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Subject: EVs

  • Govt extends PM E-DRIVE scheme timeline, sop halved

    Why in the news?

    The Centre has extended the PM Electric Drive Revolution in Innovative Vehicle Enhancement (PM E-DRIVE) Scheme for electric two wheelers till 31 March 2028 and halved the per unit incentive to Rs 2,500 per kilowatt hour from Rs 5,000 earlier. The move signals a planned tapering of demand support as electric two wheeler costs fall and the market matures.

    What is the PM E-DRIVE Scheme?

    1. What it is: PM E-DRIVE is the central scheme providing demand incentives and support infrastructure for electric mobility, administered by the Ministry of Heavy Industries. It succeeds the earlier FAME programme as the main demand side push for electric vehicles.
    2. Outlay and duration: It carries an outlay of Rs 11,900 crore and is implemented from 1 April 2024 till 31 March 2028.
    3. Two wheeler support: For electric two wheelers, the scheme sets a total fund support of Rs 2,767 crore from the Ministry of Heavy Industries.

    What has changed?

    1. Timeline extended: The electric two wheeler segment has been extended till 31 March 2028.
    2. Incentive halved: The per unit incentive is cut to Rs 2,500 per kilowatt hour from Rs 5,000 per kilowatt hour earlier.
    3. Per vehicle cap lowered: The incentive is capped at Rs 5,000 per vehicle, down from Rs 10,000 per vehicle in FY 2024-25.
    4. Eligibility window: Registered electric two wheelers can avail the Rs 2,500 per kilowatt hour incentive for the period between 1 April 2025 and 31 March 2028.
    5. Price ceiling: The maximum ex factory price for an electric two wheeler to qualify is Rs 1.5 lakh.
    6. Lower of two limits: The incentive is limited to the specified cap or 15 per cent of the ex factory price of the electric two or three wheeler, whichever is lower, and is subject to periodic review as vehicle costs fall.

    Back2Basics: PM E-DRIVE Scheme

    1. Ministry: Ministry of Heavy Industries.
    2. Launch year: 2024, implemented from 1 April 2024 to 31 March 2028.
    3. Outlay: Rs 11,900 crore.
    4. Aim: Accelerate adoption of electric vehicles and build charging and testing infrastructure.
    5. Beneficiaries: Buyers of electric two, three, and heavier vehicles, state transport undertakings, and charging infrastructure providers.

    Government Initiatives for Electric Mobility

    1. FAME India (Phase I and II): Earlier demand incentive scheme for electric and hybrid vehicles.
    2. PLI Auto Scheme: Production Linked Incentive for advanced automotive technology products.
    3. PLI ACC Battery Scheme: Incentive for domestic advanced chemistry cell battery manufacturing.
    4. Vehicle Scrappage Policy: Phasing out unfit vehicles to spur cleaner replacements.
    5. e-AMRIT portal: A one stop information platform on electric vehicles.

    Key Facts about PM E-DRIVE

    1. Successor scheme: PM E-DRIVE succeeds FAME II as the flagship electric mobility scheme.
    2. Incentive metric: Support is calculated per kilowatt hour of battery capacity.
    3. Segment coverage: Covers electric two wheelers, three wheelers, buses, trucks, and ambulances, plus charging infrastructure.

    Challenges to Electric Vehicle Adoption

    1. Charging infrastructure gap: Public charging networks remain thin outside major cities.
    2. Battery import dependence: Reliance on imported cells and critical minerals raises cost and supply risk.
    3. High upfront cost: Purchase prices stay above comparable petrol vehicles despite incentives.
    4. Range and grid strain: Range anxiety and grid readiness limit uptake in some segments.
    5. Recycling burden: End of life battery disposal needs robust recycling systems.
    6. Incentive dependence: Demand remains sensitive to the level and continuity of subsidies.

    “[2023, GS3, 15 marks] The adoption of electric vehicles is rapidly growing worldwide. How do electric vehicles contribute to reducing carbon emissions and what are the key benefits they offer compared to traditional combustion engine vehicles?”

    [2025] With reference to India, consider the following pairs: Organization Union Ministry
    1. The National Automotive BoardMinistry of Commerce and Industry
    2. The Coir BoardMinistry of Heavy Industries
    3. The National Centre for Trade
    InformationMinistry of Micro, Small and Medium Enterprises
    How many of the above pairs are correctly matched?

    [A] Only one

    [B] Only two

    [C] All the three

    [D] None

  • The missing ‘reuse’ principle in India’s EV transition journey

    Why in the News?

    India’s electric mobility transition is gathering momentum as adoption rises and circular economy principles enter industrial policy. India’s policy has advanced the recycling tier of circularity through scrappage but neglected the higher priority reuse tier, exposing a gap where structurally sound vehicles are scrapped rather than retrofitted.

