A Review of the Multi-Stakeholder Process for Salmon Recovery and Scenario Mapping onto Stability Landscapes
Abstract
:1. Introduction
Drawing on the concept of multiple basins of attraction, early frameworks in resilience-based transformations describe transformations as regime shifts between stable states, involving the crossing of thresholds or tipping points… From this perspective, any transformation process will involve the dissolution of negative attractors and at least some of the feedback relationships associated with the dominant state, as well as the generation of new attractors, relationships, and feedback loops in alternative basins. Put more simply, transformations involve both “unmaking” and “making” of specific sets of relationships that make up a system… In social-ecological systems, attractors can encompass physical conditions such as temperature, soil, or water, as well as hopeful and newly articulated visions, narratives, and imagined futures that are embedded in specific sets of values that can attract behaviors and institutions to organize around them…[2]
2. The Method of Scenario Mapping onto a Stability Landscape
… balls represent states… arrows represent drivers or disturbances… valleys represent regimes… and peaks represent thresholds… Valley widths determine resilience. Valley slopes determine… how difficult it is to change the state... Once close to a threshold, a relatively small disturbance can result in a regime shift…[10]
…a ball, often representing an ecosystem or some socio-ecological system, exists on a surface where any point along the surface represents a possible state... When the ball is in a valley or a “domain of attraction”, it exists in a stable state and must be perturbed to move from this state. In the absence of perturbations, the ball will always roll downhill and therefore will tend to stay in the valley (or stable state)… deep basins of attraction mean that greater influences are required to change the current state of the system away from the attractor. Within this model we can talk about the precariousness of the system which would correlate to the current trajectory of the system, and how close it currently is to a limit or “threshold”…[11]
3. The Four Regimes for Salmonids in the Columbia River Basin
In a spatially and temporally varying environment, there are three general reasons why diversity is important for species and population viability. First, diversity allows a species to use a wider array of environments than they could without it. For example, varying adult run and spawn timing allows several salmonid species to use a greater variety of spawning habitats than would be possible without this diversity. Second, diversity protects a species against short-term spatial and temporal changes in the environment. Fish with different characteristics have different likelihoods of persisting—depending on local environmental conditions. Therefore, the more diverse a population is, the more likely it is that some individuals would survive and reproduce in the face of environmental variation. Third, genetic diversity provides the raw material for surviving long-term environmental changes. Salmonids regularly face cyclic or directional changes in their freshwater, estuarine, and ocean environments due to natural and human causes, and genetic diversity allows them to adapt to these changes.
4. Stakeholder Groups and Recovery Plans
In short, salmon are the key to protecting a way of life rooted in the North Pacific environment: protect salmon and you protect forests, food, water, communities, and economies. But our work over the last two decades has shown that only an aggressive, proactive approach on the strongest remaining salmon rivers—salmon strongholds—can halt the decline of these iconic species and all the benefits we derive from them…[23]
The most important challenge for long-term salmon conservation is to find and protect the best remaining intact rivers. Once lost, this salmon habitat is politically and economically expensive to reclaim. For this reason, we should focus on the rivers with the best existing habitats and healthy native salmon stocks, and the fewest major human impacts. We call these salmon strongholds. Moving region by region around the Pacific Rim, we should make permanent investments in the rivers that have the best chance of getting watershed-level habitat protection… We are already working to create a Pacific Rim-wide system of protected salmon strongholds. Each stronghold has (a) healthy native salmon stocks, (b) enough protected river habitat to sustain salmon and their surrounding ecosystem in perpetuity, and (c) local human communities that actively work to protect strongholds because they benefit from and support these salmon ecosystems [23].
…the Pacific Salmon Stronghold Conservation Act, is to establish a comprehensive, strategic, science-based approach to wild salmon stronghold conservation. It would create a structural framework and expand Federal support for the protection and restoration of the healthiest remaining wild Pacific salmon stocks in North America [24].
