Rare Minerals and Strategic Dependency: The Upstream Constraint Beneath India 2.0

The Meridian
India 2.0 Series · Critical Minerals
March 2026 Edition · Strategic Materials Analysis
Rare Minerals and Strategic Dependency — The Meridian
Rare Minerals and Strategic Dependency
India holds 6.9 million tonnes of rare earth oxide reserves and 13.07 million tonnes of coastal monazite. It produces roughly one per cent of the world’s rare earths. China processes ninety per cent. Ten of India’s thirty notified critical minerals carry one hundred per cent import dependency. Industrial sovereignty begins not at the factory floor but at the mine head — and that equation remains unresolved.
India 2.0 Series: This article examines the upstream mineral foundations of India’s industrial strategy, complementing Water, Infrastructure and Logistics, Energy Architecture, Food Power Under Climate Stress, Pax Silica, Defence Manufacturing and Fiscal Trade-Offs, Industrial Depth or Assembly Illusion? and the cover story India 2.0: Power or Promise?  ·  March 2026
India’s industrial ambitions in semiconductors, defence manufacturing and clean energy rest on materials it does not control. According to USGS Mineral Commodity Summaries 2025, India holds 6.9 million tonnes of rare earth oxide reserves and produces approximately 2,900 tonnes annually — roughly one per cent of global output against China’s 68 to 70 per cent mining share and 90 per cent processing dominance. Of the 30 critical minerals notified by the Ministry of Mines in 2023, ten carry one hundred per cent import dependency including lithium, cobalt and nickel. India’s dependence on imported rare earth permanent magnets — the components at the heart of electric vehicle motors, wind turbines and precision defence systems — stands at 92 per cent, with China as the primary source. The policy architecture to address this is taking shape: KABIL has acquired lithium brine blocks in Argentina, the MMDR Amendment Act 2023 has opened six atomic minerals to private sector auction, and the J&K lithium find of 5.9 million tonnes at Reasi has been auctioned for exploration. The structural gap between reserves and production, and between policy framework and operational processing capacity, remains the defining upstream constraint of the India 2.0 programme.
I. Industrial Power Begins Upstream

There is a useful illusion embedded in the language of industrial policy. We speak of factories, fabrication plants, defence corridors and clean energy parks as though they are the foundations of industrial capability. They are not. They are the visible end of a supply chain whose most strategically consequential nodes sit much further back — in the mines, separation plants and refining facilities where raw material becomes usable input. A semiconductor fabrication facility cannot function without ultra-pure silicon wafers, specialty gases and rare earth-dependent polishing compounds. An electric vehicle motor cannot turn without neodymium and dysprosium in its permanent magnets. A missile guidance system cannot navigate without the rare earth alloys that make its sensors work. Industrial power in the twenty-first century is, at its foundation, chemical and mineralogical before it is mechanical or digital.

India has grasped this logic intellectually. The Ministry of Mines notified 30 critical minerals in 2023. The MMDR Amendment Act of the same year opened previously restricted atomic minerals to private sector exploration. KABIL — the Khanij Bidesh India Ltd joint venture of NALCO, HCL and MECL — was created specifically to acquire mineral assets overseas. The Critical Minerals Mission has received a ₹1,000 crore allocation for FY2026–27. The J&K lithium deposit has been auctioned. Rare Earth Corridors covering Odisha, Kerala, Andhra Pradesh and Tamil Nadu are being structured. The policy architecture exists. What has not yet been built is the operational infrastructure that sits between a policy framework and genuine upstream capability: the separation plants, the magnet manufacturing facilities, the metallurgical processing depth and the multi-decade industrial ecosystems that translate geological endowment into strategic leverage.

II. The Geography of Concentration

Rare earth elements are not geologically rare. Cerium is more abundant in the earth’s crust than copper. What makes rare earths strategically sensitive is not their scarcity but their economic concentration — specifically, the concentration of processing and refining capacity in a single country. China accounts for approximately 68 to 70 per cent of global rare earth mining, according to USGS Mineral Commodity Summaries 2025. Its share of processing is significantly larger: roughly 90 per cent of separated rare earth oxides and an estimated 99 per cent of heavy rare earth processing, which includes the dysprosium and terbium that give high-performance permanent magnets their heat resistance. These are not mining statistics. They are processing statistics, and processing is where the value and the strategic leverage actually reside.