    What is the circular economy hierarchy?

    1. Definition: The circular economy is built on a hierarchy that prioritises reducing resource consumption, then reusing existing assets, and only recycling materials once products have genuinely reached the end of their useful life.
    2. Reuse versus recycle: Recycling recovers materials after a product becomes waste, while reuse preserves functionality before the asset becomes waste. Reuse sits higher in the hierarchy.

    What is vehicle retrofitment?

    1. What it is: Retrofitment replaces the internal combustion engine, fuel system, and related components of an existing vehicle with an electric powertrain, while retaining the core vehicle structure.
    2. Why it counts as reuse: By keeping a structurally sound chassis and body in service, it preserves and extends the value already embedded in the asset rather than recovering value only after the vehicle becomes waste.

    How far has India progressed on recycling?

    1. Rules framework: The Motor Vehicles (Registration and Functions of Vehicle Scrapping Facility) Rules, 2021, and the Environment Protection (End of Life Vehicles) Rules, 2025, strengthened responsible vehicle recycling and material recovery.
    2. Facilities on ground: As of January 2026, 129 Registered Vehicle Scrapping Facilities were operational across 21 States and Union Territories.
    3. Vehicles processed: About 4.3 lakh vehicles had been processed through these facilities, building a formal ecosystem for recycling and resource recovery.

    Why does retrofitment matter?

    1. Per vehicle waste: A single two wheeler generates approximately 90 kilograms of recyclable material and 18 kilograms of landfill waste when scrapped.
    2. Fleet scale burden: Scaled across India’s fleet of about 30 crore vehicles, a scrap first approach would generate 2.7 crore tonnes of recyclable material and 0.54 crore tonnes of landfill waste.
    3. SDG alignment: Retrofitment supports United Nations Sustainable Development Goal 12 on responsible consumption and production by reducing material demand and waste.
    4. Old but sound: A vehicle can be old yet retain a strong chassis, intact body, and years of service life, making retrofitting more circular than scrapping.

    What is the three pathway vehicle hierarchy?

    1. First pathway, continued use: Vehicles that remain safe, compliant, and efficient should keep operating with routine maintenance, since age alone should not trigger removal.
    2. Second pathway, retrofitment: Vehicles with sound structure but ageing or polluting powertrains can be converted to electric through certified processes, extending life while cutting emissions.
    3. Third pathway, scrappage: Vehicles with compromised safety, severe structural degradation, accident damage, or significant corrosion proceed to scrappage and recycling.

    The missing middle path

    1. Not a competition: Retrofitment is not a competing strategy to scrappage but the missing middle path that policy has not focused on yet.
    2. Condition over age: Treating every ageing vehicle as a disposal candidate overlooks the chance to extend asset life while accelerating electrification.
    3. Public acceptance: A condition assessed transition would make scrappage more acceptable, as citizens would see that older vehicles are assessed for transformation rather than dismissed indiscriminately.

    What are the challenges to a reuse led EV transition?

    1. Certification gap: Retrofitment needs robust certified conversion technology and testing standards to ensure safety.
    2. Cost and financing: Conversion costs can rival buying a new two wheeler, limiting uptake without incentives.
    3. Battery supply dependence: Electric powertrains depend on imported cells and critical minerals, a supply chain vulnerability.
    4. Policy bias toward scrappage: Existing incentives favour scrappage and new vehicle purchase, leaving reuse unsupported.
    5. Skilled workforce shortage: A trained network of certified retrofit workshops is largely absent at scale.
    6. End of life battery waste: Retrofitted vehicles eventually generate battery waste requiring recycling infrastructure.

    Conclusion

    India’s transport transition is a question of resource efficiency, not a contest between new electric vehicles and older ones. Adopting an age assessed pathway that distinguishes continued use, retrofitment, and scrappage would align the transition with genuine circular economy principles. This would prevent waste before it is created and confine recycling to vehicles that have truly reached the end of their useful life.

    What is Circular Economy? (Foundational Context)

    1. About: A circular economy keeps materials and products in use for as long as possible, extracting maximum value before recovery and regeneration, in contrast to the linear take, make, dispose model.
    2. Rationale: It exists to cut resource extraction, greenhouse gas emissions, and waste while sustaining economic value.
    3. Named hierarchy: It rests on reduce, reuse, and recycle in that order of priority, with reduce and reuse ranked above recycling.

    Key Concerns Regarding the Circular Economy

    1. Recycling bias: Policy attention concentrates on recycling while the higher value reduce and reuse tiers are neglected.
    2. Informal sector dominance: Much recycling occurs in the informal sector with poor environmental and safety standards.
    3. Extended producer responsibility gaps: Enforcement of producer take back obligations remains weak.
    4. Data deficits: Weak material flow data limits measurement of circularity outcomes.