The Salmon FISH Act would promote the vitality of salmon populations by: Identifying the core centers of salmon abundance, productivity, and diversity as Salmon Conservation Areas and identifying areas of particularly pristine quality as Salmon Strongholds; Building upon existing analysis such as that used in Essential Fish Habitat;
Ensuring actions of the federal government do not undermine the abundance of these areas; Authorizing funding for a grant program focused on restoration and conservation of Salmon Conservation Areas and Salmon Strongholds; Supporting current federal programs already focused on restoring and maintaining healthy watersheds [26].
…to ensure a unified voice in the overall management of the fishery resources, and as managers, to protect reserved treaty rights through the exercise of the inherent sovereign powers of the tribes [29].
Within 7 years, halt the declining trends in salmon, sturgeon and lamprey populations originating upstream of Bonneville Dam; Within 25 years, increase the total adult salmon returns above Bonneville Dam to 4 million annually and in a manner that sustains natural production to support tribal commercial as well as ceremonial and subsistence harvests; Within 25 years, increase sturgeon and lamprey populations to naturally sustainable levels that also support tribal harvest opportunities; Restore anadromous fishes to historical abundance in perpetuity [30].
Supplementation hatchery programs must necessarily be enacted in concert with efforts to restore habitat, improve hydrosystem survival and manage harvest; Program scale should be appropriate to both mitigation needs and match the potential natural productivity of the stream; Use of natural-origin broodstock as feasible to increase integration with the natural population and promote local adaptation; Adopt spawning and rearing practices to maintain genetic diversity and to produce behavioral and physical phenotypes of hatchery origin fish that are (more) similar to those of natural-origin fish; Acclimate and release hatchery-origin juveniles in locations within spawning areas to promote adult homing for natural reproduction [31].
…is the use of artificial propagation in the attempt to maintain or increase natural production while maintaining the long-term fitness of the target population, and keeping the ecological and genetic impacts on non-target populations within specified biological limits [32].
Despite all these years and all these setbacks, the hatchery goal never changed. What did change, though, was the science and technology of hatcheries. “This hatchery evolved over the years to fit the changing views of science and move from traditional hatchery practices to the more state-of-the-art views of supplementation techniques”, says Bonneville Power Administration administrator Steve Wright. “Leadership at the tribe led the science development, focusing on the concept of gravel-to-gravel management”. With the constant demands for further studies and requirements, the Nez Perce were able to fine-tune the details of their hatchery program.
Results from the supplementation programs suggest that with judicial management, they can provide the sought after demographic benefits while sufficiently controlling for effects on other viable salmonid parameters… that might be associated with artificial spawning and rearing... Declines in natural population abundance have been reversed in response to some of these supplementation programs, though reduced habitat productivity and hydrosystem mortality continue to constrain natural growth… While gains have been achieved and the threat of extirpation has been substantially reduced, essentially none of the natural populations in the interior Columbia Basin can be deemed naturally abundant and self-sustaining. Reduced habitat productivity and hydrosystem mortality continue to constrain natural growth of these populations. As a result, these populations remain in need of further support from hatchery supplementation.
The purposes of this Act are to provide a means whereby the ecosystems upon which endangered species and threatened species depend may be conserved, to provide a program for the conservation of such endangered species and threatened species, and to take such steps as may be appropriate to achieve the purposes of the treaties and conventions set forth in subsection (a) of this section [35].
…ensure that the proposed action will not reduce the likelihood of survival and recovery of a ESA-listed species. A biological opinion usually also includes conservation recommendations that further recovery of the specific ESA-listed species. The biological opinion includes Reasonable and Prudent measures as needed to minimize any harmful effects, and may require monitoring and reporting to ensure that the action is implemented as described [38].
Continuation of the system operations for Congressionally authorized purposes including flood risk management, fish and wildlife conservation, irrigation deliveries, and power system management; Continuation of the tributary habitat improvement program, targeting interior basin ESA-listed species; Continuation of the estuary habitat measures to improve rearing habitat for juvenile salmonids; Continued funding conservation and safety-net hatchery programs (site specific operations are covered under separate BiOps); Continuation of the predator management programs for marine mammals, avian, and pikeminnow predators; Continuation of a targeted research and monitoring program; Continuation of the adaptive management framework.
