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Energy & Economics
At Singapore 2023 075

A Post-Humanist Perspective of Singapore's Ecomodernist Leadership

by Sasha Maher , Rhiannon Lloyd , Lydia Martin

Abstract Green growth has become doxa in the political economic governance of climate change. This is despite the lack of empirical evidence of its success and concerns that it reifies a business-as-usual dynamic. The question arises: why have practices of ‘green leadership’ maintained a hegemonic hold on how nation states respond to climate change? This provocation examines this question through an analysis of Singapore's policy ambition to become Asia's climate services leader. It draws on post-humanism to suggest that the form of ecomodernist leadership exhibited by Singapore not only perpetuates the status quo but (re)affirms the problematic anthropocentrism underpinning their approach. We demonstrate this through analysis of recent policy, media and private sector documents. Finally, we argue that a focus on Singapore matters because of its influence in the region and networked position globally. Introduction Singapore has emerged as a leader of green growth since gaining independence from Malaysia in 1965. Governed by the People's Action Party (PAP) since 1959, the city-state has pursued a developmental strategy focused on economic growth and wealth accumulation, despite its lack of natural resources. This strategy encompassed value-added manufacturing, high-tech research and financial services, propelling Singapore from a modest per capita GDP in 1965 of USD $516 to a substantial figure of USD $82,807 in 2022 (World Bank, 2022). However, this rapid development brought with it cumulative environmental challenges, including high Green House Gas (GHG) emissions, air pollution, ecosystem degradation and biodiversity loss (Goh, 2001). In response, Singapore reframed these issues as economic opportunities, effectively folding an ecomodernist or green growth approach into its development agenda (Dent, 2018; Hamilton-Hart 2006, 2022). This shift was significantly influenced by Lee Kuan Yew, Singapore's first Prime Minister, whose vision of a ‘Garden City’ involved a massive, ongoing tree-planting initiative. This initiative was not just an ecological project but a strategic move to attract foreign investment by showcasing Singapore as a modern, liveable city, thereby aligning nature conservation with economic development (Schneider-Mayerson, 2017). Building on Prime Minister Lee Kuan Yew's leadership, Singapore has continued to adopt ecomodernist policies, promoting concepts such as sustainability as essential for maintaining its competitive edge in the global arena. The state's stance on climate change illustrates this approach: initially seen as a threat and often couched as an enemy in official discourse, climate change has been transformed into an opportunity for growth. This perspective is epitomised in the annual three-day Ecosperity conference, an elite gathering emphasising the synergy between ecological sustainability and economic prosperity. However, this green growth approach has faced criticism for prioritising human needs over ecological integrity (Dent, 2018; Schneider-Mayerson, 2017; Wong, 2012), suggesting that Singapore's model of ‘green’ leadership may not be sufficient for addressing the root causes of climate change and other environmental challenges. We are similarly concerned at Singapore's leadership stance towards climate change. The latest rendition of this is its ambition to become Asia's climate finance ‘leader’ and a hub of carbon trading. Not only does Singapore's green growth approach narrowly cast complex environmental issues as technical problems requiring technical solutions but it renders nature as an object to be used for human development. This anthropocentrism negates non-human agency, instrumentalises nature and limits the radical change necessary as others have noted (Böhm and Sullivan, 2021; Ergene, Banerjee and Hoffman, 2021; Nyberg and Wright, 2023). In the following provocation, we draw on post-humanist critique of anthropocentrism to give a brief overview of green growth (Braidotti, 2013, 2019; Calás and Smircich, 2023). Second, we outline Singapore's emissions profile and latest policy response. We then surface three themes which are indicative of how Singapore's green leadership frames nature as non-agentic and subservient to humans. These themes are: ‘nature as risk producer’, ‘nature as instrument’ and ‘nature's demise as opportunity’. Anthropocentrism and Green Growth The discourse on greening capitalism emerged in the mid-2000s as initiatives by the United Nations Environmental Program, OECD and World Bank. At the Rio + 20 Conference these three organisations released publications promoting green growth with titles that evoked mutual compatibility such as Inclusive Green Growth: The Pathway to Sustainable Development and Toward a Green Economy: Pathways to Sustainable Development and Poverty Eradication. Subsequently, the United Nations Framework Convention on Climate Change enshrined green growth in the 2015 Paris Agreement in Article 10, paragraph 5, ‘Accelerating, encouraging and enabling innovation is critical for an effective, long-term global response to climate change and promoting economic growth’ (United Nations UNFCCC, 2015: 27). Since then, the prevalence of green growth ideas has accelerated and diffused globally, taken up by states supranational organisations and non-states actors. It has remained a key policy theme at influential climate governance fora. For example, at the recent Green Swan 2023 conference, keynote Sir Nicolas Stern confidently declared that ‘there's no conflict between action on climate change and economic growth. Actually, it's the opposite. Action on climate change will drive economic growth’. Omitted from Sterns's assertion is recognition of the ‘coupling’ effect whereby economic growth has also led to the exploitation of non-humans and a concomitant climate crisis. Green growth approaches view nature as the means to create economic development as measured by GDP. The key assumption is that ‘the environment’ and humans as consumers or workers (see Mildenberger 2020) will both equally benefit through this process of instrumentalisation. The method to achieve the ‘decoupling’ of emissions (or ecological destruction) from GDP is via the application of technologies, investment, markets and innovation. Implementation of these methods will ostensibly redirect capital and production towards the efficient use of resources without disrupting consumption patterns and minimising ‘harm’ to nature. Nature in this framing is characterised as both threatening to humans (‘risk producer’) and simultaneously vulnerable (‘object at risk’). In either case, human beings are presupposed as the agents who will restore the orderliness of life; an orderliness where humans are the dominating species (Ruuska, Heikkurinen and Wilen, 2020) and the state of vulnerability is erased (Schwartz, 2019). At its core green growth is founded on the notion of efficiency gains, but as others (Hickel, 2021; Hickel and Kallis, 2019; Jackson, 2021) have noted, empirically there is no evidence that relative or absolute decoupling will arrest and restore the planet nor reduce carbon emissions permanently to levels that could keep global warming below 1.5 degrees. Efficiency has limitations and at some point, input is required to continue to grow which makes ongoing decoupling in the long-term unsustainable. This calls for an urgent rethinking of policy and the opening up of alternative possibilities such as degrowth or post-growth (Jackson, 2021). However, shifting the paradigm away from wealth accumulation and material prosperity would alter production and consumption patterns. As Hickel and Kallis (2019) remark, this type of transformation would not be politically expedient: ‘The assumption is that it is not politically acceptable to question economic growth and that no nation would voluntary limit growth in the name of the climate or environment; therefore, green growth must be true, since the alternative is disaster’ (2019: 484). Green growth may not only be implausible but it also dangerously reifies dualistic thought-structures that universalises and positions humankind as the privileged, superior species, a tendency which has underpinned the exploitative and extractive relationship between humans and nature that has driven climate change. It also ferments a ‘politics of resignation’ in which citizens tacitly accept harmful externalities (Benson and Kirsch, 2010). In line with post-humanist thought, we perceive nature through a relational lens. From this perspective, ‘nature’ is not a separate entity that exists apart from and below ‘culture’ (e.g., humans, organisations and nation states). Rather nature is understood to be a dynamic, open-ended and interactive ‘living system’ that encompasses all forms of life and matter (Braidotti, 2016). This relational framing of nature is positive in that it attributes agency and vitality to all life and not exclusively to humans and their doings (Braidotti, 2013). In short, more-than-human natures such as the ‘natural environment or ‘atmosphere’ are not tractable or deadened backgrounds for human action but are creative forces that shape life, including our own. In taking this ontological position, post-humanism surfaces and critiques anthropocentric assumptions evident in culture and society (Braidotti, 2013), providing a unique standpoint from which to deconstruct and challenge green growth. Singapore the Green City-StateEmissions Profile Singapore's GHG emissions for 2021 totalled 53 MtCO2e (National Climate Change Secretariat, 2021). In 2000, emissions were 38 MtCO2e and continues to increase over time. These emissions cover direct or primary emissions (Scope 1, 2): energy (39.2%), industry (44.4%), transport (14.2%), building (0.9%), households (0.4%), waste and water (0.6%) and others (0.2%). Secondary or indirect emissions (Scope 3) created within the energy sector from Liquid Natural Gas (LNG) at 94% are mostly in industry (16.6%), buildings (12.6%), household (6.6%) and transport (2.2%). Industry emissions amount to over 60% of Singapore's total emissions of which 75% are from the combustion of fossil fuels by the refining and petrochemicals sector (Tan, 2019). Singapore ranks 27th out of 142 countries in terms of emissions per capita but excluded from official statistics are the emissions from bunkering/marine fuels sales which was 148 MtCO2e in 2020 (The International Council of Clean Transportation, 2022). The rationale for the exclusion is that the UNFCC does not require GHG inventories to include emissions from shipping nor aviation. In 2021 Singapore set a new National Determined Commitment target of limiting GHG emissions in 2030 to 60 MtCO2e from 65 MtCO2e. It also brought forward its emission peak year to sometime ‘before 2030’ and confirmed its target to reach net zero emissions ‘as soon as viable in the second half of the century’ (National Climate Change Secretariat, 2022). Singapore's main mitigation actions were outlined in its long-term low-emission development strategy. These comprise three areas: (a) to transform industry, economy and society; (b) to draw on carbon capture, utilisation and storage and low-carbon fuels; and (c) international collaboration to build carbon markets, carbon storage and regional electricity grids. A key policy lever is Singapore's progressive carbon tax rate which covers 43% of emissions according to Climate Action Tracker (2022). The rate was increased from $5 SGD/tCO2e in 2019 to $25/tCO2e in 2024 and will reach $50–80/tCO2e by 2030. Carbon tax-liable companies are permitted to use carbon credits to offset up to 5% of emissions. However, these credits can only be obtained via the Singapore government's International Carbon Credit Framework under Article 6.2 of the Paris Agreement and not the voluntary carbon market. The tax works on multiple fronts: it drives demand to create a carbon market, derisks companies to increase investor confidence and incentivises decarbonisation efforts in Singapore and in credit producing host countries. Singapore's other mitigation efforts consist of energy efficiency and resource optimisation across industry, households, buildings, waste management and public transport. Green Finance Leader Singapore is positioning itself as Asia's hub for carbon trading. The government outlines this in its most recent master plan for addressing climate change: Singapore Green Plan 2030 (SGP). Launched in 2020, SGP 2030 aims to centre the city-state as a regional ‘leader’ in climate action and sustainable development, aligning with global commitments such as the UN's 2030 Agenda and the Paris Agreement. The plan represents a collective effort across five key ministries, guided by the Inter-Ministerial Committee on Climate Change. It focuses on five pillars: City in Nature, Sustainable Living, Energy Reset, Green Economy and Resilient Future, striving for efficient resource use, low-carbon energy adoption and innovation-driven change. Key initiatives include enhancing green spaces, promoting water conservation, expanding clean public transport and mandating clean energy vehicles by 2030. The Green Economy pillar of the SGP is particularly significant, framing environmental challenges as opportunities for economic growth. This involves incentivising carbon capture technologies and establishing Singapore as a carbon services and trading hub through the Green Finance Action Plan 2022 (Monetary Authority of Singapore, 2022). The plan aims to create a robust green financial ecosystem, making Singapore a global centre for green finance. This includes developing markets for sustainable economic solutions, such as green bonds and insurance products. A study commissioned by the government in 2021 highlighted Singapore's potential to become a carbon trading hub, estimating its value between USD 1.8 billion to USD 5.6 billion by 2050 (Carvalho et al., 2021). As part of its green leadership plan Singapore is also entering into strategic partnerships under Article 6.2 with ‘carbon-rich’, developing countries. It has signed agreements with Vietnam, Bhutan, Paraguay, Papua New Guinea, Fiji, Rwanda, Costa Rica, Ghana, Senegal, Dominican Republic, Colombia, Chile, Cambodia, Indonesia, Kenya, Mongolia, Morocco, Peru and Sri Lanka. It also recently signed a Green Economy Agreement with Australia with the aim to generate demand and facilitate the trading of Australian carbon credits. The aim of these Article 6.2 agreements is to facilitate the trading of Internationally Transferrable Mitigation Outcomes or carbon credits which are generated from the reduction of emissions in one country (e.g., PNG) which is then bought by a second country (e.g., Singapore, New Zealand). However, Singapore's interest extends to the role these partnerships play in helping to establish a trading market in Singapore. In its agreements, Singapore asserts that ‘when completed carbon tax liable companies in Singapore will be able to purchase carbon credits from eligible projects to offset up to 5% of their taxable emission’ (National Climate Change Secretariat, 2023). Article 6.2 partnerships not only help reduce costs for Singapore companies but bring to market a portfolio of credit sellers for trading on Singapore's new trading platform, Climate Impact X. Ecomodernist Themes of Nature A post-humanist perspective on Singapore's ambition to transform into a climate leader surfaces three ecomodernist or green growth themes. These themes are: ‘nature as risk producer’, ‘nature as instrument’ and ‘nature's demise as opportunity’. Across these themes, it is implied that humans take priority and should utilise nature to achieve economic growth. A conventional approach would ignore this dualism and support the instrumentalisation of nature without awareness nor concern that this thought-structure plays a key part in producing climate change. In official organisational documents and speeches regarding Singapore's ambitions to create a global carbon trading hub, Singapore is presented as a model city and a vanguard in terms of environmental actions. Reference is also frequently made to the ‘founding father’, and visionary environmental leader, Prime Minister Lee Kuan Yew. Nature as Risk Producer Politicians, officials and industry often, if not always, portray climate change as the result of nature being ‘out of place’ and consequently hostile towards the vulnerable nation-state (Douglas, 1966; Ruuska et al., 2020). For example, below is an extract from the SGP which sets up the catastrophic framing, and two quotes from Prime Minister Lee Hsien Loong followed by Grace Fu Minister for Sustainability and the Environment at the COP28: Climate change is an existential threat of our times. It has brought rising sea levels and extreme weather patterns…Singapore, as a low-lying island state, is particularly vulnerable. Our weather is getting warmer, rainstorms heavier, and dry spells more pronounced (Singapore Government). Singapore [is] a low-lying, alternative-energy disadvantaged island-state. We therefore appreciate the inherent challenges in climate transitions. However, we believe that new technologies, new financing models and new markets offer us hope (Ministry of Foreign Affairs Singapore, 2023). Singapore is a small city-state, lacking in renewable energy. We are a low-lying island that is acutely vulnerable to the threat of rising sea levels. We are an urbanised city near the equator, susceptible to rising temperatures (Ministry of Sustainability and the Environment Singapore, 2023). The narrative that nature is a risk producer is a form of spatial anthropocentrism in which Earth and beyond are considered the rightful and exclusive spaces for humans (Ruuska et al., 2020). If nature was tame and in its proper docile place, then humans would not be at risk. The reasonable response to this logic is to put nature back in its place by constructing hard engineering solutions, such as sea walls and defending infrastructure that deliver services to humans (e.g., water, electricity, transport, telecommunication), alongside the use of soft solutions to absorb the costs of rebuilding, for example, via flood insurance. Nature as Green Growth Tool The case of Singapore demonstrates that the objectification of nature is a prerequisite to instrumentalisation. Our second theme – nature as a green growth tool – is evident in Singapore's continuation of its long-standing Garden City strategy: nature to be altered to ensure the material prosperity of the populace and thus maintain PAP's political legitimacy (Barnard and Heng, 2014; Hamilton-Hart, 2006, 2022; Schneider-Mayerson, 2017). For example, in the SGP, former Prime Minister Lee Kuan Yew is quoted as follows: Over 100 years ago, this was a mudflat, swamp. Today, this is a modern city. Ten years from now, this will be a metropolis. Never fear (Singapore Government). The SGP then follows this quote from Prime Minister Lee by stating that,…Having advanced from mudflats, to metropolis, we will turn our metropolis into a global city of sustainability (Singapore Government). Today, Singapore is a City in a Garden, and is one of the greenest cities in the world. We set aside large nature reserves, with about a third of our island covered by trees. We knew public cleanliness and hygiene were important to prevent diseases in our hot and humid urban environment and took tough measures to enforce them (Singapore Government). There is a direct link made between using nature as a tool and nation building. As a consequence of this argument, any opposition to Singapore's ‘global’ ambitions could be viewed as a threat to the state, unpatriotic and regressive. The use of nature as instrument for green growth is most stark under the Green Economy pillar. Nature's Demise as Opportunity The third theme evident in Singapore's attempts to position itself as a ‘green leader’ also concerns the instrumentalisation of nature but takes it a step further, with nature's destruction as a result of anthropogenic climate change being presented as a means to stimulate economic development. In the SGP, four of the pillars focus on efficiency and optimising production and consumption of natural resources. However, the Green Economy pillar not only seeks to capitalise on nature but intends to prosper from its demise. The discourse on the climate crisis is rewoven as a narrative about ‘seizing’ opportunities from the climate crisis and the ensuring there is pressure on states and corporates to act. Similar to disaster capitalism, the impacts of climate change are a new business venture for Singapore to advance its developmentalist approach. Below are instances of this discourse: As the world transits to a low-carbon future, there are many exciting new opportunities in the green economy. For instance, the increasing demand for green financing and carbon services will create good jobs and new opportunities for our enterprises (Ministry of Trade and Industry Singapore, 2022). Singapore's Green Plan aims to harness sustainability as ‘a new engine of growth’ …Under the plan, the Singaporean government will lead and drive all economic actors to make the transition toward more sustainable economic models, including establishing the country as a hub for green finance, carbon trading and sustainability consultancy (Wangkiat, 2021). We must seek out new areas of cooperation. This will allow us to deepen collaboration while also strengthening our relevance as a global business hub. Sustainability is one area where there are interesting opportunities for growth and strong potential for international collaboration. Green financing, carbon services, and trading are some examples of the new industries that we can look forward to in the green economy (Ministry of Trade and Industry Singapore, 2023). Singapore is unequivocal in highlighting the competitive advantage that the climate crisis holds for the state. This intensification of the instrumentalism of its Garden City strategy serves not only to commodify but also to financialise climate change. As Ergene, Banerjee and Hoffman (2021: 1320) remark, ‘The Anthropocene is not a story of unintended consequences but is a direct result of a political economy that privileges wealth accumulation at the expense of environmental destruction’. The growth imperative inherent in capitalism relies on the appropriation of nature's ‘resources’ at a low-cost despite ecological consequences. Capitalism seeks to exploit ‘cheap’ resources, including land, labour and energy. This pursuit of cheap inputs is founded on the ontological separation between humans and nature, and the devaluing of nature and some humans compared to others. Capitalism unleashes ‘a “metabolic rift” in the relationship between humans and the earth, resulting in an environmental crisis that now threatens the very basis of life on the planet’ (Wright et al., 2018: p. 459; see also Foster, 2012; Nyberg et al., 2022). Conclusion The three themes explored above underscore how Singapore continues to conceptualise nature as ‘other’. The current understanding of ‘green leader’ and what is legitimate and required in order to be considered ‘green’ maintains a primarily economically centred political agenda. This ‘ecomodernist leadership’ regime is preoccupied by quantitative measures of a known and knowable nature. In short, being ‘green’ requires the improvement of these numbers in directions agreed as beneficial to both the economic and environmental systems they reflect and relate to. Such instrumentalism provides one means towards green futures, but we would argue that this dangerously reifies the dualistic exploitative relations that underpin climate change (e.g., Moore, 2016). Green growth and other notions of ‘greening’ (e.g., Green Economy, Green Finance) do not alter the problematic of anthropocentrism but rather propagate and support a Promethean logic (Dryzek, 2022). So, although Singapore's portion of global emissions is small at 0.1%, we would suggest that Singapore's contribution to climate change extends beyond this number due to its green leadership stance and practices. 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Energy & Economics
Amsterdam, The Netherlands - Thursday, August 27, 2020 - Photo of early edition book, Adam Smith The Wealth of Nations

