A Systematic Roadmap for Energy Transition: Bridging Governance and Community Engagement in Ecuador
Abstract
:Highlights
- Explores Ecuador’s energy shift through a three-phase governance roadmap.
- Emphasizes bottom–up governance via the policy–politics–polity triad.
- Fossil fuel reliance and subsidies create deep-rooted transition barriers.
- Proposes a scalable, transformative model for centralized systems in the Global South.
- This study develops a three-phase framework to analyze Ecuador’s energy transition, integrating policy, polity, and politics as key governance dimensions.
- As a developing country dependent on fossil fuels and subsidizing them for over five decades, Ecuador faces structural challenges in shifting from a centralized energy system to a hybrid and eventually bottom–up governance model.
- Recognizing the interplay between policy, polity, and politics provides a structured approach to designing adaptive governance strategies for energy transitions in fossil fuel-dependent economies.
- The proposed framework offers a scalable model that can inform broader governance transitions beyond the energy sector, particularly in developing countries with long-standing energy subsidies.
Abstract
1. Introduction
2. Theoretical Framework
2.1. Bottom–Up Governance (BuG) Based on the Policy–Politics–Polity Triad
2.2. Understanding of BuG in Relation to Energy Consumption Behavior (ECB)
2.3. Facilitating Energy Consumption Behavior Change Through Governance Approaches
2.4. Hybrid Governance in Energy Consumption and Decision Making in a Developing Country
- First, the current energy system must be evaluated and optimized for greater efficiency [9]. In certain instances, significant restructuring may be required to achieve this [47]. Debates around decentralizing the electricity system and the hydrocarbon value chain are essential for advancing distributed generation and bottom–up governance [48]. This could include unbundling and privatizing state-owned utilities, establishing independent regulatory bodies, and revising tariffs to encourage efficiency and renewable energy adoption [49,50]. Promoting efficient residential energy use is also key. Existing policies and programs should be reviewed to address gaps and better reflect household needs [34,51,52].
- Simultaneously, efforts must strengthen the capacity of local authorities, community organizations, and civil society to play an active role in energy governance [47]. This includes training programs, resource access, knowledge-sharing platforms, and mechanisms that support meaningful participation in policy design and implementation [10].
- Policies and regulations must support community-based energy initiatives and decentralized solutions [7,39]. Supporting cooperatives, efficiency programs, and renewable energy projects fosters participation and local ownership [43,53]. These initiatives enable households and communities to manage their energy needs and develop innovative, context-specific solutions [54]. Key measures include financial incentives and tariffs to attract investment, along with funding, technical support, and regulatory sandboxes to foster experimentation [7,43,55]. Additionally, streamlining administrative processes and reducing regulatory barriers are essential for facilitating the adoption of distributed energy technologies [49].
- Public engagement campaigns should encourage active community involvement in the energy transition [46,47,56]. Educational initiatives, public forums, and digital platforms can support dialogue, experience sharing, and feedback on energy issues [2,40,57]. Demonstration projects can further help households understand the benefits of sustainable energy practices and make informed decisions [2,11].
- Investment in research and data collection is vital for understanding the socio-cultural, economic, and behavioral factors that influence household energy choices. Targeted studies, pilot projects, and participatory efforts can identify key drivers and inform tailored strategies promoting sustainable behaviors [2,25]. These findings should guide the design of policies suited to the specific needs of diverse communities.
3. Methodology: Mixed Top–Down and Bottom–Up Governance
4. Results: A Systemic Approach to Ecuador’s Energy Transition
4.1. Trends, Gaps, and Rationale in Research
4.2. Current Energy Landscape and Governance Model for Ecuador
4.3. Multi-Stakeholder Insights on Ecuador’s Energy Transition
4.4. A Gradual Transition: A Three-Phase Roadmap for Ecuador’s Energy System Transition
4.4.1. Phase 1: Hybrid Transition (Short-Term)
4.4.2. Phase 2: Decentralization (Mid-Term)
4.4.3. Phase 3: Full Bottom–Up Model (Long-Term)
5. Discussion
5.1. Comparison of Energy Transition Phases and Their Implications for Ecuador
5.2. Key Barriers and Challenges in Ecuador’s Energy Transition Phases
5.3. Signs of Hybrid Energy Governance in Chile and Colombia
6. Conclusions
Author Contributions
Funding
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Authors | Context | Area | Stakeholder | ||||
---|---|---|---|---|---|---|---|
Government Actors | Private Sector | Community | Academia | Financial | |||
Villamarín-Jácome et al. [61] | Renewable energy and storage for low-carbon emissions in hydro-dominated systems | Energy | X | ||||
Borja & Davidsen [62] | Clientelism in Amazon oil benefit sharing | Environmental Science, Social Sciences | X | X | X | ||
Lang [63] | Decolonizing energy transition | Environmental Science, Social Sciences | X | X | X | ||
Moya et al. [64] | Long-term sustainable energy transition in Ecuador’s residential sector | Energy, Environmental Science, Engineering | X | X | X | ||
Buenaño et al. [65] | CO2 emissions in Ecuador’s service sectors | Economics, Econometrics, and Finance | X | X | X | ||
