Beyond Oil, Gas, and the Sun: Thermoelectrics and the Strategic Contours of India’s Energy Security

Introduction: The Missing Pillar

Three storylines animate contemporary energy security discourse in India. The geopolitics of oil and gas imports. Chokepoint risk to maritime supply lines (the Strait of Hormuz and the Strait of Malacca). And the rapid but import-intensive deployment of solar photovoltaics (PVs). Each of these three vectors has attracted considerable commentary, dedicated policy instruments and years of institutional capacity building. Curiously, missing from this strategic vocabulary is a resource that is local, distributed and technology-intensive: thermoelectric (TE) energy conversion and the critical minerals that enable it.

TE technology converts heat directly into electricity using solid-state semiconductor materials. Because such a device has no moving parts, it can produce electricity silently, with zero emissions and low maintenance (Figure 1). The opportunity here is not one of replacement but of monetisation. India’s energy-intensive industries – steel, cement, glass, chemicals, refining – account for roughly 40% of the nation’s total primary energy consumption and forfeit a significant share of that energy as waste heat.1 Estimates place the recoverable waste heat from Indian industry at 50–83 million tonnes of oil equivalent (Mtoe) per year by 2030, with associated CO₂ reductions of 50–100 million tonnes.2 To put that in perspective, India produced approximately 34 million tonnes of crude oil in financial year (FY) 2018–19. In other words, the waste heat India currently squanders rivals the scale of its entire domestic crude output, yet this resource appears nowhere in any national energy security strategy.

This article makes the case that thermoelectrics should have a place at India’s energy security table. To that end, we establish three pillars to support that claim: 1) Industrial waste heat recovery from local sources can position thermoelectrics as a resource to reduce import dependence. 2) The critical mineral supply chain needs for TE materials (tellurium, bismuth, tin, selenium, germanium, indium, and gallium) align strongly with both India’s import vulnerabilities and the National Critical Mineral Mission (NCMM). 3) Defence and aerospace applications allow TE systems to enable national-security goals directly. Taken together, these pillars provide thermoelectrics with a collective strategic justification for inclusion in India’s energy security considerations.

Figure 1. A TE module: a solid-state semiconductor device that converts heat directly into electricity, with no moving parts, noise, or emissions. Modules range from rigid industrial units to flexible film-based generators for wearable applications.

The Waste-Heat Imperative: Indias Unmapped Domestic Energy Resource

Energy security has mostly been conceptualised as an issue of external supply lines: oil from the Gulf, LNG from Qatar and Australia, coal from Indonesia. Much less attention has been given to the energy we already produce and then waste at home. India’s industrial sector uses close to 40% of the country’s Gross Primary Energy Demand (GPED) and accounts for about 55% of final energy consumption.2 A large proportion of that energy never reaches a productive end use – it leaks away as waste heat across a broad range of temperature grades: low-grade heat (below 200 °C) in food processing and textiles, medium-grade heat in chemical plants and refineries, and high-grade heat (above 500 °C) in cement kilns and steel blast furnaces.

Each kilowatt of waste heat we recover and convert to electricity is one less kilowatt India has to generate from imported coal or gas. One less kilowatt that has to traverse vulnerable sea lanes. One less kilowatt of carbon we emit into the atmosphere. Converted waste heat is domestic. It’s zero imports. Waste-heat recovery essentially turns a factory-floor liability into a strategic asset. But India has no National Waste-Heat Atlas. No sector-by-geography assessment of this grand opportunity. And no policy mechanisms that treat waste heat as an energy resource equal to barrels of petroleum reserves or gigawatts of installed solar capacity.

One technology with particular ability to access this vast resource is the thermoelectric generator (TEG). Traditional waste-heat recovery options such as Organic Rankine Cycle (ORC) configurations or waste-heat boilers – while capable – require significant upfront investment, are mechanically complex, and are not easily retrofitted into existing sites. TEGs offer a modular, scalable solution that operates quietly, requires minimal installation effort (they can be bolted to existing sites with minimal plant modifications), and can operate across large temperature gradients. Rated for service lives of decades and with no moving parts, TEGs require minimal maintenance, making them ideal for large-scale deployment across India’s wide-ranging industrial landscape, including in small and medium enterprises that lack the capital required to justify a large ORC setup.3

However, the policy framework needed to drive this technology to market is not yet in place. In India, the Bureau of Energy Efficiency (BEE) runs the Perform, Achieve and Trade (PAT) scheme for energy-intensive industries. However, TE waste-heat recovery is not categorised as a distinct efficiency metric under PAT.4 Linking TE-based recovery to PAT credits and mandating it as part of environmental clearance for new industrial facilities would provide the policy push needed for widespread adoption.

Critical Minerals: The Supply-Chain Sovereignty Challenge

If Pillar 1 makes the demand-side case for thermoelectrics within India’s energy security framework, Pillar 2 reveals the vulnerability of the supply side and, more importantly, the opportunity therein. Today’s commercial TEGs are fabricated from a family of semiconductor materials based on elemental compositions most cited by geopolitical experts for supply-chain vulnerabilities: tellurium, bismuth, antimony, selenium, germanium, indium, and gallium. All seven of these elements are found on the Government of India’s recent list of 30 critical minerals published in 2023.5 That is no coincidence — it’s because they are critical to a technology India has not yet positioned itself around, and their global supply chains are controlled by a single producing country.

The China Factor

China’s dominance over key minerals needed for TE technology is almost as pronounced as its control over solar PV raw materials – remember how we said that exact vulnerability would sound familiar from our solar sovereignty discussion? India’s import reliance on China for bismuth and tellurium was measured at 85.6% and 48.8%, respectively, by Takshashila Institution’s 2024 report; both have been highlighted as strategic vulnerabilities in their critical minerals index.6 In fact, China produced 75% of the world’s refined tellurium in 2024, all by itself.7 See Table 1 for TE-critical minerals cross-indexed with India’s import reliance ratios and Chinese export control policies.

Table 1. India’s import dependence on China for TE-critical minerals. All seven elements appear on the Government of India’s 2023 list of 30 critical minerals. Sources: Takshashila Institution6, United States Geological Survey (USGS)7, International Energy Agency (IEA)8.

Note: Exact import dependency percentages for Sb, Ga, Ge, and In fluctuate but are structurally classified as high vulnerability due to highly concentrated global refining capacity.

One need look no further than the evolution of those restrictions for proof. Initially targeting the gallium, germanium, and antimony supply chains in 2023-2024, Beijing’s Ministry of Commerce went on to place export restrictions on tellurium, bismuth, indium, molybdenum, and tungsten on February 4, 2025 — the most aggressive mineral restrictions yet, as tensions over increased tariffs with the U.S. were flaring.8 The policy was further expanded twice since then, in April and October of last year, to include additional critical rare-earth elements, as well as precursor materials for lithium battery production and refining and processing methods.9

The IEA’s Global Critical Minerals Outlook 2025 report notes that China has a structural advantage over this dependence: Beijing has refining capacity for 19 of the 20 minerals assessed, with an average market share of just under 70%, and it also imposes export restrictions on more than 50% of energy-related minerals.10 The message for India, therefore, should be crystal clear: any domestic TE policy without mineral autonomy at the upstream end is not even worth considering.

Indigenous Recovery Pathways

India does, however, have options. Three domestic recovery pathways already exist at pilot scale; all they lack is a concerted and coordinated policy push to bring them to commercial viability. The first option is copper electrorefining anode slimes. The largest share of tellurium is, in fact, recovered as a secondary by-product of copper refining operations, where it concentrates in the anode slime during electrolytic processing.7 In India, Hindustan Copper Limited already has refining capacity. Researchers have also successfully demonstrated the technical feasibility of recovering high-purity tellurium from Indian copper anode slime through hydrometallurgical processing.11 Industrial-scale feasibility of ion-exchange technologies using Amino-Phosphonic Ion Exchange (AMPIX) resins for the selective recovery of bismuth and antimony ions from arsenic-bearing copper electrorefining wastes has also been reported.12

The second option is lead-refining slag. India’s largest lead-zinc smelting complex, Hindustan Zinc Limited, produces a substantial volume of bismuth-bearing lead-refining slag, providing an entirely independent domestic recovery pathway.

The third is unconventional feedstocks. India’s burgeoning e-waste sector will also have to be addressed at some point, with higher-tech options tailored to spent Bi2Te3 TE alloys, such as hydrothermal leaching or selective sulphidation.13 Other less conventional bismuth sources also warrant investigation: bismuth subsalicylate, a common treatment for gastrointestinal ailments, contains bismuth at 57% of the chemical’s overall molecular weight.14,15 Leveraging this ultra-high-grade material through India’s already-established biomedical waste treatment infrastructure is one of the most promising near-term circular-economy pathways; however, it remains largely unexplored.

Alignment with Existing Policies

The institutional scaffolding for these pathways already exists in part. Ownership of TE mineral policy would naturally fall to the Ministry of Mines, via its NCMM. Approved by the Union Cabinet in January 2025 with an ₹34,300 crore budget — ₹16,300 crore in corpus and ₹18,000 crore as projected public sector undertaking (PSU) investment — the Mission aims to scale critical mineral production by unlocking India’s mining potential across six metal categories and is slated to run through 2030–31.16 Further, its three stated verticals — domestic mining; bilateral cooperation; and urban mining — align closely with the recovery streams enumerated above. Recent policy momentum is also reflected in an announcement in the 2025–26 Union Budget of an upcoming tailings policy, which will provide a framework for mining critical minerals from mine tailings and dumps.17

All that remains is the translation of the final order — incorporating targeted production of TE-grade tellurium and bismuth into the NCMM work plan and tasking the relevant centres — Centre for Materials for Electronics Technology (C-MET), Council of Scientific and Industrial Research–National Metallurgical Laboratory (CSIR-NML), CSIR–Institute of Minerals and Materials Technology (CSIR-IMMT), among others already working with these metals at scale — with converting small-batch recovery into repeatable, scalable metallurgical processes.

Strategic and Defence Applications

Pillar 3 transitions the case for thermoelectrics from industry to national security. As noted above, those same attributes that make thermoelectrics attractive for waste-heat recovery applications – no moving parts, zero acoustic signature, zero fuel burn, low infrared signature, decades-long service lives, scalability from milliwatts to kilowatts – map cleanly onto specialised yet strategically valuable use cases peppered throughout India’s defence and aerospace industries. The physics doesn’t change, just the arena in which they’re deployed.

Near the tactical edge, TEGs can replace batteries in remote-sensing outposts, unattended ground sensors along the Line of Actual Control (LAC), or individual soldier electronics during deployments in Ladakh or Siachen. Indian researchers have already demonstrated flexible Bi2Te3-based generators suitable for wearable and on-body energy harvesting, with power densities sufficient to power a non-trivial fraction of the batteries used by foot patrols today.18 Paper-based disposable TEGs have also been prototyped, enabling lightweight energy harvesting in scenarios where fuel-burning generators are not feasible.19

At the platform level, the value proposition shifts from soldier power to machine power. Exhaust heat from tanks, naval engines, or idling diesel generators at remote outposts can be recovered and converted into electricity for communications, sensors, heating/cooling, or other loads – sparing logistics planners from having to ship and stockpile additional fuel along long supply lines, where fuel convoys are themselves a force-protection liability. Further up the technology ladder, TEGs can provide precise thermal management for satellite subsystems, sensor packages, and high-energy lasers aboard spacecraft. For deep-space missions where sunlight is too weak to power solar panels, ISRO has already identified radioisotope thermoelectric generators (RTGs) as a must-use technology.20 India is far from square one here either: textured Bi-Sb-Te nanomaterials have been synthesised domestically, higher-efficiency extrinsic Bi-Te modules are technically feasible with today’s tooling, and an Indian method for preparing TE nanomaterials has already been patented domestically.21

Institutions ready to realise these capabilities already exist at the confluence of three agencies. MeitY for integrated semiconductor fab set-up and standards; DRDO for defence use cases and testing protocols; and ISRO for space systems and mission demand. A joint push across these three would give thermoelectrics the institutional momentum required to graduate from scientific proofs of concept to mission-deployed technologies. Defence procurement under the Defence Acquisition Procedure (DAP) 2020 in India, with its emphasis on indigenous sources, provides the policy groundwork for such a programme.22 Furthermore, by design, this would also create an at-home market for recovered tellurium and bismuth, aligning with Pillar 2’s supply-chain sovereignty efforts and ensuring the recovery methodologies it describes have dedicated demand on the back end.

A Three-Pillar Policy Framework

One point that emerges from the three sections above is that TE power generation and the associated critical minerals are an underappreciated yet strategically important aspect of India’s energy security, and that a coordinated policy framework is required to leverage them. Figure 2 shows such a framework, built around three pillars. Each pillar has its own policy objectives, tools, and coordinating agency, but they support each other.

Figure 2. The three-pillar TE energy security framework: policy objectives, instruments, lead institutions, and cross-pillar synergies.

Pillar 1: Industrial Waste-Heat Deployment

The objective is to position waste heat as an eligible domestic energy source and to build the policy and incentive infrastructure for TE recovery at commercial scale. This entails three prerequisites. Firstly, thermoelectric-based waste-heat recovery must be subsumed within the PAT framework as an endorsed energy conservation technology, under which plants are awarded tradable credits for their TE production. Secondly, waste-heat analysis and recovery target setting must be mandated within Environmental Impact Statements (EISs) for energy-intensive industries. Thirdly, tax incentives – capital subsidies, accelerated tax depreciation, and qualification for green bonds – should be available for TEG deployment, with specific programmes focusing on Micro, Small and Medium Enterprises (MSMEs) unable to afford legacy ORC plants. Capitalising on this framework, a deadline-driven pilot programme should first be rolled out within the cement and steel industries before pursuing the chemicals, glass, refining, and food processing sectors.3,4

Pillar 2: Indigenous Critical-Mineral Capability

India should aim to reduce its dependence on imported TE-critical minerals such as tellurium and bismuth by boosting domestic recovery and recycling rates and securing reliable foreign sources through partnerships. Initiatives should include setting specific targets for TE-grade tellurium and bismuth recovery within NCMM’s mandate document. The expansion of the Production-Linked Incentive (PLI) scheme to include tellurium recovery from copper anode slime (produced at Hindustan Copper) and bismuth recovery from lead smelting dross (produced at Hindustan Zinc) should also be considered. Complementary investments in Research and Development (R&D) should be made to explore alternative recovery routes, such as extracting bismuth from pharmaceutical waste streams at institutions like C-MET, CSIR-NML, and CSIR-IMMT. An individual domestic PLI scheme for TEG manufacturing can help India develop a supply chain for finished devices, which is currently absent. India should expedite its membership of the Minerals Security Partnership (MSP) on the global stage to widen access to overseas sources of critical minerals if any supply bottlenecks arise.12,16

Pillar 3: Strategic Defence and Aerospace Applications

The aim is to establish domestic TE fabrication capacity in line with requirement trajectories from defence and aerospace programmes, as part of a joint mandate across multiple agencies. The lead execution vehicle is a MeitY–DRDO–ISRO Thermoelectrics Strategic Steering Committee, led by the Secretary, MeitY, which will devise a jointly owned technology roadmap. This roadmap will identify timelines (e.g. Bi2Te3-based low-temperature systems by 2028, PbTe-based mid-temperature systems by 2032) that are commensurate with defence domestic private sector participation (DSP) requirements from DAP 2020.22

Interconnections and Strategic Value Multiplication

These three pillars are not independent, parallel efforts. They form an ecosystem in which each pillar creates the conditions the others need to succeed. The enormous latent value of the 83 Mtoe of recoverable industrial waste heat identified under Pillar 1 provides the market pull needed to justify building, domestically, the complex mining, beneficiation, and refining capabilities required to produce TE-critical minerals at scale (Pillar 2). That domestic mineral capacity, in turn, insulates India’s waste-heat recovery industry from the weaponised supply chains described in Section 3 — ensuring that Pillar 1’s deployment ambitions are not held hostage by Chinese export controls. The strongest of these reinforcements come from Pillar 3. Defence and aerospace cannot compromise on cost or manufacturing shortcuts for the TE systems they require. Take, for example, the customised precision thermal-management modules ISRO designs for satellite subsystems. These must not only survive launch vibration, hard vacuum, and 15 years of zero-touch operation – they must do so at the smallest possible size and weight. Such stringent quality requirements drive the creation of durable, high-efficiency TEGs that – once qualified for military platforms – can then be commercialised to performance standards that help elevate the baseline for India’s entire domestic manufacturing supply chain.

Overcoming Technological and Institutional Bottlenecks

The three-pillar TE vision makes sense on paper, but its execution will necessitate overcoming technical, economic, and organisational hurdles; hurdles that can each derail the effort entirely if not solved first. The technical hurdle is the most obvious. Overall system efficiency is the bottleneck to TEG deployment. Today’s commercial Bi2Te3 TEGs convert heat to electricity with only 3–8% system-level efficiency; some jet demonstrator TEGs have performed significantly worse. These figures aren’t embarrassing—they’re perfectly acceptable for low-temperature waste-heat recovery, where the alternative is none at all—but they do set qualifying criteria for any deployed R&D funding. Long-term efforts should be conditioned on meeting regular milestones in conversion efficiency. We should expect to see 5% system-level efficiency from domestically produced industrial TEGs by FY 2028. In the meantime, TEGs utilising higher-manganese silicides should be seriously considered for early disruptive deployment—if they receive equal support.

Cost issues are another hurdle. Investing in waste-heat recovery systems for existing industrial plants also carries a cost —one many facilities—especially those in the MSME range—are unwilling or unable to pay if the return on that investment takes five to seven years. That Return on Investment (ROI) could be achieved through subsidies, tax incentives such as accelerated depreciation, or soft loans, but many smaller businesses cannot afford these upgrades without such support. Not to mention the impact of imported critical minerals costs throughout the value chain, which is another reason why Pillar 2 supports sourcing minerals domestically where possible.

One of the most important hurdles may be neither technological nor economic but bureaucratic. India’s road to critical-mineral self-sufficiency has been hindered by a lack of stewardship and chronic information asymmetry. The Geological Survey of India, for example, categorises mineral deposits using thresholds that are not conducive to recognising bankable reserves – marginal deposits fall under study categories that signal low to no commercial potential. More fundamentally, ownership of the TE value chain end-to-end is split across ministries. MeitY has responsibility for electronic materials and semiconductor manufacturing; the Ministry of Mines controls the NCMM; BEE and the Ministry of Power (MoP) are responsible for industrial energy efficiency; DRDO and ISRO have the defence and aerospace mandates, respectively. All have legitimate claims on the TE agenda. But none has been given the mandate or the incentive to own it in its entirety. Absent a formal inter-ministerial coordination mechanism, such as the Thermoelectrics Strategic Steering Committee we propose under Pillar 3, agencies will continue to regard thermoelectrics as well outside their primary purview.

India has faced this type of institutional fragmentation in the past. The National Solar Mission and the Semiconductor Mission both required robust cross-ministerial architectures to cut through red tape and channel resources towards a unified vision. Thermoelectrics faces an identical structural challenge and warrants identical treatment.

Conclusion: From Laboratory to Strategy

Energy security has never been India’s strong suit. Headline-grabbing debates about energy security have tended to focus on visceral, dramatic, easily visualised images: menacing oil tankers navigating the Strait of Hormuz; liquefied natural gas terminals speckling our western coastline; giant solar farms in Rajasthan. Thermoelectrics is none of these things. It is small. It is quiet. It works behind the scenes. It will not dominate the headlines. It will not feature prominently in ministerial press briefings. But India needs thermoelectrics — badly.

At the beginning of 2023, most policymakers did not regard minerals and metals as a serious geostrategic issue. In recent months, China has upended that narrative through its careful and consistent weaponisation of critical-mineral supply chains. It began with gallium and germanium — two key minerals required for semiconductor fabrication — and has since extended to antimony, tellurium, bismuth, and rare-earth elements.23 None of this should have come as a surprise to India: we import 85.6% of our bismuth and 48.8% of our tellurium from China.6 In light of China’s actions, those numbers are no longer just rows in a spreadsheet. They are soft targets that India will be held hostage to in the event of a future China-India conflict.

Through industrial waste-heat harvesting, domestic critical-mineral sourcing, and targeted deployment in defence and aerospace applications, thermoelectrics offers a path to blunt those needles while unlocking value from an otherwise stranded domestic energy source. The policy frameworks already exist: PAT credits, the NCMM, PLI, DAP 2020. The foundational institutions already exist: C-MET, CSIR, DRDO, ISRO, BEE. Hell, the researchers already exist: Indian researchers are building flexible TEGs right now; printing fully paper-based TEGs; and patenting novel synthesis routes for next-generation TE nanomaterials.

What India lacks is awareness. Thermoelectrics needs to be recognised as an integral part of the energy security discussion in policy circles. It needs to be considered alongside oil, natural gas, and renewables — not as a substitute for any of them, but as the critical missing link in India’s domestic energy stack that ties together waste-heat recovery, critical-mineral self-sufficiency, and strategic autonomy. If we do not start paying attention now, China’s supremacy over these emerging supply chains will only continue to grow. There is no time like the present.

Author Brief Bio: Dr. Rapaka Subash Chandra Bose is a Scientist, Centre for Materials for Electronics Technology (C-MET), Thrissur, Ministry of Electronics and Information Technology (MeitY), Government of India

Endnotes :

  1. Ministry of Power, Government of India, “UTPRERAK – Centre of Excellence on Waste Heat Recovery,” Press Information Bureau, 2023, https://www.pib.gov.in/PressReleasePage.aspx?PRID=1935484®=3&lang=2.
  2. Energy Alternatives India (EAI), “Decarbonization Avenue: Industrial Waste Heat Recovery,” 2024, https://eai.in/ref/da/112.
  3. International Institute for Energy Conservation (IIEC) and Energy Efficiency Services Limited (EESL), Market Assessment of Waste Heat Recovery Solutions in India, Global Environment Facility (GEF)-6/United Nations Environment Programme (UNEP) Project (New Delhi: IIEC and EESL, 2025), https://www.iiec.org/library/iiec-knowledge-products/papers-studies-reports/953-market-assessment-of-waste-heat-recovery-solutions-in-india.
  4. Bureau of Energy Efficiency, Ministry of Power, Government of India, PAT Scheme – Perform, Achieve and Trade: Cycle VII Guidelines (New Delhi: BEE, 2024), https://beeindia.gov.in/en/pat-notifications.
  5. Ministry of Mines, Government of India, Critical Minerals for India: Report of the Committee on Identification of Critical Minerals (New Delhi: Ministry of Mines, 2023), https://mines.gov.in/admin/download/649d4212cceb01688027666.pdf.
  6. Takshashila Institution, “Assessing the Nature of India’s Critical Minerals Vulnerabilities vis-à-vis China,” Policy Brief, December 2024, https://takshashila.org.in/content/publications/20241217-assessing-nature-of-indias-critical-minerals.html.
  7. U.S. Geological Survey, Mineral Commodity Summaries 2025: Tellurium (Reston, VA: U.S. Geological Survey, January 2025), https://doi.org/10.3133/mcs2025.
  8. International Energy Agency (IEA), “Decision to Implement Export Controls on Tungsten, Tellurium, Bismuth, Molybdenum and Indium Related Items,” 2025, https://www.iea.org/policies/26795-decision-to-implement-export-controls-on-tungsten-tellurium-bismuth-molybdenum-and-indium-related-items.
  9. Pillsbury Winthrop Shaw Pittman LLP, “China Suspends Export Controls on Certain Critical Minerals and Related Items,” 2025, https://www.pillsburylaw.com/en/news-and-insights/china-suspends-export-controls-certain-critical-minerals-related-items.html.
  10. International Energy Agency (IEA), Global Critical Minerals Outlook 2025: Executive Summary (Paris: IEA, 2025), https://www.iea.org/reports/global-critical-minerals-outlook-2025.
  11. C. K. Sarangi et al., “Recovery of Tellurium from Waste Anode Slime Containing High Copper and High Tellurium of Copper Refineries,” Sustainability 15 (2023): 11919, https://doi.org/10.3390/su151511919.
  12. D. Luo et al., “Recovery of Antimony and Bismuth from Arsenic-Containing Waste Streams from the Copper Electrorefining Circuit: An Example of Promoting Critical Metals Circularity from Secondary Resources,” Journal of Cleaner Production 415 (2023): 137902, https://doi.org/10.1016/j.jclepro.2023.137902.
  13. R. Sasai et al., “Direct Recovery of Metallic Tellurium from Spent Bi–Te Intermetallic Alloy,” Journal of the Ceramic Society of Japan 129, no. 2 (2021): 118–21, https://doi.org/10.2109/jcersj2.20198.
  14. E. S. Grape et al., “Structure of the Active Pharmaceutical Ingredient Bismuth Subsalicylate,” Nature Communications 13 (2022): 1984, https://doi.org/10.1038/s41467-022-29566-0.
  15. D. M. Griffith et al., “Medicinal Chemistry and Biomedical Applications of Bismuth-Based Compounds and Nanoparticles,” Chemical Society Reviews 50 (2021): 12037–69, https://doi.org/10.1039/D0CS00031K.
  16. Press Information Bureau, Government of India, “Cabinet Approves ‘National Critical Mineral Mission’ to Build a Resilient Value Chain for Critical Mineral Resources Vital to Green Technologies, with an Outlay of Rs. 34,300 Crore over Seven Years,” January 2025, https://www.pib.gov.in/PressReleaseIframePage.aspx?PRID=2097309®=3&lang=2.
  17. International Trade Administration, U.S. Department of Commerce, “India – Mining and Critical Minerals: Country Commercial Guide,” 2026, https://www.trade.gov/country-commercial-guides/india-mining-and-critical-minerals.
  18. R. Nagiri et al., “Semiconducting Bi₂Te₃–Semimetallic Sb Flexible Thermoelectric Generator Achieving High Power Density for Wearable Energy Harvesting,” ACS Applied Energy Materials 8, no. 23 (2025): 17187–91, https://doi.org/10.1021/acsaem.5c02858.
  19. T. S. Varun et al., “Impact of Temperature Mismatch on Power Output of Flexible Paper-Based Thermoelectric Generators in Series, Parallel, and Series–Parallel Configurations,” Journal of Electronic Materials 54 (2025): 3389–96, https://doi.org/10.1007/s11664-025-11809-7.
  20. R. S. C. Bose et al., “Anisotropic Thermoelectric Transport in Textured Sb₁.₅Bi₀.₅Te₃ Nanomaterial Synthesized by Facile Bottom-Up Physical Process,” Journal of Alloys and Compounds 859 (2021): 157828, https://doi.org/10.1016/j.jallcom.2020.157828.
  21. J. Ram et al., “Thermoelectric Nanomaterials: Preparation and Implementations Thereof,” Indian Patent No. 483573, granted December 15, 2023, https://ipindiaservices.gov.in/publicsearch.
  22. Ministry of Defence, Government of India, Defence Acquisition Procedure (DAP) 2020 (New Delhi: Ministry of Defence, 2020), https://www.mod.gov.in/dod/defence-procurement-procedure.
  23. Exiger, “China Announces Export Controls on Five Critical Minerals,” Proactive Intelligence Alert, 2025, https://www.exiger.com/perspectives/critical-minerals-export-controls/.

 

India’s Nuclear Moment: Leveraging Thorium and Global Uranium Ties Under a New Legal Framework

A New Dawn

In a landmark achievement for India’s nuclear energy programme, the 500 MWe Prototype Fast Breeder Reactor (PFBR) achieved criticality on 6th April 2026 at 08:25 PM. This marked a quantum leap in the use of nuclear energy for power generation. With this milestone, India advanced to the second stage of its three-stage nuclear programme, as enunciated by Dr Homi Jehangir Bhabha in 1954, using indigenous nuclear technology. It is a matter of satisfaction that it met all the stipulations of the Atomic Energy Regulatory Board (AERB), which had issued clearance after a rigorous review of the safety of the plant systems. Fast Breeder Reactor (FBR) technology serves as a vital bridge between the current fleet of pressurised heavy water reactors (PHWRs) and the future deployment of thorium-based reactors, leveraging the country’s abundant thorium resources for long-term clean energy generation. In terms of plant details, the technology development and design of PFBR were carried out indigenously by the Indira Gandhi Centre for Atomic Research (IGCAR), an R&D Centre of the Department of Atomic Energy (DAE), and it was built and commissioned by Bharatiya Nabhikiya Vidyut Nigam Ltd (BHAVINI), a PSU under the DAE.

FBRs are a cornerstone of India’s long-term nuclear strategy. In these reactors, Uranium-Plutonium Mixed Oxide (MOX) serves as fuel. The PFBR core is surrounded by a blanket of Uranium-238. Fast neutrons convert fertile Uranium-238 into fissile Plutonium-239, enabling the reactor to produce more fuel than it consumes. The reactor is designed to eventually use Thorium-232 in the blanket. Through transmutation, Thorium-232 will be converted into Uranium-233, which will fuel the third stage of India’s nuclear power programme.

This unique capability significantly improves the utilisation of nuclear fuel resources and enables the country to extract far more energy from its limited uranium reserves while preparing for large-scale thorium use in the future. Beyond energy generation, the FBR programme strengthens strategic capabilities in nuclear fuel-cycle technologies, advanced materials, reactor physics, and large-scale engineering. The knowledge and infrastructure developed through this programme will support future reactor designs and next-generation nuclear technologies. As India continues to expand its clean energy portfolio, fast breeder reactors will play a crucial role in delivering reliable, low-carbon, base-load power with higher thermal efficiency. Achieving first criticality thus represents not only a technological milestone but also a major step towards a sustainable and self-reliant energy future for Viksit Bharat.

The reactor incorporates advanced safety systems, high-temperature liquid-sodium coolant technology, and a closed fuel cycle that enables the recycling of nuclear materials, thereby improving sustainability and reducing waste.

Introduction

Energy is the driver of a society’s growth, and energy security means the uninterrupted availability of energy at an affordable cost. India suffers from what can be referred to as TQQ syndrome.[1] The energy needs of Indian industry are met by oil and gas and are increasingly shifting toward renewables, primarily solar. The current crisis of logistics chain disruption from the Middle East (M-E) has affected India because, firstly, the rates of crude and gas in the international market have gone through the roof[2], and secondly, India is the world’s third-largest importer of crude oil, the fourth-largest consumer of LNG, and the second-largest consumer of LPG. Approximately 45% of India’s crude oil, 60% of its natural gas, and over 90% of its LPG imports originate from the M-E. India also depends substantially on imports for solar cells, though India has built a solar module manufacturing capacity of nearly 200 GW annually. However, its solar cell manufacturing capacity is only around 30 GW[3].

The rising import bill has prompted India to pursue electric vehicles, but lithium is central to India’s energy transition, as it powers lithium-ion batteries used in electric vehicles, grid-scale storage systems and renewable energy integration. However, India is entirely import-dependent for lithium, with supplies concentrated among a limited set of countries and subject to price volatility and global market shifts[4]. This excessive dependence on energy imports has weakened the INR and led to India being overtaken by Britain and Japan in terms of GDP. Thus, there is a need to leverage indigenous resources through indigenous technologies and innovative systems, which can help India achieve not only ‘Energy Security’ but also‘Energy Independence’.

The advantages of nuclear energy lie in the fact that, first, India’s nuclear energy programme is substantially indigenous, especially in the first stage of the three-stage programme, and second, the conversion of nuclear energy is environmentally pollution-free[5]. There are challenges in terms of the capital cost of construction, its gestation period, the availability of fuel, which is captive to nuclear supplier group countries[6], and restrictions imposed by the provisions of the Non-Proliferation Treaty-1968 on a country like India, which has not signed the treaty[7].