The Relationship Between Energy and Capital: Insights from The Wealth of Nations

by Simon Mair

Abstract To deliver low-carbon transitions, we must understand the dynamics of capital. To this end, I develop a theory of energy-capital relations by reading Adam Smith’s The Wealth of Nations from an energy-analysis perspective. I argue that, for Smith, capital is any resource used to support production with the intention of generating profits through market exchange. In The Wealth of Nations, capital enables access to new sources of energy and increases energy efficiency. This theory of energy-capital relations explains trends seen in historical energy data: because it is profit driven, capital does not save energy, it redirects it to new uses. This suggests that low-carbon investment can only enable a low-carbon transition if coupled to a systematic challenge to the profit drive.JEL Classification: B12, O44, P18, Q43, Q57Keywordseconomic growth, low-carbon transitions, Adam Smith, history of economic thought, capital, energy, capitalism 1. Introduction: Energy, Capital and Low-Carbon Transitions Under Capitalism To date, the green rhetoric of states and companies has not led to meaningful reductions in carbon emissions. In absolute terms, annual global carbon emissions from fossil fuels increased from ~6 gigatons of carbon per year in 1990 to ~10 gigatons of carbon per year in 2022 (Friedlingstein et al. 2023). Carbon emissions are largely driven by the energy system that supports the capitalist economy, and there is no evidence that this is decarbonizing at the global scale. In 2020, fossil fuels accounted for around 80 percent of total world energy supply, the same figure as in 1990 (IEA 2022). In 2022 carbon emissions from fossil fuels accounted for around 90 percent of total global carbon emissions, up from 80 percent in 1990 (Friedlingstein et al. 2023). Carbon emissions from energy and industrial processes hit an all-time high in 2023 (IEA 2024). To change this increasingly dire picture, it is essential that we understand the economic drivers of emissions, and what economic changes are needed to reverse current trends. There is disagreement over the extent and nature of economic change needed to facilitate a low-carbon energy transition. Radical economists agree that the global reliance on fossil fuels will require going beyond market-based solutions (Li 2011; Pianta and Lucchese 2020; Pollin 2019). But this still leaves us with a broad spectrum of options (Chester 2014). Can a low-carbon transition be implemented within a broadly capitalist framework if it is guided by an interventionist industrial strategy (Pollin 2015)? Or does it require changes to fundamental capitalist dynamics (Davis 2019; Riley 2023)? To cast new light on these debates, I take a step back from the immediate issues and take a history of economic thought approach. To this end, I explore the relationship between capital and energy in Adam Smith’s (1975) The Wealth of Nations. I use the resulting view of energy-capital relations to put forward an explanation of how energy use has developed under capitalism, and to explain why a low-carbon transition is unlikely without addressing core capitalist dynamics. The decision to develop the analysis of energy-capital relations from The Wealth of Nations is grounded in the more general epistemological claim that returning to older works of economic theory is a useful way to conduct economic analysis. Blaug (1990) reminds us that all current economic theory is built from seldom read historical texts, and historians of economic thought have argued that revisiting these texts offers the opportunity to uncover new ways of interpreting key ideas, providing theoretical context that may have been forgotten (Bögenhold 2021; Schumpeter 1954). Additionally, actively engaging with historical thought presents the possibility for moments of creativity as old and new ideas are brought together. For example, Mair, Druckman, and Jackson (2020) use an analysis of economic ideas in utopian texts from the twelfth to nineteenth centuries to develop a vision of work in a post-growth future, and Stratford (2020, 2023) develops a theory of rents and resource extraction grounded in an analysis of the historical evolution of the concept of rent. The general approach of critical engagement with history of thought is perhaps best developed in the Marxist literature, where a substantive body of work draws on Marx’s writings to critically explore environment-economy relationships (e.g., Malm 2016; Moore 2017; Pirgmaier 2021; Saitō 2022). On the other hand, relatively little attention has been paid to Adam Smith in the context of ecological or environmental economic analysis. Most recent interest in Smith’s environmental thought has come from environmental historians (see Steeds 2024 for a review). However, Steeds (2024), building on Jonsson (2014), has made the case for reading Smith as an ecological economist, arguing that Smith shares core ontological precepts of the discipline—notably that it is the environment that underpins all economic activity. Smith (1975) is particularly relevant to debates about low-carbon transitions because The Wealth of Nations is the starting point for an interpretation of capital theory that has become widely used in energy-economy analyses. Capital theory itself has a long and storied history, with analysts giving it a variety of characteristics (Cannan 1921; Kurz 1990; Mair 2022). Contemporary economic analyses of energy generally use a physical concept of capital. A common position for economists who focus on energy is that energy is important because energy use and capital are “quantity complements”: all else equal, when capital increases the energy used in production increases (Elkomy, Mair, and Jackson 2020; Finn 2000; Sakai et al. 2019). Conceived of as “representative machinery,” capital is seen as the physical stuff that channels energy use into production (Keen, Ayres, and Standish 2019: 41). Or as Daly (1968: 397) puts it, “physical capital is essentially matter that is capable of trapping energy and channeling it to human purposes.” This physical conception has its roots in the dominant interpretation of capital from The Wealth of Nations. Prior to The Wealth of Nations, capital was a predominantly monetary construct, but historians of economic thought argue that after The Wealth of Nations, capital is taken to be predominantly physical (Hodgson 2014; Schumpeter 1954). However, I argue that Smith’s view of capital is actually a long way from the almost purely physical views seen in much energy-economy work. Rather, Smith’s view of capital is proto-Marxist. As Evensky (2005: 141) puts it, “Whether or not it was from Smith that Marx developed his notion of capital as self-expanding value, the outlines of that conception were certainly available to him in Smith.” From Smith’s perspective, capital is defined primarily as a socio-physical construct (Blaug 1990; Evensky 2005; Meek 1954). Capital sometimes has physical forms, which enables it to interact with flows of energy, but these are always conditioned by the social dynamics of profit and exchange. Making a direct connection to energy requires reading Smith from the contemporary perspective of energy-economy analysis as developed by the subdisciplines of ecological, biophysical, and exergy economics (Brockway et al. 2019; Jackson 1996; Keen, Ayres, and Standish 2019; Smil 2017a). This is because, as a construct, “capital” pre-dates “energy,” and Smith was writing before the first recorded use of the term energy as we would understand it today (by physicist Thomas Young in 1807, see: Frontali 2014). So although work into energy—particularly among ecological economists and their forerunners in energy systems analysis (Cleveland et al. 1984; Odum 1973; Sakai et al. 2019)—uses a concept of capital that has its roots in an interpretation of Smith’s capital theory, explicit links are missing in Smith’s text. Despite this, Steeds (2024) argues that Smith’s analysis of agriculture shows an understanding of what contemporary analysts would call energy, a theme I develop here focusing on Smith’s conceptualization of capital. The rest of this article is structured as follows. In section 2, I set out an interpretation of Smith’s capital theory from The Wealth of Nations that emphasizes the way it sees physical elements of capital as defined by social forces. In section 3, I outline the ways that energy fits into Smith’s theory of capital. This is the first contribution of the article, as I make novel links between Smith’s capital theory and contemporary energy-economy analysis. In section 4, I apply this interpretation of energy-capital relations to the historical evolution of energy use under capitalism, and the question of low-carbon transitions. This is the second contribution of the article, as I argue that Smith’s capital theory highlights the importance of the social context of energy systems. Specifically, it provides compelling explanations for the phenomenon of “energy additions”—where past “transitions” under capitalism have been associated with the overall growth of energy use (York and Bell 2019). This implies that the challenge of a low-carbon transition is not only investment in low-carbon energy systems but in challenging the logic of capitalism such that low-carbon energy can replace, rather than add to, the use of high-carbon energy. 2. Capital as a Socio-physical Construct in The Wealth of Nations Interpretations of Smith’s capital theory generally emphasize its physical aspects (e.g., Cannan 1921; Hodgson 2014; Schumpeter 1954). These readings focus on Smith’s initial description of capital as a subset of the accumulation of the physical outputs of production (in Smith’s terminology “stock” [cf. Smith 1975: 279]), and the skills and abilities of workers (Smith 1975: 282). The focus on physical aspects of Smith’s capital theory makes sense from a history of ideas perspective. The physical aspects of Smith’s capital stand in contrast with earlier definitions that were primarily monetary (Hodgson 2014). There is also an intellectual lineage that can be traced in Smith’s views on capital, principally through Smith’s relationship with the French Physiocratic school whose own economic analysis emphasized physical flows (Meek 1954; Schumpeter 1954). However, the fact that Smith introduced a new role for physical goods within a broader concept of capital does not imply that Smith’s theory of capital was purely physical (Robinson 1962). Rather, Smith views capital as the accumulated monetary and physical resources that are brought into production to generate a profit. To see this, let us look first at Smith’s view of circulating capital. Smith splits capital into two forms, circulating and fixed, and he is explicit that circulating capital has both monetary and physical forms. For Smith, circulating capital is defined by the fact that to turn a profit from it, its owner must give it up in exchange for something else. Consequently, circulating capital takes multiple forms: it is the money that will be used to pay wages to a worker, the product produced by that worker, the money realized at the point of sale of the product, and the commodities purchased using the money realized. As Smith (1975: 279) puts it, circulating capital is continually going from the capitalist “in one shape, and returning to him in another. . . it is only by means of such circulation. . . that it can yield him any profit.” Circulating capital is a process of purchasing and selling resources, often with a monetary form, in order to make more money (Evensky 2005). Circulating capital has different forms (some physical, some not) at different points in its circulation, but it is consistently capital. Even when capital takes on its physical form, for Smith it is the underlying social dynamics of exchange and profit that define it as capital. In his opening to book 2, Smith argues that capital is an emergent property of exchange-based economies (Smith 1975: 276). In a society with no division of labor, he argues, people are self-sufficient, and there is very little exchange. But once you have a division of labor, you get exchange because each worker uses their labor to produce a subset of the goods needed to live. Other workers use their labor to produce a different subset of goods. The two then trade with one another to ensure all their needs are met. Drawing on the work of the Physiocrats, Smith then observes that production takes time (Schumpeter 1954). Consequently, in a market system, the purchasing of goods from other people “cannot be made till such time as the produce of his own labor has not only been completed, but sold” (Smith 1975: 276). This means that in either a monetary or barter economy, there has to be a stock of physical goods previously accumulated in order to enable work to happen before the products of that work have been sold (or are available for barter). For Smith, these goods are a form of capital. In this sense, capital can be physical commodities—but physical commodities accumulated in order to support exchange. For Smith, profits are also an essential part of the definition of capital (Meek 1954). Whether fixed or circulating, physical or monetary, what makes something capital is the desire of the capitalist to earn money from it (e.g., Smith 1975: 281, 332). Smith’s theory of profit is scattered through The Wealth of Nations and is not entirely comprehensive (Blaug 1990; Christensen 1979). However, Smith does identify a construct called profits with some core tendencies that are sufficient to group him in the classical approach to profit as surplus and deduction (Hirsch 2021; Kurz 1990; Meek 1977). For Smith, surplus is primarily derived from the value that labor adds to raw materials. This value then goes to pay the wages of the worker and other costs of production, one of which is “the profits of their employer” (Smith 1975: 66). So, Smith’s theory of profit is deductive. Profit is the money capitalists attempt to gain back from production after all costs—including wages—have been accounted for (Meek 1977). An important addition here is that the profit drive for Smith is speculative: capitalists bring capital to support production because they “expect” to generate more money (Smith 1975: 279, 332)—it is not guaranteed. The attempt to gain profit is because capitalists use this as their income (cf. Smith 1975: 69, 279). This attempt is central to the dynamics of capital because profit is the “sole motive” that a capitalist has for bringing their resources into the exchange cycle of the economy (Smith 1975: 374). To summarize, for Smith, capital is the accumulated resources (whether physical or monetary) brought to bear in support of exchange-based production, the ultimate aim of which is to provide the owner of capital with an income (profits). Consequently, it is not correct to view Smith’s capital theory as purely or even predominantly physical. Rather Smith’s capital is a socio-physical construct. This interpretation is not a refutation of other readings that emphasize the physical aspect of Smith’s theory. The physical elements are present, are important, and are relevant to our discussion of energy. However, the underlying premise is always that these physical elements are defined by social relations of profits and exchange. This analysis fits with readings of Smith that see his capital theory as proto-Marxist because of the way it frames capital in terms of social relations (Hodgson 2014; Pack 2013; Tsoulfidis and Paitaridis 2012). But it strongly cautions away from discussions of capital that abstract from these social relations in ways that leave capital as purely physical things. As with Marx (2013), when Smith talks about capital as physical things, his focus is on the way the physical interacts with social relations. 3. How Does Energy Fit into Smith’s Capital Theory? Having sketched an interpretation of Smith’s capital theory focusing on the interplay of profit, exchange dynamics, and monetary and physical resources, we can turn to the question of how energy fits into Smith’s capital theory. In this section, I draw on energy-economy analysis to suggest two key ways in which energy might fit into Smith’s capital theory: 1. Capital is used to bring new energy sources into production.2. Capital is used to make existing energy flows more efficient. 3.1. Accessing new energy sources For Smith, one of the key ways that capitalists aim to generate profits from capital is by using it to increase labor productivity (in Smith’s terms “abridging” labor, see: Smith 1975: 17, 282). Here we have a link to energy-economy analysis, where labor productivity is often described in terms of substituting human labor for other forms of energy—since the industrial revolution this has typically happened through some form of fossil fuel–powered machinery (Smil 2017a). Smith discusses machinery in a number of places across The Wealth of Nations. Indeed, Kurz (2010: 1188) writes that one of Smith’s key growth mechanisms is the replacement of “labor power by machine power.” In chapter 11 of book 1 of The Wealth of Nations (Smith 1975: 263), Smith discusses how cloth production in Italy was made more productive than in England by employing wind and water mills in the former, while the latter treaded it by foot. This is the same example pointed to by energy scientist Vaclav Smil (2017a), who argues that the introduction of waterwheels into industrial production were a source of substantive labor productivity growth. Energy-analysis allows us to say why the wind and water is more productive than the treading. Energy provides a variety of functions, known as “energy services,” which are essential for production processes (Grubler et al. 2012). These are intuitive when put in the context of everyday experiences: achieving a comfortable temperature in an office or workplace requires thermal energy. Transporting goods or people requires kinetic energy. In the case of cloth production, the fulling process requires kinetic energy to manipulate the fibers of the cloth. To deliver energy services, energy sources go through a series of transformations, known as the conversion chain (Brockway et al. 2019; Grubler et al. 2012). Energy is accessible to us through different carriers—known as primary energy sources (such as food, oil, or gas). In most use cases primary energy sources are then converted into other forms before delivering their service (Smil 2017b). This conversion is done by “conversion technologies.” Muscles are a “technology” that can be used to convert the chemical energy in food into mechanical energy. Oil or solar energy may be converted into electricity. Different economic processes may use multiple forms of energy with energy from multiple carriers requiring transformation multiple times. From the perspective of increasing labor productivity, what is important is having energy available to do “useful” work (meaning provide the specific energy services that serve the interests of the system) (Brockway et al. 2019). The more energy available to do useful work, the more economic activity can be carried out per person. One way to increase the amount of useful energy available is by adding new primary energy sources to the system. This process often requires new conversion processes that enable the energy in the primary energy sources to be accessed and converted into energy services. In the case of cloth production, the introduction of wind or water mills is an example of capital taking the form of a new conversion technology that enables access to a different primary energy source (Smil 2017b). In the human-powered treading process, solar energy is converted into chemical energy through the agricultural system. The chemical energy in food products acts as the primary energy source. People then eat this food, converting it to mechanical energy that manipulates the cloth as they tread it under foot. On the other hand, a wind or water mill introduces a new conversion technology that enables access to the energy available in wind and water by converting it into mechanical energy. Note that this process is not only about energy efficiency. Wind and water mills are typically more energy efficient than human-power, but just as crucially they are more powerful: they bring a greater quantity of energy into the process of cloth production (Smil 2017b). The importance of scale is seen across energy-economy analysis. Hall and Klitgaard (2012: 117) draw on Polyani’s (1944) substantive definition of an economy to argue that all economic activity is the application of work to transform natural resources into goods and services. In the past, most of the work of transformation was done through muscle-power, but today muscle-power is a much smaller proportion of total work carried out because of the development of machinery that allows us to supplement our muscles with the “‘large muscles’ of fossil fuels.” 3.2. Increasing energy efficiency There are places in The Wealth of Nations where we might hypothesize about energy efficiency gains explicitly. For instance, Smith tells an apocryphal tale involving a child and a fire engine, presented as an example of innovation leading to labor productivity growth. Smith writes that in the earliest fire engines a boy would be employed to open and shut different valves, until one such boy finds a way to connect the valves such that they “open and shut without his assistance” (Smith 1975: 20). Such an innovation adjusts capital in order to enable it to convert more of the primary energy source into useful energy. Prior to the boy’s innovation, the system required two primary energy inputs: the fossil energy to power the machine, and the food energy to power the boy. Once the boy innovates, the primary energy associated with his action is removed from the process and the machine uses only the fossil energy, thus increasing its overall energy efficiency. But machinery is not the only way in which humans’ access and turn energy flows toward growth of the economy in Smith’s capital theory. Smith considers the useful abilities of workers to be a form of capital and here we can see another place where energy efficiency may fit into Smiths capital theory. When defining the useful abilities of workers Smith refers to dexterity: the skills and abilities acquired by workers through the repetition and simplification of tasks. When defining dexterity Smith talks about it in terms of efficiency gains. For example, a worker specializing in the production of nails will become more skilled in their production, and hence more efficient (Smith 1975: 18). But nowhere does Smith imply that an increase in dexterity is miraculous. And although it is intimately bound up with social organization through the division of labor, we can see how energy may fit into the process. Specifically, the increase in dexterity can be understood as partly a function of the fact that energy flows are being used more efficiently. Workers learn the best way to stir the fire, to heat iron and shape the head of the nail. An increase in the skill of a worker enables them to use energy more efficiently. In this way, more efficient use of energy flows can be seen as one of the ways that the division of labor enables increases in productivity. 3.3. Summary of the energy-capital relation in The Wealth of Nations Smith views capital as the monetary and physical resources that are brought by capitalists into exchange processes with the intention of generating an income for themselves. Smith, like Marx, is clear that all production ultimately rests on inputs from the natural environment, so it is not surprising that in The Wealth of Nations we found examples of a subset of capital that generates profits by changing the way energy is used in production processes. Specifically, I presented two mechanisms that can be identified in The Wealth of Nations: bringing new energy sources into the economy (the transition from human power to wind and waterpower in the fulling process), and being made more energy efficient (through machinery innovations and specialization of labor). We can now apply this interpretation of Smith’s energy-capital theory to the question of low-carbon transitions. The examples I have elaborated support Steeds (2024: 35) notion that Smith has an “intuitive” understanding of energy. Some of the critical functions of Smith’s conception of capital can be explained in terms of how it mediates our relationship to energy. In this way, Smith’s reading is close to more modern accounts of the role of energy (Keen, Ayres, and Standish 2019, Sakai et al. 2019). But what differentiates Smith’s from these accounts is an explicit emphasis on the social context in which energy is used by capital. Some accounts of the energy-economy relationship effectively, or explicitly, reduce production to energy use. In Smith’s account by contrast, energy use is framed and shaped by social forces. Recalling Smith’s core understanding of capital from section 2, it is clear that energy is being harnessed by capital in an attempt to generate profits within a market process. In other words, in a capitalist economy where most production follows the logic of capital, the major driver of energy use will be the attempt to generate incomes for the owners of capital. This insight, though simple, is often overlooked and has profound implications for a low-carbon transition. 4. A Smithian Analysis of Low-Carbon Transitions Under Capitalism In this section, I apply the insights from the reading of Smith’s capital theory to historical data on energy use under capitalism. I argue that the theory provides a simple and compelling explanation for the constant expansion of energy use as new forms of energy have been added to the mix. Capitalists seek to use energy to grow their profits; therefore, they invest in efficiency measures or new energy sources in order to increase the total energy available to them. Energy is never saved in the sense of not being used. Rather, it is made available to new profit-seeking ventures. Across both mainstream and radical interventions into low-carbon transition debates, there is often a focus on the investment needed to grow low-carbon and energy efficiency programs (e.g., Hrnčić et al. 2021; Pollin 2015, 2019; Qadir et al. 2021). The central argument in these works is that low-carbon transitions require substantial but not unreasonable levels of investment in low-carbon energy and energy efficiency programs. Approaching this from the perspective of energy-capital relations developed in this article, we are looking at the need to transition capital from one conversion technology to another. Today, much capital takes the form of conversion technologies designed to access the energy in fossil fuels. For a low-carbon economy we need capital to take the form of conversion technologies that can access energy in wind, solar, or other low-carbon forms. It is tempting to think about this in terms of the transition described by Smith from labor power to wind power in the fulling process. However, there is a fundamental difference between the transition from one energy source to another as developed in The Wealth of Nations, and that needed in the low-carbon transition. Historically, transitions between dominant energy sources under capitalism have been consistent with Smith’s argument that capital is only motivated by the desire for profit. Past energy transitions under capitalism have been driven by a search for greater profits enabled by the new energy sources, not by pro-social or pro-ecological values. For example, Malm (2016) argues that the English transition from wood to water was driven by the desire of capitalists to concentrate and better control their workforce, simultaneously reducing losses from theft, making workers more efficient, and bringing a greater scale of energy into the production process. The consequence of the consistent searching for profits in capitalist energy transitions is that we have very few examples of energy sources declining under capitalism at the macro-scale. Under capitalism, energy transitions are better described as energy additions (York and Bell 2019). In recent decades, there has been a remarkable growth in the use of low-carbon energy sources, but at no point in this period has energy production from fossil fuels decreased (figure 1; Malanima 2022). Indeed, looking at the evolution of 9 categories of primary energy sources since 1820 (figure 1), only fodder has seen a prolonged decrease under capitalism. For instance, in absolute terms, energy from coal overtakes fuelwood as the largest primary energy carrier in the late 1800s. But after this point the energy supplied by fuelwood continues to grow. Even in the case of fodder, although it has been in decline for approximately sixty years it still provided more than twice as much energy in 2020 than it did in 1820. Looking specifically at low-carbon fuels, the charts for renewables and nuclear energy show dramatic spikes and rapid growth. But these spikes do not coincide with declines in any other fuel source, and the International Energy Agency (IEA 2023a, 2023b) reports that 2022 was an all-time high for coal production, and forecasts record oil production in 2024.   Figure 2 depicts global energy efficiency, the scale of global production, and the total primary energy use 1820–2018. Energy efficiency of the global capitalist economy has improved drastically over the two-hundred-year period covered: in 2018, producing one unit of output took only 40 percent of the energy it would have taken in 1820. But as energy efficiency has grown, so has total energy use and total output, and these changes dwarf the gains in energy efficiency. In 2018, 41 times as much energy was used as in 1820, while global production grew by 2 orders of magnitude over the same period.   From the lens of our interpretation of Smith’s capital theory, the constant expansion of fossil fuel use alongside renewables and energy efficiency gains is not surprising. The purpose of capital development and deployment in our Smithian lens is to increase income for capitalists by facilitating exchange. So, we would expect capitalists to invest in capital that enables them to access new sources of energy, like renewables, in order to bring a greater scale and quantity of energy into production. But we would also expect them to continue to invest in fossil fuels for the same reasons. More energy means more production means more profit. Likewise, we would expect capitalists to use their capital to increase energy efficiency: this reduces their costs. But we would also expect capitalists to take subsequent energy savings and use them to increase production further. As energy is used more efficiently in any given process, more energy is available to be used elsewhere in the economy or, as new energy sources are brought into production, the old sources are made available for new processes (Garrett 2014; Sakai et al. 2019; York and Bell 2019). As long as the capitalist appetite for greater incomes is present, they will seek to direct energy “savings” into new or expanded forms of production. The practical implication of this theoretical analysis is that investment in low-carbon energy sources and energy efficiency measures—no matter how bold the proposals—will not succeed without a change to the social dynamics of capitalist production. Achieving a low-carbon transition therefore requires the formidable task of coupling a large and sustained investment program in renewables and energy efficiency with a challenge to the structural logic of capital. This requires wide-ranging shifts within capitalist economies to build low-carbon energy infrastructure and develop ways of producing that disrupt the constant profit chasing of capital. The former is required to ensure action can begin now, while the latter is needed to ensure that low-carbon investments do not simply continue to expand the energy base of capitalist production. Elaborating on such possibilities is beyond the scope of this article. However, there are research programs that seek to understand alternatives to profit-driven capitalist production, notably work in post-capitalism and the post-growth/degrowth literatures that identify noncapitalist logics of production (Gibson-Graham 2014; Colombo, Bailey, and Gomes, 2024; Mair 2024; Vandeventer, Lloveras, and Warnaby 2024). A useful future direction for research lies in asking how such non-capitalist modes of production might be scaled and applied to the global energy system. 5. Conclusion In this article I have used a history of economic thought approach to analyze the relationship between energy and capital. Rereading The Wealth of Nations, I argued that Smith’s theory of capital is fundamentally socio-physical. Smith views capital as any accumulated resource that is used to support the exchange cycle of the market economy with the expectation that this will return a profit for the owner of the resource. Based on this reading, I argued that there are two ways in which energy might enter into Adam Smith’s capital theory: (1) capital is used to bring new energy sources into production; and (2) capital is used to make existing energy flows more efficient. Using this view of energy-capital relations, we can explain the major trends in historical energy-capital relations under capitalism. Over the last two hundred years, energy use has grown continuously, and the incorporation of new primary energy sources has not systematically led to reductions in older primary energy sources. This is consistent with the idea that capital is used to bring new energy sources into production. Investment in renewables is what we would expect: renewable energy technology allows capitalists to access new primary energy sources. They use this to generate more profits. They continue to invest in fossil fuel technology for the same reasons. Over the last two hundred years, there have been substantive gains in energy efficiency, and these have not led to reductions in energy use. This is consistent with the idea that capital is used to make energy use more efficient. The motivation of capitalists to make energy more efficient is to be more profitable. They then take energy savings from energy efficiency gains and use these to increase production, in an attempt to make more profits. The implication of this analysis is that investment in low-carbon technology and energy efficiency is the (relatively!) easy part of achieving a low-carbon transition. These dynamics are fundamentally compatible with the logics of capital. The barrier to achieving a low-carbon transition is that as long as this investment takes the form of “capital” (i.e., it chases profits and supports exchange processes), then it is unlikely that investment in renewables or energy efficiency programs will reduce energy use from fossil fuels. To achieve a low-carbon transition we must invest in low-carbon technology and energy efficiency, while simultaneously developing new organizational forms that challenge the capitalist dynamics of expansion and accumulation. AcknowledgmentsI would like to thank Christiane Heisse, Don Goldstein, and Robert McMaster, for their careful reviews and Enid Arvidson for her editorial work, all of which greatly improved the article. I would like to thank participants of the workshops Economic Theory for the Anthropocene (organized by the Centre for the Understanding of Sustainable Prosperity and the University of Surrey Institute for Advanced Studies) and The Political Economy of Capitalism (organized by the Institute for New Economic Thinking Young Scholar Initiative working groups on the Economics of Innovation and Economic History). Particular thanks to Richard Douglas, Angela Druckman, Ben Gallant, Elena Hofferberth, Tim Jackson, Andy Jarvis, Mary O’Sullivan, and Elke Pirgmaier for fruitful discussions. I would like to thank the Marxist Internet Archive for making The Wealth of Nations freely available.Declaration of Conflicting InterestsThe author declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.FundingThe author disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: This work was partly funded by the Economic and Social Research Council through the Centre for the Understanding of Sustainability, grant no. ES/M010163/1.ORCID iDSimon Mair https://orcid.org/0000-0001-5143-8668Note1 The full sources for the Maddison Project Database are Abad and Van Zanden (2016); Álvarez-Nogal and De La Escosura (2013); Baffigi (2011); Barro and Ursúa (2008); Bassino et al. (2019); Bértola et al. (2012); Bértola (2016); Broadberry et al. (2015); Broadberry, Custodis, and Gupta (2015); Broadberry, Guan, and Li (2018); Buyst (2011); Cha et al. 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Energy & Economics
Los Angeles, CA USA - May 23 2025 : Donald Trump on Climate Change, Drill Baby Drill

