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Article

Integrating Ecological Cognition and Compensation Strategies for Livelihood Transitions: Insights from the Poyang Lake Fishing Ban Policy

1
School of Earth Sciences, East China University of Technology, Nanchang 330013, China
2
Natural Reserve Planning and Research Institute, East China University of Technology, Nanchang 330013, China
*
Authors to whom correspondence should be addressed.
These authors contributed equally to this work.
Sustainability 2025, 17(6), 2539; https://doi.org/10.3390/su17062539
Submission received: 14 February 2025 / Revised: 11 March 2025 / Accepted: 12 March 2025 / Published: 13 March 2025

Abstract

The “Ten-Year Fishing Ban” policy in the Yangtze River Basin aims to restore ecological diversity but poses significant challenges for the fishermen in their transition to alternative livelihoods. This study focuses on fishermen who worked on Poyang Lake, using the sustainable livelihood framework and the theory of planned behavior, combined with fuzzy-set qualitative comparative analysis (fsQCA) and descriptive statistics, to explore the interaction effects of livelihood capital, ecological cognition, and compensation policies on fishermen’s behavioral responses. Key findings include the following: natural, financial, and psychological capital are core drivers of enhanced ecological cognition, with combined effects significantly increasing sensitivity to policy and environmental changes through pathways like “ecological transition drive”, “knowledge adaptation support”, and “multi-cooperation synergy”. Attitude, perceived behavioral control, and compensation policy transparency are crucial for positive responses, while social norms and policy fairness can compensate for individual motivation deficits, forming pathways like “ecological drive-policy recognition” and “norm drive-social support”. Current issues such as low compensation standards, insufficient retraining, and gender differences limit policy effectiveness. Optimizing measures like differentiated fishing permits, dynamic compensation mechanisms, and cultural empowerment are needed to balance ecological protection and social equity. The study suggests enhancing financial and psychological capital, improving vocational training systems, and increasing policy transparency to provide theoretical and practical references for sustainable global fisheries management.

1. Introduction

The Yangtze River Basin, a critical ecological barrier and aquatic gene pool in China, faces severe challenges due to declining fishery resources. Overfishing has triggered a sharp reduction in species diversity and ecosystem imbalance, posing a significant bottleneck to sustainable development in the basin [1]. To implement the national “Ecological Civilization” strategy, the Chinese government launched a ten-year fishing moratorium in 2020, aiming to restore aquatic biodiversity and ecosystem functions through a comprehensive fishing ban [2]. However, while generating notable ecological benefits, this policy has induced structural adjustments to fishermen’s livelihood capital [3]. Statistics indicate that the ban affects 112,000 fishing boats and 231,000 fishermen [4], necessitating livelihood transitions. As the core stakeholders, fishermen’s cognitive understanding of the policy and their behavioral responses directly determine its effectiveness [5]. Challenges such as inadequate economic compensation, insufficient social security, and difficulties in occupational transitions highlight the urgency for systemic solutions [6].
Fishermen’s ecological cognition is multi-dimensional [7], encompassing sensitivity to environmental changes, interpretation of policy implications, and alignment with sustainable development values. Studies indicate that ecological cognition mediates the interaction between livelihood capital and policy compensation, profoundly shaping behavioral choices [8], with high-cognition groups prioritizing long-term ecological benefits and low-cognition individuals focusing on short-term economic trade-offs. Although the current compensation framework includes income subsidies, vessel disposal, and social security [9], mismatches between compensation standards and actual losses (e.g., compensation covering only 60–80% of fishing vessel costs in Poyang Lake [10]) have trapped some fishermen in “policy dependency” and “survival anxiety.” Such structural contradictions underscore the need for optimized compensation mechanisms—differentiated ecological compensation systems are essential to balance ecological goals with social equity [11].
Existing studies on the fishing moratorium span multiple dimensions. Domestic research focuses on ecological compensation standards [12], occupational transition pathways [4], and livelihood vulnerability assessments [13], while international studies emphasize market-based governance tools such as fishery quotas [14] and licensing systems [15]. Notably, the fuzzy-set qualitative comparative analysis (fsQCA) method has demonstrated unique advantages in analyzing complex policy effects [16]. By identifying nonlinear relationships through configurational analysis, fsQCA has been widely applied in marine economic resilience [17] and sustainable fishery transitions [18]. For instance, fsQCA was employed to study compensation satisfaction among fishermen in the Chishui River Basin (Guizhou Province, China) in the upper Yangtze, yet existing research lacks granular exploration of the influencing factors beyond macro-level livelihood capital [8].
This study takes the Poyang Lake Basin as a typical case to construct an analytical framework of “Livelihood Capital-Ecological Cognition-Policy Response”, integrating questionnaire survey data with the fsQCA model to identify critical conditional configurations for fishermen’s transition, overcoming the limitations of traditional linear regression. The research primarily investigates the following: how differences in livelihood capital endowments affect fishermen’s ecological cognition and their response pathways to policies; how ecological cognition and compensation policies jointly influence behavioral responses. Based on model results, analyzing risk preferences, and decision-making logic during occupational transition processes, this study aims to promote a three-dimensional balance of “ecological restoration-economic compensation-social integration”, providing decision-making references for coordinating ecological protection and livelihood security in the Yangtze River Basin, while contributing Chinese experience to global ecological governance of major river basins.
This study uses a tripartite framework to analyze the Yangtze fishing ban. Firstly, performing a systematic review of the evolution of the Yangtze fishing ban policies and their impact mechanisms on Poyang Lake fishermen’s livelihoods. Secondly, utilizing survey data from 427 fishermen households obtained through stratified sampling, and employing descriptive statistics and fsQCA to analyze the correlation characteristics among livelihood capital, ecological cognition, and behavioral responses. Finally, proposing policy optimization recommendations through multi-case comparative analysis.