However, over time, India has resolved issues with technology and fuel supply. Following India’s first nuclear test in 1974, Western countries that had been the source of technology for India denied it, as part of a coercive policy to force India to sign the NPT. India did not succumb to their pressure and, over time, developed its own PHWR technology to exploit indigenous low-grade uranium to produce energy in a limited manner[8] and to protect the availability of indigenous uranium. After the signing of the 123 agreement in 2008, the nuclear fuel supply finally normalised[9]. Today, NPCIL is operating 24 commercial nuclear power reactors with an installed capacity of 8780 MW.

The reactor fleet comprises two Boiling Water Reactors (BWRs), 20 Pressurised Heavy Water Reactors (PHWRs) (excluding RAPS-1), and two VVER (light-water) reactors, each with a capacity of 1000 MW. NPCIL has 7 more reactors under construction, with a total capacity of 6800 MW[10]. With the vision of producing about 100 GW of power using nuclear energy by 2047, the requirement for uranium is likely to rise manyfold. India currently consumes about 1,500–2,000 tonnes of uranium each year. In 2025, the country’s requirement was about 1,884 tonnes. With the expansion of nuclear power, annual uranium demand is likely to rise to about 5,400 tonnes. However, India imports about 70% of its uranium requirements, mainly from Canada, Kazakhstan, Uzbekistan and Russia, because Indian uranium is of low-grade, with concentrations ranging from 0.02% to 0.45%, compared with the global average of 1–2%.

Because of the poor ore quality, extracting uranium in India is more expensive than importing it[11]. However, indigenous uranium remains relevant, as it is used for India’s nuclear weapons programme, which is not under IAEA safeguards. Major deposits in India are located in Jharkhand (26%), Andhra Pradesh and Telangana (49%), and Meghalaya (9%), with the remainder in other states. The total uranium ore in India is estimated at 4.3 lakh tons. In view of the limited availability and lower quality of indigenous uranium, India is likely to remain vulnerable to geopolitical pressures, as is being experienced now in the case of oil and gas, and will continue to face such pressures in the future. Therefore, India needs to look beyond uranium in the nuclear energy route to strengthen the country’s energy security. This makes graduation to ‘Stage-2’ of the ‘Three Stage Nuclear Programme’ at the earliest.

Efforts Being Taken for Nuclear Energy Conversion

A number of steps are being taken to optimise resources and effort to enhance the contribution of nuclear energy to India’s energy basket. Important steps are as follows:

  1. Establishment of New Nuclear Power Plants. These are based on uranium technology and include those under construction or in planning[12].

Table-1 

 

  1. Exploitation of Indigenous Resources. India holds approximately 25% of the world’s thorium. The country’s total in-situ resources are estimated at 11.93 million tonnes of monazite, which contains roughly 1.07 million tonnes of thorium. The geographical breakdown of this resource is as follows: Andhra Pradesh (31%), Tamil Nadu (20%), Odisha (20%), Kerala (16%), and West Bengal & Jharkhand (smaller inland placer deposits). The beach sands of Kerala and Odisha contain monazite sand with 8-10% thorium[13]. However, using thorium as a fuel is more difficult than using uranium because it requires breeding,[14] which is not cost-effective, whereas global uranium prices remain constant. However, thorium’s material sovereignty tilts the balance in its favour.

Map-1: Thorium Availability in India

  1. Fast Breeder Test Reactor (FBTR). India’s endeavour to develop a breeder reactor began in 1969, when the DAE entered into a collaboration with the French Atomic Energy Commission to obtain the design of the RAPSODIE test reactor and the steam-generator-based design of the PHENIX reactor, which was under construction at that time. The reactor designs were significantly modified by Indian engineers for the construction of the FBTR, designed to produce 40 MW of thermal power and 13.2 MW of electrical power. Also, BARC and IGCAR developed an alternative mixed-carbide fuel that provided even better breeding and thermal properties[15]. Finally, the FBTR attained first criticality in October 1985[16]. It was an indigenously manufactured reactor[17]. With this reactor achieving criticality, India joined the USA, the UK, France, Germany, and the former Soviet Union as one of the few nations to build and operate a breeder reactor.
  1. Kalpakkam Mini Reactor (KAMINI). Jointly designed and built by BARC and IGCAR, this 30 MW research reactor achieved first criticality in 1996 and was named KAMINI[18].  It holds the distinction of being the world’s first and the only reactor designed specifically to use Uranium-233 fuel, making it a pioneering facility in thorium-based fuel-cycle research[19].
  1. PFBR. Experience from FBTR operations fed directly into the design of a commercial-scale fast-breeding reactor, known as the PFBR, with a capacity of 500 MWe. In 2003, a separate public-sector utility, BHAVINI, was established to build and operate PFBR and future fast-breeder power reactors, though responsibility for design, R&D, and technical support remained with IGCAR[20]. Construction of the PFBR began in 2004. By 2010, IGCAR had added new experimental and pilot-scale facilities covering the entire fast-reactor fuel cycle. By 2024, a Compact Reprocessing Facility (CORAL) and a demonstration fast-reactor fuel reprocessing plant had been developed to handle high-burn-up FBTR fuel[21]. In 2025, the United States lifted its decades-old restrictions on IGCAR, facilitating energy cooperation between the two nations[22]. Finally, PFBR attained criticality on 06 Apr 2026. It is an opportunity to review the direction that India’s nuclear energy programme needs to take. Should India remain committed to graduating to Stage-II, or should it pursue a more practical and economical approach based on traditional uranium-based technologies? In the short run, the ease of availability suggests that India needs to adopt a less expensive route for the exploitation of nuclear energy. However, keeping in view the experience of current geopolitical developments, it would be prudent to identify an optimal path, which entails continuing to invest in PHWRs/LWRs as a short- to medium-term goal and continuing to work on the closed fuel cycle to enhance its efficiency and effectiveness, with a view to aligning its growth with the Nation’s mission to achieve ‘Net Zero’ emissions by 2070 as a long-term goal[23].
  1. Small Modular Reactors (SMRs). As defined by the IAEA,[24] SMRs are advanced nuclear reactors with a power capacity of up to 300 MW(e) per unit, which is about one-third of the generating capacity of traditional nuclear power reactors. These reactors produce a large amount of low-carbon electricity. They differ in that they are only a fraction of the size of a conventional nuclear power reactor; their parts are modular, so their systems and components can be factory-assembled and transported as a unit for installation; and they use nuclear fission to generate heat and produce energy. Given their smaller footprint, SMRs can be sited in locations not suitable for larger nuclear power plants. Prefabricated SMR units can be manufactured, shipped, and installed on site, making them more affordable to build than large power reactors, which are often custom-designed for a particular location and can lead to construction delays. SMRs offer cost savings and shorter construction times, and they can be deployed incrementally to meet increasing energy demand. Micro reactors (producing up to 10 MWe) have smaller footprints than other SMRs and will be better suited for regions that lack access to clean, reliable, and affordable energy (in the Indian context, they will be highly suitable for our border areas). The safety concept for SMRs often relies more on passive systems and the reactor’s inherent safety characteristics, such as low power and operating pressure. SMRs have reduced fuel requirements. They may require less frequent refuelling, every 3 to 7 years, compared with 1 to 2 years for conventional plants. Some SMRs are designed to operate for up to 30 years without refuelling. As of date, more than 80 commercial SMR designs are being developed worldwide, targeting various outputs and applications, such as electricity, hybrid energy systems, heating, water desalination, and steam for industrial applications. Though SMRs have lower upfront capital costs per unit, their economic competitiveness remains to be proven in practice once they are deployed.
  1. Indigenous SMRs[25]. The concept design of the Bharat Small Modular Reactor (BSMR)-200MWe is an indigenously developed SMR, the result of a collaborative effort between BARC and NPCIL. It is based on Pressurised Water Reactor (PWR) technology and incorporates passive and engineered safety features[26]. The BSMR model is slated to utilise Slightly Enriched Uranium (SEU) as fuel. Detailed engineering for BSMR is underway, with the demonstration unit expected to be erected and started up within six years of financial approval, followed by commissioning and regular operation in the seventh year, at an estimated cost of Rs 5,700 crores[27]. It is an example of indigenous development, with private nuclear vendors delivering various equipment and components. The SMR-55MWe is also modelled on PWR technology, featuring a block-type, highly modular design. The lead twin reactor units are planned for installation at the DAE site by 2033. The objective of the SMR-55MWe, once developed, is to deploy it in remote locations. Plans are in place to involve the Indian industry so that the required equipment for the SMR-55MWe will be produced domestically. Further, the DAE site plans to build a demonstration plant for a 5 MWth High-Temperature Gas-Cooled Reactor (HTGCR) for hydrogen production. This reactor will be coupled with suitable copper–chlorine (Cu-Cl) and iodine-sulphur (I-S) processes to generate hydrogen at 650°C, a clean fuel[28]. These two thermochemical processes have been developed and demonstrated at BARC. Apart from these models, the government is likely to deploy 220 MW Bharat Small Reactors (BSR). India has achieved commercial maturity in indigenous Pressurised Heavy Water Reactor (PHWR) technology, which will serve as a strong foundation for advancing the country’s goals of developing and deploying small reactors.

Legal Framework for Involvement of Civilian Industry in India[29]

On 15 December 2025, the Sustainable Harnessing and Advancement of Nuclear Energy for Transforming India (SHANTI) Bill, 2025, was introduced in Parliament, signalling a decisive shift in India’s nuclear energy governance framework. With the President’s assent on 20 December 2025, the SHANTI Bill became an Act of Parliament. It substitutes the Atomic Energy Act (AEA), 1962 and the Civil Liability for Nuclear Damage Act (CLNDA), 2010.

The Act broadens the category of entities eligible to apply for a nuclear licence to ‘build, own, operate and decommission nuclear power plants or reactors’, without diluting the Central Government’s control over all strategically sensitive domains, including fissile material accounting, enrichment, isotopic separation and retaining control over sensitive activities such as spent fuel reprocessing and strategic waste management[30]. The involvement of private firms will help mobilise large-scale financial resources, reducing the burden on public finances while accelerating project execution through greater efficiency. It may also contribute to technological innovation by leveraging global partnerships.

The international nuclear liability law[31] establishes a two-tier compensation mechanism. First, liability is strictly and exclusively channelled to the nuclear operator[32].  Second, if national compensation is insufficient to satisfy all claims for nuclear damage, supplementary compensation is provided through an international fund, with contributions from contracting parties in accordance with a fixed formula.  The CLNDA 2010 had departed from international norms by introducing an expansive right of recourse against suppliers. These provisions created legal uncertainty and discouraged foreign suppliers. The SHANTI Act has aligned India’s nuclear liability regime with established international CSC practice while preserving robust victim compensation through a government-backed mechanism.

Long-Term Mission for Exploitation of Nuclear Energy[33]

The Nuclear Energy Mission (NEM), mentioned in the Union Budget of  2025–26, set the objective of 100 GW of nuclear power generation capacity by 2047. The mission also supports India’s broader goal of achieving net zero carbon emissions by 2070.

The following measures have been put in place to drive this vision:-

  • Financial Commitment: The NEM allocates Rs 20,000 crore towards the design, development, and deployment of SMRs, signalling a serious long-term investment in indigenous nuclear technology.
  • SMRs: Operationalisation of at least five indigenously designed SMRs by 2033.
  • BARC Initiatives:Development of next-generation reactor designs, including the 200 MWe Bharat Small Modular Reactor (BSMR-200), the 55 MWe SMR-55, and a High-Temperature Gas-Cooled Reactor of up to 5 MWth (Megawatt thermal) designed for hydrogen generation.
  • SHANTI Act, 2025: Already enacted.

Conclusion

The NEM is pursuing a vision of an energy-secure India, in which nuclear energy plays an important part in ultimately achieving energy sovereignty. The attainment of PFBR criticality is a positive step, but much more is needed in policy formulation, adequate funding, and institutional and industrial support for research, development, and manufacturing to achieve the avowed goal of a self-reliant and energy-independent India.

Author Brief Bio: Major General (Retired) Ajay Kumar Chaturvedi, a highly decorated officer from The Corps of Engineers of Indian Army, is a post graduate engineer in mechanical engineering (combustion & Propulsion) from IIT Chennai, MMS from the Osmania University Hyderabad (LDMC), and M. Phil from University of Madras (NDC). He is a qualified Level II (Advanced) coach in Rowing and a specialist in training methods and bio mechanics.

Endnotes:

[1] TQQ Syndrome refers to a Technology, Quality and Quantity problem. The resources which India has are either qualitatively poor, like coal, or quantitatively scarce, like petroleum and uranium. Where India is still short of technology, such as Thorium, solar panel and wafer technology, we have plenty of resources. We have end-to-end technology for the exploitation of petroleum products and uranium, but we are short of resources.

[2] International Energy Agency, “The Middle East and Global Energy Markets,” IEA, https://www.iea.org/topics/the-middle-east-and-global-energy-markets.

[3] “Rooftop Solar Panels: New Rules Effective 1 June,” NDTV Business, https://www.ndtv.com/business-news/rooftop-solar-panel-june-1-new-rules-india-manufacturing-higher-price-china-imports-renewable-energy-11573804.

[4] Puja Das, “India’s Critical Mineral Imports Remain Highly Concentrated, Exposing Supply Risks and Driving Diversification Push,” Down to Earth, 1 May 2026.

[5] “3 Reasons Why Nuclear Is Clean and Sustainable,” Office of Nuclear Energy, US Department of Energy, https://www.energy.gov/ne/articles/3-reasons-why-nuclear-clean-and-sustainable.

[6] Nuclear Suppliers Group policies impact fuel supply by restricting nuclear trade to states that do not accept strict IAEA Safeguards. They prevent the spread of sensitive enrichment and reprocessing technologies, which encourages non-nuclear-weapon states to rely on international fuel services rather than building domestic enrichment facilities.

[7] “India, China & the NPT,” World Nuclear Association, https://world-nuclear.org/information-library/appendices/india,-china-npt.

[8] Ibid.

[9] Rakesh Sood, “India and the NSG: Unfinished Business,” Observer Research Foundation, 25 July 2016, https://www.orfonline.org/research/india-and-the-nsg-unfinished-business.

[10] “About NPCIL,” Nuclear Power Corporation of India Limited, https://www.npcil.nic.in/content/328_1_AboutNPCIL.aspx.

[11] “Canada Uranium Deal,” Vajiram & Ravi, https://vajiramandravi.com/current-affairs/canada-uranium-deal/.

[12] “India to Build 18 Nuclear Reactors by 2032,” Power Technology, 26 February 2024, https://www.power-technology.com/news/india-18-nuclear-reactors-2032/.

[13] “Thorium Fuel Cycle,” Bhabha Atomic Research Centre, https://www.barc.gov.in/randd/tfc.html.

[14] Breeding is done in a reactor which is fuelled with uranium 238 and Thorium-232. After reaction extra neutrons are produced which are absorbed by the fertile material to transmute into fissile material which can undergo fission reaction.

[15] R. D. Kale, “India’s Fast Reactor Programme – A Review and Critical Assessment,” Progress in Nuclear Energy, 1 April 2020, https://www.sciencedirect.com/science/article/pii/S0149197020300251.

[16] “IGC Newsletter,” vol. 62 (October 2004), Indira Gandhi Centre for Atomic Research, https://web.archive.org/web/20150924033217/http://www.igcar.ernet.in/lis/nl62/igc62.pdf.

[17] “IGC Newsletter,” vol. 69 (July 2006), Indira Gandhi Centre for Atomic Research, https://www.igcar.gov.in/newsletter/igc69.pdf.

[18] “IGC Newsletter,” vol. 61 (July 2004), Indira Gandhi Centre for Atomic Research, https://www.igcar.gov.in/newsletter/igc61.pdf.

[19] S. Usha et al., “Research Reactor KAMINI,” Nuclear Engineering and Design 236, nos. 7–8 (April 2006): 872–880, https://www.sciencedirect.com/science/article/pii/S0029549306000823.

[20] “Bharatiya Nabhikiya Vidyut Nigam Ltd (BHAVINI),” Department of Atomic Energy, Government of India, https://www.indiascienceandtechnology.gov.in/organisations/ministry-and-departments/department-atomic-energy-dae-govt-india/bharatiya-nabhikiya-vidyut-nigam-ltd-bhavini.

[21] Ibid.

[22] “US Lifts Decades-Old Restrictions on BARC, IGCAR and Indian Rare Earths in Diplomatic Breakthrough with India,” The Economic Times, 15 January 2025, https://economictimes.indiatimes.com/news/economy/foreign-trade/us-lifts-decades-old-restrictions-on-barc-igcar-and-indian-rare-earths-in-diplomatic-breakthrough-with-india/articleshow/117272765.cms.

[23] Prateek Tripathi, “India’s PFBR Achieves Criticality: Implications for India’s Nuclear Future,” expert speech, Raisina Debates (Observer Research Foundation, 30 April 2026).

[24] “What Are Small Modular Reactors (SMRs)?,” International Atomic Energy Agency, https://www.iaea.org/newscenter/news/what-are-small-modular-reactors-smrs.

[25] Niranjan Chandrashekhar Oak, “Small Modular Reactors and India: Institutional Drivers and Challenges,” MP-IDSA Issue Brief, 19 September 2025, https://idsa.in/publisher/issuebrief/small-modular-reactors-and-india-institutional-drivers-and-challenges.

[26] “Lok Sabha Unstarred Question No. 2264,” Department of Atomic Energy, Government of India, 12 March 2025, https://sansad.in/getFile/loksabhaquestions/annex/184/AU2264_DSSTVN.pdf.

[27] “Parliament Question: Progress of the Bharat Small Modular Reactor,” Press Information Bureau, Department of Atomic Energy, Government of India, 3 April 2025, https://www.pib.gov.in/PressReleasePage.aspx?PRID=2118377.

[28] Ibid.

[29] Niranjan Chandrashekhar Oak, “SHANTI Act and India’s Nuclear Energy Governance Framework,” MP-IDSA, 17 February 2026, https://idsa.in/publisher/issuebrief/shanti-act-and-indias-nuclear-energy-governance-framework.

[30] SHANTI Act, chap. II, 7–9.

[31] “Convention on Supplementary Compensation for Nuclear Damage,” INFCIRC/567, International Atomic Energy Agency, 22 July 1998, https://www.iaea.org/sites/default/files/infcirc567.pdf.

[32] “Convention on Supplementary Compensation for Nuclear Damage,” INFCIRC/567, International Atomic Energy Agency, 22 July 1998, https://www.iaea.org/sites/default/files/infcirc567.pdf.

[33] “India’s Nuclear Energy Programme: Fact Sheet,” Press Information Bureau, Government of India, https://www.pib.gov.in/FactsheetDetails.aspx?id=150617&NoteId=150617&ModuleId=16®=3&lang=1.

 

India’s Energy Transition Goals in South Asia

1. Introduction

South Asia is a region with the world’s fastest-growing economy and vast human capital, both of which underpin notable economic progress. However, economic growth remains dependent on fossil fuels such as coal, oil and natural gas, which continue to dominate power generation. According to an Economic and Social Commission for Asia and the Pacific (ESCAP) blog post[i], in 2023, South Asian countries relied heavily on fossil fuels, with coal accounting for about 67 per cent of total energy sources.

Energy demand is highly uncertain, driven by rapid income growth, urbanisation, industrialisation, access to energy, climate change, and technological change. Moreover, international events such as the Pandemic, the Russia-Ukraine War, and the Iran-Israel War have at times highlighted the developing world’s vulnerability to energy security risks. However, South Asia also has significant untapped potential in renewable energy sources, including hydropower, biomass, solar, and wind. These renewable sources are crucial for enabling economic development, meeting growing energy demand, and extending modern energy services even in remote mountainous regions.

Since the Paris Agreement, the urgency of the environmental crisis has prompted South Asian countries to commit to decarbonising their economies by setting their nationally determined contributions (NDCs). The transition to clean energy is critical to limiting emissions and strengthening regional energy security. In this context, India’s NDC for 2031-35 marks a major milestone in the journey towards a low-carbon and climate-resilient future. Since achieving certain first goals in 2015, India updated its NDC in 2022, setting a target to reduce emissions intensity from 33-35 per cent of GDP to 45 per cent by 2030 (from 2005 levels). On 25 March 2026, India further announced that it would reduce its GDP emissions intensity by 47 per cent below 2005 levels by 2035. As of 28 February 2026, India’s non-fossil-fuel-based electricity power installed capacity was 52.57 per cent of the total installed capacity, demonstrating achievement of one of the goals ahead of the five-year committed timeline.[ii]

This paper is broadly divided into two parts. Part I illustrates the dynamics of energy dilemmas, and Part II discusses India’s goal of transitioning from non-renewable to renewable sources.

2. The Dynamics of Energy Dilemmas

Energy is the foundation of our daily lives, and ensuring its security, production, and distribution under government regulation is one of the most significant challenges today. The International Energy Agency (IEA) defines renewable energy as derived from natural processes that are constantly replenished, such as solar, wind, biomass, geothermal, hydropower, ocean resources, tide and wave energy, and biofuels, as well as electricity and hydrogen derived from those renewable resources.[iii]

In a society where energy consumption is crucial for economic development, urban expansion, and technological advancement, energy is the backbone of state development and government capability. It is a daily requirement for social welfare in industrial development. This energy, sometimes linked to geopolitics, has become complex, polycentric, and volatile, with strategic location, source, and control becoming crucial. India’s approach to climate change is also based on energy security and sustainable development. Thus, the energy dilemma posed by geopolitics and climate change balances the urgent need to phase out fossil fuels against the new geopolitical vulnerabilities of the green transition.

2.1 Energy Linked to Geopolitics

Energy is directly or indirectly linked to geopolitics. According to Qin and Gao[iv], geopolitical and energy security risks are closely related, as political conditions, military conflicts, and diplomacy create market instability that disrupts energy supply networks. Great power competition over access to strategic locations and natural resources is a well-known phenomenon. Geopolitical literature provides ample evidence of the role of spatial geography, such as chokepoints, resource-based regions, and connectivity, all of which are crucial in determining who holds power and who dictates.

In the past, the British Raj was known for employing access denial against its adversaries, such as the Russians and the French. In the present context, examples include the Russia-Ukraine war since 2022, which has spiked energy prices across Europe and doubled fertiliser prices. In 2026, the closure of the Strait of Hormuz has driven oil prices above USD 100 and gas prices above USD 4.60 in America. Moreover, disruptions at the world’s critical chokepoints have led to geopolitical instability. This all underscores the urgency of ‘self-reliance’ (in the Indian context, Aatmanirbhar Bharat) in energy development and sustainability.

2.2 Energy Linked to Climate Change

In the second context, we can’t ignore the growing debate over energy consumption and climate change in academic and policy forums. This is because the production and consumption of energy is responsible for “75 per cent of greenhouse gas emissions, making it the primary driver of climate change”.[v] Saini et al.[vi] further demonstrate that climate change is primarily driven by carbon emissions and deforestation, which, in turn, lead to the environmental problems we face today. In this scenario, the South Asian region is seen as vulnerable to climate change impacts, with severe floods, droughts, cyclones, and extreme heatwaves posing risks to its growth trajectory, infrastructure development, and people’s livelihoods. According to the World Bank[vii], in its “South Asia Climate Roadmap” report, the region faces acute climate risks, and its population heavily depends on monsoon-fed agriculture and rapid urbanisation.

The India Meteorological Department (IMD) report shows that in recent years, weather conditions have been characterised by heavy rainfall and strong winds. Major Indian cities such as Delhi, Mumbai, Bengaluru, and Chennai are facing an increasing risk of urban flooding due to changing climate patterns, unplanned urbanisation, and inadequate drainage systems.[viii] One of the IAEA reports on “Nuclear Data” highlights that melting glaciers in the Himalayas are affecting water, food, and energy security.[ix]

Recurring heatwaves are another concern, with India, Pakistan, and Bangladesh experiencing temperatures of 40-50 degrees Celsius.[x] Recently, the IMD has issued orange alerts for heatwave conditions in Delhi.[xi] The International Energy Agency’s (IEA) Net Zero Roadmap sets out a mid-century net-zero emissions pathway for the global energy sector to fulfil the Paris Agreement’s goal of limiting global warming to 1.5°C. As a signatory to the agreement, India has advanced its decarbonisation efforts through its nationally determined contributions (NDCs), climate finance, and green bond frameworks, and has scaled up non-fossil fuel power generation to reduce its carbon-emission intensity.

India’s Energy Transition Goals

 India’s energy transition began in the 1970s in response to the global oil crisis and culminated in the creation of the “Department of Non-Conventional Energy Sources” (DNES) in 1982.[xii] In 1992, DNES was renamed the “Ministry of Non-conventional Energy Sources” .[xiii] In October 2006, it was renamed again as the “Ministry of New and Renewable Energy” .[xiv] The primary focus was on ‘energy security,’ with increased emphasis on the share of clean power, its availability and accessibility, affordability, and equity.

In response to India’s proactive engagement on ‘climate change,’ policies such as the National Action Plan on Climate Change (NAPCC) were established in 2008. NAPCC identified eight core missions, including the National Solar Mission, which supports India’s push towards an energy transition. In 2015, India became a founding member and host nation of the International Solar Alliance (ISA) to promote solar energy as a sustainable solution for ‘energy access’ and ‘climate change’ mitigation. This was when India intended to sign the Paris Agreement, demonstrating a proactive approach to climate governance.

India’s energy needs are expected to grow by 2 to 2.5 times by 2047 to meet rising developmental priorities. India’s energy demand was 1074 Mtoe in 2023 and is expected to rise to 1921 Mtoe by 2040.[xv] Achieving Net Zero by 2070 requires an orderly transition with a greater share of non-fossil fuels and increased energy efficiency.[xvi] India’s advancing energy transition is reflected in solar capacity reaching 90.76 GW, while wind energy capacity stood at 47.36 GW. Table 1 shows that India crossed the 250 GW milestone in non-fossil power installed capacity in August 2025, the highest-ever renewable energy capacity added in a single year. This indicates that India’s low-carbon future, strong policies, innovation, and immediate action will be key to South Asia’s energy transition.

Table 1. Cumulative non-fossil installed (in GW) (as on 30 November 2025)

Source: PIB (Dec. 29, 2025). “Marks Highest-Ever Renewable Energy Expansion in India’s Energy Transition Journey,” Ministry of New and Renewable Energy, Government of India.

3.1 Net Zero 2070

India’s long-term energy security goal aligns with its net-zero target. At COP26 in November 2021, India announced its target to achieve net-zero by 2070. In line with Paragraph 19 of Article 4 of the Paris Agreement, India’s long-term low-carbon development strategy has been submitted to the UNFCCC, reaffirming its goal of achieving net-zero by 2070.[xvii] India’s long-term low-carbon development strategy is based on the principles of equity and climate justice, as well as the principle of Common but Differentiated Responsibilities and Respective Capabilities.

Several initiatives have been taken to reach this goal. “The Ministry of Environment, Forest and Climate Change launched the National Clean Air Programme (NCAP) in January 2019 to improve air quality in 131 cities across 24 States/UTs by engaging all stakeholders” .[xviii] By 2025-26, the programme had successfully reduced Particulate Matter 10 (PM 10) concentrations by up to 40 per cent or achieved the National Ambient Air Quality Standards for PM 10. Several monitoring portals are in place, and measures have been taken to improve data quality. For example, PRANA is used to monitor the implementation of NCAP, and under Swach Vayu Survekshan 2022, the self-assessment reports of NCAP cities are evaluated. “Sustainable Alternative Towards Affordable Transportation” (SATAT) is another notable initiative to set up a Compressed Bio-Gas production plant and make it available in the market for use as automotive fuel.

3.2 Clean Energy Pathways

India intends to strengthen its energy system through policy reforms, infrastructure expansion, and a range of cleaner energy pathways. This includes clean policies such as the National Green Hydrogen Mission, the PM Surya Ghar, Muft Bijli Yojana rooftop solar scheme, and the Carbon Credit Certificate Regulations, which aim to attract investment, shorten project timelines, and ensure a reliable energy supply. The clean energy transition and low-carbon pathways are therefore central to balancing energy security, economic growth, and climate objectives.[xix] Coal remains a primary energy source worldwide, and India is the second-largest consumer.

Chaturvedi[xx] adds that coal-based power generation must peak by 2040 and then decline by 99 per cent between 2040 and 2060. The “India’s Energy Transition” report shows that the higher cost of coal power makes renewable energy more competitive.[xxi] Since people’s livelihoods and revenue depend on coal mining in states like Jharkhand, Chhattisgarh, and Odisha, the government should support workers’ retraining for alternative industries to ensure a fair transition.

3.3 Hydropower Trade

Hydropower in South Asia plays a crucial role in meeting the region’s growing energy demand. This region is characterised by a diverse river landscape, and harnessing hydropower development potential can help meet its increasing energy needs and reduce reliance on fossil fuels. Earlier energy trade in South Asia was limited to India and Bhutan, India and Nepal, or India and Bangladesh. In the early 1960s or 1970s, hydropower accounted for a relatively high share of total electricity demand in South Asia.[xxii] In 1980, India’s share was 30 per cent, falling to 13 per cent by 1990. In Nepal, hydropower has been a primary source of electricity generation since 1990.[xxiii] Timilsina[xxiv] asserts that hydropower has an absolute advantage, with a comparative advantage arising from countries’ monthly or seasonal load profiles. For example, electricity demand is higher during June-October in Bangladesh and August-October in India. From April to July, India’s load curve shows declining electricity demand, while Bangladesh’s demand is increasing, suggesting India could supply electricity to Bangladesh during this period.

Recently, the first trilateral power transition from Nepal to Bangladesh via the Indian Grid was inaugurated on 15 November 2024, demonstrating the potential for regional electricity sharing.[xxv] Since 15 June 2025, Nepal has begun exporting 40 megawatts (MW) of electricity to Bangladesh via India’s transmission network, marking a shift beyond bilateral electricity trade. This cross-border electricity trade has been a historic development that not only positions India as an epicentre but also as a medium or transit for regional development.

3.4 Green Bonds

Climate finance is equally important for a smooth transition to energy security. Green bonds are debt securities issued for climate-compatible projects and are regulated by the Green Bond Principles (GBP). The GBP was established in 2014 under the guidance of the International Capital Market Association.[xxvi] The Paris Agreement recognised the role of private capital in the transition towards sustainability and supported the development of green bond markets. According to World Bank data from Bloomberg, “USD 21 billion in green bonds were issued in India, of which the private sector accounted for 84 per cent” .[xxvii]

In 2022, “Greenko, one of the largest private sector issuers of green bonds in India, raised USD 750 million through international green bond issuance” .[xxviii] These bonds were deployed in public sector projects that help reduce the economy’s carbon intensity through renewable energy, energy efficiency, and clean transport. Since April 2024, India has permitted eligible foreign investors in the International Financial Services Centre to invest in the Sovereign Green Bonds. To do so, foreign investors must be registered with the Securities and Exchange Board of India, thereby further enhancing international participation in India’s climate finance.

