Conceptualizing Niche–Regime Dynamics of Energy Transitions from a Political Economic Perspective: Insights from Community-Led Urban Solar in Seoul
Abstract
:1. Introduction
2. A Theoretical Understanding of the Political Economic Perspective on Energy Transitions
2.1. Understanding Niche–Regime Dynamics in Socio-Technical Energy Transitions
2.2. The Political Economic Perspective on the Niche–Regime Dynamics
2.3. Towards an Integrated Framework
- (1)
- Global trends, political and economic ideologies, and public preferences: Manifested at the landscape level, political economy of socio-technical transitions can be approached in the domains of “interests”, “institutions”, and “ideas” [33]. This study departs from and contextualizes these domains into global trends, political and economic ideologies, and public preferences. The worldview on climate change (global trends, [18]), the Green Growth Vision in South Korea (political and economic ideologies, [18]), and low tariffs, clean air, energy sources, and community energy (public preferences, [34,35]) are some examples;
- (2)
- Political power structure, policy traditions, andgovernance approaches: Referencing the “horizontal understanding of power” and highlighting the dynamics of actors’ engagement with resources, structures, and systems through reinforcive, innovative, and transformative power [36,37], political power structure, policy traditions, and governance approaches are proposed in this study to understand such dynamics. Political power structure refers to, e.g., the relatively democratic nature of state power, political and industrial networks (in particular, the nature and intensity of government–industry linkages) [38,39,40], social networks between governments and civil society [12], and the role of political media (e.g., [29]); policy traditions include the “developmental state” in east Asia [41]; governance approaches refer to, e.g., authoritarian policy-making in China, technocratic policy-making in France [42,43], and participatory approaches in the UK [44], and key governance issues include public trust [12];
- (3)
- Physical availability of energy resources, national capacities for technological innovation, and national (energy) infrastructure development: These elements constitute the core building blocks of socio-technical systems transitions [45]. Energy self-reliant rates and power grid networks are some instances [39,46,47];
- (4)
- (5)
- Visioning and leadership, and national energy plans and policy frameworks: Visioning relates to visions of how energy transitions might unfold over time under the political processes, and the role that specific technologies could play in the process [49]; leadership refers to the ability of political and community leaders to articulate a vision and inspire people to act in order to achieve concrete results [50]; energy policy frameworks relate to clear policy objectives, policy frameworks, and specific policies such as RE feed-in tariff (REFIT) policies to guide technological searches [26,51]. Grounded by the theoretical articulation in “transitions management”, the long-term perspective of transitions is embedded in “goals” and “visions” defined in the processes of visioning, leadership, national energy plans, and policy frameworks [52].
3. Methodology
4. Case Contexts: Energy Challenges and Policy Responses in South Korea and Seoul
5. Findings and Discussions: Understanding Seoul’s Solar Niche Innovation from the Political Economic Perspective
5.1. Solar Has Been Supported as a Viable Energy Option in Both the National and Seoul Post-Fukushima Energy Strategies
- (1)
- Solar ranked top among all RE sources in Korea’s energy mix. In 2017, solar contributed 5.83 GW of Korea’s 15.7 GW RE capacity (Figure 3a) and 7056 GWh of electricity (1.3% of national electricity production).
- (2)
- Solar power in Korea has experienced a marked increase in recent years because of falling solar system costs and government policy support. The national solar installed capacity recorded a 70 fold increase from 81 MW in 2007 to 5.8 GW in 2017, with annual growth rates of over 40% in 2012–2015 before slowing to a growth rate of around 25–30% in 2016 and 2017 (Figure 3b).
- (3)
- Seoul’s solar deployment shows a roughly similar pattern to the national picture. Solar installed capacity increased from 6.7 MW in 2005 to 65 MW in 2016, with the highest annual growth of nearly 50% in 2013 (Figure 3c). Solar panels were, however, installed by less than 1% of the city’s 3.6 million households in 2017 [76], providing just 0.23% of Seoul’s electricity needs in 2017 despite Seoul’s ambitious solar target of 1 GW by 2022 (Table 2).
- (4)
- Solar energy is considered the most promising RE source mainly due to its suitability across the country [59]. South Korea is generally exposed to relatively high solar radiation, especially in the southern part of the Korea Peninsula. Seoul has a significant solar resource, with a monthly average daily solar radiation of 4.65 kWh/m2 compared to the national average of 4.01 kWh/m2 [59]. Approximately 30% of the 187 million m2 rooftops at a five-degree tilt in Seoul are also found suitable for solar deployment [77].
