Participatory Environmental Valuation: A Comparative Analysis of Four Case Studies
Abstract
:1. Introduction
2. Analytical Framework
2.1. The Cognitive, Normative and Composition Problems and the Value-Articulating Institutions Perspective
2.2. Participatory Environmental Valuation: Advances and Challenges
3. Comparative Analysis of the Case Studies
3.1. Presentation of Cases
Case Studies | Holmes et al. [25]—A | James and Blamey [26]—B | Messner et al. [27]—C | Proctor and Drechsler [28]—D |
---|---|---|---|---|
Contexts and objectives of the study | Objectives of the study: Ecosystem services are generally unaccounted for in decision-making causing ecosystem degradation. Assessing the economic efficiency of restoration projects: Identifying which restoration scale provides the greatest cost-benefit ratio. Environmental problem: Restoration of riparian areas along the Little Tennessee River (LTR), North Carolina. Methods: CV/CBA associated with focus groups | Objectives of the study: Incorporating community values into environmental decision-making; improve the robustness of WTP values in CV/CBA. Environmental problem: Management activities of national parks supervised by the National Parks and Wildlife Service in New South Wales, Australia. N.B. This case is focused on methodological dimensions. No real decision-makers were involved and it was presented as fictional to the jury. Methods: Deliberative monetary valuation, i.e., CV implemented in citizen’s jury context. | Objectives of the study: Uncertainty and ecological complexity, flaws of CBA, decision-making quality, competence and fairness, stakeholder implication. Environmental problem: Water allocation conflict between locations (up-stream/down-stream) and users in the Spree River watershed, Germany. Methods: Integrated Methodological Approach (IMA) combining a large participatory process, CBA (single-criterion assessment) and deliberative MCA as different steps of the same process. N.B. Only the CBA was realized when the paper was published. The MCA is only described. | Objectives of the study: Identifying and prioritizing between ecological, economic and social dimensions; deciding upon a suitable and sustainable management strategy for tourism and recreational activities. Environmental problem: Severe environmental problems, including water allocation issues, caused by the annual influx of tourists in the Goulburn Broken Catchment of Victoria, Australia. Methods: Social multicriteria evaluation i.e., MCA implemented in citizen’s jury setting. |
Elements under valuation | Ecosystem Services: Habitat for fish (abundance of game fish), habitat for wildlife (in buffer zones), erosion control and water purification (clarity), recreational uses (allowable water uses), ecosystem integrity (index of naturalness); five restoration programs/scales considered (current, small streams, small streams +2 miles, +4 or +6 miles) | Five management activities: Fire management (number of parks with good fire management), weed control (area controlled per year), feral animal control (area controlled per year), maintenance of visitor facilities (proportion of well-maintained) and management of historic sites (number of well-protected). | Long term variations (50-year projections) of net economic benefits for fish farming; lake tourism; public water management and lake water treatment and for ecological indicators such as mean water availability for minimum flow; average water flow for Berlin and for Spreewald. Five alternative management options and two scenarios (one taking into account climate change) are considered. | Ecosystem Services (water quality and quantity, biodiversity, aesthetics); social and cultural (public access to sites, jobs, cultural heritage and education) and economic dimensions (costs and benefits). Indicators include quantitative, qualitative indexes (scale of value) and binary indexes (presence or absence). Five alternative management options are considered. |
Participatory settings | Two types of focus group sessions: With experts to characterize relationships between ecosystems and their services and selected indicators; and (four sessions) with citizens to design CV surveys and predict results. Ninety-six respondents (consumers) to CV survey and statistical adjustment to the regional population. Citizen/consumer premises. | Citizen’s jury composed of 13 randomly selected jurors through phone surveys, following stratification rules to ensure representativeness of the regional population. Five witnesses with particular expertise in each management activity and two witnesses on general national park management. The jury met over three days (preparation, presentations and deliberation). Citizen/consumer premises. | Twenty interviews and “snow ball system” to identify all relevant stakeholders. Group talk with one stakeholder group (cross-state group) around climate modeling and policy strategies and individual discussions about the impact matrix (CBA step). Deliberative outranking MCA with all stakeholders. Stakeholder premises. | Workshops and questionnaires before the jury. Stakeholder’s Jury composed of five natural resources managers. Four witnesses (local water authority, local ski resort, state natural resources management, member of local parliamentary council) and a judge (community psychologist) assisted the jury during one day. Stakeholder premises. |
Data | Computerized CV surveys with photographs and maps and specific biding structure (dichotomous choice). Expressed WTP represent the benefits associated with each restoration scale, while costs are estimated on the basis of similar projects implemented in the region, through a cost-sharing program of the Natural Resources Conservation Service. Net benefits, associated with marginal changes in ecosystem services provision. | Deliberation among jury members and debates with witnesses. Debates and argumentation around current management practices, comparison of alternative management options and qualitative suggestions. Individual WTP understood as the maximum amount that citizens could be charged given the environmental improvement and the payment vehicle considered. | Interviews and group talks. Climate change modeling. Co-production of alternatives strategies and criteria with decision-makers, based on interviews, group talks and data availability. Calculation and ranking of economic and ecological criteria depending on the five alternatives and the two scenarios considered (CBA step). Individual preferences (weights) identified by interviews. Arguments during deliberative step. Stakeholder preferences, policy trade-offs, future uncertainties and consensual alternative. | Preliminary phase (workshops and questionnaires): Development of management options, criteria, impact matrix and preliminary rankings. Arguments and debates around witnesses’ presentations. Identification and discussion of juror’s preferences (weights). Use of probabilistic software (ProDecX) to screen policy alternatives, discuss weights and to reduce uncertainty/dissensions around weights. Sensitivity analysis posterior to the jury. |
