By investing now to build a green, resilient and inclusive economy, countries can turn the challenges of COVID-19 and climate change into opportunities for a more prosperous and stable future.
The decade following the 2009 global financial crisis was characterised by growing structural weaknesses in developing countries, which have been further aggravated by the COVID-19 pandemic and climate change, worsening poverty and inequality. These weaknesses include slowing investment, productivity, employment, and poverty reduction; rising debt; and accelerating destruction of natural capital. The pandemic has already pushed over 100 million more people into extreme poverty and worsened inequality. The effects of climate change are expected to push an estimated additional 130 million people into extreme poverty by 2030.
COVID-19 and climate change have starkly exposed the interdependence between people, the planet, and the economy. All economic activities depend upon ecosystem services, so depleting the natural assets that create these services, eventually worsens economic performance.
The decade following the 2009 global financial crisis was characterised by growing structural weaknesses in developing countries, which have been further aggravated by the COVID-19 pandemic and climate change, worsening poverty and inequality.
Figure 1: Global income losses due to the COVID-19 pandemic
Image: World Bank
A business-as-usual recovery package that neglects these interlinkages would not adequately address the complex challenges that confront the world nor its structural weaknesses and would likely result in a lost decade of development. Targeting socioeconomic, climate change and biodiversity challenges in isolation is likely to be less effective than a coordinated response to their interacting effects. A continuation of current growth patterns would not address structural economic weaknesses and would erode natural capital and increase risks that affect long run growth. As the depletion of forests, oceans, and other natural assets worsen, the cost of inaction is becoming more expensive than the cost of climate action and it is the poor and vulnerable who are most disadvantaged by it.
The GRID approach
Image: Worldbank
The solution is to adopt a Green, Resilient and Inclusive Development (GRID) approach that pursues poverty reduction and shared prosperity with a long-term sustainability lens. This approach sets a recovery path that maintains a line of sight to long-term development goals; recognizes the interconnections between people, the planet, and the economy; and tackles risks in an integrated way. Research from the University of Oxford, World Economic Forum and Observer Research Foundation has all shown that a green recovery will not just be beneficial for combating climate change but also offer the best economic returns for government spending and yield development outcomes. The GRID approach is novel in two respects.
First, though development practitioners have long worried about poverty, inequality and climate change, the GRID approach pays particular attention to their interrelationships and thus, on the cross-sectoral nature of critical development policies. Second, achieving GRID implies simultaneously and systematically addressing sustainability, resilience and inclusiveness. GRID is a balanced approach focused on development and sustainability and tailored to each country’s needs and its Nationally Determined Contributions (NDC) objectives. Such a path will achieve lasting economic growth that is shared across the population, providing a robust recovery and restoring momentum on the Sustainable Development Goals (SDGs).
Research from the University of Oxford, World Economic Forum and Observer Research Foundation has all shown that a green recovery will not just be beneficial for combating climate change but also offer the best economic returns for government spending and yield development outcomes.
Recovering from COVID-19 with GRID
The pandemic has inflicted a particularly harsh blow on developing economies. Most urgently, a fast and fair vaccine rollout is critical to an L-shaped recovery. Vaccine access and deployment presents challenges unprecedented in scale, speed and specificities, which will require strong coordination.
Looking ahead, setting a path to GRID will require urgent investments at scale in all forms of capital (human, physical, natural, and social) to address structural weaknesses and promote growth. Special attention is needed on human capital development to rebuild skills and recover pandemic related losses, especially amongst marginalised groups. While the pandemic has amplified the challenges of providing education for all, it has also highlighted how disruptive and transformational technologies can be leveraged in addition to traditional in person learning to help education services withstand the unique pressures of this time.
Recovery packages are an opportunity to prioritise investments in the infrastructure needed to develop and roll out transformative technologies.
Women must be at the center of the GRID agenda as powerful agents of change. Education for girls, together with family planning, reproductive and sexual health, and economic opportunities for women will accelerate the green, resilient and inclusive dimensions of development.
Technology and innovation will play an essential role in promoting low carbon growth. Recovery packages are an opportunity to prioritise investments in the infrastructure needed to develop and roll out transformative technologies.
One takeaway from Glasgow has been that securing green finance at scale will be essential for the GRID agenda. However, developed countries found it difficult to secure the necessary funding for developing countries to implement the green transition to sustainable and equitable development.
But there may be a silver lining. The global economy is awash with excess savings estimated at around $3.9 trillion that are earning negative or low returns and there are $46 trillion of pension funds in search of reasonable returns. The low carbon transition may offer an opportunity for investors, especially as the returns to green investments begin to exceed investments in more conventional technological choices.
Necessity and urgency of systemic investments and transformations
Transformational actions will be needed in key systems — for example, energy, agriculture, food, water, land, cities, transport and manufacturing — that drive the economy and account for over 90 percent of greenhouse gas emissions. Without significant change in these sectors, neither climate change mitigation nor sustained and resilient development are possible. Such a transition, by addressing economic distortions, will promote greater economic efficiency and reduce adverse productivity and health impacts, leading to better development outcomes.
Domestic resource mobilisation can also be increased by enhancing tax progressivity, applying wealth taxation, and eliminating tax avoidance. There is also a need for greater selectivity and efficiency in spending.
But the fruits of the transition may not be evenly distributed and will require a range of social and labour market policies that address adverse impacts, safeguard the vulnerable and deliver a just transition. The GRID approach, therefore, supports a transition to a low carbon economy while considering countries’ energy needs and providing targeted support for the poorest.