3.5 EVs Facilitator

In South Asia, India is often seen as the region’s epicentre. This is due to its geographic position and cultural connections with larger nations, linking both land and sea states. However, India is also a transit point, a destination, and a source for many in the South Asian market, including for jobs and education. India’s connectivity with South Asian nations will enable the region to serve as a facilitator. For example, owing to net-zero targets, the transportation industry is gradually entering a new era of electric vehicle (EV) manufacturing. According to the World Economic Forum[xxix], EVs are set to change everything about how energy is consumed and supplied. By 2040, more than half of the new cars sold worldwide will be EVs.

The National Electric Mobility Mission Plan (NEMMP) 2020 was introduced by the Government of India to promote and produce EVs for a cleaner, greener transport future. Previously, the FAME India Scheme (Faster Adoption and Manufacturing of Hybrid and Electric Vehicles) was implemented from 2015 to 2019, encouraging the adoption of electric and hybrid vehicles.[xxx] Now, the PM Electric Drive Revolution in Innovative Vehicle Enhancement (PM-E DRIVE), approved in September 2024 and implemented until March 2028, focuses on curbing emissions and tackling urban air quality. Apart from two- and three-wheelers, e-trucks, and e-ambulances, the schemes have supported 14,028 electric buses as of July 2025.[xxxi]

A scenario in which India becomes a global hub for EV manufacturing could meet the entire demand of the South Asian market.[xxxii] Bhutan’s move towards green transport, together with Nepal’s connectivity to India, and the inclusion of Bangladesh, could rejuvenate the aspirations of the sub-regional The BBIN (Bangladesh, Bhutan, India and Nepal) group now has only three partners (Bangladesh, India and Nepal). This market extends further into Southeast Asia through BIMSTEC (Bay of Bengal Initiative for Multi-Sectoral Technical and Economic Cooperation), where India’s energy transition in the product-based market can serve as a model for the region. India’s connectivity projects, such as the Trilateral Highways, need environmental guarantees to ensure the use of sustainable energy and environmentally friendly infrastructure and transport, thereby supporting the SDGs. The World Economic Forum[xxxiii] asserts that a sustainable transport system offers greater diversity in the fuel portfolio, reduces dependence on fossil-based sources, lowers the cost of ownership, and increases price stability, thereby fostering national security, energy independence, and a healthier environment.

3.6 International Solar Alliance

Technically, Indian foreign policy is set in a more partnership-based framework, but the International Solar Alliance (ISA) is the only platform where India calls for joining an ‘alliance.’ ISA’s founding vision, “One World, One Sun, One Grid,” was advanced by PM Modi and announced at COP21 in Paris. ISA has launched several platforms to work with beyond the South Asian region. It was first designed to serve 121 countries lying in the sun between the Tropics of Cancer and Capricorn. The ISA flagship goal is to attract USD 1 trillion in investment and add 1000 GW of additional solar capacity across member states by 2030.[xxxiv]

The SUNRISE (Solar Upcycling Network for Recycling, Innovation & Stakeholder Engagement) connects government, industry and innovators to work in the fields of solar waste, green employment and sustainable resource management.[xxxv] Other initiatives, such as the “One Sun One World Grid programme,” seek regional solar interconnections along vertical lines linking East Asia-South Asia, South Asia-Middle East, Middle East-Europe and Europe-Africa.[xxxvi] Notably, ministers and heads of delegation from Small Island Developing States (SIDS) signed a Memorandum of Understanding (MoU) for procurement under the SIDS platform. This was jointly developed by the ISA and the World Bank Group to advance energy deployment through coordinated procurement, digital integration and capacity building to enhance energy resilience.[xxxvii]

Conclusion

India continues to play a leadership role in the energy transition by improving energy security while aligning with its climate governance and development agendas. Energy is inherently linked to geopolitics and climate change, as it aligns with geopolitical agendas and development goals. India is a major player in both, linking its geography to proactive governance.

India’s neighbourhood-first agenda, the Act East connectivity policy, its Sagarmala ports, etc., all play a crucial role in geopolitics, defining partnerships, corridors, and connectivity for energy sharing and governance. India sets its clean energy targets by focusing on non-fossil-fuel electricity generation capacity. The major focus is on reducing emissions intensity and achieving net-zero by 2070.

The major push is a transition involving the expansion of solar and wind power, EV adoption in transport, and improvements in energy efficiency across geographies. At the same time, India’s energy transition seeks to balance climate goals with development needs. Here, coal remains pivotal in meeting the country’s growing electricity demand, especially amid urbanisation, but it is expected to be gradually phased out in the long run. Lastly, India’s policy implementation, supported by continued international partnerships, climate finance, and technological innovation, becomes essential to its futuristic energy transition goals.

Author Brief Bio: Dr Anmol Mukhia is an Assistant Professor at the Department of International Relations, South Asian University, New Delhi.

[i] ESCAP, “Powering South Asia’s Clean Energy Transition,” United Nations, 4 February 2026, https://www.unescap.org/blog/powering-south-asias-clean-energy-transition.

[ii] Government of India, India’s Nationally Determined Contribution (2031–2035) (UNFCCC, April 2026), 3.

[iii] International Energy Agency, World Energy Outlook 2004 (Paris: OECD/IEA, 2004).

[iv] L. Qin and R. Gao, “Impact of Geopolitical and Energy Security Risks on Energy Consumption Patterns,” Energy & Environment (2025): 3, https://doi.org/10.1177/0958305X251349478.

[v] International Energy Agency, “Energy and Climate Are Inextricably Linked,” IEA, https://www.iea.org/topics/climate-change.

[vi] Saini et al., 2024.

[vii] World Bank Group, “South Asia Climate Roadmap,” World Bank, 28 October 2026, https://www.worldbank.org/en/region/sar/publication/south-asia-climate-roadmap.

[viii] U. Singh, “Rains, Floods and Rising Heat: South Asia’s Growing Climate Crisis,” DD News, 2025, https://ddnews.gov.in/en/rains-floods-and-rising-heat-south-asias-growing-climate-crisis/.

[ix] E. Midgley, “From the Andes to the Himalayas,” in Nuclear Data: Modelling the Future (IAEA, April 2024), 5, https://www.iaea.org/sites/default/files/2025-09/nucleardata_0.pdf.

[x] U. Siddiqui, “‘A Calamity’: Why Is a Record Heatwave Sweeping South Asia?,” Al Jazeera, 8 May 2026, https://www.aljazeera.com/news/2026/5/8/a-calamity-why-is-a-record-heatwave-sweeping-south-asia.

[xi] “Delhi Temperature Today,” The Economic Times, 20 May 2026, https://economictimes.indiatimes.com/news/new-updates/delhi-temperature-today-capital-crosses-46c-inches-closer-to-record-high-imd-predicts-more-scorching-days-ahead-check-latest-forecast/articleshow/131215545.cms.

[xii] Ministry of New and Renewable Energy, Government of India, 2 July 2018, https://mnre.gov.in/en/about-department/introduction/.

[xiii] Ministry of New and Renewable Energy, Government of India, 2 July 2018, https://mnre.gov.in/en/about-department/introduction/.

[xiv] Ministry of New and Renewable Energy, Government of India, 2 July 2018, https://mnre.gov.in/en/about-department/introduction/.

[xv] P. Prajapati et al., “Navigating the Energy Transition in India: Challenges and Opportunities towards Sustainable Energy Goal,” Water-Energy Nexus 9 (2025): 1, https://doi.org/10.1016/j.wen.2025.07.004.

[xvi] P. Prajapati et al., “Navigating the Energy Transition in India: Challenges and Opportunities towards Sustainable Energy Goal,” Water-Energy Nexus 9 (2025): 1, https://doi.org/10.1016/j.wen.2025.07.004.

[xvii] Press Information Bureau, “Net Zero Emissions Target,” Ministry of Environment, Forest and Climate Change, 3 August 2023, https://www.pib.gov.in/PressReleaseIframePage.aspx?PRID=1945472.

[xviii] Press Information Bureau, “Net Zero Emissions Target,” Ministry of Environment, Forest and Climate Change, 3 August 2023, https://www.pib.gov.in/PressReleaseIframePage.aspx?PRID=1945472.

[xix] Press Information Bureau, “India’s Expanding Role in the Global Energy Transition,” 27 January 2026, https://www.pib.gov.in/PressReleasePage.aspx?PRID=2219208.

[xx] V. Chaturvedi, India’s Energy Transition under a Net-Zero Future (Council on Energy, Environment and Water, 2022), https://coal.gov.in/sites/default/files/2021-01/day5-net-zero-future.pdf.

[xxi] V. Garg et al., India’s Energy Transition: The Cost of Meeting Air Pollution Standards in the Coal-Fired Electricity Sector (Manitoba: International Institute for Sustainable Development, 2019), 18.

[xxii] G. Timilsina, “Regional Electricity Trade for Hydropower Development in South Asia,” International Journal of Water Resources Development 37, no. 3 (2018): 391.

[xxiii] G. Timilsina, “Regional Electricity Trade for Hydropower Development in South Asia,” International Journal of Water Resources Development 37, no. 3 (2018).

[xxiv] G. Timilsina, “Regional Electricity Trade for Hydropower Development in South Asia,” International Journal of Water Resources Development 37, no. 3 (2018).

[xxv] Ministry of External Affairs, “Inauguration of First Trilateral Power Transaction – From Nepal to Bangladesh through the Indian Grid,” Government of India, 15 November 2024, https://www.mea.gov.in/press-releases.htm?dtl/38523/.

[xxvi] F. K. Sudan, “Leveraging Green Bonds to Address Debt Sustainability and Economic Recovery in South Asia: Lessons from EU and ASEAN Countries,” Regional Economic Development Research 4, no. 2 (2023): 102, https://doi.org/10.37256/redr.4220233543.

[xxvii] Institute and Faculty of Actuaries, “India: The Road to Net Zero by 2070,” 1 January 2025, https://blog.actuaries.org.uk/india-the-road-to-net-zero-by-2070/.

[xxviii] Institute and Faculty of Actuaries, “India: The Road to Net Zero by 2070,” 1 January 2025, https://blog.actuaries.org.uk/india-the-road-to-net-zero-by-2070/.

[xxix] World Economic Forum, “The Electrification of Transport Could Transform Our Future – If We Are Prepared for It,” 16 April 2018, https://www.weforum.org/stories/2018/08/we-must-get-it-right-with-electric-vehicles-for-the-sake-of-our-planet/.

[xxx] Press Information Bureau, “Wheels of Change: India’s Electric Leap for Green Mobility,” Government of India, 26 August 2025, https://www.pib.gov.in/PressNoteDetails.aspx?NoteId=155094&ModuleId=3.

[xxxi] Press Information Bureau, “Wheels of Change: India’s Electric Leap for Green Mobility,” Government of India, 26 August 2025, https://www.pib.gov.in/PressNoteDetails.aspx?NoteId=155094&ModuleId=3.

[xxxii] P. De, Strengthening Regional Integration in South Asia: A Strategy Paper on Regional Connectivity and Trade Facilitation, Discussion Paper 288 (New Delhi: RIS, 2023), 12.

[xxxiii] World Economic Forum, “The Electrification of Transport Could Transform Our Future – If We Are Prepared for It,” 16 April 2018, https://www.weforum.org/stories/2018/08/we-must-get-it-right-with-electric-vehicles-for-the-sake-of-our-planet/.

[xxxiv] S. Shidore and J. W. Busby, “One More Try: The International Solar Alliance and India’s Search for Geopolitical Influence,” Energy Strategy Reviews (2019): 4, https://doi.org/10.1016/j.esr.2019.100385.

[xxxv] Press Information Bureau, “President Murmu Addresses Eighth Session of the ISA Assembly; Calls on the Global South to Lead Inclusive Solar Development before Representatives from 137 Countries,” Ministry of New and Renewable Energy, 28 October 2025, https://www.pib.gov.in/PressReleasePage.aspx?PRID=2183434.

[xxxvi] Press Information Bureau, “President Murmu Addresses Eighth Session of the ISA Assembly; Calls on the Global South to Lead Inclusive Solar Development before Representatives from 137 Countries,” Ministry of New and Renewable Energy, 28 October 2025, https://www.pib.gov.in/PressReleasePage.aspx?PRID=2183434.

[xxxvii] Press Information Bureau, “President Murmu Addresses Eighth Session of the ISA Assembly; Calls on the Global South to Lead Inclusive Solar Development before Representatives from 137 Countries,” Ministry of New and Renewable Energy, 28 October 2025, https://www.pib.gov.in/PressReleasePage.aspx?PRID=2183434.

 

Energy Security as Strategy: Building India’s Resilient Energy Architecture in a Fragmented World

Introduction

For much of the post-Cold War era, energy security was largely understood through the lens of economic efficiency. Policymakers focused on securing uninterrupted access to affordable fuel supplies through globalised markets, diversified sourcing arrangements, and increasingly integrated supply chains. The dominant assumption was that deep economic interdependence would moderate geopolitical tensions and enable energy markets to function with relative predictability. Efficiency, cost optimisation, and just-in-time logistics became the organising principles of the global energy system. That paradigm is now under visible strain.

Over the past several years, a succession of geopolitical and economic disruptions has exposed the fragility of highly optimised energy networks. The Russia–Ukraine conflict fundamentally altered global hydrocarbon flows, triggered severe volatility in oil and gas markets, and compelled major economies to reconsider long-held assumptions about supplier reliability and strategic dependence. Simultaneously, sanctions regimes, export controls, financial restrictions, and technology-denial measures demonstrated how energy, finance, logistics, and geopolitics have become deeply interconnected instruments of statecraft. More recently, disruptions in the Red Sea and attacks on commercial shipping routes have underscored the vulnerability of maritime corridors that sustain global trade and industrial activity.

These developments are unfolding alongside a broader transformation of the international system, marked by geopolitical fragmentation, intensified strategic competition, technological rivalry, and the gradual erosion of the relatively stable globalisation model that defined earlier decades. States increasingly prioritise resilience, strategic autonomy, and supply-chain security over narrow efficiency considerations. The global economy is therefore shifting away from purely optimisation-driven frameworks towards systems designed to withstand disruption and uncertainty.

In this emerging environment, energy security can no longer be treated merely as a matter of fuel procurement or price stabilisation. It has become a multidimensional strategic challenge encompassing maritime security, infrastructure resilience, technological capability, industrial policy, cybersecurity, and financial preparedness. The defining feature of the contemporary energy landscape is not scarcity alone, but systemic uncertainty.

For India, these transformations carry profound strategic implications. As the world’s fastest-growing major economy and the third-largest energy consumer, India’s development remains deeply dependent on stable, affordable access to energy resources. India is expected to account for one of the largest shares of global energy demand growth over the next two decades, as industrialisation, urbanisation, digital infrastructure expansion, transport needs, and rising living standards continue to accelerate. The country’s aspiration to become a Viksit Bharat by 2047 will depend substantially on the resilience and reliability of its energy systems.

Yet India’s energy ecosystem is also characterised by significant external dependence on hydrocarbons, critical technologies, and maritime trade routes. The challenge for policymakers is therefore no longer confined to securing sufficient energy supplies but to constructing a resilient national energy architecture capable of functioning effectively amid prolonged geopolitical volatility.

India has already begun responding to this evolving reality through initiatives including the International Solar Alliance, the National Green Hydrogen Mission, the expansion of the strategic petroleum reserve, the Production Linked Incentive (PLI) schemes for advanced manufacturing, and the SAGAR doctrine in the maritime domain. These initiatives reflect an important strategic recognition: energy security is no longer a narrow sectoral concern but a foundational pillar of national power.

The central argument of this article is that India’s energy strategy must evolve beyond conventional supply management towards a comprehensive national resilience framework that integrates strategic storage, diversified sourcing, secure maritime logistics, technological self-reliance, and infrastructure protection. In an era increasingly defined by geopolitical fragmentation and systemic disruption, India’s rise as a major power will depend significantly on its ability to build an energy architecture that is resilient, adaptive, and strategically sovereign.

Indias Structural Energy Exposure

India’s rise as a major economic power is inextricably linked to its expanding energy requirements. Rapid urbanisation, industrial growth, digitalisation, rising incomes, and increasing mobility continue to drive sustained growth in energy demand across sectors. According to the International Energy Agency, India is expected to account for a substantial share of global energy demand growth through 2040, reflecting both the scale of its developmental ambitions and the structural transformation of its economy. Yet this growth trajectory is accompanied by significant vulnerabilities embedded in India’s energy architecture.

The most immediate challenge remains the country’s heavy reliance on imported hydrocarbons. India currently imports nearly 88 percent of its crude oil requirements and more than half of its natural gas consumption. This dependence leaves the economy vulnerable to external supply shocks, price volatility, and geopolitical instability. Fluctuations in global energy markets continue to exert significant influence on inflation, fiscal balances, currency stability, and the broader macroeconomic environment.

Hydrocarbons remain central to India’s transport, industrial production, petrochemicals, aviation, shipping, and fertiliser production. Even as renewable energy capacity expands rapidly, conventional fuels will continue to play a major role in India’s energy mix for the foreseeable future. The challenge for India is therefore not the immediate replacement of hydrocarbons, but managing a calibrated, secure transition towards a more diversified energy architecture.

India’s strategic vulnerability extends beyond import dependence. A substantial share of India’s energy imports passes through some of the world’s most strategically sensitive maritime chokepoints, including the Strait of Hormuz, the Bab-el-Mandeb Strait, and the Strait of Malacca. These sea lanes are critical arteries linking India to energy producers in the Gulf region, Africa, and other global suppliers. Any disruption arising from military conflict, regional instability, piracy, terrorism, or great-power confrontation could trigger cascading economic and strategic consequences.

The Strait of Hormuz is particularly important for India’s energy security. A major share of India’s crude imports originates from Gulf producers, whose exports transit through this narrow corridor. Escalating tensions in West Asia therefore have direct implications for India’s energy flows and economic stability. Similarly, recent disruptions in the Red Sea region have demonstrated how geographically distant conflicts can significantly alter shipping costs, insurance premiums, transit times, and supply chain reliability.

The Strait of Malacca presents another critical strategic dimension. As one of the world’s busiest maritime passages linking the Indian Ocean to East Asian markets, Malacca is not merely a commercial route but a geopolitical chokepoint vulnerable to strategic competition and naval contestation. Importantly, India’s exposure extends beyond fossil fuels. The ongoing energy transition is creating new forms of strategic dependence on critical minerals, battery technologies, semiconductor systems, advanced grid infrastructure, and renewable energy supply chains. While renewable energy expansion may reduce exposure to hydrocarbon volatility over time, it also introduces fresh vulnerabilities linked to the concentration of supply chains for lithium, cobalt, rare earth elements, solar modules, and advanced batteries.

India has made significant progress in deploying renewable energy and now ranks among the world’s leading renewable energy producers. Installed renewable capacity has expanded rapidly, driven by large-scale solar and wind deployment, supported by ambitious policy initiatives and international climate commitments. Programmes such as the National Solar Mission, Green Energy Corridors, and the National Green Hydrogen Mission reflect India’s determination to position itself as a major player in the emerging clean-energy economy.

However, the transition also exposes India to substantial technological dependence. A large share of solar manufacturing supply chains, battery processing capacity, and critical mineral refining remains concentrated in a small number of countries. In this sense, the energy transition does not eliminate geopolitical risk; rather, it redistributes and transforms it. India’s structural vulnerability therefore lies not in any single dependency, but in the cumulative exposure of its energy ecosystem to external shocks across fuel supply, maritime logistics, technology infrastructure, critical minerals, and strategic trade routes. Addressing this exposure requires moving beyond conventional supply-centric approaches towards a broader framework of systemic resilience.

From Supply Security to Systemic Resilience

The evolving geopolitical landscape demands a fundamental rethink of how energy security is conceptualised. For decades, energy policy across much of the world was guided by assumptions rooted in globalisation, market integration, and efficiency. The primary objective was to secure reliable supplies at competitive prices through diversified imports and interconnected markets. In this framework, resilience was often treated as secondary to efficiency, while redundancy was viewed as economically inefficient.

The cumulative disruptions of recent years have exposed the limitations of this approach. The COVID-19 pandemic disrupted global manufacturing and logistics on an unprecedented scale. The Russia–Ukraine conflict demonstrated how energy exports could be weaponised during geopolitical confrontation. Red Sea disruptions highlighted the vulnerability of maritime logistics to regional instability, while energy shortages in several economies revealed the risks of excessive dependence on concentrated supply systems.

The central lesson from these crises is clear: highly optimised systems may also become highly fragile. As a result, the strategic emphasis is gradually shifting from supply security alone to systemic resilience. Supply security focuses primarily on ensuring access to energy resources. Systemic resilience, by contrast, concerns the ability of an entire energy ecosystem to anticipate, withstand, adapt to, and recover from disruption without severe economic or strategic dislocation.

Resilience requires moving beyond linear procurement models towards integrated frameworks that incorporate redundancy, flexibility, storage capacity, diversified supply chains, infrastructure protection, and institutional preparedness. In practical terms, this means recognising that disruptions are no longer exceptional but recurring structural features of the contemporary geopolitical environment. For India, adopting a resilience-oriented approach is especially important given the scale and complexity of its development ambitions. The country’s future economic growth will depend not only on expanding energy availability but also on ensuring that its energy architecture remains stable amid external volatility.

India has already taken several measures reflecting this shift towards resilience-oriented planning. The development of strategic petroleum reserves, the One Nation One Grid initiative, Green Energy Corridors, smart-grid modernisation, and efforts to expand domestic manufacturing under the Atmanirbhar Bharat framework are important steps towards reducing structural vulnerability. A resilience-based framework also requires closer integration between energy policy and broader national-security planning. Maritime strategy, industrial policy, cybersecurity, technological capability, climate adaptation, and financial regulation can no longer be treated as separate domains operating independently of energy planning.

Consequently, the future of energy security lies not merely in securing greater volumes of energy, but in building systems that can function reliably amid uncertainty. In an era defined by geopolitical competition and systemic disruption, resilience, rather than efficiency alone, is emerging as the defining metric of strategic preparedness.

Strategic Storage as Geopolitical Insurance

Among the various instruments available to strengthen energy resilience, strategic storage capacity holds a uniquely important position. Traditionally viewed as emergency backup infrastructure, strategic reserves are increasingly recognised as core components of geopolitical preparedness and economic stability. India’s strategic petroleum reserve programme reflects an important recognition of this reality. The country currently maintains strategic crude oil storage facilities at Visakhapatnam, Mangaluru, and Padur, with further expansion plans under consideration. These reserves provide a critical buffer against sudden supply disruptions arising from geopolitical conflict, shipping disruptions, or severe price volatility.

The strategic significance of reserves extends beyond immediate supply protection. Countries with substantial storage capacity are often better placed to navigate geopolitical crises with greater confidence and lower exposure to short-term market volatility. Strategic reserves create time — and in geopolitical crises, time itself becomes a strategic resource. For India, the strategic logic of storage must now move beyond crude oil alone. The changing energy landscape requires a broader conception of storage infrastructure, encompassing natural gas reserves, LNG storage facilities, electricity-balancing systems, and grid-scale battery infrastructure.

Battery Energy Storage Systems, pumped hydro storage, and smart-grid balancing infrastructure are likely to play a particularly important role in strengthening resilience to geopolitical and climate-related disruptions. India’s renewable-energy expansion targets cannot be achieved sustainably without corresponding investments in storage and transmission infrastructure capable of maintaining grid stability during fluctuations in generation patterns. The National Green Hydrogen Mission further reflects India’s recognition that future energy resilience will depend on diversified storage and energy-carrier capabilities. Green hydrogen has the potential to serve as both a clean industrial fuel and a long-duration energy-storage medium, supporting sectors that are difficult to electrify directly.

Importantly, strategic storage has significant financial and institutional implications. Developing large-scale reserve capacity requires long-term capital investment, sophisticated infrastructure planning, and coordinated public-private participation. Unlike purely commercial infrastructure, strategic storage often delivers benefits that are not immediately reflected in short-term market pricing. Its value is most evident during periods of crisis, when reserve capacity can stabilise markets, preserve economic continuity, and enhance policy flexibility. India’s future energy strategy must therefore treat storage infrastructure not as a peripheral contingency measure but as a central pillar of national preparedness.

Diversification Beyond Suppliers

Diversification has long occupied a central place in energy-security planning. Traditionally, however, diversification was understood primarily in narrow geographic terms — reducing dependence on any single supplier or region. While supplier diversification remains important, the emerging geopolitical and technological environment requires a far broader understanding of diversification.

India has already demonstrated considerable strategic flexibility in adjusting its hydrocarbon procurement patterns in response to evolving geopolitical realities. The expansion of discounted crude imports from Russia following Western sanctions, continued engagement with Gulf producers such as Saudi Arabia and the United Arab Emirates, growing energy cooperation with the United States, and expanding ties with African suppliers collectively reflect a pragmatic strategy to maintain supply stability while preserving strategic autonomy.

This flexible approach has reinforced India’s broader doctrine of strategic multi-alignment — maintaining productive relations across competing geopolitical blocs without becoming overly dependent on any single power centre. However, supplier diversification alone cannot eliminate systemic vulnerability. India’s long-term energy architecture will likely depend on a carefully balanced mix of hydrocarbons, renewables, nuclear power, natural gas, biofuels, hydrogen systems, and emerging low-carbon technologies. Within this framework, nuclear energy holds a particularly important strategic position. Unlike intermittent renewable sources, nuclear power provides stable baseload electricity generation essential for industrial growth, grid stability, and long-term decarbonisation.

India’s nuclear programme also exemplifies one of the country’s strongest instances of indigenous technological capability and long-term strategic planning. India has developed considerable expertise in Pressurised Heavy Water Reactor (PHWR) technology, reactor engineering, and nuclear fuel-cycle management. Civil nuclear cooperation agreements with countries such as the United States, France, and Russia have strengthened both energy security and broader strategic partnerships.

India’s three-stage nuclear programme, originally conceived by Dr Homi Bhabha, was designed to reduce long-term external dependence by leveraging the country’s substantial thorium reserves. This long-term strategic vision continues to distinguish India’s nuclear approach from those of many other developing economies. As India expands renewable energy capacity, nuclear energy is likely to become increasingly important for addressing intermittency challenges and ensuring reliable, low-carbon power generation.

Emerging technologies such as Small Modular Reactors (SMRs) may further strengthen India’s long-term energy resilience by enabling more flexible deployment, reducing land requirements, and improving integration with industrial clusters and decentralised energy systems. In this sense, nuclear energy should not be seen as opposed to renewables, but as a complementary pillar within a diversified and resilient energy architecture.

India’s ethanol-blending programme has expanded significantly over the past decade, reducing dependence on imported fuel and supporting agricultural incomes and rural economic activity. Similarly, India’s ambitious renewable-energy targets aim to diversify the national energy mix and reduce long-term carbon intensity. The International Solar Alliance, launched jointly by India and France, is another important dimension of India’s strategic energy diplomacy. Beyond climate considerations, the ISA reflects India’s aspiration to shape emerging global energy governance frameworks.

At the same time, the energy transition introduces a new set of strategic dependencies. Renewable-energy systems rely heavily on concentrated supply chains for solar modules, advanced batteries, semiconductors, and critical minerals such as lithium, cobalt, nickel, and rare earth elements. Recognising this challenge, India has begun to expand efforts to secure critical mineral supply chains through initiatives such as KABIL, overseas mineral partnerships, and cooperation agreements with countries including Australia and several African states. Simultaneously, Production Linked Incentive schemes and Atmanirbhar Bharat initiatives aim to strengthen domestic manufacturing capabilities in solar equipment, battery systems, semiconductors, and advanced clean-energy technologies. Ultimately, resilience emerges not from isolation, but from the ability to operate flexibly across multiple supply networks, technological systems, and geopolitical relationships.

Maritime Security and the Geopolitics of Energy Flows

Energy security and maritime security have become increasingly inseparable. For a country such as India, whose economic growth and industrial expansion depend heavily on seaborne energy imports, the stability of maritime trade routes is a foundational element of national resilience. The Indian Ocean region holds a uniquely significant position within the global energy system. India’s energy supply chains are deeply embedded in maritime chokepoints such as the Strait of Hormuz, the Bab-el-Mandeb Strait, and the Strait of Malacca.

Recent disruptions around the Red Sea demonstrated how regional conflicts can trigger cascading effects across global supply chains. Attacks on commercial shipping, rerouting of maritime traffic, and rising insurance costs significantly affected freight economics and transit reliability. Consequently, maritime security can no longer be viewed as a peripheral naval concern, detached from economic planning. Sea-lane protection has become a core economic-security imperative.

India has already begun responding to these realities through expanded maritime engagement across the Indian Ocean region. The SAGAR doctrine — Security and Growth for All in the Region — reflects India’s recognition that maritime stability is essential to long-term regional and economic security. India’s participation in the Quad has further strengthened maritime cooperation in areas such as maritime domain awareness, logistics coordination, and infrastructure resilience. The Information Fusion Centre–Indian Ocean Region is another important institutional mechanism to improve maritime surveillance and information-sharing across the region.

The Andaman and Nicobar Command also holds growing strategic significance given its proximity to the Strait of Malacca and the wider Indo-Pacific sea lanes. In this context, India’s energy map is ultimately a maritime map.

Cybersecurity and Grid Vulnerability

The modernisation of energy systems is increasingly transforming energy infrastructure into digital infrastructure. Smart grids, automated transmission systems, AI-enabled load management, smart metering, and interconnected industrial control systems are rapidly becoming central to modern energy architecture. While these technologies significantly improve efficiency and reliability, they also introduce new categories of strategic vulnerability.

In the twenty-first century, future energy conflicts may target data systems and digital infrastructure as much as pipelines, ports, or refineries. Energy infrastructure worldwide has become increasingly vulnerable to cyberattacks, ransomware, espionage campaigns, and state-sponsored digital disruption. Power grids and transmission networks rely heavily on digital systems that could be targeted during periods of geopolitical confrontation.

In India, the risks are becoming increasingly significant as the country rapidly expands and digitises its energy ecosystem. Smart-grid modernisation and renewable-energy integration are essential to improving efficiency and expanding electricity access. However, greater connectivity also increases the attack surface available to hostile actors.

The 2020 Mumbai power outage sparked a wider debate about the strategic vulnerability of digitally connected infrastructure and underscored the need to strengthen cybersecurity preparedness across critical sectors. Consequently, cybersecurity must now be treated as a core pillar of energy resilience rather than a narrow technical concern. Protecting critical energy infrastructure requires a comprehensive framework that integrates cyber defence, institutional coordination, technological redundancy, and domestic capability development. The future of energy security will depend as much on securing networks and data systems as on securing physical energy supplies.

Financing Energy Resilience

Building resilient energy systems at the scale required for India’s long-term economic transformation will require enormous and sustained capital investment. Expanding strategic storage capacity, modernising electricity grids, strengthening transmission infrastructure, securing maritime logistics networks, scaling renewable generation, and enhancing domestic manufacturing capability together constitute one of the largest infrastructure challenges of the coming decades. The contemporary financing environment, however, is becoming increasingly complex. Geopolitical risk, supply-chain uncertainty, and the growing politicisation of trade and investment flows are reshaping global capital markets.

For India, this presents both opportunities and challenges. While India continues to attract substantial global investment interest owing to its long-term growth prospects, resilience-oriented infrastructure often entails high upfront costs and extended investment horizons. Public investment will therefore remain essential. Governments are uniquely positioned to finance long-duration infrastructure projects with national security implications. At the same time, public resources alone will not be sufficient to finance the scale of transformation required.