Valuation processes | Documentation on the historical characteristics of the region. Documentation on the cost-sharing program for riparian restoration to determine average costs of restoration (and the minimum benefits necessary for economic feasibility). Two types of focus groups were used for CV surveys design and for ES indicators, respectively. Computerized CV. Statistical analysis. CBA. -Aggregation- | The jurors are confronted with two charges: Under the first charge, jurors had to reach a consensus over three different options of management activities at constant budget. Consensus over status quo was reached. Under the second, charge the jury had to consider improving all management activities financed by the introduction of a tax on inhabitants. No consensus was reached regarding the amount of the tax. A voting procedure was applied to close the process. -Consensus and voting- | Historical documentation and interviews. Development of scenarios and alternatives. Climate change and future uncertainties modeling and discussion. Modification of policy alternatives. Calculation of impact matrix. Individual discussions over impact matrix and identification of stakeholder’s preferences (weights). Deliberative MCA: Individual impact matrixes are presented and discussed. A consensus has to be reached over weighting, otherwise new alternatives are designed and the subsequent steps repeated. -Consensual weighting- | Preliminary phase. Discussion around the outcomes after first ranking process showing strong dissensions among jurors. Witnesses’ interventions. Replacement of the ranking process by a proportional weighting. Redefinition of the ES and social criteria. Discussion of new outcomes and justification of the weights assigned by jurors. Choice of a policy strategy. Sensitivity analysis showing a higher level of consensus. -Ranking and proportional weighting- |
Outcomes for decision-making | Annual economic benefits (median WTP) for each restoration scale. Full restoration has the highest benefit/cost ratio. Decision-makers know that the biggest public benefits are associated with full restoration, on the basis of the restoration program in place (average costs) and the demands of the population (WTP statements). | Insights about current management alternatives. Arguments and counter arguments regarding the introduction of a tax on inhabitants. Partial agreement on a certain tax level, with discussions over equity issues. Possibility of including the WTP results in a CBA, comparing the amount of money that would be collected by introducing the tax with an estimation of the costs implied by the new management strategy. | Ideally, the process is able to assess and evidence for a consensual alternative for decision-making, taking into account weighted economical and ecological dimensions as well as inequalities in the balance of power between stakeholders and global external futures changes (socioeconomic and climate) over a conflicting situation. However, only the results of the CBA step are discussed in the paper. | Exchange of arguments and elicitation of decision-makers’ preferences through weighting. Confirmation (after criteria redefinition) of a management option. After the process, decision-makers have another conception of the specificities of the problem considered. The confirmed management option is based on a higher degree of consensus than before the process. |
Limits | Challenges in linking ecosystem science with social values; difficulties in communicating complex ecological issues. CV respondents had trouble understanding how ecosystems should be valued (as substitutes or complementary). | Numerous issues are discussed: compliance behaviours, equity between jurors’ contributions, inconsistencies between citizen framing and individual WTP elicitation, WTP interpretation, introduction of the voting procedure, articulation of CBA results and representativeness. | The authors underline that the process does not fully meet the ideal claims on which it is based, regarding the participation debate. However, it improves the decision-making process in terms of competence and fairness. Other important limits concerning time spending and costs are mentioned. | The authors mostly highlight problems with the software used for the weighting process and for the presentation of the outcomes to the jurors. They underline the necessity to discuss in details criteria and impact matrix as well as the importance of the iterative nature of the process. |
3.2. Addressing the Cognitive, Normative and Composition Problems
A | B | C | D | |
---|---|---|---|---|
Cognitive | Low/P | High | High * | High * |
Normative | NSA | Medium | Medium/P * | High * |
Composition | Low | P | High * | High * |
3.2.1. The Cognitive
3.2.2. The Normative
3.2.3. The Composition Problem
3.3. Participation and Decision-Making: Issues and Differences between the Cases Considered
A | B | C | D | |
---|---|---|---|---|
Role models assumed by participants | Consumers and Citizens | Citizens and Consumers | Stakeholders | Stakeholders |
Differences in contribution | Medium | Low | Medium | Low |
Level of participatory impact | Consultation | Consultation | Collaboration | Collaboration |
Level of democratization of the decision-making process | Low | Low/NA | Medium | Low |
3.3.1. The Role Models Assumed by Participants
3.3.2. The Differences in Contribution between Participants
3.3.3. The Level of Participatory Impact
3.3.4. The Level of Democratization of the Decision-Making Process
4. Conclusions
Acknowledgments
Author Contributions
Conflicts of Interest
References
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Carnoye, L.; Lopes, R. Participatory Environmental Valuation: A Comparative Analysis of Four Case Studies. Sustainability 2015, 7, 9823-9845. https://doi.org/10.3390/su7089823
Carnoye L, Lopes R. Participatory Environmental Valuation: A Comparative Analysis of Four Case Studies. Sustainability. 2015; 7(8):9823-9845. https://doi.org/10.3390/su7089823
Chicago/Turabian StyleCarnoye, Leslie, and Rita Lopes. 2015. "Participatory Environmental Valuation: A Comparative Analysis of Four Case Studies" Sustainability 7, no. 8: 9823-9845. https://doi.org/10.3390/su7089823
APA StyleCarnoye, L., & Lopes, R. (2015). Participatory Environmental Valuation: A Comparative Analysis of Four Case Studies. Sustainability, 7(8), 9823-9845. https://doi.org/10.3390/su7089823