The temporal logic of Trump II’s climate denialism

by Heikki Patomäki

In a landmark advisory opinion, the International Court of Justice (ICJ) ruled on 23 July 2025 that all UN member states have legal obligations under international law to address climate change, which the court described as an existential threat to life on Earth. Powerful countries too must be held responsible for their current emissions and past inaction. Possibly in anticipation of such a ruling, Chris Wright, the US Secretary of Energy and former chief executive of Liberty Energy (an oilfield services company), published an article in The Economist a week earlier, arguing that “climate change is a by-product of progress, not an existential crisis”. Whereas the ICJ relied primarily on the IPCC reports, “which participants agree constitute the best available science on the causes, nature and consequences of climate change”, Wright’s view is based on a particular temporal logic.  According to the IPCC reports, most greenhouse gases come from burning fossil fuels, with additional emissions from agriculture, deforestation, industry, and waste. They drive global warming, which is projected to reach 1.5°C between 2021 and 2040, with 2°C likely to follow. Even 1.5°C is not considered safe for most nations, communities, and ecosystems, and according to IPCC, only deep, rapid, and sustained emission cuts can slow warming and reduce the escalating risks and damages. The 2024 state of the climate report, published in BioScience, presents even more worrying assessments. Among other things, the report cites surveys indicating that nearly 80% of these scientists anticipate global temperatures increasing by at least 2.5°C above preindustrial levels by the end of the century, and nearly half of them foresee a rise of at least 3°C.  Wright’s article suggests that the issue of amplifying doubt about climate change may have little to do with engagement with science but rather reflects a deeper temporal logic. This logic is rooted in a Whiggish account of progress to date, a resistance to the reality of the future and the desire for nostalgic restoration. I will explain these elements one by one. The first tier: Whiggism Wright disagrees with most scientific anticipations. His views are likely representative not only of the Trump II administration but also of conservative right-wing populism more generally. It is difficult to understand their climate denialism without an analysis of their views on time and temporality. The most important question concerns the reality of the future. At the first level, Wright provides a kind of textbook example of Whig history, portraying progress as linear, inevitable, and driven by liberal values. Herbert Butterfield introduced the idea of Whig history in his influential 1931 book The Whig Interpretation of History as a critique of a specific way of writing history that he regarded as flawed and intellectually dishonest. Focusing on inevitable progress distorts historical analysis by promoting simplified cause-and-effect reasoning and selective storytelling, emphasising present-day evaluation (and glorification) over understanding the real causes of historical change. In a Whiggish manner, Wright claims that the last 200 years have seen two big changes to the human condition: “human liberty” and affordable energy. As a result of these two things, life expectancy has nearly doubled, and the percentage of people living in extreme poverty has dropped from 90% to 10%. However, Wright’s argumentation is based on non-contextual and, in that sense, timeless representations of the world, despite its “progressivism”.  For example, consider the claim that extreme poverty has dropped from 90% to 10%. It is based on using a fixed dollar threshold, such as USD 2 per day, to measure poverty over 200 years. This is misleading because most people in the 19th century lived in largely non-monetised economies where subsistence needs were met outside of market exchange, and monetary income was minimal or irrelevant. These metrics also obscure shifting and context-bound definitions of basic needs; rely on incomplete historical data; and ignore the role of colonial dispossession and structural inequality in shaping global poverty. While it is true that life expectancy has doubled, largely due to improvements in hygiene and healthcare, the idea that extreme poverty has plummeted from 90% to under 10% also ignores the fact that the global population has grown eightfold, affecting the entire Earth system with devastating ecological and geological consequences. It further ignores that the rise in life expectancy and poverty reduction has come not only from liberalism or economic growth more generally but from ethical and political struggles and public health interventions. Often, these struggles have been fought in the name of socialism and won despite capitalist incentives, market mechanisms, and related political forces. The second tier: blockism At a deeper level, Wright’s views seem to presuppose what Roy Bhaskar calls “blockism”: the postulation of a simultaneous conjunctive totality of all events. This may sound abstract, but it has been a common assumption among many 20th-century physicists and philosophers that the universe forms a static, closed totality. This view stems from an atomist ontology, where individuals are seen as abstract, events follow regular patterns, time is viewed as spatial, and laws that can be expressed mathematically are considered reversible.  In such a conception, time appears as just another “spatial” dimension. According to the block universe model, the past, present, and future all exist equally and tenselessly. The universe is imagined as a four-dimensional geometric object, like a “block” of spacetime. Time is not something that “flows” or “passes”; instead, all moments are spatially extended points in a timeless whole. Blockism suggests that change and becoming are not truly real but are simply parts of our subjective experience.  The real challenge is to reconcile Whiggism and blockism. Wright is not a theorist and might not need to worry about the coherence of his ideas, but the issue is that Whiggism assumes movement, direction, and a normatively positive evolution of change, whereas the block universe denies real temporality: there is no becoming, no novelty, no agency – only timeless existence. Some versions of the block universe attempt to preserve development by proposing that the block grows. The “block” expands as new events are added to reality, but in this view, the present defines the upper boundary of the block, and the future is not truly real. This appears to be consistent with what Wright says about climate change. Everything he has to say about global warming is limited to one short paragraph: We will treat climate change as what it is: not an existential crisis but a real, physical phenomenon that is a by-product of progress. Yes, atmospheric CO2 has increased over time – but so has life expectancy. Billions of people have been lifted out of poverty. Modern medicine, telecommunications and global transportation became possible. I am willing to take the modest negative trade-off for this legacy of human advancement. From the ICJ’s perspective, this interpretation is dreadful, as the current impacts of climate change are already at odds with the rights of many groups of people. It also exhibits basic injustice, as many of the groups that suffer the most from these impacts have done next to nothing to cause the problem. However, here I am mostly concerned with the temporality of Wright’s claims. This temporality is a combination of Whiggism and blockism: so far, history has exhibited progress, but time and processes stop here, in our present moment. The third tier: nostalgia Wright’s view of time is not limited to an ultimately incoherent combination of Whiggism and blockism. There is also more than a mere hint of nostalgia. This is evident in the appeal of a Golden Age at the outset of his article: I am honoured to advance President Donald Trump’s policy of bettering lives through unleashing a golden age of energy dominance – both at home and around the world. The appeal to the Golden Age somewhat contradicts Whiggism. From a nostalgic perspective, it seems that society has been on a downward trajectory instead of progressing. In other words, regression must be possible. Within an overall Whiggish narrative, one can blame certain actors, such as the Democrats in the US political context, for causing moral and political decline.  A nationalist narrative of a “golden age” and a return to a better past (“making us great again”) is essentially connected to the denial of planetary-scale problems, such as climate change, that would clearly require novel global responses. Climate change from a real-time perspective By merging Whiggism with a block-universe ontology (either static or growing), one ends up with a pseudo-historicism that speaks of “progress” while erasing real time. In a way, such a view “performs change” through a highly selective historical narrative, while denying the ontological preconditions of real change. Real change – emergence, transformation, causation – requires a temporal ontology, where the future is real though not yet fully determined. Thus, there is no mention of global emissions that have continued to rise, their delayed effects, feedback loops, or emergent risks given multiple processes of intertwined changes. Are the basic IPCC models based on real historical time? IPCC models often treat the climate system as a bounded system with internally consistent and deterministic dynamics. The IPCC relies on modelling and uses Bayesian methods to assess uncertainties in climate projections. Bayesian statistics involve updating the probability of a hypothesis as more evidence becomes available, based on prior knowledge (priors) and new data (likelihoods). Such an approach tends to be conservative (based on moving averages, for example) and assumes the quantifiability of uncertainty. It may also convey illusory precision, especially when the underlying models or data are uncertain or incomplete. The IPCC models nonetheless indicate – in contrast to Wright – that the future is real, though the future is approached in a somewhat cautious and deterministic manner. However, many climate scientists go beyond the IPCC consensus by assuming that global heating may reach 2.5 °C or even above 3 °C degree warming by the end of the century.  From a critical scientific realist viewpoint, even such anticipations may be too circumspect. Assuming exponential growth (involving cascading events etc.) and given that recent data shows a rise from 1.0°C to 1.5°C in just 15 years (actual data taken on an annual basis, not moving averages), and using this as a basis for anticipating the future, we seem likely to reach the 2 °C mark in the 2040s and the 3 °C mark in the 2060s.  The plausibility of anticipations depends significantly on how the real openness of the future is treated. Anticipations are reflexive and can shape the future. Real time and historical change involves human freedom and ethics. The evolving universe, where time is real, is stratified, processual, and open-ended. Time involves genuine processes, real possibilities, agency, and emergent structures. Such characteristics indicate that the future is not predetermined but can be shaped by transformative agency.  To sum up, from a real historical time perspective, Wright’s combination of Whiggism, blockism, and nostalgia is a recipe for reactionary politics. Glorifying the present, thinking in a timeless way, and longing for a golden age of the past can play a major role in bringing about a dystopian planetary future.

Energy & Economics
Commodity and alternative asset, gold bar and crypto currency Bitcoin on rising price graph as financial crisis or war safe haven, investment asset or wealth concept.

Assessing Bitcoin and Gold as Safe Havens Amid Global Uncertainties: A Rolling Window DCC-GARCH Analysis