India has already begun developing key financing mechanisms in this direction. Sovereign green bonds, the National Infrastructure Pipeline, GIFT City initiatives, and the expansion of green-finance frameworks reflect efforts to position India as a major destination for long-term infrastructure capital. Blended finance models that combine sovereign guarantees with private investment may be particularly important for projects involving strategic infrastructure and emerging technologies. Importantly, resilience financing should not be seen merely as defensive expenditure. Investments in resilient energy systems yield broader economic benefits by enhancing industrial stability, reducing supply volatility, improving investor confidence, and increasing macroeconomic predictability.

Conclusion

The international energy landscape is undergoing a structural transformation. The assumptions that shaped the era of globalisation — stable supply chains, predictable markets, and efficiency-driven optimisation — are being replaced by a far more uncertain geopolitical environment characterised by fragmentation, strategic competition, technological rivalry, and recurring disruptions across interconnected systems. In this world, energy security can no longer be understood merely as the uninterrupted availability of fuel at affordable prices. It has become inseparable from broader questions of national resilience, strategic autonomy, industrial capability, technological sovereignty, maritime preparedness, and geopolitical flexibility.

For India, this transformation carries profound implications. As a rapidly expanding economy with rising industrial demand, urbanisation pressures, technological ambitions, and developmental aspirations, India’s future trajectory will depend fundamentally on the resilience and reliability of its energy systems. The central challenge for policymakers is therefore not merely securing additional energy supplies, but constructing systems capable of functioning reliably under conditions of prolonged disruption and strategic uncertainty. This requires moving beyond traditional supply-centric approaches towards a broader, resilience-oriented framework built on strategic storage, diversified sourcing, secure maritime logistics, cyber resilience, domestic technological capability, adaptive infrastructure, nuclear stability, and integrated institutional coordination.

India’s response must consequently be multidimensional. Expanding strategic reserves, strengthening naval capabilities, securing access to critical minerals, modernising electricity infrastructure, protecting digital systems, mobilising long-term resilience finance, and strengthening domestic manufacturing ecosystems must all form part of a coherent national strategy. The broader lesson from recent crises is clear: nations with resilient systems enjoy greater strategic flexibility during periods of instability. Countries able to absorb shocks without severe economic dislocation are better placed to preserve policy autonomy, maintain industrial continuity, and navigate geopolitical competition.

For India, energy security must therefore evolve from a sectoral policy objective into a central pillar of national strategy. The future balance of global power may increasingly depend not only on access to resources but also on the capacity of states to sustain resilient economic and infrastructure systems amid prolonged uncertainty. India’s aspiration to become a Viksit Bharat by 2047 will ultimately depend not only on the scale of its growth but also on the resilience of the systems that sustain that growth.

In that sense, building energy resilience is not merely about protecting economic growth. It is about securing India’s long-term strategic autonomy in an era when energy, technology, infrastructure, and geopolitics are becoming inseparable dimensions of national power. India’s future energy architecture must therefore integrate renewables, nuclear stability, resilient grids, secure maritime logistics, strategic storage, and technological self-reliance into an integrated framework capable of sustaining national power in an increasingly uncertain world order.

Author Brief Bio: Shri Manmohan Parkash is a development finance professional with over two decades of experience at the Asian Development Bank (ADB), where he has held senior leadership positions including Senior Advisor, Office of the President, Deputy Director General for South Asia, Country Director, Head of the Operations Management Unit, and Advisor for East Asia. His work has focused on macroeconomic policy, development finance, regional cooperation, and institutional reform across Asia and the Global South.

References :

  1. Manmohan Parkash, “Energy Is the New Gold in an Uncertain World,” The Financial Express (Bangladesh), April 9, 2026, https://thefinancialexpress.com.bd/views/columns/energy-is-the-new-gold-in-an-uncertain-world.
  2. Manmohan Parkash, “Chokepoints and the Fragility of Globalization,” The Financial Express (Bangladesh), https://thefinancialexpress.com.bd/views/views/chokepoints-and-the-fragility-of-globalization
  3. International Energy Agency, India Energy Outlook 2021 (Paris: International Energy Agency, February 9, 2021), https://www.iea.org/reports/india-energy-outlook-2021.
  4. Planning Commission, Government of India, India Energy Security Scenarios 2047 (New Delhi: Government of India, February 2014), https://iced.niti.gov.in/.
  5. Ministry of Petroleum and Natural Gas, Government of India, Annual Report 2023–24 (New Delhi: Ministry of Petroleum and Natural Gas, 2024), https://mopng.gov.in/en/annual-report.
  6. Ministry of New and Renewable Energy, Government of India, National Green Hydrogen Mission (New Delhi: Ministry of New and Renewable Energy, January 2023), https://nghm.mnre.gov.in/admin/uploads/resources/167465243440278NationalGreenH2Mission.pdf.
  7. Department of Atomic Energy, Government of India, “Nuclear Power Myths and Facts,” August 29, 2023, https://dae.gov.in/nuclear-power-myths-and-facts/.
  8. Integrated Headquarters, Ministry of Defence (Navy), Ensuring Secure Seas: Indian Maritime Security Strategy, Naval Strategic Publication 1.2 (New Delhi: Ministry of Defence [Navy], October 2015), https://bharatshakti.in/wp-content/uploads/2016/01/Indian_Maritime_Security_Strategy_Document_25Jan16.pdf.
  9. Daniel Yergin, The New Map: Energy, Climate, and the Clash of Nations (New York: Penguin Press, 2020), https://www.penguinrandomhouse.com/books/317939/the-new-map-by-daniel-yergin/.
  10. Henry Farrell and Abraham L. Newman, “Weaponized Interdependence: How Global Economic Networks Shape State Coercion,” International Security 44, no. 1 (Summer 2019): 42–79, https://doi.org/10.1162/ISEC_a_00351.

 

Power, Prosperity and National Strength: India’s Energy Transformation

In 1950, just three years after independence, India had a modest electricity-generating capacity of 1.7 GW. At the time, India’s population was about 36 crore, and most people were outside the reach of the electricity grid. By the turn of the century, the installed generating capacity had increased to 112 GW, covering a majority of India’s population, which had now grown to about 100 crore. A quarter of a century later, in 2025, India’s installed generating capacity, at 557 GW, covered the length and breadth of the country, including all villages and hamlets. By 2018, all inhabited villages had been provided with distribution lines, and although power supply in some areas was erratic, it still represented a significant improvement over the situation that existed even a decade earlier.

Over the 75-year period 1950-2025, India’s electricity production increased by more than 320-fold, while its population grew fourfold. The first two decades, 1950-1970, were a period of growth driven by hydropower. The next three decades, 1970-2000, saw coal-driven expansion, with rapid growth in thermal power. Since then, power generation has more than tripled, largely driven by renewable energy, including solar, wind, and nuclear power.

In terms of generating capacity, solar power, at 154.2 GW, now accounts for 28.7% of the country’s capacity, while wind, at 56.4 GW, accounts for 10.5%. When we add 56.9 GW of hydropower, 11.8 GW of bio power, and 8.8 GW of nuclear power, non-fossil fuels make up over 52% of the national total generating capacity. This is a stupendous achievement, driven largely by green energy technologies, substantial funding, and government initiatives.[1]

A significant milestone is the near-100% electrification of India’s broad-gauge railway network, covering 70,271 route kilometres (RKM), of which 70,002 RKM have been electrified. At independence, India had just 388 RKM of its broad-gauge network electrified. This number grew to 21,800 RKM by 2014. The last decade has seen a tremendous push for broad-gauge electrification, with over 48,000 RKM electrified—indeed a tremendous achievement.[2] With just 269 RKM remaining to be electrified, Indian Railways stands on the threshold of complete electrification, marking a transformative achievement in sustainable, efficient, and future-ready rail transport and positioning itself among the world’s leading rail networks. Solar energy is a significant component of Indian Railways’ energy basket, rising from 3.68 MW in 2014 to 898 MW by the end of 2025, reflecting transformational growth in renewable energy adoption.[3]

While India has made a notable leap into renewable energy, its dependence on coal is unlikely to diminish. 55% of India’s primary commercial energy needs are still met by coal. Coal is used in thermal power plants for electricity generation, as well as in iron and steel production, cement manufacturing, coal gasification, and chemical manufacturing. It remains the backbone of India’s energy and industrial sectors. Although coal’s installed capacity accounts for 42% of electricity generation capacity, actual generation is much higher, at about 70-72%. This is because coal plants run continuously, day and night, whereas solar plants depend on daylight hours and hydropower is affected by seasonal flows.

India possesses one of the largest coal endowments in the world, estimated at about 400 billion tonnes by the Geological Survey of India. Despite India’s thrust towards renewables, it would be unrealistic to forgo exploiting its available resources at this stage of development. That said, India’s long-term energy security goal aligns with its net-zero target, and the commitment it made in November 2021 at COP26 to achieve net-zero by 2070 will be met.

The global energy transition, however, is becoming a new industrial revolution. While global warming and climate change set the agenda for decarbonisation targets, the tremors following the closure of the Strait of Hormuz, which led to market volatility, have underscored the need for resilience and diversification. The defining issue, however, has shifted from generating clean power to building the electrical, digital, and industrial systems required to support an increasingly electrified world. The demand for electrical power is no longer about an annual incremental increase. Artificial intelligence (AI), hyperscale data centres, semiconductor manufacturing, industrial electrification, and battery production are transforming power consumption patterns across advanced and emerging economies alike.[4]

The countries that adapt fastest will shape the next phase of global economic leadership. That is the challenge India will face in its quest to compete for global leadership.

Author Brief Bio: Maj. Gen. Dhruv C. Katoch is Editor, India Foundation Journal and Director, India Foundation.

Endnotes:

[1] NITI Aayog, “Generation”, India Climate and Energy Dashboard, accessed June 23, 2026, https://iced.niti.gov.in/energy/electricity/generation

[2] Ministry of Railways, Government of India, “Status of Railway Electrification (as on 31 May 2026),” accessed June 23, 2026, https://indianrailways.gov.in/railwayboard/uploads/directorate/ele_engg/2026/Status%20of%20Railway%20Electrification%20(as%20on%2031_05_2026).pdf

[3] Press Information Bureau, “Mission 100% Electrification: Powering the Future of Indian Railways,” Government of India, January 6, 2026, https://www.pib.gov.in/PressNoteDetails.aspx?NoteId=156834&ModuleId=3®=3&lang=2

[4] Manmohan Parkash, “Energy Transition Is Becoming a New Industrial Revolution,” Financial Express (Dhaka), June 8, 2026, https://thefinancialexpress.com.bd/views-opinion/energy-transition-is-becoming-a-new-industrial-revolution-1780843478.

 

Scholarly Journals’ Editorial Policy Towards the Use of Artificial Intelligence in Social Sciences

 

Scholarly Journals’ Editorial Policy Towards the Use of Artificial Intelligence in Social Sciences

Edited Transcript of Presentations
25 June 2026

 

Table of Contents

1. Artificial Intelligence-Generated Text as a Challenge for a Scholarly Journal in the Field of Humanities
Prof. Lilia Komalova 
2. Transforming Governance Through Artificial Intelligence
Wing Commander S. Sudhakaran (Retd)
3. Economic Cost Shifting of AI in Scholarly Publishing
Prof. Alexey Kuznetsov (INION RAN)
4. AI’s Potential vs. Human Insight: Ethical Anxiety for Scholarship and Originality
Prof. Sunaina Singh (India Foundation)
5. Stigmatised Artificial Intelligence Use: AI-Friendly Journal Policies vs. Quasi-Sensorial Editorial Practices
Sergey Goryunov (INION RAN)
6. Formulating Editorial Standards and Addressing Structural Injustices in AI Governance
Prof. Sushma Yadav
7. Reconceptualisation of Scientific Information and Book Culture in the Age of Artificial Intelligence
Prof. Igor Bogomolov (INION RAN)
8. Closing Remarks
Maj. Gen. Dhruv C. Katoch and Prof. Alexey Kuznetsov

 

Artificial Intelligence-Generated Text as a Challenge for a Scholarly Journal in the Field of Humanities
Prof. Lilia Komalova

 

It is an honour to open the first session of this joint seminar on research integrity in AI-generated academic papers and on the editorial policies of scholarly journals regarding the use of artificial intelligence. I hope our discussions today will help us address these complex issues, share experiences across academic systems, and develop practical mechanisms for handling manuscripts that incorporate AI-generated content. Drawing on my ten years’ experience as Editor-in-Chief of a scholarly journal, I would like to share the challenges academic publishers—particularly journals in the humanities—face today.

I will begin with a brief introduction to INION as an academic publisher. I will then explain what distinguishes a scholarly journal from a non-academic publication and highlight some of the unique characteristics of research publishing in the humanities. Finally, I will discuss the challenges posed by the rapid growth of AI-generated text and how these developments are affecting the publication of our own journals. INION conducts research across a broad spectrum of the social sciences and humanities, including political science, international relations, law, area studies, history, cultural studies, economics, sociology, religious studies, linguistics, literature, philosophy, library science, and related disciplines.

Alongside its research activities, INION is one of Russia’s leading publishers of scholarly literature in the social sciences and humanities. Each year, our publishing centre produces 24 academic journals and about 30 scholarly monographs and edited volumes. Four of our journals are indexed in the Web of Science and/or ERIH PLUS, sixteen are included in the Russian unified state list of scientific publications, and all are indexed in the Russian Science Citation Index.

Personally, I serve as Editor-in-Chief of a multidisciplinary journal and as Deputy Editor-in-Chief of the specialised journal Ethnopsycholinguistics. For our colleagues from India, I should add a brief note on the Russian publishing system. Most scholarly journals in the Russian Federation are published by government research institutes or universities. Publication in INION journals is free for authors, reviewers, and editorial board members. All publication costs are borne by INION, and every article is available on both the journal websites and the INION website, ensuring free access for readers.

Before discussing AI-generated manuscripts, it is important to clarify what we mean by a scholarly journal. The primary purpose of a scholarly journal is to advance knowledge through original research grounded in verified sources and conducted in accordance with recognised scientific methods. Scholarly articles present new findings, follow a structured academic format that enables readers to understand the research process from the formulation of the research question to the conclusions, and undergo rigorous peer review by experts in the relevant discipline.

Publishing in the humanities, however, differs in important ways from publishing in many other scientific fields. Research in the humanities relies predominantly on qualitative methods rather than quantitative analysis. Descriptive research is generally more common than experimental or modelling approaches. Consequently, the quality of the research depends heavily on the author’s expertise, analytical abilities, and deep subject knowledge. This context is particularly important when considering the impact of generative artificial intelligence. From a publisher’s perspective, the consequences can be summarised in several key observations.

First, AI has significantly lowered barriers for early-career researchers, including postgraduate students and recently appointed postdoctoral scholars. AI tools assist with literature searches, summarising sources, language editing, formatting, and bibliography preparation. As a result, many more submissions now pass the initial editorial screening because they are well written and technically compliant with journal requirements. While this improves accessibility for authors, it also creates additional work for publishers. Editorial offices receive a larger volume of manuscripts requiring expert assessment, increasing the burden on reviewers and often necessitating the expansion of reviewer pools. It may also require journals to introduce additional editorial screening stages before manuscripts proceed to peer review.

Second, the traditional concept of originality is increasingly difficult to apply. Generative AI challenges our understanding of what constitutes an author’s genuine intellectual contribution. A manuscript may contain entirely original wording yet contribute little or no genuinely new knowledge. Likewise, an author’s ability to craft sophisticated prompts does not necessarily reflect their research competence or analytical ability. Given the characteristics of humanities research, AI-generated content can appear in every section of a manuscript—from the title and abstract to the literature review, discussion, and even the references.

This raises an important question. Rather than simply requiring authors to declare their use of AI tools, should journals instead require them to specify their intellectual contribution to both the research and the manuscript? At the same time, publishers must devote much greater attention to fact-checking, source verification, and bibliographic validation. These additional responsibilities inevitably lengthen the review process and require greater investment in human expertise, financial resources, and technological support.

Another significant challenge concerns AI-detection systems themselves. Given the rapid evolution of large language models, no existing detection system can reliably identify AI-generated text with complete accuracy, even when multiple professional tools are used together. Moreover, we are increasingly encountering false positives, particularly in manuscripts by experienced scholars whose writing is naturally fluent and highly polished.

Open science and advances in machine translation introduce another layer of complexity. Today, authors from many countries can prepare manuscripts primarily from sources published in their native languages and submit them in English. In such cases, both plagiarism-detection software and AI-detection systems often perform poorly. For publishers, these submissions can become something of a “black box”, making thorough fact-checking and bibliographic verification extremely difficult. Taken together, these developments require a fundamental reassessment of editorial policy.

Many journals, including ours, now require authors to disclose the use of AI tools in manuscript preparation. We also subject every submission to multiple AI-detection systems before peer review. However, these measures alone are unlikely to be sufficient. The broader question remains: what additional mechanisms must scholarly publishers develop to ensure that academic publications continue to reflect genuine human scholarship and trustworthy scientific knowledge? That, I believe, is one of the central questions we will explore together in this seminar.

Thank you.

 

Transforming Governance Through Artificial Intelligence
Wing Commander S. Sudhakaran (Retd)

 

Today I would like to discuss an aspect of artificial intelligence that is both fundamental and surprisingly underexplored. My presentation is titled “Transforming Governance Through Artificial Intelligence: Intelligence Beyond Automation”. Much of the current discourse on AI focuses on automation—making processes faster, cheaper, and more efficient. But I would like to ask a more fundamental question: Where does automation end and intelligence begin?

The answer has profound implications for governance and public policy, particularly regarding today’s seminar topic—how editors and publishers should govern the use of AI in scholarly publications. To answer that question, we must first clarify what we mean by the term “artificial intelligence.”

One of the greatest challenges today is that people often use the same term to refer to very different concepts. Broadly speaking, I see three groups of people engaged in discussions about AI. The first group comprises non technical observers. These are intelligent people with no formal background in AI who have formed opinions because AI has become part of everyday conversation. For many of them, AI appears almost magical—a technology capable of performing tasks once considered uniquely human. Others view it as a potential threat, raising concerns about employment, ethics, and the future of society. Both perspectives are understandable, as they arise without direct technical engagement.

The second group comprises technically literate non-practitioners. These are individuals with engineering or scientific backgrounds who understand computing but have never built or worked extensively with AI systems. They often equate AI with highly sophisticated automation—a faster computer, a more capable calculator, or a more efficient digital assistant. While these capabilities are important, they primarily describe automation rather than intelligence.

The third group comprises AI practitioners—those who design, develop, and work directly with these systems. Their perspective often differs because they focus less on what AI automates and more on whether it actually performs cognitive acts.

This distinction is critical. The famous story of the blind men describing an elephant offers a fitting analogy. Each person experiences only one part of the elephant and therefore reaches a different conclusion about what it is. Today’s debate on AI often resembles that story. Different communities observe different aspects of the technology and naturally arrive at different definitions. Unfortunately, many public policies are largely based on the first two perspectives. We often begin by defining AI as automation and then extrapolate that definition to intelligence. As a result, policy often oscillates between excessive caution and excessive optimism. Both responses stem from attempts to regulate a phenomenon that has not yet been clearly defined.

That brings me to a more fundamental question. What do we actually mean by intelligence? For many years, I have argued that intelligence comprises three distinct components, which I call the Three Cs of Intelligence. The first is Comparison.

If I ask, “What is the capital of India?” and you answer “New Delhi,” you are retrieving stored knowledge. Someone taught you the answer; you retained it and recalled it when needed. This is intelligence based on comparison with stored memory. Even a trained sniffer dog identifying a familiar scent demonstrates this form of intelligence.

The second is computation. If I ask you to calculate the area of a circle, you first need the radius. You then apply a mathematical formula to obtain the answer. This is computational intelligence—processing information using established rules and procedures. Computers have always excelled at these two forms of intelligence. They retrieve information at extraordinary speed and perform calculations at scales impossible for human beings.

The third and most significant component is Cognition. Cognition encompasses understanding, judgement, creativity, contextual reasoning, and ultimately responsibility for knowledge. It is the ability not merely to retrieve or calculate information but to generate new understanding. Scientific breakthroughs rarely arise from comparison or computation alone. They stem from cognitive insight—the uniquely human capacity to formulate hypotheses, challenge assumptions, and generate new knowledge.

This distinction is essential because today’s generative AI systems remain overwhelmingly comparative and computational. They are extraordinarily capable within those domains, but they are not yet fully cognitive in the human sense. This is not simply a temporary technological limitation awaiting the next software update. It marks a fundamental distinction between automation and genuine cognition. However, the trajectory of development is unmistakable. The field is steadily moving from systems that compare and compute towards systems that increasingly simulate aspects of cognition. Whether that transition occurs next year or several years from now is difficult to predict, but the direction of travel is clear.

I describe this evolution as an intelligence maturity curve. In its early stages, machines primarily assisted human work through comparison and computation. Later, they augmented human capabilities by generating drafts, analysing information, and supporting decision-making. Today, we find ourselves at an important transition point. Not long ago, humans produced every piece of scholarly work independently. More recently, authors began using digital tools to support their writing. Today, many researchers increasingly act as verifiers of machine-generated content—reviewing, refining, and validating material produced by AI systems. The next stage may see humans functioning primarily as overseers rather than active verifiers. Beyond that lies a future in which human involvement could diminish further as increasingly autonomous systems emerge.

Whether that future arrives soon or not, it underscores the need to clearly distinguish between automation and cognition. Referring to every stage simply as “AI” obscures profound differences in capability and responsibility. This distinction is particularly important in scholarly publishing. If we misunderstand the nature of these technologies, our editorial responses are likely to be ineffective.

For example, AI detection systems cannot reliably identify a category that is poorly defined. False positives are increasingly common, sometimes affecting experienced researchers whose writing is simply clear and sophisticated. Similarly, mandatory disclosure policies may unintentionally discourage openness if authors believe that declaring the legitimate use of AI tools will automatically prejudice editorial judgement.

Another challenge is what I call the “fog of technology”, borrowing from the military concept of the “fog of war”. Editors, reviewers, authors, and even developers often have limited visibility into how AI systems generate their outputs. We frequently cannot determine with certainty which ideas originate with the author, which emerge from the machine, and how the two interact. Consequently, I believe we are asking the wrong question.

Rather than asking, “Did a machine contribute to this manuscript?” we should ask, “Where does the author’s cognitive contribution reside?” That is a question editors can meaningfully evaluate. Authorship is not merely the production of text. It is the willingness to stand behind a claim, to defend its accuracy, and to accept responsibility for its consequences. Today, despite the remarkable capabilities of generative AI, responsibility still rests with the human author. The machine may assist with generating text, organising ideas, or retrieving information, but it does not assume responsibility for the truth of a scholarly argument. Responsibility requires understanding, intent, and accountability. These remain fundamentally human attributes.

For that reason, I believe editorial policy should focus less on detecting machine-generated language and more on safeguarding the cognitive integrity of scholarship. The central question is not whether AI was used, but whether the human author remains intellectually responsible for the work. If we uphold that principle, our editorial policies will naturally evolve in the right direction.

If we lose sight of it, no amount of detection software or procedural regulation will adequately safeguard scholarly integrity. Let us therefore build our governance frameworks on first principles rather than on technological reflexes. Let us protect the cognitive core of scholarship while embracing technologies that genuinely enhance human research.

Thank you.

 

Questions and Discussion

 

Prof. Lilia Komalova

Thank you very much for a highly thought-provoking presentation. I believe it offers a useful framework for understanding how editors should approach AI-assisted manuscripts. One idea that particularly resonated with me was your emphasis on cognition as the defining characteristic of genuine scholarship. I believe this is likely to become one of the central issues that editors and publishers will need to address over the next two or three years. My first question is this: given the rapid pace of technological development, do you think we should begin preparing now for what you described as the fourth stage of the intelligence maturity curve, rather than waiting until it arrives? My second question concerns young researchers. As editors, reviewers, and academic supervisors, we increasingly encounter scholars who routinely use AI tools in their research and writing. How should we approach these cases? If we recognise that these systems demonstrate sophisticated forms of intelligence, albeit not human cognition, what principles should guide our evaluation of their work?

Wing Commander S. Sudhakaran (Retd)

Thank you, Professor, for those important questions. Let me begin with your first question. The fourth stage marks a fundamental transition. Once that threshold is crossed, we are no longer dealing merely with systems that automate human tasks; we are entering an era in which machine intelligence could rival—and potentially surpass—human cognitive capabilities. From a cybersecurity perspective, this transition would be an inflexion point, leading to exponential growth in capability. It is closely associated with what is often described as the AGI (Artificial General Intelligence) singularity.

For several years, I have argued that this is the point we should be preparing for, as it fundamentally alters our assumptions about human oversight and control. Regardless of where one believes we are on that timeline, I think the most important lesson is to return to first principles. Rather than becoming preoccupied with labels or fashionable terminology, we should ask fundamental questions about what intelligence is, what cognition entails, and where responsibility ultimately lies. Technology evolves rapidly, but clear thinking remains our greatest advantage.

Turning to your second question about young researchers, I believe AI tools are now integral to the research environment. Trying to prevent their use altogether is neither practical nor, in my view, desirable. History offers many examples of technologies initially viewed with suspicion. Calculators were once prohibited in classrooms and examinations because they were believed to undermine learning. Scientific calculators capable of storing mathematical formulae were similarly restricted. Yet today we accept these tools because they allow people to devote more attention to higher-order reasoning rather than routine calculation. The same principle applies to AI.

The volume of scientific literature has grown to such an extent that no individual researcher can reasonably memorise or process it all. Used responsibly, AI can assist with searching, organising, summarising, and presenting information. These capabilities are valuable. The critical question, however, is whether the researcher continues to exercise independent judgement. The machine may generate text or retrieve information, but it cannot assume responsibility for the scientific claim. That responsibility must always remain with the human author.

As technologies continue to evolve—including developments such as brain-computer interfaces—we will increasingly encounter situations in which the line between human capability and technological augmentation blurs. These developments will undoubtedly raise difficult ethical and regulatory questions, and there are unlikely to be simple answers. What matters is that we establish sound principles now, rather than reacting after the technology has overtaken us.

Ultimately, this is not only an issue for individual researchers but also for nations. Countries that develop a deep understanding of these technologies and build indigenous capabilities will be far better placed than those that remain dependent on others. For countries such as India and Russia, technological sovereignty is therefore not merely an economic objective; it is a strategic necessity. That is why I believe our discussion today is so important. Before we formulate policies or regulations, we must first ensure we understand the technology itself. If our understanding is sound, our policies are far more likely to be effective. If it is flawed, no amount of regulation will compensate for that weakness.

 

Economic Cost Shifting of AI in Scholarly Publishing
Prof. Alexey Kuznetsov (INION RAN)

 

Much has been written and said about the benefits of artificial intelligence. We hear about improvements in productivity, efficiency, and accessibility. We also discuss its ethical, social, psychological, and even philosophical implications. However, one dimension remains surprisingly underexplored: the economic cost of AI. In my view, discussions of AI implementation often underestimate these costs, particularly in scholarly publishing and research. From an economic perspective, artificial intelligence should achieve one or both of two objectives.

First, it should save time. Second, it should reduce overall personnel and infrastructure costs. Yet this is often not what we observe in practice. Many organisations introduce sophisticated AI systems only to find they require additional technical specialists, new software licences, expanded digital infrastructure, and increased editorial oversight. The technology promises efficiency, but overall costs frequently rise rather than fall.

Even more importantly, these costs are often shifted rather than eliminated. The author saves time, but the journal spends more time. The researcher becomes more productive, but the publisher incurs higher editorial costs. Ultimately, society pays for this redistribution of effort.

Drawing on my experience as Editor-in-Chief, I would like to highlight three areas where this cost shift is particularly evident in the social sciences and humanities. First, literature searches and reference verification. Artificial intelligence is undoubtedly a useful supplementary tool for literature searches. When used alongside traditional bibliographic methods, it can help identify publications that might otherwise be difficult to locate. For example, if we possess only an author’s surname—and it happens to be a common one—AI can often identify related publications much more efficiently than conventional searches. However, these benefits come with significant drawbacks.

Large language models frequently generate fabricated references or inaccurate citations. Even when the cited publication genuinely exists, AI-generated summaries may subtly misrepresent the author’s original argument. Such inaccuracies are often difficult to detect because they appear plausible. From an editorial perspective, verifying these references requires substantial additional work. In many cases, this effort is comparable to the time required for professional language editing, effectively doubling the editorial workload.

This is particularly significant because most scholarly journals operate on limited budgets and are not profit-making. Based on our internal estimates, the additional editorial effort devoted solely to verifying AI-generated references amounts to approximately US$1,000 per journal per year. That may appear modest in isolation, but across hundreds or thousands of journals it becomes a substantial financial burden.

Second, the increased burden on peer review. AI is undoubtedly useful for language editing, formatting, translation, and the preliminary review of large volumes of material. However, these same tools also make it much easier to produce manuscripts that appear professionally written yet offer little genuine scholarly contribution. Consequently, journals receive more submissions that satisfy formal editorial requirements but still require detailed expert evaluation.

The burden therefore shifts to peer reviewers. Most reviewers perform this work voluntarily. Their time is an important form of academic social capital. Every additional manuscript requiring review consumes scarce expert resources that could otherwise support genuinely original research. If we assign even a modest economic value to expert peer review, the cumulative costs become considerable. Using current Russian estimates for professional expert review, one additional review represents approximately US$50 of expert time. If AI-generated submissions create only one hundred additional reviews annually, the indirect cost exceeds US$5,000 per journal. Again, these costs are rarely included in discussions about the economic benefits of AI.

Third, the inappropriate use of AI for analysis and conclusions. In my opinion, this is the most serious issue. AI can assist with searching, organising, translating, and even drafting text. What it should not replace is scholarly analysis and intellectual judgement. Recently, I reviewed a manuscript submitted by a highly respected research institution. The institution itself enjoys an outstanding reputation built over decades by the work of distinguished scholars. However, the concluding section—including future scenarios and policy recommendations—had clearly been generated by a large language model. The recommendations concerned international political developments and strategic policy. This was not genuine scholarly analysis. It was the output of a language model presented as expert judgement.

For an editor, this raises profound concerns. Technical specialists increasingly acknowledge that AI-detection systems will become less reliable as these models continue to improve. If such material cannot be reliably identified, it risks entering the scholarly record and, eventually, informing public policy. In disciplines such as international relations or strategic studies, that possibility warrants serious attention. As Editor-in-Chief, rejecting such a manuscript is straightforward when the problem is obvious. The greater concern is how many similar cases remain undetected across the wider academic publishing ecosystem.

I have attempted to estimate the broader financial impact of these developments. A typical publicly funded research project in Russia may involve funding equivalent to approximately US$7,000 before culminating in a published paper. When we combine the costs of verifying AI-generated references, additional peer review, editorial oversight, and the occasional publication of low-quality AI-assisted research, the total additional cost can reasonably be expected to range from US$10,000 to US$20,000 per journal each year.

Across approximately one thousand journals in the social sciences and humanities, this represents an annual cost of between US$10 million and US$20 million. To put that figure in perspective, it is roughly equivalent to the annual funding required to operate two major research centres. In other words, the hidden costs of inappropriate AI use could consume resources that might otherwise support genuine scientific research.

My purpose today is not to argue against artificial intelligence. Used appropriately, AI is a valuable research assistant. However, before celebrating its economic benefits, we must also account for its hidden costs. These costs are often shifted from authors to journals, from researchers to reviewers, and ultimately from individual users to society. Only by measuring both the benefits and the costs can we develop balanced editorial policies and make informed decisions on the responsible use of AI in scholarly publishing.