Significant reforms of fiscal systems will be needed to mobilise domestic resources and finance the transition. Taxes on externalities are a large and unused source of potential revenue, which can create incentives for the private sector to invest in more sustainable activities. Domestic resource mobilisation can also be increased by enhancing tax progressivity, applying wealth taxation, and eliminating tax avoidance. There is also a need for greater selectivity and efficiency in spending.
A strong private sector involvement will be needed. The scale of investment needed far exceeds the possibilities of the public sector. Reforms are needed to remove constraints to private investment in appropriate sectors and technologies. Thus, at the country level, a strong partnership and dialogue between the public and private sector is urgently needed. And further developing and implementing green financial sector regulation, such as reporting standards and green taxonomies, can help harness investors’ increasing appetite for sustainable investments, which offer both measurable impacts on the environment and society.
However, sustainable and substantial flows of finance across borders will need to supplement domestic efforts. Multilateral development banks (MDBs) and Development Finance Institutions (DFIs) must focus on catalytic and transformational investments in priority areas to develop green, inclusive and resilient project pipelines that support economic growth, and job and income generation. On this front, MDBs can help lower risks for private capital through guarantees and blended finance. But at the end of the day the most effective way to attract private capital is through policies that correct distortions that render environmental destruction profitable.
Multilateral development banks (MDBs) and Development Finance Institutions (DFIs) must focus on catalytic and transformational investments in priority areas to develop green, inclusive and resilient project pipelines that support economic growth, and job and income generation.
Climate change is a reality shaping lives as we speak and not a distant mirage that will materialise only in the future. From Pacific Island nations facing rising sea levels to the Sahel region struggling with longer dry seasons, climate change is changing lives of the poor and vulnerable across the world. The future for the world’s climate vulnerable groups will remain bleak unless we transform policy and economic thinking and secure the financing that is needed.
Countries face a historic opportunity to establish a better way forward. Despite the damage wrought by the pandemic, the exceptional crisis response offers a unique opportunity for a “reset” that addresses past policy deficiencies and chronic investment gaps. Crisis related expenditures can be used to invest in new opportunities, such as accelerating digital development, an expansion of basic service provision, improvements in regional supply chains, strengthening ecosystems services, and policies to catalyze job creation in growth sectors. Private sector dynamism and innovative financing will need to power the recovery and to create economic growth and employment through investment and innovation. Public-private partnerships and key upstream policy reforms can spur private investment (including FDI), support viable firms through restructuring, and enable the financial system to support a robust recovery through the resolution of non performing loans.
As the price of natural gas reached record highs in the UK and Europe—trading at the equivalent of $200 per barrel of oil,[1] and as economic activity in China has been curtailed by the country’s power supply crunch, central bankers and policymakers from across the globe are forced to confront significant challenges to price stability, with a focus on shielding households and businesses from an increase to the cost of transport and basic goods, while monitoring the potential for price pressure and supply chain bottlenecks to upend the global economic recovery. This is important at this time, for the ripple effects of disruptions to energy markets could amplify social and political fissures that are visible across the global landscape, and which might portend complex domestic politics as many countries head into elections in 2022.
Surging demand for natural gas—and shortages and bottlenecks to supply—have resulted in a corollary demand for oil products (referred to as gas-to-oil switching), thus driving up the price of WTI crude to seven-year highs.[2] The skyrocketing commodity price environment has led one observer to point to the “revenge of the old economy”, according to which the collective noble efforts to move toward a cleaner, greener future fuelled by renewable energy have been stymied by a recent past of inadequate investment into the capacity and infrastructure of the hydrocarbons that power our economies.[3]
Thus, even as COP26 has drawn to a close, and as policymakers, business leaders, and investors have left Glasgow with firm commitments to ostensibly advance the decarbonisation agenda, we are reminded of the extent to which our entire energy infrastructure still hinges upon the use of fossil fuels. This includes oil used for transport or power generation, or natural gas (or coal) for power generation, as well as natural gas deployed as “bridge fuel” to support the growth of renewable energy, including wind, solar, and hydrogen. This is effectively captured by what transpired in Germany earlier this year. In the first six months of 2021, the country increased its coal-based generation, which contributed 27 percent of the country’s electricity demand.[4] The need to resort to coal-fired power generation is not unique to the case of Germany: the US has also posted the first annual increase in coal use for power generation since 2014.[1] The combination of an asynchronous economic recovery, attendant shocks to demand, curtailments of supply, and surging prices in natural gas are contributing factors to rich income countries’ pivoting toward the use of coal. This illustrates one stark reality: hydrocarbons continue to underpin our global energy infrastructure.[5] For all the talk of “stranded assets” and potential “dinosaurs of investment”,[6] hydrocarbons still compose the lion’s share of energy consumption on a global basis.[7]
What are the lessons to be learned from the recent power crunches? And what are the potential macro, socio-economic, and geopolitical implications as we navigate the energy transition? Amidst so much uncertainty and volatility, where are the opportunities for accord, as well as bright spots for investment?
Humility is also requisite as governments confront their energy interdependence with one another: again, despite record growth in renewable energy capacity,[8] and surging climate financing, countries within the European Union are poignantly aware of their dependence upon natural gas imports—whether from Russia, Norway, or the US. And even despite its own domestic shale and conventional oil and gas production, the US continues to import hydrocarbons from countries such as Canada, Colombia, and Saudi Arabia. Similarly, even despite trade tensions, resource ties still bind China with Australia, with the latter having exported a record volume of natural gas to China in 2020.[9] Thus, geopolitics remains at the very heart of the changing energy landscape. The inverse is also entirely true.
