions Examples: Formal water compacts Policy instruments Operational rules Social norms Resilience of a resource management system = inherent potential of the system to avoid, or recover from, a negative impact to the system without reducing, or even improving, the delivery of public good/service An application Comparative institutional analysis of two urban water delivery systems (Cities of Reno and Las Vegas, NV) Focus on ‘decision nodes’ – interviews with water managers at multiple levels responsible for the allocation, use, access, management and inputs that contribute to overall water system Assessment method queries individual responses to a variety of climate risk scenarios (flood, seasonal variability in snowpack, reduced snowpack, supply interruption, long term drought) toward evaluating the entire provisioning/production system Study locations Reno Las Vegas Study areas Two contrasting urban water systems Both highly-managed, built upland snow-fed hydrological systems, urbanized, multi-use, arid region Water use per capital Reno, 64 gallons/per capita daily Vegas, 223 gallons/per capita daily Reno/Sparks Las Vegas Colorado River System Overview Reno/Sparks water system Colorado River System Overview Colorado River System Overview Las Vegas Las Vegas water system Centrality of Institutions Regional Water Allocation Agreements Reno Truckee-Carson-Pyramid Lake Water Rights Settlement Act Truckee River Compact Las Vegas Law of the River Recent amendments to permit water banking Water Rights and Transfer Arrangements Reno New water rights available through transfer from agriculture to development Informal water trading Las Vegas New water rights available only through new sources Water banking arrangements in place Organizational Interactions Reno Truckee Meadows Water Authority (TMWA) Las Vegas Southern Nevada Water Authority (SNWA) Various federal, state and Local water districts Dominance of state and Heavy dominance of local organizations local agencies representing municipal areas federal agencies (BoR) Operational Rules Reno Truckee Meadows Water Authority (TMWA) Las Vegas Southern Nevada Water Authority (SNWA) Local operational Local water districts managers representing municipal areas Local operational managers Recognized Institutional Constraints Reno Truckee River Compact Las Vegas Law of the River Endangered Species Act Process of establishing Clean Water Act right to new sources Measuring resilience Characteristics of a resilient system: as applied to policy systems Multiple feedback loops in the system: awareness of climate impacts at multiple levels, anticipatory planning, awareness and perception of changes; Information flows laterally and horizontally Diversity: Polycentricism, Diversity of organizations and users in policy network, ability to jump hierarchical levels Redundancy and modularity: Shared responsibilities, diffuse expertise, functional redundancies Degree of Social Capital: Levels of trust, degree of coordination, structure of policy network Responsive to change: Innovation, access to policy diffusion, experimentation, History of response to change (both gradual and sudden), Evidence of organizational and policy learning Methods Content analysis of multi-level interview data Each attribute scored on a 1-5 scale Cross-validation of the score Weighted aggregate across individual characteristics Weighted aggregate across spatial influence of each organization Resilience index (stylized) Feedback 5 4 3 Responsiveness 2 Diversity 1 Las Vegas Reno Social Capital Redundancy Contrasting the two systems: Reno No clear focusing events High degree of uncertainty around climate impacts due to heterogeneity of topography Medium capacity Supply focused Las Vegas Clear information signals Clear articulation of policy responses and understanding of relevant decision space High capacity Focus on both supply and demand Public service announcement from Southern Nevada Water Agency (click to view) New research Recent NSF – WCS/USDA Award Reconciling Demands for Water under Extreme Climate Conditions: An Integrated Framework for Policy Learning, Stakeholder Engagement, and Climate Adaption in Snow Fed, Arid River Systems NSF – EPSCoR Climate Infrastructure Award National-level local government climate policy study - First national-level assessment of local government climate mitigation and adaptation policies Derek Kauneckis, Associate Professor Political Science Department University of Nevada, Reno Email: kauneck@unr.edu Acknowledgements: National Science Foundation– Nevada Climate Infrastructure Project & College of Liberal Arts Scholarly and Creative Activities Grant Program