Beyond rare earths, the concentration pattern is consistent across multiple critical mineral categories. Lithium supply is centred in the so-called Lithium Triangle of Chile, Argentina and Bolivia for brine deposits, with Australia dominating hard-rock spodumene production. Cobalt production is overwhelmingly concentrated in the Democratic Republic of Congo, which supplies roughly 70 per cent of global output. Nickel supply chains are increasingly shaped by Indonesia, which has used export restrictions on raw ore to force downstream processing investment within its borders — a model of mineral nationalism that other resource-rich countries are studying. Graphite, essential for EV battery anodes, is dominated by China at both the natural and synthetic production stages. Each of these materials appears on India’s 30-mineral critical list. For ten of them, India is currently one hundred per cent import dependent.

India’s Critical Mineral Import Dependency — Highest-Risk Category, 2024–26
MoC / NITI Aayog Verified
Lithium 100% imported EV batteries • grid storage • 5.9Mt J&K find auctioned 2024–25
Cobalt 100% imported Battery cathodes • superalloys • DRC supplies ~70% global output
Nickel 100% imported High-energy batteries • stainless steel • Indonesia dominant
Germanium 100% imported Fibre optics • infrared optics • China export controls: 1 Aug 2023
Vanadium 100% imported Grid-scale vanadium flow batteries • high-strength steel alloys
Niobium 100% imported Jet engine alloys • superconductors • Brazil controls ~90% supply
Rhenium 100% imported Superalloys for turbine blades • catalysts • critical for defence engines
Beryllium 100% imported Aerospace structures • nuclear reactors • X-ray windows
Tantalum 100% imported Capacitors for electronics • medical implants • DRC / Australia supply
Strontium 100% imported Ferrite magnets • pyrotechnics • Spain / China primary suppliers
Rare Earth Permanent Magnets 92% imported EV motors • wind turbines • missile guidance • China primary source. MoC / NITI Aayog 2024.
Heavy Rare Earths (Dy, Tb) ~99% China-processed High-performance magnets • China controls ~99% of global separation. USGS MCS 2025.
Sources: 100% import dependency figures: Ministry of Commerce / NITI Aayog, Strategy for Critical Mineral Security (2024). REPM 92% dependence: same source. China processing shares: USGS Mineral Commodity Summaries 2025. 30 critical minerals list: Ministry of Mines, Critical Minerals for India (2023). China export controls on gallium and germanium: imposed 1 August 2023. These twelve minerals represent the highest-risk tier. India’s full 30-mineral critical list includes Antimony, Beryllium, Bismuth, Cadmium, Cobalt, Copper, Gallium, Germanium, Graphite, Hafnium, Indium, Lithium, Molybdenum, Nickel, Niobium, PGE, Phosphorous, Potash, REE, Rhenium, Selenium, Silicon, Strontium, Tantalum, Tellurium, Tin, Titanium, Tungsten, Vanadium and Zirconium.
III. India’s Resource Base: Reserves Versus Production

India’s geological endowment in rare earths is significant. USGS Mineral Commodity Summaries 2025 places India’s total rare earth oxide reserves at 6.9 million tonnes — a figure that positions it among the world’s larger reserve holders. India’s coastal monazite sands alone represent 13.07 million tonnes of monazite, distributed across Andhra Pradesh (3.82 million tonnes), Odisha (3.06 million tonnes), Tamil Nadu (2.46 million tonnes), Kerala (1.84 million tonnes) and West Bengal (1.20 million tonnes). Monazite is a primary source of both rare earth elements and thorium, which has historically been managed as a strategic atomic material under the jurisdiction of the Atomic Minerals Directorate. That designation, which restricted private sector involvement, was a significant factor in limiting the pace of development.

