India’s critical minerals imperative — NCMM progress & 2030 ambition
National context, progress under the National Critical Minerals Mission, and 2030 targets.
India’s critical minerals imperative — from supply security to domestic value creation.
Indicative programme — may change as speakers are confirmed.
National context, progress under the National Critical Minerals Mission, and 2030 targets.
Geopolitical shifts, concentration of supply, diversification strategies and India’s positioning. Outcome: policy and partnership recommendations.
Global demand-supply analysis, key risk factors and the investment priorities shaping the landscape.
Supply chain vulnerability, import dependence, resilience strategies and pathways to long-term sustainability for India.
Primary extraction challenges, emerging technologies, process optimisation and opportunities for India.
AI, robotics, IoT, predictive maintenance, automation, electrification and remote operations in exploration and processing.
Supply requirements and strategic sourcing for advanced manufacturing, semiconductor and defence applications.
The conference chair summarises key takeaways and sets the stage for Day 2.
Demand drivers across EVs, automotive components, electronics, batteries and clean-energy technologies.
Collection and recycling pathways, recovery technologies, safe handling and design-for-recycling to strengthen India’s secondary supply.
REE magnet manufacturing, technology transfer models and a competitive Indian permanent magnet value chain.
Demand drivers and supply requirements across storage, electronics and advanced manufacturing.
The full battery materials value chain — exploration, processing, recycling and opportunities for India.
Secondary supply as a strategic national asset and pathways to scale urban mining in India.
Take-back systems, collection networks, sorting, traceability, pre-processing and recycler partnerships back into manufacturing.
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Critical minerals are the vitamins of modern technology: EVs, electronics, defence and renewables cannot run without them, and India imports most of what it uses.
How does India secure, process, recycle and manufacture with critical minerals — and become self-reliant by 2030?
India depends almost entirely on imports for the minerals behind batteries, electronics and clean energy.
of the lithium, cobalt and nickel India used in 2020.
of the graphite, the anode material in lithium-ion cells, India used in 2020.
covered by the National Critical Mineral Mission (2024-25 to 2030-31), which aims to identify 1,200 deposits by 2030.
Source: Ministry of Mines data for 2020 (published 2023), as reported by Mongabay India; Union Cabinet approval of the National Critical Mineral Mission, January 2025.
Critical minerals are extremely important for modern life — but difficult or risky to obtain. EVs, electronics, defence and renewables can’t work without them, and India imports most of what it uses.
The key metal in rechargeable batteries
Makes EV batteries stronger and longer-lasting
Battery performance and safety
The anode side of lithium-ion cells
17 metals behind permanent magnets
Wiring and electrification
Policy & geopolitics → Global outlook → Supply security → Extraction tech → AI & innovation
Demand → Recovery → Rare earth magnets → Battery materials → Urban mining → Roadmap 2030
Keynotes run 15 minutes, panels 60. Lunch tables are grouped by theme: Policy, Exploration, Processing, Finance.
We’re confirming practitioners, regulators and investors for every slot. Register to hear first.




A short glossary so first-timers and specialists start from the same page.
National Critical Minerals Mission — India’s programme to find, extract, process and recycle critical minerals.
Rare Earth Elements — 17 metals needed for the permanent magnets in EV motors, wind turbines and defence systems.
Very strong magnets that keep their magnetism — critical for EV motors and turbines.
Recovering valuable metals from e-waste, batteries and industrial residues instead of new mines.
The shredded, metal-rich powder recovered from spent lithium-ion batteries.
Relying on other countries for most supply — leaving industry exposed to price shocks and cut-offs.