In the past, resource ties have been a source of tension; but, as we shall see, such bonds also have the potential to become a geopolitical salve, provided that the relationship is designed to be mutually beneficial to both parties. As we navigate the path toward net zero, and by seeking balance and diversification, our continued energy interdependence can actually spur opportunities for cooperation amongst policymakers, and for long-term investment and profit generation for enterprises and economies around the world.
The quest for resources to fuel industrial growth, military campaigns, and transport and urbanisation lies at the very heart of geopolitics. In considering the relationship between energy and geopolitics, the existence of resources is often associated with tension, be it in the form of border disputes, armed conflict, trade disputes resulting in embargoes, or interstate conflict or war. Access to strategic reserves of coal in Romania was a pivotal part of the campaign on the Western front during the Second World War. During the 1970s, energy-importing countries experienced the oil shocks related to the OPEC crises in the wake of the Arab-Israeli War, the Yom Kippur War, and the Iranian Revolution.[10] Indeed, research shows that if a resource-rich country has an endowment of oil along its border with an “oil-less” country, then the probability of conflict between these two countries is higher than if there were no oil at all.[11] Recent data also indicates that the presence of onshore oil might even portend a higher rate of conflict than the presence of offshore oil, as the potential for production and output to be seized by rebel groups is far higher on land than it is in deep-sea projects.[12]
And yet, while asymmetric access to resources might spur tensions between countries, it can also be a geopolitical salve, by underpinning ties of trade, development, and civic diplomacy and even employment. Japan’s quest for resources to fuel its extraordinary manufacturing era from the 1960s onwards resulted in a mutual export of ODA (overseas development assistance) to southeast Asian countries such as Vietnam. One might also argue that Israel’s relatively recent discoveries of natural gas—and successive exports to Egypt—have also underpinned a normalisation of relations with Cairo, — a diplomatic rebalancing which has also been a key facet of improving relations between Israel and the UAE.
A crude awakening: our enduring energy interdependence, and continued reliance upon fossil fuels
Such positive examples of resource ties are swiftly forgotten in times of crises. The underlying conditions that led to positive benefits to the political relationship in these two instances are also ignored. And so it is with the present power crunches ricocheting across the globe. With the asynchronous reopenings of economies in the wake of the COVID-19 pandemic—and amidst ongoing disruptions to supply (be it from underinvestment in hydrocarbons, weather-related events such as flooding, pandemic-induced stoppages to production, or port congestion)— we are reminded not only the extent to which our economies depend upon fossil fuels for power generation and for transport, but also, of the extent to which many countries remain deeply interlinked in patterns of energy interdependence.
The European dilemma regarding natural gas supply from the Russian Federation is instructive, but it must also be recognised that energy interdependence cuts both ways. As long as Russian gas is a competitive source for energy, then energy-hungry European manufacturing powers will need to engage with the leadership in Moscow; equally, as long as Europe has access to alternative sources of fossil fuels – even if not as cheap – Russia will need to retain an understanding of European red lines. This is what interdependence means. This insight is equally applicable to the energy interconnections of the future: China can be a useful partner in the energy transition, even if it is not the only one.
Indeed, for some policymakers, part of the allure of developing domestic renewable energy capacity was that it ostensibly would lead toward more enhanced energy independence. Ostensibly, extraordinary efforts in diplomacy might not be needed in such a green future, as countries would, in theory, no longer be reliant upon conflict-ridden territories to secure energy supply. Even in a net-zero future, this is perhaps to view the world through rose-coloured glasses: for the development of wind, solar, and hydrogen energy—or indeed techniques of greater energy efficiency—at an affordable cost is intrinsically related with garnering supplies, inputs, R&D, and human capital from different jurisdictions. Overly halcyon scenario-planning for domestic renewable energy capacity development often fails to incorporate these facts.
The shift from fossil fuel-based to renewable energy capacity does not end interdependence; it merely pushes interdependence to a different part of the energy mix. The dependence now shifts from hydrocarbons to metals and from ores to rare earths. Countries in Africa, Asia, Americas and Australia are likely to emerge as global mineral hubs, and the routes to ship these new commodities might pave new geostrategic highways.
In recent years, control over the production of rare earths has become a familiar site for geopolitical tension. In 2021, the Biden administration in the United States ordered a review of the country’s critical mineral supply chain; the recommendations included prioritising development financing for “international investments in projects that will increase production capacity for critical products, including critical minerals”.[13] The administration’s concern is readily understandable, as shown in Table 1.
Table 1: China’s share in the rare earths supply chain
*Disaggregated data for neodymium was not available; the data for Rare Earth Concentrates (REO) has been used since neodymium is a rare earth metal.
Yet it is not just production of rare earths that will be relevant, but also the locations of their processing and other forms of value addition. These might emerge as the equivalent of present-day refineries and petroleum complexes, and their distribution potential linked to key consumption centres might lead to the birth of new geostrategic lynchpins such as the Straits of Malacca and of Hormuz. The notion that domestic renewable energy production would free countries from the intricacies of dependence is misguided – and a seminal mistake if it was to be the basis of new energy order.
Sunset on Malthus?
