Why in News India’s EV sector recorded a landmark milestone — from 1.74 lakh EVs in FY2019-20 to 19.68 lakh EVs in FY2024-25, an approximately 11-fold surge in five years. Backed by the PM E-DRIVE scheme, PLI for ACC batteries, and a growing charging infrastructure, India is positioning itself as a global electric mobility hub while tackling its 85%+ oil import dependence.

Why Electric Mobility Matters for India

Challenge EV Relevance
Oil import dependence India imports 85%+ of crude oil — EVs reduce forex outflow
Transport GHG emissions Transport = ~14% of India’s total GHG emissions
Urban air pollution Vehicular pollution = primary cause in Delhi NCR, Mumbai
Energy security Shift from imported fossil fuel to domestically generated electricity
Critical mineral leverage India has lithium reserves (J&K) + cobalt, graphite potential

Types of Electric Vehicles

Type Full Form How It Works Range
BEV Battery Electric Vehicle 100% electric; plugged in to charge 200–600 km
HEV Hybrid Electric Vehicle Petrol + electric; self-charges via regenerative braking No external charging needed
PHEV Plug-in Hybrid EV Petrol + electric; can be charged externally 50–80 km electric range
FCEV Fuel Cell Electric Vehicle Hydrogen fuel cell generates electricity 500+ km; zero emission

EV Growth Trajectory in India

Year EVs Sold (approx.)
FY2019-20 1.74 lakh
FY2021-22 4.72 lakh
FY2022-23 10.5 lakh
FY2023-24 16.7 lakh
FY2024-25 19.68 lakh

Dominant segments: Two-wheelers (largest share); Three-wheelers (fastest growing in urban last-mile); Four-wheelers (rising with Tata Nexon EV, MG Windsor, Mahindra BE)

Key Government Schemes

PM E-DRIVE (2024 onwards)

  • Budget: ₹10,900 crore
  • Coverage: Two-wheelers, three-wheelers, electric ambulances, electric buses
  • Successor to FAME II; demand-side incentive scheme
  • Focus on public transport electrification over private vehicles

FAME II (Faster Adoption and Manufacturing of EVs — Phase II)

  • Budget: ₹10,000 crore | Period: 2019–March 2024
  • Subsidised 10 lakh+ EVs; 7,432 electric buses; 2,877 charging stations
  • Ended March 2024; succeeded by PM E-DRIVE

PM e-Bus Sewa

  • Target: 38,000+ electric buses across cities
  • Payment Security Mechanism (PSM): ₹3,435 crore — ensures operators are paid even if ridership lags
  • Covers state transport undertakings (STUs) and city bus services

PLI — Advanced Automotive Technology (PLI-Auto)

  • Budget: ₹25,938 crore
  • Incentivises manufacturing of advanced automotive components including EV powertrains

PLI — ACC Battery Storage

  • Budget: ₹18,100 crore
  • Target: 50 GWh domestic battery manufacturing capacity
  • ACC (Advanced Chemistry Cell): Next-generation battery cells — key to reducing EV cost

Battery Technology Landscape

Battery Type Chemistry Status Key Advantage
Lithium-ion (Li-ion) LiCoO₂ / NMC Dominant today High energy density
LFP (Lithium Iron Phosphate) LiFePO₄ Growing fast Safer, longer cycle life, cheaper
Solid-State Battery Solid electrolyte Future (2028+) Higher safety, greater energy density
Sodium-ion Na-ion Emerging Avoids lithium dependency

Charging Infrastructure — Status and Gap

Metric Data
Public charging stations (Dec 2024) 12,146
Target by 2030 3 lakh
Gap ~2.88 lakh stations needed in 6 years
Fast chargers Limited to highways and metro cities
Home charging Dominant mode but inaccessible in apartments

Challenges:

  • Range anxiety: Fear of running out of charge before finding a charging point
  • Grid reliability: EV charging adds peak load; requires smart grid management
  • Interoperability: Multiple connector standards (CCS2, CHAdeMO, GB/T) — India standardising on CCS2 for DC fast charging

Battery Recycling and EPR

Extended Producer Responsibility (EPR) for Batteries (2022 Rules):

  • EV manufacturers must take back and recycle batteries at end of life
  • Targets: 70% collection by 2026; 90% by 2030
  • Critical for recovering lithium, cobalt, nickel, manganese — scarce and import-dependent

Critical Minerals — India’s Strategic Challenge

Mineral Use in EV India’s Position
Lithium Cathode (Li-ion) Reserves found in J&K (Salal-Haimana); imports from Australia, Chile
Cobalt Cathode (NMC) Largely imported; DRC dominates supply
Nickel Cathode (NMC) Imported; Indonesia is major supplier
Graphite Anode Imported from China (~70% global supply)
Manganese Cathode (LFP, NMC) India has some reserves

UPSC Angle

  • GS3 — Economy: PLI schemes for EVs, import substitution, manufacturing competitiveness, energy security.
  • GS3 — Environment: India’s climate NDC — EVs reduce transport sector emissions; battery waste management.
  • GS3 — Science & Technology: Battery chemistry, EV types, ACC technology, critical minerals.
  • GS2 — Governance: Policy evolution from FAME I → FAME II → PM E-DRIVE; subsidy design.
  • Mains Q: “India’s EV transition is necessary but requires solving the critical mineral dependency problem. Analyse.”

Prelims-ready facts:

  • PM E-DRIVE budget: ₹10,900 crore
  • PLI-Auto: ₹25,938 crore | PLI-ACC: ₹18,100 crore (50 GWh target)
  • FAME II: ₹10,000 crore, ended March 2024
  • Public charging stations (Dec 2024): 12,146; target 3 lakh by 2030
  • EV sales FY2024-25: 19.68 lakh (~11x growth in 5 years from FY2019-20)
  • India’s oil import dependence: 85%+; transport = 14% of GHG emissions

Facts Corner

  • EV growth: 1.74 lakh (FY2019-20) → 19.68 lakh (FY2024-25) — ~11x in 5 years
  • PM E-DRIVE: ₹10,900 crore — successor to FAME II (₹10,000 crore, ended March 2024)
  • PLI-Auto: ₹25,938 crore | PLI-ACC Battery: ₹18,100 crore (50 GWh target)
  • PM e-Bus Sewa: 38,000+ electric buses; ₹3,435 crore Payment Security Mechanism
  • Charging stations: 12,146 (Dec 2024); target 3 lakh by 2030
  • India’s oil import: 85%+ of crude oil imported; transport = ~14% of GHG emissions
  • ACC: Advanced Chemistry Cell — key to domestic battery manufacturing
  • EPR for batteries: 70% collection target by 2026; 90% by 2030
  • Lithium in India: Reserves found in Salal-Haimana, Reasi district, J&K
  • India’s EV standard: CCS2 connector standardised for DC fast charging