The gap between India’s reserve position and its production position is striking. Annual rare earth production stands at approximately 2,900 tonnes of REO equivalent — roughly one per cent of global output. China produces 68 to 70 per cent. The contrast is not primarily geological but institutional and industrial: China built its rare earth processing ecosystem over four decades, with state support, vertically integrated industrial clusters, and — during the early phase of development — environmental regulations that were less costly to comply with than those India would apply today. Building an equivalent ecosystem from India’s current base, to the environmental standards that contemporary governance requires, is a fundamentally different and more demanding task than replicating what China did. The five to seven-year greenfield timeline for a rare earth separation facility, cited by industry, understates the full ecosystem development challenge: a single separation plant is one node in a chain that must also include mining, beneficiation, magnet fabrication and component integration to deliver genuine upstream sovereignty.

IV. The J&K Lithium Find: What It Means and What It Does Not

In 2023, the Geological Survey of India announced inferred resources of 5.9 million tonnes of lithium in the Reasi district of Jammu and Kashmir — a discovery that immediately became headline news. To contextualise the figure: Chile’s measured lithium reserves are approximately 9.3 million tonnes, Argentina holds 6.2 million tonnes and Australia 5.7 million tonnes. At 5.9 million tonnes, the J&K deposit is geologically significant. It would place India among the world’s major lithium resource holders if the inferred classification is confirmed and upgraded through systematic drilling and resource estimation.

There are important caveats. The resource is classified at G3 — preliminary exploration — in India’s geological classification system, which corresponds to an inferred resource in the JORC international framework. An inferred resource represents the lowest confidence category of mineral resource estimation: the deposit has been identified from limited geological evidence and reasonable but unconfirmed projections. The block was auctioned to the private sector in 2024–25 for further exploration, which is the correct next step. The distance from an inferred G3 resource to a producing mine in a difficult Himalayan terrain involves detailed feasibility studies, environmental impact assessment, infrastructure development, beneficiation plant construction and, for lithium from this type of deposit, the development of appropriate processing technology for the specific ore type. The discovery is significant. The timeline from discovery to production is measured in years or decades, not months.

“India holds 6.9 million tonnes of rare earth oxide reserves and produces roughly one per cent of global output. The distance between geological endowment and strategic leverage is the distance between a reserve estimate and an operational processing ecosystem. That distance is measured in decades, not policy announcements.”

V. China’s Export Controls: The Risk Made Concrete

For much of the past decade, India’s critical mineral vulnerability was discussed in theoretical terms: supply disruption was a risk, concentration was a concern, diversification was a goal. From August 2023 onwards, the risk became operational. China imposed export licence requirements for gallium and germanium on 1 August 2023, citing national security grounds. Both minerals appear on India’s 30-mineral critical list. Gallium is used in compound semiconductor manufacturing — directly relevant to India’s Pax Silica ambitions discussed in an earlier article in this series. Germanium is essential for fibre optic cables and infrared optics. India imports one hundred per cent of its germanium requirement. The export licensing regime does not prohibit exports but introduces a discretionary approval mechanism that can be applied selectively, at short notice, without requiring a formal policy change.

On 1 December 2023, China expanded its controls to cover high-purity synthetic graphite, a critical input for the anodes of lithium-ion batteries used in electric vehicles and grid storage. In 2024, China tightened rare earth export permit requirements to include traceability of origin and processing technologies — a measure that limits the ability of importing countries to re-export or reverse-engineer the processing methods embedded in refined rare earth products. The sequencing of these controls tells its own story. The minerals targeted are not the most abundant or the cheapest; they are specifically the ones where China’s processing dominance creates the greatest downstream dependency. India’s policy response — the Critical Minerals Mission, KABIL’s overseas acquisitions, the MMDR amendments — was in motion before the controls were imposed. Their imposition has compressed the timeline within which that response must deliver results.