5.2. Seoul’s Model of Niche Innovation: Government-Empowered Community-Led Solar Developments
5.3. An Evaluation of the Niche Formation Process of Urban Solar in Seoul: Solar Niches Are Emerging, but the Magnitude of Energy Socio-Technical Regime Shift Has Been Limited
“At first, only a few stores in the local market installed solar panels. However, as that number grew to 20 and 30, we had a power of scale. Then, those stall owners who didn’t have solar panels installed feared of being isolated. They thought they might lose something by not being part of this new local social trend. In a sense, we made them feel like outsiders. So, without having to do any further persuasion, more and more merchants decided to install solar panels…I think about 50% of merchants have installed solar panels right now, and I hope the number will further increase”.(Interviewee 10)
- Fossil fuel/nuclear “lock-in” prevails in Seoul’s electricity sector. Solar is still a minor energy source in Seoul, representing merely 0.23% of Seoul’s electricity consumption in 2017. Solar households represented a tiny segment of Seoul. As of June 2017, 34,000 households were equipped with solar panels, equivalent to less than 1% of 3.6 million households [76].
- There is limited co-evolution of regulatory structures. KEPCO, the state-owned monopolistic utility that owns 92% of the nation’s total electricity generation capacity, has remained as a key regime actor for centralized fossil fuels and nuclear generation (Interviewees 4, 7b, 15, [28]).
- There is limited co-evolution of user practices. Although some residents in Seoul were attracted by the financial benefits of solar PV and its low up-front cost (as low as 70,000 KRW (approximately 63 USD) as of January 2019), they might be unwilling to pay for the replacement costs of inverters (170,000 KRW (approximately 152 USD)). Some householders in Sungdaegol have already idled or resold their solar systems in the second-hand markets to avoid paying the replacement costs though the systems were used for only several years. Despite the fact that the official figure of such cases is not available to the authors, at least some early solar adopters had an evidently low level of awareness of the need for system maintenance and low attachment to their solar systems (Interviewee 7b).
5.4. The Conducive Conditions for Niche Formation: From a Political Economic Perspective
5.4.1. Public Preferences for RE Introduced a Major Change in the Landscape
5.4.2. The Alignment of the National Green Growth Strategy and the Development Plans of Hi-Tech RE Clusters
5.4.3. Political Openness Enables a Bottom-Up Citizen-Centric Approach to Urban Solar in Seoul
5.4.4. Vertical and Horizontal Networks
5.5. The Inhibitive Conditions for Niche Formation: From a Political Economic Perspective
5.5.1. The “Developmental State” as the Dominant Economic Ideology Has Reinforced a Technological Lock-In Towards Nuclear
5.5.2. Incomplete Electricity Market Reforms and Regulatory Incompetence
“When this kind of change takes place with more companies and in more places, KEPCO will have no choice but to respond.”(Interviewee 7b, a community leader of the Sungdaegol solar community)
5.5.3. Swinging between Excessive Government Intervention and Inadequate State Action in Governing Solar Niche Developments
- (1)
- The policy target of the OLNPPP has focused on increasing decentralized solar installed capacity rather than centralized solar electricity generation in order to promote niche development through a citizen-centric and community-led approach [58];
- (2)
- Fewer policy priorities have been given by the Seoul government on grid enhancement to take up more RE from mini-PVs (Interviewee 7b). Under the partial electricity market reforms in South Korea, the national government provided insufficient incentives for the utilities to enhance grid capacity, nor did the Seoul government have the authority to provide such incentives; and
- (3)
- Seoul-type REFIT could only be offered to limited sizable solar PV projects instead of covering mini-PV projects under the existing grid infrastructure.
5.6. Understanding the Niche–Regime Dynamics across National, City, and Community Levels
6. Conclusions and Policy Implications
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
Appendix A. List of Interviewees.
Codes of Interviewees | Interviewees Background | Dates of Interviews | Duration of Interviews (Approximately) |
1. | An associate research fellow of the Korea Energy Economics Institute | 22 November 2017 | 1 h 30 min |
2. and 3. | A senior researcher and a senior manager of the Economy and Management Research Institute, KEPCO | 23 November 2017 | 1 h (group interview) |
4. | An assistant professor of the Department of Urban Administration, University of Seoul | 23 November 2017 | 2 h |
5. | A chairman of resident representatives of a residential property in Dongjak-gu, Seoul | 24 November 2017 | 30 min |
6. | An administration manager of a residential property in Dongjak-gu, Seoul | 24 November 2017 | 30 min |
7a. | Sungdaegol community representative A in Dongjak-gu, Seoul | 25 November 2017 | 2 h |
7b. | Same interview as 7a | 9 July 2018 | 2 h 30 min |
8. | Sungdaegol community representative B in Dongjak-gu, Seoul | 9 July 2018 | 1 h (group interview) |
9. | Sungdaegol community representative C in Dongjak-gu, Seoul | ||
10. | Sungdaegol merchants’ federation representative; community representative D in Dongjak-gu, Seoul | ||
