Renewable energy transitions have increasingly been recognised not only as technological and environmental imperatives but also as drivers of community resilience, socio-economic innovation, and energy security. In the Nordic region, ambitious renewable energy policies and high shares of renewables in energy consumption reflect a shared commitment to sustainability that encompasses social participation, democratic engagement, and community-level agency (Nordic Energy Research, 2023). The Nordic energy tradition, where energy systems are deeply intertwined with the social and economic fabric of society, resonates with themes from the region’s oldest cultural narratives.
Norse myth repeatedly ties elemental forces to human life and transformation. In the Poetic Edda, the prophecy of Ragnarök depicts fire as both destructive and transformative: “Hot you are, and rather too fierce… the fire scorches the fur” (Grímnismál, stanza 57; Bellows, 1936). Beyond mere destruction, the myth narrates the rebirth of the world, where a new earth rises green from the waves and life begins anew (Völuspá, stanzas 59–62). This cycle of destruction and renewal provides a compelling metaphor for contemporary energy transitions: they are not only technical shifts but societal transformations that reshape communities, economies, and regional identities (Norsetraditionschurch.org, 2024).
The Norse concept of the Three Norns – Urðr, Verðandi, and Skuld – who weave the threads of past, present, and future can inspire the context of energy planning, they serve as a symbolic reminder that decision-making must consider historical legacies (Urðr), current conditions and needs (Verðandi), and future consequences (Skuld). This framing underscores that sustainable energy transitions are not only about technological deployment but about long-term societal foresight, learning from experience, and anticipating intergenerational impacts.
Within this broader Nordic and mythological context, Iceland’s renewable energy experience exemplifies how energy-based enterprises can act as agents of both environmental sustainability and inclusive socio-economic development, reflecting the kind of long-term, multi-stakeholder foresight highlighted by Mukhopadhyay and Ianole (2018). The organisational strategies and governance mechanisms observed in Icelandic initiatives reflect wider regional patterns of collaborative planning, community-centred engagement, and long-term resilience building. Together, the insights are central to understanding how energy systems can function as mechanisms of sustainable transformation and shared prosperity.
Linking Myth to Practice: Iceland’s Energy Enterprises
Iceland’s renewable energy sector exemplifies the ‘destruction > transformation > renewal’ paradigm. From the early, state-led hydropower and high-temperature geothermal projects to today’s community-integrated industrial strategic enterprises, energy has served as a tool for economic revitalisation, social equity, and environmental stewardship. The foresight suggested by the Three Norms is evident in multi-generational planning, which considers historical reliance on fossil fuels (Urðr), present community and industry needs (Verðandi), and future sustainability and climate obligations (Skuld). Iceland’s energy-based enterprises demonstrate that technological innovation must go hand-in-hand with social licence, governance structures, and community integration to achieve long-term success.
Case 1 – Baseload Power Iceland: Decentralised Geothermal for Local Development
Baseload Power Iceland focuses on small- to mid-scale geothermal plants designed to tap underutilised low and medium-temperature resources. Unlike large-scale national utilities, Baseload develops modular and flexible plants situated close to local demand centers. A prominent example is the Kópsvatn geothermal plant, which generates both electricity and heat for surrounding communities. The enterprise’s community-integrated approach ensures partnerships with municipalities, landowners, and local utilities, creating strong stakeholder alignment and minimising opposition.
Socio-economic impacts are wide-ranging: the project generates local employment across drilling, construction, and ongoing maintenance; it provides affordable energy access for households, farms, and small businesses, reducing heating and electricity costs; and it supports productive energy use in sectors such as greenhouses, aquaculture, and fish-drying facilities, securing local food security and small business resilience.
By reducing reliance on fossil fuels, the initiative also strengthens household economics and insulates communities from global energy price shocks. Baseload’s model strongly contributes to SDG 7 (Affordable and Clean Energy), SDG 8 (Decent Work and Economic Growth), and SDG 11 (Sustainable Cities and Communities) by embedding energy provision within social, economic, and ecological frameworks. The community governance structures enhance local agency, demonstrating how small-scale renewable initiatives can empower residents, encourage participatory decision-making, and stimulate multi-sectoral growth. Baseload thus offers a replicable blueprint for integrating energy entrepreneurship with social and environmental objectives in other geothermally active regions (Baseload Power Iceland, 2024).
Case 2 – Fjarðarorka: Wind-to-Green Ammonia for Regional Industrial Transformation
Fjarðarorka is spearheading one of Iceland’s largest renewable industrial initiatives, combining a 350 MW onshore wind farm in Fljótsdalshreppur with a green ammonia production facility projected to produce 220,000 tonnes annually. The ammonia targets maritime decarbonisation while positioning East Iceland as a hub in the global green fuel economy. The project carries significant regional development implications: East Iceland has historically faced economic marginalisation and population decline, and the Fjarðarorka initiative offers a pathway toward reversing these trends. The project supports high-skill employment in construction, operations, logistics, and chemical processing; drives infrastructure improvements, including roads, grid capacity, and data systems, which have spillover benefits across other sectors; and stimulates diversification in local industry.
The Orkugarður Austurland platform, which engages landowners, municipalities, and businesses in planning and benefit-sharing, exemplifies community-centered governance and anticipatory planning. Environmental and social sustainability are central: the project is expected to avoid approximately 500,000 tons of CO₂ emissions annually, supporting Iceland’s climate commitments. These outcomes align with SDG 9 (Industry, Innovation, and Infrastructure) and SDG 13 (Climate Action), illustrating how large-scale, export-oriented renewable energy projects can simultaneously drive regional equity, stimulate regional economy boost, and maintain environmental sustainability (Fjarðarorka, 2024; Daily Northern, 2024).