2. Materials and Methods

2.1. Study Area

Poyang Lake (115°49′–116°46′ E, 28°24′–29°46′ N), located in northern Jiangxi Province, China, covers an area of approximately 3583 square kilometers. As the largest river-connected lake in the middle and lower reaches of the Yangtze River, it serves as a critical freshwater wetland ecosystem in Asia. Its ecological functions are vital, providing key habitats for biodiversity and hydrological regulation for the Yangtze River Basin. By 2023, the wetland of Poyang Lake had recorded 299 bird species and 136 freshwater fish species [19], including widespread species such as black carp, grass carp, silver carp, and rare species like Reeves’ shad, icefish, and Chinese sturgeon. The diverse biological communities and complex habitat structures make it a representative area for ecological conservation and sustainable development research in the Yangtze River Basin.
Fisheries in Poyang Lake Basin originated in the Neolithic Age. During the Tang and Song dynasties, a migratory ecological pattern (“river-lake migration”) established a dominant fishing system targeting the “Four Major Domesticated Fish” (black carp, grass carp, silver carp, and bighead carp). By the mid-to-late 20th century, industrialized fishing led to peak resource exploitation, with annual catches surging to 30,000–50,000 tons during 1950–1980, accounting for 70% of Jiangxi’s freshwater fishery yield. However, overexploitation and ecological degradation caused a sharp decline post-2000, reducing annual catches to below 20,000 tons. The proportion of the four major fish plummeted from 60% to less than 20%, accompanied by population miniaturization and juvenilization, trapping traditional fishermen in a “fishing-poverty” cycle [20].
China initiated fishery management frameworks through the Fisheries Law (1986), establishing fishing permits and seasonal bans [21]. Yet, ineffective enforcement and regulatory gaps undermined policy efficacy. Seasonal fishing bans were trialed in the Yangtze Basin from 2002, but they faced persistent challenges in Poyang Lake, including illegal fishing and local protectionism, failing to reverse resource depletion.

2.2. Data Collection

The data for this study were derived from a random sampling survey conducted in July 2024, targeting fishermen who have transitioned away from fishing in the Poyang Lake Basin. The questionnaire consists of three main sections. The first section gathers information on fishermen’s basic demographics and livelihood capital, the second section assesses their ecological cognition and behavioral responses, and the third section investigates their attitudes and satisfaction with the compensation policy.
In this study, to ensure data representativeness and minimize bias, a stratified random sampling method was employed [22], with randomization applied to gender, age, and family structure. First, fishing households were stratified by gender, age, and family structure, followed by random sampling within each stratum. To balance gender representation, an alternating visit approach was adopted. For age distribution, diverse age groups were covered to enhance demographic variety. Regarding family structure, various household types were included with consideration given to differences in family size. During field visits, randomized routes and timing arrangements ensured equal survey opportunities for fishing households across different time periods and geographical locations.
Through the comprehensive analysis of factors, including the current economic development status, fishing ban boundaries, and rural land use patterns in the Poyang Lake Basin, eight typical fishing ban villages/towns in Nanchang City, Shangrao City, and Jiujiang City were selected as survey areas. These representative villages embody traditional fishing communities impacted by the fishing prohibition, comprehensively reflecting the affected fishermen populations in the Poyang Lake Basin.
A total of 257 questionnaires were distributed across the eight villages/towns (as detailed in Table 1 and Figure 1), with all 257 questionnaires collected, yielding a 100% response rate.

2.3. Variable Definition

2.3.1. Livelihood Capital

After the implementation of the fishing ban policy, fishermen lost access to aquatic resources, facing not only the disintegration of their social networks but also significant livelihood risks [23]. Sustainable livelihoods refer to the ability of individuals, families, or communities to cope with and recover from external stresses and shocks, maintain or enhance their capabilities and assets over the long term, without compromising the natural resource base [24]. In sustainable livelihood theory, livelihood capital serves as a key measure of an individual’s resource endowment, traditionally encompassing five dimensions [25]. This study further introduces psychological capital [26]. The happiness index of fishermen after exiting the fishing industry influences their attitudes toward adapting to their environment and responding to changes [27,28]. Different configurations of livelihood capital reflect varying capacities for risk resilience among individuals [29].
In recent years, research on livelihood strategies of agricultural residents has garnered increasing attention and shown an overall upward trend, highlighting the importance of understanding these dynamics in the context of fishing communities [30]. Adequate livelihood capital not only helps fishermen acquire information more effectively and understand ecological changes but also encourages more proactive decision-making. This study explores how livelihood capital affects fishermen’s ecological cognition across the six dimensions mentioned above (Table 2).

2.3.2. Ecological Cognition

Ecological cognition involves how individuals or groups perceive and understand ecological phenomena and the natural environment [31]. This concept highlights how changes in the natural environment influence perceptions, behaviors, and decision-making. Cognitive levels serve as the foundation of behavior, directly or indirectly affecting an individual’s willingness and choices [32]. Research indicates that factors such as education level [33] and household income [34], components of livelihood capital, significantly impact an individual’s ecological cognition. In turn, ecological cognition shapes and guides ecological conservation behaviors [35]. The theory of planned behavior suggests that individual behavioral intention is influenced by attitude, subjective norms, and perceived behavioral control [36]. This study leverages the theory of planned behavior to analyze ecological cognition both as an outcome and a conditional variable, examining its interactive relationship with livelihood capital and behavioral responses.