Part of the reason why the aspiration of energy independence retains its sheen is that our energy economics and policymaking continues to be suffused with a Malthusian legacy.[14] Said another way, the spectre of scarcity continues to inform the way we think about energy and resources. The fear that “there will never be enough” renders misgivings about dependence—or else outright denial. A sense of energy insecurity –no matter how much it is brushed under the rug might also prompt a premature and imprudent vaunt into a disorderly energy transition, with a disproportionate focus on bolstering capacity at home. Such a policy would have little regard for the fact that climate change has been branded as humanity’s largest negative externality: in order to mitigate the situation, global actions ought to be in concert. Humility is thus needed not only in recognising the endurance of hydrocarbons within the energy mix, but also, but it is also implicit in our interconnectedness as we navigate the green transition. For the rich income countries, part of this humility also requires understanding the various ways in which the energy transition has the potential to deepen the chasm between the ‘haves’ and the ‘have nots’.
The haves and the have-nots: is the energy transition deepening the chasm?
The energy transition has the potential to create a deeper chasm between the standings of the ‘haves’ and the ‘have nots’ in the global macroeconomic environment. First, if we consider the traditional trajectory of industrial growth—that is, from agrarian activity to textile production, and then from heavy industry to light manufacturing, eventually segueing to services-oriented economies—the case can be made that for developing countries earlier on the maturity curve (such as Vietnam and India), stringent measures toward decarbonisation might actually thwart what would otherwise unfold as a full evolution of robust domestic industry. For the ‘price takers’ and for commodity-hungry countries, this might take the shape of premature restrictions on access to or use of resources to fuel domestic manufacturing activity.
And for the ‘price makers’—that is, commodity-rich exporting countries—the case can also be made that swift or unrealistic moves toward decarbonisation might rob oil and gas exporters from a significant base of output as well as a source of gross national income. In a country in which resource wealth underpins GDP, export activity, employment (both directly related to exploration, extraction and production of natural resources, as well as indirectly, via civil service salaries), national income, and sovereign and pension funds, the potential for social fissures to either manifest or to be exacerbated is clear.
It should be noted that history indicates that access or proximity to natural resources is not perfectly correlated with a trajectory of sustainable economic growth—hence the “Dutch resource curse”. Research from Brazil also indicates that oil endowments within a province or a municipality do not necessarily result in improved livelihoods for members of that community.[15] Indeed, even in a lofty commodity price environment, such as at present, windfalls potentially reaped from higher export prices of oil and gas do not always translate into higher incomes for households within the exporting country.[16]
This tension between environmental and the development agendas within emerging markets and developed economies (EMDEs) is also evident in the debate surrounding the potential carbon border adjustment tax (CBAT), as well as recent agreements on deforestation in COP26.
Home game: mitigating the domestic bias of climate finance
An effective, secure energy transition is currently undermined by the “domestic preference” evident within the realm of climate finance. In recent years of tracking climate finance flows, data from one leading industry body evidences that 76 percent of capital is invested in the same country in which it is sourced.[17] Thus, despite various commitments and guarantees from bodies such as the G7 or the G20, a significant challenge remains regarding the ability for much-needed climate finance to cross borders.[18] Certainly, a long-running trend of a domestic bias for investment is not limited to climate and infrastructure investments. Rather, it extends across sectors and asset classes, including real estate, energy, private equity, and venture capital. Whilst managing ‘sticky capital’ and the prospect of generating long-term returns, and building up enterprise and asset values, investors might harbor an inclination to place their money close to home—in other words, “where home-country risks are well-understood.”[19]
As these authors have highlighted previously, playing close to home in infrastructure investing may not always be the least risky option.[20] And yet, we have already motioned that the dawning age of renewables is not one of energy independence, but of a new kind of interdependence. Policymakers operating under the illusion of energy sovereignty are otherwise missing out on the opportunity to cultivate positive structures of interdependence which could potentially support their own geo-strategic aims – such links, might, in turn, spur opportunities for private investment.
Thus, we might witness a shift in incentivisation for private finance and the climate problem: such that sticky capital not only supplies the domestic market, but that it is directed outwards as well, perhaps even towards the geographies where host countries of finance might find mutually beneficial resource ties – such as the model of Japan and ODA in Southeast Asia, discussed earlier. As argued above, interdependence can be a salve for geopolitics as long as both sides gain in the energy or in the development equation. Such a value exchange – or what Michael Oakeshott refers to as an “enterprise association” – rests upon an understanding of interdependence – again, something that has been jettisoned in the lack of humility in the energy transition (something which is mirrored in the “domestic bias” of climate capital).
Such misconceptions have the potential to divert policymakers from a future of true sustainability, which involves the creation of resilience through diversification. Redirecting long-term flows of investment—including private capital—towards emerging market/developing economies will not necessarily be easy. Large sources of private capital in the global north – whether institutional capital or banks – will need a fresh set of incentives to invest in the energy supply chains of the future.[21]
Moreover, recognising that these investments will likely be in new minerals, new processes, and new geographies, it is clear that old regulatory risk models may no longer be suitable. New market mechanisms to help enable a level playing field of investment in new energy materials are needed—which might take inspiration from the industry bodies which have developed over time in support of oil markets around the globe.
Conclusion: The Green Marshall Plan
The scale of the rebalancing required – of investment, attention, and financial flows – is vast. If anything, it should be compared to the Marshall Plan. That enormous effort, after all, had both pragmatic and idealistic motivations. On the one hand, it was necessary to assist a Europe devastated by war; on the other, it was essential that a liberal community be built that was strong and resilient in the face of the Soviet challenge. There are similar overlaps today between the realist search for security and the idealist requirements of climate action. A Green Marshall Plan has the potential to both stabilise international relations and create the diversification and resilience necessary to allow for durable interdependence during the energy transition.