Case 3 – Geothermal District Heating System: Public Infrastructure and Socio-Economic Equity
Iceland’s geothermal district heating system provides energy to over 90% of households, representing one of the world’s most advanced examples of public energy infrastructure. Its socio-economic benefits are long-term and multi-dimensional. The system provides affordable energy access, dramatically reducing household heating costs and enhancing quality of life. Macroeconomic resilience is also strengthened, with estimated contributions of 7% of GDP through fuel import savings and support for energy-intensive sectors such as greenhouses, tourism, aquaculture, and fish processing (Atlantic Council, 2022).
Social equity is embedded, as coverage spans income levels and geographies, while public ownership and regulatory oversight ensure that clean energy benefits are widely shared. These outcomes contribute directly to SDG 7 (Affordable and Clean Energy), SDG 10 (Reduced Inequalities), and SDG 11 (Sustainable Cities and Communities). The system exemplifies anticipatory planning consistent with the foresight symbolised by the Three Norns: past experience (Urðr) informs present operation (Verðandi), while future sustainability (Skuld) is safeguarded through careful governance and long-term investment. Iceland’s geothermal district heating demonstrates how public infrastructure can simultaneously promote community wellbeing, industrial competitiveness, and sustainable energy transition.
Table 1: Organisational Approach, Community Impact, and SDG Relevance of Icelandic Energy-Based Enterprises
| Enterprise / Project | Organisational Approach & Strategy | Key Community & Socio-Economic Impacts | Relevant SDGs |
| Baseload Power Iceland | Modular, decentralised, community-integrated; partnerships with municipalities and cooperatives | Local job creation; affordable energy; support for productive uses (greenhouses, aquaculture); regional economic diversification | 7, 8, 11 |
| Fjarðarorka Wind-to-Ammonia | Large-scale, export-oriented; multi-stakeholder governance; industrial transformation focus | High-skilled employment; regional infrastructure; stakeholder participation; regional economic revitalisation | 7, 8, 9, 13 |
| National Geothermal District Heating | Publicly owned; long-term planning; robust governance; operational efficiency | Affordable universal energy; industrial co-benefits; macroeconomic savings; social equity; population retention | 7, 8, 11 |
Takeaways… Cross-cutting Policy and Business Insights
The Icelandic experience demonstrates that decentralised and community-integrated energy systems, such as those pioneered by Baseload Power Iceland, can empower local economies by providing reliable, affordable, and clean energy backed by strong social license to operate. Embedding projects within community priorities and governance structures enhances resilience, encourages local stakeholder engagement, and aligns long-term economic development with sustainability objectives. For policymakers, this underscores the importance of regulatory frameworks that not only enable smaller-scale projects but also incentivise partnerships between public authorities, private enterprises, and local communities. For business leaders, the lesson is clear: energy investments are more sustainable and viable when they are socially embedded, responsive to community needs, and designed to generate local value alongside financial returns.
Large-scale, export-oriented renewable projects, exemplified by Fjarðarorka’s wind-to-green-ammonia initiative, highlight the strategic potential of renewables to drive regional industrial transformation. By stimulating diversification in historically mono-industrial areas and generating high-skilled employment, such projects can reverse patterns of outmigration and economic stagnation. Their success, however, depends on transparent stakeholder engagement, governance mechanisms that ensure equitable benefit sharing, and careful environmental stewardship. For business leaders, these projects illustrate that commercial competitiveness increasingly requires balancing economic ambition with social and environmental accountability. Policymakers, in turn, are reminded of the need for frameworks that integrate industrial, energy, and regional policy, enabling innovation without compromising equity or environmental protection.
The geothermal district heating network further reinforces the critical role of sustained public investment in achieving equitable, inclusive, and resilient energy systems. By providing near-universal access to low-cost heat, the system has stabilised household expenditures, supported energy-intensive industries, and reduced dependence on imported fossil fuels. The macroeconomic benefits are substantial, but equally important are the social gains, including improved energy security and reduced exposure to energy poverty in rural and urban communities alike. For businesses, reliable, low-cost energy inputs facilitate operational planning, encourage competitiveness, and encourage innovation. For policymakers, the Icelandic experience signals the value of maintaining public oversight or strong regulatory safeguards for critical infrastructure, ensuring that energy transitions advance both economic and social objectives.
A cross-cutting lesson across all examples is the imperative of multi-stakeholder governance. The Icelandic model shows that energy transitions are as much socio-political undertakings as technical or economic ones, requiring inclusive institutional arrangements that integrate energy planning with land use, regional development, and community priorities. Platforms that bring together communities, governments, investors, and academia not only enhance legitimacy but also improve project outcomes by anticipating and mitigating potential conflicts. For both business leaders and policymakers, the emphasis is on designing systems where commercial ambition, social license, and sustainable development objectives are mutually reinforcing rather than in tension.
Conclusion
Iceland’s energy-based enterprises exemplify how clean energy can be a lever for both economic and social development, balancing technological innovation with community empowerment and sustainability. From small-scale, community-embedded geothermal projects to large industrial wind-to-ammonia initiatives and long-standing public heating systems, the country demonstrates that energy transitions are not only technical but deeply social and economic endeavours.
By linking these practical examples to Nordic mythic narratives, the analysis highlights the importance of foresight, resilience, and intergenerational thinking in energy planning. The cycle of Ragnarök ‘destruction > transformation > renewal’ together with the guidance of the Three Norms, emphasizes how past experience, present action, and future consequences must be integrated to achieve socially, economically, and environmentally resilient energy strategies. Iceland’s approach thus offers a practical blueprint for designing energy systems that are technically sound, socially inclusive, and economically transformative, with lessons extending well beyond the Nordic context.
Feature Image: Francesca Ungaro
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