11. | A director of a credit union in Dongjak-gu, Seoul | 9 July 2018 | 30 min |
12. | Chairman and President of a credit union in Dongjak-gu, Seoul | 9 July 2018 | 45 min |
13. | Representative of a solar company in Seoul | 9 July 2018 | 45 min |
14. | An assistant professor of the Corporate Course for Climate Change, Sejong University; Academic member A of the Implementation Committee, One Less Nuclear Power Plant | 10 July 2018 | 1 h 45 min |
15. | A professor of the Graduate School of Environmental Studies, Seoul National University; Academic member B of the Implementation Committee, One Less Nuclear Power Plant | 10 July 2018 | 1 h 15 min |
16. | A director of the Korea Federation for Environmental Movements | 10 July 2018 | 1 h 15 min |
17. | A researcher of the Institute of Green Transition, South Korea; Also a member of the Presidential Committee on Green Growth | 11 July 2018 | 40 min |
18. | A government official of the Green Energy Division, Seoul Metropolitan Government | 12 December 2019 | 1 h |
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Indicators | South Korea | Seoul | |
---|---|---|---|
Population | 51,422,507 | 10,124,579 (19.7%) | |
GDP (current price; billion Won) | 1,553,948 | 339,796 (21.9%) | |
Final energy consumption (1000 toe) | Coal Petroleum LNG and Towngas Electricity Heat energy Renewables Total | 33,360 (14.3%) 117,861 (50.4%) 24,053 (10.3%) 43,666 (18.7%) 2441 (1.0%) 12,520 (5.4%) 233,901 | 83 (0.6%) 6185 (41.3%) 4205 (28.1%) 3982 (26.6%) 261 (1.7%) 275 (1.8%) 14,990 |
Electricity consumption (GWh) | 507,746 | 46,298 (9.1%) | |
Electricity production (GWh) | 568,174 | 954 (0.17%) | |
Electricity generation mix (GWh) | Coal Petroleum LNG Nuclear Hydro Solar Wind Ocean Bio Waste New energy | 238,799 (42.0%) 8663 (1.5%) 122,773 (21.6%) 148,427 (26.1%) 6995 (1.2%) 7056 (1.3%) 2169 (0.4%) 489 (0.1%) 7467 (1.3%) 23,867 (4.2%) 1469 (0.3%) | N/A 12 347 N/A 1.2 106 0.2 N/A 43 118 327 |
Monthly average daily solar radiation (kWh/m2) | 4.01 (Relatively high) | 4.65 (Relatively high) |
Year | Energy Plan/Policy | Relevance to Renewable Energy | References |
---|---|---|---|
South Korea | |||
2012 | National RE policy reform |
| [67,68] |
2014 | Fourth Basic Plan for Technology Development, Application, and Deployment of New and Renewable Energy (2014–2035) |
| [69] |
2015 | National Seventh Basic Plan for Long-Term Electricity Supply and Demand (2015–2029) | Generation Mix Outlook:
| [70] |
2017 | National Public Deliberation on Shin-Gori Nuclear Reactors No. 5 and 6 |
| [71] |
2017 | National Eighth Basic Plan for Long-Term Electricity Supply and Demand (2017–2031) |
| [66] |
2017 | Renewable Energy 3020 Plan |
| [72] |
2018 | Greenhouse gas (GHG) reduction plan (revised) |
| [73] |
2018 | National feed-in tariff |
| [74] |
Seoul | |||
Since 2011 | One Less Nuclear Power Plant Policy (OLNPPP) Phase 1 (2011–2014) Phase 2 (2014–present) |
| [75] |
2017 | 2022 Solarcity Plan |
| [2] |
Factors Affecting Niche–Regime Dynamics | Administrative Levels | Conducive Conditions | Inhibitive Conditions | Outcomes |
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1. Global trends, political and economic ideologies, and public preferences | National |
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City |
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Community (since the Fukushima accident) |
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2. Political power structure, policy traditions, and governance approaches | National |
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City |
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Community |
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3. Physical availability of energy resources, national technological innovation systems, and national (energy) infrastructure development | National |
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City |
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Community |
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4. Electricity market reforms and market features | National |
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City |
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Community |
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5. Visioning and leadership, and policy framework | National |
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City |
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Community |
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Share and Cite
Mah, D.N.-y.; Cheung, D.M.-w. Conceptualizing Niche–Regime Dynamics of Energy Transitions from a Political Economic Perspective: Insights from Community-Led Urban Solar in Seoul. Sustainability 2020, 12, 4818. https://doi.org/10.3390/su12124818
Mah DN-y, Cheung DM-w. Conceptualizing Niche–Regime Dynamics of Energy Transitions from a Political Economic Perspective: Insights from Community-Led Urban Solar in Seoul. Sustainability. 2020; 12(12):4818. https://doi.org/10.3390/su12124818
Chicago/Turabian StyleMah, Daphne Ngar-yin, and Darren Man-wai Cheung. 2020. "Conceptualizing Niche–Regime Dynamics of Energy Transitions from a Political Economic Perspective: Insights from Community-Led Urban Solar in Seoul" Sustainability 12, no. 12: 4818. https://doi.org/10.3390/su12124818
APA StyleMah, D. N.-y., & Cheung, D. M.-w. (2020). Conceptualizing Niche–Regime Dynamics of Energy Transitions from a Political Economic Perspective: Insights from Community-Led Urban Solar in Seoul. Sustainability, 12(12), 4818. https://doi.org/10.3390/su12124818