2.3.3. Compensation Policy

Ecological compensation, also referred to as ecosystem services payment [37], is a compensation mechanism based on the value of ecosystem services, protection costs, and the opportunity costs of development. Its goal is to foster harmony between humans and nature through fiscal transfers, taxes, fees, and other financial measures [38]. This study categorizes the compensation policy for fishermen into the three dimensions of compensation status, compensation willingness, and compensation satisfaction. Compensation status refers to the actual effects and coverage of the currently implemented compensation policy; compensation willingness reflects an individual’s level of agreement with the policy; and compensation satisfaction represents the subjective evaluation of the policy’s effectiveness. By analyzing these three dimensions, this study treats the compensation policy as a conditional variable and examines its impact on fishermen’s behavioral responses, offering insights for optimizing the formulation and implementation of fishing cessation policies.

2.3.4. Behavioral Response

Behavioral response refers to the actions or reactions of individuals or groups in response to specific situations or stimuli. The behaviors exhibited by fishermen reflect the psychological processing and social exchange of information related to the compensation policy [39]. In the context of the fishing ban and transition policy, behavioral responses encompass an individual’s positive or negative reactions to environmental policies, compensation measures, and ecological changes. The willingness of fishermen to respond directly influences the effectiveness of government policy implementation [25]. This study treats behavioral response as the outcome variable and investigates the factors influencing fishermen’s behavioral responses, providing both a theoretical foundation and practical guidance for optimizing compensation mechanisms.

2.4. Data Processing Method

The fuzzy set qualitative comparative analysis (fsQCA) method, introduced by Ragin [40], is used to analyze the multiple factors influencing the ecological cognition and behavioral responses of fishermen involved in the Poyang Lake fishing ban. This method, particularly effective for research with small sample sizes and a large number of variables, addresses the limitations of traditional quantitative models such as Probit and Logit models that often overlook the interrelationships between factors [16,41]. fsQCA conducts extensive case comparisons to reveal the effects of different combinations of conditions on the outcomes. It identifies logical relationships between the configurations of condition variables and results, determining which combinations lead to the occurrence or absence of outcome variables. This helps in recognizing the “joint effect” of interactions between different conditional elements on specified outcomes while acknowledging causal asymmetry [41].
The advantage of employing fsQCA lies in its ability to analyze the complex interplay of factors influencing fishermen’s ecological cognition and behavioral responses. This method highlights how these factors jointly affect outcomes through various combinations, providing a deeper understanding of the mechanisms at play. fsQCA can identify multiple pathways under different condition combinations [42], offering insights into how fishermen enhance their ecological cognition and adjust their behavioral responses. This approach is valuable for governments and institutions in tailoring policy paths and support measures based on the unique circumstances of different fishermen.
In this paper, fsQCA 4.1 software is used to analyze the condition variables of this study, and multiple solutions of different complexity are output.

3. Results

3.1. Demographic Characteristics of Fishermen in Poyang Lake

According to the survey conducted on the fishermen affected by the fishing ban in Poyang Lake (Table 3), the gender distribution shows a majority of males, accounting for 65.4%. In terms of age, the age groups of 51–60 and over 60 represent significant proportions, at 35.4% and 33.9%, respectively. Regarding family size, most households consist of 4–6 members, making up 56.8% of the total. In the analysis of family labor force, households with 1–2 family members contributing to labor account for 45.5%, while those with 3–5 members contributing slightly exceed half, at 51.4%. Concerning education levels, 40.1% have received primary education, while 30.4% have never attended school.

3.2. Data Calibration

In the fsQCA method, calibration refers to the process of providing cases to assign set affiliation. This study uses the direct calibration method for variable calibration [43]. Referring to previous studies [16], the complete membership, crossover, and complete non-membership points for the condition and outcome variables are set at 95%, 50%, and 5%, respectively. By assigning the index value of the measurement index of the variable in an orderly manner, the comprehensive score of each variable is calculated in the form of the mean value, and the direct calibration method is adopted to use the quantile value of 95%, 50%, and 5% of the comprehensive score (Table 4). In addition, due to the automatic deletion of condition values of 0.5 during fsQCA analysis [44], this study replaced the calibrated condition value of 0.5 with 0.501.

3.3. Analysis of Necessary Conditions

Necessary condition analysis tests the necessity of a single condition in the outcome. When the consistency level exceeds 0.9, the condition can be preliminarily judged as a necessary condition for the outcome [45]. When the consistency level is below 0.9, it can be determined that the condition is not a necessary precondition for the outcome and that further analysis of the preconditions’ configurations is required.
The fsQCA method was used to analyze the “Impact Mechanism of Livelihood Capital on Ecological Cognition” (Table 5) and the “Impact Mechanism of Ecological Cognition and Policy Compensation on Behavioral Response” (Table 6). The consistency levels for all conditions are below the necessary condition standard value of 0.9, indicating the absence of necessary antecedent conditions for ecological cognition and behavioral response. Further analysis of the preconditions’ configurations is needed.