Rather than continue on the path of developing CRS [Columbia River System] -specific standards, in the 2019 CRS biological opinion we returned to our usual practice applied in most (if not all) ESA consultations. Specifically, we applied the statutory language and our long-standing interpretations of Section 7(a)(2) that are contained in the U.S. Fish and Wildlife Services’ (USFWS) and NMFS’ joint consultation regulations and preambles to those regulations. In the 2019 CRS biological opinion we used those standards and long-standing interpretations of the ESA to determine whether the proposed action was likely to jeopardize the continued existence of listed species or result in the destruction or adverse modification of critical habitat, and concluded it was not…
…files a petition for review of these documents in the Ninth Circuit Court of Appeals and returns to U.S. District Court to challenge the 2020 FEIS, ROD and BiOp. Oregon and the Nez Perce Tribe again join Earthjustice and its clients. Earthjustice also files a motion for injunctive relief seeking further increases in spill and drawdown of water levels in the reservoirs behind dams to speed juvenile salmon passage downstream. The Nez Perce Tribe and Oregon join this request.
NOAA Fisheries releases the Rebuilding Interior Columbia Basin Salmon and Steelhead report which concludes that removal of the four dams on the lower Snake River as soon as possible is “essential” to avoid salmon extinction and allow populations to rebuild.
On On Sept. 27, the Biden administration issues a Presidential Memorandum on Restoring Healthy and Abundant Salmon, Steelhead and Other Native Fish Populations in the Columbia River, directing federal agencies to use all of their authorities to restore healthy and abundant wild salmon and steelhead populations across the Columbia and Snake River Basin and to review and update any policies not aligned with that goal [42]. Earthjustice’s plaintiffs and other parties notify the Court on Oct. 31 that they are working towards approval of a proposed package of actions and commitments from the federal government and will file that with the Court by Dec. 15, 2023, or propose a schedule for restarting litigation by that date.
The Rebuilding Interior Columbia Basin Salmon and Steelhead report identifies a comprehensive suite of actions that would have the greatest likelihood of making considerable progress toward rebuilding Columbia Basin salmon and steelhead to healthy and harvestable levels. The report was finalized by NOAA Fisheries, with input from the U.S. Fish and Wildlife Service, and with feedback from state and tribal fishery co-managers… The aggressive actions reflect the urgency behind the Columbia Basin Partnership’s 2020 recommendations that merely avoiding extinction of native salmon and steelhead is not enough. Instead, the Partnership called for healthy and harvestable numbers that again contribute fully to the culture, environment, and economy of the region. The healthy and harvestable goal goes substantially beyond recovery as required by the Endangered Species Act and would take a sustained commitment over many decades. This report is not a regulatory document, but rather is intended to inform and contribute to regional conversations and funding decisions.
5. A Future for Scenario Mapping?
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
References
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Hill, G.M.; Kolmes, S.A. A Review of the Multi-Stakeholder Process for Salmon Recovery and Scenario Mapping onto Stability Landscapes. Environments 2024, 11, 120. https://doi.org/10.3390/environments11060120
Hill GM, Kolmes SA. A Review of the Multi-Stakeholder Process for Salmon Recovery and Scenario Mapping onto Stability Landscapes. Environments. 2024; 11(6):120. https://doi.org/10.3390/environments11060120
Chicago/Turabian StyleHill, Gregory M., and Steven A. Kolmes. 2024. "A Review of the Multi-Stakeholder Process for Salmon Recovery and Scenario Mapping onto Stability Landscapes" Environments 11, no. 6: 120. https://doi.org/10.3390/environments11060120
APA StyleHill, G. M., & Kolmes, S. A. (2024). A Review of the Multi-Stakeholder Process for Salmon Recovery and Scenario Mapping onto Stability Landscapes. Environments, 11(6), 120. https://doi.org/10.3390/environments11060120