For the energy transition to act as a geopolitical salve rather than as a source of discord, a Green Marshall Plan must have four characteristics.
First, it should be genuinely global in character. A global net-zero approach would understand that some regions might take longer on the fossil fuel transition because of the specifics of their development or their energy landscape. Nor should geographical factors be ignored: An archipelago like Indonesia will take longer to transition to solar energy and away from natural gas than a continental country.
Second, legacy energy infrastructure will need attention to help enable the success of the Green Marshall Plan, to make it implementable, and to scale it. As is evident in energy consumption patterns across the globe, fossil fuels remain a part of the energy mix, and a way of working toward a balanced and global green transition. Nor can sectors like mining be ignored: the Green Marshall Plan will likely have to go into a “dirty” sector, invest in new ways of mining and new materials to mine.
Third, the Green Marshall Plan is not just about blue-sky research into the possibilities of the future. It is about increasing investment in nuts-and-bolts manufacturing in underserved geographies as well – whether energy efficiency in the Asian steel producers of the future or new cobalt mining technologies in sub-Saharan Africa today. It is about enabling development of critical frontier technologies, as well as swiftly and sustainably spreading a green ‘know-how’ which is globally benchmarked.
And fourth, the Green Marshall Plan should embed energy resilience at its heart. Areas which have sped up their energy transition are those where it is seen as assisting in energy security. As these authors argued, dependence on a single source or vendor is antithetical to achieving long-term and sustainable energy security. As such, the strategic mapping of a secure energy future cannot exclude a China, with its strong presence in the rare earths supply chain, or a Russia with reserves of natural gas, or the countries of the Gulf, abundant in oil and gas reserves. Again, humility as well as diversification might render each actor a more responsible and empathetic participant in the global energy transition.
What we are recommending is an all-inclusive future. That will require the leaders of key nations to invest political capital in a new institutional framework that supports the energy landscape of the future. The International Energy Agency, OPEC, commodity exchanges and others defined and shaped the hydrocarbon world. The global energy transition requires new frameworks, organisations and political arrangements to underwrite our common journey ahead, which reflect the needs of multiple stakeholders, in both the private and public spheres. The G7’s B3W, the European Union’s Global Gateway, and the Indo-French International Solar Alliance all point to one imperative: of green arrangements underwriting green transitions. The world needs a new institutional structure: one that keeps the lights on in the 21st century.
[5] See also, Vivan Sharan and Samir Saran, “India’s Coal Transition: A Market Case for Decarbonisation,” ORF Issue Brief No. 505, November 2021, Observer Research Foundation.
[14] For an excellent discussion of how Malthus continues to cast a long shadow on economics in advanced economies, see J.K. Galbraith, The Affluent Society (US: Houghton Mifflin, 1958).
Progress, as the world has designed and defined it, requires material production which, in turn, requires energy. Historically, therefore, fossil fuels like coal were key in economic growth across geographies. Today, the developed economies stand on the edifice of fossil fuels, carbon-intensive industries, and lifestyles that have resulted in global warming. The same growth path is now being questioned, and the poor and developing countries are being asked to build, find, and fund newer low- and no-carbon models to lift their people out of poverty and achieve their development goals.
As global climate finance has both under-performed and been subject to clever redesignation, countries such as India remain in dire need of green financing.
Consequently, there are growing calls for India to declare a net-zero year: To offset its carbon emissions by various processes of GHG absorption and removal. India is aware that such calls are irrational, and despite international pressure, has avoided making pledges or setting hard targets, beyond its commitments at the Paris Climate Conference in 2015. Indeed, “net zero” is not possible with India’s current levels of reliance on coal. Its shift away from this fuel will depend largely on the quantum of additional money and resources that can be invested into alternative energy. However, as global climate finance has both under-performed and been subject to clever redesignation, countries such as India remain in dire need of green financing.
In August 2020, UN Secretary-General António Guterres urged India to give up coal immediately. He asked that the country refrain from making any new thermal power investments after 2020, and criticised its decision to hold auctions for 41 coal blocks earlier that year. Similarly, in March this year, in a message to the Powering Past Coal Alliance Summit, the Secretary-General urged all governments to “end the deadly addiction to coal” by cancelling all global coal projects in the pipeline. Pre-pandemic, India had the second largest pipeline of new coal projects in the world. He also called the phasing out of coal from the electricity sector “the single most important step to get in line with the 1.5-degree goal of the Paris Agreement.”
For much of human history, photosynthesis was the primary source of mechanical energy. Human and animal muscles powered by food and fodder, made the world go around. Photosynthesis was also at the root of heat energy derived from burning wood. Eventually, coal replaced wood as the dominant source of heat energy, but still represented the energy of photosynthesis stockpiled over hundreds of years. The advent of the steam engine in the 17th century helped humans change the heat energy released from coal, to mechanical energy.
This development also upended the paradigm of material production. According to a recent estimate, coal was accounting for well over 90 percent of energy consumption in England by the mid-19th century, owing in large part to the steam engine. For long, researchers had been divided over the question of whether coal was pivotal to the industrial revolution. Scholars such as Wrigley (2010) regarded the switch to coal as a “necessary condition for the industrial revolution,” while others like Mokyr (2009) held that the “Industrial Revolution did not absolutely ‘need’ steam…nor was steam power absolutely dependent on coal.”
