India’s critical mineral waste is no longer ordinary waste. Used EV batteries, e-waste and solar scrap can become India’s new urban mine for lithium, cobalt, graphite, nickel and rare earths.
New Delhi (ABC Live): India’s clean-energy push has created a new question. Where will India get the minerals needed for EVs, batteries, solar power, wind turbines, chips, telecom systems and defence tools?
Earlier, India’s energy risk came mainly from imported oil. Now, however, a new risk may come from lithium, cobalt, nickel, graphite, copper and rare earths.
These minerals are not minor inputs. Instead, they power EV batteries, grid storage, solar panels, magnets and many digital systems.
Therefore, India must treat critical mineral waste as a national asset. Used batteries, old phones, broken laptops, solar panels and industrial scrap are not only waste. In fact, they are also urban mines.
As a result, waste policy has now become mineral policy. Moreover, recycling has become part of India’s clean-energy plan.
Why This Issue Has Become Urgent
India wants clean mobility, green energy and an advanced industry. However, these goals need a steady mineral supply.
Mining can help. However, mining takes time. Overseas mineral assets can also help. Yet they carry costs, risks, and delays.
As a result, recycling gives India a faster path. It can recover minerals already present in products used domestically.
Moreover, recycling can reduce pollution and support the local industry simultaneously.
For this reason, the latest India-EU announcement matters.
On 5 May 2026, India and the European Union launched a joint call for proposals on EV battery recycling under the India-EU Trade and Technology Council Working Group-2 on Green and Clean Energy Technologies.
The call has a combined funding pool of €15.2 million, or nearly ₹169 crore. In addition, the deadline for proposals is 15 September 2026.
The plan will support advanced recycling, high material recovery, safe collection, digital tracking, mixed battery handling and pilot testing in India. Consequently, it can help India build a safer and stronger recycling model before battery waste grows sharply.
Source: PIB
Why ABC Live Links This With Critical Mineral Reforms
ABC Live earlier analysed India’s royalty reforms for critical mineral exploration. That report explained how India is trying to improve mineral security through better rules for exploration and investment.
However, exploration is only one side of the story. Recycling is the other side.
Exploration finds new minerals under the ground. By contrast, recycling recovers minerals already present in India’s economy.
Therefore, India needs both. In addition, India needs a clear policy link between exploration, imports and recycling.
Source: ABC Live — India’s Royalty Reforms for Critical Mineral Exploration
| Route | Role |
|---|---|
| Exploration | Finds new mineral deposits |
| Overseas sourcing | Secures foreign mineral supply |
| Recycling | Recovers minerals from used products |
| Efficient use | Reduces waste and material loss |
What Is Critical Mineral Waste?
Critical mineral waste means waste that contains minerals needed for clean energy, digital tools, defence systems and advanced industry.
In simple terms, it includes used products from which India can recover key minerals. Therefore, it should not be treated like ordinary waste.
| Waste Stream | Recoverable Minerals | Why It Matters |
|---|---|---|
| Spent EV batteries | Lithium, cobalt, nickel, graphite, manganese, copper | Supports future battery making |
| E-waste | Copper, gold, silver, palladium, cobalt, lithium, rare earths | Creates a large urban mining base |
| Solar PV waste | Silicon, silver, copper, aluminium, tellurium, indium | Helps recover value from old panels |
| Wind equipment waste | Rare earth magnets, neodymium, dysprosium, copper | Supports motors and clean power |
| Vehicle scrap | Copper, aluminium, rare earth magnets, battery materials | Links vehicle scrapping with mineral recovery |
| Industrial scrap | Nickel, vanadium, molybdenum, tungsten, cobalt | Helps heavy industry and defence supply |
The India-EU EV Battery Recycling Plan
The PIB release says the India-EU call aims to secure critical raw materials, speed up the circular economy and deepen India-EU ties.
Meanwhile, the EU will fund its part through Horizon Europe. India’s part will be supported by the Ministry of Heavy Industries.
In addition, the plan supports a joint pilot line in India. Therefore, the project can move beyond paper research and test real recycling models.
Source: PIB
Key Facts
| Item | Details |
|---|---|
| Initiative | Third coordinated India-EU call for proposals |
| Sector | EV battery recycling |
| Framework | India-EU TTC Working Group-2 |
| Funding Pool | €15.2 million / nearly ₹169 crore |
| EU Support | Horizon Europe |
| Indian Support | Ministry of Heavy Industries |
| Launch Date | 5 May 2026 |
| Deadline | 15 September 2026 |
| Main Aim | Secure critical raw materials |
| Pilot Plan | Joint India-EU pilot line in India |
Why Battery Recycling Matters Most Now
EV batteries contain high-value minerals. At the same time, they also carry safety risks if handled poorly.
For example, damaged lithium-ion batteries can catch fire. In addition, unsafe dismantling can harm workers and pollute soil and water.
Therefore, India must build a formal battery recycling chain before large volumes of used EV batteries enter the waste stream. Otherwise, India may face both mineral loss and public safety risk.