Thank you

 

Questions and Discussion

 

Prof. Sunaina Singh (India Foundation)

What I find particularly valuable is that you have drawn our attention not only to the direct costs of AI but also to how those costs are being transferred across the scholarly publishing ecosystem. This is clearly a challenge that extends well beyond Russia or India and affects academic publishing worldwide. As AI tools such as ChatGPT, Gemini, Claude, and others become increasingly sophisticated, journals will inevitably require more editors and reviewers to evaluate submissions, verify sources, assess originality, and ensure compliance with ethical standards. At the same time, one concern continues to trouble me. As AI becomes more capable of generating fluent academic prose, are we gradually losing sight of the importance of critical thinking and independent intellectual inquiry? How do you think publishers should address these growing challenges while maintaining academic quality and economic sustainability?

Prof. Alexey Kuznetsov

I believe one of the central challenges is the limited cooperation between the organisations developing AI technologies and the academic institutions that must address their consequences. From an editor’s perspective, some of the most difficult submissions come from researchers who work in artificial intelligence. Naturally, they make extensive use of these tools, and that is entirely legitimate. The difficulty arises when current detection systems flag AI involvement without allowing editors to distinguish between appropriate assistance and inappropriate substitution of scholarly work.

Even more concerning is the persistence of fabricated references and inaccurate citations generated by some AI systems. These errors are not always easy to identify, yet they consume considerable editorial time. This is precisely why closer collaboration between technology developers and the academic publishing community is so important. Editors understand the practical challenges of maintaining research integrity, while technology companies possess the expertise needed to improve these systems. Both communities should work together.

I was reminded of this at a recent conference in Tunisia. While paying for dinner, the waiter relied entirely on a calculator for a simple calculation and accidentally presented a bill almost twice the correct amount. Fortunately, I noticed the error immediately. The story is trivial, but it illustrates an important point. Technology should support human judgement—not replace it. If we become accustomed to accepting machine-generated outputs without exercising our own critical thinking, we risk losing an essential intellectual skill.

The same principle applies to artificial intelligence. AI should remain an assistant rather than a substitute for human reasoning. Unfortunately, there are no simple policy solutions. Governments understandably encourage technological innovation, as AI is increasingly a driver of economic growth. At the same time, society must ensure that innovation remains aligned with the broader public interest.

For me, the answer ultimately lies in education. We must teach researchers, editors, and students not only how to use AI tools, but also how to question and verify their outputs, and to remain intellectually responsible for the conclusions they present. Technology will continue to advance. Our responsibility is to ensure that human judgement advances alongside it.

 

AI’s Potential vs. Human Insight: Ethical Anxiety for Scholarship and Originality 
Prof. Sunaina Singh (India Foundation)

 

After listening to the excellent presentations this evening, I find myself with more questions than answers. Rather than discussing the technical aspects of artificial intelligence, I would like to reflect on three interconnected issues: AI and human insight, the ethical challenges it poses for scholarship, and the meaning of originality in an age of intelligent machines. These questions have occupied my thoughts for some time, particularly because I believe the humanities and the social sciences are uniquely positioned to lead the conversation on the responsible and ethical development of AI. Allow me to begin with a brief personal perspective.

My observations are shaped by my experience of leading two universities—one national and the other international—and by serving on a number of academic and regulatory bodies responsible for policy formulation. Throughout my career, I have been involved in designing institutional policies on research, teaching, governance, and academic standards. One lesson has become increasingly clear to me. Policies cannot remain static.

In an age of rapid technological change, governance itself must become agile. Policies must be reviewed regularly, adapted to emerging realities, and refined as technology evolves. This is particularly true of artificial intelligence, where the pace of innovation frequently outstrips regulation. We are, in my view, living through one of the most transformative periods in human history. Artificial intelligence is reshaping economies, institutions, education, research, and even the way knowledge itself is created and disseminated.

Yet we also live in a world marked by conflict, uncertainty, inequality, and profound societal challenges. This raises an important question. Can AI help us address these challenges? My answer is both yes and no. AI can certainly process enormous volumes of information, identify patterns, analyse data, and present possible alternatives with remarkable speed. But information is not the same as wisdom. Data is not the same as judgement. Knowledge is not the same as understanding.

These distinctions are especially important in scholarship. Artificial intelligence can synthesise existing knowledge, but it cannot exercise moral judgement or ethical reasoning independently. It cannot determine what ought to be done simply because it can explain what has been done before. That remains the responsibility of human beings. This is precisely where the humanities and social sciences play a vital role. Unlike many other disciplines, these fields are fundamentally concerned with human experience—values, ethics, culture, history, identity, justice, and the complexities of society. They encourage us to ask difficult questions rather than merely produce efficient answers. They help us understand not only how societies function but also how they ought to evolve. That is why I believe these disciplines must play a leading role in shaping AI governance.

Many institutions have already developed policies governing the use of artificial intelligence in teaching and research. This is a welcome start. However, policy cannot be treated as a one-off exercise. As AI systems become more sophisticated, our ethical frameworks must evolve alongside them. Responsible governance requires continuous review, learning, and adaptation.

Another concern that increasingly occupies my mind is the risk of intellectual passivity. Today, answers are available almost instantaneously. Whether we consult ChatGPT, Gemini, Claude, or another AI system, information is at our fingertips within seconds. This convenience is undoubtedly valuable, but it also raises an important question. If machines increasingly provide answers, are we becoming less inclined to ask questions? Are we gradually losing the habit of reflection, critical inquiry, and independent reasoning? In other words, are we becoming intellectually passive?

I do not yet have a definitive answer, but I believe it is a question that educators, researchers, and policymakers must take seriously. Knowledge has never been merely the accumulation of information. True education is about cultivating curiosity, developing critical thinking, exercising sound judgement, and engaging thoughtfully with complexity. These are profoundly human capacities. Artificial intelligence can certainly support them. It can organise information more efficiently than any individual researcher, help us discover connections that might otherwise remain hidden, and serve as a valuable research assistant. But it cannot replace the intellectual and ethical responsibility at the heart of scholarship.

This distinction is particularly important in the humanities and social sciences. In many STEM disciplines, AI already offers remarkable capabilities for modelling, simulation, optimisation, and data analysis. The humanities and social sciences, however, engage with human emotions, values, cultures, institutions, and societies. These are domains where context, interpretation, empathy, and ethical judgement remain indispensable.

For that reason, I believe we must approach AI differently in these disciplines. Rather than asking whether AI can replace human scholarship, we should ask how it can strengthen human scholarship while preserving the qualities that make it uniquely human. Ultimately, I believe the future lies not in choosing between artificial and human intelligence, but in creating a thoughtful partnership between the two.

Artificial intelligence can expand access to knowledge, preserve cultural traditions, organise vast bodies of information, and enhance research productivity. Human beings must continue to provide judgement, wisdom, ethical reasoning, and intellectual leadership. Perhaps that is the challenge before all of us. As I said at the beginning, I leave this discussion with more questions than answers. But perhaps that is not a weakness. After all, scholarship has always advanced by asking better questions before finding better answers. I hope our discussions today will contribute to that ongoing journey.

Thank you.

 

Stigmatised Artificial Intelligence Use: AI-Friendly Journal Policies vs. Quasi-Sensorial Editorial Practices
Sergey Goryunov (INION RAN)

 

Before turning to my own presentation, I would like to briefly comment on a point raised by Professor Kuznetsov about fabricated quotations and references generated by AI. The problem is not confined to the original fabrication. Its real danger lies in what I would call the long citation trail. An author unknowingly incorporates a fabricated quotation generated by a chatbot into a published paper. Another scholar subsequently cites that publication in good faith. The fabricated quotation is then repeated across multiple publications until, perhaps years later, an improved AI-detection system identifies its origin. At that point, it is not only the original paper that becomes questionable, but an entire chain of subsequent scholarship built upon it. In other words, fabricated AI content has the potential to contaminate the scholarly record long after it first appears.

That observation brings me to my own topic. Today I would like to examine not the technology itself, but the way academic institutions are beginning to respond to it. My argument is straightforward. We are gradually developing policies that encourage transparency about AI use, while simultaneously creating editorial cultures that penalise it. This contradiction warrants careful attention. Allow me to illustrate it with several real academic cases.

The first concerns a master’s dissertation. For an entire year, the supervisor had worked closely with the student. He had observed the research process, discussed the literature, reviewed successive drafts, and witnessed the project’s intellectual development. Naturally, his evaluation was highly positive. A second examiner, however, saw only the finished manuscript. Although many of the comments concerned technical details, one underlying suspicion coloured the entire review: the possibility that artificial intelligence had been used.

The dissertation itself had not changed. Only the mode of reading had changed. One evaluator interpreted the work in the context of a year of academic supervision, while the other approached it primarily as a potentially AI generated text. This illustrates two fundamentally different editorial mindsets. In one, AI is regarded as a legitimate research tool whose use can be regulated. In the other, AI remains primarily a symbol of academic dishonesty.

A second example comes from Kazan Federal University. A graduate student was expelled after an AI detector flagged her thesis as containing AI-generated content. The Supreme Court of Tatarstan later overturned the decision. The Court’s reasoning is particularly significant. It held that the output of an AI-detection system should be regarded as an indicator—not as conclusive evidence. That appears entirely reasonable. Yet it immediately raises another question. How are such indicators interpreted in practice?

Many instructors continue to rely on freely available online detection tools and treat their results as definitive proof of misconduct. Even institutional systems require careful interpretation. In Russia, for example, the national plagiarism-detection platform includes an AI detection module. The detailed report is appropriately cautious, referring to “suspected AI-generated fragments” or indicating that certain passages are “likely” to have been generated by AI. However, the summary page presents numerical indicators in a far more categorical manner. Readers see boxes that report percentages of originality, quotations, and AI-generated content. Although the underlying algorithm expresses probability, the visual presentation often resembles an official verdict. A statistical estimate is transformed into a social label. Probability becomes stigma.

Yet the opposite problem also exists. In one editorial case, an AI detector reported no suspicious content, so the manuscript appeared perfectly acceptable. However, during manual review, a referee noticed that one sentence had been copied directly from the chatbot’s interface: “Would you like me to develop this topic further and provide additional examples?”

The detector had entirely missed the problem. The manuscript was rejected—not because AI had been used—but because the author had shown no meaningful editorial engagement with the generated text. This illustrates an important point. Detection systems can fail in both directions. They may incorrectly stigmatise legitimate scholarship, and they may also fail to identify careless or inappropriate uses of AI. Naturally, this leads us to rely on expert judgement.

But another difficulty arises. The Supreme Court rightly observed that final decisions should involve expert evaluation. But who exactly qualifies as an expert in AI-generated writing? Most academics are well qualified to evaluate argumentation, methodology, sources, evidence, and scholarly style. Determining the technical origin of a piece of writing is a different matter entirely.

Allow me to offer one final example. Our journal received a manuscript from a senior scholar I knew personally. The article was stylistically weak, loosely organised, and excessively literary for an academic publication. A reviewer immediately concluded that these characteristics indicated AI use. Ironically, my own experience has generally been the opposite. Most AI-generated texts are highly structured, formally organised, and often excessively coherent. The review therefore reflected not expertise in AI but assumptions about it. This distinction is important.

Expert judgement is not always expert knowledge. Sometimes it is simply personal belief. What conclusions can we draw? Today, many journals require authors to disclose their use of artificial intelligence through formal AI declarations. I strongly support transparency. However, transparency alone is insufficient. We also need ethical standards to govern how disclosures are interpreted. In other words, policies should regulate not only authors but also reviewers and editors. Otherwise, disclosure itself becomes risky.

If authors believe that admitting to using AI automatically casts their work in suspicion, many will simply choose not to disclose it. The unintended consequence is that a policy designed to encourage honesty may instead discourage it. This is what I call a quasi-censorial effect. The problem is therefore not only the ethics of AI use but also the ethics of AI suspicion. Disclosure should be a neutral statement of methodology—not an implicit admission of academic misconduct.

Only when transparency carries no automatic stigma will authors have genuine incentives to disclose AI’s role in their research. That, I believe, is one of the next major challenges facing scholarly publishing.

 

Questions and Discussion

 

Shrishti Pukhrem (India Foundation)

I found your discussion of the stigma surrounding AI use particularly thought-provoking. As researchers working in international relations and the social sciences, we are witnessing the rapid integration of AI into academic practice, making these questions increasingly relevant. Your comments on disclosure policies merit special attention. Many leading academic publishers now require authors to include explicit AI-use statements, specifying whether AI tools were used, which tools were employed, and for what purposes. At the same time, these policies make it clear that responsibility for the accuracy, originality, and integrity of the work remains entirely with the human author. This approach has been adopted by several major publishers, including Springer Nature, Wiley, and Sage.

However, your presentation prompted me to think beyond the responsibilities of authors and towards those of peer reviewers. What happens when reviewers themselves use AI during the review process? This raises a number of important questions. If a reviewer uploads an unpublished manuscript to a public AI system to draft a review, are confidentiality obligations compromised? Manuscripts submitted for peer review are confidential documents containing unpublished intellectual property. Their use on external AI platforms raises concerns about privacy, data security, and ownership.

A second issue concerns reviewers’ use of AI-detection systems. How reliable are these systems, and to what extent should their outputs inform editorial judgement? These questions suggest that editorial policies should address not only authors’ responsibilities but also reviewers’ ethical responsibilities. I would also like to connect this discussion to a point Professor Sunaina Singh raised earlier about equity and access. Access to advanced AI tools remains highly uneven. In India, many researchers at smaller institutions or in economically disadvantaged regions lack access to premium AI platforms. I imagine similar disparities may exist in other countries, including Russia. If sophisticated AI assistance gradually becomes an implicit expectation in scholarly publishing, it could unintentionally widen existing inequalities by favouring researchers who can afford advanced tools over those who cannot. Responsible AI governance, therefore, must also take equity and accessibility into account.

Sergey Goryunov

I fully agree that the role of reviewers warrants much greater attention. The use of AI by reviewers is already a significant concern, not only in scholarly publishing but also in university examination processes. We are increasingly encountering referee reports and thesis evaluations that appear to have been drafted, at least in part, with generative AI systems. This reinforces the central argument of my presentation.

If journals set rules for authors’ use of AI, they should also establish comparable ethical standards for reviewers and editors. The integrity of peer review depends on transparency, confidentiality, and independent intellectual judgement. These principles should apply equally to all participants in the publication process.

Prof. Alexey Kuznetsov

I would like to add an observation on Sergey’s important point about stigmatisation. As Chair of examination committees at the Higher School of Economics, I encounter similar challenges when assessing graduate dissertations. Many students now submit formal declarations acknowledging the use of AI. Almost invariably, they state that AI was used only for language editing or translation, particularly in programmes where theses are written in English. However, examination committees frequently find that AI has played a much more substantial role in generating or developing the text itself. This creates a difficult situation. Supervisors are often reluctant to confront these issues openly because they fear that acknowledging extensive AI use may reflect poorly on their supervision or on the academic standards of their programme. As a result, concerns are sometimes overlooked until the dissertation reaches the examination committee.

The committee is then placed in the difficult position of determining the extent of AI involvement without having observed the student’s research process. In this sense, stigmatisation has unintended consequences. Rather than encouraging honest disclosure and constructive discussion, it can create incentives for both students and supervisors to minimise or conceal the extent of AI use. For that reason, I believe Sergey’s concept of the “stigma of AI” is highly relevant not only to scholarly publishing but also to higher education more broadly. Unless we create an environment in which the use of AI can be discussed openly and responsibly, transparency itself may become the first casualty.

 

Formulating Editorial Standards and Addressing Structural Injustices in AI Governance
Prof. Sushma Yadav

 

Thank you. This subject is particularly close to me because it brings together several roles I have had the privilege of undertaking over the years—as Vice-Chancellor, former Pro-Vice-Chancellor of the Indira Gandhi National Open University, member of the University Grants Commission, member of editorial boards of scholarly journals, reviewer, and Chairperson of the UGC Empowered Committee responsible for the UGC-CARE journal list. These experiences have reinforced an important lesson: good scholarship depends on good governance, and good governance depends on policies that evolve with changing realities.

Artificial intelligence is now compelling us to rethink those realities. For the social sciences, this discussion is particularly significant. These disciplines are founded on the understanding that human experience, social context, ethical judgement, and interpretive reasoning are not merely inputs to research—they are integral to the creation of knowledge itself. This raises an important question. What does it mean for disciplines grounded in human understanding to accept scholarly texts produced, wholly or partly, by artificial intelligence?

Before we formulate editorial policies, we must first determine precisely what we are trying to govern. Not every use of AI in research is equivalent. Treating all AI applications as though they pose the same ethical challenge inevitably produces policies that are either too restrictive or impossible to implement. Several of the earlier speakers have made this point from different perspectives, and I believe it deserves emphasis. There are many areas in which AI can legitimately support scholarly work.

Language editing, grammar correction, proofreading, formatting, translation, and improving clarity of expression are all appropriate uses of AI, provided they are transparently disclosed. These applications assist the researcher without replacing the researcher’s intellectual contribution.

However, certain dimensions of scholarship cannot be delegated to AI. The first is positionality and reflexivity. Researchers inevitably bring their own experiences, perspectives, ethical commitments, and relationships to their field of study. These are deeply human dimensions of scholarship that no AI system can genuinely reproduce.

The second is contextual interpretation. Understanding social realities requires historical awareness, cultural sensitivity, and lived experience. Language models can identify patterns, but they cannot fully grasp the social meaning that gives them significance.

The third is normative judgement. Much social science research requires scholars to make and defend value judgements. Deciding what ought to be done is fundamentally different from describing what has already been done.

Finally, there is ethical accountability. Researchers remain accountable to their participants, their institutions, and the wider scholarly community. Artificial intelligence cannot assume that responsibility.

These distinctions point to an important principle for editorial governance. Editorial policies should distinguish between AI used as a research support tool and AI used as a substitute for human intellectual contribution. The former is compatible with academic integrity when properly disclosed. The latter fundamentally misrepresents the nature of scholarly work, regardless of the quality of the resulting text.

Effective editorial governance therefore requires more than broad statements of principle. It requires a practical framework. In my view, every journal developing an AI policy should address four fundamental questions. First, what forms of AI use must be disclosed? Clear disclosure should be the minimum standard for scholarly publishing.

Second, what forms of AI use remain unacceptable even with disclosure? Some responsibilities—analysis, interpretation, scholarly judgement, and original argumentation—cannot be delegated to AI.

Third, how should journals verify compliance? This is perhaps the most difficult question. As the previous presentation reminded us, even reviewers may now rely on AI when evaluating manuscripts. How should journals respond? Current AI-detection systems remain probabilistic rather than definitive. They generate false positives and frequently disadvantage multilingual scholars whose writing patterns differ from those of native English speakers. Detection tools should therefore assist editorial judgement, not replace it. Ultimately, the most effective safeguards are cultural rather than technological. Journals should encourage honest disclosure, publish clear AI policies, review those policies regularly, and apply them consistently and proportionately.

Fourth, how should disclosures be interpreted by editors and reviewers? Disclosure should trigger neither automatic acceptance nor automatic rejection. Instead, it should prompt careful evaluation of the genuinely human intellectual contribution in the manuscript. This requires a new editorial competency. Many experienced editors and reviewers did not begin their careers in the age of generative AI. Journals must therefore invest in training editors and reviewers so they can confidently evaluate AI-assisted scholarship.

Another issue that warrants far greater international attention is equity. Professor Sunaina Singh and Dr Shrishti Pukhrem have already highlighted this important concern. Much of the current global discussion is shaped by large, well-resourced, English-language publishing organisations. Yet the realities of the Global South are often very different. Researchers working in their second or third language are more likely to use AI for language support. Ironically, they are also more likely to be disadvantaged by AI-detection systems that misidentify non-native writing patterns as machine-generated. This represents a structural inequity that editorial policies must address.

The same applies to early-career researchers, first-generation scholars, and resource-constrained institutions. Volunteer-run journals in developing countries cannot simply absorb the additional financial and administrative costs of increasingly complex AI compliance systems.

India provides an important example. Our research community publishes in more than twenty-two officially recognised languages. AI-assisted translation and language support have enormous potential to broaden participation in scholarship and strengthen research in regional languages. Editorial policies that treat all AI-assisted language support with suspicion risk undermining that opportunity.

Perhaps this is an area where India and Russia, as two major centres of scholarship beyond the traditional Anglophone publishing system, can make an important contribution. Could we collaborate to develop a shared framework for equitable AI governance in scholarly publishing? A joint statement recognising AI-assisted language support as a legitimate accessibility measure—rather than an academic integrity violation—would make a valuable contribution to international policy discussions.

In higher education, I believe three priorities merit particular attention. First, AI literacy should become integral to doctoral research training. Students need not only technical skills but also ethical understanding and sound scholarly judgement. Second, universities should establish clear institutional frameworks for AI-assisted research, distinguishing appropriate academic support from unacceptable substitution. Third, our systems of academic evaluation must continue to reward originality, critical thinking, intellectual depth, and societal relevance rather than simply counting publications.

Ultimately, the future of responsible AI governance will depend less on technology than on academic culture. Policies set minimum standards. Culture determines whether those standards are genuinely upheld. India’s National Education Policy 2020 rightly emphasises critical thinking, ethical reasoning, multidisciplinary learning, and research excellence. These principles become even more significant in the age of artificial intelligence. The challenge for higher education is not simply to adopt new technologies, but to ensure that innovation strengthens rather than weakens academic integrity and intellectual autonomy.

Allow me to conclude by proposing five principles that could form the basis of a shared editorial framework.

• First, disclosure should be the cornerstone. Any significant use of AI in preparing a scholarly manuscript should be disclosed.
• Second, differentiation should inform policy. Editorial standards must distinguish between AI that supports research and AI that substitutes for genuine intellectual contribution.
• Third, equity should be the criterion. Every policy should be assessed for its impact on multilingual scholars, early-career researchers, Global South institutions, and resource-constrained journals.
• Fourth, culture should take precedence over technology. Sustainable AI governance depends far more on professional ethics and scholarly norms than on increasingly sophisticated detection software.
• Finally, collaboration should be our guiding principle. India and Russia share long academic traditions and many common challenges. Working together through international organisations, learned societies, and editorial networks will enable us to contribute meaningfully to the development of fair, globally relevant editorial standards.

Ultimately, this discussion is not merely about artificial intelligence. It is about what we value in scholarship. We value rigour in producing knowledge. We value integrity in representing how that knowledge was created. And we value inclusion to ensure that scholarship remains accessible to the widest possible community of researchers. Artificial intelligence can assist scholarship by accelerating research and improving communication. But it cannot replace human judgement, ethical reasoning, or scholarly responsibility. Our editorial policies should always reflect that fundamental truth.

 

Reconceptualisation of Scientific Information and Book Culture in the Age of Artificial Intelligence
Prof. Igor Bogomolov (INION RAN)

 

Good afternoon. In this report, I will briefly outline my considerations on the place of the scientific book in the new world of artificial intelligence. Building upon the insightful observations of Professors Yadav and Komalova, I would like to examine the relationship between artificial intelligence and the traditional infrastructure of knowledge, particularly books, libraries, and scholarly publishing.

Artificial intelligence is often presented as if it has access to the entirety of human knowledge. In reality, this assumption is misleading. Modern AI systems are built on vast collections of digitised books, journals, and other textual resources. The large-scale digitisation of scholarly literature over the past several decades has undoubtedly transformed global knowledge production and provided much of the foundation for contemporary language models. Yet an important misconception persists. Many people assume that nearly all scholarly literature has already been digitised and is therefore available to AI systems. This is far from the truth. A substantial proportion of the world’s scholarly literature remains undigitised. Even in my doctoral research over the past year, I found that only about one-third of the sources I required were available online. The remaining material had to be located through physical libraries, archives, or printed collections. This experience illustrates an important reality. Artificial intelligence cannot analyse information that has never been digitised.

However, digitisation alone does not guarantee accessibility. Even when books and journals are available in digital form, they often remain inaccessible due to copyright restrictions, subscription barriers, institutional licences, or classified collections. Many valuable academic publications can be consulted only through university libraries, purchased individually, or obtained through specialised archival collections. Consequently, a significant body of knowledge is digitally preserved yet effectively invisible to most AI systems. This limitation becomes even more significant as the global information environment grows increasingly fragmented.

The fragmentation of the global internet is likely to inexorably, in the near future, lead to the fragmentation of knowledge itself, isolating academic disciplines and even entire nations from global scientific discourse. The evolution of AI largely mirrors these processes. Global data storage systems are on the rise, alongside local AI models accessible only within one or several countries and sealed off from others. Access to AI has already become a target of sanctions and restrictions imposed on Russia; for instance, Google has barred Russians from using Gemini.

Under these circumstances, the ability of AI models to draw on a diverse range of sources becomes critically important. Over time, an increasing share of specialised literature will be used only by isolated local AI models, and the interpretation of research data will be feasible only when a physical or digital copy of a publication is held by a specific individual or institution. This, in turn, compels us to rethink the role of print literature, particularly those books that, for one reason or another, have never been uploaded to the internet. Their number remains vast, and this includes a great deal of newly published material. A considerable portion of recent books and articles never enters the public domain, whether because of varying levels of classification or the detection of restricted content in their text.

Today, local models are becoming increasingly widespread, deployed at multiple levels, from states down to institutions. In the coming years, major libraries will not only build their own proprietary databases but will also develop local models to facilitate information discovery. A defining feature of these models will be their ability to mine content from publications that are often held in only one country, and sometimes in just one library. This will make it possible to access information contained in books whose online publication remains impossible due to legislative restrictions and copyright protections.

Thus, the fragmentation of the global information space simultaneously gives rise to the fragmentation of AI models and to the emergence of national AI services shaped by state information and ideological policies, as well as by the specific ways data are disseminated both online and in traditional print. Taken together, these factors already raise profound questions about AI’s capacity to adequately support scientific research, let alone to replace humans in compiling comprehensive and up-to-date literature reviews, peer reviewing, or abstracting. In this new stage of the internet’s evolution, marked by the advent of AI, book culture does not disappear; rather, it takes on a new quality and a new role, serving as a vital alternative to the all-encompassing pressure and influence of artificial intelligence in the advancement of science and technology.

Thank you for your attention.

 

Closing Remarks
Maj. Gen. Dhruv C. Katoch, Director, India Foundation

 

Thank you all for your insightful and thought-provoking presentations. Today’s discussions have highlighted not only the immense potential of artificial intelligence but also the ethical, editorial, economic, and institutional challenges that accompany its growing use in academic research and publishing. Many of the concerns raised resonate strongly with my experience as Editor of the India Foundation Journal.

Our deliberations have made it clear that no single institution or country can address these issues in isolation. They require sustained dialogue, collaborative research, and the sharing of best practices across academic communities. As a collaborative initiative, we could prepare a joint statement, accompanied by a set of practical recommendations that could serve as a policy paper on the responsible and ethical use of artificial intelligence in scholarly publishing.

Prof. Alexey Kuznetsov

Thank you very much. I agree that today’s seminar should be seen as the start of a longer conversation rather than a one-off event. Our discussions have highlighted both the complexity of these issues and the value of bringing together perspectives from different disciplines and institutional backgrounds. I believe we now have an excellent foundation for further collaborative work. I am confident that continued cooperation between our institutions will make a meaningful contribution to the international discourse on the ethical and responsible use of artificial intelligence in scholarly communication.

Thank you all once again for an excellent and highly productive discussion.

 

IF – IHC Panel Discussion on ‘India–Africa Relations in a New World Order’

India Foundation, in collaboration with India Habitat Centre, organised a panel discussion on ‘India–Africa Relations in the New World Order’ on 24 June 2026 at India Habitat Centre, New Delhi. The panel featured Ambassador Manju Seth, Former Ambassador of India to Madagascar and Comoros; Shri Aditya Ghosh, Director International Africa, Confederation of Indian Industry (CII); and Dr Nivedita Ray, Director Research, Indian Council of World Affairs (ICWA). The session was moderated by Capt. Alok Bansal, Executive Vice President, India Foundation.

The panel discussed where India–Africa relations were fit in the current global order, with a clear preference expressed for a multipolar world in which Africa can emerge as an independent pole. India’s long engagement with the continent, built on anti-colonial solidarity, South–South cooperation, and capacity building, was contrasted with the extractive approach of colonial powers. The panel felt that India needs to move faster and be more flexible in working with Africa, making better use of what it has to offer – Digital Public Infrastructure, such as UPI and Digi Locker, affordable medicines, and support for small and medium enterprises. It was also pointed out that Africa is a continent of 54 countries, each with its own needs, and that a one-size-fits-all approach will not work. The panel called for the long-pending India–Africa Summit to be held without further delay.

The discussion also looked at how India–Africa economic ties have grown from a relationship based on goodwill into a proper strategic and economic partnership covering trade, technology, infrastructure, energy, and supply chains. The panel noted that Africa is becoming one of the world’s most important future consumer markets and also holds large reserves of critical minerals like lithium, cobalt, copper, and rare earths that are vital for clean energy and technology. There was a call for more work on digital payments, trade in Indian rupees, and building infrastructure, as well as interest in bringing in partners like Japan and European countries for joint projects.

The panel also raised the need for stronger people-to-people ties, which remains a weak link in the relationship. Areas like cinema, digital content, textiles, and gems and jewellery were suggested as practical ways to build cooperation through the creative economy, drawing on small businesses and individual enterprise rather than large government-driven projects. Defence diplomacy was also brought up as an area with growing potential, with the panel noting that India can deepen its ties with African nations through training, joint exercises, and defence equipment, building trust alongside its economic engagement. Concerns were expressed about the experiences of African students in India, and there was a strong call for the Ministry of External Affairs to play a more active role in supporting them through better orientation, cultural exchange programmes, and mechanisms to address discrimination. The session ended with the view that India’s engagement with Africa must be based on respect, fair partnership, and helping build local capacity, not on taking resources out, and that this is what sets India apart and should guide the relationship going forward.

 

Conference on Andaman and Nicobar Islands: Development, Security and Ecology

India Foundation organized a conference on “Andaman and Nicobar Islands: Development, Security, and Ecology” on 12 June 2026 at the India Habitat Centre, New Delhi. The conference brought together policymakers, diplomats, strategic experts, military veterans, academics, journalists, and industry representatives to deliberate on the developmental, ecological, and strategic significance of the Andaman and Nicobar Islands.

The conference commenced with welcome remarks by Dr. Ram Madhav, President, India Foundation, who highlighted the growing importance of the Andaman and Nicobar Islands in India’s economic and strategic vision. He underscored the islands’ potential as a tourism destination and maritime transshipment hub. Admiral D.K. Joshi (Retd.), the honorable Lieutenant Governor of the Andaman and Nicobar Islands, delivered the inaugural address. He spoke about the islands’ ecological uniqueness, strategic location, and ongoing infrastructure development initiatives. He emphasized the need to pursue development while ensuring environmental sustainability and informed public engagement.

The first panel discussion was on “Sustainable Development, Community Governance, and Ecological Resilience in the Andaman and Nicobar Islands,” moderated by Capt. Alok Bansal, Executive Vice President, India Foundation. The panel featured Prof. Jagdish Mukhi, Former Governor of Assam and Nagaland and Former Lt. Governor of Andaman and Nicobar Islands; Mr. Shekhar Gupta, Founder and Editor-in-Chief, The Print; and Dr. Sanat Kaul, Former Chief Secretary, Andaman and Nicobar Islands. The discussion focused on balancing developmental aspirations with environmental conservation and effective governance mechanisms. The speakers emphasized the importance of community participation and sustainable planning in ensuring the long-term resilience of the islands.