A November 2020 paper by Fernihough and O’Rourke might just settle the question: Using a database of European cities spanning the centuries from 1300 to 1900, the authors found that those located closer to coal fields were more likely to grow faster. Those cities, the researchers wrote, “located 49 km from the nearest coalfield grew 21.1 percent faster after 1750 than cities located 85 km further away.”
This article explores this line of enquiry by examining the consumption of coal across developed and developing countries, and mapping it against key metrics of energy transition. It finds that countries such as India—with their high dependence on coal and a simultaneous growth spurt in renewables—can be the most effective location for climate finance. This is plausible given that per capita coal consumption in India is still far below that of the developed world, and economic transitions are both inevitable and required to be ‘green’.
To be sure, India is struggling with a coal shortage, which has the potential to derail its post-COVID-19 recovery; the same is true for China. Consequently, there is growing scepticism in developed countries, that both India and China will double down on coal and increase production to overcome supply challenges in the future. While such concerns are not unwarranted, they are not unique to the developing world.
To be sure, India is struggling with a coal shortage, which has the potential to derail its post-COVID-19 recovery; the same is true for China.
Germany, for instance, in the first six months of 2021 ramped up its coal-based generation, which contributed 27 percent of the country’s electricity demand. Three factors contributed to this rise: Increase in energy demand amidst the successive waves of the COVID-19 pandemic, increased prices of natural gas, and reduction in electricity generation from renewable energy (particularly wind). Coal is often the bedrock of energy generation, and its use is impacted by complex market processes that cannot be reduced to normative choices.
Energy Use and Coal
Countries of the Organisation for Economic Cooperation and Development (OECD) are using progressively less energy to power their societies. Multiple factors can contribute to this trend, at least in theory. First is the technical improvements in energy efficiency—i.e., the use of less energy to perform the same tasks. Second is the “activity effect”, or the changes in energy use because of changes in economic activity. This would also encompass a “structure effect” which relates to changes in the mix of human activities that are prompted by changes in sectoral activity, such as transportation. And finally, there could be weather-related changes in energy use—for instance, more temperate weather can reduce the need for heating or cooling.
The IEA quantifies these effects, and consistently finds that the reduction in energy consumption in the OECD countries is largely a result of technical improvements in energy efficiency. This means that the reduced use of energy in advanced countries is not on account of any significant changes in consumer behaviour—otherwise, the activity effect would be the primary determinant of the fall in energy use. While energy efficiency improvements have driven this fall, the IEA finds that the current rate of improvement is not enough to achieve global climate and sustainability goals. Consequently, the Agency has advocated for “urgent action” to counteract the slowing rate of improvement observed since 2015.
While energy efficiency improvements have driven this fall, the IEA finds that the current rate of improvement is not enough to achieve global climate and sustainability goals.
Conversely, developing countries have seen a rapid rise in energy use owing to the activity effect (see Table 1). The increase in economic activity in the developing world is also directly correlated to improvements in life spans and socio-economic progress. While energy use has approximately doubled in countries like India and China from 2005, a large share of global energy efficiency savings is also driven by technical improvements in these countries. However, in the aftermath of the 2008-09 global financial crisis, China implemented a stimulus package that “shifted its manufacturing sector to more energy intensive manufacturing.” A similar trend may emerge in China’s recovery from the pandemic, that may reduce efficiency gains in the future.
It would appear that OECD countries have managed to cut their dependence on coal over the last 15 years quite precipitously. In particular, this seems true of countries like the US and EU members. Japan, meanwhile, is an outlier, having turned to coal to provide base-load power to substitute nuclear energy. In most years between 2005 and 2020, the fall in coal consumption in OECD countries has outpaced the decline in total energy consumption. In 2020, for instance, coal consumption dropped by around 18 percent whereas total energy consumption fell by around 8 percent.
While China has begun to reduce its dependence on coal, it still accounts for the largest share of coal consumption amongst all nations. China is also home to over half of the world’s thermal power plant pipelines—with around 163 GW in pre-construction stage, even discounting the 484GW worth of cancellations since the Conference of Parties at Paris in 2015. China is also one of the last of the biggest providers of public finance for overseas power plants with over 40GW of projects in the pre-construction pipeline.
Simultaneously, coal consumption has remained relatively stable at just under 40 percent of primary energy consumption amongst non-OECD nations (see Table 2). In these countries, coal consumption tends to mirror total energy consumption. For instance, in 2018 and 2019, total energy consumption increased by three and two percentage points, respectively. India’s dependence on coal has also remained unvarying. These trends suggest that non-OECD countries such as India require to do much more to contribute to a global reduction in coal consumption and therefore towards net-zero GHG emissions. However, there is more to the OECD’s reduced coal consumption than meets the eye.
Table 2: Share of Coal in Primary Energy Consumption (%)
Country
2005
2009
2014
2020
US
24
22
19
10
China
73
72
66
57
Germany
24
23
25
15
Japan
21
22
26
27
India
54
55
58
55
World
29
30
30
27
OECD
20
19
19
13
Non-OECD
38
40
39
37
EU
17
16
17
11
Source: BP Statistical Review of World Energy, 2021 and author’s own calculations
Since the Earth Summit in 1992, India and other developing nations have argued for an equity-based approach to GHG reduction, commensurate with domestic capabilities and historical emissions. This approach has often been subject to cross-examination by OECD experts. For instance, in a 2019 report by the Universal Ecological Fund, high-profile experts including a former White House Adviser and a Harvard professor, ranked national climate commitments based on absolute emission curtailment targets. The report clubbed developed and developing countries together in its assessment of the general insufficiency of climate pledges to meet the Paris Agreement’s goal to keep global warming below 1.5 degrees Celsius above pre-industrialisation levels.[1] This should not be a surprise, however, as it is only in consonance with the overall trend of Western academic discourse seeking to dilute the equity principle.