by Anoop S Kumar , Meera Mohan , P. S. Niveditha

Abstract We examine the roles of Gold and Bitcoin as a hedge, a safe haven, and a diversifier against the coronavirus disease 2019 (COVID-19) pandemic and the Ukraine War. Using a rolling window estimation of the dynamic conditional correlation (DCC)-based regression, we present a novel approach to examine the time-varying safe haven, hedge, and diversifier properties of Gold and Bitcoin for equities portfolios. This article uses daily returns of Gold, Bitcoin, S&P500, CAC 40, and NSE 50 from January 3, 2018, to October 15, 2022. Our results show that Gold is a better safe haven than the two, while Bitcoin exhibits weak properties as safe haven. Bitcoin can, however, be used as a diversifier and hedge. This study offers policy suggestions to investors to diversify their holdings during uncertain times. Introduction Financial markets and the diversity of financial products have risen in both volume and value, creating financial risk and establishing the demand for a safe haven for investors. The global financial markets have faced several blows in recent years. From the Global Financial Crisis (GFC) to the outbreak of the pandemic and uncertainty regarding economic policy measures of governments and central banks, the financial markets including equity markets around the world were faced with severe meltdowns. This similar behavior was observed in other markets including equity and commodity markets, resulting in overall uncertainty. In this scenario, the investors normally flock toward the safe-haven assets to protect their investment. In normal situations, investors seek to diversify or hedge their assets to protect their portfolios. However, the financial markets are negatively impacted when there are global uncertainties. Diversification and hedging methods fail to safeguard investors’ portfolios during instability because almost all sectors and assets are negatively affected (Hasan et al., 2021). As a result, investors typically look for safe-haven investments to safeguard their portfolios under extreme conditions (Ceylan, 2022). Baur and Lucey (2010) provide the following definitions of hedge, diversifier, and safe haven: Hedge: An asset that, on average, has no correlation or a negative correlation with another asset or portfolio. On average, a strict hedge has a (strictly) negative correlation with another asset or portfolio.Diversifier: An asset that, on average, has a positive correlation (but not perfect correlation) with another asset or portfolio. Safe haven: This is the asset that in times of market stress or volatility becomes uncorrelated or negatively associated with other assets or a portfolio. As was previously indicated, the significant market turbulence caused by a sharp decline in consumer spending, coupled with insufficient hedging opportunities, was a common feature of all markets during these times (Yousaf et al., 2022). Nakamoto (2008) suggested a remedy by introducing Bitcoin, a “digital currency,” as an alternative to traditional fiduciary currencies (Paule-Vianez et al., 2020). Bitcoin often described as “Digital Gold” has shown greater resilience during periods of crises and has highlighted the potential safe haven and hedging property against uncertainties (Mokni, 2021). According to Dyhrberg (2016), the GFC has eased the emergence of Bitcoin thereby strengthening its popularity. Bouri et al. (2017) in their study indicate that Bitcoin has been viewed as a shelter from global uncertainties caused by conventional banking and economic systems. Recent research has found that Bitcoin is a weak safe haven, particularly in periods of market uncertainty like the coronavirus disease 2019 (COVID-19) crisis (Conlon & McGee, 2020; Nagy & Benedek, 2021; Shahzad et al., 2019; Syuhada et al., 2022). In contrast to these findings, a study by Yan et al. (2022) indicates that it can function as a strong safe haven in favorable economic times and with low-risk aversion. Ustaoglu (2022) also supports the strong safe-haven characteristic of Bitcoin against most emerging stock market indices during the COVID-19 period. Umar et al. (2023) assert that Bitcoin and Gold are not reliable safe-havens. Singh et al. (2024) in their study reveal that Bitcoin is an effective hedge for investments in Nifty-50, Sensex, GBP–INR, and JPY–INR, at the same time a good diversifier for Gold. The study suggests that investors can incorporate Bitcoin in their portfolios as a good hedge against market volatility in equities and commodities markets. During the COVID-19 epidemic, Barbu et al. (2022) investigated if Ethereum and Bitcoin could serve as a short-term safe haven or diversifier against stock indices and bonds. The outcomes are consistent with the research conducted by Snene Manzli et al. (2024). Both act as hybrid roles for stock market returns, diversifiers for sustainable stock market indices, and safe havens for bond markets. Notably, Bhuiyan et al. (2023) found that Bitcoin provides relatively better diversification opportunities than Gold during times of crisis. To reduce risks, Bitcoin has demonstrated a strong potential to operate as a buffer against global uncertainty and may be a useful hedging tool in addition to Gold and similar assets (Baur & Lucey, 2010; Bouri et al., 2017; Capie et al., 2005; Dyhrberg, 2015). According to Huang et al. (2021), its independence from monetary policies and minimal association with conventional financial assets allow it to have a safe-haven quality. Bitcoins have a substantial speed advantage over other assets since they are traded at high and constant frequencies with no days when trading is closed (Selmi et al., 2018). Additionally, it has been demonstrated that the average monthly volatility of Bitcoin is higher than that of Gold or a group of international currencies expressed in US dollars; nevertheless, the lowest monthly volatility of Bitcoin is lower than the maximum monthly volatility of Gold and other foreign currencies (Dwyer, 2015). Leverage effects are also evident in Bitcoin returns, which show lower volatilities in high return periods and higher volatilities in low return times (Bouri et al., 2017; Liu et al., 2017). According to recent research, Bitcoins can be used to hedge S&P 500 stocks, which increases the likelihood that institutional and retail investors will build secure portfolios (Okorie, 2020). Bitcoin demonstrates strong hedging capabilities and can complement Gold in minimizing specific market risks (Baur & Lucey, 2010). Its high-frequency and continuous trading further enrich the range of available hedging tools (Dyhrberg, 2016). Moreover, Bitcoin spot and futures markets exhibit similarities to traditional financial markets. In the post-COVID-19 period, Zhang et al. (2021) found that Bitcoin futures outperform Gold futures.Gold, silver, palladium, and platinum were among the most common precious metals utilized as safe-haven investments. Gold is one such asset that is used extensively (Salisu et al., 2021). Their study tested the safe-haven property of Gold against the downside risk of portfolios during the pandemic. Empirical results have also shown that Gold functions as a safe haven for only 15 trading days, meaning that holding Gold for longer than this period would result in losses to investors. This explains why investors buy Gold on days of negative returns and sell it when market prospects turn positive and volatility decreases (Baur & Lucey, 2010). In their study, Kumar et al. (2023) tried to analyse the trends in volume throughout futures contracts and investigate the connection between open interest, volume, and price for bullion and base metal futures in India. Liu et al. (2016) in their study found that there is no negative association between Gold and the US stock market during times of extremely low or high volatility. Because of this, it is not a strong safe haven for the US stock market (Hood & Malik, 2013). Post-COVID-19, studies have provided mixed evidence on the safe-haven properties of Gold (Bouri et al., 2020; Cheema et al., 2022; Ji et al., 2020). According to Kumar and Padakandla (2022), Gold continuously demonstrates safe-haven qualities for all markets, except the NSE, both in the short and long term. During the COVID-19 episode, Gold’s effectiveness as a hedge and safe-haven instrument has been impacted (Akhtaruzzaman et al., 2021). Al-Nassar (2024) conducted a study on the hedge effectiveness of Gold and found that it is a strong hedge in the long run. Bhattacharjee et al. (2023) in their paper examined the symmetrical and asymmetrical linkage between Gold price levels and the Indian stock market returns by employing linear autoregressive distributed lag and nonlinear autoregressive distributed lag models. The results exhibit that the Indian stock market returns and Gold prices are cointegrated. According to the most recent study by Kaczmarek et al. (2022), Gold has no potential as a safe haven, despite some studies on the COVID-19 pandemic showing contradictory results. The co-movements of Bitcoin and the Chinese stock market have also normalized as a result of this epidemic (Belhassine & Karamti, 2021). Widjaja and Havidz (2023) verified that Gold was a safe haven asset during the COVID-19 pandemic, confirming the Gold’s safe-haven characteristic. As previously pointed out, investors value safe-haven investments in times of risk. Investors panic at these times when asset prices fall and move from less liquid (risky) securities to more liquid (safe) ones, such as cash, Gold, and government bonds. An asset must be bought and sold rapidly, at a known price, and for a reasonably modest cost to be considered truly safe (Smales, 2019). Therefore, we need to properly re-examine the safe-haven qualities of Gold and Bitcoin due to the mixed evidences regarding their safe-haven qualities and the impact of COVID-19 and the war in Ukraine on financial markets. This work contributes to and deviates from the body of existing literature in the following ways. We propose a novel approach in this work to evaluate an asset’s time-varying safe haven, hedge, and diversifier characteristics. This research examines the safe haven, hedging, and diversifying qualities of Gold and Bitcoin against the equity indices; S&P 500, CAC 40, and NSE 50. Through the use of rolling window estimation, we extend the methodology of Ratner and Chiu (2013) by estimating the aforementioned properties of the assets. Comparing rolling window estimation to other conventional techniques, the former will provide a more accurate representation of an asset’s time-varying feature. This study explores the conventional asset Gold’s time-varying safe haven, hedging, and diversifying qualities during crises like the COVID-19 pandemic and the conflict in Ukraine. We use Bitcoin, an unconventional safe-haven asset, for comparison. Data and Methodology We use the daily returns of three major equity indices; S&P500, CAC 40, and NSE 50 from January 3, 2018, to October 15, 2022. The equity indices were selected to represent three large and diverse markets namely the United States, France, and India in terms of geography and economic development. We assess safe-haven assets using the daily returns of Gold and Bitcoin over the same time. Equity data was collected from Yahoo Finance, Bitcoin data from coinmarketcap.com, and Gold data from the World Gold Council website. Engle (2002) developed the DCC (Dynamic Conditional Correlation)-GARCH model, which is frequently used to assess contagion amid pandemic uncertainty or crises. Time-varying variations in the conditional correlation of asset pairings can be captured using the DCC-GARCH model. Through employing this model, we can analyse the dynamic behavior of volatility spillovers. Engle’s (2002) DCC-GARCH model contains two phases; 1. Univariate GARCH model estimation2. Estimation of time-varying conditional correlation. For its explanation, mathematical characteristics, and theoretical development, see here [insert the next link in “the word here” https://journals.sagepub.com/doi/10.1177/09711023251322578] Results and Discussion The outcomes of the parameters under the DCC-GARCH model for each of the asset pairs selected for the investigation are shown in Table 1.   First, we look at the dynamical conditional correlation coefficient, ρ.The rho value is negative and insignificant for NSE 50/Gold, NSE 50 /BTC, S&P500/Gold, and S&P500/BTC indicating a negative and insignificant correlation between these asset pairs, showing Gold and Bitcoin as potential hedges and safe havens. The fact that ρ is negative and significant for CAC 40/Gold suggests that Gold can be a safe haven against CAC 40 swings. The asset pair CAC/BTC, on the other hand, has possible diversifier behavior with ρ being positive but statistically insignificant. Next, we examine the behavior of the DCC-GARCH parameters; α and β. We find that αDCC is statistically insignificant for all the asset pairs, while βDCC is statistically significant for all asset pairs. βDCC quantifies the persistence feature of the correlation and the extent of the impact of volatility spillover in a particular market’s volatility dynamics. A higher βDCC value implies that a major part of the volatility dynamics can be explained by the respective market’s own past volatility. For instance, the NSE 50/Gold’s βDCC value of 0.971 shows that there is a high degree of volatility spillover between these two assets, with about 97% of market volatility being explained by the assets’ own historical values and the remainder coming from spillover. Thus, we see that the volatility spillover is highly persistent (~0.8) for all the asset pairs except NSE 50/BTC. The results above show that the nature of the dynamic correlation between the stock markets, Bitcoin and Gold is largely negative, pointing toward the possibility of Gold and Bitcoin being hedge/safe haven. However, a detailed analysis is needed to confirm the same by employing rolling window analysis, and we present the results in the forthcoming section. We present the rolling window results for S&P500 first. We present the regression results for Gold in Figure 1 and Bitcoin in Figure 2   Figure 1. Rolling Window Regression Results for S&P500 and Gold.Note: Areas shaded under factor 1 represent significant regression coefficients. In Figure 1, we examine the behavior of β0 (intercept term), β1, β2, and β3 (partial correlation coefficients). The intercept term β0 will give an idea about whether the asset is behaving as a diversifier or hedge. Here, the intercept term shows significance most of the time. However, during 2018, the intercept was negative and significant, showing that it could serve as a hedge during geopolitical tensions and volatilities in the global stock market. However, during the early stages of COVID-19, we show that the intercept is negative and showing statistical significance, suggesting that Gold could serve as a hedge during the initial shocks of the pandemic. These findings are contrary to the results in the study by Tarchella et al. (2024) where they found hold as a good diversifier. Later, we find the intercept to be positive and significant, indicating that Gold could act as a potential diversifier. But during the Russia-Ukraine War, Gold exhibited hedge ability again. Looking into the behavior of β1, which is the partial correlation coefficient for the tenth percentile of return distribution shows negative and insignificant during 2018. Later, it was again negative and significant during the initial phases of COVID-19, and then negative in the aftermath, indicating that Gold could act as a weak safe haven during the COVID-19 pandemic. Gold could serve as a strong safe haven for the SP500 against volatility in the markets brought on by the war in Ukraine, as we see the coefficient to be negative and large during this time. From β2 and β3, the partial correlation coefficients of the fifth and first percentile, respectively, show that Gold possesses weak safe haven properties during COVID-19 and strong safe haven behavior during the Ukraine crisis. Next, we examine the characteristics of Bitcoin as a hedge/diversifier/safe haven against the S&P500 returns. We present the results in Figure 2.   Figure 2. Rolling Window Regression Results for S&P500 and Bitcoin.Note: Areas shaded under factor 1 represent significant regression coefficients. Like in the previous case, we begin by analysing the behavior of the intercept coefficient, which is β0. As mentioned earlier the intercept term will give a clear picture of the asset’s hedging and diversifier property. In the period 2018–2019, the intercept term is positive but insignificant. This could be due to the large volatility in Bitcoin price movements during the period. It continues to be minimal (but positive) and insignificant during 2019–2020, indicating toward weak diversification possibility. Post-COVID-19 period, the coefficient shows the significance and positive value, displaying the diversification potential. We see that the coefficient remains positive throughout the analysis, confirming Bitcoin’s potential as a diversifier. Looking into the behavior of β1 (the partial correlation coefficient at tenth percentile), it is positive but insignificant during 2018. The coefficient is having negative sign and showing statistical significance in 2019, suggesting that Bitcoin could be a good safe haven in that year. This year was characterized by a long list of corporate scandals, uncertainties around Brexit, and tensions in global trade. We can observe that throughout the COVID-19 period, the coefficient is showing negative sign and negligible during the March 2020 market meltdown, suggesting inadequate safe-haven qualities. However, Bitcoin will regain its safe-haven property in the coming periods, as the coefficient is negative and significant in the coming months. The coefficient is negative and shows statistical significance during the Ukrainian crisis, suggesting strong safe-haven property. Only during the Ukrainian crisis could Bitcoin serve as a safe haven, according to the behavior of β2, which displays the partial correlation coefficient at the fifth percentile. Bitcoin was a weak safe haven during COVID-19 and the Ukrainian crisis, according to β3, the partial correlation coefficient for the first percentile (coefficient negative and insignificant). According to the overall findings, Gold is a stronger safe haven against the S&P 500’s swings. This result is consistent with the previous studies of Triki and Maatoug (2021), Shakil et al. (2018), Będowska-Sójka and Kliber (2021), Drake (2022), and Ghazali et al. (2020), etc. The same analysis was conducted for the CAC 40 and the NSE 50; the full analysis can be found here [insert the next link in “the word here” https://journals.sagepub.com/doi/10.1177/09711023251322578]. However, it is important to highlight the respective results: In general, we may say that Gold has weak safe-haven properties considering CAC40. We can conclude that Bitcoin’s safe-haven qualities for CAC40 are weak. We can say that Gold showed weak safe-haven characteristics during the Ukraine crisis and good safe-haven characteristics for the NSE50 during COVID-19. We may say that Bitcoin exhibits weak safe haven, but strong hedging abilities to NSE50. Concluding Remarks In this study, we suggested a new method to evaluate an asset’s time-varying hedge, diversifier, and safe-haven characteristics. We propose a rolling window estimation of the DCC-based regression of Ratner and Chiu (2013). Based on this, we estimate the conventional asset’s time-varying safe haven, hedging, and diversifying properties during crises like the COVID-19 pandemic and the conflict in Ukraine. For comparison purposes, we include Bitcoin, a nonconventional safe-haven asset. We evaluate Gold and Bitcoin’s safe haven, hedging, and diversifier properties to the S&P 500, CAC 40, and NSE 50 variations. We use a rolling window of length 60 to estimate the regression. From the results, we find that Gold can be considered as a better safe haven against the fluctuations of the S&P 500. In the case of CAC 40, Gold and Bitcoin have weak safe-haven properties. While Bitcoin demonstrated strong safe-haven characteristics during the Ukraine crisis, Gold exhibited strong safe-haven characteristics during COVID-19 for the NSE 50. Overall, the findings indicate that Gold is the better safe haven. This outcome is consistent with earlier research (Będowska-Sójka & Kliber, 2021; Drake, 2022; Ghazali et al., 2020; Shakil et al., 2018; Triki & Maatoug, 2021). When it comes to Bitcoin, its safe-haven feature is weak. Bitcoin, however, works well as a diversifier and hedge. Therefore, from a policy perspective, investing in safe-haven instruments is crucial to lower the risks associated with asset ownership. Policymakers aiming to enhance the stability of financial portfolios might encourage institutional investors and other market players to incorporate Gold into their asset allocations. Gold’s strong safe-haven qualities, proven across various market conditions, make it a reliable choice. Gold’s performance during crises like COVID-19 highlights its potential to mitigate systemic risks effectively. Further, Bitcoin could also play a complementary role as a hedge and diversifier, especially during periods of significant volatility such as the Ukraine crisis. While Bitcoin’s safe-haven characteristics are relatively weaker, its inclusion in a diversified portfolio offers notable value and hence it should not be overlooked. Further, policymakers may consider how crucial it is to monitor dynamic correlations and periodically rebalance portfolios to account for shifts in the safe haven and hedging characteristics of certain assets. Such measures could help reduce the risks of over-reliance on a single asset type and create more resilient portfolios that can better withstand global economic shocks. For future research, studies can be conducted on the estimation of the rolling window with different widths. This is important to understand how the safe-haven property changes across different holding periods. Further, more equity markets would be included to account for the differences in market capitalization and index constituents. This study can be extended by testing these properties for multi-asset portfolios as well. We intend to take up this study in these directions in the future. Data Availability StatementNot applicable.Declaration of Conflicting InterestsThe authors declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.FundingThe authors received no financial support for the research, authorship, and/or publication of this article.ReferencesAkhtaruzzaman M., Boubaker S., Lucey B. M., & Sensoy A. (2021). Is gold a hedge or a safe-haven asset in the COVID-19 crisis? Economic Modelling, 102, 105588. Crossref. Web of Science.Al-Nassar N. S. (2024). Can gold hedge against inflation in the UAE? A nonlinear ARDL analysis in the presence of structural breaks. PSU Research Review, 8(1), 151–166. Crossref.Barbu T. C., Boitan I. A., & Cepoi C. O. (2022). Are cryptocurrencies safe havens during the COVID-19 pandemic? A threshold regression perspective with pandemic-related benchmarks. Economics and Business Review, 8(2), 29–49. 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Energy & Economics
To achieve sustainable environmental conservation, we must prioritize clean energy solutions to reduce our dependence on fossil fuels and promote a sustainable future for future generations.

Harnessing nuclear power for sustainable electricity generation and achieving zero emissions

by Mohamed Khaleel , Ziyodulla Yusupov , Sassi Rekik , Heybet Kılıç , Yasser F. Nassar , Hala J. El-Khozondar , Abdussalam Ali Ahmed