    Back2Basics: Sustainable Development Goal 12

    1. What it is: SDG 12 is the goal on responsible consumption and production within the 2030 Agenda for Sustainable Development.
    2. Adopted: It was adopted by United Nations member states in 2015.
    3. Focus: It targets sustainable consumption patterns, resource efficiency, and reduced waste generation.
    4. Relevance: Vehicle retrofitment directly advances its call for better resource efficiency and reduced waste.

    Government Initiatives for EVs and Circularity

    1. PM E-DRIVE Scheme: Provides demand incentives for electric two and three wheelers and other electric vehicles.
    2. FAME India Scheme: Faster Adoption and Manufacturing of Electric Vehicles, supporting demand and charging infrastructure.
    3. Vehicle Scrappage Policy: Encourages phasing out of unfit and polluting vehicles through registered scrapping facilities.
    4. Battery Waste Management Rules, 2022: Mandate extended producer responsibility for battery recycling.
    5. PLI schemes: Production Linked Incentives for advanced chemistry cell batteries and automobiles.

    Way Forward

    1. National vehicle hierarchy: Adopt a framework treating vehicles by condition rather than age alone.
    2. Certified retrofit ecosystem: Standardise conversion technology and expand certified workshops.
    3. Incentivise reuse: Extend fiscal support to retrofitment on par with scrappage and new purchase.
    4. Strengthen battery circularity: Build reverse logistics and recycling for end of life batteries.
    5. Skilling: Train technicians for certified electric powertrain conversion.

    “[2025] Consider the following statements:

    Statement I: Circular economy reduces the emissions of greenhouse gases.

    Statement II: Circular economy reduces the use of raw materials as inputs. Statement III: Circular economy reduces wastage in the production process.

    Which one of the following is correct in respect of the above statements?

    (a) Both Statement II and Statement III are correct and both of them explain Statement I

    (b) Both Statement I and Statement II are correct and Statement I explains Statement II

    (c) Only one of the Statements II and III is correct and that explains Statement I

    (d) Neither Statement II nor Statement III is correct

    Question (2023, GS3): “The adoption of electric vehicles is rapidly growing worldwide. How do electric vehicles contribute to reducing carbon emissions and what are the key benefits they offer compared to traditional combustion engine vehicles?

  • Advancing Electrolyte Engineering for Durable and Affordable Aqueous Batteries

    Why in the news?

    Scientists at the Institute of Nano Science and Technology (INST), Mohali, under the Department of Science and Technology (DST), have developed a novel electrolyte additive (BDIM) that significantly improves the performance and lifespan of Aqueous Zinc-Ion Batteries (AZIBs).

    Key Highlights

    • AZIBs are emerging as safer, cheaper, and more sustainable alternatives to lithium-ion batteries.
    • Major challenges:
      • Zinc dendrite formation
      • Hydrogen Evolution Reaction (HER)
      • Corrosion of zinc anode
      • Poor cycling stability
    • Researchers developed BDIM (1,3-bis(1,3-dicarboxypropyl)-1H-imidazole-3-ium chloride) as an electrolyte additive.
    • BDIM selectively adsorbs on the zinc surface and occupies the Inner Helmholtz Plane (IHP).
    • It displaces water molecules, thereby:
      • Suppressing hydrogen evolution
      • Reducing corrosion
      • Preventing dendrite growth
      • Enhancing battery life and safety
    • Researchers used: Ultramicroelectrode (UME) and Fast-Scan Cyclic Voltammetry (FSCV)
      to study zinc deposition mechanisms.

    Significance

    • Extends battery lifespan without costly material redesign.
    • Improves safety and reliability of rechargeable batteries.
    • Supports large-scale renewable energy and grid-storage applications.
    • Can reduce maintenance costs of energy-storage infrastructure.

    Prelims Facts

    • AZIB Electrolyte: Water-based, making it non-flammable and safer than lithium-ion batteries.
    • Inner Helmholtz Plane (IHP): Region near the electrode surface where electrochemical reactions occur.
    • Hydrogen Evolution Reaction (HER): Undesirable side reaction that reduces battery efficiency.
  • Consider the following types of vehicles

    Consider the following types of vehicles:
    I. Full battery electric vehicles
    II. Hydrogen fuel cell vehicles
    III. Fuel cell electric hybrid vehicles
    How many of the above are considered as alternative (powertrain) vehicles?

  • In the context of electric vehicle batteries, consider the following elements

    In the context of electric vehicle batteries, consider the following elements:
    I. Cobalt
    II. Graphite
    III. Lithium
    IV. Nickel
    How many of the above usually make up battery cathodes?