The second panel discussion on “Andaman and Nicobar Islands as a Focal Point for Maritime Security and Regional Cooperation in the Indo-Pacific,” moderated by Ambassador Jaideep Mazumdar, Former Secretary (East), Ministry of External Affairs, and Member, Governing Council, India Foundations. The panel featured Air Marshal P.K. Roy (Retd.), Former Commander-in-Chief, Andaman and Nicobar Command; Ambassador Deepa Wadhwa, Former Ambassador of India to Japan; and Prof. C. Raja Mohan, Contributing Editor, The Indian Express and Visiting Professor, NUS. The panel examined the strategic importance of the islands in the evolving Indo-Pacific landscape, highlighting the need for greater investment in connectivity, logistics, maritime infrastructure, and regional partnerships to strengthen India’s maritime security and economic engagement.

The final panel discussion on “Great Nicobar Project: Balancing Ecology with Development and Strategic Preparedness,” moderated by Ms. Rami N. Desai, Distinguished Fellow, India Foundation. The panel featured Dr. Sanjeev Ranjan, Former Secretary, Ministry of Shipping and Member, NCLT; and Rear Admiral G.K. Garg (Retd.), Former Member of the high-powered committee set up for holistic development of the Great Nicobar Islands. The speakers discussed the project’s strategic and economic significance, environmental safeguards, and the importance of adopting sustainable implementation practices. The discussion underscored the need to balance developmental objectives with ecological preservation and community engagement.

The conference provided a valuable platform for informed discussions on one of India’s most strategically significant geographies. The deliberations highlighted the need for an integrated approach that harmonizes economic development, strategic preparedness, environmental sustainability, and community welfare in shaping the future of the Andaman and Nicobar Islands.

 

Detailed Conference Report on “Andaman and Nicobar Islands: Development, Security and Ecology”

ANDAMAN AND NICOBAR ISLANDS: DEVELOPMENT, SECURITY, AND ECOLOGY.
12 JUNE 2026

CONFERENCE REPORT

Report Prepared by- Trishala Sancheti, Research Fellow, India Foundation

TABLE OF CONTENTS

Inaugural Session
Welcome Address: Dr Ram Madhav, President, India Foundation
Special Address: Admiral D.K. Joshi, Lt Governor of Andaman and Nicobar Islands

Session 1: Sustainable Development, Community Governance, and Ecological Resilience in the Andaman and Nicobar Islands
Moderator: Capt. Alok Bansal, Executive Vice President, India Foundation
Prof. Jagdish Mukhi, Former Lieutenant Governor of Andaman and Nicobar Islands
Dr. Sanat Kaul, Former Chief Secretary, Andaman and Nicobar Islands
Mr. Shekhar Gupta, Journalist and Editor-in-Chief, The Print

Session 2: Andaman and Nicobar Islands as a Focal Point for Maritime Security and Regional Cooperation in the Indo-Pacific
Moderator: Ambassador Jaideep Mazumdar
Air Marshal P.K. Roy, Former Commander-in-Chief, Andaman and Nicobar Command
Ambassador Deepa Gopalan Wadhwa, Former Ambassador to Japan
Prof. C. Raja Mohan, Contributing Editor, Indian Express & Visiting Professor, NUS

Session 3: Great Nicobar Project – Balancing Ecology with Development and Strategic Preparation
Moderator: Ms. Rami Niranjan Desai
Dr. Sanjeev Ranjan, Former Secretary, Ministry of Shipping and Member, NCLT
Rear Admiral Girish Kumar Garg, Former Member, High-Powered Committee for Holistic Development of Great Nicobar
Island

 

INAUGURAL SESSION
Andaman and Nicobar Islands Security, Development and Ecology

 

Good Morning Friends !

We are here for a day long conference today, on a very important subject.

The United States had once described Diego Garcia as its unsinkable aircraft carrier.  Incidentally, we have 300 unsinkable aircraft carriers in the form of Andaman Nicobar Islands.

Andaman Nicobar Islands is a huge island territory of India which is  300 times the size of Diego Garcia, 1.5 times the size of Bali, bigger than states like Sikkim, three times the size of Goa, almost six times the size of Delhi and NCR.  It’s a significantly large island region that is an integral part of our country.

Unfortunately, its significance is less appreciated for various reasons.  One very important reason was highlighted by Admiral Joshi himself in his recent op-ed in Indian Express.

We have somehow developed a kind of a continental mindset. We have not developed a strategic maritime outlook about our territories, or our land .  If you ask any student or any child about what the southernmost point of India, they will immediately say Kanyakumari.  The fact of the matter is India’s southernmost territory is Indira Point, which is a part of the Andaman and Nicobar Island chain. It is also a critically strategic location, just about 100 nautical miles or less than 150 kms. from the most important sea lane of the Malacca Straits.

Remember, Malacca Straits annually carries almost 100,000 ships.  One lakh ships pass through Malacca Straits every year and we are sitting just less than 150 kms from that critical place.  We have a region which is economically important, strategically important and very significant in terms of developmental opportunities.

But somehow there is not enough appreciation about its importance.  Today’s conference is intended to highlight the important role that this region, this island chain of Andaman and Nicobar should play in India’s developmental, strategic and economic trajectories.

When talking about the economic opportunities in the region, a point of discussion is often Singapore. Singapore began its journey as an independent nation in the mid-1960s.  And today, it is the transshipment hub of the Indian Ocean. Andaman and Nicobar Islands, had we developed them into a good port facility, it would have probably emerged as a bigger transshipment facility than Singapore itself, by now. Imagine the amount of economic prosperity this would have brought to not just Andaman and Nicobar but to the whole country.

Strategically, it’s located in the heart of Bay of Bengal at a crucial point in the Indian Ocean region. 80% of the energy needs of countries like China and Japan pass through the Malacca strait.  We could have had our eyes on that region, perpetually.  We have a very important strategic facility there, in the form of our tri-services. The only Indian special services establishment exists in Andaman and Nicobar.

But the amount of strategic importance that could have been attached to it has not been done in many decades in the past.

There is a lot of potential even in terms of developmental activities such as tourism, .  I mentioned Bali and Goa, earlier. Goa gets 10 million tourists a year while Bali gets 15 to 20 million, but Andaman gets less than a million tourists annually.  700,000 to be precise which is also a 250% increase from 200,000 in the last four years, thanks to the efforts of Admiral Joshi and his team.

Lack of understanding about the importance of the region and lack of appreciation about the various opportunities that await us is one important reason of our inability to fully  exploit the potential of the Andaman and Nicobar Island chain.

Today the government is putting a lot of focus on its development.  Tourism has gone up by almost three times in last, probably, five years.  It has the potential to grow much more.

Now, a massive port development project is also being commissioned there with an investment of almost $10 billion which is almost 80,000 crores INR.  Today, there are naysayers for everything in our country.  Jawaharlal Nehru was lucky that he could build some infrastructure, had this kind of activism existed then we would not even have had the Bhakra Nangal dam.

We must understand that the project that the government has conceived is not going to destroy the ecology or pose threat to the people.  It’s all completely untrue.  Admiral Joshi also clarified this in his article. He wrote that less than 2% of the territory of Andaman and Nicobar is going to be used for this project. Less than 1.3% of the forest cover is going to be affected.

This is an enormous opportunity for India and for that some amount of compromise and understanding is required.

Today’s conference was supposed to be a one-hour lecture by Hon’ble Lieutenant Governor, initially, but we thought of expanding the scope to give a broader idea about various kinds of economic, strategic and developmental issues related to this very important region.

We are happy that we have Admiral Devendra Kumar Joshiji, who is the Lieutenant Governor of that important union territory, is himself present today. He will give us his own view of the whole issue.  Hearing from the horse’s mouth, as they say.  Admiral Joshi served as the Chief of Naval staff from 2012 to 2014 and in last several years he has been the LG of Andaman and Nicobar Islands.

So friends, we are starting with Hon’ble Lieutenant Governor and we also have with us the  former Lieutenant Governor and other dignitaries to address various sessions through the day.

Let us try to have better understanding about this very crucial region.

I welcome all of you to this day long seminar.

My compliments to Dr Ram Madhav, President, India Foundation, for expanding the scope of this interaction over the entire day, spread across three very well-layered and very well structured sessions on a topic that he himself described as an island chain, the most critical to us, which, unfortunately, for several decades after independence, remained neglected—over the horizon, out of sight, out of mind, and its fullest potential was not realised. It is only in recent years that it has begun to move somewhat to the centre of mainstream discourse in the country. And towards that end, I think today’s session organised by the India Foundation would play a very critical role.

In this session, I aim to provide an overview that I hope will set the right backdrop for the three sessions that follow during the day. Therefore, I have structured this presentation as “Transformation Towards a Viksit Bharat.” To begin with, I would try to provide some perspective, some of which Dr Ram Madhav has himself provided, namely that to a vast majority of our countrymen, the Andaman Islands were hitherto seen as a set of islands close to Malaysia and Indonesia—small islands quite a distance from the east coast of India.

The fact that the Andaman and Nicobar Islands are within a handshake’s distance of Indonesia, Malaysia, Thailand, and Myanmar is a matter of geography. This group of 836 islands are small only in terms of population. Dr Ram Madhav provided some comparisons vis-à-vis some mainland states, with whom we share larger territory and real estate. But there again, it is not a homogeneous mass of one island of so many thousand square kilometres. It is 836 islands spread along a north-south axis of about 750 km.

A majority of these islands are not populated, but those at the extremities are. So even if it is a village of just about 100 residents on the northernmost island, the Ujjwala gas cylinder has to be provided there. Even if it is a tiny village of 200 residents on the southernmost island, your civil supplies, rudimentary healthcare, and basic schooling facilities have to be provided there. And therefore, the area over which your administrative reach, or the governance cover, has to extend is something like 49,000 square kilometres—bigger than half the states on the mainland.

Dr Ram Madhav also provided a few country-wise comparisons vis-à-vis Bali, among others. Let me attempt some more. If one were to ask which are the three hottest island tourism destinations in the Indian Ocean region, the answer would obviously be the Maldives, Mauritius, and theSeychelles. Now, if you total up the land area of all three countries, the Andaman and Nicobar Islands are four times that land area. That is one comparison. Vis-a-vis Singapore, just one of our islands, the southernmost island, the Great Nicobar Island, is one and a half times Singapore. The island of Little Andaman, also known as Hut Bay, which will be taken up for the next phase of development, is 0.9 the size of Singapore. So that is the perspective. We have one-third of the country’s EEZ and one-fourth of the coastline, which, in the maritime context, again puts into perspective where we stand. But all of it, unfortunately, remained neglected for the first six to seven-odd decades after independence.

From a historical perspective, between 1942 and 1946 the islands remained under Japanese rule for three and a half years. During that period, the provisional government was handed over to the INA, Netaji Subhash Chandra Bose’s Azad Hind Fauj. Netaji himself visited the island in 1943, hoisted the tricolour, and declared independence from British India. So the tricolour flew there for three and a half years before India actually gained independence. They issued their own postage stamps and currency, and for the most part during this period—the Second World War was in progress, and the Axis powers—Italy, Germany, Japan—extended diplomatic cover to the territory. But again, for about a year it reverted to British rule before India became independent in 1947. So this is one aspect in which it differs from mainland history.

Despite being widely regarded as a great tourist destination, the Islands had no five-star hotels across the entire archipelago. The first five-star hotel, the Taj Exotica, opened around 2020. There may have been an attempt to keep the Islands secluded for security reasons and out of concern for the tribal population. As a result, foreigners required a Restricted Area Permit (RAP), which they had to obtain in Delhi from various ministries, coordinated by the MHA. In fact, it was very difficult to obtain, so foreign traffic was close to nil. There were no such restrictions for Indians, but due to poor and rudimentary connectivity, most tourists would come only to Sri Vijaya Puram (Port Blair), Swaraj Dweep (Havelock Island), and Shaheed Dweep (Neil), do a quick circuit of these three islands, and go back, because elsewhere, even if they wanted to, they couldn’t get there. There was no inter-island connectivity, no flights, no helicopters, and hardly any ferry services. We have set about rectifying this since the Islands Development Agency (IDA) was established in 2017 at the Prime Minister’s directive.

The IDA was given a comprehensive mandate covering the conceptualisation, approval, monitoring, execution, and culmination of projects. Development began with road connectivity. From the 1970s onwards, the 320 km Andaman Trunk Road (ATR) connected the districts of North, Middle and South Andaman. It had to cross two straits—the Humphrey Strait and the Middle Strait—across which vehicles had to be ferried, with a transit time of about 12 hours. This road has been taken over by the National Highway Authority of India (NHAI) and renamed NH 4. It is being double-laned. One bridge, the Azad Hind Fauj Setu, a state-of-the-art bridge over the Humphrey Strait, is now operational, while the Middle Strait bridge is under construction. The project has seen cost and time overruns but will be completed in 2027. Once complete, this 320 km stretch can be covered in about five hours. NH 4 is a feat of tremendous strategic significance, enabling the movement of heavy military vehicles and military hardware to the northernmost point by road.

Another project undertaken by the IDA at the PM’s direction was digital connectivity. The PM laid the foundation stone for the project in December 2018. On that day, Port Blair was formally renamed Sri Vijaya Puram. This two-year project was completed four months ahead of schedule, in August 2020. It involved laying a 2,600 km undersea fibre network from Chennai to Sri Vijaya Puram, and from there to the outermost islands. This increased connectivity in Sri Vijaya Puram to 200 Gbps and to the outermost islands to 100 Gbps. Each cable has several spare, untapped ports to accommodate future requirements. We have now submitted a proposal for an additional fibre cable that would run either from Puri or from Machilipatnam to Diglipur. This will provide redundancy and better connectivity for other islands that currently lack OFC and rely on satellite connectivity.

The new airport at Sri Vijaya Puram is state-of-the-art, comparable to any airport worldwide. It receives 25 flights a day, with numbers increasing considerably during the tourist season. The airport has the capacity to handle many more flights than it currently does. It can handle international flights and offers customs, immigration, visa-on-arrival, and e-visa services, depending on which countries have reciprocal arrangements with India. However, the runway has a limitation: landings and take-offs are only from the southwest end, due to a hill at the north eastern end. Therefore, we have submitted a proposal for an alternative, new greenfield airport in Sri Vijaya Puram. The final site selection and the LiDAR survey have been completed, and cost estimates are ready. Our proposal to the Central Government is that the project be executed on the PPP model, on the lines of the Mopa airport in Goa or the Jewar airport in Greater Noida.

In the aviation segment, runway extension programmes at some existing airports are underway. For the northernmost airport at Diglipur/Shibpur, land allotments for the extension to a full 3-km runway are complete; works are ongoing. An extension of the southernmost runway at Campbell Bay is also under consideration, and the land acquisition process is underway. Once completed, there will be four full-length runways, each 3 km long, aligned along the islands’ north-south axis, with all airfields being dual-use.

The civil commercial flights under the UDAN (Ude Desh ka Aam Nagarik) scheme are likely to start within the next couple of months. Letters of Intent (LOIs) by the Airports Authority of India have already been issued to Skyforce, which will operate the flights. Helicopter services will also be available to tourists shortly. Seaplane trials are also ongoing for Sri Vijaya Puram, Swaraj Dweep, Shaheed Dweep, and Long Island, and, hopefully, seaplane operations for tourists will begin by the year-end. As of now, the Maldives is the biggest operator of seaplanes. We hope to become the biggest in due course.

Apart from tourism, the ports and shipping segment offers the greatest potential for economic growth. To that end, we are developing an International Container Transhipment Port on Great Nicobar Island on a PPP basis. Phase I of the project will be completed within four years of the contract award and will have a capacity of just under 6 million TEUs. The final phase will have a capacity of close to 21 million TEUs. Given its geographical advantage, dominating the Strait of Malacca at the gateway to the Indo-Pacific, we believe it has the potential to become one of the most significant container-handling ports in the entire Indo-Pacific. Much, however, will depend on how efficiently the port is run.

Up north, a jetty in Atlanta Bay is being developed as a deep-water multipurpose port. A feasibility study by IIT Chennai has determined that, without dredging or the need for breakwaters—because of the natural configuration of the port—a minimum of 4 km of jetty space can be constructed in 20-30 m waters. Other experts have opined that the natural harbour has up to 10 km of jetty space. This is being handled currently on our behalf by the Syama Prasad Mookerjee Port (SPMK), Kolkata, as designated by the Ministry of Shipping. This too is rapidly moving forward.

At Port Meadows, the country’s first ship-to-ship transport terminal, north of Sri Vijaya Puram, we have already entered into a JV with Matsya, an Indo-German consortium, to develop it. This will be a net revenue model, as we will receive worldwide lease rentals from it. We expect shipping traffic around the A&N islands to increase significantly over the next five years. We have therefore entered into a 30-year MoU with Cochin Shipyard Limited (CSL) to upskill our shipyard’s HR and upgrade our infrastructure, including dry docks, handling facilities, cranes, and jetties. Through these measures, we will position ourselves as a ship repair hub, initially in the Bay of Bengal and, going forward, in the Indo-Pacific. Repair facilities in the Bay of Bengal rim countries are presently extremely rudimentary. There is thus immense potential to position ourselves not only as a ship repair hub but also as a ship construction hub.

In the power sector, we are moving towards solar power. In 2015, 90% of our generation came from diesel generators, 5% from hydroelectric power, and 5% from solar. Today, the solar component is around 25%, and over the next five years it will exceed 70%. About 20% will be generated by LNG, for which a 50 megawatt LNG power plant at Sri Vijaya Puram is coming up shortly. About 5% will remain DG for emergency use. So we are going totally renewable. We have also put forward proposals for small modular nuclear reactors, and we are hopeful that, perhaps in two locations, there will be a component of small modular reactors. Another project under consideration is a high-voltage DC cable link to the mainland, as part of our quest for clean, entirely renewable energy.

Our first five-star hotel opened only in 2020. Now, we have awarded four major hospitality contracts: two to the Radisson Group and two to the Thai global chain Anantara. All of them are clean revenue models for the administration, whose only expenditure is the provision of basic infrastructure, such as road connectivity, network, water, and power. The remaining expenditure will be incurred by the hospitality chain under the DBFOT concept (design, build, finance, operate, and at the end of the lease period, transfer it back to the administration), or through re bidding. In the coming weeks, 11 such major contracts are ready to be offloaded. So, the tourism infrastructure, which has been a major bottleneck so far, is set for a complete revamp to realise its full potential. This will include niche areas such as scuba diving, to make the Andamans a global scuba diving hub.

An internationally acknowledged professional diver, the Frenchman Jacques Cousteau, who, in the 90s, when he came to the Andamans, made a film, Andamans: The Invisible Islands, said he had dived all over the world, but the most diver-friendly and beautiful underwater habitat he found was in the waters of the Andaman Islands. This view has also been echoed by the global Professional Association of Diving Instructors (PADI).

Birdwatching is another niche area where we are developing infrastructure, guides, and facilities, as the islands are home to several bird species found nowhere else in the world. The third is astrotourism. With clear skies, zero pollution, and a location close to the equator, this is another niche area under development.

I will now cover two points that, at this stage, are still works in progress but, depending on how they unfold, could provide an overlay on the entire discourse I have covered so far. The first is the Thailand Land Bridge project. Recently, at the highest political levels in Thailand, it was announced that the project has been finalised. It is no longer a canal project but a land bridge over the same stretch where the canal was previously contemplated. This 45 km stretch will have a multi-purpose port at the Andaman Sea end in Ranong and at the Gulf of Thailand end in Chumphon. It will have multiple rail tracks for rapid transhipment of containers between sides, along with multi-lane road connectivity. It will also have pipelines for oil, petroleum, and natural gas.

This project is slated for rapid execution on a 100% PPP basis, and the bid is open to all. From the eastern end of the Chumphon port, the South China Sea is just 300 km away. In other words, the South China Sea is within 400 km of our doorstep. A significant share of traffic currently transiting the Strait of Malacca would now perhaps take this route, saving about 1,000 km each way, or about 3 days of travel time. The entire maritime scenario across the Indo-Pacific divide is set to change fundamentally. This traffic, moving along the 10th parallel and passing between the Andaman and Nicobar Islands, is of great strategic relevance to India. We dominate both the 6-degree and the 10-degree channels.

Turning to the second point, despite having one-third of the country’s EEZ and one-fourth of its coastline, no offshore oil exploration had taken place until 2020, because the entire stretch of waters around the Andaman & Nicobar group of islands was designated a “no-go zone” for oil exploration. This was due to concerns that debris from DRDO missile launches from Wheeler Island and ISRO missile launches from Sriharikota might fall in that area. Now, with technologies available to prevent that from happening, vast stretches of the ocean have been freed up for oil exploration. In 2025, Oil India Limited (OIL) found gas samples with 87% methane in Sri Vijaya Puram 2. On 27 January, ONGC “spudded” a stratigraphic well, Sri Vijaya Puram 3, which yielded crude condensate. As exploratory work proceeds, there are expectations that future finds may exceed the Guyana basin find, potentially taking India to a $20 trillion economy.

On the ground, the Offshore Areas Licensing Policy (OALP) 10 and 11 auction of offshore lots, initially planned for February, was deferred to May and has now been deferred to 19th of June. The largest-ever auction of oil blocks is taking place between these two auctions, with a significant portion of the blocks in the Andaman Basin. Our oil majors, namely Oil India and ONGC, are in advanced discussions with BP (formerly British Petroleum), ExxonMobil, Shell, and Petrobras of Brazil, which has experience in the Guyana Basin. Some JVs and MoUs already exist. These JVs and MoUs will bring not only funding but also deep-sea oil exploration technologies and, most importantly, drilling rigs specifically designed for ultra-deep-sea exploration. Ultra-deep-sea drilling technology operates at depths exceeding 1,500 m.

With that, I hope what I have spoken about provides a suitable backdrop for the three sessions you have planned for the afternoon, which I think will play a pivotal role in bringing some of the mainstream thinking to centre stage, an area that has remained neglected so far.

 

SESSION 1
Sustainable Development, Community Governance, and Ecological Resilience in the Andaman and Nicobar Islands

 

For decades, discussions about the development of the Andaman and Nicobar Islands have been marked by a persistent dilemma. It was often argued that significant development would harm the islands’ fragile ecology and disrupt the unique communities that inhabit them. As a result, development and conservation were frequently seen as competing objectives rather than complementary goals. Before we begin our discussion, it is important to appreciate the sheer scale and significance of the Andaman and Nicobar Islands—something that is often not fully understood on the Indian mainland.

The Hon’ble Lieutenant Governor, Admiral DK Joshi, and Dr Ram Madhav have already highlighted some important figures, but they bear repeating. The Andaman and Nicobar Islands are larger in area than 33 sovereign states worldwide. They are nearly eleven times the size of Singapore, four times the size of Luxembourg, and larger than countries such as Brunei. Even Great Nicobar Island, which lies at the southern extremity of the archipelago and is smaller than islands such as South Andaman, Middle Andaman, and North Andaman, is about 1.25 times the size of Singapore. Remarkably, Great Nicobar alone is larger than 24 sovereign states worldwide.

These comparisons are important because they provide perspective. When concerns are raised about developmental projects, it is essential to understand that we are often discussing activities confined to relatively small areas within a much larger geographical space. At the same time, the ecological significance of these islands cannot be overstated.

The Andaman and Nicobar Islands are among India’s richest biodiversity hotspots. They are home to approximately 2,200 plant species, of which nearly 1,300 are endemic—found nowhere else in India. Similarly, of the roughly 8,300 recorded faunal species, over 1,100 are unique to these islands. For example, the islands support about 55 mammal species, 32 of which are endemic. They are also home to around 270 bird species, including nearly 90 found nowhere else in the world. These figures underscore why ecological conservation must remain central to any development strategy.

Yet development is equally important. Recent exploratory findings indicate significant hydrocarbon potential in the region. While the commercial viability and precise extent of these reserves will require further assessment, the potential is undoubtedly substantial. Coupled with the islands’ strategic location astride major maritime trade routes, this presents new opportunities for economic growth and national development.

The human dimension is equally significant. The islands are home not only to tribal communities such as the Nicobarese but also to some of the world’s last surviving aboriginal groups—the Great Andamanese, the Onges, the Jarawas, and the Shompens. These communities embody unique cultural traditions and ways of life that have endured for centuries. The Sentinelese, in particular, remain the world’s most isolated human community, maintaining virtually no contact with the outside world. Consequently, discussions of development cannot be limited to economics and infrastructure alone. They must also address questions of community governance, cultural preservation, social inclusion, and the protection of vulnerable indigenous populations.

The challenge before us, therefore, is not whether development should take place, but how it can be pursued in an environmentally responsible, socially sensitive, and economically sustainable manner. With more than 8,000 square kilometres of territory, abundant natural resources, extraordinary biodiversity, and immense strategic significance, the Andaman and Nicobar Islands possess enormous potential. The task for policymakers is to harness that potential while preserving the ecological and cultural heritage that makes these islands so unique.

It’s a privilege to be invited by the India Foundation to address this distinguished gathering on a subject that is not merely academic but of profound strategic consequence for our nation and the broader Indo-Pacific. My experience as Lieutenant Governor of the Andaman and Nicobar Islands has transformed my understanding of what it means to govern a territory where geography, ecology, security, and civilisational legacy converge in ways unlike anywhere else in the Indian Union. The Andaman and Nicobar Islands are not a footnote in India’s story. In many ways, they are a window into India’s future—a future shaped by its maritime identity, its Indo-Pacific engagement, and its emergence as a leading power in the Indian Ocean region.

Geography, as we know, often shapes destiny. The Andaman and Nicobar archipelago comprises 836 islands, islets, and rocks, of which only a small fraction are inhabited. It stretches nearly 800 kilometres from north to south, astride the 10-degree channel, through which approximately one-third of global maritime trade passes each year. The eastern mouth of the Strait of Malacca, perhaps the single most important choke point in international shipping, lies within reach of our southernmost tip. This is not a strategic asset we inherited by accident; it’s a gift of geography that demands a response commensurate with that vision.

For much of independent India’s history, the islands have been viewed either through the lens of the Cellular Jail and our freedom struggle, or as a repository of unique biodiversity requiring protection. Both perspectives are important. Yet the demands of the twenty-first century require us to see the islands in their entirety—as a strategic frontier, an ecological treasure, a developmental opportunity, and a national responsibility. During my tenure as Lieutenant Governor, I was repeatedly struck by the difficulty of balancing these imperatives. The task for policymakers is not to choose between them but to harmonise them. That, in my view, remains the central challenge of governance in the Andaman and Nicobar Islands.

Let me first turn to security, for without it neither ecology nor development can flourish. The geographical and geopolitical environment in the Indo-Pacific has changed dramatically over the past decade. The rise of China as a blue-water naval power, the militarisation of the South China Sea, the growing frequency of extra-regional naval presence in the Indian Ocean, and the intensification of competition among major powers for maritime influence—all of these trends converge on the Andaman and Nicobar Islands with particular force.

India’s Andaman and Nicobar Command, established in 2001 as our first and only tri-service theatre command, was a prescient institutional response to these emerging realities. It remains, to this day, a model of joint military thinking that the rest of our defence establishment continues to aspire to. During my tenure, I had the opportunity to work closely with successive commanders and to see firsthand the professionalism and dedication of our armed forces personnel stationed in conditions of considerable remoteness and hardship. However, the gap between the strategic importance of these islands and the resources allocated to their defence infrastructure has been a persistent concern. Our runways, port facilities, surveillance capabilities, and logistics chains have all required sustained investment over many years.

The Government of India is now showing a heightened appreciation of this imperative. The holistic development of the Great Nicobar Island project, the upgrading of Andaman and Nicobar Command’s capabilities, and the broader push for maritime domain awareness mark a welcome acceleration of national intent. Yet I would urge even greater urgency. The window of strategic advantage is not permanent. Our geographical position in the eastern Indian Ocean will realise its full deterrent and shaping potential only if it is underpinned by credible military capability, modern infrastructure, and effective domain awareness. I would also emphasise the importance of deepening our engagements with like-minded partners in the Indo-Pacific: the United States, Japan, Australia, France, and others, through the lens of the Andaman and Nicobar Islands. These partnerships can be structured to enhance our sovereignty and strategic autonomy rather than dilute them, provided we approach them with clarity of purpose and confidence in our own vision.

Let me now speak about ecology. The Andaman and Nicobar Islands contain some of theplanet’s most biologically diverse ecosystems. They are home to over 2,200 plant species, nearly  350 bird species, and an extraordinary array of marine life. The coral reefs of the Andaman Sea are among the richest and most resilient in the Indo-Pacific. The Nicobar group, in particular, harbours species such as the Nicobar megapode and the crab-eating macaque, which are found nowhere else on Earth. Several of our tribal communities, including the Jarawas, Sentinelese, and the Onges, have lived in these ecosystems for tens of thousands of years, representing an irreplaceable continuity of human adaptation to the natural world. The 2004 tsunami was a brutal reminder that the natural systems of these islands, including mangroves, coral reefs, and coastal vegetation, serve as the first line of defence for human settlements. Where these systems were intact, communities survived. Where they had been degraded, the destruction was catastrophic. I am therefore strongly supportive of a calibrated, evidence-based approach to development that places ecological carrying capacity at the centre of planning.

The paradox of the Andaman and Nicobar Islands is that they lie at the crossroads of global commerce, yet their residents have long been economically marginalised by their distance from mainland markets and the administrative complexities of Union Territory governance. I am particularly convinced of the transformative potential of sustainable tourism in the Andaman Islands. The natural beauty of these islands, with their pristine beaches, crystal-clear waters, and rich marine life, is without parallel in the Indian subcontinent. A well-regulated, high-value tourism sector, developed with strict environmental safeguards and strong community participation, could generate substantial livelihoods while building a constituency for conservation among local residents. I would strongly advocate adopting a blue economy framework that treats the islands’ marine resources not merely as commodities to be extracted, but as assets to be sustainably managed for the long-term benefit of island communities.

Equally important is the question of connectivity. The undersea optical fibre cable now linking the islands to the mainland is a significant achievement, bringing broadband to communities previously reliant on satellite links with limited bandwidth. This infrastructure can be leveraged to create new opportunities in digital services, telemedicine, and distance education. However, physical connectivity, through improved air links and inter-island ferry services, remains a critical, unfinished agenda.

No discussion of governance in the Andaman and Nicobar Islands can be complete without reference to the extraordinary responsibility we bear towards the indigenous tribal communities of these islands. The Andaman people, the Jarawas, the Sentinelese, the Great Andamanese, the Onges, and others are among the most ancient human communities on Earth. Their genetic lineages trace directly to the earliest migration of Homo sapiens out of Africa. They are, in a very literal sense, living links to the deepest chapters of the human story. Our constitutional and moral obligation to these communities is absolute. The policy of protecting their habitat from external contact, imperfect in its implementation though it has sometimes been, rests on the hard-earned wisdom that these communities are extraordinarily vulnerable to the diseases, social disruptions, and cultural dislocations that external contact brings. The Andaman Trunk Road, which passes through the Jarawa Reserve, remains a source of justified concern from a protection standpoint, and I would urge continued attention to this question from both the administration and civil society. At the same time, we must guard against paternalism that denies these communities any agency in shaping their own futures. The principle must be respect for their autonomy and choices, informed by the best available anthropological and epidemiological knowledge and guided by a genuine commitment to their well-being rather than by any external agenda, whether development- or culture-related.