3.4. Configural Analysis of Livelihood Capital on Ecological Cognition

Referring to the research of Zhang Ming et al. [46], this study set the frequency threshold to 2, the consistency threshold to 0.8, and the PRI consistency threshold to 0.7. In the configurational analysis, the solution consistency is 0.89, indicating that 89% of fishermen with high ecological cognition align with the five identified configurational conditions. The coverage is 0.575, suggesting that these five conditions account for 57.5% of the cases exhibiting high ecological cognition. Both the consistency and coverage values exceed the critical threshold, supporting the validity of the analysis results. Configurations with identical core conditions (e.g., 2a and 2b, 3a and 3b) were grouped together, resulting in three distinct combinatory paths (Table 7).
  • Ecological Transformation-Driven Path
Configuration 1 demonstrates that natural capital, financial capital, and psychological capital are core conditions for fostering high ecological cognition, with human capital playing a peripheral role. Fishermen with abundant natural capital exhibit heightened sensitivity to ecological changes, making them more aware of environmental shifts. Financial capital provides economic security, allowing them to explore alternative livelihoods or participate in environmental conservation efforts. Psychological capital enhances their awareness and proactive engagement in ecological transformation. Although human capital is not a core factor in this configuration, its absence does not significantly hinder ecological cognition as the combined effects of other capital forms compensate for it. This suggests that fishermen with strong financial and psychological support, alongside rich natural resources, are more likely to recognize ecological changes and respond by adopting sustainable practices.
2.
Knowledge Adaptation and Support Path
Configurations 2a and 2b indicate that human capital, financial capital, and psychological capital are the primary drivers of high ecological cognition, with physical capital and social capital acting as peripheral conditions. In this pathway, human capital—including education and skill development—plays a crucial role in enabling fishermen to understand and implement ecological protection measures. Financial capital ensures the necessary resources for livelihood transformation and active participation in environmental initiatives. Psychological capital fosters resilience and adaptability, encouraging fishermen to embrace new livelihood strategies in response to ecological and policy changes. Physical capital (e.g., infrastructure and production tools) and social capital (e.g., network relationships) further support ecological cognition by facilitating access to critical information and resources. This pathway suggests that fishermen with strong educational backgrounds, financial security, and psychological resilience are better equipped to adapt to ecological policies through knowledge-driven adjustments.
3.
Comprehensive Collaborative Path
Configurations 3a and 3b highlight physical capital, financial capital, and social capital as core conditions for achieving high ecological cognition, with human capital, natural capital, and psychological capital serving as supplementary factors. In this pathway, physical capital provides essential infrastructure and tools for sustainable practices, while financial capital ensures economic stability during ecological transitions. Social capital facilitates information exchange and resource-sharing through community networks, reinforcing ecological awareness. Psychological capital strengthens fishermen’s positive attitudes and resilience, while human and natural capital further enhance their ability to respond effectively to environmental policies. This configuration underscores the synergy and complementarity of multiple capital forms, indicating that fishermen embedded in strong social networks, with access to financial and physical resources, are more likely to collaborate in ecological initiatives and policy adaptations.
The path of low ecological cognition is mainly influenced by the lack of human, natural, livelihood, and psychological capital. This absence hampers fishermen’s understanding of ecological protection and policy requirements, reduces their sensitivity to ecological changes, and limits their ability to adopt sustainable livelihoods. Additionally, insufficient physical and financial capital further hinders their ecological awareness. Overall, these deficiencies lead to a low awareness of ecological issues among fishermen, making it difficult for them to adapt their livelihoods and respond to policies.

3.5. Configural Analysis of Ecological Cognition and Compensation Policy on Behavioral Response

Through the configuration analysis of ecological cognition and compensation policies on behavioral responses, the solution consistency is 0.921, indicating that 92.1% of fishermen with high ecological cognition align with the four identified configurational conditions. The coverage is 0.579, suggesting that these four conditions account for 57.9% of the cases exhibiting high behavioral responses. Both the solution consistency and coverage exceed the critical threshold, confirming the validity of the analysis results. Configurations with identical core conditions (e.g., 1a and 1b) were grouped together, resulting in three distinct combinatory paths (Table 8).
  • Ecologically Driven Policy Acceptance Path
Configurations 1a and 1b demonstrate that high behavioral responses among displaced fishermen result from the combined influence of ecological cognition and compensation policies. The core conditions—behavioral attitude, perceived behavioral control, and compensation policy status—directly shape fishermen’s willingness to comply. Fishermen with a strong understanding of ecological protection tend to develop positive attitudes toward compensation policies, reinforcing their acceptance. Additionally, perceived behavioral control, or their confidence in adapting to policy changes, further strengthens their engagement. The effectiveness and transparency of compensation policies enhance participation willingness, while compensation satisfaction serves as motivation for active compliance. Compensation willingness, though supplementary, plays a role when fishermen perceive tangible benefits or when their interests are safeguarded. This path underscores that ecological cognition enhances the acceptance of compensation policies, which in turn drives positive behavioral responses. The findings suggest that improving fishermen’s ecological awareness while ensuring fair and transparent compensation policies can significantly increase policy compliance.
2.
Norm-Driven Policy-Cognition Path
Configuration 2 highlights that social norms and policy cognition jointly influence fishermen’s behavioral responses. The core conditions—subjective norms and compensation policy status—demonstrate that external social influences can compensate for weaker ecological cognition or personal compensation willingness. When strong social norms exist, fishermen are more likely to comply with policies due to group expectations, even if they have a weaker personal inclination toward compensation. The fairness and transparency of compensation policies play a crucial role in shaping fishermen’s responses. Policies perceived as just and effective foster greater willingness to participate, even among those with lower ecological awareness. While behavioral attitude and compensation satisfaction contribute to compliance, they play a secondary role in this path. These findings suggest that policy effectiveness and social norms can drive behavioral responses even when ecological cognition is less developed, emphasizing the importance of external influences in policy acceptance.
3.
Resonance Path of Social Support and Self-Efficacy
Configuration 3 reveals that the interaction between social support and individual self-efficacy significantly influences behavioral responses, reinforcing the joint impact of ecological cognition and compensation policies. The core conditions—subjective norms, perceived behavioral control, compensation policy status, and compensation satisfaction—demonstrate that both social and individual factors shape compliance. Fishermen develop a consensus to follow displacement policies under the influence of their community, while their confidence in adapting to post-ban livelihood changes strengthens their commitment. Recognizing compensation policies as reasonable and effective enhances their satisfaction, further motivating compliance. Although compensation willingness is a peripheral condition, it still plays a role in shaping responses. This path highlights that a combination of strong social support, high self-efficacy, and effective compensation policies can enhance fishermen’s acceptance and compliance with ecological protection policies. The findings suggest that boosting fishermen’s confidence in policy adaptation and fostering supportive social environments can enhance policy effectiveness, even when initial ecological cognition is weak.
Additionally, through the analysis of the pathways leading to low behavioral response, we find that low behavioral response primarily stems from two pathways. The first is that the lack of a positive attitude towards ecological protection, transparency in compensation policies, and compensation satisfaction leads to a decreased willingness among fishermen to participate in the policies. The second is that the absence of a positive attitude, confidence in the policies, and trust in the compensation policies further weakens fishermen’s willingness to accept compensation. These pathways indicate that enhancing fishermen’s awareness of ecological protection and their trust in compensation policies is crucial for improving policy responsiveness.