Battery Waste Can Recover
| Mineral | Main Use |
|---|---|
| Lithium | Battery cells and energy storage |
| Graphite | Battery anodes |
| Cobalt | Battery cathodes |
| Nickel | High-energy batteries |
| Copper | Wiring and power systems |
| Manganese | Battery chemistry support |
Data Box: Why the Timing Matters
The Ministry of Heavy Industries has noted that India’s EV battery recycling market was valued at about ₹1,380 crore to ₹3,510 crore in 2024-25.
Further, it may reach nearly ₹4,14,000 crore by 2035. It also cites a NITI Aayog estimate that India may have 128 GWh of recyclable battery capacity by 2030.
| Indicator | Data | Meaning |
|---|---|---|
| India-EU recycling fund | €15.2 million / ~₹169 crore | Supports pilots and joint work |
| EV battery recycling market, 2024-25 | ₹1,380 crore to ₹3,510 crore | Shows an early but rising market |
| Projected market by 2035 | ₹4,14,000 crore | Shows a large future business base |
| Recyclable battery capacity by 2030 | 128 GWh | Shows future recovery potential |
| Possible carbon benefit | Up to 90% lower emissions in some battery production chains | Makes recycling a climate tool too |
What this shows: India’s battery waste stream is still growing. Nevertheless, the future scale is large. Therefore, India must build capacity before the waste arrives in bulk. Otherwise, valuable minerals may leak into unsafe channels.
Why Critical Mineral Waste Recycling Is Important for India
1. It Can Reduce Import Dependence
India depends on foreign supply chains for many critical minerals and processed materials. Consequently, this creates risk.
Prices can rise. Export rules can change. War or trade conflict can also block supply.
Recycling cannot replace mining fully. Still, it can create a local supply of lithium, cobalt, nickel, graphite and rare metals.
As a result, it can act as a mineral security shield. Moreover, recycling can reduce pressure on foreign exchange. Therefore, it has both strategic and economic value.
2. It Can Support EV Manufacturing
India’s EV plan cannot succeed only through subsidies and charging stations. EVs need batteries. Similarly, batteries need minerals.
Therefore, India needs a strong battery material chain.
The India-EU plan helps because it focuses on high recovery rates, mixed battery chemistry, digital collection and safe second-life use.
In addition, battery recycling can support cell makers. As a result, India can build more value inside the country.
3. It Can Turn Waste Into an Urban Mine
Used batteries and old electronics contain valuable materials. Therefore, India can recover these minerals instead of losing them to unsafe scrap yards or low-value exports.
This shift is important. In fact, it changes the view of waste.
Waste becomes a source of national value. Moreover, urban mining is faster than fresh mining. Therefore, it can support India while new mines and overseas assets take shape.
4. It Can Strengthen the Critical Mineral Mission
India’s critical mineral plan needs three support systems: exploration, overseas sourcing and recycling.
Each route plays a different role. However, each must support the same goal: mineral security.
| Policy Pillar | How It Helps |
|---|---|
| Domestic exploration | Finds new mineral deposits |
| Overseas assets | Diversifies supply |
| Recycling | Recovers minerals already in use |
| Better design | Reduces material waste |
As ABC Live noted in its earlier report, royalty reform can help exploration. However, recycling can give quicker results because the minerals are already inside India’s economy.
Thus, recycling should become a formal pillar of the mission. In addition, it should be linked to EV, solar and electronics policy.
5. It Can Reduce Pollution
Poor waste handling creates serious risks. E-waste can release toxic metals. Batteries can cause fires. Solar panels may also contain harmful substances.
Therefore, India needs formal recycling. It must use safe collection, proper storage, trained workers and high-quality recovery methods.
Otherwise, the same waste that could support industry may damage public health. At the same time, better recycling can reduce pressure on fresh mining.
Consequently, it can cut land, water and carbon costs.
India’s Main Critical Mineral Waste Streams
| Waste Stream | Main Problem | Main Opportunity |
|---|---|---|
| EV batteries | Fire risk, mixed chemistry and tracking gaps | Recover lithium, cobalt, nickel and graphite |
| E-waste | Informal dismantling and poor sorting | Recover copper, gold, silver and rare metals |
| Solar PV waste | Rising future waste | Recover silicon, silver, copper and aluminium |
| Wind equipment | Hard magnet recovery | Recover rare earths |
| Industrial scrap | Weak collection chains | Recover nickel, vanadium and tungsten |
| Vehicle scrap | Poor material separation | Recover copper, aluminium and battery materials |
Overall, these streams show that critical mineral waste is spread across many sectors. Therefore, India needs a multi-sector recycling policy, not only an EV battery policy.
What the India-EU Plan Gets Right
It Links Recycling With Mineral Security
The PIB release clearly connects EV battery recycling with critical raw material security and the circular economy.
This matters because battery recycling is not only waste management. It is also industrial policy.
It Focuses on Real Technology
The plan covers high recovery, mixed chemistry handling and pilot-scale work.
This is important because battery recycling is not simple. Different batteries need different methods. Therefore, India needs tested technology, not only collection targets.