Pulla-Galindo et al. [66] | Energy sector and public lighting | Engineering | X | X | X | X | X |
Barragán-Escandón et al. [67] | Barriers to renewable energy expansion in Ecuador | Energy | X | X | X | X | |
Mendieta-Vicuña & Esparcia [68] | Hydropower and sustainable development | Environmental Science, Social Sciences | X | X | X | X | X |
Pulla-Galindo et al. [69] | Public lighting energy sector in Ecuador | Energy, Environmental Science | X | X | X | X | |
Ariza-Montobbio & Herrero-Olarte [70] | Socio-metabolic profiles of electricity consumption in Ecuador | Environmental Science, Social Sciences | X | X | X | X | X |
Mendieta-Vicuña & Esparcia [71] | Wind energy policy in Loja | Social Sciences | X | X | X | X | |
Gould et al. [72] | Household fuel mixes in Ecuador | Energy, Environmental Science | X | X | X | X | |
Teräväinen [73] | Water and technology conflicts in Coca Codo Sinclair | Environmental Science, Social Sciences | X | X | X | X | |
Fontaine et al. [74] | Policy mixes against oil dependence | Energy, Social Sciences | X | X | |||
Valverde-Landivar & Leon-Veas [75] | Smart Grid intelligence in Ecuador | Energy, Engineering | X | X | X | X | |
Noboa et al. [76] | Collaborative energy planning under illiberal democracy | Energy, Social Sciences | X | X | X | X |
Phase 1: Hybrid Transition | Phase 2: Decentralization | Phase 3: Bottom–Up Model | Implications for Ecuador | |
---|---|---|---|---|
Policy | Mixed policy framework with centralized governance and local strategies [7]. | Legislative reforms granting greater autonomy to local entities [8,48]. | Supportive legislation for decentralized management with local innovation [7,20]. | Regulatory updates are required to facilitate progressive decentralization. |
Politics (Dynamics) | Gradual implementation of pilot projects and collaborative platforms [58]. | Design of local programs with diversified financing [3,37]. | Participatory management with a regionalized focus and long-term sustainability [6]. | A flexible model is necessary to allow progressive evolution towards local autonomy. |
Polity (Structure) | Limited integration of local actors with centralized supervision [79]. | Increased community involvement in energy decision making [81]. | Community leadership in designing and implementing energy solutions [39,89]. | Strengthening education and capacity-building for local actors is essential. |
Financing | Mixed investments with limited subsidies and state financing [58]. | Gradual elimination of fossil fuel subsidies, incentives for renewables [82]. | Decentralized mechanisms such as energy cooperatives and community funds [37]. | Redirecting subsidies to renewable energy is crucial to accelerating the transition. |
Infrastructure | Centralized control over critical infrastructure is maintained [78]. | Implementation of microgrids and distributed generation with technological support [87]. | Local infrastructure independence with smart grids and energy storage [88]. | Investing in decentralized management technologies is key. |
Regulations | Strict state supervision with centralized regulations [79]. | Adaptive regulation with incentives for clean energy [2]. | Flexible regulatory frameworks emphasizing community control [3]. | Designing regulatory frameworks that balance control and autonomy is needed. |
Impact on Consumers | Passive participation with limited benefits in renewable energy [80]. | Increasing role as prosumers with access to decentralized technologies [53]. | Total autonomy in community energy generation and management [90]. | An educational and awareness process is required to facilitate the transition. |
Skills | Basic training initiatives to support pilot projects [58]. | Strengthening local technical and managerial skills for energy governance [3]. | Continuous education programs for communities to lead energy projects [39]. | Investment in education and skill development is necessary for long-term sustainability. |
Citizen Participation | Initial awareness campaigns to foster engagement [8]. | Collaborative decision-making mechanisms involving local actors [48]. | Full empowerment of communities in energy governance [6]. | Policies should actively promote citizen involvement in the energy transition. |
Innovation and Technology | Introduction of smart energy solutions with limited deployment [87]. | Expansion of smart grids and digital energy management tools [88]. | Full integration of advanced digital platforms for decentralized control [37]. | Enhancing innovative ecosystems is key to achieving energy sovereignty. |
Environmental Impact | Initial efforts to reduce emissions with renewable pilot projects [2]. | Larger-scale adoption of clean energy sources to reduce fossil fuel dependency [81]. | Near-zero carbon footprint with full reliance on renewables [90]. | Environmental policies should align with global sustainability commitments. |
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Araujo-Vizuete, G.; Robalino-López, A. A Systematic Roadmap for Energy Transition: Bridging Governance and Community Engagement in Ecuador. Smart Cities 2025, 8, 80. https://doi.org/10.3390/smartcities8030080
Araujo-Vizuete G, Robalino-López A. A Systematic Roadmap for Energy Transition: Bridging Governance and Community Engagement in Ecuador. Smart Cities. 2025; 8(3):80. https://doi.org/10.3390/smartcities8030080
Chicago/Turabian StyleAraujo-Vizuete, Gabriela, and Andrés Robalino-López. 2025. "A Systematic Roadmap for Energy Transition: Bridging Governance and Community Engagement in Ecuador" Smart Cities 8, no. 3: 80. https://doi.org/10.3390/smartcities8030080
APA StyleAraujo-Vizuete, G., & Robalino-López, A. (2025). A Systematic Roadmap for Energy Transition: Bridging Governance and Community Engagement in Ecuador. Smart Cities, 8(3), 80. https://doi.org/10.3390/smartcities8030080