4. Discussion

  • Ecological Restoration Outcomes and Policy Effectiveness Evaluation
The implementation of the “10-year fishing ban” policy in the Yangtze River Basin has achieved remarkable ecological restoration results. Five years into the ban, Poyang Lake has seen significant improvements in fish populations. Comparative analysis of fish body length structures before and after the ban shows effective mitigation of miniaturization phenomena in most assessed fish species, with increased proportions of larger individuals and sexually mature specimens in populations, indicating an optimized population structure [47]. Ecopath model-based evaluation further reveals that the Poyang Lake ecosystem has expanded by 8.07%, with total biomass increasing by 35.7%. Energy and material conversion efficiency has risen from 10.7% to 11.3%, recovering to 1998 levels [19]. These achievements demonstrate the policy’s positive effects in reversing ecosystem degradation.
However, ecological restoration must be balanced with safeguarding fishermen’s livelihoods, particularly in regions like Poyang Lake where economic structures are single-industry oriented and economically vulnerable. The success of the fishing ban depends not only on ecosystem recovery but also on fishermen’s adaptive capacity and policy acceptance. Therefore, policy optimization should integrate ecological protection with socioeconomic development to achieve sustainable ecological governance objectives.
2.
Challenges and Strategies for Livelihood Transition of Fishermen
Amid rapid socioeconomic development, young people in the Poyang Lake region have generally migrated to neighboring provincial capitals in search of opportunities, leaving the local fishing community dominated by middle-aged and elderly men with relatively low education levels. Long-term engagement in physically demanding labor has led to chronic health issues among some fishermen [48], exacerbating livelihood transition challenges post-ban. Notably, 34.6% of affected fishermen are women, historically confined to auxiliary roles such as fish processing and sales [49]. Their marginalization during the policy transition highlights the need for gender-sensitive policy frameworks.
Analysis of the relationship between livelihood capital and ecologic cognition reveals that the abundance of natural, financial, and psychological capital significantly enhances fishermen’s ecological consciousness. Financial capital plays a particularly critical role as when economic pressures are alleviated, fishermen exhibit markedly improved ecologic cognition and policy responsiveness. Psychological capital (including optimism and resilience) also proves vital during ecological transitions [50], while social support bolsters self-efficacy and confidence in future livelihoods [51]. These findings align with studies on farmers in the Hanjiang Plain [52]. Additionally, human capital—primarily through education and skill development—shapes ecologic cognition, though its impact can sometimes be substituted by other forms of capital. For instance, research in the Dongting Lake region found no significant correlation between education levels and ecologic cognition [53]. Material and social capital provide foundational support via infrastructure and community networks, as exemplified by sustainable livelihood strategies in Vietnam’s Hà Giang Province [54].
Fishermen’s responses to ecological policies vary based on their livelihood capital endowments. Studies show that those with abundant natural and financial capital tend to adopt ecologically driven transition approaches, while those with higher human capital and financial stability prefer knowledge-based adaptation. Meanwhile, fishermen reliant on physical, financial, and social capital often enhance ecologic cognition and policy compliance through collaborative efforts. Thus, policymakers should tailor strategies to diverse capital configurations to optimize fishermen’s ecological adaptation pathways.
3.
Ecologic Cognition, Compensation Policies, and Behavioral Responses
Fishermen’s willingness to participate in ecological conservation is shaped by a combination of factors, including ecologic cognition, compensation policies, and social norms [55]. Research indicates that behavioral attitudes, perceived behavioral control, and the status of compensation policies are key determinants of their policy responsiveness. For example, studies on farmers’ behaviors in returning farmland to forests [56] ranked the influence of ecologic cognition as perceived behavioral control (0.354) first, then behavioral attitude (0.342), and then subjective norms (0.252)—this is a finding that aligns with this study’s perspective. Research on the improvement of rural living environments also shows that farmers’ recognition of policies and their skill levels significantly influence their behavioral responses, suggesting that both cognitive and policy-related factors drive farmers’ actions [52]. Subjective norms, as a key element of ecological cognition, significantly affect fishermen’s willingness to transition away from fishing in Poyang Lake [12], especially when compensation incentives are weak. Strong social expectations can compel fishermen to adhere to group norms, even if individual motivations are low [57]. Consequently, increasing the penalties for violating fishing bans has proven effective in ensuring compliance.
To enhance ecological cognition and policy responsiveness, a dual strategy is recommended: strengthening intrinsic motivation through ecological education and ensuring fairness and transparency in compensation policies to reinforce extrinsic incentives. Additionally, efforts should focus on enhancing behavioral attitudes and perceived control when cognitive and policy frameworks are underdeveloped. Strengthening the support and promotion of compensation policies is also essential to boost participation and responsiveness among farmers and fishermen. This comprehensive approach can effectively promote responsive behaviors and foster ecological conservation.
4.
International Comparisons and Optimization Recommendations for Ecological Protection Policies
Global resource conservation policies—such as China’s Yangtze fishing ban, the EU’s Common Fisheries Policy (CFP) [58], and the Amazon logging ban [59]—share a core objective of balancing ecological recovery with economic development. However, their implementation universally faces three major challenges: firstly, the tension between long-term ecological benefits and urgent livelihood needs; secondly, conflicts between rigid policy frameworks and localized flexibility; and thirdly, gaps between technical regulatory capacity and the costs of noncompliance. For instance, China’s Yangtze fishing ban and Brazil’s deforestation ban adopted a “shock therapy” approach to swiftly curb ecological collapse, but insufficient compensation for displaced fishermen/farmers triggered social backlash. In contrast, the EU’s quota system and the U.S. Conservation Reserve Program (CRP) [60] mitigated conflicts through gradual subsidies, yet inequitable distribution has undermined policy fairness [50].
To better balance ecological restoration and fishermen’s livelihoods in the Yangtze Basin, policy optimization should focus on the following dimensions. Firstly, building on findings about livelihood capital disparities, a diversified compensation system should replace one-size-fits-all approaches. This would focus on differentiated compensation mechanisms. Transparent and equitable compensation should reflect fishermen’s actual income losses, prioritizing those in economically vulnerable regions. Secondly, occupational transition support should be provided through tailored vocational training and education programs which should address challenges faced by middle-aged, elderly, and female fishermen. Gender-sensitive frameworks must ensure women’s inclusion in transition plans, moving beyond historical marginalization in auxiliary roles. Thirdly, leveraging the proven link between ecologic cognition and policy responsiveness, governments should strengthen ecological education to foster intrinsic motivation and improve compliance through enhancing ecologic cognition. Fourthly, policy flexibility and community engagement should be used to strengthen community organizations, integrate traditional fishing culture into conservation efforts, and allow regulated harvesting of non-endangered fish in specific zones/times to support small-scale fishermen. Finally, they should embrace technological oversight and transparency by adopting blockchain technology to enhance regulatory transparency, curb rent-seeking, and optimize management using satellite data. These tools will improve policy fairness and efficacy.
Through these integrated measures, policymakers can better reconcile ecological recovery with livelihood security, advance sustainable development in the Yangtze Basin, and contribute Chinese insights to global river basin governance.