It Brings Digital Tracking Into the System
Digital collection and tracking can reduce leakage. Moreover, it can help producers, recyclers and regulators know where batteries go after use.
As a result, enforcement can become easier.
It Includes the Informal Sector
India already has a large scrap and waste network. Therefore, the informal sector cannot be ignored.
At the same time, workers must be trained, registered and protected. Otherwise, formal recycling may grow slowly while unsafe channels continue.
What India Must Fix
1. Funding Must Lead to Scale
The ₹169 crore initiative can support pilots. However, India’s future waste volume will need far more money, plants and trained workers.
Therefore, India should use this plan as a bridge to large investment. In addition, it should link the pilot with state industrial clusters.
2. India Must Not Export Low-Value Waste
India should not only collect used batteries and export black mass.
Instead, it should recover battery-grade lithium, cobalt, nickel and graphite inside India. Otherwise, India will lose the highest value in the recycling chain.
3. Second-Life Batteries Need Safety Rules
Second-life batteries can support storage and backup power. However, unsafe reuse can cause fires.
Therefore, India needs testing, safety labels and insurance rules. Moreover, clear standards will help investors and users trust second-life systems.
4. Battery Passports Are Needed
India should require digital battery records. This will help regulators track movement, safety status and end-of-life handling.
| Battery Data | Why It Matters |
|---|---|
| Chemistry | Helps choose recycling method |
| Maker | Fixes producer duty |
| Owner history | Tracks movement |
| Health status | Supports second-life use |
| Safety record | Reduces fire risk |
| Recycling site | Ensures compliance |
Consequently, battery passports can reduce leakage and improve safety.
National Security Angle
Critical minerals are not only clean-energy minerals. They are also security minerals.
| Sector | Minerals Needed | Why It Matters |
|---|---|---|
| EVs and batteries | Lithium, nickel, cobalt, graphite | Clean transport and storage |
| Defence electronics | Rare earths, tungsten, titanium, cobalt | Missiles, aircraft and sensors |
| Telecom | Copper, rare earths, gallium, germanium | Digital networks |
| Chips | Silicon, gallium, germanium, indium | Semiconductor ecosystem |
| Wind energy | Neodymium, dysprosium | Motors and turbines |
| Grid storage | Lithium, vanadium, nickel | Energy security |
As a result, recycling supports Atmanirbhar Bharat, Make in India, clean energy and defence readiness. Moreover, it reduces exposure to global supply shocks.
What India Should Do Now
1. Build a National Critical Mineral Waste Inventory
India should map how much lithium, cobalt, nickel, graphite, copper, silver and rare earth material exists in e-waste, EV batteries, solar waste, wind equipment and industrial scrap.
Without this map, policy will remain incomplete.
2. Create Recycling Clusters
India should build clusters near EV, electronics and clean-energy hubs. These may include Gujarat, Maharashtra, Tamil Nadu, Karnataka, Telangana, Haryana, Uttar Pradesh and Delhi-NCR.
This will reduce transport cost and improve feedstock supply.
3. Mandate Digital Tracking
Battery passports and QR-based tracking should become mandatory for EV batteries and large storage systems.
Consequently, producers and recyclers will be easier to monitor.
4. Move From Scrap to Refined Materials
India must recover materials at quality levels suitable for batteries and electronics.
Otherwise, it will gain only low-value recycling margins.
5. Bring Informal Recyclers Into the Formal System
India should register and train waste workers. At the same time, it must stop unsafe dismantling.
Moreover, formal inclusion can protect workers and improve recovery.
6. Link Recycling With Government Buying
Government EV fleets, buses and storage projects should include end-of-life recycling contracts.
This will create assured demand for formal recyclers. In turn, it will help recycling plants secure feedstock.
ABC Live Ratio Box
| Question | Answer |
|---|---|
| Core Issue | Can critical mineral waste recycling reduce India’s mineral dependence? |
| Short Answer | Yes, if India builds safe and high-recovery recycling systems. |
| Policy Ratio | Used batteries and e-waste should be treated as mineral assets. |
| Main Risk | Without tracking and refining, India may lose minerals to unsafe scrap chains. |
| Strategic Test | India must turn waste into battery-grade and industry-grade material. |
Editorial Conclusion: India Must Build a Circular Mineral Economy
The India-EU EV battery recycling plan comes at the right time.
It shows that future clean-energy power will not depend only on EV sales, solar parks and battery factories. Rather, it will also depend on who controls the minerals inside those technologies.
India cannot replace oil dependence with lithium, cobalt, graphite or rare-earth dependence. Therefore, critical mineral waste recycling must become a core part of India’s industrial policy.
The choice is clear. India can let used batteries, e-waste and solar scrap become pollution. Alternatively, it can recover them as strategic minerals.
Finally, if India acts early, its next mineral revolution may not begin only in a mine. It may also begin in a recycling plant, where discarded batteries and electronics become the raw material of India’s clean-energy future.

















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