Background
The world has seen many energy transitions: from human to biomass energy; from biomass to animal energy: from biomass to wind and water derived energy; from wind and water to energy from fossil fuels. These transitions offered improvement in efficiency, cost and ease of use and were primarily mediated by the market. The current transition from fossil fuels to renewable energy (RE) is different in many ways. It is mediated primarily by government policy response to market failure to correct negative externalities (climate change) of fossil fuel use. The transition is much more than a mere substitution of one fuel with another at the supply end but one that will demand a complete transformation of the energy delivery system.
There is no dearth of technical and economic modelling studies on scenarios for global and national RE diffusion and the required policy inputs, but these are mostly designed to promote RE rather than objectively discuss the geo-political, economic, social, and structural challenges that the transition is likely to entail. The limited corpus of literature on the geopolitics of RE is generally optimistic. According to most projections, scarcity of fossil fuels will be replaced with the abundance of renewables and the widely dispersed availability of RE will eliminate problems associated with geographic concentration of fossil fuels.
Some of the studies see the de-centralised nature of RE democratising access to energy and offering a substantial peace and security dividend to the world. Current responses to China’s leading role in producing and using technologies for harnessing RE, particularly solar energy technologies, suggests otherwise. A recent report on solar PV (photovoltaic) supply chains from the IEA (international energy agency) cautions that “the level of concentration of global PV supply chains in China is creating challenges that governments need to address”. To take on the challenge of solar supply chain concentration in China, the West is encouraging developing countries to invest in domestic manufacturing and also invest in alternative supply chains.
India’s Geo-strategic Vectors
Despite the ongoing energy transition, there is continuity in key domestic values such as self-reliance for strategic autonomy, economic progress for material power asset maximisation and social justice for domestic coherence that have informed India’s energy policy. These key values, embedded in the internal dimensions of India’s energy policy have influenced India’s strategic vectors for external projection that include but not limited to dependence, resilience, and identity. India’s domestic values and strategic vectors will continue to inform energy policy even in the low carbon world.
Dependence
The low carbon era is likely to be far more material intensive than the fossil fuel era. Effectively, generating 1 terawatt of electricity from solar energy could consume 300-400 percent more material input than generating electricity using natural gas or coal as fuel. For example, if global solar energy generation capacity increases to 630 GW (giga watts) by 2030 as required by the net zero goal for 2050, production of polysilicon will have to double. India set itself a target of increasing RE power generating capacity to 500 GW by 2030 (this goal is not part of India’s recently updated NDC (nationally determined contribution to the Paris agreement on climate change). Even if the goal is not met, India’s RE power generation capacity will increase substantially given the tremendous policy push and financial incentives offered to private sector investment in RE.
India is also incentivising domestic manufacture of RE equipment, but it is not likely that this effort will reduce import of key minerals and technologies for production of solar modules and batteries. However, mineral supply disruptions may not have the dramatic impact that oil supply disruptions have had on oil importing economies like India. Oil is a primary source of energy that required continuous growth in production; minerals are part of the equipment that harness RE, and they do not require continuous replacement and growth in supply. The value of global mineral trade even in a scenario where RE dominates is likely to be an order of magnitude lower (billions of dollars) than that of oil trade (trillions of dollars). If mineral rich countries hold up production, alternative higher cost mining sites can be developed to fill in the gaps as mineral resource endowment is not highly concentrated. Minerals from older devices can also be recycled and reused.
In this light, India’s decision to “make” rather than “buy” RE equipment raises some issues. Both in mineral mining and RE equipment production, cost competitiveness matters. Investment in relatively high-cost domestic manufacturing will effectively increase the cost of reducing carbon emissions and may misallocate scarce capital that may be better employed in adaptation measures for climate change. Overall development and social justice through energy access (among other things) may also suffer as capital is diverted to the production of carbon mitigation goods.
Resilience
Electricity is the main vector for RE and the economics of electricity is shaped through physics. Electricity is a heterogeneous good across space and time (electricity at 12 noon and 12 midnight are different goods as are electricity produced in a densely populated city and that produced in unpopulated desert. In both cases the former is far more valuable than the latter). The nature of electromagnetism that produces electricity makes storage, transmission, and flexibility difficult and expensive. These properties make intermittency the primary risk in the low carbon era just as scarcity was the primary risk in the fossil fuel era. In a scenario where RE dominates energy supply, flows (that counter intermittency) will matter more than stocks (as it was in the case of fossil fuels). Control over strategic reserves of energy and control over pipelines and sea lanes will have to be replaced with control over the grid that facilitates flow of electricity.
The grid network will require not only storage but also require flexible and interrelated power systems that can balance supply and demand in real time. RE is much less geographically concentrated and any country can specialize in those aspects of RE trade in which it has a comparative advantage based on factors such as technology, relative price, and cost of transport. Surplus production of low carbon electricity such as hydropower or solar power from one country could be exported to cover deficit in another country. This means that a resilient grid will have to be regional rather than national. Cooperative relationships with neighbouring countries will matter more than relationships with far away resource rich countries. For India control over the grid network will become vital for resilience in energy supply for national security and for projecting influence, especially in the South Asian region where it will be the largest producer and consumer of low carbon electricity. The grid network will include physical assets such as power lines and storage facilities, and virtual interconnections that will multiply as the number of decentralised suppliers and consumers increase.
Electrifying everything including transportation with electric vehicles will compromise diversity, one of the key attributes of energy security. When there is compromise on electricity supply due to technical, natural, or manmade causes, economic and social life will come to a standstill. Investment in alternative low carbon sources such as Hydrogen that do not rely on the electricity network will increase diversity but the high cost of redundancy that has to be built into the low carbon energy system will remain a matter of concern for India that has vital development needs.
The reliance on the private sector that dominates the RE sector in India accounting for over 96 percent of capacity may also compromise resilience. The primary motivation for private investment in India and elsewhere is private profit maximisation not the production of public goods such as energy security. This was evident in the recent past when private thermal power generators in India reduced the import of coal because of high international prices contributing to an “energy (coal) crisis” in late 2021 and early 2022. When oil prices increased private refiners preferred export of refined products to maximise profit rather than provide energy security to India. In both cases the government had to intervene to protect national security.
Identity
The gradual shift in India’s positions in multilateral climate negotiating platforms reflects the change in its identity from that of a non-aligned ‘leader of the poor’ (G77) to a ‘member of the affluent club’ that is aligned mostly with the interests of industrialised nations (G20). India is attracting investments for low carbon energy sources from industrialised economies, and it is also developing domestic manufacturing capacity in RE technologies. In the process India is emerging as the primary ‘adjustment variable’ in the effort to counter the dominance of China in RE supply chains. But in the domestic context, millions of impoverished Indians are the ‘adjustment variable’ in the addressing climate change. India can facilitate these millions to industrialise, develop and urbanise using traditional fuels like most of the world did or India can marginalise their needs in its quest for a global role in the geopolitics of the low carbon world.
Source: International Energy Agency