5. Conclusions

This study focuses on fishermen who have ceased fishing in the Poyang Lake Basin, constructing an analytical framework of “livelihood capital–ecological cognition–behavioral response” and employing the fuzzy-set qualitative comparative analysis (fsQCA) method to systematically explore the formation pathways of fishermen’s ecological cognition and its impact on behavioral responses under the Yangtze River fishing ban policy. The main conclusions are as follows:
  • The multidimensional configuration of livelihood capital significantly influences ecological cognition. The heterogeneous configuration of fishermen’s livelihood capital shapes their ecological cognition through the “ecological transition-driven pathway”, the “knowledge adaptation support pathway”, and the “comprehensive synergy pathway”. The study confirms that financial capital and psychological capital are the core conditions for enhancing ecological cognition, while the substitution effect of human capital and the complementarity of physical capital provide theoretical support for differentiated policy design.
  • The interaction between ecological cognition and compensation policies drives behavioral responses. Fishermen’s behavioral responses to the fishing ban policy are influenced by both ecological cognition and compensation policies, specifically through the “ecological-driven policy recognition pathway”, the “norm-driven policy cognition pathway”, and the “social support–self-efficacy resonance pathway”. The study reveals that the fairness and transparency of compensation policies are key moderating variables for behavioral responses, while the mobilization capacity of social networks provides non-economic incentives for policy implementation.
This study has certain limitations that need to be addressed in future research. First, the research focuses on the Poyang Lake Basin, which, although representative, differs significantly from other sections of the Yangtze River Basin in terms of socioeconomic conditions and ecological characteristics. The generalizability of the findings requires further validation through cross-regional comparative analysis. Second, due to time and funding constraints, the sample size is relatively small (N = 257), which may affect the robustness of statistical results. Future research can improve validity by expanding the sample size and incorporating more heterogeneous groups (e.g., different ages, genders, and livelihood models). Additionally, while the fsQCA method effectively identifies causal patterns in condition combinations, it involves subjectivity in variable calibration and condition selection and struggles to capture linear relationships between variables. Future studies could integrate structural equation modeling (SEM) or mixed methods to deepen the analysis of underlying mechanisms.
By revealing the nonlinear mechanisms of livelihood capital, ecological cognition, and policy responses, this study overcomes the limitations of traditional linear analysis and provides theoretical support and practical pathways for the coordinated governance of ecological protection and livelihood security in the Yangtze River Basin. Furthermore, it contributes a more universally applicable “Chinese solution” to global large river basin ecological governance.

