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220 GWh
Projected Li-ion Demand in India 2022–2030
30%

EV Penetration Target by 2030 (from 6% in 2023)

90%
Share of LiB Applications Driven by EV Demand
8
Core Battery Minerals Across the Full Supply Chain

India's Battery Imperative

Driven by electric vehicle demand, India’s requirement for Li-ion batteries is projected to reach 220 GWh between 2022 and 2030. This creates an acute and compounding demand signal across every mineral in the battery supply chain. Advanced cell chemistry is reshaping which minerals matter most. LFP (Lithium Iron Phosphate) cathodes are capturing a growing market share, while manganese-rich chemistries, sodium-ion and lithium metal platforms are emerging as next-generation alternatives — each with distinct mineral footprints and supply chain implications for India.
Source: CES Research & Analysis · India Battery Manufacturing & Supply Chain Council

Li-ion Battery Value Chain

UPSTREAM

Mining & Concentrate

— Aluminium (Bauxite)
— Nickel ore
— Manganese ore
— Cobalt
— Lithium brine / spodumene
— Phosphate rock
— Graphite (natural)
— Copper ore

MIDSTREAM · PROCESSING

Material Processing

— Aluminium metal
— Nickel sulphate
— Manganese sulphate
— Cobalt sulphate
— LiOH / Li₂CO₃
— Spherical coated graphite
— Copper metal
— Polyethylene / PP separator

MIDSTREAM · COMPONENTS

Battery Materials

— Aluminium foil (cathode)
— NMC / LFP powder
— LiPF₆ electrolyte salt
— Copper foil (anode)
— Separator membrane
— Cathode active material
— Cell production inputs

DOWNSTREAM

End-Use & Recycling

— Battery pack (EV & station)
— BMS & cooling systems
— Consumer electronics
— Stationary storage
— Second-life batteries
— Battery material recycling

Core Inputs Across the Li-ion Value Chain

Lithium
→ LiOH / Li₂CO₃ / LiPF
Active ion carrier in all Li-ion chemistries; electrolyte salt for cell conduction
Nickel
→ Nickel Sulphate
Cathode energy density driver; dominant in NMC high-nickel chemistries
Manganese

→ Manganese Sulphate / NMC Powder

Structural stability in cathode; growing role in LMFP and high-manganese cells

Cobalt

→ Cobalt Sulphate

Cathode stability and cycle life; industry trend is toward cobalt reduction

Graphite

→ Spherical Coated Graphite

Dominant anode material; both natural and synthetic forms in active use

Copper

→ Copper Foil

Anode current collector; also used in cell packaging and BMS wiring

Aluminium

→ Aluminium Foil / Metal

Cathode current collector; cell casing and structural battery pack components

Phosphorus

→ LFP Cathode Material

Core input for LFP chemistry — the fastest-growing cathode platform globally

Cathode & Anode Technology Shift (2020–2040)

Cathode Chemistry Share

LFP / LMFPRising — cost & safety advantage
 
High-Nickel NMCPeaking — range optimisation
 
High-ManganeseEmerging — cobalt-free path
 
Sodium-IonEarly stage — no lithium required
 

LFP cathodes are set to capture a growing share while manganese-rich chemistries, sodium-ion and lithium metal chemistries emerge as alternatives through 2040.

Anode Chemistry Share

Graphite (Natural)Established — dominant baseline
 
Si-Graphite (Low Si)Growing — improved energy density
 
Si-Graphite (Med/High)Scaling — premium applications
 
Lithium Metal / Hard CarbonNext-gen — solid-state ready
 

Silicon-graphite blends are scaling rapidly due to energy density gains. Lithium metal anodes paired with solid-state electrolytes represent the 2035+ frontier.

Li-Ion Battery Raw Material Demand in India by 2032 (kT)

Raw Material Role Conservative Business as Usual Best Case
Synthetic Graphite Anode material 72.3 101.3 115.8
Copper Current collector / wiring 63.2 88.5 101.1
Natural Graphite Anode material 31.0 43.4 49.6
Aluminium Current collector / casing 32.0 44.8 51.3
Lithium Carbonate Active cathode / electrolyte 42.3 59.2 67.7
Nickel Sulphate Cathode energy density 11.0 15.4 17.6
LiPF₆ Salt Electrolyte conductor 10.7 14.9 17.0
Cobalt Sulphate Cathode stability 1.4 1.9 2.2
Manganese Sulphate Cathode structure / LMFP 1.3 1.8 2.1

Key Minerals & Strategic Roles

Raw Material Role Conservative Business as Usual Best Case
Synthetic Graphite Anode material 72.3 101.3 115.8
Copper Current collector / wiring 63.2 88.5 101.1
Natural Graphite Anode material 31.0 43.4 49.6
Aluminium Current collector / casing 32.0 44.8 51.3
Lithium Carbonate Active cathode / electrolyte 42.3 59.2 67.7
Nickel Sulphate Cathode energy density 11.0 15.4 17.6
LiPF₆ Salt Electrolyte conductor 10.7 14.9 17.0
Cobalt Sulphate Cathode stability 1.4 1.9 2.2
Manganese Sulphate Cathode structure / LMFP 1.3 1.8 2.1
Karavan Perspective

India’s 220 GWh battery demand trajectory creates a structural import dependency across lithium, graphite, cobalt and nickel — all predominantly controlled by China and a small number of other jurisdictions. KABIL (Khanij Bidesh India Limited) has been mandated to secure overseas critical mineral assets, but commercial offtake structures and midstream processing capabilities remain the critical gap. Karavan Free Trade advises clients on mineral acquisition strategies, trading structures and supply chain entry across Africa, Latin America, Australia, and Asia to bridge India’s battery mineral deficit.