Rare Earth Processing Chain — India’s Position vs China’s Dominance by Stage
USGS / Industry Verified
India’s current operational capability
China’s share of global capacity
Mining (ore extraction)
~1% global share
China ~68–70%
USGS MCS 2025
Beneficiation & concentration
Limited
China ~75%+
IREL / Industry
Chemical separation (REO)
China ~90% of global separated REO — 10–12 MWh/tonne
Critical bottleneck
Heavy REE processing (Dy, Tb)
China ~99% — subject to 2024 export traceability controls
Near-monopoly
RE permanent magnet mfg
8%
India: 92% REPM import dependency
MoC / NITI 2024
System integration (EV / defence)
Growing domestic manufacturing
China dominant in EV systems
Policy target
Sources: Mining share: USGS Mineral Commodity Summaries 2025. Processing shares: USGS / IEA Critical Minerals Market Review. REPM import dependence 92%: Ministry of Commerce / NITI Aayog, Strategy for Critical Mineral Security (2024). Energy requirement for chemical separation ~10–12 MWh per tonne REO: industry benchmark. China’s 30–40% lower opex/capex advantage due to vertically integrated hubs and historical environmental cost differentials. Greenfield separation plant timeline: 5–7 years from site acquisition. China cost benchmark for light rare earth separation: approximately US$10–15 per kg. Bar widths illustrative; India’s teal bars represent current operational capability at each stage.
VI. KABIL and the Diplomacy of Mineral Security

Khanij Bidesh India Ltd was formed as a joint venture between NALCO, which holds a 40 per cent stake, HCL with 30 per cent and MECL with 30 per cent, with a mandate to identify, acquire and develop strategic mineral assets overseas. The model follows the precedent set by Japan’s JOGMEC and South Korea’s KORES — state-backed overseas acquisition vehicles designed to secure upstream material supply outside the country’s own geological boundaries. In Argentina’s Catamarca Province, KABIL has agreed to explore and mine five lithium brine blocks covering approximately 15,700 hectares, with exploration commenced in 2024. Under the India-Australia Critical Minerals Investment Partnership, a US$2 million commitment covers due diligence on five critical mineral projects covering lithium and cobalt.

These are real commitments, and they represent the correct strategic direction. They also need to be assessed honestly against the scale of the challenge. Five lithium brine blocks in Catamarca, at 15,700 hectares, is a meaningful first step in a global resource landscape where the largest producing operations span hundreds of thousands of hectares and are managed by companies with decades of lithium extraction experience in challenging brine environments. The US$2 million Australia commitment is a due diligence allocation, not a production investment. India’s mineral security challenge is not that KABIL does not exist — it does, and it is active. The challenge is that KABIL’s current portfolio reflects the early stage of an overseas acquisition programme that, to deliver meaningful supply security, must grow substantially in both scale and pace over the next decade. Mineral security in the modern era is diplomatic before it is geological, and India’s mineral diplomacy is in an early but real phase of development.

VII. The MMDR Amendment and Rare Earth Corridors

The Mines and Minerals (Development and Regulation) Amendment Act of 2023 made a change to India’s mining governance that had been resisted for decades: it removed six minerals, including lithium and niobium, from the list of atomic minerals that could only be mined by government agencies. Under the amended framework, these minerals can now be auctioned to the private sector through a global tender mechanism. This matters because the pace of India’s upstream mineral development has been constrained not only by investment and technology gaps but by the institutional restriction that concentrated exploration and extraction rights in entities that lacked the capital, the technology and the commercial incentive to develop them at the pace that the India 2.0 strategy requires. Opening these minerals to private sector competition — including international companies with relevant processing expertise — removes a structural constraint that policy alone cannot substitute for.

The Rare Earth Corridors being structured across Odisha, Kerala, Andhra Pradesh and Tamil Nadu aim to integrate extraction, processing and downstream manufacturing within defined geographies. The rationale is straightforward: co-locating mining, beneficiation, separation and magnet fabrication reduces transport costs, allows waste streams from one stage to serve as inputs for another, and builds the workforce and knowledge infrastructure that a mature processing ecosystem requires. The four states are the same states that hold the majority of India’s coastal monazite reserves. Andhra Pradesh alone holds 3.82 million tonnes of monazite. The corridor concept is sound. Execution requires resolving the Atomic Minerals Directorate’s legacy role in monazite governance, establishing the separation plant CAPEX at sufficient scale — the 30 to 40 per cent cost disadvantage relative to China implies that India will need policy support at the processing stage, not only at the exploration stage — and completing the environmental governance framework that the September 2025 EIA changes set in motion.