Author Contributions

Conceptualization, J.Z. and Z.H.; methodology, J.Z., J.Y., and X.H.; software, J.Z., J.Y., and X.H.; validation, J.Y., X.H., J.T., R.Y., F.L., and L.W.; formal analysis, J.Y., X.H., J.T., R.Y., and F.L.; investigation, X.H., J.T., and L.W.; resources, J.Y., X.H., J.T., R.Y., F.L., and L.W.; data curation, J.Y., X.H., and J.T.; writing—original draft preparation, J.Z. and J.Y.; writing—review and editing, J.Z., J.Y., and X.H.; visualization, J.Y.; supervision, J.Z. and Z.H.; project administration, J.Z. and Z.H.; funding acquisition, J.Z. All authors have read and agreed to the published version of the manuscript.

Funding

This research was funded by the social science fund project of Jiangxi Province, grant number 22JL17D (Research on the ecological cognition, behavioral response, and compensation path of fishermen in Poyang Lake area under the background of fishing ban and withdrawal), the humanities and social sciences projects in universities of Jiangxi Province, grant number 24Y1767, and the scientific research startup fund of East China University of Technology, grant number DHBK2019064.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

The data presented in this study are available on request from the corresponding author.

Conflicts of Interest

The authors declare no conflicts of interest.

Abbreviations

The following abbreviations are used in this manuscript:
fsQCAThe Fuzzy Set Qualitative Comparative Analysis
CFPCommon Fisheries Policy
CRPConservation Reserve Program
SEMStructural Equation Modeling