No single initiative more powerfully crystallises India’s 21st-century vision for the Andaman and Nicobar Islands than the holistic development of Great Nicobar Island. Situated at the southern extremity of our archipelago, barely 90 nautical miles from Sumatra and overlooking one of the world’s busiest maritime corridors, Great Nicobar holds exceptional strategic importance. For decades, India had this advantage but lacked the infrastructure to realise its full potential. The Great Nicobar project seeks to bridge that gap.

The proposed transhipment port, international airport, supporting township, and dual-use strategic infrastructure are far more than a development project. They constitute a long-term investment in India’s maritime future, economic competitiveness, and strategic reach in the eastern Indian Ocean. The significance of the transhipment terminal alone cannot be overstated. For too long, Indian trade has relied on foreign ports for transhipment. Great Nicobar offers the opportunity to retain a larger share of that economic value within India while establishing a major maritime hub at one of the world’s most important trading crossroads.

Equally significant is the strategic dimension. A strengthened Indian presence on Great Nicobar will enhance maritime domain awareness, strengthen deterrence, and reinforce India’s ability to contribute to stability and security across the wider Indo-Pacific. Naturally, concerns about ecology and indigenous communities must be taken seriously. They deserve rigorous assessment, continuous monitoring, and responsible mitigation. But environmental stewardship and strategic development need not be seen as opposing objectives. The challenge is to pursue both with wisdom, sensitivity, and foresight. What we must avoid is allowing caution to become paralysis. Strategic opportunities do not remain available indefinitely. Infrastructure of this scale requires years of planning and execution, and the costs of inaction can be as high as the risks of action.

Great Nicobar is therefore more than an island. It is a statement of India’s intent—a recognition that our maritime geography is among our greatest national strengths and that we have both the confidence and the vision to harness it responsibly.

By way of introduction, I had the privilege of serving as Deputy Commissioner of Car Nicobar in the Nicobar Islands for two years. During that period, I travelled extensively across the Nicobar group and visited virtually every inhabited island, including the lighthouse at Indira Point, which was submerged after the 2004 tsunami. My association with the islands extends beyond administration. I was also involved in establishing the first scuba diving society in the Andaman and Nicobar Islands, which gave me a unique perspective on the region’s extraordinary maritime and ecological wealth.

The Andaman and Nicobar Islands pose a fascinating and complex challenge, where ecological preservation, economic development, and national security imperatives intersect. Balancing these often competing priorities requires a nuanced, integrated approach to governance and policymaking. My interest in these issues led me to write a book nearly a decade ago for the Institute for Defence Studies and Analyses, titled The Andaman and Nicobar Islands: India’s Untapped Strategic Assets. The central argument of that work was that these islands possess immense strategic potential, which, if developed thoughtfully and sustainably, could significantly enhance India’s maritime and geopolitical position.

The Strait of Malacca is one of the world’s most critical maritime chokepoints and a strategic asset of immense significance. In 2003, Chinese President Hu Jintao famously referred to the “Malacca Dilemma,” highlighting China’s vulnerability arising from its dependence on this narrow sea lane for energy supplies and trade. For India, however, the Strait represents a significant strategic advantage—provided we can fully leverage the geographic potential of the Andaman and Nicobar Islands, which lie astride the Strait’s western approaches. The importance of these islands is further underscored by the fact that nearly one-third of India’s Exclusive Economic Zone (EEZ) is associated with the Andaman and Nicobar archipelago. As maritime competition intensifies and the Indo-Pacific assumes greater geopolitical significance, this vast maritime domain and the islands’ strategic location are becoming increasingly important to India’s security, economic interests, and regional influence.

In the Andaman and Nicobar Islands, indigenous populations experience vastly different realities of survival, autonomy, and integration into modernity. At one end of the spectrum are the Nicobarese, who have successfully integrated into mainstream society. While they face modern socio-economic challenges, such as addressing unemployment among their increasingly educated youth, they are also celebrated for their vibrant culture and athletic prowess, having won the prestigious Subroto Mukerjee Football Tournament multiple times. The Shompen of Great Nicobar, a vulnerable group of roughly 200 to 300 individuals, require careful, non intrusive welfare and conservation support. The Jarawas live within a designated reserve bisected by National Highway 4 (NH4). The Onge tribe has been deeply affected by direct state intervention. The government’s initiative to resettle them into permanent housing remains highly controversial; critics argue that these forced modernisations have disrupted their traditional way of life and fostered systemic dependency rather than genuine empowerment. The islands’ most isolated populations, the Sentinelese, continue to live in absolute seclusion on North Sentinel Island. It was here that an American missionary was killed by a Sentinelese arrow. The Great Andamanese population has dwindled to just a few dozen survivors.

On the strategic side, various issues keep emerging. Many years ago, the Indian Navy sought to establish a radar station on Narcondam Island, a remote, uninhabited volcanic island in the Andaman Sea. At just 6.8 square kilometres, it juts towards Thailand and is India’s easternmost island, famed as the exclusive, protected home of the endangered Narcondam Hornbill. The government denied permission to set up the radar station on the grounds that it would endanger the 300 or so hornbills endemic to the island. Here, environmentalists overrode strategic requirements, despite there being no evidence that a radar station posed a threat to the hornbills.

Another issue has arisen with the Great Nicobar Island project at Galathea Bay. Currently, the controversies surrounding the project concern the Shompen tribe and the turtles’ nesting sites. Indira Point, south of the island, is now underwater after the 2004 tsunami, but the lighthouse there, though partially submerged, still functions. With the transhipment port, an increase in ships will cause some water pollution, as we have seen in Singapore. Also, the structures being built must be designed to withstand earthquakes of magnitude 8 or 9 on the Richter scale. This needs to be ensured.

The Ten Degree Channel, which separates the Andaman and Nicobar groups of islands, warrants particular attention. India argued that the channel should be treated as internal waters, thereby giving it greater control over transit by foreign vessels. However, this position was not accepted under the United Nations Convention on the Law of the Sea (UNCLOS). By contrast, countries such as Indonesia, as archipelagic states, enjoy greater rights over waters enclosed by their archipelagic baselines. This distinction has important strategic implications. The Ten Degree Channel is a critical maritime passage, and there are growing concerns about its use by foreign naval vessels, including Chinese submarines transiting between the Bay of Bengal and the wider Indo-Pacific. Given the changing security environment in the region and the growing strategic importance of the Andaman and Nicobar Islands, it may be worthwhile for India to revisit the legal and diplomatic aspects of this issue and explore whether a stronger case can be made for enhanced regulatory control over this vital waterway.

An international airport is planned for Great Nicobar Island. However, it may be worthwhile to assess whether existing infrastructure can be used more effectively before embarking on an entirely new facility. The islands already host INS Baaz at Campbell Bay, a strategically located naval air station under the tri-service Andaman and Nicobar Command. Subject to operational and technical feasibility, extending its runway and expanding associated facilities could meet both strategic and civilian aviation requirements at lower environmental and financial costs. Alternative engineering solutions could also be explored. Several countries, most notably Japan, have successfully developed airport infrastructure through land reclamation and offshore extensions, thereby minimising the impact on ecologically sensitive terrestrial areas. Given the unique environmental significance of Great Nicobar, such options merit careful consideration as part of a broader assessment of developmental needs, strategic imperatives, economic viability, and ecological sustainability.

Another aspect that merits consideration is the natural deep-water harbour at Nancowry, located between the islands of Nancowry and Kamorta in the Central Nicobar group. This harbour, utilised by the Japanese during the Second World War, offers significant natural advantages as a sheltered anchorage. Its geography is particularly noteworthy, with navigable access channels providing entry and exit routes, making it a strategically valuable maritime asset. The Indian Navy already maintains a presence here through INS Kardip, a Forward Operating Base on Kamorta Island that operates under the tri-service Andaman and Nicobar Command. Commissioned in 1973, the base contributes to India’s maritime surveillance and operational capabilities in this strategically important region. The presence of such infrastructure raises broader questions about the optimal utilisation of resources across the island chain. For example, both civilian authorities and the Navy maintain adjacent helipads in the area. While there may be valid operational reasons for separate facilities, it is worth examining whether greater integration and shared-use arrangements could enhance efficiency, reduce duplication, and minimise the environmental footprint of future development.

In conclusion, the Andaman and Nicobar Islands would benefit from a comprehensive assessment of existing assets before undertaking new infrastructure projects, ensuring that strategic, economic, and ecological considerations are addressed in a balanced and coordinated manner.

Major infrastructure projects in India have long been the subject of vigorous public debate, which is both healthy and necessary in a democracy. I recall the discussions surrounding the Enron power project, the country’s first large-scale private-sector power venture. At the time, I had reservations about the high cost of the electricity it would produce. Yet I also felt the project could serve as a catalyst for broader change—encouraging Indian entrepreneurs to enter the power sector and fostering a culture in which consumers and state utilities recognised the need to pay the true cost of electricity. The underlying logic was sound, even if the outcome ultimately fell far short of expectations. That experience has made me cautious about assuming that every grand plan will unfold exactly as envisioned. At the same time, uncertainty cannot be a reason for inaction. If we allow fear of failure to prevent us from undertaking ambitious projects, we risk condemning ourselves to stagnation.

Change has brought us many benefits, and they are now visible: you can see them in every National Family Health Survey, and you will also see them when the census report comes out. You’re already seeing it in the population figures; a country that once had such massive panic and fear about the population bomb is now, in my lifetime, worrying about having too few babies. So things can change dramatically; not all fears come true. And that’s how fears have to be seen, rationally, not embraced instinctively. And some of that is happening in the Andaman Nicobar area as well.

On the issue of developments in Great Nicobar, environmentalists want to preserve the pristine environment as it is. The political argument by opposition groups against this development is that if it were such a good idea, they would have implemented it when they were in power for six or seven decades! The fact is that everything changes. On Hainan Island, the Chinese, while creating provisions for military facilities, have preserved their forests.

The Andaman and Nicobar Islands and Lakshadweep are two fantastic geopolitical, ecological, and economic opportunities for India. By not developing them, we have allowed them to become security liabilities, as India has to invest heavily in their protection. Leaving them as they are risks becoming like the absentee landlord who goes overseas and, on his return, finds that somebody has occupied his land. During the 1965 war, Sukarno talked about annexing the Andaman and Nicobar Islands. In Air Marshal Asghar Khan’s autobiography, there are conversations between him and the then Indonesian Navy Chief, who said, “What business does India have to own these islands? These fall between East Pakistan and the Sumatra region of Indonesia, and belong to us. We will just go and take them; India has no navy anyway.”

When Sukarno fell, things changed. However, when the Indian Navy inducted the Tu-142Ms, long-range maritime reconnaissance and anti-submarine warfare aircraft, Admiral Hartas, an Indonesian admiral, stated that it was now time to act on these islands because Indonesia had a stronger claim to them than India, particularly to the Nicobar Islands. That is why it is necessary to convert a security liability into a security asset. While we do not need to militarise the Islands, we need to use geography to our advantage should the need arise, as Iran has shown in its conflict with the United States. We are not building an asset to block the Strait of Malacca. That, in any case, is a bad and very provocative idea, as it will affect many of India’s friends and India’s trade.

A cursory look at the map of India shows that India’s economic growth is weighted towards its western seaboard, which hosts major commercial centres, modern ports and airports. The Eastern seaboard is comparatively less developed. While the Indian Navy has some of its most valuable assets on the Eastern coast, such as INS Varsha, where the nuclear submarines are based, the rest of India’s Eastern seaboard is quite bare. If the Kra Canal is built in Thailand, or even if a highway project connecting one side to the other is constructed, it would immediately open up all of India’s Eastern coast to the rest of the world. India has defence assets on its Eastern seaboard, but a military presence in the A&N islands overlooking the region would pay great dividends and provide India with defence in depth.

The Chinese already have Hambantota, and in Coco Island, which is not far from the Andamans, they have an airstrip longer than INS Baaz. There is nothing more important than a nation’s defence. We need to be prepared to fight the wars of tomorrow, and not those of yesteryears. But more importantly, we need to avoid wars through deterrence, and raise the costs of any misadventure for an aggressor.

As for the transhipment port in Galathea Bay, the environmental concerns have been addressed as far as possible. It is also surprising to see many naval veterans on social media saying the port will not be commercially viable. How they have reached that conclusion is unclear, but in any case they know little about commerce. That aspect will be handled by private companies, and no private company will sink its shareholders’ money into an infeasible project.

What we need is more communication and more debates like this. We need to move beyond the old Planning Commission mindset, in which the pre-reform question was: “Will India need this or not?” One of the Planning Commissions in the late 1980s said that India should not issue licences to produce additional cars because the Indian market could not absorb more than 50,000 cars. Today, India manufactures 5–6 million cars and exports a large number as well.

The time has come for India to think big, without being reckless. For understandable reasons, our strategic outlook has traditionally been shaped by continental concerns. Most of the threats we have faced since Independence have emanated from our land borders, making us largely border-centric in our strategic thinking. Today, however, we need to broaden our strategic horizon and look beyond our frontiers. Future challenges may not necessarily take the form of an adversary seeking to capture another square kilometre in Ladakh or another ridge line near Tawang. Such ventures are increasingly costly, both politically and militarily. The maritime domain presents a very different set of challenges.

In this context, I am reminded of remarks reportedly made by Pakistan Army Chief Field Marshal Asim Munir during a speech in Tampa, Florida. Referring to a future conflict, he reportedly said, “The next time, we will start from the East,” adding, “Isn’t it there, on the Eastern side, that they keep what is most valuable to them?” Many interpreted this as a reference to the Siliguri Corridor or to developments involving Bangladesh. My own reading was somewhat different. I believe he was drawing attention to India’s eastern maritime seaboard and the vulnerabilities that could arise in the maritime domain.

Whether that interpretation is correct or not, the broader point remains valid. Future threats are likely to be more complex, technologically enabled, and less predictable than those we have traditionally planned for. Advances in unmanned systems mean that powerful drones and autonomous platforms can be deployed from commercial vessels, fishing boats, shadow tankers, or dark fleets operating far from conventional battlefields. The distinction between civilian and military activity at sea is becoming increasingly blurred.

India must therefore prepare for the future rather than remain anchored in the assumptions of the past. Geography has bestowed unique maritime advantages on us, particularly in the Andaman and Nicobar Islands. The challenge before us is to develop and leverage these assets responsibly, balancing environmental considerations with economic and security imperatives. Seen in that light, the Great Nicobar project is not merely a development initiative; it is part of a broader effort to position India for the strategic realities of the twenty-first century.

 

SESSION 2
Andaman and Nicobar Islands as a Focal Point for Maritime Security andRegional Cooperation in the Indo-Pacific

 

The Andaman and Nicobar Islands, located 1,200 kilometres or more off the coast of India, serve as India’s premier maritime outpost, anchoring its security strategy and regional cooperation in the Indo-Pacific region. The archipelago overlooks one of the world’s busiest sea lines of communication, with 90,000 ships a year passing through it—30 per cent of all global trade, according to the World Economic Forum, including two-thirds of China’s global trade, 80 per cent of China’s energy imports, 45 per cent of all seaborne oil transit in the world, and 55 per cent of India’s merchandise trade.

As we see in real time, the importance of maritime choke points cannot be overstated. Great Nicobar Island is a natural choke point, vital for monitoring shipping traffic and countering conventional and unconventional threats, including piracy, illegal fishing, and maritime terrorism. The establishment of the Andaman and Nicobar Command, India’s only operational tri-services command, in 2001 underscores the strategic value of the islands. A robust presence on Great Nicobar enables India to project power, monitor threats, and provide rapid humanitarian assistance and disaster relief across the Bay of Bengal and the Western Pacific.

Beyond defence, the islands are a launchpad for regional diplomacy under the Act East policy. India has begun to leverage this geography to deepen ties with Southeast Asian nations, including Thailand, Indonesia, Malaysia, and Myanmar, which lie between 100 and 400 nautical miles from the islands. The islands host multinational naval exercises, such as the Milan exercises and coordinated patrols, or CORPATs, with navies from these countries. By expanding infrastructure and promoting sustainable economic corridors, India has transformed the archipelago from an isolated frontier into a vibrant hub for collaborative ocean governance, ensuring a free, open, and inclusive Indo-Pacific.

It’s a privilege to speak about a region that has moved from the margins of India’s strategic thinking to the centre of the Indo-Pacific geopolitical maritime arena. I’ll speak from my experience as CINCAN, an Air Force officer in a maritime environment, from 2012 to 2014.

It is important to recognise that the strategic value of these islands begins with geography. Stretching nearly 750 kilometres north-south at the mouth of the Malacca Strait, they occupy one of the most strategic positions in the Indo-Pacific region. Their proximity to the Strait of Malacca, through which almost one-third of global trade and much of the energy supplies for East Asian countries pass, gives them exceptional strategic value.

They provide a vantage point over the Sunda and Lombok Straits, strengthening India’s ability to monitor critical maritime gateways between the Indian and Pacific Oceans. In an era when disruptions at chokepoints such as the Suez Canal, the Red Sea, the Strait of Hormuz, and the Strait of Malacca can reshape global trade and security, geography has once again become a strategic determinant of power. Few locations in the Indo-Pacific offer India a comparable strategic advantage. This century has seen India’s transition from a predominantly continental orientation to a balanced continental-maritime one.

This evolution is evident in India’s transition from the Look East policy to the more proactive Act East approach; the articulation of SAGAR and its subsequent expansion into MAHASAGAR; the consistent emphasis on a free, open, and inclusive Indo-Pacific across regional and global forums; and India’s growing engagement with regional institutions. Our aspiration to become a net security provider in the region is integral to this strategic transformation. In this broader vision, the Andaman and Nicobar Islands have emerged as an indispensable strategic asset, central to advancing India’s maritime interests and broader regional objectives.

A major milestone in the strategic evolution of these islands came in 2001 with the establishment of the Andaman and Nicobar Command (ANC), India’s first and only integrated tri-service command. By bringing together the Navy, Army, Air Force, and Coast Guard under a unified operational structure, the ANC marked a significant step towards jointness and integrated warfighting. What began as a naval command headquartered in these islands was transformed into a truly joint command, reflecting a forward-looking approach to national security. Over the past two decades, the ANC has evolved from a relatively remote military formation into a key operational hub for India’s Act East policy and a critical pillar of our Indo-Pacific strategy. Its importance today extends far beyond territorial defence; it serves as a platform for maritime domain awareness, power projection, humanitarian assistance and disaster relief, and engagement with regional partners.

The command structure was carefully designed to address concerns about inter-service integration. At its apex is the Commander-in-Chief, Andaman and Nicobar Command (CINCAN), supported by component commanders from the Army, Navy, and Air Force, each responsible for overseeing their respective service elements and providing professional military advice. This arrangement addressed initial apprehensions about officers from one service commanding personnel from another, while preserving service expertise within a genuinely integrated framework. The ANC thus became an important precursor to the joint theatre command structures that India is now seeking to develop.

In the ANC’s early years, the idea of an integrated tri-service command met with hesitation. Individual Services had understandable reservations, rooted in both institutional mindsets and genuine resource constraints. At the time, the Services were grappling with shortages on the mainland and were cautious about allocating scarce assets to a distant island territory. Over time, however, experience demonstrated the value of jointness, and these initial concerns gradually diminished.

A decisive shift has occurred in recent years. There has been a marked increase in attention to the islands, reflected in substantial infrastructure investment and the steady deployment of military assets. While resource constraints persist, every effort is being made to strengthen the islands’ operational capabilities and integrate them more closely into India’s broader strategic framework.

The development of key military installations illustrates this transformation. The expansion of INS Baaz at Campbell Bay has significantly enhanced India’s ability to monitor and operate in the eastern approaches to the Indian Ocean. While discussions continue over the relative merits of various infrastructure projects on the islands, it is important to recognise that INS Baaz faces geographical and developmental constraints that limit further expansion. Similar efforts are underway at INS Kohassa in the northern islands. The runway at Car Nicobar, which was extensively damaged in the 2004 tsunami, has been rebuilt and restored to full operational capability. In addition, substantial investments have been made in naval and Coast Guard infrastructure, as well as in the deployment of advanced platforms and equipment.

These assets are critical to strengthening maritime domain awareness, intelligence, surveillance and reconnaissance (ISR), long-range air operations, logistics support, and humanitarian assistance and disaster relief (HADR) missions. They are integral to India’s ability to respond rapidly to security contingencies and natural disasters across the region. From an Air Force perspective, the islands significantly enhance India’s ability to project presence and influence across the Indian Ocean Region and, increasingly, the wider Indo-Pacific. The Indian Air Force and Indian Navy regularly participate in exercises with regional partners, including Australia, Japan, Singapore, and several neighbouring countries. Cooperative patrols and coordinated maritime activities are now routine, reflecting a growing network of security partnerships and shared maritime interests.

The proposed Great Nicobar Project marks the next stage in India’s island strategy. The first phase has focused on developing the islands’ strategic and military infrastructure; the next phase aims to unlock their broader economic and geopolitical potential. The project could significantly enhance India’s strategic leverage in the Indo-Pacific while reinforcing the geopolitical relevance of the Strait of Malacca and the wider maritime commons.

The significance of the Andaman and Nicobar Islands, however, extends far beyond their military utility. Their proximity to Indonesia, Myanmar, and Thailand offers important opportunities for economic integration, connectivity, and diplomatic engagement. Through the SAGAR vision— Security and Growth for All in the Region—India has sought to combine security with partnership. The islands support maritime diplomacy, capacity building, information sharing, and HADR operations, and serve as an important platform for India’s wider Indo-Pacific initiatives.

The Quad adds another important dimension to this evolving architecture. Although not a formal military alliance, it seeks to promote a free, open, inclusive, and rules-based Indo-Pacific through cooperation on maritime security, critical technologies, resilient supply chains, and regional capacity building. In this context, the Andaman and Nicobar Islands provide India with a unique strategic position from which to contribute to regional initiatives while preserving its strategic autonomy.

At the same time, any balanced assessment of the islands must acknowledge the challenges involved. Increased strategic activity and infrastructure development will inevitably attract greater scrutiny from regional competitors, particularly China. This reality must be recognised and managed prudently by India. Development must therefore proceed in a way that strengthens security while encouraging cooperation wherever possible.

Equally important are concerns about environmental sustainability, tribal rights, climate vulnerability, and ecological fragility. These issues require careful stewardship and responsible governance. Infrastructure development on the islands is both costly and logistically demanding. Building and maintaining facilities more than 1,200 kilometres from the Indian mainland, across a dispersed archipelago, poses unique challenges. Connectivity, healthcare, education, and the availability of skilled manpower all require sustained, long-term investment.

The central challenge for policymakers is therefore to ensure that security imperatives and sustainable development reinforce rather than undermine one another. A careful balance among strategic requirements, economic growth, environmental protection, and social welfare will be essential to the long-term success of India’s island strategy.

In conclusion, the Andaman and Nicobar Islands reflect India’s growing recognition of the maritime domain as a central pillar of national strategy. Once viewed primarily as a remote outpost, they are now an integral part of India’s Indo-Pacific vision. As they become increasingly woven into India’s economic, diplomatic, and security architecture, the islands have emerged as instruments of both deterrence and cooperation. Situated at the crossroads of the Indian and Pacific Oceans, they serve as India’s forward maritime bastion. The task ahead is clear: to ensure their development remains secure, sustainable, and strategically relevant in the decades to come.

The Andaman and Nicobar Islands have emerged as critical geopolitical and geo-economic assets for India and its Indo-Pacific partners. As India’s easternmost territory, the archipelago serves as a natural interface between South Asia and Southeast Asia. Given China’s growing military presence in the Indian Ocean Region and the Bay of Bengal, the islands have become even more significant to India’s national security.

The military and economic development of the Andaman and Nicobar Islands, together with the enhancement of India’s power-projection capabilities, is an important component of our deterrence strategy. Events along our northern borders in recent years have reinforced the need to reassess the strategic importance of these islands. Their location astride some of the world’s most vital maritime chokepoints places them at the centre of global trade flows, including the movement of energy supplies and hydrocarbons that are critical not only to China but also to Japan, South Korea, and many other economies in the Indo-Pacific.

China’s dependence on these sea lanes has long been recognised as a strategic vulnerability. The so-called “Malacca Dilemma,” a term popularised by former Chinese President Hu Jintao, reflects Beijing’s concern about reliance on the Strait of Malacca. This concern has prompted China to explore alternative routes, including proposals for a canal across Thailand’s Kra Isthmus. Even if such projects materialise, the Andaman and Nicobar Islands’ proximity to these alternative maritime corridors will ensure that the Andaman and Nicobar Command (ANC) continues to play a crucial role in maintaining maritime security in the region.

Recent developments elsewhere have only reinforced the importance of strategic geography. Events in the Strait of Hormuz and the threats posed by the Houthis in the Bab-el-Mandeb have shown how vulnerable global trade is to disruptions at key maritime chokepoints. The world is now acutely aware of the strategic value of controlling and securing such waterways. India displayed considerable foresight when it established the Andaman and Nicobar Command in 2001, the country’s first integrated tri-service command. As Air Marshal Roy noted earlier, progress could perhaps have been faster. Nevertheless, the changing geopolitical environment has made it abundantly clear that India has no option but to strengthen the archipelago’s military and economic infrastructure. This is precisely the direction in which current policy is moving.

The islands play a vital role in regional maritime security. Their proximity to the Six Degree Channel, one of the world’s busiest shipping lanes, together with the surveillance and military assets deployed there, gives India significant strategic advantages. Over the years, the islands have become an important hub for maritime domain awareness. The archipelago hosts an extensive network of radar stations and coastal surveillance systems linked to the Information Fusion Centre–Indian Ocean Region (IFC-IOR) in Gurugram. These systems collect and transmit critical information on the movement of naval vessels, submarines, research ships, and commercial traffic across the region. The IFC-IOR, an Indian initiative with growing international participation, has become a key mechanism for information sharing and maritime cooperation.

The islands also support the monitoring of commercial shipping and contribute significantly to India’s white-shipping agreements with nearly forty countries. These arrangements facilitate the exchange of information on merchant shipping and strengthen maritime security cooperation across the Indo-Pacific. In addition, surveillance systems based in the Andaman and Nicobar Islands increasingly contribute to broader regional monitoring networks, including collaborative arrangements with like-minded partners. Through these initiatives, the islands have become a focal point for maritime cooperation and collaborative security diplomacy.

The archipelago also serves as a valuable platform for joint military exercises, coordinated patrols, anti-piracy operations, and humanitarian assistance and disaster relief (HADR) missions. India conducts SIMBEX with Singapore, bilateral exercises with Australia and other regional partners, and increasingly sophisticated naval engagements that enhance interoperability and maritime security cooperation. The Coordinated Patrol (CORPAT) mechanism with Indonesia, Thailand, and Myanmar provides another important avenue for regional cooperation. These patrols address challenges such as illegal fishing, smuggling, and other transnational maritime crimes in areas where India shares maritime boundaries with its neighbours.

India also participates in the Malabar Exercise alongside the United States, Japan, and Australia, while the MILAN series of exercises has evolved into one of the region’s largest multinational naval gatherings. Together, these initiatives have strengthened military-to-military ties, enhanced trust among partners, and reinforced India’s role as a net security provider in the Indo Pacific. Across these endeavours, the Andaman and Nicobar Islands play an indispensable role. The islands are also important to the implementation of several Quad initiatives, including the Indo-Pacific Partnership for Maritime Domain Awareness and the Quad Partnership for Cable Connectivity and Resilience. The latter reflects the growing strategic importance of undersea communication cables, which are now as vital to the global economy as maritime shipping lanes. Given their proximity to major submarine cable routes linking Asia, Africa, and Europe, the Andaman and Nicobar Islands are uniquely positioned to contribute to the security and resilience of these critical networks. As India’s former Ambassador to Japan, I would also like to emphasise the importance of the islands in the context of India-Japan relations. Japan has long recognised the strategic significance of the Andaman and Nicobar Islands. Our relationship with Japan is distinguished not only by shared strategic interests but also by a high degree of trust. This trust is evident in Japan’s involvement in infrastructure development projects in some of India’s most sensitive regions, including the Northeast.

Although no agreement is specifically dedicated to the Andaman and Nicobar Islands, several bilateral initiatives are directly relevant to the archipelago. One of the most significant is the Chennai–Andaman and Nicobar submarine optical fibre cable project, implemented by BSNL in partnership with Japan’s NEC Corporation. This project has transformed digital connectivity across the islands by dramatically increasing bandwidth and enabling improvements in governance, telemedicine, education, and disaster resilience.

Another important initiative is a grant from the Japan International Cooperation Agency (JICA) to support renewable energy and grid infrastructure on the islands. Given the archipelago’s remoteness and the need for self-sustaining energy systems, the project has been critical to strengthening energy security and ensuring a reliable power supply for both civilian and military infrastructure.

Several additional projects are under discussion across areas including port modernisation, disaster-resilient infrastructure, sustainable development, and connectivity. Japan’s expertise in these fields is widely recognised. The Smart Islands initiative, which includes the Andaman and Nicobar Islands and Lakshadweep, offers another promising avenue for collaboration. It seeks to integrate infrastructure development with environmental sustainability and resilience, ensuring that economic growth does not come at the expense of ecological balance.

As India seeks to strengthen its position in the Indo-Pacific, the Andaman and Nicobar Islands will remain central to our strategic thinking. Their significance lies not merely in their location but in their capacity to serve as platforms for security, connectivity, economic development, regional cooperation, and strategic partnerships. The challenge before us is to harness this potential sustainably and resiliently, and to align it with India’s long-term national interests.

I come to this discussion with mixed feelings. On the one hand, there is encouraging news: we are finally talking seriously about the Andaman and Nicobar Islands. Fifteen years ago, when I was associated with institutions such as the Institute for Defence Studies and Analyses (IDSA), the Centre for Policy Research (CPR), and later Carnegie India, we repeatedly sought to raise awareness of the islands’ strategic significance. There was little enthusiasm. Beyond some interest from Japanese foundations and scholars, the subject scarcely featured in policy discussions in New Delhi. Only during the present government’s second term did we begin to see a more sustained focus on the islands, marked by the commissioning of major studies and followed by a series of policy initiatives. That is undoubtedly welcome.

Yet this positive development raises a more uncomfortable question: why did it take nearly eight decades after Independence for India to recognise the strategic value of an asset whose importance is, to any student of geopolitics or maritime strategy, self-evident? The growing attention the islands are receiving today is partly a consequence of current debates over development projects in the archipelago. My hope is that this renewed interest is not merely a passing phase but the beginning of a sustained national effort to integrate the islands into India’s long-term strategic vision. I would like to make three broad points. The first two concern the past; the third looks to the future.

The first concerns what I regard as a significant weakness in India’s strategic culture: the absence of a strong territorial sensibility in the maritime domain. This may seem surprising. Independent India has always been deeply conscious of territorial issues. We have been preoccupied with borders, territorial disputes, and questions of sovereignty. Yet this awareness was overwhelmingly continental in orientation. When it came to maritime spaces and island territories, there was a striking lack of strategic attention.