Note: some parts of the article have been excluded, if you want to go deep in the article please check  https://doi.org/10.1177/01445987251314504 for the complete version. Abstract Nuclear power plays a pivotal role in sustainable electricity generation and global net zero emissions, contributing significantly to this secure pathway. Nuclear power capacity is expected to double, escalating from 413 gigawatts (GW) in early 2022 to 812 GW by 2050 within the net zero emissions (NZE) paradigm. The global energy landscape is undergoing significant transformation as nations strive to transition to more sustainable energy systems. Amidst this shift, nuclear power has emerged as a crucial component in the pursuit of a sustainable energy transition. This study examines nuclear power's multifaceted role in shaping sustainable energy transition. It delves into nuclear energy's contributions toward decarbonization efforts, highlighting its capacity to provide low-carbon electricity and its potential role in mitigating climate change. Furthermore, the study explores the challenges and opportunities associated with integrating nuclear power into energy transition strategies, addressing issues such as safety, waste management, and public perception. In conclusion, the global nuclear power capacity is anticipated to reach approximately 530 GW by 2050, representing a substantial shortfall of 35% compared with the trajectory outlined in the NZE pathway. Under the NZE scenario, nuclear power demonstrates exceptional expansion, nearly doubling from 413 GW in early 2022 to 812 GW by 2050. Concurrently, the trajectory highlights a transformative shift in renewable energy investments, with annual expenditures surging from an average of US$325 billion during 2016–2020 to an impressive US$1.3 trillion between 2031 and 2035. These projections underscore the critical role of nuclear and renewable energy investments in achieving global sustainability and emission reduction goals. Introduction Global warming and greenhouse gas emissions pose some of the most pressing challenges of the 21st century. The combustion of fossil fuels for electricity generation is a major contributor to these issues, releasing billions of tons of carbon dioxide (CO2) into the atmosphere annually (Abbasi et al., 2020; Nassar et al., 2024; Rekik and El Alimi, 2024a). In this context, nuclear energy emerges as a critical component of the solution. Unlike fossil fuels, nuclear power generates electricity with minimal greenhouse gas emissions, offering a reliable and scalable alternative to bridge the gap between energy demand and decarbonization goals. It operates independently of weather conditions, providing consistent energy output and complementing the intermittency of renewable sources like wind and solar (Rekik and El Alimi, 2024b, 2024c). Furthermore, advancements in nuclear technologies, including small modular reactors (SMRs) and generation IV reactors, have addressed historical concerns related to safety, waste management, and cost-effectiveness (Lau and Tsai, 2023). In 2022, global investment in low-emission fuels will maintain a robust growth trajectory, reaching a sum of US$13 billion. A significant portion of this investment was allocated toward liquid biofuels, totaling US$9.4 billion, and biogas, amounting to US$2.7 billion. It is important to emphasize that liquid biofuels constituted approximately 80% of the overall investment surge observed in 2022, with investments in biogas contributing 4% of the total. The residual portion of the investment was directed toward low-emission hydrogen production, which attained a sum of US$1.2 billion in 2022, representing an almost fourfold increase compared to the figures recorded in 2021 (Khaleel et al., 2024).Nuclear power is a pivotal component of low-carbon energy, which significantly contributes to the realization of a low-carbon economy and establishment of a green energy grid (Arvanitidis et al., 2023; El Hafdaoui et al., 2024; Fragkos et al., 2021). According to current data, 442 nuclear power reactors are operational worldwide, collectively generating 393 gigawatts (GW) of electricity, thereby furnishing a consistent and dependable source of low-carbon power (Mathew, 2022). Nuclear electricity constitutes approximately 11% of the total global electricity generation, representing a substantial portion of the global low-carbon electricity production (Alam et al., 2019). Recent advancements have enhanced the affordability and appeal of nuclear power as an alternative source of energy. These advancements encompass progress in large reactor technologies, the emergence of novel approaches such as advanced fuel utilization and SMRs, engineering breakthroughs facilitating the extension of operational lifespans for existing reactors, and innovations in materials science and improved waste management practices (Kröger et al., 2020; Zhan et al., 2021). Fast breeder reactor technology has transitioned into a commercial realm, offering benefits beyond electricity generation by enabling the production of surplus fuel and enhancing the efficiency of nuclear waste incineration, surpassing the capabilities of existing commercial reactor technologies (Lau and Tsai, 2023). Nuclear power plays a substantial role within a secure global trajectory toward achieving net zero emissions (NZE) (Addo et al., 2023; Dafnomilis et al., 2023). Nuclear power capacity experiences a twofold increase, progressing from 413 GW at the outset of 2022 to 812 GW by 2050 within the NZE paradigm. It is apparent that the annual additions to nuclear capacity peaked at 27 GW per year during the 2030s, surpassing the levels observed in the preceding decade. Despite these advancements, the global proportion of nuclear power within the overall electricity generation portfolio has experienced a marginal decline, settling at 8% (Murphy et al., 2023; Ruhnau et al., 2023). Emerging and developing economies (EMDEs) substantially dominate global growth, constituting over 90% of the aggregate, with China poised to ascend as a preeminent nuclear power producer prior to 2030. Concurrently, advanced economies collectively witness a 10% augmentation in nuclear power capacity as retirements are counterbalanced by the commissioning of new facilities, predominantly observed in nations such as the United States, France, the United Kingdom, and Canada (Bórawski et al., 2024). Furthermore, annual global investment in nuclear power has experienced a notable escalation, soaring from US$30 billion throughout the 2010s to surpass US$100 billion by 2030, maintaining a robust trajectory above US$80 billion by 2050 (IEA, 2022). In 2022, global nuclear power capacity experienced a modest increase of approximately 1.5 GW, reflecting a marginal year-on-year growth of 0.3%. This expansion was primarily driven by new capacity additions that surpassed the retirement of an over 6 GW of existing capacity (Fernández-Arias et al., 2023; Mendelevitch et al., 2018). EMDEs accounted for approximately 60% of the new capacity additions, underscoring their increasing significance in the global nuclear energy landscape. Conversely, more than half of the retirements were observed in advanced economies, including Belgium, the United Kingdom, and the United States. Table 1 shows the nuclear power capacity by region in the NZE from 2018 to 2030.   In alignment with the Net Zero Scenario, it is imperative for the global nuclear capacity to undergo an expansion averaging approximately 15 GW per annum, constituting a growth rate slightly exceeding 3% annually, until 2030. This strategic augmentation is crucial for sustaining the contribution of the nuclear sector to electricity generation, maintaining its share at approximately 10% (Liu et al., 2023). Such an expansion necessitates concerted efforts in both advanced economies and EMDEs. Furthermore, prioritizing the extension of operational lifetimes of existing nuclear facilities within G7 member states would not only fortify the existing low-emission infrastructure, but also facilitate the integration of new nuclear capacity, thereby augmenting the overall nuclear energy portfolio. [...] The significant contribution of nuclear power to sustainable energy transitions is underscored by its multifaceted role in addressing the pressing challenges of climate change and energy security (Asif et al., 2024). As nations worldwide endeavor to shift toward greener energy systems, nuclear power has emerged as a critical pillar of the decarbonization journey. Its ability to provide low-carbon electricity, mitigate climate change impacts by 2050, and enhance energy security highlights its pivotal importance in the broader context of sustainable energy transitions (Bhattacharyya et al., 2023; NEA, 2015). Thus, to fully realize its potential, challenges such as safety, waste management, and public perception must be addressed effectively. By leveraging robust policy frameworks, technological advancements, and international collaboration, nuclear power is poised to play a vital role in shaping the future of sustainable energy transitions on a global scale. Furthermore, the dynamic landscape of nuclear power development is evident in the significant influence exerted by EMDEs, particularly China, which is expected to emerge as a leading nuclear power producer by 2030 (Fälth et al., 2021; Nkosi and Dikgang, 2021). Concurrently, advanced economies are witnessing notable expansions in nuclear power capacity driven by the commissioning of new facilities to offset retirements (Budnitz et al., 2018). This trend is further reinforced by a notable surge in annual global investment in nuclear power, underscoring the sustained commitment to nuclear energy's pivotal role in sustainable energy transitions in the foreseeable future (IEA, 2019). The primary objective of this article is to explore the strategic role of nuclear power in advancing global sustainability goals and achieving zero emissions. The objective is structured around the following key agendas: •Nuclear power: prominence and green electricity source•Nuclear's role in achieving net zero by 2050•Nuclear power's significance in power system adequacySpecific technologies for sustainability in nuclear energy production•Investment in nuclear power•Addressing policy implications This comprehensive analysis aims to provide actionable insights into harnessing nuclear power for sustainable electricity generation and its pivotal role in achieving global zero-emission targets. Data and methodology This article conducts an in-depth analysis of the role of nuclear power in achieving sustainable electricity generation and supporting NZE targets. The article also addresses the potential of nuclear energy as a prominent and environmentally favorable electricity source, examining nuclear power's contribution toward the net zero by 2050 goal, its critical importance in ensuring power system adequacy, investment imperatives, and the broader policy implications.  [...] Nuclear power: prominence and green electricity source In 2020, nuclear power will constitute approximately 10% of the global electricity generation portfolio. This proportion, which had previously stood at 18% during the late 1990s, has experienced a decline; nonetheless, nuclear energy retains its status as the second-largest provider of low-emission electricity, trailing only hydroelectricity, and serves as the primary source within advanced economies. Despite the substantial proliferation of wind and solar PV technologies, nuclear electricity production in 2020 surpassed the aggregate output of these renewable sources. As of 2021, the global cumulative installed nuclear capacity has reached 413 GW, with 270 GW of this total being installed in advanced economies (Guidi et al., 2023; Halkos and Zisiadou, 2023; Pan et al., 2023; Zhang et al., 2022). Nuclear power generation during this period amounted to 2653 TWh, positioning it as the second largest source of electricity generation after hydropower, which generated 4275 TWh, as depicted in Figure 1.   In addition to its significant role in power generation, nuclear energy plays a crucial role in mitigating carbon dioxide (CO2) emissions. Since the 1970s, nuclear power has helped avoid the global release of approximately 66 gigatons (Gt) of CO2 globally, as shown in Figure 2.   Without the contribution of nuclear power, cumulative emissions from electricity generation would have increased by approximately 20%, whereas total energy-related emissions would have increased by 6% over this period (Wagner, 2021). Advanced economies accounted for more than 85% of these avoided emissions, with the European Union accounting for 20 Gt and the United States for 24 Gt, representing over 40% and 25% of total electricity generation emissions, respectively. In the absence of nuclear power, Japan would have experienced an estimated 25% increase in emissions from electricity generation, whereas Korea and Canada would have seen an increase of approximately 50%. Nuclear's role in achieving net zero by 2050 Nuclear energy has emerged as a pivotal low-emission technology within the trajectory toward achieving NZE (Pioro et al., 2019). In addition, it serves as a complementary force, bolstering the accelerated expansion of renewables, thereby facilitating the reduction of emissions from the global electricity sector to net zero by 2040 (Krūmiņš and Kļaviņš, 2023; Islam et al., 2024). Beyond its intrinsic contribution to fostering a low-emission electricity supply, nuclear power is significant as a dispatchable generating asset, fortifying supply security through its provision of system adequacy and flexibility. Furthermore, it is instrumental in furnishing heat for district heating networks and in selecting industrial facilities. Despite this, the prospective role of nuclear energy hinges significantly on the deliberations and determinations of policymakers and industry stakeholders concerning the pace of new reactor construction initiatives and the continued operational lifespan of existing nuclear facilities (Li et al., 2016; Li et al., 2015).In terms of the NZE trajectory, the global nuclear power capacity exhibits a remarkable surge, nearly doubling from 413 GW at the onset of 2022 to 812 GW by 2050 (Price et al., 2023; Utami et al., 2022). This augmentation primarily stems from the vigorous initiation of new construction endeavors, which effectively counterbalance the gradual decommissioning of numerous extant plants. Such an escalation constitutes a pronounced acceleration in comparison to the preceding three decades, characterized by a mere 15% increment in capacity, equivalent to approximately 60 GW (Haneklaus et al., 2023; Obekpa and Alola, 2023; Sadiq et al., 2023). Figure 3 demonstrates the nuclear power capacity within each country/region under the NZE by 2050 scenario.   The expected growth in nuclear power capacity far exceeds the path outlined by the current policies and legal frameworks. According to the Stated Policies Scenario (STEPS), the nuclear capacity is projected to reach approximately 530 GW by 2050, which is 35% lower than that of the NZE pathway (Espín et al., 2023; Nicolau et al., 2023; Nnabuife et al., 2023; Wang et al., 2023). Without a significant shift from recent nuclear power development trends, achieving NZE would require a limited reliance on a smaller range of low-emission technologies. This could compromise energy security and lead to higher total investment costs, resulting in increased electricity prices for consumers. Table 2 shows the average annual capacity addition for global nuclear power in NZE from 1981 to 2030.   In 2022, the global deployment of new nuclear power capacity witnessed a notable upsurge, with 7.9 GW added, representing a substantial 40% increase compared to the preceding year (Ho et al., 2019). It is worth bearing in mind that China spearheaded this expansion by completing the construction of two reactors, maintaining its streak for consecutive years as the leading contributor to global nuclear power capacity augmentation. It is noteworthy that the projects were successfully completed in various other nations, including Finland, Korea, Pakistan, and the United Arab Emirates. Additionally, significant strides were made in the initiation of new construction endeavors, with the commencement of construction activities on five reactors in China, two reactors in Egypt, and one reactor in Turkey (Hickey et al., 2021). Nuclear power's significance in power system adequacy Nuclear power facilities have persistently underpinned the dependability of power systems, thereby bolstering the adequacy of the system. Across diverse national contexts, nuclear power plants have historically maintained operational readiness, manifesting availability rates consistently exceeding 90%, thereby demonstrating their reliability in power generation. Given that a substantial proportion of nuclear power capacity directly contributes to system adequacy metrics, its significance in fortifying system reliability and adequacy significantly outweighs its proportional contribution to the total power capacity (Orikpete and Ewim, 2024; Frilingou et al., 2023; Raj, 2023; Ragosa et al., 2024). The contribution of nuclear power to system adequacy is demonstrated by the consistent trajectory of its share within the aggregate dispatchable power capacity, hovering at around 8% between 2021 and 2050 within the NZE framework (IEA, 2022; OIES, 2024). Dispatchable electricity sources have historically constituted the primary mechanism for ensuring system adequacy, a trend that endures within the NZE paradigm, especially as electricity systems undergo evolution marked by an escalating reliance on variable solar photovoltaic (PV) and wind energy sources (Marzouk, 2024; Moon et al., 2024; Wisnubroto et al., 2023). It is indisputable that unabated fossil fuel resources predominantly dominate dispatchable capacity; however, their prominence clearly diminishes, declining by a quarter by 2030 within the NZE framework and experiencing a precipitous decline thereafter. Unabated coal-fired power, currently the most substantial dispatchable source, anticipates a decline exceeding 40% in operational capacity by 2030 and approaches a state of negligible contribution by the early 2040s. Conversely, the unabated natural gas-fired power capacity exhibits a sustained level of stability until 2030, primarily driven by the necessity to offset the diminishing role of coal; nonetheless, it subsequently undergoes a rapid descent throughout the 2030s. Oil, constituting a comparatively minor contributor, experiences rapid phasing out across most regions, except for remote locales, within the delineated scenario (Makarov et al., 2023; Ren et al., 2024). Figure 4 highlights the global capacity of dispatchable power categorized by category in the scenario of achieving NZE by 2050.   In this context, fossil fuels equipped with Carbon Capture, Utilization, and Storage (CCUS) technology have emerged as notable contributors to bolstering system adequacy. Yet, nuclear power remains a steady contributor to the power system flexibility. In advanced economies, the proportion of hour-to-hour flexibility is projected to increase from approximately 2% to 5% by 2050. Similarly, in EMDEs, this ratio is anticipated to increase from 1% to 3% over the same temporal span (Jenkins et al., 2018). It is worth highlighting that in France, where nuclear power fulfills the lion's share of electricity generation requisites, flexibility has been ingrained within reactor designs (Ho et al., 2019). This feature enables certain plants to swiftly modulate their output to align with the fluctuating electricity supply and demand, operating in a load-following mode (Chen, 2024; Jin and Bae, 2023; Kanugrahan and Hakam, 2023). Although many nations have not habitually engaged nuclear power in such operational dynamics, a considerable number of reactors are capable of performing load-following operations with minimal or no requisite technical adaptations (Caciuffo et al., 2020). Figure 5 demonstrates the hour-to-hour power system flexibility based on the source and regional grouping in the NZE by the 2050 scenario.   Innovation holds promise in enhancing the flexibility of nuclear power. Advanced technological advancements, such as SMRs, can facilitate nuclear reactors to adjust their electricity output with greater ease, as illustrated in Figure 6 (Ho et al., 2019; Lee, 2024; Wisnubroto et al., 2023). Moreover, these technologies offer the prospect of enabling reactors to transition toward generating heat or producing hydrogen either independently or concurrently with electricity generation. Initiatives are underway to disseminate information to policymakers and planners regarding the potential cost advantages associated with enhancing nuclear power flexibility.  Figure 6 demonstrates the nuclear system augmented by wind turbines for trigeneration.   Investment in nuclear power The renaissance of nuclear power within the NZE trajectory necessitates a substantial surge in investment in the coming decades. This surge is envisaged to encompass the construction of new nuclear reactors and extension of operational lifespans for existing facilities. Within this scenario, annual global investment in nuclear power is poised to escalate to exceed US$100 billion during the initial half of the 2030s within the NZE framework, surpassing the threefold average investment level of US$30 billion recorded during the 2010s (IEA, 2022). Subsequently, investment levels are expected to gradually decline as the imperative for dispatchable low emissions generating capacity diminishes, tapering to approximately US$70 billion by the latter half of the 2040s (Kharitonov and Semenova, 2023; Zimmermann and Keles, 2023). Over the period spanning from 2021 to 2050, the allocation of investment toward nuclear power constitutes a fraction representing less than 10% of the aggregate investment dedicated to low-emission sources of electricity (IEA, 2022). By comparison, within this framework, the annual investment in renewable energy experiences a notable escalation, escalating from an average of US$325 billion during the interval from 2016 to 2020 to US$1.3 trillion during the period 2031–2035 (EEDP, 2023; Rekik and El Alimi, 2024d). It is worth noting that the latter consideration elucidates the rationale behind the disproportionate allocation of investment toward advanced economies in later decades. China, for instance, requires an annual expenditure averaging close to US$20 billion on nuclear infrastructure by 2050, representing a nearly twofold increase compared to the average observed during the 2010s (Aghahosseini et al., 2023; Vujić et al., 2012). Conversely, other EMDEs witness a tripling of investment, reaching approximately US$25 billion per year, on average. In contrast to advanced economies, the imperative for investment in these nations is more pronounced in the period leading up to 2035 (Bhattacharyya et al., 2023; Khaleel et al., 2024). Thus, nuclear energy, despite its advantages as a low-carbon energy source, faces notable challenges. High capital costs and long deployment timelines, driven by complex construction and regulatory requirements, often hinder its adoption. The management of radioactive waste remains a costly and contentious issue, while safety concerns, shaped by historical incidents, continue to influence public perception. Additionally, reliance on uranium, with its geographically concentrated supply, raises geopolitical and environmental concerns. Nuclear power also competes with the rapidly advancing and cost-effective renewable energy sector, while decommissioning aging plants poses long-term financial and logistical burdens. Addressing these limitations through advanced technologies, public engagement, and international collaboration is crucial for enhancing nuclear energy's role in sustainable energy transitions. Technologies for sustainability in nuclear energy production The pursuit of sustainability in nuclear energy production has been supported by advancements in innovative technologies that enhance efficiency, safety, and environmental compatibility (Aktekin et al., 2024; Ali et al., 2024; Zheng et al., 2024; Khan et al., 2017). These technologies are crucial for positioning nuclear power as a key contributor to clean and sustainable energy transitions. Below are some of the most impactful technologies in this domain: Advanced nuclear reactors: Small modular reactors (SMRs): SMRs are compact, scalable, and safer than traditional large-scale reactors. Their modular design allows for deployment in remote locations, making them suitable for decentralized energy systems. Generation IV reactors: These reactors incorporate advanced cooling systems and fuel cycles to improve efficiency, safety, and waste reduction. Examples include sodium-cooled fast reactors and gas-cooled fast reactors. Thorium-based reactors: Thorium fuel cycle reactors use thorium-232 as an alternative to uranium, offering a more abundant and sustainable fuel source. Thorium reactors produce less nuclear waste and have a lower risk of proliferation. Fusion energy: Although still in the experimental stage, nuclear fusion promises to be a game-changing technology. Fusion produces minimal radioactive waste and harnesses abundant fuel sources like deuterium and tritium, making it a virtually limitless and clean energy solution. Molten salt reactors (MSRs): MSRs use liquid fuels or coolants, such as molten salts, which operate at lower pressures and higher temperatures. These reactors are inherently safer and have the capability to utilize a variety of fuel types, including spent nuclear fuel and thorium. Reactor safety enhancements: Passive safety systems: These systems enhance reactor safety by using natural forces like gravity, natural convection, or condensation to cool the reactor core without human intervention. Digital twin technologies: Digital simulations and monitoring of reactor systems allow for predictive maintenance and real-time safety management. Nuclear waste management technologies Fast reactors: These reactors can recycle spent fuel, reducing the volume and radioactivity of nuclear waste. Deep geological repositories: Advances in geotechnical engineering have improved the safety of long-term waste storage in deep geological formations. Hybrid nuclear-renewable systems: Combining nuclear power with renewable energy sources like wind and solar can optimize energy production and grid stability. Hybrid systems leverage the reliability of nuclear energy with the intermittency of renewables for a balanced, low-carbon energy mix. Artificial intelligence (AI) and machine learning: AI and machine learning technologies are being deployed to enhance reactor performance, optimize fuel usage, and improve operational safety. Predictive analytics also play a critical role in maintenance and risk assessment. Fuel advancements: High-assay low-enriched uranium (HALEU): HALEU fuels enable reactors to operate more efficiently and reduce waste. Accident-tolerant fuels (ATFs): These are designed to withstand extreme conditions, reducing the likelihood of core damage during accidents. Integrated energy systems: Nuclear reactors are increasingly being used for purposes beyond electricity generation, such as hydrogen production, district heating, and desalination. The integration of digital technologies, including AI and machine learning, coupled with fuel advancements like HALEU and accident-tolerant fuels, highlights the continuous evolution of the nuclear sector. These innovations not only enhance efficiency and safety but also expand the applications of nuclear energy beyond electricity generation to include hydrogen production, desalination, and district heating. Despite these technological advancements, the sustainable deployment of nuclear energy requires robust policy frameworks, increased investments, and public acceptance. Addressing these challenges is critical to unlocking the full potential of nuclear power in achieving global energy security and NZE by 2050. [...] Discussion and policy implications Nuclear power presents a compelling case as a sustainable energy source owing to its several key advantages. Its high-energy density allows for substantial electricity generation from minimal fuel, enabling continuous operation, unlike intermittent renewables, such as solar and wind (Rekik and El Alimi, 2023a, 2023b), thus contributing significantly to grid stability (Cramer et al., 2023). Furthermore, nuclear power is a crucial tool for emissions reduction, boasting virtually no greenhouse gas emissions during operation. Although lifecycle emissions associated with fuel processing and plant construction exist, they remain comparable to or lower than those of renewables. Several studies have reported on the energy production capabilities of nuclear power and its contribution to reducing greenhouse gas emissions compared to other energy sources. A key aspect of these analyses is quantifying the potential contribution of nuclear power to reducing greenhouse gas emissions and achieving net zero targets. However, direct comparison of reported data can be challenging due to variations in model assumptions, geographic scope, and time horizons.  [...] From another perspective, radioactive waste generation poses a significant challenge to nuclear power because of its long-term hazardous nature. This necessitates meticulous management and disposal strategies to mitigate potential social impacts. These impacts arise from perceived or actual risks to human health and the environment, fueling public anxiety and opposition to nuclear power, which is often expressed through protests and legal action (Kyne and Bolin, 2016; Nilsuwankosit, 2017; Ram Mohan and Namboodhiry, 2020). Additionally, communities near waste sites can experience stigmatization, resulting in decreased property values and social isolation. The persistent nature of radioactive waste also raises intergenerational equity issues, burdening future generations with its management (Deng et al., 2020; Mason-Renton and Luginaah, 2019). Thus, transparent communication and stakeholder engagement are crucial for building public trust and ensuring responsible radioactive waste management (Dungan et al., 2021; Sančanin and Penjišević, 2023). There are various radioactive waste disposal pathways, each with unique social and technical considerations. Deep geological disposal, an internationally favored method for high-level waste disposal, involves burying waste deep underground for long-term isolation. Interim storage provides a secure temporary holding until a permanent solution is obtained (Chapman, 1992; Grambow, 2022). Reprocessing spent nuclear fuel recovers reusable materials, reducing high-level waste but creating lower-level waste. Advanced reactor technologies aim to minimize waste and improve safety, potentially converting long-lived isotopes into shorter-lived isotopes (Dixon et al., 2020; Englert and Pistner, 2023). Choosing a disposal pathway requires careful evaluation of factors, such as waste type and volume, geology, feasibility, cost, and public acceptance, often leading to a combined approach. Ongoing community engagement and addressing concerns are essential to safe and responsible waste management. Effective management and disposal of this waste require advanced technological solutions, robust regulatory frameworks, and long-term planning to ensure safety and sustainability (Abdelsalam et al., 2024; Rekik and El Alimi, 2024a), Moreover, its relatively small land footprint compared to other energy sources, especially solar and wind farms, minimizes the ecosystem impact and makes it a sustainable option in densely populated areas (Poinssot et al., 2016; Sadiq et al., 2022). Nuclear power also enhances energy security by reducing reliance on fossil fuels, which is particularly valuable in countries with limited domestic resources (Cramer et al., 2023; Ichord Jr., 2022). Additionally, nuclear power exhibits synergy with other clean technologies, providing a stable baseload complementing variable renewables and facilitating hydrogen production for diverse energy applications (Abdelsalam et al., 2024; El-Emam and Subki, 2021; Salam and Khan, 2018; Rekik, 2024; Rekik and El Alimi, 2024e). Finally, ongoing advancements in reactor design, such as SMRs, promise enhanced safety, reduced costs, and greater deployment flexibility, further solidifying the role of nuclear power in decarbonizing the electricity sector (Aunedi et al., 2023). Supportive policies and international cooperation are essential for fully realizing the potential of nuclear energy. Streamlined licensing and regulatory frameworks are crucial for reducing deployment time and costs and ensuring that safety standards are met efficiently (Gungor and Sari, 2022; Jewell et al., 2019). Furthermore, incentivizing investments through financial tools such as tax credits and loan guarantees can attract private capital and create a level-playing field for nuclear power (Decker and Rauhut, 2021; Nian and Hari, 2017; Zimmermann and Keles, 2023). Addressing public perception through education and engagement is equally important for building trust and acceptance. Moreover, international cooperation is vital in several respects. The disposal of radioactive waste remains a complex issue, requiring careful long-term management and securing geological repositories to prevent environmental contamination owing to the long half-life of some isotopes. Furthermore, while modern reactors incorporate advanced safety features, the potential for accidents such as Chernobyl and Fukushima remains a concern because of the potential for widespread radiation release and long-term health consequences (Denning and Mubayi, 2016; Högberg, 2013; Wheatley et al., 2016). Moreover, the high initial costs associated with design, construction, and licensing present significant barriers to new nuclear projects, particularly in developing countries. In addition, the risk of nuclear proliferation, in which technology intended for peaceful energy production is diverted for weapons development, necessitates stringent international safeguards, as highlighted by following reference. Public perception also plays a crucial role because negative opinions and concerns about safety and waste disposal can create opposition to new projects. Finally, the decommissioning of nuclear plants at the end of their operational life is a complex and costly process that requires substantial resources and expertise to dismantle reactors and manage radioactive materials. [...] Conclusion The role of nuclear power in sustainable energy transition is multifaceted and significant. As nations worldwide strive to transition toward more environmentally friendly energy systems, nuclear power has emerged as a crucial component of the decarbonization journey. Its capacity to provide low-carbon electricity, mitigate climate change, and contribute to energy security underscores its importance in the broader context of sustainable energy transitions. Despite this, challenges such as safety, waste management, and public perception must be addressed to fully harness the potential of nuclear power to achieve sustainability goals. By leveraging policy frameworks, technological innovations, and international cooperation, nuclear power can play a vital role in shaping the future of sustainable energy transition on a global scale. In this context, EMDEs exert a substantial influence on global growth, collectively accounting for over 90% of the aggregate, with China positioned to emerge as the foremost nuclear power producer before 2030. Concurrently, advanced economies have witnessed a notable 10% increase in their nuclear power capacity. This augmentation is attributed to the commissioning of new facilities, which offset retirements, manifestly observed in nations such as the United States, France, the United Kingdom, and Canada. Furthermore, there is a marked escalation in annual global investment in nuclear power, surging from US$30 billion throughout the 2010s to surpass US$100 billion by 2030. This upward trajectory is robustly sustained, remaining above US$80 billion by 2050. In conclusion, the remarkable decline in the levelized cost of electricity (LCOE) for solar PV and wind power over the past decade has positioned renewable energy as a cost-competitive and viable alternative to fossil fuels in many regions. The over 80% reduction in LCOE for utility-scale solar PV from 2010 to 2022 exemplifies the economic feasibility of renewables. Concurrently, the steady growth in renewable energy capacity, spearheaded by solar and wind energy, underscores their critical role in the global energy transition. With renewable electricity capacity surpassing 3300 GW in 2023 and accounting for over one-third of the global power mix, renewable energy is undeniably at the forefront of efforts to achieve a sustainable, low-carbon energy future. Declaration of conflicting interestsThe authors declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.FundingThe authors received no financial support for the research, authorship, and/or publication of this article.ORCID iDSassi Rekik https://orcid.org/0000-0001-5224-4152Supplemental materialSupplemental material for this article is available online.ReferencesAbbasi K, Jiao Z, Shahbaz M, et al. (2020) Asymmetric impact of renewable and non-renewable energy on economic growth in Pakistan: New evidence from a nonlinear analysis. Energy Exploration & Exploitation 38(5): 1946–1967. Crossref. Web of Science.Abdelsalam E, Almomani F, Azzam A, et al. 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Energy & Economics
Alternative or renewable energy financing program, financial concept : Green eco-friendly or sustainable energy symbols atop five coin stacks e.g a light bulb, a rechargeable battery, solar cell panel