India and other developing nations have argued for an equity-based approach to GHG reduction, commensurate with domestic capabilities and historical emissions.
It is a principle that should not be set aside just yet, given the persistent differences in per capita fossil fuel consumption between the developed and developing worlds. Despite near doubling over 2005–2020, India’s per capita coal consumption is still below the global average (see Table 3). The global average, in turn, has remained static around this period because the decrease in the per capita consumption of coal in OECD countries has been partially offset by an increase in the per capita consumption in non-OECD countries. However, the per capita consumption of coal in OECD countries still exceeds that of non-OECD countries, despite much higher levels of wealth and, therefore, capability to transition to renewables and other fuels.
Table 3: Total per capita Coal Consumption (KWh)
Country
2005
2009
2014
2020
US
22599.34
18812.92
15740.35
7756.85
China
10872.44
13601.42
16797.06
16300.13
Germany
11578.83
10182.10
11423.13
6140.66
Japan
11041.71
9882.66
10891.46
10088.89
India
1868.88
2393.57
3480.00
3530.87
World
5381.48
5621.29
6222.87
5425.69
OECD
11013.62
9509.45
9009.38
5564.68
Non-OECD
4049.02
4722.97
5600.73
5395.83
EU
10960.70
9013.81
8207.71
4787.28
Source: BP Statistical Review of World Energy, 2021; World Bank and authors’ own calculations
Indeed, a large share of the decrease in per capita coal consumption in OECD countries is driven by transition to fuels such as natural gas, that are used to generate electricity, particularly in countries like the US. It accounts for around a 34-percent share of primary energy consumption in the US, and 25 percent in the EU, compared to seven percent in India (and a similar share in China). In contrast, the share of gas in India’s energy mix is amongst the lowest in the world. Even as Prime Minister Narendra Modi wants to more than double the contribution of natural gas to 15 percent of India’s energy mix by 2030, the Petroleum Secretary has said that the country cannot rely on natural gas. There are several reasons, including high landed costs relative to coal, complex domestic pricing mechanisms, a lack of pipeline infrastructure and stable supply/ import linkages, and the inability of financially stressed electricity distributors to enter into “take or pay” contracts.
India, therefore, requires relatively greater and more aggressive investments in alternative sources of energy than its developed country counterparts that have had decades to transition to fuels like natural gas. Such financial flows to India can prove to be much more effective vehicles for a net-zero trajectory, compared to similar investments in other parts of the world with higher per capita exposure to coal and relatively slower transition pathways to renewables.
Around 72 percent of India’s GHG emissions are linked to its energy sector. It is clear, that if OECD countries are aiming to accelerate a global reduction in GHG emissions, they will need to help India finance its energy transition and overcome the many resource-linked barriers to the wide-scale adoption of renewables. The high costs associated with renewable energy storage and grid upgrade requirements, are related resource challenges. Since developed countries are unlikely to be satisfied with per capita equity, they would do well to help India hurdle some of its obstacles.
Financing Energy Transition
According to India’s Central Electricity Authority’s (CEA) Optimal Generation Capacity Mix, the country’s installed capacity will increase to 817 GW with an additional 27GW of battery storage, by 2029–30 (see Table 4). Of this, firm capacity will contribute approximately 395 GW while renewable sources, around 445 GW. Additionally, a July 2021 study has concluded that more efficient use of existing thermal resources could lead to 50 GW of excess coal capacity with respect to current needs of the system. With limited expectations from nuclear and gas resources and deteriorating coal economics, investments in renewable energy storage options are crucial for managing India’s base load requirements. This requires unlocking of financial and technological flows from the OECD, particularly since there are several uncertainties associated with the cost of battery storage technology. These include risks linked to supply chains and exchange rates.
Total Renewables (Solar, Wind, Biomass, Small hydro, PSP)
4,45,3015
53%
Battery Storage
27000MW/1,08,0000 MWh
Source: Central Electricity Authority; The cost trajectory for battery energy storage system is assumed to be reducing uniformly from 7 Cr in 2021-22 to 4.3 Cr (with basic battery cost of US $75/kWh) in 2029-30 for a four-hour battery system
The technologies that will pave the way to such low-coal path are developing rapidly, with significant progress in renewables, battery storage, and green hydrogen, amongst others. They each require, however, large financial outlays. Moreover, India is still highly dependent on expensive bank lending, which is now hitting sectoral exposure limits, whereas long-term capital is required to finance energy infrastructure. As of April 2020, the exposure of banks and non-bank financial institutions to India’s power sector was already around US$ 160 billion, roughly the lending necessary to finance the country’s renewable energy targets for 2030.