VIII. The Critical Mineral Exploration Rebate

The Critical Mineral Exploration Rebate, operationalised through the Ministry of Mines and disbursed via the National Mineral Exploration Trust in the 2026–27 policy framework, is designed to de-risk the discovery phase for junior mining companies — smaller, specialised exploration firms willing to undertake the high-risk, capital-intensive work of finding critical minerals in deep or complex geological settings. The rebate structure is tiered by exploration stage. At the G4 reconnaissance level, covering remote sensing, aerial geophysical surveys and regional geological mapping, firms can recover 25 to 35 per cent of eligible costs. At G3 preliminary exploration — systematic surface sampling, trenching and initial wide-spaced drilling — the rebate rises to 40 to 50 per cent. At G2 general exploration, involving close-spaced drilling and initial metallurgical testing to establish indicated resources, the rebate is up to 25 per cent. A discovery grant of between ₹50 lakh and ₹2 crore is available when a G3 or G2 lead results in a successfully auctionable block.

The rebate mechanism addresses a real market failure. The exploration-to-discovery phase of critical mineral development carries the highest failure probability and the longest lag before any commercial return. Private capital, unaided, will systematically underinvest in this phase relative to what is socially optimal given the strategic value of the minerals in question. The CMER is a calibrated subsidy at the stage where it is most needed. The mechanism also includes a data-sharing requirement: to receive the rebate, the private explorer must share all geophysical and chemical data with the National Geospatial Data Repository. This builds India’s national geological knowledge base as a by-product of private sector exploration incentives. The partial surrender clause — which allows a junior miner who cannot finance a processing plant to sell exploration data and rights through a government-mediated transparent secondary market — is a sensible liquidity mechanism that prevents valuable discoveries from sitting dormant because the explorer lacks the capital for the next stage.

India Critical Minerals: Key Verified Metrics — 2025–26
USGS / MoM / KABIL Verified
Reserve Position 6.9 Mt REO India’s total rare earth oxide reserves (USGS MCS 2025). Plus 13.07 Mt coastal monazite across 5 states. Plus 5.9 Mt lithium (inferred, J&K Reasi, auctioned 2024–25). Reserves are not production.
Production Gap ~1% share India’s global rare earth mining share (~2,900 t/year REO) vs China’s 68–70%. China processes 90% of separated REOs, ~99% of heavy rare earths. 10 minerals at 100% import dependency.
Overseas Acquisition KABIL Argentina: 5 lithium brine blocks ~15,700 ha, Catamarca Province, exploration commenced 2024. Australia: US$2M for 5 Li/Co projects. NALCO 40%, HCL 30%, MECL 30%. Early but active.
Sources: REO reserves: USGS Mineral Commodity Summaries 2025. Monazite state-wise: GSI / AMD. J&K lithium: GSI inferred resource (G3 classification), Reasi District, auctioned 2024–25. Production and China shares: USGS MCS 2025. KABIL Argentina: CAMYEN agreement for exploration and mining rights, Catamarca Province. KABIL Australia: India-Australia Critical Minerals Investment Partnership. 100% import dependency: Ministry of Commerce / NITI Aayog, Strategy for Critical Mineral Security (2024).
IX. Environmental Governance and the EIA Question

Rare earth mining and processing carries a specific environmental burden that is neither theoretical nor marginal. Monazite contains thorium, a radioactive element whose management requires specialised handling, storage and waste disposal protocols. Rare earth separation involves acids, solvents and chemical reagents that generate significant liquid and solid waste streams. The history of rare earth processing in China, Malaysia and other producing countries includes documented instances of radioactive contamination, acid mine drainage and groundwater contamination that took years and substantial remediation investment to address. India’s coastal monazite resources are located in ecologically sensitive beach sand environments in four states. The Rare Earth Corridors in those states must navigate the intersection of strategic mineral ambition and genuine ecological risk.

In September 2025, the Ministry of Environment, Forest and Climate Change notified that mining projects for atomic and critical minerals under Parts B and D of the MMDR Act are exempt from public consultation under the Environmental Impact Assessment Notification 2006. Centralised appraisal at the federal level was retained regardless of lease area size. Despite the exemption from public consultation, EIA and Environmental Management Plan reports must incorporate impact mitigation for local habitations, creation of social infrastructure including medical facilities and drinking water, and skill development and employment provisions. Mining in Coastal Regulation Zone areas is subject to Zero Liquid Discharge standards. The Rare Earth Corridors are being designed to align with India’s Net Zero 2070 goal. The exemption from public consultation is administratively efficient and strategically convenient. Whether it is adequate to manage the genuine environmental risks associated with rare earth processing at scale — in ecologically sensitive coastal zones, in communities that have not had a formal opportunity to assess the trade-offs — is a question that environmental governance must answer honestly, not strategically.