The Success of Climate Change Performance Index in the Development of Environmental Investments: E-7 Countries

by Başak Özarslan Doğan

Abstract Climate change is considered to be one of the biggest problems acknowledged globally today. Therefore, the causes of climate change and solutions to this problem are frequently investigated. For this reason, the purpose of this study is to empirically examine whether the ‘Climate Change Performance Index’ (CCPI) is successful in increasing environmental investments for E-7 countries with the data for the period of 2008–2023. To achieve this aim, the Parks-Kmenta estimator was used as the econometric method in the study. The study findings provide strong evidence that increases in the climate change performance support environmental investments. High climate change performance directs governments and investors toward investing in this area; therefore, environmental investments tend to increase. The study also examined the effects of population growth, real GDP and inflation on environmental investments. Accordingly, it has been concluded that population growth and inflation negatively affect environmental investments, while GDP positively affects environmental investments. 1. Introduction There is a broad consensus that the main cause of climate change is human-based greenhouse gas emissions from non-renewable (i.e., fossil) fuels and improper land use. Accordingly, climate change may have serious negative consequences as well as significant macroeconomic outcomes. For example, an upward trend of temperatures, the rising sea levels, and extreme weather conditions can seriously disrupt the output and productivity (IMF, 2008a; Eyraud et al., 2013). Due to the global climate change, many countries today see environmental investments, especially renewable energy investments, as an important part of their growth strategies. Until recent years, the most important priority of many countries was an improvement in the economic growth figures. Still, the global climate change and the emergence of many related problems are now directing countries toward implementing policies which would be more sensitive to the environment and would ensure sustainable growth rather than just increase the growth figures. (Baştürk, 2024: 327). The orientation of various countries to these policies has led to an increase in environmental investments on a global scale. A relative rise of the share of environmental investments worldwide is not only a medium-term climate goal. It also brings many new concepts to the agenda, such as an increasing energy security, reduction of the negative impact of air pollution on health, and the possibility of finding new growth resources (Accenture, 2011; McKinsey, 2009; (OECD), 2011; PriceWaterhouseCoopers, 2008; Eyraud et al., 2013). Today, environmental investments have a significant share in energy and electricity production. According to the World Energy Outlook (2023), investments in environmentally friendly energies have increased by approximately 40% since 2020. The effort to reduce emissions is the key reason for this increase, but it is not the only reason. Economic reasons are also quite strong in preferring environmental energy technologies. For example, energy security is also fundamentally important in the increase in environmental investments. Especially in fuel-importing countries, industrial plans and the necessity to spread clean (i.e., renewable) energy jobs throughout the country are important factors (IEA WEO, 2023).  In economic literature, environmental investments are generally represented by renewable energy investments. Accordingly, Figure 1 below presents global renewable energy electricity production for 2000–2020. According to the data obtained from IRENA (2024) and Figure 1, the total electricity production has increased by approximately 2.4% since 2011, with renewable energy sources contributing 6.1% to this rate, while non-renewable energy sources contributed 1.3%. In 2022 alone, renewable electricity grew by 7.2% compared to 2021. Solar and wind energy provided the largest growth in renewable electricity since 2010, which reached 11.7% of the global electricity mix in 2022.   Figure 2 below presents renewable energy investments by technology between 2013 and 2022. As shown in Figure 2, photovoltaic solar. and terrestrial wind categories are dominating, accounting for 46% and 32% of the global renewable energy investment, respectively, during 2013–2022.   Economic growth supported by environmental investments is impacted by the type and number of energy used to increase the national output. Thus, both the environmental friendliness of the energy used and the rise in energy efficiency is bound to reduce carbon emissions related to energy use and encourage economic growth (Hussain and Dogan, 2021). In this context, in order to minimize emissions and ensure sustainable economic growth, renewable energy sources should be used instead of fossil resources in energy use. Increasing environmental investments on a global scale, especially a boost in renewable energy investments, is seen as a more comprehensive solution to the current global growth-development and environmental degradation balance. In this context, as a result of the latest Conference of the Parties held in Paris, namely, COP21, it was envisaged to make an agreement covering the processes after 2020, which is accepted as the end year of the Kyoto Protocol. On December 12, 2015, the Paris Agreement was adopted unanimously by the countries that are parties to the UN Framework Convention on Climate Change (Kaya, 2020). As a result of the Paris Agreement and the reports delivered by the Intergovernmental Climate Change Panels, international efforts to adapt to the action to combat climate change and global warming have increased, and awareness has been raised in this area (Irfan et al., 2021; Feng et al., 2022; Anser et al., 2020; Zhang et al., 2021; Huang et al., 2021; Fang, 2023). The rise in the demand for low-carbon energy sources in economies has been caused by environmental investments such as renewable energy investments. The countries that are party to the Paris Agreement, commit to the way to achieve efficient energy systems through the spread of renewable energy technologies throughout the country (Bashir et al., 2021; Fang, 2023). This study empirically examines the impact of the climate change performance on increasing environmental investments for E-7 countries. The climate change performance is expressed by the ‘Climate Change Performance Index’ (CCPI) developed by the German environmental and developmental organization Germanwatch. The index evaluates the climate protection performance of 63 developed and developing countries and the EU annually, and compares the data. Within this framework, CCPI seeks to increase clarity in international climate policies and practices, and enables a comparison of the progress achieved by various countries in their climate protection struggle. CCPI evaluates the performance of each country in four main categories: GHG Emissions (40% overall ranking), Renewable Energy (20%), Energy Use (20%), and Climate Policy (20%). In calculating this index, each category of GHG emissions, renewable energy, and energy use is measured by using four indicators. These are the Current Level, the Past Trend, the Current Level Well Below 2°C Compliance, and the Countries’ Well Below 2°C Compliance with the 2030 Target. The climate policy category is evaluated annually with a comprehensive survey in two ways: as the National Climate Policy and the International Climate Policy (https://ccpi.org/methodology/).  Figure 3 below shows the world map presenting the total results of the countries evaluated in CCPI 2025 and their overall performance, including the four main categories outlined above.   As it can be seen from Figure 3, no country appears strong enough to receive a ‘very high’ score across all categories. Moreover, although Denmark continues to be the highest-ranking country in the index, but it still does not perform well enough to receive a ‘very high’ score overall. On the other hand, India, Germany, the EU, and the G20 countries/regions will be among the highest-performing countries/regions in the 2024 index. When we look at Canada, South Korea, and Saudi Arabia, they are the worst-performing countries in the G20. On the other hand, it can be said that Türkiye, Poland, the USA, and Japan are the worst-performing countries in the overall ranking. The climate change performance index is an important criterion because it indicates whether the change and progress in combating climate change is occurring across all countries at an important level. The index is important in answering various questions for countries under discussion. These questions are expressed below:  • In which stage are the countries in the categories in which the index is calculated?• What policies should countries follow after seeing the stages in which they are in each category? • Which countries are setting an example by truly combating climate change? These questions also constitute the motivation for this study. The sample group for the study was selected as E-7 countries, which are called the Emerging Economies; this list consists of Türkiye, China, India, Russia, Brazil, Mexico, and Indonesia. The reason for selecting these particular countries is that they are undergoing a rapid development and transformation process, and are also believed to be influential in the future with their increasing share in the world trade volume, huge populations, and advances in technology. Besides that, when the relevant literature has been examined, studies that empirically address the relative ranking of the climate change performance appear to be quite limited. In particular, there are almost no studies evaluating the climate change performance index for the sample group considered. Therefore, it is thought that this study will be of great importance in filling this gap in the literature. The following section of the study, which aims to empirically examine whether the climate change performance is effective in developing environmental investments in E-7 countries, includes national and international selected literature review on the subject. Then, the model of the study and the variables chosen in this model are introduced. Then, the findings obtained in the study are shared, and the study ends with discussion and policy proposal. 2. Literature Review 2.1. Studies on environmental investment  The excessive use of fossil-based energy sources, considered non-renewable and dirty energy, along with industrialization, constitutes a large part of carbon emissions and is regarded as the main reason of climate change. Thus, countries have turned to renewable energy investments with the objective to minimize the reaction of climate change and global warming, by introducing technologies which are considered more environmentally friendly and cleaner. Global energy investments are estimated to exceed 3 trillion US dollars by the end of 2024, and 2 trillion US dollars of this amount will go to clean and environmentally friendly energy base technologies and infrastructure. Investment in environmentally friendly energy has been gaining speed since 2020, and the total expense on renewable energy, networks, and storage now represents a higher figure than the total spending on oil, gas, and coal (IEA, 2024). When the energy economics literature is examined, since environmental investments are mostly represented by renewable energy investments, renewable energy investments studies and studies in related fields shall be discussed in this study section. One of the important studies in this field is the work of Eyraud et al. (2013). In the study, the authors analyzed the determinants of environmental and green (clean) investments for 35 developed and developing countries. Accordingly, they stated in the study that environmental investment has become the main driving force of the energy sector, and China has generally driven its rapid growth in recent years. In addition, in terms of the econometric results of the study, it has been found that environmental investments are supported by economic growth, a solid financial system suitable for lower interest rates, and higher fuel prices. Fang (2023) examined the relationship between investments in the renewable energy sector, the economic complexity index, green technological innovation, industrial structure growth, and carbon emissions in 32 provinces in China for the period of 2005–2019 by using the GMM method. Based on the study results, the economic complexity index causes an increase in China’s carbon dioxide levels. On the contrary, all of the following – the square of the economic complexity index, investments in clean energy, green technical innovation, and the industrial structure – were found to help decrease carbon dioxide emissions. Another important study in this field is the work of Masini and Menichetti (2013). The authors examined the non-financial sources of renewable energy investments in their study. Accordingly, the study results show that knowledge and confidence in technological competence positively impact renewable energy investments. In addition, trust in policy measures only impacts PV (Photovoltaic) and hydropower investments, whereas institutional pressure negatively impacts renewable energy investments. Finally, the study stated that experienced investors are more likely to fund innovations in renewable energy. One of the important studies on renewable energy investments is the work of Ozorhon et al. (2018). To support and facilitate the decision-making process in renewable energy investments, the authors determined the main criteria affecting investors’ decisions by reviewing the literature and examining sector-level practices. According to the findings, economic criteria, like policies and regulations, funds availability, and investment costs were the most important factors in the decision-making process for renewable energy investments. Xu et al. (2024) examined the relationship between the renewable energy investments and the renewable energy development with a threshold value analysis for China. According to the results, impact of the clean (renewable) energy investment on renewable energy development has a significant threshold value, and the general relation between them is a ‘V’ type non-linear relation. At this point, the study suggests that the state should keep spending in the segment of investments in clean energy, increase the financial proficiency, and ensure an efficient financial infrastructure for clean energy in China. 2.2. Studies on Climate Change and their Impact on Economic Variables  The widespread use of fossil-based energy sources, considered dirty energy, continues to create a negative externality in carbon emissions despite the globally implemented policies like the Kyoto Protocol and the Paris Agreement (Rezai et al., 2021). The economic literature on climate change focuses particularly on the adverse effect of climate change on the economy. One of the important studies in this field is the study of Fan et al. (2019). In their study, the authors focused on the impact of climate change on the energy sector for 30 provinces in China and conducted their research with the help of a fixed-effect regression feedback model. As a result of the study, it was found that hot and low-temperature days positively affected the electricity demand. On the other hand, Singh et al. (2022) examined the effects of climate change on agricultural sustainability in India with data from 1990–2017. On the grounds of the study, it was found that India’s agricultural sector was negatively impacted by the climate change. In this regard, it is stated that India needs to take powerful climate policy action so that to reduce the adverse effect of the climate change and increase its sustainable agricultural development. One of the important studies in this field is the study of Gallego-Alvarez et al. (2013). This study investigated how the climate change affects the financial performance with a sample of 855 international companies operating in sectors with high greenhouse gas/ CO2 emissions from 2006–2009. The results reveal that the relationship between the environmental and financial performance is higher in times of economic crisis triggered by climate crisis. In other words, these results show that companies should continue investing in sustainable projects in order to achieve higher profits. Kahn et al. (2021) examined the long-term macroeconomic impact of the climate change by using a panel data set consisting of 174 countries between 1960 and 2014. According to the findings, the amount of output per capita is negatively affected by temperature changes, but no statistically significant effect is observed for changes in precipitation. In addition, according to the study’s results, the main effects of temperature shocks also vary across income groups. Alagidede et al. (2015) examined the effect of climate change on sustainable economic growth in the Sub-Saharan Africa region in their study. The study stated that the relationship between the real GDP and the climate change is not linear. In addition, Milliner and Dietz (2011) investigated the long-term economic consequences of the climate change. Accordingly, as the economy develops over time, and as progress is achieved, this situation will automatically be less affected by the adverse impact of the climate change. Structural changes made with economic development will make sectors more sensitive to the climate change, such as the agricultural sector, which would become stronger and less dependent. Dell et al. (2008) examined the effect of climate change on economic activity. The study’s main results are as follows: an increase of temperatures significantly decreases economic growth in low-income countries. Furthermore, increasing temperature does not affect economic growth in high-income countries. On the other hand, when examining the effects of climate change on the economy, the study of Zhou et al. (2023) is also fundamentally important. Zhou et al. (2023) examined the literature on the effects of climate change risks on the financial sector. In the studies examined, it is generally understood that natural disasters and climate change reduce bank stability, credit supply, stock and bond market returns, and foreign direct investment inflows. In their study for Sri Lanka, Abeysekara et al. (2023) created a study using the general equilibrium model ORANI-G-SL with the objective to investigate the economic impacts of the climate change on agricultural production. The study findings suggest that reductions in the production of many agricultural products will lead to increases in consumer prices for these agricultural commodities, resulting in a decrease in the overall household consumption. The projected decrease in crop production and increases in food prices will increase the potential for food insecurity Another important document in this field is the study by Caruso et al. (2024) examining the relationship between the climate change and human capital. The study findings reveal a two-way result regarding the effects of the climate change damages and the effects of climate change mitigation and adaptation on the human capital. Accordingly, the climate change has direct effects on health, nutrition and welfare, while changes in markets and damage to the infrastructure are expressed as indirect effects. In addition to these studies, the uncertainty of the climate change policies also exerts an impact on economic factors. Studies conducted in this context in recent years have also enriched the literature on the climate change. For example, Çelik and Özarslan Doğan (2024) examined the effects of uncertainty of the climate change policies on economic growth for the USA by using the ARDL bounds test. Their results confirmed the existence of a positive and statistically significant relationship between the climate policy uncertainty and economic growth in the USA. 3. Model Specification  This study empirically examines whether the climate change performance index successfully develops environmental investments in E-7 countries. For further details related to the mathematical model check https://doi.org/10.15388/Ekon.2025.104.2.6 4. Conclusion and Policy Implications  Today, many national and international initiatives are within the scope of combating global warming and climate change. In addition, many developed and developing countries are differentiating their growth and development policies with the objective to prevent these disasters. Although they vary from country to country, as well as from region to region, these policies mostly represent those policies which reduce carbon emissions and ensure energy efficiency. At this point, the key factor is renewable energy investments, which represent environmentally friendly investments. However, according to Abban and Hasan (2021), the amount of environmentally friendly investments is not the same in every country. This is because the determinants of environmentally friendly investments vary from country to country. While financial and economic factors are more encouraging in increasing these investments in some countries, international sanctions are the driving force in this regard in some other countries as well. This study aims to empirically examine whether CCPI is effective in the success of environmental investments in the E-7 countries in the period of 2008–2023 with the help of the Parks-Kmenta estimator. In this direction, the study’s dependent variable is environmental investments, represented by renewable energy investments. On the other hand, the climate change performance is represented by the ‘Climate Change Performance Index’ calculated by Germanwatch, which constitutes the main independent variable of the study. Other control variables considered in the study are the population growth, the real GDP per capita, and inflation. The study findings provide strong evidence that increases in the climate change performance support environmental investments. High-rate climate change performance drives governments and investors toward investing in this area; thus, environmental investments tend to increase. These results are consistent with the study results of Raza et al. (2021). As a result of their study, Raza et al. (2021) stated that the climate change performance is an important channel for the general environmental change, and that renewable energy has a very important role in this regard.  In addition, the study concludes that population growth and inflation negatively affect environmental investments. These results are consistent with Suhrab et al. (2023), but not with Yang et al. (2016). While Suhrab et al. (2023) obtained results regarding the negative effects of inflation on green investments, Yang et al. (2016) focused on the positive effect of population on renewable energy. Finally, the effect of the real GDP per capita on environmental investments has been found to be positive. These results are also consistent with Tudor and Sova (2021). The authors found that Real GDP encourages green investments. This study offers policymakers a number of policy recommendations. These are presented below. • One of the important factors affecting the climate change performance is the raising of awareness of the populations in these countries at this point, and providing them with the knowledge to demand clean energy. In this way, consumers, would demand environmental energy, and investors would invest more in this area. This is of great importance in increasing environmental investments. • The climate change performance also shows how transparent the energy policies implemented by countries are. Therefore, the more achievable and explanatory are the goals of policy makers in this regard, the more climate change performance will increase, which will strengthen environmental investments. • Moreover, the initial installation costs are the most important obstacles on the way toward developing environmental investments. At this point, the country needs to develop support mechanisms that would encourage investors to invest more. • Environmental investments, similar to other types of physical investments, are greatly affected by the country’s macroeconomic indicators. At this point, a stable and foresighted economic policy will encourage an increase in such investments. The countries in the sample group represent developing countries. Therefore, in many countries in this category, the savings rates within the country are insufficient to make investments. 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Energy & Economics
Antipolo City, Philippines - June 1, 2020: RIder use motorcycle to deliver multiple tanks of LPG or liquified petroleum gas to a customer..

Philippines bets on natural gas to accelerate renewable energy

by Gaea Katreena Cabico

한국어로 읽기 Leer en español In Deutsch lesen Gap اقرأ بالعربية Lire en français Читать на русском Climate campaigners label law paving way for natural gas promotion an “insult” as fishers warn of environmental devastation Wilma Abanel is worried about falling fish numbers in the waters she has long relied upon for a living. The Verde Island Passage is a biodiversity hotspot off the coast of Luzon Island in the Philippines. Abanel attributes the decline in the passage to the growing number of liquefied natural gas (LNG) facilities, which she says are damaging marine sanctuaries. “In the past, before the plants were built, our catches were plentiful and we didn’t worry about our daily expenses. We also had no problems sending our children to school,” Abanel said. “But when these plants started to increase, we faced a big problem because it’s not just our livelihood and income that are affected here. More than anything, it’s the destruction of the environment and the impact on our health,” she added. LNG is a natural gas that has been cooled into a liquid that is easier and safer to store and transport over long distances. Once LNG arrives at import terminals, it is warmed up and converted back into gas. From there, the gas is sent through pipelines to homes or power plants, where it is burned to generate electricity. In early January, President Ferdinand Marcos Jr signed the Philippine Natural Gas Industry Development Act, to promote the development of the country’ natural gas as a “safe, efficient, and cost-effective” fuel for power plants and an “indispensable contributor” to energy security. The new law aims to promote natural gas as a “transition” fuel to intermittent renewable energy. Through the measure, the Philippines is not only positioning itself as a key LNG importer but also prioritising locally sourced gas to reduce reliance on foreign supply. Senator Pia Cayetano, who authored the law, explained that securing a steadier local supply would reduce the country’s vulnerability to price fluctuations caused by geopolitical conflicts like Russia’s war in Ukraine. She pointed out that natural gas exploration has declined significantly over the decades. More than 150 wells were drilled in the Philippines in the 1970s, but none have been since 2019, she said. The exploration efforts of Philippine petroleum company PXP Energy Corp, in Reed Bank, a resource-rich area in the West Philippine Sea, have been stalled for years due to a maritime dispute with China, which claims the area as its own. Since 2001, the Malampaya gas field off the western province of Palawan has been providing fuel to power plants that produce roughly a fifth of the country’s electricity. It is expected to run dry by 2027, forcing the Philippines to seek alternative energy sources.  “Malampaya was supposed to be the first of many producing gas fields in the Philippines, but it turned out to be the only one,” Cayetano said in a release. “The country needs more Malampayas: we barely have one left.” However, energy analysts and environmental advocates argue that doubling down on natural gas could still force the country to depend on fossil fuels and further delay the transition to clean energy. Krishna Ariola, an energy campaigner with the Center for Energy, Ecology, and Development, a Philippine think-tank, said: “The [law] is a clear indicator that this is a detour from what was committed by the president with regards to renewable-energy commitments in his previous State of the Nation Addresses. This just looks like a bridge to nowhere.” In his previous addresses, Marcos said the government is actively promoting renewable energy to help the Philippines reach its goal of increasing the share of clean energy in the power mix to 35% by 2030 and 50% by 2040. Problem, not solution The role of natural gas in powering the Philippines is “driving this idea that we need to quickly replace” domestically produced natural gas with LNG,” said Sam Reynolds, an energy finance analyst with the Institute for Energy Economics and Financial Analysis (IEEFA). Although burning natural gas releases considerably less carbon dioxide than coal or oil, critics point out that it remains a major source of planet-warming emissions. It can also release methane, a greenhouse gas more than 10 times as potent as carbon dioxide over a 20-year period, during extraction, transport and processing. Relying on LNG can also lock nations into long-term fossil-fuel infrastructure like import terminals and gas-fired power plants. To limit warming to 1.5C, the world needs to rapidly phase out fossil fuels, including LNG, and fully transition to renewables, scientists stress. Verde Island Passage, where Abanel fishes, hosts five of the six operating gas plants in the Philippines, along with two LNG terminals, and over a dozen other proposed projects. The passage is situated in the Coral Triangle, a region spanning six countries in Southeast Asia and Melanesia that harbours 76% of the world’s known coral species and over 2,000 species of coral reef fish. There are 19 LNG terminals in the Coral Triangle. A report by US nonprofits Earth Insight and SkyTruth warned that expanding gas infrastructure increases the risk of harm from water pollution, heightened shipping traffic, and oil spills, all of which threaten marine ecosystems and local livelihoods. According to the report, over 100 offshore oil and gas blocks are currently producing in the Coral Triangle, with over 450 additional blocks being explored for future extraction. If all existing blocks were to go into production, approximately 16% of the biodiverse region would be directly impacted by oil and gas development. “The Philippines has the second-highest number of oil slicks from transiting vessels in the Coral Triangle. With a large amount of oil and gas blocks in the exploration phase, there is still an opportunity to change course and defend its many sensitive habitats,” the report noted. Under the new legislation, the Philippine Department of Environment and Natural Resources (DENR) is ordered to establish national standards for methane emissions and other pollutants from the natural gas industry not regulated by existing laws. The DENR must also determine and monitor compliance with the environmental standards for the siting, construction, operation and maintenance, expansion, rehabilitation, decommissioning, and abandonment of natural gas facilities. The path from fossil fuels On the day he returned to the White House, Donald Trump lifted a freeze on processing export permits for new LNG projects. IEEFA’s Reynolds said the move’s impact on the Philippines would be minimal, but would add to the “volatility of LNG even more”. “We’re already seeing that play out with China. LNG becomes the target of trade bullying and retaliation, and it creates, overall, a much more uncertain environment,” said Reynolds. “I think that’s going to be very important for the Philippines to consider. Much of its LNG is coming from the United States but to what extent does Trump even exacerbate some of the challenges that the fuel was already facing?” he added. China is the world’s largest buyer of LNG, while the US is the largest exporter. But China has not imported any LNG from the US since February when Trump announced tariffs on the country, reports Nikkei Asia. Many US LNG contracts are set to begin in the coming years but much of this supply may not reach China due to the tariffs, said Reynolds. So Reynolds thinks China will resell increasing volumes of the US LNG they are contracted to buy. “I think that could drive a larger push into Southeast Asia on behalf of Chinese traders.” China National Offshore Oil Corp, the largest offshore oil and gas producer in China, is already supplying LNG to Filipino energy provider First Gen Corporation. As the world warms and the Philippines continues to face devastating climate disasters, gas should have no place in the country’s energy future, environmentalists and clean energy advocates argue. They say the Philippines, one of the most climate-vulnerable nations, must instead prioritise renewable energy. The timing of the law’s passage “can almost be interpreted as an insult to the many who have suffered and continue to suffer from recent climate disasters,” said Jefferson Chua, campaigner at Greenpeace Philippines, referring to the six consecutive tropical cyclones that hit the country in late October and November 2024. “The president must use his significant influence to reverse this decision and improve the policy and infrastructure environment for renewable energy. His administration must mandate a net-zero target that would ensure the phase out of coal, oil and gas and start enabling the transition of energy systems towards a massive uptake of renewables,” he added. CEED’s Ariola said renewable energy should be the country’s “exit plan” from fossil-fuel dependence. “Without the Philippine government tapping our massive potential for renewable energy, we will always be in a revolving door with fossil fuels,” she said. “The industry will keep going back between coal and gas and probably, in the future, other false solutions, unless we’re able to displace them. Unless we allow renewable energy to become dominant.” Abanel, the fisher from Batangas, could only plead for the gas infrastructures in her community to cease operation and for the government to protect Verde Island Passage. “The life of Verde Island Passage is intertwined with our survival. If it gets destroyed, we’ll have nothing left,” she said. This article was originally published on Dialogue Earth under the Creative Commons BY NC ND licence.