The history of the Andaman and Nicobar Islands during Partition illustrates this point. Given the complex political circumstances surrounding the subcontinent’s division, several outcomes were conceivable. The islands might not have become part of India. That they did owes as much to historical contingencies as to deliberate strategic planning. At a time when New Delhi was understandably preoccupied with Partition, Kashmir, and later China, little attention appears to have been paid to the long-term significance of these islands. This observation is not intended as a criticism of the leaders of that era. Rather, it is an invitation to reflect on certain strategic blind spots. Unless we understand these shortcomings, we risk repeating them.

The same pattern is evident elsewhere. Questions relating to frontier regions and peripheral territories often received insufficient strategic attention. Islands were particularly vulnerable to this neglect because India’s strategic culture was overwhelmingly shaped by continental concerns. Delhi, if one may put it bluntly, was a city of land strategists. Yet the disposition of island territories has been a defining feature of geopolitics across Asia. The territorial settlements that emerged after the Second World War continue to shape disputes across the Indo- Pacific today—from the Kuril Islands between Russia and Japan to the East and South China Seas. Even ideological affinity has rarely overridden territorial considerations. China’s seizure of the Paracel Islands in the 1970s, despite its close relationship with North Vietnam, demonstrates how states act decisively when strategic territory is at stake. Against this broader historical backdrop, India’s relative indifference towards its island territories stands out as a significant strategic failure. It is a lesson that warrants closer study.

My second point concerns what India did—or failed to do—after acquiring these territories. For decades, the Andaman and Nicobar Islands were treated less as a strategic asset and more as a remote administrative responsibility. The fact that the islands remained under the Ministry of Home Affairs for so long is revealing. They were viewed primarily through an internal administrative lens rather than as instruments of national strategy. In practical terms, this meant isolation. Access was restricted, connectivity remained poor, and economic development lagged well behind the islands’ potential. The mindset was that of managing a distant outpost rather than developing a strategic hub.

Historically, this marked an extraordinary departure from the logic that had guided earlier maritime powers. Throughout the seventeenth and eighteenth centuries, European powers fiercely contested the islands of the Bay of Bengal and Southeast Asia, recognising that maritime influence depended on control of strategic island chains. Once Britain had established dominance in the Indian Ocean, it could afford to use the Andamans as a penal colony. Independent India, however, inherited a vastly different strategic environment and should have viewed the islands through a different lens.

The consequences of neglect were evident even a decade ago. Basic connectivity was inadequate, and internet access was unreliable. Infrastructure remained underdeveloped. Rather than viewing the islands as a centre of economic activity, strategic influence, and maritime connectivity, policy largely focused on administrative maintenance and subsidies. Fortunately, that situation is now beginning to change.

Yet our contemporary debate often remains trapped in false binaries. Development is presented as being in conflict with environmental protection, and security is portrayed as incompatible with economic activity. Such dichotomies are misleading. Around the world, successful examples demonstrate that these objectives can reinforce one another. Singapore integrates a major commercial port, world-class tourism infrastructure, and critical military facilities within a single strategic framework. China has transformed Hainan Island from a relatively isolated territory into a major tourist destination, conference hub, and strategic military base. These examples show that economic development, security, and environmental stewardship need not be mutually exclusive. The challenge is not whether development should occur, but how it should occur.

This brings me to my final point. The future of the Andaman and Nicobar Islands lies in transforming them from an outpost into a hub—commercially, strategically, and diplomatically. On the economic front, projects such as transhipment facilities, logistics hubs, digital infrastructure, and enhanced connectivity can significantly expand the islands’ role in regional commerce. On the strategic front, virtually every aspect of India’s maritime agenda is relevant to the islands. Maritime domain awareness, humanitarian assistance and disaster relief (HADR), undersea surveillance, maritime security cooperation, and regional partnerships can all be strengthened through capabilities based in the Andaman and Nicobar Islands. Recent Quad discussions on maritime surveillance and maritime domain awareness further underscore the islands’ relevance. As India seeks to play a larger role in shaping the Indo-Pacific security architecture, the Andaman and Nicobar Islands must occupy a central place in our strategic thinking.

The opportunity before us is substantial, but so is the responsibility. Having lost valuable time, India must now act with greater clarity and urgency. The islands should no longer be seen as a distant periphery; they must be recognised as a critical node in India’s maritime future. The task for policymakers, scholars, and strategic practitioners is therefore clear: to sustain momentum, deepen public and policy engagement, and ensure the Andaman and Nicobar Islands become integral to India’s economic, security, and geopolitical vision for the Indo-Pacific. Much has been achieved, but much more remains to be done.

 

SESSION 3
Great Nicobar Project – Balancing Ecology with Development and Strategic Preparation

 

In this session, we turn our attention to the Great Nicobar Island Development Project and the challenge of balancing ecology, development, and strategic preparedness. Great Nicobar holds a uniquely significant position in the Indo-Pacific. Situated near some of the world’s busiest maritime trade routes and overlooking the western approaches to the Strait of Malacca, it lies at the heart of a region that is increasingly central to global geopolitics. The strategic environment is evolving rapidly. We are all aware of developments in the Coco Islands, the growing Chinese presence in the Bay of Bengal, the strategic significance of undersea communication cables, and the wider geopolitical contestation unfolding across the Indo-Pacific.

Against this backdrop, the importance of Great Nicobar extends beyond the island itself. It must be considered within the broader context of India’s economic aspirations, maritime security requirements, and long-term strategic interests. The debate before us is neither simple nor binary. It is not a choice between development and conservation, nor between economic growth and environmental protection. Rather, it concerns how India can strengthen its strategic position in an increasingly contested Indo-Pacific while demonstrating that development can be pursued sustainably, responsibly, and with sensitivity to ecological concerns.

The challenge, therefore, is not whether development should take place, but how to undertake it in a way that balances national security, economic opportunity, environmental stewardship, and the interests of future generations. It is this important and timely question that our panel will address today.

Given the strategic importance of the Andaman and Nicobar Islands and the fact that their development has long lagged behind their potential, I believe we need to frame the discussion differently. Rather than treating development and conservation as opposing objectives, the question should be: how can we pursue development in a way that strengthens conservation while also serving our strategic requirements? There are undoubtedly challenges in achieving this balance, but if we approach the issue through that lens, the debate becomes more constructive, more meaningful, and ultimately more productive.

Let me begin with the transhipment dimension of the project. The data I am using is drawn from the India Maritime Vision 2030. While some figures are a few years old, the broader trends remain valid. As container vessels have grown larger—from capacities of around 10,000 TEUs to well over 20,000 TEUs—they increasingly operate along major east-west shipping corridors. Cargo destined for smaller markets is typically transshipped through major hub ports along these routes. Today, much of India’s container traffic is transshipped through ports such as Jebel Ali, Colombo, Port Klang, and Singapore. Nearly a quarter of India’s container cargo is handled through such foreign transhipment hubs. This results not only in a loss of economic opportunity but also in additional costs for Indian exporters and importers, who often pay significant surcharges for transhipment services.

The challenge, therefore, is to develop transhipment capabilities closer to home and reduce our dependence on foreign ports. In this context, Galathea Bay has significant advantages. Situated virtually on the main east-west shipping route, it is ideally placed to serve as a regional transhipment hub. At the same time, development in island territories and border regions presents unique challenges. Conventional models of economic development do not always work in such areas. Their remoteness, limited infrastructure, and smaller populations often yield lower commercial returns and, consequently, attract less policy attention. Yet from a national security perspective, these regions are among the most important parts of the country.

This is where strategic thinking becomes essential. If development decisions are driven solely by conventional economic metrics, regions with larger populations and greater political influence will naturally attract a larger share of resources. However, when viewed through the lens of national security and long-term strategic interests, islands such as Great Nicobar take on far greater significance. It is therefore entirely appropriate that they receive focused attention and investment.

Connectivity is central to this effort. Whether viewed through the lens of economic development or national security, improved connectivity to remote islands and border regions is indispensable. Investments made today in ports, transport networks, and supporting infrastructure will not only enhance economic activity but also strengthen India’s strategic posture in the wider Indo-Pacific. History offers an instructive perspective. The maritime routes through this region have been used for centuries. Historical records show that as early as two thousand years ago, traders from the Indian subcontinent sailed through these waters towards the Mekong Delta and beyond. The emerging connectivity projects in Southeast Asia, including those associated with southern Thailand, are, in many ways, a modern reflection of these historic patterns of trade and exchange.

What we are witnessing today is not the creation of entirely new routes, but rather the revival and modernisation of pathways that have connected South and Southeast Asia for centuries. The Great Nicobar project must be understood within this broader historical and geopolitical context. At the same time, the long-term success of Galathea Bay cannot depend solely on Indian cargo. Viability projections for the transhipment hub assume significant participation from countries around the Bay of Bengal, including Bangladesh, Myanmar, Thailand, and others. To realise its full potential, the project must be integrated into a broader regional connectivity framework. This is why developments in neighbouring countries should not necessarily be viewed as competition. On the contrary, initiatives in Thailand and elsewhere can complement efforts to develop Galathea Bay. If these projects are linked through a framework of regional cooperation, they can create mutually reinforcing economic opportunities that benefit all participating countries.

In my view, this is where the debate should move. The question is not whether development should take place, nor whether conservation concerns are legitimate—they certainly are. Rather, the challenge is to design a project that advances economic growth, strengthens India’s strategic position, promotes regional connectivity, and upholds the highest standards of environmental stewardship. If we approach the project in that spirit, it is entirely possible to create a modern, environmentally responsible port that supports conservation objectives, strengthens regional partnerships, and contributes to India’s long-term strategic interests. From that perspective, many of the concerns currently being raised can be addressed through thoughtful planning and effective implementation. Recent geopolitical developments reinforce this conclusion. The growing vulnerability of global supply chains, combined with concerns over the security of key maritime chokepoints, has underscored the need for alternative routes and logistics hubs. Reports suggesting that regional powers may seek greater leverage over critical waterways, such as the Strait of Malacca, further strengthen the case for diversified maritime infrastructure. In this context, Galathea Bay, together with emerging connectivity projects in Southeast Asia, offers an important element of strategic redundancy and resilience.

The project’s significance extends beyond India. Its long-term viability depends on integration with the wider Bay of Bengal region. The transhipment hub is expected to attract cargo from Bangladesh, Myanmar, Sri Lanka, Thailand, Malaysia, Singapore, and other regional economies. Great Nicobar must therefore be viewed not merely as an Indian project but as a regional platform that supports trade, connectivity, and economic growth across the Bay of Bengal. Existing frameworks, such as BIMSTEC, provide a natural foundation for this approach. The Bay of Bengal Maritime Transport Cooperation Agreement, regional connectivity initiatives, and ongoing efforts to improve multimodal transport networks offer opportunities to integrate Galathea Bay into a broader regional logistics architecture. The objective should be to position the port as a central node linking the transport corridors emerging across South and Southeast Asia.

Such an outcome will not occur automatically. Private-sector participation will be essential, but private operators alone cannot achieve the necessary level of coordination. Success will require active support from government agencies, sustained diplomatic engagement with partner countries, and close coordination across ministries. Mechanisms such as PM Gati Shakti and the National Logistics Policy provide useful frameworks for aligning and monitoring these efforts. Equally important is ensuring that environmental conservation remains integral to the project. The site selection process considered multiple alternatives, and the environmental clearances include extensive safeguards, monitoring requirements, and conservation obligations. The challenge now lies in implementation. Conservation cannot be treated as a peripheral activity; it must become a core component of the project. If adequate resources are devoted to habitat protection, ecological monitoring, and the prevention of illegal fishing and other threats, it is entirely possible to strengthen conservation outcomes while pursuing development.

Indeed, Great Nicobar offers an opportunity to redefine the relationship between development and sustainability. The port could become a model for environmentally responsible maritime infrastructure. Shorter voyage distances, more efficient cargo handling, and lower fuel consumption could significantly reduce emissions across regional shipping networks. There is also potential to develop Galathea Bay as a hub for green maritime fuels such as green methanol and green ammonia, positioning it at the forefront of the transition to sustainable shipping. In that sense, the project could set new benchmarks—not only for transhipment and logistics, but also for green ports, green shipping, and environmentally responsible infrastructure development.

Ultimately, the vision for Great Nicobar should be ambitious. Over the next two decades, it should become a strategic gateway for India, a world-class transhipment and logistics hub for the Bay of Bengal, and a model of ecological stewardship. It should embody the principles of SAGAR— Security and Growth for All in the Region—by demonstrating that strategic preparedness, economic development, regional cooperation, and environmental sustainability can advance in concert. The challenges are real but not insurmountable. What is required is a coordinated national effort, clear political commitment, and a willingness to view Great Nicobar not as a remote-island project but as a critical investment in India’s maritime future.

The Great Nicobar Project comprises an International Container Transhipment Terminal (ICTT), an international airport, a power plant, and an integrated township spanning 166 square kilometres. A question often asked is why Great Nicobar Island was chosen for this development project.

The answer lies in geography. The island, the southernmost in the Nicobar group, is 40 nautical miles from the East-West shipping line, which runs along the 6-degree channel and passes through the Strait of Malacca. This makes it the most suitable location for a transhipment port. The island’s bays are also silt-free, reducing construction and maintenance costs. In addition, the island is sparsely populated. About 200 to 300 Shompen live in the northern part of the island, and that area has been kept outside the development zone. The area where the development is to take place had a sparse population, but after the 2004 tsunami those people were relocated. Therefore, this project will not cause human displacement.

In Great Nicobar, five sites were surveyed for the development project: Campbell Bay, Anderson Bay, Pemeia Bay, Casuarina Bay, and Galathea Bay (also called South Bay). Galathea Bay was chosen because it is naturally sheltered from wind and sea conditions. Most importantly, a 20 metre deep-water contour line lies just outside the bay, allowing the largest container ships to berth. This is what both the Colombo and Singapore ports have, but no such deep-water contour line exists on any coast of the Indian mainland.

The ICTP is being constructed in four phases under a PPP model, with the final phase due in 2057. On completion, capacity will be 14.2 million TEUs (twenty-foot equivalent units). The airport will be dual-use, with a runway of 3000 metres in Phase 1 and 4000 metres in Phase 2. The power plant will be developed in four phases, with the final phase in 2075. This 450 MVA hybrid power plant will rely on a mix of gas, solar, and battery storage to replace diesel dependence. Of the 166 square km set aside for the project, 150 square km will comprise the township, which will be developed in three phases and completed by 2047.

The strategic significance lies in Galathea Bay’s proximity to the 6-degree channel, through which the world’s shipping passes via the Strait of Malacca. At just 40 km from Galathea Bay, the ICTT is ideally located for transhipment. The 6-degree channel is also used by military ships crossing between the Indian and Pacific oceans. The 10-degree channel, which runs between the Andaman and Nicobar groups of islands, is a 150-km-wide stretch separating the two island groups. Both military and merchant ships also use this channel. It is important for India to have military capability in this area, as only 31 of the A&N group of islands are inhabited. Any country inimical to India transiting through these channels could simply alter course and, in about 30 minutes, land and occupy one of the uninhabited islands. Presently, the force required to evict the intruders would have to come from the mainland, a trip that would take two to three days. The military force currently under the A&N Command is insufficient to prevent or address such an occurrence. While the intruders would eventually be evicted, such an occurrence would cause embarrassment and reputational damage to the country.

The only naval base we have in the Andaman is in Sri Vijaya Puram. It cannot accommodate warships such as destroyers and cruisers. All that is available are fast patrol boats, attack craft, and offshore patrol vessels. That is why the GNIDP is important. Combat aircraft can be based at the dual-use airport, and battleships can be stationed in the ICTT. The entire area can be kept under surveillance from the islands themselves, covering the Andaman Sea and extending to the South China Sea.

In public discourse, there are questions about why the runway at INS Baaz cannot be extended to obviate the need to build a greenfield airport. Initially, the plan was to extend the runway to 3000m, but the project was shelved on three grounds. First, it would require cutting the hill on one side, which falls within the ICAO safety arc. Apart from being an ecological disaster, the hill is traversed by the West-West Road. If that goes, the connectivity of the island people goes. On the other side is the sea, which would require a huge reclamation effort. In addition, that location is a turtle nesting site, which would be permanently lost.

Finally, 80% of the population of Great Nicobar Island lives in the area around INS Bazz. This includes the hospital, the dispensaries, and the school. Under the 15-degree safety arc required by ICAO regulations, most of this population would have to be removed and relocated. Relocating a single family is a herculean task. Relocating such a huge number is unimaginable. That was why this idea was jettisoned. Because the runway here could not be extended, a new Greenfield airport is being developed in an area where only 20-odd families live in thatched-roof houses. The area is also barren, devoid of trees, and poses no ecological problems or other considerations.

I would also like to state that environmental issues are being accorded the highest priority. A number of non-government-controlled agencies are involved in the process. We have the Expert Appraisal Committee in the Ministry of Environment, which comprises scientists and NGOs, all of whom ask very pointed questions, much like a court.

Three issues continue to be flagged by many people. One concerns the safety of leatherback turtles; two concerns the cutting of trees; and three concerns the issues facing the tribal population. Regarding leatherback turtles, some believe that Galathea Bay is the only nesting site for these turtles and that it is being lost. That is not true. There are 23 turtle nesting sites in the Andaman and Nicobar Islands, and the Great Nicobar Island itself has 16 such sites. Galathea Bay is one of them. With respect to Galathea Bay, the environmental clearance is specific. It forbids any development within 500 metres of the high-tide line to ensure that leatherback turtles’ nesting sites are not disturbed. There will also be no development west of Galathea Bay, where the custom nesting sites are. In addition, the environmental clearance mandates that turtles will be geo-tagged. This will inform scientists of their location and determine whether they are returning. That is the extent of the project: ensuring the safety and security of leatherback turtles.

The affected forest area is 130 sq km, of which 65 sq km is green and will not be touched. Of the 18 lakh trees in the remaining area, 7.1 lakh will be cut over the next 30 years. Before a single tree has been cut, under the “Ek Ped Maa Ke Naam” scheme, 2.4 lakh trees have already been planted. By the time phase one starts, my estimate is that at least 6 lakh trees will be planted under this scheme. In addition, each project has its own arboriculture and landscaping plan. During the course of the project, I estimate that at least an additional 2 lakh trees will be planted, bringing the total to 8 lakh. Hence, for the 7.1 lakh trees being cut over the next 30 years, 8 lakh trees will come up in the next two years. This is in addition to compensatory afforestation, which is double the amount we are supposed to do. For compulsory afforestation, 27 square kilometres in Haryana are planned, in addition to what has already been done. Haryana has been chosen because the A&N Islands lack sufficient space to plant those trees. In any case, more trees have been planted on the islands than have been cut down. So, this aspect, too, has been taken care of.

The third concern pertains to the tribals. Of the 910 sq km of Great Nicobar Island, 751 sq km (82.5%) is tribal reserve. This vast area is for a tribal population of about 234 Shompens and about 1094 Nicobarese. Of the 75 sq km being de-notified, 79 sq km is being re-notified, meaning the tribal area is increasing by 4 sq km. As per the EAC notification, the tribal area will be geo fenced, and entry will be prohibited.

In conclusion, I would like to state that this project balances economic growth, economic conservation, and social inclusion. It leverages GNI’s strategic location to strengthen India’s national security and maritime and defence presence in the Indo-Pacific, and, more importantly, demonstrates that development need not come at the expense of the environment. The project represents a model for future large-scale infrastructure initiatives in ecologically sensitive regions. It’s my firm belief that, as we are making a lot of noise now, 20 years down the line the same people will stand on the same podium and speak in glowing terms about this project, saying what I have said here: that it is a model the world should follow. And I think we can meet after 20 years to discuss, and I’m sure all the naysayers will be with me. Thank you.

 

IF-IHC Book Discussion on ‘Between Tehran and Tel Aviv: Gaza’s Story of Unending War’ by Col. Rajeev Agarwal

India Foundation, in collaboration with the India Habitat Centre, organised a book discussion on the book ‘Between Tehran and Tel Aviv: Gaza’s Story of Unending War’ by Col. Rajeev Agarwal, Author and Senior Research Consultant, Chintan Research Foundation, at the India Habitat Centre, New Delhi, on 10 June 2026. The session was moderated by Capt. Alok Bansal, Executive Vice President, India Foundation. The panel featured Amb. Anil Trigunayat, Former Ambassador of India to Jordan, Libya and Malta; Ms Suhasini Haidar, Diplomatic Affairs Editor, The Hindu; and Lt. Gen Raj Shukla, Member, UPSC, as the discussants for the book, along with the author.

The discussion brought together diplomats, military thinkers, and journalists to examine a conflict that continues to unfold even as the book attempts to chart its course. Col. Agarwal shared that the work, though centred on Gaza, is deeply connected to the wider war, arguing that the war in Iran could not have unfolded as it did without the events of 7 October 2023. He described the book as an effort to combine smaller articles into groups that explain a conflict and human tragedy whose full meaning will only be understood with the passage of time.

The panel further deliberated upon the limits of force and deterrence, how Israel achieved operational successes, like targeted assassinations and the limiting of adversary capabilities, while it failed to lay out clear military and political objectives. The discussion highlighted how deterrence is no longer absolute, that even nuclear deterrence has lost its certainty, and that the strategic conversion of military victory remained underwhelming. The conversation situated the conflict within an emerging Cold War 2.0, marked by active external involvement and a contest over the very nature of global order.

The panel also dwelt on the question of where India stands. They further remarked on how a decade of shocks, from the Ukraine war to the conflicts in Gaza and Iran, has damaged India’s connectivity ambitions, with plans such as Chabahar, IMEC, the INSTC, and I2U2 now appearing far less feasible. The dialogue drew lessons for India in strategic communication, the auditing of defence priorities, and a decisive turn towards the sea and the Indian Ocean, while suggesting that any future Indian role in Gaza would lie in reconstruction rather than direct involvement.

The session ended with a recognition of the humanitarian impact of the conflict and the extended repercussions of Israel’s tactical successes for regional stability. The panelists also discussed the viability of the two-state solution, the shift from multipolarity to bipolarity and the importance of international institutions, along with social media and how it influences global sentiment. Through Col. Agarwal’s remarks and the panel’s varied viewpoints, the panel stressed the importance of strategic and macro analysis in understanding a conflict whose final chapter remains unwritten.

 

Angkor Dialogue 2026, Siem Reap, Cambodia

India Foundation in collaboration with the Asian Vision Institute of Cambodia organised the Inaugural Angkor Dialogue under the theme of “Fostering civilisational and strategic confluence between India and the Mekong region” on 06 June 2026 in Siem Reap, Cambodia. The dialogue gathered policymakers, diplomats, and scholars from India and Mekong countries to rigorously evaluate the geoeconomic and geopolitical integration between India and the Mekong sub-region. The discussions in dialogue signaled a definitive evolution in bilateral relations, transitioning from a reliance on historical and civilisational goodwill toward the operationalisation of concrete strategic objectives under the frameworks of India’s Act East Policy (AEP) and the Mekong-Ganga Cooperation (MGC) mechanism. The dialogue was structured around four comprehensive plenary sessions that meticulously mapped this trajectory, spanning from civilisational cartography and Indic heritage to the contemporary imperatives of trade, sustainable connectivity, and the Mekong’s role as a strategic pivot in India’s Act East Policy and Indo-Pacific architectures.

Dr. Chheng Kimlong, President of Asian Vision Institute, welcomed all delegates to Siem Reap, Cambodia. In his welcome address, Dr. Ram Madhav, President of the India Foundation, articulated the foundational civilisational bonds uniting the two regions, utilizing the cultural parallels between India’s veneration of the Ganges and the Mekong, translated as “Mae Khong” or Mother Khong and Maa Ganga. The discourse deliberately pivoted from historical romanticism to pragmatic developmental and economic cooperation. Dr Madhav said that “Southeast Asian countries are looking towards the West alongside looking North. India has its own Act East initiative through which we focus heavily on our relations with the East.” To address the connectivity deficit and institutionalise the strategic convergence of the Mekong region’s “Look West” inclination with India’s “Act East” mandate, Dr Madhav proposed that the Angkor Dialogue transition into a reciprocal annual mechanism, with Varanasi suggested as the prospective host city for 2027.

Providing a macro-strategic perspective, H.E. Vanlalvawna Bawitlung, Ambassador of India to Cambodia, anchored the dialogue firmly within the ASEAN-India Comprehensive Strategic Partnership. His remarks underscored the high-level political capital invested in this relationship, evidenced by Prime Minister Narendra Modi’s participation in the 22nd ASEAN-India Summit in October 2025 – marking his twelfth such engagement – and his subsequent first state visit of 2026 to Malaysia. A critical geopolitical alignment was emphasized by Ambassador Bawitlung between the ASEAN Outlook on the Indo-Pacific (AOIP) and India’s Indo-Pacific Oceans Initiative (IPOI). This institutional convergence is deemed essential for advancing shared interests in maritime security, capacity building, and sustainable development across Indo-Pacific sea lines of communication. Furthermore, Ambassador Bawitlung also spoke on forward-looking mechanisms, including the ASEAN-India Digital Work Plan 2026 and proposed collaborative frameworks on green hydrogen, indicating a strategic shift toward high-tech, resilient geoeconomic statecraft.

The Keynote Address at the inaugural Angkor Dialogue was delivered by His Excellency Suos Yara, who serves as the Chairman of the Committee on Foreign Affairs, International Cooperation, and Information of the National Assembly of Cambodia, as well as the Chairman of the Asian Cultural Council (ACC). His keynote address emphasised on strengthening strategic partnerships, economic cooperation, and connectivity through collaborative frameworks like India’s Act East Policy and the Mekong-Ganga Cooperation.

The inaugural session was followed by four thematic plenary sessions. The discussions in the plenary session mapped the strategic evolution of India-Mekong relations, transitioning from historical foundations to contemporary geopolitical architectures. Beginning with an examination of shared Indic heritage, Plenary session I established a civilisational baseline of mutual trust by mapping the region’s cultural cartography. Plenary session II focused on geoeconomic imperatives, specifically the necessity of building an India-Mekong developmental corridor focused on trade, connectivity, resilient supply chains, and sustainable developments. Plenary session III elevated the analysis to the traditional and non-traditional security domains, critically assessing the Mekong sub-region as a vital strategic pivot for maritime security, peace, and stability. Finally, Plenary session IV synthesised these cultural, economic, and security dimensions by evaluating the overarching institutional policy architectures – mainly India’s Act East Policy (AEP) and the Mekong-Ganga Cooperation (MGC) mechanism – required to formalise a rules-based, forward-looking integration strategy for the road ahead.

The Angkor Dialogue concluded with the closing remarks by H.E. Khy Sovanratana, Secretary of State, Ministry of Foreign Affairs and International Cooperation, Cambodia, who contextualized the partnership against the backdrop of complex regional transformations. He emphasised on the vulnerability of the Mekong sub-region to non-traditional security threats and also spoke on the escalating climate crisis and the urgent need for robust trans-boundary water management protocols.

Overall, the inaugural Angkor Dialogue successfully positioned itself as a vital intellectual incubator designed to complement existing multilateral frameworks, transforming shared riverine and maritime heritage into a modernised and resilient strategic partnership.

 

IF-IHC PANEL DISCUSSION ON ‘THE GEOPOLITICS OF ENERGY SECURITY’

On 26 May, 2026, India Foundation, in collaboration with India Habitat Centre, organised a panel discussion on ‘The Geopolitics of Energy Security’, bringing together Shri Sunjoy Joshi, Chairman, Observer Research Foundation; Dr Vibha Dhawan, Director General, The Energy and Resources Institute; and Professor Sachin Kumar Sharma, Director General, Research and Information System for Developing Countries as the discussants for the event. The session was moderated by Captain Alok Bansal, Executive Vice President, India Foundation.

The discussion examined the growing impact of geopolitical conflicts and global market disruptions on India’s energy security. It was observed that India remains significantly dependent on imported hydrocarbons, making developments in key energy-producing regions and strategic maritime routes critical to the country’s economic and strategic interests. Particular attention was drawn to the implications of disruptions in oil and natural gas supplies, which have direct consequences for inflation, fertiliser production, industrial activity, and overall economic stability.

The panel highlighted that energy security has evolved beyond the question of supply and affordability to become closely linked with sovereignty and strategic autonomy. It was noted that sanctions, financial restrictions, and control over critical maritime choke points increasingly shape global energy flows. In this context, countries dependent on energy imports must reassess long-held assumptions about global markets and strengthen their resilience against external shocks.

The discussion also focused on India’s long-term energy transition. While acknowledging the continued importance of conventional energy sources in the foreseeable future, emphasis was placed on expanding renewable energy, strengthening nuclear power generation, and investing in storage technologies. The importance of developing diversified and reliable energy systems capable of supporting sustained economic growth was highlighted.

The role of decentralised and clean energy solutions in supporting rural development was also discussed. Renewable energy technologies, biofuels, biomass-based systems, and localised energy infrastructure were identified as important tools for enhancing energy access, reducing wastage, supporting livelihoods, and promoting sustainable development.

The economic dimensions of energy security were also examined. Rising global energy prices, growing domestic demand, and dependence on imported fuel were identified as significant challenges. It was observed that as India advances towards the goal of becoming a developed economy, energy demand will continue to rise substantially, requiring a balanced approach that combines energy security, economic growth, and environmental sustainability.

The discussion concluded with the observation that India’s energy future will require a multi-pronged strategy based on diversification, technological innovation, domestic capacity building, and international cooperation. Ensuring secure, affordable, and sustainable energy supplies was identified as a critical prerequisite for India’s long-term economic development and strategic resilience.

 

12th Katha Session: “CHILE: Land of Diverse Landscapes, Rich Culture & Ancient Mythologies”

India Foundation successfully completed one year of its Katha Session series with the organisation of the 12th session on 25 May 2026. The session marked an important milestone in the series, which has served as a platform for discussions on the culture, history, and traditions of different countries.

The session, titled “CHILE: Land of Diverse Landscapes, Rich Culture & Ancient Mythologies”, was delivered by H.E. Juan Angulo, Ambassador of the Republic of Chile to India. The session was chaired by Ambassador Amarendra Khatua, Former Secretary, Ministry of External Affairs, Government of India.

In his presentation, Ambassador Juan Angulo introduced the audience to Chile’s geographical diversity, cultural traditions, and historical heritage. He spoke about the country’s varied landscapes, ranging from deserts and mountains to glaciers and coastlines, and explained how these have influenced Chilean society and culture. He also highlighted the role of indigenous traditions, mythology, and cultural practices in shaping the country’s identity. The presentation was followed by an interactive discussion where attendees engaged with the speaker, sharing their observations and questions.

Ambassador Amarendra Khatua, in his remarks, highlighted the importance of cultural exchanges in strengthening understanding between nations and appreciated the role of the Katha Session series in promoting such dialogue.

Fifty-five participants attended the event, along with Ambassadors of Thailand and Brazil and representatives from the High Commission of Bangladesh.

 

5th Shakti Sinha Memorial Lecture

India Foundation organized the 5th Shakti Sinha Memorial Lecture on Tuesday, 19 May, 2026 on the topic “Holistic Development of Greater Nicobar Island: Imperatives and Implications” by Rear Admiral GK Garg, Distinguished Fellow, Strategic Growth and Research Foundation and Former Member of the High-Powered Committee. The lecture apprised the participants about the strategic importance of the project for securing India in lieu of China’s threat. The lecture also talked about the economic benefits of the project and how the project aims to balance development with community protection and ecological conservation.

 

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