X. The Global Scramble and India’s Positioning

India is not the only country that has recognised the strategic significance of critical minerals. The United States Inflation Reduction Act of 2022 built critical mineral supply chain requirements into its clean energy investment incentives, effectively creating a financial preference for minerals sourced from countries with free trade agreements with the US or from domestic production. The EU’s Critical Raw Materials Act, adopted in 2024, sets binding targets for member states: 10 per cent of annual consumption from domestic extraction, 40 per cent from domestic processing and 25 per cent from recycling, all by 2030. Japan’s JOGMEC has been active in overseas mineral acquisition for decades, with a portfolio of strategic mineral assets across Africa, Latin America and Australia that India is only now beginning to build. South Korea, Taiwan and the United States are all investing in the rare earth processing capacity outside China that their semiconductor and defence industries require.

India’s bilateral mineral architecture includes the India-US Initiative on Critical and Emerging Technologies, signed in January 2023, which includes a Critical Minerals Track for supply chain diversification and joint processing research and development. The India-Australia Critical Minerals Investment Partnership provides the framework for KABIL’s Australian activities. Engagement with African mineral-producing countries is expanding. The direction is correct. The pace, relative to the acceleration of the global competition for mineral assets and processing capacity, is the variable that will determine whether India secures meaningful upstream positions or finds itself competing for the remaining available assets after earlier movers have taken the most strategically valuable ones. Mineral security in the modern era is diplomatic before it is geological, and the diplomacy is already well advanced among India’s competitors.

XI. From Ambition to Timeline

The honest account of India’s critical mineral timeline requires confronting an uncomfortable arithmetic. A greenfield rare earth separation plant takes five to seven years from site acquisition to full commissioning, under favourable conditions. Building India’s first industrial-scale separation plant — assuming site identification, CAPEX mobilisation, technology licensing, environmental clearance and construction proceed without significant delays — means that meaningful domestic processing capacity is a 2030 to 2032 prospect at the earliest. The Rare Earth Corridors, the KABIL overseas acquisitions and the CMER exploration incentives are all initiating actions in a process whose outputs are measured in years or decades, not budget cycles. The India 2.0 industrial programme, as documented across this series, is building semiconductor fabs, defence manufacturing corridors and clean energy infrastructure on timelines of three to five years. The upstream mineral ecosystem that those industries require is on a ten to twenty-year development horizon.

This does not make the upstream investment less necessary. It makes it more urgent. The five to seven-year greenfield timeline means that investment decisions made in 2026 create production capacity in 2031 to 2033. Decisions deferred to 2028 or 2030 create capacity only in 2033 to 2037. Every year of delay in committing to large-scale processing investment extends the period during which India’s semiconductor fabs, EV manufacturers and defence systems depend on minerals that a single country can restrict at administrative discretion. The ₹1,000 crore Critical Minerals Mission allocation for FY2026–27 is a start. China’s state and private investment in its rare earth processing ecosystem is measured in tens of billions of dollars accumulated over four decades. The order-of-magnitude gap between India’s current investment level and what a genuinely competitive upstream ecosystem requires is the most important number in this article.