Energy & Economics
 March 28, 2018, the US and Chinese flags and texts at a studio in Seoul, Korea. An illustrative editorial. trade war

International trade war - Spice Road against Silk Road

by Joon Seok Oh

한국어로 읽기 Leer en español In Deutsch lesen Gap اقرأ بالعربية Lire en français Читать на русском AbstractPurpose The purpose of this paper is to analyse the international political economy of Korea and its effects due to geopolitical tension between China and the USA. Design/methodology/approach Economic war between China and the USA has prolonged longer than expected. Aftermath of the COVID-19 pandemic, reforming the supply chain has been the centre of economic tension between China and the USA. Quite recently, with the rapid expansion of Chinese e-commerce platforms, distribution channels come upon a new economic tension between the two. And now is the time to pivot its pattern of conflict from competition into cooperation. In this end, economic diplomacy could be a useful means to give a signal of cooperation. From the view of economic diplomacy, this paper tries to analyse the projected transition of economic war between China and the USA with its implication on the trade policy of Korea. Findings As an implementation of economic diplomacy, China suggested the Belt and Road Initiative (BRI), enhancing trade logistics among related countries to gain competitiveness. In 2023, the Biden administration suggested the India-Middle East and Europe Economic Corridor as a counter to BRI, which will be a threshold for changing trade policy from economic war into economic diplomacy. As a result, it is expected China and the USA will expand their economic diplomacy in a way to promote economic cooperation among allied states, while the distribution channel war would continue to accelerate the economic tension between China and the USA. Korea has to prepare for and provide measures handling this geopolitical location in its trade policy or economic diplomacy. Originality/value This research contributes to the awareness and understanding of trade environments from the perspective of economic diplomacy. 1. Introduction The advent of globalisation has led to widespread economic integration, creating global production networks and markets. However, the COVID-19 pandemic has acted as a significant setback to this trend. In the wake of COVID-19, an economic war has arisen between China and the USA, centred on the restructuring of global supply chains following widespread disruptions. International political economy (IPE) examines the power dynamics between states and the structures of influence within regional economies. Consequently, economic diplomacy has gained unprecedented attention. Economic diplomacy focuses on government actions regarding international economic issues, distinct from political diplomacy through its market-oriented approach in foreign policy. Putnam (1988) categorises economic diplomacy into two levels: unilateralism and bilateralism. Unilateral economic diplomacy (or unilateralism) often relies on hard power, involving decisions on trade liberalisation or market protection without negotiation. Bilateral economic diplomacy (or bilateralism) or multilateral economic diplomacy (or multilateralism), by contrast, involves negotiation among trade partners, resulting in agreements such as regional or global free trade agreements (FTAs). A vast range of state or non-state actors engage in economic diplomacy, navigating the complex interplay between international and domestic factors. Defining economic diplomacy is extremely challenging, but one useful definition is “the broad concept of economic statecraft, where economic measures are taken in the pursuit of political goals, including punitive actions such as sanctions” (Blanchard and Ripsman, 2008).  Figure 1 Recent trend of economic diplomacy To exert influence internationally, ministers and heads of government strive to demonstrate their capacity for national security through two primary approaches, as shown in Figure 1 (above): economic war (or competition) and economic diplomacy (or international cooperation). In the context of global supply chain restructuring, the economic conflict between China and the USA has intensified, marked by threats of supply chain disruptions. This has led to emerging strategies aimed at “crowding out” the USA from global supply chains (去美戰略) or excluding China through alliances such as the Allied Supply Chain and Chip 4. While economic war is inherently “temporary” due to its painstaking nature, economic diplomacy or international cooperation offer a more “long-term” approach because it is gains-taking. This paper analyses the factors contributing to the prolonged nature of this economic war and explores potential outcomes of the supply chain tensions between China and the USA from the perspectives of IPE or geo-economics. In conclusion, it highlights the importance of preparing for trade policy adjustments and strategic economic diplomacy. 2. International trade war and strategic items2.1 Supply chain The supply chain encompasses a network of interconnected suppliers involved in each stage of production, from raw materials and components to the finished goods or services. This network can include vendors, warehouses, retailers, freight stations and distribution centres. Effective supply chain management is a “crucial process because an optimised supply chain results in lower costs and a more efficient production cycle” [1]. Within the supply chain, a leading company typically holds governance power, enabling it to coordinate scheduling and exercise control across the interconnected suppliers, resulting in reduced costs and shorter production times (Gereffi et al., 2005) [2]. Since the 2000s, forward and backward integration have been key strategies for managing time, cost and uncertainty in supply chains. For example, Toyota’s Just-In-Time (JIT) system demonstrated the efficiency of locally concentrated supply chains until disruptions from the 2011 East Japan Earthquake and the Thailand flood. Following supply chain shutdowns in 2020, many businesses shifted from local to global supply chains, utilising advancements of the information technology (IT) and transportation technologies to geographically diversify operations. As the need for a systematically functioning global supply chain has grown, a leading nation, much like a leading company, often assumes governance power in international trade and investment, as illustrated in Figure 2 (below), by aligning with the leadership of a dominant market competitiveness, which makes this leadership valuable.  Figure 2 Supply chain The COVID-19 pandemic dealt a severe blow to the global supply chain, causing sudden lockdowns that led to widespread supply chain disruptions. To mitigate the risks of future global disruptions, supply chains have begun restructuring to operate on a more regionally segmented basis. In this shift toward regional supply chains, China and the USA are at the centre, drawing allied countries within their spheres of influence. This alignment helps explain why the economic war between China and the USA has lasted longer than anticipated. 2.2 Strategic items China has restricted exports of two rare metals, gallium and germanium, which are critical to semiconductor production. Kraljic (1983) highlighted the importance of managing “strategic items” within the framework of supply chain management, as shown in Figure 3. Kraljic emphasises the need to strengthen and diversify critical items. The Kraljic matrix provides a valuable tool for identifying essential items that require focused management within the supply chain.  Figure 3 Kraljic matrix Kraljic identified the importance of managing “bottleneck items” in strategic supply chain management – items that present high supply risk but have relatively low business value. Due to the potential costs associated with non-delivery or compromised quality of strategic items, these must be closely monitored and controlled. From a risk management perspective, establishing medium-term business relationships and collaboration with suppliers is essential. For example, South Korea imports over 90% of its urea for agricultural and industrial purposes from China [3]. Heavily dependent on China for urea supplies due to pricing factors, Korea faced challenges when China imposed export controls on urea, underscoring Korea’s vulnerability within China’s sphere of influence. The European Union (EU) also faces challenges with critical raw materials (CRMs). China remains the EU’s sole supplier of processed rare earth elements, while Chile supplies 79% of its lithium. In response, the EU introduced the CRM Act (CRMA) to support projects aimed at increasing “the EU’s capacity to extract, process, and recycle strategic raw materials and diversify supplies from the third countries” [4]. 2.3 Resilient supply chain alliance In contrast to China’s approach of leveraging supply disruptions to strengthen its influence, the Biden administration in the USA has adopted a cooperative approach focused on building resilient supply chains (Pillar 2) through the Indo-Pacific Economic Framework (IPEF), which includes 14 member countries [5]. The need for resilient supply chains has been further underscored by the Russia–Ukraine crisis. The IPEF aims to address supply chain vulnerabilities by fostering global efforts to reduce risks associated with concentrated, fragile supply chains [6].  Figure 4 Resilient supply chain alliance In Figure 4, the EU Commission presented the Single Market Emergency Instrument (SMEI) in September 2022, a crisis governance framework designed to ensure the availability of essential goods and services during future emergencies. The SMEI operates on three levels: contingency planning, vigilance and emergency. The contingency planning phase focuses on collaboration among member states to mitigate supply chain disruption and monitor incidents. The vigilance phase can be activated when a significant disruption is anticipated, enabling specific measures such as mapping and monitoring supply chains and production capacities. Finally, the emergency phase is activated in cases of severe disruption to the functioning of the single market [7]. Establishing a resilient supply chain through international cooperation may be appealing, yet the reality often falls short of the ambition. In South Korea, the IPEF took effect on 17 April 2024, after an extended negotiation process, marking the first multilateral agreement on supply chains. As a result, during non-crisis periods, the 14 member countries will collaborate to strengthen international trade, investment and trade logistics. In times of crisis, member countries will activate a “crisis response network”. Conversely, opportunities for negotiation with China, South Korea’s largest trading partner, are essential for building supply chain resilience [8]. China has pursued an industrial policy focused on enhancing its supply chain management capabilities. In the semiconductor sector, the decoupling between China and the USA has become increasingly evident. Contrary to expectations, China has adopted a policy of internalising its supply chains, returning to the integration strategies of the 2000s rather than furthering globalisation. A promising opportunity for transformation between the two countries has emerged recently. Since 2015, China and South Korea have maintained bilateral FTA, and with the second phase of FTA negotiations currently underway, there is an opportunity to strengthen trade and investment ties, fostering positive progress through international cooperation. 2.4 China manufacturing exodus During the COVID-19 pandemic, China imposed sudden lockdowns without prior notice or preparation, halting production and logistics cycles. This “zero COVID” policy may have triggered a shift towards “de-risking” China from supply chain disruptions. Although China still offers significant advantages as “the factory of the world,” with vast market potential, prolonged trade tensions with the USA, intensified during the Trump administration, have prompted global manufacturers with substantial USA market bases to relocate operations amid rising geopolitical uncertainties. For example, Nike and Adidas have shifted much of their footwear manufacturing to Vietnam, Apple has begun iPhone production at a Foxconn in Chennai, India, and AstraZeneca has contracted production with India’s Serum Institute. In the pre-globalised era, defining the Rule of Origin (ROO) was straightforward, as a product’s components were usually manufactured and assembled within a single country. However, with the complexity of global supply chains, particularly since 2012, determining ROO has become a time-consuming and subjective process. ROO are classified as either non-preferential or preferential. The USA applies non-preferential ROO to restrict imports from countries like Cuba, Iran and North Korea, while offering trade preference programmes for others. Preferential ROO are used to determine duty-free eligibility for imports from approved countries [9], whereas non-preferential ROO play a crucial role in “country of origin labelling, government procurement, enforcement of trade remedy actions, compilation of trade statistics, supply chain security issues.” [10] China manufacturing exodus may negatively impact capital inflows into Hong Kong, traditionally seen as the Gateway to China. In 2023, Hong Kong’s initial public offering volume fell to a 20-year low of $5.9bn [11]. While China-oriented business remains in Hong Kong, which returns fully to Chinese control in 2047, non-China-oriented businesses have migrated to Singapore. As the certainty of contract and ownership rights forms the foundation of capitalism, this capital flight from Hong Kong is likely to persist. 3. Trade logistics and economic corridors Globalisation has allowed supply chains to leverage interdependence and interconnectedness, maximising efficiency. However, while these efficiencies have been beneficial, they have also created a fertile ground for friction between trade partners due to a “survival of the fittest” mindset and the principle of “winner takes all.” This interdependence has also highlighted vulnerabilities; the global supply chain struggled to manage the disruptions caused by COVID-19, prompting a shift towards regional integration initiatives, such as Association of Southeast Asian Nations, Regional Comprehensive Economic Partnership, United States–Mexico–Canada Agreement and Comprehensive and Progressive Agreement for Trans-Pacific Partnership. As the global economy seeks stability, collaboration over competition has become increasingly essential, with economic diplomacy emerging as a priority. The prolonged economic war between China and the USA arguably needs to shift towards economic diplomacy. The global supply chain is restructuring into regional supply chains, building resilience by operating in regional segments that can withstand crises. Michael Porter introduced the concept of value chain as “a set of activities that a firm performs to deliver a valuable product or service to the market.” [12] Complex finished goods often depend on global value chains, traversing multiple countries. As shown in Figure 5, the value chain consists of supply chain and trade channel components. While the focus has traditionally been on which country holds lead status within a regional supply chain, the emphasis is now shifting to how these regional segments can be interconnected and relayed. In this context, the supply chain competition may evolve into a “channel war” in international trade, where trade logistics will centre on the internal flow of goods, standardising channel processes and establishing authority over these channels.  Figure 5 Supply chain v. trade channel 3.1 Trade logistics It is natural for governments to seek environments that enhance competitiveness within in their countries. In terms of trade, effective trade logistics are essential for maintaining competitive advantage. As a prerequisite, a strong IT management infrastructure is indispensable. As shown in Figure 6, trade logistics encompass the internal flow of goods to market, integrating physical infrastructure with operating software – such as transport hubs, warehouses, highways, ports, terminals, trains and shipping vessels. Key areas of conflict in trade logistics involve the standardisation of channel processes and determining who holds governance over operation of these logistics systems. This is equally relevant within the digital economy. Recently, Chinese e-commerce – often referred to as C-commerce – has aggressively sought to gain control over digital distribution channels, interconnected delivery networks and trade logistics via digital platforms. Chinese platforms such as Taobao, Temu and AliExpress are actively working to increase their monthly active users (MAUs), positing themselves as counterweights to USA-based platforms such as Amazon and eBay in digital trade [13].  Figure 6 Trade logistics When the agenda of establishing international trade logistics is introduced to relevant trade members across various countries, initial progress and effective responses are often achieved. However, efforts soon encounter obstacles related to standardising logistics processes and establishing operational governance. Greater reliance on international institutions could help resolve these issues (Bayne, 2017). Yet governments frequently prioritise domestic interests, and after prolonged negotiations, the risk of international agreements failing increases. Amid the economic war between China and the USA, China launched a trade logistics initiative known as the Belt and Road Initiative (BRI), or One Belt One Road, in 2013. Often referred to as the New Silk Road, the BRI aims to establish economic corridors for trade logistics. The World Bank estimates that the BRI could boost trade flows by 4.1% and reduce trade costs by 1.1% [14]. In response, the Biden administration proposed the India-Middle East and Europe Economic Corridor (IMEC) in September 2023 to strengthen transport and communication links between Europe and Asia as a countermeasure to China’s BRI. IMEC has been well received by participating countries, with expectations of fostering economic growth, enhancing connectivity and potentially rebalancing trade and economic relations between the EU and China [15]. Both BRI and IMEC are ambitious projects aimed at boosting international trade through substantial investments in trade logistics infrastructure. Each seeks to assert governance over international trade channels, signalling that the supply chain war may soon evolve into a trade channel war between China and the USA. 3.2 Economic corridors Economic corridors are transport networks designed to support and facilitate the movement of goods, services, people and information. These corridors often include integrated infrastructure, such as highways, railways and ports, linking cities or even countries (Octaviano and Trishia, 2014). They are typically established to connect manufacturing hubs, high-supply and high-demand areas, and producers of value-added goods. Economic corridors comprise both hard infrastructure – such as trade facilities – and soft infrastructure, including trade facilitation and capacity-building measures. The Asian Development Bank introduced the term “economic corridor” in 1998 to describe networks connecting various economic agents within a region [16]. Economic corridors are integrated trade logistics networks, providing essential infrastructure for connecting regional segments of supply chains. As supply chains increasingly operate in regional “chunks,” linking these segments becomes ever more important. Economic corridors typically include a network of transport infrastructure, such as highways, railways, terminals and ports. Initiatives like the BRI and IMEC use economic corridors as instruments of economic diplomacy, shifting strategies from hard power to soft power, as shown in Figure 7. Because less-developed or developing countries often lack sufficient funding to invest in trade logistics, they tend to welcome these initiatives from developed countries, which offer international collaboration and support. However, these initiatives usually come with the condition that participating countries must accept standardised trade processes and governance led by the sponsoring developed country.  Figure 7 Economic corridor initiatives as economic diplomacy To succeed, economic corridors must meet three key conditions [17]. First, government intervention is essential, as economic corridor initiatives primarily involve public infrastructure investments beyond the scope of the private sector. In realising these projects, governments must reconcile three tensions to ensure their policies are mutually supportive: tensions between politics and economics, between international and domestic pressures and between governments and other stakeholders. Second, intermediate outcomes should be measured and demonstrated as results of economic corridors, allowing participants to experience tangible benefits throughout these longer-term projects. Finally, economic corridors should deliver broader benefits. Participants need incentives to utilise the infrastructure sustainably. These benefits may extend beyond economic welfare, such as wages and income, to include social inclusion, equity and environmental gains, which support the long-term viability of the infrastructure. 4. BRI vs IMEC4.1 Belt and Road Initiative (BRI) - Silk Road The BRI can be a modern-day realisation of the Silk Road concept, connecting Europe as a market base with China as a production base. Unlike the ancient Silk Road, which connected trade routes across Eurasia, the BRI poses potential challenges due to its extensive connectivity. Firstly, there are social and environmental externalities, such as increased congestion and accidents from concentrating traffic flows through limited links and nodes within trade networks. Secondly, while the connectivity may benefit the production and market bases at either end, regions situated between these hubs, through which highways and railways pass, may gain minimal advantage. Thirdly, there is often a mismatch between where costs and benefits are realised. Transit regions that facilitate network traffic often see fewer direct benefits compared to high-density nodes within the network. 4.2 India-Middle East and Europe Economic Corridor (IMEC) - The Spice Road The ancient Spice Roads once connected the Middle East and Northeast Africa with Europe, facilitating the exchange of goods such as cinnamon, ginger, pepper and cassia, which, like silk, served as a form of currency. The IMEC proposes a modern route from India to Europe through the United Arab Emirates (UAE), Saudi Arabia, Israel and Greece. Since its announcement in September 2023, some regional experts have expressed reservations about its feasibility, particularly regarding the connection between the Middle East and Israel. The project has faced delays due to the Israel–Hamas war. Despite these challenges, IMEC holds potential to drive economic growth and strengthen connectivity, especially as countries like Vietnam and India emerge as alternative manufacturing bases for companies relocating from China. For Saudi Arabia and the UAE, IMEC is not viewed as a challenge to China but rather as an opportunity to diversify their economies and solidify their roles within the Middle East region [18]. 5. Conclusion A new trade war between China and the USA has begun, with the Biden Administration’s introduction of IMEC as a counter to China’s BRI. This shift could soon transform the nature of economic war from a focus on supply chains to one on trade channels. The China manufacturing exodus was further accelerated by supply disruptions during the COVID-19 pandemic. Amidst the economic tensions between China and the USA, the restructuring of global supply chains into regional networks has made significant progress. With China maintaining its stance on export controls for strategic items, South Korea must prepare for resilient supply chain management. In relation to China–Korea FTA, which is currently undergoing its second phase of negotiation, South Korea should seek clarity on the transparency of China’s strategic item controls. The Committee on Foreign Investment in the United States (CFIUS) plays a key role in monitoring the quality of inbound investments; similarly, South Korea is experiencing increased inbound investment due to the manufacturing shift from China and should apply similar standards to evaluate investment quality. This emerging economic war between China and the USA is now marked by the competing initiatives of the BRI and IMEC. The BRI can be viewed as a modern Silk Road, linking China with Europe, while the IMEC seeks to establish a trade logistics corridor connecting Saudi Arabia, the UAE, Israel and Greece. The South Korean Government should take proactive steps to prepare for the evolving dynamics of the trade war between China and the USA. CitationOh, J.S. (2025), "International trade war - Spice Road against Silk Road", International Trade, Politics and Development, Vol. 9 No. 1, pp. 2-11. https://doi.org/10.1108/ITPD-06-2024-0031  Notes 1. https://www.investopedia.com/terms/s/supplychain.asp2. According to Gary Gereffi et al, 5 governance types of a lead company could be categorised as market, modular, relational, captive and hierarchy.3. Korea imports urea from 12 countries including Qatar, Vietnam, Indonesia and Saudi Arabia, in addition to China.4. https://single-market-economy.ec.europa.eu/sectors/raw-materials/areas-specific-interest/critical-raw-materials/strategic-projects-under-crma_en5. IPEF was launched on May 23,2022 at Tokyo. 14 member countries are Australia, Brunei, Fiji, India, Indonesia, Japan, Republic of Korea, Malaysia, New Zealand, Philippines, Singapore, Thailand, Vietnam and the USA. 4 Pillar of IPEF are Trade (Pillar 1), Supply Chain (Pillar 2),Clean Economy (Pillar 3) and Fair Economy (Pillar 4).6. Critics say “lack of substantive actions and binding commitments, instead focusing on process-driven framework building.” https://www.piie.com/blogs/realtime-economics/its-time-ipef-countries-take-action-supply-chain-resilience7. https://ec.europa.eu/commission/presscorner/detail/en/ip_22_54438. As of 2023, the first-largest trade partner of Korea is China (Trade volume of $267.66bn), the second is the US ($186.96bn) and the third is Vietnam ($79.43bn)9. As preferential ROO contain the labour value content requirement in the USMCA, it could increase compliance costs for importers. https://crsreports.congress.gov/product/pdf/RL/RL3452410. USITC(1996), Country of Origin Marking: Review of Laws, Regulations and Practices, USITC Publication 2975, July, pp. 2–411. https://www.barrons.com/articles/hong-kong-financial-center-china-46ba5d3612. Porter identifies a value chain broken in five primary activities: inbound logistics, operations, outbound logistics, marketing and sales and post-sale services. https://www.usitc.gov/publications/332/journals/concepts_approaches_in_gvc_research_final_april_18.pdf13. MAU is a metric commonly used to identify the number of unique users who engage with apps and website. MAU is an important measurement to the level of platform competitiveness in the digital trade logistics or e-commerce industry.14. https://home.kpmg/xx/en/home/insights/2019/12/china-belt-and-road-initiative-and-the-global-chemical-industry.html15. https://www.bradley.com/insights/publications/2023/10/the-india-middle-east-europe-economic-corridor-prospects-and-challenges-for-us-businesses16. The Asian Development Bank (ADB), which first used the term in 1998, defines economic corridors as important networks or connections between economic agents along a defined geography, which link the supply and demand sides of markets. http://research.bworldonline.com/popular-economics/story.php?id=350&title=Economic-corridors-boost-markets,-living-conditions17. Legovini et al. (2020) comments traditional cross border agreements of transport investment focuses only on a narrow set of direct benefits and cost. However, economic corridors can entail much wider economic benefits and costs such as trade and economic activity, structural change, poverty reduction, pollution and deforestation.18. Arab Centre Washington D.C. https://arabcenterdc.org/resource/the-geopolitics-of-the-india-middle-east-europe-economic-corridor/ References Bayne, N. (2017), Challenge and Response in the New Economic Diplomacy, 4th ed., The New Economic Diplomacy, Routledge, London, p. 19.Blanchard, J.M.F. and Ripsman, N.M. (2008), “A political theory of economic statecraft”, Foreign Policy Analysis, Vol. 4, pp. 371-398, doi: 10.1111/j.1743-8594.2008.00076.x.Gereffi, G., Humphrey, J. and Sturgeon, T. (2005), “The governance of value chain”, Review of International Political Economy, Vol. 12 No. 1, pp. 78-104, doi: 10.1080/09692290500049805.Kraljic, P. (1983), “Purchasing must be supply management”, Harvard Business Review, Vol. 61 No. 5, September.Legovini, A., Duhaut, A. and Bougna, T. (2020), “Economic corridors-transforming the growth potential of transport investments”, p. 10.Octaviano, B.Y. and Trishia, P. (2014), Economic Corridors Boost Markets, Living Conditions, Business World Research, Islamabad, October.United States International Trade Commission (USITC) (1996), “Country of origin marking: Review of Laws, Regulations, and Practices”, USITC Publication, Vol. 2975, July, pp. 2-4.Further readingPorter, M. (1985), Competitive Advantage: Creating and Sustaining Superior Performance, Free Press.Putman, R.D. (1988), “Diplomacy and domestic politics; the logic of two-level games”, International Organization, Vol. 42 No. 4, pp. 427-600.USITC (2019), “Global value chain analysis: concepts and approaches”, Journal of International Commerce and Economics, April, pp. 1-29.