According to the Government of India’s ‘Energy Compact’ submitted to the UN in September 2021, the country required a total investment of US $221 billion to set up 450 GW renewable generation capacity, including associated transmission and storage systems. However, other research has pegged this investment much higher at US $661 billion, to build both renewable energy systems and transmission and distribution systems. The IEA also estimates that India requires a total investment of US $1.4 trillion for clean technologies to help achieve a sustainable development path till 2040. In comparison, developed countries managed a transition away from coal over a longer period of time and with different costs. Investments for clean energy in the Global South needs to be consistently and significantly higher to help achieve the simultaneous goals of SDG 7 (Affordable and Clean Energy) and other development targets.
Advanced countries would do well to recognise that long-term institutional capital is urgently required to help India transition from coal to renewables at scale. What is needed is far more than lip service; nor will change happen only through negotiations at Glasgow at the COP26. Overall, mainstream sources of international climate finance such as the Green Climate Fund and the Global Environment Facility have managed to provide just over a billion dollars in finance for national projects. While there is enthusiasm around green bond financing, the absolute value of issuances towards relevant segments such as renewable energy, is still relatively low at around US $11.2 billion since 2014. To put it in context, the global issuance of green bonds totalled over US $305 billion in 2020 alone, specifically for climate-related and sustainability projects.
India, for its part, must bite the bullet on large-scale power sector reforms, to improve distributional efficiencies and facilitate inward financial and technological flows.
A high sensitivity to the cost of capital means that other sources of institutional capital are needed to fill the gap, even as the Indian private sector learns to raise green bonds and co-develops green taxonomies with relevant parties. Most OECD financing towards renewables in developing countries is conducted through debt instruments. According to the International Renewable Energy Agency, cumulative transactions and financial flows from the OECD countries towards renewables development in the rest of the world reached US $253 billion between 2009–2019, of which around US $228 billion was in the form of debt. India accounted for just under US $11 billion of the amount, which is less than 5 percent of the cumulative debt finance by OECD countries.
Table: Cumulative Transactions by OECD Countries into Renewables (2009-2019, %)
Debt
90
Grants
5
Equity and Shares in Collectives
4
Guarantees and Others
1
Source: International Renewable Energy Agency
OECD members must aim to redirect institutional investments towards India. For instance, their sovereign funds and pension funds must adjust to new business models around energy storage and distribution. There are also many possible designs of new financial instruments that could be explored. These could recognise the different capacities and capabilities in developing countries at the outset. For instance, grants and debt funding could be combined in multiple ways to subsidise loans. The scale of grant involvement could be directly proportionate to relevant environmental, social and governance factors, and therefore could incentivise more aggressive low-carbon paths. Similarly, new kinds of investment management and rating modalities could be employed to scale up investments where they are most required to offset planetary risks. The availability of innovative long-term finance for India is critical to any meaningful realisation of global net-zero ambitions. India, for its part, must bite the bullet on large-scale power sector reforms, to improve distributional efficiencies and facilitate inward financial and technological flows.
Conclusion
India’s current per capita coal consumption is three-fifths that of the OECD average, and one-fifth that of China’s. This low per-capita coal consumption in a coal-rich country can and must remain the key feature of India’s growth, going forward. This article demonstrates, that for India to keep its coal in the ground, more and better financing is needed.
A market case for a green transition in India already exists. The last few years have demonstrated India’s appetite, amongst the public and the political class, for a move towards cleaner growth. What it requires now is what this essay calls for: A higher flow of capital towards crucial green sectors—in particular, a higher level of foreign capital inflows towards these sectors, and a better texture of such capital, moving towards a more patient and equitable finance.
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The financial crisis across the globe and the ensuing responses by nations and non-state actors has dominated both public consciousness and political debate in the recent past. The discussion on suitable stimulus packages, the causes for the financial disorder and future restructuring of the financial systems has often been dominated by the rhetoric of specific constituencies serving individual interests even as it loses sight of the substantive argument. In India too, the eagerness to commend our regulatory practices has tended to brush the larger debate on the actual economic fallout of the crisis under the carpet.
The financial crisis across the globe and the ensuing responses by nations and non-state actors has dominated both public consciousness and political debate in the recent past. The discussion on suitable stimulus packages, the causes for the financial disorder and future restructuring of the financial systems has often been dominated by the rhetoric of specific constituencies serving individual interests even as it loses sight of the substantive argument.
In India too, the eagerness to commend our regulatory practices has tended to brush the larger debate on the actual economic impact of the crisis under the carpet. As the world economy lurches ahead, the fallout on the country and the innovative measures necessary to guide the Indian economy through this downturn need to take centre stage. The recently concluded G-20 summit at London too did not result in any concrete measures and the outcome was a litany of intentions rather than actions.
This paper examines the “conservative and prudent practices” within the Indian financial sector that cushioned the direct impact of the institutional meltdown witnessed in the West and discusses the measures that the country must pursue to regain the growth momentum and help restructure the global financial order. It seeks to highlight some of the priorities that must guide India’s responses on the path to economic recovery.
The main policy recommendations are as follows:
(i) Give highest priority to public investment in infrastructure and social sector;
(ii) Ensure credit for private sector to enable participation in infrastructure and manufacturing sectors. This would generate employment and spur GDP growth;
(iii) Encourage public and private investments through tax and other incentives in Rural Development and Agriculture sectors. Make supply chain infrastructure a national mission;
(iv) Develop alternate business models to ‘SEZs’. Policy must encourage ‘rural business hubs’ along with development of rural markets.
(v) Develop domestic BPOs and IT services markets. Special emphasis on development of IT infrastructure in rural and peri-urban areas;
(vi) India must seek out a new geo-economic space for itself through regional and international trade arrangements.
Samir Saran 