Critical Mineral Supply-Chain Readiness for Advanced Manufacturing — Verified Assessment, Feb 2026
Editorial Assessment
Geological Reserve Base
Strong
6.9 Mt REO reserves (USGS 2025), 13.07 Mt coastal monazite across 5 states, 5.9 Mt lithium (inferred, J&K Reasi). Reserve base is substantial. Conversion to production is the structural gap. GSI / USGS MCS 2025.
Policy and Legal Framework
Partial
30 critical minerals notified (2023). MMDR Amendment 2023 opens Li, Nb and 4 others to private auction. Critical Minerals Mission ₹1,000 Cr FY26–27. CMER rebate scheme operational. Framework exists; implementation pace is the variable. Ministry of Mines 2023–26.
Domestic Mining Production
Critical Gap
~2,900 t/year REO (~1% global share) vs 6.9 Mt reserves. IREL production constrained. J&K lithium at G3 inferred stage, auctioned for exploration. 10 minerals at 100% import dependency. USGS MCS 2025 / MoC 2024.
Domestic Processing Capacity
Critical Gap
China: ~90% separated REO, ~99% heavy REE. India: negligible separation capacity. REPM 92% imported. Greenfield plant timeline: 5–7 years. China cost advantage: 30–40%. Energy: 10–12 MWh/t REO. Processing is the defining bottleneck. USGS / Industry 2025.
Overseas Mineral Acquisition
Gap
KABIL: Argentina 5 Li brine blocks ~15,700 ha, Catamarca, exploration commenced 2024. Australia: US$2M for 5 Li/Co projects. India-US ICET (Jan 2023) Critical Minerals Track. Early-stage but operationally active. Scale needed to match Japan/Korea. KABIL 2024.
Import Dependency Exposure
Critical Gap
10 minerals at 100% import dependency. REPM 92% China-sourced. China export controls: Ga/Ge (1 Aug 2023), graphite (1 Dec 2023), REE traceability (2024). Supply disruption risk is no longer theoretical — it is an active policy instrument. MoC / NITI 2024.
Exploration Incentive Architecture
Partial
CMER: G4 25–35%, G3 40–50%, G2 up to 25% rebate. Discovery grant ₹50L–₹2Cr. NMET disbursement with NGDR data-sharing requirement. Partial surrender clause enables junior miner liquidity exit. Sound design; delivery scale to be assessed. Ministry of Mines 2025–26.
Environmental Governance
Gap
Sept 2025: MoEFCC exempts critical/atomic mineral projects from EIA public consultation. Centralised appraisal retained. ZLD standards apply in CRZ areas. EIA/EMP mandatory despite consultation exemption. Coastal monazite in ecologically sensitive zones. Long-term social licence risk. MoEFCC 2025.
Status categories reflect structural adequacy for securing the upstream mineral supply chains required by India’s semiconductor, defence and clean energy manufacturing programmes. Strong = adequate for purpose; Partial = framework exists but execution scale insufficient; Gap = structural shortfall requiring sustained investment and governance action; Critical Gap = binding constraint that cannot be resolved within a single budget cycle and represents immediate supply-chain risk. All assessments based on verified data from USGS, Ministry of Mines, Ministry of Commerce / NITI Aayog and KABIL as of February 2026.
Structural Assessment

India’s critical mineral position in February 2026 is characterised by a striking paradox: the country holds 6.9 million tonnes of rare earth oxide reserves, 13.07 million tonnes of coastal monazite and a 5.9-million-tonne lithium discovery in Jammu and Kashmir, yet it imports one hundred per cent of its lithium, cobalt, nickel and germanium requirements and sources 92 per cent of its rare earth permanent magnets from China. The policy architecture to address this — the 30-mineral critical list, the MMDR amendments, KABIL’s overseas acquisitions, the CMER exploration rebate and the Rare Earth Corridors — represents genuine and serious policy effort. The operational infrastructure that would translate this effort into actual processing capacity does not yet exist at meaningful scale.

China’s 2023 and 2024 export controls on gallium, germanium, graphite and rare earth processing technologies have made the theoretical supply-chain risk concrete. The minerals controlled are not random; they are precisely the materials where China’s processing dominance creates the greatest leverage over India’s most strategically important industries. The response — KABIL, the ICET Critical Minerals Track, the CMER, the Rare Earth Corridors — is directionally correct and operationally active. It is also, in its current scale and pace, insufficient to the timeline that India’s semiconductor, defence and clean energy ambitions require.

Industrial power in the twenty-first century is chemical before it is mechanical. It is molecular before it is digital. India’s Rare Earth Corridors and Critical Minerals Mission reflect genuine recognition of this truth. Whether they mature into operational processing capability — rather than symbolic extraction and ambitious corridor designations — will determine the credibility of every other element of the India 2.0 industrial strategy. The factories are being built. The minerals they depend on are not yet secured. Durability begins upstream.