Energy & Economics
Comparison of Drought and flood metaphor for climate change and extreme weather.

Global Climate Agreements: Successes and Failures

by Clara Fong , Lindsay Maizland

International efforts, such as the Paris Agreement, aim to reduce greenhouse gas emissions. But experts say countries aren’t doing enough to limit dangerous global warming. Summary Countries have debated how to combat climate change since the early 1990s. These negotiations have produced several important accords, including the Kyoto Protocol and the Paris Agreement. Governments generally agree on the science behind climate change but have diverged on who is most responsible, how to track emissions-reduction goals, and whether to compensate harder-hit countries. The findings of the first global stocktake, discussed at the 2023 UN Climate Summit in Dubai, United Arab Emirates (UAE), concluded that governments need to do more to prevent the global average temperature from rising by 1.5°C. Introduction Over the last several decades, governments have collectively pledged to slow global warming. But despite intensified diplomacy, the world is already facing the consequences of climate change, and they are expected to get worse. Through the Kyoto Protocol and Paris Agreement, countries agreed to reduce greenhouse gas emissions, but the amount of carbon dioxide in the atmosphere keeps rising, heating the Earth at an alarming rate. Scientists warn that if this warming continues unabated, it could bring environmental catastrophe to much of the world, including staggering sea-level rise, devastating wildfires, record-breaking droughts and floods, and widespread species loss. Since negotiating the Paris accord in 2015, many of the 195 countries that are party to the agreement have strengthened their climate commitments—to include pledges on curbing emissions and supporting countries in adapting to the effects of extreme weather—during the annual UN climate conferences known as the Conference of the Parties (COP). While experts note that clear progress has been made towards the clean energy transition, cutting current emissions has proven challenging for the world’s top emitters. The United States, for instance, could be poised to ramp up fossil fuel production linked to global warming under the Donald Trump administration, which has previously minimized the effects of climate change and has withdrawn twice from the Paris Agreement. What are the most important international agreements on climate change? Montreal Protocol, 1987. Though not intended to tackle climate change, the Montreal Protocol [PDF] was a historic environmental accord that became a model for future diplomacy on the issue. Every country in the world eventually ratified the treaty, which required them to stop producing substances that damage the ozone layer, such as chlorofluorocarbons (CFCs). The protocol has succeeded in eliminating nearly 99 percent of these ozone-depleting substances. In 2016, parties agreed via the Kigali Amendment to also reduce their production of hydrofluorocarbons (HFCs), powerful greenhouse gases that contribute to climate change. UN Framework Convention on Climate Change (UNFCCC), 1992. Ratified by 197 countries, including the United States, the landmark accord [PDF] was the first global treaty to explicitly address climate change. It established an annual forum, known as the Conference of the Parties, or COP, for international discussions aimed at stabilizing the concentration of greenhouse gases in the atmosphere. These meetings produced the Kyoto Protocol and the Paris Agreement. Kyoto Protocol, 2005. The Kyoto Protocol [PDF], adopted in 1997 and entered into force in 2005, was the first legally binding climate treaty. It required developed countries to reduce emissions by an average of 5 percent below 1990 levels, and established a system to monitor countries’ progress. But the treaty did not compel developing countries, including major carbon emitters China and India, to take action. The United States signed the agreement in 1998 but never ratified it and later withdrew its signature.  Paris Agreement, 2015. The most significant global climate agreement to date, the Paris Agreement requires all countries to set emissions-reduction pledges. Governments set targets, known as nationally determined contributions (NDCs), with the goals of preventing the global average temperature from rising 2°C (3.6°F) above preindustrial levels and pursuing efforts to keep it below 1.5°C (2.7°F). It also aims to reach global net-zero emissions, where the amount of greenhouse gases emitted equals the amount removed from the atmosphere, in the second half of the century. (This is also known as being climate neutral or carbon neutral.) The United States, the world’s second-largest emitter, is the only country to withdraw from the agreement, a move President Donald Trump made during his first administration in 2017. While former President Joe Biden reentered the agreement during his first day in office, Trump again withdrew the United States on the first day of his second administration in 2025. Three other countries have not formally approved the agreement: Iran, Libya, and Yemen. Is there a consensus on the science of climate change? Yes, there is a broad consensus among the scientific community, though some deny that climate change is a problem, including politicians in the United States. When negotiating teams meet for international climate talks, there is “less skepticism about the science and more disagreement about how to set priorities,” says David Victor, an international relations professor at the University of California, San Diego. The basic science is that:• the Earth’s average temperature is rising at an unprecedented rate; • human activities, namely the use of fossil fuels—coal, oil, and natural gas—are the primary drivers of this rapid warming and climate change; and,• continued warming is expected to have harmful effects worldwide. Data taken from ice cores shows that the Earth’s average temperature is rising more now than it has in eight hundred thousand years. Scientists say this is largely a result of human activities over the last 150 years, such as burning fossil fuels and deforestation. These activities have dramatically increased the amount of heat-trapping greenhouse gases, primarily carbon dioxide, in the atmosphere, causing the planet to warm. The Intergovernmental Panel on Climate Change (IPCC), a UN body established in 1988, regularly assesses the latest climate science and produces consensus-based reports for countries. Why are countries aiming to keep global temperature rise below 1.5°C? Scientists have warned for years of catastrophic environmental consequences if global temperature continues to rise at the current pace. The Earth’s average temperature has already increased approximately 1.1°C above preindustrial levels, according to a 2023 assessment by the IPCC. The report, drafted by more than two hundred scientists from over sixty countries, predicts that the world will reach or exceed 1.5°C of warming within the next two decades even if nations drastically cut emissions immediately. (Several estimates report that global warming already surpassed that threshold in 2024.) An earlier, more comprehensive IPCC report summarized the severe effects expected to occur when the global temperature warms by 1.5°C: Heat waves. Many regions will suffer more hot days, with about 14 percent of people worldwide being exposed to periods of severe heat at least once every five years. Droughts and floods. Regions will be more susceptible to droughts and floods, making farming more difficult, lowering crop yields, and causing food shortages.  Rising seas. Tens of millions of people live in coastal regions that will be submerged in the coming decades. Small island nations are particularly vulnerable. Ocean changes. Up to 90 percent of coral reefs will be wiped out, and oceans will become more acidic. The world’s fisheries will become far less productive. Arctic ice thaws. At least once a century, the Arctic will experience a summer with no sea ice, which has not happened in at least two thousand years. Forty percent of the Arctic’s permafrost will thaw by the end of the century.  Species loss. More insects, plants, and vertebrates will be at risk of extinction.  The consequences will be far worse if the 2°C threshold is reached, scientists say. “We’re headed toward disaster if we can’t get our warming in check and we need to do this very quickly,” says Alice C. Hill, CFR senior fellow for energy and the environment. Which countries are responsible for climate change? The answer depends on who you ask and how you measure emissions. Ever since the first climate talks in the 1990s, officials have debated which countries—developed or developing—are more to blame for climate change and should therefore curb their emissions. Developing countries argue that developed countries have emitted more greenhouse gases over time. They say these developed countries should now carry more of the burden because they were able to grow their economies without restraint. Indeed, the United States has emitted the most of all time, followed by the European Union (EU).   However, China and India are now among the world’s top annual emitters, along with the United States. Developed countries have argued that those countries must do more now to address climate change.   In the context of this debate, major climate agreements have evolved in how they pursue emissions reductions. The Kyoto Protocol required only developed countries to reduce emissions, while the Paris Agreement recognized that climate change is a shared problem and called on all countries to set emissions targets. What progress have countries made since the Paris Agreement? Every five years, countries are supposed to assess their progress toward implementing the agreement through a process known as the global stocktake. The first of these reports, released in September 2023, warned governments that “the world is not on track to meet the long-term goals of the Paris Agreement.” That said, countries have made some breakthroughs during the annual UN climate summits, such as the landmark commitment to establish the Loss and Damage Fund at COP27 in Sharm el-Sheikh, Egypt. The fund aims to address the inequality of climate change by providing financial assistance to poorer countries, which are often least responsible for global emissions yet most vulnerable to climate disasters. At COP28, countries decided that the fund will be initially housed at the World Bank, with several wealthy countries, such as the United States, Japan, the United Kingdom, and EU members, initially pledging around $430 million combined. At COP29, developed countries committed to triple their finance commitments to developing countries, totalling $300 billion annually by 2035. Recently, there have been global efforts to cut methane emissions, which account for more than half of human-made warming today because of their higher potency and heat trapping ability within the first few decades of release. The United States and EU introduced a Global Methane Pledge at COP26, which aims to slash 30 percent of methane emissions levels between 2020 and 2030. At COP28, oil companies announced they would cut their methane emissions from wells and drilling by more than 80 percent by the end of the decade. However, pledges to phase out fossil fuels were not renewed the following year at COP29. Are the commitments made under the Paris Agreement enough? Most experts say that countries’ pledges are not ambitious enough and will not be enacted quickly enough to limit global temperature rise to 1.5°C. The policies of Paris signatories as of late 2022 could result in a 2.7°C (4.9°F) rise by 2100, according to the Climate Action Tracker compiled by Germany-based nonprofits Climate Analytics and the NewClimate Institute. “The Paris Agreement is not enough. Even at the time of negotiation, it was recognized as not being enough,” says CFR’s Hill. “It was only a first step, and the expectation was that as time went on, countries would return with greater ambition to cut their emissions.” Since 2015, dozens of countries—including the top emitters—have submitted stronger pledges. For example, President Biden announced in 2021 that the United States will aim to cut emissions by 50 to 52 percent compared to 2005 levels by 2030, doubling former President Barack Obama’s commitment. The following year, the U.S. Congress approved legislation that could get the country close to reaching that goal. Meanwhile, the EU pledged to reduce emissions by at least 55 percent compared to 1990 levels by 2030, and China said it aims to reach peak emissions before 2030. But the world’s average temperature will still rise more than 2°C (3.6°F) by 2100 even if countries fully implement their pledges for 2030 and beyond. If the more than one hundred countries that have set or are considering net-zero targets follow through, warming could be limited to 1.8˚C (3.2°F), according to the Climate Action Tracker.   What are the alternatives to the Paris Agreement? Some experts foresee the most meaningful climate action happening in other forums. Yale University economist William Nordhaus says that purely voluntary international accords like the Paris Agreement promote free-riding and are destined to fail. The best way to cut global emissions, he says, would be to have governments negotiate a universal carbon price rather than focus on country emissions limits. Others propose new agreements [PDF] that apply to specific emissions or sectors to complement the Paris Agreement.  In recent years, climate diplomacy has occurred increasingly through minilateral groupings. The Group of Twenty (G20), representing countries that are responsible for 80 percent of the world’s greenhouse gas pollution, has pledged to stop financing new coal-fired power plants abroad and agreed to triple renewable energy capacity by the end of this decade. However, G20 governments have thus far failed to set a deadline to phase out fossil fuels. In 2022, countries in the International Civil Aviation Organization set a goal of achieving net-zero emissions for commercial aviation by 2050. Meanwhile, cities around the world have made their own pledges. In the United States, more than six hundred local governments [PDF] have detailed climate action plans that include emissions-reduction targets. Industry is also a large source of carbon pollution, and many firms have said they will try to reduce their emissions or become carbon neutral or carbon negative, meaning they would remove more carbon from the atmosphere than they release. The Science Based Targets initiative, a UK-based company considered the “gold standard” in validating corporate net-zero plans, says it has certified the plans of  over three thousand firms, and aims to more than triple this total by 2025. Still, analysts say that many challenges remain, including questions over the accounting methods and a lack of transparency in supply chains. Recommended Resources This timeline tracks UN climate talks since 1992. CFR Education’s latest resources explain everything to know about climate change.  The Climate Action Tracker assesses countries’ updated NDCs under the Paris Agreement. CFR Senior Fellow Varun Sivaram discusses how the 2025 U.S. wildfires demonstrate the need to rethink climate diplomacy and adopt a pragmatic response to falling short of global climate goals. In this series on climate change and instability by the Center for Preventive Action, CFR Senior Fellow Michelle Gavin looks at the consequences for the Horn of Africa and the National Defense University’s Paul J. Angelo for Central America. This backgrounder by Clara Fong unpacks the global push for climate financing.

Energy & Economics
Prime Minister of India Narendra Modi and President of the People’s Republic of China Xi Jinping before the beginning of the BRICS Leaders' meeting.

Bridges or bargains? Examining India and China’s infrastructure expansion in South Asia

by Bharadaz Uday Hazarika

한국어로 읽기 Leer en español In Deutsch lesen Gap اقرأ بالعربية Lire en français Читать на русском India races to match China’s growing influence in South Asia In recent decades, South Asian nations have emerged as pivotal destination points for major infrastructure investments from both India and China. Stretching from the shores of the Indian Ocean to the Himalayan foothills, the growing footprint of these two regional powers is reshaping the landscape of development. While many projects share similar outcomes, they have also raised concerns about their impact on local economies and everyday life. China’s Belt and Road Initiative: Initiation and controversy   Credits: Proposed Belt and Road Initiative. Illustrated in 2017 by Lommes, via Wikimedia Commons. CC BY-SA 4.0. First initiated in 2013, China’s Belt and Road Initiative (BRI) is considered one of the most ambitious international infrastructure endeavours in recent history. Spanning more than 150 nations and involving over USD 1 trillion in investments, the BRI has supported the development of ports, railroads, highways, and energy networks throughout Asia, Africa, and Latin America. As per the Green Finance and Development Center, there has been a revival in BRI financing after the COVID-19 pandemic, largely driven by Chinese policy banks and state-owned companies. In Sri Lanka, however, the BRI has become a cautionary example. The Hambantota Port, built with loans from the Export-Import Bank of China, failed to generate the expected revenue. In 2017, the Sri Lankan government granted a 99-year lease to China Merchants Port Holdings, raising concerns over sovereignty and economic vulnerability. Critics, particularly in Western media, have pointed to this as evidence of what they describe as China’s “debt-trap diplomacy” — a claim that Chinese officials strongly deny. However, some scholars argue that the term “debt-trap diplomacy” is misleading. Deborah Brautigam of Johns Hopkins University argues in her 2020 article “A critical look at Chinese ‘debt-trap diplomacy’: the rise of a meme” argued that debt crises in countries such as Sri Lanka are mainly caused by domestic mismanagement, aggressive infrastructure spending, and global economic pressures — rather than coercion by China. In Bangladesh, foreign initiatives have significantly influenced the country's infrastructure and energy landscape. A key example is the Payra Power Plant, a USD 2.48 billion coal-fired project constructed under the BRI framework with Chinese funding and technical expertise. The plant, operational since 2020, has helped alleviate chronic energy shortages but has been criticized for its environmental footprint and reliance on imported coal. Moreover, concerns have emerged regarding its long-term sustainability and alignment with Bangladesh’s climate commitments under the 2015 Paris Agreement. Another flagship BRI project is the Dhaka Elevated Expressway, a 20-kilometer-long project linking the capital’s airport to major industrial areas. Executed by the China Major Bridge Engineering Company, the project was structured as a public-private partnership under a 25-year build-own-transfer model. While it is expected to ease traffic congestion and boost logistics efficiency, experts have flagged the lack of competitive bidding and limited transparency in financial arrangements. In March 2025, during an official visit to China, Bangladesh's Chief Adviser, Muhammad Yunus, successfully secured a pledge of a total of USD 2.1 billion in investments, loans, and grants for Bangladesh, marking a significant step in strengthening bilateral cooperation between the two countries. In the Maldives, Chinese loans under the BRI supported major housing projects and the Sinamalé Bridge, an important link between Malé and Hulhulé Island. In 2018, reports indicated that the Maldives’ total public debt rose to 72 percent of its GDP, reaching around USD 3.8 billion. By early 2024, worries have resurfaced as the Maldives’ total debt rose to approximately USD 8.2 billion — 116.5 percent of its GDP in the first quarter, up from 110.4 percent during the same period the previous year. About half of that is external debt, with a big portion owed to China, which has extended loans totalling USD 1.37 billion to the country. The growing debt burden has sparked concerns regarding autonomy and repayment conditions. However, Maldives President Mohamed Muizzu has described China as “one of the Maldives’ closest allies and development partners.” He has pledged to deepen cooperation under the Belt and Road Initiative (BRI), with a focus on infrastructure development. In January 2025, the China Machinery Engineering Corporation (CMEC) signed a deal with the Maldivian Ministry of Construction, Housing, and Infrastructure to build major infrastructure on Gulhifalhu Island in the Malé Atoll, further expanding China’s footprint in the country. India’s rise: Neighbourhood First and Act East India, long seen as a regional power, is increasingly using infrastructure as a tool of foreign diplomacy. However, with the exception of Bhutan, most of India’s South Asian neighbors have joined China’s Belt and Road Initiative (BRI), leading to a significant rise in Chinese investments across the region. Since 2018, China has invested more than USD 150 billion in the economies of Bangladesh, the Maldives, Myanmar, Nepal, and Sri Lanka. China’s expanding influence has raised concerns in India, and in response, Prime Minister Narendra Modi has strengthened India’s regional outreach through the “Neighbourhood First” policy, aimed at deepening ties between South Asian countries. Complementing this is the “Act East” policy, which focuses on building closer partnerships with Southeast Asia and the broader Asia-Pacific region. Unlike China’s debt-driven mega-projects, India’s approach emphasizes three core principles: transparency, respect for sovereignty, and people-centric development. India’s infrastructure engagement in Sri Lanka has largely focused on strategic support, including over USD 4 billion in credit lines during the country’s 2022 economic crisis. This assistance covered essential imports such as fuel and food and played a key role in stabilizing the Sri Lankan economy. India has also contributed to energy cooperation, particularly through projects like the Trincomalee Oil Tank Farm and renewable energy initiatives in the north. However, these efforts have drawn criticism regarding transparency and local impact. For instance, a USD 442 million wind energy project awarded to India’s Adani Group without a competitive bidding process sparked concerns over environmental oversight and national sovereignty. India’s flagship initiative in the Maldives — the USD 500 million Greater Malé Connectivity Project (GMCP) — faced backlash from the “India Out” movement, led by opposition figures in 2022 who claimed the project threatened national sovereignty and enabled a foreign military presence. The protest underscored the fragile balance between development and concerns over external influence. In an effort to rebuild trust, India launched a USD 110 million sanitation project in 2024, covering 28 Maldivian islands. Construction on the GMCP resumed in February 2025 following diplomatic negotiations. As a goodwill gesture, India introduced visa-free travel for Maldivian citizens in March 2025 to help repair bilateral ties. The Maitree Super Thermal Power Project, a joint venture between India and Bangladesh with equal stakes, currently provides 1,320 MW to Bangladesh’s grid through its coal-fired facility in Rampal, Khulna, financed under India’s special financing program. A number of projects, such as the Bangladesh-India Friendship Pipeline, have been indefinitely suspended due to the August 2024 change of government in Bangladesh. On April 4, 2025, Modi met with Muhammad Yunus on the sidelines of the BIMSTEC Summit in Bangkok, holding talks for the first time since 2024. The meeting opened up opportunities for reconciliation and restarting the paused projects. The road ahead Despite a history of tension, China and India are key players in South Asia, each with different strategies. China focuses on large-scale BRI projects, while India prioritizes connectivity and capacity building. However, there are areas where India’s and China’s interests overlap, which creates room for cooperation. With South Asia’s infrastructure needs reaching into the trillions, both countries’ initiatives are complementing each other, expanding their influence through trade and investment. While India gains from improved connectivity and trade with its neighbors, it will need to strengthen its economic diplomacy to keep pace with China’s growing influence in today’s geopolitical landscape.