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Figure 1. Distribution diagram of research area for retired fishermen in Poyang Lake.
Figure 1. Distribution diagram of research area for retired fishermen in Poyang Lake.
Sustainability 17 02539 g001
Table 1. Questionnaire distribution statistics.
Table 1. Questionnaire distribution statistics.
CityCounty/DistrictTownshipNumber of Questionnaires
ShangraoYugan CountyRuihong Town34
Kangshan Township17
Poyang CountyBaishazhou Township54
Zhuhu Township8
JiujiangLushan CityNankang Town52
NanchangNanchang CountyJiangxiang Town29
Xinjian DistrictNanji Township20
Changyi Township43
Table 2. Livelihood capital evaluation indicators.
Table 2. Livelihood capital evaluation indicators.
Capital TypeIndicator NameIndicator Values
Human CapitalOccupationNo job (1), Farming (2), Casual labor (3), Self-employed (4), Fixed/Public Service (5)
Proportion of Family LaborBelow 20% (1), 21–40% (2), 41–60% (3), 61–80% (4), 81–100% (5)
Health StatusOften sick (1), Rarely sick (2), Occasionally sick (3), Never sick (4)
Vocational Training StatusNever participated (1), Rarely (2), Average (3), Quite often (4), Very often (5)
Physical CapitalHousing TypeTraditional house (1), Self-built house (2), Resettlement house (3), Commercial house (4)
Housing ValueBelow 100,000 yuan (1), 100,000–200,000 yuan (2), 200,000–300,000 yuan (3), 300,000–400,000 yuan (4), Above 400,000 yuan (5)
Transportation ToolsNone (1), Fishing boat (2), Electric bike (3), Car (4)
Transportation Value0 yuan (1), Below 10,000 yuan (2), 10,000–50,000 yuan (3), 50,000–100,000 yuan (4), Above 100,000 yuan (5)
Natural CapitalInfrastructure StatusVery few (1), Few (2), Average (3), Quite a lot (4), Very many (5)
Ecological EnvironmentVery poor (1), Poor (2), Average (3), Good (4), Very good (5)
Financial CapitalSocial InsuranceYes (1), No (2)
Government AssistanceYes (1), No (2)
Social CapitalFamily Has Village LeaderYes (1), No (2)
Contact with Relatives/FriendsVery rarely (1), Rarely (2), Occasionally (3), Quite often (4), Very often (5)
Contact with Village/Community LeadersVery rarely (1), Rarely (2), Occasionally (3), Quite often (4), Very often (5)
Psychological CapitalSatisfaction with Current Living SituationVery dissatisfied (1), Somewhat dissatisfied (2), Generally satisfied (3), Quite satisfied (4), Very satisfied (5)
Anxiety Over Job Loss (Transition)Yes (1), No (2)
Table 3. Population demographics of Poyang Lake fishermen.
Table 3. Population demographics of Poyang Lake fishermen.
Demographic VariableCategoryFrequencyPercentage (%)
GenderMale16865.4
Female8934.6
AgeUnder 3020.8
31–40218.2
41–505621.8
51–609135.4
Over 608733.9
Family Size1–33011.7
4–614656.8
7–95621.8
10 or more259.7
Family Labor Force051.9
1–211745.5
3–513251.4
6 or more31.2
Education LevelNever attended school7830.4
Primary school10340.1
Junior high school4617.9
High school176.6
College or higher135.1
Table 4. Variable calibration results.
Table 4. Variable calibration results.
VariableFuzzy Set Calibration
Full MembershipIntersection PointFull Non-Membership
Human Capital43.252.5
Physical Capital32.251.25
Natural Capital432
Financial Capital21.51
Social Capital3.3332.3331.666
Psychological Capital421
Behavioral Attitude3.521.5
Subjective Norm3.66731.6
Perceived Behavioral Control3.4672.8882
Compensation Policy Status42.6661.333
Compensation Willingness3.3332.3331.333
Compensation Satisfaction2.3331.6661.333
Ecological Cognition3.3572.7142.05
Behavioral Response3.752.51.75
Table 5. Analysis of necessary conditions for the antecedents of ecological cognition.
Table 5. Analysis of necessary conditions for the antecedents of ecological cognition.
Antecedent ConditionHigh Ecological CognitionLow Ecological Cognition
ConsistencyCoverage RateConsistencyCoverage Rate
Human Capital0.6610.7230.5520.577
Non-Human Capital0.6130.5890.7340.674
Physical Capital0.7810.7090.6470.561
Non-Physical Capital0.5170.6050.6650.743
Natural Capital0.7230.7220.5780.552
Non-Natural Capital0.5520.5780.7090.709
Financial Capital0.8270.6800.6480.508
Non-Financial Capital0.4010.5440.5910.766
Social Capital0.6980.7310.5620.561
Non-Social Capital0.5810.5810.7300.698
Psychological Capital0.6230.8160.4240.530
Non-Psychological Capital0.6410.5380.8530.684
Table 6. Analysis of necessary conditions for the antecedents of behavioral response.
Table 6. Analysis of necessary conditions for the antecedents of behavioral response.
Antecedent ConditionHigh Behavioral ResponseLow Behavioral Response
ConsistencyCoverage RateConsistencyCoverage Rate
Behavioral Attitude0.719 0.772 0.532 0.520
Non-Behavioral Attitude0.554 0.565 0.767 0.713
Subjective Norm0.678 0.734 0.602 0.593
Non-Subjective Norm0.624 0.633 0.730 0.673
Perceived Behavioral Control0.732 0.788 0.546 0.534
Non-Perceived Behavioral Control0.567 0.579 0.783 0.727
Policy Status0.739 0.811 0.528 0.527
Non-Policy Status0.568 0.570 0.810 0.739
Compensation Willingness0.661 0.672 0.667 0.617
Non-Compensation Willingness0.624 0.673 0.646 0.634
Policy Satisfaction0.798 0.724 0.685 0.565
Non-Policy Satisfaction0.521 0.645 0.665 0.749
Table 7. Configural paths of livelihood capital leading to high and low ecological cognition.
Table 7. Configural paths of livelihood capital leading to high and low ecological cognition.
Condition VariablesHigh Ecological Cognition ConfigurationsLow Ecological Cognition Configurations
12a2b3a3b1a1b
Human Capital
Physical Capital
Natural Capital
Financial Capital
Social Capital
Psychological Capital
Raw Coverage0.347 0.381 0.346 0.419 0.336 0.339 0.405
Unique Coverage0.032 0.032 0.012 0.015 0.048 0.032 0.097
Consistency0.933 0.940 0.925 0.930 0.907 0.931 0.905
Solution Consistency0.890 0.897
Solution Coverage0.575 0.437
Note: = core condition exists, = core condition is missing, = peripheral condition exist, = peripheral condition is missing, and a blank space indicates that the condition may or may not exist.
Table 8. Configural paths of ecological cognition and compensation policy leading to high and low behavioral response.
Table 8. Configural paths of ecological cognition and compensation policy leading to high and low behavioral response.
VariableConditionHigh Behavioral Response ConfigurationsLow Behavioral Response Configurations
1a1b231a1b2a2b
Ecological CognitionBehavioral Attitude
Subjective Norm
Perceived Behavioral Control
Compensation PolicyPolicy Status
Compensation Willingness
Compensation Satisfaction
Raw Coverage0.4920.3240.3080.3480.3940.4070.3410.374
Unique Coverage0.1110.0240.0150.0480.0410.0060.0140.008
Consistency0.9350.9480.9490.9300.9230.9210.9130.919
Solution Consistency0.9210.896
Solution Coverage0.5790.539
Note: = core condition exists, = core condition is missing, = peripheral condition exist, = peripheral condition is missing, and the blank space indicates that the condition may or may not exist.
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Zhai, J.; Yao, J.; Hu, X.; Tian, J.; Yang, R.; Lv, F.; Huang, Z.; Wang, L. Integrating Ecological Cognition and Compensation Strategies for Livelihood Transitions: Insights from the Poyang Lake Fishing Ban Policy. Sustainability 2025, 17, 2539. https://doi.org/10.3390/su17062539

AMA Style

Zhai J, Yao J, Hu X, Tian J, Yang R, Lv F, Huang Z, Wang L. Integrating Ecological Cognition and Compensation Strategies for Livelihood Transitions: Insights from the Poyang Lake Fishing Ban Policy. Sustainability. 2025; 17(6):2539. https://doi.org/10.3390/su17062539

Chicago/Turabian Style

Zhai, Jiancheng, Jie Yao, Xueqin Hu, Jun Tian, Ruijie Yang, Feiyan Lv, Zhiqiang Huang, and Liaobo Wang. 2025. "Integrating Ecological Cognition and Compensation Strategies for Livelihood Transitions: Insights from the Poyang Lake Fishing Ban Policy" Sustainability 17, no. 6: 2539. https://doi.org/10.3390/su17062539

APA Style

Zhai, J., Yao, J., Hu, X., Tian, J., Yang, R., Lv, F., Huang, Z., & Wang, L. (2025). Integrating Ecological Cognition and Compensation Strategies for Livelihood Transitions: Insights from the Poyang Lake Fishing Ban Policy. Sustainability, 17(6), 2539. https://doi.org/10.3390/su17062539

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